A. Square root

B. Linear

C. Exponential

A. Defined on the basis of melting point of ice and evaporation temperature of water vapor

B. Defined on the basis of melting point of ice and condensation temperature of water vapor

C. Having an interval of 100 between ice point to steam point

A. Has a better heat transfer characteristics, and it can be pressurised to attain a high temperature

B. Is a better neutron moderator as well

C. Require comparatively smaller pumps and heat exchanger for a given heat transfer rate

A. Cyclotron

B. Mass spectrograph

D. Cold chamber

A. Plutonium-239

B. Thorium-233

C. Uranium-235

A. Increases exponentially

B. Increases

D. Remain constant

A. 0.1

C. 29

D. 3

A. Convert fertile material to fissile material

B. Use fast neutrons for fission

C. Use molten sodium as coolant

B. Boron

C. Concrete

D. 18/8 stainless steel

A. 4-Jan

B. 8-Jan

D. 2-Jan

A. Air to open valve with the controller direct acting

B. Air to close valve with the controller direct acting

D. Air to close valve with the controller indirect acting

A. Either A. or B.

C. Open

D. Neither A. nor B.

A. Haldane apparatus

B. Mass spectrometer

C. Chromatograph

A. Inconel

B. Steel

C. Nichrome

A. 1

B. 2

C. 7

B. Relays for opening & closing of electrical circuits

C. Bimetallic thermometers

D. Thermostats

B. Liquid volume in the tank

C. Heat content of the system

D. Flow rate

A. Absolute

B. Atmospheric

D. None of these

A. Uranium-235

B. Uranium-233

C. Plutonium-239

A. Maintenance cost of the former is less

B. None of these

C. Thermal efficiency of the former is higher

A. Mcleod gauge

C. Bourdon gauge

D. Alphatron

A. Chromatograph

C. Mass spectrometer

D. Polarimeter

B. None of these

C. Stable

D. Critically damped

A. 0

B. 45

D. 90

A. Photoelectric pyrometer

C. Optical pyrometer

D. Radiation pyrometer

A. Uranium

B. Uranium carbide

C. Uranium oxide

A. Kaiga (Karnataka)

B. Rawatbhata (Rajasthan)

C. Kalpakkam (Tamilnadu)

A. Nuclear charge

B. Electronic configuration

C. Chemical properties

A. Isotonic solutions

B. Gases

C. Liquids

B. 88

C. 72

D. 52

A. Q0T0 QT = Ac . h (dT/dt)

B. Q(T0 T) = Ac . h (dT/dt)

D. Q(T0 T) = Ac . (dTH/dt)

A. Carbon tetrachloride

B. Ethylene glycol

D. Water

A. 99.29

C. 6.31

D. 12.73

A. Based on the linear relationship between the fluid flow rate and the induced voltage

B. Capable of measuring the flow rate of slurries and electrolytes

D. Based on the principle of Faradays law

A. On-off control

C. Feed forward control

D. One feed-back loop

B. 588

C. 58

D. 348

B. Reflects

C. Absorbs

D. Accelerates

A. Bimetallic thermometer

C. Dilatometer

D. Mercury thermometer

A. Very high

B. Atmospheric

D. Positive

A. < atmospheric

C. < 10 (gage)

D. > 2 (gage)

A. 4

B. 4-Mar

C. 6-Jan

B. 92U234

C. None of these

D. 92U235

B. None of these

C. Routh test

D. Root locus methods

A. Modify the input signal

B. Amplify the input signal

C. Codify/decodify the input signal

A. 760.5

C. 860.5

D. 1060.5

B. P-D controller

C. P-I-D controller

D. P-I controller

B. Pitot tube

C. Venturimeter

D. Hot wire anemometer

A. Criterion is not applicable to systems with polynomial characteristic equation

C. Criterion provides information about the actual location of roots

D. Cannot determine as to how many roots of the characteristics equation have positive real roots

A. Marine ship propulsion

C. The production of radioisotopes

D. Supplying intense fields or beams of neutron for scientific experiments

A. 30

C. < 1.7 and 1.7 and < 30