Lab analysis of urine specimen by dipstick without microscope (non-automated) [HCPCS 81002]

A urinalysis is performed by dip stick or tablet reagent for bilirubin, glucose, hemoglobin, ketones, leukocytes, nitrite, pH, protein, specific gravity, and/or urobilinogen. Urinalysis can quickly screen for conditions that do not immediately produce symptoms such as diabetes mellitus, kidney disease, or urinary tract infection. A dip stick allows qualitative and semi-quantitative analysis using a paper or plastic stick with color strips for each agent being tested. The stick is dipped in the urine specimen and the color strips are then compared to a color chart to determine the presence or absence and/or a rough estimate of the concentration of each agent tested. Reagent tablets use an absorbent mat with a few drops of urine placed on the mat followed by a reagent tablet. A drop of distilled, deionized water is then placed on the tablet and the color change is observed. Bilirubin is a byproduct of the breakdown of red blood cells by the liver. Normally bilirubin is excreted through the bowel, but in patients with liver disease, bilirubin is filtered by the kidneys and excreted in the urine. Glucose is a sugar that is normally filtered by the glomerulus and excreted only in small quantities in the urine. Excess sugar in the urine (glycosuria) is indicative of diabetes mellitus. The peroxidase activity of erythrocytes is used to detect hemoglobin in the urine which may be indicative of hematuria, myoglobinuria, or hemoglobinuria. Ketones in the urine are the result of diabetic ketoacidosis or calorie deprivation (starvation). A leukocyte esterase test identifies the presence of white blood cells in the urine. The presence of nitrites in the urine is indicative of bacteria. The pH identifies the acid-base levels in the urine. The presence of excessive amounts of protein (proteinuria) may be indicative of nephrotic syndrome. Specific gravity measures urine density and is indicative of the kidneys' ability to concentrate and dilute urine. Following dip stick or reagent testing, the urine sample may be examined under a microscope. The urine sample is placed in a test tube and centrifuged. The sediment is resuspended. A drop of the resuspended sediment is then placed on a glass slide, cover-slipped, and examined under a microscope for crystals, casts, squamous cells, blood (white, red) cells, and bacteria.

Lab analysis to evaluate kidney function via a blood test panel [HCPCS 80069]

A renal panel is obtained for routine health screening and to monitor conditions such as diabetes, renal disease, liver disease, nutritional disorders, thyroid and parathyroid function, and interventional drug therapies. Tests in a renal panel include glucose or blood sugar; electrolytes and minerals as sodium, potassium, chloride, total calcium, and phosphorus; the waste products blood urea nitrogen (BUN) and creatinine; a protein called albumin; and bicarbonate (carbon dioxide, CO2) responsible for acid base balance. Glucose is the main source of energy for the body and is regulated by insulin. High levels may indicate diabetes or impaired kidney function. Sodium is found primarily outside cells and maintains water balance in the tissues, as well as nerve and muscle function. Potassium is primarily found inside cells and affects heart rhythm, cell metabolism, and muscle function. Chloride moves freely in and out of cells to regulate fluid levels and help maintain electrical neutrality. Calcium is needed to support metabolic processes, heart and nerve function, muscle contraction, and blood clotting. Phosphorus is essential for energy production, nerve and muscle function, and bone growth. Blood urea nitrogen (BUN) and creatinine are waste products from tissue breakdown that circulate in the blood and are filtered out by the kidneys. Albumin, a protein made by the liver, helps to nourish tissue and transport hormones, vitamins, drugs, and calcium throughout the body. Bicarbonate (HCO3) may also be referred to as carbon dioxide (CO2) maintains body pH or the acid/base balance. A specimen is obtained by separately reportable venipuncture. Serum/plasma is tested using quantitative chemiluminescent immunoassay or quantitative enzyme-linked immunosorbent assay.

Lab analysis to evaluate the clotting time in plasma specimen and monitor drug effectiveness [HCPCS 85610]

Prothrombin time (PT) measures how long it takes for blood to clot. Prothrombin, also called factor II, is one of the clotting factors made by the liver and adequate levels of vitamin K are needed for the liver to produce sufficient prothrombin. Prothrombin time is used to help identify the cause of abnormal bleeding or bruising; to check whether blood thinning medication, such as warfarin (Coumadin), is working; to check for low levels of blood clotting factors I, II, V, VII, and X; to check for low levels of vitamin K; to check liver function, to see how quickly the body is using up its clotting factors. The test is performed using electromagnetic mechanical clot detection. If prothrombin time is elevated and the patient is not on a blood thinning medication, a second prothrombin time using substitution plasma fractions, also referred to as a prothrombin time mixing study, may be performed. This is performed by mixing patient plasma with normal plasma using a 1:1 mix. The mixture is incubated and the clotting time is again measured. If the result does not correct, it may be indicative that the patient has an inhibitor, such as lupus anticoagulant. If the result does correct, the patient may have a coagulation factor deficiency.

Lab analysis to identify the thyroid stimulating hormone (tsh) in blood specimen [HCPCS 84443]

A blood test is performed to determine levels of thyroid stimulating hormone (TSH). TSH is produced in the pituitary and helps to regulate two other thyroid hormones, triiodothyronine (T3) and thyroxin (T4), which in turn help regulate the body's metabolic processes. TSH levels are tested to determine whether the thyroid is functioning properly. Patients with symptoms of weight gain, tiredness, dry skin, constipation, or menstrual irregularities may have an underactive thyroid (hypothyroidism). Patients with symptoms of weight loss, rapid heart rate, nervousness, diarrhea, feeling of being too hot, or menstrual irregularities may have an overactive thyroid (hypothyroidism). TSH levels are also periodically tested in individuals on thyroid medications. The test is performed by electrochemiluminescent immunoassay.

Lab analysis to identify total thyroxine (thyroid chemical) function in serum specimen for screening [HCPCS 84436]

A blood sample is obtained and levels of total thyroxin (84436), thyroxine requiring elution as for testing in neonates (84437), or free thyroxine (84439) are evaluated. Thyroxine, also referred to as T4, is tested to determine whether the thyroid is functioning properly and is used to aid in the diagnosis of overactive (hyperthyroidism) or underactive (hypothyroidism) thyroid function. In 84436, total thyroxine levels are evaluated. Total thyroxine measures the total amount of both bound and unbound (free) thyroxine in the blood. All thyroxine tests use electrochemiluminescent immunoassay methodology. *

Lab analysis to measure blood count (hemoglobin) [HCPCS 85018]

A blood test is performed to determine hemoglobin (Hgb) which is a measurement of the amount of oxygen-carrying protein in the blood. Hgb is measured to determine the severity of anemia or polycythemia, monitor response to treatment for these conditions, or determine the need for blood transfusion. A blood sample is collected by separately reportable venipuncture or finger, heel, or ear stick. The sample may be sent to the lab or a rapid testing system may be used in the physician's office. Systems consist of a portable photometer and pipettes that contain reagent. The pipette is used to collect the blood sample from a capillary stick and the blood is automatically mixed with the reagent in the pipette. The photometer is then used to read the result which is displayed on the photometer device.

Lab analysis to measure coagulation in plasma or whole blood specimen [HCPCS 85730]

This test may also be referred to as an activated PTT or aPTT. PTT may be performed to diagnose the cause of bleeding or as a screening test prior to surgery to rule-out coagulation defects. A silica and synthetic phospholipid PTT reagent is mixed with the patient plasma. The silica provides a negatively-charged particulate surface that activates the contact pathway for coagulation. Clot formation is initiated by adding calcium chloride to the mixture. Clotting time is measured photo-optically.

Lab analysis to measure complete blood cell count (red cells, white blood cell, and platelets), automated test [HCPCS 85027]

An automated complete blood count (CBC) is performed with or without automated differential white blood cell (WBC) count. A CBC is used as a screening test to evaluate overall health and symptoms such as fatigue, bruising, bleeding, and inflammation, or to help diagnose infection. A CBC includes measurement of hemoglobin (Hgb) and hematocrit (Hct), red blood cell (RBC) count, white blood cell (WBC) count with or without differential, and platelet count. Hgb measures the amount of oxygen-carrying protein in the blood. Hct refers to the volume of red blood cells (erythrocytes) in a given volume of blood and is usually expressed as a percentage of total blood volume. RBC count is the number of red blood cells (erythrocytes) in a specific volume of blood. WBC count is the number of white blood cells (leukocytes) in a specific volume of blood. There are five types of WBCs: neutrophils, eosinophils, basophils, monocytes, and lymphocytes. If a differential is performed, each of the five types is counted separately. Platelet count is the number of platelets (thrombocytes) in the blood. Platelets are responsible for blood clotting. The CBC is performed with an automated blood cell counting instrument that can also be programmed to provide an automated WBC differential count.

Lab analysis to measure complete blood cell count (red cells, white blood cell, and platelets), automated test and automated differential white blood cell count [HCPCS 85025]

An automated complete blood count (CBC) is performed with or without automated differential white blood cell (WBC) count. A CBC is used as a screening test to evaluate overall health and symptoms such as fatigue, bruising, bleeding, and inflammation, or to help diagnose infection. A CBC includes measurement of hemoglobin (Hgb) and hematocrit (Hct), red blood cell (RBC) count, white blood cell (WBC) count with or without differential, and platelet count. Hgb measures the amount of oxygen-carrying protein in the blood. Hct refers to the volume of red blood cells (erythrocytes) in a given volume of blood and is usually expressed as a percentage of total blood volume. RBC count is the number of red blood cells (erythrocytes) in a specific volume of blood. WBC count is the number of white blood cells (leukocytes) in a specific volume of blood. There are five types of WBCs: neutrophils, eosinophils, basophils, monocytes, and lymphocytes. If a differential is performed, each of the five types is counted separately. Platelet count is the number of platelets (thrombocytes) in the blood. Platelets are responsible for blood clotting. The CBC is performed with an automated blood cell counting instrument that can also be programmed to provide an automated WBC differential count.

Lab analysis to measure red blood cell sedimentation rate to detect inflammation (automated) [HCPCS 85652]

Lab analysis to measure red blood count (automated test) [HCPCS 85045]

An automated reticulocyte count is performed. Reticulocytes are new red blood cells (RBCs) that circulate in the peripheral blood for 1-2 days before losing sufficient RNA to become mature RBCs. A reticulocyte count may be performed when a blood test shows decreased RBCs and/or decreased hemoglobin or hematocrit measurements. The test can help determine if the bone marrow is responding to the body's need for RBCs. Indications for monitoring reticulocytes include vitamin B12 or folate deficiency, kidney disease, chemotherapy, bone marrow transplant, and treatment with erythropoietin or darbepoetin. A blood sample is obtained. A reticulocyte count is performed with an automated blood cell counting instrument. Automated reticulocyte count performed alone is reported. When automated reticulocyte count is performed with direct measurement of one or more cellular parameters, such as reticulocyte hemoglobin content (CHr), immature reticulocyte fraction (IRF), mean reticulocyte volume (MRV), or RNA content is reported. CHr measures the amount of hemoglobin in reticulocytes, which is an indicator of iron utilization for RBC production, and is used to diagnosis iron deficiency. IRF is used to determine whether reticulocytes are being released prematurely and to quantify the proportion of immature reticulocytes. Premature release occurs during periods of high demand for RBCs in chronic kidney disease, following chemotherapy or bone marrow transplant, or in patients with AIDs or malignant disease, as well as other conditions. IRF is calculated as a ratio of immature reticulocytes to the total number of reticulocytes (both immature and mature). MRV looks at the total volume of reticulocytes compared to total red blood cells and is used to evaluate iron utilization. RNA content is evaluated to determine the maturity of circulating reticulocytes.

Lab analysis to measure the ammonia level [HCPCS 82140]

A blood test is performed to measure ammonia levels. Ammonia is a by product of protein metabolism and is normally converted to urea by the liver and excreted via the kidney. Elevated ammonia levels may result from cirrhosis or hepatitis. Symptoms of elevated ammonia levels are confusion, tremors, excessive sleepiness, or coma. Testing may be performed in disease states such as Reyes syndrome or liver failure. A blood sample is obtained by a separately reportable venipuncture or arterial access line. The specimen is then tested using colorimetry.

Lab analysis to measure the amount of albumin, total and direct bilirubin, alkaline phosphatase, total protein, alanine amino transferase, and asparate amino transferase in blood specimen to evaluate liver function [HCPCS 800

A hepatic function panel is obtained to diagnose acute and chronic liver disease, inflammation, or scarring and to monitor hepatic function while taking certain medications. Tests in a hepatic function panel should include albumin (ALB), total and direct bilirubin, alkaline phosphatase (ALP), total protein (TP), alanine aminotransferase (ALT, SGPT), and aspartate aminotransferase (AST, SGOT). Albumin (ALB) is a protein made by the liver that helps to nourish tissue and transport hormones, vitamins, drugs, and calcium throughout the body. Bilirubin, a waste product from the breakdown of red blood cells, is removed by the liver in a conjugated state. Bilirubin is measured as total (all the bilirubin circulating in the blood) and direct (the conjugated amount only) to determine how well the liver is performing. Alkaline phosphatase (ALP) is an enzyme produced by the liver and other organs of the body. In the liver, cells along the bile duct produce ALP. Blockage of these ducts can cause elevated levels of ALP, whereas cirrhosis, cancer, and toxic drugs will decrease ALP levels. Circulating blood proteins include albumin (60% of total) and globulins (40% of total). By measuring total protein (TP) and albumin (ALB), the albumin/globulin (A/G) ratio can be determined and monitored. TP may decrease with malnutrition, congestive heart failure, hepatic disease, and renal disease and increase with inflammation and dehydration. Alanine aminotransferase (ALT, SGPT) is an enzyme produced primarily in the liver and kidneys. In healthy individuals ALT is normally low. ALT is released when the liver is damaged, especially with exposure to toxic substances such as drugs and alcohol. Aspartate aminotransferase (AST, SGOT) is an enzyme produced by the liver, heart, kidneys, and muscles. In healthy individuals AST is normally low. An AST/ALT ratio is often performed to determine if elevated levels are due to liver injury or damage to the heart or skeletal muscles. A specimen is obtained by separately reportable venipuncture. Serum/plasma is tested using quantitative enzymatic method or quantitative spectrophotometry.

Lab analysis to measure the amount of blood gases with oxygen saturation [HCPCS 82805]

Lab analysis to measure the amount of blood in stool specimen by peroxidase activity [HCPCS 82272]

A fecal (stool) sample is obtained for colorectal neoplasm screening and tested for the presence of occult (hidden) blood by peroxidase activity. This test is also referred to as a fecal occult blood test (FOBT). Occult blood in a stool specimen is present in amounts too small to see with the naked eye, but becomes visible when chemical tests are performed. Guaiac is one type of chemical (reagent) test that can be performed to identify the presence of blood in the stool. If the test is performed in an office or hospital, the physician may obtain the sample during a rectal exam. If the test is performed at home, the patient is provided with a stool collection kit consisting of three cards or a single triple card. The patient obtains three consecutive stool specimens per the kit instructions. The stool specimens are then returned to the physician office or mailed to a laboratory. All three specimens are then tested using a chemical reagent for the presence of occult blood. A few drops of the chemical reagent are applied to each stool specimen. If blood is present, a color change will be detected on the card.

Lab analysis to measure the amount of immune system protein (complement) antigens (each component) [HCPCS 86160]

A blood test is performed to measure complement antigen levels. Complement factors help to clear immune complexes from the blood. Proteins are activated in response to the immune complex and generate peptides that bind the complexes and complement receptors. The cell membrane breaks apart and an attack complex is formed. A blood sample is obtained by separately reportable venipuncture. Complements are tested in serum or plasma samples, using specified methods, particularly quantitative radial immunodiffusion. Report for each complement component tested: 2-9 (2 being the most common inherited complement deficiency), 3A (the most abundant of all complement components), 4A, and 1Q; complement factor B and Bb; and C1-esterase inhibitor.

