94420 + Interview Questions in Chemistry in Class 12

1.	Match List I with List II and select the correct answer: {:(,"List I(ion)",1,"List II (Shapes)"),(A,ICl_(2)^(-),1,"Linear"),(B,BrF_(2)^(+),2,"Pyramidal"),(C,CIF_(4)^(-),3,"Tetrahedral"),(D,AICl_(4)^(-),4,"Square planar"),(,,5,"Angular"):}
Answer» `{:(A,B,C,D),(1,2,4,5):}` `{:(A,B,C,D),(4,5,2,3):}` `{:(A,B,C,D),(1,2,4,3):}` `{:(A,B,C,D),(5,1,3,4):}` Solution :`ICI_(2)^(-) rArr 2bp+bp+3lp` (thus `SP^(3)d` hybridisation) = LINEAR geometry `BfF_(2)^(+) rArr 2bp+2lp` (thus `sp^(3)` hybridisation)= pyramidal geometry) `CiF_(4)^(-) rArr 4bp+2lp`( thus `sp^(2)d^(2)` hybridisation) = square plaanar geometry) `AlCl_(4)^(-) rArr 4bp+0lp` (thus `sp^(3)` hybridisation) = tetrahedral geometry

Discussion

2.	MatchlistI withlistII andchoosethecorrectanswerfromthe codesgivenbelow:
Answer» `{:(A,B,C,D),(a,c,b,d):}` `{:(A,B,C,D),(a,b,c,d):}` `{:(A,B,C,D),(c,d,a,b):}` `{:(A,B,C,D),(d,c,b,a):}` ANSWER :A

Discussion

3.	Match list-I with List-II
Answer» ANSWER :`(A)to(s);(B)to(p,Q);(C)to(R);(D)to(t)`

Discussion

4.	Match list-I with List-II
Answer» Answer :`(A)to(p);(B)to(Q);(C)to(p,r);(D)to(p,s)`

Discussion

5.	Match List I (substances) with List II (processes) employed in the manufacture of the substances and select the correct option
Answer» a-i, b-iv, c-ii, d-iii a-i, b-ii, c-iii, d-iv a-iv, b-iii, c-ii, d-i a-iv, b-ii, c-iii, d-i Answer :D

Discussion

6.	Match list-I with List-II
Answer» <P> ANSWER :`(A)to(p,s);(B)to(p,s);(C)to(Q,r);(D)to(q,r)`

Discussion

7.	Match List-I (reaction) with List-II (name of the reaction) and select the correct answer using the codes given below the lists:
Answer» <P>`{:(P,Q,R,S),(1,3,2,4):}` `{:(P,Q,R,S),(2,3,1,4):}` `{:(P,Q,R,S),(1,3,4,2):}` `{:(P,Q,R,S),(2,3,4,1):}` ANSWER :B

Discussion

8.	Match List I of the nuclear processes with List II containing parent nucleus and one of the end products of each process and then select the correct answer using the codes given below the lists :{:("List I", "List II"),("(P) Alpha decay",1. {:(15),(8):}Orarr {:(15),(7):} N + ....),("(Q) " beta^(+)"decay",2. {:(238),(92):}U rarr {:(234),(90):}Th + .... ),("(R) Fission",3.{:(185),(83):}Bi rarr {:(184),(82):}Pb + .... ),("(S) Proton",4. {:(239),(94):}Pu rarr {:(140),(57):} La + .... ),("emission",):}
Answer» <P>`{:("P ","Q ","R ","S "),( 4, 2, 1, 3 ):}` `{:("P ","Q ","R ","S "),( 1, 3, 2, 4 ):}` `{:("P ","Q ","R ","S "),( 2, 1, 4, 3):}` `{:("P ","Q ","R ","S "),( 4, 3, 2, 1):}` Answer :C

Discussion

9.	Match List I (Equations) with List-II (Type of process) and select the correct option{:(,"List I",,"List II"),(,"Equations",,"Type of processes"),(1.,K_(p)gtQ,(i),"Non-spontaneous"),(2.,DeltaG^(@)ltRTlnQ,(ii),"Equilibrium"),(3.,K_(P)=Q,(iii),"Spontaneous and endothermic"),(4.,Tgt(DeltaH)/(DeltaS),(iv),"Spontaneous"):}
Answer» 1(i), 2(ii), 3(iii), 4(iv) 1(iii), 2(iv), 3(ii), 4(i) 1(iv), 2(i), 3(ii), 4(iii) 1(ii), 2(i), 3(iv), 4(iii) Solution :`K_(p) gt Q rarr` Reaction moves in forward direction `DELTAG^(@) lt RT ln Q, DeltaG=+ve=` reaction non-SPONTANEOUS `K_(P)=Q=` Reaction is equilibrium `Tgt(DeltaH)/(DeltaS)=DeltaH=+ve`,endothermic THUS, `DeltaHltTDeltaS` spontaneous.

