mhurhangee/ep-ind-claims huggingface dataset:
A communication method in a wireless communication network including a plurality of nodes that can form a peer-to-peer group, the method comprising: an owner node operating as an access point in a first group selects one or a plurality of client nodes in the first group as delivery nodes; in response to receipt of a delivery node designation instruction from the owner node, the delivery node disconnects from the group and connects to a second group that is present in vicinity to the delivery node; and information is transferred between the delivery node and an owner node of the second group. an owner node operating as an access point in a first group selects one or a plurality of client nodes in the first group as delivery nodes; in response to receipt of a delivery node designation instruction from the owner node, the delivery node disconnects from the group and connects to a second group that is present in vicinity to the delivery node; and information is transferred between the delivery node and an owner node of the second group.
A flanged bronze bushing, comprising: - one radial slide bearing and two axial slide bearings in the form of a flange, - wherein the radial slide bearing comprises at least inclined and fixed recesses arranged in the side region, and wherein the axial bearing comprises at least one deformable protrusion arranged in a first position, a rigid protrusion and a cooperating surface arranged on the deformable protrusion, - wherein the axial bearing is capable of being integrated with the radial slide bearing through association of the cooperating surface of the deformable protrusion with the inclined recess, the deformable protrusion taking on a second position, which exhibits plastic deformation (ΔX) with respect to the first position; and through simultaneous association of the rigid protrusion with the fixed recess, characterized in that - the sliding bearing comprises in each side region two inclined recesses and one fixed recess, - the inclined recesses are provided with two side walls, one of the side walls having angles ranging from 15° to 60° and the other wall having angles ranging from 100° to 170°, - the fixed recess is provided with two inclined side walls, one of the side walls having an angle between it and the base ranging from 15° to 60° and the other having an angle between it and the base ranging from 100° to 170°. - one radial slide bearing and two axial slide bearings in the form of a flange, - wherein the radial slide bearing comprises at least inclined and fixed recesses arranged in the side region, and wherein the axial bearing comprises at least one deformable protrusion arranged in a first position, a rigid protrusion and a cooperating surface arranged on the deformable protrusion, - wherein the axial bearing is capable of being integrated with the radial slide bearing through association of the cooperating surface of the deformable protrusion with the inclined recess, the deformable protrusion taking on a second position, which exhibits plastic deformation (ΔX) with respect to the first position; and through simultaneous association of the rigid protrusion with the fixed recess, - the sliding bearing comprises in each side region two inclined recesses and one fixed recess, - the inclined recesses are provided with two side walls, one of the side walls having angles ranging from 15° to 60° and the other wall having angles ranging from 100° to 170°, - the fixed recess is provided with two inclined side walls, one of the side walls having an angle between it and the base ranging from 15° to 60° and the other having an angle between it and the base ranging from 100° to 170°.
A method of forming a portion of a headgear assembly (30, 40, 50, 60, 70), the method comprising: forming a plurality of sub-portions (A, B, C, A 2, B 2, C 2, A 3, B 3, C 3, A 4, B 4, C 4, A 5, B 5, C 5) into generally planar, predetermined shapes, each of the sub-portions having at least one material property different than the other sub-portions and each sub-portion having a number of edge faces; characterized in the step of: coupling the plurality of sub-portions together in a predetermined orientation via their edge faces, wherein each of the coupled sub-portions are disposed in a common plane without an overlapping of the coupled sub-portions. forming a plurality of sub-portions (A, B, C, A 2, B 2, C 2, A 3, B 3, C 3, A 4, B 4, C 4, A 5, B 5, C 5) into generally planar, predetermined shapes, each of the sub-portions having at least one material property different than the other sub-portions and each sub-portion having a number of edge faces; characterized in the step of: coupling the plurality of sub-portions together in a predetermined orientation via their edge faces, wherein each of the coupled sub-portions are disposed in a common plane without an overlapping of the coupled sub-portions. coupling the plurality of sub-portions together in a predetermined orientation via their edge faces, wherein each of the coupled sub-portions are disposed in a common plane without an overlapping of the coupled sub-portions.
