mhurhangee/patent-ind-claim-en huggingface dataset:
A blade clamp for use with a power tool having a reciprocating spindle , the blade clamp comprising: a cover threaded to the spindle for relative axial movement thereto in response to rotation of the cover relative to the spindle; an ejector pin positioned within the spindle; and a spring coupling the cover and the spindle; wherein the spring biases the cover toward a first rotational position relative to the spindle coinciding with a locked configuration of the blade clamp, wherein the cover is rotatable against the bias of the spring toward a second rotational position relative to the spindle coinciding with an unlocked configuration of the blade clamp, wherein in the unlocked configuration, the ejector pin maintains the cover in the second rotational position, and wherein, in response to insertion of a blade into the spindle, the ejector pin disengages the cover, permitting the spring to rebound and rotate the cover from the second rotational position toward the first rotational position, thereby automatically adjusting the blade clamp from the unlocked configuration to the locked configuration, wherein the cover includes an inner surface in facing relationship with the spindle and a first attachment element defined at least partially by the inner surface, the first attachment element configured to cooperate with a second attachment element of the ejector pin to maintain the cover in the second rotational position, and wherein insertion of the blade into the spindle displaces the ejection pin, thereby disengaging the first attachment element from the second attachment element. a cover threaded to the spindle for relative axial movement thereto in response to rotation of the cover relative to the spindle; an ejector pin positioned within the spindle; and a spring coupling the cover and the spindle; wherein the spring biases the cover toward a first rotational position relative to the spindle coinciding with a locked configuration of the blade clamp, wherein the cover is rotatable against the bias of the spring toward a second rotational position relative to the spindle coinciding with an unlocked configuration of the blade clamp, wherein in the unlocked configuration, the ejector pin maintains the cover in the second rotational position, and wherein, in response to insertion of a blade into the spindle, the ejector pin disengages the cover, permitting the spring to rebound and rotate the cover from the second rotational position toward the first rotational position, thereby automatically adjusting the blade clamp from the unlocked configuration to the locked configuration, wherein the cover includes an inner surface in facing relationship with the spindle and a first attachment element defined at least partially by the inner surface, the first attachment element configured to cooperate with a second attachment element of the ejector pin to maintain the cover in the second rotational position, and wherein insertion of the blade into the spindle displaces the ejection pin, thereby disengaging the first attachment element from the second attachment element.
A light distribution control method for a vehicular headlamp (L-HL, R-HL) in which plural illumination regions (A1, A2) are arranged in the left-right direction and illuminated by a headlamp in a desired light distribution pattern, and vehicle positions of a vehicle ahead are detected and selected ones of the plural illumination regions are reduced in light quantity according to corrected vehicle positions, wherein: corrected vehicle positions (aLP, aRP) are set that are obtained by adding margins (Lm, Rm) to the detected vehicle positions (LP, RP) in the left and right directions, respectively; position variations of the vehicle positions are detected, and the margins are increased or decreased according to temporal variation rates of the position variations; illumination regions of the plural illumination regions in which the corrected vehicle positions exist are detected; and the detected illumination regions of the plural illumination regions are the ones which are selected to be reduced in light quantity. corrected vehicle positions (aLP, aRP) are set that are obtained by adding margins (Lm, Rm) to the detected vehicle positions (LP, RP) in the left and right directions, respectively; position variations of the vehicle positions are detected, and the margins are increased or decreased according to temporal variation rates of the position variations; illumination regions of the plural illumination regions in which the corrected vehicle positions exist are detected; and the detected illumination regions of the plural illumination regions are the ones which are selected to be reduced in light quantity.
