mhurhangee/patent-ind-claim-en huggingface dataset:
A terahertz quantum cascade laser device, comprising: a substrate ; a semiconductor stacked body including an active layer and a first clad layer , the active layer being provided on the substrate and being configured to emit a first infrared laser light (G1) and a second infrared laser light (G2) by an intersubband optical transition, the two infrared laser lights (G1, G2) having different frequencies, the first clad layer being provided on the active layer , a ridge waveguide being provided in the semiconductor stacked body , a first distributed feedback region and a second distributed feedback region being provided at an upper surface of the first clad layer to be separated from each other along an extension direction of the ridge waveguide ; and a first electrode provided at the upper surface of the first clad layer , the first electrode being subdivided into a first electrode region , provided at an upper surface of the first distributed feedback region , and a second electrode region , provided at an upper surface of the second distributed feedback region and separated from the first electrode region , wherein a planar size of the first distributed feedback region is smaller than a planar size of the second distributed feedback region . a substrate ; a semiconductor stacked body including an active layer and a first clad layer , the active layer being provided on the substrate and being configured to emit a first infrared laser light (G1) and a second infrared laser light (G2) by an intersubband optical transition, the two infrared laser lights (G1, G2) having different frequencies, the first clad layer being provided on the active layer , a ridge waveguide being provided in the semiconductor stacked body , a first distributed feedback region and a second distributed feedback region being provided at an upper surface of the first clad layer to be separated from each other along an extension direction of the ridge waveguide ; and a first electrode provided at the upper surface of the first clad layer , the first electrode being subdivided into a first electrode region , provided at an upper surface of the first distributed feedback region , and a second electrode region , provided at an upper surface of the second distributed feedback region and separated from the first electrode region , wherein a planar size of the first distributed feedback region is smaller than a planar size of the second distributed feedback region .
Clamping device , in particular a vertical clamp, for clamping workpieces , in particular those of wood or wood substitutes, plastics or metals, comprising: a first clamping element with a first clamping face , a second clamping element with a second clamping face facing the first clamping face wherein the first clamping element and the second clamping element are movable relative to one another via a drive device for clamping or releasing a workpiece between the clamping faces , wherein the first clamping element is fixed on a connector member having a first thread or is formed integral therewith, and the second clamping element is mounted on a bearing section in which a tension element is mounted in displaceable manner movable relative to the bearing section and has a counter thread matching the first thread , wherein the connector member and the tension element are connected to one another via the thread and the counter thread , wherein the connector member has a releasable first rotational lock which is designed in the locked state to prevent a relative rotation between the connector member and the tension element and in the released state to enable such relative rotation, characterised in that the first rotational lock comprises a traction element which is guided through the connector member . a first clamping element with a first clamping face , a second clamping element with a second clamping face facing the first clamping face wherein the first clamping element and the second clamping element are movable relative to one another via a drive device for clamping or releasing a workpiece between the clamping faces , wherein the first clamping element is fixed on a connector member having a first thread or is formed integral therewith, and the second clamping element is mounted on a bearing section in which a tension element is mounted in displaceable manner movable relative to the bearing section and has a counter thread matching the first thread , wherein the connector member and the tension element are connected to one another via the thread and the counter thread , wherein the connector member has a releasable first rotational lock which is designed in the locked state to prevent a relative rotation between the connector member and the tension element and in the released state to enable such relative rotation, characterised in that the first rotational lock comprises a traction element which is guided through the connector member .
An implantable fiber for use in reducing or treating acute pain in a patient in need of such treatment, the implantable fiber comprising at least a portion to attach to a target tissue site beneath the skin of the patient, wherein the diameter of the fiber is from 0.4 mm to 0.8 mm, and a length of from 25 mm to 50 mm, which is suitable for implantation at or near a target tissue site, wherein the fiber comprises poly(L-lactide-co-caprolactone), wherein the ratio of L-lactide to caprolactone is 60:40, wherein the clonidine drug load is 8 wt.% to 16wt.% of the implantable fiber, wherein the fiber has an initial burst release from 10% to 40% cumulative release of the clonidine within 1 day, and wherein the fiber has a % cumulative release rate of 10% to 20% per day for at least 14 days.
