[Due to the increasing size of the archives, each topic page now contains only the prior 365 days of content. Access to older stories is now solely through the Monthly Archive pages or the site search function.]
Toyota unveils new TNGA-based engines and transmissions and improved hybrid systems; deployment begins in 2017
December 06, 2016
In Japan, Toyota Motor Corporation unveiled new advanced engines and transmissions and further evolved hybrid systems based on the Toyota New Global Architecture (TNGA). Toyota intends to deploy these new powertrain units in a rapidly broadening range of vehicle models, starting in 2017. The new units will feature in 60% or more of vehicles sold annually in Japan, United States, Europe and China in 2021, reducing CO2 emissions in those markets by 15% or more.
Within the five years to the end of 2021, Toyota plans to introduce 17 versions of nine new engines; 10 versions of four transmissions, including multi-geared automatic transmissions and a new kind of continuously variable transmission; and 10 versions of six hybrid systems.
New ORNL hardware-in-the-loop capability to integrate advanced combustion, new fuels, and electrification pathways
December 02, 2016
A multi-disciplinary team of researchers at Oak Ridge National Laboratory (ORNL) has developed a new testing capability which integrates a driver model, full vehicle model, and hardware to explore the synergies of advanced combustion, new fuels, and emerging hybrid vehicle architectures over real-world drive cycles. This new facility is focused on low temperature combustion engines but builds upon the powertrain-in-the-loop expertise established with the Vehicle Systems Integration Laboratory (VSI) at ORNL.
The transient advanced combustion laboratory is initially supporting research on the potential of low temperature combustion modes with new fuel and vehicle technologies. The hardware-in-the-loop setup includes a transient dynamometer cell (AVL 300 kW AC) with a low-temperature combustion (LTC) multi-cylinder engine instrumented for combustion and emissions analysis. The light-duty diesel engine used in these experiments (earlier post) was modified for dual-fuel use for port fuel injection of low-reactivity fuel (i.e. gasoline, ethanol etc.) and a high-reactivity fuel (i.e. diesel, biodiesel etc.).
Volkswagen investing €3.5B in German plants for e-mobility and digitalization; MEB production, pilot plant for batteries and modules
November 18, 2016
Volkswagen will invest €3.5-billion (US$3.7-billion) investment in the future-oriented areas of e-mobility and digitalization for its German plants. As part of an agreement with its General Works Council (i.e., labor), the Board of Management announced that the Volkswagen brand’s German plants will develop and produce electric vehicles and components based on the Modular Electric Drive Kit (MEB). (Earlier post.)
The MEB is the foundation for an entirely new generation of long-range battery-electric vehicles that will be connected, autonomous, open and priced for the volume market as required by Volkswagen’s positioning. The first production MEB vehicle, a version of the I.D. concept shown this year at the Paris show (earlier post), will—with a range of up to 373 miles and a market introduction in 2020—be priced approximately at the level of a diesel Golf, before any subsidies.
DOE to issue $47M FY17 Vehicle Technologies program-wide funding opportunity
November 17, 2016
The US Department of Energy (DOE) will soon issue its FY17 Vehicle Technologies Program Wide Funding Opportunity Announcement (DE-FOA-0001701). The FOA will have estimated funding of $47,150,000; DOE expects to post the full announcement (DE-FOA-0001629) in December.
DOE’s Vehicle Technologies Office supports a broad technology portfolio of advanced highway transportation technologies. Research, development, and deployment efforts are focused on reducing the cost and improving the performance of a mix of near- and long-term vehicle technologies including advanced batteries, power electronics and electric motors, lightweight and propulsion materials, advanced combustion engines, advanced fuels and lubricants, and other enabling technologies. The upcoming FOA may include the following areas of interest (AOI):
BorgWarner launches its first integrated electric drive module for the EV market; first application in China
November 16, 2016
BorgWarner will launch an electric drive module (eDM) with integrated eGearDrive transmission in two pure electric vehicles from a major Chinese automaker. Production is expected to begin in summer 2017. This is the first electric drive module from BorgWarner following its acquisition of Remy in 2015. (Earlier post.)
