mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear manufacturing system, the system comprising: a roller, the roller comprised of a male roller portion and a female roller portion, the male roller portion being slidable into the female roller portion of the roller; the male roller portion comprised of a roller body and a male flange, the roller body having a smaller diameter than the male flange, wherein the male roller portion transitions from the roller body to the male flange with a curved profile; the female roller portion comprised of a female flange and a cylindrical receiving portion recessed into the female roller portion from the female flange, wherein the female flange has a greater diameter than a diameter of the receiving portion; the roller body is slidable into the receiving portion, wherein the male roller portion and the female roller portion are axially aligned; wherein the roller body extending between the male flange and the female flange is configured to contact an upper and a sole of an article of footwear.
Method for transferring the drive torque from wheels (3a, 3b) with low traction to wheels (2a, 2b) with higher traction for vehicles having a plurality of driven axles (5, 6, 7,) in which a plurality, but not all, of the driven wheels (2a-4a; 2b-4b) are equipped with a rotational speed sensor, characterized in that the rotational speed of a cardan shaft is measured and is set in relation to the wheel rotational speed of at least one wheel (4a, 4b) with a rotational speed sensor, and in that in the event of too high a deviation between the cardan shaft rotational speed and the wheel rotational speed, at least one wheel (3a, 3b) which has no rotational speed sensor is automatically braked.
A radio resource management measurement method, wherein the method is performed by a base station and comprises: determining configuration information for radio resource management, RRM, measurement for a user equipment, the RRM measurement is reference signal received power, RSRP, measurement; wherein the configuration information for RRM measurement comprises signal combination information which indicates a group of signals for the RRM measurement and configuration information of the signals; and, sending the configuration information for RRM measurement to the user equipment; and receiving, from the user equipment, a measurement result of performing said RRM measurement, wherein types of signals in the group of signals comprise: a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal. determining configuration information for radio resource management, RRM, measurement for a user equipment, the RRM measurement is reference signal received power, RSRP, measurement; wherein the configuration information for RRM measurement comprises signal combination information which indicates a group of signals for the RRM measurement and configuration information of the signals; and, sending the configuration information for RRM measurement to the user equipment; and receiving, from the user equipment, a measurement result of performing said RRM measurement, wherein types of signals in the group of signals comprise: a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal. a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal.
An electronic patch assembly for use on a print cartridge, the print cartridge having a cartridge circuit with a plurality of cartridge contact pads arranged in a pattern, the electronic patch assembly comprising: a substrate securable to the print cartridge; a patch circuit coupled to the substrate; and, a plurality of patch contact pads provided on the substrate, at least some of the patch contact pads arranged to correspond with the pattern, the plurality of patch contact pads including a pass through contact pad that allows electrical signals to pass through to the first circuit when the substrate is secured to the print cartridge, and a replacement contact pad that routes electrical signals to the patch circuit. a substrate securable to the print cartridge; a patch circuit coupled to the substrate; and, a plurality of patch contact pads provided on the substrate, at least some of the patch contact pads arranged to correspond with the pattern, the plurality of patch contact pads including a pass through contact pad that allows electrical signals to pass through to the first circuit when the substrate is secured to the print cartridge, and a replacement contact pad that routes electrical signals to the patch circuit.
