mhurhangee/patent-ind-claim-en huggingface dataset:
A method for recovery of platinum group metals from a spent catalyst, the method comprising: obtaining a catalyst particulate material comprising platinum group metals from said spent catalyst wherein said particulate material has a predetermined grain size; mixing said catalyst particulate material with a solid chlorine-containing material and a solid silicon-containing material in a reaction zone, wherein said solid silicon-containing material is in the range of 50 gram to 2 kilogram per each kilogram of the spent catalyst; subjecting said mixture in said reaction zone to a predetermined temperature for a predetermined time period; thereby reacting said platinum group metals with said solid chlorine-containing material and said solid silicon-containing material; and provide a volatile platinum group metal-containing chloride product in said reaction zone; treating said reaction zone with oxygen-containing gas; cooling said volatile platinum group metal-containing chloride product in a cooling zone to convert said volatile platinum group metal-containing chloride product into a solid phase platinum group metal-containing materials. obtaining a catalyst particulate material comprising platinum group metals from said spent catalyst wherein said particulate material has a predetermined grain size; mixing said catalyst particulate material with a solid chlorine-containing material and a solid silicon-containing material in a reaction zone, wherein said solid silicon-containing material is in the range of 50 gram to 2 kilogram per each kilogram of the spent catalyst; subjecting said mixture in said reaction zone to a predetermined temperature for a predetermined time period; thereby reacting said platinum group metals with said solid chlorine-containing material and said solid silicon-containing material; and provide a volatile platinum group metal-containing chloride product in said reaction zone; treating said reaction zone with oxygen-containing gas; cooling said volatile platinum group metal-containing chloride product in a cooling zone to convert said volatile platinum group metal-containing chloride product into a solid phase platinum group metal-containing materials.
An apparatus for inspecting stacking of electrodes of a secondary battery, the apparatus, comprising: a separator supply device configured to supply a separator (s); a stacking main body having a stacking table formed on a first surface thereof and configured to allow the separator to be stacked on the stacking table; a stacking jig configured to stack an electrode plate (e1, e2) on the separator stacked on the stacking main body; a fixing jig configured to fix a first surface of the electrode plate in a stacking direction and comprising an open hole ; a lighting device configured to emit light from the first surface of the stacking table to allow the light to pass through the separator and the electrode plate; the fixing jig being disposed on a path of the light that is emitted from the lighting device and passes through the separator and the electrode plate such that the open hole of the fixing jig is positioned on an extension line of the path of the light that passes through the separator and the electrode plate so that the light passing through the separator and the electrode plate passes through the open hole of the fixing jig; and a capturing unit configured to capture an image of the light that has passed through the separator, the electrode plate, and the open hole of the fixing jig. a separator supply device configured to supply a separator (s); a stacking main body having a stacking table formed on a first surface thereof and configured to allow the separator to be stacked on the stacking table; a stacking jig configured to stack an electrode plate (e1, e2) on the separator stacked on the stacking main body; a fixing jig configured to fix a first surface of the electrode plate in a stacking direction and comprising an open hole ; a lighting device configured to emit light from the first surface of the stacking table to allow the light to pass through the separator and the electrode plate; the fixing jig being disposed on a path of the light that is emitted from the lighting device and passes through the separator and the electrode plate such that the open hole of the fixing jig is positioned on an extension line of the path of the light that passes through the separator and the electrode plate so that the light passing through the separator and the electrode plate passes through the open hole of the fixing jig; and a capturing unit configured to capture an image of the light that has passed through the separator, the electrode plate, and the open hole of the fixing jig.
A cannula assembly comprising: a stepped cannula ; and a reservoir comprising a material configured to be delivered through the cannula, wherein the stepped cannula has an exterior diameter, a distal end, a proximal end and a lumen extending between the proximal and distal ends, the stepped cannula comprising two or more co-axially disposed segments, each segment having an exterior diameter that defines the exterior diameter of the cannula, wherein the exterior diameter of the segments decreases from the proximal end to the distal end of the cannula and wherein the stepped cannula is adapted for delivery of the material to the central nervous system; and wherein the reservoir is operably connected to the lumen of the cannula, wherein the stepped cannula is adapted to fit a stereotactic frame and wherein the material configured to be delivered comprises an adeno-associated virus (AAV) vector and wherein the material configured to be delivered is suitable for delivery to the central nervous system.
