NASA Scientific and Technical Aerospace Reports
NASA Scientific and Technical Aerospace Reports
NASA Scientific and Technical Aerospace Reports
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energy scheme. This work reviews <strong>and</strong> describes various distributed generation technologies, including fuel cells,<br />
microturbines, wind turbines, photovoltaic arrays, <strong>and</strong> Stirling engines. Issues such as fuel availability, construction<br />
consideration, <strong>and</strong> protection controls are addressed. Sources of further information are provided.<br />
DTIC<br />
Electric Power Transmission<br />
45<br />
ENVIRONMENT POLLUTION<br />
Includes atmospheric, water, soil, noise, <strong>and</strong> thermal pollution.<br />
20040045344 <strong>NASA</strong> Stennis Space Center, Bay Saint Louis, MS, USA<br />
Environmental Assessment for the <strong>NASA</strong> First Response Facility<br />
Kennedy, Carolyn; October 1, 2003; 20 pp.; In English<br />
Report No.(s): SE-2003-11-00102-SSC; No Copyright; Avail: CASI; A03, Hardcopy<br />
<strong>NASA</strong> intends to construct a First Response Facility for integrated emergency response <strong>and</strong> health management. This<br />
facility will consolidate the Stennis Space Center fire department, medical clinic, security operations, emergency operations<br />
<strong>and</strong> the energy management <strong>and</strong> control center. The alternative considered is the ‘No Action Alternative’. The proposed action<br />
will correct existing operational weaknesses <strong>and</strong> enhance capabilities to respond to medical emergencies <strong>and</strong> mitigate any<br />
other possible threats. Environmental impacts include are emissions, wetl<strong>and</strong>s disturbance, solid waste generation, <strong>and</strong> storm<br />
water control.<br />
Author<br />
<strong>NASA</strong> Programs; Environment Management; Public Health; Emergencies<br />
20040046909 Colorado Univ., Boulder, CO, USA<br />
[Measurements of ‘Total Water’ <strong>and</strong> Carbon Dioxide from the <strong>NASA</strong> WB-57 During Crystal-Face]<br />
Avallone, Linnea M.; [2003]; 6 pp.; In English<br />
Contract(s)/Grant(s): NAG5-11473; No Copyright; Avail: CASI; A02, Hardcopy<br />
An existing closed-path tunable diode laser hygrometer (CLH) was employed for the measurements of total water made<br />
during CRYSTAL-FACE. This instrument had flown previously on the <strong>NASA</strong> DC-8 during the SAGE III Ozone Loss <strong>and</strong><br />
Validation Experiment (SOLVE) <strong>and</strong> also on the NCAR C-130 during some local flights designed to test the extent of water<br />
vapor interference in carbon dioxide measurements. The instrument was largely unchanged from previous studies, but a new<br />
inlet appropriate to the WB-57F wingpod was constructed. In order to minimize the impact on the over-subscribed right<br />
wingpod <strong>and</strong> to achieve good thermal control of the inlet temperature, the CLH inlet was made of carbon-fiber/epoxy<br />
composite. Considerable effort was spent to design <strong>and</strong> build the lightest possible mounting hardware <strong>and</strong> design relatively<br />
low-power inlet heaters. As a result, the instrument <strong>and</strong> mounting hardware came in below the <strong>NASA</strong>/JSC-imposed weight<br />
cap of 35 lbs. Data were obtained on all test flights during May 2002 <strong>and</strong> during all but one mission flight in July 2002 (the<br />
one lost flight was due to an unplugged instrument power cable). Instrument performance during the test flights was good, but<br />
the data are not science- quality, as a variety of tests were performed to optimize the inlet configuration <strong>and</strong> heating. Data on<br />
all mission flights is of high quality, despite some difficulties caused by flying through wet low-altitude air masses <strong>and</strong> dense<br />
anvils, which saturated the instrument response.<br />
Derived from text<br />
Carbon Dioxide; Water Vapor; Measuring Instruments; Inlet Temperature; Fiber Composites<br />
20040046987 California Univ., Lawrence Berkeley National Lab., Berkeley, CA, USA<br />
Reducing Indoor Residential Exposures to Outdoor Pollutants<br />
Sherman, M. H.; Matson, N. E.; Jul. 2003; 38 pp.; In English<br />
Report No.(s): DE2003-816774; LBNL-51758; No Copyright; Avail: Department of Energy Information Bridge<br />
The basic strategy for providing indoor air quality in residences is to dilute indoor sources with outdoor air. This strategy<br />
assumes that the outdoor air does not have pollutants at harmful levels or that the outdoor air is, at least, less polluted than<br />
the indoor air. When this is not the case, different strategies need to be employed to ensure adequate air quality in the indoor<br />
environment. These strategies include ventilation systems, filtration <strong>and</strong> other measures. These strategies can be used for<br />
several types of outdoor pollution, including smog, particulates <strong>and</strong> toxic air pollutants. This report reviews the impacts that<br />
typical outdoor air pollutants can have on the indoor environment <strong>and</strong> provides design <strong>and</strong> operational guidance for mitigating<br />
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