mhurhangee/patent-ind-claim-en huggingface dataset:
A detection method, carried out by a user terminal, for detecting downlink transmission signals, the method comprising: obtaining first configuration information; determining detection parameters for the downlink transmission according to the first configuration information; and detecting the downlink transmission on an unlicensed frequency band according to the detection parameters, characterised in that: the first configuration information configures at least two groups of the detection parameters for the downlink transmission, wherein each group of detection parameters includes at least a type of downlink transmission signal and a detection position, and detecting the downlink transmission on the unlicensed frequency band according to the detection parameters comprises: detecting at least two different downlink transmission signals at different positions of the unlicensed frequency band according to the at least two groups of the detection parameters for the downlink transmission. obtaining first configuration information; determining detection parameters for the downlink transmission according to the first configuration information; and detecting the downlink transmission on an unlicensed frequency band according to the detection parameters, characterised in that: the first configuration information configures at least two groups of the detection parameters for the downlink transmission, wherein each group of detection parameters includes at least a type of downlink transmission signal and a detection position, and detecting the downlink transmission on the unlicensed frequency band according to the detection parameters comprises: detecting at least two different downlink transmission signals at different positions of the unlicensed frequency band according to the at least two groups of the detection parameters for the downlink transmission.
A method of producing a flat article in sandwich lightweight construction design with at least two covering layers and a core arranged between two of the covering layers , comprising the following process steps: a) Using the materials expandable polypropylene (EPP), expandable polystyrene (EPS) or expandable polyethylene (EPE) as the core , b) Using one or more thermoplastic materials as the covering layer , c) Preheating the covering layers until reaching the thermoplastic condition, d) Applying the heated covering layers on one forming tool (6 or 7) each, e) Forming the covering layers using the two forming tools and injecting the core in such a way as to generate a negative pressure at least on one of the covering layers by means of a vacuum device , in which case the negative pressure acts on the core between the two adjacent covering layers and makes it possible to influence the extension and the distribution of the volume parts which make up the core , f) Heating the covering layers and the core for bonding the core and the covering layers with the core , g) Cooling the formed flat article in the forming tools , h) Removing the flat article from the forming tools . a) Using the materials expandable polypropylene (EPP), expandable polystyrene (EPS) or expandable polyethylene (EPE) as the core , b) Using one or more thermoplastic materials as the covering layer , c) Preheating the covering layers until reaching the thermoplastic condition, d) Applying the heated covering layers on one forming tool (6 or 7) each, e) Forming the covering layers using the two forming tools and injecting the core in such a way as to generate a negative pressure at least on one of the covering layers by means of a vacuum device , in which case the negative pressure acts on the core between the two adjacent covering layers and makes it possible to influence the extension and the distribution of the volume parts which make up the core , f) Heating the covering layers and the core for bonding the core and the covering layers with the core , g) Cooling the formed flat article in the forming tools , h) Removing the flat article from the forming tools .
Method for testing a semiconductor spark plug comprising two terminals and a head comprising two electrodes each connected to one of the two terminals and separated from each other by a semiconducting element , the method comprising: - a step (S1) consisting of depositing water on the head between the two electrodes , such that the water forms a water meniscus covering the semiconducting element , - a step (S2) consisting of applying an electric voltage equal to an operating voltage of the spark plug between the first terminal and the second terminal , - a step (S3) consisting of identifying at least a first characteristic of the electric arcs induced between the electrodes when the electric voltage is applied, and - a step (S4) consisting of determining the operational or defective nature of the spark plug depending on the first characteristic of the electric arcs . - a step (S1) consisting of depositing water on the head between the two electrodes , such that the water forms a water meniscus covering the semiconducting element , - a step (S2) consisting of applying an electric voltage equal to an operating voltage of the spark plug between the first terminal and the second terminal , - a step (S3) consisting of identifying at least a first characteristic of the electric arcs induced between the electrodes when the electric voltage is applied, and - a step (S4) consisting of determining the operational or defective nature of the spark plug depending on the first characteristic of the electric arcs .