A method for charging and discharging control, applied to a device , wherein the device comprises a first battery unit and a second battery unit connected in series, and a voltage conversion circuit , characterized in that the method comprises: supplying (S302) power to the device through the second battery unit when voltage of the second battery unit is greater than a preset first voltage threshold; supplying (S304) power to the device through the first battery unit when voltage of the first battery unit is equal to or less than the preset first voltage threshold; and boosting supply voltage output by the first battery unit through the voltage conversion circuit when the voltage of the first battery unit is equal to or less than the preset first voltage threshold, such that the supply voltage is greater than the preset first voltage threshold; the method further comprises: stopping (S306) discharge of the first battery unit when the voltage of the first battery unit is equal to or less than a preset second voltage threshold, wherein the preset second voltage threshold is less than the preset first voltage threshold; wherein the first battery unit is a lithium ion battery with a silicon negative electrode, and wherein the second battery unit is a lithium ion battery with a graphite negative electrode. supplying (S302) power to the device through the second battery unit when voltage of the second battery unit is greater than a preset first voltage threshold; supplying (S304) power to the device through the first battery unit when voltage of the first battery unit is equal to or less than the preset first voltage threshold; and boosting supply voltage output by the first battery unit through the voltage conversion circuit when the voltage of the first battery unit is equal to or less than the preset first voltage threshold, such that the supply voltage is greater than the preset first voltage threshold; the method further comprises: stopping (S306) discharge of the first battery unit when the voltage of the first battery unit is equal to or less than a preset second voltage threshold, wherein the preset second voltage threshold is less than the preset first voltage threshold; wherein the first battery unit is a lithium ion battery with a silicon negative electrode, and wherein the second battery unit is a lithium ion battery with a graphite negative electrode. stopping (S306) discharge of the first battery unit when the voltage of the first battery unit is equal to or less than a preset second voltage threshold, wherein the preset second voltage threshold is less than the preset first voltage threshold; wherein the first battery unit is a lithium ion battery with a silicon negative electrode, and wherein the second battery unit is a lithium ion battery with a graphite negative electrode.
A quantum information processing device, comprising: a first substrate comprising a principal surface; a second substrate comprising a principal surface, wherein the first substrate is bump-bonded to the second substrate such that the principal surface of the first substrate faces the principal surface of the second substrate; a superconducting circuit element having a microwave frequency resonance mode, wherein a first portion of the superconducting circuit element is arranged on the principal surface of the first substrate and a second portion of the superconducting circuit element is arranged on the principal surface of the second substrate; a first superconductor bump bond connected to the first portion of the superconducting circuit element and to the second portion of the superconducting circuit element, wherein the first superconductor bump bond provides an electrical connection between the first portion and the second portion; and characterized by : a second superconductor bump bond connected to the first portion of the superconducting circuit element and to the second portion of the superconducting circuit element, wherein, by electrically connecting the first portion of the superconducting circuit element and the second portion of the superconducting circuit element, the second superconductor bump bond provides redundancy for the electrical connection provided by the first superconductor bump bond in case of failure of the first superconductor bump bond. a first substrate comprising a principal surface; a second substrate comprising a principal surface, wherein the first substrate is bump-bonded to the second substrate such that the principal surface of the first substrate faces the principal surface of the second substrate; a superconducting circuit element having a microwave frequency resonance mode, wherein a first portion of the superconducting circuit element is arranged on the principal surface of the first substrate and a second portion of the superconducting circuit element is arranged on the principal surface of the second substrate; a first superconductor bump bond connected to the first portion of the superconducting circuit element and to the second portion of the superconducting circuit element, wherein the first superconductor bump bond provides an electrical connection between the first portion and the second portion; and characterized by : a second superconductor bump bond connected to the first portion of the superconducting circuit element and to the second portion of the superconducting circuit element, wherein, by electrically connecting the first portion of the superconducting circuit element and the second portion of the superconducting circuit element, the second superconductor bump bond provides redundancy for the electrical connection provided by the first superconductor bump bond in case of failure of the first superconductor bump bond.
An ink composition for inkjet recording, comprising: a resin having a polymerizable group; a gel particle which comprises a polymerizable group, comprises a three-dimensional cross-linked structure containing at least one selected from the group consisting of a urethane bond and a urea bond, and comprises a photopolymerization initiator in the interior of the gel particle; and water, wherein a total amount of a solid content of the gel particle with respect to a total amount of the resin having a polymerizable group is 0.1% by mass to 100% by mass. a resin having a polymerizable group; a gel particle which comprises a polymerizable group, comprises a three-dimensional cross-linked structure containing at least one selected from the group consisting of a urethane bond and a urea bond, and comprises a photopolymerization initiator in the interior of the gel particle; and water, wherein a total amount of a solid content of the gel particle with respect to a total amount of the resin having a polymerizable group is 0.1% by mass to 100% by mass.