BorgWarner’s eDM provides primary or secondary propulsion for pure electric or P4-type hybrid vehicles. The integrated design of the electric motor and transmission enables weight, cost and space savings. Since both functions are combined into one housing, installation is also easier.
Dana introducing Spicer Electrified family of e-axles for hybrid, electric vehicles
November 09, 2016
Dana Incorporated introduced the Spicer Electrified family of fully integrated motor, control, and e-drive technologies that advance electric propulsion systems for light-duty, commercial, and off-highway vehicles.
Currently in production, the Spicer EV Drive for electric vans manages speed and torque from the e-motor to the wheels. Planned for launch in 2018, Dana’s new e-axles for electric transit buses and city delivery vehicles feature a fully integrated motor and gear box and leverage the company’s experience in chassis drivetrain applications.
Roskill forecasts demand for neodymium for magnets to result in supply deficit; substitutions by 2021
November 08, 2016
In its new rare earths market report with forecasts out to 2026, Roskill, a leader in international metals and minerals research, observes that the permanent magnet and catalyst sectors will continue to provide the largest markets for rare earths in the next ten years to 2026. Catalysts will continue to drive growth in the light rare earth elements lanthanum and cerium, while permanent magnets will lead growth in neodymium, praseodymium and dysprosium.
However, Roskill also projects that, driven by rapidly increasing demand for neodymium-iron-boron (NdFeB) magnets (used in traction motors among other applications), neodymium will fall into deficit in 2016, although demand will initially be met by the drawdown of stocks. Roskill forecasts that the deficit will increase to 2021, making continued growth of NdFeB magnets unsustainable, despite efforts by rare earth producers to increase neodymium supply.
Nissan introduces series-hybrid powertrain with Note e-POWER in Japan; small pack, small engine, LEAF motor, low price
November 02, 2016
In Japan, Nissan Motor introduced its new series-hybrid drive system called e-POWER along with its application in the Note. This marks the first availability of e-POWER technology for consumers, marking a milestone in the electrification strategy under Nissan Intelligent Mobility.
e-POWER borrows from the EV technology in the Nissan LEAF. Unlike the all-battery-electric powertrain of the LEAF, e-POWER adds a small gasoline engine to charge the high-output battery when necessary, eliminating the need for an external charger while offering the same high-output. Nissan says that although e-POWER uses a much smaller battery than the LEAF (1.5 kWh vs 30 kWh), it delivers the same driving experience as a full EV.
ORNL team shows 3D-printed permanent magnets outperform conventional versions, conserve rare materials
Researchers at the Department of Energy’s Oak Ridge National Laboratory (ORNL) and colleagues have demonstrated that permanent magnets produced by additive manufacturing can outperform bonded magnets made using traditional techniques while conserving critical materials. NdFeB magnets are used in a range of applications from computer hard drives and headphones to clean energy technologies such as electric vehicles and wind turbines.
The team fabricated isotropic, near-net-shape, neodymium-iron-boron (NdFeB) bonded magnets at DOE’s Manufacturing Demonstration Facility at ORNL using the Big Area Additive Manufacturing (BAAM) machine. The result, published in an open-access paper in Scientific Reports, was a product with comparable or better magnetic, mechanical, and microstructural properties than bonded magnets made using traditional injection molding with the same composition.
BMW provides some insight into Dingolfing eDrive competence center; motors, battery packs and more
July 29, 2016
During its Innovation Days 2016 event in Munich, the BMW Group provided some insight into its Dingolfing competence center for the manufacture of electric drive systems (eDrive). Dingolfing supplies the high-voltage batteries and other chassis and powertrain components for BMW i models and the BMW Group’s plug-in hybrid models—current (earlier post) and future.
Beginning with the launch of the first BMW i production models, the Dingolfing plant has produced high-voltage batteries and other powertrain and chassis components for these vehicles. Prior to that, the plant had supplied high-voltage batteries for the BMW Active E; BMW 3 Series ActiveHybrid; BMW 5 Series ActiveHybrid; and BMW 7 Series ActiveHybrid. Now, with the market launch of the first plug-in hybrid versions of the BMW core-brand models—for which the plant supplies the rear-mounted electric motors and all high-voltage battery packs—production of BMW eDrive components in Dingolfing is scaling up once again.
