mhurhangee/ep-ind-claims huggingface dataset:
A distribution strip for telecommunications and data engineering comprising a housing and core connecting contacts (41, 51), first core connecting contacts being accessible from a top side of the housing and second core connecting contacts from a bottom side of the housing, the first and second core connecting contacts (41, 51) being part of one-piece first and second contact elements (40, 50) respectively which each comprise a connecting web (42, 52) and a contact leg (43, 53), a contact leg of a first contact element and a contact leg of a second contact element in each case forming an isolating contact, the core connecting contacts (41, 51) lying in line in one plane, wherein the housing comprises a housing top part and a housing bottom part, characterized in that the contact legs (43, 53) are arranged in such a way that the plane of the core connecting contacts (41, 51) is at an acute angle to a plane of the contact legs (43, 53), wherein in the housing bottom part has supporting surfaces, on the inside of which the contact legs of the second contact elements are laterally supported, two contact legs being supported on one supporting surface in each case, a separating web being arranged centrally on the top of the supporting surface.
An information processing apparatus, characterized in that the apparatus comprises: a prefetch unit configured to prefetch a scheduling entry corresponding a future time period in advance from scheduling information including one or more entries each of which at least contains a transmission state and interval for each of one or more transmission queues; and a scheduler unit configured to determine a starting time of transmission for each frame waiting for transmission in each queue, on the basis of the prefetched entry. a prefetch unit configured to prefetch a scheduling entry corresponding a future time period in advance from scheduling information including one or more entries each of which at least contains a transmission state and interval for each of one or more transmission queues; and a scheduler unit configured to determine a starting time of transmission for each frame waiting for transmission in each queue, on the basis of the prefetched entry.
An apparatus, comprising: an optical data transmitter including a plurality of vertical cavity surface-emitting lasers (24-1 - 24-N), each of the plurality of vertical cavity surface-emitting lasers (24-1 - 24-N) being configured to output a data modulated optical carrier at a center wavelength of less than one micrometer; an optical transmission fiber being a single mode optical fiber at wavelengths in the optical telecommunications C-band; an all-optical spatial mode multiplexer having an optical output and a plurality of optical inputs, each of the vertical cavity surface-emitting lasers (24-1 - 24-N) being optically connected to one or more of the optical inputs of the all-optical spatial mode multiplexer, a near end of the optical transmission fiber being optically coupled to the optical output of the all-optical spatial mode multiplexer; and wherein the all-optical spatial mode multiplexer is configured to cause at least two of the vertical cavity surface-emitting lasers (24-1 - 24-N) to excite linearly independent combinations of one or more optical spatial propagating modes of the optical transmission fiber. a plurality of vertical cavity surface-emitting lasers (24-1 - 24-N), each of the plurality of vertical cavity surface-emitting lasers (24-1 - 24-N) being configured to output a data modulated optical carrier at a center wavelength of less than one micrometer; an optical transmission fiber being a single mode optical fiber at wavelengths in the optical telecommunications C-band; an all-optical spatial mode multiplexer having an optical output and a plurality of optical inputs, each of the vertical cavity surface-emitting lasers (24-1 - 24-N) being optically connected to one or more of the optical inputs of the all-optical spatial mode multiplexer, a near end of the optical transmission fiber being optically coupled to the optical output of the all-optical spatial mode multiplexer; and wherein the all-optical spatial mode multiplexer is configured to cause at least two of the vertical cavity surface-emitting lasers (24-1 - 24-N) to excite linearly independent combinations of one or more optical spatial propagating modes of the optical transmission fiber.
A bicycle control assembly for operating an electromechanical gear shifting device, comprising: a graspable housing mountable to the bicycle, the graspable housing including an internal body compartment having an opening configured to permit access to the internal body compartment, the internal body compartment configured to allow a power supply to be disposed therein; an access cover permitting access to the internal body compartment, the access cover covering the opening; a first operating member movably connected to the housing; an electrical switch; a controller in communication with the electrical switch, configured to be powered by the power supply and configured to generate a signal to change a shift position of the gear shifting device responsive to an input from the electrical switch; and an antenna in communication with the controller to send the signal, characterized by the antenna being positioned, at least in part, in a portion of the control assembly that is separate or remote or spaced from the housing. a graspable housing mountable to the bicycle, the graspable housing including an internal body compartment having an opening configured to permit access to the internal body compartment, the internal body compartment configured to allow a power supply to be disposed therein; an access cover permitting access to the internal body compartment, the access cover covering the opening; a first operating member movably connected to the housing; an electrical switch; a controller in communication with the electrical switch, configured to be powered by the power supply and configured to generate a signal to change a shift position of the gear shifting device responsive to an input from the electrical switch; and an antenna in communication with the controller to send the signal, characterized by the antenna being positioned, at least in part, in a portion of the control assembly that is separate or remote or spaced from the housing.
