mhurhangee/ep-ind-claims huggingface dataset:
A controller for controlling a heating, ventilating, and air-conditioning, HVAC, system arranged to condition an environment according to HVAC setpoints, comprising: at least one processor; and memory having instructions stored thereon that, when executed by the at least one processor, cause the controller to: accept target thermal states at predetermined locations in the conditioned environment, current thermal states at the predetermined locations in the conditioned environment, and current HVAC setpoints; determine, using a neural network trained to establish an invertible relationship between thermal states at the predetermined locations and HVAC setpoints causing the thermal states, target HVAC setpoints such that a difference in an operation of the HVAC system according to the target HVAC setpoints with respect to the operation of the HVAC system according to the current HVAC setpoints changes the thermal states in the predetermined locations in the conditioned environment from the current thermal state to the target thermal state; and produce and submit control commands to components of the HVAC system to operate according to the target HVAC setpoints; characterized in that the neural network has autoencoding architecture having an encoder and a decoder connected with a latent layer corresponding to the HVAC setpoints, such that the encoder forms a thermal setpoint model that connects the thermal states (130, 140) to the HVAC setpoints (150, 160) while the decoder forms a thermal sensor model that connects the HVAC setpoints (150, 160) with the thermal states (130, 140). accept target thermal states at predetermined locations in the conditioned environment, current thermal states at the predetermined locations in the conditioned environment, and current HVAC setpoints; determine, using a neural network trained to establish an invertible relationship between thermal states at the predetermined locations and HVAC setpoints causing the thermal states, target HVAC setpoints such that a difference in an operation of the HVAC system according to the target HVAC setpoints with respect to the operation of the HVAC system according to the current HVAC setpoints changes the thermal states in the predetermined locations in the conditioned environment from the current thermal state to the target thermal state; and produce and submit control commands to components of the HVAC system to operate according to the target HVAC setpoints; characterized in that the neural network has autoencoding architecture having an encoder and a decoder connected with a latent layer corresponding to the HVAC setpoints, such that the encoder forms a thermal setpoint model that connects the thermal states (130, 140) to the HVAC setpoints (150, 160) while the decoder forms a thermal sensor model that connects the HVAC setpoints (150, 160) with the thermal states (130, 140).
A method for simulating and determining an effective processing for agricultural surface, characterized in that a number of drive tracks of agricultural machines in a headland, a configuration of drive tracks of the agricultural machines in the headland, and a number of drive tracks of the agricultural machines in a main surface and a configuration of the drive tracks of the agricultural machines in the main surface are simulated and determined with respect to an optimum drive path length, a drive time, and a material consumption and resulting cost with respect to processing the agricultural surfaces, wherein an optimum drive track of an agricultural machine is simulated and determined as a function of plant condition, ground conditions and/or a degree of maturity of plants, fruits and/or storage of harvest products on the ground, wherein variables that are used for simulation, computation or determination are determined by sensors and automatically detected and stored, and/or a manual entry into the data processing system, and/or a resorting to information in the databases is performed.
