mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a computing device comprising a wireless network interface, the method comprising: for each of a plurality of packets communicated over a channel, determining, based on error correcting coding associated with a packet, a degree of difference between the packet as transmitted and the packet as received, wherein determining the degree of difference comprises determining a packet error rate in packets transmitted by the computing device by determining a number of bit errors corrected in the packets; obtaining a signal strength indication indicating a signal strength of the channel; analyzing the degree of difference to determine whether the degree of difference exceeds a first threshold; in response to determining that the degree of difference exceeds a first threshold, initiating an adaptation process for communications over the channel, wherein the adaptation process comprises identifying a period of low activity for communication in the channel and switching to another channel during the identified period of low activity if the signal strength indication exceeds a second threshold and if the degree of difference exceeds a third threshold; in response to determining that the degree of difference does not exceed a first threshold initiating another adaptation process for communications over the channel, wherein the another adaptation process comprises increasing a data rate for transmission of packets in the channel if the signal strength indication exceeds the second threshold and if the degree of difference does not exceed a fourth threshold. for each of a plurality of packets communicated over a channel, determining, based on error correcting coding associated with a packet, a degree of difference between the packet as transmitted and the packet as received, wherein determining the degree of difference comprises determining a packet error rate in packets transmitted by the computing device by determining a number of bit errors corrected in the packets; obtaining a signal strength indication indicating a signal strength of the channel; analyzing the degree of difference to determine whether the degree of difference exceeds a first threshold; in response to determining that the degree of difference exceeds a first threshold, initiating an adaptation process for communications over the channel, wherein the adaptation process comprises identifying a period of low activity for communication in the channel and switching to another channel during the identified period of low activity if the signal strength indication exceeds a second threshold and if the degree of difference exceeds a third threshold; in response to determining that the degree of difference does not exceed a first threshold initiating another adaptation process for communications over the channel, wherein the another adaptation process comprises increasing a data rate for transmission of packets in the channel if the signal strength indication exceeds the second threshold and if the degree of difference does not exceed a fourth threshold.
Method for producing electrically conductive passages in a sidewall of a pneumatic vehicle tyre, the electrically conductive passages extending between an electrically conductive tread part, which is in electrically conductive connection with the outer tread surface, and the electrically conductive flange profile that comes into contact with a wheel rim, the sidewall being produced from an extruded sheet of material comprising an electrically nonconductive rubber compound, characterized in that , after its extrusion, the sheet of material is transported away on a transporting device, with its side that forms the inner side of the sidewall as the upper side, a strand or a strip is extruded from an electrically conductive rubber compound and, during the transport of the extruded sheet of material , is applied to the upper side of the sheet of material in a wave form in such a way that, in the finished tyre, the electrically conductive passages formed on the inner side of the sidewall by the strand or the strip are in contact alternately with the electrically conductive tread part and the flange profile in the regions of the maximum deflection of the wave form, respectively.
Balancing weight for a combing device of a combing machine, wherein the balancing weight has a length in a longitudinal direction and a transverse direction and is provided with at least two through-openings in the transverse direction for fastening on a surface of a circular comb shaft with a circular comb shaft diameter and at least two through-bores in the transverse direction for clamping with a circular comb , characterized in that the balancing weight is formed in the shape of a ring-shaped circular arc segment with a section angle (α) of 70 to 110 angular degrees for seating on the surface of the circular comb shaft , and that, in the longitudinal direction , a trapezoidal depression with a base surface is provided over the entire length on a side, facing the circular comb shaft , of the balancing weight , wherein the through-openings and the through-bores open into the base surface , and the depression is delimited by oblique surfaces arranged on both sides, seen in the longitudinal direction , which oblique surfaces enclose an opening angle (β) of 45 to 75 angular degrees.
