2009年1月21日星期三

Wood gas


Wood gas is a syngas also known as producer gas which is produced by thermal gasification of biomass or other carbon containing materials such as coal in a gasifier or wood gas generator or gas producer. It is the result of two high-temperature reactions (above 700 °C (1,292 °F)): an exothermic reaction where carbon burns to CO2 but is then reduced partially back to CO (endothermic); and an endothermic reaction where carbon reacts with steam, producing carbon monoxide (CO), molecular hydrogen (H2), and carbon dioxide (CO2).

In several gasifiers, the actual gasification process is preceded by pyrolysis, where the biomass or coal turns into char, releasing methane (CH4) and tar rich in polycyclic aromatic hydrocarbons (PAH). Other gasifiers are fed with previously pyrolysed char. Wood gas is flammable because of the carbon monoxide, hydrogen, and methane content.

Usage in engines
Wood gasifiers can power either spark ignition engines where 100% of the normal petrol can be replaced with little change to the carburation, or in a diesel engine by simply feeding the gas into the air inlet when the diesel governor automatically cuts back the diesel to fuel to between 15% - 40%. In the latter case the diesel fuel is still needed to ignite the gas. Wood can be used to power cars with ordinary internal combustion engines if a wood gasifier is attached. This was quite popular during World War II in several European and Asian countries because the war prevented easy and cost-effective access to oil. In more recent times, wood gas has been suggested as a clean and efficient method to heat and cook in developing countries, or even to produce electricity when combined with a gas turbine or internal combustion engine. Compared to the WWII technology, gasifiers have become less dependent on constant attention due to the use of sophisticated electronic control systems, but it remains difficult to get clean gas from them. Purification of the gas and feeding it into the natural gas pipelines is one variant to link it to existing refueling infrastructure. Liquification by the Fischer-Tropsch process is another possibility.

Efficiency rate of the gasifier system is relatively high. The gasification stage converts about 75% of fuel energy content into a combustible gas that can be used as fuel for internal combustion engines. Based on long term practical experiments and over 100 000 km driven with wood gas powered car, the energy consumption has been 1.54 times more compared to the energy demand of the same car on petrol (not including the energy needed to extract, transport and refine the oil from which petrol is derived). This means that 1000 kg of wood combustible matter has been found to substitute 365 litres of petrol during real transportation in similar driving conditions and with the same otherwise unmodified vehicle . This can be considered to be a good result, because no other refining of the fuel is required. This study also considers all possible losses of the wood gas system like preheating of the system and carrying of the extra weight of the gas generating system.

Gasifiers have been built for remote Asian communities using rice husk, which in many cases has no other use. One installation in Burma uses an 80kW modified diesel for about 500 people who are otherwise without power.he ash can be used as fertilizer so this can be considered a renewable fuel. It has been suggested that the rice husk ash, which is particularly pure and high in silica can be used at high economic value in e.g. semiconductor manufacture.

Against general belief, exhaust gas emission level of internal combustion engine is significantly lower on wood gas than on petrol. Especially low are HC emissions. Normal catalytic converters do perfectly well on wood gas but emission level less than 20 ppm HC and 0,2 % CO can be easily achieved by most automobile engines with out catalytic converter . Combustion of wood gas generates no particulates and the gas thus renders very little carbon black amongst motor oil. Normal catalytic converters are reported to suit perfectly well for wood gas operation.


Use in stoves, cooking and furnaces
Certain designs of stove, are in effect a gasifier working on the updraft principle - the air passes up through the fuel, which can be a column of rice husks, and is combusted, then reduced to carbon monoxide by the residual char on the surface. The resulting gas is then burnt by heated secondary coming up a concentric tube. Such a device behaves very much like a gas stove. This arrangement is also known as a Chinese burner.

However, one must take into account that the Carbon Monoxide, which is part of the wood gas, is very toxic, while being difficult to notice due to its odorless and colorless nature.

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Crawler-transporter


The crawler-transporter is a tracked vehicle used to transport the Saturn V rocket, the Saturn IB rocket during Skylab and Apollo-Soyuz Test Project, and now the Space Shuttle, from NASA's Vehicle Assembly Building (VAB) along the Crawlerway to Launch Complex 39.

The two crawler-transporters were designed by Bucyrus International and built by the Marion Power Shovel Co. at a cost of US$14 million each. When they were built, they were the largest in the world. The German Bagger 288 excavator is now the largest tracked vehicle in the world.

Specifications
The crawler-transporter weighs 2400 tons 2,700 short tons (2,400,000 kg; 5,400,000 lb) and has eight tracks, two on each corner. Each track has 57 shoes, and each shoe weighs approximately 1,984 pounds (900 kg). The vehicle measures 131 feet (40 m) by 114 feet (35 m). The height from ground level to the platform is adjustable from 20 feet (6.1 m) to 26 feet (7.9 m), and each side can be raised and lowered independently of the other. The crawler uses a laser guidance system and a leveling system to keep the Mobile Launcher Platform level, with the tip of the external tank vertical within plus or minus 10 minutes of arc, while moving along the 5% upgrade to the launch site.A separate laser docking system provides pinpoint accuracy when the crawler-transporter and Mobile Launch Platform are positioned in the VAB or at the launch pad.

The crawler has 16 traction motors, powered by four 1,341 horsepower (1,000 kW) generators, in turn driven by two 2,750 horsepower (2,050 kW) Alco diesel engines. Two 1,006 horsepower (750 kW) generators, driven by two 1,065 horsepower (794 kW) engines, are used for jacking, steering, lighting, and ventilating. Two 201 horsepower (150 kW) generators are also available to power the Mobile Launcher Platform. The crawler's tanks hold 5,000 US gallons (19,000 l; 4,200 imp gal) of diesel fuel, and it burns 150 gal/mi (350 L/km).

The crawler is controlled from two control cabs located at either end of the vehicle, and travels along the 3.5 miles (5.6 km) Crawlerway at a maximum speed of 1 mile per hour (1.6 km/h) loaded, or 2 miles per hour (3.2 km/h) unloaded. The average trip time from the VAB along the Crawlerway to Launch Complex 39 is about five hours.

Kennedy Space Center has been using the same two crawlers since their initial delivery in 1965. In their lifetime, they have traveled more than 2,500 miles (4,000 km).NASA will continue to use crawlers when the Space Shuttle is retired in 2010 and the Ares I and Ares V take its place. Due to their age and need to support the heavier Ares V (with its launch umbilical tower), NASA will modify the crawler's engines in order to have the ability to carry the heavier loads envisioned for the Ares V for both its lunar and, later, planetary roles.

