337results about How to "Control changes" patented technology

An implantable device applies and controls a neural stimulus. The device has a plurality of electrodes, and a stimulus source for providing a stimulus to be delivered from the electrodes to a neural pathway in order to evoke an action potential on the neural pathway, such as the spinal cord. A control unit controls application of a neural stimulus as defined by a set of parameter values and measures via measurement circuitry an evoked neural compound action potential response. The control unit determines from the measured evoked response a feedback variable, and compares it to a therapy map. The therapy map defines a therapeutic relationship of control variable to feedback variable. One or more of the stimulus parameter values are altered to effect the required change in the control variable. This process is performed iteratively to improve alignment of the feedback variable with the therapy map over time.

Disclosed are a method, upstream processing node, and computer readable medium for dynamically stabilizing a stream processing system. The method includes receiving at least one computing resource allocation target. The further includes determining that an input data flow rate of at least one upstream processing element varies. The computing resource is dynamically allocated to the upstream processing element in response to the input rate of the upstream processing element varying. Data flow is dynamically controlled between the upstream processing element and at least one downstream processing element.

Disclosed is a method, upstream processing node, and computer readable medium for processing data packets. The method includes receiving an allocation for at least one computing resource. At least one data packet at one or more upstream processing elements in an upstream processing node is received. The method also includes determining if at least one output queue of the upstream processing elements includes available space for processing of the data packet. The data packet is processed in response to the output queue including available space to form a resulting data packet. The method further includes determining that an input queue of at least one downstream processing element of a plurality of downstream processing elements includes available space for receiving the resulting data packet In response to the determining, the resulting data packet is transmitted from the upstream processing element to the downstream processing element.

A controller for an AC electric motor, includes a Feed Forward Torque Controller and a load model. The Torque controller directly derives a torque related component of applied motor voltages from a signal representing a torque command input T* and at least one motor parameter. The load model derives a motor speed value including a model of motor speed behaviour of the AC electric motor to provide an output signal which represents the motor speed of the AC electric motor. This motor speed output signal is used in determining a frequency of rotation of an applied motor voltage vector. Where an input to the load model is the signal representing the torque command input T*, the load model uses the signal representing the torque command T*, at least over a part of an operating speed range of the AC motor which includes zero speed, to determine the motor speed output signal.

Methods, systems, computer program products, and methods of doing business by using a meta-editor to generate components (e.g., a specification of a rules language that restricts editing operations on structured documents, a specification of rules according to this language, and a graphical user interface editor that operates according to the specified rules) for use in controlling or restricting the changes that can be made to contents of a structured document (e.g., a document encoded in the Extensible Markup Language, or "XML"). A Document Type Definition ("DTD") is generated as a "bounding DTD", based on editing choices made using the meta editor, and one or more structured documents containing editing restrictions are generated according to this DTD and these editing choices. An editor (or editing component) is generated that programmatically determines which elements of another structured document can be edited, which elements should be hidden, and so forth. By restricting the parts of the file that can be edited, users who need to do the editing are shielded from irrelevant details, and can carry out their task with less risk of making errors (and without needing to understand the details of the structured document markup language).

A system and a method secure content ratings by providing rating value information for a multimedia file which is based on, corresponds to and/or is associated with media, content and/or information in the multimedia file. A content fingerprint of the multimedia file is combined with the rating value information to form, to create, to generate and/or to produce full rating information for the multimedia file. A source of the rating value information digitally signs the full rating information to form, to create, to produce, to construct and/or to generate a rating information digital certificate for distribution with the multimedia file or separately from the multimedia file. Users add user rating information and/or change the metadata of the multimedia file without altering and/or without changing the rating value information, the content fingerprint, the full rating information and/or the rating information digital certificate of the multimedia file. Users submit rating information to a source of the rating value information which forms, creates, produces, generates and/or updates the rating value information associated with the multimedia file.

A semiconductor device includes a semiconductor substrate, a vertical transistor, a horizontal transistor, a lead, wire-bonding pads, and penetrating electrodes. The semiconductor substrate has first and second surfaces and includes a first surface portion adjacent to the first surface. The vertical transistor includes first and second electrodes on the first surface and a third electrode on the second surface. The horizontal transistor includes first, second, and third electrodes on the first surface. The vertical transistor and the horizontal transistor further include PN junction parts in the first surface portion. The lead is disposed to the first surface and is electrically coupled with the first electrode of the vertical transistor. The wire-bonding pads are disposed on the second surface. The second electrode of the vertical transistor and the first to third electrodes of the horizontal transistor are electrically coupled with the wire-boding pads through the penetrating electrodes.

The present invention relates to nanostructured materials for use in rechargeable energy storage devices such as lithium batteries, particularly rechargeable secondary lithium batteries, or lithium-ion batteries (LIBs). The present invention includes materials, components, and devices, including nanostructured materials for use as battery active materials, and lithium ion battery (LIB) electrodes comprising such nanostructured materials, as well as manufacturing methods related thereto. Exemplary nanostructured materials include silicon-based nanostructures such as silicon nanowires and coated silicon nanowires, nanostructures disposed on substrates comprising active materials or current collectors such as silicon nanowires disposed on graphite particles or copper electrode plates, and LIB anode composites comprising high-capacity active material nanostructures formed on a porous copper and/or graphite powder substrate.

An optimization apparatus (compiler program, method and recording medium) for changing the order of execution of instructions in a program to be optimized includes an exception occasion instruction detection section which detects a first instruction having a possibility to cause an exception, an assurance instruction detection section which detects a second instruction executed prior to the first instruction, the second instruction assuring that no exception of the first instruction occurs, and an execution order control section which changes the position of the first instruction in execution order so that the first instruction is executed before a conditional branch instruction for selectively executing the first instruction and after the second instruction.

A power delivery system for computed tomography includes at least one transformer (e.g., an isolation transformer, a coupling transformer, an adaptation transformer), a rotary transformer, and at least two power inverters. The rotary transformer includes a stationary winding disposed on a stationary side and a rotational winding disposed on a rotating side. The isolation or adaptation transformer is coupled to the stationary winding or the rotating winding of the rotary transformer. At least two power inverters are constructed and arranged to provide power to the primary winding of the rotary transformer. The high-voltage unit is disposed on the rotating side and connected to receive power from the rotational winding and constructed to provide power to an X-ray source.