mhurhangee/ep-ind-claims huggingface dataset:
A remote controller, comprising a first panel and a second panel that are provided with multiple function buttons; wherein the first panel is rotationally connected to the second panel by using a rotating connecting mechanism; the rotating connecting mechanism comprises a fixation base fixed to the first panel, a rotating shaft fixed to the second panel; characterized in a sliding component comprising an arc-shaped sliding rail disposed in the circumference direction of an outer sidewall of the rotating shaft, elastic pieces disposed on the fixation base in the axial direction of the rotating shaft and provided with circular holes, and rolling balls disposed between the arc-shaped sliding rail and the circular holes in an abutted mode; the arc-shaped sliding rail is fitted to the rolling balls in a sliding mode; and two ends (1511, 1512) of the arc-shaped sliding rail are higher than the middle of the arc-shaped sliding rail in the axial direction of the rotating shaft.
A method of transmitting a Border Gateway Protocol, BGP, message, comprising: partitioning, by a routing device, a queue for holding BGP messages to be transmitted into more than two subqueues according to types of BGP routes, wherein each of the subqueues is used to hold a BGP message carrying a corresponding type of BGP route; placing, by the routing device, according to the type of BGP route to be advertised, the BGP message carrying the BGP route into one of the more than two subqueues; selecting, by the routing device, a target subqueue from the more than two subqueues according to a first scheduling algorithm; and transmitting, by the routing device, the BGP message in the target subqueue, the method being characterised in that transmitting the BGP message in the target subqueue comprises: classifying, by the routing device, more than two said target subqueues into one subqueue group, and selecting, by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and wherein the first scheduling algorithm is one of a Strict Priority, SP, scheduling algorithm and a weight-based scheduling algorithm, and the second scheduling algorithm is one of the SP scheduling algorithm and the weight-based scheduling algorithm. partitioning, by a routing device, a queue for holding BGP messages to be transmitted into more than two subqueues according to types of BGP routes, wherein each of the subqueues is used to hold a BGP message carrying a corresponding type of BGP route; placing, by the routing device, according to the type of BGP route to be advertised, the BGP message carrying the BGP route into one of the more than two subqueues; selecting, by the routing device, a target subqueue from the more than two subqueues according to a first scheduling algorithm; and transmitting, by the routing device, the BGP message in the target subqueue, the method being characterised in that transmitting the BGP message in the target subqueue comprises: classifying, by the routing device, more than two said target subqueues into one subqueue group, and selecting, by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and wherein classifying, by the routing device, more than two said target subqueues into one subqueue group, and selecting, by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and the first scheduling algorithm is one of a Strict Priority, SP, scheduling algorithm and a weight-based scheduling algorithm, and the second scheduling algorithm is one of the SP scheduling algorithm and the weight-based scheduling algorithm.
A frame freezing detection method, comprising: when detecting a trigger operation for a target application, performing, by a terminal (52,100) a target task corresponding to the trigger operation; recording (402, 403), by the terminal, a first duration from generating the target task to starting to execute the target task, and a second duration of executing the target task; and determining (405a, 405b), by the terminal by comparing the first duration with a preset first reference value and comparing the second duration with a preset second reference value, said first and second reference values being obtained from a server, that a location in which the frame freezing occurs is in a process of another task before the target task is executed or is in a process of executing the target task; wherein the determining comprises when the first duration is greater than the first reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of executing the target task. when detecting a trigger operation for a target application, performing, by a terminal (52,100) a target task corresponding to the trigger operation; recording (402, 403), by the terminal, a first duration from generating the target task to starting to execute the target task, and a second duration of executing the target task; and determining (405a, 405b), by the terminal by comparing the first duration with a preset first reference value and comparing the second duration with a preset second reference value, said first and second reference values being obtained from a server, that a location in which the frame freezing occurs is in a process of another task before the target task is executed or is in a process of executing the target task; wherein the determining comprises when the first duration is greater than the first reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of executing the target task. when the first duration is greater than the first reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining, by the terminal (52, 100), that the location in which the frame freezing occurs is in the process of executing the target task.
