mhurhangee/patent-ind-claim-en huggingface dataset:
A chimeric protein comprising: (a) a modified IFN-β, said modified IFN-β having one or more mutations that confer improved safety as compared to a wild type IFN-β, and (b) one or more targeting moieties, wherein said targeting moiety is a recognition domain which specifically binds to antigens or receptors of interest, wherein: the modified IFN-β and the one or more targeting moieties are optionally connected with one or more linkers, the modified IFN-β comprises one or more mutations selected from: (i) W22G; (ii) R35A; (iii) L32G; (iv) L32A; (v) W22G and R27G; (vi) L32A and R35A; (vii) L151G and R152A; and (viii) V148G and R152A, and the recognition domain is a single domain antibody. (a) a modified IFN-β, said modified IFN-β having one or more mutations that confer improved safety as compared to a wild type IFN-β, and (b) one or more targeting moieties, wherein said targeting moiety is a recognition domain which specifically binds to antigens or receptors of interest, wherein: the modified IFN-β and the one or more targeting moieties are optionally connected with one or more linkers, the modified IFN-β comprises one or more mutations selected from: (i) W22G; (ii) R35A; (iii) L32G; (iv) L32A; (v) W22G and R27G; (vi) L32A and R35A; (vii) L151G and R152A; and (viii) V148G and R152A, and the recognition domain is a single domain antibody. the modified IFN-β and the one or more targeting moieties are optionally connected with one or more linkers, the modified IFN-β comprises one or more mutations selected from: (i) W22G; (ii) R35A; (iii) L32G; (iv) L32A; (v) W22G and R27G; (vi) L32A and R35A; (vii) L151G and R152A; and (viii) V148G and R152A, and (i) W22G; (ii) R35A; (iii) L32G; (iv) L32A; (v) W22G and R27G; (vi) L32A and R35A; (vii) L151G and R152A; and (viii) V148G and R152A, and the recognition domain is a single domain antibody.
Vehicle with at least one lighting element for orientation in the surrounding environment of the vehicle, as well as for the visual detection of obstacles and/or the topographical surface conditions of the surrounding environment , and the illumination element is a laser with at least one laser beam which projects a pattern with a structure onto the ground in the surrounding environment , and the pattern which is applied to the obstacle to be detected or the topographical conditions of the surrounding environment is distorted in a visually perceptible way, characterised by the fact that - the vehicle is a snow vehicle, specifically a piste vehicle to prepare ski pistes and cross country ski trails, - that for a driver of the vehicle an object-related visual recognition of the surrounding environment occurs, - that the laser is self-levelling - and that the snow vehicle has laser control with a gyroscope sensor. - the vehicle is a snow vehicle, specifically a piste vehicle to prepare ski pistes and cross country ski trails, - that for a driver of the vehicle an object-related visual recognition of the surrounding environment occurs, - that the laser is self-levelling - and that the snow vehicle has laser control with a gyroscope sensor.
A massaging device having a massaging surface comprising a plurality of massaging elements moveable relative to each other; wherein: the massaging surface is adapted such that when applying the massaging 5 surface to a skin surface and moving the massaging elements relative to each other, two differently directed forces are simultaneously exercised by the massaging elements on the skin surface thereby causing simultaneous pinching and stretching of the skin 10 surface present in between the massaging elements , wherein: a first and a third massaging element of the plurality of massaging elements are fixed on a first plate , wherein a second massaging element of the plurality of massaging elements is fixed on a second plate , wherein the first plate is positioned on top of the second plate , wherein the second massaging element protrudes the first plate via a through-hole present in the first plate , the 15 through-hole being located in between the first and the third massaging element, and wherein the first plate is moveable relative to the second plate , or wherein the second plate is moveable relative to the first plate , wherein the second massaging element moves away from the first massaging element and approaches the third massaging element .
A garment steamer , having a host and a nozzle connected with the host by using a gas pipeline , a plasma generator for ionizing air, wherein plasmas generated by the plasma generator are released through a plasma outlet disposed on the nozzle and the plasma generator is disposed in a part where the nozzle is bonded to the gas pipeline and the plasma generator is disposed in the nozzle characterized in that, the nozzle is internally provided with a conveying device that sends the plasmas generated by the plasma generator to the plasma outlet and the conveying device comprises a channel and a fan , wherein one end of the channel is aligned with the plasma outlet .
