earthweb.ess.washington.edu
Johnson Hall Rm-070, Box 351310 4000 15th Avenue NE Seattle, Washington 98195, US
Advanced Propulsion Laboratory at the University of Washington
Chemical propulsion has limited space applications as the fuel exhaust velocity is slow relative to the velocity required to move efficiently through the solar system. The slow exhaust velocity and inherently high mass of chemical propulsion thrusters result in long mission durations for destinations far from Earth. For example, the Voyager spacecraft, launched in 1977, took over 30 years to leave the solar system - this is clearly longer than is feasible for a manned mission. The APL researches and develops techniques that can provide substantial reductions in cost and trip times by increasing the efficiency and exhaust velocity of thrusters. To achieve these efficiencies, we use electric propulsion systems to create electric and magnetic fields that accelerate the propellant (plasma) to velocities more than an order of magnitude higher than what chemical propulsion can achieve. We also look at how these electric propulsion systems can be used for high-altitude atmospheric operation in pressure regime between where typical propeller (higher pressure) and in-space chemical (lower pressure) propulsion systems can operate.
Advanced Propulsion Laboratory at the University of Washington
Chemical propulsion has limited space applications as the fuel exhaust velocity is slow relative to the velocity required to move efficiently through the solar system. The slow exhaust velocity and inherently high mass of chemical propulsion thrusters result in long mission durations for destinations far from Earth. For example, the Voyager spacecraft, launched in 1977, took over 30 years to leave the solar system - this is clearly longer than is feasible for a manned mission. The APL researches and develops techniques that can provide substantial reductions in cost and trip times by increasing the efficiency and exhaust velocity of thrusters. To achieve these efficiencies, we use electric propulsion systems to create electric and magnetic fields that accelerate the propellant (plasma) to velocities more than an order of magnitude higher than what chemical propulsion can achieve. We also look at how these electric propulsion systems can be used for high-altitude atmospheric operation in pressure regime between where typical propeller (higher pressure) and in-space chemical (lower pressure) propulsion systems can operate.
earthweb.ess.washington.edu
Johnson Hall Rm-070, Box 351310 4000 15th Avenue NE Seattle, Washington 98195, US
Details
Year founded
2000
Revenue
1M-5M
Employees
1-10
Number of locations
1
NAICS
3364
SIC
3728
Products & Services
Outlines the company's specialized services and operational strengths.
- Advanced concepts engineering
- Aerodynamic techniques
- Fluids
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Equipment
Provides a detailed list of machinery and tools utilized on the company's premises.
- High Power Helicon electrodeless plasma thruster
- Mini-Magnetospheric Plasma Propulsion (M2P2) system
- MagBeam system
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Ramping up production
Indicates the company's current production trend and growth trajectory.
FALSE
Our production algorithm is showing that advanced propulsion laboratory at the university of washington is not ramping up production.
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Locations (1)
Advanced Propulsion Laboratory at the University of Washington
Johnson Hall Rm-070, Box 351310 4000 15th Avenue NE Seattle, Washington 98195, US
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Frequently Asked Questions
What services & capabilities does Advanced Propulsion Laboratory at the University of Washington offer?
Advanced Propulsion Laboratory at the University of Washington offers a range of services and capabilities, including Advanced concepts engineering.
What kind of equipment does Advanced Propulsion Laboratory at the University of Washington use?
Advanced Propulsion Laboratory at the University of Washington uses a variety of equipment, including High Power Helicon electrodeless plasma thruster.
What are the target industries of Advanced Propulsion Laboratory at the University of Washington?
Advanced Propulsion Laboratory at the University of Washington serves several industries, including the aerospace industry.
How many locations does Advanced Propulsion Laboratory at the University of Washington operate?
Advanced Propulsion Laboratory at the University of Washington operates from a single location at 15th avenue northeast, seattle, washington 98195, united states.
Where are the headquarters of Advanced Propulsion Laboratory at the University of Washington?
The headquarters of Advanced Propulsion Laboratory at the University of Washington are located in 15th avenue northeast, seattle, washington 98195, united states.
What is the NAICS code for Advanced Propulsion Laboratory at the University of Washington?
The NAICS code for Advanced Propulsion Laboratory at the University of Washington is 3364.
How many employees does Advanced Propulsion Laboratory at the University of Washington have?
Advanced Propulsion Laboratory at the University of Washington has 1 employees.
What is the official website of Advanced Propulsion Laboratory at the University of Washington?
The official website of Advanced Propulsion Laboratory at the University of Washington is https://earthweb.ess.washington.edu/space-propulsion/.
When was Advanced Propulsion Laboratory at the University of Washington founded?
Advanced Propulsion Laboratory at the University of Washington was founded in 2000.