Discussion

10.	Match List-I (Compounds ) with their most appropriate mechanism (List-II). {:("Column I","Column II"),((A)CH_3-undersetunderset(Cl)(\|)CH-CH_2-CH=Ounderset(Delta)overset(OH^(-))to,(p)E2),((B)CH_3-CH_2-Ioverset(OH^(-))to,(q)E1cB),(( C)Me-undersetunderset(Me)(\|)oversetoverset(Me)(\|)C-Clunderset(Delta)overset(CH_3ONa)to,(r)S_N2),((D)CH_3-CH_2-CH_2-O-Phoverset(Conc.HI)to,(s)"Intermediate carbanion"),(,(t)"D-exchange in presence of" OD^(-)//D_2O):}
Answer» ANSWER :A-q,s,t ; B-r ; C-p,s,t ; D-q,s,t

Discussion

11.	Match List I and List II and select the correct answer using the code given below the lists : {:("List-I (reaction)","List-II(equivelent weight)"),((A)FeS_2toFe^(+3)+SO_2,(p)M//20),((B)Fe_2S_3to2FeSO_4+SO_2,(q)M//5),((C )KMnO_4"in acidic medium",(r)M//8),((D)Cu_2StoCu^(2+)+SO_2,(s)M//11):}
Answer» Solution :`(A)TOS " " (B)to p " " ( C)toq " " (D)tos` EQUIVALENT mass = MOLAR mass / No of electrons lost or gained by 1 MOLECULE.

Discussion

12.	Match list I (complexes) with list-II(Hybridisation) and select correct answer using codes.
Answer» ANSWER :(a)-(i); (b)-(ii); (c)-(IV); (d)-(III)

Discussion

13.	Match List-I and List -II and select the correct answer using codes given ahead in the lists
Answer» i-a, ii-C, iii-e, iv-d i-b, ii-c, iii-e, iv-a i-d, ii-c, iii-e, iv-a i-d, ii-c, iii-c , iv-a Answer :C

Discussion

14.	Match List-I and Li-st II and select the correct answer using the codes given below the slits:
Answer» A-1,B-3,C-2,D-4 A-3,B-4,C-2,D-1 A-4,B-2,C-1,D-3 A-4,B-3,C-2,D-1 Answer :A

Discussion

15.	Match list I and II and then select the correct answer from the codes given below the lists-
Answer» ANSWER :A::B::C::D

Discussion

16.	Match List : {:("Column-I","Column-II"),((A)PV^(gamma)="Constant",(p)"Expansion of ideal gas in vacuum"),((B)DeltaT=O,(q)Z=1-a/(V_mRT)),((C )"For" H_2 and He at 0^@C,(r)"Adiabatic reversible process"),((D)"At low density of gas",(s)Z=1+(pb)/(RT)):}
Answer» SOLUTION :`{:((A)PV^(GAMMA)="Constant","Adibatic reversible process"),((B)DeltaT=O,"In free expansion"),(( C)"For" H_2 "and He"ZGT1,"repulsive forces diminate and" Z=1+(pd)/(RT)"at all pressure"),((D)"Low DENSITY"to"low pressure",):}` `Zlt1` `Z=1-a/(V_mRT)`

Discussion

17.	Match List-I and Li-st II and select the correct answer using the codes given below the slits:
Answer» A-2,B-1,C-3,D-4 A-2,B-3,C-1,D-4 A-4,B-1,C-3,D-2 A-4,B-3,C-1,D-2 Solution :`C_(2)O_(4)^(2-)` is a BIDENTATE ligand, HENCE DUE to chelation `Delta_(0)` is high, and `[CO(o x)_(3)]^(3-)` is an inner-orbital coomplex having `d^(2)sp^(3)`-hybridization.

