mhurhangee/ep-ind-claims huggingface dataset:
A temperature measuring device, comprising at least one first distance sensing unit, a second distance sensing unit, and a third distance sensing unit configured to output a first distance sensing signal, a second distance sensing signal, and a third distance sensing signal, respectively; a temperature sensing unit configured to output a temperature sensing signal; a display unit configured to display a temperature measurement value of a to-be-sensed part; and a micro processing unit electrically connected to the first distance sensing unit, the second distance sensing unit, the third distance sensing unit, the temperature sensing unit, and the display unit, and configured to receive the first distance sensing signal, the second distance sensing signal, and the third distance sensing signal, and determine whether the display unit displays the temperature measurement value of the to-be-sensed part calculated according to the temperature sensing signal based on a corresponding relationship between a tolerable measurement angle and the first, second, and third distance sensing units (1, 2, and 8); wherein the first distance sensing unit and the temperature sensing unit are positioned on an axis, and the second distance sensing unit and the third distance sensing unit are symmetrically on two sides of the axis, respectively, and the first distance sensing unit, the second distance sensing unit, and the third distance sensing unit are arranged in an inverted triangle. at least one first distance sensing unit, a second distance sensing unit, and a third distance sensing unit configured to output a first distance sensing signal, a second distance sensing signal, and a third distance sensing signal, respectively; a temperature sensing unit configured to output a temperature sensing signal; a display unit configured to display a temperature measurement value of a to-be-sensed part; and a micro processing unit electrically connected to the first distance sensing unit, the second distance sensing unit, the third distance sensing unit, the temperature sensing unit, and the display unit, and configured to receive the first distance sensing signal, the second distance sensing signal, and the third distance sensing signal, and determine whether the display unit displays the temperature measurement value of the to-be-sensed part calculated according to the temperature sensing signal based on a corresponding relationship between a tolerable measurement angle and the first, second, and third distance sensing units (1, 2, and 8); wherein the first distance sensing unit and the temperature sensing unit are positioned on an axis, and the second distance sensing unit and the third distance sensing unit are symmetrically on two sides of the axis, respectively, and the first distance sensing unit, the second distance sensing unit, and the third distance sensing unit are arranged in an inverted triangle.
A system to reconstruct cardiac information associated with a patient's heart to indicate a source of a complex rhythm disorder, the system comprising: at least one computing device configured to: receive cardiac information signals from a plurality of sensors associated with spatial locations within the patient's heart during the complex rhythm disorder, wherein the signals are transmitted to the computing device via a plurality of channels; select a channel from the plurality of channels, identify beats in the signal associated with the channel, and, for each beat, determine activation onsets and identify beats that have multiple components; classify the channel into either a high or a low confidence channel, wherein the high and low confidence channels are classified using a confidence threshold, the confidence threshold being defined as a predetermined percentage of beats, in the signal associated with the channel, that do not have multiple components; determine, for each channel, activation onsets for each beat that has multiple components within associated acceptance time windows, each of the acceptance time windows associated with a beat that has multiple components indicating an earliest activation and a latest termination for a beat, wherein the activation onset of a beat that has multiple components is revised or updated by comparison against activation onsets of selected components of the signal that are within the acceptance window; order the activation onsets associated with each location sequentially in time; and output the activation onsets as ordered to indicate the source of the complex rhythm disorder. receive cardiac information signals from a plurality of sensors associated with spatial locations within the patient's heart during the complex rhythm disorder, wherein the signals are transmitted to the computing device via a plurality of channels; select a channel from the plurality of channels, identify beats in the signal associated with the channel, and, for each beat, determine activation onsets and identify beats that have multiple components; classify the channel into either a high or a low confidence channel, wherein the high and low confidence channels are classified using a confidence threshold, the confidence threshold being defined as a predetermined percentage of beats, in the signal associated with the channel, that do not have multiple components; determine, for each channel, activation onsets for each beat that has multiple components within associated acceptance time windows, each of the acceptance time windows associated with a beat that has multiple components indicating an earliest activation and a latest termination for a beat, wherein the activation onset of a beat that has multiple components is revised or updated by comparison against activation onsets of selected components of the signal that are within the acceptance window; order the activation onsets associated with each location sequentially in time; and output the activation onsets as ordered to indicate the source of the complex rhythm disorder.
