mhurhangee/patent-ind-claim-en huggingface dataset:
A modified relaxin polypeptide comprising a non-naturally encoded amino acid, wherein: (a) the relaxin polypeptide comprises the relaxin A chain polypeptide of SEQ ID NO: 4 substituted with a non-naturally encoded amino acid at A chain residue 1 and the relaxin B chain polypeptide of SEQ ID NO: 6, and optionally containing up to one substitution with a naturally occurring amino acid; and (b) the non-naturally encoded amino acid is a phenylalanine analog or derivative that is optionally linked to a linker, polymer, water soluble polymer, or biologically active molecule, wherein said non-naturally encoded amino acid is selected from a para-substituted, ortho-substituted, or meta-substituted phenylalanine comprising a carbonyl group, an aminooxy group, a hydrazide group, a hydrazine group, a semicarbazide group, an azide group, or an alkyne group, or is para-acetyl-L-phenylalanine or para-azido-L-phenylalanine, and preferably is para-acetyl-L-phenylalanine. (a) the relaxin polypeptide comprises the relaxin A chain polypeptide of SEQ ID NO: 4 substituted with a non-naturally encoded amino acid at A chain residue 1 and the relaxin B chain polypeptide of SEQ ID NO: 6, and optionally containing up to one substitution with a naturally occurring amino acid; and (b) the non-naturally encoded amino acid is a phenylalanine analog or derivative that is optionally linked to a linker, polymer, water soluble polymer, or biologically active molecule, wherein said non-naturally encoded amino acid is selected from a para-substituted, ortho-substituted, or meta-substituted phenylalanine comprising a carbonyl group, an aminooxy group, a hydrazide group, a hydrazine group, a semicarbazide group, an azide group, or an alkyne group, or is para-acetyl-L-phenylalanine or para-azido-L-phenylalanine, and preferably is para-acetyl-L-phenylalanine.
A method for determining a modulation and coding order, wherein the method is performed by a network device, and the method comprises: determining (S210) a quantity K of terminal devices that reuse a first time-frequency resource in a first time period to receive downlink data from the network device, wherein K≥2; obtaining (S220) a channel quality indicator CQI, wherein the CQI is determined according to a signal to interference plus noise ratio SINR of a channel and the quantity K of the terminal devices, wherein the channel is a channel based on the first time-frequency resource, and the channel is used to transmit downlink data between the network device and a first terminal device in the first time period; determining (S230) a Modulation and Coding scheme MCS of the first terminal device according to the CQI; and receiving first indicator information sent by the first terminal device, wherein the first indicator information is used to indicate a CQI fed back by the first terminal device, and the CQI fed back by the first terminal device is determined by the first terminal device according to the SINR of the channel; characterized in that the obtaining a CQI comprises: processing, according to the quantity K of the terminal devices, the CQI fed back by the first terminal device, so as to determine the CQI. determining (S210) a quantity K of terminal devices that reuse a first time-frequency resource in a first time period to receive downlink data from the network device, wherein K≥2; obtaining (S220) a channel quality indicator CQI, wherein the CQI is determined according to a signal to interference plus noise ratio SINR of a channel and the quantity K of the terminal devices, wherein the channel is a channel based on the first time-frequency resource, and the channel is used to transmit downlink data between the network device and a first terminal device in the first time period; determining (S230) a Modulation and Coding scheme MCS of the first terminal device according to the CQI; and receiving first indicator information sent by the first terminal device, wherein the first indicator information is used to indicate a CQI fed back by the first terminal device, and the CQI fed back by the first terminal device is determined by the first terminal device according to the SINR of the channel; characterized in that the obtaining a CQI comprises: processing, according to the quantity K of the terminal devices, the CQI fed back by the first terminal device, so as to determine the CQI.
Transmission for a motor vehicle , comprising a transmission housing , an oil sump which is attached to the transmission housing , and a power electronics system which serves as a converter for an electrical machine (EM) and which is supported on the transmission housing and/or the oil sump , characterized in that the transmission has a hydraulic transmission controller , wherein the hydraulic transmission controller and the power electronics system are arranged tangentially and/or axially next to one another at least in sections with respect to a transmission centre axis (M).
