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BIO CHEMISTRY MCQs (PART 1)

BIO CHEMISTRY MCQs (PART 1)







 00. The ability of liver to remove a dye like BSP from the blood suggests a normal
(A) Excretory function
(B) Detoxification function
(C) Metabolic function
(D) Circulatory function

 01. Removal of BSP dye by the liver involves conjugation with
(A) Thiosulphate
(B) Glutamine
(C) Cystein component of glutathione
(D) UDP glucuronate

 02. Normal value of plasma total proteins varies between
(A) 3–4 gm/100ml
(B) 6–8 gm/100ml
(C) 10–12 gm/100ml
(D) 14–16 gm/100ml

03. A decrease in albumin with increased production of other unidentified proteins which migrate in β, γ region suggests
 (A) Cirrhosis of liver
 (B) Nephrotic syndrome
 (C) Infection
 (D) Chronic lymphatic leukemia

 04. In increase in α2-Globulin with loss of albumin in urine suggests
(A) Primary immune deficiency
(B) Nephrotic syndrome
(C) Cirrhosis of liver
(D) Multiple myeloma

05. The normal levels of prothrombin time is about
(A) 2 sec
(B) 4 sec
(C) 14 sec
(D) 10–16 sec

 06. In obstructive jaundice prothrombin time
(A) Remains normal
(B) Decreases
(C) Responds to vit K and becomes normal
(D) Responds to vit K and increases

 07. In parenhymatous liver disease the prothrombin time
(A) Remains normal
(B) Increases
(C) Decreases
(D) Responds to Vit K

08. Urea clearance test is used to determine the
(A) Glomerular filtration rate
(B) Renal plasma flow
(C) Ability of kidney to concentrate the urine
(D) Measurement of tubular mass

09. The formula to calculate maximum urea clearance is U V× B , where U denotes
 (A) Concentration of urea in urine in gm/24hr
 (B) Concentration of urea in urine in mg/100 ml
 (C) Concentration of urea in blood in mg/100 ml
 (D) Volume of urine in ml/mt

 10. Average maximum urea clearance is
(A) 30 ml
(B) 50 ml
(C) 75 ml
(D) 90 ml

11. The average normal value for standard urea clearance is
(A) 20 ml
(B) 30 ml
(C) 40 ml
(D) 54 ml

12. Urea clearance is lowered in
(A) Acute nephritis
(B) Pneumonia
(C) Early stage of nephritic syndrome
(D) Benign hypertension

13. Glomerular filtration rate can be measured by
(A) Endogenous creatinine clearance
(B) Para-aminohippurate test
(C) Addis test
(D) Mosenthal test

 14. At normal levels of creatinine in the blood, this metabolite is
(A) Filtered at the glomerulus but not secreted nor reabsorbed by the tubule
(B) Secreted by the tubule
(C) Reabsorbed by the tubule
(D) Secreted and reabsorbed by tubul

 15. The normal values for creatinine clearance varies from
(A) 20–40 ml/min
(B) 40–60 ml/min
(C) 70–85 ml/min
(D) 95–105 ml/min

 16. Measurement of insulin clearance test is a measure of
(A) Glomerular filtration rate
(B) Filtration factor
(C) Renal plasma flow
(D) Tubular secretory mass

17. The polysaccharide insulin is
(A) Filtered at the glomerulus but neither secreted nor reabsorbed by the tubule
(B) Filtered at the glomerulus and secreted by the tubule
(C) Filtered at the glomerulus and reabsorbed by the tubule
(D) Filtered at the glomerulus, secreted and reabsorbed by the tubule

18. Normal insulin clearance is
(A) 40 ml/1.73 sqm
(B) 60 ml/1.73 sqm
(C) 80 ml/1.73 sqm
(D) 120 ml/1.73 sqm

 19. Creatinine EDTA clearance is a test to measure
(A) Renal plasma flow
(B) Filtration fraction
(C) Glomerular filtration rate
(D) Tubular function

 20. The end products of saponification:
(A) glycerol
(B) acid
(C) soap
(D) Both (A) and (C)

21. The normal PAH clearance for a surface area of 1.73 sqm. Is
(A) 200 ml/min
(B) 300 ml/min
(C) 400 ml/min
(D) 574 ml/min

 22. Para amino hippurate is
(A) Filtered at glomeruli and secreted by the tubules
(B) Filtered at glomeruli and not secreted by the tubules
(C) Filtered at glomeruli and reabsorbed completely
(D) Not removed completely during a single circulation of the blood through the kidney.

23. The Tm for PAH i.e the maximal secretory capacity of the tubule for PAH can be used to gavge the 
(A) Extent of tubular damage
(B) Impairment of the capacity of the tubule to perform osmotic work
(C) Impairment of renal plasma flow
(D) Glomerular filtration rate

24. The normal Tm in mg/min/1.73 sqm for PAH is
(A) 20
(B) 40
(C) 60
(D) 80

 25. The normal range of filtration factor in an adult is
(A) 0.10–0.15
(B) 0.16–0.21
(C) 0.25–0.30
(D) 0.35–0.40


26. Hepatocellular jaundice as compared to pure obstructive type of jaundice is characterized by
(A) Increased serum alkaline phosphate, LDH and ALT
(B) Decreased serum alkaline phosphatase, LDH and ALT
(C) Increased serum alkaline phosphatase and decreased levels of LDH and ALT
(D) Decreased serum alkaline phosphatase and increased serum LDH and ALT

 27. Icteric index of an normal adult varies between
(A) 1–2
(B) 2–4
(C) 4–6
(D) 10–15

28. Clinical jaundice is present with an icteric index above
(A) 4
(B) 8
(C) 10
(D) 15

 29. Normal quantity of urobilinogen excreted in the feces per day is about
(A) 10–25 mg
(B) 50–250 mg
(C) 300–500 mg
(D) 700–800 mg

30. Fecal urobilinogen is decreased in
(A) Obstruction of biliary duct
(B) Hemolytic jaundice
(C) Excess fat intake
(D) Low fat intake

 31. A complete absence of fecal urobilinogen is strongly suggestive of
(A) Obstruction of bile duct
(B) Hemolytic jaundice
(C) Intrahepatic cholestasis
(D) Malignant obstructive disease

32. Immediate direct Vanden Bergh reaction indicates
(A) Hemolytic jaundice
(B) Hepatic jaundice
(C) Obstructive jaundice
(D) Megalobastic anemia

 33. The presence of bilirubin in the urine without urobilinogen suggests
(A) Obstructive jaundice
(B) Hemolytic jaundice
(C) Pernicious anemia
(D) Damage to the hepatic parenchyma

 34. Impaired galactose tolerance test suggests
(A) Defect in glucose utilisation
(B) Liver cell injury
(C) Renal defect
(D) Muscle injury

 35. Increased serum ornithine carabamoyl transferase activity is diagnostic of
(A) Myocardial infarction
(B) Hemolytic jaundice
(C) Bone disease
(D) Acute viral hepatitis

 36. The best known and most frequently used test of the detoxicating functions of liver is
(A) Hippuric acid test
(B) Galactose tolerance test
(C) Epinephrine tolerance test
(D) Rose Bengal dye test

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