Protean Electric raises $70M to accelerate adoption of in-wheel drive systems for electrified vehicles in China
July 19, 2016
Protean Electric, developer and manufacturer of in-wheel electric drive systems, has raised $70 million in new funding from GO Scale Capital, Zhejiang VIE Science & Technology Co. Ltd., and Tianjin THSG Corporation. Existing investors Oak Investment Partners and GSR Ventures co-invested in Protean’s equity financing round.
The investment follows Protean’s announcement in May that it is setting up a manufacturing site in Tianjin, China to commercialize its model PD18 in-wheel motor in order to meet customer demand. The new funding will be used to ramp up production in China of Protean’s PD18 product line, and for new product development and formation of a manufacturing joint venture with VIE.
Xtrac introduces Integrated Lightweight Electric Vehicle (ILEV) transmission system; torque vectoring with dual motors
July 13, 2016
Xtrac has introduced its P1227 gearbox family, developed to address the growing market requirement for single-speed, lightweight and power-dense electric vehicle (EV) transmissions. It offers a range of installation possibilities for fast and powerful electric supercars with front-wheel drive, rear-wheel drive or four-wheel drive configuration.
The new transmission system can be integrated with motors supplied by BorgWarner, GKN and YASA, all of which worked with Xtrac on the integration of their technology into this transmission. The dual electric motors of the transmission system also provide an inherent torque vectoring capabilities.
Daido Steel & Honda develop neodymium magnet free of heavy rare earth elements; Honda Freed hybrid first to adopt resulting new motor
July 12, 2016
Daido Steel Co., Ltd. and Honda Motor Co., Ltd. have developed a practical hot deformed neodymium magnet containing no heavy rare earth elements (REE) that still delivers the high heat resistance properties and high magnetic performance required for the use in the driving motor of a hybrid vehicle.
Honda will first apply this hot deformed neodymium magnet with absolutely no heavy rare earth elements to the Honda Sport Hybrid i-DCD (Intelligent Dual Clutch Drive) system, a system Honda will use in the all-new Freed scheduled to go on sale this fall. Honda will continue expanding application of this technology to new models in the future.
First public flight of Siemens 260kW electric motor; to be used in development of hybrid-electric aircraft
July 04, 2016
Siemens researchers have developed a new type of electric motor that, with a weight of just 50 kilograms, delivers a continuous output of about 260 kilowatts—five times more than comparable drive systems. (Earlier post.) This record-setting propulsion system successfully completed its first public flight at Schwarze Heide Airport near Dinslaken, Germany, where it powered an Extra 330LE aerobatic airplane.
The new drive system made its maiden flight on 24 June 2016. Siemens will be contributing this technology to the cooperative project that Siemens and Airbus agreed to in April 2016 for driving the development of electrically powered flight. (Earlier post.)
DOE awarding $16M to 54 projects to help commercialize promising energy technology from national labs
June 22, 2016
The US Department of Energy (DOE) announced nearly $16 million in funding to help businesses move promising energy technologies from DOE’s National Laboratories to the marketplace. This first Department-wide round of funding through the Technology Commercialization Fund (TCF) will support 54 projects at 12 national labs involving 52 private-sector partners. Among the selected technologies are a number addressing advanced vehicle and transportation needs.
The TCF is administered by DOE’s Office of Technology Transitions (OTT), which works to expand the commercial impact of DOE’s portfolio of research, development, demonstration and deployment activities. In February of 2016, OTT announced the first solicitation to the DOE National Laboratories for TCF funding proposals. It received 104 applications from across the laboratory system, for projects in two topic areas:
Topic Area 1: Projects for which additional technology maturation is needed to attract a private partner; and
Topic Area 2: Cooperative development projects between a lab and industry partner(s), designed to bolster the commercial application of a lab developed technology.
All projects selected for the TCF will receive an equal amount of non-federal funds to match the federal investment.
