mhurhangee/patent-ind-claim-en huggingface dataset:
Wall element of a pallet stacking frame, • where the wall element is made from plastic and incorporates at each of its two front ends a hinge element for attachment to an adjacent wall element , in such a way that a number of wall elements can be joined together in the form of a closed ring, • and where the wall element incorporates an extruded hollow section , • having a closed inner wall that faces towards the interior of the ring and a closed outer wall that faces towards the outside, • and where the hollow section is closed at each of its two front ends by a cover strip that is itself designed to form part of a hinge or incorporates a hinge element as a separate component part, • and where the hollow section forms a retaining strip that is joined to the outer wall and protrudes downwards and is designed to grip the outside of the pallet, characterised in • that at least one insertable tab projects from the cover strip into a cavity in the hollow section , • where a fastening element extends through the hollow section and into the insertable tab . • where the wall element is made from plastic and incorporates at each of its two front ends a hinge element for attachment to an adjacent wall element , in such a way that a number of wall elements can be joined together in the form of a closed ring, • and where the wall element incorporates an extruded hollow section , • having a closed inner wall that faces towards the interior of the ring and a closed outer wall that faces towards the outside, • and where the hollow section is closed at each of its two front ends by a cover strip that is itself designed to form part of a hinge or incorporates a hinge element as a separate component part, • and where the hollow section forms a retaining strip that is joined to the outer wall and protrudes downwards and is designed to grip the outside of the pallet, characterised in • that at least one insertable tab projects from the cover strip into a cavity in the hollow section , • where a fastening element extends through the hollow section and into the insertable tab .
Breathable underlay with a water vapour diffusion equivalent air layer thickness S d according to EN ISO 12572 less or equal than 0.5 m, comprising at least one fabric carrier layer with two faces, which carrier layer is water-permeable and vapour-permeable, and a water-impermeable and vapour-permeable active layer attached to one face of the two faces of the carrier layer characterized in that the carrier layer is coated on the other face of the two faces with a coating layer , which coating layer has a face that is exposed and which is water-permeable and vapour-permeable and it is made at least partially from one of the following a) thermoplastic polyurethane, b) polyether polyamide block copolymer or c) polyether-ester, wherein water and vapour permeability are defined in accordance with EN 13859-1 and 13859-2.
A connector device for an endoscope that is attachably and detachably connected to a processor device , the connector device comprising: a hollow exterior case ; an inner case that is accommodated inside the exterior case ; a holding body that is used for disposing the inner case inside the exterior case ; and a power reception unit to which power is supplied from a power feed unit of the processor device in a contactless manner, wherein the exterior case has a side wall part that faces the power feed unit of the processor device , the inner case has an inner case wall part that is disposed to face and be spaced apart from the side wall part , the power reception unit is disposed on the inner case wall part , the holding body is a shaft-shaped member of which one end is fixed to the inner case wall part , a first lead-out hole , into which the shaft-shaped member is inserted and which leads the other end of the shaft-shaped member to an outside of the exterior case , is provided in the side wall part , and a first sealing member is arranged between an inner wall surface of the first lead-out hole and an outer wall surface of the shaft-shaped member . a hollow exterior case ; an inner case that is accommodated inside the exterior case ; a holding body that is used for disposing the inner case inside the exterior case ; and a power reception unit to which power is supplied from a power feed unit of the processor device in a contactless manner, wherein the exterior case has a side wall part that faces the power feed unit of the processor device , the inner case has an inner case wall part that is disposed to face and be spaced apart from the side wall part , the power reception unit is disposed on the inner case wall part , the holding body is a shaft-shaped member of which one end is fixed to the inner case wall part , a first lead-out hole , into which the shaft-shaped member is inserted and which leads the other end of the shaft-shaped member to an outside of the exterior case , is provided in the side wall part , and a first sealing member is arranged between an inner wall surface of the first lead-out hole and an outer wall surface of the shaft-shaped member .
