mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a part made of composite material comprising at least the following steps: a) introducing an adhesion promoter (10; 100) into the pores of a fibrous preform formed by yarns coated by a coating having -OH groups at its surface (S), the adhesion promoter being a Lewis complex or a Lewis acid, the Lewis complex adhesion promoter comprising a reactive structure S1 of formula B1-X-H, where B1 is a Lewis base, the Lewis acid adhesion promoter comprising a reactive structure S2 of formula X-H with the atom X having an empty orbital, in these two alternatives, X designates boron or aluminium, b) grafting the adhesion promoter to the surface of the coating by addition on the -OH groups at the atom X, c) introducing a ceramic precursor resin into the pores of the fibrous preform, after the step of grafting the adhesion promoter, d) polymerising the introduced resin and bonding the grafted adhesion promoter to the resin by chemical reaction between these two compounds at the X-H bond of the grafted promoter, this polymerisation and this bonding being carried out by heating the fibrous preform into which the resin has been introduced, e) forming a ceramic matrix phase in the pores of the fibrous preform by pyrolysis of the polymerised resin . a) introducing an adhesion promoter (10; 100) into the pores of a fibrous preform formed by yarns coated by a coating having -OH groups at its surface (S), the adhesion promoter being a Lewis complex or a Lewis acid, the Lewis complex adhesion promoter comprising a reactive structure S1 of formula B1-X-H, where B1 is a Lewis base, the Lewis acid adhesion promoter comprising a reactive structure S2 of formula X-H with the atom X having an empty orbital, in these two alternatives, X designates boron or aluminium, b) grafting the adhesion promoter to the surface of the coating by addition on the -OH groups at the atom X, c) introducing a ceramic precursor resin into the pores of the fibrous preform, after the step of grafting the adhesion promoter, d) polymerising the introduced resin and bonding the grafted adhesion promoter to the resin by chemical reaction between these two compounds at the X-H bond of the grafted promoter, this polymerisation and this bonding being carried out by heating the fibrous preform into which the resin has been introduced, e) forming a ceramic matrix phase in the pores of the fibrous preform by pyrolysis of the polymerised resin .
A plastic living hinge comprising: a blend comprising (A) an ethylene-based polymer; (B) a propylene-based polymer; and (C) a composite component selected from the group consisting of a block composite, a crystalline block composite, and a combination thereof. (A) an ethylene-based polymer; (B) a propylene-based polymer; and (C) a composite component selected from the group consisting of a block composite, a crystalline block composite, and a combination thereof.
A body state detecting apparatus for detecting a body state of a subject on a bed, the apparatus comprising: a plurality of load detectors (11-14) arranged to be placed in the bed or under feet of the bed and configured to detect a load variation depending on a respiration of the subject; and a body state detecting unit configured to determine a head placement of the subject based on the detected load variation depending on the respiration of the subject, wherein the body state detecting unit is configured to determine the head placement of the subject based on a shape of a wave corresponding to one respiration cycle included in a waveform exhibiting the detected load variation depending on the respiration of the subject. a plurality of load detectors (11-14) arranged to be placed in the bed or under feet of the bed and configured to detect a load variation depending on a respiration of the subject; and a body state detecting unit configured to determine a head placement of the subject based on the detected load variation depending on the respiration of the subject, wherein the body state detecting unit is configured to determine the head placement of the subject based on a shape of a wave corresponding to one respiration cycle included in a waveform exhibiting the detected load variation depending on the respiration of the subject.
A fitment assembly for one or a plurality of food or beverage containers , each container comprising at least one ingredient for the preparation of a food or beverage product, the fitment assembly comprising at least one fluid inlet communicating with at least one injection hole through which a fluid can be supplied into the food or beverage containers, and at least one dispensing outlet through which the food or beverage product is dispensed; characterized in that the fitment assembly comprises two parts rotatable relative to each other such that this relative rotation opens or closes, totally or up to a certain degree, the at least one dispensing outlet .