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RKM engine


The Rotary Piston Machine, or in its German original Rotationskolbenmaschine (R.K.M.) is a new (still in development) form of machine. It can be used either to transform pressure into rotational motion (an engine), or the converse - rotational motion into pressure (pump). It is still in development, but has possible applications in fields requiring oil, fuel or water pumps, as well as pumps for non-abrasive fluids when middle or high pressure is required. For instance: Hydraulics, fluid and gas transport systems, presses, fuel injection, irrigation, heating systems,hydraulic lifts, water jet engines, hydro- and pneumatic engines, and medical pumps.The machine's inventor is Boris I. Schapiro, along with co-inventors Lev B. Levitin and Naum Kruk.

Applications
Potential areas of application for the RKM engines include:

Pumps: medium-, high-pressure, and pre-vacuum pumps for use in power machinery, refrigerators, elevators, lifts, cranes, road-building machinery, automobiles, aircraft, and other applications, including those for domestic water and heating systems,and scientific research.
Compressors: medium- and high-pressure compressors for a wide range of industrial and consumer applications.
"Cold" motors: hydraulic and pneumatic motors for use in automobiles, air-, space- and marine craft, and in a number of other applications in industrial and consumer products.
Power tools: a new class of power tools for drilling, cutting and surface treatment of materials in various ranges (from super-large to micrometre).
Internal and external combustion engines, including Diesel, for all types of wheeled or tracked motor vehicles (from motorbikes to automobiles and trucks, to Mars explorers), marine craft of all sizes (from pleasure boats to supertankers), helicopters and propeller-driven aircraft (including super-light platforms).
Electric power generators for agriculture and industry, including oil and gas production, air & space industry, large stationary and vehicular power generators, compact emergency generators, etc.
Compact sources of electrical power for portable computers and other electronic devices, etc.
One area where RKMs offer very high potential is in the pump market. RKM pumps can be as, or more, efficient as today's preferred pump technologies, while offering overall advantages in pricing, size, reliability and energy efficiency .


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Vehicle acronyms and abbreviations

A4: 4-speed automatic transmission
A5: 5-speed automatic transmission
A6: 6-speed automatic transmission
ABS: Anti-Lock Braking System
A/C: Air conditioning
AdvHEV: Advanced hybrid
AMT: Automated Manual Transmission
ATLS: Automated truck loading systems
Autogas: LPG when used as a vehicle fuel
AWD: All Wheel Drive
CAB 1493: California Assembly Bill 1493
CARB: California Air Resources Board
CCP: Coupled cam phasing
CH4: Methane
CNG: Compressed natural gas
CO2: Carbon dioxide
CVVL: Continuous variable valve lift
CVT: Continuously variable transmission
DCP: Dual cam phasing
DCT: Dual Clutch Transmission
DeAct: Cylinder deactivation
dHCCI: Diesel homogeneous charge compression ignition
DMV: California Department of Motor Vehicles
DOHC: Dual overhead cam
DVVL: Discrete variable valve lift
DVVLd: Discrete variable valve lift, includes dual cam phasing*DVVLi: Discrete variable valve lift, includes intake valve cam phasing
eACC: Improved electric accessories
EAT: Electronically assisted turbocharging
EGR: Exhaust gas recirculation
ehCVA: Electrohydraulic camless valve actuation
emCVA: Electromagnetic camless valve actuation
EHPS: Electrohydraulic power steering
EPS: Electric power steering
EMFAC: ARB Emission Factors modeling software (EMFAC2007 v.2.3 November 1, 2006)
EWP: Electric water pump
EWP: Elevating Work Platforms
FDC: Fixed displacement compressor
FWD: Front-wheel drive
FTP: Federal Test Procedure
g/mi: grams per mile
GDI-S: Stoichiometric gasoline direct injection
GDI-L: Lean-burn gasoline direct injection
gHCCI: Gasoline homogeneous charge compression ignition
GHG: Greenhouse gas
GVW: Gross vehicle weight
GVWR: Gross vehicle weight rating
GWP: Global warming potential
HC: Hydrocarbons
HEV: Hybrid-electric vehicle
HFC: Hydrofluorocarbon
hp: Horsepower
HSDI: High-speed (diesel) direct injection
ICP: Intake cam phaser
ImpAlt: Improved efficiency alternator
ISG: Integrated starter-generator system
ISG-SS: Integrated starter-generator system with start-stop operation
L4: In-line four-cylinder
LDT: Light duty truck
LDT1: a light-duty truck with a loaded vehicle weight of 0-3750 pounds.
LDT2: an LEV II light-duty truck with a loaded vehicle weight of 3751 pounds to a gross vehicle weight of 8500 pounds
LEV: Low emission vehicle
LPG: Liquified Petroleum Gas
LVW: Loaded vehicle weight
MAC: Mobile Air Conditioning
MDPV: Medium-duty passenger vehicle
MDV: Medium-duty vehicle
mg/mi: Milligrams per mile
ModHEV: Moderate hybrid
NMOG: Non-methane organic gas
N2O: Nitrous oxide
NOx: Oxides of nitrogen
PB: Power Brakes
PC: passenger car
PS: Power Steering
R-134a: Refrigerant 134a, tetrafluoroethane (C2H2F4)
R-152a: Refrigerant 152a, difluoroethane (C2H4F2)
RPE: Retail price equivalent
SULEV: Super ultra low emission vehicle
SUV: Sport utility vehicle
TRR: Tire rolling resistance
Turbo: Turbocharging
ULEV: Ultra low emission vehicle
V6: Vee-formation six-cylinder
V8: V-formation eight-cylinder
VDC: Variable displacement compressor
ZEV: Zero-emission vehicle
4WD: Four-wheel-drive
42V ISG: 42-volt integrated starter-generator system

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2009年1月20日星期二

Gato class submarine


The United States Navy Gato class submarine design was the forerunner of all US World War II submarine designs. New construction of the class began in 1941 as the war in Europe escalated. More than half the class was built at Electric Boat at Groton, Connecticut; 3 new slipways were added to the north yard to accommodate their production. The class was 77 strong and sunk more than 1,700,000 tons of Japanese shipping.