A user equipment, UE, comprising: a reception unit configured to receive a radio resource control, RRC, message from a network which includes an information element, the information element instructing the UE to activate a function of carrying a scheduling request, SR, using an acknowledgement or negative acknowledgement, ACK/NACK, resource; an activating unit activating the function as a result of the instruction; a determining unit configured to determine whether a medium access control, MAC, entity has a valid resource for carrying an ACK/NACK and whether the function is activated; an instruction unit configured to, in response to the determining unit determining that a MAC entity has a valid resource for carrying an ACK/NACK and the function is activated, instruct a physical layer to signal an SR on the valid resource for carrying the ACK/NACK; and a transmission unit comprising the physical layer configured to transmit based on the instruction, the SR on a physical uplink shared channel on the valid resource for carrying the ACK/NACK. a reception unit configured to receive a radio resource control, RRC, message from a network which includes an information element, the information element instructing the UE to activate a function of carrying a scheduling request, SR, using an acknowledgement or negative acknowledgement, ACK/NACK, resource; an activating unit activating the function as a result of the instruction; a determining unit configured to determine whether a medium access control, MAC, entity has a valid resource for carrying an ACK/NACK and whether the function is activated; an instruction unit configured to, in response to the determining unit determining that a MAC entity has a valid resource for carrying an ACK/NACK and the function is activated, instruct a physical layer to signal an SR on the valid resource for carrying the ACK/NACK; and a transmission unit comprising the physical layer configured to transmit based on the instruction, the SR on a physical uplink shared channel on the valid resource for carrying the ACK/NACK. in response to the determining unit determining that a MAC entity has a valid resource for carrying an ACK/NACK and the function is activated, instruct a physical layer to signal an SR on the valid resource for carrying the ACK/NACK; and a transmission unit comprising the physical layer configured to transmit based on the instruction, the SR on a physical uplink shared channel on the valid resource for carrying the ACK/NACK.
Housing of a blood treatment device with at least one housing wall , one opening which is provided in the housing wall to create an access to the inside of the housing and one housing door by means of which the opening can be closed, characterised in that the housing door has or forms an installation space inside the door kept separate from the inside of the housing for at least one device component , which can be closed by means of an additional door , wherein, even if the housing door is closed, the installation space is accessible from the outside via the additional door which can be operated from outside the housing for this purpose.
A resin composition for a brake pad friction material comprising a resin binder cured from a composition containing a phthalonitrile compound, reinforcing fiber, a filler, an abrasive, and a lubricant, wherein the resin binder is formed by curing of the composition containing a phthalonitrile compound by one or more curing agents including a compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number that is equal to or greater than 1, wherein the filler comprises one or more selected from the group consisting of barium sulfate and calcium carbonate, the abrasive comprises one or more selected from the group consisting of zirconia, alumina, zirconium silicate, and silicon carbide, and the lubricant comprises one or more selected from the group consisting of graphite, cokes, antimony oxide, hexagonal boron nitride, graphene, carbon nanotubes, and metal sulfide. M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number that is equal to or greater than 1, wherein the filler comprises one or more selected from the group consisting of barium sulfate and calcium carbonate, the abrasive comprises one or more selected from the group consisting of zirconia, alumina, zirconium silicate, and silicon carbide, and the lubricant comprises one or more selected from the group consisting of graphite, cokes, antimony oxide, hexagonal boron nitride, graphene, carbon nanotubes, and metal sulfide.