A dual riser FCC process, comprising: cracking a first hydrocarbon feed having a carbon number less than 12 in a first riser under first-riser FCC conditions, thereby forming a first effluent enriched in ethylene, propylene or a combination thereof; cracking a second hydrocarbon feed having a carbon number less than 12 in a second riser under second-riser FCC conditions, thereby forming a second effluent enriched in ethylene, propylene or a combination thereof, wherein the first and second hydrocarbon feeds are different and the first-riser and second-riser FCC conditions are independently selected to favor production of ethylene, propylene or a combination thereof; recovering catalyst and separating gas from the first and second FCC effluents; regenerating the recovered catalyst by combustion of coke in a regenerator thereby obtaining hot, regenerated catalyst; recirculating the hot regenerated catalyst to the first and second risers thereby sustaining a continuous operating mode; and introducing a coke precursor to the first or second riser with the respective first or second hydrocarbon feed at a ratio of from 1 to 40 parts by weight coke precursor to 100 parts by weight fresh hydrocarbon feed, wherein the coke precursor is selected from the group consisting of acetylene, alkyl- or allyl-substituted acetylene, a diolefin, and combinations thereof. cracking a first hydrocarbon feed having a carbon number less than 12 in a first riser under first-riser FCC conditions, thereby forming a first effluent enriched in ethylene, propylene or a combination thereof; cracking a second hydrocarbon feed having a carbon number less than 12 in a second riser under second-riser FCC conditions, thereby forming a second effluent enriched in ethylene, propylene or a combination thereof, wherein the first and second hydrocarbon feeds are different and the first-riser and second-riser FCC conditions are independently selected to favor production of ethylene, propylene or a combination thereof; recovering catalyst and separating gas from the first and second FCC effluents; regenerating the recovered catalyst by combustion of coke in a regenerator thereby obtaining hot, regenerated catalyst; recirculating the hot regenerated catalyst to the first and second risers thereby sustaining a continuous operating mode; and introducing a coke precursor to the first or second riser with the respective first or second hydrocarbon feed at a ratio of from 1 to 40 parts by weight coke precursor to 100 parts by weight fresh hydrocarbon feed, wherein the coke precursor is selected from the group consisting of acetylene, alkyl- or allyl-substituted acetylene, a diolefin, and combinations thereof.
A radical-curable seal member for fuel cell , comprising a crosslinked product of a radical-curable composition and having a glass transition temperature (Tg) of -40°C or lower, wherein the radical-curable composition comprises: (A) (Meth)acrylic polymer having a (meth)acryloyl group at a molecular chain end, wherein a glass transition temperature of the component (A) is -40°C or lower, (B) Monofunctional (meth)acrylic monomer, wherein a glass transition temperature of the component (B) is -40°C or lower, (C) Polyfunctional (meth)acrylic monomer, and (D) Radical polymerization initiator, wherein the radical-curable composition contains 20 to 90 weight parts of the component (B), 1 to 10 weight parts of the component (C), and 0.01 to 10 weight parts of the component (D) with respect to 100 weight parts of the component (A), and a weight ratio [(B)/(C)] of the component (B) with respect to the component (C) is 4 to 24, and a content [(C)/{(A)+(B)+(C)}] of the component (C) with respect to a total of 100 wt% of the component (A), the component (B), and the component (C) is 1 to 7 wt%. (A) (Meth)acrylic polymer having a (meth)acryloyl group at a molecular chain end, wherein a glass transition temperature of the component (A) is -40°C or lower, (B) Monofunctional (meth)acrylic monomer, wherein a glass transition temperature of the component (B) is -40°C or lower, (C) Polyfunctional (meth)acrylic monomer, and (D) Radical polymerization initiator, wherein the radical-curable composition contains 20 to 90 weight parts of the component (B), 1 to 10 weight parts of the component (C), and 0.01 to 10 weight parts of the component (D) with respect to 100 weight parts of the component (A), and a weight ratio [(B)/(C)] of the component (B) with respect to the component (C) is 4 to 24, and a content [(C)/{(A)+(B)+(C)}] of the component (C) with respect to a total of 100 wt% of the component (A), the component (B), and the component (C) is 1 to 7 wt%. wherein the radical-curable composition contains 20 to 90 weight parts of the component (B), 1 to 10 weight parts of the component (C), and 0.01 to 10 weight parts of the component (D) with respect to 100 weight parts of the component (A), and a weight ratio [(B)/(C)] of the component (B) with respect to the component (C) is 4 to 24, and a content [(C)/{(A)+(B)+(C)}] of the component (C) with respect to a total of 100 wt% of the component (A), the component (B), and the component (C) is 1 to 7 wt%.
A pamoate salt of ketamine having a stoichiometry of 2:1 of ketamine to pamoate.
