mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply having a power module for providing power to a plasma load through arc management hardware, a digital power monitor module for monitoring the present voltage and current supplied to the plasma load , and a proactive arc management module , said proactive arc management module comprising: arc detect module configured to compare a present voltage supplied to the plasma load to a preset voltage threshold and to compare present current supplied to the plasma load to a preset current threshold and to generate an actual arc handling request when comparison of the present voltage or present current to the voltage threshold and current threshold, respectively, indicates an arc is occurring in the plasma load ; proactive arc management adjust module configured to be responsive to actual arc handling requests from the arc detect module and to update a proactive arc management count (C AM ) as a function of the actual arc handling requests received during a sampling interval; and arc management control module configured to be responsive to the proactive arc management count (C AM ) generated in a previous sampling interval (T M-1 ) and to actual arc handling requests to control the arc management hardware to execute during a present sampling interval (T M ) an arc handling routine for each count in the proactive arc management count and each actual arc handling request so that arcs in the plasma load are reduced. arc detect module configured to compare a present voltage supplied to the plasma load to a preset voltage threshold and to compare present current supplied to the plasma load to a preset current threshold and to generate an actual arc handling request when comparison of the present voltage or present current to the voltage threshold and current threshold, respectively, indicates an arc is occurring in the plasma load ; proactive arc management adjust module configured to be responsive to actual arc handling requests from the arc detect module and to update a proactive arc management count (C AM ) as a function of the actual arc handling requests received during a sampling interval; and arc management control module configured to be responsive to the proactive arc management count (C AM ) generated in a previous sampling interval (T M-1 ) and to actual arc handling requests to control the arc management hardware to execute during a present sampling interval (T M ) an arc handling routine for each count in the proactive arc management count and each actual arc handling request so that arcs in the plasma load are reduced.
One or more computer storage media having computer-executable instructions for propagating sound in a virtual environment that, upon execution by a processor , cause the processor to at least: calculate a shortest path from a sound source in a first zone of the virtual environment to a sound destination in a second zone of the virtual environment that passes through at least one portal ; determine a direction of the calculated shortest path from the sound destination to the at least one portal; generate a virtual sound source at a distance from the sound destination equal to the length of the calculated shortest path and in the determined direction from the sound destination such that the sound from the virtual sound source is perceived by a listening entity at the sound destination as coming from the direction of the portal; and provide the virtual sound source to an audio engine for rendering to a user. calculate a shortest path from a sound source in a first zone of the virtual environment to a sound destination in a second zone of the virtual environment that passes through at least one portal ; determine a direction of the calculated shortest path from the sound destination to the at least one portal; generate a virtual sound source at a distance from the sound destination equal to the length of the calculated shortest path and in the determined direction from the sound destination such that the sound from the virtual sound source is perceived by a listening entity at the sound destination as coming from the direction of the portal; and provide the virtual sound source to an audio engine for rendering to a user.
A mutant reverse transcriptase (RT) with increased thermal stability relative to the wildtype RT of SEQ ID NO: 1, the mutant RT comprising i) an amino acid sequence that has six amino acid substitutions relative to wildtype RT of SEQ ID NO: 1, wherein - Ala at position 32 is substituted with Val (A32V); - Leu at position 72 is substituted with Arg (L72R); - Glu at position 286 is substituted with Arg (E286R); - Glu at position 302 is substituted with Lys (E302K); - Trp at position 388 is substituted with Arg (W388R); and - Leu at position 435 is substituted with Arg (L435R), or ii) an amino acid sequence that is at least 95 % identical to the amino acid sequence of i) and has the six amino acid substitutions as defined in i), wherein the mutant RT exhibits reverse transcriptase activity and wherein the mutant RT has an increased thermal stability relative to mutant MM3, wherein MM3 has an amino acid sequence that differs from the one of SEQ ID NO: 1 only by three amino acid substitutions, wherein Glu at position 286 is substituted with Arg (E286R), Glu at position 302 is substituted with Lys (E302K) and Leu at position 435 is substituted with Arg (L435R). i) an amino acid sequence that has six amino acid substitutions relative to wildtype RT of SEQ ID NO: 1, wherein - Ala at position 32 is substituted with Val (A32V); - Leu at position 72 is substituted with Arg (L72R); - Glu at position 286 is substituted with Arg (E286R); - Glu at position 302 is substituted with Lys (E302K); - Trp at position 388 is substituted with Arg (W388R); and - Leu at position 435 is substituted with Arg (L435R), or - Ala at position 32 is substituted with Val (A32V); - Leu at position 72 is substituted with Arg (L72R); - Glu at position 286 is substituted with Arg (E286R); - Glu at position 302 is substituted with Lys (E302K); - Trp at position 388 is substituted with Arg (W388R); and - Leu at position 435 is substituted with Arg (L435R), or ii) an amino acid sequence that is at least 95 % identical to the amino acid sequence of i) and has the six amino acid substitutions as defined in i),
