mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition, comprising based on 100 parts by weight of a base resin comprising (A-1) 75 to 90 wt% of a polycarbonate resin; (A-2) 5 to 15 wt% of an acryl-based graft copolymer; and (A-3) 5 to 15 wt% of an aromatic vinyl-vinyl cyanide copolymer, (B) 5 to 20 parts by weight of a polyamide-polyalkylene glycol copolymer; and (C) 4 to 6 parts by weight of a cross-linked aromatic vinyl-vinyl cyanide copolymer. (A-1) 75 to 90 wt% of a polycarbonate resin; (A-2) 5 to 15 wt% of an acryl-based graft copolymer; and (A-3) 5 to 15 wt% of an aromatic vinyl-vinyl cyanide copolymer, (B) 5 to 20 parts by weight of a polyamide-polyalkylene glycol copolymer; and (C) 4 to 6 parts by weight of a cross-linked aromatic vinyl-vinyl cyanide copolymer.
A hard, inflexible flooring material or wall covering material having a top surface and a bottom surface , wherein the bottom surface is provided with a solid, hydrophobic primer layer which primer layer comprises 60 wt% to 100 wt% of a hydrophobic material, and wherein said primer layer comprises a material selected from the group consisting of: C 20 to C 70 linear or cycloalkanes; natural waxes; slack wax; polytetrafluorethylene (PTFE) resins; perfluoroalkoxy (PFA) resins; fluorinated ethylene propylene (FEP) resins; and, mixtures thereof; and wherein the flooring or covering material is a ceramic tile, a tile composed of marble, slate and glass, a tile of natural stone or artificial stone tiles bonded by resins.
Method for forming a strained semiconductor structure comprising, providing a strain relaxed buffer layer on a substrate , forming a sacrificial layer on said strain relaxed buffer layer , forming a shallow trench isolation structure through said sacrificial layer and partly through the strain relaxed buffer layer , whereby the trench is filled with an insulating material, removing at least a portion of an oxide layer on said sacrificial layer , wherein said oxide layer is a native oxide layer, etching through said sacrificial layer such that a portion of said strain relaxed buffer layer is exposed, forming said strained semiconductor structure on said exposed portion of said strain relaxed buffer layer .
Pneumatic actuator for actuating a functional element , in particular a pneumatic clutch actuator for a commercial vehicle for actuating a clutch of the commercial vehicle , comprising a pneumatic piston , a pneumatic housing , wherein the pneumatic piston is arranged in the pneumatic housing so as to be displaceable along an adjusting axis (AS) for executing a stroke (H), an interface holder with an interface for connecting the pneumatic actuator to the functional element , and a wear compensation device which is designed to temporarily fix the pneumatic piston and the interface holder in order to transmit an adjusting force (Fs) from the pneumatic piston to the interface holder and to release the temporary fixation between the pneumatic piston and the interface holder in order to compensate for a wear-related stroke change of the functional element , characterized in that the wear compensation device has an extension sleeve . a pneumatic piston , a pneumatic housing , wherein the pneumatic piston is arranged in the pneumatic housing so as to be displaceable along an adjusting axis (AS) for executing a stroke (H), an interface holder with an interface for connecting the pneumatic actuator to the functional element , and a wear compensation device which is designed to temporarily fix the pneumatic piston and the interface holder in order to transmit an adjusting force (Fs) from the pneumatic piston to the interface holder and to release the temporary fixation between the pneumatic piston and the interface holder in order to compensate for a wear-related stroke change of the functional element , characterized in that the wear compensation device has an extension sleeve .
A pressure regulator for an intubation probe cooperating with a breathing system intended for the ventilation of a patient , said system including a main pipe having a first end intended to be inserted into the patient's trachea and a second end intended to be connected to a breathing apparatus , an annular inflatable sealing balloon , which surrounds the main pipe at the first end and at least one auxiliary pipe having a first end connected to the sealing balloon and a second end provided with a valve which can be connected to a source of a compressed gas to inflate the sealing balloon , said pressure regulator being inserted between said gas source and the balloon , regulator comprising a container whose base is in contact with a base plane , formed from a variable volume chamber , having at least one first orifice to be connected to said gas source and a second orifice to be connected to said auxiliary pipe such that, in use, the variable volume chamber and the sealing balloon are in communication, regulator comprising a tappet acting on the chamber to exert a certain force by means of a pressure mass which can be displaced to adjust said pressure of the gas contained in said variable volume chamber, and consequently the pressure of the gas contained in the sealing balloon , said pressure mass being attached to a rod pivoting along its length in a vertical plane about a fixing shaft to act, via said tappet , on said chamber characterised in that said base plane is disposed in a vertical position, during its operation.
