mhurhangee/patent-ind-claim-en huggingface dataset:
A headrest with a support structure and with at least one speaker basket (7.1, 7.2) for a speaker (6.1, 6.2) provided on the support structure , characterized in that the support structure transitions integrally into the speaker basket (7.1, 7.2) and forms the latter.
A process for permanent waving of keratin fibers, comprising the steps of: - applying onto the keratin fibers a composition comprising: (a) at least one organic alkaline agent having a pKa value of from 8.0 to 13.5; and (b) at least one polymeric thickener, wherein the composition has a pH of from 8.0 to 12, preferably from 8.5 to 11.5, and more preferably from 9.0 to 11.0, and wherein the composition comprises less than 1% by weight of a reducing agent relative to the total weight of the composition; and - heating the keratin fibers, wherein the (a) organic alkaline agent is selected from the group consisting of amino acids, in particular basic amino acids, such as arginine (Arg), histidine (His) and lysine (Lys), and oligomers of amino acids; monoamines selected from alkanolamines such as monoethanolamine; diamines; polyamines; guanidine and its derivatives; urea and its derivatives; and mixtures thereof. - applying onto the keratin fibers a composition comprising: (a) at least one organic alkaline agent having a pKa value of from 8.0 to 13.5; and (b) at least one polymeric thickener, wherein the composition has a pH of from 8.0 to 12, preferably from 8.5 to 11.5, and more preferably from 9.0 to 11.0, and wherein the composition comprises less than 1% by weight of a reducing agent relative to the total weight of the composition; and (a) at least one organic alkaline agent having a pKa value of from 8.0 to 13.5; and (b) at least one polymeric thickener, - heating the keratin fibers,
A latex composition for dip molding, the latex composition comprising: a carboxylic acid-modified nitrile-based copolymer latex; and a reactive compound having three or more branched chains and a reactive group at a terminal of each of the three or more branched chains, wherein the reactive group is one or more selected from the group consisting of an amine group, a hydroxy group, an epoxy group, a glycidyl group, and an isocyanate group; wherein each of the three or more branched chains included in the reactive compound includes a repeating unit represented by the following Formula 1, wherein A is an alkylene group having 2 to 5 carbon atoms, and n is an integer of 1 to 500; and wherein the reactive compound is included in 0.1 parts by weight to 5 parts by weight based on a solid content of 100 parts by weight of the carboxylic acid-modified nitrile-based copolymer latex. a carboxylic acid-modified nitrile-based copolymer latex; and a reactive compound having three or more branched chains and a reactive group at a terminal of each of the three or more branched chains, wherein the reactive group is one or more selected from the group consisting of an amine group, a hydroxy group, an epoxy group, a glycidyl group, and an isocyanate group; wherein each of the three or more branched chains included in the reactive compound includes a repeating unit represented by the following Formula 1, wherein A is an alkylene group having 2 to 5 carbon atoms, and n is an integer of 1 to 500; and wherein the reactive compound is included in 0.1 parts by weight to 5 parts by weight based on a solid content of 100 parts by weight of the carboxylic acid-modified nitrile-based copolymer latex.
A method of threading a yarn end into a ring traveller on a ring with a flange at a spinning station of a ring spinning machine, • in which the yarn end is sucked into a vacuum tube (A), by which the yarn end is positioned with respect to a bobbin and, subsequently, • an oblique threading section (N) of the yarn end is created and positioned at the flange of the ring , wherein said oblique threading section (N) of the yarn end is inclined by angle α with respect to the horizontal plane; • the oblique threading section (N) of the yarn end is formed by turning a pair of vertically situated and spaced apart positioning pins around a vertical axis (R) and thereby wrapping the yarn end between the bobbin and the vacuum tube (A) around the pair of vertically situated spaced-apart positioning pins , and in the concurrent motion of both positioning pins so that the oblique threading section (N) of the yarn end moves towards the flange of the ring , and the ring traveller is set into motion (B) by compressed air so that it is subsequently put onto the yarn end and the yarn end is threaded into the ring traveller in the area of the oblique threading section (N). • in which the yarn end is sucked into a vacuum tube (A), by which the yarn end is positioned with respect to a bobbin and, subsequently, • an oblique threading section (N) of the yarn end is created and positioned at the flange of the ring , wherein said oblique threading section (N) of the yarn end is inclined by angle α with respect to the horizontal plane; • the oblique threading section (N) of the yarn end is formed by turning a pair of vertically situated and spaced apart positioning pins around a vertical axis (R) and thereby wrapping the yarn end between the bobbin and the vacuum tube (A) around the pair of vertically situated spaced-apart positioning pins , and in the concurrent motion of both positioning pins so that the oblique threading section (N) of the yarn end moves towards the flange of the ring , and the ring traveller is set into motion (B) by compressed air so that it is subsequently put onto the yarn end and the yarn end is threaded into the ring traveller in the area of the oblique threading section (N).
