Explore topic-wise InterviewSolutions in Current Affairs.

ETHER, ALKENE,alcohol
Alcohol,KETONE,AMINE
Alcohol,ketone,alkene
Ether, amine,ketone

`CH_(3)CH=CHCHCH =CH_(2) lt CH_(3)CH_(2)CH_(2)CH_(2)OVERSET(.)CH =CH_(2)`

`CH_(3)overset(+)CHCH =CH_(3)CH_(3)GT CH_(3)CH=CHCH_(2)overset(+)CH_(2)`

liberate `3/2` MOLE of `H_(2)` on TREATEMENT with Na.
Positive test with `FeCl_(3)`
Positive test with `NaHCO_(3)`
Positive test with tollen's reagent

It gives coloured SOLUTION with neutral `FeCl_(3)` solution
It liberates `H_(2)` gas with Na metal
It gives positive iodoform test.
It FORMS sweet SMELLING compound with alcohols.

a, B, C only
b, c, d only
a, b, d only
a, b, c, d

A, B, D
A, B, C
B, C, D
A, C, D

A and C
C and D
B and D
A and B

All are geometrical ISOMER of each other.
All are optical isomer of each other.
All are configurational isomer of each other.
Only TWO Q and R are resolvable.

forms a covalent NETWORK solid
element is mono atomic
has ALMOST zero value of E.A
has very HIGH value of I.P.

(a),(b) and (d) only
(a),(b) , (C) and (d)
(a),(b) and (c) only
(a) and (b) only

The net change in ENTROPY of SYSTEM is zero in any cyclic process
the free energy change of the system at freezing POINT is zero
the change in free energy with pressure for one mole of a perfect gas, `Delta G = RT "ln" (P_(2))/(P_(1))`
for a spontaneous change `(Delta G)_(T,P) gt 0`

The correct order of RATE of reaction `C_(6)H_(6) gt C_(6)D_(6) gt C_(6)T_(6)`
`HNO_(3)` functions as an oxidising agent
In the ABSENCE of `HNO_(3)` it is reversible
The electrophil in the above reactions is `I^(o+)`

With increase in the TEMPERATURE fraction of molecules with most PROBABLE velocity decreases. 
With increase in the temperature, RMS velocity of gas molecules increases 
The correct order of fraction of molecules with DIFFERENT types of velocities is `C_p gt bar(C ) gt C` 
The correct velocity order of various types of velocitics is `C gt barC gt C_p`

A,B and C
A,C and D
B,C and D
A,B and D

The crystal structure is observed by associating with each lattice point as identical structral moety.
A unit CELL can be thought of all the fundemental regions from which the entire crystal may be construted by purely TRANSLATIONAL displacements.
An infininte number of different unit cells can DESCRIBED the same lattice . But we normally choose with sides have shortest lengths and that are mostlty perpendicular to one another .
Unit cell are classified into seven crystal systems by REPEATING the rotational symmetry elements they posses .

Y' may be due to `[Fe_(3)(OH)_(2)(CH_(3)COO)_(6)]^(+)`
SALT 'X' may be `S_(2)O_(3)^(2-)`
Z' may be BASIC iron (III) acetate
Z may be `Fe(OH)_(3)`

It involves two TRANSITION state
It involves ONE intermediate which is non aromatic.
It involves one intermediate which is non aromatic
It is an ENDOTHERMIC overall

It is bio degradable
It is mostly non BIODEGRADABLE
It causes AIR pollution only
It causes SOIL pollution only

CONTAINING five gemoetrial isomers out which one is an enantiomeric PAIR
Total stereoisomer of X is 5
Allstereoisomer of X contain P.O.S
Total NUMBER of DIASTEREOMERIC pair is 9

solubility of `NACL` increass with INCREASE in temperature
Solubility of `NaCl` decreases with incrfease in emperature
Solubility of `NaCl` does not change appreciably with increase in temperature
`NaCl` is INSOLUBLE in WATER 

Individual crystals with their ORDERED ATOMIC lattices exist but are so small as to be unrecognizable except under a microscope is said to be polycrystalline .
A metallic sample may appear to be isotropic , EVEN through single crystal is ANISOTROPIC and is said to be microcrystalline .
The natural crystals of minerals formed by geological processes are often large when compared to crystals formed in the laboratory precipitation reactions (formed very rapidly from solution that are greately super saturated )
As a RESULT of continous redissolving and reprecipitation , a precipitate of virtually amorphos material can be converted to a polycrystalline substance.

