Final report of frontal barrier impacts of a 1985 Ford Escort 3-door hatchback in support of CRASH III damage algorithm reformation.

Mode of access: Internet.

Analysis of some cloud and frontal events : recorded during the Boulder Upslope Cloud Observation Experiment (BUCOE) of 1982 /

"March 1984."

Manual on design and manufacture of coned disk springs or Belleville springs.

Mode of access: Internet.

The Portland Vase Disk

Glass, Roman; D: 4 51/64 in.; carved and blown, cameo glass

Unit, direct support and general support maintenance repair parts and special tools list for saw, concrete, self propelled, abrasive disk, model C-3000-30, NSN 3895-01-303-8909.

"October 1991."

General support maintenance repair parts and special tools list (including depot maintenance repair parts and special tools) for disk memory unit RD-502/GSC, (flexible disk drive DD-400-MX45013), (NSN 7025-01-134-0684).

Includes index.

Operator's and organizational maintenance manual : disk memory unit MU-768/G, (NSN 7025-01-155-0172).

Includes index.

Operator's manual : disk memory unit MU-705/MYQ-4 (NSN 7025-01-092-2745).

"February 1984."

Color measurement and its application to the grading of agricultural products : a handbook on the method of disk colorimetry /

Contribution from Production and Marketing Administration.

On the functions of the cerebrum; the frontal lobes.

Mode of access: Internet.

Chase S. Osborn, frontal portrait ca. 1898

see inscriptions and label on portrait from same studio session, na18169

Condensation on and evaporation from a rotating flat-disk wiped-film evaporator.

Mode of access: Internet.

On the steady-state assumption and its application to the rotating disk voltammetry of adsorbed enzymes

Rotating disk voltammetry is routinely used to study electrochemically driven enzyme catalysis because of the assumption that the method produces a steady-state system. This assumption is based on the sigmoidal shape of the voltammograms. We have introduced an electrochemical adaptation of the King-Altman method to simulate voltammograms in which the enzyme catalysis, within an immobilized enzyme layer, is steadystate. This method is readily adaptable to any mechanism and provides a readily programmable means of obtaining closed form analytical equations for a steady-state system. The steady-state simulations are compared to fully implicit finite difference (FIFD) simulations carried out without any steady-state assumptions. On the basis of our simulations, we conclude that, under typical experimental conditions, steady-state enzyme catalysis is unlikely to occur within electrode-immobilized enzyme layers and that typically sigmoidal rotating disk voltammograms merely reflect a mass transfer steady state as opposed to a true steady state of enzyme intermediates at each potential.