A method for manufacturing a nano-structured, multi-scale, composite comprising the steps of: (a) providing an admixture, containing high-aspect-ratio nanostructures dispersed within a matrix material, wherein the admixture is either in a solid state or in a liquid state disposed within a containment medium, and wherein the dispersed high-aspect ratio nanostructures are aligned in a flow transfer direction, wherein a nanostructure is a structure that has at least one of its dimensions within the range from 0.1 nanometer to 1000 nanometers and wherein a high-aspect-ratio nanostructure is a nanostructure wherein at least one of its dimensions is at least five times longer than its smallest dimension; (b) flow-transferring said admixture into a receiving porous medium while maintaining the alignment of the high-aspect-ratio nanostructures, wherein the receiving porous medium has a through-thickness dimension/direction and a degree of porosity permitting flow in the through-thickness dimension/direction and wherein the through-thickness dimension/direction corresponds to the flow transfer direction; and (c) solidifying said matrix material within the receiving porous medium to form a composite having a through-thickness dimension/direction, such that the high-aspect-ratio nanostructures are aligned in the through-thickness dimension/direction of the composite. (a) providing an admixture, containing high-aspect-ratio nanostructures dispersed within a matrix material, wherein the admixture is either in a solid state or in a liquid state disposed within a containment medium, and wherein the dispersed high-aspect ratio nanostructures are aligned in a flow transfer direction, wherein a nanostructure is a structure that has at least one of its dimensions within the range from 0.1 nanometer to 1000 nanometers and wherein a high-aspect-ratio nanostructure is a nanostructure wherein at least one of its dimensions is at least five times longer than its smallest dimension; (b) flow-transferring said admixture into a receiving porous medium while maintaining the alignment of the high-aspect-ratio nanostructures, wherein the receiving porous medium has a through-thickness dimension/direction and a degree of porosity permitting flow in the through-thickness dimension/direction and wherein the through-thickness dimension/direction corresponds to the flow transfer direction; and (c) solidifying said matrix material within the receiving porous medium to form a composite having a through-thickness dimension/direction, such that the high-aspect-ratio nanostructures are aligned in the through-thickness dimension/direction of the composite.
Hydraulically actuable pneumatic valve mechanism (HCTV) with at least one hydraulic connection (P41, P42) and with at least one compressed air connection (P43), with at least one compressed air outlet (P22), with at least one transmission lever actuable by means of the hydraulic connection, so that the compressed air flowing out of the compressed air outlet (P22) is adjustable, wherein an actuating piston is provided which can be actuated hydraulically by the hydraulic connection (P41, P42), and characterised in that the actuating piston is is guided in a movable housing part , whereby an influence of the actuating piston on the transmission lever is adjustable in such a way that a ratio of hydraulic pressure to pneumatic pressure can be adjusted thereby.
A sounding reference signal, SRS, configuration method, comprising: determining , by a base station, a movement speed of user equipment, UE; determining , by the base station based on the movement speed of the UE, a UE-specific SRS subframe configuration set in a plurality of UE-specific SRS subframe configuration sets corresponding to a used cell-specific SRS subframe configuration set, and determining a UE-specific SRS subframe configuration parameter in the determined UE-specific subframe configuration set, wherein the UE-specific SRS subframe configuration parameter is used to indicate a subframe used to send an SRS; and sending , by the base station, the UE-specific SRS subframe configuration parameter and identification information of the UE-specific subframe configuration set to the UE, the method further comprising: sending, by the base station, a quantity L 1 to the UE, wherein L 1 is a maximum quantity of symbols that are in a subframe and that are used to send an SRS, and L 1 is a positive integer greater than 1. determining , by a base station, a movement speed of user equipment, UE; determining , by the base station based on the movement speed of the UE, a UE-specific SRS subframe configuration set in a plurality of UE-specific SRS subframe configuration sets corresponding to a used cell-specific SRS subframe configuration set, and determining a UE-specific SRS subframe configuration parameter in the determined UE-specific subframe configuration set, wherein the UE-specific SRS subframe configuration parameter is used to indicate a subframe used to send an SRS; and sending , by the base station, the UE-specific SRS subframe configuration parameter and identification information of the UE-specific subframe configuration set to the UE, the method further comprising: sending, by the base station, a quantity L 1 to the UE, wherein L 1 is a maximum quantity of symbols that are in a subframe and that are used to send an SRS, and L 1 is a positive integer greater than 1.
