mhurhangee/ep-ind-claims huggingface dataset:
A device for brain stimulation, comprising: an implantable pulse generator; a lead coupleable to the implantable pulse generator and having a longitudinal surface, a proximal end and a distal end, the lead comprising a lead body; a plurality of electrodes disposed along the longitudinal surface of the lead near the distal end of the lead comprising: a first set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a first longitudinal position along the lead; and a second set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a second longitudinal position along the lead; and an electrode positioned far away, characterised in that the device is programmed for incrementally shifting from monopolar stimulation, in which one or more of the segmented electrodes of the second set of segmented electrodes is of a first polarity and the electrode positioned far away is of a second polarity different from the first polarity, to multipolar stimulation, in which one or more of the segmented electrodes of the second set of segmented electrodes is/are of a different polarity than another one or more of the segmented electrodes of the second set of segmented electrodes. an implantable pulse generator; a lead coupleable to the implantable pulse generator and having a longitudinal surface, a proximal end and a distal end, the lead comprising a lead body; a plurality of electrodes disposed along the longitudinal surface of the lead near the distal end of the lead comprising: a first set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a first longitudinal position along the lead; and a second set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a second longitudinal position along the lead; and an electrode positioned far away, characterised in that a first set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a first longitudinal position along the lead; and a second set of segmented electrodes comprising at least two segmented electrodes disposed around a circumference of the lead at a second longitudinal position along the lead; and an electrode positioned far away, characterised in that the device is programmed for incrementally shifting from monopolar stimulation, in which one or more of the segmented electrodes of the second set of segmented electrodes is of a first polarity and the electrode positioned far away is of a second polarity different from the first polarity, to multipolar stimulation, in which one or more of the segmented electrodes of the second set of segmented electrodes is/are of a different polarity than another one or more of the segmented electrodes of the second set of segmented electrodes.
A mechanism for providing optical image stabilization in at least one direction in a digital camera, comprising: a first plurality of springs (502a, 502b, 502c, 502d) connected at a lower end to a plate or base and at an upper end (504a, 504b, 504c, 504d) to a rigid upper frame; and characterized in that a second plurality of springs (508a, 508b) is connected at an upper end to the rigid upper frame and at the lower end (514a, 514b) to a plate or base that is rigidly connected to a lens or to a lens carrier carrying the lens, the lens having a lens optical axis extending in the X-direction, wherein the first plurality of springs (502a, 502b, 502c, 502d) has low stiffness in a first direction, which is in the X-direction, and high stiffness in a second direction orthogonal to the first direction, wherein the second plurality of springs (508a, 508b) has high stiffness in the first direction, and low stiffness in the second direction; and wherein the lens is accommodated between the first plurality of springs (502a, 502c, 502d, 508) and between the second plurality of springs (508a, 508b) such that the optical axis of lens is at a height between the upper ends and the lower ends of both pluralities of springs (502a, 502b, 502c, 502d, 508a, 508b). a first plurality of springs (502a, 502b, 502c, 502d) connected at a lower end to a plate or base and at an upper end (504a, 504b, 504c, 504d) to a rigid upper frame; and characterized in that a second plurality of springs (508a, 508b) is connected at an upper end to the rigid upper frame and at the lower end (514a, 514b) to a plate or base that is rigidly connected to a lens or to a lens carrier carrying the lens, the lens having a lens optical axis extending in the X-direction, wherein the first plurality of springs (502a, 502b, 502c, 502d) has low stiffness in a first direction, which is in the X-direction, and high stiffness in a second direction orthogonal to the first direction, wherein the second plurality of springs (508a, 508b) has high stiffness in the first direction, and low stiffness in the second direction; and wherein the lens is accommodated between the first plurality of springs (502a, 502c, 502d, 508) and between the second plurality of springs (508a, 508b) such that the optical axis of lens is at a height between the upper ends and the lower ends of both pluralities of springs (502a, 502b, 502c, 502d, 508a, 508b).