A submersible pump (BTS) comprising: a pump having a pump housing ; a power source and a control unit housed within a control housing , the power source being a battery; a flexible connection configured between the pump housing and the control housing , the flexible connection being configured to act as a means for transfer of power; wherein the pump housing has a first locking feature ; and the control housing having a second locking feature compatible for locking with the first locking feature , the locking features allowing easy coupling and decoupling of the control housing with the pump housing; wherein the design of the control housing is compatible with the area around the first locking feature of the pump housing ; during use, the pump housing and the control housing are connected by the flexible connection, with the control housing being readily decoupled from the pump housing . a pump having a pump housing ; a power source and a control unit housed within a control housing , the power source being a battery; a flexible connection configured between the pump housing and the control housing , the flexible connection being configured to act as a means for transfer of power; wherein the pump housing has a first locking feature ; and the control housing having a second locking feature compatible for locking with the first locking feature , the locking features allowing easy coupling and decoupling of the control housing with the pump housing; wherein the design of the control housing is compatible with the area around the first locking feature of the pump housing ; during use, the pump housing and the control housing are connected by the flexible connection, with the control housing being readily decoupled from the pump housing .
A computer implemented method for authenticating a field tool by a field device comprising the steps carried out by the field device of: receiving, from the field tool , an authentication certificate; verifying the authentication certificate using a trust anchor certificate on the field device ; securing communication between the field tool and the field device ; receiving , from the field tool , a field tool task authorization certificate ; verifying the field tool task authorization certificate using the trust anchor certificate on the field device ; receiving , from the field tool , a request to perform a task; determining whether the task is authorized based on the field tool task authorization certificate ; and performing the task on the field device when it is determined the task is authorized. receiving, from the field tool , an authentication certificate; verifying the authentication certificate using a trust anchor certificate on the field device ; securing communication between the field tool and the field device ; receiving , from the field tool , a field tool task authorization certificate ; verifying the field tool task authorization certificate using the trust anchor certificate on the field device ; receiving , from the field tool , a request to perform a task; determining whether the task is authorized based on the field tool task authorization certificate ; and performing the task on the field device when it is determined the task is authorized.
Bolt tensioning tool adapted to tension a threaded bolt or pin protruding from a workpiece, said tool comprising: a bolt receiving element having an internal thread adapted to be screwed onto said threaded bolt or pin; a nut socket adapted to receive a nut to be screwed onto the bolt, an axle coupled to, and adapted to exert an axial force on, said bolt receiving element, said axle comprising an external thread; a threaded sleeve arranged to engage said axle and having an internal thread adapted to cooperate with the external thread of said axle such that a relative rotational movement between said axle and said threaded sleeve result in a relative axial displacement between said axle and said threaded sleeve, a supporting sleeve coupled to said threaded sleeve and adapted to at a first end selectively bear against said workpiece such that a reaction force may be transmitted to work piece, thereby counteracting said axial force exerted on bolt by axle, and a coupling adapted to connect said nut socket and said supporting sleeve, wherein said coupling is a coupling allowing a limited relative movement between said nut socket and said supporting sleeve. a bolt receiving element having an internal thread adapted to be screwed onto said threaded bolt or pin; a nut socket adapted to receive a nut to be screwed onto the bolt, an axle coupled to, and adapted to exert an axial force on, said bolt receiving element, said axle comprising an external thread; a threaded sleeve arranged to engage said axle and having an internal thread adapted to cooperate with the external thread of said axle such that a relative rotational movement between said axle and said threaded sleeve result in a relative axial displacement between said axle and said threaded sleeve, a supporting sleeve coupled to said threaded sleeve and adapted to at a first end selectively bear against said workpiece such that a reaction force may be transmitted to work piece, thereby counteracting said axial force exerted on bolt by axle, and a coupling adapted to connect said nut socket and said supporting sleeve, wherein said coupling is a coupling allowing a limited relative movement between said nut socket and said supporting sleeve.