An apparatus comprising: a vibration level detector configured to determine a vibration level of a frame of an air vehicle based on data received from a sensor of the air vehicle , the air vehicle including a rotor (102-109); a rotor operation analyzer configured to determine an operational parameter of the rotor (102-109) based on the vibration level; and a communicator to transmit an instruction including the operational parameter of the rotor to a controller of the rotor (102-109); the apparatus further including a vehicle performance analyzer to analyze vehicle performance data to determine effects of an adjustment to the operational parameter of the rotor on performance of the air vehicle such as thrust, ceiling, endurance, range, flight mode, lift, and payload; characterized in that the apparatus is configured to refrain from implementing changes to the operational parameter of the rotor (102-109) if the changes adversely affect the performance of the air vehicle, which is an aircraft . a vibration level detector configured to determine a vibration level of a frame of an air vehicle based on data received from a sensor of the air vehicle , the air vehicle including a rotor (102-109); a rotor operation analyzer configured to determine an operational parameter of the rotor (102-109) based on the vibration level; and a communicator to transmit an instruction including the operational parameter of the rotor to a controller of the rotor (102-109); the apparatus further including a vehicle performance analyzer to analyze vehicle performance data to determine effects of an adjustment to the operational parameter of the rotor on performance of the air vehicle such as thrust, ceiling, endurance, range, flight mode, lift, and payload; characterized in that the apparatus is configured to refrain from implementing changes to the operational parameter of the rotor (102-109) if the changes adversely affect the performance of the air vehicle, which is an aircraft .
A method for decorating a surface, in order to apply a predefined image to a destination surface, comprising the steps of: a) preparing a base sheet , which contains an adhesive, b) reproducing the predefined image on the base sheet , c) applying a backing film to the image , for the subsequent retention of the correct positioning of the image , d) covering the backing film with an additional stiffening film , which is adapted to increase the rigidity of the image and/or of the backing film , the assembly composed of the base sheet , the image , the backing film and the stiffening film defining a decal ; e) wetting the decal , in order to allow the transfer of the adhesive toward the image ; f) applying the decal to the destination surface, by bringing the base sheet into contact with the destination surface; g) sliding away the base sheet , while keeping the image positioned on the surface; h) removing the backing film and the film . a) preparing a base sheet , which contains an adhesive, b) reproducing the predefined image on the base sheet , c) applying a backing film to the image , for the subsequent retention of the correct positioning of the image , d) covering the backing film with an additional stiffening film , which is adapted to increase the rigidity of the image and/or of the backing film , the assembly composed of the base sheet , the image , the backing film and the stiffening film defining a decal ; e) wetting the decal , in order to allow the transfer of the adhesive toward the image ; f) applying the decal to the destination surface, by bringing the base sheet into contact with the destination surface; g) sliding away the base sheet , while keeping the image positioned on the surface; h) removing the backing film and the film .
Booster valve for pneumatic circuits, comprising: - a hollow body , - a pilot flow inlet/outlet gap communicating directly with a control volume ; - an inlet/outlet gap communicating with an actuator and communicating directly with an accumulation volume ; - a supplying gap communicating directly with a supplying volume , - a discharge gap , - an amplified discharge shutter which determines the sealing towards the discharge gap , - a central device comprising an amplified charge shutter which determines the sealing towards the supplying gap , - an activation piston which, subjected to the pressure acting in the accumulation volume and in the control volume , determines the movement of the amplified discharge shutter or of the amplified charge shutter - the central device comprising a plurality of stakes , which, in combination with the passage sections determined by the opening of the amplified discharge shutter and the amplified charge shutter determine the flow amplification in discharge and charge steps and characterized by : - two separated and independent charge and discharge gain control devices which allow an independent adjustment between the charge and discharge step and vice versa . - a hollow body , - a pilot flow inlet/outlet gap communicating directly with a control volume ; - an inlet/outlet gap communicating with an actuator and communicating directly with an accumulation volume ; - a supplying gap communicating directly with a supplying volume , - a discharge gap , - an amplified discharge shutter which determines the sealing towards the discharge gap , - a central device comprising an amplified charge shutter which determines the sealing towards the supplying gap , - an activation piston which, subjected to the pressure acting in the accumulation volume and in the control volume , determines the movement of the amplified discharge shutter or of the amplified charge shutter - the central device comprising a plurality of stakes , which, in combination with the passage sections determined by the opening of the amplified discharge shutter and the amplified charge shutter determine the flow amplification in discharge and charge steps - two separated and independent charge and discharge gain control devices which allow an independent adjustment between the charge and discharge step and vice versa .
