mhurhangee/patent-ind-claim-en huggingface dataset:
A spectrum sharing method, wherein the method is implemented by a base station of a first network and comprises: • determining a first frequency band, a second frequency band, and a third frequency band, wherein the first frequency band and the second frequency band are used for a communication of a second network; and • performing communication by using the second frequency band and the third frequency band, wherein the second frequency band and the third frequency band form a carrier of the first network, wherein the method further comprises: • dividing the second frequency band into a first carrier group and a second carrier group , wherein the first carrier group comprises at least one carrier of the second network, and the second carrier group comprises at least one carrier of the second network; the method characterized in that it further comprises: • dividing the third frequency band into a first frequency sub-band and a second frequency sub-band , wherein the first frequency sub-band is adjacent to the first carrier group, the second carrier group is adjacent to the first carrier group, and the second frequency sub-band is adjacent to the second carrier group, • wherein the first frequency sub-band of the third frequency band is reserved for a Physical Uplink Control Channel, PUCCH, of the first network, the first carrier group of the second frequency band is used in a case a base station of the second network uses the second frequency band and the second carrier group of the second frequency band is only used in a case in which the frequency resources of the first carrier group are insufficient. • determining a first frequency band, a second frequency band, and a third frequency band, wherein the first frequency band and the second frequency band are used for a communication of a second network; and • performing communication by using the second frequency band and the third frequency band, wherein the second frequency band and the third frequency band form a carrier of the first network, • dividing the second frequency band into a first carrier group and a second carrier group , wherein the first carrier group comprises at least one carrier of the second network, and the second carrier group comprises at least one carrier of the second network; • dividing the third frequency band into a first frequency sub-band and a second frequency sub-band , wherein the first frequency sub-band is adjacent to the first carrier group, the second carrier group is adjacent to the first carrier group, and the second frequency sub-band is adjacent to the second carrier group, • wherein the first frequency sub-band of the third frequency band is reserved for a Physical Uplink Control Channel, PUCCH, of the first network, the first carrier group of the second frequency band is used in a case a base station of the second network uses the second frequency band and the second carrier group of the second frequency band is only used in a case in which the frequency resources of the first carrier group are insufficient.
A cooling method for hot press forming of a thin steel sheet (K) in which the thin steel sheet (K) is cooled by supplying a refrigerant to an ejection hole of a surface of a mold which ejection hole is communicated from a supply path inside the mold in hot press forming the heated thin steel sheet (K), the cooling method for hot press forming comprising: carrying out precooling in which an ejection amount per unit time period of the refrigerant from the ejection hole is suppressed; and thereafter, carrying out main cooling by increasing the ejection amount per unit time period, when the thin steel sheet (K) is cooled by supplying the refrigerant to the ejection hole in a state where the heated thin steel sheet (K) is placed on the mold and held at a bottom dead center. carrying out precooling in which an ejection amount per unit time period of the refrigerant from the ejection hole is suppressed; and thereafter, carrying out main cooling by increasing the ejection amount per unit time period,
A portable liquid oxygen delivery system comprising: a liquid oxygen storage device ; a pneumatic type oxygen conserving device arranged to deliver a bolus dose of oxygen gas to a patient within half a second of the beginning of inhalation by the patient and to inhibit the delivery of oxygen in other portions of the respiratory cycle; a supply line communicating the liquid oxygen storage device and the oxygen conserving device ; and an accumulator device ; characterized in that the accumulator device is arranged in the supply line to admit and accumulate the oxygen gas under the pressure in the supply line and to deliver accumulated oxygen gas on demand from the oxygen conserving device to maintain at least a predetermined minimum pressure in the supply line to enable the oxygen conserving device to deliver a full bolus dose of oxygen to the patient, wherein the portable liquid oxygen delivery system apart from the accumulator device has a collective gaseous oxygen volume and the accumulator device is enabled to actuate and reduce the collective gaseous oxygen volume. a liquid oxygen storage device ; a pneumatic type oxygen conserving device arranged to deliver a bolus dose of oxygen gas to a patient within half a second of the beginning of inhalation by the patient and to inhibit the delivery of oxygen in other portions of the respiratory cycle; a supply line communicating the liquid oxygen storage device and the oxygen conserving device ; and an accumulator device ; characterized in that the accumulator device is arranged in the supply line to admit and accumulate the oxygen gas under the pressure in the supply line and to deliver accumulated oxygen gas on demand from the oxygen conserving device to maintain at least a predetermined minimum pressure in the supply line to enable the oxygen conserving device to deliver a full bolus dose of oxygen to the patient, wherein the portable liquid oxygen delivery system apart from the accumulator device has a collective gaseous oxygen volume and the accumulator device is enabled to actuate and reduce the collective gaseous oxygen volume.