A semiconductor package product, comprising: a semiconductor device; a die pad having a primary portion, a first secondary portion, and a second secondary portion, wherein the primary portion carries the semiconductor device, and the first secondary portion and the second secondary portion provide two grounding terminals; multiple leads for connecting a set of signal lines wired to the semiconductor device; and a molding compound for encapsulating the semiconductor device, the die pad and a portion of the leads and for exposing a bottom side of the secondary portions (14a, 14b) of the die pad, wherein the semiconductor package product further comprises a first grounding signal line for connecting a first ground circuit of the semiconductor device to the first secondary portion of the die pad, and a second grounding signal line for connecting a second ground circuit of the semiconductor device to the second secondary portion of the die pad, and wherein the leads are not flush with the die pad. a semiconductor device; a die pad having a primary portion, a first secondary portion, and a second secondary portion, wherein the primary portion carries the semiconductor device, and the first secondary portion and the second secondary portion provide two grounding terminals; multiple leads for connecting a set of signal lines wired to the semiconductor device; and a molding compound for encapsulating the semiconductor device, the die pad and a portion of the leads and for exposing a bottom side of the secondary portions (14a, 14b) of the die pad, wherein the semiconductor package product further comprises a first grounding signal line for connecting a first ground circuit of the semiconductor device to the first secondary portion of the die pad, and a second grounding signal line for connecting a second ground circuit of the semiconductor device to the second secondary portion of the die pad, and wherein the leads are not flush with the die pad.
An electronic device, comprising: a flexible display; and a display cover layer, wherein a first portion of the display cover layer forms a front surface for the electronic device, wherein the display cover layer is bent so that a second portion of the display cover layer forms a sidewall surface for the electronic device, wherein the flexible display is bent to conform to an inner surface of the display cover layer, and characterised in that the display cover layer comprises a patterned opaque masking layer interposed between at least the second portion of the display cover layer and the flexible display. a flexible display; and a display cover layer, wherein a first portion of the display cover layer forms a front surface for the electronic device, wherein the display cover layer is bent so that a second portion of the display cover layer forms a sidewall surface for the electronic device, wherein the flexible display is bent to conform to an inner surface of the display cover layer, and characterised in that the display cover layer comprises a patterned opaque masking layer interposed between at least the second portion of the display cover layer and the flexible display.
Electromagnetic coupling apparatus for drive arrangements, having: - an armature disc arrangement which comprises at least one armature disc, - a rotor arrangement, wherein the armature disc arrangement comprises at least one air gap-adjusting unit having a closure screw, which interacts with a fastening screw for fastening the armature disc arrangement to a drive shaft in order to adjust an air gap between the armature disc arrangement and the rotor arrangement, characterised in that the air gap-adjusting unit comprises at least one spacing adjusting means which is mounted on the armature disc arrangement via the closure screw. - an armature disc arrangement which comprises at least one armature disc, - a rotor arrangement,
A backend device for transmitting power supply to a frontend device and receiving an analog signal therefrom through a single cable, the backend device comprising: a power, configured to transmit the power supply; a signal processing circuit, configured to generate a processed signal based on the analog signal; a signal receiver, configured to receive the processed signal; and a backend interface, configured to receive the analog signal from the cable, receive the power supply from the power, separate the analog signal and the power supply, transmit the analog signal to the signal processing circuit, and transmit the power supply to the cable, characterised in that the backend interface comprises: a port for plugging in a frontend device; an identification module, configured to obtain a voltage at the port, determine whether the frontend device is plugged into the port based on the voltage, and determine a rise time of the voltage at the port upon determining that a frontend device is plugged into the port; and a processing module, configured to determine whether the rise time is within a preset time range and transmit a turn-on signal upon determining that the rise time is within the preset time range, wherein the turn-on signal causes the backend device to provide the power supply through the cable to the frontend device. a power, configured to transmit the power supply; a signal processing circuit, configured to generate a processed signal based on the analog signal; a signal receiver, configured to receive the processed signal; and a backend interface, configured to receive the analog signal from the cable, receive the power supply from the power, separate the analog signal and the power supply, transmit the analog signal to the signal processing circuit, and transmit the power supply to the cable, characterised in that the backend interface comprises: a port for plugging in a frontend device; an identification module, configured to obtain a voltage at the port, determine whether the frontend device is plugged into the port based on the voltage, and determine a rise time of the voltage at the port upon determining that a frontend device is plugged into the port; and a processing module, configured to determine whether the rise time is within a preset time range and transmit a turn-on signal upon determining that the rise time is within the preset time range, wherein the turn-on signal causes the backend device to provide the power supply through the cable to the frontend device. a port for plugging in a frontend device; an identification module, configured to obtain a voltage at the port, determine whether the frontend device is plugged into the port based on the voltage, and determine a rise time of the voltage at the port upon determining that a frontend device is plugged into the port; and a processing module, configured to determine whether the rise time is within a preset time range and transmit a turn-on signal upon determining that the rise time is within the preset time range, wherein the turn-on signal causes the backend device to provide the power supply through the cable to the frontend device.
