A. Dispersion of crystalline phase

C. All of the above

D. Transformation toughening

A. Maximum matrix and minimum alloy phase

C. Minimum alloy phase

D. Maximum matrix phase

A. 29%

B. 12-30%

C. 19%

A. Rapidity of firing

B. All of the above

C. High firing temperature

A. Gastro-intestinal Track

B. Lungs

D. Skin

A. Gold

B. Composite

C. Silicate

A. 16 hours

B. 4 hours

D. hours

A. Acetic acid

B. Calcium chloride

C. Zinc acetate dehydrate

A. Low Bisque stage

B. High Bisque stage

C. Fusion stage

A. 1056

B. 1886

D. 1560

A. Zinc oxide eugenol

B. Zinc polycarboxylate

C. SIlicate

D. Glass ionomer

A. 22.2ml

C. 30.4ml

D. 45.3ml

B. More condensing force is required

C. Both require same condensing force

D. Manipulation is easy

A. Low esthetic value

C. High hardness

D. High ductility

A. Rosin

C. Zinc acetate

D. Oil of cloves

A. C=C double bond

B. Polymer chains

C. Chelates with Metal Ions

B. GIC and silicate

C. ZnPO4 and silicate

D. GIC and ZnPO4

A. Silicate and GIC

C. Zinc phosphate and GIC

D. ZOE and Silicate

B. Silica

C. Copper oxide

D. Boric oxide

A. Decreased strength

C. Decreased film thickness

D. Increased setting time

A. Zinc phosphate

C. Gutta-percha

D. Resin

A. Disintegration of opaque layer

B. High firing temperature

D. Formation of excess oxides

A. QTH

B. PAC

D. LED

A. Resin cement

B. Silicate cement

C. Polycarboxylate cement

B. Plateau

C. Ash

D. McClean

B. Inhibits hemoglobin synthesis, producing anemia

C. Complexes with hemoglobinto form methemoglobin

D. Inhibits anaerobic glycolysis

A. More gamma 1 phase formed

B. Lower the creep value

C. Higher the strength

A. 5 minutes

C. 15 minutes

D. 6 minutes

B. Hydrated Aluminium Phosphate with calcium fluoride

C. Hydrate Aluminosilicate gel

D. Hydrated Aluminium phosphate

A. From smooth atomized particles

C. From lathe cut particles

D. From traditional alloy particles

A. Five to six minutes

B. Seven to eight minutes

C. One to two minutes

A. Alumino silicate powder and phosphoric acid

B. Zinc oxide powder and polyacrylate liquid

D. Zinc oxide powder and phosphoric acid

A. Decreases creep

B. Gives al dull and crumbly amalgam

C. Reduces contraction

A. Gold with silver

B. Gold with much of chromium

D. Gold added with calcium

A. None of the above

B. Parallel to long axis of crown

C. Perpendicular to the walls

B. Tensile force

C. Transverse bending force

D. Compression

B. mixing powder to liquid, checked by water

C. faster addition of powder to liquid

D. mixing more powder to the liquid

B. In the restoration of posterior tooth

C. Mouth breathers

D. None of the above

A. That beryllium flux is used in silicates

C. Due to the high silica content

D. That silicates show very little leakage at the margins of the restoration

A. Highly polished porcelain

C. Highly polished acrylic

D. Highly polished metal

A. Temporary dressing

C. cementing orthodontic bands

D. base

A. Transparency

C. Chemical bond

D. Metallic bind

A. dispersed porcelain

B. All of the above

C. Glazed porcelain

A. High bisque

B. Low bisque

C. Medium bisque

B. Kaolin

C. Quartz

D. Clay

B. 20

C. 18

D. 22

A. Calcium hydroxide

B. Zinc oxide eugenol

D. Zinc phosphate

B. Copper cement

C. GIC

D. Zinc phosphate cement

A. Linear coefficient of thermal expansion greater than, but close to that of the metal

B. high fusion expansion

C. high fusion temperature

A. Consistency of mix

B. Alteration of mixing time

D. Temp of glass slab