mhurhangee/ep-ind-claims huggingface dataset:
A mobile device configured to: wirelessly connect to a user input device, wherein the user input device is a second mobile device; select at least one content server computing device to host a streaming session with the mobile device and at least one media player; establish a streaming session with the at least one content server computing device; receive input from the user input device, the input including instructions to control interactive streaming media content provided by the at least one content server computing device; generate, by the mobile device, a representation of the input; and relay, to the at least one content server computing device, the generated representation of the input, wherein the generated representation of the input includes a plurality of redundant packets of the same data for the input, and wherein the representation of the input is used to control interactive streaming media content displayed on a device other than the mobile device, including the at least one media player, and provided by the at least one content server computing device. wirelessly connect to a user input device, wherein the user input device is a second mobile device; select at least one content server computing device to host a streaming session with the mobile device and at least one media player; establish a streaming session with the at least one content server computing device; receive input from the user input device, the input including instructions to control interactive streaming media content provided by the at least one content server computing device; generate, by the mobile device, a representation of the input; and relay, to the at least one content server computing device, the generated representation of the input, wherein the generated representation of the input includes a plurality of redundant packets of the same data for the input, and wherein the representation of the input is used to control interactive streaming media content displayed on a device other than the mobile device, including the at least one media player, and provided by the at least one content server computing device.
Indexable cutting insert for machining made from a hard-metal, cermet or ceramic base material and a single-layer or multi-layer hard material coating applied to said base material, the hard material coating having at least one layer from the group of carbides, nitrides, carbonitrides, borides of the metals of group IVa-VIa of the periodic table as well as combinations thereof with additives of oxygen and/or boron, from TiAlN or from aluminium oxide and/or zirconium oxide, characterized in that an additional metallic coating of one or more metals from the group of aluminium, copper, zinc, tin or from base alloys of these metals is applied to the hard material coating.
A neck cover mounted to an opening portion, through which a head portion of a wearer is configured to be inserted, of a helmet, the neck cover configured to project out toward a wearer side from a peripheral edge of the opening portion, an inner side peripheral edge portion of the neck cover at the wearer side extending so as to cover at least a range from a nape, which is a rear portion of a neck of the wearer, to a throat, which is a front portion of the neck of the wearer, characterized by the neck cover being formed with a pair of left and right insert-through, through which a chin strap that is fixed to an inner side of the helmet is inserted, at a portion of the neck cover that covers the throat of the wearer.
A relay, in particular for the high-current range, comprising at least one coil and a movable armature which allows or interrupts current flow via two main contact terminals (16.1, 16.2; 16.1', 16.2') by means of the magnetic flux which can be generated in the at least one coil, and including a current-measuring device for measuring at least the current flowing via the main contact terminals (16.1, 16.2; 16.1', 16.2') by means of at least one Hall sensor (26.1, 26.2; 26.2'), wherein a device (20, 20') for aligning the magnetic flux with the one or more Hall sensor/s (26.1, 16.2; 16.1', 16.2') is provided around the main contact terminals (16.1, 16.2; 16.1', 16.2'), characterized in that the device (20, 20') for aligning the magnetic flux includes a ferromagnetic body which surrounds the two main contact terminals (16.1, 16.2; 16.1', 16.2') in annular form, the ferromagnetic body (20, 20') being formed from a stack of ferromagnetic sheets and at least one Hall sensor (26.1, 26.2) is arranged between the main contact terminals (16.1, 16.2) in a free internal space, and the current measuring device has a microcontroller (18, 18') with which currents measured by the one or more Hall sensor/s (26.1, 26.2; 26.2') in both current flow directions can be detected and subjected further processing.