Discussion

18.	Match list - 1 with ist -- Il and select the correct answer using the codes given below.
Answer» `3 4 1 2` `3 1 4 2` `3 4 2 1 ` `4 3 2 1 ` ANSWER :C

Discussion

19.	Match list - 1 with ist -- Il and select the correct answer using the codes given below.
Answer» `2 3 1` `1 3 2` `3 2 1` `3 1 2` ANSWER :A

Discussion

20.	Match itemsof Column IwiththeitemsofColumn II andassignthecorrectcode:{:(,"Column I",,,"Column II"), ((A), "Cyanide process",,(i), "Ultrapure Ge"), ((B), "Froth floatation",,(ii), "Dressing of ZnS"), ((C ), "Electrolytic reduction",,(iii), "Extraction of Al"), ((D), "Zonerefining",,(iv),"Extraction of Au"), (,,,(v), "PurificationofNi"):}
Answer» `{:(A,,B,,C,,D),((i),,(ii),,(iii),,(iv)):} ` `{:(A,,B,,C,,D),((iii),,(iv),,(V),,(i)):} ` `{:(A,,B,,C,,D),((iv),,(ii),,(iii),,(i)):} ` `{:(A,,B,,C,,D),((ii),,(iii),,(i),, (v)):} ` ANSWER :C

Discussion

21.	MatchitemsofColumn Iwiththeitems ofColumnII and assignthecorrect code : {:(, "Column I",,,"Column II"),((A), "Cyanide process",,(1),"Ultrapure Ge"), ((B),"FrothFloatation Process",,(2), "Dressing of ZnS"), ((C ), "Electrolytic reduction",,(3), "Extraction of Al"), ((D), "Zone refining",,(4), "Extraction of Au"), (,,,(5), "Purification of Ni"):}
Answer» A(4) `"" `B(2) `""`C(3)`""`D(1) A(2) `"" `B(3) `""`C(1)`""`D(5) A(1) `"" `B(2) `""`C(3)`""`D(4) A(3) `"" `B(4) `""`C(5)`""`D(1) Solution :Explanation. Cyanideprocess is usedfor extractionof Au. FROTH Floatatio PROCESS isusedforconcentration of sulphideores. Electrolyticreductionis usedforextractionof Al.Zonerefiningisusedtoobtainultrapure GE.

Discussion

22.	Match items of Column-I with the items of Column II and assign the correct code :{:("Column-I ","Column-II "),("a) Cyanide process ","i) Ultrapure Ge "),("b) Froth floatation process ","ii) Dressing of ZnS "),("c) Electrolytic reduction ","iii) Extraction of Al "),("d) Zone refining ","iv) Extraction of Au "),(,"v) Purification of Ni "):}
Answer» `{:(1,2,3,4),(i,II,III,IV):}` `{:(1,2,3,4),(iii, iv, v, i ):}` `{:(1,2,3,4),(iv, ii, iii, i ):}` `{:(1,2,3,4),(ii, iii, i, v ):}` ANSWER :C

Discussion

23.	Match items List - I with those in List - II from the combinations shows :{:("List - I","List - II"),("(I) Saliva","(A) Genetic material"),("(II) Nucleic acid","(B) Digestive enzyme"),("(III) Ascorbic acid","(C ) Antibiotic"),("(IV) Testosterone","(D) Sex hotmone"),(,"(E ) Vitamin"):}
Answer» `I-B,II-A,III-C,IV-E` `I-B,II-A,III-E,IV-D` `I-A,II-B,III-E,IV-C` `I-C,II-B,III-A,IV-D` ANSWER :B

Discussion

24.	Match items in column - I with the items of column - II and assign the correct code.
Answer» `{:(A, B, C, D),("(i)", "(II)", "(iii)", "(iv)"):}` `{:(A, B, C, D),("(iii)", "(iv)", "(ii)", "(i)"):}` `{:(A, B, C, D),("(iv)", "(ii)", "(iii)", "(i)"):}` `{:(A, B, C, D),("(ii)", "(i)", "(iv)", "(iii)"):}` ANSWER :A::B::C::D

Discussion

25.	Match items in column -I with the items of column -II and assign the correct code.
Answer» ANSWER :A

Discussion

26.	Match items in column - I with the items of column - II and assign the correct code:
Answer» `{:(A,B,C,D),("(i)",(ii),(iii),("IV")):}` `{:(A,B,C,D),("(iii)",(iv),(V),(i)):}` `{:(A,B,C,D),("(iv)",(ii),(iii),(v)):}` `{:(A,B,C,D),("(ii)",(iii),(i),(v)):}` Answer :C

Discussion

27.	Match item is column -I with items of column -II and assign the correct code:
Answer» `{:(A,B,C,D),("(i)","(ii)","(III)","(IV)"):}` `{:(A,B,C,D),("(iii)","(iv)","(v)","(i)"):}` `{:(A,B,C,D),("(iv)","(ii)","(iii)","(i)"):}` `{:(A,B,C,D),("(ii)","(iii)","(i)","(v)"):}` ANSWER :C

