mhurhangee/patent-ind-claim-en huggingface dataset:
Method for slip detection in a wheelset for a rail vehicle , to which a first wheelset with a first speed sensor and a second wheelset with a second speed sensor are assigned, comprising: - capturing a plurality of measurement signals of the first speed sensor and the second speed sensor , which are in each case representative of a speed of the first wheelset and the second wheelset of the rail vehicle , - ascertaining a respective speed value for the first wheelset as a function of a respective measurement signal of the first speed sensor and for the second wheelset as a function of a respective measurement signal of the second speed sensor , - forming a specified number of speed value pairs with an ascertained speed value for the first and the second wheelset in each case, - comparing the respective speed values for the first and the second wheelset of each formed speed value pair with one another and ascertaining a unified correction factor over the specified number of formed speed value pairs by way of a regression analysis as a function of the comparison, - ascertaining a speed deviation for one of the wheelsets as a function of the ascertained unified correction factor by way of a comparison of the speed value of the one wheelset with the speed value of the other wheelset multiplied by the ascertained unified correction factor, and - ascertaining a slip of the first and/or second wheelset as a function of the ascertained speed deviation. - capturing a plurality of measurement signals of the first speed sensor and the second speed sensor , which are in each case representative of a speed of the first wheelset and the second wheelset of the rail vehicle , - ascertaining a respective speed value for the first wheelset as a function of a respective measurement signal of the first speed sensor and for the second wheelset as a function of a respective measurement signal of the second speed sensor , - forming a specified number of speed value pairs with an ascertained speed value for the first and the second wheelset in each case, - comparing the respective speed values for the first and the second wheelset of each formed speed value pair with one another and ascertaining a unified correction factor over the specified number of formed speed value pairs by way of a regression analysis as a function of the comparison, - ascertaining a speed deviation for one of the wheelsets as a function of the ascertained unified correction factor by way of a comparison of the speed value of the one wheelset with the speed value of the other wheelset multiplied by the ascertained unified correction factor, and - ascertaining a slip of the first and/or second wheelset as a function of the ascertained speed deviation.
Medical imaging system with micro-wave emission antennae and electromagnetic field reception antennae arranged around a volume intended to receive a human tissue to be observed, comprising : - a network of transmitting antennae and a network of receiving antennae , these two arrays being mechanically independent, - motorisations configured to move the emitting network and the receiving network in angular rotation and in translation relative to the volume under observation, so as to enable it to be scanned, and - a shell of solid dielectric material defining the volume intended to receive a medium of human tissue to be observed, the transmitting antennae and the receiving antennae being arranged in a network in supports , the shell being arranged in a tank made of a dielectric material which the networks surround at least partially the materials of the tank , the shell and the supports of networks having identical dielectric permittivities. - a network of transmitting antennae and a network of receiving antennae , these two arrays being mechanically independent, - motorisations configured to move the emitting network and the receiving network in angular rotation and in translation relative to the volume under observation, so as to enable it to be scanned, and - a shell of solid dielectric material defining the volume intended to receive a medium of human tissue to be observed, the transmitting antennae and the receiving antennae being arranged in a network in supports , the shell being arranged in a tank made of a dielectric material which the networks surround at least partially the materials of the tank , the shell and the supports of networks having identical dielectric permittivities.
