mhurhangee/patent-ind-claim-en huggingface dataset:
Reel body, in particular a bobbin for receiving at least one longitudinal element, which can be wound on or unwound from it, with a drum and a wall element on each of both sides thereof, wherein the drum to be composed of partially cylindrical segments and the both wall elements in each case to be composed of a plurality of segments which can be connected to one another, wherein the segments for the drum being each partially cylindrical and the segments of the both wall elements being each approximately trapezoidal and in the assembled state forming a disc shape, which are fastened on the inside to the segments of the drum , wherein one or more supports are assigned to each the drum and the both wall elements , which being provided at the connecting points of their segments , with which supports the segments are detachably fastened to one another by fastening means with the adjacent segments and are also mutually positioned, wherein for the drum preferably four to eight partially cylindrical segments being fastened to one another, which each have a plurality of projecting supports on one longitudinal side and corresponding inner supports on the opposite longitudinal side, so that these segments are mutually aligned after connection and their abutting edges (15") lie against one another, wherein it being used screws as fastening means, which in the case of the drum can be inserted from the inside into these supports or in the case of the wall elements are inserted from the outside, wherein one of the supports being provided with blind holes and the segments thus being formed without holes in the bearing surfaces of the longitudinal element which can be wound up, and wherein the segments of the wall elements each have on the inside at least one support , which can be connected by fastening means to a corresponding support on the outer circumference of a respective segment of the drum .
Motor vehicle seat cushioning , said cushioning comprising consecutively: - a cover for lining said block, said cover being comprised of a plurality of formats associated with each other, at least one of said formats being in the form of a complex comprising, associated with each other, in sequence: -- an outer covering layer , -- a middle foam layer , -- an inner mesh layer , - an electric circuit intended to be connected to an electric generator, said circuit being made from conductive ink deposited on a support layer , said circuit extending opposite said complex, - a block of elastically compressible padding, said support layer being formed: - either by said inner layer, - or by an additional mesh layer interposed between said inner layer and said block. - a cover for lining said block, said cover being comprised of a plurality of formats associated with each other, at least one of said formats being in the form of a complex comprising, associated with each other, in sequence: -- an outer covering layer , -- a middle foam layer , -- an inner mesh layer , -- an outer covering layer , -- a middle foam layer , -- an inner mesh layer , - an electric circuit intended to be connected to an electric generator, said circuit being made from conductive ink deposited on a support layer , said circuit extending opposite said complex, - a block of elastically compressible padding, said support layer being formed: - either by said inner layer, - or by an additional mesh layer interposed between said inner layer and said block. - either by said inner layer, - or by an additional mesh layer interposed between said inner layer and said block.
A composition of matter comprising an antibody-toxin conjugate and an alkylglycoside having a CMC value of 1.0 mM or greater in water at 25°C, wherein the alkylglycoside is present in the composition of matter at a concentration that is lower than the CMC value of the alkylglycoside in water at 25°C.
A method for managing power of a wireless tool , comprising: acquiring a mixed electromagnetic signal comprising a plurality of electromagnetic signals emitted by a location pad , wherein each electromagnetic signal is emitted by a respective coil of the location pad , and wherein each electromagnetic signal has a different frequency; determining a voltage based on the mixed electromagnetic signal, wherein the voltage is proportional to a distance of the wireless tool from the location pad ; when the voltage is below a predetermined amount, setting the wireless tool to a hibernation mode; and when the voltage is above the predetermined amount, setting the wireless tool to an active mode and applying an algorithm to calculate the location and orientation of the wireless tool . acquiring a mixed electromagnetic signal comprising a plurality of electromagnetic signals emitted by a location pad , wherein each electromagnetic signal is emitted by a respective coil of the location pad , and wherein each electromagnetic signal has a different frequency; determining a voltage based on the mixed electromagnetic signal, wherein the voltage is proportional to a distance of the wireless tool from the location pad ; when the voltage is below a predetermined amount, setting the wireless tool to a hibernation mode; and when the voltage is above the predetermined amount, setting the wireless tool to an active mode and applying an algorithm to calculate the location and orientation of the wireless tool .
