mhurhangee/ep-ind-claims huggingface dataset:
A vehicle door locking device comprising: a casing; a connection part to which a connector for connection to an external device is connectable, the connection part being arranged in a front portion of an outer surface of the casing in a front-to-rear direction of a vehicle; a latch mechanism arranged in a rear-end portion of the casing in the front-to-rear direction of the vehicle and including a latch and a ratchet; a locking-unlocking mechanism arranged inside the casing, the locking-unlocking mechanism including a lever lock that, in accordance with a rotational position thereof, switches between enabling and disabling transmission of a door-opening operation to the latch mechanism, and a motor that drives the lever lock; a first switch that detects the rotational position of the lever lock; a second switch that is suitable to switch a room lamp of the vehicle on and off in accordance with a rotational position of the latch; a switch plate including a conducting plate and a resin base member on which the conducting plate is mounted, the switch plate being arranged inside the casing and electrically connecting the connection part to the motor and the first switch arranged in a front portion of the inside of the casing in the front-to-rear direction of the vehicle; and a harness plate including a plurality of harnesses (81, 82) and a harness holding section that collectively holds the harnesses (81, 82), the harness plate being arranged inside the casing and electrically connecting the second switch and the connection part to each other through the harnesses (81, 82) and the switch plate. a casing; a connection part to which a connector for connection to an external device is connectable, the connection part being arranged in a front portion of an outer surface of the casing in a front-to-rear direction of a vehicle; a latch mechanism arranged in a rear-end portion of the casing in the front-to-rear direction of the vehicle and including a latch and a ratchet; a locking-unlocking mechanism arranged inside the casing, the locking-unlocking mechanism including a lever lock that, in accordance with a rotational position thereof, switches between enabling and disabling transmission of a door-opening operation to the latch mechanism, and a motor that drives the lever lock; a first switch that detects the rotational position of the lever lock; a second switch that is suitable to switch a room lamp of the vehicle on and off in accordance with a rotational position of the latch; a switch plate including a conducting plate and a resin base member on which the conducting plate is mounted, the switch plate being arranged inside the casing and electrically connecting the connection part to the motor and the first switch arranged in a front portion of the inside of the casing in the front-to-rear direction of the vehicle; and a harness plate including a plurality of harnesses (81, 82) and a harness holding section that collectively holds the harnesses (81, 82), the harness plate being arranged inside the casing and electrically connecting the second switch and the connection part to each other through the harnesses (81, 82) and the switch plate.
A cooking appliance comprising: a cooktop; at least one cooking element (25, 26, 27, 28) mounted to the cooktop; and a grate (70, 71) including a surface portion for supporting a cooking vessel wherein the grate (70, 71) is mounted to the cooktop, characterized in that the grate (70, 71) is mounted to the cooktop through a pair of cup members, such that the grate (70, 71) can be selectively lifted vertically from the cooktop or pivoted relative to the at least one cooking element (25, 26, 27, 28), and wherein the cooking appliance further comprises a hinge mount fixed to a portion of the cooktop and including locating structure (134, 135) received in the pair of cup members provided on the grate (70, 71) when the grate is positioned over the at least one cooking element (25, 26, 27, 28), the hinge mount including a main body portion from which extends the locating structure (134, 135), said locating structure defining a pivot axis for the grate (70, 71) wherein the locating structure comprises a pair of projections (134, 135) extending in opposing directions from the main body portion of the hinge mount, wherein the grate (70, 71) includes a front body portion, a rear body portion and a perimeter body portion, said pair of cup members being provided in the rear body portion (151, 152), wherein each of said pair of cup members is defined by a lower rear wall portion, an arcuate wall portion, a top wall portion and an open bottom portion for receiving a respective one of said pair of projections (134, 135). a cooktop; at least one cooking element (25, 26, 27, 28) mounted to the cooktop; and a grate (70, 71) including a surface portion for supporting a cooking vessel wherein the grate (70, 71) is mounted to the cooktop, characterized in that the grate (70, 71) is mounted to the cooktop through a pair of cup members, such that the grate (70, 71) can be selectively lifted vertically from the cooktop or pivoted relative to the at least one cooking element (25, 26, 27, 28), and wherein the cooking appliance further comprises a hinge mount fixed to a portion of the cooktop and including locating structure (134, 135) received in the pair of cup members provided on the grate (70, 71) when the grate is positioned over the at least one cooking element (25, 26, 27, 28), the hinge mount including a main body portion from which extends the locating structure (134, 135), said locating structure defining a pivot axis for the grate (70, 71) wherein the locating structure comprises a pair of projections (134, 135) extending in opposing directions from the main body portion of the hinge mount, wherein the grate (70, 71) includes a front body portion, a rear body portion and a perimeter body portion, said pair of cup members being provided in the rear body portion (151, 152), wherein each of said pair of cup members is defined by a lower rear wall portion, an arcuate wall portion, a top wall portion and an open bottom portion for receiving a respective one of said pair of projections (134, 135).
