mhurhangee/patent-ind-claim-en huggingface dataset:
A control unit for a computer-assisted medical device comprising: one or more processors ; and an interface configured to couple the control unit to a first input device ; wherein the control unit is configured to: determine a reference point for the first input device ; select a first virtual feedback model (VFM) for the first input device from among a plurality of VFMs for the first input device ; configure one or more parameters of the first VFM ; determine a first position of the first input device based on information from one or more first sensors associated with the first input device ; determine a displacement between the first position and the reference point; determine a first feedback level for the first input device based on the displacement and the first VFM , wherein the first feedback level is zero until the displacement exceeds a threshold and the first feedback level is proportional to the displacement above the threshold; and send, based on the first feedback level, one or more first feedback commands to one or more first actuators associated with the first input device . one or more processors ; and an interface configured to couple the control unit to a first input device ; wherein the control unit is configured to: determine a reference point for the first input device ; select a first virtual feedback model (VFM) for the first input device from among a plurality of VFMs for the first input device ; configure one or more parameters of the first VFM ; determine a first position of the first input device based on information from one or more first sensors associated with the first input device ; determine a displacement between the first position and the reference point; determine a first feedback level for the first input device based on the displacement and the first VFM , wherein the first feedback level is zero until the displacement exceeds a threshold and the first feedback level is proportional to the displacement above the threshold; and send, based on the first feedback level, one or more first feedback commands to one or more first actuators associated with the first input device . determine a reference point for the first input device ; select a first virtual feedback model (VFM) for the first input device from among a plurality of VFMs for the first input device ; configure one or more parameters of the first VFM ; determine a first position of the first input device based on information from one or more first sensors associated with the first input device ; determine a displacement between the first position and the reference point; determine a first feedback level for the first input device based on the displacement and the first VFM , wherein the first feedback level is zero until the displacement exceeds a threshold and the first feedback level is proportional to the displacement above the threshold; and send, based on the first feedback level, one or more first feedback commands to one or more first actuators associated with the first input device .
A method of supporting security context setup in a wireless communication network, the method comprising initiating (S304), by a radio access network, RAN, element of the wireless communication network, Access Stratum, AS, security context setup for a first Radio Access Technology, RAT, and a second RAT in a common signaling procedure, wherein the RAN element corresponds to the RAN element implementing the first RAT and is different from a RAN element implementing the second RAT, wherein the step of initiating (S304) the AS security context setup comprises transmitting, by a core network, CN, element via the RAN element , a single common Non-Access Stratum, NAS, security mode command message for the first RAT and the second RAT to a wireless communication device of the wireless communication network.
A system for extracting and collecting a volatile substance from a volatile containing in-space body comprising: an electromagnetic energy source for producing electromagnetic energy; an antenna coupled to said electromagnetic energy source through an electromagnetic energy delivery component , said antenna for receiving said electromagnetic energy and delivering said electromagnetic energy to said volatile containing in-space body; an auger drive apparatus coupled to an auger; said auger comprising a hollow shank and a spiral blade around said hollow shank ; said antenna receiving said electromagnetic energy through said hollow shank of said auger; said auger configured to penetrate regolith of said in-space body and deliver the electromagnetic delivery component into the regolith without first drilling a hole and then inserting the electromagnetic energy delivery component into the regolith ; said auger configured to deliver said electromagnetic energy into the regolith to provide subsurface heating; said auger hollow shank forming a volatiles containment member configured to receive said volatile substance from said volatile containing in-space body and communicate said volatile substance through said hollow shank of said auger; and a condensation apparatus coupled to said auger to receive said volatile substance from said auger, said condensation apparatus for condensing said volatile substance for concentration and storage of said volatile substance wherein the antenna comprises a slot antenna in said shank of said auger. an electromagnetic energy source for producing electromagnetic energy; an antenna coupled to said electromagnetic energy source through an electromagnetic energy delivery component , said antenna for receiving said electromagnetic energy and delivering said electromagnetic energy to said volatile containing in-space body; an auger drive apparatus coupled to an auger; said auger comprising a hollow shank and a spiral blade around said hollow shank ; said antenna receiving said electromagnetic energy through said hollow shank of said auger; said auger configured to penetrate regolith of said in-space body and deliver the electromagnetic delivery component into the regolith without first drilling a hole and then inserting the electromagnetic energy delivery component into the regolith ; said auger configured to deliver said electromagnetic energy into the regolith to provide subsurface heating; said auger hollow shank forming a volatiles containment member configured to receive said volatile substance from said volatile containing in-space body and communicate said volatile substance through said hollow shank of said auger; and a condensation apparatus coupled to said auger to receive said volatile substance from said auger, said condensation apparatus for condensing said volatile substance for concentration and storage of said volatile substance wherein the antenna comprises a slot antenna in said shank of said auger.
