mhurhangee/patent-ind-claim-en huggingface dataset:
Composite (P1, P2) comprising: - at least one reinforcing element , - an adhesive layer made from an adhesive composition and coating the reinforcing element , - an elastomeric bonding layer made from an elastomeric bonding composition and directly coating the adhesive layer , - an elastomeric body made from an elastomeric matrix and embedded in which is the reinforcing element coated with the adhesive layer and with the elastomeric bonding layer , the composite (P1, P2) being characterized in that the adhesive composition comprises at least one phenol-aldehyde resin based: - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one aromatic aldehyde bearing at least one aldehyde function, comprising at least one aromatic ring. - at least one reinforcing element , - an adhesive layer made from an adhesive composition and coating the reinforcing element , - an elastomeric bonding layer made from an elastomeric bonding composition and directly coating the adhesive layer , - an elastomeric body made from an elastomeric matrix and embedded in which is the reinforcing element coated with the adhesive layer and with the elastomeric bonding layer , - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one aromatic aldehyde bearing at least one aldehyde function, comprising at least one aromatic ring.
An eyeglass frame shape measurement device that measures a shape of an eyeglass frame (F), comprising: a light projecting optical system having a light source and emitting a measurement light flux from the light source toward a groove (FA) of a rim of an eyeglass frame (F); a light receiving optical system having a detector and causing the detector to receive a reflected light flux of the measurement light flux emitted toward the groove (FA) of the rim of the eyeglass frame (F) by the light projecting optical system and reflected by the groove (FA) of the rim of the eyeglass frame (F); acquisition means for acquiring a cross-sectional shape of the groove (FA) of the rim of the eyeglass frame (F) based on the reflected light flux received by the detector ; change means for changing a light receiving position of the reflected light flux; and control means for controlling the change means to change the light receiving position of the reflected light flux such that the detector receives the reflected light flux of the groove (FA) of the rim, wherein the control means is configured to control the change means to change the light receiving position of the reflected light flux based on the reflected light flux received by the detector , characterised in that the acquisition means is configured to perform interpolation to acquire a part of the cross-sectional shape that is missing from reflected light flux received at a position around the position where the cross-sectional shape part is missing. a light projecting optical system having a light source and emitting a measurement light flux from the light source toward a groove (FA) of a rim of an eyeglass frame (F); a light receiving optical system having a detector and causing the detector to receive a reflected light flux of the measurement light flux emitted toward the groove (FA) of the rim of the eyeglass frame (F) by the light projecting optical system and reflected by the groove (FA) of the rim of the eyeglass frame (F); acquisition means for acquiring a cross-sectional shape of the groove (FA) of the rim of the eyeglass frame (F) based on the reflected light flux received by the detector ; change means for changing a light receiving position of the reflected light flux; and control means for controlling the change means to change the light receiving position of the reflected light flux such that the detector receives the reflected light flux of the groove (FA) of the rim, wherein the control means is configured to control the change means to change the light receiving position of the reflected light flux based on the reflected light flux received by the detector , characterised in that the acquisition means is configured to perform interpolation to acquire a part of the cross-sectional shape that is missing from reflected light flux received at a position around the position where the cross-sectional shape part is missing.
A method for accessing a target user plane, UP, device performed by an apparatus for accessing the target UP device, wherein the method comprises: • obtaining access line information and user information of a terminal (step 301); • obtaining a service level agreement, SLA, level of the terminal based on the user information, wherein the SLA level is used to indicate a level of quality of service of the terminal (step 302); • determining the target UP device based on the SLA level (step 303); and • controlling, based on the access line information, the terminal to access the target UP device (step 306). • obtaining access line information and user information of a terminal (step 301); • obtaining a service level agreement, SLA, level of the terminal based on the user information, wherein the SLA level is used to indicate a level of quality of service of the terminal (step 302); • determining the target UP device based on the SLA level (step 303); and • controlling, based on the access line information, the terminal to access the target UP device (step 306).