Lab analysis to measure the amount of lipids (cholesterol and triglycerides) in blood specimen [HCPCS 80061]

"A lipid panel is obtained to assess the risk for cardiovascular disease and to monitor appropriate treatment. Lipids are comprised of cholesterol, protein, and triglycerides. They are stored in cells and circulate in the blood. Lipids are important for cell health and as an energy source. A lipid panel should include a measurement of triglycerides and total serum cholesterol and then calculate to find the measurement of high density lipoprotein (HDL-C), low density lipoprotein (LDL-C) and very low density lipoprotein (VLDL-C). HDL contains the highest ratio of cholesterol and is often referred to as ""good cholesterol"" because it is capable of transporting excess cholesterol in the blood to the liver for removal. LDL contains the highest ratio of protein and is considered ""bad cholesterol"" because it transports and deposits cholesterol in the walls of blood vessels. VLDL contains the highest ratio of triglycerides and high levels are also considered ""bad"" because it converts to LDL after depositing triglyceride molecules in the walls of blood vessels. A blood sample is obtained by separately reportable venipuncture or finger stick. Serum/plasma is tested using quantitative enzymatic method."

Lab analysis to measure the amount of total PSA (prostate specific antigen) in serum specimen [HCPCS 84153]

Prostate specific antigen (PSA) is measured. PSA is a protein produced by normal prostate cells found in serum and exists in both free form and complexed with other proteins. Total PSA is measured ad the total amount of both free and complexed forms. Total PSA levels are higher in men with benign prostatic hyperplasia (BPH), acute bacterial prostatitis, or prostate cancer. Total PSA is used to screen for prostate cancer and evaluate the response to treatment in those with prostate cancer, but cannot be used by itself to definitively diagnose prostate cancer.

Lab analysis to measure the amount of total calcium, carbon dioxide (bicarbonate), chloride, creatinine, glucose, potassium, sodium, and urea nitrogen (BUN) in blood specimen [HCPCS 80048]

A basic metabolic blood panel is obtained that includes ionized calcium levels along with carbon dioxide (bicarbonate) (CO2), chloride, creatinine, glucose, potassium, sodium, and urea nitrogen (BUN). A basic metabolic panel with measurement of ionized calcium may be used to screen for or monitor overall metabolic function or identify imbalances. Ionized or free calcium flows freely in the blood, is not attached to any proteins, and represents the amount of calcium available to support metabolic processes such as heart function, muscle contraction, nerve function, and blood clotting. Total carbon dioxide (bicarbonate) (CO2) level is composed of CO2, bicarbonate (HCO3-), and carbonic acid (H2CO3) with the primary constituent being bicarbonate, a negatively charged electrolyte that works in conjunction with other electrolytes, such as potassium, sodium, and chloride, to maintain proper acid-base balance and electrical neutrality at the cellular level. Chloride is also a negatively charged electrolyte that helps regulate body fluid and maintain proper acid-base balance. Creatinine is a waste product excreted by the kidneys that is produced in the muscles while breaking down creatine, a compound used by the muscles to create energy. Blood levels of creatinine provide a good measurement of renal function. Glucose is a simple sugar and the main source of energy for the body, regulated by insulin. When more glucose is available than is required, it is stored in the liver as glycogen or stored in adipose tissue as fat. Glucose measurement determines whether the glucose/insulin metabolic process is functioning properly. Both potassium and sodium are positively charged electrolytes that work in conjunction with other electrolytes to regulate body fluid, stimulate muscle contraction, and maintain proper acid-base balance and both are essential for maintaining normal metabolic processes. Urea is a waste product produced in the liver by the breakdown of protein from a sequence of chemical reactions referred to as the urea or Krebs-Henseleit cycle. Urea is taken up by the kidneys and excreted in the urine. Blood urea nitrogen, BUN, is a measure of renal function, and helps monitor renal disease and the effectiveness of dialysis.

Lab analysis to measure the amount of total digoxin in blood specimen [HCPCS 80162]

A laboratory test is performed to measure digoxin levels. Digoxin, also known as Lanoxin, is a cardiac glycoside that controls sodium and potassium levels in the cells. Digoxin is primarily prescribed to treat atrial fibrillation, atrial flutter, and congestive heart failure. The drug increases the strength of cardiac muscle contractions which increases cardiac output and lowers the heart rate and venous pressure. Digoxin has a narrow therapeutic window but antidotal treatment is available (Digibind, Digoxin Immune FAB). The test for total digoxin measures Fab fragment-bound (inactive) digoxin and free (active) digoxin. This test is primarily used to monitor digoxin therapy and should be drawn 8-12 hours following an oral dose. The test for free digoxin (80163) may be used to evaluate breakthrough digoxin toxicity in patients with renal failure, access the need for additional antidigoxin Fab, determine when to reintroduce digoxin therapy, and monitor patients with possible digoxin-like immune reactive factors. To measure free digoxin, a blood sample is obtained by separately reportable venipuncture 6-8 hours after the last dose. Serum is tested for total digoxin using immunoassay and for free digoxin using ultrafiltration followed by electrochemiluminescent immunoassay.

Lab analysis to measure the amount of total phenytoin in blood specimen [HCPCS 80185]

A blood test is performed to measure phenytoin total and phenytoin free levels. Phenytoin also known as Dilantin, Phenytek or Prompt, is an anticonvulsant prescribed to treat seizures and works by deceasing electrical activity in the brain. The drug may be administered orally or by injection. Phenytoin has a narrow therapeutic range and the patient should be monitored for both total and free phenytoin levels. Total phenytoin reflects the total serum concentration of the drug while free phenytoin levels reflect the unbound levels. Only the unbound levels are biologically active. Ninety (90) percent of the drug is typically highly bound and biologically inactive, but bound phenytoin is sensitive to displacement by other protein binding drugs which can elevate levels of free phenytoin in the blood. Blood concentration levels are monitored at regular intervals and also when breakthrough seizures occur, indicating possible low therapeutic levels. A blood sample is obtained by a separately reportable venipuncture. Blood serum is then tested using immunoassay.

Lab analysis to measure the amount of total valproic acid in blood specimen [HCPCS 80164]

A laboratory test is performed to measure valproic acid (dipropylacetic acid, depakote). Valproic acid is an anticonvulsant that may be used to treat seizure disorders, manic phase of bipolar disorders, and migraine headaches. The drug works by changing certain chemicals neurotransmitters in the brain. The test for total valproic acid can be used to monitor drug therapy, assess patient compliance, and evaluate for potential toxicity. The test for free valproic acid may be used to evaluate the cause of toxicity when the total valproic acid concentration is within the normal range. Free valproic acid may be elevated in patients with an altered or unpredictable protein binding capacity. A blood sample is obtained by separately reportable venipuncture just prior to medication administration to obtain the trough level. Serum/plasma is tested for total valproic acid using fluorescence polarization immunoassay and for free valproic acid using quantitative enzyme multiplied immunoassay.

Lab analysis to measure the amount of troponin (protein) in serum specimen [HCPCS 84484]

A blood test is performed to measure troponin levels. Troponins are regulatory proteins that facilitate contraction of skeletal and smooth muscle by forming calcium bonds. Troponin T binds to tropomyosin to form a complex. Troponin I binds to actin and holds the Troponin T-tropomyosin complex together. Elevation of troponins, coupled with cardiac symptoms such as chest pain are considered diagnostic for cardiac injury. This test is commonly ordered in the Emergency Department when a patient presents with possible myocardial infarction, and is then repeated at 6 hour intervals. It may be ordered with other tests that assess cardiac biomarkers such as CK, CK-MB, and myoglobin. A blood sample is obtained by separately reportable venipuncture. Serum/plasma is tested for Troponin T using quantitative electrochemiluminescent immunoassay. Serum is tested for Troponin I using chemiluminescent immunoassay.

Lab analysis to measure the amount of white blood cells in stool specimen [HCPCS 89055]

Lab analysis to measure the amylase (enzyme) level in serum specimen [HCPCS 82150]

Laboratory testing for amylase may be performed on blood, urine, and other body fluids. Amylase is an enzyme responsible for the break down of starches into sugar molecules (disaccharides and trisaccharides) and eventually into glucose for energy use by the cells. Amylase is produced in saliva and the pancreas. Abnormal amylase levels may result from pancreatic inflammation or trauma, perforated peptic ulcer, ovarian cyst (torsion), strangulation ileus, macroamylasemia, mumps, and cystic fibrosis. A blood or body fluid sample is obtained. The sample is then tested using quantitative enzymatic methodology.

Lab analysis to measure the chloride level in urine specimen [HCPCS 82436]

Lab analysis to measure the creatine kinase (cardiac enzyme) level (MB fraction only) [HCPCS 82553]

Creatine kinase (CK) also known as, creatine phosphokinase (CPK), is an enzyme found in the heart, brain, skeletal muscle and certain other tissue. The subtypes are known as CK-MM found primarily in skeletal and heart muscle, CK-MB found in heart muscle and CK-BB located in the brain. CK circulating in blood rarely contains CK-BB but is largely comprised of CK-MM or CK-MB. Levels may be elevated following heart muscle damage (heart attack/myocardial infarction) and skeletal muscle injury (trauma, vigorous exercise). Statin drugs that lower cholesterol level and alcohol intake may cause elevated CK blood levels. Only creatine kinase (CK) MB fraction is measured. Testing for this isoenzyme can help identify heart muscle damage following a heart attack (myocardial infarction). A blood test is obtained by separately reportable venipuncture. Serum is tested using chemiluminescent immunoassay.

Lab analysis to measure the creatinine level in blood specimen to test for kidney function or muscle injury [HCPCS 82565]

A blood sample is taken to measure creatinine levels. Creatinine is a waste product produced by the muscles in the breakdown of creatine, which is a compound used by the muscles to create energy for contraction. The waste product, creatinine, is excreted by the kidneys and blood levels provide a good measurement of renal function. Creatinine may be checked to screen for or monitor treatment of renal disease. Creatinine levels may also be monitored in patients with acute or chronic illnesses that may impair renal function and in patients on medications that affect renal function. Creatinine is measured using spectrophotometry.

Lab analysis to measure the direct bilirubin level [HCPCS 82248]

A laboratory test is performed to measure total or direct bilirubin. Bilirubin is a pigmented waste product normally produced when red blood cells (RBCs) break down. Non-water soluble (unconjugated) bilirubin is carried on albumin to the liver where it attaches to sugar molecules to become conjugated. Conjugated (direct) bilirubin is water soluble and able to pass from the liver to the small intestine. Further breakdown of bilirubin occurs in the small intestine and it is eventually eliminated in the feces in the form of stercobilin. Total bilirubin is the sum of conjugated (direct) and unconjugated bilirubin. A test for either conjugated or direct bilirubin or total bilirubin may be ordered to diagnose and monitor liver disorders, hemolytic anemia, and newborn (physiologic) jaundice. A blood sample is obtained by separately reportable venipuncture or heel stick. Other body fluids, including cerebral spinal fluid, may be collected and tested for total bilirubin. Serum/plasma is tested using quantitative spectrophotometry.

Lab analysis to measure the ferritin (blood protein) level [HCPCS 82728]

A blood test is performed to measure ferritin levels. Ferritin is an intracellular protein that stores iron and releases it into circulation in a controlled manner to protect the body against iron overload and iron deficiency. Ferritin levels may be obtained to evaluate for elevated levels caused by excess storage diseases such as hemochromatosis and following multiple transfusions. Levels may also be obtained to evaluate for decreased levels due to iron deficiency. A blood sample is obtained by separately reportable venipuncture. Serum is tested using quantitative chemiluminescent immunoassay.

Lab analysis to measure the glucose (sugar) level in blood [HCPCS 82947]

A blood sample is obtained to measure total (quantitative) blood glucose level. Glucose is a simple sugar that is the main source of energy for the body. Carbohydrates are broken down into simple sugars, primarily glucose, absorbed by the intestine, and circulated in the blood. Insulin, a hormone produced by the pancreas, regulates glucose level in the blood and transports glucose to cells in other tissues and organs. When more glucose is available in the blood than is required, it is converted to glycogen and stored in the liver or converted to fat and stored in adipose (fat) tissue. If the glucose/insulin metabolic process is working properly, blood glucose will remain at a fairly constant, healthy level. Glucose is measured to determine whether the glucose/insulin metabolic process is functioning properly. It is used to monitor glucose levels and determine whether they are too low (hypoglycemia) or too high (hyperglycemia) as well as test for diabetes and monitor blood sugar control in diabetics.

Drug screening read by chemistry analyzers [HCPCS 80307]

A laboratory test is performed to detect the presence or absence of drugs classes in a patient’s system during a specific encounter. Presumptive screening is commonly done first, followed by test(s) for definitive drug identification as presumptive testing will not provide qualitative identification of individual drugs, nor quantitative levels present. A sample of blood or urine is obtained by separately reported procedure. Methods used include immunoassays, chromatography, and mass spectrometry.

Lab analysis by immunoassay (ELISA) to identify cryptosporidium (parasite) [HCPCS 87328]

Lab analysis by immunoassay (ELISA) to identify giardia (intestinal parasite) [HCPCS 87329]

Lab analysis to measure the glutamyltransferase (liver enzyme) level [HCPCS 82977]

A blood test is performed to measure gamma glutamyltransferase (GGT) levels. GGT is an enzyme that assists with the transfer of amino acids across cell membranes, including cells found in the liver, kidney, pancreas, heart, brain, and seminal vesicles. GGT levels are used as a diagnostic marker for certain diseases of the liver, bile ducts, and pancreas. A blood sample is obtained by separately reportable venipuncture. Serum or plasma is tested using quantitative enzymatic methodology.

Lab analysis by immunoassay to identify Strep (streptococcus) [HCPCS 87880]

A direct optical test to detect Streptococcus Group A (Strep A) by immunoassay is a rapid, qualitative test performed using lateral flow immunoassay. Strep A causes acute upper respiratory infection with the most common symptoms being pharyngitis (sore throat) and fever. If left untreated serious complications can occur including rheumatic fever and glomerulonephritis. This type of test is a rapid, qualitative test performed using lateral flow immunoassay. A throat swab is obtained. Two reagents are added to extract Strep A antigen from the specimen. A dipstick is added to the extracted sample. If Strep A antigen is present the test line and a control line will change color indicating a positive test. Another method uses a throat swab specimen inserted into a test cassette. Antigen extraction solutions are then mixed in a separate chamber of the tube and added to the swab chamber. If Strep A is present, a test line will change color as will a second control line.

Lab analysis to measure the hemoglobin A1C level in blood specimen [HCPCS 83036]

A blood test is performed to measure glycosylated hemoglobin (HbA1C) levels. Plasma glucose binds to hemoglobin and the HbA1C test measures the average plasma glucose concentration over the life of red blood cells (approximately 90-120 days). HbA1C levels may be used as a diagnostic reference for patients with suspected diabetes mellitus (DM) and to monitor blood glucose control in patients with known DM. HbA1C levels should be monitored at least every 6 months in patients with DM and more frequently when the level is >7.0%. A blood sample is obtained by separately reportable venipuncture. Whole blood is tested using quantitative high performance liquid chromatography/boronate affinity.

Lab analysis by immunoassay to identify influenza virus [HCPCS 87804]

A quick test to detect influenza (Type A or B) by immunoassay with direct optical observation is performed. It is a rapid, qualitative test performed using lateral flow immunoassay. Influenza is an acute, highly contagious, viral upper respiratory infection. There are three types of influenza viruses delineated as Type A, B, or C with Type A being the most severe and prevalent type. Type B is generally less severe. Type C is the least common and is not associated with large human epidemics. Type A and B can both be detected by a rapid test. A nasal or nasopharyngeal swab is obtained. Alternatively nasal wash or aspirate may be used. The specimen is placed in a tube containting an extraction reagent that disrupts the virus particles in the specimen and exposes viral nucleoproteins. A test strip is then inserted into the tube. If the influenza virus being tested (Type A or B) is present, a line on the test strip will change color along with a control line.

Lab analysis to measure the iron binding capacity [HCPCS 83550]

A blood test is performed to measure the iron binding capacity of transferrin. Transferrin, a protein found in circulating blood is responsible for carrying iron molecules. This test measures the ability of transferrin to carry iron. A blood sample is obtained by separately reportable venipuncture. Serum or plasma is tested using quantitative spectrophotometry/calculation.