An apparatus, comprising: a memory; and a processor operatively coupled to the memory, the processor configured to be operatively coupled to a first optical transponder, the first optical transponder configured to be operatively coupled to a second optical transponder via a plurality of optical links, the second optical transponder configured to be operatively coupled to a remote router, the processor configured to send first data packets and diagnosis packets to the first optical transponder such that the first optical transponder transmits the first data packets to the remote router via the plurality of optical links and the second optical transponder, the processor configured to receive a signal from the remote router via the first optical transponder and the second optical transponder, in response to the second optical transponder identifying, via pre-forward error correction, FEC, bit error rate, BER, detection, a degradation of a first optical link from the plurality of optical links, and dropping a subset of the diagnosis packets, the processor configured to reroute second data packets in response to the signal such that the remote router receives the second data packets via a second optical link from the plurality of optical links, wherein the first optical link and the second optical link are different. a memory; and a processor operatively coupled to the memory, the processor configured to be operatively coupled to a first optical transponder, the first optical transponder configured to be operatively coupled to a second optical transponder via a plurality of optical links, the second optical transponder configured to be operatively coupled to a remote router, the processor configured to send first data packets and diagnosis packets to the first optical transponder such that the first optical transponder transmits the first data packets to the remote router via the plurality of optical links and the second optical transponder, the processor configured to receive a signal from the remote router via the first optical transponder and the second optical transponder, in response to the second optical transponder identifying, via pre-forward error correction, FEC, bit error rate, BER, detection, a degradation of a first optical link from the plurality of optical links, and dropping a subset of the diagnosis packets, the processor configured to reroute second data packets in response to the signal such that the remote router receives the second data packets via a second optical link from the plurality of optical links, wherein the first optical link and the second optical link are different.
A spinel-type lithium-manganese-containing complex oxide, which is represented by a general formula [Li x (M1 y M2 z Mn 2-x-y-z)O 4 -δ], where 1. 00 ≤ x ≤ 1. 20, 0. 20 ≤ y ≤ 1.20, 0 < z ≤ 0.5, 0 ≤ δ ≤ 0.2, M1 in the formula represents one or two or more elements selected from the group consisting of Ni, Co, and Fe, and M2 represents one element or a combination of two or more elements selected from the group consisting of Na, Mg, Al, K, Ca, Ti, V, Cr, Cu, Ga, Y, Zr, Nb, Mo, In, Ta, W, Re, and Ce, thereof, wherein, with regard to a D50, a mode diameter, and a D10 according to a measurement of a volume-based particle size distribution obtained via measurements by a laser diffraction scattering-type particle size distribution measurement method as disclosed in the Examples part of the description, a D50 is 0.5 to 9 μm, a value of (|mode diameter-D50|/mode diameter) ×100 is 0 to 25%, wherein |mode diameter-D50| means an absolute value of (mode diameter-D50), a value of (|mode diameter-D10|/mode diameter) ×100 is 20 to 58%, wherein (|mode diameter-D10| means an absolute value of (mode diameter-D10), a ratio of average primary particle diameter/D50, which is calculated from an average primary particle diameter calculated from a SEM (scanning-type electron microscope) image obtained by a SEM and the D50 is 0.20 to 0.99, wherein the average primary particale diameter means a 50% accumulated particle diameter in a volume distribution and is a Heywood diameter which designates an equivalent circle diameter, and a primary particle is a polycrystal.
A method of making elongated abrasive particles, the method comprising: providing a mold having parallel linear grooves, wherein the parallel linear grooves are partially interrupted at predetermined intervals by transverse obstructions; filling at least a portion of the parallel linear grooves with a flowable abrasive particle precursor composition, wherein the flowable abrasive particle precursor composition is confined within at least one of the parallel linear grooves; at least partially drying the flowable abrasive particle precursor composition to form an at least partially dried abrasive particle precursor composition; separating the at least partially dried abrasive particle precursor composition from the mold, thereby forming elongated precursor abrasive particles having a shape corresponding to portions of the parallel linear grooves disposed between the transverse obstructions, wherein the predetermined intervals correspond to lengths of the elongated precursor abrasive particles, and wherein at least one of the first and second opposite ends of the elongated precursor abrasive particles comprises both a molded portion and a fractured portion; and converting the elongated precursor abrasive particles into the elongated abrasive particles. providing a mold having parallel linear grooves, wherein the parallel linear grooves are partially interrupted at predetermined intervals by transverse obstructions; filling at least a portion of the parallel linear grooves with a flowable abrasive particle precursor composition, wherein the flowable abrasive particle precursor composition is confined within at least one of the parallel linear grooves; at least partially drying the flowable abrasive particle precursor composition to form an at least partially dried abrasive particle precursor composition; separating the at least partially dried abrasive particle precursor composition from the mold, thereby forming elongated precursor abrasive particles having a shape corresponding to portions of the parallel linear grooves disposed between the transverse obstructions, wherein the predetermined intervals correspond to lengths of the elongated precursor abrasive particles, and wherein at least one of the first and second opposite ends of the elongated precursor abrasive particles comprises both a molded portion and a fractured portion; and converting the elongated precursor abrasive particles into the elongated abrasive particles.