A hand exoskeleton comprising: a) a hand- and/or wrist-wearable support 10 having a portion configured to be connected in proximity to a metacarpophalangeal (MCP) joint of a user; and b) an elongated motion unit 100 operatively connected to the hand- and/or wrist-wearable support 10, said motion unit 100 comprising: i) a plurality of adjacent movable members 1000 located along the longitudinal axis of the motion unit 100, each movable member 1000 comprising a first and second cavity 301/302 along its entire length; ii) a compliant layer 400 running through said motion unit 100 and along the longitudinal axis of the motion unit 100; iii) a first cable or wire 501 running inside said first cavity 301 and connected to the motion unit 100; iv) a second cable or wire 502 running inside said second cavity 302 and connected to the motion unit 100; v) at least one finger support 600 configured to locate two fingers of a user wearing the exoskeleton wherein said motion unit 100 is connected at one end to the finger support 600. a) a hand- and/or wrist-wearable support 10 having a portion configured to be connected in proximity to a metacarpophalangeal (MCP) joint of a user; and b) an elongated motion unit 100 operatively connected to the hand- and/or wrist-wearable support 10, said motion unit 100 comprising: i) a plurality of adjacent movable members 1000 located along the longitudinal axis of the motion unit 100, each movable member 1000 comprising a first and second cavity 301/302 along its entire length; ii) a compliant layer 400 running through said motion unit 100 and along the longitudinal axis of the motion unit 100; iii) a first cable or wire 501 running inside said first cavity 301 and connected to the motion unit 100; iv) a second cable or wire 502 running inside said second cavity 302 and connected to the motion unit 100; v) at least one finger support 600 configured to locate two fingers of a user wearing the exoskeleton wherein said motion unit 100 is connected at one end to the finger support 600. i) a plurality of adjacent movable members 1000 located along the longitudinal axis of the motion unit 100, each movable member 1000 comprising a first and second cavity 301/302 along its entire length; ii) a compliant layer 400 running through said motion unit 100 and along the longitudinal axis of the motion unit 100; iii) a first cable or wire 501 running inside said first cavity 301 and connected to the motion unit 100; iv) a second cable or wire 502 running inside said second cavity 302 and connected to the motion unit 100; v) at least one finger support 600 configured to locate two fingers of a user wearing the exoskeleton
A replacement heart valve prosthesis comprising a stent component and a valve component wherein the stent component comprises at least one alignment means, preferably two, three, four, five or six alignment means, wherein the alignment means is a commissure alignment means to engage with the native valve commissure(s) and which is part of or fixed to the proximal end of the prosthesis, and wherein the distance of the proximal end of the commissure alignment means to the distal end of the inflow end section is 4 to 12 mm, preferably 7.5 to 9 mm.
A medical device , comprising: an elongate member , including: a distal end, and a channel extending through the elongate member to the distal end; and a distal tip at the distal end of the elongate member ; and an illumination unit extending through the channel to the distal tip , wherein the illumination unit is configured to illuminate an area distal to the distal tip , and wherein the illumination unit includes: a light source configured to emit light, a near-field diffuser configured to diffuse a first portion of light emitted by the light source , and emit the diffused first portion of light into the area distal to the distal tip , a far-field aperture , wherein a second portion of light emitted by the light source is unobstructed as the second portion of light leaves the light source , enters the aperture , and exits the aperture into the area distal to the distal tip . a distal end, and a channel extending through the elongate member to the distal end; and a distal tip at the distal end of the elongate member ; and an illumination unit extending through the channel to the distal tip , wherein the illumination unit is configured to illuminate an area distal to the distal tip , and wherein the illumination unit includes: a light source configured to emit light, a near-field diffuser configured to diffuse a first portion of light emitted by the light source , and emit the diffused first portion of light into the area distal to the distal tip , a far-field aperture , wherein a second portion of light emitted by the light source is unobstructed as the second portion of light leaves the light source , enters the aperture , and exits the aperture into the area distal to the distal tip . a light source configured to emit light, a near-field diffuser configured to diffuse a first portion of light emitted by the light source , and emit the diffused first portion of light into the area distal to the distal tip , a far-field aperture , wherein a second portion of light emitted by the light source is unobstructed as the second portion of light leaves the light source , enters the aperture , and exits the aperture into the area distal to the distal tip .
A method for removing distortions in an actual transmitted signal transmitted by a high power amplifier , said actual transmitted signal (b) including bits, said method comprising: providing a model of the high power amplifier that generates a reproduced transmitted signal of the actual transmitted signal; defining a series of Volterra coefficients from the reproduced transmitted signal using a Volterra model; receiving the actual transmitted signal in a receiver ; and processing the actual transmitted signal in an equalizer in the receiver to generate a digital signal including the bits, wherein processing the actual transmitted signal in the equalizer includes providing parallel soft interference cancellation of the actual transmitted signal that cancels both linear and non-linear interference for each symbol of interest in the actual transmitted signal, filtering the actual transmitted signal after the parallel soft interference cancellation using a single minimum mean square error filter that employs a fewer number of coefficients than all of the coefficients in the series of Volterra coefficients to provide equalizer coefficients, and using the equalizer coefficients to generate a new extrinsic log-likelihood ratio, LLR, of the bits in the actual transmitted signal in a process that considers contributions from both linear and non-linear interference terms. providing a model of the high power amplifier that generates a reproduced transmitted signal of the actual transmitted signal; defining a series of Volterra coefficients from the reproduced transmitted signal using a Volterra model; receiving the actual transmitted signal in a receiver ; and processing the actual transmitted signal in an equalizer in the receiver to generate a digital signal including the bits, wherein processing the actual transmitted signal in the equalizer includes providing parallel soft interference cancellation of the actual transmitted signal that cancels both linear and non-linear interference for each symbol of interest in the actual transmitted signal, filtering the actual transmitted signal after the parallel soft interference cancellation using a single minimum mean square error filter that employs a fewer number of coefficients than all of the coefficients in the series of Volterra coefficients to provide equalizer coefficients, and using the equalizer coefficients to generate a new extrinsic log-likelihood ratio, LLR, of the bits in the actual transmitted signal in a process that considers contributions from both linear and non-linear interference terms.