A chimeric antigen receptor comprising: (a) an antigen binding domain of an anti-HLA-DR antibody comprising an anti-HLA-DR heavy chain variable region and an anti-HLA-DR light chain variable region; (b) a CD8 a hinge domain; ( c) a CD8 a transmembrane domain; ( d) a CD28 costimulatory signaling region and/or a 4-IBB costimulatory signaling region; and (e) a CD3 zeta signaling domain; wherein the variable regions comprise: (a) a heavy chain variable region CDRH1 comprising the amino acid sequence of GFSLTSYG (SEQ ID NO: 1), a heavy chain variable region CDRH2 comprising the amino acid sequence ofIWSDGST (SEQ ID NO: 3), a heavy chain variable region CDRH3 comprising the amino acid sequence of ASHYGSTLAFAS (SEQ ID NO:5), a light chain variable region CDRL1 comprising the amino acid sequence ofVNIYSY (SEQ ID NO: 11), a light chain variable region CDRL2 comprising the amino acid sequence of NAK (SEQ ID NO: 13), and a light chain variable region CDRL3 comprising the amino acid sequence of QHHYGTFT (SEQ ID NO: 15); or (b) a heavy chain variable region CDRH1 comprising the amino acid sequence of GFTFSNYW (SEQ ID NO: 2), a heavy chain variable region CDRH2 comprising the amino acid sequence ofIRFKSHNYAT (SEQ ID NO: 4), a heavy chain variable region CDRH3 comprising the amino acid sequence of TRRIGNSDYDWWYFDV (SEQ ID NO:6), a light chain variable region CDRL1 comprising the amino acid sequence of QNVGNN (SEQ ID NO: 12), a light chain variable region CDRL2 comprising the amino acid sequence of SAS (SEQ ID NO: 14), and a light chain variable region CDRL3 comprising the amino acid sequence of QQTNTYPFT (SEQ ID NO: 16). (a) a heavy chain variable region CDRH1 comprising the amino acid sequence of GFSLTSYG (SEQ ID NO: 1), a heavy chain variable region CDRH2 comprising the amino acid sequence ofIWSDGST (SEQ ID NO: 3), a heavy chain variable region CDRH3 comprising the amino acid sequence of ASHYGSTLAFAS (SEQ ID NO:5), a light chain variable region CDRL1 comprising the amino acid sequence ofVNIYSY (SEQ ID NO: 11), a light chain variable region CDRL2 comprising the amino acid sequence of NAK (SEQ ID NO: 13), and a light chain variable region CDRL3 comprising the amino acid sequence of QHHYGTFT (SEQ ID NO: 15); or (b) a heavy chain variable region CDRH1 comprising the amino acid sequence of GFTFSNYW (SEQ ID NO: 2), a heavy chain variable region CDRH2 comprising the amino acid sequence ofIRFKSHNYAT (SEQ ID NO: 4), a heavy chain variable region CDRH3 comprising the amino acid sequence of TRRIGNSDYDWWYFDV (SEQ ID NO:6), a light chain variable region CDRL1 comprising the amino acid sequence of QNVGNN (SEQ ID NO: 12), a light chain variable region CDRL2 comprising the amino acid sequence of SAS (SEQ ID NO: 14), and a light chain variable region CDRL3 comprising the amino acid sequence of QQTNTYPFT (SEQ ID NO: 16).
A conductive sleeved fastening system for attaching a first structure to a second structure, comprising: a first structure having a top surface and a first facing surface, with a first hole therein; a second structure having a second facing surface and a bottom surface, with a second hole therein; an electrically-conductive fastener having a fastener head and a fastener shank extending from said fastener head; an electrically-conductive fastener sleeve being configured to enter through said first hole and said second hole when said first hole and second hole are aligned, and being configured to receive said fastener shank of said fastener, the fastener sleeve further comprising a protruding end configured to extend beyond the bottom surface of the second structure when the fastener sleeve is arranged through said first hole and said second hole; and a nut configured to attach to the fastener shank, the nut having a counterbore formed therein, the counterbore having: a counterbore diameter sized to maintain a radial gap between an inward-facing surface of the counterbore and an outer surface of the fastener sleeve; and a counterbore depth sized to maintain an axial gap between a distal end of the fastener sleeve and a bottom surface of the counterbore; characterized in that the counterbore further comprises a fillet between the inward-facing surface and the bottom surface. a first structure having a top surface and a first facing surface, with a first hole therein; a second structure having a second facing surface and a bottom surface, with a second hole therein; an electrically-conductive fastener having a fastener head and a fastener shank extending from said fastener head; an electrically-conductive fastener sleeve being configured to enter through said first hole and said second hole when said first hole and second hole are aligned, and being configured to receive said fastener shank of said fastener, the fastener sleeve further comprising a protruding end configured to extend beyond the bottom surface of the second structure when the fastener sleeve is arranged through said first hole and said second hole; and a nut configured to attach to the fastener shank, the nut having a counterbore formed therein, the counterbore having: a counterbore diameter sized to maintain a radial gap between an inward-facing surface of the counterbore and an outer surface of the fastener sleeve; and a counterbore depth sized to maintain an axial gap between a distal end of the fastener sleeve and a bottom surface of the counterbore; characterized in that the counterbore further comprises a fillet between the inward-facing surface and the bottom surface. a counterbore diameter sized to maintain a radial gap between an inward-facing surface of the counterbore and an outer surface of the fastener sleeve; and a counterbore depth sized to maintain an axial gap between a distal end of the fastener sleeve and a bottom surface of the counterbore; characterized in that the counterbore further comprises a fillet between the inward-facing surface and the bottom surface.