A method of manufacturing a microchannel heat sink, comprising: processing (S110) preset inlet and outlet flow channels and a microchannel structure on each of plates constituting the microchannel heat sink; preparing (S120) an upper cover plate and a lower cover plate , and processing corresponding patterns on the upper cover plate and the lower cover plate according to the microchannel structures of an uppermost plate and a lowermost plate of the microchannel heat sink to be manufactured, respectively; aligning and stacking (S130) the upper cover plate , the each of the plates (101-105), and the lower cover plate in sequence; placing (S140) the upper cover plate , the each of the plates (101-105), and the lower cover plate that are aligned and stacked in a reducing atmosphere, and heating the upper cover plate , the each of the plates (101-105), and the lower cover plate that are aligned and stacked, and performing heat preservation, and applying a pressure on the upper cover plate and/or the lower cover plate ; and after applying (S150) the pressure for a preset time, stopping the heat preservation and stopping the applying the pressure, and removing the upper cover plate and the lower cover plate . processing (S110) preset inlet and outlet flow channels and a microchannel structure on each of plates constituting the microchannel heat sink; preparing (S120) an upper cover plate and a lower cover plate , and processing corresponding patterns on the upper cover plate and the lower cover plate according to the microchannel structures of an uppermost plate and a lowermost plate of the microchannel heat sink to be manufactured, respectively; aligning and stacking (S130) the upper cover plate , the each of the plates (101-105), and the lower cover plate in sequence; placing (S140) the upper cover plate , the each of the plates (101-105), and the lower cover plate that are aligned and stacked in a reducing atmosphere, and heating the upper cover plate , the each of the plates (101-105), and the lower cover plate that are aligned and stacked, and performing heat preservation, and applying a pressure on the upper cover plate and/or the lower cover plate ; and after applying (S150) the pressure for a preset time, stopping the heat preservation and stopping the applying the pressure, and removing the upper cover plate and the lower cover plate .
A hydrogel-forming peptide, wherein the peptide has the following general formula I: (R a ) 1,2 -(Y) 0,1 -(Q-Y) 2-6 -(Q) 0,1 -R b (I) wherein each Q independently is a hydrophobic amino acid residue or a dyad of hydrophobic amino acid residues; wherein one, two or three of said Q is a dyad of a hydrophobic α-amino acid residue and a β-homo amino acid residue; each Y independently is a hydrophilic α-amino acid residue; the group (Y) 0,1 represents a bond or a hydrophilic α-amino acid residue Y; the group (Q) 0,1 represents a bond or a group Q; (R a ) 1,2 represents one or two R a groups, substituted on the terminal nitrogen of said peptide, said R a groups are each independently selected from R 1 , or R a groups represent one R 1 group and one group selected from C(=Z)R 1 , C(=Z)ZR 1 , C(=Z)NH(R 1 ; C(=Z)N(R 1 ) 2 ; wherein each Z independently is O or S; and each R 1 is independently selected from H, optionally substituted linear or branched C 1-10 alkyl, optionally substituted C 3-10 cycloalkyl, optionally substituted arylC 1-6 alkyl, and optionally substituted aryl; R b is a group OR 2 or N(R 2 ) 2 ; wherein each R 2 independently is selected from H, optionally substituted linear or branched C 1-10 alkyl, optionally substituted C 3-10 cycloalkyl, optionally substituted arylC 1-6 alkyl, and optionally substituted aryl; wherein said peptide has from 5 to 12 amino acid residues; or a salt form thereof. each Q independently is a hydrophobic amino acid residue or a dyad of hydrophobic amino acid residues; wherein one, two or three of said Q is a dyad of a hydrophobic α-amino acid residue and a β-homo amino acid residue; each Y independently is a hydrophilic α-amino acid residue; the group (Y) 0,1 represents a bond or a hydrophilic α-amino acid residue Y; the group (Q) 0,1 represents a bond or a group Q; (R a ) 1,2 represents one or two R a groups, substituted on the terminal nitrogen of said peptide, said R a groups are each independently selected from R 1 , or R a groups represent one R 1 group and one group selected from C(=Z)R 1 , C(=Z)ZR 1 , C(=Z)NH(R 1 ; C(=Z)N(R 1 ) 2 ; wherein each Z independently is O or S; and each R 1 is independently selected from H, optionally substituted linear or branched C 1-10 alkyl, optionally substituted C 3-10 cycloalkyl, optionally substituted arylC 1-6 alkyl, and optionally substituted aryl; R b is a group OR 2 or N(R 2 ) 2 ; wherein each R 2 independently is selected from H, optionally substituted linear or branched C 1-10 alkyl, optionally substituted C 3-10 cycloalkyl, optionally substituted arylC 1-6 alkyl, and optionally substituted aryl; wherein said peptide has from 5 to 12 amino acid residues;
A method for fabricating an image sensor array having a first group of photodiodes for detecting light at visible wavelengths, and a second group of photodiodes for detecting light at infrared or near-infrared wavelengths, the method comprising: forming the first group of photodiodes on a semiconductor donor wafer ; forming the second group of photodiodes on the semiconductor donor wafer, comprising: forming, on the semiconductor donor wafer, one or more recesses for the second group of photodiodes; and growing a germanium-silicon layer on the one or more recesses for the second group of photodiodes; after growing the germanium-silicon layer , defining a first interconnect layer , wherein the first interconnect layer includes a plurality of interconnects coupled to the first group of photodiodes and the second group of photodiodes; defining integrated circuitry for controlling the first group of photodiodes and the second groups of photodiodes on a semiconductor carrier wafer ; after defining the integrated circuitry, defining a second interconnect layer on the semiconductor carrier wafer, wherein the second interconnect layer includes a plurality of interconnects coupled to the integrated circuitry; and bonding the first interconnect layer with the second interconnect layer, such that the first group of photodiodes and the second group of photodiodes are coupled to the integrated circuitry, wherein the first group of photodiodes is formed from a first material, and the second group of photodiodes is formed from a second material different than the first material. forming the first group of photodiodes on a semiconductor donor wafer ; forming the second group of photodiodes on the semiconductor donor wafer, comprising: forming, on the semiconductor donor wafer, one or more recesses for the second group of photodiodes; and growing a germanium-silicon layer on the one or more recesses for the second group of photodiodes; forming, on the semiconductor donor wafer, one or more recesses for the second group of photodiodes; and growing a germanium-silicon layer on the one or more recesses for the second group of photodiodes; after growing the germanium-silicon layer , defining a first interconnect layer , wherein the first interconnect layer includes a plurality of interconnects coupled to the first group of photodiodes and the second group of photodiodes; defining integrated circuitry for controlling the first group of photodiodes and the second groups of photodiodes on a semiconductor carrier wafer ; after defining the integrated circuitry, defining a second interconnect layer on the semiconductor carrier wafer, wherein the second interconnect layer includes a plurality of interconnects coupled to the integrated circuitry; and bonding the first interconnect layer with the second interconnect layer, such that the first group of photodiodes and the second group of photodiodes are coupled to the integrated circuitry,
