mhurhangee/ep-ind-claims huggingface dataset:
Spark gap arrangement having - a hollow body which is made of insulating material and which encompasses the main axis of the spark gap, - two electrodes which are arranged on the face-side regions of the hollow body, so that a discharge space is defined in the interior of the chamber thus formed, wherein a depression is provided in the inner wall of the hollow body, so that the chamber projects radially outwardly over the inner wall of the hollow body on only one face side, characterized in that the ratio between the main distance (d) between the electrodes and the distance between the inner wall of the hollow body and the electrode region projecting into the interior of the chamber is between 0.75 and 1. - a hollow body which is made of insulating material and which encompasses the main axis of the spark gap, - two electrodes which are arranged on the face-side regions of the hollow body, so that a discharge space is defined in the interior of the chamber thus formed,
A system on an integrated circuit, comprising: a cable tuner integrated on a substrate; a Multimedia Over Coax Alliance (MoCA) subsystem integrated on the substrate; a video/audio subsystem integrated on the substrate, wherein the MoCA subsystem and the video/audio subsystem are coupled to a system bus; a Data Over Cable Service Interface Specification (DOCSIS) subsystem integrated on the substrate; a memory interface shared by the DOCSIS subsystem and the video/audio subsystem; a flash controller coupled to the memory interface; a host Microprocessor without Interlocked Pipeline Stages (MIPS) architecture; a secure processor coupled between the system bus and the flash controller, wherein only the secure processor and the host MIPS directly access the flash controller and a flash memory through the memory interface to restrict access to the flash memory; a bridge coupled between the DOCSIS subsystem and the system bus and further coupled to the host MIPS; wherein the cable tuner and the MoCA subsystem are configured to communicate with a network over a shared coaxial cable; wherein the DOCSIS subsystem is configured to: access the system bus through the bridge, and access the flash controller through the bridge and via the host MIPS before the DOCSIS subsystem can access the flash memory to prevent direct access of the DOCSIS subsystem to the flash memory via the shared memory interface. a cable tuner integrated on a substrate; a Multimedia Over Coax Alliance (MoCA) subsystem integrated on the substrate; a video/audio subsystem integrated on the substrate, wherein the MoCA subsystem and the video/audio subsystem are coupled to a system bus; a Data Over Cable Service Interface Specification (DOCSIS) subsystem integrated on the substrate; a memory interface shared by the DOCSIS subsystem and the video/audio subsystem; a flash controller coupled to the memory interface; a host Microprocessor without Interlocked Pipeline Stages (MIPS) architecture; a secure processor coupled between the system bus and the flash controller, wherein only the secure processor and the host MIPS directly access the flash controller and a flash memory through the memory interface to restrict access to the flash memory; a bridge coupled between the DOCSIS subsystem and the system bus and further coupled to the host MIPS; wherein the cable tuner and the MoCA subsystem are configured to communicate with a network over a shared coaxial cable; wherein the DOCSIS subsystem is configured to: access the system bus through the bridge, and access the flash controller through the bridge and via the host MIPS before the DOCSIS subsystem can access the flash memory to prevent direct access of the DOCSIS subsystem to the flash memory via the shared memory interface. access the system bus through the bridge, and access the flash controller through the bridge and via the host MIPS before the DOCSIS subsystem can access the flash memory to prevent direct access of the DOCSIS subsystem to the flash memory via the shared memory interface.
A method of wireless communications, comprising: randomly choosing an array of source symbols, wherein the array has one or more scalable dimensions based on at least one of a capacity requirement or a coverage requirement of a random access channel (RACH); encoding the array of source symbols into a codeword for a RACH signature; mapping the codeword to a serial concatenation of orthogonal or quasi-orthogonal sequences to define the RACH signature; and transmitting the RACH signature within a RACH slot. randomly choosing an array of source symbols, wherein the array has one or more scalable dimensions based on at least one of a capacity requirement or a coverage requirement of a random access channel (RACH); encoding the array of source symbols into a codeword for a RACH signature; mapping the codeword to a serial concatenation of orthogonal or quasi-orthogonal sequences to define the RACH signature; and transmitting the RACH signature within a RACH slot.