An apparatus comprising: a first device comprising: a port , wherein the port is configured to enable a connection between the first device and a second device , and the port is configured to: receive a latency tolerance reporting, LTR, message from the second device , wherein the LTR message indicates a service latency requirement of the second device ; enter a first sub-state of a low power link state from an active link state, wherein the first sub-state is one of a set of sub-states of the low-power link state; de-assert a signal to cause a bidirectional open-drain sideband signal to indicate to the second device a request to enter a second one of the set of sub-states of the low-power link state from the first sub-state, wherein a reference clock is to be used in the first sub-state and is to be disabled in the second sub-state, and the signal is de-asserted when an LTR value in the LTR message is greater than or equal to a threshold; and enter the second sub-state, wherein the port is compliant with a Peripheral Component Interconnect Express, PCIe, based protocol. a port , wherein the port is configured to enable a connection between the first device and a second device , and the port is configured to: receive a latency tolerance reporting, LTR, message from the second device , wherein the LTR message indicates a service latency requirement of the second device ; enter a first sub-state of a low power link state from an active link state, wherein the first sub-state is one of a set of sub-states of the low-power link state; de-assert a signal to cause a bidirectional open-drain sideband signal to indicate to the second device a request to enter a second one of the set of sub-states of the low-power link state from the first sub-state, wherein a reference clock is to be used in the first sub-state and is to be disabled in the second sub-state, and the signal is de-asserted when an LTR value in the LTR message is greater than or equal to a threshold; and enter the second sub-state, receive a latency tolerance reporting, LTR, message from the second device , wherein the LTR message indicates a service latency requirement of the second device ; enter a first sub-state of a low power link state from an active link state, wherein the first sub-state is one of a set of sub-states of the low-power link state; de-assert a signal to cause a bidirectional open-drain sideband signal to indicate to the second device a request to enter a second one of the set of sub-states of the low-power link state from the first sub-state, wherein a reference clock is to be used in the first sub-state and is to be disabled in the second sub-state, and the signal is de-asserted when an LTR value in the LTR message is greater than or equal to a threshold; and enter the second sub-state,
High-Mn steel comprising: a chemical composition containing, in mass%, C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; optionally at least one selected from the group consisting of Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; with the balance being Fe and inevitable impurities; and a microstructure having austenite as a matrix phase, wherein the area ratio of an austenite phase is 90 % or more, wherein the microstructure has a Mn segregation portion with a Mn concentration of 16 % or more and 38 % or less, and the high-Mn steel has an average Kernel Average Misorientation value of 0.3 or more, an absorbed energy in a Charpy impact test at -196 °C of 100 J or more, and a yield stress of 400 MPa or more, which are measured by the methods disclosed in the description. a chemical composition containing, in mass%, C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; optionally at least one selected from the group consisting of Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; with the balance being Fe and inevitable impurities; and a microstructure having austenite as a matrix phase, wherein the area ratio of an austenite phase is 90 % or more, wherein the microstructure has a Mn segregation portion with a Mn concentration of 16 % or more and 38 % or less, and the high-Mn steel has an average Kernel Average Misorientation value of 0.3 or more, an absorbed energy in a Charpy impact test at -196 °C of 100 J or more, and a yield stress of 400 MPa or more, which are measured by the methods disclosed in the description.
Device for optically detecting a surface structure of a test body, in particular of a finger , wherein the device comprises at least one illumination device , wherein the device comprises at least one light guiding element, wherein light can be coupled into the light guiding element by means of the illumination device , wherein the light guiding element has a first surface , wherein light can be coupled out of the light guiding element in the region of the first surface , characterized in that a further surface of the light guiding element has at least two raised regions , an intermediate region being arranged between the at least two raised regions, the light guiding element is completely reflective in the region of the first surface for an air-light guiding element-transition for at least part of the light generated by the illumination device and is incompletely reflective in the case of a medium-light guiding element-transition, the medium being a medium other than air, wherein an opaque element is arranged in the intermediate region.
A multi-chip module, comprising an assembly including: a base plate ; at least first and second semiconductor dies , wherein at least a given semiconductor die, which is one of the first semiconductor die and the second semiconductor die, includes proximity connectors proximate to the upper surface of the given semiconductor die, and wherein the given semiconductor die is configured to communicate signals via proximity communication through one or more of the proximity connectors; one or more bridge chips provided in face down orientation for coupling proximity connectors on adjacent semiconductor dies ; an alignment plate coupled to the base plate and including a first negative feature forming a first well configured to accommodate the first semiconductor die in a face -up orientation and a second negative feature forming a second well configured to accommodate the second semiconductor die in a face-up orientation; an interposer plate coupled to the alignment plate, wherein the interposer plate includes positive features , the positive features of the interposer plate being protruding features configured to mate with the wells of the alignment plate to mechanically position the semiconductor dies. a base plate ; at least first and second semiconductor dies , wherein at least a given semiconductor die, which is one of the first semiconductor die and the second semiconductor die, includes proximity connectors proximate to the upper surface of the given semiconductor die, and wherein the given semiconductor die is configured to communicate signals via proximity communication through one or more of the proximity connectors; one or more bridge chips provided in face down orientation for coupling proximity connectors on adjacent semiconductor dies ; an alignment plate coupled to the base plate and including a first negative feature forming a first well configured to accommodate the first semiconductor die in a face -up orientation and a second negative feature forming a second well configured to accommodate the second semiconductor die in a face-up orientation; an interposer plate coupled to the alignment plate, wherein the interposer plate includes positive features , the positive features of the interposer plate being protruding features configured to mate with the wells of the alignment plate to mechanically position the semiconductor dies.
