mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a vehicle body or a vehicle body module, comprising the steps of - producing at least one sandwich component, comprising a first metal sheet layer, a semifinished product layer formed by a non-cured semifinished product pre-impregnated with a matrix, and a second metal sheet layer, - joining the sandwich component into a vehicle body part to form a vehicle body or a vehicle body module, the matrix of the semifinished product layer of the sandwich component not being cured, characterized by - dip coating and drying the vehicle body or the vehicle body module, the matrix of the semifinished product layer of the sandwich component being cured. - producing at least one sandwich component, comprising a first metal sheet layer, a semifinished product layer formed by a non-cured semifinished product pre-impregnated with a matrix, and a second metal sheet layer, - joining the sandwich component into a vehicle body part to form a vehicle body or a vehicle body module, the matrix of the semifinished product layer of the sandwich component not being cured, characterized by - dip coating and drying the vehicle body or the vehicle body module, the matrix of the semifinished product layer of the sandwich component being cured.
Magnetically actuatable valve device, comprising an inner chamber delimited by at least one wall consisting of magnetizable material, which wall forms a valve seat, and a magnet arrangement which generates a magnetic circuit with a magnetic flux running in the magnetizable wall, and at least one magnetizable valve body moveable in the inner chamber, wherein at least one intermediate element is arranged in the magnetizable wall extending around the inner chamber and having a reduced magnetic conductivity in comparison with the magnetizable wall, wherein the intermediate element comprises a first recess into which a projection of the magnetizable wall extends, characterized in that two guide elements made of magnetizable material are arranged in the inner chamber on opposite sides of the valve body and offset from the first recess, wherein the guide elements guide the valve body and wherein the guide elements together with the wall form the magnetic circuit, wherein the magnetic flux runs through the wall, the valve body, and guide elements.
A waterproof cabinet, comprising a cabinet body and a door plate, characterized in that the periphery of the door plate is wrapped with a first metal section which has a U-shaped cross section; a second metal section protrudes from a side of the first metal section, facing to the cabinet body; and the second metal section is fitted with a waterproof device against the first metal section; the waterproof device is configured to abut upon the cabinet body when the door plate and the cabinet body close up; wherein the waterproof device comprises a waterproof rubber strip; the waterproof rubber strip is correspondingly pressed by a waterproof pressing strip, configured to press the waterproof rubber strip to form a U-shaped slot; the waterproof device is disposed on the second metal section by a bolt passing through the waterproof pressing strip, the waterproof rubber strip and the second metal section; wherein the waterproof rubber strip comprises a connecting surface and two contact surfaces; the connecting surface of the waterproof rubber strip is configured to connect the second metal section; one contact surface of the waterproof rubber strip is configured to contact a side of the first metal section corresponding to the cabinet body; and the other contact surface of the waterproof rubber strip is configured to abut upon the cabinet body when the door plate and the cabinet body close up.
A method of processing a fiber cushion body formed from thermally cross-linked fibers, the method comprising: applying laser radiation to the fiber cushion body to form at least a laser cut or a laser weld, wherein the fiber cushion body to which the laser radiation is applied comprises a first portion in which fibers have a preferential orientation along a first direction and at least a second portion (6, 7) having a fiber orientation and/or density different from the first portion; characterized in that the laser cut or the laser weld is formed in the fiber cushion body. applying laser radiation to the fiber cushion body to form at least a laser cut or a laser weld, wherein the fiber cushion body to which the laser radiation is applied comprises a first portion in which fibers have a preferential orientation along a first direction and at least a second portion (6, 7) having a fiber orientation and/or density different from the first portion; characterized in that the laser cut or the laser weld is formed in the fiber cushion body.
Method for producing a capacitive absolute pressure sensor (1500, 1600), in particular by means of a multilayered semiconductor component, wherein a p-doped silicon substrate with at least one p-doped silicon epitaxial layer is provided, characterized in that in a first step, for forming a bottom electrode, a mesh- or net-like n-doped layer is formed in the p-doped silicon substrate, and for forming a top electrode, a mesh- or net-like n-doped layer is formed in the p-doped silicon epitaxial layer and in a second step the p-doped semiconductor material between the n-doped mesh- or net-like layers is etched in a porous fashion by means of an etching medium for forming a top electrode and in a third step a hollow space is formed between the mesh- or net-like n-doped layer of the top electrode.