Discussion

28.	Match gases under specified conditions listed in Column-I with their propertites laws in Column-II Indicate your answer by darkening the appropriate bubsbles of the 4xx4 matrix given in the ORS. {:("Column-I","Column-II"),((A)" Hydrogen gas (P=200 atm, T=273K)",(p)" Compressibility factor" ne 1),((B)" Hydrogen gas(P-0, T=273K)",(q)" attractive forces are dominant"),((C) CO_(2)" (P=1 atm, T=273K)",(r)" PV=nRT"),((D)" real gas with very large molar volume",(s)" P(V-nb)=nRT"):}
Answer» SOLUTION :`A RARR (p,s) B rarr (r ) C rarr (p,q) D rarr (p,s)`

Discussion

29.	Match each set of hybrid orbitals from List-I with complex given in list II
Answer» P-5, Q-4,6, R--2,3, S--1 P--5,6, Q--4, R--3, S--1,2, P--6, Q--4,5, R--1, S--2,3, P--4,6, Q--5,6, R--1,2, S--3 Solution :1) `[FeF_(6)]^(4-) 3d^(6)` & WEAK field ligand `therefore` HYBRIDISATION: `sp^(3)d^(2)` , 2) `[ti(H_(2)O)_(3)Cl_(3)]` & weak field ligand `therefore` Hybridisation: `d^(2)sp^(3)`. 3) `[Cr(NH_(3))_(6)]^(3+)`, `3d^(3)` & strong field ligand `therefore` Hybridisation: `d^(2)sp^(3)` 4) `[FeCl_(4)]^(2-) 3d^(6)` & weak field ligand `therefore` Hybridisation: `sp^(3)` 5) `Ni(CO)_(4)`, `3d^(10)` `therefore` Hybridisation: `sp^(3)` 6) `[Ni(CN)_(4)]^(2-)`, `3d^(8)` `therefore` Hybridisation, `dsp^(2)`

Discussion

30.	Match ilst I with list II and then select the correct answer from the codes given below the lists-
Answer» ANSWER :A::B::C::D

Discussion

31.	Match each of the reactions given in column I with the corresponding products given in column II. {:("Column I","Column II"),((A)Sn+conc.HNO_3,(p)"NO"),((B)Sn+dil.HNO_3,(q)NO_3 ),(( C)Ag+conc.HNO_3,(r)NH_4NO_3),((D)Ag+dil.HNO_3,(s)Sn(NO_3)_2),(,(t)AgNO_3):}
Answer» Solution :(A)3SN+`4HNO_3`(concssentrated ) + (x-2)`H_2Oto 4NO uarr + 3SnO_2 xH_2O`(metastrannic acid) (vogal) (B)`4Sn+10^(+)+NO_3^(-)`(dilute)`to4Sn^(2+)+NH_4^(+)+3H_2O` (vogel) (C )`Ag+2HNO_3` (CONCENTRATED) `toAgNO_3+NO_2+H_2O` (D)`3Ag+4HNO_3`(dilute) `to 3AgNO_3 + NO + 2H_2O`

Discussion

32.	Match each of the diatomic molecules in Column I with its property properties in Column II
Answer» <P>`{:(A,B,C,D),(q","R","s,q","r","s","t,q","r","t,p","q","t):}` `{:(A,B,C,D),(p","q","r","t,q","r","s","t,p","q","r","t,p","r","s","t):}` `{:(A,B,C,D),(q","r","s","t,p","q","r,r","s","t,p","q","r","t):}` `{:(A,B,C,D),(q","r","s,q","r","s","t,q","r","t,p","q","t):}` ANSWER :`Atop,q,r,t;Btoq,r,s,t;Ctop,q,r,t;DTOP,r,s,t

Discussion

33.	Match each coordination compounds in List-I with an appropriate pair of characteristics from List-II and select the correct answer using the code given below the lists. {en=H_(2)NCH_(2)CH_(2)NH_(2): atomic numbers : Ti=22,Cr=24,Cp=27,Pt=78}
Answer» <P>`{:(P,Q,R,S),(4,2,3,1):}` `{:(P,Q,R,S),(3,1,4,2):}` `{:(P,Q,R,S),(2,1,3,4):}` `{:(P,Q,R,S),(1,3,4,2):}` ANSWER :B

