mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid-cooled gas sampling probe comprising: - a probe tube through which cooling liquid flows and having an outer jacket and an inner jacket which are connected to one another in a sealed manner and form an enclosure of a flow space , - at least one tubular filter made of sintered material, which is arranged inside the inner jacket of the probe tube , wherein measuring gas entering the inner jacket of the probe tube through the free end of the probe tube flows through the tubular filter from the outside to the inside, - at least one measuring chamber with at least one measuring sensor, into which the measuring gas enters after flowing through the tubular filter , - an ejector plate which is arranged in the region of the free end of the probe tube and is axially displaceable within the inner jacket , wherein during the measurement operation, a narrow annular gap between the exterior of the ejector plate and the inner jacket of the probe tube allows measuring gas to flow into the probe tube , characterized in that a connecting element is arranged between the filter and the ejection plate , the diameter of the connecting element being several millimeters smaller than the inner diameter of the inner jacket , so that an annular space is formed between the connecting element and the inner jacket , the radial extent of the annular space corresponding to a multiple of the radial extent of the annular gap between the ejection plate and the inner jacket . - a probe tube through which cooling liquid flows and having an outer jacket and an inner jacket which are connected to one another in a sealed manner and form an enclosure of a flow space , - at least one tubular filter made of sintered material, which is arranged inside the inner jacket of the probe tube , wherein measuring gas entering the inner jacket of the probe tube through the free end of the probe tube flows through the tubular filter from the outside to the inside, - at least one measuring chamber with at least one measuring sensor, into which the measuring gas enters after flowing through the tubular filter , - an ejector plate which is arranged in the region of the free end of the probe tube and is axially displaceable within the inner jacket , wherein during the measurement operation, a narrow annular gap between the exterior of the ejector plate and the inner jacket of the probe tube allows measuring gas to flow into the probe tube , characterized in that a connecting element is arranged between the filter and the ejection plate , the diameter of the connecting element being several millimeters smaller than the inner diameter of the inner jacket , so that an annular space is formed between the connecting element and the inner jacket , the radial extent of the annular space corresponding to a multiple of the radial extent of the annular gap between the ejection plate and the inner jacket .
A touch sensing panel , comprising: a sensing pattern layer at least comprising a plurality of first sensing pads arranged along an axis; and a plurality of bridging wires electrically connecting the first sensing pads , wherein each bridging wire has a top surface (Ti) with low reflectivity, and wherein each bridging wire is of a single-layer structure; characterised in that the material of the plurality of bridging wires is nickel or a nickel alloy, a metal nitride or oxide, wherein the metal is one of nickel, tungsten or one of their alloys. a sensing pattern layer at least comprising a plurality of first sensing pads arranged along an axis; and a plurality of bridging wires electrically connecting the first sensing pads , wherein each bridging wire has a top surface (Ti) with low reflectivity, and wherein each bridging wire is of a single-layer structure; characterised in that the material of the plurality of bridging wires is nickel or a nickel alloy, a metal nitride or oxide, wherein the metal is one of nickel, tungsten or one of their alloys.
Mechanism for animating at least one object for a portable timepiece, comprising a frame element on which are mounted: - a drive source ; - a drive wheel arranged to be driven by said drive source and defining a main pivot axis (A) about which said drive wheel is arranged to pivot. - a drive element rotationally-integrated with said drive wheel and arranged to drive said object in rotation about said main pivot axis (A); - a rotating plate arranged coaxially with said drive wheel and bearing a support system for said object, said support system being off-center with respect to said main pivot axis (A), wherein said support system comprises a first frame pivotally mounted on said rotating plate about a first pivot axis (A1), as well as an inner frame pivotally mounted in said first frame about a second pivot axis (A2) which is substantially orthogonal to said first pivot axis (A1), and wherein said object is borne by a shaft pivotally mounted in said inner frame about a third pivot axis (A3), said shaft being rotationally-integrated with a pinion meshing with a toothing which is coaxial with said driving wheel, said toothing being fixed or arranged to be rotated. - a drive source ; - a drive wheel arranged to be driven by said drive source and defining a main pivot axis (A) about which said drive wheel is arranged to pivot. - a drive element rotationally-integrated with said drive wheel and arranged to drive said object in rotation about said main pivot axis (A); - a rotating plate arranged coaxially with said drive wheel and bearing a support system for said object, said support system being off-center with respect to said main pivot axis (A), wherein said support system comprises a first frame pivotally mounted on said rotating plate about a first pivot axis (A1), as well as an inner frame pivotally mounted in said first frame about a second pivot axis (A2) which is substantially orthogonal to said first pivot axis (A1), and wherein said object is borne by a shaft pivotally mounted in said inner frame about a third pivot axis (A3), said shaft being rotationally-integrated with a pinion meshing with a toothing which is coaxial with said driving wheel, said toothing being fixed or arranged to be rotated.