Gato class submarines served mainly in the Pacific, but did operate from the Caribbean and the Atlantic for short periods, perhaps most notably in support of Operation Torch, the allied landings in North Africa in 1942. The Gato class boats Flasher, Rasher, and Barb obtained the first three places in the league table of confirmed sinkings by US submarines in World War II. Gato class boats sank three Japanese submarines: I-29, I-168 and 1-351.

The Gato class was initially plagued by the problems with the Mark 14 torpedo in the early war years. These tended to run too deep, explode prematurely, run erratically or circularly, or fail to detonate. These problems were identified and were largely solved by late 1943, allowing the Gato class to sink enormous tonnage.

Several Gato class submarines were installed with new equipment. Herring used bathythermograph in covert operations, Haddock was fitted with the type SJ surface surveillance radar and Muskellunge was the first US submarine to be armed with electrically powered torpedoes. Barb became the first submarine to fire rockets while Grouper was fitted with a primitive combat information centre.

At the end of World War II, the Gato class were moved into the training roles and some of the class were converted into radar picket boats. Some of the class did see action with the US 7th fleet off Vietnam in 1966. Tunny was converted to carry the Regulus missile and served from 1953 to 1965 in this role. Redfin was used in trials of inertial guidance systems for the Polaris missile submarines after 1959.

The last active boat was Rock which was decommissioned in September 1969 and sunk as a target.

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ALCO RS-2


The ALCO RS-2 is a 1,500 horsepower (1,100 kW), B-B road switcher railroad locomotive. It was manufactured by American Locomotive Company (ALCO) from October 1946 to May 1950, and 383 were produced — 366 by the American Locomotive Company, and 17 by Montreal Locomotive Works in Canada. It has a single, 12 cylinder, model 244 engine, devoloping 1,500 horsepower (1,100 kW). Thirty-one locomotives built by Alco between February and May 1950 had 1,600 horsepower (1,200 kW) engines.

ALCO built the RS-2 to compete with EMD, Fairbanks-Morse, and Baldwin Locomotive Works. In 1947, Fairbanks-Morse introduced the 1,500 hp (1.2 MW) H-15-44. Also in that year, Baldwin introduced the 1,500 hp (1.125 MW) DRS-4-4-1500. In the case of ALCO, Fairbanks-Morse, and Baldwin, each company increased the power of an existing locomotive line from 1,500 to 1,600 hp (1.125 to 1.2 MW), and added more improvements to create new locomotive lines.

EMD, however, kept its competing GP7 at 1,500 hp (1.125 MW) In 1954, EMD introduced the GP9. It was rated at 1,750 hp (1.3 MW).

EMD produced 2,729 GP-7s. ALCO produced 383 RS-2s, and 1,370 RS-3s. Fairbanks-Morse produced 30 H-15-44s, and 296 H-16-44s. Baldwin produced 32 DRS-4-4-1500s, and 127 AS-16s.

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USS Tuscaloosa (LST-1187)


History
Tuscaloosa (LST-1187) was laid down on 23 November 1968 at San Diego, California by the National Steel and Shipbuilding Co. She was launched on 6 September 1969 sponsored by Mrs. Thomas F. Connolly and commissioned on 24 October 1970 with Commander Harry W. Kinsley Jr. in command.

Tuscaloosa spent the remainder of the year alternating in underway and upkeep periods. On 4 January 1971 she began duty off the coast of California as a test ship evaluating sensors on USS John C. Calhoun (SSBN-630).

She continued a rigorous training schedule out of San Diego, her home port, into the spring when she prepared for a deployment to the Western Pacific. The tank landing ship loaded a cargo of Quonset hut components and a tank-deck load of LVT's (Landing Vehicle Tracked), tanks, and heavy construction vehicles and departed the West Coast on 18 May 1971.

Arriving at Okinawa on 1 June, Tuscaloosa unloaded and proceeded, via Subic Bay, Philippines, to Da Nang, South Vietnam. After taking on a cargo of Marine Corps equipment she returned home to San Diego on 6 July and began an extensive post-shakedown availability which lasted into the fall. On 1 October Tuscaloosa got underway for a seven-month WestPac deployment in company with Amphibious Squadron 5, Tripoli (LPH-10), Duluth (LPD-6), Anchorage (LSD-36), Mobile (LKA-115) and Schenectady (LST-1185).

For the remainder of the year, the landing ship conducted exercises and operations in the Philippines and off Okinawa. She operated with marines, took part in amphibious exercises and ended the year at Sasebo, Japan.

The Tuscaloosa got underway for the Ryukyus on 4 January 1972 but was delayed by a collision with a Japanese patrol craft. The next day, after an informal investigation ascertained that she had not suffered any damage, she resumed her voyage to Okinawa where she embarked marines and transported them to Yokosuka, Japan. Following repairs to her bow doors, the ship sailed for the Philippines and arrived at Subic Bay on 16 February. There she loaded a cargo of generators and delivered them to Vung Tau, South Vietnam.

Tuscaloosa returned to Japan soon thereafter, transporting marines and equipment, before she headed back to the Philippines for amphibious exercises. Then, upon completion of these exercises, Tuscaloosa got underway in company with the Mobile and Denver, and proceeded via Okinawa to Vietnamese waters, arriving on "Yankee Station" in the Tonkin Gulf on 6 April. She remained on station until 3 May when she proceeded, via Da Nang, to Subic Bay. Tuscaloosa subsequently returned to Vietnam and operated both at Da Nang and on "Yankee Station" until late May.

The LST next supported Thailand contingency operations by transporting Marine Corps equipment and Navy construction battalion tools. She then returned to Subic Bay and pressed on to the United States at the end of her 10-month deployment.

Tuscaloosa engaged in local operations and amphibious exercises off the California coast into mid-1973 before she again deployed to WestPac on 29 August, her holds filled with Project Handclasp material for delivery to communities in the Philippines. Tuscaloosa later participated in Operation Pagasa II in conjunction with units of the Philippine Navy and operated out of Subic Bay for the remainder of the year with calls at Hong Kong and Kaohsiung, Taiwan on her itinerary.

Commencing 1974 with exercises with Korean naval units in Operation Fly Away, Tuscaloosa visited Keelung, Taiwan, in late January, before departing Okinawa on 11 February 1974 and returning via Pearl Harbor to the west coast of the United States. The next major item on Tuscaloosa's agenda was a major overhaul by the Todd Pacific Shipyards at Seattle, Washington, which began on 9 July.