A method for managing energy storage devices positioned in a device-exchange station, the method comprising: receiving, by the device-exchange station from a server , information indicative of at least one characteristic associated with the energy storage devices ; characterized by generating, for each of the energy storage devices, a customized battery maintenance plan, which enables each of the energy storage devices to have a respective maximum number of charging cycles, based on the information indicative of at least one characteristic associated with the energy storage devices; selecting, by the device-exchange station, at least one of the energy storage devices, which needs to be maintained or replaced, based on the customized battery maintenance plan for each of the energy storage devices ; and decreasing a swapping priority of the at least one selected energy storage device such that the at least one selected energy storage device is to be picked up later than the remaining energy storage devices among the energy storage devices positioned in the device-exchange station. receiving, by the device-exchange station from a server , information indicative of at least one characteristic associated with the energy storage devices ; characterized by generating, for each of the energy storage devices, a customized battery maintenance plan, which enables each of the energy storage devices to have a respective maximum number of charging cycles, based on the information indicative of at least one characteristic associated with the energy storage devices; selecting, by the device-exchange station, at least one of the energy storage devices, which needs to be maintained or replaced, based on the customized battery maintenance plan for each of the energy storage devices ; and decreasing a swapping priority of the at least one selected energy storage device such that the at least one selected energy storage device is to be picked up later than the remaining energy storage devices among the energy storage devices positioned in the device-exchange station.
Induction furnace for carrying out a heat treatment of a dental replacement part , comprising an induction coil , a radiant heater , an insulation layer and a furnace chamber , characterized in that the induction furnace comprises a cooling system with a liquid cooling system.
Operating device for operating one or more illuminants , in particular LEDs, comprising a determination device for determining power data of the operating device during operation of the illuminant ; and a control device for controlling the determination device , characterized in that the determination device is designed to determine power data of the operating device even in the standby mode of the operating device, and the control device is designed to switch off the determination of the power data, at least in the standby mode of the operating device, for a certain period of time, wherein, in the standby mode of the operating device, the switching off and restarting of the determination device takes place cyclically. a determination device for determining power data of the operating device during operation of the illuminant ; and a control device for controlling the determination device , characterized in that the determination device is designed to determine power data of the operating device even in the standby mode of the operating device, and the control device is designed to switch off the determination of the power data, at least in the standby mode of the operating device, for a certain period of time, wherein, in the standby mode of the operating device, the switching off and restarting of the determination device takes place cyclically.
Method for fabricating a photovoltaic module, comprising the steps of: a) providing a stack successively comprising: - a first layer transparent in the visible range and made from a first pre-impregnated material having a first curing temperature, - a set of photovoltaic cells encapsulated in an encapsulation material , - a second layer made from a second pre-impregnated material having a second curing temperature, - a support structure arranged to support the set of photovoltaic cells , - a third layer made from a third pre-impregnated material having a third curing temperature, the first, second and third pre-impregnated materials being selected so that, for a given curing time, the first, second and third curing temperatures are lower than a lamination temperature; b) laminating the stack at the lamination temperature for a lamination time greater than or equal to the curing time, the support structure and second and third layers not having been laminated before step b). a) providing a stack successively comprising: - a first layer transparent in the visible range and made from a first pre-impregnated material having a first curing temperature, - a set of photovoltaic cells encapsulated in an encapsulation material , - a second layer made from a second pre-impregnated material having a second curing temperature, - a support structure arranged to support the set of photovoltaic cells , - a third layer made from a third pre-impregnated material having a third curing temperature, the first, second and third pre-impregnated materials being selected so that, for a given curing time, the first, second and third curing temperatures are lower than a lamination temperature; - a first layer transparent in the visible range and made from a first pre-impregnated material having a first curing temperature, - a set of photovoltaic cells encapsulated in an encapsulation material , - a second layer made from a second pre-impregnated material having a second curing temperature, - a support structure arranged to support the set of photovoltaic cells , - a third layer made from a third pre-impregnated material having a third curing temperature, b) laminating the stack at the lamination temperature for a lamination time greater than or equal to the curing time, the support structure and second and third layers not having been laminated before step b).