Method for producing a supporting frame with two frame halves (20, 22) for receiving and holding electrical and electronic assemblies of a hearing aid comprising a transmitting and/or receiving unit for electromagnetic waves, wherein an antenna element is integrated in at least one of the frame halves (20, 22); - wherein the supporting frame is produced in a two-component injection-moulding process with a first plastics material, which is suitable for laser direct structuring, and with an electrically non-conductive second plastics material, which has an increased mechanical stability in comparison with the first plastics material. - wherein the supporting frame is produced in a two-component injection-moulding process with a first plastics material, which is suitable for laser direct structuring, and with an electrically non-conductive second plastics material, which has an increased mechanical stability in comparison with the first plastics material.
A coupling device for coupling a rod to a bone anchoring element, the coupling device (5, 5', 5", 5′′′) including a receiving part (50, 50', 50", 50′′′) comprising a head receiving portion for receiving a head of the bone anchoring element and a rod receiving portion (54, 64; 54', 504) for receiving the rod and a locking member (60, 60', 60", 60′′′) movable relative to the receiving part (50, 50', 50", 50′′′) between a first position in which the head is insertable into the head receiving portion and a second position in which the head is prevented from being removed from the head receiving portion, characterized in that the receiving part (50, 50', 50", 50′′′) and the locking member (60, 60', 60", 60′′′) are inseparably interconnected with each other. a receiving part (50, 50', 50", 50′′′) comprising a head receiving portion for receiving a head of the bone anchoring element and a rod receiving portion (54, 64; 54', 504) for receiving the rod and a locking member (60, 60', 60", 60′′′) movable relative to the receiving part (50, 50', 50", 50′′′) between a first position in which the head is insertable into the head receiving portion and a second position in which the head is prevented from being removed from the head receiving portion, characterized in that the receiving part (50, 50', 50", 50′′′) and the locking member (60, 60', 60", 60′′′) are inseparably interconnected with each other.
A light-field capture device comprising: a photo-sensor, a main lens configured to refract light from a scene towards an image focal field, a micro-lens array positioned in the image focal field between the main lens and the photo-sensor, each micro-lens being configured to project a micro-lens image onto a respective area of the photo-sensor; wherein the light-field capture device comprises at least one calculation unit connected to at least one of the respective areas and configured to obtain homogeneity data, corresponding to a standard deviation of the input pixels and representative of the homogeneity of input pixels of said respective area, and to provide, based on the homogeneity data, output data representative of the input pixels of said respective area; the output data comprising either a number of output pixels corresponding to the number of input pixels, or a single output pixel, depending on a comparison of the homogeneity data with a homogeneity threshold. a photo-sensor, a main lens configured to refract light from a scene towards an image focal field, a micro-lens array positioned in the image focal field between the main lens and the photo-sensor, each micro-lens being configured to project a micro-lens image onto a respective area of the photo-sensor; wherein the light-field capture device comprises at least one calculation unit connected to at least one of the respective areas and configured to obtain homogeneity data, corresponding to a standard deviation of the input pixels and representative of the homogeneity of input pixels of said respective area, and to provide, based on the homogeneity data, output data representative of the input pixels of said respective area; the output data comprising either a number of output pixels corresponding to the number of input pixels, or a single output pixel, depending on a comparison of the homogeneity data with a homogeneity threshold.
A communication method, comprising: receiving, by a communications device,, configuration information sent by a network device, wherein the configuration information comprises a sending resource of the beam failure recovery request, and the sending resource is a physical uplink control channel PUCCH or a media access control control element MAC CE; when a beam failure occurs in a secondary cell of the communications device, sending, by the communications device,, the beam failure recovery request to the network device by using the PUCCH or the MAC CE; and determining, by the communications device,, an active state time of discontinuous reception DRX based on a status of the beam failure recovery request, characterized in that the configuration information further comprises indication information of a first time, the first time is a time for which the communications device delays, after sending the beam failure recovery request, starting a response window timer, and the determining, by the communications device, an active state time of DRX based on a status of the beam failure recovery request comprises: after the beam failure recovery request is sent, controlling, by the communications device, the response window timer to start after a delay of the first time, wherein a working time of the response window timer is the active state time of the DRX. receiving, by a communications device,, configuration information sent by a network device, wherein the configuration information comprises a sending resource of the beam failure recovery request, and the sending resource is a physical uplink control channel PUCCH or a media access control control element MAC CE; when a beam failure occurs in a secondary cell of the communications device, sending, by the communications device,, the beam failure recovery request to the network device by using the PUCCH or the MAC CE; and determining, by the communications device,, an active state time of discontinuous reception DRX based on a status of the beam failure recovery request, characterized in that the configuration information further comprises indication information of a first time, the first time is a time for which the communications device delays, after sending the beam failure recovery request, starting a response window timer, and the determining, by the communications device, an active state time of DRX based on a status of the beam failure recovery request comprises: after the beam failure recovery request is sent, controlling, by the communications device, the response window timer to start after a delay of the first time, wherein a working time of the response window timer is the active state time of the DRX.