A pressure transmitter with pressure sensor mount , comprising: - pressure measurement circuitry ; - a metal body (18; 100) of the pressure transmitter having a pressure coupling configured to couple to a process pressure (P); - a pressure sensor configured to receive the process pressure (P) and responsively provide a sensor output related to the process pressure (P) to the pressure measurement circuitry , the sensor ouptut being electrically coupled to the measurement circuitry; - a metal conduit having a first end coupled to the pressure sensor and configured to apply an applied pressure, received at a second end thereof, corresponding to the process pressure (P) to the pressure sensor , the metal conduit being coupled within the metal body (18; 100) of the pressure transmitter by a non-conductive compression joint ; and - a non-conductive spacer , which is separate from the non-conductive compression joint , disposed between the metal body (18; 100) and the second end of the metal conduit and configured to electrically isolate the metal conduit from the metal body (18; 100) of the pressure transmitter , the non-conductive spacer having an opening formed therein and arranged to convey the applied pressure from the metal body (18; 100) to the metal conduit . - pressure measurement circuitry ; - a metal body (18; 100) of the pressure transmitter having a pressure coupling configured to couple to a process pressure (P); - a pressure sensor configured to receive the process pressure (P) and responsively provide a sensor output related to the process pressure (P) to the pressure measurement circuitry , the sensor ouptut being electrically coupled to the measurement circuitry; - a metal conduit having a first end coupled to the pressure sensor and configured to apply an applied pressure, received at a second end thereof, corresponding to the process pressure (P) to the pressure sensor , the metal conduit being coupled within the metal body (18; 100) of the pressure transmitter by a non-conductive compression joint ; and - a non-conductive spacer , which is separate from the non-conductive compression joint , disposed between the metal body (18; 100) and the second end of the metal conduit and configured to electrically isolate the metal conduit from the metal body (18; 100) of the pressure transmitter , the non-conductive spacer having an opening formed therein and arranged to convey the applied pressure from the metal body (18; 100) to the metal conduit .
Switching apparatus for switching a first actuator and a second actuator between a power supply and a ground , having the following features: a first switch for switching a first current path between the first actuator and the ground ; a second switch for switching a second current path between the second actuator and the ground ; a third switch for switching a current path between the power supply and the first actuator and a current path between the power supply and the second actuator , wherein, as a result of the switching, the third switch simultaneously closes or opens the current path to the first actuator and to the second actuator ; and a control unit , wherein the control unit is designed to close or to open the first switch before or after the third switch or the second switch before or after the third switch , characterised in that the third switch has a first switching unit and a second switching unit , which are connected in series and can be switched independently of one another by the control unit, and in that the switching apparatus comprises at least one supplementary diode , which contacts a current path between the first switching unit and the second switching unit and bridges the first actuator and/or the second actuator in order to accelerate or decelerate a removal of the first actuator and/or the second actuator by a switching of the first switching unit or the second switching unit . a first switch for switching a first current path between the first actuator and the ground ; a second switch for switching a second current path between the second actuator and the ground ; a third switch for switching a current path between the power supply and the first actuator and a current path between the power supply and the second actuator , wherein, as a result of the switching, the third switch simultaneously closes or opens the current path to the first actuator and to the second actuator ; and a control unit , wherein the control unit is designed to close or to open the first switch before or after the third switch or the second switch before or after the third switch , characterised in that the third switch has a first switching unit and a second switching unit , which are connected in series and can be switched independently of one another by the control unit, and in that the switching apparatus comprises at least one supplementary diode , which contacts a current path between the first switching unit and the second switching unit and bridges the first actuator and/or the second actuator in order to accelerate or decelerate a removal of the first actuator and/or the second actuator by a switching of the first switching unit or the second switching unit .