A method of commissioning a set of fixed devices (121-129) of a structure , comprising: communicating through a communication channel, by a radio of a mobile computing device , with one or more of the set of fixed devices (121-129), wherein the set of fixed devices (121-129) each have a fixed location within the structure ; stimulating, by the mobile computing device , a sensor of the one or more of the set of fixed devices (121-129); communicating through the communication channel, by each of the one or more of the set of fixed devices (121-129), a device identifier in response to the sensor of the one or more of the set of fixed devices (121-129) having been stimulated by the mobile computing device ; placing each of the one or more of the set of devices (121-129) on a floor plan of the structure based at least in part on proximity dependent information of the one or more of the set of fixed devices (121-129); and wherein the sensor includes a power metering device of the one or more of the set of fixed devices (121-129), wherein stimulating the sensor comprises loading the power metering device with a particular type of load. communicating through a communication channel, by a radio of a mobile computing device , with one or more of the set of fixed devices (121-129), wherein the set of fixed devices (121-129) each have a fixed location within the structure ; stimulating, by the mobile computing device , a sensor of the one or more of the set of fixed devices (121-129); communicating through the communication channel, by each of the one or more of the set of fixed devices (121-129), a device identifier in response to the sensor of the one or more of the set of fixed devices (121-129) having been stimulated by the mobile computing device ; placing each of the one or more of the set of devices (121-129) on a floor plan of the structure based at least in part on proximity dependent information of the one or more of the set of fixed devices (121-129); and wherein the sensor includes a power metering device of the one or more of the set of fixed devices (121-129), wherein stimulating the sensor comprises loading the power metering device with a particular type of load.
A composition or vaccine comprising a recombinant viral vector expressing a foot and mouth Disease Virus (FMDV) antigen, wherein the FMDV antigen comprises a polypeptide having the sequence as set forth in SEQ ID NO: 2, 4, 6 or 8 or a sequence having at least 80% sequence identity to the sequence as set forth in SEQ ID NO: 2, 4, 6 or 8.
A leading edge assembly comprising: a foam core ; an outer strike shell on a portion of the exterior of the foam core , the outer strike shell comprising: an outer metallic layer ; and an inner composite layer ; and a heating element configured to provide thermal energy to the outer metallic layer , characterized in that the foam core comprises a channel configured to receive a portion of a leading edge of an air inlet device. a foam core ; an outer strike shell on a portion of the exterior of the foam core , the outer strike shell comprising: an outer metallic layer ; and an inner composite layer ; and an outer metallic layer ; and an inner composite layer ; and a heating element configured to provide thermal energy to the outer metallic layer , characterized in that the foam core comprises a channel configured to receive a portion of a leading edge of an air inlet device.
A metamaterial comprising an array of unit cells each formed by at least one conductive track , wherein the at least one conductive track of at least one of the unit cells is configured as an asymmetrical split-ring resonator which does not have a mirror symmetry plane perpendicular to a plane of the conductive track , wherein the at least one unit cell comprises first and second L-shaped conductive members disposed back-to-back in a plane with a gap between the members , and connected together by a perimetral conductive track that runs from an arm of the first L-shaped conductive member to an arm of the second L-shaped conductive member so as substantially to surround both L-shaped conductive members in the plane, and wherein the first and second L-shaped conductive members in at least one of the unit cells are differently sized and/or shaped to each other.
A method for separating high purity lignin from waste streams, the method comprising: i. removing extractives from the waste steam using by hot water treatment at 70 - 90° C, and repeating the step for 2-5 times; ii. extracting solids obtained in pervious step with a product stream generated during the distillation process of the fermented broth generated after pretreatment of lignocellulosic biomass, enzymatic saccharification and co-fermentation (technical spirit) or fusel oil, and repeating the step 1-2 times to obtain extractive-free lignin rich residue; iii. fractioning extractive-free lignin rich residue obtained in previous step with a solvent in high pressure reactor; iv. separating the slurry obtained in pervious step into solid and liquid fractions. v. washing the solid fraction with solvent of step (iii), followed by washing with water; and vi. combining the wash from step (v) to liquid fraction and recovering the lignin. i. removing extractives from the waste steam using by hot water treatment at 70 - 90° C, and repeating the step for 2-5 times; ii. extracting solids obtained in pervious step with a product stream generated during the distillation process of the fermented broth generated after pretreatment of lignocellulosic biomass, enzymatic saccharification and co-fermentation (technical spirit) or fusel oil, and repeating the step 1-2 times to obtain extractive-free lignin rich residue; iii. fractioning extractive-free lignin rich residue obtained in previous step with a solvent in high pressure reactor; iv. separating the slurry obtained in pervious step into solid and liquid fractions. v. washing the solid fraction with solvent of step (iii), followed by washing with water; and vi. combining the wash from step (v) to liquid fraction and recovering the lignin.