A method for flying a large balloon, comprising the following steps: S1: connecting one end of a balloon capsule to one end of a rope , fastening the other end of the rope to a pod , and disposing, on the balloon capsule, a bundling part that can be controlled remotely, wherein the bundling part divides the balloon capsule into a first capsule part away from the pod and a second capsule part close to the pod; S2: disposing a constraint apparatus above the second capsule part, wherein the constraint apparatus constrains the second capsule part along a length direction of the second capsule part; S3: inflating the first capsule part until the first capsule part flies away from the ground; S4: when the first capsule part continuously moves towards a direction close to the pod in a horizontal direction, gradually releasing the constraint apparatus in a direction from one end, close to the first capsule part, of the second capsule part to the pod; S5: after the balloon capsule fully rises, relieving a constraint of the bundling part on the balloon capsule, so that the entire balloon capsule is flown to the sky. S1: connecting one end of a balloon capsule to one end of a rope , fastening the other end of the rope to a pod , and disposing, on the balloon capsule, a bundling part that can be controlled remotely, wherein the bundling part divides the balloon capsule into a first capsule part away from the pod and a second capsule part close to the pod; S2: disposing a constraint apparatus above the second capsule part, wherein the constraint apparatus constrains the second capsule part along a length direction of the second capsule part; S3: inflating the first capsule part until the first capsule part flies away from the ground; S4: when the first capsule part continuously moves towards a direction close to the pod in a horizontal direction, gradually releasing the constraint apparatus in a direction from one end, close to the first capsule part, of the second capsule part to the pod; S5: after the balloon capsule fully rises, relieving a constraint of the bundling part on the balloon capsule, so that the entire balloon capsule is flown to the sky.
A communication method for mobile devices, comprising: obtaining additional instruction information corresponding to a first user operation on a first mobile device by sensing the first user operation, the first user operation comprising a voice-activated operation or a one-step operation, obtaining encoding information corresponding to the additional instruction information, by inquiring pre-stored first correspondence between additional instruction information and encoding information of additional instruction information; and transmitting the obtained encoding information to a second mobile device, enabling the second mobile device to notify a second user of the second mobile device of the first user operation based on the obtained encoding information, wherein when the additional instruction information is an emoticon, encoding of the emoticon is set to be different with encodings of emoticons in existing chat tools, by defining a new set of emoticon fields and establishing a new set of correspondence between the emoticon and the encoding of the emoticon to define a marker start byte; and wherein the marker start byte is an invisible byte to avoid a user from inputting an identical byte obtaining additional instruction information corresponding to a first user operation on a first mobile device by sensing the first user operation, the first user operation comprising a voice-activated operation or a one-step operation, obtaining encoding information corresponding to the additional instruction information, by inquiring pre-stored first correspondence between additional instruction information and encoding information of additional instruction information; and transmitting the obtained encoding information to a second mobile device, enabling the second mobile device to notify a second user of the second mobile device of the first user operation based on the obtained encoding information, wherein when the additional instruction information is an emoticon, encoding of the emoticon is set to be different with encodings of emoticons in existing chat tools, by defining a new set of emoticon fields and establishing a new set of correspondence between the emoticon and the encoding of the emoticon to define a marker start byte; and wherein the marker start byte is an invisible byte to avoid a user from inputting an identical byte
A method carried out by one or more devices, comprising: - non-destructively determining structural information characteristic for at least part of the structure of a textile ; - ascertaining at least one treatment parameter of the textile based at least in part on the structural information; and - outputting or triggering the output of the at least one treatment parameter, characterized in that at least one optical sensor element is used to determine the structural information, the at least one optical sensor element providing a three-dimensional spatial resolution, and the structural information being indicative of the height, the shape and/or amount of pilling on the textile , and/or the structural information being indicative of the presence and/or type of closure means, coating material, and/or applications in and/or on the textile . - non-destructively determining structural information characteristic for at least part of the structure of a textile ; - ascertaining at least one treatment parameter of the textile based at least in part on the structural information; and - outputting or triggering the output of the at least one treatment parameter, characterized in that at least one optical sensor element is used to determine the structural information, the at least one optical sensor element providing a three-dimensional spatial resolution, and the structural information being indicative of the height, the shape and/or amount of pilling on the textile , and/or the structural information being indicative of the presence and/or type of closure means, coating material, and/or applications in and/or on the textile .
A peptide consisting of amino acid VKKKKIK A EIKI (SEQ ID NO:2).