A method for preparing a labeling agent, the method comprising: (a) providing a compound including a chelating moiety and a conjugation moiety; and (b) mixing the compound with a radionuclide to create the labeling agent before reacting the compound with an additional moiety, wherein the chelating moiety includes a hydroxamic acid group and the conjugation moiety includes an isothiocyanate group. (a) providing a compound including a chelating moiety and a conjugation moiety; and (b) mixing the compound with a radionuclide to create the labeling agent before reacting the compound with an additional moiety, wherein the chelating moiety includes a hydroxamic acid group and the conjugation moiety includes an isothiocyanate group.
A tunnel field-effect transistor device comprising: - a semiconductor substrate , - a fin structure disposed on said semiconductor substrate, said fin structure comprising a channel region and a source region disposed on said channel region, - a drain region contacting the channel region , wherein the source region and the drain region are of opposite conductivity type, - a pocket layer covering a gate interface portion of the source region and contacting at least part of the channel region , - a gate dielectric layer covering said pocket layer and - a gate electrode covering said gate dielectric layer , wherein said gate interface portion of the source region comprises at least three mutually non-coplanar surface segments , the tunnel field-effect transistor device further comprising a source contact for providing an electrical interface to the source region , a drain contact for providing an electrical interface to the drain region and a gate contact for providing an electrical interface to the gate electrode , characterized in that the gate interface portion comprises an end portion of the source region with respect to a longitudinal direction (X) along which the fin structure extends over the semiconductor substrate , and further characterized in that the source contact is disposed between the drain contact and the gate contact along said longitudinal direction (X). - a semiconductor substrate , - a fin structure disposed on said semiconductor substrate, said fin structure comprising a channel region and a source region disposed on said channel region, - a drain region contacting the channel region , wherein the source region and the drain region are of opposite conductivity type, - a pocket layer covering a gate interface portion of the source region and contacting at least part of the channel region , - a gate dielectric layer covering said pocket layer and - a gate electrode covering said gate dielectric layer ,
An aircraft engine circulation system comprising a conduit arranged in use to communicate a lubricant to and from one or more bearings (6A-6D), said conduit comprising a central tube defining a passage for communicating lubricant and a peripheral tube surrounding the central tube and defining a space between the outer surface of the central tube and the inner surface of the peripheral tube , wherein the system further comprises a heat exchanger arranged to receive lubricant from the central tube ; characterised in that the space contains a thermally induced phase changing material arranged in use to change phase when heated.
An immunogenic composition comprising a mutant Clostridium difficile toxin B, wherein the mutant Clostridium difficile toxin B comprises SEQ ID NO: 6 or SEQ ID NO: 8, wherein at least one amino acid of the mutant Clostridium difficile toxin B is chemically crosslinked and wherein said mutant Clostridium difficile toxin B exhibits decreased cytotoxicity relative to the corresponding wild-type Clostridium difficile toxin B.
A series hybrid vehicle control method comprising: charging a battery with electric power generated by an electric power generation motor that is driven by motive power from an internal combustion engine and with electric power regenerated by a drive motor , and driving a drive wheel with the drive motor using the electric power of the battery ; starting generation of the electric power by the internal combustion engine if a vehicle requested output exceeds an electric power generation start threshold value, and stopping generation of electric power by the internal combustion engine if the vehicle requested output falls below an electric power generation stop threshold value; and increasing a deceleration rate through regeneration of the drive motor when an accelerator pedal is in an off state to a greater extent in a second advancement shift position than in a first advancement shift position, wherein at least one of the electric power generation start threshold value and the electric power generation stop threshold value in a case where the second advancement shift position has been selected is greater than a respective one of the electric power generation start threshold value or the electric power generation stop threshold value in a case where the first advancement shift position has been selected. charging a battery with electric power generated by an electric power generation motor that is driven by motive power from an internal combustion engine and with electric power regenerated by a drive motor , and driving a drive wheel with the drive motor using the electric power of the battery ; starting generation of the electric power by the internal combustion engine if a vehicle requested output exceeds an electric power generation start threshold value, and stopping generation of electric power by the internal combustion engine if the vehicle requested output falls below an electric power generation stop threshold value; and increasing a deceleration rate through regeneration of the drive motor when an accelerator pedal is in an off state to a greater extent in a second advancement shift position than in a first advancement shift position, wherein at least one of the electric power generation start threshold value and the electric power generation stop threshold value in a case where the second advancement shift position has been selected is greater than a respective one of the electric power generation start threshold value or the electric power generation stop threshold value in a case where the first advancement shift position has been selected.