Arrangement for training the gait, comprising: an endless belt guided over at least two rollers and serving as a treadmill, the one surface of which serves as a walking surface (2c; 2c'), a sensor system for determining a pressure/force distribution on a force measurement plate (3, 3') located underneath the walking surface, which is provided with a plurality of pressure/force sensors on the side facing the endless belt, an analyzing unit connected, on the input side, to the pressure/force sensors, which detects pressure distributions generated by a walking or running subject on the walking surface, a processing unit (51 - 53) connected, on the input side, to the analyzing unit, which generates from the pressure distributions values or signals, respectively, that characterize the gait of the subject, optical display means (7; 7') for displaying images in the area of the walking surface, which are connected to image signal generating means (41 - 45) and a display process controller for the generation and the position control in terms of time and space of images or image elements, and a synchronization and adaptation stage for synchronizing and adapting the processing of the pressure distribution images with/to the image representation in the area of the walking surface, wherein the display means are provided with an image projector for the projection of images onto the walking surface of the treadmill or wherein the endless belt is formed of a transparent material at least in essential sections and an image display surface is provided underneath its, in the usage position, upper section. an endless belt guided over at least two rollers and serving as a treadmill, the one surface of which serves as a walking surface (2c; 2c'), a sensor system for determining a pressure/force distribution on a force measurement plate (3, 3') located underneath the walking surface, which is provided with a plurality of pressure/force sensors on the side facing the endless belt, an analyzing unit connected, on the input side, to the pressure/force sensors, which detects pressure distributions generated by a walking or running subject on the walking surface, a processing unit (51 - 53) connected, on the input side, to the analyzing unit, which generates from the pressure distributions values or signals, respectively, that characterize the gait of the subject, optical display means (7; 7') for displaying images in the area of the walking surface, which are connected to image signal generating means (41 - 45) and a display process controller for the generation and the position control in terms of time and space of images or image elements, and a synchronization and adaptation stage for synchronizing and adapting the processing of the pressure distribution images with/to the image representation in the area of the walking surface,
A method for making a balloon having differential wall thickness comprising the steps of: placing a raw tube having a lumen in an asymmetrical mold, said mold having an opening on each end through which the tube protrudes; holding said tube tightly on each end of said mold, the method being characterized in preheating said mold and tube to a temperature between 50 and 120 °C; stretching said tube about 50 to 200 percent over a time period of between 5 and 60 seconds with pressure applied internally with air, nitrogen or another inert gas at about 0.5 bar, while the temperature is maintained; pressurizing said tube with pressure applied internally with air, nitrogen or another inert gas at a pressure between about 0.5 and 2 bar while allowing said tube to retract lengthwise by 10 to 50 percent over a time period of between 5 and 15 seconds, to form a balloon. placing a raw tube having a lumen in an asymmetrical mold, said mold having an opening on each end through which the tube protrudes; holding said tube tightly on each end of said mold, the method being characterized in preheating said mold and tube to a temperature between 50 and 120 °C; stretching said tube about 50 to 200 percent over a time period of between 5 and 60 seconds with pressure applied internally with air, nitrogen or another inert gas at about 0.5 bar, while the temperature is maintained; pressurizing said tube with pressure applied internally with air, nitrogen or another inert gas at a pressure between about 0.5 and 2 bar while allowing said tube to retract lengthwise by 10 to 50 percent over a time period of between 5 and 15 seconds, to form a balloon.
A beam allocation method of a Base Station, BS, in a wireless communication system, the method comprising: transmitting a reference signal to a Mobile Station, MS, using a plurality of downlink transmit, Tx, beams; receiving information of a plurality of candidate downlink Tx beams determined by the MS in response to the reception of the reference signal; receiving indication information, which indicates one or more optimal downlink receive, Rx, beams of the MS corresponding to the plurality of candidate downlink Tx beams, concurrently with the information of the plurality of candidate downlink Tx beams; selecting at least one downlink Tx beam from the plurality of candidate downlink Tx beams according to a predefined rule; generating control information for burst transmission, comprising information for the selected at least one downlink Tx beam; transmitting the control information to the MS using the selected at least one downlink Tx beam; and transmitting a data burst based on Tx beam information included in the control information; wherein the indication information comprises information indicating downlink Rx beams corresponding to the plurality of candidate downlink Tx beams; wherein the indication information is in a bitmap format comprising bits corresponding to the plurality of candidate downlink Tx beams, wherein each bit comprises information indicating whether an Rx beam corresponding to a respective candidate downlink Tx beam is an optimal downlink Rx beam. transmitting a reference signal to a Mobile Station, MS, using a plurality of downlink transmit, Tx, beams; receiving information of a plurality of candidate downlink Tx beams determined by the MS in response to the reception of the reference signal; receiving indication information, which indicates one or more optimal downlink receive, Rx, beams of the MS corresponding to the plurality of candidate downlink Tx beams, concurrently with the information of the plurality of candidate downlink Tx beams; selecting at least one downlink Tx beam from the plurality of candidate downlink Tx beams according to a predefined rule; generating control information for burst transmission, comprising information for the selected at least one downlink Tx beam; transmitting the control information to the MS using the selected at least one downlink Tx beam; and transmitting a data burst based on Tx beam information included in the control information; wherein the indication information comprises information indicating downlink Rx beams corresponding to the plurality of candidate downlink Tx beams; wherein the indication information is in a bitmap format comprising bits corresponding to the plurality of candidate downlink Tx beams, wherein each bit comprises information indicating whether an Rx beam corresponding to a respective candidate downlink Tx beam is an optimal downlink Rx beam.
