This section includes 7 InterviewSolutions, each offering curated multiple-choice questions to sharpen your Current Affairs knowledge and support exam preparation. Choose a topic below to get started.
| 1. |
Explain the uses of capacitor? |
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Answer» 1. Capacitor stores and regulates the fluctuation in current and transfers it to the electric circuit. 2. Capacitor is used to temporarily store electric energy. There are two electric conductors in a capacitor. These are separated by an insulator. Glass, vacuum air, paper or plastics may be used as an insulator in the capacitor. 3. In an electric connection or circuit, capacitor is used to block direct current in order to allow flow of alternating current. |
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| 2. |
Bio potential amplifiers have ____________ input terminals.(a) 3(b) 4(c) 5(d) 6 |
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Answer» Right answer is (a) 3 To explain I would say: Bio potential has three input terminals. Out of the three one is arranges at the reference potential. The other two are live terminals. Bio potential amplifiers are also known as differential amplifiers. The differential amplifier is employed when it is necessary to measure the voltage difference between two points, both of them varying in amplitude at different rates and in different patterns. |
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| 3. |
The total amount of glomerular filtrate is about ____________ per day.(a) 180 liters(b) 18 liters(c) 18 ml(d) 180 ml |
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Answer» Correct option is (a) 180 liters To explain I would say: The total amount of glomerular filtrate is about 180 litres per day, whereas the amount of urine formed from it is only 1–1.5l. This means that very large amounts of water, and other substances, are re-absorbed by the kidney tubules. |
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| 4. |
What is LBS? A. Location based services B. Location based station C. Logistic based services D. Light based Sonar |
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Answer» A. Location based services LBS is Location based services. |
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| 5. |
What are the major sources of water pollution? |
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Answer» Following are the sources of water pollution - • Chemical effluents from industries, agricultural and household waste, are the main sources of water pollution. • In many rivers or other water bodies, disposal of industrial & household waste, dumping of garbage, results in water pollution. • Oil spills also results in accumulation of oily layers on the water surface which destroys the aquatic ecosystem. • Effluents from pesticide & fertilizer industry can cause damage to aquatic ecosystem |
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| 6. |
Altitude error is always ________ than the horizontal error. A. Better B. Worse C. Equal D. Unequal |
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Answer» B. Worse Altitude error is always Worse than the horizontal error. |
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| 7. |
A particle of mass m is subjected to a force `vecF=F_(0)[cos (t)hati+sin(1)hatj]`. If initially (t=0) the particle was at rest, the kinetic energy of the particle as a function of time is given by:A. `(F_(0)^(2))/(m)(1-cos(2t))`B. `(F_(0)^(2))/(m)(1-cost)`C. `(F_(0)^(2))/(m) sin(t)`D. `(F_(0)^(2))/(m)t` |
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Answer» `veca=(vecF)/(m)=(F_(0))/(m) [cos(t)hati+sin(t)hatj]` `vecv=int_(0)^(t)vecadt=(F_(0))/(m)[sin(t)hati+(1-cos t)hatj]` `KE=(1)/(2)m(vecv.vecv)=(1)/(2)m[(F_(0)^(2))/(m^(2))(2-2cps t)]` `=(F_(0)^(2))/(m) (1-cos t)` |
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| 8. |
Pressure verus Volume graphs for two process for ideal gas is shown in figure. In each case state of a system is changed from A to B along the straight lines shown. In which case, will the heat added to the system be more? A. Case IB. Case IIC. Is non-zero but the same in both casesD. Is zero in both cases |
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Answer» `DeltaQ=Delta u+w` Heat added would depend on change in internal energy as work done by the gas is same in both cases. As, `TpropPV`, we find `DeltaT` is more in case 1 `&` hence change in internal energy will be more in case 1. This Heat added will be more in case 1. |
