3 (a) state newton second law of motion in words. Write the law
as an equation,stating the meaning.
(B) State the Zeroth law of Thermodynamics. why is it
called"Zeroth" law?
(c) State newton's law of universal gravitation. Give the
formula (equation)for the magnituded of the gravitational force
between two masses, explainig the meanings of the symbols you
uses
(D) state the first law of thermodynamics in words .Give the
equation form of the law.explaing the meanings of the symbols you...
Starting from the first and second law of thermodynamics, derive
the fundamental equation for A in its natural variables. a) Derive
the Maxwell relation that s related to this equation. b) Show that
for df= gdx + hdy we have an exact equation if:
What traits do elephants have in common with primates?
What traits do octopus have in common with primates?
What important primate traits do elephants lack?
What importants primate traits do octopus lack?
Discuss the analogy between Cahn-Hillard time evolution equation
and Fick's second law of diffusion. What is he limitation or
applicability of Fick diffusion equation to phase
dissolution(homogenization) versus phase segregation in a colloidal
system
Discuss Newton’s Second Law. (In equation and words.)
Describe the use of dynamics track & cart, pulley, string,
mass, force sensor, and computer graphical interface to study
motion. (Explain it in a way that someone who has not seen it can
understand what was done.)
Describe how experimental and theoretical values for
acceleration will be determined and compared to verify Newton’s
Second Law.
(a)Use Netwons Second Law of Motion to prove that the equation
governing the forced damped harmonic oscillator (spring-mass
system) is: mx"(t) + cx'(t) + kx(t) = F(t): (Explain what the
constants m; c; k are and what the function F(t) is. Draw a picture
of the system.)
(b)Assume m = 1; c = 0; k = 4; that F(t) = cos(2t); and that the
object attached to the spring begins from the rest position. Find
the position function using the...
Define the followings.
(a) collision flux
(b) Stokes law
(c) Fick's second law
(d) Einstein-Smoluchowski equation
(e) half-life of a first-order reaction
(f) Forster theory of resonance energy transfer
(g) Mechaelis-Menten mechanism