Arrangement for galvanically separated energy transmission with voltages in the high-voltage range, comprising a dielectric waveguide having a signal input, a first decoupling point and a second decoupling point, configured such that energy is transmitted via the dielectric waveguide, wherein the decoupling arrangement of the first decoupling point and/or the clearance of the first decoupling point to the signal input of the waveguide, and the decoupling arrangement of the second decoupling point and/or the clearance of the second decoupling point to the signal input of the waveguide are mutually variable, such that the value of power tapped at the first and second decoupling point is equal, wherein the arrangement moreover comprises a first rectifier device and at least one second rectifier device, and wherein the dielectric waveguide has a functional connection to the at least one first rectifier device and the at least one second rectifier device, such that the first rectifier device, on its input side, has a conductive connection along the length of the dielectric waveguide to the first decoupling point which is located along the length of the waveguide, and the second rectifier device, on its input side, has a conductive connection to the second decoupling point which is located along the length of the waveguide, arranged with a clearance to the signal input of the waveguide and with a mutual clearance, and wherein the functional connection is configured in the form of holes or slots arranged within the clearance and designed for the decoupling of power and/or conductive structures fitted to the decoupling point.
An aqueous pharmaceutical composition comprising Vancomycin and N-acetyl-D-Alanine.
An installation structure of a temperature sensor comprising: a measured object support provided with an installation section , a guide section , and a measured object support section configured to support a measured object which includes a rectangular parallelepiped battery cell body and battery cell terminals protruding from the battery cell body , and a temperature sensor provided with a guided section engaged with the guide section of the measured object support , and installed in the installation section of the measured object support by moving in a predetermined direction relative to the measured object support in a manner along one predetermined outer surface of the battery cell body of the measured object while engaging the guided section with the guide section , wherein the outer surface is any surface except for the surface from which the battery cell terminal protrudes. a measured object support provided with an installation section , a guide section , and a measured object support section configured to support a measured object which includes a rectangular parallelepiped battery cell body and battery cell terminals protruding from the battery cell body , and a temperature sensor provided with a guided section engaged with the guide section of the measured object support , and installed in the installation section of the measured object support by moving in a predetermined direction relative to the measured object support in a manner along one predetermined outer surface of the battery cell body of the measured object while engaging the guided section with the guide section , wherein the outer surface is any surface except for the surface from which the battery cell terminal protrudes.
An evolved Node B, eNodeB , for mitigating interference caused by a downlink signal transmitted by a neighboring eNodeB , the eNodeB comprising: a transceiver arranged to receive through a backhaul channel a reference signal from the neighboring eNodeB , and to receive, via an air interface, an uplink signal from a user equipment, UE , wherein the reference signal is the downlink signal transmitted from said neighboring eNodeB , and the uplink signal includes an uplink signal component from the UE , a composite interference signal resulting from the downlink signal transmitted from said neighboring eNodeB , and channel noise; a processing unit arranged to: obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB to the eNodeB using the reference signal ; combine the reference signal from the neighboring eNodeB and the estimate of the channel response to form the composite interference signal ; and subtract the composite interference signal from the uplink signal to detect the UE's uplink signal component in the received uplink signal . a transceiver arranged to receive through a backhaul channel a reference signal from the neighboring eNodeB , and to receive, via an air interface, an uplink signal from a user equipment, UE , wherein the reference signal is the downlink signal transmitted from said neighboring eNodeB , and the uplink signal includes an uplink signal component from the UE , a composite interference signal resulting from the downlink signal transmitted from said neighboring eNodeB , and channel noise; a processing unit arranged to: obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB to the eNodeB using the reference signal ; combine the reference signal from the neighboring eNodeB and the estimate of the channel response to form the composite interference signal ; and subtract the composite interference signal from the uplink signal to detect the UE's uplink signal component in the received uplink signal . obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB to the eNodeB using the reference signal ; combine the reference signal from the neighboring eNodeB and the estimate of the channel response to form the composite interference signal ; and subtract the composite interference signal from the uplink signal to detect the UE's uplink signal component in the received uplink signal .