A system for generating a vanishing illusion, the system comprising: a first room ; a second room , wherein the second room mirrors the first room ; a wall separating the first room from the second room , wherein the wall comprises: a transition glass comprising a mirrored portion and a transparent portion ; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame , a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion . a first room ; a second room , wherein the second room mirrors the first room ; a wall separating the first room from the second room , wherein the wall comprises: a transition glass comprising a mirrored portion and a transparent portion ; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame , a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion . a transition glass comprising a mirrored portion and a transparent portion ; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame , a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion .
An electrical isolator (10; 210; 310; 410) comprising: a first fluid-carrying member (12; 212; 312; 412); a second fluid-carrying member (14; 214; 314; 414) spaced apart from the first fluid-carrying member (12; 212; 312; 412) to form a gap; a resistive, semi-conductive or non-conductive component (24; 224; 324; 424) extending across the gap and bonded to the first and second fluid-carrying members so as to provide a fluid tight seal between the first fluid-carrying member (12; 212; 312; 412) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424) and between the second fluid-carrying member (14; 214; 314; 414) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424); and a reinforcing composite (30; 230; 330; 430) encircling the first fluid-carrying member, the second fluid-carrying member (14; 214; 314; 414) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424), wherein the resistive, semi-conductive or non-conductive component comprises an annular liner extending coaxially with and between respective wet surfaces of the first and second fluid-carrying members, characterised in that the resistive, semi-conductive or non-conductive component is bonded to the first and second fluid-carrying members by a bonding material provided between the resistive, semi-conductive or non-conductive component and the first fluid-carrying member (12; 212; 312; 412) and between the resistive, semi-conductive or non-conductive component (24; 224; 324; 424) and the second fluid-carrying member (14; 214; 314; 414). a first fluid-carrying member (12; 212; 312; 412); a second fluid-carrying member (14; 214; 314; 414) spaced apart from the first fluid-carrying member (12; 212; 312; 412) to form a gap; a resistive, semi-conductive or non-conductive component (24; 224; 324; 424) extending across the gap and bonded to the first and second fluid-carrying members so as to provide a fluid tight seal between the first fluid-carrying member (12; 212; 312; 412) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424) and between the second fluid-carrying member (14; 214; 314; 414) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424); and a reinforcing composite (30; 230; 330; 430) encircling the first fluid-carrying member, the second fluid-carrying member (14; 214; 314; 414) and the resistive, semi-conductive or non-conductive component (24; 224; 324; 424), wherein the resistive, semi-conductive or non-conductive component comprises an annular liner extending coaxially with and between respective wet surfaces of the first and second fluid-carrying members, characterised in that the resistive, semi-conductive or non-conductive component is bonded to the first and second fluid-carrying members by a bonding material provided between the resistive, semi-conductive or non-conductive component and the first fluid-carrying member (12; 212; 312; 412) and between the resistive, semi-conductive or non-conductive component (24; 224; 324; 424) and the second fluid-carrying member (14; 214; 314; 414).
An assembly for supporting and guiding a drive shaft for an aircraft turbine engine about an axis (X), comprising at least one rolling element bearing intended to be mounted around said shaft and a bearing support comprising a cylindrical housing for receiving an outer ring of said bearing , said outer ring comprising a first cylindrical portion defining a rolling track for the rolling element, an annular flange for fixing to said bearing support and a second cylindrical portion connecting the first portion to the flange and comprising an annular row of through openings and delimiting between them columns conferring flexibility on the outer ring , said assembly comprising a device for axially retaining the first portion of the outer ring inside the housing of the bearing support when the second portion breaks and the first portion is disengaged from the bearing support , said retaining device comprising first claw teeth disposed around the first portion and configured to cooperate with complementary second claw teeth inside the housing of the bearing support , the first claw teeth having their outer peripheries free which are configured to cooperate by wedge effect in a tangential direction with complementary inner surfaces of the housing of the bearing support , when the aforementioned disengagement occurs; and/or the second claw teeth having their inner peripheries free which are configured to cooperate by wedge effect in the tangential direction with complementary outer surfaces of the outer ring , when the aforementioned disengagement occurs, characterised in that the complementary surfaces of one of the elements selected from the bearing support and the outer ring are separated by a circumferential groove from the claw teeth of that element .