A light-emitting device holder configured to fix a light-emitting device to a mounting object , the light-emitting device including a substrate , a light-emitting element mounted to a surface of the substrate , and a pad provided on the surface of the substrate and connected to the light-emitting element , the light-emitting device holder comprising: a holder main body defining an opening at a position corresponding to the light-emitting element in a fixed state after the light-emitting device is fixed to the mounting object by the light-emitting device holder ; a terminal attached to the holder main body , the terminal being configured to be in contact with the pad in the fixed state; and an insulating member attached to the holder main body , the insulating member being configured to be in contact with at least a region of the surface of the substrate between the pad and a portion of an edge of the substrate that is closest to the pad in the fixed state wherein the substrate has a rectangular plate shape, wherein the pad is disposed at a corner portion of the substrate , and wherein the insulating member is configured to be in contact with the region of the surface of the substrate between the pad and two edges defining the corner portion. a holder main body defining an opening at a position corresponding to the light-emitting element in a fixed state after the light-emitting device is fixed to the mounting object by the light-emitting device holder ; a terminal attached to the holder main body , the terminal being configured to be in contact with the pad in the fixed state; and an insulating member attached to the holder main body , the insulating member being configured to be in contact with at least a region of the surface of the substrate between the pad and a portion of an edge of the substrate that is closest to the pad in the fixed state wherein the substrate has a rectangular plate shape, wherein the pad is disposed at a corner portion of the substrate , and wherein the insulating member is configured to be in contact with the region of the surface of the substrate between the pad and two edges defining the corner portion.
Polymer composition, comprising (i) polypropylene (PP), (ii) 0.03 to 0.2 wt.-% based on the weight of the polymer composition of a first nucleating agent (NU1) which is 1,3 : 2,4 bis(3,4-dimethylbenzylidene)sorbitol, and (iii) 0.04 to 0.06 wt.-% based on the weight of the polymer composition of a zinc fatty acid salt, like zinc stearate, wherein the first nucleating agent (NU1) and the zinc fatty acid salt, like the zinc stearate, together fulfil the inequation (If) 5 ≥ W NU 1 W EAF ≥ 0.5 wherein "W (NU1)" is the weight [wt.-%] of the first nucleating agent (NU1), based on the weight of the polymer composition and "W (EAF)" is the weight [wt.-%] of the zinc fatty acid salt, like the zinc stearate, based on the weight of the polymer composition. (i) polypropylene (PP), (ii) 0.03 to 0.2 wt.-% based on the weight of the polymer composition of a first nucleating agent (NU1) which is 1,3 : 2,4 bis(3,4-dimethylbenzylidene)sorbitol, and (iii) 0.04 to 0.06 wt.-% based on the weight of the polymer composition of a zinc fatty acid salt, like zinc stearate,
A photothermal conversion film comprising: a base film ; and a photothermal conversion layer formed on the base film , wherein the photothermal conversion layer has a visible light transmittance of 20% or more, the photothermal conversion layer comprising a tungsten oxide-based material, a urethane acrylate binder and a photoinitiator, characterized in that the tungsten oxide-based material is selected from K 0,33 WO 3 , Rb 0,33 WO 3 or CS 0,33 WO 3 . a base film ; and a photothermal conversion layer formed on the base film , wherein the photothermal conversion layer has a visible light transmittance of 20% or more, the photothermal conversion layer comprising a tungsten oxide-based material, a urethane acrylate binder and a photoinitiator, characterized in that the tungsten oxide-based material is selected from K 0,33 WO 3 , Rb 0,33 WO 3 or CS 0,33 WO 3 .