On 3 August an 11-man rescue and assistance party from the ship assisted Moctobi (ATF-105) in rescuing USNS Lipan which had collided with another vessel in the Strait of Juan de Fuca and lay dead in the water in danger of sinking. Prompt salvage efforts over a three-day period enabled Lipan to return to port for repairs.

After Tuscaloosa's own repairs and overhaul had been completed she rejoined the fleet on 12 December and operated along the California coast into the spring of 1975. She again deployed to WestPac on 1 April getting underway from San Diego in company with two Korean mine craft and Barbour County (LST-1195) for Pearl Harbor and Okinawa.

While Tuscaloosa and her three consorts sailed westward, the situation in Southeast Asia deteriorated rapidly. Both the South Vietnamese and Cambodian governments were tottering and their forces falling back under the onslaught of communist troops. Tuscaloosa arrived at Pearl Harbor on 6 April and proceeded on toward the Ryukyus on the same day. Arriving at Okinawa on the 18th, the LST's crew urgently offloaded her cargo and pressed on the next day for Subic Bay. After a full-power run, she arrived there on the 21st and embarked 280 stragglers who had been unable to return to their ships -- Enterprise (CVAN-65), Midway (CVA-41), and Hancock (CVA-19) -- when the carriers pulled out hurriedly to participate in Operation Frequent Wind, the evacuation of Saigon.

Tuscaloosa now turned-to in order to support Operation New Life escorting 26 former South Vietnamese Navy ships to the Philippines. During the seven-day passage she provided over 200 pallets of food and medical supplies per day and earned the Meritorious Unit Commendation while thus engaged. In addition, she sent salvage and repair parties to various ships to effect any repairs necessary to keep the less seaworthy Vietnamese ships afloat. Two craft were evacuated and sunk by gunfire from Tuscaloosa to eliminate possible hazards to navigation. In addition, four Vietnamese craft were temporarily taken over by the United States Navy and placed under the command of four officers from Tuscaloosa.

From Subic Bay, Tuscaloosa proceeded to Okinawa and, upon arrival there, was ordered to make best possible speed for the Gulf of Thailand. Four days later, when nearly at her destination, she was ordered to turn back. The evacuation of the area had been completed and her services were no longer needed. Thereafter the LST continued routine operations during this WestPac deployment before returning to the west coast of the United States on 17 November 1975. She conducted another deployment to the Western Pacific during the period 29 March to 17 November 1977 and spent the period 3 February to 10 December 1978 in regular overhaul at San Diego.

History missing from 1979 until 1994
The USS Tuscaloosa was decommissioned 18 February 1994. The Tuscaloosa is tied to a mooring ball in Middle Loch at the Naval Ship Inactive Maintenance Facility in Pearl Harbor under the Amphibious Enhancement Plan. The plan will ensure adequate amphibious lift capability in a crisis. Along with the Tuscaloosa, LSTs Fresno (LST-1182), Boulder (LST-1190), and Racine (LST-1191) will be retained as mobilization assets until FY09 according to the Amphibious Ships and Landing Craft Data Book published by the Marine Corps Combat Development Command in Quantico, VA.

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Havilah (album)


Havilah is the fifth studio album by Australian band The Drones, released in September 2008 by ATP Recordings. The title of the album is a biblical reference to a Shangri-La-esque town (Havilah) with an abundance of gold. It is also the name of a valley near where the album was recorded.The album debuted at #47 on the Australian album charts.

The album was recorded at the mud-brick home of lead singer Gareth Liddiard and his partner/band bassist Fiona Kitschin, outside Myrtleford (at the base of Victoria’s Mount Buffalo).

"It's like a little world unto itself in the forest. It's a beautiful place. You can't always find a good spot to record, but if you can find a house like this that's a bonus." - Liddiard

"It was a great place to write and record. We were literally in the middle of a sub-alpine forest. We had no electricity, just diesel generators. It’d be just about the only record made on a diesel budget." - Liddiard

To shake up his songwriting, Liddiard was reading four books at once, and using internet packages to jumble words and create unimaginable phrases – a technique similar to the labour intensive ‘cut up’ techniques employed by writer William Burroughs and singer David Bowie in the pre-web era, where they cut up words on paper and jumbled them up.

“I made a conscious effort to put my head in the sand. “You start working, you have a coffee in the morning, and any self-doubt falls away" - Liddiard

The album was produced and engineered by Burke Reid (The Mess Hall, Gerling) who had to set up a mobile studio in the house, powered by a diesel engine.

The first single lifted off the album, "The Minotaur", was released as a digital single on July 29, 2008.

The album was nominated for the 2008 J Awards in the Album of the Year category. It was also ranked as #4 in the top 10 albums of 2008 by indie music website Wireless Bollinger.

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USNS Sacagawea (T-AKE-2)


USNS Sacagawea (T-AKE-2), a Lewis and Clark-class dry cargo ship, was the third ship operated by the United States Navy to be named for Sacagawea, the Shoshone woman who acted as guide and interpreter for the Lewis and Clark Expedition, and one of the few United States Navy ships named for women.

The contract to build her was awarded to National Steel and Shipbuilding Company (NASSCO) of San Diego, California, on 18 October 2001. Construction began in September 2004 for a scheduled delivery in early 2007.

She was launched in June 2006. Two of Sacagawea's descendants, Lucy Diaz and Rachel Ariwite, were the ship's sponsors. She is home ported at Naval Station Norfolk, Virginia, and made her first deployment at the end of 2007.

This vessel is the only USNS Sacagawea. However, other U.S. Navy vessels have been named USS SacagaweaTemplate:WP Ships USS instances.

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Cathode heater

A cathode heater is a filament used to heat the cathode in a vacuum tube or cathode ray tube. Before transistors and integrated circuits came into widespread use, electronic devices used vacuum tubes. The cathode element had to achieve the required temperature in order for these tubes to function properly. This is why older electronics often needed some time to "warm up" after being powered on; this phenomenon can be observed in the cathode ray tubes of modern televisions and computer monitors.

The simplest type of vacuum tube operates as a diode: that is, it allows current to flow in only one direction. The cathode heater is used to raise the temperature of the cathode filament, permitting thermionic emission of electrons into the evacuated tube. The other element inside the tube is called the "plate", or anode. If the anode is positively charged relative to the cathode, the emitted electrons will be attracted to it, and current will flow. This exhibits the characteristics of a diode as current flow in the reverse direction is not possible (the anode is not heated, prevention thermionic emission.) More complex vacuum tubes operated as triodes (the predecessor to the modern transistor) or other circuit elements, but all tubes required some type of cathode heater in order to trigger electron emissions.