An electrical terminal configured to be soldered to a conductive material applied to a glass surface, comprising: a planar base portion having a base portion outer surface , a base portion inner surface , and two securing tabs extending from an edge of the planar base portion , wherein the planar base portion has a first curved perimeter that is generally circular in shape and has a first diameter; characterised in that it further comprises a planar attachment portion having an attachment portion outer surface and an attachment portion inner surface , wherein the planar attachment portion has a second curved perimeter that is generally circular in shape and has a second diameter, and wherein the first diameter of the planar base portion is greater than the second diameter of the planar attachment portion , wherein the base portion inner surface is in contact with the attachment portion inner surface and wherein the two securing tabs are bent and overlay the attachment portion outer surface . a planar base portion having a base portion outer surface , a base portion inner surface , and two securing tabs extending from an edge of the planar base portion , wherein the planar base portion has a first curved perimeter that is generally circular in shape and has a first diameter; characterised in that it further comprises a planar attachment portion having an attachment portion outer surface and an attachment portion inner surface , wherein the planar attachment portion has a second curved perimeter that is generally circular in shape and has a second diameter, and wherein the first diameter of the planar base portion is greater than the second diameter of the planar attachment portion , wherein the base portion inner surface is in contact with the attachment portion inner surface and wherein the two securing tabs are bent and overlay the attachment portion outer surface .
A measurement report reception method of a base station in a wireless communication system supporting carrier aggregation, the method comprising: generating (S600) a cell list of secondary cells SCells belonging to a same cell group as a primary cell PCell, wherein the same cell group indicates that the PCell and the SCell are capable of transmitting and receiving traffic to and from each other; transmitting (S610), to a terminal, a measurement report command including configuration information related to the cell list; and receiving (S630), from the terminal, measurement reports for the SCells belonging to the same cell group as the PCell. generating (S600) a cell list of secondary cells SCells belonging to a same cell group as a primary cell PCell, wherein the same cell group indicates that the PCell and the SCell are capable of transmitting and receiving traffic to and from each other; transmitting (S610), to a terminal, a measurement report command including configuration information related to the cell list; and receiving (S630), from the terminal, measurement reports for the SCells belonging to the same cell group as the PCell.
A method of joining a semiconductor die to a substrate , the method being characterised by the following steps: applying a solder preform to a metal region of the semiconductor die or to a metal region of the substrate , the solder preform having a maximum thickness of 30 μm and a lower melting point than both the metal region of the semiconductor die and the metal region of the substrate ; forming a soldered joint between the metal region of the semiconductor die and the metal region of the substrate via a diffusion soldering process and without applying pressure directly to the semiconductor die ; and setting a soldering temperature of the diffusion soldering process so that the solder preform melts and fully reacts with the metal region of the semiconductor die and the metal region of the substrate to form one or more intermetallic phases throughout the entire soldered joint , each of the one or more intermetallic phases having a melting point above the melting point of the preform and the soldering temperature. applying a solder preform to a metal region of the semiconductor die or to a metal region of the substrate , the solder preform having a maximum thickness of 30 μm and a lower melting point than both the metal region of the semiconductor die and the metal region of the substrate ; forming a soldered joint between the metal region of the semiconductor die and the metal region of the substrate via a diffusion soldering process and without applying pressure directly to the semiconductor die ; and setting a soldering temperature of the diffusion soldering process so that the solder preform melts and fully reacts with the metal region of the semiconductor die and the metal region of the substrate to form one or more intermetallic phases throughout the entire soldered joint , each of the one or more intermetallic phases having a melting point above the melting point of the preform and the soldering temperature.