An entertainment figure system , comprising: an entertainment figure comprising an attachment point ; a bogie coupled to a track and to the attachment point of the entertainment figure via a cable , wherein the bogie is configured to translate along the track ; and a winch coupled to the cable and configured to adjust a length of the cable extending from the winch and thereby modify a distance between the attachment point and the bogie such that at least one first part of the entertainment figure is moved relative to at least one second part of the entertainment figure . an entertainment figure comprising an attachment point ; a bogie coupled to a track and to the attachment point of the entertainment figure via a cable , wherein the bogie is configured to translate along the track ; and a winch coupled to the cable and configured to adjust a length of the cable extending from the winch and thereby modify a distance between the attachment point and the bogie such that at least one first part of the entertainment figure is moved relative to at least one second part of the entertainment figure .
A first communication device (AP) comprising circuitry configured to - exchange data with one or more second communication devices (STA1, STA2) on a first communication channel, and - transmit collision information (IN, TN) on a second communication channel that is a different channel than the first communication channel, wherein the circuitry is configured to transmit said collision information once it is aware that there is a collision on the first communication channel or once it is aware of a data transmission of a second communication device on the first communication channel or once it received a CTS or RTS notification from a second communication device on the first communication channel, said collision information indicating - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device (STA1) shall continue data transmission on the first communication channel and/or which second communication device (STA2) shall stop data transmission on the first communication channel and/or which second communication device (STA2) shall not initiate data transmission on the first communication channel. - exchange data with one or more second communication devices (STA1, STA2) on a first communication channel, and - transmit collision information (IN, TN) on a second communication channel that is a different channel than the first communication channel, wherein the circuitry is configured to transmit said collision information once it is aware that there is a collision on the first communication channel or once it is aware of a data transmission of a second communication device on the first communication channel or once it received a CTS or RTS notification from a second communication device on the first communication channel, said collision information indicating - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device (STA1) shall continue data transmission on the first communication channel and/or which second communication device (STA2) shall stop data transmission on the first communication channel and/or which second communication device (STA2) shall not initiate data transmission on the first communication channel. - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device (STA1) shall continue data transmission on the first communication channel and/or which second communication device (STA2) shall stop data transmission on the first communication channel and/or which second communication device (STA2) shall not initiate data transmission on the first communication channel.
An antibody that specifically binds to Tenasin C (TnC), wherein said antibody comprises a heavy chain variable region comprising (a) the heavy chain CDR1 of SEQ ID NO: 49; (b) the heavy chain CDR2 of SEQ ID NO: 50; (c) the heavy chain CDR3 of SEQ ID NO: 51, and a light chain variable region comprising (a) the light chain CDR1 of SEQ ID NO: 37; (b) the light chain CDR2 of SEQ ID NO: 38, and (c) the light chain CDR3 of SEQ ID NO: 39. (a) the heavy chain CDR1 of SEQ ID NO: 49; (b) the heavy chain CDR2 of SEQ ID NO: 50; (c) the heavy chain CDR3 of SEQ ID NO: 51, (a) the light chain CDR1 of SEQ ID NO: 37; (b) the light chain CDR2 of SEQ ID NO: 38, and (c) the light chain CDR3 of SEQ ID NO: 39.
A cyclic peptide derivative represented by the following general formula . (in the formula, m is 0 to 3, n ≥ 1, R 1 to R 6 are a hydrogen atom or a hydrocarbon group, R 7 and R 8 are a carboxyl group or a salt thereof, or an alkoxycarbonyl group, R 9 is a hydrocarbon group, a hydroxyl group, an alkoxy group, or an alkylcarbonyloxy group, R 10 and R 11 are a hydrogen atom, a hydrocarbon group, or an alkylcarbonyloxy group, and R 12 to R 16 are a hydrogen atom or a hydrocarbon group).