Showing posts with label Powers. Show all posts
Showing posts with label Powers. Show all posts

Sunday, July 7, 2013

Green Field Powers Eagle Ford Fracking Solely with LNG

Lafayette, La.-based Green Field Energy Services has successfully completed over 60 hydraulic fracturing stages on a well series in South Texas' Eagle Ford shale play using only liquefied natural gas (LNG), Green Field reported April 17.

The company had up to four turbine fracturing pump (FTP) units operating during each fracturing stage; each TFP consistently pumped five barrels per minute at a pressure of 7,500 pounds per square inch.

"We continue to push the envelope in the use of gas as a fuel source in pressure pumping," said Green Field Energy Services President Rick Fontova in a statement. "This application is yet another step closer to our soon-to-be-realized vision of using field gags to power our Turbine Frac Pumps."

Green Field has been using custom turbine technology to offer hydraulic fracturing pumps that can run solely and cost effectively on natural gas, including LNG and compressed natural gas.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

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Thursday, July 4, 2013

Green Field Powers Eagle Ford Fracking Solely with LNG

Lafayette, La.-based Green Field Energy Services has successfully completed over 60 hydraulic fracturing stages on a well series in South Texas' Eagle Ford shale play using only liquefied natural gas (LNG), Green Field reported April 17.

The company had up to four turbine fracturing pump (FTP) units operating during each fracturing stage; each TFP consistently pumped five barrels per minute at a pressure of 7,500 pounds per square inch.

"We continue to push the envelope in the use of gas as a fuel source in pressure pumping," said Green Field Energy Services President Rick Fontova in a statement. "This application is yet another step closer to our soon-to-be-realized vision of using field gags to power our Turbine Frac Pumps."

Green Field has been using custom turbine technology to offer hydraulic fracturing pumps that can run solely and cost effectively on natural gas, including LNG and compressed natural gas.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

View the original article here

Friday, May 24, 2013

Total Powers up New Supercomputer

French major Total announced that it is inaugurating its new Pangea supercomputer Friday. The computer, located at the company's Scientific and Technical Center in Pau, France, will make Total one of the top 10 international firms in terms of computing power, it said.

The $77.5 million-investment in the new computing power is aimed at improving the time it takes to model subsurface and simulate the behavior of reservoirs, as well as improving the precision of these activities. The Pangea supercomputer was commissioned on 17 January for the Seismic Imagery and Interpretation Department of Total's Center for Hydrocarbon Research. It will be used as a tool to assist decision-making in the exploration of complex geological areas and to increase the efficiency of hydrocarbon production in compliance with safety and environmental standards, Total added.

Designed by Silicon Graphics, the supercomputer has a computing capacity of 2.3 petaFLOPS– meaning it can perform one million, billion simple calculations (or floating-point operations) per second. It will have 110,000 CPUs and required 2.8 megawatts of electric power, with heat generated from the computer recovered to provide all the heating the Scientific and Technical Center needs.

The Pangea computer should beat BP's new high-performance computing center that it began building at its Westlake Campus in Houston, Texas, in December. The HPC – also to be used for processing seismic and geological data – is designed to process information at a rate of up to two petaFLOPS. BP expects this to be ready in mid-2013.

Ahead of the inauguration Friday, Total Upstream President Yves-Louis Darricarrère, commented in a statement:

"We are proud of this leap forward in our performance which positions us in the vanguard of high technology at international level. This supercomputer – 15 times more powerful than its predecessor – has been specifically designed to meet the main technical challenges facing our industry. Its intensive computing capacity constitutes a key competitive asset that is an integral part of the group's bold exploration strategy."

Currently, the world's fastest supercomputer is the non-commercial Cray Titan – which is used for scientific projects at the Oak Ridge National Laboratory in Tennessee and was built with funding from the US Department of Energy. The Titan has a processing speed of 17.59 petaFLOPS.

A former engineer, Jon is an award-winning editor who has covered the technology, engineering and energy sectors since the mid-1990s. Email Jon at jmainwaring@rigzone.com.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

View the original article here

Thursday, May 23, 2013

Total Powers up New Supercomputer

French major Total announced that it is inaugurating its new Pangea supercomputer Friday. The computer, located at the company's Scientific and Technical Center in Pau, France, will make Total one of the top 10 international firms in terms of computing power, it said.

