mhurhangee/patent-ind-claim-en huggingface dataset:
A device for accommodating punched sheets, in particular loose sheets of paper, comprising: - a base plate , - at least two pairs of retainers configured to be openable and closable, each having a first bracket and a second bracket , wherein the at least two first brackets are connected to one another via a bracket crosspiece , which is connected to the base plate so as to be pivotable about an axis of rotation (A) extending parallel to the base plate , and is connected to a pivot lever , and - a slide which is displaceably mounted on the base plate , wherein the slide comprises a coulisse comprising a guide recess , guides the pivot lever and is designed in such a way that the coulisse determines a rotational movement of the pivot lever about the axis of rotation (A) parallel to the base plate in both directions of rotation when the slide is displaced, characterized in that the pivot lever comprises a guide end which engages in the guide recess of the coulisse , the guide end being formed by a free end of the pivot lever and the other end of the pivot lever being fixedly connected to the bracket crosspiece , and in that the coulisse has latching and/or clamping elements at at least one end of the guide recess in order to fix the pivot lever releasably in an end position. - a base plate , - at least two pairs of retainers configured to be openable and closable, each having a first bracket and a second bracket , wherein the at least two first brackets are connected to one another via a bracket crosspiece , which is connected to the base plate so as to be pivotable about an axis of rotation (A) extending parallel to the base plate , and is connected to a pivot lever , and - a slide which is displaceably mounted on the base plate ,
A system for improving quality of experience with a wireless communication system, characterized in that the system comprises: a first access node within a plurality of access nodes , the first access node collects data comprising a probability distribution of channel gains that have been obtained for one or more channels in the wireless communication system; and a processor coupled to the first access node, the processor identifies user or network behavior by performing steps comprising: receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience. a first access node within a plurality of access nodes , the first access node collects data comprising a probability distribution of channel gains that have been obtained for one or more channels in the wireless communication system; and a processor coupled to the first access node, the processor identifies user or network behavior by performing steps comprising: receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience. receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience.
A method for increasing the authority of a stability and control augmentation system , comprising: providing a first actuator ; providing a flight control computer ; providing a set of flight control inputs to the flight control computer for issuing commands to the first actuator , the flight control inputs comprising robust inputs and non-robust inputs , wherein the robust inputs are monitored sufficiently to guarantee the validity of their data and wherein the non-robust inputs are inputs that are not necessarily reliable; the method being characterized in that it further comprises : grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator ; processing the second group of inputs into un-trusted commands for the actuator ; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands. providing a first actuator ; providing a flight control computer ; providing a set of flight control inputs to the flight control computer for issuing commands to the first actuator , the flight control inputs comprising robust inputs and non-robust inputs , wherein the robust inputs are monitored sufficiently to guarantee the validity of their data and wherein the non-robust inputs are inputs that are not necessarily reliable; the method being characterized in that it further comprises : grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator ; processing the second group of inputs into un-trusted commands for the actuator ; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands. grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator ; processing the second group of inputs into un-trusted commands for the actuator ; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands.
An inter-blade profile for a water turbine runner blade, said inter-blade profile comprising an internal channel and a removable cover plate for covering at least part of said internal channel , said cover plate comprising at least one aeration passage and securing means for securing said removable cover plate onto said inter-blade profile .
A bicycle rim comprising at least one magnetized part which is concealably embedded inside the rim , said rim comprising at least one joint sleeve , characterized in that the at least one magnetized part is embedded in said at least one joint sleeve .