A coating device for coating process liquid to paper before printing, comprising: a coating roller for coating the process liquid to the paper; a process liquid vessel in which the inside thereof is partitioned into a reservoir and a recovery chamber by a partition plate having a predetermined height (h), a supply port of the process liquid is formed in the reservoir and a recovery port of the process liquid is formed in the recovery chamber, and the liquid level of the process liquid stored in the reservoir is held constant by causing the process liquid supplied from the supply port to the reservoir to overflow from the partition plate to the recovery chamber; process liquid supply means (404, 408, 412) for supplying the process liquid to the process liquid vessel through the supply port; process liquid recovery means (406, 410, 414) for recovering the process liquid from the process liquid vessel through the recovery port; and a drawing-up roller for drawing up the process liquid stored in the reservoir of the process liquid vessel to supply the process liquid to the coating roller, characterized in that the supply port is formed in an outer circumferential wall constituting the process liquid vessel, and a blocking member for blocking the flow of the process liquid from the supply port toward the coating roller on the liquid level is provided in the inside of the process liquid vessel. a coating roller for coating the process liquid to the paper; a process liquid vessel in which the inside thereof is partitioned into a reservoir and a recovery chamber by a partition plate having a predetermined height (h), a supply port of the process liquid is formed in the reservoir and a recovery port of the process liquid is formed in the recovery chamber, and the liquid level of the process liquid stored in the reservoir is held constant by causing the process liquid supplied from the supply port to the reservoir to overflow from the partition plate to the recovery chamber; process liquid supply means (404, 408, 412) for supplying the process liquid to the process liquid vessel through the supply port; process liquid recovery means (406, 410, 414) for recovering the process liquid from the process liquid vessel through the recovery port; and a drawing-up roller for drawing up the process liquid stored in the reservoir of the process liquid vessel to supply the process liquid to the coating roller, characterized in that the supply port is formed in an outer circumferential wall constituting the process liquid vessel, and a blocking member for blocking the flow of the process liquid from the supply port toward the coating roller on the liquid level is provided in the inside of the process liquid vessel.
A headlight system for a banking vehicle, the headlight system comprising: a plurality of optical assemblies being arranged about an optical horizon and an optical vertical axis, wherein the intersection between the optical horizon and the optical vertical axis defines an optical origin, wherein each of the plurality of optical assemblies includes an illumination source and an optical element; and a controller in communication with the illumination sources, each of the illumination sources being configured to direct light toward a corresponding one of the optical elements to produce an illumination region (185, 187, 188, 190), and wherein the illumination regions (185, 187, 188, 190) combine to form an illumination pattern that includes at least one side illumination region (185, 187) that is radially positioned relative to the optical origin and at least one central illumination region, and wherein the at least one central illumination region is produced by one of the illumination sources that includes an array of LEDs, being characterized in that the controller is configured to selectively illuminate a portion of the LEDs in the array to change a shape of the at least one central illumination region to follow a shape of the at least one side illumination region (185, 187), when illuminated. a plurality of optical assemblies being arranged about an optical horizon and an optical vertical axis, wherein the intersection between the optical horizon and the optical vertical axis defines an optical origin, wherein each of the plurality of optical assemblies includes an illumination source and an optical element; and a controller in communication with the illumination sources, each of the illumination sources being configured to direct light toward a corresponding one of the optical elements to produce an illumination region (185, 187, 188, 190), and wherein the illumination regions (185, 187, 188, 190) combine to form an illumination pattern that includes at least one side illumination region (185, 187) that is radially positioned relative to the optical origin and at least one central illumination region, and wherein the at least one central illumination region is produced by one of the illumination sources that includes an array of LEDs, being characterized in that the controller is configured to selectively illuminate a portion of the LEDs in the array to change a shape of the at least one central illumination region to follow a shape of the at least one side illumination region (185, 187), when illuminated.