A plasma arc torch for use in a plasma torch heated furnace, comprising: a tubular rear housing section; a cylindrical rear electrode mounted coaxially within the tubular rear housing, said cylindrical rear electrode having a closed proximal end and an open distal end; an annular vortex generator member disposed adjacent the distal end of the rear electrode; a collimating nozzle with a distal face surface and an inner exit bore therethrough, the collimating nozzle releasably coupled to the tubular rear housing section in coaxial alignment with said rear electrode and the vortex generator member; and characterised by an anti-corrosive cladding layer on the distal face surface of the collimating nozzle, the cladding layer being a metal alloy of thickness in a range of from 1 to 10 mm and being an anti-corrosive alloy. a tubular rear housing section; a cylindrical rear electrode mounted coaxially within the tubular rear housing, said cylindrical rear electrode having a closed proximal end and an open distal end; an annular vortex generator member disposed adjacent the distal end of the rear electrode; a collimating nozzle with a distal face surface and an inner exit bore therethrough, the collimating nozzle releasably coupled to the tubular rear housing section in coaxial alignment with said rear electrode and the vortex generator member; and characterised by an anti-corrosive cladding layer on the distal face surface of the collimating nozzle, the cladding layer being a metal alloy of thickness in a range of from 1 to 10 mm and being an anti-corrosive alloy.
A machine for winding comprising a winder for winding a wire onto a coil support portion of a dynamo-electric core, the winder having a central longitudinal axis, the winder comprising: - a plurality of needles for dispensing wires; - a first assembly, the first assembly comprising a winding shaft, the plurality of needles being constrained to move translationally with the shaft, the first assembly being for producing translational movement (913,914) of the shaft along the axis; - a second assembly for producing rotational movement (915,916) of the plurality of needles about the axis; and - a third assembly (927,960,1021,1023, 1028) comprising a drive member movably coupled to the winding shaft, wherein relative rotation between the drive member and the winding shaft produces radial stratification movement of the plurality of needles, wherein the operation of the third assembly produces radial stratification movement independently of rotational movement of the second assembly, a motor for producing the relative rotation between the drive member and the winding shaft and a computer, the motor being connected to the computer and an appropriate drive to accomplish the radial stratification motion in a predetermined time relation or position relation with respect to the translational movements and rotation movements accomplished by the winding shaft, wherein the machine is programmable to achieve the radial stratification movement in a variable and predetermined manner. - a plurality of needles for dispensing wires; - a first assembly, the first assembly comprising a winding shaft, the plurality of needles being constrained to move translationally with the shaft, the first assembly being for producing translational movement (913,914) of the shaft along the axis; - a second assembly for producing rotational movement (915,916) of the plurality of needles about the axis; and - a third assembly (927,960,1021,1023, 1028) comprising a drive member movably coupled to the winding shaft, wherein relative rotation between the drive member and the winding shaft produces radial stratification movement of the plurality of needles, wherein the operation of the third assembly produces radial stratification movement independently of rotational movement of the second assembly,
Ground compacting device (10, 100) comprising: - an upper mass (12, 112); - a lower mass (14, 114) having a ground contact plate (18, 118), the lower mass (14, 114) being coupled so as to be movable relative to the upper mass (12, 112); - a holding device (20, 120) for holding the ground compacting device (10, 100), which is arranged so as to be movable relative to the upper mass (12, 112); - a vibration decoupling device (22, 122, 24, 124) arranged between the upper mass (12, 112) and the holding device (20, 120), the vibration decoupling device (22, 122, 24, 124) comprising - a guide device (24, 124) for guiding the movement of the holding device (20, 120) relative to the upper mass (12, 112), which is configured such that the holding device (20, 120) is capable of being displaced in parallel relative to the upper mass (12, 112), and - a spring device (22, 122). - an upper mass (12, 112); - a lower mass (14, 114) having a ground contact plate (18, 118), the lower mass (14, 114) being coupled so as to be movable relative to the upper mass (12, 112); - a holding device (20, 120) for holding the ground compacting device (10, 100), which is arranged so as to be movable relative to the upper mass (12, 112); - a vibration decoupling device (22, 122, 24, 124) arranged between the upper mass (12, 112) and the holding device (20, 120), the vibration decoupling device (22, 122, 24, 124) comprising - a guide device (24, 124) for guiding the movement of the holding device (20, 120) relative to the upper mass (12, 112), which is configured such that the holding device (20, 120) is capable of being displaced in parallel relative to the upper mass (12, 112), and - a spring device (22, 122).