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| 9. |
By Plotting `(1)/(v)` verus `(1)/(u)` focal length of a convex mirror can be found .A. No as it forms a virtual imageB. Yes only if scale is largeC. Yes only if scale is smallD. Yes only if aperture is small |
| Answer» Correct Answer - A | |
| 10. |
Some physical quanties are given in Column I and some possible SI units in which these quantities may be expressed are given in Column II. Match the physical quantities in Column I with the units in Column II. `{:(,"Column I",,,"Column II"),((A),GM_(e)M_(s),,(p),("volt")("coulomb")("metre")),(,G-"universal gravitational constant",,,),(,M_(e)-"mass of the earth," M_(s)- "mass of the sun",,,),((B),(3RT)/(M),,(q),("kilogram")("metre")^(3)("second")^(-2)),(,R-"universal gas constant,",,,),(,T- "absolute temperature, M- molar mass",,,),((C),F^(2)/(q^(2)B^(2)),,(r),("metre")^(2)("second")^(-2)),(,F-"force,"q-"charge," B- "magnetic field",,,),((D),(GM_(e))/R_(e),,(s),("farad")("volt")^(2)(kg)^(-1)),(,G- "universal gravitational constant,",,,),(,M_(e)- "mass of the earth," R_(e)- "radius of the earth.",,,):}` |
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Answer» Correct Answer - (A) PQ, (B) RS, (C) RS, (D) RS Match the column (A) `F=(GM_(e)M_(s))/R^(2)` `GM_(e)M_(s)=FxxL^(2)= "Work" xx "Metre"` `= "Coulomb" xx "Volt" xx "Metre"` `=ML^(2)T^(-2) xx "Metre"=(kg)("Metre")^(3)(S)^(-2)` (B) `3/2 RT=` kinetic energy `(3RT)/(M)=v^(2) rArr ("Metre")^(2)(S)^(-2)` `1/2 QV=` Energy `rArr (QV)/(M)=("Energy")/(m)=(("farad")("volt")^(2))/(kg)` (C) `F^(2)/(q^(2)B^(2))=(q^(2) in^(2))/(q^(2)B^(2))rArr (in/B)^(2)=v^(2) rArr (r, s)` (D) `(GMe)/R=("Work dome")/("Mass")rArr ("Velocity")^(2)rArr (r, s)` |
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| 11. |
Density of 12.25%(w/w) `H_(2)SO_(4)` solution is 1.0552 g/ml then molarity of solution is :-A. 1.315 MB. 2.63 MC. 0.657 MD. 1 M |
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Answer» Correct Answer - A volume of solution `=(Mass)/(density)=(100)/(1.052)` `=95.05mL` Molarity `=(12.25)/(98)xx(1000)/(95.05)rArr1.315M` |
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| 12. |
Incorrect relationship for mole fractionis :-A. `xlt1`B. `0ltxlt1`C. `-2ltxlt+2`D. Always positive |
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Answer» Correct Answer - C `i=(DeltaT_(f))_(obs)/(DeltaT_(f))_(Theo)=((DeltaT_(f))obs)/(K_(f)xxmolality)` `i=(0.558)/(1.86xx0.1)=3` for `Hg(NOO_(3))_(2)hArrHg^(+2)+2NO_(3)^(-)` `i=1-alpha+nalpha` `because3=1+alpha(n-1)` `alpha=(3-1)/(3-1)=1` or 100% |
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| 13. |
Anthrax is caused by |
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Answer» Anthrax is caused by bacteria. Hope it helps!!
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| 14. |
Match List I with List II and select the correct answer using the codes given below the lists: `{:(,"List I",,,"List II"),(P.,"Boltzmann constant",,1.,[ML^(2)T^(-1)]),(Q.,"Coefficient of viscosity",,2.,[ML^(-1)T^(-1)]),(R.,"Planck constant",,3.,[MLT^(-3)K^(-1)]),(S.,"Thermal conductivity",,4.,[ML^(2)T^(-2)K^(-1)]):}`A. `P=3, Q=1, R=2, S=4`B. `P=3, Q=2, R=1, S=4`C. `P=4, Q=2, R=1, S=3`D. `P=4, Q=1, R=2, S=3` |
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Answer» Correct Answer - C (P) Boltzmann constant `("Energy")/("Temperature")=(ML^(2)T^(-2))/(K)=[ML^(2)T^(-2)K^(-1)]` (Q) Coefficient of viscosity `(eta)`: `eta=(Fdeltax)/(A Delta V)`, `[eta]=([MLT^(-2)][L])/([L^(2)][LT^(-1)])=[ML^(-1)T^(-1)]` (R) Plank constant (h) : `E=hv, [h]=([ML^(2)T^(-2)])/([T^(-1)])=[ML^(2)T^(-1)]` (S) Thermal conductivity `K=(DeltaQ l)/(Deltat (A theta))` `[K]=([ML^(2)T^(-2)][L])/([T][L^(2)][K])=MLT^(-3)K^(-1)` |
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| 15. |
Net generation of energy on complete oxidation of a 17-carbon fatty acid is .............? |
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Answer» Less than the energy generation from a 16-carbon fatty acid |
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| 16. |
This drug is a Class IC antiarrhythmic drug: a) Flecainide b) Sotalol c) Lidocaine d) Verapamil |
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Answer» c) Lidocaine |
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| 17. |
This drug is useful in terminating atrial but not ventricular tachycardias: a) Flecainide b) Sotalol c) Lidocaine d) Verapamil |