Method for the fail-safe provision of an analogue output value (AW a ) for a control process designed for functional safety, wherein the output value (AW) is specified by a control unit (D) as a digital output value (AW d ) and, in a first step, the digital output value (AW d ) is converted into the analogue output value (AW a ) by means of a conversion means, in a second step, the analogue output value (AW a ) is converted into a fail-safe digital output value (AWf d ) using fail-safe criteria, namely in two diverse ways, by means of a read-back means, in a third step, the originally provided digital output value (AW d ) is compared with the converted fail-safe digital output value (AWf d ), and in the event of the comparison revealing a deviation or of a plausibility criterion being infringed, a safety action is performed, and otherwise, the analogue output value (AW a ) is output to the control process with the aid of a release means, wherein the fail-safe digital output value (AWf d ) is provided to the control unit and compared with the digital output value (AW d ) in the control unit, characterised in that a programmable logic control system designed for functional safety (F-PLC) with a safety program (F-Prog) is used as the control unit (D), wherein an analogue output assembly (A) is used as the conversion means, which is realised as a standard assembly, namely an assembly not designed for functional safety, an analogue input assembly (B) designed for functional safety is used as the read-back means and a digital output assembly (C) designed for functional safety is used as the release means.
Method for producing a structure with at least one first structure part consisting of silicon microstructures, wherein metal nanostructures are arranged on the silicon microstructures as a second structure part, and characterised in that , as a further structure part, a thin-film layer of silicon dioxide (SiO 2 ), silicon oxynitride (SiO x N y ), silicon nitride (Si 3 N 4 ), aluminium oxide (Al 2 O 3 ), calcium fluoride (CaF 2 ) or combinations thereof are applied.
A vehicle lamp for an outside rearview mirror, said vehicle lamp comprising: a common substrate ; a plurality of LED light sources arranged on the common substrate ; a light guiding lens elongated in a direction in which the LED light sources are aligned; and a plurality of reflecting sections provided on the light guiding lens , wherein the light from each LED light source is directed to a respective one of the reflecting sections which is configured to individually reflect the light to a periphery of a vehicle, characterised in that respective directions of the reflecting sections are made to differ in accordance with positions of the corresponding LED light sources such that the light from the plurality of LED sources is emitted in the different directions from the light emitting surface of the light guiding lens when the vehicle lamp is installed to the vehicle. a common substrate ; a plurality of LED light sources arranged on the common substrate ; a light guiding lens elongated in a direction in which the LED light sources are aligned; and a plurality of reflecting sections provided on the light guiding lens , wherein the light from each LED light source is directed to a respective one of the reflecting sections which is configured to individually reflect the light to a periphery of a vehicle, characterised in that respective directions of the reflecting sections are made to differ in accordance with positions of the corresponding LED light sources such that the light from the plurality of LED sources is emitted in the different directions from the light emitting surface of the light guiding lens when the vehicle lamp is installed to the vehicle.
A transceiver to be mated together with a front connector and a back connector , the transceiver comprising: a circuit board including a front end, a back end, a top, and a bottom; first lands located on the top and the bottom of the circuit board at the front end to be mated with the front connector so as to transmit and/or receive high-speed signals; second lands located on the bottom of the circuit board near the back end to be mated with the back connector so as to transmit and/or receive low-speed signals; and an optical engine configured to convert optical signals into electrical signals and/or convert electrical signal into optical signals, the optical engine being mounted to the circuit board and configured to be connected to a fiber optic cable . a circuit board including a front end, a back end, a top, and a bottom; first lands located on the top and the bottom of the circuit board at the front end to be mated with the front connector so as to transmit and/or receive high-speed signals; second lands located on the bottom of the circuit board near the back end to be mated with the back connector so as to transmit and/or receive low-speed signals; and an optical engine configured to convert optical signals into electrical signals and/or convert electrical signal into optical signals, the optical engine being mounted to the circuit board and configured to be connected to a fiber optic cable .