A combing machine comprising: a nipper shaft; a nipper frame movable back and forth by reciprocal rotation of the nipper shaft; a bottom nipper fixed to the nipper frame; a nipper arm pivotably connected to the nipper frame; a top nipper fixed to the nipper arm, wherein the top nipper is operable to hold or release lap in cooperation with the bottom nipper; a rotary shaft extends parallel to the nipper shaft; a supporting member one end of which is pivotally connected to the nipper arm; a first crank is fixed on the nipper shaft for rotation therewith, an end of which is connected to a link characterized in that an eccentric member is fixed on the rotary shaft for rotation therewith; and an other end of the supporting member is pivotably connected to the eccentric member; a second crank is fixed on the rotary shaft for rotation therewith, wherein the link is connected between the end of the first crank and an end of the second crank by pins (40, 41), respectively, wherein the first crank, the second crank and the link cooperate to form a four-bar linkage, wherein the second crank has a first member and a second member, wherein the first member has a hole through which the pin is inserted, wherein the second member is fixed on the rotary shaft for rotation therewith, wherein a position at which the second member is fixed to the first member is adjustable. a nipper shaft; a nipper frame movable back and forth by reciprocal rotation of the nipper shaft; a bottom nipper fixed to the nipper frame; a nipper arm pivotably connected to the nipper frame; a top nipper fixed to the nipper arm, wherein the top nipper is operable to hold or release lap in cooperation with the bottom nipper; a rotary shaft extends parallel to the nipper shaft; a supporting member one end of which is pivotally connected to the nipper arm; a first crank is fixed on the nipper shaft for rotation therewith, an end of which is connected to a link an eccentric member is fixed on the rotary shaft for rotation therewith; and an other end of the supporting member is pivotably connected to the eccentric member; a second crank is fixed on the rotary shaft for rotation therewith, wherein the link is connected between the end of the first crank and an end of the second crank by pins (40, 41), respectively, wherein the first crank, the second crank and the link cooperate to form a four-bar linkage, wherein the second crank has a first member and a second member, wherein the first member has a hole through which the pin is inserted, wherein the second member is fixed on the rotary shaft for rotation therewith, wherein a position at which the second member is fixed to the first member is adjustable.
Method for producing a via through a base layer of a microelectronic device, comprising forming a hole opening out onto at least a first face of the base layer and filling the hole with at least one first filling material forming an electrically conductive element, the method comprising at least partially removing said at least one first filling material to a depth, directed along a thickness dimension of the hole, from the first face of the base layer, the depth being strictly less than the thickness dimension of the hole, so as to produce a recessed portion, and the method further comprising a second, at least partial, filling of the recessed portion with at least one second filling material, characterised in that the second filling comprises forming at least one layer of said at least one second material in the recessed portion, then forming a clearance in said at least one layer by forming a closed contour configured to define a stack of a residual portion of said at least one layer circumscribed by the clearance.
A method for obtaining a promoted cobalt catalyst for ammonia synthesis via precipitation and thermal processing of a catalyst precursor, characterized in that the precipitation of the catalyst precursor is carried out in a circulation system, at a constant temperature in the range from 60 to 95 °C, by simultaneously dosing to demineralized water cobalt salts with the concentration of 50-250 g Co/dm 3 and cerium salts with the concentration not exceeding 200 g Ce/dm 3 and an alkali solution, at stable pH within the range from 8 to 10, and, after the precipitation is finished, the precipitated precursor is subjected to aging for 4 hours at the temperature of 60-95 °C and afterwards is filtered out and washed with water in order to obtain filtrate conductivity lower than 200 μS, and next, the precursor is dried at the temperature of 80-120 °C and afterwards it is calcined, ground, kneaded with barium nitrate for at least 1 hour to obtain a paste with wetness not exceeding 40% wt., after which aluminous cement is added and then the mixture is mixed for no longer than 40 minutes to obtain a paste which is formed using an extruder into shapes having a diameter of 0.8-6 mm, and the shapes are subsequently dried at the temperature of 110-150 °C to obtain the final product.