A method of making an article, comprising dissolving collagen in an acid solution; forming a collagen matrix; and reducing pH value of the collagen matrix by a first plasma treatment; wherein the article is a wound dressing. dissolving collagen in an acid solution; forming a collagen matrix; and reducing pH value of the collagen matrix by a first plasma treatment; wherein the article is a wound dressing.
An aircraft comprising a gas turbine engine and an aircraft system, the gas turbine engine comprising an engine bleed air system providing air to the aircraft system , comprising: a first port for extracting high pressure bleed air from an engine; and a turbo-generator having a turbine and a generator, the generator being driven by rotation of the turbine; a first bleed passage fluidly coupling the first port and an inlet of the turbo-generator ; a second port for extracting low pressure bleed air from the engine; and a second bleed passage fluidly coupling the second port and the inlet of the turbo-generator; and a valve located within the first bleed passage between the first port and the inlet of the turbo-generator, the valve being operable to control a flow of air from the first port and the second port to the inlet; and a one way check valve positioned within the second bleed passage downstream from the second port but upstream from an interface between the first bleed passage and the second bleed passage ; wherein air is selectively provided to the turbo-generator from one of the first port and the second port in response to a demand of the aircraft system ; characterised in that : the engine bleed air system further comprises an outlet passage fluidly coupling an outlet of the turbo-generator and the aircraft system ; and the aircraft system includes an environmental control system. a first port for extracting high pressure bleed air from an engine; and a turbo-generator having a turbine and a generator, the generator being driven by rotation of the turbine; a first bleed passage fluidly coupling the first port and an inlet of the turbo-generator ; a second port for extracting low pressure bleed air from the engine; and a second bleed passage fluidly coupling the second port and the inlet of the turbo-generator; and a valve located within the first bleed passage between the first port and the inlet of the turbo-generator, the valve being operable to control a flow of air from the first port and the second port to the inlet; and a one way check valve positioned within the second bleed passage downstream from the second port but upstream from an interface between the first bleed passage and the second bleed passage ; wherein air is selectively provided to the turbo-generator from one of the first port and the second port in response to a demand of the aircraft system ; characterised in that : the engine bleed air system further comprises an outlet passage fluidly coupling an outlet of the turbo-generator and the aircraft system ; and the aircraft system includes an environmental control system. the engine bleed air system further comprises an outlet passage fluidly coupling an outlet of the turbo-generator and the aircraft system ; and the aircraft system includes an environmental control system.
Electrical device for use in a modular multilevel converter of a high-voltage direct current transmission system, having a power electronics module (2a-2f) in a supporting structure , wherein the electrical device also comprises an energy storage unit (3a-3f), wherein the energy storage unit (3a-3f) and the power electronics module (2a-2f) are arranged together in the supporting structure and are connected to one another in a releasable manner, wherein the energy storage unit (3a-3f) is mounted in a movable manner, wherein the power electronics module is arranged on a front side of the supporting structure and the energy storage unit is arranged on a rear side of the supporting structure, characterized in that the energy storage unit is mounted in a movable manner in such a way that it can be displaced towards the rear side, wherein the distance between the module and the energy storage unit can be increased. the electrical device also comprises an energy storage unit (3a-3f), wherein the energy storage unit (3a-3f) and the power electronics module (2a-2f) are arranged together in the supporting structure and are connected to one another in a releasable manner, wherein the energy storage unit (3a-3f) is mounted in a movable manner, wherein the power electronics module is arranged on a front side of the supporting structure and the energy storage unit is arranged on a rear side of the supporting structure, characterized in that the energy storage unit is mounted in a movable manner in such a way that it can be displaced towards the rear side, wherein the distance between the module and the energy storage unit can be increased.
