mhurhangee/ep-ind-claims huggingface dataset:
A method of performing a RACH procedure, comprising: receiving, by a user equipment, UE, one or more synchronization signals on a plurality of beams from a base station; providing (522, 1008) a random access channel, RACH, preamble to a first stream for a first antenna port of the UE and to a second stream for a second antenna port of the UE for transmission to the base station; transmitting (524, 1020) the RACH preamble to the base station using the first and second antenna ports, wherein the first and second antenna ports transmit on different tones; providing (526, 1022) a RACH payload to the first stream for the first antenna port and to the second stream for the second antenna port for transmission to the base station; and transmitting (528, 1026) the RACH payload to the base station using the first and second antenna ports according to a mapping of the first and second antenna ports to one or more physical antenna arrays, wherein the RACH preamble provides a reference signal for the RACH payload, wherein the RACH payload is transmitted directly after the RACH preamble in the same symbol period, wherein the first stream and the second stream are beamformed for the transmitting according to one or more beams with the best signal characteristics from among the plurality of beams on which the one or more synchronization signals were received; and receiving (532, 1028), in response to the RACH preamble and the RACH payload, a random access response, RAR, and contention resolution information from the base station. receiving, by a user equipment, UE, one or more synchronization signals on a plurality of beams from a base station; providing (522, 1008) a random access channel, RACH, preamble to a first stream for a first antenna port of the UE and to a second stream for a second antenna port of the UE for transmission to the base station; transmitting (524, 1020) the RACH preamble to the base station using the first and second antenna ports, wherein the first and second antenna ports transmit on different tones; providing (526, 1022) a RACH payload to the first stream for the first antenna port and to the second stream for the second antenna port for transmission to the base station; and transmitting (528, 1026) the RACH payload to the base station using the first and second antenna ports according to a mapping of the first and second antenna ports to one or more physical antenna arrays, wherein the RACH preamble provides a reference signal for the RACH payload, wherein the RACH payload is transmitted directly after the RACH preamble in the same symbol period, wherein the first stream and the second stream are beamformed for the transmitting according to one or more beams with the best signal characteristics from among the plurality of beams on which the one or more synchronization signals were received; and receiving (532, 1028), in response to the RACH preamble and the RACH payload, a random access response, RAR, and contention resolution information from the base station.
A facility for monitoring a geological storage site for a gas such as CO 2 or methane, characterized in that said facility comprises at least the following elements in combination: - a geochemical measurement device, comprising a plurality of gas sampling probes, said probes being connected to a gas analyzer and said probes being arranged in the first few meters below the surface of the ground of said site, - an electrical measurement device, comprising a plurality of electrodes (ELEC), said electrodes being connected to a resistivity meter, said electrical measurement device being intended for electrical measurements in the subsoil, - a surface weather station enabling measurement of environmental parameters associated with said site, said geochemical and electrical devices being controlled by an automaton, said geochemical measurement device, said electrical measurement device and said weather station being connected to a data collector (COLL), said collector (COLL) being itself connected to means of transmitting said data, and in which facility said gas sampling probes are installed above the vadose zone and below the biogenic gas production zone. - a geochemical measurement device, comprising a plurality of gas sampling probes, said probes being connected to a gas analyzer and said probes being arranged in the first few meters below the surface of the ground of said site, - an electrical measurement device, comprising a plurality of electrodes (ELEC), said electrodes being connected to a resistivity meter, said electrical measurement device being intended for electrical measurements in the subsoil, - a surface weather station enabling measurement of environmental parameters associated with said site,
Method for the customization of a footwear, more particularly a sports footwear, of the kind comprising at least one element made of thermoplastic material, said method comprising the step of: - heating said element made of thermoplastic material until its temperature rises above a predetermined threshold; characterized in that it further comprises the step of: - while the temperature of said element made of thermoplastic material is above said threshold, locally applying, from the outside of said footwear, a traction force to said element made of thermoplastic material, said traction force being oriented towards the outside of said footwear. - heating said element made of thermoplastic material until its temperature rises above a predetermined threshold; - while the temperature of said element made of thermoplastic material is above said threshold, locally applying, from the outside of said footwear, a traction force to said element made of thermoplastic material, said traction force being oriented towards the outside of said footwear.
