mhurhangee/patent-ind-claim-en huggingface dataset:
An overvoltage protection device for protecting a low-voltage supply system of a building against overvoltages, comprising a base body , on which an interface is provided for electrical and mechanical coupling of the overvoltage protection device to a busbar system comprising a plurality of busbars, and a receiving area which is arranged on the base body and in which an electrotechnical add-on part can optionally be received, characterized in that at least one contact tongue is provided on the base body , which is configured to electrically contact and mechanically secure the electrotechnical add-on part which can optionally be arranged in the receiving area , the contact tongue being displaceably mounted on the base body . a base body , on which an interface is provided for electrical and mechanical coupling of the overvoltage protection device to a busbar system comprising a plurality of busbars, and a receiving area which is arranged on the base body and in which an electrotechnical add-on part can optionally be received, characterized in that at least one contact tongue is provided on the base body , which is configured to electrically contact and mechanically secure the electrotechnical add-on part which can optionally be arranged in the receiving area , the contact tongue being displaceably mounted on the base body .
A spectral selection component for XUV radiation, comprising: - a first multilayer mirror for receiving an XUV radiation beam (I 1 ) along an input axis located in a first plane of incidence and comprising a first axis of rotation that is substantially perpendicular to the plane of incidence; - a second multilayer mirror for receiving, in a second plane of incidence, an XUV radiation beam (I 2 ) reflected by the first mirror in order to transmit the radiation to an output axis of the spectral selection component, and comprising a second axis of rotation that is substantially perpendicular to the second plane of incidence; wherein: - one of said mirrors has a first energy spectral reflectance in the high-pass XUV, with a flank on the low-energy side with a steepness that is greater than 0.1 eV -1 and a rejection of low energies that is greater than 20; - the other of said mirrors has a second energy spectral reflectance in the low-pass XUV, with a flank on the high-energy side with a steepness that is greater than 0.1 eV -1 and a rejection of high energies that is greater than 20; - said mirrors have an only partial overlap in their spectral energy responses. - a first multilayer mirror for receiving an XUV radiation beam (I 1 ) along an input axis located in a first plane of incidence and comprising a first axis of rotation that is substantially perpendicular to the plane of incidence; - a second multilayer mirror for receiving, in a second plane of incidence, an XUV radiation beam (I 2 ) reflected by the first mirror in order to transmit the radiation to an output axis of the spectral selection component, and comprising a second axis of rotation that is substantially perpendicular to the second plane of incidence; - one of said mirrors has a first energy spectral reflectance in the high-pass XUV, with a flank on the low-energy side with a steepness that is greater than 0.1 eV -1 and a rejection of low energies that is greater than 20; - the other of said mirrors has a second energy spectral reflectance in the low-pass XUV, with a flank on the high-energy side with a steepness that is greater than 0.1 eV -1 and a rejection of high energies that is greater than 20; - said mirrors have an only partial overlap in their spectral energy responses.
A method for producing silver nanowires comprising the following steps: Heating and stirring a mixture of perylene bisimide of formula and a silver metal salt in a 1:25 to 1:35 mass ratio, at a temperature between 130 °C and 170 °C, during 3 h to 14 h, in the presence of a solvent; Cooling the solution between 20 and 25°C for 16 h to 20 h; Collecting and filtering the resulting precipitate to isolate the silver nanowires; wherein formula is Heating and stirring a mixture of perylene bisimide of formula and a silver metal salt in a 1:25 to 1:35 mass ratio, at a temperature between 130 °C and 170 °C, during 3 h to 14 h, in the presence of a solvent; Cooling the solution between 20 and 25°C for 16 h to 20 h; Collecting and filtering the resulting precipitate to isolate the silver nanowires; wherein formula is
A gear structure spring hinge for household appliances, wherein the hinge comprises a fixing base and a hinge arm , the fixing base being connected to a first gear through a first gear shaft , a crank shaft being provided on a gear surface of the first gear , the crank shaft being movably connected to a pull rod , a spring assembly being sleeved on the pull rod , a front end of the spring assembly being mated with and snap-fitted to the fixing base ; and the hinge arm includes a connecting arm and a second gear , the second gear being provided on an end of the connecting arm , the second gear and the connecting arm forming an integral structure, the second gear being connected to the fixing base through a second gear shaft , the second gear being meshed with the first gear , characterized in that the hinge arm further comprises a mounting member with a mounting hole ; an anti-detaching positioning groove is provided on a side edge of the connecting arm , both corners of a rear end of the connecting arm being chamfered; and a connecting arm groove for mating and snap-fitting with the connecting arm is provided on the mounting member , an elastic jaw for mating and snap-fitting with the anti-detaching positioning groove being provided on a groove wall of the connecting arm groove .