A method comprising: sensing , by a first user equipment , UE, a signal transmitted by a second UE indicating a resource reservation for a shared channel for a sidelink, SL, transmission by the second UE and a priority associated with the SL transmission; determining , by the first UE , a threshold based on a type of the SL transmission that the resource reservation is indicated for and the priority; and selecting , by the first UE , a first resource in the shared channel to use for a SL transmission by the first UE based on the threshold, wherein the threshold specifies a signal power threshold, the method comprises measuring a signal power in the shared channel in respect of a second resource indicated in the resource reservation, and the selecting the first resource to use for the SL transmission by the first UE comprises excluding the second resource indicated in the resource reservation if the measured signal power exceeds the threshold, wherein the type of SL transmission that the resource reservation is indicated for is selected from a group that includes: (i) a blind SL retransmission of a previously transmitted transport block, TB; (ii) a future SL transmission of a second TB that is to follow transmission of a first, different, TB for which a resource reservation is also indicated in the signal transmitted by the second UE indicating the resource reservation for the second TB; and (iii) a feedback-based SL transmission of a TB that is a feedback-based version of a previously transmitted TB, wherein each of (i), (ii) and (iii) are associated with a different threshold. sensing , by a first user equipment , UE, a signal transmitted by a second UE indicating a resource reservation for a shared channel for a sidelink, SL, transmission by the second UE and a priority associated with the SL transmission; determining , by the first UE , a threshold based on a type of the SL transmission that the resource reservation is indicated for and the priority; and selecting , by the first UE , a first resource in the shared channel to use for a SL transmission by the first UE based on the threshold, wherein the threshold specifies a signal power threshold, the method comprises measuring a signal power in the shared channel in respect of a second resource indicated in the resource reservation, and the selecting the first resource to use for the SL transmission by the first UE comprises excluding the second resource indicated in the resource reservation if the measured signal power exceeds the threshold, wherein the type of SL transmission that the resource reservation is indicated for is selected from a group that includes: (i) a blind SL retransmission of a previously transmitted transport block, TB; (ii) a future SL transmission of a second TB that is to follow transmission of a first, different, TB for which a resource reservation is also indicated in the signal transmitted by the second UE indicating the resource reservation for the second TB; and (iii) a feedback-based SL transmission of a TB that is a feedback-based version of a previously transmitted TB, wherein each of (i), (ii) and (iii) are associated with a different threshold.
A patch panel comprising: a plurality of ports ; a plurality of switches , each of the plurality of switches being associated with a respective one of the plurality of ports, wherein each of the plurality of switches is configured to be in a first switch state when a cable is inserted into the respective port associated with that switch and in a second switch state when a cable is not inserted into the respective port associated with that switch; and a programmable processor configured to monitor the state of the plurality of switches , the programmable processor comprising a plurality of input/output lines , wherein each of the plurality of switches is coupled to a respective input/output line; for each of the plurality of switches , the patch panel is configured to develop a first logic state on the input/output line associated with that switch when that switch is in a first switch state; for each of the plurality of switches , the patch panel is configured to develop a second logic state on the input/output line associated with that switch when that switch is in a second switch state; and the programmable processor is configured to read information stored in a memory device associated with a cable that is inserted into the port using the input/output line associated with that port in response to a change in the state of the respective switch associated with that port. a plurality of ports ; a plurality of switches , each of the plurality of switches being associated with a respective one of the plurality of ports, wherein each of the plurality of switches is configured to be in a first switch state when a cable is inserted into the respective port associated with that switch and in a second switch state when a cable is not inserted into the respective port associated with that switch; and a programmable processor configured to monitor the state of the plurality of switches , the programmable processor comprising a plurality of input/output lines , wherein each of the plurality of switches is coupled to a respective input/output line; for each of the plurality of switches , the patch panel is configured to develop a first logic state on the input/output line associated with that switch when that switch is in a first switch state; for each of the plurality of switches , the patch panel is configured to develop a second logic state on the input/output line associated with that switch when that switch is in a second switch state; and the programmable processor is configured to read information stored in a memory device associated with a cable that is inserted into the port using the input/output line associated with that port in response to a change in the state of the respective switch associated with that port.