A high intensity discharge lamp, comprising a ceramic discharge vessel having sealed first and second end plugs (34,35) and an external electrical antenna, wherein a. the discharge vessel encloses a discharge volume, comprises first and second electrodes (4,5), and contains a filling; b. the end plugs (34,35) enclose first and second current lead-through conductors (20,21), which current lead-through conductors (20,21) are in electrical contact with the electrodes (4,5), and which current lead-through conductors (20,21) comprise first and second metal portions (40,50) extending to the exterior of the ceramic discharge vessel through first and second end plug openings (134,135); c. the end plug openings (134,135) are sealed with first and second sealing glasses (10a,10b) enclosing at least part of the metal portions (40,50); d. the external electrical antenna extends over at least part of the external surface of the ceramic discharge vessel and over at least part of external surface of first end plug, characterized in that a first end of the electrical antenna is in physical contact with the first sealing glass, in that the shortest distance (L A-M) between the first end of the electrical antenna and the first metal portion is in the range of 0.1-5 mm, the values of less than 0.15 mm being excluded, and in that the electrical resistance of the first sealing glass between the first end of the electrical antenna and the first metal portion is < 100 kΩ. a. the discharge vessel encloses a discharge volume, comprises first and second electrodes (4,5), and contains a filling; b. the end plugs (34,35) enclose first and second current lead-through conductors (20,21), which current lead-through conductors (20,21) are in electrical contact with the electrodes (4,5), and which current lead-through conductors (20,21) comprise first and second metal portions (40,50) extending to the exterior of the ceramic discharge vessel through first and second end plug openings (134,135); c. the end plug openings (134,135) are sealed with first and second sealing glasses (10a,10b) enclosing at least part of the metal portions (40,50); d. the external electrical antenna extends over at least part of the external surface of the ceramic discharge vessel and over at least part of external surface of first end plug,
A method of testing a machine, the method comprising the following steps: determining a plurality of operating points for said machine, each operating point being defined by a minimum duration and a specific value of at least one operating parameter of the machine; calculating a set of distances between pairs of operating points; selecting an optimum sequence of operating points by applying an algorithm for solving the traveling salesman problem to said set of distances between pairs of operating points; and controlling the operation of said machine according to said optimum sequence of operating points; and the method being characterized in that, after the machine has reached at least one operating point, the method further comprises at least the following additional steps: modifying coefficients for increasing and/or decreasing said distances; calculating said set of distances once more with the modified coefficients; and updating said optimum sequence by applying said algorithm for solving the traveling salesman problem to said set of distances after they have been recalculated. determining a plurality of operating points for said machine, each operating point being defined by a minimum duration and a specific value of at least one operating parameter of the machine; calculating a set of distances between pairs of operating points; selecting an optimum sequence of operating points by applying an algorithm for solving the traveling salesman problem to said set of distances between pairs of operating points; and controlling the operation of said machine according to said optimum sequence of operating points; and the method being characterized in that, after the machine has reached at least one operating point, the method further comprises at least the following additional steps: modifying coefficients for increasing and/or decreasing said distances; calculating said set of distances once more with the modified coefficients; and updating said optimum sequence by applying said algorithm for solving the traveling salesman problem to said set of distances after they have been recalculated. modifying coefficients for increasing and/or decreasing said distances; calculating said set of distances once more with the modified coefficients; and updating said optimum sequence by applying said algorithm for solving the traveling salesman problem to said set of distances after they have been recalculated.
A device comprising: a plurality of computing devices (102, 102, 102(n)), wherein each computing device has respective clock gating logic that is configured to apply clock gating to a portion of the computing device; and a centralized di/dt manager that is configured to perform operations comprising: receiving, from the plurality of computing devices, respective clock gating requests to perform the clock gating, wherein each clock gating request specifies a respective clock gating value representing how much of the requesting computing device will be clock gated, computing, from the clock gating requests, a total clock gating value of the device, determining, from the total clock gating value, which of the clock gating requests from the plurality of computing devices to approve, such that a total approved clock gating is less than a clock gating threshold of the device, and providing, the each of the plurality of computing devices, responses to the respective clock gating requests, each response representing whether the clock gating request is approved. a plurality of computing devices (102, 102, 102(n)), wherein each computing device has respective clock gating logic that is configured to apply clock gating to a portion of the computing device; and a centralized di/dt manager that is configured to perform operations comprising: receiving, from the plurality of computing devices, respective clock gating requests to perform the clock gating, wherein each clock gating request specifies a respective clock gating value representing how much of the requesting computing device will be clock gated, computing, from the clock gating requests, a total clock gating value of the device, determining, from the total clock gating value, which of the clock gating requests from the plurality of computing devices to approve, such that a total approved clock gating is less than a clock gating threshold of the device, and providing, the each of the plurality of computing devices, responses to the respective clock gating requests, each response representing whether the clock gating request is approved. receiving, from the plurality of computing devices, respective clock gating requests to perform the clock gating, wherein each clock gating request specifies a respective clock gating value representing how much of the requesting computing device will be clock gated, computing, from the clock gating requests, a total clock gating value of the device, determining, from the total clock gating value, which of the clock gating requests from the plurality of computing devices to approve, such that a total approved clock gating is less than a clock gating threshold of the device, and providing, the each of the plurality of computing devices, responses to the respective clock gating requests, each response representing whether the clock gating request is approved.