The $77.5 million-investment in the new computing power is aimed at improving the time it takes to model subsurface and simulate the behavior of reservoirs, as well as improving the precision of these activities. The Pangea supercomputer was commissioned on 17 January for the Seismic Imagery and Interpretation Department of Total's Center for Hydrocarbon Research. It will be used as a tool to assist decision-making in the exploration of complex geological areas and to increase the efficiency of hydrocarbon production in compliance with safety and environmental standards, Total added.

Designed by Silicon Graphics, the supercomputer has a computing capacity of 2.3 petaFLOPS– meaning it can perform one million, billion simple calculations (or floating-point operations) per second. It will have 110,000 CPUs and required 2.8 megawatts of electric power, with heat generated from the computer recovered to provide all the heating the Scientific and Technical Center needs.

The Pangea computer should beat BP's new high-performance computing center that it began building at its Westlake Campus in Houston, Texas, in December. The HPC – also to be used for processing seismic and geological data – is designed to process information at a rate of up to two petaFLOPS. BP expects this to be ready in mid-2013.

Ahead of the inauguration Friday, Total Upstream President Yves-Louis Darricarrère, commented in a statement:

"We are proud of this leap forward in our performance which positions us in the vanguard of high technology at international level. This supercomputer – 15 times more powerful than its predecessor – has been specifically designed to meet the main technical challenges facing our industry. Its intensive computing capacity constitutes a key competitive asset that is an integral part of the group's bold exploration strategy."

Currently, the world's fastest supercomputer is the non-commercial Cray Titan – which is used for scientific projects at the Oak Ridge National Laboratory in Tennessee and was built with funding from the US Department of Energy. The Titan has a processing speed of 17.59 petaFLOPS.

A former engineer, Jon is an award-winning editor who has covered the technology, engineering and energy sectors since the mid-1990s. Email Jon at jmainwaring@rigzone.com.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

View the original article here

Tuesday, May 21, 2013

Total Powers up New Supercomputer

French major Total announced that it is inaugurating its new Pangea supercomputer Friday. The computer, located at the company's Scientific and Technical Center in Pau, France, will make Total one of the top 10 international firms in terms of computing power, it said.

The $77.5 million-investment in the new computing power is aimed at improving the time it takes to model subsurface and simulate the behavior of reservoirs, as well as improving the precision of these activities. The Pangea supercomputer was commissioned on 17 January for the Seismic Imagery and Interpretation Department of Total's Center for Hydrocarbon Research. It will be used as a tool to assist decision-making in the exploration of complex geological areas and to increase the efficiency of hydrocarbon production in compliance with safety and environmental standards, Total added.

Designed by Silicon Graphics, the supercomputer has a computing capacity of 2.3 petaFLOPS– meaning it can perform one million, billion simple calculations (or floating-point operations) per second. It will have 110,000 CPUs and required 2.8 megawatts of electric power, with heat generated from the computer recovered to provide all the heating the Scientific and Technical Center needs.

The Pangea computer should beat BP's new high-performance computing center that it began building at its Westlake Campus in Houston, Texas, in December. The HPC – also to be used for processing seismic and geological data – is designed to process information at a rate of up to two petaFLOPS. BP expects this to be ready in mid-2013.

Ahead of the inauguration Friday, Total Upstream President Yves-Louis Darricarrère, commented in a statement:

"We are proud of this leap forward in our performance which positions us in the vanguard of high technology at international level. This supercomputer – 15 times more powerful than its predecessor – has been specifically designed to meet the main technical challenges facing our industry. Its intensive computing capacity constitutes a key competitive asset that is an integral part of the group's bold exploration strategy."

Currently, the world's fastest supercomputer is the non-commercial Cray Titan – which is used for scientific projects at the Oak Ridge National Laboratory in Tennessee and was built with funding from the US Department of Energy. The Titan has a processing speed of 17.59 petaFLOPS.

A former engineer, Jon is an award-winning editor who has covered the technology, engineering and energy sectors since the mid-1990s. Email Jon at jmainwaring@rigzone.com.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

View the original article here

Sunday, April 21, 2013

Turbine Technology Powers Green Field Multi-Fuel Frack Pump

Turbine Technology Powers Green Field Multi-Fuel Frack Pump

Custom turbine technology has allowed Green Field Energy Services to offer hydraulic fracturing pumps that can run solely and cost-effectively on natural gas, including liquefied natural gas (LNG), compressed natural gas (CNG), and field gas, along with offering oil and gas producers flexibility to use diesel and liquid fuels such as kerosene.