A method for sending a paging message, applied to a network device and comprising: when receiving a paging message for a terminal device from a core network, determining whether to interlacedly send the paging message to the terminal device based on a terminal type of the terminal device, wherein determining whether to interlacedly send the paging message to the terminal device based on the terminal type of the terminal device comprises: when the terminal type of the terminal device is a high-latency terminal, sending the paging message for the terminal device on at least one beam in at least one paging occasion by: determining a transmission period or a transmission window for the paging message, and setting K paging occasions in the transmission period or the transmission window; wherein K is an integer; in at least part of the K paging occasions set in the transmission period or the transmission window, performing a modulo calculation: beam id mod K, wherein beam id is an identifier of at least one beam comprised in the paging occasion; and determining a beam corresponding to a preset modulo calculation result, and sending the paging message on the determined beam. when receiving a paging message for a terminal device from a core network, determining whether to interlacedly send the paging message to the terminal device based on a terminal type of the terminal device, wherein determining whether to interlacedly send the paging message to the terminal device based on the terminal type of the terminal device comprises: when the terminal type of the terminal device is a high-latency terminal, sending the paging message for the terminal device on at least one beam in at least one paging occasion by: determining a transmission period or a transmission window for the paging message, and setting K paging occasions in the transmission period or the transmission window; wherein K is an integer; in at least part of the K paging occasions set in the transmission period or the transmission window, performing a modulo calculation: beam id mod K, wherein beam id is an identifier of at least one beam comprised in the paging occasion; and determining a beam corresponding to a preset modulo calculation result, and sending the paging message on the determined beam. determining a transmission period or a transmission window for the paging message, and setting K paging occasions in the transmission period or the transmission window; wherein K is an integer; in at least part of the K paging occasions set in the transmission period or the transmission window, performing a modulo calculation: beam id mod K, wherein beam id is an identifier of at least one beam comprised in the paging occasion; and determining a beam corresponding to a preset modulo calculation result, and sending the paging message on the determined beam.
A polymer precursor compound according to Formula I: wherein R 1 is selected from H and CO 2 R 5 , R 2 is NHR 6 , R 3 is a hydroxyl or glycidyl ether moiety, R 4 is a hydrogen, hydroxyl, or glycidyl ether moiety, R 5 is a carboxyl protecting moiety, R 6 is an amine protecting group, and X is O.
Structural component , in particular a kinetic structural component, which comprises a flexible structure having at least one degree of freedom (F1, F2, R1, R2), wherein - the flexible structure is movable between a compressed position and an expanded position or vice versa, and - wherein the flexible structure comprises at least one substructure (5.1, 5.2) which is configured, in the expanded position of the flexible structure , to expand to form a curve (KU) or an arc and/or in a linear manner, - wherein the substructure (5.1, 5.2) is designed as a flexible grid (G) having a plurality of lever elements (50.3, 500.3), characterized in that the lever elements (50.3, 500.3) are articulated on at least one moving link (50.1, 500.1) by joints (5.4, 50.2, 500.2), wherein the joints (5.4, 50.2, 500.2) are designed as film hinges or film joints made from polypropylene. - the flexible structure is movable between a compressed position and an expanded position or vice versa, and - wherein the flexible structure comprises at least one substructure (5.1, 5.2) which is configured, in the expanded position of the flexible structure , to expand to form a curve (KU) or an arc and/or in a linear manner, - wherein the substructure (5.1, 5.2) is designed as a flexible grid (G) having a plurality of lever elements (50.3, 500.3),
A method, comprising: obtaining a set of energy dependent projection data generated from a spectral scan, wherein the set of energy dependent projection data includes a sub-set of projection data corresponding to only contrast agent; separating the sub-set of projection data from other projection data of the energy dependent data, wherein the other projection data includes non-contrast agent projection data; scaling the sub-set of projection data to change a concentration of the contrast agent in the sub-set of projection data from that of the sub-set of projection data; and visually presenting at least the scaled sub-set of projection data, characterized in that the concentration of the contrast agent in the scaled sub-set of projection data is reduced through scaling, thus reducing noise, and noise is added back to the scaled sub-set of projection data. obtaining a set of energy dependent projection data generated from a spectral scan, wherein the set of energy dependent projection data includes a sub-set of projection data corresponding to only contrast agent; separating the sub-set of projection data from other projection data of the energy dependent data, wherein the other projection data includes non-contrast agent projection data; scaling the sub-set of projection data to change a concentration of the contrast agent in the sub-set of projection data from that of the sub-set of projection data; and visually presenting at least the scaled sub-set of projection data, characterized in that the concentration of the contrast agent in the scaled sub-set of projection data is reduced through scaling, thus reducing noise, and noise is added back to the scaled sub-set of projection data.