Lab analysis by nucleic acid (DNA or RNA) to identify SARS-CoV-2 and Influenza A & B by multiplex amplified probe technique [HCPCS 87637]

Lab analysis to measure the iron level [HCPCS 83540]

A blood, urine or liver test is performed to measure iron levels. Iron (Fe) is an essential element that circulates in the blood attached to the protein transferrin. Iron is necessary component of hemoglobin, found in red blood cells (RBCs) and myoglobin found in muscle cells. Low iron levels may cause a decrease in red blood cells and iron deficiency anemia. High iron levels may be caused by excessive intake of iron supplements or a hereditary genetic condition such as hemochromatosis from a mutation of the RGMc gene or HAMP gene. A blood sample is obtained by separately reportable venipuncture. Serum or plasma is tested using quantitative spectrophotometry. A random voided or 24 hour urine specimen is obtained and tested using quantitative inductively coupled plasma/emission spectrometry. Patient should wait 2-4 days after receiving iodine or gadolinium contrast media to collect a urine specimen. A liver sample is obtained by a separately reportable procedure. Liver tissue is tested using quantitative inductively coupled plasma-mass spectrometry.

Lab analysis of any culture (except blood) to identify anaerobic bacteria [HCPCS 87075]

A tissue sample is collected and placed in a medium conducive to the growth of bacteria. The culture is examined for the growth of bacteria that can survive without oxygen.

Lab analysis to measure the lactate dehydrogenase (enzyme) level [HCPCS 83615]

A blood or body fluid test is performed to measure lactate dehydrogenase (LD) (LDH) levels. LDH is an enzyme present in red blood cells (RBCs) and in the tissue of heart, liver, pancreas, kidney, skeletal muscle, brain and lungs. LDH levels are used as a marker for tissue and RBC damage. Elevated blood levels can be caused by stroke, myocardial infarction, liver disease, pancreatitis, muscular dystrophy, infectious mononucleosis, hemolytic anemia and tumors/cancers such as lymphoma. Elevated cerebral spinal fluid (CSF) levels are usually indicative of bacterial meningitis. LDH levels in pleural and/or pericardial fluid can indicate if the effusion is an exudate, caused by an infection or a transudate caused by fluid pressure problem. A blood sample is obtained by separately reportable venipuncture. Cerebral spinal fluid is obtained by separately reportable lumbar puncture (spinal tap). Pericardial fluid is obtained by separately reportable pericardiocentesis. Fluid from a pleural effusion is obtained by separately reportable thoracentesis. Serum or plasma and all body fluids are tested using quantitative enzymatic methodology.

Lab analysis of any culture (except urine, blood, or stool) to identify bacteria [HCPCS 87070]

A tissue sample besides blood, urine, or stool is collected and placed in a medium conducive to the growth of bacteria. The culture is examined for the growth of bacteria.

Lab analysis to measure the lactic acid level in blood, plasma, or cerbrospinal fluid specimen [HCPCS 83605]

A blood or body fluid test is performed to measure lactate (lactic acid) levels. Lactic acid is produced primarily by muscle tissue and red blood cells in the body. Elevated levels may be caused by strenuous exercise, heart failure, severe infection (sepsis), shock states (cardiogenic, hypovolemic) and liver disease. A blood sample is obtained by separately reportable venipuncture. Cerebral spinal fluid (CSF) is obtained by lumbar puncture (spinal tap). Other body fluids may also be collected and tested. Plasma, CSF, and other body fluids are tested using enzymatic methodology.

Lab analysis of blood culture to identify bacteria [HCPCS 87040]

A blood sample is drawn and placed in a medium conducive to the growth of bacteria. Any bacteria present in the blood sample will then reveal themselves.

Lab analysis to measure the lipase (fat enzyme) level [HCPCS 83690]

A test is performed on blood and body fluids to measure lipase levels. Lipase is an enzyme released by the pancreas into the small intestine and is essential for the digestion of dietary fats. Elevated levels may result from small bowel obstruction, celiac disease, cholecystitis, duodenal ulcer, severe gastroenteritis, macrolipasemia, pancreatitis, and pancreatic tumors. The test may be ordered when there is a family history of lipoprotein lipase deficiency. A blood sample is obtained by separately reportable venipuncture. Other body fluids collected by other methods. Blood and other body fluids are tested using quantitative enzymatic methodology.

Lab analysis to measure the magnesium level in body fluids and cells [HCPCS 83735]

A blood, urine, or fecal test is performed to measure magnesium levels. Magnesium is an essential dietary mineral responsible for enzyme function, energy production, and contraction and relaxation of muscle fibers. Decreased levels may result from severe burns, metabolic disorders, certain medications, and low blood calcium levels. A blood sample is obtained by separately reportable venipuncture. Red blood cells (RBCs) are tested using quantitative inductively coupled plasma-mass spectrometry. Serum/plasma is tested using quantitative spectrophotometry. A 24-hour voided urine specimen is tested using quantitative spectrophotometry. A random or 24-hour fecal sample is tested using quantitative spectrophotometry.

Lab analysis of special gram or Giemsa stain to idenitfy microorganisms [HCPCS 87205]

A laboratory test is performed to identify bacteria, fungi, or cell types in pus, normally sterile body fluid(s), or aspirated material using Gram or Giemsa stain technique. Gram staining is a differential technique used to classify bacteria into gram positive (Gram +) or gram negative (Gram -) groups. Gram + bacteria have a thick layer of peptidoglycan in the cell wall which stains purple. Giemsa technique is used in cytogenetics for chromosome staining; in histopathology to detect trichomonas, some spirochetes, protozoans, malaria, and other parasites; and as a stain for peripheral blood and bone marrow to differentiate cells types such as erythrocytes, platelets, lymphocyte cytoplasm, monocyte cytoplasm, and leukocyte nuclear chromatin. A drop of suspended culture or cell material is applied in a thin layer to a slide using an inoculation hook and fixed with heat. The material is stained and the slide is examined under a microscope. The bacteria, fungi, or cells are identified, counted, and a written report of the findings is made.

Lab analysis of stool culture to identify bacteria [HCPCS 87045]

A stool sample is collected and placed in a medium conducive to the growth of bacteria. The culture is examined for the growth of Salmonella and Shigella bacteria.

Lab analysis of urine culture to measure the amount of bacteria [HCPCS 87086]

"A laboratory test is performed to determine the presence or absence of bacterial colonies in urine and provide a colony count. Bacteria in urine may indicate an acute or chronic urinary tract infection (UTI) including pyelonephritis, cystitis, urethritis, or acute urethral syndrome. A urine sample is obtained by clean catch, mid-stream void or catheterization. Using a calibrated loop, the urine specimen is inoculated onto agar plates and incubated. Quantitative colony counts are determined and potential pathogens are identified. A colony count 10,000 cfu/mL is reported as ""organism present"" and may indicate an infection. Comingled flora of the urethra and mixed organisms in the colony counts are reported as ""mixed flora"" and most often represent contamination."

Lab analysis of urine specimen by dipstick with microscope (automated) [HCPCS 81001]

A urinalysis is performed by dip stick or tablet reagent for bilirubin, glucose, hemoglobin, ketones, leukocytes, nitrite, pH, protein, specific gravity, and/or urobilinogen. Urinalysis can quickly screen for conditions that do not immediately produce symptoms such as diabetes mellitus, kidney disease, or urinary tract infection. A dip stick allows qualitative and semi-quantitative analysis using a paper or plastic stick with color strips for each agent being tested. The stick is dipped in the urine specimen and the color strips are then compared to a color chart to determine the presence or absence and/or a rough estimate of the concentration of each agent tested. Reagent tablets use an absorbent mat with a few drops of urine placed on the mat followed by a reagent tablet. A drop of distilled, deionized water is then placed on the tablet and the color change is observed. Bilirubin is a byproduct of the breakdown of red blood cells by the liver. Normally bilirubin is excreted through the bowel, but in patients with liver disease, bilirubin is filtered by the kidneys and excreted in the urine. Glucose is a sugar that is normally filtered by the glomerulus and excreted only in small quantities in the urine. Excess sugar in the urine (glycosuria) is indicative of diabetes mellitus. The peroxidase activity of erythrocytes is used to detect hemoglobin in the urine which may be indicative of hematuria, myoglobinuria, or hemoglobinuria. Ketones in the urine are the result of diabetic ketoacidosis or calorie deprivation (starvation). A leukocyte esterase test identifies the presence of white blood cells in the urine. The presence of nitrites in the urine is indicative of bacteria. The pH identifies the acid-base levels in the urine. The presence of excessive amounts of protein (proteinuria) may be indicative of nephrotic syndrome. Specific gravity measures urine density and is indicative of the kidneys' ability to concentrate and dilute urine. Following dip stick or reagent testing, the urine sample may be examined under a microscope. The urine sample is placed in a test tube and centrifuged. The sediment is resuspended. A drop of the resuspended sediment is then placed on a glass slide, cover-slipped, and examined under a microscope for crystals, casts, squamous cells, blood (white, red) cells, and bacteria.

Lab analysis of urine specimen by dipstick without microscope (automated) [HCPCS 81003]

A urinalysis is performed by dip stick or tablet reagent for bilirubin, glucose, hemoglobin, ketones, leukocytes, nitrite, pH, protein, specific gravity, and/or urobilinogen. Urinalysis can quickly screen for conditions that do not immediately produce symptoms such as diabetes mellitus, kidney disease, or urinary tract infection. A dip stick allows qualitative and semi-quantitative analysis using a paper or plastic stick with color strips for each agent being tested. The stick is dipped in the urine specimen and the color strips are then compared to a color chart to determine the presence or absence and/or a rough estimate of the concentration of each agent tested. Reagent tablets use an absorbent mat with a few drops of urine placed on the mat followed by a reagent tablet. A drop of distilled, deionized water is then placed on the tablet and the color change is observed. Bilirubin is a byproduct of the breakdown of red blood cells by the liver. Normally bilirubin is excreted through the bowel, but in patients with liver disease, bilirubin is filtered by the kidneys and excreted in the urine. Glucose is a sugar that is normally filtered by the glomerulus and excreted only in small quantities in the urine. Excess sugar in the urine (glycosuria) is indicative of diabetes mellitus. The peroxidase activity of erythrocytes is used to detect hemoglobin in the urine which may be indicative of hematuria, myoglobinuria, or hemoglobinuria. Ketones in the urine are the result of diabetic ketoacidosis or calorie deprivation (starvation). A leukocyte esterase test identifies the presence of white blood cells in the urine. The presence of nitrites in the urine is indicative of bacteria. The pH identifies the acid-base levels in the urine. The presence of excessive amounts of protein (proteinuria) may be indicative of nephrotic syndrome. Specific gravity measures urine density and is indicative of the kidneys' ability to concentrate and dilute urine. Following dip stick or reagent testing, the urine sample may be examined under a microscope. The urine sample is placed in a test tube and centrifuged. The sediment is resuspended. A drop of the resuspended sediment is then placed on a glass slide, cover-slipped, and examined under a microscope for crystals, casts, squamous cells, blood (white, red) cells, and bacteria.

Lab analysis to measure the microalbumin (protein) level in urine specimen [HCPCS 82043]

A test on urine is used to measure microalbumin levels and is routinely performed annually on diabetic patients with stable blood glucose levels to assess for early onset nephropathy. The quantitative test, which measures the actual amount of microalbumin present in the urine, may be performed on a random urine sample, with a notation of total volume and voiding time, or a 24-hour urine sample using immunoturbidimetric technique. The semi-quantitative test identifies the presence of elevated microalbumin levels in the urine within a general range and involves a chemical dipstick placed into the urine sample which reacts and changes color when albumin is present.

Lab analysis to measure the natriuretic peptide (heart and blood vessel protein) level in plasma specimen [HCPCS 83880]

The level of the natriuretic peptide in the blood is measured to evaluate heart failure and to differentiate symptoms that might be indicative of heart failure from other disorders that cause similar symptoms. A separately reportable venipuncture is performed and whole blood or plasma collected using EDTA as an anticoagulant. An automated immunoassay is performed using murine monoclonal and polyclonal antibodies against natriuretic peptide. The antibodies are labeled with a fluorescent dye and immobilized on the solid phase. The specimen is placed in the sample chamber and the analysis is run. The physician reviews the results and uses them to make diagnosis and treatment decisions.

Lab analysis to measure the phosphate level [HCPCS 84100]

A blood or urine test is performed to measure inorganic phosphorus (phosphate) levels. Phosphate is an intracellular anion, found primarily in bone and soft tissue. It plays an important role in cellular energy (nerve and muscle function) and the building/repair of bone and teeth. Decreased levels are most often caused by malnutrition and lead to muscle and neurological dysfunction. Elevated levels may be due to kidney or parathyroid gland problems. A blood sample is obtained by separately reportable venipuncture. Serum/plasma is tested using quantitative spectrophotometry.

Lab analysis to measure the potassium level in urine specimen [HCPCS 84133]

A urine test is performed to measure potassium levels. Potassium is a chemical element essential for proper functioning of the heart, kidneys, intestine, muscles, and nerves. Levels may be elevated in kidney disease, Cushing's syndrome, hyperaldosteronism, eating disorders, diabetic/metabolic acidosis, hypomagnesemia, and with the use of certain diuretics. Decreased levels may be caused by adrenal gland insufficiency, hypoaldosteronism, and medications such as beta blockers, lithium, and NSAIDs. A 24-hour or random urine sample is obtained. Urine is tested using quantitative ion-selective electrode.

Lab analysis to measure the sodium level in urine specimen [HCPCS 84300]

A urine sample is obtained to measure sodium level. Sodium is a positively charged electrolyte that works in conjunction with other electrolytes, such as potassium, chloride, and carbon dioxide (CO2), to regulate fluid in the body and maintain proper acid-base balance. Sodium is an essential mineral in the body, necessary for maintaining normal metabolic processes, fluid levels, and vascular pressure. Sodium level is used to screen for and monitor elevated blood sodium (hypernatremia), low blood sodium (hyponatremia), and electrolyte imbalances. Sodium may be monitored in patients on certain medications, such as diuretics, that can cause electrolyte imbalance. Sodium is measured by ion-selective electrode (ISE) methodology.

Lab analysis to measure the total calcium level in blood specimen [HCPCS 82310]

A blood sample is taken to measure the amount of total calcium. Calcium is one of the most important minerals in the body. About 99 percent of the calcium found the body is stored in the bones. The remaining one percent circulates in the blood. Calcium may be ionized (free) or attached (bound) to proteins. Free calcium is the calcium metabolically active in the body. Bound calcium is inactive. Total calcium is a measurement of the total amount of both free calcium and bound calcium circulating in the blood. Total calcium is measured to screen for or monitor a number of conditions, including those affecting the bones, heart, nerves, kidneys and teeth. Total calcium is measured using spectrophotometry.

Lab analysis to measure the total creatine kinase (cardiac enzyme) level in blood specimen [HCPCS 82550]

Creatine kinase (CK) also known as, creatine phosphokinase (CPK), is an enzyme found in the heart, brain, skeletal muscle and certain other tissue. The subtypes are known as CK-MM found primarily in skeletal and heart muscle, CK-MB found in heart muscle and CK-BB located in the brain. CK circulating in blood rarely contains CK-BB but is largely comprised of CK-MM or CK-MB. Levels may be elevated following heart muscle damage (heart attack/myocardial infarction) and skeletal muscle injury (trauma, vigorous exercise). Statin drugs that lower cholesterol level and alcohol intake may cause elevated CK blood levels. A blood test is performed to measure total creatine kinase (CK) levels. A blood specimen is obtained by separately reportable venipuncture. Serum or plasma is tested using quantitative enzymatic methodology.

Lab analysis to measure the total protein level in urine specimen [HCPCS 84156]

A urine test is performed to measure total protein levels. Protein is not normally found in urine and usually indicates damage or disease in the kidneys. Elevated levels are often present in patients with diabetes, hypertension, and multiple myeloma. A 24-hour or random urine sample is obtained and tested using quantitative spectrophotometry.