A data processor for processing an analog input signal from a pressure sensor of a combustion engine, whose angular speed is variable, and providing output data at an output data rate, the data processor comprising: a time-based trigger provided for outputting a time-domain clock signal; a time-based over-sampler with an analogue-to-digital converter provided for over-sampling said input signal at an over-sampling rate based on the time-domain clock signal, wherein the over-sampling rate is greater than said output data rate, a decimator with a down-sampler and a low-pass filter, wherein said down-sampler is provided for extracting samples of over-sampled data from said over-sampler at said output data rate so as to provide said output data wherein said low-pass filter is provided for receiving data from said analogue-to-digital converter, wherein said down-sampler is provided for selecting samples of data from said low-pass filter; and a crank angle based trigger is provided for producing an angular timing signal related to a crank-shaft angle of the combustion engine, wherein said down-sampler is connected to said angular timing signal source for selecting said samples of over-sampled data to extract based on said angular position. a time-based trigger provided for outputting a time-domain clock signal; a time-based over-sampler with an analogue-to-digital converter provided for over-sampling said input signal at an over-sampling rate based on the time-domain clock signal, wherein the over-sampling rate is greater than said output data rate, a decimator with a down-sampler and a low-pass filter, wherein said down-sampler is provided for extracting samples of over-sampled data from said over-sampler at said output data rate so as to provide said output data wherein said low-pass filter is provided for receiving data from said analogue-to-digital converter, wherein said down-sampler is provided for selecting samples of data from said low-pass filter; and a crank angle based trigger is provided for producing an angular timing signal related to a crank-shaft angle of the combustion engine, wherein said down-sampler is connected to said angular timing signal source for selecting said samples of over-sampled data to extract based on said angular position.
Luminous device (100, 200, 300) for a motor vehicle comprising a substrate (110, 210, 310) on which is arranged at least one element (122, 124; 222, 224; 322, 324) of an electronic circuit (120, 220, 320) comprising at least one electronic component sensitive to an electrostatic discharge, and a structure that is distinct from the substrate (130, 230, 330) capable of carrying electric charge, the smallest distance between the structure and each of the elements of the circuit (120, 220, 320) being equal to D1, and an electrically conductive means (150, 250, 350) electrically connected to ground, the device comprising at least one element for protecting against electrostatic discharges (140, 240, 340), which is placed on the structure (130, 230, 330) and electrically connected thereto, characterized in that the smallest distance between the protective element (140, 240, 340) and the electrically conductive means (150, 250, 350), D2, is smaller than D1 and non-zero, without there being physical contact between the protecting element and the electrically conductive means connected to ground.
A method for filling bottles, in particular PET bottles, comprising the steps: - attaching a filling cap to a bottle blank and arranging a filling head on the filling cap, - cleaning, in particular disinfecting, sterilising and/or removing germs from, the bottle blank, in particular a preform, through the filling cap and the filling head, - inflating the bottle blank to form a bottle through the filling cap and the filling head, - filling the bottle through the filling cap and the filling head, in particular with a rod, e.g. a stretching rod, - sealing the filling cap and removing the filling head. - attaching a filling cap to a bottle blank and arranging a filling head on the filling cap, - cleaning, in particular disinfecting, sterilising and/or removing germs from, the bottle blank, in particular a preform, through the filling cap and the filling head, - inflating the bottle blank to form a bottle through the filling cap and the filling head, - filling the bottle through the filling cap and the filling head, in particular with a rod, e.g. a stretching rod, - sealing the filling cap and removing the filling head.
A segmentation method for a pneumonia sign, comprising separately generating a plurality of pneumonia sign images based on a lung region image in a CT image, wherein the separately generating a plurality of pneumonia sign images comprises: inputting the lung region image into each of a plurality of neural network models obtained through training based on different pneumonia signs, and segmenting the pneumonia signs in the lung region image by using the plurality of neural network models respectively, to obtain the plurality of pneumonia sign images, characterised by: combining the plurality of pneumonia sign images to obtain a pneumonia comprehensive sign image, and wherein a method for obtaining the lung region image comprises: obtaining a rib region image in the CT image; obtaining a coarse segmentation image of a lung region in the CT image; and expanding around to a boundary of the lung region at a preset step length by taking the rib region image as the boundary of the lung region and the coarse segmentation image as a seed region to obtain the lung region image. combining the plurality of pneumonia sign images to obtain a pneumonia comprehensive sign image, and wherein a method for obtaining the lung region image comprises: obtaining a rib region image in the CT image; obtaining a coarse segmentation image of a lung region in the CT image; and expanding around to a boundary of the lung region at a preset step length by taking the rib region image as the boundary of the lung region and the coarse segmentation image as a seed region to obtain the lung region image. obtaining a rib region image in the CT image; obtaining a coarse segmentation image of a lung region in the CT image; and expanding around to a boundary of the lung region at a preset step length by taking the rib region image as the boundary of the lung region and the coarse segmentation image as a seed region to obtain the lung region image.