A force transmitting frame for use in a motion assistance apparatus and/or a robot arm , the force transmitting frame having a first end and a second end, the force transmitting frame comprising: a base arranged at the second end of the force transmitting frame; a first longitudinal member connected to the base; a second longitudinal member ; a first fastener arranged at the first end of the force transmitting frame and configured to fasten a first end of the first longitudinal member to a first end of the second longitudinal member; and at least one distance maintaining member arranged between the base and the first fastener, and between the first longitudinal member and the second longitudinal member, the at least one distance maintaining member configured to maintain a distance between the first longitudinal member and the second longitudinal member; wherein the force transmitting frame is shaped such that a distance between the first longitudinal member and the second longitudinal member increases from the first fastener toward the base; wherein a second end of the first longitudinal member is fixed to the base; characterized in that a second end of the second longitudinal member is configured to slide with respect to the base. a base arranged at the second end of the force transmitting frame; a first longitudinal member connected to the base; a second longitudinal member ; a first fastener arranged at the first end of the force transmitting frame and configured to fasten a first end of the first longitudinal member to a first end of the second longitudinal member; and at least one distance maintaining member arranged between the base and the first fastener, and between the first longitudinal member and the second longitudinal member, the at least one distance maintaining member configured to maintain a distance between the first longitudinal member and the second longitudinal member; wherein the force transmitting frame is shaped such that a distance between the first longitudinal member and the second longitudinal member increases from the first fastener toward the base; wherein a second end of the first longitudinal member is fixed to the base; characterized in that a second end of the second longitudinal member is configured to slide with respect to the base.
Method for manufacturing an insulation product for insulating a conduit, which method comprises: - arranging amorphous, insulating filling material against at least one film of a per se amorphous material ; and - manufacturing a row of enclosing channels (20; 40) in the at least one film; all this such that the filling material is enclosed in at least one enclosing channel of the row of enclosing channels and, when enclosed, the filling material takes on a form in accordance with the dimensions of the at least one enclosing channel in order to obtain at least one insulation tube in the at least one film; characterized in that the arranging of the filling material comprises: - arranging a first quantity of filling material in at least one first enclosing channel of the row of enclosing channels, which at least one first enclosing channel is associated with a first zone of the conduit; - arranging a second quantity of filling material in at least one second enclosing channel of the row of enclosing channels, which at least one second enclosing channel is associated with a second zone of the conduit, which second zone lies at a different position than the first zone; wherein the first quantity differs from the second quantity in accordance with a difference between the surface area of respectively the first zone and the second zone. - arranging amorphous, insulating filling material against at least one film of a per se amorphous material ; and - manufacturing a row of enclosing channels (20; 40) in the at least one film; - arranging a first quantity of filling material in at least one first enclosing channel of the row of enclosing channels, which at least one first enclosing channel is associated with a first zone of the conduit; - arranging a second quantity of filling material in at least one second enclosing channel of the row of enclosing channels, which at least one second enclosing channel is associated with a second zone of the conduit, which second zone lies at a different position than the first zone;
A method comprising: determining amount information relating to an amount of reference information comprising demodulation reference signals a user equipment is to transmit, wherein said amount information indicates at least one of, on which slots and/or symbols said reference information is to be transmitted and which subframes said reference information is to be transmitted, wherein the amount information is determined based on a signalled modulation and coding scheme or transmit block size; causing said amount information to be provided to said user equipment via uplink grant messaging; receiving reference information from said user equipment in the slots and/or symbols indicated by said amount information and in the subframes indicated by said amount information; and using reference information from said user equipment to process data from said user equipment. determining amount information relating to an amount of reference information comprising demodulation reference signals a user equipment is to transmit, wherein said amount information indicates at least one of, on which slots and/or symbols said reference information is to be transmitted and which subframes said reference information is to be transmitted, wherein the amount information is determined based on a signalled modulation and coding scheme or transmit block size; causing said amount information to be provided to said user equipment via uplink grant messaging; receiving reference information from said user equipment in the slots and/or symbols indicated by said amount information and in the subframes indicated by said amount information; and using reference information from said user equipment to process data from said user equipment.