Lab analysis to measure the uric acid level in blood specimen [HCPCS 84550]

A blood test is performed to measure uric acid levels. Uric acid forms from the natural breakdown of body cells and the food we ingest. Uric acid is normally filtered by the kidneys and excreted in urine. Elevated blood levels may result from kidney disease, certain cancers and/or cancer therapies, hemolytic or sickle cell anemia, heart failure, cirrhosis, lead poisoning, and low levels of thyroid or parathyroid hormones. Levels may be decreased in Wilson's disease, poor dietary intake of protein, and with the use of certain drugs. A blood sample is obtained by separately reportable venipuncture. Serum/plasma is tested using quantitative spectrophotometry.

Lab analysis to measure the vitamin D-3 level in serum or plasma specimen [HCPCS 82306]

Blood levels of 25-hydroxyvitamin D are used to primarily to determine whether a deficiency of Vitamin D or abnormal metabolism of calcium is the cause of bone weakness or malformation. Vitamin D is a fat soluble vitamin that is absorbed from the intestine like fat, and 25-hydroxyvitamin D levels are also evaluated in individuals with conditions or diseases that interfere with fat absorption, such as cystic fibrosis, Crohn's disease, or in patients who have undergone gastric bypass surgery. A blood sample is obtained. Levels of 25-hydroxyvitamin D3 and 25-hydroxyvitamin D2 are evaluated using chemiluminescent immunoassay. The test results may be the sum of Vitamin D3 and D2 or the results may include fractions of D3 and D2 as well as the sum of these values.

Lab analysis to measure urea nitrogen level in serum or plasma specimen to assess kidney function (quantitative) [HCPCS 84520]

A blood sample is obtained to measure total (quantitative) urea nitrogen (BUN) level. Urea is a waste product produced in the liver by the breakdown of protein from a sequence of chemical reactions referred to as the urea or Krebs-Henseleit cycle. Urea then enters the bloodstream, is taken up by the kidneys and excreted in the urine. Blood BUN is measured to evaluate renal function, to monitor patients with renal disease, and to evaluate effectiveness of dialysis. BUN may also be measured in patients with acute or chronic illnesses that affect renal function. BUN is measured using spectrophotometry.

Lab analysis to measure urine volume [HCPCS 81050]

A procedure is performed to collect urine and measure volume over a specific period of time. The volumetric measurement of urine may be required to report certain biomarkers and variations in the concentration over a specific length of time. The timed collection begins by discarding the first sample of urine and noting the time. All subsequent urine is then collected and pooled in the collection container for the designated period of time. When the last sample is collected, the end time is noted and the collected specimen is sent to the laboratory for processing and analysis.

Lab analysis to screen for pathogenic organisms [HCPCS 87081]

This test is performed when a specific pathogen is suspected. A blood sample is taken and placed in a medium conducive to the growth of the suspected pathogen. Any colonies that grow in the medium are then examined.

Lab analysis via blood test to measure a comprehensive group of blood chemicals [HCPCS 80053]

A comprehensive metabolic panel is obtained that includes albumin, bilirubin, total calcium, carbon dioxide, chloride, creatinine, glucose, alkaline phosphatase, potassium, total protein, sodium, alanine amino transferase (ALT) (SGPT), aspartate amino transferase (AST) (SGOT), and urea nitrogen (BUN). This test is used to evaluate electrolytes and fluid balance as well as liver and kidney function. It is also used to help rule out conditions such as diabetes. Tests related to electrolytes and fluid balance include: carbon dioxide, chloride, potassium, and sodium. Tests specific to liver function include: albumin, bilirubin, alkaline phosphatase, ALT, AST, and total protein. Tests specific to kidney function include: BUN and creatinine. Calcium is needed to support metabolic processes such as heart function, muscle contraction, nerve function, and blood clotting. Glucose is the main source of energy for the body and is regulated by insulin. Glucose measurement determines whether the glucose/insulin metabolic process is functioning properly.

Lab blood analysis to confirm blood unit compatibility by antiglobulin technique [HCPCS 86922]

Lab blood analysis to confirm blood unit compatibility by immediate spin technique [HCPCS 86920]

A laboratory test is performed to determine the donor-recipient compatibility of a unit of blood. Compatibility testing may also be referred to as cross matching (CM). Immediate spin technique (ISCM) mixes recipient plasma or serum with donor red cells, centrifuges them immediately, and observes any hemolysis and/or agglutination. ISCM will not detect all ABO incompatibilities; however, a negative result indicates the blood of the donor and recipient are compatible and the unit may be transfused.

Lab blood analysis to identify antigens on red blood cell surface and determine the patient's Rh (D) type (Rh positive or Rh negative) [HCPCS 86901]

A blood specimen is tested to determine blood type (ABO) or Rh(D). In Rh(D), blood is tested for Rh factor, which is an antigen on red blood cells. Blood is Rh+ if the antigen is present or Rh- if the antigen is absent. Blood is tested by mixing the blood sample with antibodies against Rh factor and then checking for agglutination. If agglutination occurs, the blood is Rh+. If the blood does not agglutinate, it is Rh-.

Lab blood analysis to identify antigens on red blood cell surface and determine the patient's blood group type (ABO) [HCPCS 86900]

A blood specimen is tested to determine blood type (ABO) or Rh(D). Blood is grouped using an ABO blood typing system which identifies four blood types: type A, B, AB, or O. The blood sample is mixed with antibodies against Type A and B blood and then checked to determine if the blood cells agglutinate, or stick together. Type A blood has anti-B antibodies; type B blood has anti-A antibodies; type O blood has antibodies to both A and B; and type AB blood does not have anti-A or anti-B antibodies. Type A blood agglutinates when type B antibodies are introduced. Type B blood agglutinates when type A antibodies are introduced. Type O blood agglutinates when type A or B antibodies are introduced. Type AB blood does not agglutinate when type A or B antibodies are introduced. The blood is then back typed. Blood serum is mixed with blood that is known to be type A or B.

Lab blood analysis to screen for antibodies to red blood cell antigens (each serum technique) [HCPCS 86850]

A blood sample is tested for antibodies directed against red blood cell (RBC) antigens other than A and B antigens. This test may also be referred to as an indirect antiglobulin test (IAT). This test is performed as part of a blood typing and screening test when it is anticipated that a blood transfusion might be required. If an antibody is detected, then separately reportable antibody identification is performed to identify the specific antibodies present. The test may be performed using IAT methodology or another serum technique such as solid phase. If multiple serum techniques are used, each reported separately.

Pathology lab analysis of special stained specimen slides to identify organisms with interpretation and report [HCPCS 88312]

Psa screening [HCPCS G0103]

Prostate cancer screening; prostate specific antigen test (psa)

Private Room

Abdominal CT scan with contrast for injury, foreign bodies, or tumors [HCPCS 74160]

Diagnostic computed tomography (CT) is done on the abdomen to provide detailed visualization of the tissues and organs within the abdominal area. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the abdomen. The physician reviews the images for the cause of abdominal pain, swelling, and fever; for other suspected problems such as appendicitis and kidney stones; for locating tumors, abscesses, or masses; or for evaluating the abdominal area for hernias, infections, or internal injury. The physician reviews the CT scan, notes any abnormalities, and provides a written interpretation of the findings.

Abdominal CT scan without contrast, followed by contrast for injury, foreign bodies, or tumors [HCPCS 74170]

Diagnostic computed tomography (CT) is done on the abdomen to provide detailed visualization of the tissues and organs within the abdominal area. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the abdomen. The physician reviews the images for the cause of abdominal pain, swelling, and fever; for other suspected problems such as appendicitis and kidney stones; for locating tumors, abscesses, or masses; or for evaluating the abdominal area for hernias, infections, or internal injury. The physician reviews the CT scan, notes any abnormalities, and provides a written interpretation of the findings.

Abdominal and pelvic CT scan with contrast for injury, foreign bodies, or tumors [HCPCS 74177]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the abdomen and pelvis. The patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans. The CT scan is then performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the abdomen and pelvis. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data which is then displayed on the monitor as two-dimensional cross-sectional images of the abdomen or pelvis. The physician reviews the data and images as they are obtained and may request additional sections to provide more detail on areas of interest.

Abdominal and pelvic CT scan without contrast for injury, foreign bodies, or tumors [HCPCS 74176]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the abdomen and pelvis. The patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans. The CT scan is then performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the abdomen and pelvis. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data which is then displayed on the monitor as two-dimensional cross-sectional images of the abdomen or pelvis. The physician reviews the data and images as they are obtained and may request additional sections to provide more detail on areas of interest.

Abdominal and pelvic CT scan without contrast, followed by contrast for injury, foreign bodies, or tumors [HCPCS 74178]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the abdomen and pelvis. The patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans. The CT scan is then performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the abdomen and pelvis. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data which is then displayed on the monitor as two-dimensional cross-sectional images of the abdomen or pelvis. The physician reviews the data and images as they are obtained and may request additional sections to provide more detail on areas of interest.

Arm CT scan without contrast for injury, foreign bodies, or tumors [HCPCS 73200]

Diagnostic computed tomography (CT) is done on the upper extremity to provide detailed visualization of the tissues and bone structure of the arm. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the arm can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the upper extremity. The physician reviews the CT scan, notes any abnormalities, and provides a written interpretation of the findings. The physician reviews the images to look for suspected problems with the arm such as locating tumors, abscesses, or masses; evaluating the bones for degenerative conditions, fractures, or other injury following trauma; and finding the cause of pain or swelling.

CTA scan of chest blood vessels with contrast to examine injury, foreign bodies, or tumors [HCPCS 71275]

A computed tomographic angiography (CTA) of the noncoronary vessels of the chest is performed with contrast material including image postprocessing. Noncontrast images may also be obtained and are included when performed. CTA provides images of the blood vessels using a combination of computed tomography (CT) and angiography with contrast material. When angiography is performed using CT, multiple images are obtained and processed on a computer to create detailed, two-dimensional, cross-sectional views of the blood vessels. These images are then displayed on a computer monitor. The patient is positioned on the CT table. An intravenous line is inserted into a blood vessel, usually in the arm or hand. Non-contrast images may be obtained. A small dose of contrast is injected and test images are obtained to verify correct positioning. The CTA is then performed. Contrast is injected at a controlled rate and the CT table moves through the CT machine as the scanning is performed. After completion of the CTA, the radiologist reviews and interprets the CTA images of the noncoronary vessels of the chest.

CTA scan of head blood vessels with contrast to examine blood clots or aneurysms [HCPCS 70496]

A computed tomographic angiography (CTA) of the head is performed with contrast material including image postprocessing. Noncontrast images may also be obtained and are included when performed. CTA provides images of the blood vessels using a combination of computed tomography (CT) and angiography with contrast material. When angiography is performed using CT, multiple images are obtained and processed on a computer to create detailed, two-dimensional, cross-sectional views of the blood vessels. These images are then displayed on a computer monitor. The patient is positioned on the CT table. An intravenous line is inserted into a blood vessel, usually in the arm or hand. Non-contrast images may be obtained. A small dose of contrast is injected and test images are obtained to verify correct positioning. The CTA is then performed. Contrast is injected at a controlled rate and the CT table moves through the CT machine as the scanning is performed. After completion of the CTA, the radiologist reviews and interprets the CTA images of the head.

CTA scan of neck blood vessels with contrast to examine blood clots or aneurysms [HCPCS 70498]

A computed tomographic angiography (CTA) of the neck is performed with contrast material including image postprocessing. Noncontrast images may also be obtained and are included when performed. CTA provides images of the blood vessels using a combination of computed tomography (CT) and angiography with contrast material. When angiography is performed using CT, multiple images are obtained and processed on a computer to create detailed, two-dimensional, cross-sectional views of the blood vessels. These images are then displayed on a computer monitor. The patient is positioned on the CT table. An intravenous line is inserted into a blood vessel, usually in the arm or hand. Non-contrast images may be obtained. A small dose of contrast is injected and test images are obtained to verify correct positioning. The CTA is then performed. Contrast is injected at a controlled rate and the CT table moves through the CT machine as the scanning is performed. After completion of the CTA, the radiologist reviews and interprets the CTA images of the neck.

Chest CT scan with contrast to examine injury, foreign bodies, or tumors [HCPCS 71260]

Diagnostic computed tomography (CT) is done on the thorax. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and reconstructs a 3D image. Thin, cross-sectional 2D and 3D slices are then produced of the targeted organ or area. The patient is placed inside the CT scanner on the table and images are obtained of the thorax to look for problems or disease in the lungs, heart, esophagus, soft tissue, or major blood vessels of the chest, such as the aorta. The physician reviews the images to look for suspected disease such as infection, lung cancer, pulmonary embolism, aneurysms, and metastatic cancer to the chest from other areas.

Chest CT scan without contrast to examine injury, foreign bodies, or tumors [HCPCS 71250]

Diagnostic computed tomography (CT) is done on the thorax. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and reconstructs a 3D image. Thin, cross-sectional 2D and 3D slices are then produced of the targeted organ or area. The patient is placed inside the CT scanner on the table and images are obtained of the thorax to look for problems or disease in the lungs, heart, esophagus, soft tissue, or major blood vessels of the chest, such as the aorta. The physician reviews the images to look for suspected disease such as infection, lung cancer, pulmonary embolism, aneurysms, and metastatic cancer to the chest from other areas.

Chest CT scan without contrast, followed by contrast to examine injury, foreign bodies, or tumors [HCPCS 71270]

Diagnostic computed tomography (CT) is done on the thorax. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and reconstructs a 3D image. Thin, cross-sectional 2D and 3D slices are then produced of the targeted organ or area. The patient is placed inside the CT scanner on the table and images are obtained of the thorax to look for problems or disease in the lungs, heart, esophagus, soft tissue, or major blood vessels of the chest, such as the aorta. The physician reviews the images to look for suspected disease such as infection, lung cancer, pulmonary embolism, aneurysms, and metastatic cancer to the chest from other areas.

Facial CT scan without contrast to examine injury, foreign bodies, or tumors [HCPCS 70486]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the region being studied. In this study, CT scan of the maxillofacial area is obtained. The maxillofacial area includes the forehead (frontal bone), sinuses, nose and nasal bones, jaw (maxilla and mandible). The only facial region not included in this study is the orbit. The patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans, after which the CT scan is performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the body region being examined. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data and renders the data in two-dimensional cross-sectional images of the body region being examined. This data is displayed on a monitor. The physician reviews the data as it is being obtained and may request additional sections to provide more detail of areas of interest.

Head or brain CT scan without contrast to examine injury, foreign bodies, or tumors [HCPCS 70450]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the region being studied. In this study, CT scan of the head or brain is performed. The patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans after which the CT scan is performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the body region being examined. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data and renders the data in two-dimensional cross-sectional images of the body region being examined. This data is displayed on a monitor. The physician reviews the data as it is being obtained and may request additional sections to provide more detail of areas of interest.

Leg CT scan with contrast for injury, foreign bodies, or tumors [HCPCS 73701]

Diagnostic computed tomography (CT) is done on the lower extremity to provide detailed visualization of the tissues and bone structure of the leg. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the leg can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the lower extremity.

Leg CT scan without contrast for injury, foreign bodies, or tumors [HCPCS 73700]

Diagnostic computed tomography (CT) is done on the lower extremity to provide detailed visualization of the tissues and bone structure of the leg. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the leg can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the lower extremity.

Neck CT scan of the soft tissue of the neck with contrast to examine injury, foreign bodies, or tumors [HCPCS 70491]

Computerized tomography, also referred to as a CT scan, uses special x-ray equipment and computer technology to produce multiple cross-sectional images of the region being studied. In a CT scan of the soft tissues of the neck, the patient is positioned on the CT examination table. An initial pass is made through the CT scanner to determine the starting position of the scans, after which the CT scan is performed. As the table moves slowly through the scanner, numerous x-ray beams and electronic x-ray detectors rotate around the body region being examined. The amount of radiation being absorbed is measured. As the beams and detectors rotate around the body, the table is moved through the scanner. A computer program processes the data and renders the data in two-dimensional cross-sectional images of the body region being examined. This data is displayed on a monitor. The physician reviews the data as it is being obtained and may request additional sections to provide more detail of areas of interest.

