mhurhangee/patent-ind-claim-en huggingface dataset:
An isolated peptide consisting of the amino acid sequence: 1 X n C 2 XD 3 XVYTCR 4 XGQTC C/A RGLHGYGC 5 X m (SEQ ID NO:1), wherein 1 X n is a sequence of amino acids of length n, with n = 0-11 and 1 X being any amino acid; wherein each of 2 X, 3 X, and 4 X is P or A; wherein 5 X m is a sequence of amino acids of length m, with m = 0-4 and 5 X being any amino acid; and wherein the isolated peptide comprises, or is capable of forming, two or three intrachain disulphide bonds. wherein 1 X n is a sequence of amino acids of length n, with n = 0-11 and 1 X being any amino acid; wherein each of 2 X, 3 X, and 4 X is P or A; wherein 5 X m is a sequence of amino acids of length m, with m = 0-4 and 5 X being any amino acid; and wherein the isolated peptide comprises, or is capable of forming, two or three intrachain disulphide bonds.
A compound selected from the group consisting of Compounds 717 to 722, 724 to 726, 729 to 732, 735 and 736: 717 718 719 720 721 722 724 725 726 729 730 731 732 735 736 or a pharmaceutically acceptable salt thereof.
A loading device for loading particulate material, comprising a body with a first opening and a second opening , wherein a gasket is arranged at the first opening , wherein a second container is fixable to the body around the second opening , the loading device further comprising a spike , characterised in that the loading device comprises an exhaust pipe and an extraction unit , and wherein the second container is a mixing device, wherein the body is attached to the exhaust pipe , wherein the loading device is attached to the extraction unit via the exhaust pipe , and wherein the spike protrudes through the first opening . the loading device further comprising a spike , characterised in that the loading device comprises an exhaust pipe and an extraction unit , and wherein the second container is a mixing device, wherein the body is attached to the exhaust pipe , wherein the loading device is attached to the extraction unit via the exhaust pipe , and wherein the spike protrudes through the first opening .
Structural unit which can be cut to length for implementation of a sanitary installation , the structural unit comprising a wall which extends along a longitudinal axis and with a wall thickness circumferentially around the longitudinal axis, wherein a first longitudinal section of the wall is configured as a mounting section and a second longitudinal section of the wall is configured as a cut-to-length channel section , wherein the channel section comprises several web sections which each extend along the longitudinal axis with a web length and around the longitudinal axis with a circumferential length, which web sections are arranged offset to each other, wherein in each case two web sections adjacent each other along the longitudinal axis are connected to each other via a connecting section which extends circumferentially around the longitudinal axis with a connecting length along the longitudinal axis, wherein the wall thickness averaged over the circumferential length amounts to more than twice the wall thickness in the connecting section and wherein the web sections each have a predetermined breaking section which extends along the longitudinal axis in their course extending over the circumferential length, in which predetermined breaking section the wall thickness has a value greater than zero, which value amounts to less than half the wall thickness averaged over the circumferential length, or has a value of zero, the wall in particular being designed as a one-piece plastic component, characterized in that a tear-off tab is provided at each one of a majority of the web sections , in particular at each of the web sections , which tear-off tab is adjacent to the predetermined breaking section .
A wireless communication device , comprising: a control unit configured to: establish a wireless connection in a data link layer, L2, with another device without designation of an application; allow a user to designate the application by a user operation after the wireless connection is established; transmit, to the other device , a first action frame, specified in the IEEE 802.11 specification, which includes information for the designation of the application without disconnection of the wireless connection after the wireless connection is established; and control the application over the wireless connection with the other device using a port number included in the information, wherein a type of the application is Wi-Fi certified Miracast, wherein the information includes device role information, the port number and content protection compatibility information, wherein the device role information is information on whether the wireless communication device is one of a source or a sink compliant with the Wi-Fi Display specification, and wherein the content protection compatibility information is information about existence or non-existence of compatibility of the application with content protection compliant with the Wi-Fi Display specification. a control unit configured to: establish a wireless connection in a data link layer, L2, with another device without designation of an application; allow a user to designate the application by a user operation after the wireless connection is established; transmit, to the other device , a first action frame, specified in the IEEE 802.11 specification, which includes information for the designation of the application without disconnection of the wireless connection after the wireless connection is established; and control the application over the wireless connection with the other device using a port number included in the information, establish a wireless connection in a data link layer, L2, with another device without designation of an application; allow a user to designate the application by a user operation after the wireless connection is established; transmit, to the other device , a first action frame, specified in the IEEE 802.11 specification, which includes information for the designation of the application without disconnection of the wireless connection after the wireless connection is established; and control the application over the wireless connection with the other device using a port number included in the information, wherein a type of the application is Wi-Fi certified Miracast, wherein the information includes device role information, the port number and content protection compatibility information, wherein the device role information is information on whether the wireless communication device is one of a source or a sink compliant with the Wi-Fi Display specification, and wherein the content protection compatibility information is information about existence or non-existence of compatibility of the application with content protection compliant with the Wi-Fi Display specification.
