Abstract: For a bi-directional bus topology, a node connection includes two select line connections for a select line of a serial network. The select line is broken at the node connection. A bus direction module configures a first select line connection for an input line and a second select line connection for an output line in response to detecting a selection event. At least a portion of the bus direction module includes one or more of hardware and executable code, the executable code stored on a memory.

Abstract: For automatic device addressing, a processor configures each node device on a serial network for an order measurement. The processor further measures an order parameter for each of the node devices. The processor determines an order number of each of the node devices based on the order parameter for the node device.

Abstract: For a bi-directional bus topology, a node connection includes two select line connections for a select line of a serial network. The select line is broken at the node connection. A bus direction module configures a first select line connection for an input line and a second select line connection for an output line in response to detecting a selection event. At least a portion of the bus direction module includes one or more of hardware and executable code, the executable code stored on a memory.

Abstract: A torch for use by a robot. The torch has a body that can be connected to an arm of the robot. A first actuator on the body can be activated by a user to initiate a recording cycle at a starting point of a desired welding or cutting path and to terminate the recording cycle at an ending point of the path. A second actuator on the body can be activated by the user to indicate way points from the starting point to the ending point as the user moves the torch along the path. The first actuator sends first information to a robot controller, operatively connected to and located remotely from the robot, to initiate and to terminate the recording cycle at the controller. The second actuator device sends the way points as second information to the controller to be recorded at the controller during the recording cycle.

Abstract: A sampler is presented for a sample of a scented, waxy candle material. The scented, waxy material is melted and may be diluted with compatible additives and/or liquid (organic oil or hydrocarbon), before being layered to a face of a bottom layer. A top layer (3) is applied directly over the sample and can be adhered to the bottom layer to form a seal. In another embodiment a peripheral seal, is formed between the top and the bottom layers. The seal is separable by a user pulling on a tab a portion of the top layer to expose the face of the sample to the atmosphere allowing the volatile molecules present in the candle to be released. With a repositionable glue as a seal, the top layer can be replaced to prevent further release of volatile molecules. A method is also shown for making the sample.

Abstract: For a bi-directional bus topology, a node connection includes two select line connections for a select line of a serial network. The select line is broken at the node connection. A bus direction module configures a first select line connection for an input line and a second select line connection for an output line in response to detecting a selection event. At least a portion of the bus direction module includes one or more of hardware and executable code, the executable code stored on a memory.

Abstract: For a bi-directional bus topology, a node connection includes two select line connections for a select line of a serial network. The select line is broken at the node connection. A bus direction module configures a first select line connection for an input line and a second select line connection for an output line in response to detecting a selection event. At least a portion of the bus direction module includes one or more of hardware and executable code, the executable code stored on a memory.

Abstract: For automatic device addressing, a processor configures each node device on a serial network for an order measurement. The processor further measures an order parameter for each of the node devices. The processor determines an order number of each of the node devices based on the order parameter for the node device.

Abstract: A valve includes a valve body, a sleeve within the valve body and a rotatable valve element that has one portion within the sleeve to control flow of media through the valve and another portion extending from the valve body and coupled to an actuator that rotates the valve element. The valve element is rotatable to a first position to flow media to one port and to a second position to flow media to another port. The sleeve has a pair of side openings. Each side opening has an angled perimetrical edge and is aligned with a corresponding port member. A half dovetail shaped groove is formed by the angled perimetrical edge of each side opening, the corresponding port and the valve body. A seal is lodged within each groove to form a seal that exhibits reduced unswept volume and which wipes debris off the valve element as it rotates.

Abstract: A multidrop cable may include multiple nodes electrically coupled thereon. The nodes may each include a respective PCB layer and a respective connector. The connector may provide connection between the transmission lines of the multidrop cable and the PCB layer. The PCB layer may include circuitry to reduce an induced noise of the multidrop cable by adding twist to the respective signals of the transmission lines. The PCB layer may also preserve the characteristic impedance of the multidrop cable by providing inductance in series between the respective signals of the transmission lines.

Abstract: Embodiments of the present invention disclose a method, a computer program product, and a computer system for predictive maintenance of refrigeration cases. A computer collects a temperature time series for a refrigeration case and, based on the temperature time series, learns a refrigeration case signature for both non-frost and defrost cycles. The computer generates features based on the refrigeration case signature and compares the refrigeration case signature to real time, or observed, temperatures and features using a rule-based and/or machine learning framework. Based on determining that the real time data varies beyond a threshold from the refrigeration case signature, the computer identifies a failure symptom of the refrigeration case and diagnoses a root cause of the symptom or failure. In addition, the computer may activate an alarm and open a work order corresponding to the root cause of the symptom or failure.

Abstract: Embodiments of the present invention disclose a method, a computer program product, and a computer system for predictive maintenance of refrigeration cases. A computer collects a temperature time series for a refrigeration case and, based on the temperature time series, learns a refrigeration case signature for both non-frost and defrost cycles. The computer generates features based on the refrigeration case signature and compares the refrigeration case signature to real time, or observed, temperatures and features using a rule-based and/or machine learning framework. Based on determining that the real time data varies beyond a threshold from the refrigeration case signature, the computer identifies a failure symptom of the refrigeration case and diagnoses a root cause of the symptom or failure. In addition, the computer may activate an alarm and open a work order corresponding to the root cause of the symptom or failure.