A robot cleaner, comprising: a cleaner body having a controller; a wheel cover mounted to the cleaner body ; a motor that is connected to the wheel cover to generate a driving force; a wheel that is coupled to the motor and configured to rotate based on receiving the driving force from the motor ; a guide bar coupled to the wheel cover and extending vertically, the guide bar being connected to the motor and configured to guide a vertical movement of the motor ; and a spring surrounding the guide bar and connected to the wheel cover and the motor , configured to absorb impacts during the vertical movement of the motor , characterized by the fact that the wheel includes an accommodating cavity formed at one side thereof to accommodate at least a part of the motor . a cleaner body having a controller; a wheel cover mounted to the cleaner body ; a motor that is connected to the wheel cover to generate a driving force; a wheel that is coupled to the motor and configured to rotate based on receiving the driving force from the motor ; a guide bar coupled to the wheel cover and extending vertically, the guide bar being connected to the motor and configured to guide a vertical movement of the motor ; and a spring surrounding the guide bar and connected to the wheel cover and the motor , configured to absorb impacts during the vertical movement of the motor , characterized by the fact that the wheel includes an accommodating cavity formed at one side thereof to accommodate at least a part of the motor .
A protective helmet for motorcyclists; comprising a front window and side mechanisms for mounting the respective sides of a transparent visor such that it can rotate between an open position and a closed position of the front window, comprising - a locking latch for locking and unlocking the visor , and - elastic pushing means for pushing the visor towards an open position, laterally in the helmet , so that when the locking latch retains the visor , the same remains in a closed position and the elastic means remain compressed by the visor itself, and when the locking latch is released from the visor from the closed position said elastic means push the visor , causing the rotation of the visor from said closed position towards the first open position, characterized in that the locking latch is in the front area of the helmet. - a locking latch for locking and unlocking the visor , and - elastic pushing means for pushing the visor towards an open position, laterally in the helmet , so that when the locking latch retains the visor , the same remains in a closed position and the elastic means remain compressed by the visor itself, and when the locking latch is released from the visor from the closed position said elastic means push the visor , causing the rotation of the visor from said closed position towards the first open position, characterized in that the locking latch is in the front area of the helmet.
A device comprising: a flowcell comprising a fluidic channel , an inlet port, and an outlet port, wherein the fluidic channel comprises a ceiling , a first sidewall , and a fluidic channel bottom , wherein the ceiling and the first sidewall form a ceiling-first sidewall edge, and wherein the bottom and the first sidewall form a bottom-first sidewall edge , wherein the bottom of the fluidic channel comprises a substrate which comprises a plurality of microwells, and wherein the inlet port and the outlet port are in fluid communication with the flowcell via the fluidic channel , characterized in that the ceiling comprises a central portion that is offset from the ceiling-first sidewall edge , thereby forming an offset from the ceiling-first sidewall edge , wherein the central portion is more hydrophilic than the offset, a flowcell comprising a fluidic channel , an inlet port, and an outlet port, wherein the fluidic channel comprises a ceiling , a first sidewall , and a fluidic channel bottom , wherein the ceiling and the first sidewall form a ceiling-first sidewall edge, and wherein the bottom and the first sidewall form a bottom-first sidewall edge , wherein the bottom of the fluidic channel comprises a substrate which comprises a plurality of microwells, and wherein the inlet port and the outlet port are in fluid communication with the flowcell via the fluidic channel , characterized in that the ceiling comprises a central portion that is offset from the ceiling-first sidewall edge , thereby forming an offset from the ceiling-first sidewall edge , wherein the central portion is more hydrophilic than the offset,
