Robert Dean King - Schenectady NY, US Irene Michelle Berry - Schenectady NY, US
International Classification:
H02J 1/10 H02J 9/00 H02J 1/00
US Classification:
307 64, 307 43, 307 72, 295921
Abstract:
A multi-energy storage device system is provided that includes a first energy storage device (ESD) coupled to a direct current (DC) link. A bi-directional buck/boost converter includes an output channel coupled to the DC link and an input channel. A second ESD coupled to the input channel has a usable energy storage range defining an entire amount of usable energy storable therein. A database includes stored information related to a known acceleration event. A system controller is configured to acquire the stored information related to the known acceleration event and, during the known acceleration event, cause the buck/boost converter to boost the voltage of the second ESD and to supply the boosted voltage to the DC link such that after the known acceleration event, the state of charge of the second ESD is less than or substantially equal to a minimum usable energy storage state of charge.
System For Selectively Coupling An Energy Source To A Load And Method Of Making Same
Paul Robert Gemin - Niskayuna NY, US Robert Dean King - Schenectady NY, US Irene Michelle Berry - Schenectady NY, US Lembit Salasoo - Schenectady NY, US
International Classification:
H02J 1/00 H01F 41/00
US Classification:
307 43, 296021
Abstract:
A multi-energy storage device system includes an electric drive coupled to a load, a DC link coupled to the electric drive, and a bi-directional voltage converter having an output channel coupled to the DC link and an input channel. A first energy storage device (ESD) is coupled to the input channel, and a switch is coupled to the DC link and to a second ESD. A system controller causes the switch to couple the second ESD to the DC link for delivering energy stored in the second ESD to the electric drive. The system controller also causes the voltage converter to convert a voltage of the first ESD to a higher voltage and to deliver the higher voltage to the DC link, wherein the higher voltage is greater than the voltage of the second ESD and causes the switch to decouple the second ESD from the DC link.
System And Method For Energy Management In An Electric Vehicle
Ruijie Shi - Clifton Park NY, US Robert Dean King - Schenectady NY, US Paul Robert Gemin - Niskayuna NY, US Irene Michelle Berry - Schenectady NY, US Augusto Espinel Porras - Zurich, CH
International Classification:
G06F 7/00
US Classification:
701 22
Abstract:
A vehicular energy management system (EMS) determines a net total power from a traction drive load, an auxiliary device load, and a regenerative power. If the net total power is a net supply power, the EMS causes regenerative power to be provided to a power source and energy source in a controlled manner to initially charge the power source to a desired state-of-charge (SOC) and then subsequently charge the energy source. If the net total power comprises a net power load, the EMS causes power to be drawn from the power source and the energy source, with a split of the power being drawn from the power source and the energy source being based on a magnitude of the net power load. The EMS adjusts/maintains the SOC set-point of the power source and the DC link voltage based on vehicle speed and relative altitude of travel of the vehicle.
System For Multiple Energy Storage And Management And Method Of Making Same
Irene Michelle Berry - Schenectady NY, US Robert Dean King - Schencectady NY, US Paul Robert Gemin - Niskayuna NY, US
International Classification:
H02J 1/00
US Classification:
307 77
Abstract:
A propulsion system includes an electric drive, a first energy storage system electrically coupled to the electric drive through a DC link, and a second energy storage system electrically coupled to the first energy storage system in a series connection. The first energy storage system comprises a high specific-energy storage device; the second energy storage system comprises a high specific-power storage device. The propulsion system also includes a bi-directional boost converter electrically coupled to the first and second energy storage systems such that a terminal of the first energy storage system is electrically coupled to a low voltage side of the bi-directional boost converter and a first terminal of the second energy storage system is coupled to a high voltage side of the bi-directional boost converter. The series connection bypasses the bi-directional boost converter.