Pelvis CT scan with contrast to examine injury, foreign bodies, or tumors [HCPCS 72193]

Diagnostic computed tomography (CT) is done on the pelvis to provide detailed visualization of the organs and structures within or near the pelvis, such as kidneys, bladder, prostate, uterus, cervix, vagina, lymph nodes, and pelvic bones. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of organs within the pelvis can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the pelvis area. The physician reviews the images to gather information for specified purposes such as diagnosing or monitoring cancer, evaluating the pelvic bones for fractures or other injury following trauma, locating abscesses or masses found during physical exam, finding the cause of pelvic pain, providing more detailed information before surgery, and evaluating the patient after surgery.

Pelvis CT scan without contrast to examine injury, foreign bodies, or tumors [HCPCS 72192]

Diagnostic computed tomography (CT) is done on the pelvis to provide detailed visualization of the organs and structures within or near the pelvis, such as kidneys, bladder, prostate, uterus, cervix, vagina, lymph nodes, and pelvic bones. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of organs within the pelvis can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the pelvis area. The physician reviews the images to gather information for specified purposes such as diagnosing or monitoring cancer, evaluating the pelvic bones for fractures or other injury following trauma, locating abscesses or masses found during physical exam, finding the cause of pelvic pain, providing more detailed information before surgery, and evaluating the patient after surgery.

Spinal CT scan of lower spine without contrast to examine injury, foreign bodies, or tumors [HCPCS 72131]

Diagnostic computed tomography (CT) is done on the lumbar spine. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the spine can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the lumbar spine. The physician reviews the images to look for suspected problems with the spine such as bone disease, and evaluate for fractures or other injuries as well as birth defects of the spine in children.

Spinal CT scan of middle spine without contrast to examine injury, foreign bodies, or tumors [HCPCS 72128]

Diagnostic computed tomography (CT) is done on the thoracic spine. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the spine can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the thoracic spine. The physician reviews the images to look for suspected problems with the spine such as bone disease, and evaluate for fractures or other injuries as well as birth defects of the spine in children.

Spinal CT scan of upper spine without contrast to examine injury, foreign bodies, or tumors [HCPCS 72125]

Diagnostic computed tomography (CT) is done on the cervical spine. CT uses multiple, narrow x-ray beams aimed around a single rotational axis, taking a series of 2D images of the target structure from multiple angles. Contrast material is used to enhance the images. Computer software processes the data and produces several images of thin, cross-sectional 2D slices of the targeted organ or area. Three-dimensional models of the spine can be created by stacking multiple, individual 2D slices together. The patient is placed inside the CT scanner on the table and images are obtained of the cervical spine.

Chemotherapy administration into vein by infusion (each additional hour) [HCPCS 96415]

Routine EKG (electrocardiogram) tracing using at least 12 wires [HCPCS 93005]

An ECG is used to evaluate the electrical activity of the heart. The test is performed with the patient lying prone on the exam table. Small plastic patches are attached at specific locations on the chest, abdomen, arms, and/or legs. Leads (wires) from the ECG tracing device are then attached to the patches. A tracing is obtained of the electrical signals from the heart. Electrical activity begins in the sinoatrial node which generates an electrical stimulus at regular intervals, usually 60 to 100 times per minute. This stimulus travels through the conduction pathways to the sinoatrial node causing the atria to contract. The stimulus then travels along the bundle of His which divides into right and left pathways providing electrical stimulation of the ventricles causing them to contract. Each contraction of the ventricles represents one heart beat. The ECG tracing includes the following elements: P wave, QRS complex, ST segment, and T wave. The P wave, a small upward notch in the tracing, indicates electrical stimulation of the atria. This is followed by the QRS complex which indicates the ventricles are electrically stimulated to contract. The short flat ST segment follows and indicates the time between the end of the ventricular contraction and the T wave. The T wave represents the recovery period of the ventricles. The physician reviews, interprets, and provides a written report of the ECG recording taking care to note any abnormalities.

Bone density measurement of the axial skeleton (hips, pelvis, spine) [HCPCS 77080]

These codes report dual-energy x-ray absorptiometry (DXA) for bone density study. Measuring bone mass or bone mineral density (BMD) is done to diagnose for bone disease, evaluate bone disease progression, or monitor the results of treatment, particularly for osteoporosis, which puts a bone at higher risk of fracture. The radiation dose of DXA is around 1/30th of that in a standard chest x-ray. DXA involves aiming two x-ray beams of different energy levels at the bones in alternate pulses. Soft tissue absorption is subtracted out, and the BMD is determined by the bone's absorption of each beam in the projected area. The DXA scan measurement is then compared to a same sex standard of bone density at age 30, since the maximum BMD occurs at age 30 in both males and females. The difference between the measured BMD and the sex-matched, average 30-year-old standard is known as the T score. A T score between -1.0 and -2.4 diagnoses osteopenia, while a T score of -2.5 or less indicates osteoporosis.

Fluoroscopic guidance for needle placement [HCPCS 77002]

Fluoroscopy imaging guidance for procedure (up to 1 hour) [HCPCS 76000]

Imaging of head blood vessels by MRA without contrast [HCPCS 70544]

Magnetic resonance angiography (MRA) is performed on the head without contrast materials, with contrast materials, and without contrast materials followed by contrast materials. MRA is a noninvasive radiology procedure used to evaluate arterial and venous vessels for conditions such as atherosclerotic stenosis, arterial dissection, acute thrombosis, aneurysms or pseudo-aneurysms, vascular loops, vascular malformations/tumors, or arterial causes of pulsatile tinnitus. MRA may be performed following vascular surgery on the intracranial vessels to assess vascular status. MRA uses a magnetic field and pulses of radiowave energy to provide images of the blood vessels. Multiple images, 1-2 mm in thickness, are obtained and then processed using an array algorithm to produce maximum intensity projections (MIPs). MIPs are similar to subtraction angiograms. Areas of interest are identified by the radiologist and coned down to produce detailed views of the arteries. This post-processing of the images is performed by a technologist. The MIPs are reviewed by the radiologist along with the initial MRA images. The radiologist provides a written interpretation of findings.

Drug administration into vein by push technique for therapy, diagnosis, or prevention (initial drug) [HCPCS 96374]

A therapeutic, prophylactic, or diagnostic injection is administered by intravenous push (IVP) technique. The specified substance or drug is injected using a syringe directly into an injection site of an existing intravenous line or intermittent infusion set (saline lock). The injection is given over a short period of time, usually less than 15 minutes.

Ertapenem injection [HCPCS J1335]

Inj pantoprazole sodium, via [HCPCS C9113]

Tetanus, diphtheria toxoids and acellular pertussis (whooping cough) vaccine for injection into muscle (7 years of age or older) [HCPCS 90715]

Toxoids provide long lasting immunity by stimulating the body's own defense system to make antibodies that destroy specific toxins produced by bacteria. Vaccines also provide active, long-term immunity by exposing the recipient's immune system to altered versions of specific viruses or bacteria that induce the immune system to produce its own antibodies against the invading micro-organism. The body then remembers how to make antibodies when exposed to these same agents again. The toxoid vaccine is an inactivated poison, called a toxin, produced by culturing the bacteria in a liquid medium, then purifying and inactivating the poison produced by the bacteria. Since toxoids are not a live vaccine, booster doses are recommended because immunity will decline over time. These tetanus toxoid combinations are formulations for adults and those over 7 years of age, given by intramuscular injection.

Admin influenza virus vac [HCPCS G0008]

Administration of influenza virus vaccine

Chemotherapy administration into vein by infusion (up to 1 hour, single drug) [HCPCS 96413]

An intravenous infusion of a chemotherapy substance or drug is administered for treatment of a malignant neoplasm. An intravenous line is placed into a vein, usually in the arm, and the specified chemotherapy agent is administered. The physician provides direct supervision of the administration of the chemotherapy agent and is immediately available to intervene should complications arise. The physician provides periodic assessments of the patient and documentation of the patient's response to treatment.

Drug administration into vein by push technique for therapy, diagnosis, or prevention (each additional push of new drug) [HCPCS 96375]

A therapeutic, prophylactic, or diagnostic injection is administered by intravenous push (IVP) technique. The specified substance or drug is injected using a syringe directly into an injection site of an existing intravenous line or intermittent infusion set (saline lock). The injection is given over a short period of time, usually less than 15 minutes.

Function improvement activities with one-on-one contact between patient and provider (each 15 minutes) [HCPCS 97530]

In a one-on-one physical therapy session, the provider instructs and assists the patient in therapeutic activities designed to address specific functional limitations. The therapeutic activities are specifically developed and modified for the patient. Dynamic/movement activities, also called kinetic activities, that are designed to improve functional performance such as lifting, bending, pushing, pulling, jumping and reaching are included in this service. For example, the patient may be given therapeutic activities to perform to improve the ability to sit, stand, and get out of bed after an injury without straining or risking reinjury. This code is reported for each 15 minutes of one-on-one therapeutic activity provided.

Physcial therapy exercise of walking training to 1 or more areas (each 15 minutes) [HCPCS 97116]

Gait training is a therapeutic procedure that observes and educates an individual in the manner of walking including the rhythm, cadence, step, stride, and speed. The objective of gait training is to strengthen muscles and joints, improve balance and posture, and develop muscle memory. As the lower extremities are retrained for repetitive motion, the body also benefits from the exercise with increased endurance, improved heart/lung function, and reduced or improved osteoporosis. Gait training is an appropriate therapeutic procedure following brain and/or spinal cord injury, stroke, fracture of the pelvis and/or lower extremity, joint injury or replacement of the knee, hip, or ankle, amputation, and for certain musculoskeletal and/or neurological diseases. A treadmill fitted with a safety harness is initially used to ensure safe walking. As the patient gains strength and balance, step training and stair climbing is added to the treatment modality.

Physical therapy evaluation (typically 20 minutes) [HCPCS 97161]

A physical therapy evaluation or re-evaluation is performed. The physical therapist takes a history of the current complaint including onset of symptoms, comorbidities, changes since the onset, treatment received for the symptoms or condition, medications prescribed for it, and any other medications the patient is taking. A physical examination of body systems is done to assess physical structure and function, any activities or movements that exacerbate the symptoms, limit activity, or restrict participation in movement, as well as anything that helps to relieve the symptoms. The evaluation may involve provocative maneuvers or positions that increase symptoms; tests for joint flexibility and muscle strength; assessments of general mobility, posture, and core strength; evaluation of muscle tone; and tests for restrictions of movement caused by myofascial disorders. Following the history and physical, the therapist determines the patient's clinical presentation characteristics, provides a detailed explanation of the condition, identifies physical therapy treatment options, and explains how often and how long physical therapy modalities should be applied. The physical therapist will then develop a plan of care with clinical decision making based on patient assessment and/or measurable functional outcome. The plan of care may include both physical therapy in the clinic and exercises or changes in the home environment. Upon re-evaluation, the established care plan is reviewed and an interim history is taken requiring the use of standardized tests and measures. The patient's response to treatment is evaluated and the plan of care is revised based on the patient's measurable response.

Physical therapy evaluation (typically 30 minutes) [HCPCS 97162]

A physical therapy evaluation or re-evaluation is performed. The physical therapist takes a history of the current complaint including onset of symptoms, comorbidities, changes since the onset, treatment received for the symptoms or condition, medications prescribed for it, and any other medications the patient is taking. A physical examination of body systems is done to assess physical structure and function, any activities or movements that exacerbate the symptoms, limit activity, or restrict participation in movement, as well as anything that helps to relieve the symptoms. The evaluation may involve provocative maneuvers or positions that increase symptoms; tests for joint flexibility and muscle strength; assessments of general mobility, posture, and core strength; evaluation of muscle tone; and tests for restrictions of movement caused by myofascial disorders. Following the history and physical, the therapist determines the patient's clinical presentation characteristics, provides a detailed explanation of the condition, identifies physical therapy treatment options, and explains how often and how long physical therapy modalities should be applied. The physical therapist will then develop a plan of care with clinical decision making based on patient assessment and/or measurable functional outcome. The plan of care may include both physical therapy in the clinic and exercises or changes in the home environment. Upon re-evaluation, the established care plan is reviewed and an interim history is taken requiring the use of standardized tests and measures. The patient's response to treatment is evaluated and the plan of care is revised based on the patient's measurable response.

Physical therapy exercise to develop strength, endurance, range of motion, and flexibility (each 15 minutes) [HCPCS 97110]

Therapeutic exercise is the application of careful, graduated force to the body to increase strength, endurance, range of motion, and flexibility. Increased muscle strength is achieved by the deliberate overloading of a targeted muscle or muscle group and improved endurance is achieved by raising the intensity of the strengthening exercise to the targeted area(s) over a prolonged period of time. To maintain range of motion (ROM) and flexibility requires the careful movement and stretching of contractile and non-contractile tissue that may tighten with injury or neurological disease, causing weakness and/or spasticity. Therapeutic exercise can increase blood flow to the targeted area, reduce pain and inflammation, reduce the risk of blood clots from venous stasis, decrease muscle atrophy and improve coordination and motor control. Therapeutic exercise may be prescribed following acute illness or injury and for chronic conditions that affect physical activity or function.

Physical therapy procedure to re-educate brain-to-nerve-to-muscle function (each 15 minutes) [HCPCS 97112]

Therapeutic procedures for neuromuscular reeducation are used to develop conscious control of a single muscle or muscle group and heighten the awareness of the body's position in space, especially the position of the extremities when sitting or standing. Neuromuscular reeducation is employed during the recovery or regeneration stage following severe injury or trauma, cerebral vascular accident, or systemic neurological disease. The goal of therapy is improved range of motion (ROM), balance, coordination, posture, and spatial awareness. Techniques may include proprioceptive neuromuscular facilitation which uses diagonal contract-relax patterns of skeletal muscles to stimulate receptors in the joints that communicate body position to the brain via motor and sensory nerves. Feldenkrais is a method which observes the patient's habitual movement patterns and teaches new patterns based on efficient active or passive repetitive conditioning. Additional techniques that may be useful for neuromuscular reeducation are Bobath concept, which promotes motor learning and efficient motor control, and biomechanical ankle platform system (BAPS) boards.

Physical therapy techniques to 1 or more regions (each 15 minutes) [HCPCS 97140]

Manual therapies are skilled, specific, hands-on techniques usually performed by physical therapists, occupational therapists, chiropractors, osteopaths, and/or physiatrists to diagnose and treat soft tissue and joint problems. The goal of manual therapy is to modulate pain and induce relaxation, increase range of motion (ROM), facilitate movement, function, and stability, decrease inflammation, and improve muscle tone and extensibility. Tissue mobilization involves slow, controlled myofascial stretching using deep pressure to break up fibrous muscle tissue and/or connective tissue adhesions. Manipulation is a more forceful stretching of the myofascial tissue that takes the joint just beyond its restricted barrier. Manual lymphatic drainage is a type of light massage employed to reduce swelling by gentle movement of the skin in the direction of lymphatic flow. Manual traction involves the controlled counterforce of the therapist to induce asymptomatic strain by gently stretching muscle and/or connective tissue.

Speech, language, voice, communication, and/or hearing processing disorder treatment [HCPCS 92507]

A speech-language pathologist treats a speech, language, voice, communication, and/or auditory processing disorder. Using the information obtained from a separately reportable screening and in-depth evaluation of a speech or language disorder, the clinician develops an individualized treatment plan for the patient. The clinician defines specific treatment goals and sets baseline measures with which to assess the patient's progress. These goals are continuously monitored and fine-tuned throughout the treatment period. Once the goals and baseline measures have been established the clinician uses a number of intervention activities to correct the specific speech or language disorder identified. These can include games, stories, rhymes, drills, and other tasks. If the patient has a speech disorder, the clinician may demonstrate the sounds and have the patient copy the way the clinician moves the lips, mouth, and tongue to make the right sound. A mirror may be used so that the patient can practice making the sound while observing himself or herself in the mirror. Treatment of a language disorder might include help with grammar. If the patient is having difficulty with auditory processing, a game like Simon Says might be used to help improve understanding of verbal instructions.