A method of transmitting a transport signal through an Optical Transport Network domain, said transport signal having a frame structure referred to as Optical Transport Units, each Optical Transport Unit comprising at least one Optical Data Unit of fixed size with an overhead section and a payload section; the method comprising: - receiving said transport signal at a edge network node of said Optical Transport Network domain; - remapping said at least one Optical Data Unit of fixed size into a domain-internal lower order Optical Data Unit of flexible size, which size is configurable in granularity of predefined tributary slots of a higher order Optical Data Unit of fixed size; and - transmitting said domain-internal lower order Optical Data Unit of flexible size as payload of a domain-internal higher order Optical Data Unit of fixed size through said Optical Transport Network domain. - receiving said transport signal at a edge network node of said Optical Transport Network domain; - remapping said at least one Optical Data Unit of fixed size into a domain-internal lower order Optical Data Unit of flexible size, which size is configurable in granularity of predefined tributary slots of a higher order Optical Data Unit of fixed size; and - transmitting said domain-internal lower order Optical Data Unit of flexible size as payload of a domain-internal higher order Optical Data Unit of fixed size through said Optical Transport Network domain.
A coating cutting tool for frozen confection comprising a frame defining a product void for receiving a product at least partly coated, a set of disk-shaped side knives comprising at least two knives mounted on the frame on opposite sides of the product void, wherein the knives are rotatably arranged such that they can rotate about their axis passing through the centre of the disk-shaped knives when a product is introduced and/or retracted between the knives, and an end knife for cutting the coating on the end of the frozen confection.
An electronic device, comprising: a transceiver including a first power amplifier, PA, group (501,521,541) and a second PA group (511,531,551), wherein each of the first PA group and the second PA group includes a low band, LB, PA, a middle band, MB, PA, and a high band, HB, PA; an antenna unit including a first antenna selectively connected with a PA configured to support a low band or a middle band among PAs in the first PA group and PAs in the second PA group, and a second antenna selectively connected with a PA configured to support the middle band or a high band among the PAs in the first PA group and the PAs in the second PA group; a power unit including a first power modulator connected to the PAs in the first PA group and a second power modulator connected to the PAs in the second PA group; and a communication processor configured to change an output voltage based on at least part of transmit power of a PA connected to at least one of the first power modulator and the second power modulator, wherein at least one of the PAs in the first PA group and at least one of the PAs in the second PA group are configured to simultaneously transmit a signal. a transceiver including a first power amplifier, PA, group (501,521,541) and a second PA group (511,531,551), wherein each of the first PA group and the second PA group includes a low band, LB, PA, a middle band, MB, PA, and a high band, HB, PA; an antenna unit including a first antenna selectively connected with a PA configured to support a low band or a middle band among PAs in the first PA group and PAs in the second PA group, and a second antenna selectively connected with a PA configured to support the middle band or a high band among the PAs in the first PA group and the PAs in the second PA group; a power unit including a first power modulator connected to the PAs in the first PA group and a second power modulator connected to the PAs in the second PA group; and a communication processor configured to change an output voltage based on at least part of transmit power of a PA connected to at least one of the first power modulator and the second power modulator, wherein at least one of the PAs in the first PA group and at least one of the PAs in the second PA group are configured to simultaneously transmit a signal.
Method for triggering a passenger protection means in a vehicle which comprises a sensor system which detects driving condition data and a reversible passenger protection means which is triggered before the time of collision and can thereby be brought into an active position, wherein - in the presence of at least one critical driving condition, a control signal is activated to trigger the passenger protection means, and - in the absence of the critical driving condition in question, the control signal is deactivated and the resetting of the passenger protection means is initiated, the control signal being deactivated as a function of at least one further condition which represents at least one detected controllable driving behaviour, characterised in that for the detection of the controllable driving behaviour, the yaw velocity (V Gi) is monitored in its absolute value for falling below a first preset threshold value. - in the presence of at least one critical driving condition, a control signal is activated to trigger the passenger protection means, and - in the absence of the critical driving condition in question, the control signal is deactivated and the resetting of the passenger protection means is initiated, the control signal being deactivated as a function of at least one further condition which represents at least one detected controllable driving behaviour,
An electrode assembly comprising: a negative electrode including a negative electrode current collector and a negative electrode active material layer disposed on at least one surface of the negative electrode current collector; a positive electrode including a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and an undercoat layer being disposed between the positive electrode current collector and the positive electrode active material layer and being higher in resistance value than the positive electrode current collector; and a separator disposed between the negative electrode and the positive electrode, wherein the negative electrode and the positive electrode are stacked on each other with the separator therebetween in such a way that the negative electrode active material layer and the positive electrode active material layer face each other; and in at least one side of the thus stacked negative and positive electrodes, the negative electrode active material layer projects from an edge of the positive electrode active material layer in a direction in which the negative and positive electrode current collectors extend, and the undercoat layer projects from an edge of the negative active material layer in said direction. a negative electrode including a negative electrode current collector and a negative electrode active material layer disposed on at least one surface of the negative electrode current collector; a positive electrode including a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and an undercoat layer being disposed between the positive electrode current collector and the positive electrode active material layer and being higher in resistance value than the positive electrode current collector; and a separator disposed between the negative electrode and the positive electrode, wherein the negative electrode and the positive electrode are stacked on each other with the separator therebetween in such a way that the negative electrode active material layer and the positive electrode active material layer face each other; and in at least one side of the thus stacked negative and positive electrodes, the negative electrode active material layer projects from an edge of the positive electrode active material layer in a direction in which the negative and positive electrode current collectors extend, and the undercoat layer projects from an edge of the negative active material layer in said direction.