Arrangement of a plurality of electrical conductor pairs for symmetrical supplying of a capacitively compensated conductor loop for induction heating and a shield pipe enclosing them, wherein supply and return lines of the conductor pairs are alternatingly, concentrically and uniformly distributed around the circumference of a circle within the shield pipe enclosing the plurality of conductor pairs and the supply and return lines each has a circular sector-shaped cross-section, and wherein the shield pipe is designed concentrically in multiple layers and an innermost layer of the shield pipe is made of a diamagnetic or paramagnetic material.
Identification adapter for an identification device having a reading unit and a control unit communicating with the reading unit via a data communication link, the identification adapter having a receiving unit for wirelessly receiving identification data and a data transmitting unit which is designed to transmit the received identification data on the same data communication link from the reading unit to the control unit, the data transmission unit being set up to convert the first data format of the identification data received by the receiving unit of the identification adapter into the second data format provided for the data communication unit between the reading unit and the control unit in such a way that a decryption of the wirelessly received identification data and a conversion of the identification number or identification codes contained therein into an identification number corresponding to the number range of the control unit with an identification pattern predetermined by the control unit takes place, wherein the data transmission unit is adapted to change the identification data received by the receiving unit of the identification adapter by deleting, adding, selecting, regrouping and/or converting it into a character code range predetermined by the control unit.
A system comprising: a mixer configured to mix a fuel stream with a solvent to form a mixed stream; a first separator configured to separate the mixed stream, wherein the solvent of the mixed stream has a higher affinity for a second component of the fuel stream than for a first component of the fuel stream, into i) a first fuel fraction including the first component of the fuel stream and ii) a mixed fraction including the second component of the fuel stream based on a difference in volatility of the first fuel fraction and the mixed fraction; a second separator configured to separate the mixed fraction into a second fuel fraction including the second component of the fuel stream and a solvent fraction; and a controller configured to control one or more of the first separator and the second separator based on an operating characteristic of an engine of a vehicle. a mixer configured to mix a fuel stream with a solvent to form a mixed stream; a first separator configured to separate the mixed stream, wherein the solvent of the mixed stream has a higher affinity for a second component of the fuel stream than for a first component of the fuel stream, into i) a first fuel fraction including the first component of the fuel stream and ii) a mixed fraction including the second component of the fuel stream based on a difference in volatility of the first fuel fraction and the mixed fraction; a second separator configured to separate the mixed fraction into a second fuel fraction including the second component of the fuel stream and a solvent fraction; and a controller configured to control one or more of the first separator and the second separator based on an operating characteristic of an engine of a vehicle.