A vibration power generator comprising: a first substrate and a second substrate configured to be moved relative to each other by external vibration while remaining opposite each other; a group of a plurality of electrets arranged in the relative movement direction on one surface side of the first substrate ; and first and second output terminals configured for being connected to at least one power supply load , and a group of a plurality of electrodes arranged in the relative movement direction on a surface side of the second substrate opposite to the group of electrets , the group of electrodes including first current collecting electrodes and second current collecting electrodes , the first current collecting electrodes being electrically connected to the first output terminal and the second current collecting electrodes being electrically connected to the second output terminal for supplying power generated by the external vibration to the at least one power supply load , characterized in that the group of electrodes further includes at least one ground electrode corresponding to at least one pair of current collecting electrodes from pairs of current collecting electrodes arranged on the second substrate , the pair of current collecting electrodes each comprising one first current collecting electrode and one second current collecting electrode arranged adjacent to one another, wherein the ground electrode is provided between the first current collecting electrode and the second current collecting electrode constituting the pair corresponding to the ground electrode and grounded. a first substrate and a second substrate configured to be moved relative to each other by external vibration while remaining opposite each other; a group of a plurality of electrets arranged in the relative movement direction on one surface side of the first substrate ; and first and second output terminals configured for being connected to at least one power supply load , and a group of a plurality of electrodes arranged in the relative movement direction on a surface side of the second substrate opposite to the group of electrets , the group of electrodes including first current collecting electrodes and second current collecting electrodes , the first current collecting electrodes being electrically connected to the first output terminal and the second current collecting electrodes being electrically connected to the second output terminal for supplying power generated by the external vibration to the at least one power supply load , characterized in that the group of electrodes further includes at least one ground electrode corresponding to at least one pair of current collecting electrodes from pairs of current collecting electrodes arranged on the second substrate , the pair of current collecting electrodes each comprising one first current collecting electrode and one second current collecting electrode arranged adjacent to one another, wherein the ground electrode is provided between the first current collecting electrode and the second current collecting electrode constituting the pair corresponding to the ground electrode and grounded.
A packet processing method, comprising: receiving (S310), by a first gateway device by using a first link, a first one-arm bidirectional forwarding detection BFD echo packet returned by a network device, wherein the first one-arm BFD echo packet comprises identification information, and the identification information is used to uniquely identify a second gateway device that sent the first one-arm BFD echo packet to the network device; determining (S320), by the first gateway device based on the identification information, to forward the first one-arm BFD echo packet to the second gateway device; and sending (S330), by the first gateway device, the first one-arm BFD echo packet to the second gateway device; wherein the network device is multi-homed connected to the first gateway device and the second gateway device, the network device is connected to the first gateway device by using the first link, the network device is connected to the second gateway device by using a second link, and the first gateway device and the second gateway device form a multi-active gateway; wherein the identification information is a first my discriminator MD and/or a first your discriminator YD carried in the first one-arm BFD echo packet. receiving (S310), by a first gateway device by using a first link, a first one-arm bidirectional forwarding detection BFD echo packet returned by a network device, wherein the first one-arm BFD echo packet comprises identification information, and the identification information is used to uniquely identify a second gateway device that sent the first one-arm BFD echo packet to the network device; determining (S320), by the first gateway device based on the identification information, to forward the first one-arm BFD echo packet to the second gateway device; and sending (S330), by the first gateway device, the first one-arm BFD echo packet to the second gateway device; wherein the network device is multi-homed connected to the first gateway device and the second gateway device, the network device is connected to the first gateway device by using the first link, the network device is connected to the second gateway device by using a second link, and the first gateway device and the second gateway device form a multi-active gateway; wherein the identification information is a first my discriminator MD and/or a first your discriminator YD carried in the first one-arm BFD echo packet.