An ultrasonic surgical instrument, comprising: a handle assembly; an elongated body extending distally from the handle assembly, the elongated body defining a longitudinal axis and including a waveguide and an outer tube (42, 66) defining a lumen, the waveguide positioned coaxially within the lumen of the outer tube; a tool assembly including a blade coupled to a distal end of the waveguide, the blade configured to oscillate with respect to the outer tube for ultrasonically treating tissue; and a blade cooling system including a blade conduit extending at least partially through the blade, wherein a cooling fluid is configured to flow through the blade conduit to cool the blade, wherein the blade cooling system further includes a cooling conduit (82, 182, 286, 386) extending through the elongated body, the cooling conduit disposed in fluid communication with the blade conduit, wherein the cooling conduit (82, 182, 286, 386) is defined between the outer tube and the waveguide, and wherein the cooling conduit is an inflow conduit and is constructed of a microtube. a handle assembly; an elongated body extending distally from the handle assembly, the elongated body defining a longitudinal axis and including a waveguide and an outer tube (42, 66) defining a lumen, the waveguide positioned coaxially within the lumen of the outer tube; a tool assembly including a blade coupled to a distal end of the waveguide, the blade configured to oscillate with respect to the outer tube for ultrasonically treating tissue; and a blade cooling system including a blade conduit extending at least partially through the blade, wherein a cooling fluid is configured to flow through the blade conduit to cool the blade, wherein the blade cooling system further includes a cooling conduit (82, 182, 286, 386) extending through the elongated body, the cooling conduit disposed in fluid communication with the blade conduit, wherein the cooling conduit (82, 182, 286, 386) is defined between the outer tube and the waveguide, and wherein the cooling conduit is an inflow conduit and is constructed of a microtube.
Method for adapting a speed limit of an industrial truck, wherein the industrial truck comprises an electronic controller which is configured to sense travelled speeds, and wherein the industrial truck is communicatively connected to a control system, wherein the method is characterized by: • acquiring a speed profile over a first time period by means of the electronic controller of the industrial truck; • defining a limiting speed for the industrial truck for a second time period; • determining a first travel time of the industrial truck from the acquired speed profile for travelling a summed distance of the industrial truck in the first time period, which distance has been travelled along at speeds which are above the limiting speed, by means of the control system; • determining a second travel time of the industrial truck for travelling the summed distance of the industrial truck with the limiting speed by means of the control system; • determining a time difference from the first travel time and the second travel time by means of the control system; and • transmitting a control signal from the control system to the industrial truck if the determined time difference is shorter than a stationary period of the industrial truck in the first time period, wherein the control signal is configured to define the limiting speed as a speed limit of the industrial truck for the second time period. • acquiring a speed profile over a first time period by means of the electronic controller of the industrial truck; • defining a limiting speed for the industrial truck for a second time period; • determining a first travel time of the industrial truck from the acquired speed profile for travelling a summed distance of the industrial truck in the first time period, which distance has been travelled along at speeds which are above the limiting speed, by means of the control system; • determining a second travel time of the industrial truck for travelling the summed distance of the industrial truck with the limiting speed by means of the control system; • determining a time difference from the first travel time and the second travel time by means of the control system; and • transmitting a control signal from the control system to the industrial truck if the determined time difference is shorter than a stationary period of the industrial truck in the first time period, wherein the control signal is configured to define the limiting speed as a speed limit of the industrial truck for the second time period.
Flange for the connection of two components of a tower for a wind turbine, comprising a first, inner flange part which is connected to the first component, the inner flange part having an inner flange wall, the inner flange wall facing radially outwards and surrounding a central axis, a second, outer flange part which is connected to the second component, the outer flange part having an outer flange wall facing radially inwards and surrounding the central axis, wherein, in a mounted state of the flange, the outer flange wall and the inner flange wall mutually overlap in the direction of the axis in an overlap region, and wherein the flange walls (6a, 7a) are, at least partially, in mutual contact in the mounted state, characterized in that in a non-mounted state of the flange, a clearance between the flange walls (6a, 7a) is being delimited by sealing means, wherein the clearance is applied with a pressure by means of a fluid during an assemblage.
