Thermodynamics Quiz

Ideal gas law:

Absolute zero is:

Kelvin from Celsius:

Average KE translational ideal gas ∝:

rms speed v_rms =:

First law thermodynamics:

Isothermal process ΔU for ideal gas:

Adiabatic means:

Isochoric means:

Isobaric means:

C_p − C_v for ideal gas =:

γ = C_p/C_v is:

Carnot efficiency:

Entropy statement:

Second law implies:

Heat engine converts:

Refrigerator COP related to:

Conduction heat transfer requires:

Radiation heat can travel:

Convection involves:

Specific heat is:

Latent heat is heat for:

Triple point of water used for:

Zeroth law defines:

PV diagram area represents:

Adiabatic curve is steeper than isothermal on PV for ideal gas:

Internal energy ideal gas depends on:

Reversible process is:

Irreversible processes increase:

Heat capacity of system:

Molar heat capacity uses:

Boltzmann constant k relates:

Avogadro number NA ~:

R = NA k is:

Van der Waals equation corrects:

Critical point is where:

Thermal expansion ΔL ≈:

Calorimetry uses:

Stefan-Boltzmann law:

Wien's law λ_max T =:

Heat pump heats:

Otto cycle approximates:

Diesel cycle has:

Entropy of universe for reversible cycle:

Work in isochoric process:

Heat in isothermal ideal gas expansion:

Degrees of freedom monatomic:

Equipartition: energy per quadratic term:

Sound speed in ideal gas ∝:

Thermal conductivity k in:

P=1e5 Pa, V=0.01 m³, T=300 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=310 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=320 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=330 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=340 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=350 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=360 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=370 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=380 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=390 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=400 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=410 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=420 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=430 K. n ≈:

P=1e5 Pa, V=0.01 m³, T=440 K. n ≈:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Carnot engine T_H=600 K, T_C=300 K. Efficiency:

Heat to raise 0.5 kg water (c=4200) by 20 K:

Heat to raise 0.5 kg water (c=4200) by 21 K:

Heat to raise 0.5 kg water (c=4200) by 22 K:

Heat to raise 0.5 kg water (c=4200) by 23 K:

Heat to raise 0.5 kg water (c=4200) by 24 K:

Heat to raise 0.5 kg water (c=4200) by 25 K:

Heat to raise 0.5 kg water (c=4200) by 26 K:

Heat to raise 0.5 kg water (c=4200) by 27 K:

Heat to raise 0.5 kg water (c=4200) by 28 K:

Heat to raise 0.5 kg water (c=4200) by 29 K:

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):

Ideal gas rms speed ratio T2/T1=4 (same gas):