Radiative source-function predictions for finite and semi-infinite non-conservative atmospheres.
Probabilistic method to predict source-function distributions for radiative transfer in nonconservative atmospheres
Engineering topics
Publications and source records attributed to Heaslet, M. A..
Probabilistic method to predict source-function distributions for radiative transfer in nonconservative atmospheres
Spectral line formation by noncoherent photon scattering predicted theoretically for plane parallel medium of finite optical thickness, emphasizing Doppler broadening
Green formula and moment functions, predicting rate of radiative energy loss from boundaries of absorbing-emitting slab or sphere
Time-independent radiative transfer through circular cylindrical medium, using numerical methods
Radiative heat transfer through nonisothermal absorbing and emitting gray gas between heated walls
Steady state radiative transport through homogeneous spherical medium, applying invariance principles of Ambartsumian and Chandrasekhar
Radiative and conductive heat fluxes in finite gas slab between parallel walls shown to be similar, using continuum theory
Thermal radiation transport through absorbing plane layer
Cross-sectional shapes of cylindrical or two- dimensional cavities, exhibiting uniform diffuse radiation characteristics
Application of the continuum, inviscid-flow equations of gas dynamics to predict the effect of thermal radiation on the internal structure of a shock wave
Cross sectional shapes of cylindrical or two-dimensional cavities with uniform diffuse radiation characteristics of heat transfer
Diffuse radiation from infinite shells with circular-arc sections - source field effects
Concentration dependent diffusion from a fixed surface