A data carrier puncher for removing detachable part (106, 108, 110) of data carriers, the data carrier puncher comprising: a punch housing that receives a data carrier with at least one detachable part (106, 108, 110), the punch housing including: a form changing part aperture that corresponds to a size of a particular detachable part (106, 108, 110) configured to be removed from the data carrier, the form changing part aperture configured to permit the particular detachable part (106, 108, 110) to pass therethrough; and one or more projection be disposed off-center from a central axis of the punch housing, the one or more projection corresponding to one or more notches on an edge of a primary card body of the data carrier; a switch disposed adjacent to the one or more projection, the switch, when activated, causing removal of the detachable part (106, 108, 110) from the data carrier; and a punch operably connected to the switch, when activated by the switch, the punch breaking at least one fixing portion connecting the detachable part (106, 108, 110) to the data carrier in response to activation of the switch, wherein the one or more projection are configured to permit the data carrier to engage the switch to prevent improper activation of the switch and damage to an integrated circuit component of the at least one detachable part (106, 108, 110), wherein the form changing part aperture is disposed on a punch template, wherein the punch template is exchangeable, so that in use each exchangeable punch template having a corresponding form changing part aperture has a size that corresponds to respective form changing part sizes (106, 108, 110). a form changing part aperture that corresponds to a size of a particular detachable part (106, 108, 110) configured to be removed from the data carrier, the form changing part aperture configured to permit the particular detachable part (106, 108, 110) to pass therethrough; and one or more projection be disposed off-center from a central axis of the punch housing, the one or more projection corresponding to one or more notches on an edge of a primary card body of the data carrier; a switch disposed adjacent to the one or more projection, the switch, when activated, causing removal of the detachable part (106, 108, 110) from the data carrier; and a punch operably connected to the switch, when activated by the switch, the punch breaking at least one fixing portion connecting the detachable part (106, 108, 110) to the data carrier in response to activation of the switch, wherein the one or more projection are configured to permit the data carrier to engage the switch to prevent improper activation of the switch and damage to an integrated circuit component of the at least one detachable part (106, 108, 110), wherein the form changing part aperture is disposed on a punch template, wherein the punch template is exchangeable, so that in use each exchangeable punch template having a corresponding form changing part aperture has a size that corresponds to respective form changing part sizes (106, 108, 110).
An electrostatic coupling type contactless electric power supply device comprising: an electrode for electric power supply provided on a fixed section, a high-frequency power source section for supplying high frequency power to the electrode for electric power supply, an electrode for electric power reception for receiving high frequency power in a contactless manner which is facing and separated from the electrode for electric power supply and which is provided on a movable section that is movably mounted on the fixed section, a received electric power converting section which supplies electric power to a current consumer on the movable section after converting the high-frequency power which the electrode for electric power reception received, a resonance inductor forming a series resonant circuit of serially connected capacitors configured from the electrode for electric power supply and the electrode for electric power reception; wherein the electrostatic coupling type contactless electric power supply device further comprises: a voltage detection means that detects the traveling wave voltage of the traveling wave from the high-frequency power source section to the series resonant circuit and in the reverse direction the reflected wave voltage of the reflected wave provided between the high-frequency power source section and the series resonant circuit, an auxiliary voltage detection means that detects in a contactless manner the received voltage generated at the electrode for electric power reception provided on the fixed section, and a calculation control means that calculates the load side impedance from the voltage detection means based on the traveling wave voltage and the reflected wave voltage, determines the resonance state of the series resonant circuit based on the received voltage, and variably controls at least the output frequency or output voltage of the high-frequency power source section based on the load side impedance and the resonance state.
A detection device comprising a housing including a base and a lens holder that is supported on the base, a sensor disposed in the housing between the base and the lens holder, a lens that is supported on the lens holder in such a way that the lens holder is not visible when the detection device is viewed facing the lens along a line normal to an outward-facing surface of the lens, characterized in that the lens includes a pair of ribs (70a, 70b) that protrude inward from a sensor-facing surface of the lens, each rib (70a, 70b) having a first surface configured to engage the lens holder, and a second surface that is opposed to the first surface, the second surface configured to engage the base. a housing including a base and a lens holder that is supported on the base, a sensor disposed in the housing between the base and the lens holder, a lens that is supported on the lens holder in such a way that the lens holder is not visible when the detection device is viewed facing the lens along a line normal to an outward-facing surface of the lens, characterized in that the lens includes a pair of ribs (70a, 70b) that protrude inward from a sensor-facing surface of the lens, each rib (70a, 70b) having a first surface configured to engage the lens holder, and a second surface that is opposed to the first surface, the second surface configured to engage the base.
