Abstract:
Universal automatic data update detection and publication is described herein. A request for requested information is received, which includes an information element associated with a structured data location in a structured data storage unit. A predicate referencing the structured data location is identified, including the predicate in a predicates registry by compiling the predicate into an intermediate representation. An asynchronous message bus channel corresponding to the predicate is created, and a data operation for the structured data storage unit is detected where the information element is associated with the data operation. The intermediate representation is evaluated, a predicate domain change type corresponding to the data operation is determined, and a change notification including an indication of the change type is generated. The change notification is published to the asynchronous message bus channel such that a presentation via the client device is updated in response to the change notification.
Abstract:
Generating a graphical display region including a synchronized display of alert data and impact data indicative of conditions of a computing infrastructure is described. Alerts are identified where each alert has a timestamp indicative of a first time at which it was identified. An impact calculation is performed to generate the impact data based on alerts valid as of a second time proximate to an impact calculation start time. The generated graphical display region includes impact data valid as of a display time and alert data indicative of the alerts valid as of the second time.
Abstract:
Encoding a partially encrypted data stream may include receiving, at an edge encryption proxy, an unencrypted data stream, evaluating the unencrypted data stream using communication encryption rules including rule conditions and content mappings, and determining whether the rule conditions match on the unencrypted data stream. When the rule condition matches on the unencrypted data stream, a portion of the unencrypted data stream corresponding to the content mapping is identified as a candidate sensitive portion. When the data encryption configuration information indicates that a data storage container corresponding to a matching content mapping is configured for storing sensitive information, an encrypted portion is generated by encrypting the candidate sensitive portion, a partially encrypted data stream is generated, including the encrypted portion, and unencrypted insensitive portions of the unencrypted data stream, and omitting the candidate sensitive portion, and the partially encrypted data stream is transmitted or stored.
Abstract:
A coupling portion of a wearable medical monitor may include an attachment member configured to reversibly couple the coupling portion to a body portion of the wearable medical monitor. The wearable medical monitor may be coupled to a sensor via a cable. The coupling portion may also include a cable retention feature including a channel configured to receive the cable. The cable retention feature may be configured to apply a retaining force to the cable when the cable is disposed in the channel.
Abstract:
Various methods and systems for the use of capacitance sensors 76 within medical devices 12 configured for patient monitoring are provided. The capacitance sensors 76 are configured to measure a change in capacitance resulting from a material (e.g., human tissue, water, gel, cloth, etc.) placed near (e.g., close proximity to) the medical device 12 and/or resulting from a material making physical contact with the medical device 12. In certain embodiments, the capacitance sensor 76 may be utilized to detect whether one or more portions of the medical sensor 12 are securely applied to the patient's tissue (e.g., sensor "on") and/or may be utilized to detect whether one or more portions of the medical sensor 12 fail to maintain secure contact with the patient's tissue (e.g., sensor "off"). Further, in certain embodiments, the capacitance sensor 76 may be utilized to distinguish between one or more types of materials (e.g., human tissue, water-based materials, etc.).
Abstract:
An enclosable lifting device support structure (102) includes a deployable top (202), a plurality of lateral sides (204), a base (200) coupled to the plurality of lateral sides, and a plurality of extension arms (304). The deployable top is configured to support a lifting device (118) on a first side of the deployable top. The plurality of extension arms are configured to extend and support the deployable top when the deployable top is deployed.
Abstract:
A method, performed by a tag device that is coupled to an electronic device, for initiating a function in the electronic device includes receiving a signal from an interrogator device. The method also includes determining from the signal to initiate a function in the electronic device, and signaling the electronic device to initiate the function.
Abstract:
The present subject matter relates to a battery module 22 for use in a vehicle 10. The battery module 22 may include a housing 50, a plurality of battery cells 54 disposed within the housing 50, and solid state pre-charge control circuitry 159 that pre-charges a direct current (DC) bus 160 that may be coupled between the battery module 22 and an electronic component 161 of the vehicle 10. Furthermore, the solid state pre-charge control circuitry 159 may include solid state electronic components as well as passive electronic components.
Abstract:
The present application discloses various methods of remanufacturing used battery modules and the corresponding remanufactured battery modules which include both new and used components. Remanufactured and used battery modules include a power assembly having a stack of battery cell assemblies wherein each battery cell assembly includes a plurality of layers including a battery cell and a frame supporting the battery cell within the power assembly.
Abstract:
A 12 volt automotive battery system 12 includes a first battery 30 coupled to an electrical system 66, in which the first battery 30 include a first battery chemistry, and a second battery 32 coupled in parallel with the first battery 30 and selectively coupled to the electrical system 66 via a first switch 288, in which the second battery 32 includes a second battery chemistry that has a higher coulombic efficiency than the first battery chemistry. The first switch 288 couples the second battery 32 to the electrical system 66 during regenerative braking to enable the second battery 32 to capture a majority of the power generated during regenerative braking. The 12 volt automotive battery system 12 further includes a variable voltage alternator 64 that outputs a first voltage during regenerative braking to charge the second battery 32 and a second voltage otherwise, in which the first voltage is higher than the second voltage.