Composite component for a vehicle seat, in particular for a motor vehicle seat, comprising a plurality of woven fabric layers consisting of a fibrous material, a matrix material securing the woven fabric layers, and an insert part, which is arranged between at least two of the woven fabric layers, for locally reinforcing the composite component, characterized in that an insert strand is arranged at least in sections along an edge or an edge surface (141.1) of the insert part.
An urban furniture object comprising at least one post made of an electroconductive material, this post being at least partially hollow and at least approximately vertical; and said at least one post comprising at least two superimposed parts (2I, 2S), electrically insulated from each other by forming an antenna with horizontally omnidirectional radiation, said object being characterized in that said at least one post is constituted by two superimposed parts, namely a lower part and an upper part, separated by an annular slot, the two superimposed parts (2I, 2S) of said at least one post forming said antenna with horizontally omnidirectional radiation.
A modified epoxy resin having the formula: wherein R is R1, R2 or a combination of R1 and R2; R1 and R2 are independently alkyl group having 1 to 32 C atoms, branched alkyl group having 1 to 32 C atoms, Cyclo-aliphatic group, substituted cycloaliphatic group, aromatic group, substituted aromatic group, biaryl or alkyl substituted biaryl group, methyl bridged aromatic group, cycloaliphatic-aromatic group or Ar-Z-Ar group; X and Y are independently O, -C O-, or an amine group. Z is dicyclopentadiene; R3 and R4 are independently either H, alkyl group, branched alkyl group, alkoxy group, substituted biaryl group or methyl bridged aromatic group; R4 and R3 optionally forming a fused aromatic ring or a fused hetero aromatic ring; n is 0 to 1 with n=0 >75%; and N is 1-20. R is R1, R2 or a combination of R1 and R2; R1 and R2 are independently alkyl group having 1 to 32 C atoms, branched alkyl group having 1 to 32 C atoms, Cyclo-aliphatic group, substituted cycloaliphatic group, aromatic group, substituted aromatic group, biaryl or alkyl substituted biaryl group, methyl bridged aromatic group, cycloaliphatic-aromatic group or Ar-Z-Ar group; X and Y are independently O, -C O-, or an amine group. Z is dicyclopentadiene; R3 and R4 are independently either H, alkyl group, branched alkyl group, alkoxy group, substituted biaryl group or methyl bridged aromatic group; R4 and R3 optionally forming a fused aromatic ring or a fused hetero aromatic ring; n is 0 to 1 with n=0 >75%; and N is 1-20.
Kenter shackle for anchor chains, at least comprising two half-elements that are able to be coupled together and a coupling block element that is insertable between the half-elements, wherein the half-elements each have an L-shaped or J-shaped configuration, in which, at the end of a short connecting leg, an external toothing (12.1) having a plurality of parallel toothing planes is formed, and in which, at the end of a long connecting leg, a receiving chamber is formed, which has an internal toothing (16.1) with a plurality of parallel toothing planes, into which the external toothing (12.1) of the short connecting leg engages, and wherein the connecting legs (11, 12) are connected together via a curved clasp, characterized in that the receiving chamber in the long leg is widened above a central plane by a cavity, wherein the central plane extends along the end face of the external toothing (12.1) of the short leg and above the uppermost toothing plane, facing the clasp, of the internal toothing (16.1), and in that the lateral flank (17.1) of the cavity transitions by way of a rounded portion into a top region of the cavity. wherein the half-elements each have an L-shaped or J-shaped configuration, in which, at the end of a short connecting leg, an external toothing (12.1) having a plurality of parallel toothing planes is formed, and in which, at the end of a long connecting leg, a receiving chamber is formed, which has an internal toothing (16.1) with a plurality of parallel toothing planes, into which the external toothing (12.1) of the short connecting leg engages, and wherein the connecting legs (11, 12) are connected together via a curved clasp, characterized in that the receiving chamber in the long leg is widened above a central plane by a cavity, wherein the central plane extends along the end face of the external toothing (12.1) of the short leg and above the uppermost toothing plane, facing the clasp, of the internal toothing (16.1), and in that the lateral flank (17.1) of the cavity transitions by way of a rounded portion into a top region of the cavity.