A selected list of transportation-related TCF selections, as well as the Topic Area 2 projects and their private sector partners is below.
|Transportation-related TCF Awards|
|Manufacturing Of Advanced Alnico Magnets for Energy Efficient Traction Drive Motors||Ames||Carpenter Powder Products||$325,000|
|Direct Fabrication of Fuel Cell Electrodes by Electrodeposition of High-performance Core-shell Catalysts||Brookhaven||$100,000|
|Nitride-Stabilized Pt Core-Shell Electrocatalysts for Fuel Cell Cathodes||Brookhaven||$100,000|
|Enhancing Lithium-Ion Battery Safety for Vehicle Technologies and Energy Storage||Idaho||$119,005|
|Vehicle Controller Area Network (CAN) Bus Network Safety and Security System||Idaho||Mercedes-Benz R&D North America||$150,000|
|Large Area Polymer Protected Lithium Metal Electrodes with Engineered Dendrite-Blocking Ability||Lawrence Berkeley||$73,831|
|Cryo-Compressed Hydrogen Tank Technology in an Internal Combustion Engine Application||Lawrence Livermore||GoTek Energy||$431,995|
|Scaled Production Of High Octane Biofuel From Biomass-Derived Dimethyl Ether||NREL||Enerkem||$740,000|
|Thermal Management for Planar Package Power Electronics||NREL||John Deere Electronic Solutions (JDES)||$250,000|
|Assembly Of Dissimilar Aluminum Alloys For Automotive Application||PNNL||$500,000|
|Development of Electrolytes for Lithium Ion Batteries in Wide Temperature Range Applications||PNNL||Farasis Energy, Navitas Systems||$375,000|
|Direct Extruded High Conductivity Copper for Electric Machines Manufactured Using the ShAPE Process||PNNL||General Motors R&D||$600,000|
Acura running 4-motor NSX-inspired EV concept up Pikes Peak; 4-wheel independent torque vectoring
June 20, 2016
Acura will run an all-electric, NSX-inspired EV Concept in the Electric Modified Class at the 2016 Broadmoor Pikes Peak International Hill Climb. The Acura EV Concept features a further evolution of the experimental, all-electric, 4-motor Super Handling All-Wheel Drive (SH-AWD) powertrain that won last year’s Pikes Peak Challenge Exhibition class. Acura will field two production NSX supercars in the event as well.
The Acura EV Concept will be driven by Tetsuya Yamano, who campaigned last year’s CR-Z-based electric prototype. The all-wheel-drive electric SH-AWD powertrain enables four-wheel independent torque allocation. The Acura EV Concept’s Electric SH-AWD powertrain produces three times the total system output of last year’s electric prototype and is mated to the NSX body.
UQM partners with Eaton, Pi Innovo on full MD, HD electric drivetrain system; 2-speed transmission
June 16, 2016
UQM Technologies has begun a development and production program with Eaton’s Vehicle Group and Pi Innovo. The alliance calls for Eaton to develop and supply to UQM a 2-speed transmission for an EV application; Pi Innovo will develop and supply to UQM the transmission control unit. Together, the components will be combined with UQM’s current PowerPhase HD220/HD250 motor and inverter system to create a full electric drivetrain system called the “UQM PowerPhaseDT.”
The system will allow customers in the medium- and heavy-duty EV commercial markets to achieve increased performance in areas of gradability, acceleration and efficiency. UQM will have prototypes ready for customers by early fall and start-of-production units ready by early 2017.
TI introduces two new motor drivers for high-performance powertrain apps; support for start-stop
Texas Instruments (TI) has introduced two new auotmotive motor drivers that support high-performance powertrain applications. The DRV8305-Q1, a highly integrated three-phase brushless DC gate driver, and the UCC27211A-Q1, a high-current half-bridge gate driver, improve system performance and provide design flexibility to meet a diverse range of automotive system requirements.
For powertrain applications such as transmission pumps or engine cooling fans, the DRV8305-Q1 features a smart gate-drive architecture with programmable slew-rate control that allows easy optimization of MOSFET electromagnetic compliance (EMC). With an operating ambient temperature range of -40 to 150°C, the DRV8305-Q1 meets the Automotive Electronics Council (AEC)-Q100 Grade 0 automotive temperature specification. The device also operates down to 4.4 V to support start-stop functionality. Other features and benefits include the following:
Mercedes-Benz expands plug-in hybrid rollout with 2 models this year; new battery tech in S 500 e in 2017
June 13, 2016
Later this year, Mercedes-Benz will add the seventh and eighth plug-in hybrids to its line up. (Earlier post.) The new GLC Coupé 350 e 4MATIC and the E 350 e will join the S 500 e; C 350 e (Sedan, Wagon and long version for China); the GLE 500 e 4MATIC; and the GLC 350 e 4MATIC. The hybrid (plug-in and conventional) portfolio from Mercedes-Benz currently comprises 13 models.