Electric motor part of an elevator drive provided as an internal rotor, having a rotor and a stator (10, 22), wherein coils of the stator are embodied as single-tooth windings, and wherein the coils are at least partly cast in place, and the coils are embodied as two-layer windings, while the coils of individual phases (U, V, W) with alternating upper and lower layers can be put in, wherein - the first phase comprises a first coil with the first side in the lower layer of a first groove (hereinafter designated n) and the second side in the lower layer of a groove n+1, and a second coil with the first side in the lower layer of a groove n+2 and the second side in the upper layer of groove n+1; - the second phase comprises a first coil with the first side in the lower layer of a groove n+3 and the second side in the upper layer of groove n+2, and a second coil with the first side in the upper layer of groove n+3 and the second side in the lower layer of a groove n+4; - and the third phase comprises a first coil with the first side in the upper layer of groove n+4 and the second side in the lower layer of a groove n+5, and a second coil with the first side in the upper layer of a groove n+6 and the second side in the upper layer of groove n+5. - the first phase comprises a first coil with the first side in the lower layer of a first groove (hereinafter designated n) and the second side in the lower layer of a groove n+1, and a second coil with the first side in the lower layer of a groove n+2 and the second side in the upper layer of groove n+1; - the second phase comprises a first coil with the first side in the lower layer of a groove n+3 and the second side in the upper layer of groove n+2, and a second coil with the first side in the upper layer of groove n+3 and the second side in the lower layer of a groove n+4; - and the third phase comprises a first coil with the first side in the upper layer of groove n+4 and the second side in the lower layer of a groove n+5, and a second coil with the first side in the upper layer of a groove n+6 and the second side in the upper layer of groove n+5.
An LED illumination module in which LED bare chips are mounted on a mounting substrate at a high density, the module comprising: many LED bare chips having same specifications; the mounting substrate at least a surface of which is metal; and a reflection region in which the LED bare chips are sealed off with resin, wherein a surface of the reflection region of the mounting substrate is covered with an inorganic white insulating layer (14, 141, 142, 143) that functions as a reflection member, at least a part of the inorganic white insulating layer (14, 141, 142, 143) constituting a multilayer structure in combination with a metal layer, a wiring pattern connected to electrodes of the LED bare chips is formed on the inorganic white insulating layer (14, 141, 142, 143), a unit LED chip group including a plurality of LED bare chips connected in series is disposed in plural, the plural unit LED chip groups being connected in parallel, and overall light flux is 10,000 lumens or more, and a mounting area density of the LED bare chips in the reflection region is 15 mm 2 /cm 2 or more, and wherein 95 weight % or more of the inorganic white insulating layer (14, 141, 142, 143) in the formed state is made of an inorganic material that contains white inorganic pigment and SiO 2 in form of nanoparticles. many LED bare chips having same specifications; the mounting substrate at least a surface of which is metal; and a reflection region in which the LED bare chips are sealed off with resin, wherein a surface of the reflection region of the mounting substrate is covered with an inorganic white insulating layer (14, 141, 142, 143) that functions as a reflection member, at least a part of the inorganic white insulating layer (14, 141, 142, 143) constituting a multilayer structure in combination with a metal layer, a wiring pattern connected to electrodes of the LED bare chips is formed on the inorganic white insulating layer (14, 141, 142, 143), a unit LED chip group including a plurality of LED bare chips connected in series is disposed in plural, the plural unit LED chip groups being connected in parallel, and overall light flux is 10,000 lumens or more, and a mounting area density of the LED bare chips in the reflection region is 15 mm 2 /cm 2 or more, and wherein 95 weight % or more of the inorganic white insulating layer (14, 141, 142, 143) in the formed state is made of an inorganic material that contains white inorganic pigment and SiO 2 in form of nanoparticles.
Process for operating a fluidized bed reactor in an operation for preparing trichlorosilane from silicon and HCl or from silicon and H2/tetrachlorosilane or in an operation for preparing silicon from trichlorosilane, comprising a purge a of the reactor and the input gas lines at room temperature with an inert gas at a gas rate of 10 to 500 m 3 /h for 0.5 to 10 hours; a purge b of the reactor and the input gas lines with H2, wherein the purging with H2 is concurrent with heating to a temperature of 100-1000°C, wherein the purging is conducted for 2 to 100 hours with a gas rate of 200 to 1000 m 3 /h; a purge c of the reactor and the input gas lines with trichlorosilane or with a mixture comprising trichlorosilane for 2 to 50 hours with such an amount of purge gas that a concentration of the trichlorosilane or the trichlorosilane mixture based on a total gas rate conveyed through a fluidized bed is 10 mol% to 50 mol% and a concentration of the trichlorosilane or the trichlorosilane mixture based on a total gas rate conveyed through a reaction gas nozzle is 20 mol% to 50 mol%.