A bracket apparatus , comprising: a base ; a vertical rod , one end of the vertical rod being mounted to the base ; a clamping assembly , comprising a sliding member , a push rod assembly , a handle and an elastic member , wherein the sliding member is sleeved on the vertical rod and is configured to carry a calibration element; the bracket apparatus being characterised in that : the push rod assembly comprises a rod body and a backing plate , one side of the backing plate being in contact with the vertical rod , and an other side of the backing plate being connected to the rod body ; the elastic member is disposed between an inner wall of the sliding member and the backing plate and is configured to provide an elastic restoring force, so that the backing plate tightly abuts against the vertical rod ; the handle is configured to drive the rod body to move away from the vertical rod ; and when the handle drives the rod body to move away from the vertical rod , the backing plate is removed from contact with the vertical rod , so that the sliding member is movable in a length direction of the vertical rod . a base ; a vertical rod , one end of the vertical rod being mounted to the base ; a clamping assembly , comprising a sliding member , a push rod assembly , a handle and an elastic member , wherein the sliding member is sleeved on the vertical rod and is configured to carry a calibration element; the bracket apparatus being characterised in that : the push rod assembly comprises a rod body and a backing plate , one side of the backing plate being in contact with the vertical rod , and an other side of the backing plate being connected to the rod body ; the elastic member is disposed between an inner wall of the sliding member and the backing plate and is configured to provide an elastic restoring force, so that the backing plate tightly abuts against the vertical rod ; the handle is configured to drive the rod body to move away from the vertical rod ; and when the handle drives the rod body to move away from the vertical rod , the backing plate is removed from contact with the vertical rod , so that the sliding member is movable in a length direction of the vertical rod . the push rod assembly comprises a rod body and a backing plate , one side of the backing plate being in contact with the vertical rod , and an other side of the backing plate being connected to the rod body ; the elastic member is disposed between an inner wall of the sliding member and the backing plate and is configured to provide an elastic restoring force, so that the backing plate tightly abuts against the vertical rod ; the handle is configured to drive the rod body to move away from the vertical rod ; and when the handle drives the rod body to move away from the vertical rod , the backing plate is removed from contact with the vertical rod , so that the sliding member is movable in a length direction of the vertical rod .
A method of fabricating display structures, the method comprising: receiving a wafer which comprises a growth substrate and an epitaxial semiconductor layer grown on a first face of the growth substrate, patterning the epitaxial semiconductor layer of the wafer from a front face of the epitaxial semiconductor layer to form a common electrode contact of a set of micro-light emitting diodes (micro-LEDs), bonding the common electrode contact to a carrier substrate , releasing the growth substrate from the epitaxial semiconductor layer to expose a back face of the epitaxial semiconductor layer, the back face opposed from the front face across a thickness of the epitaxial semiconductor layer, providing individually addressable contacts on the back face of the epitaxial semiconductor layer, such that the common electrode contact, the epitaxial semiconductor layer and the individually addressable contacts form the set of micro-light emitting diodes, and electrically coupling a set of drive circuitry o the individually addressable contacts to control the micro-LEDs. receiving a wafer which comprises a growth substrate and an epitaxial semiconductor layer grown on a first face of the growth substrate, patterning the epitaxial semiconductor layer of the wafer from a front face of the epitaxial semiconductor layer to form a common electrode contact of a set of micro-light emitting diodes (micro-LEDs), bonding the common electrode contact to a carrier substrate , releasing the growth substrate from the epitaxial semiconductor layer to expose a back face of the epitaxial semiconductor layer, the back face opposed from the front face across a thickness of the epitaxial semiconductor layer, providing individually addressable contacts on the back face of the epitaxial semiconductor layer, such that the common electrode contact, the epitaxial semiconductor layer and the individually addressable contacts form the set of micro-light emitting diodes, and electrically coupling a set of drive circuitry o the individually addressable contacts to control the micro-LEDs.
A vehicle lighting device comprising: a first circuit portion , which has at least one light emitting element ; and a second circuit portion , which has at least one light emitting element ; a control portion that is electrically connected to the first circuit portion and to the second circuit portion ; characterized in that the control portion has a first switch , a second switch and a third switch for switching the connection state of the first circuit portion and the second circuit portion , and that the lighting device further comprises a constant current portion that is electrically connected between the second circuit portion and the third switch ; wherein the control portion is configured to connect the first circuit portion and the second circuit portion in series by opening the first switch and the second switch , and closing the third switch if an input voltage exceeds a predetermined value, and is configured to connect the first circuit portion and the second circuit portion in parallel by closing the first switch , the second switch and the third switch if the input voltage is equal to or less than the predetermined value, wherein the constant current portion causes a current flowing through the first circuit portion and the second circuit portion to be constant if the first circuit portion and the second circuit portion are connected in series, and a current flowing through the second circuit portion to be constant if the first circuit portion and the second circuit portion are connected in parallel; and the predetermined value is a value equal to or higher than a voltage corresponding to a current value used for failure determination of the vehicle lighting device . a first circuit portion , which has at least one light emitting element ; and a second circuit portion , which has at least one light emitting element ; a control portion that is electrically connected to the first circuit portion and to the second circuit portion ; the control portion is configured to connect the first circuit portion and the second circuit portion in series by opening the first switch and the second switch , and closing the third switch if an input voltage exceeds a predetermined value, and is configured to connect the first circuit portion and the second circuit portion in parallel by closing the first switch , the second switch and the third switch if the input voltage is equal to or less than the predetermined value, wherein the constant current portion causes a current flowing through the first circuit portion and the second circuit portion to be constant if the first circuit portion and the second circuit portion are connected in series, and a current flowing through the second circuit portion to be constant if the first circuit portion and the second circuit portion are connected in parallel; and the predetermined value is a value equal to or higher than a voltage corresponding to a current value used for failure determination of the vehicle lighting device .
