mhurhangee/patent-ind-claim-en huggingface dataset:
A smoke or fire barrier for a clean room comprising: • a metallic curtain, consisting of: • at least one panel of metallic foil, having • a plurality of dimples arranged across the surface of the metallic foil, and • means for deployment and withdrawal of the curtain. • a metallic curtain, consisting of: • at least one panel of metallic foil, having • a plurality of dimples arranged across the surface of the metallic foil, and • at least one panel of metallic foil, having • a plurality of dimples arranged across the surface of the metallic foil, and • a plurality of dimples arranged across the surface of the metallic foil, and • means for deployment and withdrawal of the curtain.
A measuring system for obtaining heights of a clad formed by laser metal deposition, LMD, the clad comprising a deposited material and a melt pool , the system comprises: - a narrow band light source configured to project a shadow pattern projection defining a laser-shadow plane on the deposited material of the clad, wherein the projected shadow distorts due to the deposited material of the clad; - a first camera configured to image capture the distorted projected shadow on the deposited material of the clad; and - computing means comprising a processing unit storing: image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h , wherein h = d / sin θ , and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera . - a narrow band light source configured to project a shadow pattern projection defining a laser-shadow plane on the deposited material of the clad, wherein the projected shadow distorts due to the deposited material of the clad; - a first camera configured to image capture the distorted projected shadow on the deposited material of the clad; and - computing means comprising a processing unit storing: image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h , wherein h = d / sin θ , and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera . image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h , wherein h = d / sin θ , and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera .
Crimp contact for a heavy load plug connector, wherein the crimp contact is embodied at least in regions in a rotationally symmetrical manner, wherein the corresponding symmetrical axis extends in the plugging direction, wherein the crimp contact comprises a crimp region that is embodied from aluminum or an aluminum alloy, wherein the crimp contact comprises a contact region that adjoins the crimp region , said contact region being embodied from copper or a copper alloy, wherein the crimp region is welded to the contact region , wherein the crimp contact comprises in its crimp region a cylindrical hollow chamber having a cable insertion opening for receiving an aluminum stranded conductor, characterized in that the crimp contact comprises in its cylindrical hollow chamber an additional inner thread , wherein the actual inner diameter (D R ) of the cylindrical hollow chamber is greater than the theoretical inner diameter (D T ) of the additional inner thread so that the additional inner thread is flattened off, wherein the crimp contact comprises within its hollow chamber a spike that points in the direction of the cable insertion opening , wherein the crimp contact comprises a through-going opening having an inner thread that is tailored to said through-going opening so that the spike can be screwed by way of the through-going opening into the hollow chamber .
A method of controlling an ion implanter having a plasma power supply (AP) and a substrate power supply (PS), the substrate power supply comprising: • an electricity generator (HT) having its positive pole connected to ground; • a first switch (SW1) having its first pole connected to the negative pole of said generator (HT) and having its second pole connected to the output terminal (S) of said substrate power supply; and • a second switch (SW2) having its first pole connected to said output terminal (S) and having its second pole connected to a neutralization terminal (N); the method including an implantation stage (A-D) during which: • said plasma power supply is activated; • said first switch (SW1) is closed; and • said second switch (SW2) is opened; the method also including a neutralization stage (EH) during which: • said first switch (SW1) is opened; and • said second switch (SW2) is closed; the method being characterized in that it also includes a relaxation stage (C-F) that overlaps said implantation stage and said neutralization stage, in which relaxation stage said plasma power supply (AP) is inactivated; and in that said neutralization stage includes a preliminary step (E-F) for closing said second switch (SW2), said preliminary step being followed by a cancellation step (F-G) for activating said plasma power supply (AP). • an electricity generator (HT) having its positive pole connected to ground; • a first switch (SW1) having its first pole connected to the negative pole of said generator (HT) and having its second pole connected to the output terminal (S) of said substrate power supply; and • a second switch (SW2) having its first pole connected to said output terminal (S) and having its second pole connected to a neutralization terminal (N); • said plasma power supply is activated; • said first switch (SW1) is closed; and • said second switch (SW2) is opened; • said first switch (SW1) is opened; and • said second switch (SW2) is closed;
A liner panel (72; 74) for a combustor of a gas turbine engine, the liner panel comprising a first heat transfer augmentation feature with a second heat transfer augmentation feature stacked thereon, wherein said second heat transfer augmentation feature is a partial hemi-spherical protuberance with a flat surface.