The Lafayette, La.-based company late last year commissioned the first multi-fuel hydraulic fracturing pump that could either run on diesel or natural gas after blood, sweat, tears and attempts with several prototypes, said Rick Fontova, president of Green Field Energy Services, in an interview with Rigzone.

While diesel has been widely used in the oil field service industry for a number of years, the abundance of low-cost, cleaner-burning U.S. gas supplies due to shale exploration has sparked interest among some oil and gas companies to using more natural gas in their operations. This emerging trend prompted interest by Green Field in moving towards a pump that could burn only natural gas on a cost-effective basis, Fontova commented.

Green Field has worked with companies such as Apache Corp. who are seeking to fuel their exploration efforts with natural gas. Last month, Rigzone reported that Green Field has run a hydraulic fracturing pump for Apache at Apache's Granite Wash fields using 100 percent field gas.

USGS: Estimate of Conventional Gas Resources Grows InternationallyTwo turbine pumps representing 4,500 horsepower on one trailer

Around eight years ago, Marine Turbine Technology (MTT), a southern Louisiana-based company that designs custom turbine engine installations, was approached by an oilfield service company, Key Energy Services, about building a prototype of a conventional hydraulic fracturing pump that utilizes turbine technology, said MTT CEO Ted McIntyre in a recent interview with Rigzone.

MTT produces turbine systems for unique applications, including what McIntyre calls "big boy toys" – motorcycles and high-performance boats. The company – whose customer list has included Jay Leno –has also worked with the U.S. military, including a recent agreement with the U.S. Air Force to develop a high-pulse weapon. The company's turbines were also used to pump water out of New Orleans following Hurricane Katrina in 2005.

The prototype caught the attention of Mike Moreno, now chairman and CEO of Green Field. Moreno had headed up a group who acquired Hub City Industries (HCI) in May 2011 and changed the company's name to Green Field. Founded in 1969, HCI initially focused on pumping stimulation, but expanded its services to offer hydraulic fracturing, cementing, acidizing, coil tubing, gravel packing and nitrogen services.

MTT and Green Field then formed a joint venture, Turbine Powered Technology (TPT), to design and produce turbine-driven equipment, said McIntyre. MTT and Green Field each own 50 percent interest in TPT. MTT manufactures and licenses the technology, and Green Field holds the exclusive license for the turbine-driven equipment.

In November 2011, Moreno raised $250 million in a high-yield bond offering; once the capital was raised, Green Field came into existence, as did TPT. At that point, production of the turbine equipment started ramping up, with 30,000 horsepower produced in the month the multi-fuel pump was rolled out. Currently, Green Field has 160,000 horsepower and five hydraulic fracturing spreads, with plans to build two more spreads in the first quarter of this year.

In May 2012, the company began working under a long-term contract with Royal Dutch Shell plc to offer pressure pumping services. The contract marked the company's official move beyond the manufacturing phase for its multi-fuel hydraulic fracturing pump to the operational phase. The agreement with Shell called for two frack spreads to be provided with the option for additional spreads.

USGS: Estimate of Conventional Gas Resources Grows InternationallyFracturing services in the Permian Basin, February 2013

While Green Field's multi-fuel pump utilizes a conventional hydraulic fracturing pump widely available throughout the industry, what makes Green Field's pump unique is the turbine placed on top and the proprietary reduction gear box, or rosetta stone, that lets the company match the turbine to a pump.

The result is a frack stack pack that is powerful but light and compact enough for two to fit onto a typical 45-foot long trailer. This technology allows Green Field to double the horsepower available at a site with the same footprint, McIntyre noted. When operating on No. 2 diesel fuel, Green Field's clean turbine pumping technology emits 87 percent fewer emissions than those released by a diesel engine. The turbines also weigh significantly less. Diesel engines can weigh anywhere between 18,000 to 25,000 pounds; Green Field's turbines weigh 1,500 pounds.

The oil and gas industry has utilized reciprocating engines to power its equipment for years, despite the known limitations of diesel engines. However, diesel engines have lower pump rates, and are oversized, heavy and face reliability issues, said Fontova.

The ability of using a frac pump to run on gas-powered turbine offers a critical advantage over diesel engine. Starting in 2015, diesel engine manufacturers will be required by the U.S. Environmental Protection Agency (EPA) to produce engines that meet lower emissions standards. Green Field's engines already meet the new standards, coming in at 60 percent below the Tier IV standards on liquid fuel. When gas is used, the amount of emissions is reduced by another 15 to 20 percent.

