mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a controllable electrical device , which is a switching module of a modular multilevel converter, and which is connected, by means of a data link , to a control device for controlling the electrical device , wherein the electrical device is designed to exchange electrical energy with a connected electrical power supply system and comprises an environmental sensor for detecting environmental information, in which the control device transmits, by means of the data link , control signals to the electrical device , the electrical device assumes, depending on the transmitted control signals, a first or a second operating state, wherein, in its first operating state, the electrical device exchanges energy with the electrical power supply system , and, in its second operating state, the electrical device does not exchange any energy with the electrical power supply system , characterized in that the environmental information detected by means of the environmental sensor is transmitted via the data link to the control device only when the electrical device is in the second operating state. the control device transmits, by means of the data link , control signals to the electrical device , the electrical device assumes, depending on the transmitted control signals, a first or a second operating state, wherein, in its first operating state, the electrical device exchanges energy with the electrical power supply system , and, in its second operating state, the electrical device does not exchange any energy with the electrical power supply system ,
A method of attaching a wireless transmit/receive unit, WTRU, to a network, the method comprising: a first node receiving a WTRU identity and a subscriber information message that includes an address of a machine type communication interworking function, MTC-IWF; the first node implementing an identity and security procedure based on the WTRU identity; the first node sending an attach request message to a server via the MTC-IWF using the address of the MTC-IWF; and the first node receiving an attach request response message from the server via the MTC-IWF. a first node receiving a WTRU identity and a subscriber information message that includes an address of a machine type communication interworking function, MTC-IWF; the first node implementing an identity and security procedure based on the WTRU identity; the first node sending an attach request message to a server via the MTC-IWF using the address of the MTC-IWF; and the first node receiving an attach request response message from the server via the MTC-IWF.
A communication device configured to: transmit a first parity message to another communication device for a group of one or more messages that the communication device has transmitted to the other communication device, the parity message including parity information from which the other communication device can reconstruct the one or more messages; and transmit a second parity message to the other communication device for a group of one or more subsequent messages that the communication device has transmitted to the other communication device, the communication device being configured to form the second parity message to overlap the first parity message by including in the second parity message parity information in respect of at least one message for which parity information is included in both the first and second parity messages, characterized by the communication device being configured to form each of the multiple parity messages using a different error-correcting code. transmit a first parity message to another communication device for a group of one or more messages that the communication device has transmitted to the other communication device, the parity message including parity information from which the other communication device can reconstruct the one or more messages; and transmit a second parity message to the other communication device for a group of one or more subsequent messages that the communication device has transmitted to the other communication device, the communication device being configured to form the second parity message to overlap the first parity message by including in the second parity message parity information in respect of at least one message for which parity information is included in both the first and second parity messages, characterized by the communication device being configured to form each of the multiple parity messages using a different error-correcting code.
An optical unit for a motor vehicle, said optical unit including casing , adapted to receive at least one light source, and at least one attachment tab connected to said casing and including an attachment zone to the structure of a motor vehicle, an absorption zone adapted to receive a portion of the energy transferred during the closing of the bonnet of said vehicle, and a plurality of connecting branches of the attachment tab to the casing able to deform during an impact undergone by said optical unit , the optical unit being characterized in that the casing includes a body made of a plastic material, the attachment tab and said body are made from the same material, and in that at least one of the connecting branches of the plurality of connecting branches includes a notch .
Shackle that is meant to be fastened at an end of a boom structure (P) that is, to be used by a working machine, in order to couple therewith one or more organs (T), such as a rotator, a grip loader and/or the like, to be driven by power transmission transmitted from a hydraulic system of the working machine, the shackle having a frame structure that rotates (w) around two axes of rotation (x, y) perpendicular to each other and that is to be fastened by its opposite ends in longitudinal direction (s) to the boom structure (P) and to the organ (T), and an actuator arrangement that is driven by auxiliary power, preferably operating by transmission of the working machine's hydraulic system, for dampening/locking of the shackle's swinging and for releasing the same to rotate around its axes of rotation, characterized in that , the shackle's (RP) actuator arrangement is arranged to dampen/lock and to release the rotating motion (w) of in respect with each other separate frame parts of the shackle by changing a mutual distance (e) of the shackle's axes of rotation (x, y), which is made possible on the one hand by means of an intermediate piece that is to be coupled movably in the shackle's longitudinal direction (s) with joint shafts (2a1) existing in joint holes (R) in the frame parts , the holes being parallel with the axes of rotation (x, y), wherein fastening ears (K) of the intermediate piece have joint holes (NR) that are elongated in the longitudinal direction (s), and on the other hand by mutual form locking arrangements (M) of the separate frame parts of the shackle and the intermediate piece .
