mhurhangee/ep-ind-claims huggingface dataset:
A ground heat exchanger utilizing the thermal energy of the ground, located on a layer of air-permeable materials having good thermal conductivity, formed on the virgin soil, the layer being horizontal and/or slightly inclined relative to the horizontal, the ground exchanger comprising a delivery pipe conduit, air circulation channels mounted within the heat exchanger and a collecting channel, wherein the delivery pipe conduit is connected to an external air intake and the collecting channel is connected to the ventilation system of a building, the channels being confined from above by a support slab with spacer elements coupled to a construction net seated on a stabilizing net covering the layer of air-permeable materials, the heat exchanger being covered on top by an insulating layer.
An electric power tool comprising: a driving shaft that is rotated by a motor; an output shaft on which a front-end tool is attachable; and a torque transmission mechanism that transmits a torque produced by the rotation of the driving shaft to the output shaft, wherein the torque transmission mechanism includes a magnet coupling (20, 20a, 20b) including a driving magnet member (21, 31) coupled to a side of the driving shaft and a driven magnet member (22, 32) coupled to a side of the output shaft, the driving magnet member (21, 31) and the driven magnet member (22, 32) are provided such that respective magnetic surfaces (21c, 22c) face each other, S-poles and N-poles being alternately arranged on each of the magnetic surfaces, the magnet coupling (20, 20a, 20b) has a function of applying an intermittent rotary impact force to the output shaft by losing synchronization, and the driving magnet member (21, 31) is coupled to the driving shaft so as to be rotatable relative to the driving shaft. a driving shaft that is rotated by a motor; an output shaft on which a front-end tool is attachable; and a torque transmission mechanism that transmits a torque produced by the rotation of the driving shaft to the output shaft, wherein the torque transmission mechanism includes a magnet coupling (20, 20a, 20b) including a driving magnet member (21, 31) coupled to a side of the driving shaft and a driven magnet member (22, 32) coupled to a side of the output shaft, the driving magnet member (21, 31) and the driven magnet member (22, 32) are provided such that respective magnetic surfaces (21c, 22c) face each other, S-poles and N-poles being alternately arranged on each of the magnetic surfaces, the magnet coupling (20, 20a, 20b) has a function of applying an intermittent rotary impact force to the output shaft by losing synchronization, and the driving magnet member (21, 31) is coupled to the driving shaft so as to be rotatable relative to the driving shaft.
Manoeuvring aid for a vehicle, in particular a utility vehicle, comprising illumination means (14, 24) which are configured to at least partially illuminate at least an underlying surface under the vehicle and/or a vehicle bodywork, and comprising a control device which is configured to control the illumination means (14, 24) in order to activate and/or deactivate same, wherein the control device is configured to control the illumination means (14, 24) at least in dependence on a vehicle speed, characterized in that the control device activates the illumination means (14, 24) if the vehicle has a relatively low vehicle speed over a specific time period.
A substrate for surface-enhanced Raman scattering, comprising: a support layer; a plurality of metal nanoparticle clusters arranged on the support layer, each of the plurality of metal nanoparticle clusters comprising a plurality of conductive metal nanoparticles stacked in a three-dimensional structure; and a plurality of perforations formed by depositing the plurality of conductive metal nanoparticles on surfaces of a plurality of elements formed on the support layer and at least partially removing the plurality of the elements during a deposition operation of the metal nanoparticles and arranged among the plurality of metal nanoparticle clusters, wherein each of the plurality of perforations is configured such that incident light can be transmitted therethrough, wherein a mean diameter of the plurality of metal nanoparticles is 10 nm to 20 nm. a support layer; a plurality of metal nanoparticle clusters arranged on the support layer, each of the plurality of metal nanoparticle clusters comprising a plurality of conductive metal nanoparticles stacked in a three-dimensional structure; and a plurality of perforations formed by depositing the plurality of conductive metal nanoparticles on surfaces of a plurality of elements formed on the support layer and at least partially removing the plurality of the elements during a deposition operation of the metal nanoparticles and arranged among the plurality of metal nanoparticle clusters, wherein each of the plurality of perforations is configured such that incident light can be transmitted therethrough, wherein a mean diameter of the plurality of metal nanoparticles is 10 nm to 20 nm.