An integrated power umbilical (K), including at least one power cable to transfer large amounts of electric energy/power, filler material in the form of stiff, elongated plastic elements, laying at least partly around and between the power cables , which are collectively collected into a twisted bundle by means of a laying and closing operation, and a protective sheath that encapsulates the power cables and the filler material , and at least one additional metallic high ohm electric conductor is arranged in the transverse cross section of the high power umbilical and extends in the longitudinal direction of the power umbilical, which at least one electric conductor is located separate from and external of the high power cables, said at least one electric conductor being able to drain off, or dissipate, capacitive currents arising in the high power umbilical when conducting large amounts of electric energy/power, characterized in that the surrounding elements, i.e. the filler material and the sheath , is made of a semiconducting material, said semiconducting material being able to drain off, or dissipate, capacitive currents arising in the power umbilical (K) when the power cable conducts large amounts of electric energy/power, and that the stiff, elongate plastic elements include longitudinally extending channels (C 2 ) for receipt of seawater, and the protective outer sheath comprises substantially radially extending channels (C 1 ) that communicate with the longitudinally extending channels (C 2 ), said seawater forming communication to transport away or dissipate capacitive currents generated in the power umbilical (K).
A module for use in a wireless communication apparatus for communicating with a terminal, comprising: a first printed circuit board, PCB , configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB ; a plurality of antenna modules for the plurality of antennas , wherein the plurality of antenna modules is arranged as to be allocated to the first PCB and wherein each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , wherein a first side of the second PCB is coupled to a second side of the first PCB opposite to the first side of the first PCB via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip . a first printed circuit board, PCB , configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB ; a plurality of antenna modules for the plurality of antennas , wherein the plurality of antenna modules is arranged as to be allocated to the first PCB and wherein each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , wherein a first side of the second PCB is coupled to a second side of the first PCB opposite to the first side of the first PCB via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip . a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , wherein a first side of the second PCB is coupled to a second side of the first PCB opposite to the first side of the first PCB via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip .
Process to operate an oven comprising: - a first chamber and a second chamber , which are separated by separation means - conveyor means for guiding products from the inlet through these chambers to the outlet , - temperature control means (15-19, 22-66, 27, 28) for controlling the temperature and/or humidity in each chamber individually using a fluid, respectively, and - a tube (2.1) in the separation means through which the conveyor means are directed from the first chamber to the second chamber , characterized in, that an air flow is injected into the tube (2.1) which results in a higher pressure in the tube 30, wherein this higher pressure forces the air to flow to the left towards the first chamber and to the right towards the second chamber and wherein the magnitude of air flow is preferably controllable such that a leakage between the first chamber and the second chamber or vice versa is either reduced to zero or has a desired magnitude and a desired direction. - a first chamber and a second chamber , which are separated by separation means - conveyor means for guiding products from the inlet through these chambers to the outlet , - temperature control means (15-19, 22-66, 27, 28) for controlling the temperature and/or humidity in each chamber individually using a fluid, respectively, and - a tube (2.1) in the separation means through which the conveyor means are directed from the first chamber to the second chamber ,
A piston seal , comprising: (i) a barrier portion for driving fluid, a retaining portion and a lip ; and (ii) a separately formed resilient member ; wherein the lip projects from the barrier portion, so as to define an available space between the lip and retaining portion, wherein the retaining portion is configured for retaining the resilient member against the lip, wherein the barrier portion has a barrier surface for contacting the fluid, and the resilient member is provided on the opposite side of the barrier portion to the barrier surface, characterised in that the resilient member is positioned so as to fill the available space between the lip and the retaining portion and is arranged to resist inwards deformation of the lip. (i) a barrier portion for driving fluid, a retaining portion and a lip ; and (ii) a separately formed resilient member ;
A system for acquiring images of a target area, comprising: an optical fiber assembly comprising a plurality of optical fibers operable to provide illumination to the target area; an optical system optically coupled with the optical fiber assembly, the optical system operable to focus illumination from the plurality of optical fibers of the optical fiber assembly to produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; a scanner actuator coupled to the optical fiber assembly and configured to actuate cantilevered distal portions associated with the plurality of optical fibers, either together or individually, at a frequency within a Q-factor of a resonant frequency of the distal portions in a scan pattern to scan light on the plurality of focal planes; one or more detectors configured to detect, for each of the plurality of focal planes, light reflected from the target area; and one or more processors comprising a tangible medium, the tangible medium comprising instructions that when executed cause the one or more processors to generate, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes. an optical fiber assembly comprising a plurality of optical fibers operable to provide illumination to the target area; an optical system optically coupled with the optical fiber assembly, the optical system operable to focus illumination from the plurality of optical fibers of the optical fiber assembly to produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; a scanner actuator coupled to the optical fiber assembly and configured to actuate cantilevered distal portions associated with the plurality of optical fibers, either together or individually, at a frequency within a Q-factor of a resonant frequency of the distal portions in a scan pattern to scan light on the plurality of focal planes; one or more detectors configured to detect, for each of the plurality of focal planes, light reflected from the target area; and one or more processors comprising a tangible medium, the tangible medium comprising instructions that when executed cause the one or more processors to generate, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes.