Adjusting device for mechanically actuating a component of a machine , - having a housing which comprises a first housing part and a second housing part , - having an electric motor arranged in the housing for driving an actuator arranged outside on the housing for coupling to the component to be actuated, - having a cooling channel for a liquid coolant formed in the second housing part , which is fluidically connected to a coolant inlet port provided outside on the housing and to a coolant outlet port provided outside on the housing , - wherein the electric motor is arranged in the second housing part and projects axially into the first housing part at least with its drive shaft , characterised in that - the two housing parts are produced from plastic, - an insert comprising the cooling channel , the coolant inlet port and the coolant outlet port is provided, said insert being arranged in the second housing part , - the coolant inlet port and the coolant outlet port are led outwards through the second housing part . - having a housing which comprises a first housing part and a second housing part , - having an electric motor arranged in the housing for driving an actuator arranged outside on the housing for coupling to the component to be actuated, - having a cooling channel for a liquid coolant formed in the second housing part , which is fluidically connected to a coolant inlet port provided outside on the housing and to a coolant outlet port provided outside on the housing , - wherein the electric motor is arranged in the second housing part and projects axially into the first housing part at least with its drive shaft , characterised in that - the two housing parts are produced from plastic, - an insert comprising the cooling channel , the coolant inlet port and the coolant outlet port is provided, said insert being arranged in the second housing part , - the coolant inlet port and the coolant outlet port are led outwards through the second housing part .
A light valve, comprising a first layer of a transparent conductive substrate; an active layer containing ABX 3 perovskite particles suspended in a liquid suspension; and a second layer of a transparent conductive substrate, wherein the ABX 3 perovskite particles are halide ABX 3 perovskite particles, A is at least one of Cs + and CH 3 NH 3 + ; B is Pb 2+ ; X is at least one of Br - and I - ; and the ABX 3 perovskite particles have a morphology of nanorods having an average length of about 50nm-2000nm, and an average diameter of 20nm-200nm.
A gas turbine engine (20;100;133;160;180) comprising: a fan (42;102;134) and a compressor section having a first lower pressure location and a second higher pressure location; and a heat exchanger (124; 138; 193) and a higher pressure tap (122; 142) from said second higher pressure location passing through said heat exchanger (124; 138; 143), and air in said higher pressure tap (122;142) being cooled by air from a lower pressure tap (120; 140) from said first lower pressure location, wherein the air from the lower pressure tap (120; 140) and the air from the higher pressure tap (122; 142) are maintained separate in the heat exchanger (124; 138; 193), characterised in that : the engine further comprises a valve (130; 146) controlling flow to said heat exchanger (124;138;193) from said lower pressure tap (120;140), the engine being configured such that said valve (130; 146) being controlled to limit flow from said lower pressure tap (120; 140) at idle. a fan (42;102;134) and a compressor section having a first lower pressure location and a second higher pressure location; and a heat exchanger (124; 138; 193) and a higher pressure tap (122; 142) from said second higher pressure location passing through said heat exchanger (124; 138; 143), and air in said higher pressure tap (122;142) being cooled by air from a lower pressure tap (120; 140) from said first lower pressure location, wherein the air from the lower pressure tap (120; 140) and the air from the higher pressure tap (122; 142) are maintained separate in the heat exchanger (124; 138; 193), characterised in that : the engine further comprises a valve (130; 146) controlling flow to said heat exchanger (124;138;193) from said lower pressure tap (120;140), the engine being configured such that said valve (130; 146) being controlled to limit flow from said lower pressure tap (120; 140) at idle.
