mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting system controller to control a plurality of lighting units of a lighting system , comprising: a communication interface; and logic operably coupled with the communication and configured to: receive, via the communication interface within an iteration of a predetermined time interval, from two or more sensors associated with the lighting system, indications of two or more sensor events, wherein the predetermined time interval is a pre-programmed time interval or a user-selected time interval received from a computing device operated by a user, and wherein the two or more sensor events cause energizing of two or more lighting units associated with the two or more sensors ; and commission the two or more lighting units that have been energized within the iteration of the predetermined time interval as a result of the sensor events as a group of lighting units that is configured to be collectively controlled. a communication interface; and logic operably coupled with the communication and configured to: receive, via the communication interface within an iteration of a predetermined time interval, from two or more sensors associated with the lighting system, indications of two or more sensor events, wherein the predetermined time interval is a pre-programmed time interval or a user-selected time interval received from a computing device operated by a user, and wherein the two or more sensor events cause energizing of two or more lighting units associated with the two or more sensors ; and commission the two or more lighting units that have been energized within the iteration of the predetermined time interval as a result of the sensor events as a group of lighting units that is configured to be collectively controlled. receive, via the communication interface within an iteration of a predetermined time interval, from two or more sensors associated with the lighting system, indications of two or more sensor events, wherein the predetermined time interval is a pre-programmed time interval or a user-selected time interval received from a computing device operated by a user, and wherein the two or more sensor events cause energizing of two or more lighting units associated with the two or more sensors ; and commission the two or more lighting units that have been energized within the iteration of the predetermined time interval as a result of the sensor events as a group of lighting units that is configured to be collectively controlled.
A device (1;11;21;31) for drying of a biological sample applied on a sample storage substrate (3;13;23;33), comprising at least one sample storage substrate holder (4;14;24;34) characterized in that the device further comprises at least one chemical heat pad (5;15;25;35), wherein the chemical heat pad (5;15;25;35) is placed in a chemical heat pad holder which is hinged and moveable towards said sample storage substrate for positioning of the chemical heat pad, and further comprising an activating means , arranged to act upon a slit metal disk or spring in said chemical heat pad upon positioning of the chemical heat pad (5;15;25;35), thereby activating said chemical heat pad (5;15;25;35).
An apparatus comprising: a computed tomography, CT, apparatus configured to provide CT images of a portion of a patient; a control circuit configured to: - access topograms of the patient that include patient content beyond the portion of the patient; - use the topograms of the patient to derive a virtual volumetric structure representing at least the patient content beyond the portion of the patient; - use the virtual volumetric structure to predict potential collisions when assessing a radiation treatment plan for the patient that utilizes a specific radiation treatment platform . a computed tomography, CT, apparatus configured to provide CT images of a portion of a patient; a control circuit configured to: - access topograms of the patient that include patient content beyond the portion of the patient; - use the topograms of the patient to derive a virtual volumetric structure representing at least the patient content beyond the portion of the patient; - use the virtual volumetric structure to predict potential collisions when assessing a radiation treatment plan for the patient that utilizes a specific radiation treatment platform . - access topograms of the patient that include patient content beyond the portion of the patient; - use the topograms of the patient to derive a virtual volumetric structure representing at least the patient content beyond the portion of the patient; - use the virtual volumetric structure to predict potential collisions when assessing a radiation treatment plan for the patient that utilizes a specific radiation treatment platform .
Track lighting system , mit: two track half-shells which, on an inner side along a longitudinal extension (L), are formed with a first socket on a first mounting edge and a second socket on a second mounting edge and furthermore are each formed with an electrical supply track between the first socket and the second socket along the longitudinal extension (L); at least one half-shell connector to connect the two track half-shells to form a mounting track which can be loaded from both sides, wherein the half-shell connector to connect the two track half-shells facing each other on the inside to the first socket or second socket located opposite each other is formed so that it can be equipped selectively along the longitudinal extension (L), wherein the connection of the two track half-shells with the half-shell connector creates a first mounting slot between the first mounting edges and a second mounting slot between the second mounting edges along the longitudinal extension (L) of the track half-shells ; and at least one light adapter , which is formed so that it can be inserted selectively along the longitudinal extension (L) into the mounting slots in such a way that the light adapter protrudes through the respective mounting slot between the supply tracks when it is plugged in and is in electrical contact with the supply tracks . two track half-shells which, on an inner side along a longitudinal extension (L), are formed with a first socket on a first mounting edge and a second socket on a second mounting edge and furthermore are each formed with an electrical supply track between the first socket and the second socket along the longitudinal extension (L); at least one half-shell connector to connect the two track half-shells to form a mounting track which can be loaded from both sides, wherein the half-shell connector to connect the two track half-shells facing each other on the inside to the first socket or second socket located opposite each other is formed so that it can be equipped selectively along the longitudinal extension (L), wherein the connection of the two track half-shells with the half-shell connector creates a first mounting slot between the first mounting edges and a second mounting slot between the second mounting edges along the longitudinal extension (L) of the track half-shells ; and at least one light adapter , which is formed so that it can be inserted selectively along the longitudinal extension (L) into the mounting slots in such a way that the light adapter protrudes through the respective mounting slot between the supply tracks when it is plugged in and is in electrical contact with the supply tracks .