A polypeptide comprising a first amino acid sequence according to SEQ ID NO: 1 and a second amino acid sequence according to SEQ ID NO: 2, wherein said first and second amino acid sequences are separated by less than 30 amino acid residues, and wherein the first amino acid sequence and the second amino acid sequence are separated by a linker according to SEQ ID NO: 20 or SEQ ID NO: 26.
A method for mounting a rear edge ridge onto a rotor blade of a wind turbine, wherein the rotor blade has a pressure and a suction side and an essentially straight trailing edge that corresponds to a rear edge of the rotor blade , comprising the steps of: - providing a tongue section projecting to the rear at the trailing edge to form one echelon each to the pressure side and to the suction side in the area of the tongue section ; - fitting the rear edge ridge or part thereof onto the tongue section , so that it is flush with the suction side or pressure side , respectively, in the area of the echelon , wherein the tongue section is provided such that it has a length referred to as a recess and a thickness (D) and a tongue edge , wherein the thickness (D) decreases towards the tongue edge . - providing a tongue section projecting to the rear at the trailing edge to form one echelon each to the pressure side and to the suction side in the area of the tongue section ; - fitting the rear edge ridge or part thereof onto the tongue section , so that it is flush with the suction side or pressure side , respectively, in the area of the echelon , wherein
A position alignment method performed by a ground assembly for wireless power transfer, the position alignment method comprising: measuring, through at least one low frequency receiver of the ground assembly , a first magnetic flux density for a magnetic field emitted from at least one low frequency transmitter of a vehicle assembly ; measuring, through the at least one low frequency receiver, a second magnetic flux density for a magnetic field emitted from the at least one low frequency transmitter; configuring a received signal measurement based on a comparison result of the first magnetic flux density and the second magnetic flux density; and providing the configured received signal measurement to a vehicle , characterized in that the first magnetic flux density is a maximum magnetic flux density for the magnetic field within a preconfigured range of a magnetic field that can be emitted from the at least one low frequency transmitter, and the second magnetic flux density is a minimum magnetic flux density for the magnetic field within the preconfigured range of a magnetic field that can be emitted from the at least one low frequency transmitter. measuring, through at least one low frequency receiver of the ground assembly , a first magnetic flux density for a magnetic field emitted from at least one low frequency transmitter of a vehicle assembly ; measuring, through the at least one low frequency receiver, a second magnetic flux density for a magnetic field emitted from the at least one low frequency transmitter; configuring a received signal measurement based on a comparison result of the first magnetic flux density and the second magnetic flux density; and providing the configured received signal measurement to a vehicle ,
A polyisocyanate composition comprising polyisocyanate compounds represented by general formula (I) and general formula (II): wherein in general formulas (I) and (II), pluralities of R 11 and R 21 each independently represent an organic group, at least one of the pluralities of R 11 and R 21 is a group represented by general formula (V), and the pluralities of R 11 and R 21 may be identical or different; wherein in general formula (V), each of a plurality of Y 1 independently represents a single bond or a divalent hydrocarbon group of 1 to 20 carbon atoms that may contain an ester structure and/or an ether structure, the plurality of Y 1 may be identical or different, R 51 represents a hydrogen atom or a monovalent hydrocarbon group of 1 to 12 carbon atoms, and a wavy line indicates a bonding site, wherein a molar ratio between iminooxadiazinedione structures and isocyanurate structures is at least 0.05 but not more than 1.5, and wherein a viscosity of the polyisocyanate composition, measured at 25°C as described in "<Viscosity>" in the description, is 10 to 1,000 mPa·s. a molar ratio between iminooxadiazinedione structures and isocyanurate structures is at least 0.05 but not more than 1.5, and wherein a viscosity of the polyisocyanate composition, measured at 25°C as described in "<Viscosity>" in the description, is 10 to 1,000 mPa·s.