A method for the production of acetic acid comprising: (A) reacting, (i) methanol, (ii) carbon monoxide, and (iii) water, in a carbonylation reactor in the presence of a carbonylation catalyst to produce a reactor mixture; (B) measuring an initial value for a reference component by Raman spectroscopic analysis with an uncoated probe or flow-through cell in contact with the reactor mixture; (C) measuring a value for the reference component and measuring the concentration of one or more components of interest in the reactor mixture by Raman spectroscopic analysis; (D) determining an Adjustment Ratio by dividing the initial value for the reference component by the value for the reference component; (E) calculating an Adjusted Value for the concentration of the component(s) of interest by multiplying the concentration of the component(s) of interest by the Adjustment Ratio; and (F) modifying at least one process condition in the carbonylation reactor or a separation unit, based upon the Adjusted Value. (A) reacting, (i) methanol, (ii) carbon monoxide, and (iii) water, in a carbonylation reactor in the presence of a carbonylation catalyst to produce a reactor mixture; (i) methanol, (ii) carbon monoxide, and (iii) water, (B) measuring an initial value for a reference component by Raman spectroscopic analysis with an uncoated probe or flow-through cell in contact with the reactor mixture; (C) measuring a value for the reference component and measuring the concentration of one or more components of interest in the reactor mixture by Raman spectroscopic analysis; (D) determining an Adjustment Ratio by dividing the initial value for the reference component by the value for the reference component; (E) calculating an Adjusted Value for the concentration of the component(s) of interest by multiplying the concentration of the component(s) of interest by the Adjustment Ratio; and (F) modifying at least one process condition in the carbonylation reactor or a separation unit, based upon the Adjusted Value.
A plating processing apparatus in which a plating object is immersed in a plating solution to form a plating layer on a surface of the plating object , the plating processing apparatus comprising: a plating tank containing the plating solution ; a power supply roller configured to be rotated while supplying electric power to the plating object , and to convey the plating object to be immersed into the plating solution contained in the plating tank and then moved to outside of the plating solution ; an anode case disposed inside the plating tank and held in electrical contact with the plating solution contained in the plating tank ; a control panel configured to control electric power supplied to the power supply roller and the anode case ; a first busbar electrically connecting the power supply roller and the control panel ; and a second busbar electrically connecting the anode case and the control panel , wherein the first busbar and the second busbar are each constituted by a plurality of busbar members each of which includes a copper-made base member and a titanium-made coating layer covering a surface of the base member , the first busbar and the second busbar include a first connection portion in which the busbar members are connected to each other and a second connection portion in which the busbar member is connected to the power supply roller , the anode case , or the control panel , characterized in that a portion of the busbar member other than the first connection portion and the second connection portion includes a gap which is a spacing distance between a surface of the copper-made base member and a surface of the titanium-made coating layer . a plating tank containing the plating solution ; a power supply roller configured to be rotated while supplying electric power to the plating object , and to convey the plating object to be immersed into the plating solution contained in the plating tank and then moved to outside of the plating solution ; an anode case disposed inside the plating tank and held in electrical contact with the plating solution contained in the plating tank ; a control panel configured to control electric power supplied to the power supply roller and the anode case ; a first busbar electrically connecting the power supply roller and the control panel ; and a second busbar electrically connecting the anode case and the control panel , wherein the first busbar and the second busbar are each constituted by a plurality of busbar members each of which includes a copper-made base member and a titanium-made coating layer covering a surface of the base member , the first busbar and the second busbar include a first connection portion in which the busbar members are connected to each other and a second connection portion in which the busbar member is connected to the power supply roller , the anode case , or the control panel , characterized in that a portion of the busbar member other than the first connection portion and the second connection portion includes a gap which is a spacing distance between a surface of the copper-made base member and a surface of the titanium-made coating layer .
A method for wireless communication implemented by a user equipment, UE, the method comprising: transmitting, to a base station, a report indicating a location of the UE; receiving , from the base station, an indication that the UE belongs to at least one group of UEs for a group-level resource allocation, wherein the group-level resource allocation is based at least in part on the location of the UE; receiving , from the base station, an allocation of resources comprising a pool of resources assigned to the at least one group of UEs; and reserving a subset of resources of the pool of resources for communication to at least one other UE. transmitting, to a base station, a report indicating a location of the UE; receiving , from the base station, an indication that the UE belongs to at least one group of UEs for a group-level resource allocation, wherein the group-level resource allocation is based at least in part on the location of the UE; receiving , from the base station, an allocation of resources comprising a pool of resources assigned to the at least one group of UEs; and reserving a subset of resources of the pool of resources for communication to at least one other UE.
A magnetic recording head, comprising: a first shield; a second shield; and a spin orbital torque (SOT) differential reader disposed between the first shield and the second shield, the SOT differential reader comprising: a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; and a cap layer disposed over the second spin hall effect layer. a first shield; a second shield; and a spin orbital torque (SOT) differential reader disposed between the first shield and the second shield, the SOT differential reader comprising: a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; and a cap layer disposed over the second spin hall effect layer. a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of ; and a cap layer disposed over the second spin hall effect layer.