System For Multiple Energy Storage And Management And Method Of Making Same
Irene Michelle Berry - Schenectady NY, US Robert Dean King - Schenectady NY, US Paul Robert Gemin - Niskayuna NY, US
International Classification:
H02J 1/00
US Classification:
307 77
Abstract:
A propulsion system includes an electric drive, a first energy storage system electrically coupled to the electric drive through a DC link, and a second energy storage system electrically coupled to the first energy storage system in a series connection. The first energy storage system comprises a high specific-energy storage device and the second energy storage system comprises a low specific-power storage device. The propulsion system also includes a third energy storage system comprising a high specific-energy storage device electrically coupled to the second energy storage system. A bi-directional boost converter is electrically coupled to the second and third energy storage systems such that a terminal of the third energy storage system is electrically coupled to a low voltage side of the bi-directional boost converter and a terminal of the second energy storage system is coupled to a high voltage side of the bi-directional boost converter.
System For Multiple Energy Storage And Management And Method Of Making Same
Robert Dean King - Schenectady NY, US Paul Robert Gemin - Niskayuna NY, US Irene Michelle Berry - Schenectady NY, US
International Classification:
H02J 1/00
US Classification:
307 77
Abstract:
A system for multiple energy storage and management includes a propulsion system includes an electric drive and a direct current (DC) link electrically and a first energy storage system coupled to the electric drive. The first energy storage system includes a low specific-power energy storage device (ESD). A coupling device is coupled to a first terminal of the low specific-power ESD and a second energy storage system, wherein a first terminal of the second energy storage system is electrically coupled to the electric drive through the DC link and a second terminal of the second energy storage system is coupled to the coupling device. A boost converter assembly is coupled to the first and second energy storage systems. The coupling device couples the second terminal of the second energy storage system to the first terminal of the low specific-power ESD in a series connection that bypasses the boost converter assembly.
System And Method Of Power Control For An Energy Storage Charging Station
- Schenectady NY, US Robert Dean King - Schenectady NY, US Irene Michelle Berry - Niskayuna NY, US Zhi Zhou - Bethlehem NY, US Matthew Christian Nielsen - Niskayuna NY, US Lembit Salasoo - Niskayuna NY, US
A system includes a control unit having one or more processors and a communication interface. The communication interface is configured to communicate with one or more charging stations that are electrically coupled to receive electrical power from a power distribution grid and that are configured to selectively charge one or more energy storage devices connected to the charging stations. The one or more processors are configured to generate first control signals for communication by the communication interface to the one or more charging stations to control transfer of reactive and/or active power from the charging stations to the power distribution grid. The control signals are generated based at least in part on a load cycle profile of one or more electric machines electrically coupled to the power distribution grid.
System For Selectively Coupling An Energy Source To A Load And Method Of Making Same
A multi-energy storage device system includes an electric drive coupled to a load, a DC link coupled to the electric drive, and a bi-directional voltage converter having an output channel coupled to the DC link and an input channel. A first energy storage device (ESD) is coupled to the input channel, and a switch is coupled to the DC link and to a second ESD. A system controller causes the switch to couple the second ESD to the DC link for delivering energy stored in the second ESD to the electric drive. The system controller also causes the voltage converter to convert a voltage of the first ESD to a higher voltage and to deliver the higher voltage to the DC link, wherein the higher voltage is greater than the voltage of the second ESD and causes the switch to decouple the second ESD from the DC link.
Albemarle Corporation
Manager of Data Science
Albemarle Corporation Dec 2018 - Jul 2019
Senior Data Scientist
Ge Global Research Jan 2016 - Dec 2018
Senior Product Scientist
Ge Global Research Dec 2012 - Jan 2016
Lead Systems Engineer
Ge Global Research May 2010 - Dec 2012
Systems Engineer
Education:
Massachusetts Institute of Technology 2007 - 2010
Virginia Tech 2002 - 2007
Bachelors, Bachelor of Science, Mechanical Engineering
Skills:
Matlab Simulations Data Analysis Research Mechanical Engineering Renewable Energy R&D Solidworks Engineering Simulink Electrical Engineering Energy Efficiency Labview Mathematical Modeling Systems Engineering Finite Element Analysis Engineering Management Electric Vehicles Data Science Product Strategy Python