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Answer» d) Verapamil |
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| 18. |
This drug is associated with Torsades de pointes. a) Flecainide b) Sotalol c) Lidocaine d) Verapamil |
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Answer» This drug is associated with Torsades de pointes Sotalol. |
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| 19. |
This drug is a Class IA antiarrhythmic drug: a) Sotalol b) Propranolol c) Verapamil d) Quinidine |
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Answer» d) Quinidine |
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| 20. |
This drug is used in treating supraventricular tachycardias: a) Digoxin b) Dobutamine c) Amrinone d) Dopamine |
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Answer» This drug is used in treating supraventricular tachycardias Digoxin. |
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| 21. |
Which of the following agents is a short-acting ganglion blocker? a) Homatropine b) Trimethaphane c) Hexamethonium d) Pancuronium |
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Answer» b) Trimethaphane |
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| 22. |
This drug is a Class IV antiarrhythmic drug:a) Flecainide b) Sotalol c) Lidocaine d) Verapamil |
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Answer» d) Verapamil |
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| 23. |
This drug is a Class II antiarrhythmic drug: a) Flecainide b) Propranolol c) Lidocaine d) Verapamil |
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Answer» b) Propranolol |
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| 24. |
which is the smallest cell |
Answer» Mycoplasma gallisapticum.The cell is the structural unit of life with various shapes and size. The size of the cell ranges from 0.5 micrometers to 100 micrometers. Mycoplasma gallicepticum, a parasitic bacterium is thought to be the smallest known organisms with the size from 0.2 to 0.3 micrometer, capable of independent growth and reproduction. Later, the name for mycoplasma was pleuropneumonia-like organisms or PPLO. |
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| 25. |
Which of these beta blocker is a class 3 antiarrhythmic agents |
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Answer» Class III agents include: bretylium, amiodarone, ibutilide, sotalol, dofetilide, vernakalant and dronedarone. |
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| 26. |
Human blood group O has |
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Answer» Blood group O – has no antigens, but both anti-A and anti-B antibodies in the plasma. Human blood group O has no antigens present over RBC. It is represented as ii/IoIo.blood group O is universal donor.Human blood group o has no antigens, but both anti-A and anti-B antibodies in the plasma . Present over RBC.It is represented as blood group O is universal donor. |
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| 27. |
Find the value of t/(time constant) for which the current in an L/R circuit builds upto (a)99% and (b)99.9% of steady state value(1)4.6,6.9(2) 6.9,4.6(3) 2.3, 6.9(4)6.9,2.3 |
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Answer» We know the Current formula in L/R circut I(t) = Io [1 - e-t/τ ] , where Io = ε/R is the maximum current and the time constant τ = L/R if current reaches 99 % of steady state, then [1 - e-t/τ ] = 0.99 or e-t/τ = 0.01 = 10-2 . Hence t/τ = 2 × ln10 = 4.6 if current reaches 99.9 % of steady state, then [1 - e-t/τ ] = 0.999 or e-t/τ = 0.001 = 10-3 . Hence t/τ = 3 × ln10 = 6.9 |
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| 28. |
Embriogenesis |
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Answer» Embryogenesis, the first eight weeks of development after fertilization, is an incredibly complicated process. It’s amazing that in eight weeks we’re transforming from a single cell to an organism with a multi-level body plan. |
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| 29. |
Statement-I : If x and y are the distance along x and y axes respectively then the dimensions of `(d^(3)y)/(dx^(3))` is `M^(0)L^(-2) T^(@)` Statement-II : Dimensions of `underset(a)overset(b)(int) ydx` is `M^(0)L^(2)T^(@)`A. If both Assertion `&` Reason are True `&` the Reason is a correct explanation of the Assertion.B. If both Assertion `&` Reason are True but Reason is not a correct explanation of the Assertion.C. If Assertion is True but the Reason is False.D. If both Assertion `&` Reason are false. |