The E 350 e will use the 9G-TRONIC plug-in-hybrid transmission and the latest generation of electric motors to deliver top rankings in fuel consumption, ride comfort and dynamism. The E 350 e is also the first hybrid from Mercedes-Benz with a high trailer towing capacity of up to 2,100 kg.
New TM4 SUMO medium-duty electric motors boost torque and speed 45% with SMCs in place of permanent magnets
June 08, 2016
TM4 will introduce three new SUMO medium-duty (MD) powertrain options at the 29th Electric Vehicle Symposium & Exhibition (EVS29), offering an increase of up to 45% in torque and speed, thanks to a new technological advancement.
Until now, the main rotor technology found in TM4’s electric motors was based on surface-mounted permanent magnets. The desire to limit the use of rare-earth magnets has resulted in a technology choice that leverages the reluctance torque of TM4’s external rotor design (earlier post) and decreases by 25% the use of these elements. By substituting some of the magnets with soft magnetic composites (SMCs), variable reluctance adds up to 45% extra torque and operating speed compared with previous technology in same package dimensions.
European team devises new strategy for rare-earth-free magnets
June 01, 2016
European researchers have devised a new way to make nanoparticles that could replace rare-earth material use in magnets. The researchers used a mixed iron-cobalt oleate complex in a one-step synthetic approach to produce magnetic core-shell nanoparticles.
The resulting materials showed strong magnetic properties and energy-storing capabilities. The approach could signal an efficient new strategy toward replacing rare earths in permanent magnets such as those uses in electric motors and keeping costs stable, the researchers said. A paper on their work is published in the ACS journal Chemistry of Materials.
GKN launches new e-axle all-wheel drive technology on global C-segment vehicle platform with BMW
May 24, 2016
GKN is launching electric all-wheel drive technology on a global vehicle platform. A series of new C-Segment vehicles will offer the option of adding plug-in electric all-wheel drive using GKN Driveline’s latest electric axle drive (eAxle) technology.
GKN has secured orders for a major global platform and production is now underway at the company’s eDrive production facility in Bruneck, Italy. The first application is the BMW 2 Series Active Tourer PHEV. (Earlier post.)
Project FEVER to develop 48V through-the-road hybrid vehicle technology; SRM-based e-axle
May 09, 2016
Controlled Power Technologies, a developer of vehicle driveline electrification based on state-of-the-art switched-reluctance machines (SRMs), has partnered with Ricardo, Tata Motors European Technical Centre (TMETC) and Provector to develop a 48V through-the-road hybrid vehicle system and demonstrate it in a B-segment city car.
The Forty-Eight Volt Electrified Rear-axle (FEVER) project will apply CPT’s SpeedTorq technology to an ultra-lightweight rear axle module to significantly improve the fuel economy of the target car. The objective of the two-year project is to achieve a CO2 reduction of up to 15% over the regulatory cycle while offering significant savings (around $1,400) in manufacturing cost compared to a full HEV.
Tsinghua team evaluates impact of types and arrangements of electric traction motors in fuel cell hybrid buses
April 20, 2016
Researchers at Tsinghua University have compared the performance of two different powertrains for fuel cell hybrid buses. Both buses use 50 kW PEM fuel cell stacks (from different manufacturers) as the primary power source, with LiMn2O4 battery packs as secondary power sources. A significant difference between the two powertrains lies in the types and arrangements of the electrical motor.
One powertrain employs a single induction motor (IM) to drive the vehicle via a reduction gearbox and differential (Powertrain A), while the other powertrain adopts two permanent magnetic synchronous motors (PMSMs) for near-wheel propulsion (Powertrain B). A further difference between the proposed powertrains is the supply path for the fuel cell accessories. A paper on their study is published in Journal of Power Sources.
