mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a hair cutting device having a cutting element for cutting a subject's hair; a localisation unit for acquiring location data indicative of a location of the cutting element relative to a body part of the subject; a timer unit for measuring time data associated with usage of the hair cutting device; and a processing unit in communication with the hair cutting device, the localisation unit and the timer unit, the processing unit being configured to: determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter. a hair cutting device having a cutting element for cutting a subject's hair; a localisation unit for acquiring location data indicative of a location of the cutting element relative to a body part of the subject; a timer unit for measuring time data associated with usage of the hair cutting device; and a processing unit in communication with the hair cutting device, the localisation unit and the timer unit, the processing unit being configured to: determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter. determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter.
An isolated immunogen, comprising: a recombinant RSV F protein or fragment thereof comprising amino acid substitutions compared to a native RSV F protein as set forth as one of SEQ ID NOs: 1-184 that stabilizes the recombinant RSV F protein in a prefusion conformation that specifically binds to a RSV F prefusion-specific antibody, wherein: the recombinant RSV F protein is stabilized in the RSV F protein prefusion conformation by S155C, S290C, S190F, and V207L substitutions, the prefusion conformation of the recombinant RSV F protein or fragment thereof comprises an antigenic site ∅ that comprises residues 62-69 and 196-209 of a native RSV F protein sequence set forth as one of SEQ ID NOs: 1-184, the immunogen specifically binds to the prefusion-specific antibody after incubation at 20°C in phosphate buffered saline at physiological pH for at least 24 hours in the absence of the prefusion-specific antibody, and the RSV F prefusion-specific antibody does not bind to a RSV F protein in a post-fusion conformation; and the prefusion-specific antibody is a D25 antibody comprising VH and VL domains as set forth in SEQ ID NOs 368 and 369, respectively, the recombinant RSV F protein is stabilized in the RSV F protein prefusion conformation by S155C, S290C, S190F, and V207L substitutions, the prefusion conformation of the recombinant RSV F protein or fragment thereof comprises an antigenic site ∅ that comprises residues 62-69 and 196-209 of a native RSV F protein sequence set forth as one of SEQ ID NOs: 1-184, the immunogen specifically binds to the prefusion-specific antibody after incubation at 20°C in phosphate buffered saline at physiological pH for at least 24 hours in the absence of the prefusion-specific antibody, and the RSV F prefusion-specific antibody does not bind to a RSV F protein in a post-fusion conformation; and the prefusion-specific antibody is a D25 antibody comprising VH and VL domains as set forth in SEQ ID NOs 368 and 369, respectively,
A heat exchanger configured to perform heat exchange between a heat source and a liquid by boiling the liquid , wherein the heat exchanger comprises: a heat transfer member disposed between the heat source and the liquid , the heat transfer member configured to transfer heat from the heat source to the liquid , characterised in that a surface of the heat transfer member on a side of the heat transfer member that comes in contact with the liquid comprises a first heat conduction region and a second heat conduction region ; the first heat conduction region and the second heat conduction region are alternately provided in a form of stripes on the surface ; and the thermal conductivity of the first heat conduction region is higher than the thermal conductivity of the second heat conduction region . a heat transfer member disposed between the heat source and the liquid , the heat transfer member configured to transfer heat from the heat source to the liquid , characterised in that a surface of the heat transfer member on a side of the heat transfer member that comes in contact with the liquid comprises a first heat conduction region and a second heat conduction region ; the first heat conduction region and the second heat conduction region are alternately provided in a form of stripes on the surface ; and the thermal conductivity of the first heat conduction region is higher than the thermal conductivity of the second heat conduction region .