A display device, comprising: a first circuit that includes a first electrode, a field effect transistor, and a switch; and a sensor reading circuit, the first electrode being provided on a first substrate having a display surface of a display panel, and connected to a common electrode (com), the field effect transistor being provided on a second substrate in such a manner that the first electrode is provided in a back channel side of the field effect transistor so as to be separated from the field effect transistor, the field effect transistor having a gate terminal, a first drain/source terminal, and a second drain/source terminal, the gate terminal being connected to a first wiring (Vrstn) to which a reset pulse that is a pulse voltage is to be applied, when the reset pulse applied to the first wiring (Vrstn) is applied to the gate terminal, the field effect transistor supplying, to the second drain/source terminal, a signal supplied to the first drain/source terminal, the switch having a terminal connected to the second drain/source terminal, and the other terminal connected to a second wiring (Vom) from which an output of the field effect transistor is provided, the second wiring (Vom) being connected to the sensor reading circuit, the first circuit further including a reset electrode, and a reset transistor, the reset electrode and the reset transistor being provided on the second substrate, the reset transistor having a gate terminal and one of drain/source terminals, each of which gate terminal and the one of the drain/source terminals is connected to the first wiring (Vrstn), the reset transistor having the other of the drain/source terminals, which is connected to the reset electrode, the reset electrode being provided between the field effect transistor and the first electrode, and when the reset pulse applied to the first wiring (Vrstn) is applied to the gate terminal of the reset transistor, the reset transistor supplying, via the other of the drain/source terminals of the reset transistor, to the reset electrode, the reset pulse supplied via the first wiring (Vrstn) to the one of the drain/source terminals of the reset transistor, an output voltage of the second drain/source terminal of the field effect transistor being changed depending on a size of a shift in a pressure direction of the first electrode when a pressure is applied to the display surface of the first substrate, the output voltage being supplied via the switch to the second wiring (Vom), and the sensor reading circuit detecting, from the output voltage supplied via the second wiring (Vom), whether or not the pressure is applied to the display surface.
An emitting device comprising: a sapphire substrate; an n-type cladding layer composed of a group III nitride material including aluminum and gallium; an active region located on a first side of the n-type cladding layer, wherein the active region is composed of a group III nitride material and is configured to emit electromagnetic radiation; and a dislocation bending structure located between the substrate and the n-type cladding layer, wherein the dislocation bending structure comprises at least forty pairs of adjacent layers, wherein each pair of adjacent layers includes: a first layer composed of a group III nitride material including aluminum and gallium; and a second layer composed of a group III nitride material including aluminum and gallium, wherein a molar fraction of the aluminum differs for the first layer and the second layer by at least five percent, characterized in that an interface between the first layer and the second layer comprises an intermediate step having a different energy than both the first layer and the second layer. a sapphire substrate; an n-type cladding layer composed of a group III nitride material including aluminum and gallium; an active region located on a first side of the n-type cladding layer, wherein the active region is composed of a group III nitride material and is configured to emit electromagnetic radiation; and a dislocation bending structure located between the substrate and the n-type cladding layer, wherein the dislocation bending structure comprises at least forty pairs of adjacent layers, wherein each pair of adjacent layers includes: a first layer composed of a group III nitride material including aluminum and gallium; and a second layer composed of a group III nitride material including aluminum and gallium, wherein a molar fraction of the aluminum differs for the first layer and the second layer by at least five percent, characterized in that an interface between the first layer and the second layer comprises an intermediate step having a different energy than both the first layer and the second layer. a first layer composed of a group III nitride material including aluminum and gallium; and a second layer composed of a group III nitride material including aluminum and gallium, wherein a molar fraction of the aluminum differs for the first layer and the second layer by at least five percent, characterized in that an interface between the first layer and the second layer comprises an intermediate step having a different energy than both the first layer and the second layer.