A method of adding a sensing capability to a device driver for driving at least one high voltage power switching device of a power switching apparatus having device side circuitry comprising said at least one device and said driver and having control side circuitry comprising a driver controller , the device driver arranged to be coupled to a said driver controller by a communications link , the device driver arranged to drive said at least one device on or off in response to a switching signal received on said communications link from the driver controller , the device driver further arranged to transmit an acknowledge signal to said driver controller in response to said received switching signal, said acknowledge signal detectable at said driver controller as a valid said acknowledge signal, the method comprising: providing a sense circuit to output an indication of a condition of said device side circuitry; providing a modulation circuit to modulate a said acknowledge signal dependent on said condition indication prior to said transmission such that said modulated acknowledge signal is said acknowledge signal to be transmitted by said device driver to said driver controller in response to said received switching signal and detectable at said driver controller as a valid said acknowledge signal wherein said condition represents a status of the device side circuitry or a measured value of a parameter of the device side circuitry; and the modulation comprises modulating said acknowledge signal to represent a single bit of the status or value . providing a sense circuit to output an indication of a condition of said device side circuitry; providing a modulation circuit to modulate a said acknowledge signal dependent on said condition indication prior to said transmission such that said modulated acknowledge signal is said acknowledge signal to be transmitted by said device driver to said driver controller in response to said received switching signal and detectable at said driver controller as a valid said acknowledge signal wherein said condition represents a status of the device side circuitry or a measured value of a parameter of the device side circuitry; and the modulation comprises modulating said acknowledge signal to represent a single bit of the status or value . wherein said condition represents a status of the device side circuitry or a measured value of a parameter of the device side circuitry; and the modulation comprises modulating said acknowledge signal to represent a single bit of the status or value .
An air conditioner, comprising an air-conditioner air inlet , an air-conditioner air outlet , and an air duct structure disposed between the air-conditioner air inlet and the air-conditioner air outlet , wherein, the air duct structure comprises: a cross-flow blade , and a volute-and-tongue assembly , wherein the cross-flow blade is arranged inside the volute-and-tongue assembly ; wherein the volute-and-tongue assembly comprises an air flow inlet and an air flow outlet ; along an extending direction of the cross-flow blade , a dimension of the air flow inlet is a ; a dimension of the air flow outlet is b ; a dimension of the air-conditioner air inlet is h ; and a dimension of the air-conditioner air outlet is k, characterized in that < b < a < h . a cross-flow blade , and a volute-and-tongue assembly , wherein the cross-flow blade is arranged inside the volute-and-tongue assembly ; wherein the volute-and-tongue assembly comprises an air flow inlet and an air flow outlet ; along an extending direction of the cross-flow blade , a dimension of the air flow inlet is a ; a dimension of the air flow outlet is b ; a dimension of the air-conditioner air inlet is h ; and a dimension of the air-conditioner air outlet is k, characterized in that < b < a < h .
A cartridge for an aerosol-generating system that heats an aerosol-forming substrate to form an aerosol, the cartridge comprising: a first chamber having a first chamber housing and a second chamber separate to the first chamber and having a second chamber housing, wherein the first chamber contains the aerosol-forming substrate in the form of a gel, and wherein the second chamber contains a source of a compound for inhalation, wherein the first and second chamber housings are separate or separable from one another. a first chamber having a first chamber housing and a second chamber separate to the first chamber and having a second chamber housing, wherein the first chamber contains the aerosol-forming substrate in the form of a gel, and wherein the second chamber contains a source of a compound for inhalation, wherein the first and second chamber housings are separate or separable from one another.
An eggshell catalyst comprising an outer eggshell layer comprising nickel oxide and having a thickness of ≤ 1000μm on the surface of a calcined, shaped calcium aluminate cement support, wherein the nickel oxide is concentrated within the eggshell layer and not uniformly distributed within the calcined, shaped calcium aluminate cement support.
A method for configuring a reference signal of a user equipment being served by at least two cells, UEm, at the same time, comprising: acquiring , by a base station, group number information of a reference signal, RS, allocated for the UEm respectively by each of the at least two cells, wherein group number information refers to a group number of a group where a sequence adopted by a reference signal locates; acquiring , by the base station, according to the group number information allocated by each of the at least two cells, a respective group offset of the reference signal of the UEm, wherein the group offset is used to update the group number information of the reference signal of the UEm in the cell; presetting, by the base station to the UEm the group offset in each cell through downlink signaling; and sending , by the base station, a group offset enabling information to the UEm, to instruct the UEm to acquire new group number information according to a sum of or a difference between the allocated group number information of the RS in the cell and the preset group offset, so that the new group number information of the UEm is the same as new group number information of another UEm being served by the at least two cells; wherein the UEm and the another UEm are located in different cells among the least two cells. acquiring , by a base station, group number information of a reference signal, RS, allocated for the UEm respectively by each of the at least two cells, wherein group number information refers to a group number of a group where a sequence adopted by a reference signal locates; acquiring , by the base station, according to the group number information allocated by each of the at least two cells, a respective group offset of the reference signal of the UEm, wherein the group offset is used to update the group number information of the reference signal of the UEm in the cell; presetting, by the base station to the UEm the group offset in each cell through downlink signaling; and