Actuating unit for a movable part of the vehicle, in particular for a tailgate, with an actuating part attached to a housing part, at least two conductor elements which are arranged on the housing part, an elastically deformable contact element which cooperates with the conductor elements, a plunger arranged on the actuating part for deforming the contact element, characterized in that the actuating part and the housing part define an interior space which is completely isolated from the environment, wherein the actuating part is mounted pivotably about an axis which extends axially symmetrically with respect to the interior space, wherein a holding element is fastened to the housing part in such a way that the contact element is reliably held in its position, and wherein the housing part comprises a contour body to which the holding element is fastened, wherein the holding element has an aperture so that contacting of the contact element can be achieved by the plunger.
A kit for a dissection and access system comprising: a cannula assembly having a cannula housing and an access cannula; an obturator insertable into the access cannula; a dissector assembly (10; 110; 410) insertable into the access cannula, the dissector assembly having an elongate shaft (12; 112; 212; 412) having a distal tip (14; 114; 214); and at least one dissection balloon (20, 30) including an inflatable portion (22, 32) and a connector (50; 50a; 150; 120; 250) for releasable attachment to the distal tip of the elongate shaft; and a compressible seal (60; 160; 260) for placement between the distal tip of the elongate shaft and the connector. a cannula assembly having a cannula housing and an access cannula; an obturator insertable into the access cannula; a dissector assembly (10; 110; 410) insertable into the access cannula, the dissector assembly having an elongate shaft (12; 112; 212; 412) having a distal tip (14; 114; 214); and at least one dissection balloon (20, 30) including an inflatable portion (22, 32) and a connector (50; 50a; 150; 120; 250) for releasable attachment to the distal tip of the elongate shaft; and a compressible seal (60; 160; 260) for placement between the distal tip of the elongate shaft and the connector.
Shaving preparation with at least one oil phase, characterized in that the oil phase comprises noncrystalline, amorphous silicon dioxide SiO 2, which has not been produced by pyrogenic means, having a particle size of 2 to 30 μm, where the weight fraction of the silicon dioxide is 0.3 to 5% by weight, based on the total mass of the preparation.
A power transmission device, comprising: a power transmission antenna positioned to face a power reception antenna installed on a side surface of a cart stored in a storage position; a first rail forming a first groove that guides a first wheel, among a plurality of wheels for moving the cart, that is closest to the power transmission antenna when the cart approaches the storage position, and that causes a distance between the power reception antenna installed on the side surface of the cart and the power transmission antenna to be within a power transmittable range; and a second rail that guides a second wheel, among the plurality of wheels for moving the cart, that is different from the first wheel to the storage position; wherein, the second rail includes a second groove for guiding the second wheel to the storage position, and a width of the second groove is wider than a width of the first groove in accordance with a mounting accuracy of the first wheel and the second wheel to the cart, wherein, the power transmission device further comprises a wheel stopper at the leading end of the second groove formed by the second rail, the wheel stopper stopping the second wheel of the cart at the storage position. a power transmission antenna positioned to face a power reception antenna installed on a side surface of a cart stored in a storage position; a first rail forming a first groove that guides a first wheel, among a plurality of wheels for moving the cart, that is closest to the power transmission antenna when the cart approaches the storage position, and that causes a distance between the power reception antenna installed on the side surface of the cart and the power transmission antenna to be within a power transmittable range; and a second rail that guides a second wheel, among the plurality of wheels for moving the cart, that is different from the first wheel to the storage position; wherein, the second rail includes a second groove for guiding the second wheel to the storage position, and a width of the second groove is wider than a width of the first groove in accordance with a mounting accuracy of the first wheel and the second wheel to the cart, wherein, the power transmission device further comprises a wheel stopper at the leading end of the second groove formed by the second rail, the wheel stopper stopping the second wheel of the cart at the storage position.