A terminal device according to 3 rd Generation Partnership Project, 3GPP, comprising: a reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel corresponding to a serving cell in which an uplink-downlink configuration 0 is configured; and a transmission unit configured and/or programmed to transmit a Physical Uplink Shared Channel, PUSCH, wherein the DCI format includes an uplink index field and a Hybrid Automatic Repeat reQuest, HARQ, process number, the transmission unit , in asynchronous HARQ, in a case that a first bit of the uplink index in the uplink index field is set to 1, adjusts the PUSCH transmission to a first subframe, the transmission unit , in asynchronous HARQ, in a case that a second bit of the uplink index in the uplink index field is set to 1, adjusts the PUSCH transmission to a second subframe, and in asynchronous HARQ, the HARQ process number of the PUSCH corresponding to the second bit is determined based on at least whether or not both the first bit and the second bit are set to 1 and the HARQ process number X, wherein, when both the first bit and the second bit are set to 1, the HARQ process number of the PUSCH corresponding to the second bit is determined as Y = mod(X+1,Z), wherein the X is the HARQ process number indicated by the DCI format and Z is a value that is identical to the maximum number of HARQ processes which are simultaneously managed by the HARQ entity. a reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel corresponding to a serving cell in which an uplink-downlink configuration 0 is configured; and a transmission unit configured and/or programmed to transmit a Physical Uplink Shared Channel, PUSCH, wherein the DCI format includes an uplink index field and a Hybrid Automatic Repeat reQuest, HARQ, process number, the transmission unit , in asynchronous HARQ, in a case that a first bit of the uplink index in the uplink index field is set to 1, adjusts the PUSCH transmission to a first subframe, the transmission unit , in asynchronous HARQ, in a case that a second bit of the uplink index in the uplink index field is set to 1, adjusts the PUSCH transmission to a second subframe, and in asynchronous HARQ, the HARQ process number of the PUSCH corresponding to the second bit is determined based on at least whether or not both the first bit and the second bit are set to 1 and the HARQ process number X, wherein, when both the first bit and the second bit are set to 1, the HARQ process number of the PUSCH corresponding to the second bit is determined as Y = mod(X+1,Z), wherein the X is the HARQ process number indicated by the DCI format and Z is a value that is identical to the maximum number of HARQ processes which are simultaneously managed by the HARQ entity.
Method for producing a hollow-chamber profile , - wherein the hollow-chamber profile is produced with the aid of a strand production process , - wherein during this strand production process continuous reinforcing fibres are integrated into the matrix of the hollow-chamber profile , - wherein the core profile , in order to improve the surface quality of the hollow-chamber profile , is provided with an outer coating made of a non-fibre-reinforced material, and - wherein coloured pigments are added to the material of the coating prior to application to the core profile , - wherein the thermoplastic hollow-chamber profile which has a plurality of hollow chambers takes the form of a window or door hollow-chamber profile in the form of a window frame profile or sash frame profile, - wherein the strand production process takes the form of reactive pultrusion, which serves for producing a continuous-fibre-reinforced thermoplastic core profile , having a plurality of hollow chambers , of the hollow-chamber profile , and - wherein the thermoplastic matrix of the core profile is produced from low-viscosity monomers (MO) and/or reactive oligomers (MO) which during the reactive pultrusion are polymerised to form the thermoplastic material. - wherein the hollow-chamber profile is produced with the aid of a strand production process , - wherein during this strand production process continuous reinforcing fibres are integrated into the matrix of the hollow-chamber profile , - wherein the core profile , in order to improve the surface quality of the hollow-chamber profile , is provided with an outer coating made of a non-fibre-reinforced material, and - wherein coloured pigments are added to the material of the coating prior to application to the core profile , - wherein the thermoplastic hollow-chamber profile which has a plurality of hollow chambers takes the form of a window or door hollow-chamber profile in the form of a window frame profile or sash frame profile, - wherein the strand production process takes the form of reactive pultrusion, which serves for producing a continuous-fibre-reinforced thermoplastic core profile , having a plurality of hollow chambers , of the hollow-chamber profile , and - wherein the thermoplastic matrix of the core profile is produced from low-viscosity monomers (MO) and/or reactive oligomers (MO) which during the reactive pultrusion are polymerised to form the thermoplastic material.