A communications method, comprising: receiving (S304) second configuration information from a network-side device, wherein the second configuration information comprises information indicating a resource unit type of a second time domain resource unit; wherein a time domain position of the second time domain resource unit is at a time domain position which is different from a time domain position of a first time domain resource unit, both the time domain position of the first time domain resource unit and the time domain position of the second time domain resource unit are within a preset time period, and the time domain position and a resource unit type of the first time domain resource unit are based on first configuration information and wherein the resource unit type comprises at least one of the following resource unit types: a full-uplink time domain resource unit, a full-downlink time domain resource unit, a partial-uplink time domain resource unit, a partial-downlink time domain resource unit, and a combined time domain resource unit. receiving (S304) second configuration information from a network-side device, wherein the second configuration information comprises information indicating a resource unit type of a second time domain resource unit; wherein a time domain position of the second time domain resource unit is at a time domain position which is different from a time domain position of a first time domain resource unit, both the time domain position of the first time domain resource unit and the time domain position of the second time domain resource unit are within a preset time period, and the time domain position and a resource unit type of the first time domain resource unit are based on first configuration information and wherein the resource unit type comprises at least one of the following resource unit types: a full-uplink time domain resource unit, a full-downlink time domain resource unit, a partial-uplink time domain resource unit, a partial-downlink time domain resource unit, and a combined time domain resource unit.
Method for producing an aluminium strip, in which the aluminium strip is coated with a sorption layer which has a binder and a sorbent, characterised in that a suspension is applied to the aluminium strip in the coil-coating process, which comprises a liquid, at least one binder, formed as a solid, and a sorbent, and the aluminium strip together with the applied suspension is subjected to a drying process, in which the liquid in the suspension is evaporated and the binder is activated, wherein the binder was produced by suspension polymerisation and/or suspension copolymerisation.
A method of filling a sanitizing device , comprising the steps of: - preparing a container body adapted to contain a sanitizing product in gel form , said container body being affected by slits adapted to allow the gradual release of said sanitizing product in gel form ; - depositing a water-soluble material inside said container body, so as to cover said slits ; - pouring said sanitizing product in gel form into said container body , characterized in that said step of depositing said water-soluble material inside said container body comprises treating said container body with a concentrated solution of said water-soluble material and subsequently drying it. - preparing a container body adapted to contain a sanitizing product in gel form , said container body being affected by slits adapted to allow the gradual release of said sanitizing product in gel form ; - depositing a water-soluble material inside said container body, so as to cover said slits ; - pouring said sanitizing product in gel form into said container body , characterized in that said step of depositing said water-soluble material inside said container body comprises treating said container body with a concentrated solution of said water-soluble material and subsequently drying it.
Method of diagnosing prostate cancer or the risk of prostate cancer in a patient by detecting antibodies against the following marker proteins or a selection of at least 2 of the marker proteins or at least 20 % of the marker proteins selected from OXA1L, GOLM1, NRXN2, PAPSS1, GNAI2, FTSJD2, CERS1, FNTB, MYO19, ADCK3, SDHA, FAM184A (List 1) in a patient, wherein the selection comprises at least OXA1L, comprising the step of detecting antibodies binding said marker proteins in a sample of the patient.
Mobile stand for an object to be held, comprising a roller carrier with at least three rollers designed to roll on a ground surface so that the stand is mobile, a mount via which the object to be held can be coupled to the mobile stand , a locking device by means of which the roller carrier can be locked in position relative to the ground surface , the locking device being connected to an operating device by means of which the locking device can be moved reversibly between a rest position without contact with the ground surface and a locking position with contact with the ground surface, wherein the locking device has one pair or several pairs of elongated locking elements and the locking elements of the or each pair can be pivoted in opposite directions relative to each other from the rest position into the locking position by operating the operating device and, in the locking position, in contact with the ground surface, are oriented obliquely and in opposite directions relative to each other, characterised in that the locking device comprises a pull connection with at least one flexible pull element , in particular a pull cable, a pull chain or a pull strap, which establishes a deflected pull connection between the operating device and the locking elements of at least one pair of locking elements , wherein the locking elements of the pair of locking elements are each spring-biased in the opposite direction to a pull load.