Computer-implemented method for calculating at least one supplementary processing plan (P) for a sheet metal workpiece (W) to be processed by a processing machine, namely by a laser cutting machine (L) and a bending machine (B), comprising the steps of: - Measuring workpiece properties, in particular material variation, including a thickness parameter of the workpiece (W); - Providing at least one supplementary processing plan (P), which is specific for the measured workpiece properties and wherein the at least one supplementary processing plan (P) is provided before start of the processing; wherein the at least one supplementary processing plan (P) comprises instructions to be executed by the laser cutting machine (L) and by the bending machine (B) to perform laser cutting and subsequent bending of the workpiece (W), and wherein the at least one supplementary processing plan is a reworked plan of a previously programmed processing plan and serves for both for the laser cutting and the subsequent bending. - Measuring workpiece properties, in particular material variation, including a thickness parameter of the workpiece (W); - Providing at least one supplementary processing plan (P), which is specific for the measured workpiece properties and wherein the at least one supplementary processing plan (P) is provided before start of the processing; wherein the at least one supplementary processing plan (P) comprises instructions to be executed by the laser cutting machine (L) and by the bending machine (B) to perform laser cutting and subsequent bending of the workpiece (W), and wherein the at least one supplementary processing plan is a reworked plan of a previously programmed processing plan and serves for both for the laser cutting and the subsequent bending.
Method for processing radar signals in a detection system comprising at least a computing architecture including at least one memory to store at least one set of signal-related programs and/or data, at least one processor executing said programs to implement said method comprising at least: - a first step (E1) to digitize radar signals by means of a digitization device; - a second step (E2) to generate spectra from the digitized signals obtained at the first step (E1), via Fast Fourier Transformation, FFT, computation, said FFT computation comprises at least a multi-FFT processing comprising at least simultaneous FFT computation (E20) comprising different FFT computations of different sizes of FFT with automatic selection of said sizes via a selection algorithm from among the stored; said method being such that: - the multi-FFT processing comprises real-time selection of signals (E21) in all spectra resulting from the different FFT computations, performed via a selection algorithm, - in the simultaneous FFT computation (E20), the different signal detection thresholds associated with the different FFT sizes used and placed in increasing order in the memory, are separated by a constant value of between 4dB and 10dB. - a first step (E1) to digitize radar signals by means of a digitization device; - a second step (E2) to generate spectra from the digitized signals obtained at the first step (E1), via Fast Fourier Transformation, FFT, computation, said FFT computation comprises at least a multi-FFT processing comprising at least simultaneous FFT computation (E20) comprising different FFT computations of different sizes of FFT with automatic selection of said sizes via a selection algorithm from among the stored; - the multi-FFT processing comprises real-time selection of signals (E21) in all spectra resulting from the different FFT computations, performed via a selection algorithm, - in the simultaneous FFT computation (E20), the different signal detection thresholds associated with the different FFT sizes used and placed in increasing order in the memory, are separated by a constant value of between 4dB and 10dB.
A method for producing an alcohol compound, comprising: passing a solution containing an ester compound and methanol and/or ethanol through a column packed with an anion exchange resin having methoxide and/or ethoxide as a counter anion to generate a methyl ester and/or ethyl ester; and distilling off the methyl ester and/or ethyl ester together with the methanol and/or ethanol. passing a solution containing an ester compound and methanol and/or ethanol through a column packed with an anion exchange resin having methoxide and/or ethoxide as a counter anion to generate a methyl ester and/or ethyl ester; and distilling off the methyl ester and/or ethyl ester together with the methanol and/or ethanol.
