US Navy will fire 150 kilowatt laser on a test ship in 2018 and then from carriers and destroyers in 2019
by noreply@blogger.com (brian wang) from NextBigFuture.com on (#2A9XY)
The U.S. Navy is moving at warp speed to develop lasers with more lethality, precision and power sources as a way to destroy attacking missiles, drones aircraft and other threats.
The USNavy plans to fire a 150-kw weapon off a test ship within a year, he said. "Then a year later, we'll have that on a carrier or a destroyer or both."
That's quite a jump from the kw AN/SEQ-3(XN-1) Laser Weapon System (LaWS), which deployed in 2014 on the amphibious transport dock USS Ponce.
And the kind of power needed to power such a weapon won't come with a simple flip of a switch.
"The Navy will be looking at ships' servers to provide three times that much power," says Donald Klick, director of business development, for DRS Power and Control Technologies. "To be putting out 150 kws, they (the laser systems) will be consuming 450 kws."
That is more than most currently operational ships are designed to accommodate, at least when they are conducting other tasks
Few power systems onboard ships can support sustained usage of a high-powered laser without additional energy storage," noted a recent Naval Postgraduate School paper titled "Power Systems and Energy Storage Modeling for Directed Energy Weapons".
The paper said, "The new DDG-1000 may have enough electrical energy, but other platforms " may require some type of 'energy magazine.' This magazine stores energy for on-demand usage by the laser. It can be made up of batteries, capacitors, or flywheels, and would recharge between laser pulses. The energy magazine should allow for sustained usage against a swarm of targets in an engagement lasting up to twenty minutes.
The Navy has contracted the development of a Li-Ion battery subsystem designed and provided by Lithiumstart housed in three distributed steel, welded cabinets that are 48" x 66" x 100" - although they are modular, Klick says, and can be arranged for a tailored fit. Each cabinet contains 18 drawers with 480 Li-Ion phosphate cells in each drawer.
The redundant power modules can provide 465 k each for a total of 930 kw. It can hold that full-power mark for about three minutes.
Improvements of high power fiber lasers used to form the laser beam enable the increased 150 kilowatt power levels and extended range capabilities.
Read more
The USNavy plans to fire a 150-kw weapon off a test ship within a year, he said. "Then a year later, we'll have that on a carrier or a destroyer or both."
That's quite a jump from the kw AN/SEQ-3(XN-1) Laser Weapon System (LaWS), which deployed in 2014 on the amphibious transport dock USS Ponce.
And the kind of power needed to power such a weapon won't come with a simple flip of a switch.
"The Navy will be looking at ships' servers to provide three times that much power," says Donald Klick, director of business development, for DRS Power and Control Technologies. "To be putting out 150 kws, they (the laser systems) will be consuming 450 kws."
That is more than most currently operational ships are designed to accommodate, at least when they are conducting other tasks
Few power systems onboard ships can support sustained usage of a high-powered laser without additional energy storage," noted a recent Naval Postgraduate School paper titled "Power Systems and Energy Storage Modeling for Directed Energy Weapons".
The paper said, "The new DDG-1000 may have enough electrical energy, but other platforms " may require some type of 'energy magazine.' This magazine stores energy for on-demand usage by the laser. It can be made up of batteries, capacitors, or flywheels, and would recharge between laser pulses. The energy magazine should allow for sustained usage against a swarm of targets in an engagement lasting up to twenty minutes.
The Navy has contracted the development of a Li-Ion battery subsystem designed and provided by Lithiumstart housed in three distributed steel, welded cabinets that are 48" x 66" x 100" - although they are modular, Klick says, and can be arranged for a tailored fit. Each cabinet contains 18 drawers with 480 Li-Ion phosphate cells in each drawer.
The redundant power modules can provide 465 k each for a total of 930 kw. It can hold that full-power mark for about three minutes.
Improvements of high power fiber lasers used to form the laser beam enable the increased 150 kilowatt power levels and extended range capabilities.
Read more