'1 2 ln 2' presentation slideshows

Radioactive Decay Kinetics

Radioactive Decay Kinetics. Outline Radioactive decay kinetics Basic decay equations Utilization of equations Mixtures Equilibrium Branching Natural radiation Dating. Introduction. Number of radioactive nuclei that decay in a sample decreases with time Exponential decrease

956 views • 53 slides

Radioactive Decay Kinetics

Radioactive Decay Kinetics. Outline Radioactive decay kinetics Basic decay equations Utilization of equations Mixtures Equilibrium Branching Natural radiation Dating. Introduction. Number of radioactive nuclei that decay in a sample decreases with time Exponential decrease

822 views • 53 slides

282 views • 27 slides

Lecture 2

Lecture 2. Radioactive Decay Kinetics. Basic Decay Equations. Radioactive decay is a first order process, ie, the number of decays/s is proportional to the number of nuclei present In eqn form, -dN/dt =?N where the constant ? is the decay constant (A=?N) Rearranging.

401 views • 25 slides

CHEM 702: Lecture 6 Radioactive Decay Kinetics

CHEM 702: Lecture 6 Radioactive Decay Kinetics. Outline Readings: Modern Nuclear Chemistry Chapter 3; Nuclear and Radiochemistry Chapters 4 and 5 Radioactive decay kinetics Basic decay equations Utilization of equations Mixtures Equilibrium Branching Cross section Natural radiation

414 views • 24 slides

Option B: Quantum and nuclear physics B2 Nuclear physics

Option B: Quantum and nuclear physics B2 Nuclear physics. B.2.1 Explain how the radii of nuclei may be estimated from charged particle scattering experiments. B.2.2 Describe how the masses of nuclei may be determined using a Bainbridge mass spectrometer.

396 views • 22 slides

Topic 13: Quantum and nuclear physics 13.2 Nuclear physics

Topic 13: Quantum and nuclear physics 13.2 Nuclear physics. 13.2.1 Explain how the radii of nuclei may be estimated from charges particle scattering experiments. 13.2.2 Describe how the masses of nuclei may be determined using a Bainbridge mass spectrometer.

520 views • 22 slides

Topic 13: Quantum and nuclear physics 13.2 Nuclear physics

13.2.1 Explain how the radii of nuclei may be estimated from charges particle scattering experiments. 13.2.2 Describe how the masses of nuclei may be determined using a Bainbridge mass spectrometer. 13.2.3 Describe one piece of evidence for the existence of nuclear energy level.

373 views • 22 slides

Option B: Quantum and nuclear physics B2 Nuclear physics

Option B: Quantum and nuclear physics B2 Nuclear physics. B.2.1 Explain how the radii of nuclei may be estimated from charged particle scattering experiments. B.2.2 Describe how the masses of nuclei may be determined using a Bainbridge mass spectrometer.

357 views • 22 slides

MA and LLFP Transmutation Performance Assessment in the MYRRHA eXperimental ADS

324 views • 19 slides

A New Variable for Assessing Information in Networks

A New Variable for Assessing Information in Networks. Michael Hadley Matthew McGranaghan Grayson Sipe Justin Bruce. Elaine R. Reynolds Chun Wai Liew. http://www.colmanweb.com/Assets/Resources/ALevelFormulas.jpg. Neuron and Node. Dendrites. Input. Cell body. Processing. Axon. Output.

239 views • 17 slides

Review

Review. Differential Rate Laws. rate (M s -1 ) =. k. [A] a. [B] b. A + 3 B ? 2 C. rate =. - ?[ A ] ?t. = - ?[B] ?t. 1/3. Assume that A is easily detected. initial rate =. 1x10 -3 M s -1. a ) 1x10 -3 Ms -1 b ) 3x10 -3 Ms -1 c ) 0.33x10 -3 Ms -1.

214 views • 14 slides

N ln N - N

194 views • 5 slides