The purpose of the cathode heater is to heat the cathode to a temperature that causes electrons to be 'boiled out' of its surface into the evacuated space in the tube, a process called thermionic emission. The temperature required for modern cathodes is around 800-1000°C (1500-1800°F)


Construction
The cathode is usually in the form of a long narrow sheet metal cylinder at the center of the tube. The heater consists of a fine wire or ribbon, made of a high resistance metal alloy like nichrome, similar to the heating element in a toaster but finer. It runs through the center of the cathode, often being coiled on tiny insulating supports or bent into hairpin-like shapes to give enough surface area to produce the required heat. The ends of the wire are electrically connected to two pins protruding from the end of the tube. When current passes through the wire it becomes red hot, and the radiated heat strikes the inside surface of the cathode, heating it. The red or orange glow seen coming from operating vacuum tubes is produced by the heater.

There is not much room in the cathode, and the cathode is often built with the heater wire touching it. The inside of the cathode is insulated by a coating of alumina (aluminum oxide). This is not a very good insulator at high temperatures, therefore tubes have a rating for maximum voltage between cathode and heater, usually only 200 - 300 V.

Heaters require a low voltage, high current source of power. The voltage required was usually 5 or 6 volts AC. In older electronic devices this was supplied by a separate 'heater winding' on the device's power supply transformer that also supplied the higher voltages required by the tubes' plates and other electrodes.

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EMD FP9


The EMD FP9 was a 1,750 horsepower (1,300 kW), B-B dual-service passenger and freight-hauling diesel locomotive produced between February 1954 and December 1959 by General Motors Electro-Motive Division, and General Motors Diesel. Final assembly was at GM-EMD's La Grange, Illinois plant, except for Canadian orders, which were assembled by Canadian subsidiary GMD at London, Ontario. The FP9 was essentially EMD's F9 locomotive extended by four feet to give greater steam generator and water capacity for hauling passenger trains. A total of 100 cab-equipped lead A units were built; unlike the freight series, no cabless booster B units were sold. Regular F9B units were sometimes used with FP9 A units, since they, lacking cabs, had more room for water and steam generators. The FP9 and its predecessor, the FP7, were offshoots of GM-EMD's highly successful F-unit series of cab unit freight diesels.

Identification
Just as in the previous FP7, the FP9's carbody is essentially the F9's with 4 feet (1.2 m) extra added a little behind the cab, just aft of the forward truck. Unlike the FP7, the forward porthole window is relocated so that it is better balanced in the space, but there is still more room between the porthole and the first carbody filter grille behind it; it is just less obvious. As on the F9, there is now a carbody filter grille before the window as well.

FP10
FP10 locomotives are not the linear successors of the FP9, as their designation might indicate. The FP10 units were 'built' in the late 1970s by the Illinois Central Gulf Railroad at its Paducah, Kentucky shops for the Massachusetts Bay Transportation Authority using former Gulf, Mobile and Ohio Railroad F3 and F7 units. These F3 and F7 locomotives were used by the GM&O and ICG (for a short period) in Chicago-area commuter service and later in freight service until their retirement.

The rebuilding by ICG saw all of the units gain full-length stainless steel air intake grilles, which in many cases replaced the 'chicken wire' appearance which many had during their tenure with the GM&O and ICG. They were also equipped with a 480V HEP generator at the rear of the locomotive, as well as dynamic brakes, and had their classification lights replaced with large red marker lights which enabled the locomotive to "carry the markers" when operating in push mode.

It should be noted that the FP10 units were never extended beyond their original length, thus making the "P" in their designation misleading. The FP10 designation, like that of the GP10 (also an ICG product) was conceived by ICG and was never sanctioned by EMD, though railroads and rail enthusiasts alike agree on the moniker.

The FP10 locomotives were painted in the MBTA's purple, silver, and yellow scheme, wearing two variations (one which had two substantial yellow swaths on the nose, and the second which used the yellow only as striping on the nose, as well as the rest of the carbody) of the transit agency's dress. At least one was painted in a scheme that was a "negative" of the conventional scheme, where purple was the primary color and silver taking a secondary role.

During the early 1990s, the FP10s were retired by the MBTA, with four being sold to the Metro North Commuter Railroad (MNCR 410-413), some leased (Cape Cod Central—and eventually resold after that operation ceased) and others being scrapped. In late 1999/early 2000, the last remaining MBTA-owned FP10 units were sold and have operated in Maryland, New Orleans, Georgia, and Idaho on various tourist trains.

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Atlas Copco


Atlas Copco is a Swedish industrial company that was founded in 1873. It manufactures industrial tooling and equipment.

The Atlas Copco Group, founded already in 1873, is a global industrial group of companies headquartered in Stockholm, Sweden. Revenues for 2007 totaled BSEK 63. The Group employs more than 33,000 people. The Atlas Copco Group manufactures products on 68 production sites in 20 countries.

Atlas Copco companies develop and manufacture industrial tools, compressed air equipment, construction and mining equipment, assembly systems, and offer related service and equipment rental. The products are sold and rented under different brands through a worldwide sales and service network reaching 150 countries, half of which are served by wholly or partly owned sales companies. The Group operates through a number of divisions within four business areas; Compressor Technique, Construction and Mining Technique, and Industrial Technique.