Discussion

34.	Match each coordination compound in List-I with an appropriate pair of charateristics from List-II and select the correct answer using the code given below the lists : (en = H_(2)NCH_(2)CH_(2)NH_(2), atomic nos. : Ti = 22, Cr = 24, Co = 27, Pt = 78) {:(,"List-I",,"List-II"),(("P"),[Cr(NH_(3))_(4)Cl_(2)]Cl,1.,"Paramagnetic and exhibits ionisation isomerism"),(("Q"),[Ti(H_(2)O)_(5)Cl](NO_(3))_(2),2.,"Diamagnetic and exhibits cis-trans isomerism"),(("R"),[Pt(en)(NH_(3))(Cl)]NO_(3),3.,"Paramagnetic and exhibits cis-trans isomerism"),(("S"),[Co(NH_(3))_(4)(NO_(3))_(2)]NO_(3),4.,"Diamagnetic and exhibits ionisation isomerism"):}
Answer» `{:("P","Q","R","S"),(4,2,3,1):}` `{:("P","Q","R","S"),(3,1,4,2):}` `{:("P","Q","R","S"),(2,1,3,4):}` `{:("P","Q","R","S"),(1,3,4,2):}` Solution :P : `Cr^(3+)` has `3d^(3)` configuration with 3 unpaired electrons. Hence,it shows PARAMAGNETIC behaviour. Complex of the type `MA_(4)B_(2)`shows cis-trans isomerism. Q : `Ti^(3+)` has `3d^(1)` configuration with 1 unpaired electron. Hence, it is paramagnetic. Complex gives `Cl^(-)` and `NO_(3)^(-)`ions in solution. Hence, it shows ionisation isomerism. R : `Pt^(2+)` has `3d^(8)` configuration but ligands are strong field ligands. Hence, all electrons pair up. Hence, it is diamagnetic and FORMS square planar complex. It also shows ionisation isomerism. S : `Co^(3+)` has `3d^(6)` configuration. But ligands present are strong enough to CAUSE electron pairing. Hence, it will be diamagnetic. As it is a complex of the type `MA_(4)B_(2)`, it exhibits cis-trans isomerism.

Discussion

35.	Match each coordination compound in List-I with an appropriate pair of characteristics from List - II and select the correct answer using the code given below the lists . [en = H_(2)NCH_(2)CH_(2)NH_(2) , At Nos : Ti = 22 , Cr = 24 , Co = 27 , Pt = 78] {:("List- I" ,, "List- II") , ((P) [Cr(NH_(3))_(4) Cl_(2)]Cl ,, 1. "Paramagnetic and exhibits ionisation isomerism"), ((Q) [Ti(H_(2)O)_(5) Cl](NO_(3))_(2) ,, 2 . "Diamagnetic and exhibits cis- trans isomerism"), ((R) [Pt (en) (NH_(3)) Cl]NO_(3) ,, 3. "Paramagnetic and exhibits cis - trans"), ((S) [Co(NH_(3))_(4) (NO_(3))_(2)]NO_(3) ,, 4."Diamagnetic and exhibits ionisation isomerism"):}
Answer» a. `{:(P , Q , R , S), (4 , 2 , 3 , 1):}` b. `{:(P , Q , R , S), (3 , 1 , 4 , 2):}` c.`{:(P , Q , R , S), (2 , 1 , 3 , 4):}` d.`{:(P , Q , R , S), (1 , 3 , 4 , 2):}` Solution :`P : Cr^(3+)` has `3d^(3)` configuration with 3 UNPAIRED electrons . Hence , it shows paramagnetic behaviour . Complex of the type `Ma_(4)b_(2)` shows cis-trans isomerism . `Q: Ti^(3+)` has `3d^(1)` configuration , hence shows paramagnetic behaviour . complex GIVES `Cl^(-)` and `NO_(3)^(-)` ions in solution hence , shows ionisation isomerism . R : `Pt^(2+)` has `3d^(8)` configuration but ligands are strong field ligands hence it forms square PLANAR complex . Thus , all electrons are paired and it also exhibits ionisation isomerism . S : `CO^(3+)` has `3d^(6)` configuration . But , ligands present are strong enough to CAUSE electron pairing , hence , it shows diamagnetic behaviour and exhibits cis-trans isomerism as it is `Ma_(4) b_2` type complex .