A coaxial wiring device comprising a first member , a second member that is opposed to the first member , and a conductor plate that is provided to be held between the first member and the second member , wherein grooves are provided in the first member and in the second member , a coaxial wire is formed in the conductor plate , and a first and a second port are provided in respective ends of the coaxial wire, the coaxial wiring device being configured such that a signal is transmitted between the first port and the second port by the coaxial wire and the grooves, wherein a line that connects the first port and the second port is denoted by a reference line, characterized in that the grooves of the first member and the second member comprise: a first groove that has a central point on the reference line and extends in a direction that intersects with the reference line, a second groove that connects one end of the first groove and the first port, a third groove that connects the other end of the first groove and the first port and has a shape that is line symmetrical to the second groove with respect to the reference line, a fourth groove that connects the other end of the first groove and the second port, and a fifth groove that connects one end of the first groove and the second port and has a shape that is line symmetrical to the fourth groove with respect to the reference line, and wherein the coaxial wire comprises: a first wire formed in a position corresponding to the first groove , a second wire formed in a position corresponding to the second groove , and a third wire formed in a position corresponding to the fourth groove . a first groove that has a central point on the reference line and extends in a direction that intersects with the reference line, a second groove that connects one end of the first groove and the first port, a third groove that connects the other end of the first groove and the first port and has a shape that is line symmetrical to the second groove with respect to the reference line, a fourth groove that connects the other end of the first groove and the second port, and a fifth groove that connects one end of the first groove and the second port and has a shape that is line symmetrical to the fourth groove with respect to the reference line, and wherein the coaxial wire comprises: a first wire formed in a position corresponding to the first groove , a second wire formed in a position corresponding to the second groove , and a third wire formed in a position corresponding to the fourth groove .
A tire comprising a tread , sidewalls , a carcass and at least two belt layers arranged radially between the carcass and the tread in a crown area of the tire , wherein the tread has at least one axially outer edge portion radially covering an axially outermost edge of at least one of the belt layers and having a rubber composition different from the rubber composition of a neighboring portion of the tread , wherein the neighboring portion is adapted to be ground-contacting, wherein one of the sidewalls or a respective sidewall at least partially covers and contacts an axially outer surface of the axially outer edge portion of the tread , and wherein the rubber composition of the axially outer edge portion has an elongation at break of at least 500%, wherein elongation at break is determined by a ring sample test based on ASTM D412 or equivalent, characterized in that the rubber composition of the axially outer edge portion has an elongation at break which is at least 10% higher than the elongation at break of the rubber composition of the neighboring portion of the tread and in that rubber composition of the axially outer edge portion comprises at least 25 phr of polybutadiene rubber, at least 30 phr of polyisoprene rubber, and at least 20 phr of carbon black.
Electronic module (10a; 10b; 10c), in particular for a hand-held machine tool, with at least one electronic unit (12a; 12b; 12c), with at least one contacting unit (14a; 14b; 14c) which comprises at least one contact element (16a-16c, 18a-18c, 20a-20c) which has been provided for contacting a source of electrical energy and/or for transmitting electronic data, with at least one energy-store receiving region (72a; 72b; 72c) which is arranged bearing against the contacting unit (14a; 14b; 14c), and with at least one cover unit (24a; 24b; 24c), said electronic unit (12a; 12b; 12c) being connected to the at least one cover unit (24a; 24b; 24c) in captive manner, the energy-store receiving region (72a; 72b; 72c) being arranged on a side (68a; 68b; 68c) of the electronic unit (12a; 12b; 12c) facing away from the cover unit (24a; 24b; 24c), the at least one contacting unit (14a; 14b; 14c) including at least one fixing element (26a; 26b; 26c) which has been provided for mechanical fixing of the cover unit (24a; 24b; 24c) to a tool (36a; 36b; 36c) or to a housing unit (46a; 46b; 46c) of the electronic module (10a; 10b; 10c), said at least one contact element (16a-16c, 18a-18c, 20a-20c) being at least partially arranged on the at least one fixing element (26a, 26b; 26c), and the electronic unit (12a; 12b; 12c) including at least one communication unit (70a; 70b; 70c) for a hard-wired and/or wireless transmission of data with the tool (36a; 36b; 36c) and/or for an exchange of data with an external instrument, characterized in that the at least one contact element (16a-16c, 18a-18c, 20a-20c) is arranged at least partially within a cover wall (42a; 42b; 42c) of the at least one cover unit (24a; 24b; 24c), and, on a side facing away from the electronic unit (12a; 12b; 12c), said cover unit (24a; 24b; 24c) exhibiting a closed surface which extends over the electronic unit (12a; 12b; 12c) and the contacting unit (14a; 14b; 14c).