A glove for cleaning one or more objects, the glove comprising: a plurality of sensors (102A-N) positioned on at least one layer of the glove ; a first finger fitted with a nozzle at a fingertip thereof, wherein the nozzle is configured to discharge water being facilitated via an inlet pipe connected to the nozzle , and wherein the flow of water is activated and controlled using a first sensor from the plurality of sensors (102A-N); an outlet to dispense cleansing fluid comprised in a fluid chamber , the fluid chamber being mounted on the glove , wherein the cleansing fluid is released from the fluid chamber and controlled using a second sensor from the plurality of sensors (102A-N); and at least one second finger configured to be inserted into a first detachable power-driven scrubber , wherein the first detachable power-driven scrubber is configured to controllably rotate in one or more directions based on an activation of a third sensor from the plurality of sensors (102A-N) to clean an object, and wherein the first detachable power-driven scrubber is configured to clean the object based on at least one of (i) discharge of controlled flow of water being facilitated by the nozzle using the first sensor from the plurality of sensors (102A-N), and (ii) dispensing of controlled flow of the cleansing fluid from the outlet , using the second sensor from the plurality of sensors (102A-N). a plurality of sensors (102A-N) positioned on at least one layer of the glove ; a first finger fitted with a nozzle at a fingertip thereof, wherein the nozzle is configured to discharge water being facilitated via an inlet pipe connected to the nozzle , and wherein the flow of water is activated and controlled using a first sensor from the plurality of sensors (102A-N); an outlet to dispense cleansing fluid comprised in a fluid chamber , the fluid chamber being mounted on the glove , wherein the cleansing fluid is released from the fluid chamber and controlled using a second sensor from the plurality of sensors (102A-N); and at least one second finger configured to be inserted into a first detachable power-driven scrubber , wherein the first detachable power-driven scrubber is configured to controllably rotate in one or more directions based on an activation of a third sensor from the plurality of sensors (102A-N) to clean an object, and wherein the first detachable power-driven scrubber is configured to clean the object based on at least one of (i) discharge of controlled flow of water being facilitated by the nozzle using the first sensor from the plurality of sensors (102A-N), and (ii) dispensing of controlled flow of the cleansing fluid from the outlet , using the second sensor from the plurality of sensors (102A-N).
A method of handling a soft buffer of a mobile device in a wireless communication system, utilized in the mobile device, the mobile device being configured a plurality of component carriers, called CCs hereinafter, by a network of the wireless communication system, characterized by the method comprising: dividing at least one sub-block of the soft buffer into a plurality of partitions, wherein a number of the plurality of partitions is determined according to an indication; and arranging a plurality of hybrid automatic repeat request, called HARQ hereinafter, processes of the plurality of CCs in the plurality of partitions; wherein one of the at least one sub-block is divided according to the following equation: N IR = ⌊ N soft K MIMO ⋅ M overbooking ⋅ min M DL _ HARQ M limit ⌋ , wherein N soft is a size of the one of the at least one sub-block; N IR is a size of each of the plurality of partitions; K MIMO is a number of transport blocks that may be transmitted to the mobile device in a transmission time interval (TTI) per CC and is related to a multiple-input multiple-output, called MIMO hereinafter, used by the mobile device and the network; M overbooking is a weighting comprised in the indication for controlling the number of the plurality of partitions, is related to a user equipment, called UE hereinafter, category of the mobile device, and is a positive value; M limit is a positive value; M DL_HARQ is the maximum number of HARQ processes of a plurality of downlink CCs; min(x,y) returns the smaller one of x and y; and └x┘ returns the largest integer not greater than x. dividing at least one sub-block of the soft buffer into a plurality of partitions, wherein a number of the plurality of partitions is determined according to an indication; and arranging a plurality of hybrid automatic repeat request, called HARQ hereinafter, processes of the plurality of CCs in the plurality of partitions; wherein one of the at least one sub-block is divided according to the following equation: N IR = ⌊ N soft K MIMO ⋅ M overbooking ⋅ min M DL _ HARQ M limit ⌋ , wherein N soft is a size of the one of the at least one sub-block; N IR is a size of each of the plurality of partitions; K MIMO is a number of transport blocks that may be transmitted to the mobile device in a transmission time interval (TTI) per CC and is related to a multiple-input multiple-output, called MIMO hereinafter, used by the mobile device and the network; M overbooking is a weighting comprised in the indication for controlling the number of the plurality of partitions, is related to a user equipment, called UE hereinafter, category of the mobile device, and is a positive value; M limit is a positive value; M DL_HARQ is the maximum number of HARQ processes of a plurality of downlink CCs; min(x,y) returns the smaller one of x and y; and └x┘ returns the largest integer not greater than x.