Polyvinyl chloride resin composition comprising at least an inorganic hypophosphite having the following formula: Me(H 2 PO 2) n where Me is a metal and "n" is an integer number ranging from 1 to 4 in dependence of the valence of the metal Me, in addition to conventional additives, like stabilizers, co-stabilizers, lubricants, fillers, colorants.
A flame retardant synthetic resin composition comprising 100 parts by mass of a synthetic resin and 0.5 to 20 parts by mass of a mixture of phosphoric esters represented by general formula: wherein R 1 and R 2 each independently represent a hydrogen atom or a methyl group; and n represents an integer of 1 to 5, the mixture containing 70% to 75% by mass of the phosphoric ester of formula wherein n = 1, with the total of the phosphoric esters of formula wherein n is 1 to 5 being taken as 100% by mass. wherein R 1 and R 2 each independently represent a hydrogen atom or a methyl group; and n represents an integer of 1 to 5, the mixture containing 70% to 75% by mass of the phosphoric ester of formula wherein n = 1, with the total of the phosphoric esters of formula wherein n is 1 to 5 being taken as 100% by mass.
A high voltage shore connection (HVSC) system for connection of a vessel in port to electrical supply from the shore-side, said system comprising: a first intake comprising at least one first connecting element; a second intake comprising at least one second connecting element, said second intake being in electrical connection with said first intake; said at least one first connecting element and said at least one second connecting element being connectable to a power supply element for supplying onshore electricity; a safety circuit element being in electrical connection with said first intake and said second intake, and characterized in that the safety circuit element comprises at least one safety loop (110, 111); wherein said system further comprises at least one protecting element being connectable to said at least one first connecting element or said at least one second connecting element, whichever connecting element (3, 3') not being connected to said power supply element; said at least one protecting element (7, 107) comprising a safety loop being electrically connectable to said safety circuit element. a first intake comprising at least one first connecting element; a second intake comprising at least one second connecting element, said second intake being in electrical connection with said first intake; said at least one first connecting element and said at least one second connecting element being connectable to a power supply element for supplying onshore electricity; a safety circuit element being in electrical connection with said first intake and said second intake, and characterized in that the safety circuit element comprises at least one safety loop (110, 111); wherein said system further comprises at least one protecting element being connectable to said at least one first connecting element or said at least one second connecting element, whichever connecting element (3, 3') not being connected to said power supply element; said at least one protecting element (7, 107) comprising a safety loop being electrically connectable to said safety circuit element.
A video processor card for outputting a plurality of video data streams, the video processor card being arranged for removable insertion into a video media server and into communication with an output of the video media server, the card comprising: an input for receiving a first video data stream at a first video resolution from the output of the video media server; a processor arranged to demultiplex the received first video data stream at the first resolution into a plurality of second video data streams, each second video data stream being at a second video resolution; and a plurality of video outputs (54a, 54b, 54c, 54d), each video output arranged to output one of the plurality of second video data streams, wherein the first video resolution is at a higher video resolution than the second video resolution, and the first and second video data streams comprise pixel data, and wherein the first video data stream at the first video resolution comprises the plurality of second video data streams (360, 362, 364, 366) interleaved together such that consecutive pixels in the first video data stream comprise pixel data, taken in turn from each stream of the plurality of second video data streams, and wherein each of the second video data streams each represent a different region of a source video split into sub-frames separately output for rendering, the interleaving being such that as soon as the pixels are received at the input, output video data streams are generated immediately, without having to wait for a full frame to be buffered. an input for receiving a first video data stream at a first video resolution from the output of the video media server; a processor arranged to demultiplex the received first video data stream at the first resolution into a plurality of second video data streams, each second video data stream being at a second video resolution; and a plurality of video outputs (54a, 54b, 54c, 54d), each video output arranged to output one of the plurality of second video data streams, wherein the first video resolution is at a higher video resolution than the second video resolution, and the first and second video data streams comprise pixel data, and wherein the first video data stream at the first video resolution comprises the plurality of second video data streams (360, 362, 364, 366) interleaved together such that consecutive pixels in the first video data stream comprise pixel data, taken in turn from each stream of the plurality of second video data streams, and wherein each of the second video data streams each represent a different region of a source video split into sub-frames separately output for rendering, the interleaving being such that as soon as the pixels are received at the input, output video data streams are generated immediately, without having to wait for a full frame to be buffered.