Tyre for an agricultural vehicle, comprising a working reinforcement , radially on the inside of a tread and radially on the outside of a carcass reinforcement : - the working reinforcement comprising a multilayer component made up of a radial stack of at least two working layers ; - each working layer of the multilayer component extending circumferentially from a first circumferential end to a second circumferential end and being made up of reinforcers that are coated in an elastomeric compound, are mutually parallel and are oriented at an angle (A1, A2) relative to a circumferential direction (XX') tangential to the tread ; - the working reinforcement being made up of a circumferential spiral winding of at least one turn of the multilayer component about the carcass reinforcement, the first and second circumferential ends (211, 221; 212, 222) of each working layer of the multilayer component being circumferentially offset from one another by an angle (B1, B2); - the respective first circumferential ends of two consecutive working layers of the multilayer component being circumferentially offset from one another by an angle C1, characterized in that the first and second circumferential ends (211, 221; 212, 222) of the set of working layers are distributed in the circumferential direction in positions that are regularly distributed over a turn. - the working reinforcement comprising a multilayer component made up of a radial stack of at least two working layers ; - each working layer of the multilayer component extending circumferentially from a first circumferential end to a second circumferential end and being made up of reinforcers that are coated in an elastomeric compound, are mutually parallel and are oriented at an angle (A1, A2) relative to a circumferential direction (XX') tangential to the tread ; - the working reinforcement being made up of a circumferential spiral winding of at least one turn of the multilayer component about the carcass reinforcement, the first and second circumferential ends (211, 221; 212, 222) of each working layer of the multilayer component being circumferentially offset from one another by an angle (B1, B2); - the respective first circumferential ends of two consecutive working layers of the multilayer component being circumferentially offset from one another by an angle C1, characterized in that the first and second circumferential ends (211, 221; 212, 222) of the set of working layers are distributed in the circumferential direction in positions that are regularly distributed over a turn.
A radar apparatus for estimating position of a plurality of obstacles, the radar apparatus comprising: a receive antenna unit, including: a linear array of antennas; and an additional antenna at a predefined offset from at least one antenna in the linear array of antennas; and a signal processing unit configured to: estimate an azimuth frequency associated with each of the obstacles from a signal received from the plurality of obstacles at the linear array of antennas; estimate a complex amplitude associated with each obstacle from the estimated azimuth frequency associated with the plurality of obstacles and from the signal received from the plurality of obstacles at the linear array of antennas; estimate a complex phasor associated with each obstacle from the estimated complex amplitude associated with the plurality of obstacles and from a signal received from the plurality of obstacles at the additional antenna; and estimate an azimuth angle and an elevation angle associated with each obstacle from the estimated complex phasor associated with each obstacle and from the estimated azimuth frequency associated with each obstacle. a receive antenna unit, including: a linear array of antennas; and an additional antenna at a predefined offset from at least one antenna in the linear array of antennas; a linear array of antennas; and an additional antenna at a predefined offset from at least one antenna in the linear array of antennas; and a signal processing unit configured to: estimate an azimuth frequency associated with each of the obstacles from a signal received from the plurality of obstacles at the linear array of antennas; estimate a complex amplitude associated with each obstacle from the estimated azimuth frequency associated with the plurality of obstacles and from the signal received from the plurality of obstacles at the linear array of antennas; estimate a complex phasor associated with each obstacle from the estimated complex amplitude associated with the plurality of obstacles and from a signal received from the plurality of obstacles at the additional antenna; and estimate an azimuth angle and an elevation angle associated with each obstacle from the estimated complex phasor associated with each obstacle and from the estimated azimuth frequency associated with each obstacle. estimate an azimuth frequency associated with each of the obstacles from a signal received from the plurality of obstacles at the linear array of antennas; estimate a complex amplitude associated with each obstacle from the estimated azimuth frequency associated with the plurality of obstacles and from the signal received from the plurality of obstacles at the linear array of antennas; estimate a complex phasor associated with each obstacle from the estimated complex amplitude associated with the plurality of obstacles and from a signal received from the plurality of obstacles at the additional antenna; and estimate an azimuth angle and an elevation angle associated with each obstacle from the estimated complex phasor associated with each obstacle and from the estimated azimuth frequency associated with each obstacle.