An instant coffee with coffee grounds and foam characterized by 65% to 97.5% on dry matter of roasted and ground coffee beans and 2.0% to 2.5% on dry matter of flavoring substance obtained by a production method comprising the steps of - roasting the coffee bean, - mixing the roasted coffee bean with the other materials - grinding the obtained mixture, - agglomerating the ground mixture, - drying the agglomerated mixture and - cooling the dried mixture. - roasting the coffee bean, - mixing the roasted coffee bean with the other materials - grinding the obtained mixture, - agglomerating the ground mixture, - drying the agglomerated mixture and - cooling the dried mixture.
A method of increasing the mass of seeds per unit area, growth and/or biomass of a plant comprising; reducing the expression or activity of a DA2 polypeptide within cells of said plant, wherein the DA2 polypeptide comprises a RING domain of SEQ ID NO: 2 and the plant has reduced DA1 or reduced DA1 and EOD1 expression or activity, wherein the expression or activity of the DA2 polypeptide is reduced by (a) introducing a mutation into the nucleotide sequence of the plant cell which encodes the DA2 polypeptide or which regulates its expression and regenerating the plant from the mutated cell; or (b) incorporating a heterologous nucleic acid which expresses a suppressor nucleic acid which reduces expression of the DA2 polypeptide into said plant cell. (a) introducing a mutation into the nucleotide sequence of the plant cell which encodes the DA2 polypeptide or which regulates its expression and regenerating the plant from the mutated cell; or (b) incorporating a heterologous nucleic acid which expresses a suppressor nucleic acid which reduces expression of the DA2 polypeptide into said plant cell.
A method for purging a selective catalytic reduction dosing system having a urea reservoir, a urea delivery module comprising at least one pump (23, 24, 33, 43), a dosing injector arranged to spray urea into an engine exhaust pipe and a feedline (26, 36, 46) extending from the dosing injector to the urea delivery module, the method comprising the steps of: Activating a reverse pump or a pump in a reverse direction (33, 43) to reduce urea pressure in preparation to draw fluid or gas into the urea delivery module; Opening the dosing injector to allow fluid or gas to flow into the feedline (26, 36, 46) from the exhaust pipe; Stopping the reverse pump or reverse direction of the pump (33, 43) and closing the dosing injector; Activating a forward pump or a forward direction of the pump (33, 43); Stopping the forward pump or forward direction of the pump (33, 43) and opening the dosing injector; and Activating the reverse pump or reverse direction of the pump (33, 43). Activating a reverse pump or a pump in a reverse direction (33, 43) to reduce urea pressure in preparation to draw fluid or gas into the urea delivery module; Opening the dosing injector to allow fluid or gas to flow into the feedline (26, 36, 46) from the exhaust pipe; Stopping the reverse pump or reverse direction of the pump (33, 43) and closing the dosing injector; Activating a forward pump or a forward direction of the pump (33, 43); Stopping the forward pump or forward direction of the pump (33, 43) and opening the dosing injector; and Activating the reverse pump or reverse direction of the pump (33, 43).
A processor-implemented motion data processing method, comprising: obtaining, in real-time, an electromyography signal corresponding to a measurement position during a motion of a user; determining, based on the EMG signal, an abnormal signal in the EMG signal, wherein the abnormal signal includes an oscillation signal caused by a high-pass filtering algorithm; and correcting the abnormal signal,wherein the determining, based on the EMG signal, an abnormal signal in the EMG signal includes processing the EMG signal in a time domain to determine the abnormal signal, and the processing the EMG signal in a time domain to determine the abnormal signal includes: determining a reference oscillation height and a reference duration of the oscillation signal based on a filter parameter of the high-pass filtering algorithm; and matching the EMG signal with the reference oscillation height and the reference duration in real-time; and designating the EMG signal corresponding to a signal interval within which the EMG signal matches the reference oscillation height and the reference duration as the oscillation signal. obtaining, in real-time, an electromyography signal corresponding to a measurement position during a motion of a user; determining, based on the EMG signal, an abnormal signal in the EMG signal, wherein the abnormal signal includes an oscillation signal caused by a high-pass filtering algorithm; and correcting the abnormal signal,wherein the determining, based on the EMG signal, an abnormal signal in the EMG signal includes processing the EMG signal in a time domain to determine the abnormal signal, and the processing the EMG signal in a time domain to determine the abnormal signal includes: determining a reference oscillation height and a reference duration of the oscillation signal based on a filter parameter of the high-pass filtering algorithm; and matching the EMG signal with the reference oscillation height and the reference duration in real-time; and designating the EMG signal corresponding to a signal interval within which the EMG signal matches the reference oscillation height and the reference duration as the oscillation signal. determining a reference oscillation height and a reference duration of the oscillation signal based on a filter parameter of the high-pass filtering algorithm; and matching the EMG signal with the reference oscillation height and the reference duration in real-time; and designating the EMG signal corresponding to a signal interval within which the EMG signal matches the reference oscillation height and the reference duration as the oscillation signal.