A method of fabricating a magnetoresistive bit from a magnetoresistive stack including at least two magnetic regions (50, 70), intermediate positioned between two magnetic regions of the at least two magnetic regions, and a multi-layer hard mask region, the method comprising: (a) etching through at least a first layer of the multi-layer hard mask region to create a first set of exposed areas in the form of multiple parallel strips extending in a first direction; (b) after the etching in step (a), etching through at least the first layer of the multi-layer hard mask region to create a second set of exposed areas in the form of multiple parallel strips extending in the first direction, wherein the multiple parallel strips of the first set are spaced apart from the multiple parallel strips of the second set; (c) after the etching in step (b), etching through at least the first layer of the multi-layer hard mask region to create a third set of exposed areas in the form of multiple parallel strips extending in a second direction different from the first direction; (d) after the etching in step (c), etching through at least the first layer of the multi-layer hard mask region to create a fourth set of exposed areas in the form of multiple parallel strips extending in the second direction, wherein the multiple parallel strips of the third set are spaced apart from the multiple parallel strips of the fourth set; and (e) after the etching in step (d), etching through at least a portion of the thickness of the magnetoresistive stack. (a) etching through at least a first layer of the multi-layer hard mask region to create a first set of exposed areas in the form of multiple parallel strips extending in a first direction; (b) after the etching in step (a), etching through at least the first layer of the multi-layer hard mask region to create a second set of exposed areas in the form of multiple parallel strips extending in the first direction, wherein the multiple parallel strips of the first set are spaced apart from the multiple parallel strips of the second set; (c) after the etching in step (b), etching through at least the first layer of the multi-layer hard mask region to create a third set of exposed areas in the form of multiple parallel strips extending in a second direction different from the first direction; (d) after the etching in step (c), etching through at least the first layer of the multi-layer hard mask region to create a fourth set of exposed areas in the form of multiple parallel strips extending in the second direction, wherein the multiple parallel strips of the third set are spaced apart from the multiple parallel strips of the fourth set; and (e) after the etching in step (d), etching through at least a portion of the thickness of the magnetoresistive stack.
Method for configuring a fluid control unit designed for the control of fluid control valves (3, 4, 5, 6) for a fluid-operated moving device, the method comprising the steps of: provision of information on the fluid control unit and on the moving device to be controlled by the fluid control unit and on the fluid control valves (3, 4, 5, 6) connected to the moving device to a processing device, determination and indication of possible basic states of the moving device using the information provided on the fluid control unit and on the moving device and on the fluid control valves (3, 4, 5, 6), and selection of a basic state of the moving device by a user by means of an input at the processing device, provision and transmission of a configuration file specific to the selected basic state of the moving device from the processing device to the fluid control unit, the configuration file including closed-loop control parameters for the control of the fluid control valves (3, 4, 5, 6) for adjusting the selected basic state of the moving device, use of the closed-loop control parameters from the configuration file in the fluid control unit for controlling the fluid control valves (3, 4, 5, 6) for adjusting the selected basic state of the moving device.
