mhurhangee/patent-ind-claim-en huggingface dataset:
An in vitro layered body having a layered structure in which a gel layer containing a hydrogel is disposed between at least two cell layers containing cells of different types from each other, wherein the hydrogel is a multi-branched polymer hydrogel formed by a reaction of: Liquid A containing a multi-branched polymer A, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more electrophilic functional groups in at least one of a side chain(s) and an end(s); and Liquid B containing a multi-branched polymer B, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more nucleophilic functional groups in at least one of a side chain(s) and an end(s), a concentration of components derived from the multi-branched polymer A and the multi-branched polymer B in the hydrogel is from 0.6% by weight to 8% by weight, and a thickness of the layered body ranges from 0.02 mm to 2 mm. the hydrogel is a multi-branched polymer hydrogel formed by a reaction of: Liquid A containing a multi-branched polymer A, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more electrophilic functional groups in at least one of a side chain(s) and an end(s); and Liquid B containing a multi-branched polymer B, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more nucleophilic functional groups in at least one of a side chain(s) and an end(s), a concentration of components derived from the multi-branched polymer A and the multi-branched polymer B in the hydrogel is from 0.6% by weight to 8% by weight, and a thickness of the layered body ranges from 0.02 mm to 2 mm. Liquid A containing a multi-branched polymer A, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more electrophilic functional groups in at least one of a side chain(s) and an end(s); and Liquid B containing a multi-branched polymer B, the polymer containing, as a backbone, a polyethylene glycol containing at least three branches, the branches containing one or more nucleophilic functional groups in at least one of a side chain(s) and an end(s), a concentration of components derived from the multi-branched polymer A and the multi-branched polymer B in the hydrogel is from 0.6% by weight to 8% by weight, and a thickness of the layered body ranges from 0.02 mm to 2 mm.
- Tyre having a radial carcass reinforcement , comprising a crown reinforcement, itself capped radially by a tread, said tread being joined to two beads , having a bead wire , via two sidewalls, said carcass reinforcement being made up of a single layer formed of textile reinforcing elements inserted between two skim layers made up of a rubbery compound having a secant elastic modulus under tension at 10% elongation Mc, said carcass reinforcement layer being turned up around the bead wire in each of the beads , the ends of said carcass reinforcement layer being radially on the outside of the radially outermost point of the bead wire in each bead, said tyre comprising, in each sidewall, a first filling element (J), axially on the inside of the outer surface of one sidewall and axially on the outside of the turn-up of the carcass reinforcement layer, made up of a rubbery compound having a secant elastic modulus under tension at 10% elongation M J , each bead comprising a second filling element (T), made up of a rubbery compound having a secant elastic modulus under tension at 10% elongation M T , radially extending the bead wire core towards the outside, axially on the outside of the carcass reinforcement layer and axially on the inside of the turn-up of the carcass reinforcement layer, said tyre comprising a third filling element (B 1), made up of a rubbery compound having a secant elastic modulus under tension at 10% elongation M B1 , axially in contact with the turn-up of the carcass reinforcement layer and axially in contact with the second filling element (T), and a fourth filling element (B2), made up of a rubbery compound having a secant elastic modulus under tension at 10% elongation M B2 , axially in contact with the turn-up of the carcass reinforcement layer and axially in contact with the first filling element (J), said third and fourth filling elements (B 1) and (B2) being axially in contact with one another radially on the outside of the end of the turn-up of the carcass reinforcement layer, characterized in that the carcass reinforcement layer exhibits a force at break per unit width greater than 3000 daN/dm, in that the carcass reinforcement layer is the only layer of reinforcing elements that is present radially on the inside of the bead wire , in that the secant elastic moduli under tension at 10% elongation M C , M B1 satisfy the relationship M C /M B1 < 2 and in that the secant elastic moduli under tension at 10% elongation M C , M B2 satisfy the relationship M C /M B2 < 2. characterized in that the carcass reinforcement layer exhibits a force at break per unit width greater than 3000 daN/dm, in that the carcass reinforcement layer is the only layer of reinforcing elements that is present radially on the inside of the bead wire , in that the secant elastic moduli under tension at 10% elongation M C , M B1 satisfy the relationship M C /M B1 < 2 and in that the secant elastic moduli under tension at 10% elongation M C , M B2 satisfy the relationship M C /M B2 < 2.