A neural tissue stimulator , comprising a multiple of microneedles forming an array of microneedles; a chip comprising at least one comparator with adaptive level, a sequence control circuit, at least one capacitor stack built by n capacitors and 2n switches, at least one buffer capacitor outside the at least one capacitor stack, at least two additional switches outside the at least one capacitor stack and a CMOS-Logic, wherein n ∈ N ; wherein the n capacitors are adapted to be sequentially charged by at least one microneedle of the array of microneedles, which functions as DC input source, one after the other and wherein the 2n switches of the capacitor stack couple the n capacitors selectively to at least one microneedle of the array of microneedles and wherein the buffer capacitor outside the at least one capacitor stack is dedicated to be charged from the n capacitors of the capacitor stack at once; an interposer layer comprising holes for the multiple of microneedles; a lid ; at least one coil ; wherein the chip , is located on one surface of the interposer layer ; wherein the lid and the interposer layer form a capsule for the chip and the at least one coil ; wherein each microneedle has a distal end which protrudes from the chip ; characterized in that the neural tissue stimulator is adapted to be electrically self-sufficient due to harvesting of electrical energy from neural cells; and the distal ends of at least two microneedles of the array of microneedles have a different electrical insolation. a multiple of microneedles forming an array of microneedles; a chip comprising at least one comparator with adaptive level, a sequence control circuit, at least one capacitor stack built by n capacitors and 2n switches, at least one buffer capacitor outside the at least one capacitor stack, at least two additional switches outside the at least one capacitor stack and a CMOS-Logic, wherein n ∈ N ; wherein the n capacitors are adapted to be sequentially charged by at least one microneedle of the array of microneedles, which functions as DC input source, one after the other and wherein the 2n switches of the capacitor stack couple the n capacitors selectively to at least one microneedle of the array of microneedles and wherein the buffer capacitor outside the at least one capacitor stack is dedicated to be charged from the n capacitors of the capacitor stack at once; an interposer layer comprising holes for the multiple of microneedles; a lid ; at least one coil ; wherein the chip , is located on one surface of the interposer layer ; wherein the lid and the interposer layer form a capsule for the chip and the at least one coil ; wherein each microneedle has a distal end which protrudes from the chip ; characterized in that the neural tissue stimulator is adapted to be electrically self-sufficient due to harvesting of electrical energy from neural cells; and the distal ends of at least two microneedles of the array of microneedles have a different electrical insolation.
A method for employing a paging indicator channel in association with high speed channels, comprising: transmitting a paging indicator in a paging indicator channel, PICH, to at least one mobile device ; scheduling information intended for the at least one mobile device on a high speed channel , the scheduling is based at least in part on presence of the paging indicator and a set of parameters transmitted on common channels, wherein the set of parameters comprises a set of high speed shared control channel subframes or high speed shared data channel subframes that are associated with the paging indicator on the PICH channel, wherein the paging indicator indicates that a paging message, upper layer signaling specific to a mobile device or mobile device specific data is to be scheduled in one of the associated subframes of the high speed channel for the at least one mobile device; and sending the information to the at least one mobile device on the high speed channel. transmitting a paging indicator in a paging indicator channel, PICH, to at least one mobile device ; scheduling information intended for the at least one mobile device on a high speed channel , the scheduling is based at least in part on presence of the paging indicator and a set of parameters transmitted on common channels, wherein the set of parameters comprises a set of high speed shared control channel subframes or high speed shared data channel subframes that are associated with the paging indicator on the PICH channel, wherein the paging indicator indicates that a paging message, upper layer signaling specific to a mobile device or mobile device specific data is to be scheduled in one of the associated subframes of the high speed channel for the at least one mobile device; and sending the information to the at least one mobile device on the high speed channel.