A system for controlling an unmanned aerial vehicle, UAV, said system comprising a monitoring terminal and a controlling terminal, wherein the monitoring terminal comprises: a first communication module capable of two-way communication with the UAV via a first communication link between the first communication module and the UAV at a first frequency band, wherein the first communication module is configured to receive feedback data from the UAV via the first communication link, and a second communication module configured to receive control data from the controlling terminal via a second communication link that does not interfere with the first communication link, the control data being generated at the controlling terminal, wherein the control data is conveyed via the first communication link to the UAV, thereby controlling operation of the UAV using the control data, and wherein the monitoring terminal is located remotely from the UAV; and the controlling terminal comprises: a processor adapted for causing the control data to be transmitted via the second communication link, while preventing the control data from being transmitted directly to the UAV via a third communication link, when the receiving of the control data via the third communication link and transmitting of the feedback data via the first communication link by the UAV are simultaneously occurring at the same first frequency band; wherein the second communication link does not interfere with the third communication link. a first communication module capable of two-way communication with the UAV via a first communication link between the first communication module and the UAV at a first frequency band, wherein the first communication module is configured to receive feedback data from the UAV via the first communication link, and a second communication module configured to receive control data from the controlling terminal via a second communication link that does not interfere with the first communication link, the control data being generated at the controlling terminal, wherein the control data is conveyed via the first communication link to the UAV, thereby controlling operation of the UAV using the control data, and wherein the monitoring terminal is located remotely from the UAV; and a processor adapted for causing the control data to be transmitted via the second communication link, while preventing the control data from being transmitted directly to the UAV via a third communication link, when the receiving of the control data via the third communication link and transmitting of the feedback data via the first communication link by the UAV are simultaneously occurring at the same first frequency band; wherein the second communication link does not interfere with the third communication link.
A power monitoring device comprising: an input line to receive an input voltage from a power supply device, wherein the input voltage is indicative of a level of input power from the power supply device; a controller configured to receive from the power supply device an indication of a power rating of the power supply device to determine a scaling amount of the input voltage based on the power rating of the power supply device, wherein the controller is configured to determine a mapping between the input voltage and an output voltage based on the power supply device rating and a predetermined output voltage value; a programmable scaling device to scale the input voltage based on the scaling amount to generate the output voltage; and an output line to pass the output voltage to a set of recipient devices. an input line to receive an input voltage from a power supply device, wherein the input voltage is indicative of a level of input power from the power supply device; a controller configured to receive from the power supply device an indication of a power rating of the power supply device to determine a scaling amount of the input voltage based on the power rating of the power supply device, wherein the controller is configured to determine a mapping between the input voltage and an output voltage based on the power supply device rating and a predetermined output voltage value; a programmable scaling device to scale the input voltage based on the scaling amount to generate the output voltage; and an output line to pass the output voltage to a set of recipient devices.
A return pad comprising: a backing having a top side, a bottom side, and a periphery; at least one return electrode disposed on the bottom side of the backing layer, the at least one return electrode being adapted to interface with a skin barrier and to connect to a current generator; and at least one ring sensor (106, 108) comprising two partially concentric ring electrodes (106, 108) disposed in substantial concentric registration with the periphery of the backing, the at least one ring sensor configured to interface with a skin barrier and to connect to a measuring component that is operable to approximate contact quality of the at least one return electrode during electrosurgical application, the measuring component configured to communicate with the generator; characterised in that: the at least one return electrode is capacitive, and the two partially concentric ring electrodes (106, 108) are disposed in vertical registry with the return electrode so as to at least partially overlap. a backing having a top side, a bottom side, and a periphery; at least one return electrode disposed on the bottom side of the backing layer, the at least one return electrode being adapted to interface with a skin barrier and to connect to a current generator; and at least one ring sensor (106, 108) comprising two partially concentric ring electrodes (106, 108) disposed in substantial concentric registration with the periphery of the backing, the at least one ring sensor configured to interface with a skin barrier and to connect to a measuring component that is operable to approximate contact quality of the at least one return electrode during electrosurgical application, the measuring component configured to communicate with the generator; the at least one return electrode is capacitive, and the two partially concentric ring electrodes (106, 108) are disposed in vertical registry with the return electrode so as to at least partially overlap.