A vehicle drive apparatus having a drive unit including: a motor that generates a driving force in a vehicle with a ladder frame ; a transmission that changes the driving force transmitted from the motor ; and a differential that splits the driving force transmitted from the transmission and transmits forces split to driving wheels of the vehicle, the vehicle drive apparatus further comprising: a drive unit housing that houses at least part of the drive unit ; a motor-side support coupling the drive unit housing to the ladder frame by two couplers arranged in a motor-side end region of the drive unit housing ; and a differential-side support coupling the drive unit housing to the ladder frame in a differential-side end region of the drive unit housing , characterized in that the two couplers of the motor-side support being arranged farther outside in a vehicle width direction than the differential-side support ,and that the differential-side support couples the drive unit housing to the ladder frame by two couplers arranged in the differential-side end region of the drive unit housing . a drive unit housing that houses at least part of the drive unit ; a motor-side support coupling the drive unit housing to the ladder frame by two couplers arranged in a motor-side end region of the drive unit housing ; and a differential-side support coupling the drive unit housing to the ladder frame in a differential-side end region of the drive unit housing , characterized in that the two couplers of the motor-side support being arranged farther outside in a vehicle width direction than the differential-side support ,and that the differential-side support couples the drive unit housing to the ladder frame by two couplers arranged in the differential-side end region of the drive unit housing .
A communication method, wherein the method is applicable to a terminal device , or to a chip inside the terminal device, the method comprising the steps of: • receiving multimedia broadcast multicast service subframe configuration from a network device, wherein the multimedia broadcast multicast service subframe configuration indicates subframes for receiving a downlink multimedia broadcast multicast service single frequency network, MBSFN, service, each of the subframes having a length of 1ms; • determining a subcarrier spacing of 0.37 kHz; • determining a minimum time unit of 3ms corresponding to the subcarrier spacing, wherein the minimum time unit is corresponding to three subframes each having the length of 1ms; • determining the minimum time unit as a valid minimum time unit when, according to the received multimedia broadcast multicast service subframe configuration, all of the three subframes are used for the downlink MBSFN service; • receiving the downlink MBSFN service in the valid minimum time unit from the network device. • receiving multimedia broadcast multicast service subframe configuration from a network device, wherein the multimedia broadcast multicast service subframe configuration indicates subframes for receiving a downlink multimedia broadcast multicast service single frequency network, MBSFN, service, each of the subframes having a length of 1ms; • determining a subcarrier spacing of 0.37 kHz; • determining a minimum time unit of 3ms corresponding to the subcarrier spacing, wherein the minimum time unit is corresponding to three subframes each having the length of 1ms; • determining the minimum time unit as a valid minimum time unit when, according to the received multimedia broadcast multicast service subframe configuration, all of the three subframes are used for the downlink MBSFN service; • receiving the downlink MBSFN service in the valid minimum time unit from the network device.
A chemical gas phase deposition process comprising steps of providing a high vacuum chamber, and inside the high vacuum chamber: positioning a substrate surface; positioning a mask parallel to the substrate surface, whereby the mask comprises one or more openings; adjusting a gap of determined dimension between the substrate surface and the mask to introduce a temperature difference between the substrate surface and the mask; and orienting a plurality of chemical precursor beams of at least one precursor species towards the mask with line of sight propagation, each of the plurality of chemical precursor beams being emitted from an independent punctual source, and molecules of the chemical precursor pass through the one or more mask openings to impinge onto the substrate surface for deposition thereon; whereby at least a part of the chemical precursor molecules decompose on the substrate surface at a decomposition temperature; adjusting a temperature of the substrate surface greater or equal to the chemical precursor molecule decomposition temperature, thereby remaining greater than a mask temperature, and maintaining the mask temperature below the decomposition temperature, thereby causing a decomposition of the chemical precursor and a growth of a film on the substrate surface, but not on the mask, heating the substrate surface using a heating device; wherein the chemical gas phase deposition process is operated under vacuum conditions below 10 -5 mbar. providing a high vacuum chamber, and inside the high vacuum chamber: positioning a substrate surface; positioning a mask parallel to the substrate surface, whereby the mask comprises one or more openings; adjusting a gap of determined dimension between the substrate surface and the mask to introduce a temperature difference between the substrate surface and the mask; and orienting a plurality of chemical precursor beams of at least one precursor species towards the mask with line of sight propagation, each of the plurality of chemical precursor beams being emitted from an independent punctual source, and molecules of the chemical precursor pass through the one or more mask openings to impinge onto the substrate surface for deposition thereon; whereby at least a part of the chemical precursor molecules decompose on the substrate surface at a decomposition temperature; adjusting a temperature of the substrate surface greater or equal to the chemical precursor molecule decomposition temperature, thereby remaining greater than a mask temperature, and maintaining the mask temperature below the decomposition temperature, thereby causing a decomposition of the chemical precursor and a growth of a film on the substrate surface, but not on the mask, heating the substrate surface using a heating device; wherein the chemical gas phase deposition process is operated under vacuum conditions below 10 -5 mbar.