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Answer» `Ararr(d^(2)y)/(dx^(3))=(M^(0)L^(1)T^(0))/(M^(0)L^(3)L^(0))=M^(0)L^(-2)T^(0)` `Rrarrintydx=M^(0)L^(2)T^(0)` |
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| 30. |
In the fourmula `X=3YZ^(2), X` and `Z` have dimensions of capacitance and magnetic induction respectivey. What are the dimensions of `Y` is `MKSQ` system?A. `ML^(-2)`B. `ML^(-2)T^(-1A)`C. `ML^(-1)T^(-2)A^(2)`D. `L^(-1)A^(-1)` |
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Answer» (1) Since (Capacity (Farad) `=[M^(-1)L^(-2)T^(4)A^(2)]` `=["Magnetic field" ("tesla")]=[ML^(0)T^(-2)A^(-1)]` `therefore ["Dimension of x"]` `=[M^(-1)L^(-2)T^(4)A^(2)]xx[M^(2)L^(-4)A^(-2)]=[ML^(-2)]` |
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| 31. |
Dimensional formula for latent heat is________A. `ML^(2)T^(-1)`B. `MLT^(-2)`C. `M^(0)L^(2)T^(-1)`D. `ML^(2)T^(-2)` |
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Answer» `["Latent heat"]=[("Heat energy")/("Mass")]` `=[(ML^(2)T^(-2))/(M)]=[M^(0)L^(2)T^(-2)]` |
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| 32. |
Why condenser back-pressure must be low? How it is achieved? |
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Answer» Condenser back- pressure must be low, because steam should be dumped into the condenser so as to recycle it to boiler through the recycle process. It improves efficiency of the turbine, as the heat rejection is less. It is achieved by the help of ejectors and also passing cold water in the condenser through the tubes of the condenser so that maximum vacuum can be obtained. |
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| 33. |
What are different addressing modes in 8086 explain with examples? |
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Answer» Addressing modes of 8086 : When 8086 executes an instruction, it performs the specified function on data. These data are called its operands and may be part of the instruction, reside in one of the internal registers of the microprocessor, stored at an address in memory or held at an I/O port, to access these different types of operands, the 8086 is provided with various addressing modes (Data Addressing Modes). Data Addressing Modes of 8086 The 8086 has 12 addressing modes. The various 8086 addressing modes can be classified into five groups. A. Addressing modes for accessing immediate and register data (register and immediate modes). B. Addressing modes for accessing data in memory (memory modes) C. Addressing modes for accessing I/O ports (I/O modes) D. Relative addressing mode E. Implied addressing mode 8086 ADDRESSING MODES A. Immediate addressing mode: In this mode, 8 or 16 bit data can be specified as part of the instruction. OP Code Immediate Operand Example 1 : MOV CL, 03 H Moves the 8 bit data 03 H into CL Example 2 : MOV DX, 0525 H Moves the 16 bit data 0525 H into DX In the above two examples, the source operand is in immediate mode and the destination operand is in register mode. A constant such as “VALUE” can be defined by the assembler EQUATE directive such as VALUE EQU 35H Example : MOV BH, VALUE Used to load 35 H into BH Register addressing mode : The operand to be accessed is specified as residing in an internal register of 8086. Fig. below shows internal registers, any one can be used as a source or destination operand, however only the data registers can be accessed as either a byte or word. 18 Register Operand sizes Byte (Reg 8) Word (Reg 16) Accumulator AL, AH Ax Base BL, BH Bx Count CL, CH Cx Data DL, DH Dx Stack pointer - SP Base pointer - BP Source index - SI Destination index - DI Code Segment - CS Data Segment - DS Stack Segment - SS Extra Segment - ES Example 1 : MOV DX (Destination Register) , CX (Source Register) Which moves 16 bit content of CS into DX. Example 2 : MOV CL, DL Moves 8 bit contents of DL into CL MOV BX, CH is an illegal instruction. The register sizes must be the same. B. Direct addressing mode : The instruction Opcode is followed by an affective address, this effective address is directly used as the 16 bit offset of the storage location of the operand from the location specified by the current value in the selected segment register. The default segment is always DS. The 20 bit physical address of the operand in memory is normally obtained as PA = DS : EA But by using a segment override prefix (SOP) in the instruction, any of the four segment registers can be referenced, PA = CS DS : Direct Address SS ES The Execution Unit (EU) has direct access to all registers and data for register and immediate operands. However the EU cannot directly access the memory operands. It must use the BIU, in order to access memory operands. 