An air bag device for a vehicle provided with at least two rows of seats including a front seat and a rear seat arranged in a front-rear direction, and configured such that relative positions of the front seat and the rear seat in the front-rear direction are changeable, the air bag device being mountable on a rear surface of a seatback of at least the front seat, comprising: an air bag configured to be deployed rearwardly into a shape having a cavity portion therein in a vehicle side view by gas to be supplied from an inflator , the air bag including shape holding means configured to hold the air bag itself in a shape having the cavity portion therein against a gas pressure of an inner space of the air bag, when being deployed, characterized in that the air bag includes an outer peripheral portion which constitutes an outer periphery of the air bag, and an inner peripheral portion which defines the inner space in cooperation with the outer peripheral portion, and constitutes an inner periphery of the air bag, and the shape holding means has two partition walls for separating the inner space into three divided spaces arranged in a vehicle width direction by connecting the outer peripheral portion and the inner peripheral portion within the inner space of the air bag at respective predetermined positions in the vehicle width direction, each of the partition walls is formed with a communication hole communicating the middle divided space with the right and left divided spaces of the three divided spaces, the airbag is provided with a gas inlet port for supplying the gas from an inflator into the middle divided space and a vent hole for discharging gas from the right and left divided spaces outwardly in vehicle width directions, respectively. an air bag configured to be deployed rearwardly into a shape having a cavity portion therein in a vehicle side view by gas to be supplied from an inflator , the air bag including shape holding means configured to hold the air bag itself in a shape having the cavity portion therein against a gas pressure of an inner space of the air bag, when being deployed, characterized in that the air bag includes an outer peripheral portion which constitutes an outer periphery of the air bag, and an inner peripheral portion which defines the inner space in cooperation with the outer peripheral portion, and constitutes an inner periphery of the air bag, and the shape holding means has two partition walls for separating the inner space into three divided spaces arranged in a vehicle width direction by connecting the outer peripheral portion and the inner peripheral portion within the inner space of the air bag at respective predetermined positions in the vehicle width direction, each of the partition walls is formed with a communication hole communicating the middle divided space with the right and left divided spaces of the three divided spaces, the airbag is provided with a gas inlet port for supplying the gas from an inflator into the middle divided space and a vent hole for discharging gas from the right and left divided spaces outwardly in vehicle width directions, respectively.
Animal hoof protector, comprising a base coupled onto the animal hoof, having a lower supporting sole ; a rear shield closing the base at the back; a protecting skin , attached and fixed onto the inner surface of the rear shield; and means for connecting the rear shield to the base , wherein: - The sole of the base has, from the rear edge and up to the neighbourhood of the front edge, an elastically flexible longitudinal central area , which allow transverse deformation of said sole; - The rear shield has a central opening which is limited at the upper and lower part thereof by a flexible upper stripe and lower stripe , and is provided with upper and lower front expansions, through which said shield is related to the walls of the base ; - The connecting means between the rear shield and base comprise two upper side connectors and two lower anchoring elements ; whose upper side connectors comprise corresponding flexible bands featuring limited elasticity, which are pivotally connected to upper front extensions of the shield and to upper connecting areas of the wall of the base , and whose lower side anchoring elements consist of at least one screw bolt passing through and fixing each lower front extension of the shield to lower connecting areas of the base wall, the animal hoof protector wherein the sole of the base has in the outer area, a longitudinal central area of a lower thickness than said sole so as to define the flexible longitudinal central area, the bottom of the longitudinal centra area of the sole of lower thickness is longitudinally crossed by alternate grooves and ribs , the sole of the base has a curved configuration, with convexity oriented towards the inner side of the base , and wherein the stripe that limits at the lower part thereof, the central opening of the shield, follows an upward angular layout, and is riveted by a spherical broadening on the vertex. - The sole of the base has, from the rear edge and up to the neighbourhood of the front edge, an elastically flexible longitudinal central area , which allow transverse deformation of said sole; - The rear shield has a central opening which is limited at the upper and lower part thereof by a flexible upper stripe and lower stripe , and is provided with upper and lower front expansions, through which said shield is related to the walls of the base ; - The connecting means between the rear shield and base comprise two upper side connectors and two lower anchoring elements ; whose upper side connectors comprise corresponding flexible bands featuring limited elasticity, which are pivotally connected to upper front extensions of the shield and to upper connecting areas of the wall of the base , and whose lower side anchoring elements consist of at least one screw bolt passing through and fixing each lower front extension of the shield to lower connecting areas of the base wall,
An amplifier comprising at least two amplifying elements (20a, 25a, 21 a, 26a) and a biasing circuit adapted to bias each amplifying element with a bias voltage, wherein the biasing circuit is adapted to vary the bias voltage such that each amplifying element is adapted to switch between switching and non-switching modes of operation in response to a binary bias control signal for selecting either the switching mode of operation or the non-switching mode of operation, the switching mode of operation being Class E and the non-switching mode of operation being Class AB, and wherein each amplifying element is coupled to a load via a reactive load network configured to yield a transient response whereby simultaneous imposition of substantial voltage across and substantial current through each amplifying element is avoided in the switching mode of operation and to present a load tuned to an operating frequency of the amplifier in the non-switching mode of operation, wherein the at least two amplifying elements are coupled in parallel. J Z