A method of performing temperature compensation of a test tone amplitude during meter verification in a flow meter, the method comprising: calculating an electrical resistance; calculating a maximum sensor current (MSC) using the electrical resistance; measuring a plurality of drive currents during an appropriate period of time; averaging the plurality of drive currents; calculating a buffer value using the average of the plurality of drive currents; and calculating a test tone level using the maximum sensor current (MSC) and the buffer value. calculating an electrical resistance; calculating a maximum sensor current (MSC) using the electrical resistance; measuring a plurality of drive currents during an appropriate period of time; averaging the plurality of drive currents; calculating a buffer value using the average of the plurality of drive currents; and calculating a test tone level using the maximum sensor current (MSC) and the buffer value.
A method of preparing a protein composition comprising hydrolysed protein, said method comprising the steps of a) providing an ingredient mix comprising at least one protein comprising a whey protein concentrate or a whey protein fraction, and milk lecithin in an amount of 20 to 100 mg per 100 g of the ingredient mix; b) adding at least one phospholipase, wherein the at least one phospholipase is phospholipase A1 and/or phospholipase A2, and performing conversion of milk lecithin, c) performing hydrolysis of said protein. a) providing an ingredient mix comprising at least one protein comprising a whey protein concentrate or a whey protein fraction, and milk lecithin in an amount of 20 to 100 mg per 100 g of the ingredient mix; b) adding at least one phospholipase, wherein the at least one phospholipase is phospholipase A1 and/or phospholipase A2, and performing conversion of milk lecithin, c) performing hydrolysis of said protein.
A side information transmission method performed by a transmitter , wherein the side information transmission method comprises: transmitting side information to a receiver on a physical control channel; and transmitting a scrambled data signal to the receiver on a physical data channel, wherein the side information is used to indicate a scrambling mode of the scrambled data signal, characterized in that the side information transmission method further comprises: reporting capability information to the receiver , wherein the capability information is at least used to indicate whether the transmitter supports a target mode for reducing a Peak to Average Power Ratio, PAPR, and the target mode is a mode in which the side information is transmitted on the physical control channel to reduce the PAPR. transmitting side information to a receiver on a physical control channel; and transmitting a scrambled data signal to the receiver on a physical data channel, wherein the side information is used to indicate a scrambling mode of the scrambled data signal, characterized in that the side information transmission method further comprises: reporting capability information to the receiver , wherein the capability information is at least used to indicate whether the transmitter supports a target mode for reducing a Peak to Average Power Ratio, PAPR, and the target mode is a mode in which the side information is transmitted on the physical control channel to reduce the PAPR. reporting capability information to the receiver , wherein the capability information is at least used to indicate whether the transmitter supports a target mode for reducing a Peak to Average Power Ratio, PAPR, and the target mode is a mode in which the side information is transmitted on the physical control channel to reduce the PAPR.
A hydraulic servo valve comprising: a valve chamber ; a pair of fluid receiving ports ; a movable member disposed between the pair of ports and movable within the valve chamber along an axis (C), wherein the movable member comprises a pair of openings , each facing a respective one of the ports to permit fluid to flow from the valve chamber to the ports via the openings in use, wherein a fluid pressure at each of the ports is dependent upon an alignment of each of the openings with a respective one of the ports , and movement of the movable member along the axis (C) is configured to move the openings into and out of alignment with the ports ; an actuator configured to move the movable member within the valve chamber along the axis (C), so as to vary the fluid pressure at each of the fluid receiving ports as aforesaid; a spool located within a spool cavity and between a first spool chamber and a second spool chamber , wherein the first spool chamber and the second spool chamber are of varying volume based on the position of the spool within the spool cavity; a supply pressure inlet ; and a supply line connecting the supply pressure inlet and the valve chamber ; characterised in that each port is fluidly connected to a respective one of the first and second spool chambers , such that, in use, when the actuator is actuated, the spool moves within the spool cavity to vary the volume of the first and second spool chambers in response to fluid pressure communicated from the ports . a valve chamber ; a pair of fluid receiving ports ; a movable member disposed between the pair of ports and movable within the valve chamber along an axis (C), wherein the movable member comprises a pair of openings , each facing a respective one of the ports to permit fluid to flow from the valve chamber to the ports via the openings in use, wherein a fluid pressure at each of the ports is dependent upon an alignment of each of the openings with a respective one of the ports , and movement of the movable member along the axis (C) is configured to move the openings into and out of alignment with the ports ; an actuator configured to move the movable member within the valve chamber along the axis (C), so as to vary the fluid pressure at each of the fluid receiving ports as aforesaid; a spool located within a spool cavity and between a first spool chamber and a second spool chamber , wherein the first spool chamber and the second spool chamber are of varying volume based on the position of the spool within the spool cavity; a supply pressure inlet ; and a supply line connecting the supply pressure inlet and the valve chamber ; characterised in that each port is fluidly connected to a respective one of the first and second spool chambers , such that, in use, when the actuator is actuated, the spool moves within the spool cavity to vary the volume of the first and second spool chambers in response to fluid pressure communicated from the ports .
