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{:("List-I","List-2"),((a)"Pressure ",(e...

`{:("List-I","List-2"),((a)"Pressure ",(e)ML^(2)T^(-2)I^(-1)),((b)"Latent heat", (f) M^(0)L^(0)T^(-1)),((c)"Velocity gradient" ,(g) ML^(-1)T^(-2)),((d) "Magnetic flux" ,(h) M^(0)L^(2)T^(-2)):}`

A

a - h`" "` b- f `" "`c -g `" "` d-e

B

a - g`" "` b- h `" "`c -e `" "` d-f

C

a - g`" "` b- h `" "`c -f `" "` d-e

D

a - f`" "` b- g `" "`c -e`" "` d-h

Text Solution

AI Generated Solution

The correct Answer is:
To solve the problem of matching the physical quantities in List-I with their corresponding dimensional formulas in List-II, we will analyze each physical quantity one by one and determine its dimensional formula. ### Step 1: Identify the dimensional formula for Pressure - Pressure is defined as force per unit area. - The dimensional formula for force is \( M L T^{-2} \) (mass × acceleration). - Area has the dimensional formula \( L^2 \). - Therefore, the dimensional formula for pressure is: \[ \text{Pressure} = \frac{\text{Force}}{\text{Area}} = \frac{M L T^{-2}}{L^2} = M L^{-1} T^{-2} \] - So, the dimensional formula for Pressure is \( M L^{-1} T^{-2} \). ### Step 2: Identify the dimensional formula for Latent Heat - Latent heat is defined as the amount of heat required to change the state of a unit mass of a substance without changing its temperature. - The dimensional formula for energy (or heat) is \( M L^2 T^{-2} \). - Since latent heat is energy per unit mass, we divide by mass: \[ \text{Latent Heat} = \frac{M L^2 T^{-2}}{M} = L^2 T^{-2} \] - Thus, the dimensional formula for Latent Heat is \( M^0 L^2 T^{-2} \). ### Step 3: Identify the dimensional formula for Velocity Gradient - Velocity gradient is defined as the change in velocity per unit distance. - The dimensional formula for velocity is \( L T^{-1} \). - Therefore, the dimensional formula for velocity gradient is: \[ \text{Velocity Gradient} = \frac{L T^{-1}}{L} = T^{-1} \] - Thus, the dimensional formula for Velocity Gradient is \( M^0 L^0 T^{-1} \). ### Step 4: Identify the dimensional formula for Magnetic Flux - Magnetic flux is defined as the product of the magnetic field and the area perpendicular to the field. - The dimensional formula for magnetic field is \( M T^{-2} I^{-1} \) (force per unit charge per unit length). - Therefore, the dimensional formula for magnetic flux is: \[ \text{Magnetic Flux} = \text{Magnetic Field} \times \text{Area} = (M T^{-2} I^{-1}) \times (L^2) = M L^2 T^{-2} I^{-1} \] - Thus, the dimensional formula for Magnetic Flux is \( M L^2 T^{-2} I^{-1} \). ### Step 5: Match the quantities with their dimensional formulas Now we can match the physical quantities with their corresponding dimensional formulas: - (a) Pressure → \( M L^{-1} T^{-2} \) → Matches with (g) - (b) Latent Heat → \( M^0 L^2 T^{-2} \) → Matches with (h) - (c) Velocity Gradient → \( M^0 L^0 T^{-1} \) → Matches with (f) - (d) Magnetic Flux → \( M L^2 T^{-2} I^{-1} \) → Matches with (e) ### Final Matching - a → g - b → h - c → f - d → e Thus, the correct matches are: - a g - b h - c f - d e
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Some physical constants are given in List-1 and their dimensional formulae are given in List-2. Match the correct pairs in the lists {:("List-I","List-2"),((a)"Planck's constant ",(e)ML^(-1)T^(-2)),((b)"Gravitational constant ", (f) ML^(-1)T^(-1)),((c)"Bulk modulus" ,(g) ML^(-2)T^(-1)),((d) "Coefficient of viscosity " ,(h) M^(-1)L^(3)T^(-2)):}