Cutting tool apparatus comprising a tool head rotatingly drivable about an axis of rotation, which tool head has a tool slide adjustable along an adjustment axis and an electrical measuring device for detecting an adjustment path of the tool slide, and comprising an external display device which is mechanically and electrically releasably connectable to the tool head and has a display unit for displaying the adjustment path of the tool slide, characterized in that the display device is mechanically securable on the stationary tool head in order to set the tool slide and is automatically releasable from the tool head if a predeterminable rotational acceleration of the tool head is exceeded, wherein the display device has at least one holding member (76, 78), the tool head being subjectable to a predeterminable holding force by the at least one holding member (76, 78), and wherein the at least one holding member (76, 78) has a setting mechanism (77, 79, 84, 86) for setting the holding force exerted on the tool head by the holding member (76, 78).
Door for a refrigeration device, with a front side serving as the visible side and a rear side situated opposite this which has a pair of snap-in locking projections for supporting a door storage element, characterised in that the snap-in locking projections are formed on two surfaces of the rear side which face away from each other and at least one horizontal web is formed on the rear side of the door adjacent to a pair of the snap-in locking projections.
A fan blade of a gas turbine engine, comprising: a blade body including an inner surface defining a cavity in the blade body; a blade filler disposed in the cavity, the blade filler including bumps integrally formed on a first surface of the blade filler, characterised in that: the bumps protrude from the first surface to an opposing bonding surface of a fan blade component to provide a clearance for adhesive to fit between the fan blade component and the blade filler around the bumps. a blade body including an inner surface defining a cavity in the blade body; a blade filler disposed in the cavity, the blade filler including bumps integrally formed on a first surface of the blade filler, characterised in that: the bumps protrude from the first surface to an opposing bonding surface of a fan blade component to provide a clearance for adhesive to fit between the fan blade component and the blade filler around the bumps.
A capsule system with a closed extraction capsule having an injection-side bottom and a molded on opening that expands conically to the extraction side and is closed with a sealing film, and a peripherally outwardly aligned flange, wherein the extraction capsule is held in a holding capsule injection molded out of plastic, wherein the holding capsule has an extraction-side bottom with an adjoining lateral wall that expands conically toward the injection side, which ends with an outwardly oriented flange defining an opening closed with a sealing film, wherein a fillable, annular trough remains between the two capsules (2, 3), making it possible to inject an extraction medium from the injection side into the extraction capsule, and a mixing medium into the annular trough, and in that the extraction medium flows through the extraction capsule, and a mixing medium flows around the extraction capsule, and the bottom of the holding capsule has at least one outlet opening.
Plug connector arrangement comprising a plug connector and a cable connected thereto that has at least one wire pair for transmitting a differential signal, the wires (22, 24) of the wire pair being at a first mutual distance in a sheathed cable portion, diverging in a widened portion in the direction of the plug connector and being at a greater second mutual distance in a guide portion of the plug connector, characterized by a sleeve part, which at least partially surrounds the wire pair in the widened portion, for exerting pressure radially from the outside onto the wires (22, 24) of the wire pair in the widened portion, at least in portions, in order to reduce the distance between said wires, the sleeve part being a sleeve which completely surrounds the wire pair.
Method of manufacturing a non-woven fabric, comprising the steps: a. providing a substrate, wherein the substrate is air permeable in at least a portion of its surface, wherein the air permeable portion comprises a plurality of holes; b. providing a fiber transfer device adapted to transfer fibers onto the substrate; c. transferring a first plurality of fibers onto the substrate; and d. applying a pressure differential to the air permeable portion of the substrate, wherein the pressure differential is applied, so that the fibers transferred onto the substrate are attracted by the pressure differential, wherein the strength of the pressure differential is varied across the surface of the substrate, wherein: the density and/or diameter of the holes is varied across the surface of the substrate, and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones. a. providing a substrate, wherein the substrate is air permeable in at least a portion of its surface, wherein the air permeable portion comprises a plurality of holes; b. providing a fiber transfer device adapted to transfer fibers onto the substrate; c. transferring a first plurality of fibers onto the substrate; and d. applying a pressure differential to the air permeable portion of the substrate, wherein the pressure differential is applied, so that the fibers transferred onto the substrate are attracted by the pressure differential, wherein the strength of the pressure differential is varied across the surface of the substrate, wherein: the density and/or diameter of the holes is varied across the surface of the substrate, and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones. the density and/or diameter of the holes is varied across the surface of the substrate, and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones.