A radio frequency, RF, repeater circuitry , comprising: a single transceiver comprising a receiver for receiving a radio signal from at least one User Equipment, UE , or from a base station , and a transmitter for transmitting a radio signal to the at least one UE or to the base station , wherein the receiver is connected to an antenna port of a first antenna array and the transmitter is connected to an antenna port of a second antenna array, or wherein the receiver is connected to the antenna port of the second antenna array and the transmitter is connected to the antenna port of the first antenna array; at least two power detectors, wherein a first power detector is configured to detect a radio signal received from the at least one UE , a second power detector is configured to detect a radio signal received from the base station , and wherein the first power detector is connected between the receiver and the antenna port of the first antenna array and the second power detector is connected between the receiver and the antenna port of the second antenna array; and a decision logic configured to: set the receiver to receive a radio signal from the at least one UE and set the transmitter to transmit a radio signal to the base station upon detecting a radio signal reception from the at least one UE , and set the receiver to receive a radio signal from the base station and set the transmitter to transmit a radio signal to the at least one UE upon detecting a radio signal reception from the base station . at least two power detectors, wherein a first power detector is configured to detect a radio signal received from the at least one UE , a second power detector is configured to detect a radio signal received from the base station , and wherein the first power detector is connected between the receiver and the antenna port of the first antenna array and the second power detector is connected between the receiver and the antenna port of the second antenna array; and a decision logic configured to: set the receiver to receive a radio signal from the at least one UE and set the transmitter to transmit a radio signal to the base station upon detecting a radio signal reception from the at least one UE , and set the receiver to receive a radio signal from the base station and set the transmitter to transmit a radio signal to the at least one UE upon detecting a radio signal reception from the base station . set the receiver to receive a radio signal from the at least one UE and set the transmitter to transmit a radio signal to the base station upon detecting a radio signal reception from the at least one UE , and set the receiver to receive a radio signal from the base station and set the transmitter to transmit a radio signal to the at least one UE upon detecting a radio signal reception from the base station .
A data symbol transmission method, comprising: determining , by a first wireless network device, a location at which hardware switching needs to be performed in a current subframe and switching time of the hardware switching; configuring , by the first wireless network device according to the switching time, a first guard period for a first data symbol corresponding to the location, wherein a length of the first guard period is greater than or equal to that of the switching time; using , by the first wireless network device as a second data symbol, a data symbol in the subframe other than the first data symbol, and configuring a second guard period for the second data symbol; comparing, by the first wireless network device, the length of the first guard period with a length of the second guard period, wherein the length of the second guard period is pre-configured; and if the length of the first guard period is less than the length of the second guard period, configuring, by the first wireless network device, the length of the first guard period to be the same as that of the second guard period; and sending , by the first wireless network device, the subframe to a second wireless network device. determining , by a first wireless network device, a location at which hardware switching needs to be performed in a current subframe and switching time of the hardware switching; configuring , by the first wireless network device according to the switching time, a first guard period for a first data symbol corresponding to the location, wherein a length of the first guard period is greater than or equal to that of the switching time; using , by the first wireless network device as a second data symbol, a data symbol in the subframe other than the first data symbol, and configuring a second guard period for the second data symbol; comparing, by the first wireless network device, the length of the first guard period with a length of the second guard period, wherein the length of the second guard period is pre-configured; and if the length of the first guard period is less than the length of the second guard period, configuring, by the first wireless network device, the length of the first guard period to be the same as that of the second guard period; and sending , by the first wireless network device, the subframe to a second wireless network device.