Airway inhalation treatment to relieve airway obstruction or for sputum collection (inhaled pressure or nonpressure treatment) [HCPCS 94640]

The patient is placed on intermittent inhalation treatment for acute airway obstruction or to induce sputum production for therapeutic and/or diagnostic purposes. To treat acute airway obstruction, pressurized or nonpressurized bronchodilator medication is delivered for short intervals several times a day using an inhaler, nebulizer, aerosol generator, or an intermittent positive pressure breathing (IPPB) device. Bronchodilator medication is suspended as fine particles within a gaseous propellant and taken into the lungs as a fine spray. The medication acts to relax the smooth muscle of the bronchioles and lung tissue, which has constricted in conditions such as an asthma attack or hypersensitivity reaction, severely restricting air flow. The patient uses the prescribed pressurized or nonpressurized inhalation device as directed by the physician typically for 10-15 minutes several times during the day. To induce sputum production for diagnostic purposes, an isotonic or hypertonic solution is delivered using a nebulizer or other device. These solutions induct secretion of sputum in the lower airways. The patient must cough to expectorate the secretions which are collected in a sterile container and sent to the laboratory for separately reportable analysis.

Amount and speed of breathed air measurement and graphic recording before and after medication administration [HCPCS 94060]

Spirometry with bronchodilation responsiveness is a pulmonary function test that is used to help diagnose the cause of shortness of breath and to monitor existing pulmonary disease, such as chronic bronchitis, emphysema, pulmonary fibrosis, chronic obstructive pulmonary disease (COPD), and asthma. The test is first performed without administration of a bronchodilator. A spirometry device consisting of a mouthpiece and tubing connected to a machine that records and displays results is used to perform the test. The patient inhales deeply and then exhales through the mouthpiece. Inhalation and exhalation measurements are first taken with the patient breathing normally. The patient is then instructed to perform rapid, forceful inhalation and exhalation. The spirometer records the volume of air inhaled, exhaled, and the length of time each breath takes. A bronchodilator medication is administered and the test is repeated. The test results are displayed on a graph that the physician reviews and interprets in a written report.

Abdominal ultrasound (complete) [HCPCS 76700]

A real time abdominal ultrasound is performed with image documentation. The patient is placed supine. Acoustic coupling gel is applied to the skin of the abdomen. The transducer is pressed firmly against the skin and swept back and forth over the abdomen and images obtained. The ultrasonic wave pulses directed at the abdomen are imaged by recording the ultrasound echoes. Any abnormalities are evaluated to identify characteristics that might provide a definitive diagnosis. The physician reviews the ultrasound images of the abdomen and provides a written interpretation.

Abdominal ultrasound (limited) [HCPCS 76705]

A real time abdominal ultrasound is performed with image documentation. The patient is placed supine. Acoustic coupling gel is applied to the skin of the abdomen. The transducer is pressed firmly against the skin and swept back and forth over the abdomen and images obtained. The ultrasonic wave pulses directed at the abdomen are imaged by recording the ultrasound echoes. Any abnormalities are evaluated to identify characteristics that might provide a definitive diagnosis. The physician reviews the ultrasound images of the abdomen and provides a written interpretation.

Abdominal, pelvic, and/or scrotal arterial inflow and venous outflow ultrasound (complete study) [HCPCS 93975]

Arms or legs veins ultrasound with assessment of compression and functional maneuvers (complete, both arms or legs) [HCPCS 93970]

A vascular ultrasound study is performed to evaluate veins in the extremities. A duplex scan uses both B-mode and Doppler studies. A clear gel is placed on the skin of the extremity over the region to be studied. A B-mode transducer is placed on the skin and real-time images of the veins are obtained. A Doppler probe within the B-mode transducer provides information on the pattern and direction of blood flow in the veins. The B-mode transducer produces ultrasonic sound waves that move through the skin and bounce off the veins when the probe is moved over the region being studied. The Doppler probe produces sound waves that bounce off blood cells moving within the veins. The reflected sound waves are sent to an amplifier that makes the sound waves audible. The pitch of the sound waves changes if there is reduced blood flow, or ceases altogether if a vessel is completely obstructed. A computer converts the sound waves to images that are overlaid with colors to produce video images showing the speed and direction of blood flow as well as any obstruction. Spectral Doppler analysis is performed to provide information on anatomy and hemodynamic function. The duplex scan may include a baseline evaluation followed by additional scans obtained with compression or using other maneuvers that alter blood flow. The physician reviews the duplex scan and provides a written interpretation of findings.

Arteries and arterial grafts ultrasound of one leg (limited study) [HCPCS 93926]

A vascular ultrasound study is performed to evaluate the lower extremity arteries or arterial bypass grafts. A duplex scan uses both B-mode and Doppler studies. A clear gel is placed on the skin of the lower extremity over the region to be studied. A B-mode transducer is placed on the skin and real-time images of the arteries or arterial bypass grafts are obtained. A Doppler probe within the B-mode transducer provides information on the pattern and direction of blood flow in the artery. The B-mode transducer produces ultrasonic sound waves that move through the skin and bounce off the arteries when the probe is moved over the region being studied. The Doppler probe produces sound waves that bounce off blood cells moving within the artery. The reflected sound waves are sent to an amplifier that makes the sound waves audible. The pitch of the sound waves changes if there is reduced blood flow, or ceases altogether if a vessel is completely obstructed. A computer converts the sound waves to images that are overlaid with colors to produce video images showing the speed and direction of blood flow as well as any obstruction. Spectral Doppler analysis is performed to provide information on anatomy and hemodynamic function, including information on the presence of narrowing and plaque formation within the arteries. The physician reviews the duplex scan and provides a written interpretation of findings.

Arteries of both arms and legs ultrasound (limited) [HCPCS 93922]

Blood flow (outside of the brain) ultrasound on both sides of head and neck [HCPCS 93880]

A vascular ultrasound study is performed to evaluate the extracranial arteries which include the common carotid and external carotid arteries. A duplex scan uses both B-mode and Doppler studies. A clear gel is placed on the skin over the arteries to be studied. A B-mode transducer is placed on the skin and real-time images of the artery are obtained. A Doppler probe within the B-mode transducer provides information on pattern and direction of blood flow in the artery. The B-mode transducer produces ultrasonic sound waves that move through the skin and bounce off the arteries when the probe is placed over the arteries at various locations and angles. The Doppler probe produces sound waves that bounce off blood cells moving within the artery. The reflected sound waves are sent to an amplifier that makes the sound waves audible. The pitch of the sound waves changes if there is reduced blood flow, or ceases altogether if a vessel is completely obstructed. A computer converts the sound waves to images that are overlaid with colors to produce video images showing the speed and direction of blood flow as well as any obstruction. Spectral Doppler analysis is performed to provide information on anatomy and hemodynamic function, including information on the presence of narrowing and plaque formation within the arteries. The physician reviews the duplex scan and provides a written interpretation of findings.

Breast ultrasound (one breast, limited) [HCPCS 76642]

A real time ultrasound of the right or left breast is performed with image documentation, including the axillary area, when performed. Breast ultrasound is used to help diagnose breast abnormalities detected during a physical exam or on mammography. Ultrasound imaging can identify masses as solid or fluid-filled and can show additional structural features of the abnormal area and surrounding tissues. The patient is placed supine with the arm raised above the head on the side being examined. Acoustic coupling gel is applied to the breast and the transducer is pressed firmly against the skin of the breast. The transducer is then swept back and forth over the area of the abnormality and images are obtained. The ultrasonic wave pulses directed at the breast are imaged by recording the ultrasound echoes. Any abnormalities are evaluated to identify characteristics that might provide a definitive diagnosis. The physician reviews the ultrasound images of the breast and provides a written interpretation.

Head and neck ultrasound [HCPCS 76536]

An ultrasound examination of soft tissues of the head and neck is performed with image documentation. The thyroid, parathyroid, or parotid glands and surrounding soft tissue may be examined. Ultrasound visualizes the body internally using sound waves far above human perception bounce off interior anatomical structures. As the sound waves pass through different densities of tissue, they are reflected back to the receiving unit at varying speeds and converted into pictures displayed on screen. A linear scanner or mechanical sector scanner is used to evaluate the shape, size, border, internal architecture, distal enhancement, color flow, and echogenicity of the soft tissue structures of the head and neck as well as any lesions or masses. The echogenicity is compared to that of the surrounding muscle tissue. The physician reviews the images and provides a written interpretation.

Imaging of pelvis by ultrasound through vagina [HCPCS 76830]

A transvaginal ultrasound is performed to evaluate the non-pregnant uterus and other pelvic structures. Conditions that may be evaluated by transvaginal ultrasound include infertility, abnormal bleeding, unexplained pain, congenital anomalies of the ovaries and uterus, ovarian cysts and tumors, pelvic inflammatory disease, bladder abnormalities, and intrauterine device (IUD) location. The patient is asked to empty the bladder and then lies back with the feet in stirrups. A protective cover is placed over the transducer and acoustic coupling gel is applied. The transducer is inserted into the vagina. Images of the uterus, ovaries, and surrounding pelvic structures are obtained from different orientations of the transducer. The ultrasonic wave pulses directed at the pelvic structures are imaged by recording the ultrasound echoes. The uterus is examined and endometrial thickness is determined. The ovaries are examined and any ovarian masses are carefully evaluated. The bladder and other pelvic structures are examined and any abnormalities are noted. The physician reviews the transvaginal ultrasound images and provides a written interpretation.

Leg ultrasound of arteries and arterial grafts of both legs (complete study) [HCPCS 93925]

A vascular ultrasound study is performed to evaluate the lower extremity arteries or arterial bypass grafts. A duplex scan uses both B-mode and Doppler studies. A clear gel is placed on the skin of the lower extremity over the region to be studied. A B-mode transducer is placed on the skin and real-time images of the arteries or arterial bypass grafts are obtained. A Doppler probe within the B-mode transducer provides information on the pattern and direction of blood flow in the artery. The B-mode transducer produces ultrasonic sound waves that move through the skin and bounce off the arteries when the probe is moved over the region being studied. The Doppler probe produces sound waves that bounce off blood cells moving within the artery. The reflected sound waves are sent to an amplifier that makes the sound waves audible. The pitch of the sound waves changes if there is reduced blood flow, or ceases altogether if a vessel is completely obstructed. A computer converts the sound waves to images that are overlaid with colors to produce video images showing the speed and direction of blood flow as well as any obstruction. Spectral Doppler analysis is performed to provide information on anatomy and hemodynamic function, including information on the presence of narrowing and plaque formation within the arteries. The physician reviews the duplex scan and provides a written interpretation of findings.

Pelvis ultrasound, not pregnancy related (limited) [HCPCS 76857]

Pelvis ultrasound, not pregrnancy related (complete) [HCPCS 76856]

A real time pelvic (non-obstetric) ultrasound is performed with image documentation to evaluate the uterus and cervix, ovaries, fallopian tubes, and bladder. Conditions evaluated include pelvic pain, abnormal bleeding, and palpable masses, such as ovarian cysts, uterine fibroids, or other pelvic masses. The patient presents with a full bladder. Acoustic coupling gel is applied to the skin of the lower abdomen. The transducer is pressed firmly against the skin and swept back and forth over the lower abdomen and images obtained of the uterus, ovaries, and surrounding pelvic structures. The ultrasonic wave pulses directed at the pelvic structures are imaged by recording the ultrasound echoes. Any abnormalities are evaluated. The physician reviews the ultrasound images and provides a written interpretation.

Ultrasound of area behind abdominal cavity (complete) [HCPCS 76770]

A real time retroperitoneal ultrasound is performed with image documentation. The patient is placed supine. Acoustic coupling gel is applied to the skin of the abdomen. The transducer is pressed firmly against the skin and swept back and forth over the abdomen and images obtained of the retroperitoneal area. The ultrasonic wave pulses directed at the retroperitoneum are imaged by recording the ultrasound echoes. Any abnormalities are evaluated to identify characteristics that might provide a definitive diagnosis. The physician reviews the ultrasound images of the retroperitoneum and provides a written interpretation.

Imaging of abdomen by MRI without contrast [HCPCS 74181]

Magnetic resonance imaging is done on the abdomen. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the abdomen. MRI is often done for trauma and suspected internal injury, and unexplained abdominal pain, swelling, and fever. MRI scans provide clear images of areas that may be difficult to see on CT. The physician reviews the images to look for information that may correlate to the patient's signs or symptoms, such as the location of tumors, abscesses, or masses; the presence of kidney stones, hernias, appendicitis or other infections, and internal injury.

Imaging of abdomen by MRI without contrast, followed by contrast [HCPCS 74183]

Magnetic resonance imaging is done on the abdomen. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the abdomen. MRI is often done for trauma and suspected internal injury, and unexplained abdominal pain, swelling, and fever. MRI scans provide clear images of areas that may be difficult to see on CT. The physician reviews the images to look for information that may correlate to the patient's signs or symptoms, such as the location of tumors, abscesses, or masses; the presence of kidney stones, hernias, appendicitis or other infections, and internal injury.

Imaging of arm joint by MRI without contrast [HCPCS 73221]

Magnetic resonance imaging is done on a joint of the upper or lower arm. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the joint. MRI scans on joints of the upper extremity are often done for injury, trauma, unexplained pain, redness, or swelling, and freezing of a joint with loss of motion. MRI scans provide clear images of areas that may be difficult to see on CT.

Imaging of brain by MRI without contrast [HCPCS 70551]

Magnetic resonance imaging is done on the brain. MRI is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. MRI of the brain provides reliable information for diagnosing the presence, location, and extent of tumors, cysts, or other masses; swelling and infection; vascular disorders or malformations, such as aneurysms and intracranial hemorrhage; disease of the pituitary gland; stroke; developmental and structural anomalies of the brain; hydrocephalus; and chronic conditions and diseases affecting the central nervous system such as headaches and multiple sclerosis.

Imaging of brain by MRI without contrast, followed by contrast [HCPCS 70553]

Magnetic resonance imaging is done on the brain. MRI is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. MRI of the brain provides reliable information for diagnosing the presence, location, and extent of tumors, cysts, or other masses; swelling and infection; vascular disorders or malformations, such as aneurysms and intracranial hemorrhage; disease of the pituitary gland; stroke; developmental and structural anomalies of the brain; hydrocephalus; and chronic conditions and diseases affecting the central nervous system such as headaches and multiple sclerosis.

Imaging of leg by MRI without contrast [HCPCS 73718]

Magnetic resonance imaging is done on the upper or lower leg, other than a joint. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the leg. MRI scans of the leg are often done for injury, trauma, or unexplained pain and provide clear images of areas that may be difficult to see on CT. The physician reviews the images to look for information that may correlate to the patient's signs or symptoms. MRI provides reliable information for diagnosing tendinitis; muscle atrophy and other anomalous muscular development; lesions of soft tissue and bone; osteomyelitis; contusions, hematomas, and other masses that can be palpated on exam; and broken bones or other abnormal findings on x-ray or bone scan.

Imaging of leg by MRI without contrast, followed by contrast [HCPCS 73720]

Magnetic resonance imaging is done on the upper or lower leg, other than a joint. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the leg. MRI scans of the leg are often done for injury, trauma, or unexplained pain and provide clear images of areas that may be difficult to see on CT. The physician reviews the images to look for information that may correlate to the patient's signs or symptoms. MRI provides reliable information for diagnosing tendinitis; muscle atrophy and other anomalous muscular development; lesions of soft tissue and bone; osteomyelitis; contusions, hematomas, and other masses that can be palpated on exam; and broken bones or other abnormal findings on x-ray or bone scan.

Imaging of leg joint by MRI without contrast [HCPCS 73721]

Magnetic resonance imaging is done on a joint of the upper or lower leg. Magnetic resonance is a noninvasive, non-radiating imaging technique that uses the magnetic properties of hydrogen atoms in the body. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which processes the signals and converts the data into tomographic, 3D images with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. Small coils that help transmit and receive the radiowaves may be placed around the joint. MRI scans on joints of the lower extremity are often done for injury, trauma, unexplained pain, redness, or swelling, and freezing of a joint with loss of motion. MRI scans provide clear images of areas that may be difficult to see on CT. The physician reviews the images to look for information that may correlate to the patient's signs or symptoms. MRI provides reliable information on the presence and extent of tumors, masses, or lesions within the joint; infection, inflammation, and swelling of soft tissue; muscle atrophy and other anomalous muscular development; and joint effusion and vascular necrosis.