A transponder layer having an antenna substrate , which, on an antenna side , is equipped with an antenna formed from a wire conductor as well as with a chip , and which, on the antenna side, has terminal conductors for connecting the chip to the wire conductor of the antenna in such a manner that the chip is arranged adjacently to terminal ends of the wire conductor, and in such a manner that both the terminal ends of the wire conductor and chip terminals , which are arranged on a contact side of a semiconductor body of the chip, the contact side facing towards the antenna substrate, are contacted with the terminal conductors, the terminal conductors for connecting the chip to the wire conductor of the antenna being embodied as contact pads (36, 37; 53, 54) and being arranged on the antenna side in such a manner that the contact pads, for being contacted with the antenna, have an antenna contact portion having an antenna contact side facing towards the antenna side and, for being contacted with the chip, have a chip contact portion having a chip contact side that is opposite to the antenna contact side and faces away from the antenna side, characterised in that the contact pads , with their chip contact side , are arranged on a carrier substrate and in that the chip terminals , for contacting the chip with the contact pads, extend through the carrier substrate.
Industrial robot comprising at least one sealing arrangement , wherein the sealing arrangement comprises: - a sealing element arranged to seal a gap between a proximal member and a distal member , the sealing element comprising a sealing material configured to withstand a temperature of at least 100 °C; and - a heating element arranged to heat the sealing material to at least 70 °C. - a sealing element arranged to seal a gap between a proximal member and a distal member , the sealing element comprising a sealing material configured to withstand a temperature of at least 100 °C; and - a heating element arranged to heat the sealing material to at least 70 °C.
A sensor chip for parallelized magnetic sensing of a plurality of samples , the sensor chip comprising: an optically transparent substrate comprising a plurality of optically addressable solid-state spin systems arranged in a plurality of sensing regions in a surface layer (104-I) below a top surface of the substrate ; a plurality of sample sites , wherein the sample sites and the sensing regions are arranged in a regular one-dimensional or two-dimensional pattern with each sample site being arranged above a respective sensing region ; and a light guiding system configured to provide an optical path through the substrate connecting each of the sensing regions . an optically transparent substrate comprising a plurality of optically addressable solid-state spin systems arranged in a plurality of sensing regions in a surface layer (104-I) below a top surface of the substrate ; a plurality of sample sites , wherein the sample sites and the sensing regions are arranged in a regular one-dimensional or two-dimensional pattern with each sample site being arranged above a respective sensing region ; and a light guiding system configured to provide an optical path through the substrate connecting each of the sensing regions .
Mould for a production apparatus for producing fibre-reinforced components by means of an injection method, wherein the mould has a mould surface for moulding a surface of the fibre-reinforced component , wherein the mould is formed of a plurality of partial moulds and comprises: a first partial mould which comprises a first partial region of the mould surface and which has an evacuation region for evacuating a mould volume which is delimited by the mould through the first partial region , wherein flow aids for supporting evacuation of the mould volume are arranged in the first partial region , and a second partial mould which comprises a second partial region of the mould surface and which has an injection region which is configured for injecting matrix material through the second partial region into fibrous material located at the mould surface , wherein flow aids for supporting distribution of the injected matrix material are arranged in the second partial region of the mould surface , characterized in that the flow aids have grooves or channels such that the matrix material can be distributed uniformly over the fibrous material . a first partial mould which comprises a first partial region of the mould surface and which has an evacuation region for evacuating a mould volume which is delimited by the mould through the first partial region , wherein flow aids for supporting evacuation of the mould volume are arranged in the first partial region , and a second partial mould which comprises a second partial region of the mould surface and which has an injection region which is configured for injecting matrix material through the second partial region into fibrous material located at the mould surface , wherein flow aids for supporting distribution of the injected matrix material are arranged in the second partial region of the mould surface , characterized in that the flow aids have grooves or channels such that the matrix material can be distributed uniformly over the fibrous material .
