Microsoft Technology Licensing, LLC

Gridpoint, Inc.

V2green, Inc.

Synopsys, Inc.

Seth B Pollack

Seth W Bridges

David Kaplan

James E Allard

Mohsen M Al-Ghosein

Donald James McCrady

Chad A Lindhorst

David S Stutz

Stephen T Swartz

Chad W Royal

Donald W Dumitru

Gerald L Hinson

Kyle W Geiger

Vincent Fernandes

Eric D Deily

Charles K Moore

Murali R Krishnan

Henry L Sanders

Mark T Anders

Douglas C Hebenthal

Michael Courage

Vasilios Karagounis

Joby Sky Lafky

David L Kaplan

Wade Hilmo

Asim Mitra

Emily Kruglick

Lei Jin

Andy Morrison

Andrew David Sigal

David R Treadwell

Zachary Axelrod

Rayner S D′Souza

Systems and methods are described for a power aggregation system. In one implementation, a method includes establishing a communication connection with each of multiple electric resources connected to a power grid, receiving an energy generation signal from a power grid operator, and controlling a number of the electric resources being charged by the power grid as a function of the energy generation signal.

Power aggregation system for distributed electric resources

A connection in a power aggregation system for distributed electric resources is located by establishing, by way of a computer network, a communication between a mobile electric resource and a network-connected device, the mobile electric resource including one or more processors including a processor to control power flow, obtaining, with the one or more processors, a unique identifier associated with the network-connected device, transmitting, with the one or more processors, information regarding the mobile electric resource to a remote server, determining, with the one or more processors or the remote server, a location of the mobile electric resource from the unique identifier, determining at least one power connection location from the determined location, and charging the mobile electric resource with the determined at least one power connection location.

Connection locator in a power aggregation system for distributed electric resources

A system and methods that enables smart charging for electric resources. A charging behavior guarantee may comprise a guaranteed charging schedule that matches a regular charging schedule of an electric resource and provides power flow flexibility. A smart charging method may also include periodically updated schedules and may manage electric resources via a smart charging benefit analysis. A smart charging method may manage the charging behavior of the electric resources on a grid based on the smart charging benefit. Further, a smart charging method may manage electric resources via a smart charging benefit analysis and smart charging customer guarantees. A smart charging method also may include schedules with overrides, and may involve a method for local load management in the presence of uncontrolled loads. A smart charging method for managing electric resources may also provide direct control over prices-to-devices enabled devices.

Systems and methods for smart charging techniques, value and guarantee

Systems and methods for power aggregation are described. One method includes charging an electric resource or vehicle over a power connection to an electric network, obtaining, with a processor, a unique identifier of a device associated with the electric resource or vehicle at the power connection, and determining, with the processor, a location of the electric resource or vehicle from the unique identifier.

A system that enables power flow management for electrical devices, such as electric vehicles. Power flow managers can coordinate charging activities. Power flow decisions may be based on site-level information. Power flow management strategies may be optimized. Power spikes may be avoided by using safe failure modes. Generation stacks may be used for reducing cost. AGC commands are used to control power resources. Power regulation are apportioned to power resources, and power regulation ranges may be determined. Power flow strategies are implemented in response to changes in intermittent power flow. Locations of devices may be determined using network fingerprints. Power flow measurements are determined, and AC power flows are inferred from DC power flows. Network traffic consumption are minimized. Communication protocols are translated. Enhanced vehicle communications are provided that communicate to vehicle subsystems, that arbitrate smart charge points, and that use existing hardware, non-specific hardware, or control extensibility systems.

Electric vehicle power management systems

Systems and methods are described for a power aggregation system. A method includes charging an electric resource over a power connection to an electric network, obtaining a unique identifier of a device over the power connection, and determining an electric network location of the electric resource from the unique identifier.

Memory management units (MMUs) are disclosed. In one aspect, an MMU may have a first interface to a component. The first interface may receive one of a read of updated data from, and a write of updated data to, a virtual memory address. The virtual memory address may initially correspond to a first physical memory location in an only one time programmable (OTP) non-volatile memory (NVM). The MMU may have a remapping unit to remap a correspondence of the virtual memory address from the first physical memory location to a spare physical memory location. The MMU may also have a second interface to the OTP.NVM. The second interface may allow the updated data to be read from or written to the spare physical memory location of the OTP NVM. Methods performed by the MMUs, and methods and articles useful for manufacturing MMUs, are also disclosed.

Memory management unit (MMU) to make only one time programmable (OTP) memory appear multiple time programmable (MTP)

Systems and methods are described for a power aggregation system. In one implementation, a method includes a establishing a communication connection with each of multiple electric resources connected to a power grid, receiving an energy generation signal from a power grid operator, and controlling a number of the electric resources being charged by the power grid as a function of the energy generation signal.

Memory management units (MMUs) are disclosed. In one aspect, an MMU may have a first interface to a component. The first interface may receive one of a read of updated data from, and a write of updated data to, a virtual memory address. The virtual memory address may initially correspond to a first physical memory location in an only one time programmable (OTP) non-volatile memory (NVM). The MMU may have a remapping unit to remap a correspondence of the virtual memory address from the first physical memory location to a spare physical memory location. The MMU may also have a second interface to the OTP NVM. The second interface may allow the updated data to be read from or written to the spare physical memory location of the OTP NVM. Methods performed by the MMUs, and methods and articles useful for manufacturing MMUs, are also disclosed.

RFID tag semiconductor chip with memory management unit (MMU) to make only one time programmable (OTP) memory appear multiple times programmable (MTP)

Memory management unit (MMU) to make only one time programmable (OTP) memory appear multiple times programmable (MTP)

A system and methods that enables smart charging for electric resources. A smart charging method may include smart charging customer guarantees. The charging behavior guarantee may comprise a guaranteed charging schedule that matches a regular charging schedule of an electric resource and provides power flow flexibility. In addition, a smart charging method may manage electric resources via a smart charging benefit analysis. A smart charging benefit may include an impact resulting from the energy management system which is beneficial to an electric resource. A smart charging method may manage the charging behavior of the electric resources on a grid based on the smart charging benefit. Further, a smart charging method may manage electric resources via a smart charging benefit analysis and smart charging customer guarantees.

Smart charging value and guarantee application

Systems and methods are described for a power aggregation system. In one implementation, a service establishes individual Internet connections to numerous electric resources intermittently connected to the power grid, such as electric vehicles. The Internet connection may be made over the same wire that connects the resource to the power grid. The service optimizes power flows to suit the needs of each resource and each resource owner, while aggregating flows across numerous resources to suit the needs of the power grid. The service can bring vast numbers of electric vehicle batteries online as a new, dynamically aggregated power resource for the power grid. Electric vehicle owners can participate in an electricity trading economy regardless of where they plug into the power grid.

User interface and user control in a power aggregation system for distributed electric resources

Scheduling and control in a power aggregation system for distributed electric resources

Growing community of inventors

Seattle, WA, United States of America

Seth B Pollack