A dental prosthesis, in particular crown, consisting of or comprising an inner primary part, such as a cap, which is joined in a fixed manner to an outer secondary part, wherein the primary part consists of or includes plastic material, that the secondary part consists of ceramic material, and that the primary part consists of material that has a modulus of elasticity E P and the secondary part consists of material that has a modulus of elasticity Es where Ep < Es; wherein the modulus of elasticity Ep of the primary part is 5 GPa ≤ E P ≤ 30 GPa, and/or the modulus of elasticity Es of the secondary part is 40 GPa ≤ Es ≤ 120 GPa; wherein the primary part consists of or includes at least one material from the group PMMA (polymethyl methacrylate), in particular highly-filled PMMA, PEEK (polyether ether ketone), TEGDMA (triethylene glycol dimethacrylate), DEGMA (diethylene glycol dimethacrylate), UDMA (urethane dimethacrylate) or a combination or part-combination thereof; and wherein the secondary part consists of a starting material with the following composition in % by weight: SiO 2 46.0-72.0 Li 2 O 10.0-25.0 ZrO 2 8.0-20.0 Al 2 O 3 0.1-8.0 K 2 O 0.1-5.0 CeO 2 0.0-4.0 B 2 O 3 0.0-4.0 Na 2 O 0.0-4.0 Tb 4 O 7 0.0-2.5 at least one nucleating agent 1.0-10.0, such as P 2 O 5, as well as 0.0 to 4.0 of at least one additive, where the entire sum is 100% by weight. wherein the primary part consists of or includes plastic material, that the secondary part consists of ceramic material, and that the primary part consists of material that has a modulus of elasticity E P and the secondary part consists of material that has a modulus of elasticity Es where Ep < Es; wherein the modulus of elasticity Ep of the primary part is 5 GPa ≤ E P ≤ 30 GPa, and/or the modulus of elasticity Es of the secondary part is 40 GPa ≤ Es ≤ 120 GPa; wherein the primary part consists of or includes at least one material from the group PMMA (polymethyl methacrylate), in particular highly-filled PMMA, PEEK (polyether ether ketone), TEGDMA (triethylene glycol dimethacrylate), DEGMA (diethylene glycol dimethacrylate), UDMA (urethane dimethacrylate) or a combination or part-combination thereof; and wherein the secondary part consists of a starting material with the following composition in % by weight: SiO 2 46.0-72.0 Li 2 O 10.0-25.0 ZrO 2 8.0-20.0 Al 2 O 3 0.1-8.0 K 2 O 0.1-5.0 CeO 2 0.0-4.0 B 2 O 3 0.0-4.0 Na 2 O 0.0-4.0 Tb 4 O 7 0.0-2.5 at least one nucleating agent 1.0-10.0, such as P 2 O 5, as well as 0.0 to 4.0 of at least one additive, where the entire sum is 100% by weight.
A SONAR system comprising: a SONAR transmitter operable to transmit a pair of pulses including an up-chirp signal and a down-chirp signal wherein the down-chirp signal is a time-reversed version of the up-chirp signal, characterised in that the up-chirp signal and the down-chirp signal at least partially overlap in time; a SONAR receiver operable to receive echoes of the pair of pulses as echo pulses; and a processor operable to determine a ratio of a difference between the echo pulses and a sum of the echo pulses, wherein the sum of the echo pulses is filtered using a filter having a centre frequency that is double a centre frequency of the transmitted pair of pulses. a SONAR transmitter operable to transmit a pair of pulses including an up-chirp signal and a down-chirp signal wherein the down-chirp signal is a time-reversed version of the up-chirp signal, characterised in that the up-chirp signal and the down-chirp signal at least partially overlap in time; a SONAR receiver operable to receive echoes of the pair of pulses as echo pulses; and a processor operable to determine a ratio of a difference between the echo pulses and a sum of the echo pulses, wherein the sum of the echo pulses is filtered using a filter having a centre frequency that is double a centre frequency of the transmitted pair of pulses.
An acoustic wave diagnostic apparatus, comprising: movement amount calculation means for generating movement amount frame data using acoustic wave frame data, which is generated using an acoustic wave echo signal indicating an acoustic wave echo reflected from a living tissue of a subject, and calculating a representative value of a movement amount using the movement amount frame data; distortion calculation means for calculating distortion using movement amount frame data between frames; and elastic image generation means for generating an elastic image showing the calculated distortion using a first hue conversion look-up table in a case where the calculated representative value of the movement amount is larger than a predetermined threshold value and generating an elastic image showing the calculated distortion using a second hue conversion look-up table, which has a smaller degree of hue change with respect to the amount of change in distortion than the first hue conversion look-up table, in a case where the calculated representative value of the movement amount is smaller than the predetermined threshold value. movement amount calculation means for generating movement amount frame data using acoustic wave frame data, which is generated using an acoustic wave echo signal indicating an acoustic wave echo reflected from a living tissue of a subject, and calculating a representative value of a movement amount using the movement amount frame data; distortion calculation means for calculating distortion using movement amount frame data between frames; and elastic image generation means for generating an elastic image showing the calculated distortion using a first hue conversion look-up table in a case where the calculated representative value of the movement amount is larger than a predetermined threshold value and generating an elastic image showing the calculated distortion using a second hue conversion look-up table, which has a smaller degree of hue change with respect to the amount of change in distortion than the first hue conversion look-up table, in a case where the calculated representative value of the movement amount is smaller than the predetermined threshold value.