An outer garment, in particular a jacket, having an outer side and an inner side and having at least one outer pocket (21-24) attached to the outer side and defining an inner space which is accessible via an access opening , characterized in that the outer pocket (21-24) is completely closed to the outer side and the access opening is arranged on the inner side and is accessible only from the inner side .
A ring-shaped element for an etcher, comprising: a body portion comprising an upper surface ; a bottom surface; an outer diameter surface connecting an outer contour line of the upper surface and an outer contour line of the bottom surface; and an inner diameter surface connected to an inner contour line of the upper surface ; wherein the upper surface and the bottom surface of the body portion are spaced a distance from each other by the outer diameter surface ; and a mounting portion comprising an upper surface comprising an outer diameter directly connected to the inner diameter surface of the body portion at a position lower than the upper surface of the body portion , a bottom surface connected to the bottom surface of the body portion , and spaced a distance from the upper surface by an inner diameter surface connecting an inner contour line of the upper surface and an inner contour line of the bottom surface, wherein the upper surface of the mounting portion is stepped from the upper surface of the body portion such that it constitutes a substrate mounting portion thereon, wherein the surface or entire body of the ring-shaped element comprises necked boron carbide-containing particles, and wherein the thermal conductivity of the ring-shaped element at 400 °C is 27 W/m·K or less. a body portion comprising an upper surface ; a bottom surface; an outer diameter surface connecting an outer contour line of the upper surface and an outer contour line of the bottom surface; and an inner diameter surface connected to an inner contour line of the upper surface ; wherein the upper surface and the bottom surface of the body portion are spaced a distance from each other by the outer diameter surface ; and a mounting portion comprising an upper surface comprising an outer diameter directly connected to the inner diameter surface of the body portion at a position lower than the upper surface of the body portion , a bottom surface connected to the bottom surface of the body portion , and spaced a distance from the upper surface by an inner diameter surface connecting an inner contour line of the upper surface and an inner contour line of the bottom surface, wherein the upper surface of the mounting portion is stepped from the upper surface of the body portion such that it constitutes a substrate mounting portion thereon, wherein the surface or entire body of the ring-shaped element comprises necked boron carbide-containing particles, and wherein the thermal conductivity of the ring-shaped element at 400 °C is 27 W/m·K or less.
A method for sending a push content, comprising: receiving , by a push sending agent in a server, a preset push message control policy from a terminal, wherein the preset push message control policy is submitted by a user of the terminal; returning , by the push sending agent a message to the terminal indicating that the push message control policy has been successfully received and stored; receiving , by the push sending agent, a push message sent by a push initiator, PI; comparing , by the push sending agent, the push message with a matching condition in the preset push message control policy, wherein the matching condition comprises a service control condition adapted to indicate a service identifier, ID, corresponding to a type of push message that a terminal is allowed to receive; sending , by the push sending agent, the push message to a push receiving agent in the terminal if the push message satisfies the type of the push message that the terminal is allowed to receive; and the method being characterised by further comprising: forwarding, by the push sending agent, the push message to other terminals when the matching condition is a push content that the terminal is not allowed to receive receiving , by a push sending agent in a server, a preset push message control policy from a terminal, wherein the preset push message control policy is submitted by a user of the terminal; returning , by the push sending agent a message to the terminal indicating that the push message control policy has been successfully received and stored; receiving , by the push sending agent, a push message sent by a push initiator, PI; comparing , by the push sending agent, the push message with a matching condition in the preset push message control policy, wherein the matching condition comprises a service control condition adapted to indicate a service identifier, ID, corresponding to a type of push message that a terminal is allowed to receive; sending , by the push sending agent, the push message to a push receiving agent in the terminal if the push message satisfies the type of the push message that the terminal is allowed to receive; and the method being characterised by further comprising: forwarding, by the push sending agent, the push message to other terminals when the matching condition is a push content that the terminal is not allowed to receive
Vacuum cleaner suction tube with at least one inner tube , with at least one outer tube , with at least one actuating mechanism and with at least one end sleeve inserted into the outer tube , wherein the end sleeve is arranged between the inner tube and the outer tube , wherein the end sleeve has at least one end sleeve recess , wherein the outer tube has at least one outer tube recess , wherein the inner tube has a plurality of snap-in depressions , wherein the actuating mechanism passes through the outer tube recess , wherein the actuating mechanism comprises a base plate having at least one snap-in recess , wherein the actuating mechanism comprises at least one locking device, wherein the locking device is movable from a locking position into at least one unlocking position, wherein the locking device passes through the end sleeve recess in the locking position in the direction of the inner tube , wherein the locking device is in engagement with at least one snap-in recess on the inner tube in the locking position and wherein, in the unlocking position, a shifting of the inner tube relative to the outer tube is enabled by the locking device, wherein an axial movement of the end sleeve relative to the outer tube is blocked by the actuating mechanism and in that an inwardly directed radial movement of the actuating mechanism relative to the outer tube is blocked by the inner tube characterized in that the actuating mechanism has a friction connection to the end sleeve so that axial movement of the end sleeve relative to the outer tube is blocked.