19 In the direct addressing mode, the 16 bit effective address (EA) is taken directly from the displacement field of the instruction. Example 1 :MOV CX, START If the 16 bit value assigned to the offset START by the programmer using an assembler pseudo instruction such as DW is 0040 and [DS] = 3050. Then BIU generates the 20 bit physical address 30540 H. The content of 30540 is moved to CL The content of 30541 is moved to CH Example 2 :MOV CH, START If [DS] = 3050 and START = 0040 8 bit content of memory location 30540 is moved to CH. Example 3 :MOV START, BX With [DS] = 3050, the value of START is 0040. Physical address : 30540 MOV instruction moves (BL) and (BH) to locations 30540 and 30541 respectively. Register indirect addressing mode : The EA is specified in either pointer (BX) register or an index (SI or DI) register. The 20 bit physical address is computed using DS and EA. Example : MOV [DI], BX register indirect If [DS] = 5004, [DI] = 0020, [Bx] = 2456 PA=50060. The content of BX(2456) is moved to memory locations 50060 H and 50061 H. CS PA = DS BX SS = SI ES DI Based addressing mode: CS PA = DS BX SS : or + displacement ES BP when memory is accessed PA is computed from BX and DS when the stack is accessed PA is computed from BP and SS. Example : MOV AL, START [BX] or MOV AL, [START + BX] based mode EA : [START] + [BX] PA : [DS] + [EA] The 8 bit content of this memory location is moved to AL. 20 Indexed addressing mode: CS PA = DS SI SS : or + 8 or 16bit displacement ES DI Example : MOV BH, START [SI] PA : [SART] + [SI] + [DS] The content of this memory is moved into BH. Based Indexed addressing mode: CS PA = DS BX SI SS : or + or + 8 or 16 bit displacement ES BP DI Example : MOV ALPHA [SI] [BX], CL If [BX] = 0200, ALPHA – 08, [SI] = 1000 H and [DS] = 3000 Physical address (PA) = 31208 8 bit content of CL is moved to 31208 memory address. String addressing mode: The string instructions automatically assume SI to point to the first byte or word of the source operand and DI to point to the first byte or word of the destination operand. The contents of SI and DI are automatically incremented (by clearing DF to 0 by CLD instruction) to point to the next byte or word. Example : MOV S BYTE If [DF] = 0, [DS] = 2000 H, [SI] = 0500, [ES] = 4000, [DI] = 0300 Source address : 20500, assume it contains 38 PA : [DS] + [SI] Destination address : [ES] + [DI] = 40300, assume it contains 45 After executing MOV S BYTE, [40300] = 38 [SI] = 0501 incremented [DI] = 0301 C. I/O mode (direct) : Port number is an 8 bit immediate operand. Example : OUT 05 H, AL Outputs [AL] to 8 bit port 05 H I/O mode (indirect): The port number is taken from DX. Example 1 : INAL, DX 21 OR OR OR If [DX] = 5040 8 bit content by port 5040 is moved into AL. Example 2 : IN AX, DX Inputs 8 bit content of ports 5040 and 5041 into AL and AH respectively. D. Relative addressing mode: Example : JNC START If CY=O, then PC is loaded with current PC contents plus 8 bit signed value of START, otherwise the next instruction is executed. E. Implied addressing mode: Instruction using this mode have no operands. Example : CLC which clears carry flag to zero. SINGLE INDEX DOUBLE INDEX Fig.3.1 : Summary of 8086 Addressing Modes Encoded in the instruction BX OR BP SI OR DI + + + + + CS 0000 PHYSICAL ADDRESS DS 0000 SS 0000 ES 0000 DISPLACEMENT Explicit in the instruction Assumed unless over ridden by prefix EU BIU BX OR BP OR SI OR DI 22 |
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| 34. |
Directions: This section contains integer type questions. The answer to each of the question is a single digit integer, ranging from 0 to 9. Choose the correct option.If sin-1(6x/1+9x2) =2 tan-1(ax) then a =(a) 3 (b) 8 (c) 6 (d) 9 |
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Answer» (a) \(sin^{-1}\left(\frac{6x}{1+9x^2}\right)=sin^{-1}\left(\frac{2(3x)}{1+(3x)^2}\right)\) Let 3x \(=tan\theta\) \(\Rightarrow\theta=tan^{-1}(3x)\) Then, \(sin^{-1}\left(\frac{2\times3x}{1+(3x)^2}\right)=sin^{-1}\left(\frac{2tan\theta}{1+tan^2\theta}\right)\) \(=sin^{-1}(sin\,2\theta)\) \((\because sin\,2\theta=\frac{2tan\theta}{1+tan^2\theta})\) \(=2\theta\) \(=2\,tan^{-1}3x\,\,(\because\theta=tan^{-1}3x)\) \(=2tan^{-1}3x=2tan^{-1}(ax)\) \(\therefore\) a = 3 |