Imaging of lower spinal canal by MRI without contrast [HCPCS 72148]

Magnetic resonance imaging (MRI) is done on the lumbar spinal canal and contents. MRI is a noninvasive, non-radiating imaging technique that uses the magnetic properties of nuclei within hydrogen atoms of the body. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which records the images. The computer processes the signals and coverts the data into tomographic, 3D, sectional images in slices with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. MRI scans of the spine are often done when conservative treatment of back pain is unsuccessful and more aggressive treatments are considered or following surgery. The physician reviews the images to look for specific information that may correlate to the patient's symptoms, such as abnormal spinal alignment; disease or injury of vertebral bodies; intervertebral disc herniation, degeneration, or dehydration; the size of the spinal canal to accommodate the cord and nerve roots; pinched or inflamed nerves; or any changes since surgery.

Imaging of middle spinal canal by MRI without contrast [HCPCS 72146]

Magnetic resonance imaging (MRI) is done on the thoracic spinal canal and contents. MRI is a noninvasive, non-radiating imaging technique that uses the magnetic properties of nuclei within hydrogen atoms of the body. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which records the images. The computer processes the signals and converts the data into tomographic, 3D, sectional images in slices with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. MRI scans of the spine are often done when conservative treatment of back/neck pain is unsuccessful and more aggressive treatments are considered or following surgery.

Imaging of upper spinal canal by MRI without contrast [HCPCS 72141]

Magnetic resonance imaging (MRI) is done on the cervical spinal canal and contents. MRI is a noninvasive, non-radiating imaging technique that uses the magnetic properties of nuclei within hydrogen atoms of the body. The powerful magnetic field forces the hydrogen atoms to line up. Radiowaves are then transmitted within the strong magnetic field. Protons in the nuclei of different types of tissues emit a specific radiofrequency signal that bounces back to the computer, which records the images. The computer processes the signals and converts the data into tomographic, 3D, sectional images in slices with very high resolution. The patient is placed on a motorized table within a large MRI tunnel scanner that contains the magnet. MRI scans of the spine are often done when conservative treatment of back/neck pain is unsuccessful and more aggressive treatments are considered or following surgery.

Influenza vaccine for injection into muscle (preservation free) [HCPCS 90662]

High dose flu shot preservative free

Immunization administration of vaccine into, between, or beneath the skin or into muscle (single vaccine) [HCPCS 90471]

A single vaccine or a combination vaccine/toxoid is administered by injection to a patient over age 18 with or without a face-to-face encounter with the physician or other health care professional. These codes are also used when a vaccine/toxoid is given to a patient age 18 or younger without any face-to-face counseling by the physician or other health care professional. Routes of administration include percutaneous, intradermal, subcutaneous, or intramuscular.

Abdominal x-ray (2 views) [HCPCS 74019]

A radiologic examination of the abdomen images the internal organs, soft tissue (muscle, fat), and supporting skeleton. X-ray imaging uses indirect ionizing radiation to take pictures of non-uniform material, such as human tissue, because of its different density and composition, which allows some of the x-rays to be absorbed and some to pass through and be captured. This produces a 2D image of the structures. The radiographs may be taken to look for size, shape, and position of organs, pattern of air (bowel gas), obstruction, foreign objects, and calcification in the gallbladder, urinary tract, and aorta. A radiologic examination of the abdomen may be ordered to diagnose abdominal distention and pain, vomiting, diarrhea or constipation, and traumatic injury; it may also be obtained as a screening exam or scout film prior to other imagining procedures. Common views of the abdomen include front to back anteroposterior (AP) with the patient lying supine or standing erect, back to front posteroanterior (PA) with the patient lying prone, lateral with the patient lying on the side, lateral decubitus anteroposterior (side lying, front to back view), lateral dorsal decubitus (lying supine, side view), oblique (anterior or posterior rotation), and coned (small collimated) views which may be used to localize and differentiate lesions, calcifications, or herniations.

Abdominal x-ray (single view) [HCPCS 74018]

A radiologic examination of the abdomen images the internal organs, soft tissue (muscle, fat), and supporting skeleton. X-ray imaging uses indirect ionizing radiation to take pictures of non-uniform material, such as human tissue, because of its different density and composition, which allows some of the x-rays to be absorbed and some to pass through and be captured. This produces a 2D image of the structures. The radiographs may be taken to look for size, shape, and position of organs, pattern of air (bowel gas), obstruction, foreign objects, and calcification in the gallbladder, urinary tract, and aorta. A radiologic examination of the abdomen may be ordered to diagnose abdominal distention and pain, vomiting, diarrhea or constipation, and traumatic injury; it may also be obtained as a screening exam or scout film prior to other imagining procedures. Common views of the abdomen include front to back anteroposterior (AP) with the patient lying supine or standing erect, back to front posteroanterior (PA) with the patient lying prone, lateral with the patient lying on the side, lateral decubitus anteroposterior (side lying, front to back view), lateral dorsal decubitus (lying supine, side view), oblique (anterior or posterior rotation), and coned (small collimated) views which may be used to localize and differentiate lesions, calcifications, or herniations.

Ankle x-ray (2 views) [HCPCS 73600]

A radiologic examination of the ankle images the bones of the distal lower extremities including the tibia, fibula, and talus. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Ankle x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views of the ankle include front to back anteroposterior (AP), lateral (side), oblique (semi-prone position with body and leg partially rotated), and stress study with traction placed on the joint manually.

Ankle x-ray (minimum of 3 views) [HCPCS 73610]

A radiologic examination of the ankle images the bones of the distal lower extremities including the tibia, fibula, and talus. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Ankle x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views of the ankle include front to back anteroposterior (AP), lateral (side), oblique (semi-prone position with body and leg partially rotated), and stress study with traction placed on the joint manually.

Arm x-ray of forearm (2 views) [HCPCS 73090]

A radiologic examination of the forearm is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. Frontal views, or back to front (PA) views and lateral views are necessary to show the radius and ulna and assess the extent and direction of injury. Since the radius and ulna are anatomically connected at both ends of the bones with ligaments, the two bones function in a manner that makes the forearm considered as a single unit when assessing injury. The two standard views taken for x-ray examination of the forearm include the anteroposterior (AP) view, and the lateral view.

Arm x-ray of upper arm (minimum of 2 views) [HCPCS 73060]

A radiologic examination of the humerus is done with a minimum of 2 views taken. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The surgical neck of the humerus is the most common site of fracture. Shaft fractures are often associated with some kind of pathological lesion. X-rays of the humerus can be taken to detect deformities or lesions in the upper arm, such as cysts, tumors, late stage infection, or other diseases as well as a broken bone. The standard views of the humerus include the front to back anteroposterior view and the side, or lateral view.

Chest x-ray (2 views) [HCPCS 71046]

A radiologic examination of the chest is performed. Chest radiographs (X-rays) provide images of the heart, lungs, bronchi, major blood vessels (aorta, vena cava, pulmonary vessels), and bones, (sternum, ribs, clavicle, scapula, spine). The most common views are frontal (also referred to as anteroposterior or AP), posteroanterior (PA), and lateral. To obtain a frontal view, the patient is positioned facing the x-ray machine. A PA view is obtained with the patient's back toward the x-ray machine. For a lateral view, the patient is positioned with side of the chest toward the machine. Other views that may be obtained include apical lordotic, oblique, and lateral decubitus. An apical lordotic image provides better visualization of the apical (top) regions of the lungs. The patient is positioned with the back arched so that the tops of the lungs can be x-rayed. Oblique views may be obtained to evaluate a pulmonary or mediastinal mass or opacity or to provide additional images of the heart and great vessels. There are four positions used for oblique views including right and left anterior oblique, and right and left posterior oblique. Anterior oblique views are obtained with the patient standing and the chest rotated 45 degrees. The arm closest to the x-ray cassette is flexed with the hand resting on the hip. The opposite arm is raised as high as possible. The part of the chest farthest away from the x-ray cassette is the area being studied. Posterior oblique views are typically obtained only when the patient is too ill to stand or lay prone for anterior oblique views. A lateral decubitus view is obtained with the patient lying on the side; the patient's head rests on one arm, and the other arm is raised over the head with the elbow bent. Images are recorded on hard copy film or stored electronically as digital images. The physician reviews the images, notes any abnormalities, and provides a written interpretation of the findings.

Chest x-ray (single view) [HCPCS 71045]

A radiologic examination of the chest is performed. Chest radiographs (X-rays) provide images of the heart, lungs, bronchi, major blood vessels (aorta, vena cava, pulmonary vessels), and bones, (sternum, ribs, clavicle, scapula, spine). The most common views are frontal (also referred to as anteroposterior or AP), posteroanterior (PA), and lateral. To obtain a frontal view, the patient is positioned facing the x-ray machine. A PA view is obtained with the patient's back toward the x-ray machine. For a lateral view, the patient is positioned with side of the chest toward the machine. Other views that may be obtained include apical lordotic, oblique, and lateral decubitus. An apical lordotic image provides better visualization of the apical (top) regions of the lungs. The patient is positioned with the back arched so that the tops of the lungs can be x-rayed. Oblique views may be obtained to evaluate a pulmonary or mediastinal mass or opacity or to provide additional images of the heart and great vessels. There are four positions used for oblique views including right and left anterior oblique, and right and left posterior oblique. Anterior oblique views are obtained with the patient standing and the chest rotated 45 degrees. The arm closest to the x-ray cassette is flexed with the hand resting on the hip. The opposite arm is raised as high as possible. The part of the chest farthest away from the x-ray cassette is the area being studied. Posterior oblique views are typically obtained only when the patient is too ill to stand or lay prone for anterior oblique views. A lateral decubitus view is obtained with the patient lying on the side; the patient's head rests on one arm, and the other arm is raised over the head with the elbow bent. Images are recorded on hard copy film or stored electronically as digital images. The physician reviews the images, notes any abnormalities, and provides a written interpretation of the findings.

Collar bone x-ray, complete study [HCPCS 73000]

A complete radiologic examination of the clavicle is performed to determine fractures or dislocations. The most common type of fracture involves the middle third of the clavicle, followed by the lateral third distal to the coracoclavicular ligament. The least common type of clavicular fracture involves the proximal third. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. Radiographs are taken according to the suspected location of the injury. Standard evaluation includes an anteroposterior view focused on the midshaft wide enough to assess the acromioclavicular and sternoclavicular joints. Oblique views are also obtained with a cephalic tilt of 20-60 degrees.

Elbow x-ray (2 views) [HCPCS 73070]

A radiologic examination of the elbow is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. X-rays of the elbow are usually considered necessary to assess for fractures or dislocations when the normal range of motion for extension, flexion, supination, and pronation cannot be carried out. Most acute disruptions of the elbow joint can be diagnosed by conventional x-ray examination, with the minimum number of views including the front to back anteroposterior projection with the elbow in as full extension as possible, and the side, or lateral image taken in flexion. A complete series of images also includes an oblique view of the radial head-capitellar image to help diagnose suspected subtle fractures involving the radial head or in cases of acute pain and trauma. The patient needs to be able to hold the elbow in full extension for the front view and in 90 degree flexion for the oblique and lateral views as much as possible.

Elbow x-ray, complete study (minimum of 3 views) [HCPCS 73080]

A radiologic examination of the elbow is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. X-rays of the elbow are usually considered necessary to assess for fractures or dislocations when the normal range of motion for extension, flexion, supination, and pronation cannot be carried out. Most acute disruptions of the elbow joint can be diagnosed by conventional x-ray examination, with the minimum number of views including the front to back anteroposterior projection with the elbow in as full extension as possible, and the side, or lateral image taken in flexion. A complete series of images also includes an oblique view of the radial head-capitellar image to help diagnose suspected subtle fractures involving the radial head or in cases of acute pain and trauma. The patient needs to be able to hold the elbow in full extension for the front view and in 90 degree flexion for the oblique and lateral views as much as possible.

Finger(s) x-ray (minimum of 2 views) [HCPCS 73140]

A radiologic examination of the finger(s) is done with at least 2 different projections taken. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, interphalangeal (IP) joint dislocations, deformities, degenerative bone conditions, osteomyelitis, arthritis, foreign body, or tumors. The posteroanterior projection is taken with the palm down flat, fingers extended, and slightly apart to show the metacarpals, phalanges, and IP joints of the target finger(s). Anteroposterior views are taken with the back of the hand placed on the film and the x-ray beam going from palmar to dorsal direction. Lateral views are taken with the ulnar side of the hand on the film cassette and the fingers spread apart to avoid overlap, sometimes supported from underneath. Oblique views can be obtained with the hand placed palm down and the radial side rotated 45 degrees up away from the surface, with the fingers extended and spread apart.

Foot x-ray (2 views) [HCPCS 73620]

A radiologic examination of the foot images the bones of the distal lower extremity and may include the tibia, fibula, talus, calcaneus, cuboid, navicular, cuneiform, metatarsals, and phalanges. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Foot x-rays may also be used to determine whether there is satisfactory alignment of foot bones following fracture treatment. Standard views of the foot include top to bottom dorsal planter (DP), lateral (side), oblique (semi-prone position with body and leg partially rotated), and stress study with traction placed on the joint manually.

Foot x-ray, complete study (minimum of 3 views) [HCPCS 73630]

A radiologic examination of the foot images the bones of the distal lower extremity and may include the tibia, fibula, talus, calcaneus, cuboid, navicular, cuneiform, metatarsals, and phalanges. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Foot x-rays may also be used to determine whether there is satisfactory alignment of foot bones following fracture treatment. Standard views of the foot include top to bottom dorsal planter (DP), lateral (side), oblique (semi-prone position with body and leg partially rotated), and stress study with traction placed on the joint manually.

Hand x-ray (2 views) [HCPCS 73120]

A radiologic examination of the hand is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, dislocations, deformities, degenerative bone conditions, osteomyelitis, arthritis, foreign body, or tumors. Hand x-rays are also used to help determine the 'bone age' of children and assess whether any nutritional or metabolic disorders may be interfering with proper development. The posteroanterior projection is taken with the palm down flat and may show not only the metacarpals, phalanges, and interphalangeal joints, but the carpal bones, radius, and ulna as well. Lateral views may be taken with the hand placed upright, resting upon the ulnar side of the palm and little finger with the thumb on top, ideally with the fingers supported by a sponge and splayed to avoid overlap. Oblique views can be obtained with the hand placed palm down and rolled slightly to the outside with the fingertips still touching the film surface. The beam is angled perpendicular to the cassette for oblique projections and aimed at the middle finger metacarpophalangeal joint.

Hand x-ray (minimum of 2 views) [HCPCS 73130]

A radiologic examination of the hand is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, dislocations, deformities, degenerative bone conditions, osteomyelitis, arthritis, foreign body, or tumors. Hand x-rays are also used to help determine the 'bone age' of children and assess whether any nutritional or metabolic disorders may be interfering with proper development. The posteroanterior projection is taken with the palm down flat and may show not only the metacarpals, phalanges, and interphalangeal joints, but the carpal bones, radius, and ulna as well. Lateral views may be taken with the hand placed upright, resting upon the ulnar side of the palm and little finger with the thumb on top, ideally with the fingers supported by a sponge and splayed to avoid overlap. Oblique views can be obtained with the hand placed palm down and rolled slightly to the outside with the fingertips still touching the film surface. The beam is angled perpendicular to the cassette for oblique projections and aimed at the middle finger metacarpophalangeal joint.

Hip x-ray of hip with pelvis (2 to 3 views) [HCPCS 73502]

A radiologic examination of the hip is done on either the left or the right side, which may also include the pelvis. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, dislocations, deformities, degenerative bone conditions, osteomyelitis, arthritis, foreign body, infection, or tumor. Hip standard views that are taken most frequently include the front to back anteroposterior view taken with the patient lying supine and the legs straight, rotated slightly inward; the lateral ‘frog-leg’ view, taken with the hips flexed and abducted and the knees flexed with the soles of the feet placed together; a cross table view with the unaffected hip and knee flexed at a 90 degree angle out of the way and the beam aimed perpendicular to the long axis of the femur on the affected side. Another type of lateral view is taken with the hip flexed 45 degrees and abducted 45 degrees and the beam aimed perpendicular to the table.