A reproduction apparatus of a holographic memory in which a first hologram produced from reference light and signal light including a spatial phase modulation signal or a spatial quadrature amplitude modulation signal is recorded, the reproduction apparatus comprising: a hologram diffracted light production section that produces diffracted light of the first hologram by irradiating the holographic memory with first reference light ; a hologram production section that-produces a second hologram from the diffracted light of the first hologram and the second reference light capable of interfering with the diffracted light of the first hologram; a detection section that detects an intensity distribution of the second hologram ; and a processing section that demodulates the spatial phase modulation signal or the spatial quadrature amplitude modulation signal on the basis of the intensity distribution, characterized in that the hologram production section produces a plurality of second holograms on the detection section, each second hologram out of said plurality of second holograms being equal to that in a case where a phase of the second reference light is changed to one out of a plurality of values, the detection section detects an intensity distribution of each of the plurality of second holograms , and the processing section demodulates the spatial phase modulation signal or the spatial quadrature amplitude modulation signal on the basis of the plurality of intensity distributions. a hologram diffracted light production section that produces diffracted light of the first hologram by irradiating the holographic memory with first reference light ; a hologram production section that-produces a second hologram from the diffracted light of the first hologram and the second reference light capable of interfering with the diffracted light of the first hologram; a detection section that detects an intensity distribution of the second hologram ; and a processing section that demodulates the spatial phase modulation signal or the spatial quadrature amplitude modulation signal on the basis of the intensity distribution, characterized in that the hologram production section produces a plurality of second holograms on the detection section, each second hologram out of said plurality of second holograms being equal to that in a case where a phase of the second reference light is changed to one out of a plurality of values, the detection section detects an intensity distribution of each of the plurality of second holograms , and the processing section demodulates the spatial phase modulation signal or the spatial quadrature amplitude modulation signal on the basis of the plurality of intensity distributions.
An excavation machine for making a trench in a ground including: a frame extending along a longitudinal direction (A) between a lower end part and an upper end part , the frame having a first main side , a second main side opposite to the first main side, a first lateral side and a second lateral side opposite to the first lateral side, the first and second main sides and the first and second lateral sides extending along the longitudinal direction (A) of the frame , the first and second lateral sides being transverse to the first and second main sides ; an excavation device disposed under the lower end part of the frame ; at least a first guide device comprising at least a first guide flap protruding from the first lateral side of the frame outwardly of the frame, the first guide flap being inclined relative to the first lateral side , considered in a plane perpendicular to the longitudinal direction (A) of the frame , characterized in that the first guide flap is mounted on the frame to pivot about a first axis (U1) parallel to the longitudinal direction (A), the first guide device further comprising a first blocking device to rotatably block the first guide flap relative to the first lateral side a frame extending along a longitudinal direction (A) between a lower end part and an upper end part , the frame having a first main side , a second main side opposite to the first main side, a first lateral side and a second lateral side opposite to the first lateral side, the first and second main sides and the first and second lateral sides extending along the longitudinal direction (A) of the frame , the first and second lateral sides being transverse to the first and second main sides ; an excavation device disposed under the lower end part of the frame ; at least a first guide device comprising at least a first guide flap protruding from the first lateral side of the frame outwardly of the frame, the first guide flap being inclined relative to the first lateral side , considered in a plane perpendicular to the longitudinal direction (A) of the frame ,
A protective collar for at least partially receiving an actuating element which extends through a housing of a control unit and projects beyond an outer side of the housing, the protective collar comprising the following: a base having a central through-opening for passing parts of the actuating element therethrough; and a first circumferential collar radially spaced with respect to the central through-opening and extending from an upper side of the base in a first direction; wherein the first circumferential collar has at least two cut-outs such that the first circumferential collar forms at least two wings ; and wherein at least one of the wings has at least one predetermined breaking point extending in the circumferential direction. a base having a central through-opening for passing parts of the actuating element therethrough; and a first circumferential collar radially spaced with respect to the central through-opening and extending from an upper side of the base in a first direction; wherein the first circumferential collar has at least two cut-outs such that the first circumferential collar forms at least two wings ; and wherein at least one of the wings has at least one predetermined breaking point extending in the circumferential direction.