A knitted component comprising an area formed with a spacer knit construction, the area comprising: a first knitted layer; a second knitted layer facing opposite the first knitted layer, the second knitted layer spaced relative to the first knitted layer and defining a cavity therebetween; and, a spacer strand (206a, 206b) traversing the cavity between the first knitted layer and the second knitted layer to secure the first knitted layer to the second knitted layer; wherein the first knitted layer is at least partially formed with a first monofilament and a second monofilament such that both of the first monofilament and the second monofilament are exposed on an outer surface of the first knitted layer; wherein the first monofilament comprises a first denier and the second monofilament comprises a second denier, characterised in that the first denier is at least 250% greater than the second denier; and wherein the spacer strand (206a, 206b) comprises a third yarn that comprises a denier different than the denier of the first monofilament and the second monofilament. a first knitted layer; a second knitted layer facing opposite the first knitted layer, the second knitted layer spaced relative to the first knitted layer and defining a cavity therebetween; and, a spacer strand (206a, 206b) traversing the cavity between the first knitted layer and the second knitted layer to secure the first knitted layer to the second knitted layer; wherein the first knitted layer is at least partially formed with a first monofilament and a second monofilament such that both of the first monofilament and the second monofilament are exposed on an outer surface of the first knitted layer; wherein the first monofilament comprises a first denier and the second monofilament comprises a second denier, characterised in that the first denier is at least 250% greater than the second denier; and wherein the spacer strand (206a, 206b) comprises a third yarn that comprises a denier different than the denier of the first monofilament and the second monofilament.
A method for communicating on a wireless network having a plurality of nodes, the method comprising: selecting an unmanned vehicle as a node to function as an arbiter for controlling communication of at least one ground control unit non-arbiter node (200, 400, 500) of the plurality of nodes on the ground control unit of the wireless network; receiving at the arbiter requests for a desired bandwidth from the at least one non-arbiter node and based on these requests controlling by the arbiter the bandwidth and vary the duration of the operation cycles of the at least one non-arbiter node; adjusting dynamically the bandwidth allocated to the at least one non-arbiter node (200, 400, 500) based on the requests, comprising using the arbiter to define operation cycles and assign a transmission start time and duration for each operation cycle to the at least one non-arbiter node; allocating by the arbiter a frame and allocating a transmit slot for the at least one non-arbiter node (200, 400, 500); transmitting by the non-arbiter node command data in that slot; ending the frame by the arbiter if the entire slot is not needed for transmitting the command data by the at least one non-arbiter node (200, 400, 500) and starting a new frame and allocating a new slot to the at least one non-arbiter node; and offering a contention slot for a new request. selecting an unmanned vehicle as a node to function as an arbiter for controlling communication of at least one ground control unit non-arbiter node (200, 400, 500) of the plurality of nodes on the ground control unit of the wireless network; receiving at the arbiter requests for a desired bandwidth from the at least one non-arbiter node and based on these requests controlling by the arbiter the bandwidth and vary the duration of the operation cycles of the at least one non-arbiter node; adjusting dynamically the bandwidth allocated to the at least one non-arbiter node (200, 400, 500) based on the requests, comprising using the arbiter to define operation cycles and assign a transmission start time and duration for each operation cycle to the at least one non-arbiter node; allocating by the arbiter a frame and allocating a transmit slot for the at least one non-arbiter node (200, 400, 500); transmitting by the non-arbiter node command data in that slot; ending the frame by the arbiter if the entire slot is not needed for transmitting the command data by the at least one non-arbiter node (200, 400, 500) and starting a new frame and allocating a new slot to the at least one non-arbiter node; and offering a contention slot for a new request.
A light-emitting nanoparticle comprising a matrix material, and a light-emitting substance included in the matrix material, wherein the matrix material comprises at least one cationic element selected from the group consisting of Ti, Si, Ca, Al and Zr and surfactant molecule, and at least one anionic element selected from the group consisting of O and P, preferably comprising at least one selected from the group consisting of TiO 2, Ca 10 (PO 4) 6 2, Al 2 O 3, and ZrO 2.