A method for initiating a recalibration of a physiological measurement, comprising: receiving a first electronic signal representative of a physiological process at a measurement device; calculating a skewness value based at least in part on the received first signal; characterized by generating an electronic recalibration signal based at least in part on a comparison of the first skewness value and at least one reference skewness value; and initiating a recalibration of the measurement device based at least in part on the comparison.
An assembly for extruding a rubber compound, the assembly comprising: a die, the die comprising a die opening with a cross-section comprising a first area with a gauge or height which is larger than the gauge or height in a remaining area of the cross-section; a flow channel upstream of the die opening and extending through the die, wherein the flow channel is configured for being connected to an extruder; and a deflector shaped as a positive obstacle and positioned in the flow channel upstream the die opening and in front of the first area of the cross-section of the die opening, the gauge or height of the deflector along its cross-section being smaller than the corresponding gauge or height of the first area of the cross-section of the die opening such that a flow of rubber compound is slowed down in front of the first area of the cross-section of the die opening; characterised in that the cross-sectional shape of the deflector mimics at a reduced size the shape of the first area of the die opening wherein the first area extends across the cross-section of the die opening from a first location with a maximum gauge or height to a second location which is distant from a location with a minimum gauge or height. a die, the die comprising a die opening with a cross-section comprising a first area with a gauge or height which is larger than the gauge or height in a remaining area of the cross-section; a flow channel upstream of the die opening and extending through the die, wherein the flow channel is configured for being connected to an extruder; and a deflector shaped as a positive obstacle and positioned in the flow channel upstream the die opening and in front of the first area of the cross-section of the die opening, the gauge or height of the deflector along its cross-section being smaller than the corresponding gauge or height of the first area of the cross-section of the die opening such that a flow of rubber compound is slowed down in front of the first area of the cross-section of the die opening; characterised in that the cross-sectional shape of the deflector mimics at a reduced size the shape of the first area of the die opening wherein the first area extends across the cross-section of the die opening from a first location with a maximum gauge or height to a second location which is distant from a location with a minimum gauge or height.
A system comprising: a first device; a second device; and a two-wire interface (112; 300) connecting the first device to the second device; wherein the system is configured to operate in a handshaking mode and a data transfer mode, wherein the handshaking mode is defined by a handshaking sequence of two or more signals that are exchanged between the first and second devices to initiate a command-response sequence to indicate that one of the first and second devices is ready to receive data or transmit data and, in the handshaking mode, the first device is configured to drive a first wire of the interface to transmit signals of the handshaking sequence and the second device is configured to drive a second wire of the interface to transmit signals of the handshaking sequence, and in the data transfer mode one of the first device and second device is configured to drive one of the first wire and the second wire to provide a clock signal, and either the first device or the second device is configured to drive the other wire to transmit data depending on which of the first device and the second device is transmitting data, wherein the system is configured to trigger a transition from operating in handshaking mode to operating in data transfer mode by the completion of the handshaking sequence. a first device; a second device; and a two-wire interface (112; 300) connecting the first device to the second device; wherein the system is configured to operate in a handshaking mode and a data transfer mode, wherein the handshaking mode is defined by a handshaking sequence of two or more signals that are exchanged between the first and second devices to initiate a command-response sequence to indicate that one of the first and second devices is ready to receive data or transmit data and, in the handshaking mode, the first device is configured to drive a first wire of the interface to transmit signals of the handshaking sequence and the second device is configured to drive a second wire of the interface to transmit signals of the handshaking sequence, and in the data transfer mode one of the first device and second device is configured to drive one of the first wire and the second wire to provide a clock signal, and either the first device or the second device is configured to drive the other wire to transmit data depending on which of the first device and the second device is transmitting data, wherein the system is configured to trigger a transition from operating in handshaking mode to operating in data transfer mode by the completion of the handshaking sequence.
An implant part which is provided for being introduced into a jaw bone, which is provided on its outside with an external thread and which has a receiving duct for a connection pin integrally formed on a second implant part, for the purpose of being mechanically connected to the associated second implant part, the cross-section of the receiving duct having, in an indexing region, in each case a number of primary directions in which the radius in each case adopts a relative maximum value and, thus, a higher value than in immediately adjacent orientations, characterized in that, viewed in longitudinal direction of the implant part, the radius of the outer cross-section of the implant part also adopts, at least partially, within a tolerance range of each of the primary directions, a relative maximum value and, thus, a higher value than in immediately adjacent orientations.