A system for performing a microwave ablation procedure, the system comprising: an ablation probe configured to couple to an electrosurgical generator and including an electromagnetic sensor; a tracking system configured to track movement of the ablation probe in three-dimensional space and generate position and orientation data of the ablation probe based on a position and orientation of the electromagnetic sensor; and a computing device operably coupled to the tracking system, the computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display based on the received position and orientation data of the ablation probe; characterised in that said instructions, when executed by the processor, additionally cause the computing device to: filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data. an ablation probe configured to couple to an electrosurgical generator and including an electromagnetic sensor; a tracking system configured to track movement of the ablation probe in three-dimensional space and generate position and orientation data of the ablation probe based on a position and orientation of the electromagnetic sensor; and a computing device operably coupled to the tracking system, the computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display based on the received position and orientation data of the ablation probe; characterised in that said instructions, when executed by the processor, additionally cause the computing device to: filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data. filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data.
A respiratory protection device that comprises: (a) a unitary body including a lens (32; 54; 74; 94; 104) and a chassis (30; 52; 72; 92; 102) that surrounds a portion of the lens; (b) the chassis (30; 52; 72; 92; 102) comprising at least one port for fluid connection; (c) a face seal that includes an annular ring; and (d) a frame that surrounds an outer surface of the annular ring and that enables the face seal to be clamped to the unitary body, and that allows the unitary body to be removed from the face seal, characterized in that the face seal has a surface that forms an interface with both, lens (32; 54; 74; 94; 104) and chassis (30; 52; 72; 92; 102). (a) a unitary body including a lens (32; 54; 74; 94; 104) and a chassis (30; 52; 72; 92; 102) that surrounds a portion of the lens; (b) the chassis (30; 52; 72; 92; 102) comprising at least one port for fluid connection; (c) a face seal that includes an annular ring; and (d) a frame that surrounds an outer surface of the annular ring and that enables the face seal to be clamped to the unitary body, and that allows the unitary body to be removed from the face seal,
A network search method of a modem, comprising: sampling a signal level value and a signal quality value of a serving cell; obtaining a signal power condition according to the signal level value, and obtaining a signal stability condition according to the signal quality value; when both the signal power condition and the signal stability condition are higher than set conditions, determining a network search state as an off state; characterized in that the method further comprises: obtaining a signal level change condition according to the signal level value; determining, according to the signal level change condition, whether the signal strength of the serving cell decreases monotonically; and when it is determined, according to the signal level change condition, that the signal strength of the serving cell decreases monotonically, determining the network search state as a start state. sampling a signal level value and a signal quality value of a serving cell; obtaining a signal power condition according to the signal level value, and obtaining a signal stability condition according to the signal quality value; when both the signal power condition and the signal stability condition are higher than set conditions, determining a network search state as an off state; characterized in that the method further comprises: obtaining a signal level change condition according to the signal level value; determining, according to the signal level change condition, whether the signal strength of the serving cell decreases monotonically; and when it is determined, according to the signal level change condition, that the signal strength of the serving cell decreases monotonically, determining the network search state as a start state. obtaining a signal level change condition according to the signal level value; determining, according to the signal level change condition, whether the signal strength of the serving cell decreases monotonically; and when it is determined, according to the signal level change condition, that the signal strength of the serving cell decreases monotonically, determining the network search state as a start state.