Name of units of some physical quantities are given in List - 1 and their dimensional formulae are given in List - 2 , Match correct pair in lists. {:("List - 1","List - 2"),((a) pascal ,(e) L^2T^(-2)K^(-1)),((b) NmK^(-1), (f) MLT^(-3)K^(-1)),((c) J Kg^(-1)K^(-1), (g) ML^(-1)T^(-2)),((d) Wm^(-1)K^(-1), (h) ML^(2)T^(-2)K^(-1)):}

Match list (Physical Quantity ) with List II (Dimensions) and select the correct answer using the codes givn below the list {:("List I",,"List II"),("(A) Relative density",,(1) ML^(2)T^(-3)),("(B) Potential energy",,(2) MLT^(-1)),("(C) Viscosity",,(3) M^(@)L^(@)T^(@)),("(D) Linear Momentum",,(4) ML^(-1)T^(-1)),(,,(5)ML^(2)T^(2)):}

Match the following. |{:(,"Table-1",,"Table-2"),((A),"Coefficient of viscosity",(P),[M^(2)L^(-1)T^(-2)]),((B),"Surface tension",(Q),[ML^(0)T^(-2)]),((C),"Modulus of elasticity",(R),[ML^(-1) T^(-2)]),((D),"Energy per unit volume",(S),"None"),(,"of a fiuid",,):}|

Match List I with List II and select the correct answer using the codes given below the lists. {:("List I",,"List II"),("(Physical Quantity)",,"(Dimension)"),("A. Angular momentum",, (1) ML^(-1)T^(-2)),("B. Torque",,(2) MT^(-2)),("C. Surface Tension",,(3) ML^(2)T^(-1)),("D. Coefficient of viscosity",,(4) ML^(2)T^(-2)):}

{:(,"Column I",,"Column II"),(("A"),"Electrical resistance",(p),["M"^(-1)"L"^(-2)"T"^(4)"A"^(2)]),(("B"),"Capacitance",(q),["ML"^(2)"T"^(-2)"A"^(-2)]),(("C"),"Magnetic field",(r),["ML"^(2)"T"^(-3)"A"^(-2)]),(("D"),"Inductance",(s),["MT"^(-2)"A"^(-1)]):}

{:("List-I","List - 2"),((a)m^(-1),(e)"Surface tension"),((b)Pa,(f)"Thermal capacity"),((c)Jk^(-1),(g)"Rydberg constant"),((d) Jm^(-2),(h)"Energy density"):}

{:(,"A.","Spring constant",1.,["M"^(1)"L"^(2)"T"^(-2)]),(,"B.","Pascal",2.,["M"^(0)"L"^(0)"T"^(-1)]),(,"C","Hertz",3.,["M"^(1)"L"^(0)"T"^(-2)]),(,"D.","Joule",4.,["M"^(1)"L"^(-1)"T"^(-2)]):}

Match the following columns, {:("Column1","Column2"),("a Thermal resitance","p [MT^(-3)K^(-4)]"),("b Stefan's constant","q [M^(-1)L^(-2)T^(3)K]"),("c Wien's constant","r [ML^(2)T^(-3)]"),("d Heat current","s [LK]"):}

Dimension of sqrt((in_(0))/(mu_(0))) are (A) [M L^(2) T^(-3) A^(-2)] (B) [M^(-1) L^(-2) T^(3) A^(2)] (C) [M^(2)L^(2)T^(-3) A^(2)] (D) [M^(-1) L^(2) T^(3) A^(2)]

AAKASH SERIES-UNITS AND MEASUREMENTS-EXERCISE -1 A
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  2. Dimensional formulae are used A) to convert one system of units into...

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  3. (A) The correctness of an equation is verified using the principle of ...

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  9. If e, E0, h and C respectively represents electronic change, permittiv...

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  10. Photon is quantum of radiation with energy E=hv, where v is frequency ...

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  11. The displacement of a particle executing simple harmonic motion is giv...

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  14. {:("List-I","List - 2"),((a)m^(-1),(e)"Surface tension"),((b)Pa,(f)"Th...

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  17. Match the following : {:("List - 1","List - 2"),((a) "second" ,(e) "...

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