A knee replacement prosthesis having anterior, posterior, lateral, medial, distal and proximal sides and sagittal, coronal and transverse planes, comprising: a) a femoral component that connects to the distal end of a resected femur, said femoral component including medial and lateral condyles (22, 24) having distal, articulating surfaces with a toroidal anterior surface (34, 36) and a toroidal posterior surface (38, 40) with major and minor axes of rotation, and a patellar flange having an articulating patellar surface; and, b) a tibial component that connects to the proximal end of a resected tibia, said tibial component including proximal medial and lateral bearing surfaces that articulate with said medial and lateral condyles (22, 24), respectively, wherein said prosthesis enables anterior-posterior translation of the femur relative to the tibia and enables the tibia to rotate about its longitudinal axis during flexion of the knee, characterized in that said bearing surfaces have a concave toroidal anterior surface (76, 78) and a concave toroidal posterior surface (80, 82) with major radii of curvature that are oriented in different planes. a) a femoral component that connects to the distal end of a resected femur, said femoral component including medial and lateral condyles (22, 24) having distal, articulating surfaces with a toroidal anterior surface (34, 36) and a toroidal posterior surface (38, 40) with major and minor axes of rotation, and a patellar flange having an articulating patellar surface; and, b) a tibial component that connects to the proximal end of a resected tibia, said tibial component including proximal medial and lateral bearing surfaces that articulate with said medial and lateral condyles (22, 24), respectively, wherein said prosthesis enables anterior-posterior translation of the femur relative to the tibia and enables the tibia to rotate about its longitudinal axis during flexion of the knee, characterized in that said bearing surfaces have a concave toroidal anterior surface (76, 78) and a concave toroidal posterior surface (80, 82) with major radii of curvature that are oriented in different planes.
A method for transforming speech data input signals obtained from a sensor, comprising the steps of: defining a model for transforming the input signals, wherein the model is specified by constraints and a set of model parameters; defining an iterative inference procedure derived from the model and the set of model parameters; unfolding the iterative inference procedure into a set of layers, wherein there is one layer for each iteration of the procedure, and wherein a same set of network parameters is used by all layers; forming a neural network by untying the set of network parameters such that there is one set of network parameters for each layer and each set of network parameters is separately maintainable and separately applicable to the corresponding layer; discriminatively training the neural network using gradient-based methods to obtain a trained neural network; and transforming the input signals using the trained neural network to obtain output signals, wherein the steps are performed in a processor operatively connected to a memory; wherein the input signals are noisy speech and the output signals are clean speech and wherein the one or more sets of network parameters are adjusted independently during the training. defining a model for transforming the input signals, wherein the model is specified by constraints and a set of model parameters; defining an iterative inference procedure derived from the model and the set of model parameters; unfolding the iterative inference procedure into a set of layers, wherein there is one layer for each iteration of the procedure, and wherein a same set of network parameters is used by all layers; forming a neural network by untying the set of network parameters such that there is one set of network parameters for each layer and each set of network parameters is separately maintainable and separately applicable to the corresponding layer; discriminatively training the neural network using gradient-based methods to obtain a trained neural network; and transforming the input signals using the trained neural network to obtain output signals, wherein the steps are performed in a processor operatively connected to a memory; wherein the input signals are noisy speech and the output signals are clean speech and wherein the one or more sets of network parameters are adjusted independently during the training.