Abstract: Embodiments of the present invention disclose a method, a computer program product, and a computer system for predictive maintenance of refrigeration cases. A computer collects a temperature time series for a refrigeration case and, based on the temperature time series, learns a refrigeration case signature for both non-frost and defrost cycles. The computer generates features based on the refrigeration case signature and compares the refrigeration case signature to real time, or observed, temperatures and features using a rule-based and/or machine learning framework. Based on determining that the real time data varies beyond a threshold from the refrigeration case signature, the computer identifies a failure symptom of the refrigeration case and diagnoses a root cause of the symptom or failure. In addition, the computer may activate an alarm and open a work order corresponding to the root cause of the symptom or failure.

Abstract: Embodiments of the present invention disclose a method, a computer program product, and a computer system for predictive maintenance of refrigeration cases. A computer collects a temperature time series for a refrigeration case and, based on the temperature time series, learns a refrigeration case signature for both non-frost and defrost cycles. The computer generates features based on the refrigeration case signature and compares the refrigeration case signature to real time, or observed, temperatures and features using a rule-based and/or machine learning framework. Based on determining that the real time data varies beyond a threshold from the refrigeration case signature, the computer identifies a failure symptom of the refrigeration case and diagnoses a root cause of the symptom or failure. In addition, the computer may activate an alarm and open a work order corresponding to the root cause of the symptom or failure.

Abstract: An apparatus tracks medical items through various transition points in a medical facility and maintains a chain of custody for each item through each transition point, indicating who is responsible for each item at any particular time. The apparatus also generates messages directed to various medical facility personnel who are responsible for the medical items at the various transition points, which messages prompt the personnel to take appropriate action with regard to the medical items depending on the particular transition point.

Abstract: An apparatus senses and records consumption of medical items during performance of a medical procedure. The medical items are enclosed in wrappers having RFID tags in which medical item information is encoded. The apparatus includes a shielded enclosure that attenuates radio frequency signals emanated from RFID tags disposed outside the shielded enclosure to levels that are substantially undetectable within the internal space. RFID antennas inside the shielded enclosure receive radio frequency signals emanated from RFID tags on wrappers that are removed from used items and placed inside the enclosure. An RFID reader decodes the medical item information encoded in the RFID tags. A computer processor executes a medical item inventory module including instructions for generating a post-op list of medical items consumed during the medical procedure. Item billing information and usage trend information may be derived from the post-op list.

Abstract: A shielded enclosure receives REID-tagged packaging from consumed medical items. The enclosure includes a housing and a lid. An opening in the lid receives the packaging into an internal space. A chute surrounds the opening and extends downward into the internal space. The chute has front, left, right, and rear walls. A hood attached to the lid surrounds the opening. An aperture in the hood allows passage of the packaging into the lid opening. The hood includes rear, right, left, and top walls. RF absorbing material covers inside surfaces of the chute and hood, including a front panel on the chute front wall, a rear panel on the hood rear wall and the chute rear wall, a left side panel on the hood left side wall and the chute left side wall, a right side panel on the hood right side wall and the chute right side wall, and a top panel on the hood top.

Abstract: A wall panel system for attachment to a building surface includes a plurality of generally vertical supports, and a plurality of generally horizontal mounting rails interconnected with the vertical supports to define a panel mounting gridwork. The horizontal mounting rails have an upper mounting feature and a lower mounting feature, on a side opposite from the building surface. A plurality of panels each have a rear surface, an upper extrusion mounted to a top of the rear surface, and a lower extrusion mounted to a bottom of the rear surface. The upper extrusion mates with a corresponding lower mounting feature on the gridwork, and the lower extrusion mates with a corresponding upper mounting feature on the gridwork. The plurality of panels have a gap about a periphery thereof relative to any adjacent panels, whereby the panels can be non-sequentially mounted to the gridwork.

Abstract: A shielded enclosure receives REID-tagged packaging from consumed medical items. The enclosure includes a housing and a lid. An opening in the lid receives the packaging into an internal space. A chute surrounds the opening and extends downward into the internal space. The chute has front, left, right, and rear walls. A hood attached to the lid surrounds the opening. An aperture in the hood allows passage of the packaging into the lid opening. The hood includes rear, right, left, and top walls. RF absorbing material covers inside surfaces of the chute and hood, including a front panel on the chute front wall, a rear panel on the hood rear wall and the chute rear wall, a left side panel on the hood left side wall and the chute left side wall, a right side panel on the hood right side wall and the chute right side wall, and a top panel on the hood top.

Abstract: GPCR-fusion partner proteins comprising G protein coupled receptors (GPCRs) of GPCRs and fusion partners such as rubredoxin, cytochrome b562 RIL (Bril, bRIL, BRIL), T4 lysozyme C-terminal fragment (C-term-T4L), flavodoxin, or xylanase either substituted for some or all of the third intracellular loop of the GPCR between the fifth and sixth helix of the GPCR are described or attached to an terminus or C terminus of the GPCR. GPCR-fusion partner proteins in crystalline form, optionally of a quality suitable for x-ray crystallographic structure determination of the GPCR, are described. Methods of using fusion partners in GPCR-fusion partner proteins to support crystallization of GPCR-fusion partner proteins for x-ray crystallographic structure determination of the GPCR, are described. Methods of identifying other suitable fusion partners through screening of protein data banks are also described.