A method for self synchronization by a base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301), comprising: searching for a synchronization signal; determining whether the synchronization signal has been acquired; and determining a current stratum based on the synchronization signal if the synchronization signal has been acquired, wherein a stratum is the number of intermediate synchronous nodes between a base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301) and a global positioning system server; further comprising: sending network information (311, 411, 511, 611) to a wireless communication device (114, 314, 414, 514, 6144, 1414), wherein the network information (311, 411, 511, 611) indicates a first time period, wherein the first time period is a period of silence by the base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301); and monitoring synchronization signals during the first time period, wherein monitoring synchronization signals comprises not transmitting. searching for a synchronization signal; determining whether the synchronization signal has been acquired; and determining a current stratum based on the synchronization signal if the synchronization signal has been acquired, wherein a stratum is the number of intermediate synchronous nodes between a base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301) and a global positioning system server; further comprising: sending network information (311, 411, 511, 611) to a wireless communication device (114, 314, 414, 514, 6144, 1414), wherein the network information (311, 411, 511, 611) indicates a first time period, wherein the first time period is a period of silence by the base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301); and monitoring synchronization signals during the first time period, wherein monitoring synchronization signals comprises not transmitting. sending network information (311, 411, 511, 611) to a wireless communication device (114, 314, 414, 514, 6144, 1414), wherein the network information (311, 411, 511, 611) indicates a first time period, wherein the first time period is a period of silence by the base station (104a, 104b, 104c, 304, 404, 504, 604, 704a, 704b, 704c, 1204a, 1204b, 1204c, 1260, 1301); and monitoring synchronization signals during the first time period, wherein monitoring synchronization signals comprises not transmitting.
Method for operating an induction hob, the induction hob comprising a power circuit portion with at least one switching element adapted to provide pulsed electric power to an induction coil and a control entity for controlling operating parameters of the switching element, the method being characterised by the steps of: - performing a control loop with control cycles in order to detect coupling changes between the induction coil and a piece of cookware, said control cycles comprising the steps of: ∘ receiving frequency information (f curr) and power information (P curr) at said control entity; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr) and said power information (P curr); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; - deciding, based on the comparison result, whether to: ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element. - performing a control loop with control cycles in order to detect coupling changes between the induction coil and a piece of cookware, said control cycles comprising the steps of: ∘ receiving frequency information (f curr) and power information (P curr) at said control entity; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr) and said power information (P curr); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; ∘ receiving frequency information (f curr) and power information (P curr) at said control entity; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr) and said power information (P curr); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; - deciding, based on the comparison result, whether to: ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element. ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element.
An apparatus for the pretreatment and/or for the coating of an article in a vacuum chamber having at least one cathode arranged therein, having at least one HIPIMS power source and also having an electromagnetic arrangement (101; 201) adapted to be energizable to generate a tunnel-like magnetic field in front of the full surface of the cathode, wherein the electromagnetic arrangement (101; 201) is also adapted to be energizable to generate the tunnel-like magnetic field in front of a portion (106, 108, 110, 112) of the surface of the cathode and wherein the electromagnetic arrangement is also adapted to be energizable to generate the magnetic field to act in front of at least one further portion (106, 108, 110, 112) of the surface of the cathode.
Recombinant LAG-3 protein, or derivative thereof which is a mutant or fragment of LAG-3 that maintains the ability of LAG-3 to bind MHC class II molecules, that elicits a monocyte-mediated immune response, and a chemotherapy agent, for use in the treatment of cancer by administration of an effective plurality of doses of the recombinant LAG-3 protein or derivative thereof, wherein recombinant LAG-3 protein or derivative thereof is to be administered before, with, or subsequent to administration of the chemotherapy agent.