A bridge for coupling two radio frequency resonators, the bridge comprising: a body of dielectric material having an exposed first surface area, predetermined length, width and thickness and having an elongate shape along the length of the body; a hole disposed through the body along the width of the body, the hole having a wall forming a second surface area of the body; and a conductive coating covering the exposed first surface area of the body and a first portion of the second surface area of the body; wherein a second portion of the second surface area is free of conductive coating forming a non-conductive section of the wall of the hole ; and characterised in that : the non-conductive section of the wall of the hole extends from an edge of the hole into the hole ; and the hole has a shape of a cylinder with a conical top near the edge of the hole from which the non-conductive section of the wall of the hole extends into the hole. a body of dielectric material having an exposed first surface area, predetermined length, width and thickness and having an elongate shape along the length of the body; a hole disposed through the body along the width of the body, the hole having a wall forming a second surface area of the body; and a conductive coating covering the exposed first surface area of the body and a first portion of the second surface area of the body; wherein a second portion of the second surface area is free of conductive coating forming a non-conductive section of the wall of the hole ; and characterised in that : the non-conductive section of the wall of the hole extends from an edge of the hole into the hole ; and the hole has a shape of a cylinder with a conical top near the edge of the hole from which the non-conductive section of the wall of the hole extends into the hole. the non-conductive section of the wall of the hole extends from an edge of the hole into the hole ; and the hole has a shape of a cylinder with a conical top near the edge of the hole from which the non-conductive section of the wall of the hole extends into the hole.
A vaccine/agonist combination comprising: (i) as vaccine an RNA vaccine comprising at least one mRNA comprising at least one open reading frame (ORF) coding for at least one tumour antigen and (ii) as agonist a composition comprising an OX40 agonist, wherein the OX40 agonist is an agonistic antibody directed against OX40. (i) as vaccine an RNA vaccine comprising at least one mRNA comprising at least one open reading frame (ORF) coding for at least one tumour antigen and (ii) as agonist a composition comprising an OX40 agonist, wherein the OX40 agonist is an agonistic antibody directed against OX40.
A hydrogel comprising water, a polyvinylsulfonic acid-based polymer, and a polymer matrix containing the water and the polyvinylsulfonic acid-based polymer, wherein said polymer matrix contains a copolymer of a monofunctional monomer having one ethylenically unsaturated group and a polyfunctional monomer having 2 to 6 ethylenically unsaturated groups, said copolymer has a hydrophilic group binding to its main chain, said polymer matrix is contained in an amount of 2 to 80 parts by mass in 100 parts by mass of said hydrogel, a polymer derived from said polyfunctional monomer is contained in a proportion of 0.1 to 5 parts by mass in 100 parts by mass of said copolymer, said polyvinylsulfonic acid-based polymer is contained in an amount of 0.1 to 150 parts by mass in 100 parts by mass of said polymer matrix, and said polyvinylsulfonic acid-based polymer has a weight average molecular weight of 200,000 to 3,000,000, measured as described in the section " Weight Average Molecular Weight" of the specification. said polymer matrix contains a copolymer of a monofunctional monomer having one ethylenically unsaturated group and a polyfunctional monomer having 2 to 6 ethylenically unsaturated groups, said copolymer has a hydrophilic group binding to its main chain, said polymer matrix is contained in an amount of 2 to 80 parts by mass in 100 parts by mass of said hydrogel, a polymer derived from said polyfunctional monomer is contained in a proportion of 0.1 to 5 parts by mass in 100 parts by mass of said copolymer, said polyvinylsulfonic acid-based polymer is contained in an amount of 0.1 to 150 parts by mass in 100 parts by mass of said polymer matrix, and said polyvinylsulfonic acid-based polymer has a weight average molecular weight of 200,000 to 3,000,000, measured as described in the section " Weight Average Molecular Weight" of the specification.