An oral cleaning device comprising: a body which carries a set of projections , the ends of the projections defining a contour of the cleaning device; and an actuator device associated with a sub-set of one or more of the projections and provided at the base of the one or more projections, characterized in that the actuator device comprises an electroactive polymer which is capable of deforming in response to a drive signal applied to the actuator device thereby to realize active control of the contour of the cleaning device by adjusting a position of the associated one or more projections, and wherein the oral cleaning device is configured for sensing a force applied to the one or more projections and controlling the position adjusting in response to the sensing. a body which carries a set of projections , the ends of the projections defining a contour of the cleaning device; and an actuator device associated with a sub-set of one or more of the projections and provided at the base of the one or more projections, characterized in that the actuator device comprises an electroactive polymer which is capable of deforming in response to a drive signal applied to the actuator device thereby to realize active control of the contour of the cleaning device by adjusting a position of the associated one or more projections, and wherein the oral cleaning device is configured for sensing a force applied to the one or more projections and controlling the position adjusting in response to the sensing.
A method to be performed at a first wireless communication station, STA, the method comprising: transmitting a first trigger frame (210; 310; 510; 610; 710) to configure resource allocations (212; 312; 512; 612; 712) for a plurality of second STAs, the plurality of second STAs comprising an unassociated STA and an associated STA, the first trigger frame (210; 310; 510; 610; 710) comprising an unassociated identifier, ID, to address the unassociated STA and an Association ID, AID, to address the associated STA; processing requests from two or more STAs of the plurality of second STAs to request to perform a range measurement procedure, the requests from the two or more STAs according to the resource allocations (212; 312; 512; 612; 712) for the plurality of second STAs, the requests from the two or more STAs comprising a request from the unassociated STA and a request from the associated STA; transmitting a second trigger frame to trigger the range measurement with the two or more STAs, the second trigger frame comprising the unassociated ID to address the unassociated STA and the AID to address the associated STA; processing two or more Uplink, UL, Non-Data Packet, NDP, transmissions from the two or more STAs, respectively; transmitting a Downlink, DL, NDP transmission to the two or more STAs; and transmitting two or more Location Measurement Reports, LMRs, to the two or more STAs, respectively, an LMR of the two or more LMRs comprising measurement information based on the DL NDP transmission and on an UL NDP transmission of the two or more UL NDP transmissions. transmitting a first trigger frame (210; 310; 510; 610; 710) to configure resource allocations (212; 312; 512; 612; 712) for a plurality of second STAs, the plurality of second STAs comprising an unassociated STA and an associated STA, the first trigger frame (210; 310; 510; 610; 710) comprising an unassociated identifier, ID, to address the unassociated STA and an Association ID, AID, to address the associated STA; processing requests from two or more STAs of the plurality of second STAs to request to perform a range measurement procedure, the requests from the two or more STAs according to the resource allocations (212; 312; 512; 612; 712) for the plurality of second STAs, the requests from the two or more STAs comprising a request from the unassociated STA and a request from the associated STA; transmitting a second trigger frame to trigger the range measurement with the two or more STAs, the second trigger frame comprising the unassociated ID to address the unassociated STA and the AID to address the associated STA; processing two or more Uplink, UL, Non-Data Packet, NDP, transmissions from the two or more STAs, respectively; transmitting a Downlink, DL, NDP transmission to the two or more STAs; and transmitting two or more Location Measurement Reports, LMRs, to the two or more STAs, respectively, an LMR of the two or more LMRs comprising measurement information based on the DL NDP transmission and on an UL NDP transmission of the two or more UL NDP transmissions.
A method of operation of a user equipment device in a cellular communications network, comprising: detecting a timing signal from a serving base station; obtaining timing information from at least one other base station, comprising detecting a timing signal transmitted by the at least one other base station; setting a value for a transmission time offset (T 1 ) based on measuring a timing difference, D 2 - D 1 , between the detected timing signals from the serving base station and the at least one other base station, subtracting the timing difference, D 2 - D 1 , from a maximum propagation delay parameter, PD max i , and adding a cyclic prefix, CP; and transmitting signals to the serving base station using the set value for the transmission time offset (T 1 ). detecting a timing signal from a serving base station; obtaining timing information from at least one other base station, comprising detecting a timing signal transmitted by the at least one other base station; setting a value for a transmission time offset (T 1 ) based on measuring a timing difference, D 2 - D 1 , between the detected timing signals from the serving base station and the at least one other base station, subtracting the timing difference, D 2 - D 1 , from a maximum propagation delay parameter, PD max i , and adding a cyclic prefix, CP; and transmitting signals to the serving base station using the set value for the transmission time offset (T 1 ).