A connection structure , comprising a splicing region and a fiber management region that are disposed with a distance therebetween along a circumferential direction of the connection structure, wherein the connection structure is a cylinder-like object and the circumferential direction is a direction circling a central axis of the connection structure, wherein the splicing region is usable to splice optical fibers in different optical cables by using a splicing device to implement connection between the different optical cables and wherein the fiber management region is configured to store redundant optical fibers of the optical cables, wherein a fiber routing path passing through the connection structure in the splicing region and the connection structure in the fiber management region is further disposed in the connection structure, so that an optical fiber extends into the fiber management region for storage through the fiber routing path from the splicing region, and wherein the fiber routing path is disposed in a groove on an outer sidewall of the connection structure, characterized in that a first positioning plate and a second positioning plate protrude from a sidewall of the fiber routing path, the first positioning plate and the second positioning plate are disposed opposite each other, to prevent the optical fiber from coming out of the fiber routing path and protect the optical fiber, and an entering groove is formed between the first positioning plate and the second positioning plate, in order to facilitate the optical fiber to enter the fiber routing path .
An integrated circuit device comprising at least one digital signal processor (DSP) module , the at least one DSP module comprising a first data register and at least one further data register and at least one data execution unit (DEU) module arranged to execute operations on target data stored within the first data register and the at least one further data register ; characterized in that the at least one DEU module is arranged, upon receipt of a conditional negation instruction , said conditional negation instruction being an instruction to perform a conditional negation of a data value, to: retrieve at least one conditional bit value from the first data register ; and conditionally perform negation of target data within the at least one further data register according to the retrieved at least one conditional bit value , wherein the at least one DEU module is further arranged, upon receipt of the conditional negation instruction , to: extract a conditional bit vector seed value from the received conditional negation instruction ; generate a plurality of conditional bit vector values based at least partly on the conditional bit vector seed value ; retrieve a plurality of conditional bit values from the first data register in accordance with the plurality of conditional bit vector values ; and conditionally perform negation of a plurality of target data blocks within the at least one further data register according to the retrieved conditional bit values . retrieve at least one conditional bit value from the first data register ; and conditionally perform negation of target data within the at least one further data register according to the retrieved at least one conditional bit value , wherein the at least one DEU module is further arranged, upon receipt of the conditional negation instruction , to: extract a conditional bit vector seed value from the received conditional negation instruction ; generate a plurality of conditional bit vector values based at least partly on the conditional bit vector seed value ; retrieve a plurality of conditional bit values from the first data register in accordance with the plurality of conditional bit vector values ; and conditionally perform negation of a plurality of target data blocks within the at least one further data register according to the retrieved conditional bit values . extract a conditional bit vector seed value from the received conditional negation instruction ; generate a plurality of conditional bit vector values based at least partly on the conditional bit vector seed value ; retrieve a plurality of conditional bit values from the first data register in accordance with the plurality of conditional bit vector values ; and conditionally perform negation of a plurality of target data blocks within the at least one further data register according to the retrieved conditional bit values .
A method of bonding, especially structural bonding, of two shaped bodies S1 and S2, said method comprising the steps of: a) providing a shaped body S1 ; b) arranging a shaped body S2 with respect to the shaped body S1, forming a cavity between the two shaped bodies S1 and S2, c) introducing a one-component thermosetting epoxy resin compositions into the cavity , wherein the one-component thermosetting epoxy resin composition is a one-component thermosetting epoxy resin composition comprising - at least one epoxy resin A having an average of more than one epoxy group per molecule; - at least one curing agent B for epoxy resins which is activated by elevated temperature; - at least one polyester polyol PP obtainable by the reaction of - at least one diol having the structure HO-(CH 2 ) x' -OH where the value of x' = 2 to 10, and - at least one dicarboxylic acid having the structure HOOC-(CH 2 ) y' -COOH and derivatives of this dicarboxylic acid, where the value of y' = 8 to 18, and wherein the proportion of the polyester polyol PP is 1.5% to 20% by weight, based on the total weight of the one-component thermosetting epoxy resin composition. a) providing a shaped body S1 ; b) arranging a shaped body S2 with respect to the shaped body S1, forming a cavity between the two shaped bodies S1 and S2, c) introducing a one-component thermosetting epoxy resin compositions into the cavity , - at least one epoxy resin A having an average of more than one epoxy group per molecule; - at least one curing agent B for epoxy resins which is activated by elevated temperature; - at least one polyester polyol PP obtainable by the reaction of - at least one diol having the structure HO-(CH 2 ) x' -OH where the value of x' = 2 to 10, and - at least one dicarboxylic acid having the structure HOOC-(CH 2 ) y' -COOH and derivatives of this dicarboxylic acid, where the value of y' = 8 to 18, and wherein the proportion of the polyester polyol PP is 1.5% to 20% by weight, based on the total weight of the one-component thermosetting epoxy resin composition. - at least one diol having the structure HO-(CH 2 ) x' -OH where the value of x' = 2 to 10, and - at least one dicarboxylic acid having the structure HOOC-(CH 2 ) y' -COOH and derivatives of this dicarboxylic acid, where the value of y' = 8 to 18,