Method for monitoring a drive system of a rail-bound vehicle, wherein the drive system has at least two drive trains (AS1-AS4) each with an electric traction motor (M1-M4) and a wheel set (RS1-RS4), as well as a control facility, characterised by the steps: determining a respective electrical energy supplied to the traction motors over a time interval (zi1-zi3) or a route (str) and/or delivered by the traction motors, comparing the determined respective electrical energy of the traction motors with an energy threshold value, and deriving a state of the respective drive train from the comparison, and checking the derived state of the respective drive train (AS1-AS4) subsequently during the traction operation, in that the respective traction motor (M1-M4) is actuated in a manner in which the rotational speed of a shaft of the traction motor (n m1 -n m4) were intended to change, and ascertaining the rotational speed of the shaft (n m1 -n m4). the drive system has at least two drive trains (AS1-AS4) each with an electric traction motor (M1-M4) and a wheel set (RS1-RS4), as well as a control facility, characterised by the steps: determining a respective electrical energy supplied to the traction motors over a time interval (zi1-zi3) or a route (str) and/or delivered by the traction motors, comparing the determined respective electrical energy of the traction motors with an energy threshold value, and deriving a state of the respective drive train from the comparison, and checking the derived state of the respective drive train (AS1-AS4) subsequently during the traction operation, in that the respective traction motor (M1-M4) is actuated in a manner in which the rotational speed of a shaft of the traction motor (n m1 -n m4) were intended to change, and ascertaining the rotational speed of the shaft (n m1 -n m4). determining a respective electrical energy supplied to the traction motors over a time interval (zi1-zi3) or a route (str) and/or delivered by the traction motors, comparing the determined respective electrical energy of the traction motors with an energy threshold value, and deriving a state of the respective drive train from the comparison, and checking the derived state of the respective drive train (AS1-AS4) subsequently during the traction operation, in that the respective traction motor (M1-M4) is actuated in a manner in which the rotational speed of a shaft of the traction motor (n m1 -n m4) were intended to change, and ascertaining the rotational speed of the shaft (n m1 -n m4).
A sound processing apparatus adapted to communicate with a terminal apparatus through a communication network, the sound processing apparatus comprising: a main storage device; and an auxiliary storage device adapted to store a management program and a sound processing program; characterized in that the sound processing apparatus further comprises a management element being implemented by making the management program resident in the main storage device, wherein the management element is adapted to receive audio data transmitted from the terminal apparatus by a streaming method and to store the received audio data in the main storage device, to acquire, from the main storage device, processed data generated by performing sound processing on the audio data and to transmit the processed data to the terminal apparatus by a streaming method, the audio data including first audio data and second audio data, wherein the second audio data is previous audio data of the first audio data; and a sound processing element being implemented by making the sound processing program resident in the main storage device, wherein the sound processing element is perform the sound processing on the audio data to generate the processed data when the management element stores the audio data in the main storage device and to store the generated processed data in the main storage device, and the sound processing element is perform the sound processing on the first audio data stored in the main storage device, using the second audio data stored in the main storage device. a main storage device; and an auxiliary storage device adapted to store a management program and a sound processing program; characterized in that the sound processing apparatus further comprises a management element being implemented by making the management program resident in the main storage device, wherein the management element is adapted to receive audio data transmitted from the terminal apparatus by a streaming method and to store the received audio data in the main storage device, to acquire, from the main storage device, processed data generated by performing sound processing on the audio data and to transmit the processed data to the terminal apparatus by a streaming method, the audio data including first audio data and second audio data, wherein the second audio data is previous audio data of the first audio data; and a sound processing element being implemented by making the sound processing program resident in the main storage device, wherein the sound processing element is perform the sound processing on the audio data to generate the processed data when the management element stores the audio data in the main storage device and to store the generated processed data in the main storage device, and the sound processing element is perform the sound processing on the first audio data stored in the main storage device, using the second audio data stored in the main storage device.
A combustor wall (68, 70) for a turbine engine, the combustor wall comprising: a combustor shell; and a combustor heat shield attached to the shell with a plurality of respective first and second cavities (86, 87) extending between the shell and the heat shield; wherein each first cavity fluidly couples apertures defined in the shell with a respective second cavity, and each second cavity fluidly couples a respective first cavity with apertures defined in the heat shield; wherein the shell and the heat shield converge toward one another about the second cavity; wherein each second cavity extends away from a respective first cavity to a distal end defined by a rail; wherein the apertures in the heat shield are defined at the distal end; and wherein the heat shield includes a plurality of first panels; characterised in that each first cavity extends radially between the shell and a base of each first panel, and each second cavity extends radially between the shell and the base of each first panel. a combustor shell; and a combustor heat shield attached to the shell with a plurality of respective first and second cavities (86, 87) extending between the shell and the heat shield; wherein each first cavity fluidly couples apertures defined in the shell with a respective second cavity, and each second cavity fluidly couples a respective first cavity with apertures defined in the heat shield; wherein the shell and the heat shield converge toward one another about the second cavity; wherein each second cavity extends away from a respective first cavity to a distal end defined by a rail; wherein the apertures in the heat shield are defined at the distal end; and wherein the heat shield includes a plurality of first panels; characterised in that each first cavity extends radially between the shell and a base of each first panel, and each second cavity extends radially between the shell and the base of each first panel.
