mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed at a network switch, comprising: performing , using one or more processors, a pre-defined database function on query data contained in data messages received at the network switch, with the performing producing result data, wherein when resources of the network switch are sufficient to perform the pre-defined database function on all available data within a time frame, the pre-defined database function is performed on the query data in a first mode of operation to a state of full completion, generating complete result data and no skipped query data, and when the resources of the network switch are insufficient to perform the pre-defined database function on all available data within the time frame, the pre-defined database function is performed on the query data in a second mode of best-effort operation to a state of partial completion, generating as much partially complete result data as the resources allow and skipped query data; and performing one or more network switch functions to route the complete result data, or route the partially complete result data and skipped query data, to one or more destination nodes. performing , using one or more processors, a pre-defined database function on query data contained in data messages received at the network switch, with the performing producing result data, wherein when resources of the network switch are sufficient to perform the pre-defined database function on all available data within a time frame, the pre-defined database function is performed on the query data in a first mode of operation to a state of full completion, generating complete result data and no skipped query data, and when the resources of the network switch are insufficient to perform the pre-defined database function on all available data within the time frame, the pre-defined database function is performed on the query data in a second mode of best-effort operation to a state of partial completion, generating as much partially complete result data as the resources allow and skipped query data; and performing one or more network switch functions to route the complete result data, or route the partially complete result data and skipped query data, to one or more destination nodes.
A method for allocating channel resources for transmitting data by user equipment, UE , the method comprising: receiving a resource allocation specification for a Physical Sidelink Control Channel, PSCCH, for transmission on Physical Sidelink Shared Channel, PSSCH, resources, wherein the resource allocation specifies a configuration of a PSCCH sub-channel in a PSSCH sub-channel , the PSCCH sub-channel including a first number of symbols (N1) and a second number physical resource blocks, PRBs (M1), within the PSSCH sub-channel ; and transmitting the PSCCH transmission based on the resource allocation specification. receiving a resource allocation specification for a Physical Sidelink Control Channel, PSCCH, for transmission on Physical Sidelink Shared Channel, PSSCH, resources, wherein the resource allocation specifies a configuration of a PSCCH sub-channel in a PSSCH sub-channel , the PSCCH sub-channel including a first number of symbols (N1) and a second number physical resource blocks, PRBs (M1), within the PSSCH sub-channel ; and transmitting the PSCCH transmission based on the resource allocation specification.
A method for conveying solid particles using a gas flow, by circulating the gas flow in a closed conveying path, wherein the solid particles comprise a solid material that is capable of undergoing a dissociation equilibrium reaction that dissociates at least one type of gas component and at least one type of solid component, the gas flow contains the gas component, and the solid particles are conveyed in a conveying pipe by the gas flow, and the solid particles or the solid component stuck to an inner surface of the conveying pipe is removed by the gas flow; characterized in that the solid material is a fluorine-containing inorganic salt having PF 6 - or BF 4 - as an anion. wherein the solid particles comprise a solid material that is capable of undergoing a dissociation equilibrium reaction that dissociates at least one type of gas component and at least one type of solid component, the gas flow contains the gas component, and the solid particles are conveyed in a conveying pipe by the gas flow, and the solid particles or the solid component stuck to an inner surface of the conveying pipe is removed by the gas flow; characterized in that the solid material is a fluorine-containing inorganic salt having PF 6 - or BF 4 - as an anion.
An illuminated electrosurgical instrument, said instrument comprising: a handle having a proximal end and a distal end; an optical waveguide coupled to the handle, wherein the optical waveguide is adjustably coupled to the handle, wherein adjustment of the optical waveguide moves, along a longitudinal axis, a distal end of the optical waveguide closer to or further away from a proximal end of the handle; an illumination element such as an LED coupled to a proximal end of the optical waveguide; an electrosurgical tip coupled to the optical waveguide, wherein the illumination element and the electrosurgical tip are configured to move with the optical waveguide, characterized by a locking mechanism coupled to the optical waveguide for selectively locking the optical waveguide in a plurality of positions along the longitudinal axis relative to the proximal end of the handle, wherein the locking mechanism extends circumferentially around the optical waveguide, wherein the locking mechanism has (i) an un-locked position in which the optical waveguide can move along the longitudinal axis to extend or retract through an inner diameter of the locking mechanism and (ii) a locked position in which the locking mechanism clamps around the optical waveguide and resists movement of the optical waveguide along the longitudinal axis. a handle having a proximal end and a distal end; an optical waveguide coupled to the handle, wherein the optical waveguide is adjustably coupled to the handle, wherein adjustment of the optical waveguide moves, along a longitudinal axis, a distal end of the optical waveguide closer to or further away from a proximal end of the handle; an illumination element such as an LED coupled to a proximal end of the optical waveguide; an electrosurgical tip coupled to the optical waveguide, wherein the illumination element and the electrosurgical tip are configured to move with the optical waveguide, characterized by a locking mechanism coupled to the optical waveguide for selectively locking the optical waveguide in a plurality of positions along the longitudinal axis relative to the proximal end of the handle, wherein the locking mechanism extends circumferentially around the optical waveguide, wherein the locking mechanism has (i) an un-locked position in which the optical waveguide can move along the longitudinal axis to extend or retract through an inner diameter of the locking mechanism and (ii) a locked position in which the locking mechanism clamps around the optical waveguide and resists movement of the optical waveguide along the longitudinal axis.