A method of dispatching electrical power from an energy storage system , the method comprising: monitoring electrical power demand of a facility load ; setting a first demand period; setting a first demand cap for said first demand period; comparing the electrical power demand of the facility load against the first demand cap during the first demand period; in response to determining that the electrical power demand of the facility load is expected to be greater than the first demand cap, discharging at sufficient power to cover the difference between the electrical power demand and the first demand cap; in response to determining that the electrical power demand of the facility load is expected to be less than the first demand cap, determining whether the energy storage system can dispatch electrical power at full power discharge of the storage system for a duration equal to or longer than a remaining time in the first demand period; dependent on determining that the energy storage system can dispatch electrical power at the full power discharge of the storage system for the duration equal to or longer than the remaining time in the first demand period, discharging electrical power from the energy storage system at the full power discharge of the storage system. monitoring electrical power demand of a facility load ; setting a first demand period; setting a first demand cap for said first demand period; comparing the electrical power demand of the facility load against the first demand cap during the first demand period; in response to determining that the electrical power demand of the facility load is expected to be greater than the first demand cap, discharging at sufficient power to cover the difference between the electrical power demand and the first demand cap; in response to determining that the electrical power demand of the facility load is expected to be less than the first demand cap, determining whether the energy storage system can dispatch electrical power at full power discharge of the storage system for a duration equal to or longer than a remaining time in the first demand period; dependent on determining that the energy storage system can dispatch electrical power at the full power discharge of the storage system for the duration equal to or longer than the remaining time in the first demand period, discharging electrical power from the energy storage system at the full power discharge of the storage system.
Control system for positioning at least two floating wind turbines in a wind farm , wherein the control system comprises a measuring device configured for measuring an incoming wind field at the two floating wind turbines , a determining device configured for determining a wake property at the two floating wind turbines , for determining a propagation path of the wake property through the wind farm based on the determined wake property at the at least two floating wind turbines , and for determining a location for each of the at least two floating wind turbines comprising a minimized wake influence based on the determined propagation path of the wake property through the wind farm , and a repositioning device configured for repositioning each of the at least two floating wind turbines to the determined location characterized in that a first floating wind turbine of the at least two floating wind turbines is tilted to a side in a floater roll direction and another floating wind turbine of the at least two floating wind turbines is tilted to the other side in the floater roll direction. a measuring device configured for measuring an incoming wind field at the two floating wind turbines , a determining device configured for determining a wake property at the two floating wind turbines , for determining a propagation path of the wake property through the wind farm based on the determined wake property at the at least two floating wind turbines , and for determining a location for each of the at least two floating wind turbines comprising a minimized wake influence based on the determined propagation path of the wake property through the wind farm , and for determining a wake property at the two floating wind turbines , for determining a propagation path of the wake property through the wind farm based on the determined wake property at the at least two floating wind turbines , and for determining a location for each of the at least two floating wind turbines comprising a minimized wake influence based on the determined propagation path of the wake property through the wind farm , and a repositioning device configured for repositioning each of the at least two floating wind turbines to the determined location characterized in that a first floating wind turbine of the at least two floating wind turbines is tilted to a side in a floater roll direction and another floating wind turbine of the at least two floating wind turbines is tilted to the other side in the floater roll direction.
A stator configuration for a gas turbine engine comprising: a splitter segment ; a first guide vane extending radially outwardly from the splitter segment; and a second guide vane extending radially inwardly from the splitter segment, the splitter segment, the first guide vane and the second guide vane being a single, integrally formed structure; wherein the splitter segment extends from a forward end to a rearward end ; characterized in that : the first guide vane positioned closer to the forward end relative to the distance between the second guide vane and the forward end. a splitter segment ; a first guide vane extending radially outwardly from the splitter segment; and a second guide vane extending radially inwardly from the splitter segment, the splitter segment, the first guide vane and the second guide vane being a single, integrally formed structure; wherein the splitter segment extends from a forward end to a rearward end ; characterized in that : the first guide vane positioned closer to the forward end relative to the distance between the second guide vane and the forward end.
A cash automatic transaction device having a depositing/dispensing port for depositing/dispensing of banknotes, and a banknote storage box for storage of deposited/dispensed banknotes, wherein the depositing/dispensing port has a depositing/dispensing space to store the deposited/dispensed banknotes, and an accumulation space in which the banknotes are accumulated upon dispensing, characterized in that the width of the depositing/dispensing space is smaller than an exit and entrance width of the storage box, while the width of the accumulation space is greater than the exit and entrance width of the storage box. wherein the depositing/dispensing port has a depositing/dispensing space to store the deposited/dispensed banknotes, and an accumulation space in which the banknotes are accumulated upon dispensing, characterized in that the width of the depositing/dispensing space is smaller than an exit and entrance width of the storage box, while the width of the accumulation space is greater than the exit and entrance width of the storage box.