A telecommunications cable comprising: a jacket extending along a longitudinal axis passing through a geometrical center of the telecommunications cable, wherein the jacket comprises: a first surface surrounding a core region of the telecommunications cable; and a second surface extending along the longitudinal axis of the telecommunications cable, wherein the first surface defines a plurality of first grooves extending radially outwardly from the longitudinal axis of the telecommunications cable and a plurality of second grooves extending radially outwardly from the longitudinal axis of the telecommunications cable, disposed at an interstitial position between the plurality of first grooves, wherein the second surface is disposed at a radially outwardly position, characterized in that the plurality of second grooves has an M shape. a first surface surrounding a core region of the telecommunications cable; and a second surface extending along the longitudinal axis of the telecommunications cable, wherein the first surface defines a plurality of first grooves extending radially outwardly from the longitudinal axis of the telecommunications cable and a plurality of second grooves extending radially outwardly from the longitudinal axis of the telecommunications cable, disposed at an interstitial position between the plurality of first grooves, wherein the second surface is disposed at a radially outwardly position, characterized in that the plurality of second grooves has an M shape.
Method for identifying a plurality of Near Field Communication-type B devices operating in a listen mode, called NFC-B listen mode devices (D1-Dp), by a Near Field Communication-type B device operating in a poll mode, called NFC-B poll mode device, during more than one collision resolution cycles, each collision resolution cycle starting with a first command (SENSB_REQ) sent by the NFC-B poll mode device and including a number (NoS) of time slots lower than or equal to a maximum number, the first collision resolution cycle including one time slot, characterized in that when the NFC-B poll mode device is to start another collision resolution cycle after a current collision resolution cycle is ended, the NFC-B poll mode device increases the number of time slots with respect to the number of time slots of said ended current collision resolution cycle if and only if no NFC-B listen mode device (Di) has been identified (DDF=0) during said ended current collision resolution cycle and no empty time slot (ESF=0) has been detected during said ended current collision resolution cycle, and when a NFC-B listen mode device is identified (DDF=1) within a time slot of a current collision resolution cycle, the NFC-B poll mode device sends to said identified NFC-B listen mode device, within a subsequent time slot of said current collision resolution cycle except for the NFC-B listen mode device lastly identified within the last collision resolution cycle, a second command (SLPB_REQ) for putting said identified NFC-B listen mode device in a sleep state.
Hydraulic system for a dual-clutch transmission of a motor vehicle, with a high-pressure circuit in which are arranged a pressure accumulator, at least one clutch (K1, K2) and also actuators, and with a low-pressure circuit for cooling the clutch (K1, K2), wherein the high-pressure circuit and the low-pressure circuit respectively comprise a cooling hydraulic pump and a charging hydraulic pump, which can be driven via a common electric motor, and with a control device that on recognition of a requirement to charge the pressure accumulator controls the electric motor to run at a charging setpoint speed (n desired, loading) and/or on recognition of a cooling or other requirement controls the electric motor to run at a cooling or other setpoint speed (n desired,cooling), wherein the control device in the absence of a pressure accumulator charging requirement and also in the absence of a cooling or other requirement lowers the setpoint speed (n desired) to zero for a predetermined period of time (Δt out), and after expiry of the period of time (Δt out) the control device controls the electric motor at least with a test speed (n test), characterised in that the control device comprises for the determination of the standstill period of time (Δt out) a pressure model unit that during the entire operating time detects actuations of the actuator or other events influencing the accumulator pressure (p s), and depending on these generates partial pressure differences (Δp x1, Δp x2..... or Δp y1, Δp y2) that for example correlate with the removal of hydraulic fluid from the high-pressure circuit that is connected with the actuation of the actuator, and that the pressure modelling unit models the pressure decrease (p s (t)) of the pressure accumulator over time during the standstill period of time (Δt out) based on the detected partial pressure differences (Δp x1, Δp x2... or Δp y1, Δp y2), that when a minimum pressure (p min) is reached in the pressure model the control device controls the electric motor with the test speed (n test), and that the pressure model unit models the pressure decrease (p s (t)) of the pressure accumulator over time in addition on the basis of a basic leakage pressure loss (Δp B).