Discussion

36.	Match each coordination compound in List I with an appropriate pair of characteristics from List II and select the correct answer using the code below in the lists (en=H_(2)NCH_(2)CH_(2)NH_(2), atomic number, Ti=22, Cr=24, Co=27, Pt=78)
Answer» ANSWER :(P-3); (Q-1); (R-4); (S-2)

Discussion

37.	Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46322,4-Dimethyl-1-pentene
Answer» SOLUTION :N/A

Discussion

38.	Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46322,4-Dimethyl-2-pentene ,4,4-Dimethyl-2-pentene ,2,4,4-Trimethyl-2-pentene,2,4-Dimethyl-1-pentene, 1-Heptene
Answer» SOLUTION :N/A

Discussion

39.	Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46321-Heptene
Answer» SOLUTION :N/A

Discussion

40.	Match Column-I with Column-II {:("Column-I","Column-II"),((A)XeF_(2),(p)"Square pyramidal"),((B)PCl_(5),(q)"linear shape"),((C )XeOF_(4),(r )sp^(3)d "hybridization"),((D)XeF_(4), (s) sp^(3)d^(2)):}
Answer» Solution :`(A to q,R)(B to r) (C to p,s) (D to s)`

Discussion

41.	Match Column -I with Column -II {:("Column-I","Column-II"),((A)"Sorel's cement",(p)MgCl_(2)),((B)"Albite",(q)MgO),(( C)"A salt of carnallite",( r) NaAlSl_(3)O_(8)),((D)"Glauber's salt",(s) Na_(2)SO_(4).10H_(2)O):}
Answer» <P> SOLUTION :`(A to p,s) (B to R) (C to p) (D to s)`

Discussion

42.	Match Column -I with Column -II {:("Column-I","Column-II"),((A)"Refractory metal",(p)Li),((B)"Metal used in the Grignard reagent",(q)Mg),(( C)"The metal which form hydrated chloride",( r)Cs),((D)"Metal used in the photoelectric cell ",(s) K):}
Answer» <P> SOLUTION :`(A -Q) (B to q), (C to p,q) (D to r,s)`

Discussion

43.	Match Column-I with column-II {:("Column-I","Column-II"),((A)[MnCl_(6)]^(2-),(p)"One unpaired electron"),((B)[Fe(CN)_(6)]^(3-),(q) d^(2)sp^(3)),(( C)[CoF_(6)]^(3-),( r)sp^(3)d^(2)),((D) [Fe(H_(2)O)_(6)]^(2+), (s) Four unpaired electrons"):}
Answer» SOLUTION :`(A to p,Q)(B to p,q) (C to R,s)(D to r,s)`

Discussion

44.	Match column-I with column-II {:("Column-I","Column-II"),((A) Ho, (p)"london dispersion force"),((B)Xe,(q)"Lowest boiling noble gas"),((C )XeF_(6),® sp^(3)d^(2)),((D) IF_(7), (s) Distorted octahedral"):}
Answer» <P> SOLUTION :`(A to p,Q) (B to p) (C to r,s) (D to r)`

Discussion

45.	Match Column-I with Column-II {:("Column-I","Column-II"),((A)d^(2)sp^(3),(p)"Outer orbital octahedral complex"),((B)sp^(3)d^(2),(q)"High spin complex"),((C )K_(3)[Fe(CN)_(6)],( r)"Low spin complex"),((D)[Fe(H_(2)O)_(6)]Cl_(3),(s)"Inner orbital octahedral complex"):}
Answer» <P> SOLUTION :`(A to r,s)(B to p,Q) (C to r,s)(D to p,q)`

Discussion

46.	Match Column I with Column II Column-I(Quantum numbers )Column II ( Relation ) (A) n( p ) Stark effect ( B ) l( q ) Schrodinger's equation ( C ) m ( r ) Bohr's Atomic model ( D ) s( t ) Paul's exclusivity ( t ) Auf Bau sequencing
Answer» ANSWER :`(( A rarr Q,R,s,t) ( B rarr q,r,s,t) ( C rarr p,q,s) ( D rarr s) )`

Discussion

47.	Match Column -I with Column -II : Column -IColumn-II (A) Probability of survival of a radioactive nucleusfor one mean life( p ) N_(o)( 2) ^(-n) (B) Amount remaining after n-half lives( q)""_(o)lambda(t_(1) - t_(2)) ( C ) ( R_(2))/( R_(1)) , R_(1) =rate at time t_(1) R_(2)= rate at time t_(2)( r ) ((1)/( 2))^(11//10) (D) Amount left on 11^(th) day, starting with 1 mol of A ( t_(1//2) = 10 days )( s ) ( 1)/( e)
Answer» ANSWER :`( A RARR s ) , ( B rarr p ) , ( C rarr q), ( D rarr R ) `