A vascular device insertion system , comprising: a support catheter having a hub (16-1), a flexible elongate member (16-2) that extends distally from the hub, and a catheter lumen (16-3) that extends through the hub and the flexible elongate member; an insertion module housing configured to contain a motor having a hollow motor shaft arranged along a longitudinal axis, the hollow motor shaft having a proximal end (40-1), a distal end (40-2), a distal end portion (40-3), and an elongate opening (40-4) that extends from the proximal end to the distal end along the longitudinal axis, the distal end portion of the hollow motor shaft configured to couple to the hub of the support catheter, and wherein the elongate opening of the hollow motor shaft and the catheter lumen of the support catheter together define a continuous passage ; and a motor controller electrically coupled to the motor, the motor controller configured to control the motor so as to rotationally oscillate the hollow motor shaft about the longitudinal axis, and to in turn rotationally oscillate the support catheter. a support catheter having a hub (16-1), a flexible elongate member (16-2) that extends distally from the hub, and a catheter lumen (16-3) that extends through the hub and the flexible elongate member; an insertion module housing configured to contain a motor having a hollow motor shaft arranged along a longitudinal axis, the hollow motor shaft having a proximal end (40-1), a distal end (40-2), a distal end portion (40-3), and an elongate opening (40-4) that extends from the proximal end to the distal end along the longitudinal axis, the distal end portion of the hollow motor shaft configured to couple to the hub of the support catheter, and wherein the elongate opening of the hollow motor shaft and the catheter lumen of the support catheter together define a continuous passage ; and a motor controller electrically coupled to the motor, the motor controller configured to control the motor so as to rotationally oscillate the hollow motor shaft about the longitudinal axis, and to in turn rotationally oscillate the support catheter.
A method of receiving, by a user equipment , downlink control information, DCI, in a wireless communication system, the method comprising: receiving (S1005), from a base station , first DCI on a first downlink control channel based on a first transmission time interval, TTI, wherein the first DCI includes control channel information for a maximum or minimum control channel element, CCE, aggregation level of at least one CCE aggregation level related to a reception of second DCI among a plurality of predetermined CCE aggregation levels; and receiving (S1015), from the base station , the second DCI on a second downlink control channel based on a second TTI using the control channel information. receiving (S1005), from a base station , first DCI on a first downlink control channel based on a first transmission time interval, TTI, wherein the first DCI includes control channel information for a maximum or minimum control channel element, CCE, aggregation level of at least one CCE aggregation level related to a reception of second DCI among a plurality of predetermined CCE aggregation levels; and receiving (S1015), from the base station , the second DCI on a second downlink control channel based on a second TTI using the control channel information.
Tank device , in particular a brake fluid reservoir for hydraulic brake systems of vehicles, the tank device comprises a tank having a tank wall , the tank wall comprising a connection port for mechanically and fluid-technically connecting the tank to the hydraulic brake system, whereby the connection port comprises at least one actuable valve , the valve being closed in its non-actuated state and opened in its actuated state, the valve further comprising an actuator element that protrudes outside from the tank at least in the non-actuated state of the valve , the actuator element being slidably mounted on the tank for actuating the valve , characterized in that at least one safety wall protrudes from the tank wall in the vicinity of the actuator element at least as far as the actuator element in the non-actuated state.
A manhole comprising a device for safety closing and locking the manhole , comprising a cylinder , attached to a slab which comprises centering pins , the cylinder being able to rotate around an axis a-a' by the action of an operating key acting on the pins , the manhole further comprising at least one "anti-burglary block" , which in the locked position is positioned inside the cylinder by means of one of the centering pins , said block having a thickness equal to the height of the cylinder and a curved surface in order to be adaptable to the inner wall of the cylinder , whose function is to hide and protect an anti-theft bolt inside a hole , which crosses the whole anti-burglary block , said hole having a larger diameter at the front and a diameter equal to the nominal diameter of the anti-theft bolt in the back which supports the inner wall of the cylinder itself having a tightening threaded spot able to allow the placement of the anti-theft bolt in the depth of the body of the anti-burglary block in total tightening conditions into the threaded spot , wherein the end of the anti-theft bolt , in the closed position, is housed in a locking hole on a circular support of the manhole cover .