A power controllable wireless communication device (MOD) comprising: a variable gain amplifier (PGA) having a gain that can be controlled based on a gain control signal (GCC); a reference power generation circuit (RPG) configured to generate first reference power (PW1) and second reference power (PW2) differing from the first reference power (PW1); a sensor circuit (SCC) selectively supplied with power of a high frequency signal output from the variable gain amplifier (PGA), and the first reference power (PW1) and the second reference power (PW2) generated by the reference power generation circuit (RPG); and a control circuit configured to generate the gain control signal (GCC) based on a sensor output from the sensor circuit (SCC), characterized in that when controlling power, the control circuit generates the gain control signal (GCC) based on a ratio of a first difference (m0) and a second difference (h0), the first difference (m0) is a difference between a third sensor output (S0) corresponding to the power of the high frequency signal and a first sensor output (Rb0) corresponding to the first reference power (PW1), the second difference (h0) is a difference between a second sensor output (Rh0) corresponding to the second reference power (PW2) and the first sensor output (Rb0) corresponding to the first reference power(PW1). a variable gain amplifier (PGA) having a gain that can be controlled based on a gain control signal (GCC); a reference power generation circuit (RPG) configured to generate first reference power (PW1) and second reference power (PW2) differing from the first reference power (PW1); a sensor circuit (SCC) selectively supplied with power of a high frequency signal output from the variable gain amplifier (PGA), and the first reference power (PW1) and the second reference power (PW2) generated by the reference power generation circuit (RPG); and a control circuit configured to generate the gain control signal (GCC) based on a sensor output from the sensor circuit (SCC), characterized in that when controlling power, the control circuit generates the gain control signal (GCC) based on a ratio of a first difference (m0) and a second difference (h0), the first difference (m0) is a difference between a third sensor output (S0) corresponding to the power of the high frequency signal and a first sensor output (Rb0) corresponding to the first reference power (PW1), the second difference (h0) is a difference between a second sensor output (Rh0) corresponding to the second reference power (PW2) and the first sensor output (Rb0) corresponding to the first reference power(PW1).
A hybrid welding device that performs welding by combining use of laser welding and arc welding, the hybrid welding device comprising: a laser head configured to emit a laser beam (L) to a welded portion (P); and a welding torch configured to supply a filler material to the welded portion (P), wherein the laser head includes: a laser nozzle that forms an optical path of the laser beam (L), a first rectifying plate arranged at a tip side of the laser nozzle so as not to interfere with the laser beam (L), and a first air knife configured to inject first compressed air along the first rectifying plate , wherein the first rectifying plate has a shape elongated in a direction (E) perpendicular to an optical axis of the laser beam (L) and a welding direction (W), characterized in that the laser head further includes a second rectifying plate arranged between the first rectifying plate and the welded portion (P) so as not to interfere with the laser beam (L), and a second air knife configured to inject second compressed air along the second rectifying plate , wherein the second rectifying plate has a shape elongated in a direction (E) perpendicular to an optical axis of the laser beam (L) and a welding direction (W) and has a torch opening through which a tip of the welding torch can be inserted. a laser head configured to emit a laser beam (L) to a welded portion (P); and a welding torch configured to supply a filler material to the welded portion (P), wherein the laser head includes: a laser nozzle that forms an optical path of the laser beam (L), a first rectifying plate arranged at a tip side of the laser nozzle so as not to interfere with the laser beam (L), and a first air knife configured to inject first compressed air along the first rectifying plate , wherein the first rectifying plate has a shape elongated in a direction (E) perpendicular to an optical axis of the laser beam (L) and a welding direction (W), characterized in that the laser head further includes a second rectifying plate arranged between the first rectifying plate and the welded portion (P) so as not to interfere with the laser beam (L), and a second air knife configured to inject second compressed air along the second rectifying plate , wherein the second rectifying plate has a shape elongated in a direction (E) perpendicular to an optical axis of the laser beam (L) and a welding direction (W) and has a torch opening through which a tip of the welding torch can be inserted.
