A. 35% proteins, 15% fats, 50% carbohydrates

B. 20% proteins, 35% fats, 45% carbohydrates

D. 25% proteins, 25% fats, 50% carbohydrates

A. Reverse transcriptase

B. Ligase

C. DNAse

A. nidogen

B. Laminin

D. Eutactin

A. Alpha 1 globulin

B. Gamma Globulin

D. Beta Globulin

A. Central incisors

B. First molar

D. Premolars

A. Structural proteins

C. Polymer

D. Substrate protiens

A. 3 years

C. 1 month

D. 2 years

A. Clofibrate

B. cholestyramine

C. Gemfibrosil

B. 30

C. 22

D. 20

A. Increased HCO3 Production

B. Increased urinary phosphates

C. Hyperventilation

A. It is too early to make final predication

B. The child may never develop premolars

D. Primary second molar extracted to allow mesial drifting of permanent first molar

A. It gets broken down to nucleotides

C. It becomes single stranded irreversibly

D. It becomes double stranded irreversibly

A. Peroxidase

C. Reductase

D. Lipo oxygenase inhibition

B. Prostacyclins

C. Calcium ions

D. Cyclic AMP

A. VLDL

C. HDL

D. LDL

A. None of the above

C. Fructose

D. Sucrose

A. 120 gms

B. 6 gms

D. 250 gms

B. 4 years

C. 2 years

D. 6 years

A. Tyrosine

C. Epinephrine

D. Phenylalanine

A. Two

B. Four

C. One

A. 6 yrs

B. 8 yrs

D. 10 yrs

B. Palmitic acid

C. Oleic acid

D. Stearic acid

A. Catalase

B. Cytochrome

C. Myoglobin

A. Arachitlonic acid

C. Palmitic acid

D. Linolenic acid

B. Protein synthesis

C. Oxidation

D. Fat synthesis

B. Acid

C. Water

D. Enzymes

A. Spleen

C. Gut

D. All of the above

A. 5? capping

B. Splicing

D. 3? polyadenylation

B. Decidous maxillary 1st molar

C. Decidous mandibular 2nd molar

D. Decidous mandibular 1st molar

A. Second premolar

B. Primary first molar

D. Permanent second molar

A. HDL

B. LDL

D. Chylomicrons

A. Oleic, linoleic and linolenic acid

B. Palmitic Oleic and arachidonic

D. Linoleic, arachidonic and stearic acid

A. Nucleus

B. Mitochondria

C. Centrosome

A. None of the above

C. Fatty acids

D. Amino acids

B. Pyrrole rings

C. Vinyl groups

D. Histidine

A. All of the above

B. Results in constriction at cervical region

C. Enamel rods at cervical region directed occlusally

A. Phosphates

B. Phytates

D. Tannins

B. Decidous mandibular 2nd molar

C. Decidous mandibular 1st molar

D. Decidous maxillary 1st molar

A. Ribonucleic acid

B. Lipoproteins

C. Chromo proteins

A. Phenylalanine to tyrosine

B. Dopa to dopamine

D. Dopamine to nor epinephrine

B. A=U=T=G=C

C. A+T=G+C

D. A/T=G/C

A. 3 4 mg%

B. 1 3 mg%

C. 4 5.5 mg%

A. After B

C. After E

D. Before B

A. Non overlapping

B. Degenerate

D. Universal

A. Micronutrients

C. Carbohydrates

D. Fats

B. Not known

C. Vander wall forces

D. Hydrogen bonding

A. Maxillary central incisor

C. Maxillary second molar

D. Mandibular first molar

A. DNA

B. t-RNA

D. Ribosomal RNA

A. Permanent canines

C. Permanent 3rd molar

D. Primary canines & second molars

A. Symmertrical bi leaflet structures

B. Lipid and protein moiety are held by covalent interactions

C. Rigid assembly of protein, lipid and carbohydrate