Company history
February 21, 1873 – Company started as AB Atlas by Eduard Franckel who was financed by A. O. Wallenberg and others.
1873 – AB Atlas acquired Ekenbergs Soner, a railway car maker.
1890 – AB Atlas underwent liquidation after suffering heavily financially due to competition from smaller nible companies. A.O. Wallenberg, his son and the bank Enskilda Banken helped in restructuring it.
1898 – AB Atlas acquired the rights for Sweden to manufacture Rudolf Diesel's engine under a subsidiary company AB Diesels Motorer
1901 – the first pneumatic tool was officially added to the production line – a pneumatic riveting hammer which was originally designed for their own workshops.
1905 – the first portable compressor was manuafactured* 1911 – AB Atlas completed a move away from railway car manufacturing to more advanced products: (compressors and machines driven by compressors) where competition was less.
1917 – AB Atlas consolidated the company under the name AB Atlas Diesel and ceased production of steam engines.
1920 – AB Atlas Diesel compressor business was hurt after distribution collapsed due to World War I and demand dropped due to severe depression. This forced the company to emphasize the diesel engine business.
1924 – AB Atlas Diesel relocated to Sickla, Nacka and sold some assets to improve liquidity.
1948 – AB Atlas Diesel sold out its diesel business after it turned out not to be as profitable as air compressors, despite the company putting lots of effort in it. Polar Atlas, a Swedish brand of marine diesel engine started in 1903, merged into Atlas Copco.
1956 – AB Atlas Diesel changed its name to Atlas Copco, its current name. The word copco is an acronym of the Belgian equivalent of Compagnie Pneumatique Commerciale. Atlas Copco then acquired Arpic Engineering NV.
1968 – The AB Atlas Copco group was divided into three production companies – Atlas Copco Mining & Construction Techniques (MCT), Atlas Copco Airpower and Atlas Copco Tools.
1972 – Atlas Copco MCT introduce their first all hydraulic tophammer rockdrill COP1038.
1975 – AB Atlas Copco bought a majority of Berema – known for lightweight petrol driven rock drills and breakers – a complement to their Cobra drill.
1976 – Small compressors for these drills were added, through the acquisition of Mauguière a French company.
2005 – Atlas Copco launches a revolutionary concept for mobile compressor. With an ultra resistant canopy, the HardHat give a new face to mobile compressors in the street.
2007 – Atlas Copco Flags Off the first Blast Hole Drill IDM30 manufactured from its high tech ADS facility at Nashik factory-June 28th.

Trivia
In 1984, a dinosaur was found close to Melbourne, Australia and was named Atlascopcosaurus. The company had provided the equipment for the dig.

Atlas Copco Compressors began its sponsorship with Haas CNC Racing #70 in the NASCAR Sprint Cup Series in 2007 through a multi-year, strategic partnership including the Windshear Inc. wind tunnel in Concord, NC, due to open in the second quarter of 2008.

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ALCO DL-109


The ALCO DL-109 is one of six models of A1A-A1A diesel locomotives built to haul passenger trains by the American Locomotive Company (ALCO) between December, 1939 and April, 1945 ("DL" stands for Diesel Locomotive). They were of a cab unit design, and both cab-equipped lead A units DL-103b, DL-105, DL-107, DL-109 and cabless booster B units DL-108, DL-110 models were built. The units were styled by noted industrial designer Otto Kuhler, who incorporated into his characteristic cab (US Patent D121,219) the trademark 3-piece windshield design. A total of 74 cab units and 4 cabless booster units were built.

All models developed 2,000 hp (1,500 kW). The first unit built was ALCO Specification DL-103b, was 4 ft 5 in (1.3 m) longer than the other cab units, and became Chicago, Rock Island and Pacific Railroad #624. The DL-103b had the two radiator sections positioned together at the end of the carbody, while all other units had a split radiator arrangement with one placed at the back of the unit and one situated in the middle. The DL-103b was built with twin straight-6-cylinder ALCO 538T diesel engines as prime movers; all other DLs in this series were built with the newer twin straight-6-cylinder ALCO 539T diesel engines. The DL-103b also had all-electric driven accessories, while the later models had belt-driven accessories. The differences between all subsequent models were minor. The DL-105s went to the Rock Island as #622 and GM&O #270-271. All other early customers got DL-107 cab units and DL-108 boosters until the first DL-109 was delivered to the New Haven. During the war, the Gulf, Mobile & Ohio and Southern Railway bought DL109s and the Southern bought the only DL-110. It is not known whether this is because the model was a significant improvement, was the model approved for wartime production, or both.

Contents [hide]
1 History
2 Units produced
2.1 A units (cabs)
2.2 B units (cabless boosters)
3 References
4 External links



[edit] History
The New York, New Haven and Hartford Railroad received special permission from the War Production Board to purchase #0710–#0759 as dual-use (passenger/freight) locomotives; they were built between 1942–1945. Passenger-only locomotives (including the rival EMD E6) were not approved for production during this time. The first 10, #0700–#0709, were delivered right after the attack on Pearl Harbor in December 1941 from ALCO's Schenectady factory, allowing the road to prove their freight-hauling abilities just in time. The New Haven owned the most DL-109s, rostering 60 units in 1945.

There were three classes among the New Haven units noting some differences between the manufacture of each batch. The DER-1a (Diesel-Electric Road) units #0700–#0709 had the original design with a mass of vents on the roof, while the DER-1b (#0710–#0749) and DER-1c (#0750–#0759) had the simplified winterization hatches instead. The New Haven DL-109s could be found hauling passenger trains during the day and freight trains at night. The class was rebuilt once, replacing the plywood sides, removing the decorative side windows in favor of a steel screen, and several other changes.

Two DL-109s received a special rebuild to make them able to "MU" (multiple unit) with more than one other unit; originally they only had the MU cables on the rear meaning that only a back-to-back pair could be made. The two special units had cables put on the front so they could be used to make a 3-unit set for longer trains. One of the units had the nose rebuilt with an access door, raising the headlight and changing the contour of the nose.

The DL-109s eventually ran their last miles in the late 1950s in local commuter service around Boston. One special unit was retained through the 1960s in Boston as a power plant; PP-716 was converted to produce power for a test third rail in Boston. Eventually PP-716 became the last DL-109 on the face of the Earth and fell to the scrappers torch under the Penn Central.

The other railroad's DL-109s were primarily scrapped during the 1950s. The Rock Island had rival builder EMD repower their newest, the #621, but this doesn't seem to have extended its career greatly. One notable pair on the Milwaukee Road lived charmed lives. Units #14A, B were delivered in October 1941, and paired up to run the Chicago-Minneapolis Afternoon Hiawatha and overnight Fast Mail back to Chicago. The units, along with EMD E6 #15A, B performed wonderfully during World War II with consists of Hiawathas expanding up to 20 cars and standing room only. The paint scheme was designed by Otto Kuhler, who had designed most of the 1938 Hiawatha and Milwaukee Road class F7 'Baltic' or 'Hudson' 4-6-4 locomotives. It had a yellow stripe up the nose and torpedo flank orange belts on the mostly grey body. This scheme did not last, and it was painted to resemble the other passenger unit EMD E6, #15A, B with the lightning bolt/grey scheme. After the War, they were repainted into the FM Erie-built locomotive scheme, and then in 1950, the Hiawatha orange-maroon band with black roof scheme.