A method of molding a composite part or a portion of a part, the composite part being hollow and comprising at least one reinforcing layer based at least on a composite material comprising fibers, fabrics, or textiles impregnated with an impregnation matrix and at least one functional coating that is localized or complete, to improve the mechanical, thermal, physical, and/or chemical properties of said part, the method consisting in: - using a mold core including sealing means and at least one additional material providing thermal, mechanical, physical, and/or chemical properties that are additional to those of the other materials constituting the composite part, said mold core comprising a solid or liquid filler material that is removable, said filler material presenting a shape that is determined as a function of the part to be molded, said sealing means of the mold core covering the entire outside surface of the filler material,, said mold core being at least partially removable; - wrapping or draping the mold core with a composite material to shape the part; and - solidifying the composite material by applying heating; the method being characterized in that said at least one additional material is selected from any family of materials that increase the mechanical strength, toughness and the resistance to impacts of the sealing means or said at least one additional material is selected from any family of materials that increase the anti-abrasive properties of the sealing means and in using the mold core for first making the mould sealed during the molding method through sealing means and then using these sealing means, at least partly bonded to the composite part; the sealing means including at least one binder material selected from a family of materials comprising polyamide films, thermoplastic films or coatings, carbon nanotube papers "bucky papers", PTFE films, phenolic resins, or thermoset resins, phenolics resins, benzoxazines resins or epoxies resins, said sealing means remaining inside the part to constitute the function coating of the composite part. - using a mold core including sealing means and at least one additional material providing thermal, mechanical, physical, and/or chemical properties that are additional to those of the other materials constituting the composite part, said mold core comprising a solid or liquid filler material that is removable, said filler material presenting a shape that is determined as a function of the part to be molded, said sealing means of the mold core covering the entire outside surface of the filler material,, said mold core being at least partially removable; - wrapping or draping the mold core with a composite material to shape the part; and - solidifying the composite material by applying heating;
A signal transmission processing method, comprising: obtaining multiple channels of Common Public Radio Interface, CPRI, signals of a distributed base station that are sent by a Base Band Unit, BBU, of the distributed base station; encapsulating the obtained multiple channels of CPRI signals of the distributed base station into optical transport network, OTN, frames by adopting a Generic Mapping Procedure, GMP, mapping scheme, wherein different containers are selected according to different rates of interface signals of the distributed base station; and performing electro-optic conversion for the OTN frames obtained through the encapsulating to generate one channel of optical signal and transmitting the optical signal. obtaining multiple channels of Common Public Radio Interface, CPRI, signals of a distributed base station that are sent by a Base Band Unit, BBU, of the distributed base station; encapsulating the obtained multiple channels of CPRI signals of the distributed base station into optical transport network, OTN, frames by adopting a Generic Mapping Procedure, GMP, mapping scheme, wherein different containers are selected according to different rates of interface signals of the distributed base station; and performing electro-optic conversion for the OTN frames obtained through the encapsulating to generate one channel of optical signal and transmitting the optical signal.
A toggle-type open-close clamping structural assembly, comprising a lower tube clamp and an upper tube clamp oppositely arranged to clamping a tube, and comprising an upper pressing block used for lifting and lowering, characterized by comprising: a driving lever used for enabling the upper tube clamp to lift, lower and slide together with the upper pressing block, the driving lever is pivotally connected to the upper pressing block, the upper tube clamp and one end of the driving lever are overlappingly disposed in a groove reserved on the upper pressing block, and the other end of the driving lever is abutted against a fixed part serving as fixing reference, the driving lever swings under an action of the fixed part to lift the upper tube clamp, and the height variation of the upper tube clamp is larger than that of the upper pressing block to generate a relative displacement between the upper tube clamp and the upper pressing block.
Arrangement for moisture-tight covering of the connection point of electrical conductors comprising electrical lines (1, 2a-2c), wherein the electrical conductors (3a-3d) of at least a first electrical line are connected with the electrical conductors (4a-4f) by at least two further electrical lines (2a-2c), wherein the connection point is surrounded by a prefabricated housing of a mechanically-stable plastic, and which comprises the openings (11, 12) for the passage of the at least one first and two further electrical lines (1, 2a, 2c), and wherein the interior of the housing is completely filled with a sealing material extending on both sides of the housing as far as the lines (1, 2a-2c) protruding into it, characterized in that - the sealing material produced by injection molding at the openings (11,12) of the housing respectively protrudes over the housing so that the edges of the openings (11,12) of the housing are covered completely media-tight by the protruding sealing material, and - that the edges of the openings (11, 12) of the housing on their outer surfaces comprise sealing contours (13, 14) forming a structure and which are covered completely media-tight by the protruding sealing material. - the sealing material produced by injection molding at the openings (11,12) of the housing respectively protrudes over the housing so that the edges of the openings (11,12) of the housing are covered completely media-tight by the protruding sealing material, and - that the edges of the openings (11, 12) of the housing on their outer surfaces comprise sealing contours (13, 14) forming a structure and which are covered completely media-tight by the protruding sealing material.