A method of providing information in an augmented reality function of an electronic device, the method comprising: displaying (203, 803) a reality image including at least one object acquired in a view mode; analyzing (205, 805) an importance value of objects in the reality image; determining a classification of the reality image based on the at least one object; determining importance values of a plurality of pieces of virtual information according to the classification of the reality image, wherein the importance values of the plurality of pieces of virtual information include two or more levels; determining (207, 817) an amount of virtual information for each of the objects based on the importance value of the objects; mapping the virtual information onto each of the objects based on the amount of virtual information of each of the objects and the importance values of the virtual information; and displaying (209, 821) the mapped virtual information for each of the objects, wherein the amount of virtual information mapped to an object increases with an increased importance value of the object, and wherein the range of importance values of the virtual information mapped onto the object increases as the amount of virtual information mapped to the object increases. displaying (203, 803) a reality image including at least one object acquired in a view mode; analyzing (205, 805) an importance value of objects in the reality image; determining a classification of the reality image based on the at least one object; determining importance values of a plurality of pieces of virtual information according to the classification of the reality image, wherein the importance values of the plurality of pieces of virtual information include two or more levels; determining (207, 817) an amount of virtual information for each of the objects based on the importance value of the objects; mapping the virtual information onto each of the objects based on the amount of virtual information of each of the objects and the importance values of the virtual information; and displaying (209, 821) the mapped virtual information for each of the objects, wherein the amount of virtual information mapped to an object increases with an increased importance value of the object, and wherein the range of importance values of the virtual information mapped onto the object increases as the amount of virtual information mapped to the object increases.
A polynucleotide selected from the group consisting of: (a) a polynucleotide comprising a polynucleotide consisting of the nucleotide sequence of SEQ ID NO: 1 or SEQ ID NO: 3; (b) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4; (c) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4 in which one to 10 amino acids thereof are deleted, substituted, inserted and/or added, and having a glycogen synthesis initiation activity; and (d) a polynucleotide comprising a polynucleotide encoding a protein having an amino acid sequence having 90% or higher identity with the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4, and said protein having a glycogen synthesis initiation activity. (a) a polynucleotide comprising a polynucleotide consisting of the nucleotide sequence of SEQ ID NO: 1 or SEQ ID NO: 3; (b) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4; (c) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4 in which one to 10 amino acids thereof are deleted, substituted, inserted and/or added, and having a glycogen synthesis initiation activity; and (d) a polynucleotide comprising a polynucleotide encoding a protein having an amino acid sequence having 90% or higher identity with the amino acid sequence of SEQ ID NO: 2 or SEQ ID NO: 4, and said protein having a glycogen synthesis initiation activity.
A vision system, comprising: a robotic arm; a three-dimensional camera disposed on the robotic arm; a memory operable to store teat location information for a dairy livestock; and a processor operably coupled to the robotic arm the 3D camera and the memory, and configured to: acquire a 3D image using the 3D camera, wherein each pixel of the 3D image is associated with a depth value; identify a teat of the dairy livestock within the 3D image; characterized in that the processor is further configured to: determine a distance between a portion of the robotic arm and an approach vector for the teat, wherein the approach vector is a position or location where the robot arm can begin the process of attaching a teat cup to the teat; determine whether the distance between the portion of the robotic arm and the approach vector for the teat is less than an attachment range threshold value, wherein the attachment range threshold value indicates a maximum distance for attaching a teat cup to the teat; send instructions to the robotic arm to attach a teat cup to the teat when the distance between the portion of the robotic arm and the approach vector for the teat is less than the attachment range threshold value; and send instructions to the robotic arm to move toward the teat based on the teat location information when the distance between the portion of the robotic arm and the approach vector for the teat is greater than the attachment range threshold value. a robotic arm; a three-dimensional camera disposed on the robotic arm; a memory operable to store teat location information for a dairy livestock; and a processor operably coupled to the robotic arm the 3D camera and the memory, and configured to: acquire a 3D image using the 3D camera, wherein each pixel of the 3D image is associated with a depth value; identify a teat of the dairy livestock within the 3D image; acquire a 3D image using the 3D camera, wherein each pixel of the 3D image is associated with a depth value; identify a teat of the dairy livestock within the 3D image; determine a distance between a portion of the robotic arm and an approach vector for the teat, wherein the approach vector is a position or location where the robot arm can begin the process of attaching a teat cup to the teat; determine whether the distance between the portion of the robotic arm and the approach vector for the teat is less than an attachment range threshold value, wherein the attachment range threshold value indicates a maximum distance for attaching a teat cup to the teat; send instructions to the robotic arm to attach a teat cup to the teat when the distance between the portion of the robotic arm and the approach vector for the teat is less than the attachment range threshold value; and send instructions to the robotic arm to move toward the teat based on the teat location information when the distance between the portion of the robotic arm and the approach vector for the teat is greater than the attachment range threshold value.