A system for extracting cut laminar materials for cutting machines of laminar materials, which comprises: a cutting table on which the laminar material to be cut is placed, said cutting table being formed by a cutting surface , which is formed by a plurality of brush blocks , the brush blocks comprising a plurality of bristles, said cutting surface moving as the laminar material is cut, and modular combs for extracting the cut laminar material equipped with a plurality of protrusions and installed on one of the edges of said cutting table , defining a proximal end that is closer to the edge of the cutting table and a distal end further from the edge of the cutting table , the distal end of the protrusions of each comb being inserted between the bristles of the brush blocks , characterised in that the extraction comb comprises first protrusions and second protrusions , the distal end of the first protrusions being further from the edge of the cutting table than the distal end of the second protrusions . a cutting table on which the laminar material to be cut is placed, said cutting table being formed by a cutting surface , which is formed by a plurality of brush blocks , the brush blocks comprising a plurality of bristles, said cutting surface moving as the laminar material is cut, and modular combs for extracting the cut laminar material equipped with a plurality of protrusions and installed on one of the edges of said cutting table , defining a proximal end that is closer to the edge of the cutting table and a distal end further from the edge of the cutting table , the distal end of the protrusions of each comb being inserted between the bristles of the brush blocks , characterised in that the extraction comb comprises first protrusions and second protrusions , the distal end of the first protrusions being further from the edge of the cutting table than the distal end of the second protrusions .
An integrated circuit for a near-field radio, comprising: an inductive-capacitive, LC, tank antenna circuit designed to operate at a predetermined carrier frequency, the LC tank antenna circuit including a variable capacitor and an antenna element; a transmitter configured to output a channel sounding signal, CSS, to the LC tank antenna circuit ; a receiver configured to receive the CSS and a tank response from the LC tank antenna circuit ; a tank response estimator configured to: extract a tank frequency response of the LC tank antenna circuit by removing the CSS from the tank response in the frequency domain; and determine an oscillation frequency and a bandwidth of the LC tank antenna circuit using the tank frequency response of the LC tank antenna circuit; and a controller configured to: adjust a reactance of the LC tank antenna circuit to resonate the LC tank antenna circuit and change the oscillation frequency to the predetermined carrier frequency; and adjust a resistor of the LC tank antenna circuit to tune the bandwidth of the LC tank antenna circuit; and wherein the CSS is an orthogonal frequency division multiplexing (OFDM) signal. an inductive-capacitive, LC, tank antenna circuit designed to operate at a predetermined carrier frequency, the LC tank antenna circuit including a variable capacitor and an antenna element; a transmitter configured to output a channel sounding signal, CSS, to the LC tank antenna circuit ; a receiver configured to receive the CSS and a tank response from the LC tank antenna circuit ; a tank response estimator configured to: extract a tank frequency response of the LC tank antenna circuit by removing the CSS from the tank response in the frequency domain; and determine an oscillation frequency and a bandwidth of the LC tank antenna circuit using the tank frequency response of the LC tank antenna circuit; and extract a tank frequency response of the LC tank antenna circuit by removing the CSS from the tank response in the frequency domain; and determine an oscillation frequency and a bandwidth of the LC tank antenna circuit using the tank frequency response of the LC tank antenna circuit; and a controller configured to: adjust a reactance of the LC tank antenna circuit to resonate the LC tank antenna circuit and change the oscillation frequency to the predetermined carrier frequency; and adjust a resistor of the LC tank antenna circuit to tune the bandwidth of the LC tank antenna circuit; and wherein the CSS is an orthogonal frequency division multiplexing (OFDM) signal. adjust a reactance of the LC tank antenna circuit to resonate the LC tank antenna circuit and change the oscillation frequency to the predetermined carrier frequency; and adjust a resistor of the LC tank antenna circuit to tune the bandwidth of the LC tank antenna circuit; and wherein the CSS is an orthogonal frequency division multiplexing (OFDM) signal.
A method for scheduling operations, comprising: adding a first operation to a tracking array of a processor in response to the first operation being received for scheduling for execution at the processor; blocking the first operation from being scheduled for execution; adjusting a value of a counter for counting a number of times operations stored at the tracking array are blocked by a first adjustment in response to blocking the first operation from being scheduled for execution while the first operation is stored at the tracking array; and in response to the value of the counter exceeding a threshold , suppressing scheduling of execution operations not stored the tracking array until at least one operation stored at the tracking array has been scheduled for execution. adding a first operation to a tracking array of a processor in response to the first operation being received for scheduling for execution at the processor; blocking the first operation from being scheduled for execution; adjusting a value of a counter for counting a number of times operations stored at the tracking array are blocked by a first adjustment in response to blocking the first operation from being scheduled for execution while the first operation is stored at the tracking array; and in response to the value of the counter exceeding a threshold , suppressing scheduling of execution operations not stored the tracking array until at least one operation stored at the tracking array has been scheduled for execution.