A diaphragm damper device comprising: a plurality of diaphragm dampers that are stacked in a vertical direction, wherein each of the diaphragm dampers includes a pair of diaphragms and a high-pressure chamber defined by the pair of diaphragms , wherein high-pressure gas is enclosed in the high-pressure chamber , and circumferential portions of the pair of diaphragms are overlapped with and fixed to each other; and a holding member , which integrally holds the diaphragm dampers and which is formed from an elastic member, wherein the holding member comprises: a band that extends around an entire circumference of two adjacent diaphragm dampers to be elastically tightened to circumferential walls of the diaphragm dampers in the circumferential direction; and hooks arranged on two sides of the band , wherein the hooks elastically hold the two adjacent diaphragm dampers that are stacked in the vertical direction, respectively. a plurality of diaphragm dampers that are stacked in a vertical direction, wherein each of the diaphragm dampers includes a pair of diaphragms and a high-pressure chamber defined by the pair of diaphragms , wherein high-pressure gas is enclosed in the high-pressure chamber , and circumferential portions of the pair of diaphragms are overlapped with and fixed to each other; and a holding member , which integrally holds the diaphragm dampers and which is formed from an elastic member, wherein the holding member comprises: a band that extends around an entire circumference of two adjacent diaphragm dampers to be elastically tightened to circumferential walls of the diaphragm dampers in the circumferential direction; and hooks arranged on two sides of the band , wherein the hooks elastically hold the two adjacent diaphragm dampers that are stacked in the vertical direction, respectively. a band that extends around an entire circumference of two adjacent diaphragm dampers to be elastically tightened to circumferential walls of the diaphragm dampers in the circumferential direction; and hooks arranged on two sides of the band , wherein the hooks elastically hold the two adjacent diaphragm dampers that are stacked in the vertical direction, respectively.
A laparoscopic visualization system for heating, applying anti-fog solution to, and protecting of the surgical scope distal lens prior to and during a surgical procedure, the laparoscopic visualization system comprising, a shell to serve as an enclosure, the shell having a central chamber for holding a liquid into which a surgical scope can be inserted, a heating element in thermal transfer relationship with the chamber for warming the liquid wherein the chamber comprises a vessel having a wall surrounding a central compartment adapted to contain the liquid with the heating element in thermal transfer relationship therewith, a thermoswitch in heat-conductive relationship with both the heating element and the vessel, the central chamber being adapted to receive the distal end of a surgical scope to provide an anti-fogging function for the scope, a cover member over the chamber that has an orifice therein for introducing the surgical scope into the chamber, and a flexible valve member having centrally tapered wall elements that separate from one another when the surgical scope is inserted therethrough, characterized in that the chamber has a vent aperture communicating therewith for venting air from the chamber when the scope is inserted into the chamber, wherein an upper portion of the chamber is constructed and arranged to act as a laparoscopic liquid leakage reducer including the vent aperture , wherein the liquid leakage reducer is adapted to provide a fit around the surgical scope when inserted, and the valve member is located proximate the upper portion of the chamber for reducing or eliminating the loss of the liquid from the chamber when the scope is inserted therethrough.
A local user equipment, UE, for performing video conferencing with a remote UE, the local UE comprising circuitry configured to: receive , at the local UE , a set of predefined region of interests, ROIs, from the remote UE , the set of predefined ROIs being within a field of view of a camera of the remote UE; select , at the local UE, a predefined ROI from the set of predefined ROIs received from the remote UE; communicate , from the local UE, the predefined ROI that is selected to the remote UE via a real-time transport control protocol, RTCP, feedback message that directs the remote UE to capture video within the selected predefined ROI adjusted based on motion of a target within the field of view of the camera of the remote UE and encode the video within the adjusted predefined ROI; receive encoded video within the adjusted predefined ROI from the remote UE, the encoded video including regions within the adjusted predefined ROI and excluding regions outside the adjusted predefined ROI, the encoded video including the regions within the adjusted predefined ROI at an increased zoom level while substantially maintaining a defined quality level; receive , from the remote UE, actual transmitted predefined ROI corresponding to the encoded video via a real-time transport protocol, RTP, header extension, the RTP header extension being included in RTP packets received from the remote UE that contain the encoded video; and provide the encoded video within the actual transmitted predefined ROI for rendering and display at the local UE. receive , at the local UE , a set of predefined region of interests, ROIs, from the remote UE , the set of predefined ROIs being within a field of view of a camera of the remote UE; select , at the local UE, a predefined ROI from the set of predefined ROIs received from the remote UE; communicate , from the local UE, the predefined ROI that is selected to the remote UE via a real-time transport control protocol, RTCP, feedback message that directs the remote UE to capture video within the selected predefined ROI adjusted based on motion of a target within the field of view of the camera of the remote UE and encode the video within the adjusted predefined ROI; receive encoded video within the adjusted predefined ROI from the remote UE, the encoded video including regions within the adjusted predefined ROI and excluding regions outside the adjusted predefined ROI, the encoded video including the regions within the adjusted predefined ROI at an increased zoom level while substantially maintaining a defined quality level; receive , from the remote UE, actual transmitted predefined ROI corresponding to the encoded video via a real-time transport protocol, RTP, header extension, the RTP header extension being included in RTP packets received from the remote UE that contain the encoded video; and provide the encoded video within the actual transmitted predefined ROI for rendering and display at the local UE.