A lubrication system for a turbine engine , comprising: a lubricant source including a source outlet ; a plurality of feed circuits fluidly coupled with the source outlet in parallel, the plurality of feed circuits including a first feed circuit and a second feed circuit , the second feed circuit comprising a pump that includes a pump inlet and a pump outlet ; a bypass circuit fluidly coupled with the pump inlet and the pump outlet ; and a bleed circuit fluidly coupled with the first feed circuit , characterised in that the lubrication system further comprises: a flow regulator configured to regulate flow through the bypass circuit during a first mode of operation and a second mode of operation, and the flow regulator configured to close the bleed circuit during the second mode of operation; and a sensor system configured to monitor fluid flow directed to at least one of the first feed circuit or the second feed circuit . a lubricant source including a source outlet ; a plurality of feed circuits fluidly coupled with the source outlet in parallel, the plurality of feed circuits including a first feed circuit and a second feed circuit , the second feed circuit comprising a pump that includes a pump inlet and a pump outlet ; a bypass circuit fluidly coupled with the pump inlet and the pump outlet ; and a bleed circuit fluidly coupled with the first feed circuit , a flow regulator configured to regulate flow through the bypass circuit during a first mode of operation and a second mode of operation, and the flow regulator configured to close the bleed circuit during the second mode of operation; and a sensor system configured to monitor fluid flow directed to at least one of the first feed circuit or the second feed circuit .
A liquid ejection device , comprising: a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged two-dimensionally in an XY direction; an actuator provided in each of the nozzles; a liquid supply unit configured to communicate with the nozzles; and a drive control unit , characterized in that the drive control unit is configured to, when one nozzle among the plurality of nozzles is given attention, give drive signals to actuators of nozzles adjacent the one nozzle in an X direction, in a -X direction, in a Y direction, and in a -Y direction to drive the actuators at a timing shifted by half of a drive period from a timing of an actuator of the one nozzle given attention. a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged two-dimensionally in an XY direction; an actuator provided in each of the nozzles; a liquid supply unit configured to communicate with the nozzles; and a drive control unit , characterized in that the drive control unit is configured to, when one nozzle among the plurality of nozzles is given attention, give drive signals to actuators of nozzles adjacent the one nozzle in an X direction, in a -X direction, in a Y direction, and in a -Y direction to drive the actuators at a timing shifted by half of a drive period from a timing of an actuator of the one nozzle given attention.
Method for controlling a dual clutch transmission for achieving a brake-to-clutch functionality for an off road vehicle, said dual clutch transmission comprising: • an engine input shaft configured to be coupled to the output of an engine of said work vehicle, • an output shaft further connectable to other drive systems of said off road vehicle, and • a main forward clutch and a main rearward clutch , each configured to be coupled to the engine input shaft ; • first and second shafts each configured to carry a plurality of gears , said first and second shafts being configured to be coupled, via respective first and second clutches , to said input shaft of said vehicle and being configured to be coupled to the output shaft defining with one of said gears a predetermined speed ratio between said engine input shaft and said output shaft , said method comprising the step: • receiving an input for starting to brake the vehicle which is moving in a forward or rearward direction; the method being characterised by the following further steps: • selecting a gear of the first/second shaft which is not engaged in the forward or rearward mechanical motion path; • starting to engage a first/second clutch of said first/second shaft which is not engaged in said forward or rearward mechanical motion path so that said clutch starts to slip and generates a resistant torque which starts to brake the transmission; • when a target condition of said transmission is reached, then start to disengage the main forward or rearward clutch till it starts to slip; and • maintaining the precedent configuration till said braking input is present. • an engine input shaft configured to be coupled to the output of an engine of said work vehicle, • an output shaft further connectable to other drive systems of said off road vehicle, and • a main forward clutch and a main rearward clutch , each configured to be coupled to the engine input shaft ; • first and second shafts each configured to carry a plurality of gears , said first and second shafts being configured to be coupled, via respective first and second clutches , to said input shaft of said vehicle and being configured to be coupled to the output shaft defining with one of said gears a predetermined speed ratio between said engine input shaft and said output shaft , • receiving an input for starting to brake the vehicle which is moving in a forward or rearward direction; • selecting a gear of the first/second shaft which is not engaged in the forward or rearward mechanical motion path; • starting to engage a first/second clutch of said first/second shaft which is not engaged in said forward or rearward mechanical motion path so that said clutch starts to slip and generates a resistant torque which starts to brake the transmission; • when a target condition of said transmission is reached, then start to disengage the main forward or rearward clutch till it starts to slip; and • maintaining the precedent configuration till said braking input is present.