An information processing apparatus comprising: a display control unit configured to, on a basis of positional relationship between a user and a display region and a first coordinate on the display region pointed by a pointing object of the user, control relationship between the first coordinate and a second coordinate at which a display object corresponding to the pointing object is to be displayed, wherein the display control unit increases a relative distance between the first coordinate and the second coordinate as a distance from a reference point based on the positional relationship to the first coordinate increases. a display control unit configured to, on a basis of positional relationship between a user and a display region and a first coordinate on the display region pointed by a pointing object of the user, control relationship between the first coordinate and a second coordinate at which a display object corresponding to the pointing object is to be displayed, wherein the display control unit increases a relative distance between the first coordinate and the second coordinate as a distance from a reference point based on the positional relationship to the first coordinate increases.
A method of forming a shelf stable, confectionary food product comprising a confectionary coating over a core mixture comprising crumbs and shortening, the method comprising: (a) combining dehydrated crumbs having a moisture content less than 7% and a water activity of 0.2-0.6 with a shortening-based matrix comprising solid or semi-solid shortening and water at a ratio of the dehydrated crumbs to the shortening-based matrix of 1.5:1 to 0.75:1 to form a mixture, wherein the total content of saturated fatty acids is 35 to 53%, the total content of monounsaturated fatty acids is 15 to 48%, the total content of polyunsaturated fatty acids is 8 to 35%, and the total content of trans fatty acids is 0.5 to 2% in the shortening, and the shortening-based matrix has a water activity of less than 0.7; (b) forming the mixture into pieces; and (c) coating the pieces with a confectionary coating material having a water activity. (a) combining dehydrated crumbs having a moisture content less than 7% and a water activity of 0.2-0.6 with a shortening-based matrix comprising solid or semi-solid shortening and water at a ratio of the dehydrated crumbs to the shortening-based matrix of 1.5:1 to 0.75:1 to form a mixture, wherein the total content of saturated fatty acids is 35 to 53%, the total content of monounsaturated fatty acids is 15 to 48%, the total content of polyunsaturated fatty acids is 8 to 35%, and the total content of trans fatty acids is 0.5 to 2% in the shortening, and the shortening-based matrix has a water activity of less than 0.7; (b) forming the mixture into pieces; and (c) coating the pieces with a confectionary coating material having a water activity.
A wireless power supply device provided on a ground at a predetermined parking position, the device comprising: a power transmission coil for transmitting electric power to a power receiving coil provided in a vehicle via a wireless connection when the vehicle is parked in the predetermined parking position; a power transmission coil unit housing the power transmission coil ; and a marker (M) provided closer to a side where the vehicle enters when parked in the predetermined parking position than the power transmission coil unit , characterized in that the marker (M) is composed of a first segment (m1) and a second segment (m2) not parallel to each other and has a configuration in which an end portion of the first segment (m1) is placed in the second segment (m2), and the power transmission coil being separated by a predetermined distance from a point (C2) of intersection of the first segment (m1) and the second segment (m2) in a direction in which the first segment (m1) extends. a power transmission coil for transmitting electric power to a power receiving coil provided in a vehicle via a wireless connection when the vehicle is parked in the predetermined parking position; a power transmission coil unit housing the power transmission coil ; and a marker (M) provided closer to a side where the vehicle enters when parked in the predetermined parking position than the power transmission coil unit , characterized in that the marker (M) is composed of a first segment (m1) and a second segment (m2) not parallel to each other and has a configuration in which an end portion of the first segment (m1) is placed in the second segment (m2), and the power transmission coil being separated by a predetermined distance from a point (C2) of intersection of the first segment (m1) and the second segment (m2) in a direction in which the first segment (m1) extends.