A terminal (UE) for communicating with a first base station (eNB) configured to support LTE, the first base station establishing an RRC connection with the terminal, and a second base station (NR) configured to support New Radio, NR, the terminal comprising: a receiver configured to receive, from the first base station, a first message indicating to establish a split bearer with the first base station and the second base station; and a communicator configured to establish the split bearer with the first base station and the second base station that are reported by the first message, wherein, when the receiver receives an indication to change the split bearer to a normal bearer from the first base station, the communicator is configured to end the communication with the second base station. a receiver configured to receive, from the first base station, a first message indicating to establish a split bearer with the first base station and the second base station; and a communicator configured to establish the split bearer with the first base station and the second base station that are reported by the first message, wherein, when the receiver receives an indication to change the split bearer to a normal bearer from the first base station, the communicator is configured to end the communication with the second base station.
A transmitting device configured to: generate a sequence of symbols by mapping a message onto a punctured N-dimensional symbol constellation , wherein N is a positive integer larger than 1, wherein the punctured N-dimensional symbol constellation is a full N-dimensional symbol constellation minus an exclusion set , wherein the exclusion set is a subset of symbols of the full N-dimensional symbol constellation, wherein the exclusion set is determined by minimizing a bit error probability under a 1-dimensional peak power constraint on the punctured N-dimensional symbol constellation , wherein the full N-dimensional symbol constellation is a Cartesian product of N identical 1-dimensional symbol constellations; and transmit the sequence of symbols . generate a sequence of symbols by mapping a message onto a punctured N-dimensional symbol constellation , wherein N is a positive integer larger than 1, wherein the punctured N-dimensional symbol constellation is a full N-dimensional symbol constellation minus an exclusion set , wherein the exclusion set is a subset of symbols of the full N-dimensional symbol constellation, wherein the exclusion set is determined by minimizing a bit error probability under a 1-dimensional peak power constraint on the punctured N-dimensional symbol constellation , wherein the full N-dimensional symbol constellation is a Cartesian product of N identical 1-dimensional symbol constellations; and transmit the sequence of symbols .
A polymeric fibre derived from a copolymer of polyacrylonitrile and a comonomer, said fibre comprising a metal ion and/or silicon at from about 1 to about 15 wt% and said fibre having no detectable crystallinity as measured using x-ray scattering, wherein the copolymer comprises from about 10 to about 30 mol% of the comonomer; characterised in that the comonomer is an acrylic or methacrylic comonomer; and the copolymer is not a block copolymer.
A reciprocating cutting blade apparatus comprising: a pair of reciprocating cutting blades disposed to overlap one another in a thickness direction; an upper support member and a lower support member configured to sandwich and reciprocably support the pair of reciprocating cutting blades ; and a transmission case to which the upper support member and the lower support member maintaining a distance therebetween are mounted, the transmission case including: a grease inlet and an upper grease reservoir provided above the upper support member , the upper grease reservoir being configured to accumulate grease poured from the grease inlet and; a lower grease reservoir provided below the lower support member and configured to accumulate the grease poured from the grease inlet , the upper support member including a through-hole configured to communicate with the upper grease reservoir , the lower support member including a through-hole configured to communicate with the lower grease reservoir , and the pair of reciprocating cutting blades including through-holes configured to allow communication between the through-hole of the upper support member and the through-hole of the lower support member , respectively. a pair of reciprocating cutting blades disposed to overlap one another in a thickness direction; an upper support member and a lower support member configured to sandwich and reciprocably support the pair of reciprocating cutting blades ; and a transmission case to which the upper support member and the lower support member maintaining a distance therebetween are mounted, the transmission case including: a grease inlet and an upper grease reservoir provided above the upper support member , the upper grease reservoir being configured to accumulate grease poured from the grease inlet and; a lower grease reservoir provided below the lower support member and configured to accumulate the grease poured from the grease inlet , a grease inlet and an upper grease reservoir provided above the upper support member , the upper grease reservoir being configured to accumulate grease poured from the grease inlet and; a lower grease reservoir provided below the lower support member and configured to accumulate the grease poured from the grease inlet , the upper support member including a through-hole configured to communicate with the upper grease reservoir , the lower support member including a through-hole configured to communicate with the lower grease reservoir , and the pair of reciprocating cutting blades including through-holes configured to allow communication between the through-hole of the upper support member and the through-hole of the lower support member , respectively.