The units on the Milwaukee logged over 3 million miles by 1953, and were overhauled. The motors and prime movers were sent to Alco for rebuilding, and the shopmen at the Milwaukee's in Milwaukee rebuilt the locomotives. They came out of the shops with facelifts, which the addition of EMD bulldog noses, and changed appearance which made them look like an EMD locomotive. The units then worked on secondary lines to Canton, South Dakota Green Bay, Wisconsin and Madison-Chicago trains until retirement; #14B was finally scrapped at Jones Island in Milwaukee in May 1964. The Milwaukee employees called #14A "Old Maude."

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Katchal

Katchal is one of the Nicobar Islands, India. Its area is 174.4 km². It is approximately 1600 km away from mainland (India) and 305 km south to capital Port Blair.

Katchal was earlier known as Tihnyu, has been home to both indigenous and non-indigenous people. Katchal was one of the worst affected islands during 2004 Tsunami. This region belongs to the Indian territory and comes under the Nicobar district.

Katchal is inhabited by Nicobari Tribes and Migrated Tamilians(For Rubber plantation workers under Sastri-Srimao Bandaranayaka Pact of 1964). The Island is not open to tourists and special permission is required from the local administration at Port Blair.

At sunrise on January 1, 2000, picturesque Katchal island was in the news. Many rich and famous people from around the world had converged on it for a glimpse of the millennium's first sunrise.

The Tsunami of December 26, 2004, devastated it, disturbing the socio-economic set-up of its tribes. Of the 5,000 (Official figure - actual differs) people missing in the Andaman and Nicobar Islands, 1,549 are from Katchal. There is not a single teacher; all the 47 posted here were washed away by the waves and the two schools have been converted into relief camps. Some of them managed to escape the waters by clinging over to coconut trees tops. Of the 344 people reported dead, only one body could be identified. Either the bodies were decomposed beyond recognition or there were no survivors to claim them. Post Tsunami relief camps are setup at E-Wall, MRN, Sallo-Tikrey and Japan Tikrey.

Almost all the tribal chiefs and their heirs have been killed, leaving the tribals virtually headless. According to initial estimates, 112 hectares of land has been rendered useless due to salination, and 3.54 lakh coconut and an equal number of supari (betel nut) trees destroyed. The agriculture pattern on the island has to be changed to promote vegetable, spices and banana cultivation as a coconut tree takes about seven years to yield income.

The nearby Trinket island is now divided into three. Tsunami waves came over it on December 26, 2004 and it was submerged under water for several days. It had two villages — Trinket and Safed Balu with an estimated population of 475. The total number of dead or missing is 102, survivors 374 — all of whom were rescued from the sea. Since the island is not safe any more, the locals want to settle in Kamorta.

The Nicobar Islands can be divided in three groups - northern, central and southern. Katchal is the largest island of the central group of islands and has 35 villages of which six are main villages. After the tsunami,the some of the villages had merged.Now there are four tribal villages in the island viz. E Wall, Meenakshi Ram Nagar,Japan Tikry and Upper Katchal.Mildera is another village in the island inhabitated by non tribal people (Tamil repatriates and Ranchi communities). The highest peak of Katchal is 835 feet high. People in Katchal speak Nicobari, Hindi, Tamil, Telugu and Santhali. Due to their location and lack of exposure with the rest of the world, outsiders economically exploited the innocent islanders for a long time. To stop their economic exploitation, the Government of India declared the Nicobar Islands an Aboriginal Tribal Reserve Area (ATRA) on April 2, 1957. This made the Nicobar Islands inaccessible to outsiders and even Indian people from the mainland need a special tribal pass to land on the islands.

Nicobar Islands have experienced all kinds of external influences for centuries, because they are located along an ancient international sea trade route and have been known to voyagers and scholars since ancient times. Due to this, the islands have been receiving external influences, which have affected their culture and race over the centuries. According to recent history, an archeological inscription dating to AD 1059 says that Nicobar was part of the overseas kingdom of Tamil Chola King of Tanjore. In 1869, the British took possession of the Nicobar Islands from the Danes and made them a part of modern India.

The Hills of Katchal are composed of Calcareous Sandstone and marble slates, and in the beautiful tropical forest of Katchal one will find lots of Pythons, Black Monkeys and Pigs. Katchal is full of natural beauty. The eye-catching scenery of the beaches, the jungle, and the sunrise and sunset are some of the things that make the island really worth visiting. The main stay of their economy is Coconut, Betelnut or Arecanut trade. In 1968, rubber plantation and subsequently red oil palm plantation were established here.

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Grip, Norway


Grip is an archipelago, a deserted fishing village, and a former municipality (NO-1555) in Norway.
Archipelago
The Grip archipelago consists of 82 islets and skerries 14 km into the Norwegian Sea northwest off Kristiansund in Norway. The fishing village is located on Gripholmen, which is the largest and only habitable islet. On the south side of the fishing village is the main harbour, protected by two breakwaters. The older and northern harbour is smaller and less protected. Other breakwaters protects the fishing village from large ocean waves. The highest point is just 10 m above mean sea level.

The Inngripan group of skerries lies three km closer to Kristiansund, where a small storm shelter offered protection for shipwrecked fishermen. The storm shelter has recently been restored.

Grip lighthouse, was built between 1885 and 1888 on the just 7 m high islet Bratthårskollen, north of Gripholmen. The 47 m tall lighthouse is a cast iron tower on a large stonemasonry foundation. It is the second tallest lighthouse tower in Norway, with a light range of 19 nautical miles. The islet is barren rock with just the lighthouse tower, a concrete boathouse and two wharves. A radio beacon was operated between 1947 and 1986. Grip lighthouse was electrified in 1932, and is unmanned after it was automated in 1977. In 2000 it became protected as a cultural heritage site.

Fishing village
The first indications of settlement at Grip is from the 9th century, where fishermen settled close to the fishing grounds. Grip might because of that, be the oldest settlement in the Nordmøre district. Exports of fish from Norwegian fishing villages became important during the monopoly of the Hanseatic League. Grip stave church is thought to have been constructed around 1470. The village belonged to the archbishop of Norway until the protestant reformation of Denmark-Norway in 1536.

