Vertical velocity as expressed by the horizon- tal equation of motion
Vertical velocity as expressed by horizontal motion equation
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Vertical velocity as expressed by horizontal motion equation
Thin film thickness from theoretical expressions for conductivity and isothermal Hall effect
Test of analytical expressions for thermal emission of shallow cylindrical cavities using spectrophotometer
New expressions for energy density and momentum flux of electromagnetic field
Expressions for second order short periodic perturbations for satellite motion
Algorithm for generating discrete approximations in terms of ordinates for linear differential expressions
Algorithm for construction of discrete approximations to linear differential expressions in terms of ordinates
Theoretical expressions for transport properties of ionized monatomic gas mixture within Chapman-Enskog-Burnett method framework
Nonequilibrium system representation by statistical mechanical ensemble expressing time correlation function for linear/nonlinear transport coefficients
Explicit expressions for stiffness matrix of triangular torus elements associated with linear displacement fields and generalized Hookian material
Gene expression - Conference, Brookline, Mass., November 1966, Survey of Neurosciences Research Program work session
Two center Coulomb integrals expressed in terms of center separation, noting applications to molecular calculations
Time domain expression derived for frequency varying nonperiodic square wave in FDM and FM systems, using orthogonal functions to obtain frequency spectrum
Computer program for analyzing hand printed mathematical expressions
Polynomial expressions for planetary equators and orbit elements in relationship to earth coordinate system
Liquid sloshing in liquid propellant containing orbiting vehicle stabilized by active control system, examining expression for ring baffle slosh damping under reduced gravity
The problem of determining the small-disturbance flow about two-dimensional airfoils at transonic speeds has been successfully treated by the process of matching a numerical solution of the near field to analytic expressions for the far field. The three-dimensional problem, it would appear, can be treated in a similar way with the aid of algorithms adapted to high-speed and high-capacity computers. The far-field potential for both lifting and nonlifting three-dimensional wings at transonic speeds is developed herein for a subsonic free stream. This potential could be used for a three-dimensional-wing computation similar to the computation made for the two-dimensional wing.
An analytic form is given for the energy-transfer rate from photoelectrons to thermal electrons. The expression fits the classical formulation of Itakawa and Aono (1966) at low energies and gives a smooth transition to fit the quantum mechanical equation of Schunk and Hays (1971) at higher energies. The corresponding loss function or stopping power has a form that is convenient in auroral and dayglow calculations.