Method for determining components of a mechanical action torsor at the guiding point of a cutting blade (L) for a cutting machine, the blade being guided in a presser foot (P; P'; P") of a cutting head of the machine, the method comprising: - positioning a six-component dynamometer on the presser foot, the dynamometer comprising a plurality of sensors capable of determining a frontal force, a lateral force, a rolling moment, a pitching moment and a yawing moment of the cutting blade; - establishing a calibration matrix of the dynamometer; and - determining the forces in three dimensions to which the cutting blade is subjected, on the basis of measurements obtained by the sensors and the calibration matrix. - positioning a six-component dynamometer on the presser foot, the dynamometer comprising a plurality of sensors capable of determining a frontal force, a lateral force, a rolling moment, a pitching moment and a yawing moment of the cutting blade; - establishing a calibration matrix of the dynamometer; and - determining the forces in three dimensions to which the cutting blade is subjected, on the basis of measurements obtained by the sensors and the calibration matrix.
Handle follower arrangement for a moveable wing, having a handle follower which is rotatably mounted in a housing , and having at least one actuating element which can be acted on by the handle follower and which, with the handle follower having been actuated against a spring action, brings about unlocking of an associated lock, wherein the handle follower is coupled via an actuating arm to the actuating element and via a spring arm to a spring element of a spring arrangement which generates the spring action, wherein the spring arrangement comprises a setting device via which a preloading force of the spring element can be set, and the setting device comprises a cylinder screw , having a screw head (26.1) and a threaded shank (26.2), and a nut , characterized in that a second guide element is arranged in the region of the screw head (26.1) and is fixed to the housing , wherein the second guide element secures the cylinder screw against rotation.
A system comprising: a) an energy source ; and b) an energy delivery device , said energy delivery device comprising: i) a toe or finger appendage attachment component having top and bottom portions configured to receive a toe or finger having a nail therebetween; and ii) an antenna electrically coupled to said energy source , characterized in that - said antenna is positioned between said nail of said finger or toe and said top portion of said toe or finger appendage attachment component when said toe or finger appendage attachment component receives said toe or finger , and - that said system further comprises: iii) a dielectric layer between said antenna and said nail of said finger or toe facing said nail ; iv) a first dielectric layer between said antenna and said top portion of said toe or finger appendage attachment component ; and v) one or more additional dielectric layers between said first dielectric layer and said top portion of said toe or finger appendage attachment component . a) an energy source ; and b) an energy delivery device , said energy delivery device comprising: i) a toe or finger appendage attachment component having top and bottom portions configured to receive a toe or finger having a nail therebetween; and ii) an antenna electrically coupled to said energy source , characterized in that - said antenna is positioned between said nail of said finger or toe and said top portion of said toe or finger appendage attachment component when said toe or finger appendage attachment component receives said toe or finger , and - that said system further comprises: iii) a dielectric layer between said antenna and said nail of said finger or toe facing said nail ; iv) a first dielectric layer between said antenna and said top portion of said toe or finger appendage attachment component ; and v) one or more additional dielectric layers between said first dielectric layer and said top portion of said toe or finger appendage attachment component . i) a toe or finger appendage attachment component having top and bottom portions configured to receive a toe or finger having a nail therebetween; and ii) an antenna electrically coupled to said energy source , characterized in that - said antenna is positioned between said nail of said finger or toe and said top portion of said toe or finger appendage attachment component when said toe or finger appendage attachment component receives said toe or finger , and - that said system further comprises: - said antenna is positioned between said nail of said finger or toe and said top portion of said toe or finger appendage attachment component when said toe or finger appendage attachment component receives said toe or finger , and - that said system further comprises: iii) a dielectric layer between said antenna and said nail of said finger or toe facing said nail ; iv) a first dielectric layer between said antenna and said top portion of said toe or finger appendage attachment component ; and v) one or more additional dielectric layers between said first dielectric layer and said top portion of said toe or finger appendage attachment component .