A method of surge protection for a dynamic compressor, comprising the steps of: continually calculating a surge parameter with a control system; continually calculating an operating parameter with the control system; defining with the control system a surge limit line based upon the calculated surge parameter on a compressor map; continually calculating a surge control parameter with the control system by dividing the calculated operating parameter by the calculated surge parameter; and actuating a surge valve based upon a distance, continually calculated by the control system, the calculated surge control parameter is from the surge limit line. continually calculating a surge parameter with a control system; continually calculating an operating parameter with the control system; defining with the control system a surge limit line based upon the calculated surge parameter on a compressor map; continually calculating a surge control parameter with the control system by dividing the calculated operating parameter by the calculated surge parameter; and actuating a surge valve based upon a distance, continually calculated by the control system, the calculated surge control parameter is from the surge limit line.
A method for automatically generating code to be executed on a target digital platform, comprising: receiving a graphical design image as a source image file; constructing an HTML canvas using a headless browser controller in a browser from the source image file; rendering the design image on the HTML canvas and reading pixels of the graphical design image by a design parser parsing an image object in the HTML canvas into individual pixel elements; the design parser creating a tile set comprising a group of individual pixel elements having a predefined set of rows and columns; automatically generating an arrangement of tiles as a tile map in a 2D array of tiles from the tile set; using a neural network to identify a feature pattern in the tile map, wherein the feature pattern is a pattern of the image associated with an element of the design; classifying the feature pattern in the tile map using a Softmax classifier; using the classified feature pattern to automatically generate code, wherein the code reproduces the feature pattern in the tile map on the target digital platform; and outputing test scaffolding files comprising test case scripts for testing the automatically generated code. receiving a graphical design image as a source image file; constructing an HTML canvas using a headless browser controller in a browser from the source image file; rendering the design image on the HTML canvas and reading pixels of the graphical design image by a design parser parsing an image object in the HTML canvas into individual pixel elements; the design parser creating a tile set comprising a group of individual pixel elements having a predefined set of rows and columns; automatically generating an arrangement of tiles as a tile map in a 2D array of tiles from the tile set; using a neural network to identify a feature pattern in the tile map, wherein the feature pattern is a pattern of the image associated with an element of the design; classifying the feature pattern in the tile map using a Softmax classifier; using the classified feature pattern to automatically generate code, wherein the code reproduces the feature pattern in the tile map on the target digital platform; and outputing test scaffolding files comprising test case scripts for testing the automatically generated code.
Premix comprising a) vemurafenib choline or vemurafenib as free form, and b) cationic copolymer based on methacrylates. a) vemurafenib choline or vemurafenib as free form, and b) cationic copolymer based on methacrylates.
A networked system, comprising: a sending system having a processor and a memory, first and second mobile terminals, each mobile terminal having a processor and a memory; and a communication network having a plurality of network resources that couples the sending system and the first and second mobile terminals, the first and second mobile terminals sharing a link in the communication network; and wherein the sending system is configured to send a first file segment to the first mobile terminal, the first file segment being a portion of a first data file being transmitted to the first mobile terminal, wherein the first mobile terminal is configured to determine first congestion information of the communication network based on a transfer of the first file segment, to determine a first transfer policy based on the first congestion information, and to communicate the first congestion information to the second mobile terminal, wherein the second mobile terminal is configured to adjust a bandwidth request to the sending system based on the first congestion information, wherein the first congestion information provides throughput data delivery measurements over one or more network segments or end-to-end link throughput performance measurements for combined network segments, or both, and wherein the first transfer policy provides a maximum permitted average delivery rate for the first mobile terminal based on the first congestion information determined by the first mobile terminal. a sending system having a processor and a memory, first and second mobile terminals, each mobile terminal having a processor and a memory; and a communication network having a plurality of network resources that couples the sending system and the first and second mobile terminals, the first and second mobile terminals sharing a link in the communication network; and wherein the sending system is configured to send a first file segment to the first mobile terminal, the first file segment being a portion of a first data file being transmitted to the first mobile terminal, wherein the first mobile terminal is configured to determine first congestion information of the communication network based on a transfer of the first file segment, to determine a first transfer policy based on the first congestion information, and to communicate the first congestion information to the second mobile terminal, wherein the second mobile terminal is configured to adjust a bandwidth request to the sending system based on the first congestion information, wherein the first congestion information provides throughput data delivery measurements over one or more network segments or end-to-end link throughput performance measurements for combined network segments, or both, and wherein the first transfer policy provides a maximum permitted average delivery rate for the first mobile terminal based on the first congestion information determined by the first mobile terminal.