Use of palladium-platinum system comprising palladium layer covered with a platinum overlayer consisting of 1 to 10 platinum monolayers deposited on palladium for storing hydrogen.
An intravascular blood flow measurement device , comprising: - a body suitable for placement inside a blood vessel of a living being and extending along a longitudinal direction (L); - an expandable body section of the body, having a longitudinal extension in the longitudinal direction and a cross-sectional area perpendicular to the longitudinal direction that is controllably and reversibly expandable to assume a respective one of at least two different predetermined expanded sizes associated with at least two respective values of an expanded cross sectional area of the expandable body section; - a controllable actuator arranged and configured to set the expandable body section to one of the at least two sizes; and - a pressure sensor unit comprising at least one pressure sensor arranged on the body within the longitudinal extension of the expandable body section, the pressure sensor unit being configured to provide, for each of at least three values of cross sectional area of the body, including the at least two values of the expanded cross-sectional area of the expandable body section, a respective sequence of pressure signals indicative of a pressure of blood flow in the blood vessel over a predetermined measuring time span defined with respect to a heart cycle period. - a body suitable for placement inside a blood vessel of a living being and extending along a longitudinal direction (L); - an expandable body section of the body, having a longitudinal extension in the longitudinal direction and a cross-sectional area perpendicular to the longitudinal direction that is controllably and reversibly expandable to assume a respective one of at least two different predetermined expanded sizes associated with at least two respective values of an expanded cross sectional area of the expandable body section; - a controllable actuator arranged and configured to set the expandable body section to one of the at least two sizes; and - a pressure sensor unit comprising at least one pressure sensor arranged on the body within the longitudinal extension of the expandable body section, the pressure sensor unit being configured to provide, for each of at least three values of cross sectional area of the body, including the at least two values of the expanded cross-sectional area of the expandable body section, a respective sequence of pressure signals indicative of a pressure of blood flow in the blood vessel over a predetermined measuring time span defined with respect to a heart cycle period.
Road construction machine, in particular asphalt paver or a material transfer vehicle (MTV), comprising: an operator platform comprising a dashboard, the dashboard being attached to a dashboard holder which is movable horizontally between a first lateral end position and a second lateral end position on a rail guide system , wherein the rail guide system comprises - a first upper guide rail having a circular cross section, - a second lower guide rail having a rectangular cross section, and - at least three bearings , wherein a first bearing is formed as a slide bearing with a sliding sleeve being guided on the first upper guide rail , wherein a second bearing is formed as a ball bearing with a first roller running on a vertically oriented outer surface of the second lower guide rail , and wherein a third bearing is formed as a ball bearing with at least one second roller running on a horizontally oriented outer surface of the second lower guide rail . an operator platform comprising a dashboard, the dashboard being attached to a dashboard holder which is movable horizontally between a first lateral end position and a second lateral end position on a rail guide system , wherein the rail guide system comprises - a first upper guide rail having a circular cross section, - a second lower guide rail having a rectangular cross section, and - at least three bearings , - a first upper guide rail having a circular cross section, - a second lower guide rail having a rectangular cross section, and - at least three bearings , wherein a first bearing is formed as a slide bearing with a sliding sleeve being guided on the first upper guide rail , wherein a second bearing is formed as a ball bearing with a first roller running on a vertically oriented outer surface of the second lower guide rail , and wherein a third bearing is formed as a ball bearing with at least one second roller running on a horizontally oriented outer surface of the second lower guide rail .
A pharmaceutical composition comprising: (A) compound A: or a pharmaceutically acceptable salt thereof in an amount of 5% to 25% by weight of the total composition; a filler; a disintegrant; and a lubricant, wherein the filler comprises lactose monohydrate in an amount of 50% to 65% by weight of the total composition; and (B) a coating formulation comprising polyvinyl alcohol. (A) compound A: or a pharmaceutically acceptable salt thereof in an amount of 5% to 25% by weight of the total composition; a filler; a disintegrant; and a lubricant, wherein the filler comprises lactose monohydrate in an amount of 50% to 65% by weight of the total composition; and (B) a coating formulation comprising polyvinyl alcohol.