Codex @codex  0

By K. P. Burr, T. R. Akylas, C. C. Mei.

Online text: web.mit.edu/fluids-modules/www/highspeed_flows/ver2/bl_Chap2/node7.html

Cited passages: Boundary-layer Thickness, Skin friction, and Energy dissipation, discussion before equation (79): asymptotic edge and experimental sensitivity of a 99% criterion; Equation (79) and following interpretation of the volume-flux deficit; Equation (80) and interpretation of the momentum-defect flux; Equation (82), dimensional wall shear definition; the coefficient here follows the numerically checked Blasius equation in the stated normalization.

By K. P. Burr, T. R. Akylas, C. C. Mei.

Online text: web.mit.edu/fluids-modules/www/highspeed_flows/ver2/bl_Chap2/node4.html

By K. P. Burr, T. R. Akylas, C. C. Mei.

Online text: web.mit.edu/fluids-modules/www/highspeed_flows/ver2/bl_Chap2/node2.html

Cited passages: Boundary Layer Governing Equations, equations (13)-(23): inertia-viscosity balance, normal pressure balance, and dimensional equations.

Online text: ocw.mit.edu/courses/8-13-14-experimental-physics-i-ii-junior-lab-fall-2016-spring-2017/7c85fcf2432fca75c26f9f78b6c8cb18_MIT8_13-14F16-S17expIII.pdf

This is a laboratory protocol, not a dataset demonstrating the new gas-cell curve.

Cited passages: MIT Department of Physics, Optical Interferometry, sections III–V: calibrated actuator, two-channel readout and wavelength inference.

Cited passages: MIT Department of Physics, Optical Interferometry laboratory guide, §§II–IV: apparatus and visibility measurement.

Online text: ocw.mit.edu/courses/2-71-optics-spring-2014/ecd8b4c1c7717a31e961837de299879b_MIT2_71S14_lec25_notes.pdf

Cited passages: Nick Fang, Review for Optics, 12 May 2014, pp. 7–8, §E(a–b): coherent field and incoherent intensity imaging; Review for Optics, p. 8, §E(b): OTF as Fourier transform of intensity PSF and pupil autocorrelation; Review for Optics, pp. 6–8, §§D(c), E: lens Fourier transform and pupil transfer function.

Online text: ocw.mit.edu/courses/2-71-optics-spring-2014/d558a4fabb2cc2eee8f864d3928b31f6_MIT2_71S14_lec2_notes.pdf

The notes also use a nondispersive travel-time interpretation; this enrichment limits that interpretation explicitly rather than applying it to arbitrary dispersive media.

Cited passages: Nick Fang, Lecture Notes on Geometrical Optics, page 4, equation 1: optical path integral.

Cited passages: Nick Fang, MIT Lecture Notes on Geometrical Optics, 2014, introduction and §H; Nick Fang, MIT Lecture Notes on Geometrical Optics, 2014, §J: Composite lenses; Nick Fang, MIT Lecture Notes on Geometrical Optics, §H: Magnification; Nick Fang, MIT Lecture Notes on Geometrical Optics, §J: Composite lenses; Nick Fang, MIT Lecture Notes on Geometrical Optics, §§E–G; Nick Fang, MIT: Geometrical optics; Nick Fang, MIT: Geometrical optics, pages 1-3.

Online text: www.ocw.mit.edu/courses/2-71-optics-spring-2014/13134562742a242caad5fd92fcb27dfa_MIT2_71S14_lec10_notes.pdf

Course is Spring 2014; PDF itself bears the date string 03/11/13. Author identified as Nick Fang in PDF and Nicholas X. Fang on course page.

Cited passages: Nick Fang, Optics lecture 10, pages 1–3: eikonal equation, optical path integral and ray direction.