A heated enclosure for optimized sublimation of solid-phase semiconductor process materials and subsequent delivery of the resultant vapor, the enclosure is an oven approximately rectangular in shape, the enclosure comprising: a hollow housing which is insulated to retain heat within the housing and has a top , a bottom , a pair of side walls each defined by a side exterior wall and a corresponding side interior wall , a back interior wall and a door, wherein the top , the bottom , the side walls, the back interior wall , and the door are provided with insulation; at least two independent heated zones with independent temperature controls and dedicated overtemperature protection defining an upper heated zone and a lower heated zone and being located in the housing, the lower heated zone configured to accept a container storing a solid-phase semiconductor process material; a removable and height-adjustable rectangular divider plate being made of an insulation material, separating the upper heated zone and the lower heated zone , and minimizing heat transfer between the upper heated zone and the lower heated zone and the divider plate is a substantially flat, smooth, relatively thin component made of a durable material capable of withstanding the elevated temperatures within both the upper heated zone and the lower heated zone ; and a heat shield affixed between a source of heating and the container; and the source of heating comprising a first heater providing heat to the upper heated zone and a second heater providing heat to the lower heated zone ; characterized in that the divider plate is sized to fit snugly within the heated enclosure , contacting and extending among the side interior walls , the back interior wall and the door. at least two independent heated zones with independent temperature controls and dedicated overtemperature protection defining an upper heated zone and a lower heated zone and being located in the housing, the lower heated zone configured to accept a container storing a solid-phase semiconductor process material; a removable and height-adjustable rectangular divider plate being made of an insulation material, separating the upper heated zone and the lower heated zone , and minimizing heat transfer between the upper heated zone and the lower heated zone and the divider plate is a substantially flat, smooth, relatively thin component made of a durable material capable of withstanding the elevated temperatures within both the upper heated zone and the lower heated zone ; and a heat shield affixed between a source of heating and the container; and the source of heating comprising a first heater providing heat to the upper heated zone and a second heater providing heat to the lower heated zone ; characterized in that the divider plate is sized to fit snugly within the heated enclosure , contacting and extending among the side interior walls , the back interior wall and the door.
Apparatus for treating biological tissue , having a light source in order to send a large number of light pulses onto the tissue within a treatment time period , so that the tissue is set vibrating, having a vibration sensor , which measures the amplitude of a vibration of the tissue triggered by the light source , and having a control unit , which forms a relative value in which a current measured value of the amplitude is related to an initial measured value of the amplitude, and which processes the relative value in order to generate a control signal for the light source .
A combustor section , comprising: a fuel nozzle support ; a section of a passage suitable for an oxidizer to flow through; a casing ; a cap assembly having the fuel nozzle support formed therein; a segmented annular manifold mounted upstream from the fuel nozzle support , the segmented annular manifold being mounted in the section of the passage suitable for an oxidizer to flow through, wherein the section of the passage is radially interposed between the casing and the cap assembly of a combustor, a baffle extending axially from the cap assembly , wherein the section of the passage is radially interposed between the casing and the cap assembly baffle ; each body segment of the manifold being substantially axially aligned with one another relative to the axis of the annular manifold , and each body segment including a body to accommodate fuel internally that is formed to define injection holes through which the fuel is injected into the passage suitable for an oxidizer to flow through and upstream of the fuel nozzle support , wherein each of the bodies comprises a segmented ring-shaped casing having first and second opposing sides , wherein at least the side pointing downstream is tapered. a fuel nozzle support ; a section of a passage suitable for an oxidizer to flow through; a casing ; a cap assembly having the fuel nozzle support formed therein; a segmented annular manifold mounted upstream from the fuel nozzle support , the segmented annular manifold being mounted in the section of the passage suitable for an oxidizer to flow through, wherein the section of the passage is radially interposed between the casing and the cap assembly of a combustor, a baffle extending axially from the cap assembly , wherein the section of the passage is radially interposed between the casing and the cap assembly baffle ; each body segment of the manifold being substantially axially aligned with one another relative to the axis of the annular manifold , and each body segment including a body to accommodate fuel internally that is formed to define injection holes through which the fuel is injected into the passage suitable for an oxidizer to flow through and upstream of the fuel nozzle support , wherein each of the bodies comprises a segmented ring-shaped casing having first and second opposing sides , wherein at least the side pointing downstream is tapered.