Knee x-ray (1 or 2 views) [HCPCS 73560]

A radiologic examination of the knee images the femur, tibia, fibula, patella, and soft tissue. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Knee x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views of the knee include front to back anteroposterior (AP), lateral (side), and back to front posteroanterior (PA) with variations in the flexion of the joint, and weight bearing and non-weight bearing postures.

Knee x-ray (3 views) [HCPCS 73562]

A radiologic examination of the knee images the femur, tibia, fibula, patella, and soft tissue. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Knee x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views of the knee include front to back anteroposterior (AP), lateral (side), and back to front posteroanterior (PA) with variations in the flexion of the joint, and weight bearing and non-weight bearing postures.

Lower leg x-ray (2 views) [HCPCS 73590]

A radiologic examination of the tibia and fibula images the bones of the distal lower extremities and may include the knee and ankle joints. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Tibia and fibula x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views of the tibia and fibula include front to back anteroposterior (AP) and lateral (side).

Paranasal sinuses x-ray usually including 4 to 5 standard views of the skull (complete study, miniumum of 3 views) [HCPCS 70220]

Pelvis x-ray (1 or 2 views) [HCPCS 72170]

A diagnostic x-ray examination of the pelvis is done. X-ray uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. Bones appear white while soft tissue and fluids appear shades of grey. Pelvic x-rays are taken when the patient complains of pain and/or injury in the area of the pelvis or hip joints to assess for fractures and detect arthritis or bone disease. The patient is placed on a table and different views of the pelvis are taken by having the patient position the legs and feet differently, such as turning the feet inward to point at each other, or bending the knees outward with the soles of the feet together in a 'frog-leg' position.

Rib cage x-ray of ribs on one side of body (2 views) [HCPCS 71100]

Rib radiographs (x-rays) are typically obtained following trauma to the rib cage to determine if fractures or other internal injuries are present. The most common views of the ribs are anteroposterior (AP) (frontal) and oblique. There are four positions used for oblique views: right anterior oblique, left anterior oblique, right posterior oblique, and left posterior oblique. Anterior oblique views are obtained with the patient standing and the chest rotated 45 degrees. The arm closest to the x-ray cassette is flexed with the hand resting on the hip. The opposite arm is raised as high as possible. The part of the chest farthest away from the x-ray cassette is the area that is being studied. Posterior oblique views are typically obtained only when the patient is too ill to stand or lay prone for anterior oblique views.

Shoulder x-ray, complete study (minimum of 2 views) [HCPCS 73030]

A radiologic examination of the shoulder is done. The shoulder is the junction of the humeral head and the glenoid of the scapula. Standard views include the anteroposterior (AP) view and the lateral 'Y' view, named because of the Y shape formed by the scapula when looking at it from the side. An axial view can also be obtained for further assessment when the patient is able to hold the arm in abduction. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures.

Spinal x-ray of lower and sacral spine (2 or 3 views) [HCPCS 72100]

A radiologic exam is done of the lumbosacral spine. Frontal, posteroanterior, and lateral views are the most common projections taken. X-ray uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures.

Spinal x-ray of lower and sacral spine (minimum of 4 views) [HCPCS 72110]

A radiologic exam is done of the lumbosacral spine. Frontal, posteroanterior, and lateral views are the most common projections taken. X-ray uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures.

Spinal x-ray of middle spine (2 views) [HCPCS 72070]

A radiologic exam is done of the thoracic spine. X-ray uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. X-rays are taken of the thoracic spine to evaluate for back pain or suspected disease or injury. Films are taken from differing views that commonly include anteroposterior, lateral, posteroanterior, and a swimmer's view for the upper thoracic spine in which the patient reaches up with one arm and down with the other as if taking a swimming stroke.

Spinal x-ray of upper spine (2 or 3 views) [HCPCS 72040]

A radiologic exam is done of the cervical spine. Anteroposterior and lateral views are the most common projections taken. X-ray uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures.

Spinal x-ray of upper spine including bending views, complete study (6 or more views) [HCPCS 72052]

Thighbone x-ray (minimum of 2 views) [HCPCS 73552]

A radiologic examination of the femur is done between the hip and the knee. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, conditions such as fractures, dislocations, deformities, degenerative bone conditions, osteomyelitis, arthritis, foreign body, and cysts or tumors. X-rays may also be used to determine whether the femur is in satisfactory alignment following fracture treatment. Femur standard views that are taken most frequently include the front to back anteroposterior view and the lateral view from the side.

Toe(s) x-ray (minimum of 2 views) [HCPCS 73660]

A radiologic examination of the calcaneus images the bones of the distal lower extremity and usually includes the tibia, fibula, and talus. A radiologic examination of the toe(s) (phalanges) will usually include the metatarsals. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for the cause of pain, limping, or swelling, or conditions such as fractures, dislocations, deformities, degenerative disease, osteomyelitis, arthritis, foreign body, and cysts or tumors. Calcaneus and toe(s) x-rays may also be used to determine whether there is satisfactory alignment of lower extremity bones following fracture treatment. Standard views to image the calcaneus include lateral (side) and axial (supine with foot dorsiflexed). Common views to image the toe(s) include top to bottom dorsal planter (DP) and oblique (supine with leg rotated medially to image the 1st, 2nd, and 3rd digits and laterally to image the 4th and 5th digits).

Wrist x-ray (2 views) [HCPCS 73100]

A radiologic examination of the wrist is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, dislocations, deformities, arthritis, foreign body, infection, or tumor. Wrist standard views include the front to back anteroposterior (AP) or back to front posteroanterior (PA) projection; the lateral view with the elbow flexed and the hand and wrist placed thumb up; and oblique views. Oblique views are obtained with the hand and wrist either supinated or pronated with the hand slightly flexed so the carpal target area lies flat, and then rotating the wrist 45 degrees externally or internally. A more specialized image may be obtained for assessing carpal tunnel. For the carpal tunnel view, the forearm is pronated with the palm down, and the wrist is hyperextended as far as possible by grasping the fingers with the opposite hand and gently hyperextending the joint until the metacarpals and fingers are in a near vertical position.

Wrist x-ray, complete study (minimum of 3 views) [HCPCS 73110]

A radiologic examination of the wrist is done. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. The radiographs may be taken to look for conditions such as fractures, dislocations, deformities, arthritis, foreign body, infection, or tumor. Wrist standard views include the front to back anteroposterior (AP) or back to front posteroanterior (PA) projection; the lateral view with the elbow flexed and the hand and wrist placed thumb up; and oblique views. Oblique views are obtained with the hand and wrist either supinated or pronated with the hand slightly flexed so the carpal target area lies flat, and then rotating the wrist 45 degrees externally or internally. A more specialized image may be obtained for assessing carpal tunnel. For the carpal tunnel view, the forearm is pronated with the palm down, and the wrist is hyperextended as far as possible by grasping the fingers with the opposite hand and gently hyperextending the joint until the metacarpals and fingers are in a near vertical position.

X-ray of sacrum and tailbone (minimum of 2 views) [HCPCS 72220]

A radiologic examination of the sacrum and coccyx is done with at least 2 views obtained. X-ray imaging uses indirect ionizing radiation to take pictures inside the body. X-rays work on non-uniform material, such as human tissue, because of the different density and composition of the object, which allows some of the x-rays to be absorbed and some to pass through and be captured behind the object on a detector. This produces a 2D image of the structures. Routine views include an anteroposterior (AP) or posteroanterior (PA) view of the sacrum, an AP or PA view of the coccyx, and lateral sacrum/coccyx views. For the sacral view, the patient's pelvis needs to be positioned correctly so the sacrum and sacroiliac joints are symmetrical. Because the coccyx has a forward curvature in relation to the sacrum, it is not automatically visualized when taking an AP view of the sacrum, and so another positioning is done for the coccyx. For lateral views, the patient stands sideways with feet shoulder width apart and arms crossed at the shoulders. Lateral imaging shows the entire 5th lumbar vertebra, the sacrum, and the coccyx. Good sacrum and coccyx imaging requires patient preparation with an empty bladder, clean colon, and removal of clothing in favor of wearing a gown. This is due to the difficulty these obstructions can cause in achieving a good radiographic image. Shielding is done for males, but is not possible for female patients.

Digital tomography of both breasts (screening exam) [HCPCS 77063]

Digital screening mammogram

Mammography of both breasts (screening exam) [HCPCS 77067]

Bilateral screening mammography is done with computer-aided lesion detection (CAD), when performed. Mammography is the radiographic imaging of the breast using low-dose ionizing radiation. The x-rays used in mammography have a longer wavelength than those typically used for bone imaging. A screening mammogram is done on asymptomatic women for early breast cancer detection when there are no known palpable masses. This is done on both breasts with two views taken on each side. The breast is compressed between planes on a machine dedicated strictly to mammography. This evens out the dense tissue and holds the breast still for a better quality image. Computer-aided detection uses algorithm analysis of the image data obtained from the mammographic films, with or without digitization of the radiographic images. The mammographic picture of the breast is used by scanning the x-ray film with a laser beam, usually converting the scanned image of the analog film into digital data for the computer first, then employing a methodical, step-by-step pattern of analyzing the data on video display for unusual or suspicious areas.

Mammography of both breasts for diagnosis [HCPCS 77066]

These codes report diagnostic mammography of one breast or both breasts with computer-aided lesion detection (CAD), when performed. Mammography is the radiographic imaging of the breast using low-dose ionizing radiation. The x-rays used in mammography have a longer wavelength that those typically used for bone imaging. The test is done to detect tumors or cysts in women who have symptoms of breast disease or a palpable mass. The breast is compressed between planes on a machine dedicated strictly to mammography. This evens out the dense tissue and holds the breast still for a better quality image. Computer-aided detection uses algorithm analysis of the image data obtained from the mammographic films, with or without digitization of the radiographic images. The mammographic picture of the breast is used by scanning the x-ray film with a laser beam, usually converting the scanned image of the analog film into digital data for the computer first, then employing a methodical, step-by-step pattern of analyzing the data on video display for unusual or suspicious areas.

Mammography of one breast for diagnosis [HCPCS 77065]

These codes report diagnostic mammography of one breast or both breasts with computer-aided lesion detection (CAD), when performed. Mammography is the radiographic imaging of the breast using low-dose ionizing radiation. The x-rays used in mammography have a longer wavelength that those typically used for bone imaging. The test is done to detect tumors or cysts in women who have symptoms of breast disease or a palpable mass. The breast is compressed between planes on a machine dedicated strictly to mammography. This evens out the dense tissue and holds the breast still for a better quality image. Computer-aided detection uses algorithm analysis of the image data obtained from the mammographic films, with or without digitization of the radiographic images. The mammographic picture of the breast is used by scanning the x-ray film with a laser beam, usually converting the scanned image of the analog film into digital data for the computer first, then employing a methodical, step-by-step pattern of analyzing the data on video display for unusual or suspicious areas.

Drug administration beneath the skin or into muscle by injection for therapy, diagnosis, or prevention [HCPCS 96372]

A subcutaneous or intramuscular injection of a therapeutic, prophylactic, or diagnostic substance or drug is given. A subcutaneous injection is administered just under the skin in the fatty tissue of the abdomen, upper arm, upper leg, or buttocks. The skin is cleansed. A two-inch fold of skin is pinched between the thumb and forefinger. The needle is inserted completely under the skin at a 45 to 90 degree angle using a quick, sharp thrust. The plunger is retracted to check for blood. If blood is present, a new site is selected. If no blood is present, the medication is injected slowly into the tissue. The needle is withdrawn and mild pressure is applied. An intramuscular injection is administered in a similar fashion deep into muscle tissue, differing only in the sites of administration and the angle of needle insertion. Common sites include the gluteal muscles of the buttocks, the vastus lateralis muscle of the thigh, or the deltoid muscle of the upper arm. The angle of insertion is 90 degrees. Intramuscular administration provides rapid systemic absorption and can be used for administration of relatively large doses of medication.

Drug administration into vein by infusion for therapy, prevention, or diagnosis (each additional hour) [HCPCS 96366]

Intravenous infusion, for therapy, prophylaxis, or diagnosis (specify substance or drug); each additional hour (List separately in addition to code for primary procedure)

Drug administration into vein by infusion for therapy, prevention, or diagnosis (up to 1 hour) [HCPCS 96365]

An intravenous infusion of a specified substance or drug is administered for therapy, prophylaxis, or diagnosis. An intravenous line is placed into a vein, usually in the arm, and the specified substance or drug is administered. The physician provides direct supervision of the administration and is immediately available to intervene should complications arise. The physician provides periodic assessments of the patient and documentation of the patient's response to treatment.

Drug administration into vein by push technique for therapy, diagnosis, or prevention (each additional push of same drug) [HCPCS 96376]

A therapeutic, prophylactic, or diagnostic injection is administered by intravenous push (IVP) technique. The specified substance or drug is injected using a syringe directly into an injection site of an existing intravenous line or intermittent infusion set (saline lock). The injection is given over a short period of time, usually less than 15 minutes.

Hydration administration into vein by infusion (31 minutes to 1 hour) [HCPCS 96360]

An intravenous infusion is administered for hydration. An intravenous line is placed into a vein, usually in the arm, and fluid is administered to provide additional fluid levels and electrolytes to counteract the effects of dehydration or supplement deficient oral fluid intake. The physician provides direct supervision of the fluid administration and is immediately available to intervene should complications arise. The physician provides periodic assessments of the patient and documentation of the patient's response to treatment.

Hydration administration into vein by infusion (each additional hour) [HCPCS 96361]

An intravenous infusion is administered for hydration. An intravenous line is placed into a vein, usually in the arm, and fluid is administered to provide additional fluid levels and electrolytes to counteract the effects of dehydration or supplement deficient oral fluid intake. The physician provides direct supervision of the fluid administration and is immediately available to intervene should complications arise. The physician provides periodic assessments of the patient and documentation of the patient's response to treatment. Use 96360 for the initial 31 minutes to one hour of hydration. Use 96361 for each additional hour.

Implanted venous access drug delivery device irrigation [HCPCS 96523]

Sleep pattern monitoring of patient in sleep lab with continued pressured respiratory assistance by mask or breathing tube (6 years of age or older) [HCPCS 95811]

Polysomnography is performed with sleep staging by a sleep technologist. Sleep studies are performed to evaluate and diagnose a variety of sleep disorders including sleep apnea, narcolepsy, insomnia, sleep walking, restless leg syndrome, and other periodic movements during sleep. The patient presents to the sleep study center in the evening. Sleep staging is accomplished using electroencephalography (EEG), electro-oculogram (EOG), and electromyogram (EMG). EEG is performed using one to four electrodes attached to the scalp. Electrodes are attached around the eyes and an EOG performed to monitor eye movement. A submental EMG is performed by placing an electrode under the chin to record muscle tone. One or more additional parameters of sleep are recorded and analyzed including: heart rate and rhythm; airflow; ventilation and respiratory effort; gas exchange by oximetry, transcutaneous monitoring, or end tidal gas analysis; extremity muscle activity or motor activity-movement; extended EEG monitoring; penile tumescence; gastroesophageal reflux; continuous blood pressure monitoring; snoring; and/or body position. The room is darkened and brain activity, eye and muscle movement are recorded. Other parameters of sleep are monitored and recorded as needed. The physician analyzes the recorded data obtained during the polysomnography and provides a written interpretation of the test results. If CPAP is performed a nasal mask is applied to the nose to keep the airway open during inhalation. If bi-level ventilation is performed, a ventilator is used to augment respiration while still allowing spontaneous unassisted respiration.

Sleep pattern monitoring of patient in sleep lab, sleep staging with 4 or more parameters of sleep (6 years of age or older) [HCPCS 95810]

Therapeutic excercises and water pool therapy to 1 or more areas (each 15 minutes) [HCPCS 97113]

Blood infection without major complications

Nutritional or Metabolic Disorders without major complications

Total Knee or Hip Replacement

Pneumonia with complications

Kidney & urinary Infection without complications