A method for wireless communications by an apparatus , comprising: generating a first frame having a header portion recognizable by first and second types of devices and having another portion; selecting a first value of a scrambler field of the header portion of the frame to indicate at least one of: whether said another portion of the frame is encoded using an enhanced modulation scheme supported by the second type of devices but not supported by the first type of devices or a length of said another portion of the frame encoded using the enhanced modulation scheme; and outputting the frame for transmission. generating a first frame having a header portion recognizable by first and second types of devices and having another portion; selecting a first value of a scrambler field of the header portion of the frame to indicate at least one of: whether said another portion of the frame is encoded using an enhanced modulation scheme supported by the second type of devices but not supported by the first type of devices or a length of said another portion of the frame encoded using the enhanced modulation scheme; and whether said another portion of the frame is encoded using an enhanced modulation scheme supported by the second type of devices but not supported by the first type of devices or a length of said another portion of the frame encoded using the enhanced modulation scheme; and outputting the frame for transmission.
A system for regulating the flow rate of a propellant fluid for an electrical thruster of a space vehicle, the vehicle including a tank of propellant fluid and a flow rate regulator connected to the outlet of said tank ; the flow rate regulator including a heater element controlled by a computer and adapted to heat the propellant fluid and to modify its physical properties so as to vary the flow rate of propellant fluid leaving the tank; said system being characterized in that the computer includes a storage memory having loaded therein a plurality of empirical calibration curves that have been determined empirically for defining the flow rate of propellant fluid as a function of the magnitude of heating and as a function of environmental parameters, so that said computer also performs a function of determining the flow rate of the propellant fluid. the flow rate regulator including a heater element controlled by a computer and adapted to heat the propellant fluid and to modify its physical properties so as to vary the flow rate of propellant fluid leaving the tank; said system being characterized in that the computer includes a storage memory having loaded therein a plurality of empirical calibration curves that have been determined empirically for defining the flow rate of propellant fluid as a function of the magnitude of heating and as a function of environmental parameters, so that said computer also performs a function of determining the flow rate of the propellant fluid.
A TN liquid crystal panel comprising a front plate , wherein the front plate comprises a polycarbonate resin sheet , further comprising a hard resin layer with a thickness within a range of 30 to 100 μm and the pencil hardness at a laminated state measured according to JIS5600-5-4 of at least F or more, the hard resin layer being obtainable by coextrusion molding with the polycarbonate resin provided on the front surface or the back surface of the polycarbonate resin sheet, wherein the direction of the slow axis or the fast axis of the polycarbonate resin sheet is parallel or perpendicular to the transmission axis of the liquid crystal panel, and wherein the hard resin layer consists of an acryl resin, a nuclear hydrogenated resin obtainable by hydrogenating an aromatic ring of a copolymer obtainable by polymerizing at least one kind of (meth)acrylate ester monomer and at least one kind of aromatic vinyl monomer, or a modified polycarbonate resin having 2,2-bis(4-hydroxy-3-methylphenyl)propane or 2,2-bis(4-hydroxy-3-methylphenyl)cyclohexane as a main raw material monomer.
A method performed by a transport network node , such as a router, for distributing an available bandwidth between different access technologies utilising the transport network node , the transport network node being associated with at least one network node , such as a NodeB or an eNodeB, the method comprising: • obtaining an allocation scheme reflecting a desired distribution of bandwidth between the different access technologies, wherein the allocation scheme defines un-equal weights assigned to the different access technologies, • receiving information from the at least one network node , regarding an access technology of the at least one network node , • receiving information regarding a number of active users per access technology, • calculating a product for each access technology by multiplying the assigned un-equal weight associated with the access technology with the number of active users of the associated access technology and calculating un-equal weights of weights for distributing available bandwidth for the access technologies by dividing each of the products with a sum of the products, • scheduling transport of packet data, based on the calculated un-equal weights of weights for distributing the available bandwidth for the access technologies. • obtaining an allocation scheme reflecting a desired distribution of bandwidth between the different access technologies, wherein the allocation scheme defines un-equal weights assigned to the different access technologies, • receiving information from the at least one network node , regarding an access technology of the at least one network node , • receiving information regarding a number of active users per access technology, • calculating a product for each access technology by multiplying the assigned un-equal weight associated with the access technology with the number of active users of the associated access technology and calculating un-equal weights of weights for distributing available bandwidth for the access technologies by dividing each of the products with a sum of the products, • scheduling transport of packet data, based on the calculated un-equal weights of weights for distributing the available bandwidth for the access technologies.