A process for the alkaline electrolysis of water with an electrolyte in an electrolyzer comprising at least an electrolytic cell, a cathodic gas separator, an anodic gas separator, a first liquid reservoir for the electrolyte and a second liquid reservoir for the electrolyte that is separate from the first liquid reservoir, wherein the electrolytic cell comprises an anode half-cell having an anode, a cathode half-cell having a cathode, and a separator arranged between the anode half-cell and cathode half-cell, wherein a current is applied to the electrolyzer filled with the electrolyte so as to carry out the electrolysis, wherein electrolyte is supplied from the first liquid reservoir to the anode half-cell and the anolyte flowing out of the anode half-cell is supplied to the anodic gas separator, in which the gas is separated from the anolyte, and wherein electrolyte is supplied from the second liquid reservoir to the cathode half-cell and the catholyte flowing out of the cathode half-cell is supplied to the cathodic gas separator, in which the gas is separated from the catholyte, characterized in that the gas-stripped anolyte from the anodic gas separator is returned to the second liquid reservoir and the gas-stripped catholyte from the cathodic gas separator is returned to the first liquid reservoir. wherein the electrolytic cell comprises an anode half-cell having an anode, a cathode half-cell having a cathode, and a separator arranged between the anode half-cell and cathode half-cell, wherein a current is applied to the electrolyzer filled with the electrolyte so as to carry out the electrolysis, wherein electrolyte is supplied from the first liquid reservoir to the anode half-cell and the anolyte flowing out of the anode half-cell is supplied to the anodic gas separator, in which the gas is separated from the anolyte, and wherein electrolyte is supplied from the second liquid reservoir to the cathode half-cell and the catholyte flowing out of the cathode half-cell is supplied to the cathodic gas separator, in which the gas is separated from the catholyte, characterized in that the gas-stripped anolyte from the anodic gas separator is returned to the second liquid reservoir and the gas-stripped catholyte from the cathodic gas separator is returned to the first liquid reservoir.
A fiber optic cable comprising: at least one optical fiber; at least one strength member, the at least one strength member having a strength member dimension; a cable jacket, the cable jacket having two major surfaces that are generally flat and a cavity, the cavity having a cavity minor dimension generally orientated with a minor dimension of the fiber optic cable, wherein the at least one optical fiber is disposed within the cavity and the cavity minor dimension is equal to or larger than the strength member dimension that is defined as being generally aligned with the minor dimension of the fiber optic cable; and at least one elongate tape disposed within the cavity, wherein the at least one optical fiber is a portion of a fiber optic ribbon and a ribbon planar surface generally faces a planar surface of the at least one elongate tape for cushioning and coupling the fiber optic ribbon; characterised in that the at least one elongate tape is a compressible tape and in that the ribbon has an excess ribbon length in the range of 0.1 to 1.2 percent, thereby aiding in coupling the fiber optic ribbon with the cable jacket. at least one optical fiber; at least one strength member, the at least one strength member having a strength member dimension; a cable jacket, the cable jacket having two major surfaces that are generally flat and a cavity, the cavity having a cavity minor dimension generally orientated with a minor dimension of the fiber optic cable, wherein the at least one optical fiber is disposed within the cavity and the cavity minor dimension is equal to or larger than the strength member dimension that is defined as being generally aligned with the minor dimension of the fiber optic cable; and at least one elongate tape disposed within the cavity, wherein the at least one optical fiber is a portion of a fiber optic ribbon and a ribbon planar surface generally faces a planar surface of the at least one elongate tape for cushioning and coupling the fiber optic ribbon; characterised in that the at least one elongate tape is a compressible tape and in that the ribbon has an excess ribbon length in the range of 0.1 to 1.2 percent, thereby aiding in coupling the fiber optic ribbon with the cable jacket.
Strap with articulated links, in particular for a watch, comprising at least three adjacent longitudinal rows of links (MB, MC) offset longitudinally from one adjacent row to another and connected and positioned by transverse passages which receive connecting rods, strap in which each joint comprises, on the one hand, friction surfaces with axial guidance and, on the other hand, friction surfaces with lateral guidance, of which some friction surfaces are made of a first material of which the hardness is >800HV, characterized in that all the friction surfaces of each joint consist of a pair of materials formed from said first material and a second material selected from the following materials: ceramic, ceramic-metal composite, amorphous carbon, stainless steel without nickel, cobalt alloy, gold, gold alloy, platinum, platinum alloy, platinoid, platinoid alloys, titanium, titanium alloy, each of the pairs of materials making it possible to reduce substantially the wear between said friction surfaces relative to any other pair of materials.
A polypeptide having amylase activity comprising an amino acid sequence having at least 65 % sequence identity to the amino acid sequence of SEQ ID NO: 1, and wherein the polypeptide comprises an amino acid substitution at position 205, with reference to the position numbering of the sequence shown as SEQ ID NO: 1; wherein the polypeptide has improved thermostability compared to the amylase of SEQ ID NO: 1.