A cartridge configured to be comprised by a teatcup to be attached to a teat of an animal to be milked, the cartridge comprising a sleeve having an upper end and a lower end, a teatcup liner mounted in the sleeve and having an inner space for receiving said teat, a pulsation chamber provided between an inner side of the sleeve and an outer side of the teatcup liner, wherein the teatcup liner comprises an upper end portion located at the upper end of the sleeve, a barrel portion and a lower end portion extending beyond the lower end of the sleeve, wherein the lower end portion forms an end nozzle beyond the lower end of the sleeve, wherein the end nozzle has a tapering external shape configured to be received in a milk conduit for transporting the milk from the cartridge to the milk conduit, wherein the barrel portion is the main part of the teatcup liner and is in contact with the teat of the animal during milking, wherein the barrel portion is made of a first material having a relatively high elasticity, and the lower end portion is made of a second material having a relatively low elasticity in comparison with the relatively high elasticity of the first material of the barrel portion, and wherein the lower end portion comprises a lower engagement member which engages the sleeve in such a manner that the barrel portion of the teatcup liner is maintained in a stretched state in the sleeve, wherein the sleeve further comprises a sealing ring extending around an outer surface of the sleeve, and a hole through the sleeve, which hole is configured to permit a pulsating vacuum to be applied in the pulsation chamber and which is provided between the sealing ring and the lower end of the sleeve, wherein the sealing ring is configured to engage a surface of a connector of the teat cup, wherein the connector connects the cartridge to the milk conduit.
A method of operating a device for multipath data packet reception, the method comprising: transmitting a message to a server, wherein the message comprises an identifier that corresponds to a multipath transmission session and that indicates a group of two or more network access interfaces of the device during the multipath transmission session; negotiating (615, 625, 635), with the server, two or more network paths corresponding to the two or more network access interfaces based on at least one quality information of the two or more network access interfaces of the device to receive the one or more data packets, wherein the negotiating of the two or more network paths is performed by comparing the at least one quality information with a threshold value for determining the two or more network paths; and receiving (650, 655, 660) the one or more data packets from the server through the two or more network paths that correspond to the two or more network access interfaces during the multipath transmission session. transmitting a message to a server, wherein the message comprises an identifier that corresponds to a multipath transmission session and that indicates a group of two or more network access interfaces of the device during the multipath transmission session; negotiating (615, 625, 635), with the server, two or more network paths corresponding to the two or more network access interfaces based on at least one quality information of the two or more network access interfaces of the device to receive the one or more data packets, wherein the negotiating of the two or more network paths is performed by comparing the at least one quality information with a threshold value for determining the two or more network paths; and receiving (650, 655, 660) the one or more data packets from the server through the two or more network paths that correspond to the two or more network access interfaces during the multipath transmission session.
Stack-shaped III-V semiconductor diode, comprising - an n - layer with a first surface (14.1), a second surface (14.2) opposite the first surface, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness of 50 - 1,000 μm, - a p + layer, which has a doping substance concentration of 5.10 18 - 5.10 20 N/cm 3, wherein either the p + layer is connected by material couple with the first surface (14.1) of the n - layer or a p - intermediate layer is arranged between the n - layer and the p + layer, - an n + layer, which is connected with the second surface (14.2) of the n - layer by material couple, with a doping substance concentration of at least 10 19 N/cm 3, wherein - the p + layer, the n - layer and the n + layer are each of monolithic construction and each comprise a GaAs compound or consist of a GaAs compound and - the n + layer or the p + layer is constructed as a substrate layer, - the doping substance concentration of the n - layer at the first surface (14.1), which is formed in the direction of the p + layer, has a first value and at the second surface (14.2), which adjoins the n + layer, has a second value, wherein - the second value of the doping substance concentration is larger than the first value by at least a factor of 1.5 or by at least a factor of 2 or by at least a factor of 2.5, - the doping substance concentration of the n' layer has a constant course from the first layer to the second layer parallel to the layer thickness of the n - layer, wherein the constant course has a constant gradient. - an n - layer with a first surface (14.1), a second surface (14.2) opposite the first surface, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness of 50 - 1,000 μm, - a p + layer, which has a doping substance concentration of 5.10 18 - 5.10 20 N/cm 3, wherein either the p + layer is connected by material couple with the first surface (14.1) of the n - layer or a p - intermediate layer is arranged between the n - layer and the p + layer, - an n + layer, which is connected with the second surface (14.2) of the n - layer by material couple, with a doping substance concentration of at least 10 19 N/cm 3, wherein - the p + layer, the n - layer and the n + layer are each of monolithic construction and each comprise a GaAs compound or consist of a GaAs compound and - the n + layer or the p + layer is constructed as a substrate layer, - the doping substance concentration of the n - layer at the first surface (14.1), which is formed in the direction of the p + layer, has a first value and at the second surface (14.2), which adjoins the n + layer, has a second value, wherein - the second value of the doping substance concentration is larger than the first value by at least a factor of 1.5 or by at least a factor of 2 or by at least a factor of 2.5, - the doping substance concentration of the n' layer has a constant course from the first layer to the second layer parallel to the layer thickness of the n - layer, wherein the constant course has a constant gradient.