Other pumps are available on the market which can run on bifuel, a mix of natural gas and diesel that has received a lot of press lately, but lose power when the run on solely on gas. When Green Field's turbines run on natural gas, the fuel economy and emissions are even better than with diesel, said McIntyre. Green Field's clean turbine pumping technology allows the company to reduce emissions by 87 percent and offer the highest power density on the market.

A turbine engine is naturally capable of running on gas, said Fontova. The difficult part for Green Field was to get the turbines to run on diesel, which remains the most abundant fuel in the oil and gas services industry.

"The infrastructure was not sufficiently in place when we were launching this," Fontova noted. "We didn't want fuel to be a reason that customers couldn't equipment."

Even with 100 percent diesel, Green Field's turbines already meet the EPA standards because of how the turbine operates.

"It's much more clean and efficient and offers maximum flexibility for its customers," Fontova commented. "So that way, we're never in a situation where we're ever able to access a fuel."

By using after-market turbines that had been utilized for Chinook helicopters, the company is able to bring down the cost of the turbines to build equipment more competitive in price with diesel.

"If you had to buy these turbines new it would be cost-prohibitive compared to diesel engines," said Fontova.

Besides cost-savings and a smaller footprint, Green Field's multi-fuel pump means less trailer traffic on roads in places where surging shale activity has resulted in heavier road traffic involving large trucks, McIntyre commented.

One challenge Green Field faced in its development of the multi-fuel pump was a gear box that could handle the tremendous torque that a turbine produces and creating a control package similar to a conventional diesel operation that would allow operators to run the turbines.

"Frack operators were not intended to be pilots, so we had to create a user friendly system to allow conventional frack operators to transition to new technology," said McIntyre.

However, one of the biggest hurdles is proving to the oil and gas industry that the turbines would work, McIntyre noted.

Oil field service companies such as Halliburton Co. and Schlumberger Ltd. tried using a turbine in a frac pump in the 1960s and early 1970s, said McIntyre, who knew about the turbine experiments through his father, a former Halliburton employee.

While using turbines was a good idea, the turbines available then were underpowered and the electronics available then weren't up to the task of running multiple fracks. The turbine engines available today are more reliable and have a longer life. Over time, the diesel engine also became cheaper and cheaper to use, Fontova commented.

USGS: Estimate of Conventional Gas Resources Grows InternationallyA significant pad reduction in Eagle Ford shale play using turbine fracturing pumps

In addition to fueling hydraulic fracturing pumps solely on gas, the company has secured commitments with two customers to test power generation of oil and gas equipment using field gas.

In a pilot program scheduled to begin in this year's first quarter, Green Field will power a 1,500 horsepower land drilling rig for Apache at its Granite Wash play using four 1 megawatt turbine engines running on field gas. Green Field is conducting final tests on a 1 MW turbine generator that runs on natural gas for use in SandRidge Energy Inc.'s Mississippi Lime play asset, McIntyre commented.

Green Field's customer commitments for pilot programs were announced in conjunction with the recent agreement the company inked with GE Oil & Gas. In early January, the company signed a global supplier agreement with GE to supply power generation solutions to the oil and gas industry.

Through the agreement, GE will provide technology and equipment, including electric submerged pumps (ESP) used in artificial lift systems in oil and fluids production, modular CNG in a box compressed natural gas systems and LNG production systems and more.

Green Field will use these technologies in conjunction with its own fueling technologies, which can significantly reduce a site's environmental footprint and increase efficiency by replacing diesel fuel for power generation.

The two companies will also further investigate ways of making their technologies even more efficient when deployed together, Green Field said in a Jan. 7 announcement.

The generators are used to power ESPs, which are used to produce oil and gas. The ability to use field gas – like Apache did in the Granite Wash – or have access to sources of electricity at oil and gas fields in areas with no power transmission lines will be the next challenge that exploration and production companies will have to solve.

"The world needs cheap electricity, and we certainly feel we have a solution," McIntyre commented.

Karen Boman has more than 10 years of experience covering the upstream oil and gas sector. Email Karen at kboman@rigzone.com.

Generated by readers, the comments included herein do not reflect the views and opinions of Rigzone. All comments are subject to editorial review. Off-topic, inappropriate or insulting comments will be removed.

View the original article here