An electrical contact comprising: a first contact surface; a second contact surface; and a coating dispersed on at least one of the first or second contact surfaces, where the coating includes the UV-cured product of a curable composition comprising: a telechelic polypropylene glycol--polyethylene glycol multi-block polymer including methacrylate or acrylate functional groups; and a photoinitiator; where the coating is a gel. a first contact surface; a second contact surface; and a coating dispersed on at least one of the first or second contact surfaces, where the coating includes the UV-cured product of a curable composition comprising: a telechelic polypropylene glycol--polyethylene glycol multi-block polymer including methacrylate or acrylate functional groups; and a photoinitiator; a telechelic polypropylene glycol--polyethylene glycol multi-block polymer including methacrylate or acrylate functional groups; and a photoinitiator; where the coating is a gel.
A wavelength conversion device, comprising: a wavelength conversion material layer , and a first light-filtering layer disposed on a first side of the wavelength conversion material layer , the wavelength conversion device further comprising: a first thermally-conductive dielectric layer configured between the wavelength conversion material layer and the first light-filtering layer , characterized in that the first thermally-conductive dielectric layer has a thermal conductivity greater than or equal to the wavelength conversion material layer , and has a refractivity less than the wavelength conversion material layer . a wavelength conversion material layer , and a first light-filtering layer disposed on a first side of the wavelength conversion material layer , the wavelength conversion device further comprising: a first thermally-conductive dielectric layer configured between the wavelength conversion material layer and the first light-filtering layer , characterized in that the first thermally-conductive dielectric layer has a thermal conductivity greater than or equal to the wavelength conversion material layer , and has a refractivity less than the wavelength conversion material layer .
A method of storing multi-dimensional data, the method comprising: encoding a structure of nodes (A, B, 1, 8, 9, 10, 11, 12, 13) of a tree data structure into a sequence representation ; compressing data of nodes of the tree data structure to create a data stream of compressed data portions of variable length in a sequence corresponding to the order represented in the sequence representation , wherein each compressed data portion is formed from the data of each respective node; mapping the positions of the data portions in the data stream to the sequence representation to produce a position representation ; storing the sequence representation , data stream and position representation . encoding a structure of nodes (A, B, 1, 8, 9, 10, 11, 12, 13) of a tree data structure into a sequence representation ; compressing data of nodes of the tree data structure to create a data stream of compressed data portions of variable length in a sequence corresponding to the order represented in the sequence representation , wherein each compressed data portion is formed from the data of each respective node; mapping the positions of the data portions in the data stream to the sequence representation to produce a position representation ; storing the sequence representation , data stream and position representation .
A microscopic image controller device for a microscope , the microscopic image controller device comprising: • an input section adapted for receiving at least: - subsequent sets of input image data , each set representing a microscopic image, • an output section for outputting sets of output image data , each set representing a microscopic image, wherein the microscopic image controller device is adapted to automatically switch from a first image processing mode to a second image processing mode if an amount of change between at least two subsequent sets of input image data is below a threshold, and wherein, in the second image processing mode , the sets of output image data are based on a greater number of subsequent sets of input image data than in the first image processing mode , and • wherein as the threshold an absolute threshold is used by using a reference set of image data . • an input section adapted for receiving at least: - subsequent sets of input image data , each set representing a microscopic image, - subsequent sets of input image data , each set representing a microscopic image, • an output section for outputting sets of output image data , each set representing a microscopic image, wherein the microscopic image controller device is adapted to automatically switch from a first image processing mode to a second image processing mode if an amount of change between at least two subsequent sets of input image data is below a threshold, and wherein, in the second image processing mode , the sets of output image data are based on a greater number of subsequent sets of input image data than in the first image processing mode , and wherein the microscopic image controller device is adapted to automatically switch from a first image processing mode to a second image processing mode if an amount of change between at least two subsequent sets of input image data is below a threshold, and wherein, in the second image processing mode , the sets of output image data are based on a greater number of subsequent sets of input image data than in the first image processing mode , and • wherein as the threshold an absolute threshold is used by using a reference set of image data .