mhurhangee/patent-ind-claim-en huggingface dataset:
Bale opener for use in a feeding line of a biomass energy plant, the bale opener comprising - at least two disintegration members , wherein each disintegration member is rotatable around a respective rotation axis and in the direction of that rotation axis has a first end and a second end , - an inlet for feeding bales in a feeding direction to the disintegration members , - an outlet for discharging loosened bale material from the disintegration members , and - a drive system being operable to drive the disintegration members to rotate around their respective rotation axis , characterised in that each disintegration member is provided with a plurality of blades that are radially disposed in a mill-wheel arrangement, the blades extending outwardly from a radially inner edge to a radially outer edge and from a first edge at the first end to a second edge in a direction towards the second end , wherein under operation the first edges are moved in a direction of rotation transversely of the first edges so as to sweep the first edges in a scraping movement across the cross-section of the bales , and that the inlet is arranged opposite the first end of the disintegration members so as to feed the bales to a processing region at the first end of the disintegration members , wherein the two disintegration members are arranged so as to gear into each other by moving in a counter rotative manner under operation in order to sweep the blades of both disintegration members through an overlap volume. - at least two disintegration members , wherein each disintegration member is rotatable around a respective rotation axis and in the direction of that rotation axis has a first end and a second end , - an inlet for feeding bales in a feeding direction to the disintegration members , - an outlet for discharging loosened bale material from the disintegration members , and - a drive system being operable to drive the disintegration members to rotate around their respective rotation axis ,
A method for configuring component carriers in carrier aggregation, comprising: receiving a carrier aggregation capability from a selected user equipment, UE, at an enhanced Node B, eNode B, configured to provide service for a plurality of UEs within the eNode B's network, wherein the carrier aggregation capability from the selected UE includes a maximum number of component carriers supported for an uplink to the eNode B, a maximum number of component carriers supported for a downlink from the eNode B, a maximum bandwidth supported for the uplink and the downlink, and support of selected frequency bands at the UE; configuring a plurality of component carriers at the eNode B for the selected UE based on the carrier aggregation capability of the selected UE; broadcasting from the eNode B, a component carrier configuration message containing component carrier configuration information that is common to the plurality of UEs; communicating from the eNode B component carrier configuration information that is specific to one of the plurality of UEs using dedicated communication signaling to form configured component carriers; and activating selected configured component carriers at the eNode B for the selected UE based on bandwidth and quality of service needs of the selected UE. receiving a carrier aggregation capability from a selected user equipment, UE, at an enhanced Node B, eNode B, configured to provide service for a plurality of UEs within the eNode B's network, wherein the carrier aggregation capability from the selected UE includes a maximum number of component carriers supported for an uplink to the eNode B, a maximum number of component carriers supported for a downlink from the eNode B, a maximum bandwidth supported for the uplink and the downlink, and support of selected frequency bands at the UE; configuring a plurality of component carriers at the eNode B for the selected UE based on the carrier aggregation capability of the selected UE; broadcasting from the eNode B, a component carrier configuration message containing component carrier configuration information that is common to the plurality of UEs; communicating from the eNode B component carrier configuration information that is specific to one of the plurality of UEs using dedicated communication signaling to form configured component carriers; and activating selected configured component carriers at the eNode B for the selected UE based on bandwidth and quality of service needs of the selected UE.
Anon-therapeutic non-shivering cry other mogenesis method for locally reducing adipose tissue of a subject's body without lipid-rich cell disruption, the non-shivering cryothermogenesis being defined as a cold-induced increase in heat production not associated with a muscle activity of shivering, said method comprising: (a) applying at least one applicator of a cooling means to the subj ect's skin to a region wherein subcutaneous adipocytes tissue is white adipose tissue (WAT) or contains beigeing or browning adipocytes which refers to white adipocytes transformation into brown adipocytes by cold ; and (b) applying at least one additional applicator of said cooling means to a local region wherein adipose tissue reduction is desired, if said local region differs from the one defined in step (a); (c) said applicator of said cooling means maintaining skin superficial temperature between 4°C and 12°C, preferentially between 6°C and 10°C, more preferentially about 8°C; and (d) applying said applicators for a total period of time comprised between 20 and 60 min, preferentially between 30 and 50 min, more preferentially about 40 minutes. (a) applying at least one applicator of a cooling means to the subj ect's skin to a region wherein subcutaneous adipocytes tissue is white adipose tissue (WAT) or contains beigeing or browning adipocytes which refers to white adipocytes transformation into brown adipocytes by cold ; and (b) applying at least one additional applicator of said cooling means to a local region wherein adipose tissue reduction is desired, if said local region differs from the one defined in step (a); (c) said applicator of said cooling means maintaining skin superficial temperature between 4°C and 12°C, preferentially between 6°C and 10°C, more preferentially about 8°C; and (d) applying said applicators for a total period of time comprised between 20 and 60 min, preferentially between 30 and 50 min, more preferentially about 40 minutes.