A Metal Oxide Semiconductor device formed on a substrate comprising: a drain region, wherein the drain region has a shape of a rectangle; a gate region surrounding the drain region and formed in a closed loop around the drain region, wherein the gate region has a shape corresponding to the shape of the drain region of a rectangle; a plurality of source regions (404, 405) arranged around the gate region and on each side of gate region and located at a periphery of the MOS device, wherein each source region of the plurality of source regions (404, 405) has a shape of a rectangle; and a plurality of bulk regions arranged around the gate region and located in corners of the MOS device, wherein the bulk regions separate the source regions (404, 405), wherein the drain region includes drain contacts and the source regions (404, 405) include source contacts, and a distance (D3, D4) between the drain region contacts and the gate region is greater than a distance (S1, S2) between the source region contacts and the gate region, and wherein the substrate is a silicon substrate and the gate region includes polysilicon. a drain region, wherein the drain region has a shape of a rectangle; a gate region surrounding the drain region and formed in a closed loop around the drain region, wherein the gate region has a shape corresponding to the shape of the drain region of a rectangle; a plurality of source regions (404, 405) arranged around the gate region and on each side of gate region and located at a periphery of the MOS device, wherein each source region of the plurality of source regions (404, 405) has a shape of a rectangle; and a plurality of bulk regions arranged around the gate region and located in corners of the MOS device, wherein the bulk regions separate the source regions (404, 405), wherein the drain region includes drain contacts and the source regions (404, 405) include source contacts, and a distance (D3, D4) between the drain region contacts and the gate region is greater than a distance (S1, S2) between the source region contacts and the gate region, and wherein the substrate is a silicon substrate and the gate region includes polysilicon.
Stimulation device for a pressure wave massage for the clitoris, comprising a chamber with an outer end forming an opening for being situated on the clitoris, and an inner end provided with generating means for generating pressure waves in a longitudinal direction, wherein the chamber comprises a side wall arranged between the outer end and the inner end, provided with deflector means for deflecting pressure waves which protrude from the side wall to cause turbulences in the pressure waves, characterised in that the thickness in the longitudinal direction of the deflector means decreases in the transverse direction towards the central longitudinal axis of the chamber.
A method of assessing pregnancy outcome of a patient, said method comprising a step of determining endometrial receptivity of said patient by measuring, in a biological sample that has been obtained from said patient, the expression level of at least one miRNA selected from the group consisting of miR-4423-3p, miR-4445-3p, miR-3128 and miR-3201.
A sidelink communication method, comprising: receiving, by a first terminal device, a physical sidelink shared channel, PSSCH, sent by a second terminal device; obtaining, by the first terminal device, sidelink control information, SCI, sent by the second terminal device; characterized by determining, by the first terminal device, a transmission resource of a sidelink reference signal according to a transmission resource of the PSSCH when the SCI indicates to send the sidelink reference signal. receiving, by a first terminal device, a physical sidelink shared channel, PSSCH, sent by a second terminal device; obtaining, by the first terminal device, sidelink control information, SCI, sent by the second terminal device; characterized by determining, by the first terminal device, a transmission resource of a sidelink reference signal according to a transmission resource of the PSSCH when the SCI indicates to send the sidelink reference signal.
A peach-colored seasoning comprising white soy sauce, a clouding agent and a red coloring, characterized in that the clouding agent contains powdered cellulose and/or crystalline cellulose.