A vehicle control device comprising a processor configured to: receive a first requested value of acceleration acting on a vehicle from a first system configured to request holding a stopped state of the vehicle ; receive a second requested value of the acceleration from a second system; select one of the first requested value and the second requested value as an arbitration result; and characterized in that the processor is configured to: set a priority for selecting the first requested value lower than a priority for selecting the second requested value when the processor acquires predetermined information from one of the first system and the second system while the vehicle is stopped. receive a first requested value of acceleration acting on a vehicle from a first system configured to request holding a stopped state of the vehicle ; receive a second requested value of the acceleration from a second system; select one of the first requested value and the second requested value as an arbitration result; and characterized in that the processor is configured to: set a priority for selecting the first requested value lower than a priority for selecting the second requested value when the processor acquires predetermined information from one of the first system and the second system while the vehicle is stopped.
Dosing system for dosing a liquid (L), said system comprising at least one tank for said liquid (L); a dispensing member hydraulically connected to said at least one tank and supplied, in use, by a pump electrically actuated and hydraulically connected to said at least one tank through a supply pipe and to said dispensing member through a dispensing pipe ; power supply means electrically connected to said pump for the actuation thereof; control means electrically connected to said power supply means and electronically connected to said pump in order to control the operation thereof; wherein said dispensing member comprises an injector electrically connected to said power supply means and electronically connected to said control means in order to dose said liquid (L) in a calibrated manner, wherein said injector is so designed as to be actuated, in use, by an electronic pulse received by said control means , wherein said dispensing member comprises a pipe provided with a tubular rigid duct carrying said injector in end position, wherein said control means comprise a switch electronically connected to said pump and measuring means for measuring the supply pressure of said liquid (L) to said injector ; wherein said pipe being provided with a handle to grip said rigid duct and handle it; said switch and said measuring means being associated with said handle , characterized in that said injector is so designed as to be controlled by said switch , and in that said injector has a nozzle usually closed that can be opened in a timed manner through an electronic control; said nozzle being contained inside a protective sleeve carried by said rigid duct .
A decoder (500; 600) for providing a decoded representation (512, 514; 630b) of an audio signal on the basis of an encoded audio stream (510; 610) representing spectral components of frequency bands of the audio signal and a multi-band noise intensity value , the decoder comprising: a noise filler (520; 770) configured to introduce noise into spectral components, namely spectral bin values, of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value , and wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; wherein the decoder is configured to scale a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information. a noise filler (520; 770) configured to introduce noise into spectral components, namely spectral bin values, of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value , and wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; wherein the decoder is configured to scale a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information.
A method for wireless communication at a user equipment, UE , comprising: transmitting a UE capability message to a network device , the UE capability message configured to include an indication of a UE type identifying the UE as a reduced capability UE associated with at least one of a reduced bandwidth, or a reduced quantity of antennas, or a combination thereof, for the UE; selecting an aggregation level, AL, to receive a downlink grant based at least in part on the UE type; identifying a quantity of control channel elements, CCEs, using a plurality of different ALs in a control resource set that is associated with reduced capability UEs; monitoring , based at least in part on the control resource set, a control channel for the downlink grant; receiving , based at least in part on the monitoring, the downlink grant identifying downlink resources for communicating with the network device; and communicating , with the network device, using the identified downlink resources. transmitting a UE capability message to a network device , the UE capability message configured to include an indication of a UE type identifying the UE as a reduced capability UE associated with at least one of a reduced bandwidth, or a reduced quantity of antennas, or a combination thereof, for the UE; selecting an aggregation level, AL, to receive a downlink grant based at least in part on the UE type; identifying a quantity of control channel elements, CCEs, using a plurality of different ALs in a control resource set that is associated with reduced capability UEs; monitoring , based at least in part on the control resource set, a control channel for the downlink grant; receiving , based at least in part on the monitoring, the downlink grant identifying downlink resources for communicating with the network device; and communicating , with the network device, using the identified downlink resources.