A tape drive comprising: a housing defining an internal volume and comprising a thermally-insulated barrier ; a heat-generating element disposed in the internal volume; a thermally-conductive element , a first end of the thermally-conductive element disposed in the internal volume on one side of the thermally-insulated barrier and in thermal communication with the heat-generating element; and a heat dissipation unit disposed in an external volume outside of the internal volume, wherein a second end of the thermally-conductive element is disposed in the external volume on another side of the thermally-insulated barrier and is in thermal communication with the heat dissipation unit. a housing defining an internal volume and comprising a thermally-insulated barrier ; a heat-generating element disposed in the internal volume; a thermally-conductive element , a first end of the thermally-conductive element disposed in the internal volume on one side of the thermally-insulated barrier and in thermal communication with the heat-generating element; and a heat dissipation unit disposed in an external volume outside of the internal volume, wherein a second end of the thermally-conductive element is disposed in the external volume on another side of the thermally-insulated barrier and is in thermal communication with the heat dissipation unit.
A control method for a power supply in which a link capacitor is connected between an external load and a power relay assembly (PRA), wherein the PRA comprises a precharge resistor to control a power flow between a battery and the external load, a first main relay connected to a negative terminal of the battery, a second main relay connected to a positive terminal of the battery, and a precharge relay connected in parallel to the second main relay and in series to the precharge resistor, the control method comprising: initiating precharge; after the initiating of the precharge, measuring voltage of the link capacitor by measuring first, second, and third voltages V1, V2, and V3 of the link capacitor at different first, second, and third times T1, T2, and T3; calculating a capacitance C of the link capacitor using the first, second, and third voltages V1, V2, and V3; and terminating the pre-charge, characterised in that in the initiating of the precharge, a control unit outputs a relay control signal to turn on the pre-charge relay, and wherein in the terminating of the pre-charge, the control unit outputs a relay control signal to turn on the second main relay, and wherein the control unit determines a replacement time of the link capacitor by detecting a capacitance decrease of the link capacitor, which occurs with time of use, from the calculated capacitance C of the link capacitor. initiating precharge; after the initiating of the precharge, measuring voltage of the link capacitor by measuring first, second, and third voltages V1, V2, and V3 of the link capacitor at different first, second, and third times T1, T2, and T3; calculating a capacitance C of the link capacitor using the first, second, and third voltages V1, V2, and V3; and terminating the pre-charge, characterised in that in the initiating of the precharge, a control unit outputs a relay control signal to turn on the pre-charge relay, and wherein in the terminating of the pre-charge, the control unit outputs a relay control signal to turn on the second main relay, and
Crystallizer for continuous casting comprising a tubular body having at least one wall which defines a through longitudinal casting cavity and a plurality of longitudinal grooves made at least on one part of said at least one wall and open toward the outside thereof, characterized in that a covering binding , comprising one or more layers of a band of fiber material impregnated or pre-impregnated with a polymer material, is irremovably wound and polymerized around said external surface of said at least one wall .
Baling press for highly compacted compressed bales , with a packaging device which has a supply device for a web-like packaging material , in particular a film web, and a wrapping apparatus for applying an annular surrounding sleeve web , in particular a film sleeve, to the free lateral surfaces of the compressed bale held between press rams , wherein the wrapping apparatus is arranged so as to be movable relative to the compressed bale by a transport means , and the supply device is arranged in a manner separated spatially and kinematically from the wrapping apparatus , wherein the supply device is arranged in a stationary manner and has a receptacle for a web supply , which is in the form of a coil, of packaging material in an operating position, characterized in that the supply device has at least one further receptacle for a replacement coil in a standby position, wherein the receptacles are arranged on a frame on which controllable and driven conveying means , in particular driving rollers, for taking off the coil and transporting the packaging material are also arranged.