A Z-directed component for mounting in a mounting hole in a printed circuit board, comprising: a body having a top surface , a bottom surface and a side surface, and a cross-sectional shape that is insertable into the mounting hole in the printed circuit board, a first portion of the body being composed of a first dielectric material having a first dielectric constant; and a first conductive channel extending through a portion of the body forming a signal path, wherein the body includes a plurality of interleaved conductive plates extending along the length of the body , wherein a first set of the interleaved conductive plates are electrically connected to a reference voltage path (GND) and a second set of the interleaved conductive plates are electrically connected to a supply voltage path (Vcc), the first and second sets of interleaved conductive plates being arranged in an alternating pattern, characterised by a second portion of the body being composed of a second dielectric material having a second dielectric constant that is higher than the first dielectric constant, wherein the second portion of the body is an outer side portion of the body and the first portion of the body is an inner portion of the body spaced inward from the side surface and substantially surrounded on its sides by the second portion of the body , the interleaved conductive plates being positioned in the second portion of the body and the first conductive channel extending through the first portion of the body along the length of the body from the top surface to the bottom surface , and a pair of second conductive channels extending through the interior of body along its length next to and on opposite sides of the first conductive channel in order to reduce the impedance along the signal path formed by the first conductive channel . a body having a top surface , a bottom surface and a side surface, and a cross-sectional shape that is insertable into the mounting hole in the printed circuit board, a first portion of the body being composed of a first dielectric material having a first dielectric constant; and a first conductive channel extending through a portion of the body forming a signal path,
A process for preparing a polyaminoborane comprising reacting at least one monomer with an aminoborane, wherein the at least one monomer is selected from the group consisting of ammonia, a primary amine and a substituted or unsubstituted hydrazine; and wherein the aminoborane comprises a borane substituted by a secondary amino group, wherein the aminoborane has the formula R 1 R 2 N-BR 3 R 4 , the monomer has the formula R 5 NH 2 and the polyaminoborane has the formula [R 5 NH-BR 3 R 4 ] n , wherein R 1 and R 2 are the same or different, linear, branched, cyclic or cyclic and branched organic groups having from 2 to 30 carbon atoms; or R 1 and R 2 together form a cyclic or cyclic and branched organic group having from 2 to 30 carbon atoms; wherein R 3 and R 4 are the same or different and selected from the group consisting of a hydrogen atom, a substituted or unsubstituted heteroatom and a linear, branched, cyclic or cyclic and branched organic group having from 1 to 30 carbon atoms; or R 3 and R 4 together form a cyclic or cyclic and branched organic group having from 3 to 30 carbon atoms; wherein R 5 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted nitrogen atom and a linear, branched, cyclic or cyclic and branched organic group having from 1 to 30 carbon atoms; and wherein n is a number greater than 10.