A carpet comprising: a primary backing layer having a top surface and a primary backing color; a plurality of yarn tufts extending upwardly from the top surface of the primary backing layer , wherein in a first area the plurality of yarn tufts cooperate to form at least one pattern member having at least one color and a desired pile height that obscures the underlying top surface of the primary backing layer , characterised in that in a second area at least some of the plurality of yarn tufts are pulled low enough to expose portions of the top surface of the primary backing layer , wherein the exposed portions of the primary backing layer cooperate with the at least one pattern member to form an overall color and texture design of the carpet . a primary backing layer having a top surface and a primary backing color; a plurality of yarn tufts extending upwardly from the top surface of the primary backing layer , wherein in a first area the plurality of yarn tufts cooperate to form at least one pattern member having at least one color and a desired pile height that obscures the underlying top surface of the primary backing layer , characterised in that in a second area at least some of the plurality of yarn tufts are pulled low enough to expose portions of the top surface of the primary backing layer , wherein the exposed portions of the primary backing layer cooperate with the at least one pattern member to form an overall color and texture design of the carpet .
A device for antenna impedance matching, comprising: an application detection module , configured to detect a current state of an antenna of a terminal, and output a matching adjustment signal according to the state; an adaptive control module , configured to perform control over a process of matching adjustment in response to the matching adjustment signal; and a matching adjustable module , configured to, under the control of the adaptive control module, perform the matching adjustment on impedance of the antenna through an impedance matching network corresponding to the matching adjustment signal, characterized in that it further comprises: a feedback coupling module , configured to sample a matched impedance value to obtain a circuit measurement value, and output the circuit measurement value to a matching comparison module; and the matching comparison module , configured to perform matching comparison between the circuit measurement value and a target characteristic impedance value, and feed a matching comparison result back to the adaptive control module. an application detection module , configured to detect a current state of an antenna of a terminal, and output a matching adjustment signal according to the state; an adaptive control module , configured to perform control over a process of matching adjustment in response to the matching adjustment signal; and a matching adjustable module , configured to, under the control of the adaptive control module, perform the matching adjustment on impedance of the antenna through an impedance matching network corresponding to the matching adjustment signal, characterized in that it further comprises: a feedback coupling module , configured to sample a matched impedance value to obtain a circuit measurement value, and output the circuit measurement value to a matching comparison module; and the matching comparison module , configured to perform matching comparison between the circuit measurement value and a target characteristic impedance value, and feed a matching comparison result back to the adaptive control module. a feedback coupling module , configured to sample a matched impedance value to obtain a circuit measurement value, and output the circuit measurement value to a matching comparison module; and the matching comparison module , configured to perform matching comparison between the circuit measurement value and a target characteristic impedance value, and feed a matching comparison result back to the adaptive control module.
A gas turbine engine (100; 150; 170) comprising: a compressor section having a downstream most end and a cooling air tap at a location spaced upstream from said downstream most end , air from said cooling air tap being passed through at least one boost compressor (118; 152) and at least one heat exchanger (124; 130), and then passed to a turbine section to cool said turbine section , said boost compressor (118; 152) being controlled to provide a desired pressure to said turbine section , wherein said boost compressor is provided with a controllable output ; wherein: said boost compressor is provided with a variable area inlet ; or the gas turbine engine further comprises a controlled and variable mid-compression point tap in said boost compressor ; or said control for said boost compressor includes a variable area diffuser at a downstream end of said boost compressor , wherein said variable area diffuser is operable to control an inlet pressure head and an outlet pressure; characterised in that : the gas turbine engine (100; 150; 170) further comprises a mixing chamber that receives air downstream of said boost compressor (118; 152) and selectively receives air from a second location which has been compressed by said compressor section to a pressure higher than a pressure of said cooling air tap , wherein said mixing chamber is configured to control a mixture of said airflow downstream of said boost compressor (118; 152), and said airflow from said second location to selectively deliver a mixture of the airflows to said turbine section . said boost compressor is provided with a variable area inlet ; or the gas turbine engine further comprises a controlled and variable mid-compression point tap in said boost compressor ; or said control for said boost compressor includes a variable area diffuser at a downstream end of said boost compressor , wherein said variable area diffuser is operable to control an inlet pressure head and an outlet pressure; characterised in that : the gas turbine engine (100; 150; 170) further comprises a mixing chamber that receives air downstream of said boost compressor (118; 152) and selectively receives air from a second location which has been compressed by said compressor section to a pressure higher than a pressure of said cooling air tap , wherein said mixing chamber is configured to control a mixture of said airflow downstream of said boost compressor (118; 152), and said airflow from said second location to selectively deliver a mixture of the airflows to said turbine section .