A method of characterizing a multimode optical fiber link comprising a light source and at least one multimode fiber , said method comprising a step of characterizing said multimode fiber using a measurement of the Dispersion Modal Delay (DMD) and delivering fiber characteristic data, characterized in that said method also comprises: - a step of characterizing said light source by at least three source characteristic curves obtained by: ∘ exciting a nominal multimode fiber with said light source; ∘ scanning with a single mode fiber an output signal of said nominal multimode fiber, at different radial offset values r, from an axis of said nominal fiber where r=0 to a radial offset value r=a, where a is the core radius of said nominal fiber, ∘ analyzing with a spectrum analyzer an output optical spectrum of said single mode fiber for each radial offset value r, said source characteristic curves each showing a source parameter as a function of said radial offset value r; - a step of computing an Effective Bandwidth (EB) of said link, comprising calculating a transfer function using both said fiber characteristic data and each of said source characteristic curves. - a step of characterizing said light source by at least three source characteristic curves obtained by: ∘ exciting a nominal multimode fiber with said light source; ∘ scanning with a single mode fiber an output signal of said nominal multimode fiber, at different radial offset values r, from an axis of said nominal fiber where r=0 to a radial offset value r=a, where a is the core radius of said nominal fiber, ∘ analyzing with a spectrum analyzer an output optical spectrum of said single mode fiber for each radial offset value r, said source characteristic curves each showing a source parameter as a function of said radial offset value r; ∘ exciting a nominal multimode fiber with said light source; ∘ scanning with a single mode fiber an output signal of said nominal multimode fiber, at different radial offset values r, from an axis of said nominal fiber where r=0 to a radial offset value r=a, where a is the core radius of said nominal fiber, ∘ analyzing with a spectrum analyzer an output optical spectrum of said single mode fiber for each radial offset value r, - a step of computing an Effective Bandwidth (EB) of said link, comprising calculating a transfer function using both said fiber characteristic data and each of said source characteristic curves.
A user terminal comprising: a reception unit configured to receive downlink control information on a downlink control channel included in a given duration in a given bandwidth; and a control unit configured to control uplink data transmission based on the downlink control information, wherein the control unit is configured to control start timing of the uplink data transmission with reference to a last subframe in which the downlink control channel is transmitted in the given duration; and wherein the control unit is configured to determine the last subframe in which the downlink control channel is transmitted in the given duration, based on information provided by the downlink control information. a reception unit configured to receive downlink control information on a downlink control channel included in a given duration in a given bandwidth; and a control unit configured to control uplink data transmission based on the downlink control information, wherein the control unit is configured to control start timing of the uplink data transmission with reference to a last subframe in which the downlink control channel is transmitted in the given duration; and wherein the control unit is configured to determine the last subframe in which the downlink control channel is transmitted in the given duration, based on information provided by the downlink control information.
A method for forming a circuit , comprising: forming a direct current circuit that supports a direct current , a microwave circuit that supports a microwave signal , and a common circuit that supports the direct current and the microwave signal , wherein the direct current circuit comprises a bandstop circuit and the microwave circuit comprises a bandpass circuit (or a capacitor ; and operatively coupling a first end of the direct current circuit and a first end of the microwave circuit to a first end of the common circuit , wherein the forming comprises: patterning a first superconducting film, deposited on a wafer, with an inductor for the microwave circuit ; patterning a second superconducting film deposited on the first superconducting film; patterning a dielectric film deposited on the second superconducting film; and patterning a third superconducting film, deposited on the dielectric film, or wherein the forming comprises: patterning a first superconducting film, deposited on a wafer, with first portions of a circuit , the first portions comprising a first pad of a capacitor of the microwave circuit ; patterning a dielectric film deposited on the first superconducting film; and patterning a second superconducting film deposited on the dielectric film, the second superconducting film comprising second portions of the circuit . forming a direct current circuit that supports a direct current , a microwave circuit that supports a microwave signal , and a common circuit that supports the direct current and the microwave signal , wherein the direct current circuit comprises a bandstop circuit and the microwave circuit comprises a bandpass circuit (or a capacitor ; and operatively coupling a first end of the direct current circuit and a first end of the microwave circuit to a first end of the common circuit , patterning a first superconducting film, deposited on a wafer, with an inductor for the microwave circuit ; patterning a second superconducting film deposited on the first superconducting film; patterning a dielectric film deposited on the second superconducting film; and patterning a third superconducting film, deposited on the dielectric film, patterning a first superconducting film, deposited on a wafer, with first portions of a circuit , the first portions comprising a first pad of a capacitor of the microwave circuit ; patterning a dielectric film deposited on the first superconducting film; and patterning a second superconducting film deposited on the dielectric film, the second superconducting film comprising second portions of the circuit .