A. Tensile strength

B. Youngs modulus

D. Modulus of elasticity

A. Silicates

B. Zinc particles

D. Aluminium

A. BHN

B. RHN

C. VHN

A. Packing past the dough stage

C. Thickness of the resin

D. Lack of temperature

A. 0.6% to 0.8%

B. 8% to 10%

C. 3% to 5%

A. Aluminium

B. Silicates

C. Zinc particles

A. Evaluate brittleness of different alloys

B. Define and measure colour qualitatively

D. Define and measure physical properties of gold alloys

A. Decrease coefficient of thermal expansion

B. Decrease porosity in restorative material

D. Decrease polymerization shrinkage

A. Low impact strength

C. Excessive expansion

D. Excessive brittleness

A. An external force opposing an applied load

C. An applied load or force

D. An internal force opposing an applied load

A. Type I and Type II gold can be heat treated and annealed

B. Type I and IV gold can be heat treated and annealed

D. All the type of gold can be heat treated and annealed

A. sonic bonds

B. Vander Walls Forces

D. Hydrogen Bonds

B. Viscoelastic

C. Pseudoplastic

D. Plastic

A. Polycarboxylate

B. Slicate cement

D. Composite

A. Reducing zone

B. Combustion zone

D. None of the above

A. Contains only primer

B. 4th generation bonding agents

C. Separate etching step not required

A. Inhomogeneous colour

B. Increased strength

D. Distortion

A. Lasers

B. Heat

C. Chemicals

B. B titanium

C. Chrome-cobalt-nickel

D. a titanium

A. Gypsum bonded

B. Silica bonded

D. None of the above

A. No reservoir

B. Inadequate air discharge

C. Investment heated strongly

A. 0.40%

C. 3.40%

D. 2.40%

A. Inhomogeneous colour

B. Distortion

C. Increased strength

A. All of the above

C. To initiate release of free radicalls

D. To enable polymerization reaction at room temperature

B. Hardness

C. Fatigue resistance

D. Resilience

B. Glass ionomer restoratives

C. Hybrid resin composites

D. Macrofilled resin composites

A. Cold H2SO4

C. Warm HCI

D. Cold HF

B. Localised Shrinkage porosity

C. Gas inclusion porosity

D. Surface porosity

A. Methyl ethyl methacrylate

B. Polymethylmethacrylate

D. Ethylmethacrylate

B. Beta form

C. Alpha form

D. None of the above

B. 1925

C. 1956

D. 1951

B. Inter metallic compounds

C. Eutectic mixture

D. Peritectic mixture

A. D-methyl paratolouidine

C. Benzoyl peroxide

D. Hydroquinone

A. Cold water

B. Under pressure

C. In vaccum

B. Stainless steel

C. None of the above

D. Iron

A. 8%

B. 21%

C. 10%

A. Resilience

B. Elastic limit

D. Toughness

A. Is fiber optic

B. Will cure composite upto a depth of 5 millimeter thickness

C. Need no protection while in use

A. High flow

B. High adherend wetting

C. Low contact angle

A. Flow

B. Proportional limit

C. Ultimate tensile strength

A. Higher solubility in saliva

B. Lower modulus of elasticity

D. Esthetic excellence

A. 4:01

C. 5:01

D. 10:01

A. Cataract

C. Conjunctivitis

D. Iritis

A. Increasing the melting temperature

B. Increasing the mould temperature

C. Decreasing the sprue length

A. The maximum stress in a structure

B. The maximum elongation under tension that can be measured before failure

D. The minimum force required to cause a structure to break

A. Acrylic

B. Porcelain

D. Carbon

A. Have a higher coefficient of thermal expansion

C. Adapt to the walls of the cavity better

D. Prevent galvanic action

A. Resillience

B. Ultimate strength

C. Elastic limit

B. Irregularities present between Adherent surfaces

C. Adherent and Adhesive molecules are tangent to each other

D. Rough surfaces between Adhesive & Adherent

B. High water absorption

C. High polymerization shrinkage

D. Low compressive strength