A method for mitigating memory imprinting in volatile configuration memory, CM, of a field programmable gate array, FPGA, device, said method comprising: providing an FPGA device with a CM input inversion plane between a CM controller and a layer of CM cells, a CM output inversion plane between the layer of CM cells and a programmable function block layer, and a CM inversion control module in communication with the CM input and output inversion planes; determining , by the CM inversion control module at system power-up, whether to select a normal mode or an inversion mode for a current power cycle, wherein the normal mode is a mode configured to allow data flowing into and out of the layer of CM cells to flow without inversion; inverting , by the CM input and output inversion planes when operating in the inversion mode, data flowing into and out of the layer of CM cells, where inverting includes swapping values of logical ones and zeroes; tracking , by the CM inversion control module, cumulative system times operating in the normal mode and the inversion mode; and writing the cumulative system times to a CM mode non-volatile memory module, at system power-down, for use in determining which mode to select at a next system power-up, wherein determining whether to operate a current power cycle in a normal mode or an inversion mode includes reading the cumulative system times from the CM mode non-volatile memory module and setting the current power cycle to a mode with less cumulative time. providing an FPGA device with a CM input inversion plane between a CM controller and a layer of CM cells, a CM output inversion plane between the layer of CM cells and a programmable function block layer, and a CM inversion control module in communication with the CM input and output inversion planes; determining , by the CM inversion control module at system power-up, whether to select a normal mode or an inversion mode for a current power cycle, wherein the normal mode is a mode configured to allow data flowing into and out of the layer of CM cells to flow without inversion; inverting , by the CM input and output inversion planes when operating in the inversion mode, data flowing into and out of the layer of CM cells, where inverting includes swapping values of logical ones and zeroes; tracking , by the CM inversion control module, cumulative system times operating in the normal mode and the inversion mode; and writing the cumulative system times to a CM mode non-volatile memory module, at system power-down, for use in determining which mode to select at a next system power-up, wherein determining whether to operate a current power cycle in a normal mode or an inversion mode includes reading the cumulative system times from the CM mode non-volatile memory module and setting the current power cycle to a mode with less cumulative time.
Packaging for holding a plurality of objects , preferably containers, said packaging being substantially planar and comprising a plate; said plate being provided with a plurality of apertures for holding the objects, said apertures extending through the plate; wherein each of the apertures comprises a perimeter and one or more, preferably at least three, resilient retention tabs are provided on said perimeter, extending from said perimeter at least partially inwardly; wherein the packaging substantially comprises, and preferably consists of, metal; and characterised in that at least one, preferably each, retention tab is coiled. said plate being provided with a plurality of apertures for holding the objects, said apertures extending through the plate; wherein each of the apertures comprises a perimeter and one or more, preferably at least three, resilient retention tabs are provided on said perimeter, extending from said perimeter at least partially inwardly; wherein the packaging substantially comprises, and preferably consists of, metal; and characterised in that at least one, preferably each, retention tab is coiled.
A tip attachment for a pole, in particular for a trekking pole, cross-country skiing pole, Nordic walking pole or alpine skiing pole, having a plastics material sleeve which can be secured to the lower free end of a pole tube and which has at an upper end an upwardly open hole for receiving the lower free end of the pole tube , and at the lower end of which a tip insert is secured in an opening , characterized in that the tip insert has a carrier element which is releasably secured to a drive-in thread which is provided in a retention region in a substantially cylindrical region in the opening , wherein the retention region has at least one thread turn which extends around at least once and the flat flank of which facing the upper end of the plastics material sleeve encloses with an axis of the tip attachment a smaller angle than the steep flank thereof facing away from the upper end of the plastics material sleeve.