A system for differentiating between a pelvic floor muscles, PFM, ascent/contraction and a PFM descent/strain of a subject, the system comprising: a vaginal probe device including a housing which contains an orientation sensor and is configured to be located within the vaginal canal of the subject, in which the orientation sensor provides or measures a time sequence of data points, with each data point defining the measured orientation of the vaginal probe device at a particular point in time; a processor communicating with the vaginal probe device and configured to: receive data measured by the orientation sensor, process the orientation sensor data to monitor the orientation of the probe device inside the vaginal canal, in which the processor is further configured to (i) determine the direction of rotation of the probe device by monitoring a change in the orientation of the probe device; (ii) use the determined direction of rotation to determine whether there has been PFM ascent / contraction or a PFM descent/strain, and (iii) generate an output indicating a PFM ascent/contraction or a PFM descent/strain. a vaginal probe device including a housing which contains an orientation sensor and is configured to be located within the vaginal canal of the subject, in which the orientation sensor provides or measures a time sequence of data points, with each data point defining the measured orientation of the vaginal probe device at a particular point in time; a processor communicating with the vaginal probe device and configured to: receive data measured by the orientation sensor, process the orientation sensor data to monitor the orientation of the probe device inside the vaginal canal, in which the processor is further configured to (i) determine the direction of rotation of the probe device by monitoring a change in the orientation of the probe device; (ii) use the determined direction of rotation to determine whether there has been PFM ascent / contraction or a PFM descent/strain, and (iii) generate an output indicating a PFM ascent/contraction or a PFM descent/strain. receive data measured by the orientation sensor, process the orientation sensor data to monitor the orientation of the probe device inside the vaginal canal, in which the processor is further configured to (i) determine the direction of rotation of the probe device by monitoring a change in the orientation of the probe device; (ii) use the determined direction of rotation to determine whether there has been PFM ascent / contraction or a PFM descent/strain, and (iii) generate an output indicating a PFM ascent/contraction or a PFM descent/strain.
Method of operating a diaphragm valve which comprises the reading of data which is characteristic of at least one property of a diaphragm of the diaphragm valve , from at least one data memory incorporated in the diaphragm valve , by means of a reading device , characterised in that the method also comprises: a. transmission of the data which is read to a processing means arranged remotely from the reading device and from the diaphragm valve , b. synchronisation of the data transmitted with data present in the processing means , the data present in the processing means being characteristic of at least one property of the diaphragm of the diaphragm valve , and/or of at least one property of a component of the diaphragm valve which is not the diaphragm , and/or of at least one property of the diaphragm valve . a. transmission of the data which is read to a processing means arranged remotely from the reading device and from the diaphragm valve , b. synchronisation of the data transmitted with data present in the processing means ,
A double nozzle for a laser cutting head, the double nozzle comprising: an inner body portion having (i) an interior surface defining a first bore , , the bore aligned with a central longitudinal axis of the body, and (ii) a first exterior circumferential surface disposed toward a distal end of the inner body portion and a second exterior circumferential surface disposed toward a proximal end of the inner body portion , wherein the second circumferential exterior surface is tapered relative to a longitudinal axis of the double nozzle; and an outer body portion having an interior surface defining a second bore that is substantially aligned to the longitudinal axis , the outer body portion matingly engaged with a region of the first exterior circumferential surface of the inner body portion , wherein the inner body portion and the outer body portion are affixed, and wherein the region between the first exterior circumferential surface of the inner body portion and the interior surface of the outer body portion defines at least six coaxial fluid flow paths through an interior annular flow volume of the double nozzle, each fluid flow path defined at least in part by a corresponding feature formed in at least one of the inner body portion or the outer body portion . an inner body portion having (i) an interior surface defining a first bore , , the bore aligned with a central longitudinal axis of the body, and (ii) a first exterior circumferential surface disposed toward a distal end of the inner body portion and a second exterior circumferential surface disposed toward a proximal end of the inner body portion , wherein the second circumferential exterior surface is tapered relative to a longitudinal axis of the double nozzle; and an outer body portion having an interior surface defining a second bore that is substantially aligned to the longitudinal axis , the outer body portion matingly engaged with a region of the first exterior circumferential surface of the inner body portion , wherein the inner body portion and the outer body portion are affixed, and wherein the region between the first exterior circumferential surface of the inner body portion and the interior surface of the outer body portion defines at least six coaxial fluid flow paths through an interior annular flow volume of the double nozzle, each fluid flow path defined at least in part by a corresponding feature formed in at least one of the inner body portion or the outer body portion .