A method for detecting events in a flow cytometer, comprising: flowing particles through a flow cell of the analyzer; optically interrogating the particles flowing through the flow cell, wherein the passing of a particle through an interrogation zone of the flow cell produces an event; extracting putative event features; time-stamping putative events; determining a time difference between a putative previous event and a putative current event; comparing the time difference to a threshold duration, wherein: if the time difference is greater than the threshold duration, storing the putative current event as a current event; and if the time difference is less than the threshold duration, comparing a peak height feature of the putative current event and a peak height feature of the putative previous event to a threshold peak height, wherein: if the peak height feature of the putative current event is less than the threshold peak height, discarding the putative current event; and if the peak height feature of the putative previous event is greater than the threshold peak height, storing the putative previous event as a previous event. flowing particles through a flow cell of the analyzer; optically interrogating the particles flowing through the flow cell, wherein the passing of a particle through an interrogation zone of the flow cell produces an event; extracting putative event features; time-stamping putative events; determining a time difference between a putative previous event and a putative current event; comparing the time difference to a threshold duration, wherein: if the time difference is greater than the threshold duration, storing the putative current event as a current event; and if the time difference is less than the threshold duration, comparing a peak height feature of the putative current event and a peak height feature of the putative previous event to a threshold peak height, wherein: if the peak height feature of the putative current event is less than the threshold peak height, discarding the putative current event; and if the peak height feature of the putative previous event is greater than the threshold peak height, storing the putative previous event as a previous event. if the time difference is greater than the threshold duration, storing the putative current event as a current event; and if the time difference is less than the threshold duration, comparing a peak height feature of the putative current event and a peak height feature of the putative previous event to a threshold peak height, wherein: if the peak height feature of the putative current event is less than the threshold peak height, discarding the putative current event; and if the peak height feature of the putative previous event is greater than the threshold peak height, storing the putative previous event as a previous event. if the peak height feature of the putative current event is less than the threshold peak height, discarding the putative current event; and if the peak height feature of the putative previous event is greater than the threshold peak height, storing the putative previous event as a previous event.
Method for producing a composite semifinished product having a continuous phase comprising at least one thermoplastic material and a disperse phase of at least one electrically conductive filler , in which the at least one thermoplastic material in the form of fine particles is mixed with the at least one filler in the form of fine particles, in which the mixture of the at least one thermoplastic material and the at least one filler is heated to a temperature greater than the melting temperature of the at least one thermoplastic material and in which the heated material is cooled to a temperature below the solidification temperature of the at least one thermoplastic material , characterised in that in each case at least 90 wt.-% of the particles of the at least one thermoplastic material and of the at least one filler are smaller than 1 mm before mixing, and in that a rolling mill and/or a calender comprising at least one coolable roller are used for heating and/or cooling the material.
An arrangement consisting of an electric line and a contact having a connection section for making a clamping contact and having a disc-shaped connection area , wherein the longitudinal extension of the connection section defines a main direction , wherein one end of the electric line is welded to the connection area of the contact and wherein the connection area allows a plurality of outgoing directions of the electric line with respect to the main direction .
A computer readable storage medium storing a program executable by a computer, the program causing the computer to execute functions including: generating (S10) a first image in accordance with an electronic circuit diagram , in which a resistance value of a wiring portion is defined, wherein the wiring portion is to be formed by printing with a conductive ink according to the first image ; correcting (S30) the first image in accordance with a second image , which is to be formed with a photothermal conversion material, when the first image is generated to at least partially overlap the second image ; and causing (S40) a printer to print the first image corrected by the correcting (S30) and the second image , wherein the second image is an image for expanding a thermally expandable layer that thermally expands with heat and, when the image is irradiated with light, the light is converted into heat with the photothermal conversion material to expand the thermally expandable layer corresponding to a region of the second image. generating (S10) a first image in accordance with an electronic circuit diagram , in which a resistance value of a wiring portion is defined, wherein the wiring portion is to be formed by printing with a conductive ink according to the first image ; correcting (S30) the first image in accordance with a second image , which is to be formed with a photothermal conversion material, when the first image is generated to at least partially overlap the second image ; and causing (S40) a printer to print the first image corrected by the correcting (S30) and the second image , wherein the second image is an image for expanding a thermally expandable layer that thermally expands with heat and, when the image is irradiated with light, the light is converted into heat with the photothermal conversion material to expand the thermally expandable layer corresponding to a region of the second image.
A copper alloy powder having an excellent laser absorptivity, comprising: S or both of B and S in a total amount of 0.003 mass% to 5.0 mass%, with a remainder being Cu and inevitable impurities, wherein an average particle diameter is 20 μm to 80 μm, and the average particle diameter is a 50% median diameter which is measured by a laser diffraction/scattering method. S or both of B and S in a total amount of 0.003 mass% to 5.0 mass%, with a remainder being Cu and inevitable impurities, wherein an average particle diameter is 20 μm to 80 μm, and the average particle diameter is a 50% median diameter which is measured by a laser diffraction/scattering method.