A method, comprising: converting complex-valued data symbols to a transmit signal using a partial response pulse shaping function, wherein the pulse shaping function is given by p T t = ∑ l = 0 L − 1 f l ⋅ sinc t − lT s T s where L is an integer, single-sided memory span of the transmit filter, T s is the symbol duration, and f l is a coefficient associated with a memory l ; modulating the transmit signal onto a carrier wave for transmission as a modulated transmit signal; receiving the modulated transmit signal at a nonlinear satellite transponder ; amplifying the received modulated transmit signal using a nonlinear amplifier of the satellite transponder ; and broadcasting the amplified modulated transmit signal from the satellite transponder to one or more downlink receivers ; wherein f l is selected by running capacity simulations that compare signal spectrum and signal channel capacity for different sets of coefficients, and selecting, from the different sets of coefficients, the set of coefficients that provides acceptable signal channel capacity and the most compact signal spectrum. converting complex-valued data symbols to a transmit signal using a partial response pulse shaping function, wherein the pulse shaping function is given by p T t = ∑ l = 0 L − 1 f l ⋅ sinc t − lT s T s where L is an integer, single-sided memory span of the transmit filter, T s is the symbol duration, and f l is a coefficient associated with a memory l ; modulating the transmit signal onto a carrier wave for transmission as a modulated transmit signal; receiving the modulated transmit signal at a nonlinear satellite transponder ; amplifying the received modulated transmit signal using a nonlinear amplifier of the satellite transponder ; and broadcasting the amplified modulated transmit signal from the satellite transponder to one or more downlink receivers ; wherein f l is selected by running capacity simulations that compare signal spectrum and signal channel capacity for different sets of coefficients, and selecting, from the different sets of coefficients, the set of coefficients that provides acceptable signal channel capacity and the most compact signal spectrum.
Power amplification device able to be supplied by a single input voltage and comprising a switch module , said switch module comprising a first discharge electrode and a second discharge electrode , arranged facing each other at a predetermined fixed distance (D) defining a space (E) for generating an electric arc (A2), and a triggering means situated in the vicinity of said space (E) and being configured to trigger the formation of said electric arc (A2) in said space (E), said power amplification device being characterised in that it comprises a triggering module comprising: - a voltage converter configured to convert the input voltage (Ue) into a first supply voltage (BT1) and into a second supply voltage (BT2), - a detection sub-module configured to: ∘ detect an activation event, ∘ generate, from the first supply voltage (BT1), an activation signal (S act ) when an activation event has been detected, - a pulse generator configured to: ∘ generate, from the second supply voltage (BT2), a pulse control (Ci) when an activation signal has been generated, and ∘ transmit the generated pulse control (Ci) to the triggering means of the switch module in order that the triggering means trigger the formation of an electric arc (A2) between the first discharge electrode and the second discharge electrode . - a voltage converter configured to convert the input voltage (Ue) into a first supply voltage (BT1) and into a second supply voltage (BT2), - a detection sub-module configured to: ∘ detect an activation event, ∘ generate, from the first supply voltage (BT1), an activation signal (S act ) when an activation event has been detected, ∘ detect an activation event, ∘ generate, from the first supply voltage (BT1), an activation signal (S act ) when an activation event has been detected, - a pulse generator configured to: ∘ generate, from the second supply voltage (BT2), a pulse control (Ci) when an activation signal has been generated, and ∘ transmit the generated pulse control (Ci) to the triggering means of the switch module in order that the triggering means trigger the formation of an electric arc (A2) between the first discharge electrode and the second discharge electrode . ∘ generate, from the second supply voltage (BT2), a pulse control (Ci) when an activation signal has been generated, and ∘ transmit the generated pulse control (Ci) to the triggering means of the switch module in order that the triggering means trigger the formation of an electric arc (A2) between the first discharge electrode and the second discharge electrode .
Wheel hub drive acting as a direct drive of a wheel of a vehicle, in particular a utility vehicle, having an electrical external rotor motor which is preferably constructed as a permanently excited synchronous motor and which is arranged substantially in the region inside the wheel, wherein for braking a rotating component of a friction brake is connected to the motor in a non-positive-locking and/or positive-locking and/or materially engaging manner, wherein the rotating component is operationally connected directly or indirectly to the rotor of the motor from outside the motor, characterised in that the motor has at the outer side/wheel side a removable flange, by removing which an inner space of a stator of the motor and consequently an internal inverter and/or an additional motor circuit and an electrical/electronic system are accessible.