User:KYPark/Sandbox

Reading the 1955 paper* once again reminds me of the inspiration that the concept had from my early interest in encyclopaedism. In 1970,** Manfred Kochen commented on its role in the worldwide encyclopaedic movement.13 Today the Internet has enabled the development of Wikipedia and other grand schemes that will make the H.G. Wells dream of a World Brain a reality.


 * Footnote : 13. Kochen M. WISE -- world information synthesis and encyclopedia. J Document, 1972; 28: 322-343.
 * My footnotes
 * * Eugene Garfield. Citation indexes for science: a new dimension in documentation through association of ideas. Science, 1955; 122: 108-11.
 * ** "1970" may be mistaken for 1972.

Reading the 1955 paper* once again reminds me of the inspiration that the concept had from my early interest in encyclopaedism. In 1970,** Manfred Kochen commented on its role in the worldwide encyclopaedic movement.13 Today the Internet has enabled the development of Wikipedia and other grand schemes that will make the H.G. Wells dream of a World Brain a reality.


 * Footnote : 13. Kochen M. WISE -- world information synthesis and encyclopedia. J Document, 1972; 28: 322-343.
 * My footnotes
 * * Eugene Garfield. Citation indexes for science: a new dimension in documentation through association of ideas. Science, 1955; 122: 108-11.
 * ** "1970" may be mistaken for 1972.

Figure 10

 * 1) independent-particle model; ground state, neutral atom.
 * 2) independent-particle model; excited state, neutral atom.
 * 3) independent-particle model; excited state, neutral atom.
 * 4) independent-particle model; ground, excited state, ion.
 * 5) independent-particle model; differential elastic cross section, electron, rare gas.
 * 6) independent-particle model; differential elastic cross section, electron, rare gas.
 * 7) independent-particle model; differential elastic cross section, electron, rare gas.
 * 8) independent-particle model; inelastic atomic process; review.

Figure 11

 * 1) independent-particle model; ground state, neutral atom; oxygen;
 * 2) independent-particle model; excited state, neutral atom; oxygen; weighting, outer level; differential, total cross section;
 * 3) independent-particle model; excited state, neutral atom;
 * 4) independent-particle model; ground, excited state, ion; potential, electron; minimization, total energy;
 * 5) independent-particle model; differential elastic cross section, electron, rare gas.
 * 6) independent-particle model; differential elastic cross section, electron, rare gas.
 * 7) independent-particle model; differential elastic cross section, electron, rare gas.
 * 8) independent-particle model; inelastic atomic process; review;
 * 9) momentum transfer, cross section, neutral, ionized oxygen; electron gas cooling, calculation;
 * 10) total cross section, low energy;
 * 11) total cross section, low energy;
 * 12) phenomenological calculation, low energy scattering; polarization, potential, energy eigenvalue, outer electron, electron affinity; effective range expansion; modification;
 * 13) phenomenological calculation, low energy scattering; polarization, potential, energy eigenvalue, outer electron, electron affinity;
 * 14) phenomenological calculation, low energy scattering; polarization, potential, energy eigenvalue, outer electron, electron affinity; effective range expansion; modification;
 * 15) phenomenological calculation, low energy scattering; polarization, potential, energy eigenvalue, outer electron, electron affinity;
 * 16) elastic scattering calculation, oxygen; polarized orbital;
 * 17) elastic scattering calculation, oxygen; polarized orbital;
 * 18) elastic scattering calculation, oxygen; close coupling;
 * 19) elastic scattering calculation, oxygen; polarized orbital; close coupling;
 * 20) high energy calculation, Hartree Fock, static atom; Born approximation;
 * 21) total cross section, low energy; electron oxygen parameter;
 * 22) minimization, total energy;
 * 23) potential, elastic scattering; low energy, phase shift, electron;
 * 24) experimental level; excited state;
 * 25) experimental level; electron spectroscopy, chemical analysis;
 * 26) rare gas;
 * 27) weighting, outer level, energy;
 * 28) expansion, optical, potential, elastic scattering;
 * 29) single particle energy;
 * 30) modified, Born approximation, scattering amplitude;
 * 31) measurement, ratio, forward, back scattering;
 * 32) effective range expansion; modification;
 * 33) differential, total cross section;
 * 34) negative ion, decay, quasistationary state;
 * 1) differential, total cross section;
 * 2) negative ion, decay, quasistationary state;
 * 1) negative ion, decay, quasistationary state;

math examples
$$V(r)=(-2/r)[(Z-\eta)\Omega+\eta]$$ ,

$$V_p=-(\alpha/r^4)[1-c^{-(r/r_p)^8}] $$

$$ f(\theta)=f_B(\theta) + (1/k) \sum_l (2l+1)(A_l-B_l)P_l(\cos \theta) $$

$$\Delta_l=\frac\alpha {2kr_m} [\frac 1 {3} + \frac 1 {r_m^2} (\frac {l(l+1)-2} {10k^2} - \frac {8r_p^2} {15})] $$

for $$l<<kr_m$$.