`K=4s^1 , Cr=3d^4 4s^2 , Cu=3d^10 4s^2`
`K=4s^2 , Cr=3d^4 4s^2 , Cu=3d^10 4s^2`
`K=4s^2 , Cr=3d^5 4s^1 , Cu=3d^10 4s^2`
`K=4s^1 , Cr=3d^5 4s^1 , Cu=3d^10 4s^1`

SOLVENT FLOWS from high concentration of solute to LOW concentration of solute
Solvent flows from low concentration of solute to high concentration of solute
Solute flows from high concentration to low concentration
Solution flows from low concentration to high concentration

X and Y are same

Oxide of hydrogen is basic
Hydrogen EXHIBITS flame COLOURATION like alkali metals
Hydrogen has HIGH L.P VALUE like halogens
Electrolysis of saline hydride gives hydrogen at cathode

Ithas four CHIRAL centre
It shows optical isomerism
It shows GEOMETRICAL isomerism
It is a meso compound

The reaction is completely reversible
It SHOWS primary kinetic ISOTOPIC effect
The electrophil involved in the reaction is `SO_(3)`
The electrophile involved in the reactio is `SO_(3)H^(o+)`

It can show GEOMETRICAL isomerism
It is having FOUR chiral centre
It is having three OPTICAL isomers
It is having only one optical INACTIVE stereoisomer

`angle(HC C)` is greater than `109.5^(@s)`
`angle(HC C)` is less than `angle(HCH)`
`C-C` BOND length is less than `C-H` bond length
Carbon underoges `SP^(3)` hybridisation

`C_(3)` axis of SYMMETRY
`C_(2)` axis of symmetry
Centre of symmetry is PRESENT
3-chiral centre are present

GREEN edged flame occurs due to formation methyl borate
B' is `B(OCH_(3))_(3)`
On brinding the PASTE of borax `+CaF_(2)` and conc. `H_(2)SO_(4)` close to a bunsenflame, imparts green colour to the edge of flame
Borax gets hydrolysed into boric ACID in acidic medium and then form ester of methyl borate with methyl alcohol.

Each `BH_(4)` UNIT forms TWO hydrogen bridges
Two of the t`BH_(4)` UNITS forms ONE hydrogen bridges and one `BH_(4)` unit forms one hydrogen bridge
One `BH_(4)` unit forms two hydrogen bridges and two `BH_(4)` units form one hydrogen bridges.
Boron form only `2c-2e` bons.

`5, 0, 0, +1//2`
`5, 1, 0, +1//2`
`5, 1, 1, +1//2`
`6, 0, 0, +1//2`

R at A and R at B<BR>R at A and S at B
S at A and R at B
S at A and S at B

`[Al(OH)_(2)(H_(2)O)_(4)]^(-)`
`[Al(OH)_(3)(H_(2)O)_(3)]^(-)`
`[Al(OH)_(4)(H_(2)O)_(2)]^(-)`
None of these

`X_A + X_B = 0.208 SQRT(DELTA)`
`sqrt(X_A - X_B) = 0.208 XX Detla`
`X_A - X_B = 0.208 sqrt(Delta)`
`X_A - X_B = sqrt(0.208 xx Delta)`

`NH_(2)NH_(2).HCl` and `ClCH_(2)COOH`
`NH_(2)CSNH_(2)` and `PhCH_(2)Cl`
`NH_(2)CH_(2)COOH` and `NH_(2)CONH_(2)`

`F lt N ltlt C lt O `
`C lt N lt O lt N`
`C lt O lt N lt F`
`F lt O lt N lt C`

` Zn gt Cu gt AG `
` Zn lt Cu lt Ag `
` Zn gtCu lt Ag `
` Cu gt Zn gt Ag`

`-COOH GT - COOR gt CN gt -OH gt "ALKENE" gt -SO_3H`
`-COOH gt -SO_3H gt- COOR gt CN gt -OH gt `alkene
`-COOH gt - CN gt - COOR gt -OH gt "alkene" gt -SO_3H`
`-COOH gt - SO_3H gt - COOR gt - OH gt CN gt `alkene

`-COOH gt - COOR gt - CN gt - OH gt " Alkene " gt - SO_(3)H`
`-COOH gt -SO_(3)H gt - COOR - gt CN gt - OH gt` Alkene
`-COOH gt - CN gt - COOR gt - OH gt " Alkene " gt - SO_(3)H`
`-COOH gt -SO_(3)H gt - COOR gt - OH gt CN gt` Alkene

`LI^(+) GT Na^(+) gt Be^(2+) gt Mg^(2+)`
`Mg^(2+) gt Be^(2+) +Na^(+) gt Li^(2+)`
`Be^(2+) gt Mg^(2+) gt Li^(+) gt Na^(+)`
`Na^(+) gt Li^(+) gt Mg^(+) gt Be^(2+)`

`K LT NA`
`CA lt K`
`MG lt Ca`
`Li lt Be`

<P>P gt Q gt S gt R
P gt Q gt R gt S
R gt S gt Q gt P
P gt S gt Q gt R

`(CH_(3))_(3)N lt (CH_(3))_(3)P lt (CH_(3))_(3)As lt (CH_(3))_(3)Sb `
`NH_(3) lt PH_(3) lt Ash_(3)LT SbH_(3) `
`(CH_(3))_(2)Olt (CH_(3))_(2)Slt(CH_(3))2Selt (CH_(3))_(2)TE`
`H_(2)S lt H_(2)Se lt H_(2)Telt H_(2)O`

<P>`N LT C lt P lt S`
`C lt N lt S lt P`
`C lt N lt P lt S`
`N lt C lt S lt P`

`a GT B gt CGT d`
`b gt a gt C gt d`
`c gt b gt a gt d`
`b gt c gt a gt d`

`BltBeltCltOltN`
`BltBeltCltNltO`
`BeltBltCltNltO`
`BeltBltCltOltN`