Shrink conveyor for allowing shrink in a continuous strip, wherein the shrink conveyor comprises a plurality of rollers, a frame that defines a plurality of roller positions fixed and spaced apart in a transport direction for holding the plurality of rollers in a mutually parallel orientation perpendicular to said transport direction and a first drive member, in particular comprising an endless belt, for driving the plurality of rollers, wherein each roller of the plurality of rollers comprises a roller body that is rotatable about a roller axis extending in an axial direction and a first driven part connected to said roller body coaxially to the roller axis, wherein the first driven part in a cross section parallel to the axial direction has a first drive profile, the shrink conveyor being characterized in that the first drive profile for at least three rollers of the plurality of rollers tapers, and in that the first drive member is arranged for rotating the plurality of rollers through contact with said first driven parts at a rotation speed in a transmission ratio to the speed of the first drive member that is defined by a diameter of the first driven part at a contact position of the first drive member along the respective first drive profiles, and in that the first drive member is movable with at least a vector component in a lateral direction parallel to the axial direction of the plurality of rollers in such a way that the first drive member contacts the first driven part of each roller of the at least three rollers at a different diameter for each roller.
A method for producing a knitted fabric implemented at least in regions in the form of a tube or hollow body, an arrangement of knit thread , weft thread , and warp thread systems in an at least biaxially reinforced flat-knitted structure, at least partially in the form of a tube or hollow body, is produced by a binding combination on a flat knitting machine having at least two knitting needle beds , a spiral-shaped circumferential weft thread being introduced by means of a weft thread guide in the tangential circumferential direction of the tubular or hollow flat-knitted structure (1.1), characterized in that the circumferential weft thread is guided before the warp threads of the active knitting needle bed by means of a system for integrating a circumferential weft thread , made of at least one transfer device for the weft thread guide including the weft thread and at least one weft thread dispenser (26.1) tracking the weft thread guide for a weft thread to be integrated circumferentially, and the weft thread guide including the weft thread is transferred from knitting needle bed to knitting needle bed at a freely selectable transfer position within or at the end of the knitting and working width in each case, wherein the one or more transfer devices are each implemented in parallel alignment and portable relative to the knitting needle beds , whereby the transfer position of the weft thread guide within the knitting and working width can be changed in a defined manner from knitting row (13, 13.1) to knitting row (13, 13.2), and/or the system for integrating a circumferential weft thread comprises at least one stationary transfer device wherein the transfer is performed at a fixed transfer position for the case of a constant diameter along the longitudinal direction of the tubular or hollow knitted fabric (1.1), or offset by at least one needle for the case of a slightly variable diameter along the longitudinal direction of the tubular or hollow knitted fabric (1.1), wherein the transfer position can be different for each knit row and is adapted accordingly.
Stun grenade having a main body and a fuse head with a rocker lever and primer charge with a delay charge, having at least an upper and only a lower blowout opening and also an effect charge which is incorporated in a central chamber of the stun grenade , wherein the primer charge and the chamber are oriented or adapted to one another in such a manner that said primer charge can act from above on the effect charge of the chamber and ignite it, wherein the stun grenade has a central axis (M), characterized in that the one lower blowout opening is configured as an eccentric bore.
A refrigerant composition comprising: a. 11-22 weight percent difluoromethane; b. 46-59 weight percent pentafluoroethane; and c. 21-35 weight percent 2,3,3,3-tetrafluoropropene. a. 11-22 weight percent difluoromethane; b. 46-59 weight percent pentafluoroethane; and c. 21-35 weight percent 2,3,3,3-tetrafluoropropene.
An optical product comprising: a substrate; and a composite coating, the composite coating comprising: i. a first layer comprising a polyionic binder, and ii. a second layer comprising: a) insoluble particles that absorb electromagnetic energy, and b) insoluble particles that absorb relatively little visible light, that is, they absorb less than 30% of the amount of visible light that the insoluble particles a) that absorb electromagnetic energy absorb in the visible light in the range of from 400 nm to 700 nm, wherein each of said first layer and said second layer includes a binding group component which together form a complementary binding group pair by electrostatic binding, wherein the insoluble particles a) that absorb electromagnetic energy comprise a pigment, and the insoluble particles b) that absorb relatively little visible light comprise a metal oxide, preferably one or more of silicon dioxide, titanium dioxide, cerium dioxide, zinc oxide, aluminum oxide, tin oxide, or antimony pentoxide. a substrate; and a composite coating, the composite coating comprising: i. a first layer comprising a polyionic binder, and ii. a second layer comprising: a) insoluble particles that absorb electromagnetic energy, and b) insoluble particles that absorb relatively little visible light, that is, they absorb less than 30% of the amount of visible light that the insoluble particles a) that absorb electromagnetic energy absorb in the visible light in the range of from 400 nm to 700 nm, i. a first layer comprising a polyionic binder, and ii. a second layer comprising: a) insoluble particles that absorb electromagnetic energy, and b) insoluble particles that absorb relatively little visible light, that is, they absorb less than 30% of the amount of visible light that the insoluble particles a) that absorb electromagnetic energy absorb in the visible light in the range of from 400 nm to 700 nm, wherein each of said first layer and said second layer includes a binding group component which together form a complementary binding group pair by electrostatic binding, wherein the insoluble particles a) that absorb electromagnetic energy comprise a pigment, and the insoluble particles b) that absorb relatively little visible light comprise a metal oxide, preferably one or more of silicon dioxide, titanium dioxide, cerium dioxide, zinc oxide, aluminum oxide, tin oxide, or antimony pentoxide.