An anaesthetic apparatus arranged for the delivery of anaesthesia to a patient, the apparatus comprising a conduit for delivering a gas including anaesthetic to a patient, the conduit comprising a heating arrangement arranged to heat the gas within the conduit , the apparatus further comprising a first temperature sensor arranged to sense temperature at a breathing orifice of a patient when a patient is connected to the apparatus , characterised by a second temperature sensor arranged to sense the actual bodily temperature of the patient, and a controller arranged to receive from the first temperature sensor the sensed temperature at the breathing orifice of the patient and receive from the second temperature sensor the sensed temperature of the patient, the controller being configured to regulate the output of the heating arrangement to control heating depending on feedback from the second temperature sensor and the first temperature sensor , said heating arrangement is arranged to heat the gas to a temperature in a range between 35-45°C.
An integrated circuit comprising: first circuitry configured to receive input signals, process the input signals, and retain data in a sleep state, the first circuitry including master latch circuitry and slave latch circuitry ; and sleep transistor circuitry (1042, 1044, 1046, and 1048) coupled to the first circuitry and configured to receive a sleep signal, SLEEPB, and to put the first circuitry into the sleep state based on the sleep signal, characterized in that : the first circuitry is configured to receive a hold signal, HOLDB; and the slave latch circuitry is configured to retain the data, in the sleep state, when the hold signal, HOLDB, has a first value, and is configured not to retain the data, in the sleep state, when the hold signal, HOLDB, has a second value. first circuitry configured to receive input signals, process the input signals, and retain data in a sleep state, the first circuitry including master latch circuitry and slave latch circuitry ; and sleep transistor circuitry (1042, 1044, 1046, and 1048) coupled to the first circuitry and configured to receive a sleep signal, SLEEPB, and to put the first circuitry into the sleep state based on the sleep signal, characterized in that : the first circuitry is configured to receive a hold signal, HOLDB; and the slave latch circuitry is configured to retain the data, in the sleep state, when the hold signal, HOLDB, has a first value, and is configured not to retain the data, in the sleep state, when the hold signal, HOLDB, has a second value. the first circuitry is configured to receive a hold signal, HOLDB; and the slave latch circuitry is configured to retain the data, in the sleep state, when the hold signal, HOLDB, has a first value, and is configured not to retain the data, in the sleep state, when the hold signal, HOLDB, has a second value.
A cabin air pressure control system the system comprising: an outflow valve configured to release pressure from a cabin ; an electric motor configured to control a position of the outflow valve; an electric switch configured to control the electric motor; processing circuitry configured to: receive a signal indicating a pressure of the cabin; in response to the electric switch being set to a hold position, determine a cabin pressure setpoint; and control the electric motor to adjust the position of the outflow valve to maintain the pressure of the cabin based on the cabin pressure setpoint; an automatic pressure control unit including second processing circuitry and a memory ; wherein the processing circuitry uses closed loop control independent from the second processing circuitry to maintain the pressure of the cabin; and wherein the closed loop control is configured to maintain the pressure of the cabin at the cabin pressure setpoint based on the signal indicating the pressure of the cabin. an outflow valve configured to release pressure from a cabin ; an electric motor configured to control a position of the outflow valve; an electric switch configured to control the electric motor; processing circuitry configured to: receive a signal indicating a pressure of the cabin; in response to the electric switch being set to a hold position, determine a cabin pressure setpoint; and control the electric motor to adjust the position of the outflow valve to maintain the pressure of the cabin based on the cabin pressure setpoint; an automatic pressure control unit including second processing circuitry and a memory ; wherein the processing circuitry uses closed loop control independent from the second processing circuitry to maintain the pressure of the cabin; and wherein the closed loop control is configured to maintain the pressure of the cabin at the cabin pressure setpoint based on the signal indicating the pressure of the cabin.
Furniture system, in particular a furniture system for a kitchen, with a light element , wherein the light element comprises a light generating unit , and a light deflection device , which deflects light emitted by the light generating unit , wherein the furniture system comprises at least two flat wall panels arranged vertically above one another, wherein provided in the edge region to an adjacent wall panel is an intermediate space, through which an attachment element extends from one flat side to the other flat side of the wall panels , and wherein the light generating unit is arranged on one side of the wall panels and the light deflection device is arranged on the other side of the wall panels , characterised in that a light emission of the light generating unit takes place in the intermediate space.