An image forming apparatus comprising: an image forming portion at which developer is transferred onto a sheet; a drive roller configured to be rotated by a drive source ; a first rotation member disposed in contact with the drive roller and configured to be driven to rotate by the drive roller, the first rotation member and the drive roller forming a first nip portion for nipping the sheet; and a second rotation member disposed in contact with the drive roller at a position different from a position of the first rotation member in a rotation direction of the drive roller, and configured to be driven to rotate by the drive roller, the second rotation member and the drive roller forming a second nip portion for nipping the sheet, wherein the drive roller , the first rotation member , and the second rotation member are arranged so as to move a leading edge of the sheet in a direction approaching the image forming portion in a case where the leading edge passes through the first nip portion, and so as to move the leading edge in a direction apart from the image forming portion in a case where the leading edge passes through the second nip portion, and wherein the drive roller , the first rotation member , and the second rotation member are configured to convey the sheet in a state where the sheet is present at the first nip portion and the second nip portion at a same time. an image forming portion at which developer is transferred onto a sheet; a drive roller configured to be rotated by a drive source ; a first rotation member disposed in contact with the drive roller and configured to be driven to rotate by the drive roller, the first rotation member and the drive roller forming a first nip portion for nipping the sheet; and a second rotation member disposed in contact with the drive roller at a position different from a position of the first rotation member in a rotation direction of the drive roller, and configured to be driven to rotate by the drive roller, the second rotation member and the drive roller forming a second nip portion for nipping the sheet, wherein the drive roller , the first rotation member , and the second rotation member are arranged so as to move a leading edge of the sheet in a direction approaching the image forming portion in a case where the leading edge passes through the first nip portion, and so as to move the leading edge in a direction apart from the image forming portion in a case where the leading edge passes through the second nip portion, and wherein the drive roller , the first rotation member , and the second rotation member are configured to convey the sheet in a state where the sheet is present at the first nip portion and the second nip portion at a same time.
A keyboard instrument comprising: a plurality of keys ; and a keyboard chassis , wherein each key has a shaft or a shaft hole provided on one end side thereof, wherein the keyboard chassis is provided with shafts when the plurality of keys has shaft holes , and is provided with shaft holes when the plurality of keys has shafts , wherein the keyboard chassis supports the plurality of keys by the shafts being arranged in the shaft holes , wherein first spaces (S1) and second spaces (S2) are formed between an inner surface of the shaft hole and the shaft , wherein the first spaces (S1) are positioned in a vertical direction of the key , and the second spaces (S2) are positioned in a longitudinal direction of the key , and wherein the second spaces (S2) are larger than the first spaces (S1), characterized in that said shaft and said shaft hole provided on each key and the keyboard chassis are arranged for rotating the respective key with the shaft being the axis of rotation in response to key depression operations. a plurality of keys ; and a keyboard chassis , wherein each key has a shaft or a shaft hole provided on one end side thereof, wherein the keyboard chassis is provided with shafts when the plurality of keys has shaft holes , and is provided with shaft holes when the plurality of keys has shafts , wherein the keyboard chassis supports the plurality of keys by the shafts being arranged in the shaft holes , wherein first spaces (S1) and second spaces (S2) are formed between an inner surface of the shaft hole and the shaft , wherein the first spaces (S1) are positioned in a vertical direction of the key , and the second spaces (S2) are positioned in a longitudinal direction of the key , and wherein the second spaces (S2) are larger than the first spaces (S1), characterized in that said shaft and said shaft hole provided on each key and the keyboard chassis are arranged for rotating the respective key with the shaft being the axis of rotation in response to key depression operations.