Control method for controlling a dehumidifier wheel , comprising sanitizing said dehumidifier wheel before restarting said dehumidifier wheel after a shutdown, characterized in that said sanitizing comprises rotating said dehumidifier wheel for a set number of revolutions (G), during said rotating said sanitizing prevents a flow of process air from flowing into said dehumidifier wheel , and enables a flow of regenerating air , which is heated to a set temperature (T), to flow into said dehumidifier wheel , or said sanitizing comprises rotating said dehumidifier wheel for a set number of revolutions (G), during said rotating said sanitizing enables a flow of process air to flow into said dehumidifier wheel and to exit into an external environment (D), and enables a flow of regenerating air , which is heated to a set temperature (T), to flow into said dehumidifier wheel .
A resin comprising a unit represented by the following Chemical Formula 1: in Chemical Formula 1, Ar1 and Ar2 are the same as or different from each other, and are each independently a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group, R1 is hydrogen; or a substituted or unsubstituted alkyl group, r1 is an integer from 0 to 2, and when r1 is 2, two R1's are the same as or different from each other, L is a direct bond; or -CO-L'-, L' is a substituted or unsubstituted arylene group, X1 to X4 are the same as or different from each other, and are each independently O; or S, Z1 and Z2 are the same as or different from each other, and are each independently a substituted or unsubstituted alkylene group; or a substituted or unsubstituted cycloalkylene group, and a and b are the same as or different from each other, and are each independently an integer from 1 to 10, and when a and b are each 2 or higher, structures in each parenthesis are the same as or different from each other, and * means a moiety linked to the main chain of the resin. Ar1 and Ar2 are the same as or different from each other, and are each independently a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group, R1 is hydrogen; or a substituted or unsubstituted alkyl group, r1 is an integer from 0 to 2, and when r1 is 2, two R1's are the same as or different from each other, L is a direct bond; or -CO-L'-, L' is a substituted or unsubstituted arylene group, X1 to X4 are the same as or different from each other, and are each independently O; or S, Z1 and Z2 are the same as or different from each other, and are each independently a substituted or unsubstituted alkylene group; or a substituted or unsubstituted cycloalkylene group, and a and b are the same as or different from each other, and are each independently an integer from 1 to 10, and when a and b are each 2 or higher, structures in each parenthesis are the same as or different from each other, and * means a moiety linked to the main chain of the resin.
An optoelectronic device, comprising: a semiconductor die ; and an array of optoelectronic cells , which are formed on the semiconductor die and comprise: first epitaxial layers defining a lower distributed Bragg-reflector (DBR) stack; second epitaxial layers formed over the lower DBR stack, defining a quantum well structure; third epitaxial layers , formed over the quantum well structure, defining an upper DBR stack; and electrodes formed over the upper DBR stack, wherein the array comprises a first set of the optoelectronic cells that are configured to emit laser radiation in response to an excitation current injected into the quantum well structure via the electrodes and a second set of the optoelectronic cells in which the electrodes are configured so as not to inject an excitation current into the quantum well structure, so that the optoelectronic cells in the second set do not emit the laser radiation, characterized in that the second set of the optoelectronic cells is interleaved on the semiconductor die with the first set of the optoelectronic cells . a semiconductor die ; and an array of optoelectronic cells , which are formed on the semiconductor die and comprise: first epitaxial layers defining a lower distributed Bragg-reflector (DBR) stack; second epitaxial layers formed over the lower DBR stack, defining a quantum well structure; third epitaxial layers , formed over the quantum well structure, defining an upper DBR stack; and electrodes formed over the upper DBR stack, first epitaxial layers defining a lower distributed Bragg-reflector (DBR) stack; second epitaxial layers formed over the lower DBR stack, defining a quantum well structure; third epitaxial layers , formed over the quantum well structure, defining an upper DBR stack; and electrodes formed over the upper DBR stack, wherein the array comprises a first set of the optoelectronic cells that are configured to emit laser radiation in response to an excitation current injected into the quantum well structure via the electrodes and a second set of the optoelectronic cells in which the electrodes are configured so as not to inject an excitation current into the quantum well structure, so that the optoelectronic cells in the second set do not emit the laser radiation, characterized in that the second set of the optoelectronic cells is interleaved on the semiconductor die with the first set of the optoelectronic cells .