Siemens and Valeo to form joint venture in high-voltage electric powertrains
April 18, 2016
Siemens and Valeo have signed an agreement to form a joint venture in high voltage powertrains for the entire range of electric vehicles including hybrids, plug-in hybrids and full electric vehicles. Building upon the complementary scope and portfolio of the partners, the joint venture will provide substantial synergies in manufacturing and sourcing and create a base for sustained growth and profitability.
Siemens said that the electric vehicle components market is expected to grow with a compound annual growth rate of more than 20% until 2020. According to the agreement, Siemens and Valeo will each hold a 50% stake in the joint venture, have joint control and account for their respective stake using the equity method.
GM details 2016 Chevrolet Malibu Hybrid powertrain design and operation
The 2016 Chevrolet Malibu Hybrid (earlier post) is EPA-rated at 46 mpg (5.11 l/100 km) combined, 47 mpg city and 46 mpg highway; the powertrain shares the transmission architecture with the 2016 Chevrolet Volt extended range electric vehicle (EREV), but includes changes to optimize the system for engine-driven charge-sustaining operation in the range of conditions represented by the US EPA 5 cycle fuel economy tests.
At the 2016 SAE World Congress, GM engineers presented a paper describing the development of the new hybrid powertrain for the popular mid-size sedan. Development was guided by four main objectives:
Saarbrücken engineers developing networked self-analyzing electric motors
March 23, 2016
Engineers from Saarland University are developing intelligent motor systems that function without the need for additional sensors. By essentially transforming the motor itself into a sensor, the team led by Professor Matthias Nienhaus is creating smart motors that can tell whether they are still running smoothly, can communicate and interact with other motors and can be efficiently controlled.
By using data collected from the motor while it is operating, the researchers are able to calculate quantities that in other systems would need to be measured by additional sensors. Further, they are teaching the drive how to make use of this knowledge.
GM’s new RWD PHEV system for Cadillac CT6 designed for fun-to-drive high performance as well as efficiency; Volt on steroids
February 19, 2016
In a preview of three detailed papers to be presented at the SAE World Congress in April, Tim Grewe, GM’s General Director of electrification, and Pete Savagian, GM General Director of electric drives and systems engineering, provided a technical overview of the new rear-wheel drive PHEV propulsion system for the Cadillac CT6 (earlier post) at the recent SAE 2016 Hybrid and Electric Vehicle Technologies Symposium in Anaheim.
The efficient and very fun-to-drive system, with 335 kW (449 hp) combined system power, propels the CT6 from 0-100 km in 5.6 seconds; delivers an all-electric range of more than 60 km (37 miles) and an all-electric top speed of 125 km/h (78 mph); and features combined fuel consumption of less than 2.0 L/100 km (117.7 mpg US).
DOE to issue $25M funding opportunity for next generation of electric machines; NGEM II
The US Department of Energy’s (DOE) Office of Energy Efficiency and Renewable Energy (EERE) intends to issue, on behalf of the Advanced Manufacturing Office (AMO), a $25-million Funding Opportunity Announcement (DE-FOA-0001467) entitled “Next Generation of Electric Machines: Enabling Technologies.” EERE plans to issue the FOA around March 2016.
Through this FOA, AMO seeks to create future high impact manufacturing opportunities through the Next Generation of Electric Machines (NGEM) vision, which is a targeted development of high power density, high revolutions per minute motors and integrated power electronics. (Earlier post.) Specifically, this FOA targets the development of key technologies that will enable further efficiency enhancements and weight reductions in a cost effective way while addressing the limitations of traditionally used conductive metals and electrical steels.
DOE requesting information on critical energy materials, including fuel cell platinum group metal catalysts
February 18, 2016
The US Department of Energy (DOE) has released a Request for Information (RFI) on critical materials in the energy sector, including fuel cell platinum group metal catalysts. The RFI is soliciting feedback from industry, academia, research laboratories, government agencies, and other stakeholders on issues related to the demand, supply, opportunities for developing substitutes, and potential for using materials more efficiently in the energy sector. The information received from the RFI will be used to update the analyses in DOE’s Critical Material Strategy Reports that were released in 2010 and 2011.