Merchant Hans Horneman in Trondheim bought the islet from King Frederick IV in 1728 and the fishermen and their families became, in effect, vassals. The fishermen had to sell the catch to the merchants at a price decided by them later. This arrangement lasted until it was forbidden in 1893. The merchants, becoming landlords, also bought most of the private properties.

Storm surges destroyed most of the fishing village in 1796 and again in 1804. The first breakwaters were constructed in 1882 and a harbour capable of landing small ships was ready in 1950.

The population fluctuated for centuries, following the profitability of fishing, between 100 and 400 people. A now deserted village, it was once a busy place, when 2000 fishermen could stay there during the height of the fishing season, when fishermen rowed and sailed to Grip from all over, to catch cod. Centralization led to a declining population after World War II, and Grip became deserted in 1974 when Hildur and Kasper Larsen left just before christmas.

After being deserted, the old houses has become popular summer houses, and in the summer Grip has about 250 residents, primarily the earlier population and their decendants in Kristiansund. The harbour is still a popular dock for small fishing vessels, and the village is a popular destination for tourism in Kristiansund. In the summer season, a highspeed passenger ferry connects Grip to Kristiansund with one or two 30 minute crossings from the town centre every day.

When the diesel generator was started in 1950, the population was supplied with electric energy. The summer residents now get their electricity from 0700 to 2300 with two generators installed in the local power station, totalling 210 kVA power. The power station was privatized in 1992. The archipelago has mobile phone coverage from a radio tower in Kristiansund. There is no natural source of fresh water, so the residents collect rainwater, flush the toilets with seawater, and travel to town to do their laundry.

The old schoolhouse has been turned into an inn and post office, and one of the boathouses in the harbour and the temperance movement's lodge serves as community houses.


Municipality
The law of formannskapsdistrikt of 1837 required that every parish in Norway should be constituted as a municipality January 1, 1838. It also required that parishes composed of a town with a rural district should be divided into two municipalities (a pure town - and a pure rural district). Grip was an annex to the parish of Kristiansund in 1837, but this annex had no men with the right to vote.

The right to vote was in Norway until 1884 mostly limited to men with property. In a fishing village where a merchant in the town owned all the houses, nobody had the right to vote. Through constitutional changes in 1884 the right to vote was extended to men who paid taxes, and the fishermen in Grip paid income taxes. Grip municipality was incorporated in 1897 with a population of 198.

Grip municipality bought the fishing village from Ludvig Williamsen in 1909. The entire community had previously been the property of a merchant in Kristiansund, not including the church, school and three private houses. The price of 110,000 kroner was financed through a public loan to be paid back in 45 years. The municipality then began selling the houses to their inhabitants. A census in 1910 showed a population of 187.

With a land area of only 0.48 km², and a population of 104, Grip was the smallest municipality in Norway until it merged with Kristiansund in 1964. Today Kvitsøy is the smallest municipality in Norway, and Utsira is the municipality with the smallest population, both small island communities.


Etymology
The name is first recorded in 1338 ("Gripar") - Norse Grípar, a plural form (natural, since Grip is an archipelago). The etymology of the name is uncertain, but it is maybe related to the Norse verb grípa 'catch, seize, grip'. If this is the case, then it probably refer to the catching of fish here.

It is pronounced "greep" (the vowel sounding like the one in "weep").

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Tethered Aerostat Radar System

The Tethered Aerostat Radar System is a low-level surveillance system that uses aerostats as radar platforms. Another system of this kind is the EL/M-2083.


System
The aerostats are large fabric envelopes filled with helium, and can rise up to an altitude of 15,000 feet (4,600 m) while tethered by a single cable. The largest lifts a 1000 kg payload to an operating altitude providing low-level, downward-looking radar coverage. The aerostat consists of four major parts or assemblies: the hull and fin, windscreen and radar platform, airborne power generator, and rigging and tether.

The hull of the aerostat contains two parts separated by a gas-tight fabric partition. The upper chamber is filled with helium and provides the aerostat's lifting capability. The lower chamber of the hull is a pressurized air compartment. The hull is constructed of a lightweight polyurethane-coated Tedlar fabric. An airborne engine drives the generator, supplied by a 100-gallon diesel fuel tank.


Operation
Operators launch the aerostat from a large circular launch pad containing a mooring fixed or mobile system. The mooring systems contain a large winch with 25,000 feet of tether cable. Operational availability is generally limited only by the weather (60 percent standard) and routine maintenance downtime. The aerostats are stable in winds below 65 knots (120 km/h). Aerostat and equipment availability averages more than 98 percent system-wide.

For security and safety reasons, air space around Air Force aerostat sites is restricted for a radius of at least two to three statute miles and an altitude up to 15,000 feet (4,600 m).


Mission
The primary mission is to provide low-level radar surveillance along the southwest border of the United States and Mexico, the Straits of Florida and the Caribbean in support of federal agencies involved in the nation's drug interdiction program. The secondary mission is to provide North American Aerospace Defense Command with low-level surveillance coverage for air sovereignty in the Florida Straits. The aerostat radar data is available to NORAD and U.S. Customs and Border Protection.


History
The first aerostats were assigned to the Air Force in December 1980 at Cudjoe Key, Fla. During the 1980s, the U.S. Customs Service operated a network of aerostats to help counter illegal drug trafficking. Their first site was built at High Rock, Grand Bahamas Island, in 1984. The second site was built at Fort Huachuca, Ariz., in 1986. Before 1992, three agencies operated the TARS network: the Air Force, U.S. Customs Service and U.S. Coast Guard. Congress in 1992 transferred management of the system to the Defense Department, with the Air Force as executive agent. Under Air Force management, through contract consolidation and system standardization, the operations and maintenance cost per site was reduced from $6 million in fiscal year 1992 to $3.5 million in 2007.


Technical and operational data
Primary Function: Low-level, downward-looking radar; aircraft detection

Volume: 275,000 and 420,000 cubic feet

Tether Length: 25,000 feet (7,600 m)

Payload Weight: 1,200-2,200 pounds

Maximum Detection Range: 200 nautical miles (400 km)

Operational Sites: Yuma and Fort Huachuca, Ariz.; Deming, N.M.; Marfa, Eagle Pass, and Rio Grande City, Texas; Cudjoe Key, Fla.; and Lajas, Puerto Rico. Sites located at Morgan City, La., and Matagorda, Texas, are in a cold-storage configuration. Contract management office and logistics hub are located in Chesapeake, Va.

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