A method for transitioning operation between graphics processors of at least two graphics processors in a device, the method comprising: determining that the device has switched to a second graphics processor of the at least two graphics processors from a first graphics processor of the at least two graphics processors; in response to determining that the device has switched, identifying a portion of settings corresponding to the first graphics processor to be applied to the second graphics processor to provide transferable graphics-related settings; updating settings corresponding to the second graphics processor based on the transferable graphics-related settings used to provide display data, the transferable graphics-related settings identified from the first graphics processor to provide updated settings; and wherein the device comprises a display in communication with any of the at least two graphics processors; and providing, by the second graphics processor, the display data to the display based on the updated settings; wherein, when the settings corresponding to the first and second graphics processors differ in range, certain ones of the transferrable graphics-related settings identified from the first graphics processor have a translation or transformation automatically applied thereto, with the translated or transformed transferrable graphics-related settings being used to properly update the settings corresponding to the second graphics processor. determining that the device has switched to a second graphics processor of the at least two graphics processors from a first graphics processor of the at least two graphics processors; in response to determining that the device has switched, identifying a portion of settings corresponding to the first graphics processor to be applied to the second graphics processor to provide transferable graphics-related settings; updating settings corresponding to the second graphics processor based on the transferable graphics-related settings used to provide display data, the transferable graphics-related settings identified from the first graphics processor to provide updated settings; and wherein the device comprises a display in communication with any of the at least two graphics processors; and providing, by the second graphics processor, the display data to the display based on the updated settings; wherein, when the settings corresponding to the first and second graphics processors differ in range, certain ones of the transferrable graphics-related settings identified from the first graphics processor have a translation or transformation automatically applied thereto, with the translated or transformed transferrable graphics-related settings being used to properly update the settings corresponding to the second graphics processor.
A method for performing an access attempt in a user equipment, UE, authorized to be connected to a Home eNode B, HeNB, of a mobile telecommunication, wherein the HeNB serves at least one femto cell, the method comprises the steps of: - receiving Femto Cell Location Information indicative of a location of the HeNB via a core network node from the HeNB; - determining the UE's own location; - determining whether the UE's own location is within a range in relation to the location of the HeNB; - if it is determined that the location of the authorized UE is within a range in relation to the location of the HeNB, sending a message to the HeNB, via a currently connected eNode B and a core network, to switch ON the HeNB and performing an access attempt to access the HeNB; and - if it is determined that the location of the UE is not within a range in relation to the location of the HeNB, sending a message to the HeNB, via a currently connected eNode B and a core network, to switch OFF the HeNB. - receiving Femto Cell Location Information indicative of a location of the HeNB via a core network node from the HeNB; - determining the UE's own location; - determining whether the UE's own location is within a range in relation to the location of the HeNB; - if it is determined that the location of the authorized UE is within a range in relation to the location of the HeNB, sending a message to the HeNB, via a currently connected eNode B and a core network, to switch ON the HeNB and performing an access attempt to access the HeNB; and - if it is determined that the location of the UE is not within a range in relation to the location of the HeNB, sending a message to the HeNB, via a currently connected eNode B and a core network, to switch OFF the HeNB.
A vehicle steering wheel comprising a steering wheel axis (A) about which the vehicle steering wheel can be rotated in the installed state, a steering wheel carcass which has a hub section in the region of the steering wheel axis (A), as well as a separate latching peg for latching with an airbag module , which extends in the axial direction and can be mounted on the steering wheel carcass , wherein the hub section of the steering wheel carcass includes a rigid carcass hook for latching with the airbag module , which extends in the axial direction , wherein the latching peg adjoins the carcass hook , characterized in that the latching peg at least partially surrounds the carcass hook in the circumferential direction, wherein the carcass hook extends starting from the hub section in the axial direction to a free end and, at the free end , includes a latching lug having a stop face for a latching spring of the airbag module . a steering wheel axis (A) about which the vehicle steering wheel can be rotated in the installed state, a steering wheel carcass which has a hub section in the region of the steering wheel axis (A), as well as a separate latching peg for latching with an airbag module , which extends in the axial direction and can be mounted on the steering wheel carcass , wherein the hub section of the steering wheel carcass includes a rigid carcass hook for latching with the airbag module , which extends in the axial direction , wherein the latching peg adjoins the carcass hook , characterized in that the latching peg at least partially surrounds the carcass hook in the circumferential direction, wherein the carcass hook extends starting from the hub section in the axial direction to a free end and, at the free end , includes a latching lug having a stop face for a latching spring of the airbag module .