A method of forming a microlens structure on an image sensor chip, comprising: forming a microlens element having a first refraction index; depositing a first film of SiO 2 on the microlens element, wherein the first film has a second refraction index less than the first refraction index; and depositing a second film on the first film, wherein the second film has a third refraction index less than the second refraction index and greater than a refraction index of air, characterized in that the step of depositing the first film comprises depositing an initial film and depositing a bulk film, and the initial film has a thickness less than a thickness of the bulk film, that the step of depositing the bulk film comprises using a plasma enhanced chemical vapor deposition process, and that the step of depositing the initial film uses a plasma enhanced chemical vapor deposition process using a gas source of tetraethyl orthosilicate (TEOS) and O 2 and a process temperature lower than 200 °C, a radio frequency power less than 250 watt and an O 2 flow rate of 250-1000 standard cubic centimeter per minute (sccm), or a low temperature chemical vapor deposition process using a gas source of bis(diethylamido) silane and O 3 and a process temperature of 70-180 °C. forming a microlens element having a first refraction index; depositing a first film of SiO 2 on the microlens element, wherein the first film has a second refraction index less than the first refraction index; and depositing a second film on the first film, wherein the second film has a third refraction index less than the second refraction index and greater than a refraction index of air, characterized in that the step of depositing the first film comprises depositing an initial film and depositing a bulk film, and the initial film has a thickness less than a thickness of the bulk film, that the step of depositing the bulk film comprises using a plasma enhanced chemical vapor deposition process, and that the step of depositing the initial film uses a plasma enhanced chemical vapor deposition process using a gas source of tetraethyl orthosilicate (TEOS) and O 2 and a process temperature lower than 200 °C, a radio frequency power less than 250 watt and an O 2 flow rate of 250-1000 standard cubic centimeter per minute (sccm), or a low temperature chemical vapor deposition process using a gas source of bis(diethylamido) silane and O 3 and a process temperature of 70-180 °C. a plasma enhanced chemical vapor deposition process using a gas source of tetraethyl orthosilicate (TEOS) and O 2 and a process temperature lower than 200 °C, a radio frequency power less than 250 watt and an O 2 flow rate of 250-1000 standard cubic centimeter per minute (sccm), or a low temperature chemical vapor deposition process using a gas source of bis(diethylamido) silane and O 3 and a process temperature of 70-180 °C.
Burner cover insulation device for shielding a burner cover plate from heat produced by a boiler burner, the device comprising: - a cover layer comprising a heat resistant inorganic fibrous material and having a first outer peripheral edge, - a support layer providing mechanical strength to the device and having a second outer peripheral edge that at least extends to the outer peripheral edge of the cover layer, and - a filling material forming an insulating layer (104, 104') between the cover layer and the support layer, wherein a through hole extends through the cover layer and the support layer thereby forming a first inner peripheral edge of the cover layer and a second inner peripheral edge of the support layer, wherein the through hole is at least delimited by the first inner peripheral edge of the cover layer, and wherein the cover layer and the support layer are connected along at least part of the first outer peripheral edge of the cover layer and at least part of the second inner peripheral edge of the support layer; characterized in that the support layer comprises a fibrous inorganic material, and in that the support layer is mechanically connected to the cover layer by stitching, stapling, or nailing. - a cover layer comprising a heat resistant inorganic fibrous material and having a first outer peripheral edge, - a support layer providing mechanical strength to the device and having a second outer peripheral edge that at least extends to the outer peripheral edge of the cover layer, and - a filling material forming an insulating layer (104, 104') between the cover layer and the support layer,
A solid-state imaging element comprising: a pixel including a photodiode, an FD that accumulates charges generated in the photodiode, and a charge holding unit (107, 108) that is connected in parallel with the FD, wherein the charge holding unit (107, 108) includes a wiring capacitance formed by parallel running of a first wiring connected to a first potential and a second wiring (152, 153, 11, 253-1, 253-2) connected to a second potential different from the first potential, characterised in that, in a plan view, the first wiring and the second wiring (152, 153, 11, 253-1, 253-2) have an extending portion extending in one direction and a bent portion bending in a predetermined direction. a pixel including a photodiode, an FD that accumulates charges generated in the photodiode, and a charge holding unit (107, 108) that is connected in parallel with the FD, wherein the charge holding unit (107, 108) includes a wiring capacitance formed by parallel running of a first wiring connected to a first potential and a second wiring (152, 153, 11, 253-1, 253-2) connected to a second potential different from the first potential, characterised in that, in a plan view, the first wiring and the second wiring (152, 153, 11, 253-1, 253-2) have an extending portion extending in one direction and a bent portion bending in a predetermined direction.
An electronic heat cost allocator comprising a housing (12, 14) which accommodates a first temperature sensor for sensing the temperature of a radiator surface, a second temperature sensor for sensing the room temperature outside the housing (12, 14), and an electronic display device, in particular a liquid crystal display, for displaying a counting progression and/or data related thereto, characterized in that the second temperature sensor is mounted on the electronic display device and is electrically connected to terminal ends of the electronic display device.
A nickel-based superalloy comprising, in percentages by mass, 5.0 to 6.0% aluminum, 6.0 to 9.5% tantalum, 0 to 1.50% titanium, 8.0 to 10.0% cobalt, 6.0 to 7.0% chromium, 0.30 to 0.90% molybdenum, 5.5 to 6.5% tungsten, 0 to 2.50% rhenium, 0.05 to 0.15% hafnium, 0.70 to 4.30% platinum, 0 to 0.15% silicon, the remainder being nickel and unavoidable impurities.