A method of determining a sign type of an unfamiliar traffic sign, the method comprising receiving , by one or more processors, an image generated by a perception system of a vehicle; identifying , by the one or more processors, image data corresponding to a traffic sign in the image; inputting , by the one or more processors, the image data corresponding to the traffic sign into a sign type model; determining , by the one or more processors, that the sign type model was unable to identify a type of the traffic sign, wherein the sign type model being unable to identify a type of the traffic sign includes the model being unable to identify the sign type of the traffic sign to a minimum confidence level; responsive to determining that the sign type model was unable to identify a type of the traffic sign: determining , by the one or more processors, one or more attributes of the traffic sign; and comparing , by the one or more processors, the one or more attributes of the traffic sign to known attributes of other traffic signs; determining , by the one or more processors, a sign type of the traffic sign based on the comparing the one or more attributes of the traffic sign; and controlling , by the one or more processors, the vehicle in an autonomous driving mode based on the sign type of the traffic sign. receiving , by one or more processors, an image generated by a perception system of a vehicle; identifying , by the one or more processors, image data corresponding to a traffic sign in the image; inputting , by the one or more processors, the image data corresponding to the traffic sign into a sign type model; determining , by the one or more processors, that the sign type model was unable to identify a type of the traffic sign, wherein the sign type model being unable to identify a type of the traffic sign includes the model being unable to identify the sign type of the traffic sign to a minimum confidence level; responsive to determining that the sign type model was unable to identify a type of the traffic sign: determining , by the one or more processors, one or more attributes of the traffic sign; and comparing , by the one or more processors, the one or more attributes of the traffic sign to known attributes of other traffic signs; determining , by the one or more processors, a sign type of the traffic sign based on the comparing the one or more attributes of the traffic sign; and controlling , by the one or more processors, the vehicle in an autonomous driving mode based on the sign type of the traffic sign. determining , by the one or more processors, one or more attributes of the traffic sign; and comparing , by the one or more processors, the one or more attributes of the traffic sign to known attributes of other traffic signs; determining , by the one or more processors, a sign type of the traffic sign based on the comparing the one or more attributes of the traffic sign; and controlling , by the one or more processors, the vehicle in an autonomous driving mode based on the sign type of the traffic sign.
A method executed by a user equipment, UE , in a wireless communication system , the method comprising: receiving assistance data, AD, transmitted by a network node, the AD identifying at least one cell for which positioning reference signal, PRSs , are to be measured and transmission power pattern information for the at least one cell, wherein the transmission power pattern defines a transmission power for each PRS of a series, wherein the transmission power for each PRS of the series are part of a non-binary set of allowable transmission powers, wherein the at least one cell is identifiable based at least in part on its transmission power pattern ; receiving PRSs transmitted by multiple cells, wherein the UE compares a quality of reception of the received PRSs from the cell to the PRS transmission power pattern information to verify that a source cell for the received PRSs is a cell from which PRSs are to be measured; generating PRS measurement data for the UE based on the received PRSs , wherein the PRS measurement data comprises information about particular power levels at which certain PRSs were received by the UE and identifying information of a source cell or network node associated with each power level reading; and transmitting the PRS measurement data to a positioning server . receiving assistance data, AD, transmitted by a network node, the AD identifying at least one cell for which positioning reference signal, PRSs , are to be measured and transmission power pattern information for the at least one cell, wherein the transmission power pattern defines a transmission power for each PRS of a series, wherein the transmission power for each PRS of the series are part of a non-binary set of allowable transmission powers, wherein the at least one cell is identifiable based at least in part on its transmission power pattern ; receiving PRSs transmitted by multiple cells, wherein the UE compares a quality of reception of the received PRSs from the cell to the PRS transmission power pattern information to verify that a source cell for the received PRSs is a cell from which PRSs are to be measured; generating PRS measurement data for the UE based on the received PRSs , wherein the PRS measurement data comprises information about particular power levels at which certain PRSs were received by the UE and identifying information of a source cell or network node associated with each power level reading; and transmitting the PRS measurement data to a positioning server .
A polymer thick film thermally conductive thermoformable dielectric composition comprising: (a) urethane resin; (b) thermoplastic phenoxy resin; (c) diacetone alcohol; and (d) thermally conductive powder selected from the group consisting of boron nitride, aluminum nitride and alumina. (a) urethane resin; (b) thermoplastic phenoxy resin; (c) diacetone alcohol; and (d) thermally conductive powder selected from the group consisting of boron nitride, aluminum nitride and alumina.