Organizational maintenance repair parts and special tools lists : truck, forklift, gasoline engine driven, pneumatic-tired, 4,000 lbs capacity, 144" lift height, Army model MHE-221, 3930-00-151-4428, Baker model FJF-040.

Includes index.

DS and GS maintenance manual : truck, fork lift, 4000 lb capacity, 144 in. lift, gasoline engine driven (Baker model FJF-040) (Army model MHE211) FSN 3930-935-7963.

"February 1971."

Operator's and organizational maintenance manual : truck, fork lift, 4000 lb capacity, 144 in. lift, gasoline engine driven (Baker model FJF-040, Army model MHE-211), FSN 3930-935-7963.

"March 1971."

Organizational maintenance repair parts and special tools list : truck, forklift, deisel engine driven, pneumatic tired wheels, rough terrain, 6,000 lb. capacity 24" load center, Anthony model MLT-6-2, Army model MHE 230, NSN 3930-00-327-1575.

"November 1982."

Organizational maintenance repair parts and special tools list for truck, lift, fork, gasoline engine driven, solid rubber tires, 127 inch lift, 2000 pound capacity, Army model MHE 229, Clark Equipment Co. model 2329397 (NSN 3930-00-315-9699).

Includes index.

Unit, direct support, and general support maintenance ... : truck, lift, fork, gasoline engine driven, solid rubber tires, 127 inch lift, 2000 lb capacity, Army model MHE-229, Clark Equipment Co. model 2329397, NSN 3930-00-315-9699.

"February 1991."

Direct support and general support maintenance manual for truck, lift, fork, gasoline engine driven, solid rubber tires, 127 inch lift, 2000 pound capacity (Army model MHE 229) (Clark Equipment model 2329397), NSN 3930-00-315-9699.

"30 April 1975."

Operator's manual : water purification unit, base mounted, electric driven, AC, 115, 208 volt, single and 3 phase, 60 cycle, 3000 gallons per hour (MET-PRO model 3000-2700A), FSN 4610-857-0330.

"August 1963."

Operation and organizational maintenance manual : pumping assembly, flammable liquid, bulk transfer, gasoline engine driven, 350 gpm capacity, 275 feet total dynamic head, wheel mounted (Peabody Barnes, Inc. model US37ACG), FSN 4320-195-4914.

"January 1974."

Optimal design for model discrimination and parameter estimation for itraconazole population pharmacokinetics in cystic fibrosis patients

Optimal sampling times are found for a study in which one of the primary purposes is to develop a model of the pharmacokinetics of itraconazole in patients with cystic fibrosis for both capsule and solution doses. The optimal design is expected to produce reliable estimates of population parameters for two different structural PK models. Data collected at these sampling times are also expected to provide the researchers with sufficient information to reasonably discriminate between the two competing structural models.

Model-Driven safety evaluation with state-event-based component failure annotations

Over the past years, the paradigm of component-based software engineering has been established in the construction of complex mission-critical systems. Due to this trend, there is a practical need for techniques that evaluate critical properties (such as safety, reliability, availability or performance) of these systems. In this paper, we review several high-level techniques for the evaluation of safety properties for component-based systems and we propose a new evaluation model (State Event Fault Trees) that extends safety analysis towards a lower abstraction level. This model possesses a state-event semantics and strong encapsulation, which is especially useful for the evaluation of component-based software systems. Finally, we compare the techniques and give suggestions for their combined usage

Incremental model transformation for the evolution of model-driven systems

Model transformations are an integral part of model-driven development. Incremental updates are a key execution scenario for transformations in model-based systems, and are especially important for the evolution of such systems. This paper presents a strategy for the incremental maintenance of declarative, rule-based transformation executions. The strategy involves recording dependencies of the transformation execution on information from source models and from the transformation definition. Changes to the source models or the transformation itself can then be directly mapped to their effects on transformation execution, allowing changes to target models to be computed efficiently. This particular approach has many benefits. It supports changes to both source models and transformation definitions, it can be applied to incomplete transformation executions, and a priori knowledge of volatility can be used to further increase the efficiency of change propagation.