Building on the work of the 2010 and 2011 Critical Materials Strategy reports, the RFI seeks information on materials used in a variety of energy technologies, from generation to end use, and their manufacturing processes. Topics of interest include material intensity; market projections; technology transitions; primary production; supply chains; and recycling.
UK companies in $2.5M project to develop marine magnetically geared propulsion motor; potential 10% efficiency gain
February 12, 2016
Rolls Royce, magnetic gear company Magnomatics and electric motor company ATB Laurence Scott are partnering in a two-year, £1.7-million (US$2.5-million) project to develop an electric Magnetically Geared Propulsion Motor (MGPM) for marine applications. Innovate UK, the UK’s innovation agency, is providing £925,708 (US$1.3 million) in funding.
A magnetic gear uses permanent magnets to transmit torque between an input and output shaft without mechanical contact. The highly efficient (MGPM) may offer significant benefits for marine propulsion by increasing the electrical efficiency by up to 7% compared to existing state of the art electrical machines.
DeltaWing partners with DHX Electric Machines; ultra high-torque motors for automotive applications
January 26, 2016
DeltaWing Technology Group—creators of the DeltaWing vehicle design (earlier post)—and DHX Electric Machines—a Georgia Tech spinout and developer and manufacturer of ultra-high torque density electric machines using proprietary and patented direct cooling technology—announced an agreement granting DeltaWing worldwide rights to make, use and sell DHX electric motors and components specifically designed for automotive applications.
DHX traction motor technology is based on proprietary direct-winding heat exchange cooling technology that is able to remove motor heat at the source—the stator windings. The technology is based on the advanced micro-feature heat exchange research and development efforts of Dr. J. Rhett Mayor (DHX CEO) and Dr. S. Andrew Semidey (DHX VP of Engineering) at the George W. Woodruff School of Mechanical Engineering at Georgia Tech.
TM4, PSA Peugeot Citroën, Exagon Motors and the Gouvernement du Québec partner on new electric drivetrain
January 21, 2016
TM4, PSA Peugeot Citroën, Exagon Motors, Hydro-Québec and the Gouvernement du Québec are collaborating to develop a new electric drivetrain for light-duty vehicles. TM4 will act as the developer of the electric powertrain in the pre-development phase of the project.
The government’s contribution will be made up of a CAD 10-million equity interest and a CAD 6-million loan. HydroQuébec will also be contributing CAD 4 million to the project, in addition to the services offered by its subsidiary TM4 to help with the development of an electric motor.
DOE announces $58M in funding for advanced vehicle technologies
US Energy Secretary Ernest Moniz used the Washington DC Auto show as the venue to announce $58 million in funding for vehicle technology advancements. (Earlier post.) (DE-FOA-0001384: Fiscal Year (FY) 2016 Vehicle Technologies Program Wide Funding Opportunity Announcement) DOE also released a report highlighting the successes of itsAdvanced Technology Vehicles Manufacturing (ATVM) loan program.
Pre-announced in December, a $55-million funding opportunity will solicit projects across vehicle technologies such as energy storage, electric drive systems, materials, fuels and lubricants and advanced combustion. Secretary Moniz also announced that two innovative projects at CALSTART and the National Association of Regional Councils will receive $3 million to develop systems that help companies combine their purchasing of advanced vehicles, components, and infrastructure to reduce incremental cost and achieve economies of scale.
Chevrolet releases more details on Bolt drive unit and battery; one-pedal driving
January 11, 2016
Hard on the heels of the reveal of the production Volt EV at CES 2016 in Las Vegas earlier post), Chevrolet used the North American International Auto Show (NAIAS) in Detroit to release additional details on the battery and drivetrain of the new BEV. Engineers developed the Bolt EV’s propulsion system to offer more than an estimated 200 miles (based on GM estimates) and a sporty driving experience.
The Bolt EV’s drive system uses a single high capacity electric motor to propel the car. The engineering team designed the Bolt EV’s electric motor with an offset gear and shaft configuration tailored to meet efficiency and performance targets—most notably more than an estimated 200 miles of range. The motor is capable of producing up to 266 lb-ft (360 N·m) of torque and 200 hp (150 kW) of motoring power. Combined with a 7.05:1 final drive ratio, it helps propel the Bolt EV from 0-60 mph in less than seven seconds.