A method of creating a light script for a video, the light script comprising lighting control instructions for controlling one or more light sources when the video is being displayed, the method comprising: - receiving a user input indicative of a selection of a lighting control instruction for a scene (S1, S11, S21, S31, S32), - associating the lighting control instruction (L1, L11, L21, L31, L32) with the scene (S1, S11, S21, S31, S32), - analyzing the scene (S1, S11, S21, S31, S32) of the video to identify a scene characteristic (C1, C11, C21, C31, C32) in the scene, - analyzing the video or another video to recognize, in a further scene (S4, S13, S24, S34), a similar or identical scene characteristic (C1, C11, C21, C31, C32), and - associating , based on the recognition of the similar or identical scene characteristic (C1, C 11, C21, C31, C32), the lighting control instruction (L1, L11, L21, L31, L32) with the further scene (S4, S13, S24, S34), such that when the scene (S1, S11, S21, S31, S32) and the further scene (S4, S13, S24, S34) are being displayed the one or more light sources are controlled according to the lighting control instruction (L1, L11, L21, L31, L32). - receiving a user input indicative of a selection of a lighting control instruction for a scene (S1, S11, S21, S31, S32), - associating the lighting control instruction (L1, L11, L21, L31, L32) with the scene (S1, S11, S21, S31, S32), - analyzing the scene (S1, S11, S21, S31, S32) of the video to identify a scene characteristic (C1, C11, C21, C31, C32) in the scene, - analyzing the video or another video to recognize, in a further scene (S4, S13, S24, S34), a similar or identical scene characteristic (C1, C11, C21, C31, C32), and - associating , based on the recognition of the similar or identical scene characteristic (C1, C 11, C21, C31, C32), the lighting control instruction (L1, L11, L21, L31, L32) with the further scene (S4, S13, S24, S34), such that when the scene (S1, S11, S21, S31, S32) and the further scene (S4, S13, S24, S34) are being displayed the one or more light sources are controlled according to the lighting control instruction (L1, L11, L21, L31, L32).
An apparatus comprising: a stylus sensor ; a display ; a control circuit operably coupled to the stylus sensor and the display , the control circuit having a standby mode of operation during which the display is dark and an active mode of operation, the control circuit being configured to: pre-associate a most-used application of a plurality of applications with detection of a predetermined stylus action that occurs while the control circuit is in the standby mode of operation, wherein the pre-association of the most-used application is an automatically updated association with the predetermined stylus action based upon identifying which of the plurality of applications is currently the most-used application for the apparatus; detect via the stylus sensor the predetermined stylus action while the control circuit is in the standby mode of operation and responsively open the most-used application. a stylus sensor ; a display ; a control circuit operably coupled to the stylus sensor and the display , the control circuit having a standby mode of operation during which the display is dark and an active mode of operation, the control circuit being configured to: pre-associate a most-used application of a plurality of applications with detection of a predetermined stylus action that occurs while the control circuit is in the standby mode of operation, wherein the pre-association of the most-used application is an automatically updated association with the predetermined stylus action based upon identifying which of the plurality of applications is currently the most-used application for the apparatus; detect via the stylus sensor the predetermined stylus action while the control circuit is in the standby mode of operation and responsively open the most-used application. pre-associate a most-used application of a plurality of applications with detection of a predetermined stylus action that occurs while the control circuit is in the standby mode of operation, wherein the pre-association of the most-used application is an automatically updated association with the predetermined stylus action based upon identifying which of the plurality of applications is currently the most-used application for the apparatus; detect via the stylus sensor the predetermined stylus action while the control circuit is in the standby mode of operation and responsively open the most-used application.