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| 35. |
Directions : Each of these questions contains two statements, Assertion and Reason. Each of these questions also has four alternative choices, only one of which is the correct answer. You have to select one of the codes (a), (b), (c) and (d) given below. (a) Assertion is correct, reason is correct; reason is a correct explanation for assertion. (b) Assertion is correct, reason is correct; reason is not a correct explanation for assertion (c) Assertion is correct, reason is incorrect (d) Assertion is incorrect, reason is correctAssertion: The function f(x) = sin x does not possess inverse if x ∈ R.Reason: The function f(x) = sin x is not one-one onto if x ∈ R. |
| Answer» (a) To possess inverse, the function must be one-one onto in the given domain. | |
| 36. |
While taking out garbage, we can come in contact with harmful _______________ a. microorganisms b. bacteria c. pests d. viruses |
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Answer» Correct answer is a. microorganisms |
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| 37. |
Name the process which is common to both aerobic and anaerobic respiration. |
| Answer» Glycolysis is the process which is common to both aerobic and anaerobic respiration. | |
| 38. |
Positive body image reflects our _______________ a. Good image b. Confidence c. Personality d. Posture |
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Answer» Correct answer is c. Personality |
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| 39. |
Where does dehydration occur in glycolysis? |
| Answer» Dehydration occurs during glycolysis when 2-PGA forms phosphoenol pyruvic acid. | |
| 40. |
Name the cell organelle in which Krebs cycle occurs. |
| Answer» The cell organelle in which Krebs cycle occurs is mitochondrion. | |
| 41. |
The importance of personal hygiene should be taught in the……… a. Classroom b. Adulthood c. Early age d. School |
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Answer» Correct answer is c. Early age |
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| 42. |
How much energy is released when one molecule of ATP is hydrolysed to ADP and Pi? |
| Answer» When an ATP molecule undergoes hydrolysis, it releases 7.3 kcal energy. | |
| 43. |
It is one of the mechanisms which is used for breaking the cycle of disease transmission. a. Hand washing b. Personal hygiene c. Body image d. Cleaning |
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Answer» Correct answer is b. Personal hygiene |
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| 44. |
What are oxysomes? |
| Answer» The `F_(1)` particles of mitochondria are called oxysomes. | |
| 45. |
What is the fater of pyruvate under aerobic conditions? |
| Answer» Under aerobic condition, the pyruvate is completely oxidized, in the presence of oxygen to form `CO_(2)` and `H_(2)O` and generates a large | |
| 46. |
It is the science of work in relation to the individual. By learning and following some simple techniques one can increase one’s productivity, efficiency, safety and comfort at work place. What it is? a. Culinary arts b. Skills and knowledge c. Ergonomics d. Attitude and behavior |
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Answer» Correct answer is c. Ergonomics |
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| 47. |
Where are electron carriers of ETS and enzymes required for ATP synthesis located? |
| Answer» Electron carriers of ETS and enzymes required for ATP synthesis are located in the body of oxysomes. | |
| 48. |
Which of the following method enables the food particles to be half cooked? a) Steaming b) Stewing c) Blanching d) Boiling |
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Answer» Correct option: c) Blanching |
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| 49. |
Enoki is a type ofa) Beans b) Edible leaves c) Mushrooms d) Stems |
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Answer» Enoki is a type of Mushrooms. |
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| 50. |
On application of heat carbohydrates turn slightly brown, this process is called ___ a) Caramelisation b) Coagulation c) Gelatinization d) None of the above |
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Answer» Correct option: a) Caramelisation |
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