Connecting arrangement for force-transmitting connection of a first force-absorbing structure part to a second force-absorbing structure part , comprising tensile-force-transmitting means, transverse-force-transmitting means and compressive-force-transmitting means, wherein the compressive-force-transmitting means comprise at least one compression element with a bar-shaped portion , wherein the bar-shaped portion is intended for arrangement in a separating joint between the structure parts , and wherein the bar-shaped portion consists of a metallic material, characterized in that the bar-shaped portion has a flow portion with constant cross-sectional area, wherein the cross-sectional area of the flow portion is reduced in relation to the largest cross-sectional area of the bar-shaped portion , wherein the cross section of the flow portion and the length of the bar-shaped portion are matched to one another in such a way that the material in the flow portion , under compressive loading, reaches its yield point before the bar-shaped portion buckles.
A power transmission belt comprising a stacked body comprising: a back surface layer disposed on a back surface side; an inner surface layer disposed on an inner surface side; and a tension member layer comprising a tension member embedded between the back surface layer and the inner surface layer, wherein the power transmission belt comprises a sensor configured to detect a status of the power transmission belt, as at least a part of the stacked body, wherein the sensor is integrated as at least a part of the stacked body, wherein an interface between a sensor component of the sensor and the stacked body, in particular a portion of the stacked body containing a rubber composition, is bonded through a chemical bonding or a physical bonding, and characterized in that the power transmission belt comprises a plurality of the sensors, and the plurality of the sensors are disposed at predetermined intervals in a circumferential length direction of the power transmission belt. a back surface layer disposed on a back surface side; an inner surface layer disposed on an inner surface side; and a tension member layer comprising a tension member embedded between the back surface layer and the inner surface layer, wherein the power transmission belt comprises a sensor configured to detect a status of the power transmission belt, as at least a part of the stacked body, wherein the sensor is integrated as at least a part of the stacked body, wherein an interface between a sensor component of the sensor and the stacked body, in particular a portion of the stacked body containing a rubber composition, is bonded through a chemical bonding or a physical bonding, and characterized in that the power transmission belt comprises a plurality of the sensors, and the plurality of the sensors are disposed at predetermined intervals in a circumferential length direction of the power transmission belt.
A method for producing a metallic interconnector for a fuel cell stack, which has an air guiding surface with a first gas distributor structure and a fuel gas guiding surface with a second gas distributor structure , wherein the first gas distributor structure and the second gas distributor structure are each formed by grooves and webs , and the method comprises the following steps • providing a sheet metal blank, the thickness of the sheet metal blank being 0.5 to 3.5 mm, • forming the sheet metal blank by a plastic molding process, wherein the first gas distributor structure and the second gas distributor structure are formed in such a manner, that the grooves and webs of the first gas distributor structure are arranged complementary to the grooves and webs of the second gas distributor structure at a predeterminable percentage of area of the air guiding surface and the fuel gas guiding surface of at least 50% and at most 99%, wherein the metallic interconnector comprises a core and a thickness of the interconnector is a sum of a thickness of the core and a web height of the first gas distributor and a web height of the second gas distributor structure , wherein the interconnector comprises a sealing surface , which sealing surface is arranged on both the air guiding surface and the fuel guiding surface . • providing a sheet metal blank, the thickness of the sheet metal blank being 0.5 to 3.5 mm, • forming the sheet metal blank by a plastic molding process, wherein the first gas distributor structure and the second gas distributor structure are formed in such a manner, that the grooves and webs of the first gas distributor structure are arranged complementary to the grooves and webs of the second gas distributor structure at a predeterminable percentage of area of the air guiding surface and the fuel gas guiding surface of at least 50% and at most 99%, wherein the metallic interconnector comprises a core and a thickness of the interconnector is a sum of a thickness of the core and a web height of the first gas distributor and a web height of the second gas distributor structure , wherein the interconnector comprises a sealing surface , which sealing surface is arranged on both the air guiding surface and the fuel guiding surface .