Automatic dispensing machine of frozen products comprising in a supporting frame a storage region , or first chamber, which comprises one or more shelves each configured to contain a plurality of frozen products to be dispensed, wherein the automatic dispensing machine further comprises a dispensing region accessible by a user for picking up a product, cooling means for cooling said storage region , or first chamber, at a freezing or deep-freezing temperature and separation means (S), interposed between said storage region , or first chamber, and said dispensing region , wherein said separation means (S) are configured to separate or to isolate said storage region , or first chamber, with respect to the dispensing region at least in an operative closing position, and wherein in said operative closing position the separation means (S) are configured to prevent direct communication between said storage region , or first chamber, and said dispensing region , wherein the separation means (S) are arranged at least in an area of a front facade of the storage region , or first chamber, in front of said one or more shelves, wherein the dispensing region is located in a bottom area under the front facade of the storage region , or first chamber, under said one or more shelves, and wherein the automatic dispensing machine comprises a movement device of the separation means (S) for moving the separation means along the front facade between the operative closing position and an operative passage position to allow a passage of products from the storage region , or first chamber, to the dispensing region , and a collection board , or collection surface, configured to collect a product to be dispensed, wherein the collection board , or collection surface, is arranged in the front facade area of the storage region , or first chamber, wherein the collection board , or collection surface, is fixed to the separation means (S) and wherein said movement device is configured to move said collection board , or collection surface, with a vertical movement, between the dispensing region and one of said one or more shelves , together with the separation means (S), wherein said separation means (S) comprise a first separator element configured as a flexible panel in front of said front facade area of the storage region , or first chamber, and connected on one side to a first roller associated with the supporting frame and on the other side to the collection board , or collection surface, to be rolled on, and unrolled respectively from, said first roller and consequently extended in front of said one or more shelves, according to the movement of said collection board , or collection surface.
2-Methyl-4,5-di-(methylsulfonyl)-benzoyl-guanidine, and/or a physiologically acceptable salt and/or solvate thereof, for use in the prophylactic or therapeutic treatment of type II diabetes mellitus or the arising symptoms of type II diabetes mellitus.
Radiation field amplifier system for a radiation field with a wavelength L comprising a first optical device , a second optical device , an amplifying unit and a heat dissipation system , wherein said radiation field penetrates said first optical device , said amplifying unit and said second optical device in this order and at least one of said optical devices is part of said heat dissipation system , said optical devices are configured to act birefringently on said radiation field in that optical path lengths through said first optical device and said second optical device for two components of said radiation field, which are polarized perpendicular to each other, are different and said amplifying unit is configured to alter a polarization of said radiation field by inverting said polarization such that a depolarization of said radiation field occurring in said first optical device is essentially compensated by a depolarization of said radiation field occurring in said second optical device .
A method comprising: receiving, by a first user equipment, UE, a UE-specific radio resource control, RRC, signal for indicating a resource pool configuration and a sidelink configured grant, SL CG, configuration , the resource pool configuration comprising an indication of a plurality of transmission resources available for SL transmissions, and the SL CG configuration comprising an indication of a transmission resource from the plurality of transmission resources, the transmission resource for communicating a SL CG transmission between the first UE and a second UE; and transmitting , by the first UE, the SL CG transmission to the second UE using the transmission resource indicated by the SL CG configuration; characterized in that the transmission resource for communicating the SL CG transmission comprises a SL control channel resource and a SL data channel resource, and wherein transmitting the SL CG transmission comprises transmitting SL control information using the SL control channel resource and transmitting SL data using the SL data channel resource, wherein the SL control information indicates resources being used for a current sidelink transmission, and/or future sidelink transmissions. receiving, by a first user equipment, UE, a UE-specific radio resource control, RRC, signal for indicating a resource pool configuration and a sidelink configured grant, SL CG, configuration , the resource pool configuration comprising an indication of a plurality of transmission resources available for SL transmissions, and the SL CG configuration comprising an indication of a transmission resource from the plurality of transmission resources, the transmission resource for communicating a SL CG transmission between the first UE and a second UE; and transmitting , by the first UE, the SL CG transmission to the second UE using the transmission resource indicated by the SL CG configuration; characterized in that the transmission resource for communicating the SL CG transmission comprises a SL control channel resource and a SL data channel resource, and wherein transmitting the SL CG transmission comprises transmitting SL control information using the SL control channel resource and transmitting SL data using the SL data channel resource, wherein the SL control information indicates resources being used for a current sidelink transmission, and/or future sidelink transmissions.