Inductor to heat, by electromagnetic induction, an electrically conductive body , wherein said inductor comprises: - an induction body , provided with a coil suitable for the generation of an electromagnetic field inside it, wherein said coil is made as a hollow tube of conductive material made by spirals , inside which the cooling liquid flows, - an insulating body conformed as a hollow tubular body disposed, during use, in a containing seating of said coil , suitable to be inserted into, and extracted from, said containing seating , and defining a transit channel for said electrically conductive body , and a containing body , configured to house said induction body and said insulating body , provided with apertures coherent with said transit channel , wherein said insulating body is removable from said induction body and wherein said inductor comprises a front head and a rear head , positioned respectively on a front face and a rear face of said containing body , provided with passage apertures aligned with said transit channel , wherein said front head and rear head are removable and are configured to be assembled onto and disassembled from said containing body to allow the insertion and extraction of said insulating body into/from said containing seating . - an induction body , provided with a coil suitable for the generation of an electromagnetic field inside it, wherein said coil is made as a hollow tube of conductive material made by spirals , inside which the cooling liquid flows, - an insulating body conformed as a hollow tubular body disposed, during use, in a containing seating of said coil , suitable to be inserted into, and extracted from, said containing seating , and defining a transit channel for said electrically conductive body , and a containing body , configured to house said induction body and said insulating body , provided with apertures coherent with said transit channel , wherein said insulating body is removable from said induction body and wherein said inductor comprises a front head and a rear head , positioned respectively on a front face and a rear face of said containing body , provided with passage apertures aligned with said transit channel , wherein said front head and rear head are removable and are configured to be assembled onto and disassembled from said containing body to allow the insertion and extraction of said insulating body into/from said containing seating . a containing body , configured to house said induction body and said insulating body , provided with apertures coherent with said transit channel , wherein said insulating body is removable from said induction body and wherein said inductor comprises a front head and a rear head , positioned respectively on a front face and a rear face of said containing body , provided with passage apertures aligned with said transit channel , wherein said front head and rear head are removable and are configured to be assembled onto and disassembled from said containing body to allow the insertion and extraction of said insulating body into/from said containing seating .
A method for access feedback, performed by a base station, comprising: receiving (301; 502), a random access preamble transmitted by a terminal through an unlicensed band; occupying (302; 505), in a first time window, a first control channel in the unlicensed band through a Listen Before Talk, LBT, mechanism without backoff, the first time window being a time window where the terminal occupies the unlicensed band; and transmitting (303; 505) a first random access feedback through the first control channel, the first random access feedback for indicating that the base station receives the random access preamble; being characterized by : occupying , in a second time window after the first time window, a second control channel in the unlicensed band through a LBT mechanism with random backoff and non-fixed window size; transmitting a second random access feedback through the second control channel, the second random access feedback comprising indication information and control information of the random access preamble, the control information comprising at least one of an uplink, UL, grant, a timing advance, TA, command, and a cell radio network temporary identifier, C-RNTI. receiving (301; 502), a random access preamble transmitted by a terminal through an unlicensed band; occupying (302; 505), in a first time window, a first control channel in the unlicensed band through a Listen Before Talk, LBT, mechanism without backoff, the first time window being a time window where the terminal occupies the unlicensed band; and transmitting (303; 505) a first random access feedback through the first control channel, the first random access feedback for indicating that the base station receives the random access preamble; being characterized by : occupying , in a second time window after the first time window, a second control channel in the unlicensed band through a LBT mechanism with random backoff and non-fixed window size; transmitting a second random access feedback through the second control channel, the second random access feedback comprising indication information and control information of the random access preamble, the control information comprising at least one of an uplink, UL, grant, a timing advance, TA, command, and a cell radio network temporary identifier, C-RNTI. occupying , in a second time window after the first time window, a second control channel in the unlicensed band through a LBT mechanism with random backoff and non-fixed window size; transmitting a second random access feedback through the second control channel, the second random access feedback comprising indication information and control information of the random access preamble, the control information comprising at least one of an uplink, UL, grant, a timing advance, TA, command, and a cell radio network temporary identifier, C-RNTI.
A method, performed by a network device , for handling cancellation of a Passive Intermodulation, PIM, signal from a PIM source in a wireless communications network , wherein the network device has access to and controls one or more transmitter, Tx, and one or more receiver, Rx, wherein the method comprises: - applying , for each of the one or more Rx's of the network device , a determined PIM model to a transmitted signal from each of the one or more Tx's of the network device , to obtain a modelled signal, wherein the PIM model comprises: i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device for a received PIM signal, - subtracting the modelled signal from a received signal on each of the one or more Rx's of the network device . - applying , for each of the one or more Rx's of the network device , a determined PIM model to a transmitted signal from each of the one or more Tx's of the network device , to obtain a modelled signal, wherein the PIM model comprises: i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device for a received PIM signal, i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device for a received PIM signal, - subtracting the modelled signal from a received signal on each of the one or more Rx's of the network device .