An aircraft gas turbine engine comprising: a main engine shaft ; a main engine shaft bearing arrangement configured to rotatably support the main engine shaft ; and an electric machine comprising a rotor and a stator ; wherein the rotor is mounted to the main engine shaft and is rotatably supported by the main engine shaft bearing arrangement ;the stator is cantilevered from static structure of the gas turbine engine , being supported at one end only, with the other end being free, to allow for radial and angular flexing in use; the stator is positioned radially outward of the rotor ; and the main shaft bearing arrangement comprises first and second bearings arranged to support the rotor , wherein the first bearing is provided axially rearward of the electric machine rotor , and the second bearing is provided axially forward of the electric machine rotor . a main engine shaft ; a main engine shaft bearing arrangement configured to rotatably support the main engine shaft ; and an electric machine comprising a rotor and a stator ; wherein the rotor is mounted to the main engine shaft and is rotatably supported by the main engine shaft bearing arrangement ;the stator is cantilevered from static structure of the gas turbine engine , being supported at one end only, with the other end being free, to allow for radial and angular flexing in use; the stator is positioned radially outward of the rotor ; and the main shaft bearing arrangement comprises first and second bearings arranged to support the rotor , wherein the first bearing is provided axially rearward of the electric machine rotor , and the second bearing is provided axially forward of the electric machine rotor .
A pulse infusion system, comprising: a tubing system having an inlet connected to an external reservoir adapted to contain infusion fluids and an outlet connected to a catheter, the tubing system further comprises at least one check valve proximate to the inlet and an anti-siphon check valve proximate to the outlet ; and an automatic pulse flow generation device comprising: an internal reservoir ; and a bidirectional pump configured to pump infusion fluid from the external reservoir to the internal reservoir and further pump and administer one or more consecutive infusion fluid pulses from the internal reservoir to be injected through the catheter, wherein the automatic pulse flow generation device comprises a controller configured to control the bidirectional pump and the administered pulse volume, and wherein tubing volume between the at least one check valve and the internal reservoir is substantially smaller than 5 percent of the internal reservoir's volume. a tubing system having an inlet connected to an external reservoir adapted to contain infusion fluids and an outlet connected to a catheter, the tubing system further comprises at least one check valve proximate to the inlet and an anti-siphon check valve proximate to the outlet ; and an automatic pulse flow generation device comprising: an internal reservoir ; and a bidirectional pump configured to pump infusion fluid from the external reservoir to the internal reservoir and further pump and administer one or more consecutive infusion fluid pulses from the internal reservoir to be injected through the catheter, wherein the automatic pulse flow generation device comprises a controller configured to control the bidirectional pump and the administered pulse volume, and wherein tubing volume between the at least one check valve and the internal reservoir is substantially smaller than 5 percent of the internal reservoir's volume. an internal reservoir ; and a bidirectional pump configured to pump infusion fluid from the external reservoir to the internal reservoir and further pump and administer one or more consecutive infusion fluid pulses from the internal reservoir to be injected through the catheter, wherein the automatic pulse flow generation device comprises a controller configured to control the bidirectional pump and the administered pulse volume, and wherein tubing volume between the at least one check valve and the internal reservoir is substantially smaller than 5 percent of the internal reservoir's volume.