Discussion

48.	Match Column-I with Column -II : Column-IColumn-II (A) The highest temperature at which liquid CO_(2) exists( p )( V_("real"))/( V_("ideal")) ( B ) 8a // 27 Rb( q) Critical temperature (C ) Compressibility factor Z = 3//8 at( r ) Ideal gas ( D )Compressibility factor Z =1 for( s)30.98^(@)C
Answer» ANSWER :`( A rarr q, s ) , ( B rarr q ) , ( C rarr q,p ) , ( D rarr R ) `

Discussion

49.	Match Column -Iwith Column -II : Column -IColumn-II (A) Ph of water( p ) ( 1)/( 2) p K_(w) ( B ) Ph of a salt of strong acid and strong base( q) pH = (1)/(2)[ pK_(w) + pK_(a) + log c ] (C ) Ph of a salt of weak acid and strong base( r ) pH = ( 1)/( 2) [ pK _(w) + pK_(a) - pK_(b)] (D) Ph of a salt of weak acid and weak base (s) 7 where K_(a) , K_(b) are dissociation constants of weak acid and weak base and K_(w) =Ionic product of water.
Answer» ANSWER :`( A rarr p,s) , ( B rarr p,s) , ( C rarr q ) , ( D rarr R ) `

Discussion

50.	Match Column-I with Column-II : Column-IColumn -II ( A) H_(2)(g) + I_(2)(g) rarr2HI(g)( p ) Unaffected by inert gas addition ( B ) CaCO_(3)(s)rarr CaO (s) + CO_(2)(g)( q) Forward shift by rise in pressure and backward shift by inert gas addition ( C ) N_(2)(g) + 3H_(2) (g) rarr 2NH_(3) (g)( r ) Unaffected by increase in pressure ( D ) PCl_(5)(g) rarr PCl_(3) ( g) + Cl_(2)(g)( s ) Backward shift by rise in pressure and forward shift by inert gas addition
Answer» <P> Answer :`( A rarr p, r) , ( B rarr p,r) ,(C rarr Q), ( D rarr s ) `

Discussion

Explore topic-wise InterviewSolutions in Current Affairs.

Match List I with List II and select the correct answer: {:(,"List I(ion)",1,"List II (Shapes)"),(A,ICl_(2)^(-),1,"Linear"),(B,BrF_(2)^(+),2,"Pyramidal"),(C,CIF_(4)^(-),3,"Tetrahedral"),(D,AICl_(4)^(-),4,"Square planar"),(,,5,"Angular"):}

MatchlistI withlistII andchoosethecorrectanswerfromthe codesgivenbelow:

Match list-I with List-II

Match list-I with List-II

Match List I (substances) with List II (processes) employed in the manufacture of the substances and select the correct option

Match list-I with List-II

Match List-I (reaction) with List-II (name of the reaction) and select the correct answer using the codes given below the lists:

Match List I and List II and select the correct answer using the code given below the lists : {:("List-I (reaction)","List-II(equivelent weight)"),((A)FeS_2toFe^(+3)+SO_2,(p)M//20),((B)Fe_2S_3to2FeSO_4+SO_2,(q)M//5),((C )KMnO_4"in acidic medium",(r)M//8),((D)Cu_2StoCu^(2+)+SO_2,(s)M//11):}

Match list I (complexes) with list-II(Hybridisation) and select correct answer using codes.

Match List-I and List -II and select the correct answer using codes given ahead in the lists

Match List-I and Li-st II and select the correct answer using the codes given below the slits:

Match list I and II and then select the correct answer from the codes given below the lists-

Match List : {:("Column-I","Column-II"),((A)PV^(gamma)="Constant",(p)"Expansion of ideal gas in vacuum"),((B)DeltaT=O,(q)Z=1-a/(V_mRT)),((C )"For" H_2 and He at 0^@C,(r)"Adiabatic reversible process"),((D)"At low density of gas",(s)Z=1+(pb)/(RT)):}

Match List-I and Li-st II and select the correct answer using the codes given below the slits:

Match list - 1 with ist -- Il and select the correct answer using the codes given below.

Match list - 1 with ist -- Il and select the correct answer using the codes given below.

Match items List - I with those in List - II from the combinations shows :{:("List - I","List - II"),("(I) Saliva","(A) Genetic material"),("(II) Nucleic acid","(B) Digestive enzyme"),("(III) Ascorbic acid","(C ) Antibiotic"),("(IV) Testosterone","(D) Sex hotmone"),(,"(E ) Vitamin"):}

Match items in column - I with the items of column - II and assign the correct code.