A recovery system for an unmanned underwater vehicle, comprising: an elongate recovery container vertically oriented and sized to contain a UUV; a recovery cable coupled to the elongate recovery container, wherein the recovery cable is retractable into the elongate recovery container to capture and stow the UUV within the elongate recovery container; and a UUV, comprising: a forward looking sonar system configured to locate the recovery cable; a capture clip coupled to a nose portion of the UUV, wherein the capture clip is configured to be releasably secured to the recovery cable; and at least one ballast tank capable of trimming the UUV to a vertical orientation. an elongate recovery container vertically oriented and sized to contain a UUV; a recovery cable coupled to the elongate recovery container, wherein the recovery cable is retractable into the elongate recovery container to capture and stow the UUV within the elongate recovery container; and a UUV, comprising: a forward looking sonar system configured to locate the recovery cable; a capture clip coupled to a nose portion of the UUV, wherein the capture clip is configured to be releasably secured to the recovery cable; and at least one ballast tank capable of trimming the UUV to a vertical orientation. a forward looking sonar system configured to locate the recovery cable; a capture clip coupled to a nose portion of the UUV, wherein the capture clip is configured to be releasably secured to the recovery cable; and at least one ballast tank capable of trimming the UUV to a vertical orientation.
A stacked-chip image sensor, comprising: a semiconductor substrate having opposing first and second surfaces (15, 19); an array of image sensor pixels in the semiconductor substrate that are configured to receive image light through the first surface; and control circuitry coupled to the array of image sensor pixels by a plurality of vertical conductive interconnects that extend through the second surface, wherein the array of image sensor pixels comprises image sensor pixels arranged in pixel rows and pixel columns, characterised in that the plurality of vertical conductive interconnects includes a plurality of vertical row interconnects and wherein each pixel row is coupled to a selected one of the vertical row interconnects. a semiconductor substrate having opposing first and second surfaces (15, 19); an array of image sensor pixels in the semiconductor substrate that are configured to receive image light through the first surface; and control circuitry coupled to the array of image sensor pixels by a plurality of vertical conductive interconnects that extend through the second surface,
A device comprising: First, second and third elements (101, 102, 103) fabricated on a common substrate further comprising: a coating layer between the first and third elements (101, 103); wherein the first element comprises an active waveguide structure supporting a first optical mode, the second element comprises a passive waveguide structure supporting a second optical mode, and the third element, butt-coupled to the first element and coupled to the second element, comprises an intermediate waveguide structure supporting intermediate optical modes (152, 153, 154); wherein the first optical mode differs from the second optical mode, a tapered waveguide structure in at least one of the second and third elements (102, 103) performs adiabatic transformation between the second optical mode and one of the intermediate optical modes captured efficiently from the first element; and wherein mutual alignments of the first, second and third elements (101, 102, 103) are defined using lithographic alignment marks that facilitate precise alignment between layers formed during processing steps. wherein the first element comprises an active waveguide structure supporting a first optical mode, the second element comprises a passive waveguide structure supporting a second optical mode, and the third element, butt-coupled to the first element and coupled to the second element, comprises an intermediate waveguide structure supporting intermediate optical modes (152, 153, 154); wherein the first optical mode differs from the second optical mode, a tapered waveguide structure in at least one of the second and third elements (102, 103) performs adiabatic transformation between the second optical mode and one of the intermediate optical modes captured efficiently from the first element; and wherein mutual alignments of the first, second and third elements (101, 102, 103) are defined using lithographic alignment marks that facilitate precise alignment between layers formed during processing steps.