An article conveyance apparatus comprising: a conveyer that conveys an article; a hopper that receives the article conveyed from the conveyer and discharges the article received, downstream; a discharge chute that discharges the article discharged from the hopper , downstream; a display unit that displays a hopper operation image (HOG) for reception of an operation to a discharge operation of the hopper ; and a discharge camera that captures a discharge image (EG), wherein the display unit displays the discharge image (EG) captured by the discharge camera , together with the hopper operation image (HOG); characterized in that that the discharge image (EG) indicates a state of the article that passes through the discharge chute and includes an outlet through which the article is discharged from the discharge chute . a conveyer that conveys an article; a hopper that receives the article conveyed from the conveyer and discharges the article received, downstream; a discharge chute that discharges the article discharged from the hopper , downstream; a display unit that displays a hopper operation image (HOG) for reception of an operation to a discharge operation of the hopper ; and a discharge camera that captures a discharge image (EG), wherein the display unit displays the discharge image (EG) captured by the discharge camera , together with the hopper operation image (HOG); characterized in that that the discharge image (EG) indicates a state of the article that passes through the discharge chute and includes an outlet through which the article is discharged from the discharge chute .
An activating transcription factor 5 (ATF5) peptide comprising a truncated ATF5 leucine zipper region, wherein the truncated ATF5 leucine zipper region has a D-amino acid sequence VAEAREELERLEARLGQARGEL (SEQ ID NO: 65).
A system comprising: at least one polygon having a plurality of reflective facets and a rotation axis parallel to the facets; a light source configured to transmit a light beam on the reflective facets of the at least one polygon ; at least one driver configured to rotate the at least one polygon along the rotation axis ; a controller configured to control at least one of the light source and the at least one driver , to produce, based on the light beam reflected from the reflective facets of the at least one polygon , a structured light pattern transmitted at a scene; and a sensor configured to sense reflections of the structured light pattern reflected from the scene and then transmitted back to the sensor by the reflective facets of the at least one polygon ; wherein the sensor is a line sensor positioned in parallel to the rotation axis of the at least one polygon ; characterised in that the at least one polygon comprises a first polygon positioned so as to receive the light beam from the light source , and a second polygon having a same rotation axis as the first polygon and further positioned so as to transmit the reflections of the light beam coming from the scene, to the sensor . at least one polygon having a plurality of reflective facets and a rotation axis parallel to the facets; a light source configured to transmit a light beam on the reflective facets of the at least one polygon ; at least one driver configured to rotate the at least one polygon along the rotation axis ; a controller configured to control at least one of the light source and the at least one driver , to produce, based on the light beam reflected from the reflective facets of the at least one polygon , a structured light pattern transmitted at a scene; and a sensor configured to sense reflections of the structured light pattern reflected from the scene and then transmitted back to the sensor by the reflective facets of the at least one polygon ; wherein the sensor is a line sensor positioned in parallel to the rotation axis of the at least one polygon ; characterised in that the at least one polygon comprises a first polygon positioned so as to receive the light beam from the light source , and a second polygon having a same rotation axis as the first polygon and further positioned so as to transmit the reflections of the light beam coming from the scene, to the sensor .
A system for heat treating an alloy steel component, comprising: a. a first enclosure ; b. a second enclosure opposed to the first enclosure , wherein the first and second enclosures define a chamber around only a portion of the alloy steel component; c. a heating element ; d. at least one drain port through at least one of the first enclosure or the second enclosure ; e. a vacuum pump connected to at least one of the first enclosure or the second enclosure ; f. an airtight chamber ; and characterized in that the heating element is provided in the chamber to heat the portion of the alloy steel component and further each of the first and second enclosures comprises an interface face adapted and configured to be placed against the alloy steel component, whereby the interface between each of the first and second enclosures and the alloy steel component is airtight. a. a first enclosure ; b. a second enclosure opposed to the first enclosure , wherein the first and second enclosures define a chamber around only a portion of the alloy steel component; c. a heating element ; d. at least one drain port through at least one of the first enclosure or the second enclosure ; e. a vacuum pump connected to at least one of the first enclosure or the second enclosure ; f. an airtight chamber ; and characterized in that the heating element is provided in the chamber to heat the portion of the alloy steel component and further each of the first and second enclosures comprises an interface face adapted and configured to be placed against the alloy steel component, whereby the interface between each of the first and second enclosures and the alloy steel component is airtight.