Match items in column -I with the items of column -II and assign the correct code.

Match items in column - I with the items of column - II and assign the correct code:

Match item is column -I with items of column -II and assign the correct code:

Match each set of hybrid orbitals from List-I with complex given in list II

Match ilst I with list II and then select the correct answer from the codes given below the lists-

Match each of the reactions given in column I with the corresponding products given in column II. {:("Column I","Column II"),((A)Sn+conc.HNO_3,(p)"NO"),((B)Sn+dil.HNO_3,(q)NO_3 ),(( C)Ag+conc.HNO_3,(r)NH_4NO_3),((D)Ag+dil.HNO_3,(s)Sn(NO_3)_2),(,(t)AgNO_3):}

Match each of the diatomic molecules in Column I with its property properties in Column II

Match each coordination compounds in List-I with an appropriate pair of characteristics from List-II and select the correct answer using the code given below the lists. {en=H_(2)NCH_(2)CH_(2)NH_(2): atomic numbers : Ti=22,Cr=24,Cp=27,Pt=78}

Match each coordination compound in List I with an appropriate pair of characteristics from List II and select the correct answer using the code below in the lists (en=H_(2)NCH_(2)CH_(2)NH_(2), atomic number, Ti=22, Cr=24, Co=27, Pt=78)

Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46322,4-Dimethyl-1-pentene

Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46322,4-Dimethyl-2-pentene ,4,4-Dimethyl-2-pentene ,2,4,4-Trimethyl-2-pentene,2,4-Dimethyl-1-pentene, 1-Heptene

Match each alkene with the appropriate heat of combustion: Heats of combustion (kJ/mol) : 5293 , 4658, 4650, 4638, 46321-Heptene

Match Column-I with Column-II {:("Column-I","Column-II"),((A)XeF_(2),(p)"Square pyramidal"),((B)PCl_(5),(q)"linear shape"),((C )XeOF_(4),(r )sp^(3)d "hybridization"),((D)XeF_(4), (s) sp^(3)d^(2)):}

Match Column -I with Column -II {:("Column-I","Column-II"),((A)"Sorel's cement",(p)MgCl_(2)),((B)"Albite",(q)MgO),(( C)"A salt of carnallite",( r) NaAlSl_(3)O_(8)),((D)"Glauber's salt",(s) Na_(2)SO_(4).10H_(2)O):}

Match Column -I with Column -II {:("Column-I","Column-II"),((A)"Refractory metal",(p)Li),((B)"Metal used in the Grignard reagent",(q)Mg),(( C)"The metal which form hydrated chloride",( r)Cs),((D)"Metal used in the photoelectric cell ",(s) K):}

Match Column-I with column-II {:("Column-I","Column-II"),((A)[MnCl_(6)]^(2-),(p)"One unpaired electron"),((B)[Fe(CN)_(6)]^(3-),(q) d^(2)sp^(3)),(( C)[CoF_(6)]^(3-),( r)sp^(3)d^(2)),((D) [Fe(H_(2)O)_(6)]^(2+), (s) Four unpaired electrons"):}

Match column-I with column-II {:("Column-I","Column-II"),((A) Ho, (p)"london dispersion force"),((B)Xe,(q)"Lowest boiling noble gas"),((C )XeF_(6),® sp^(3)d^(2)),((D) IF_(7), (s) Distorted octahedral"):}

Match Column-I with Column-II {:("Column-I","Column-II"),((A)d^(2)sp^(3),(p)"Outer orbital octahedral complex"),((B)sp^(3)d^(2),(q)"High spin complex"),((C )K_(3)[Fe(CN)_(6)],( r)"Low spin complex"),((D)[Fe(H_(2)O)_(6)]Cl_(3),(s)"Inner orbital octahedral complex"):}

Match Column I with Column II Column-I(Quantum numbers )Column II ( Relation ) (A) n( p ) Stark effect ( B ) l( q ) Schrodinger's equation ( C ) m ( r ) Bohr's Atomic model ( D ) s( t ) Paul's exclusivity ( t ) Auf Bau sequencing

Match Column-I with Column -II : Column-IColumn-II (A) The highest temperature at which liquid CO_(2) exists( p )( V_("real"))/( V_("ideal")) ( B ) 8a // 27 Rb( q) Critical temperature (C ) Compressibility factor Z = 3//8 at( r ) Ideal gas ( D )Compressibility factor Z =1 for( s)30.98^(@)C