Haseltine Lake Kempner LLP

Embodiments of the disclosure provide for providing required and predicted deceleration for vehicle halting operations. In the context of a method, the method includes receiving location information for a stopping point for a vehicle. The method further includes determining a travel speed and a location of the vehicle and determining a current deceleration performance based on (i) the travel speed, (ii) the location, and (iii) vehicle deceleration capabilities of the vehicle. The method further includes predicting a required deceleration performance associated with stopping the vehicle at the intended stopping point. The method further includes generating display elements comprising (i) a first display element indicating the required deceleration performance, (ii) a second display element indicating the current deceleration performance, and (iii) a third display element indicating the vehicle deceleration capabilities relative to the required deceleration performance. The method further includes causing display of the display elements via an operator interface.

An apparatus comprising a sealing plate comprising one or more projection apertures, wherein the sealing plate is mounted on a housing component; a sealing gasket configured between the sealing plate and the housing component, wherein the sealing gasket comprises one or more projections that are provided through the one or more projection apertures; and a sensor printed circuit board (PCB) comprising one or more sensor conduit structures, wherein the one or more sensor conduit structures are inserted through the one or more projections.

Methods, video cameras, systems, and stored instruction sets for video cameras and systems. A video camera captures a raw video stream. The camera or a separate device processes the raw video stream to produce a first processed video stream, including applying a first video analytics algorithm resulting in the first processed video stream having first video analytics algorithm results. The camera or the separate device also processes the raw video stream to produce a second processed video stream, including applying a second video analytics algorithm resulting in the second processed video stream having second video analytics algorithm results, wherein the second video analytics algorithm is different from the first video analytics algorithm. The first stream and first results are provided to a first user and not a second user, while the second stream and second results are provided to a second user and not the first user.

The present disclosure relates to a reversible vapour-compression refrigeration system 110 for a multi-compartment refrigeration unit. The refrigeration system 110 comprises: a refrigeration circuit 400 including a compressor 402, an outdoor heat exchanger section 500, a first indoor heat exchanger section 600A for a first compartment 24A and a second indoor heat exchanger section 600B for a second compartment 24B; and a controller 409 configured to operate the refrigeration circuit 400 in a cooling circuit direction 202 and a heating circuit direction.

A smoke detection system using a laser beam spectral pattern is described herein. A smoke detection system includes a laser beam emitter to emit a laser beam, a plurality of reflectors to reflect the laser beam through a monitored area, and a detector configured to receive the reflected laser beam and detect a spectral pattern of the reflected laser beam. The smoke detection system further includes a controller coupled to the detector, wherein the controller is configured to determine whether the spectral pattern of the reflected laser beam indicates that smoke is present in the monitored area and generate an alarm responsive to determining the spectral pattern of the reflected laser beam indicates smoke is present in the monitored area.

A fiducial frame comprising an attachment mechanism for attachment to a stereotactic frame. The fiducial frame further comprises fiducial imaging markers for aligning medical images to a frame of reference of the fiducial frame, and fiducial structures for coupling to a robotic surgical tool. Each fiducial structure comprises one of: a socket for receiving a convex locating structure of the robotic surgical tool; or a spherical protrusion for receiving a concave locating structure of the robotic surgical tool.

A computer implemented method for training a graph neural network, GNN, to classify a medical condition of samples using a biological dataset, comprising loading the biological dataset, the biological dataset comprising samples and the samples comprising features and a classification of the medical condition, extracting relationships between the features from a knowledge base, constructing, for the samples, graphs comprising nodes and edges between the nodes, wherein the nodes correspond to the features and the edges correspond to the relationships; and training the GNN with the graphs to provide the classification of the medical condition for the samples.

A method for fabricating microtargets for sensor calibration and testing is provided. The method includes: determining size, shape, curvature and locations for the microtargets; forming a layer of photoresist on a surface of a wafer; forming a mask having a plurality of openings with size, shape, and locations corresponding to the microtargets; heating the wafer and the layer of photoresist; exposing the layer of photoresist through the mask; removing photoresist in the layer of photoresist that was exposed outside the locations of the microtargets; and heating the wafer with a temperature and duration to solidify the microtargets.

Systems, apparatuses, methods, and computer program products are provided herein. A conveyor system comprises a central pathway configured to move items through the conveyor system along a direction of movement, a set of cartridges arranged sequentially in the central pathway, one or more diversion pathways coupled to the central pathway, and a controller configured to perform operations comprising generating tracking data representative of position information associated with items, determining based on item diversion data that an item should be diverted to a diversion pathway, and performing an actuation operation comprising rotating wheels of the cartridges in a first direction.

An antenna module (100, 100a, 100b, 100c) includes a substrate (110, 110c), two antenna units (120), a first microstrip (130) and a second microstrip (140). The substrate (110, 110c) includes a first surface (112) and a second surface (114) opposite to each other. The two antenna units (120) are arranged at an interval, have the same polarization, and resonate at a frequency band. Each antenna unit (120) includes a first radiator (122) and a second radiator (124). The first radiator (122) is disposed on the first surface (112), and the second radiator (124) is disposed on the second surface (114). The first microstrip (130) is connected between the two first radiators (122). The second microstrip (140) is connected between the two second radiators (124), a length of each of the first microstrip (130) and the second microstrip (140) is 1/2 times a wavelength of the frequency band.