mhurhangee/ep-ind-claims huggingface dataset:
Restraint control module for a vehicle, including a supply capacitance for supplying the restraint control module with energy during a period in which the restraint control module is disconnected from a battery of the vehicle; a deployment capacitance, different from the supply capacitance, the deployment capacitance storing energy for emergency functionality to be triggered by the restraint control module; characterised in that the restraint control module is configured to use energy stored in the deployment capacitance for supplying the restraint control module if the triggering of emergency functionality is disabled and the restraint control module is disconnected from the battery of the vehicle. a supply capacitance for supplying the restraint control module with energy during a period in which the restraint control module is disconnected from a battery of the vehicle; a deployment capacitance, different from the supply capacitance, the deployment capacitance storing energy for emergency functionality to be triggered by the restraint control module; characterised in that the restraint control module is configured to use energy stored in the deployment capacitance for supplying the restraint control module if the triggering of emergency functionality is disabled and the restraint control module is disconnected from the battery of the vehicle.
An apparatus for verifying an integrity of a device connected to a telecommunication network, the apparatus comprising: at least one transceiver configured to broadcast a signal to the device via a non-network channel for causing the device to provide a response to the signal depending on the integrity of the device, wherein the non-network channel is a communication path between the transceiver and the device outside the telecommunication network; and an attestation server configured to: transmit a first message via the telecommunication network to the transceiver, wherein the signal broadcasted from the transceiver to the device via the non-network channel is indicative of the first message; transmit a second message via the telecommunication network to the device, the second message enabling the device to provide the response to the signal to the attestation server depending on the integrity of the device; receive the device's response; and verify the integrity of the device depending on the device's response. at least one transceiver configured to broadcast a signal to the device via a non-network channel for causing the device to provide a response to the signal depending on the integrity of the device, wherein the non-network channel is a communication path between the transceiver and the device outside the telecommunication network; and an attestation server configured to: transmit a first message via the telecommunication network to the transceiver, wherein the signal broadcasted from the transceiver to the device via the non-network channel is indicative of the first message; transmit a second message via the telecommunication network to the device, the second message enabling the device to provide the response to the signal to the attestation server depending on the integrity of the device; receive the device's response; and verify the integrity of the device depending on the device's response. transmit a first message via the telecommunication network to the transceiver, wherein the signal broadcasted from the transceiver to the device via the non-network channel is indicative of the first message; transmit a second message via the telecommunication network to the device, the second message enabling the device to provide the response to the signal to the attestation server depending on the integrity of the device; receive the device's response; and verify the integrity of the device depending on the device's response.
A method for sharing protection of a mesh network protection domain, comprising: presetting one protection ring in the mesh network protection domain, a path of the protection ring running through source and destination nodes of a plurality of services in the mesh network protection domain, and only reserving protection resources in the path of the protection ring; and determining protection methods used respectively by the plurality of services said above and configuring a corresponding protection group; setting protection paths of all the protection groups on the protection ring, wherein when determining protection methods used respectively by a plurality of services said above and configuring the corresponding protection group, a ring sharing protection method is utilized for a ring service (W1, W2) of which working paths are all on the protection ring, and one ring sharing protection group is configured for all ring services, and the protection ring is regarded as the protection path of the ring sharing protection group; or when determining protection methods used respectively by a plurality of services said above and configuring the corresponding protection group, a 1:1 protection method is utilized for the ring service (W1, W2) of which working paths are all on the protection ring, and one 1:1 protection group is configured for every one ring service, and a section of path of the protection ring different from the working path of the ring service between the source and destination nodes of the ring service is regarded as the protection path; wherein when determining protection methods used respectively by a plurality of services said above and configuring the corresponding protection group, the 1:1 or 2:1 protection method is utilized for a string service (W3, W4, W5, W6) of which the source and destination nodes are on the protection ring but not all working paths are on the protection ring, and one or two 1:1 protection groups are configured for every string service, and one or two sections of paths of the protection ring between the source and destination nodes of the string service is regarded as the protection path. presetting one protection ring in the mesh network protection domain, a path of the protection ring running through source and destination nodes of a plurality of services in the mesh network protection domain, and only reserving protection resources in the path of the protection ring; and determining protection methods used respectively by the plurality of services said above and configuring a corresponding protection group; setting protection paths of all the protection groups on the protection ring,
A male incontinence guard (1; 1') comprising a fluid-impermeable backsheet, a fluid-permeable topsheet and an absorbent body arranged between said backsheet and said topsheet, wherein said topsheet faces the user when the incontinence guard (1; 1') is worn by said user, said guard (1; 1') having a longitudinal extension along a longitudinal axis and a transverse extension along a transverse axis, said transverse axis dividing said guard (1; 1') into an upper region and a lower region, characterized in that said transverse axis extends between a first lower corner point and a second lower corner point which define two outermost points of said guard (1; 1') between which said guard (1; 1') has a first width; said upper region comprising an inwardly recessed curvature portion extending between a first upper corner point and a second upper corner point and having an arcuate shape, said upper corner points (13, 14) defining a second width; wherein the first width is greater than the second width, and wherein said first lower corner point and first upper corner point and said second lower corner point and second upper corner point, respectively, are connected by outer side edges (15, 17), and wherein said guard is arranged having elasticized elements arranged along an outer edge of the lower region, along the outer edges of said lower region, and wherein the ratio between the first width and the second width is in the range of 30-80%, and wherein the ratio between a distance defined by an imaginary longitudinal line, being parallel to said longitudinal axis and extending from any one of said upper corner points (13, 14) to said transversal axis, and a distance extending from any one of said lower corner points (10, 11) to said longitudinal line, is in the range of 0.25-4.0, wherein a straight line is defined as extending through a lower corner point and an upper corner point, and wherein an angle (a) is defined between said straight line and said imaginary longitudinal line, said angle (α) being in the range of 12-78 degrees, and wherein a measurement is defined as the distance between said straight line and the maximum outer extension of said incontinence guard, wherein said measurement is less than 25% of the distance between first lower corner point and the first upper corner point.
Water-absorbing silicone rubber particles having a particle size in the range of 0.1 to 1,000 μm and elasticity, wherein the silicone rubber is an organopolysiloxane having polyoxyalkylene groups, contains 20 to 80% by mass, based on the silicone rubber, of oxyethylene units -OCH 2 CH 2 -, and is capable of absorbing at least 10 parts by mass of water per 100 parts by mass of the silicone rubber; and wherein the polyoxyalkylene groups are a monovalent polyoxyalkylene group, attached to a silicon atom in the organopolysiloxane, having the formula: -R 1 (OCH 2 CH 2) a (OCH(CH 3)CH 2) b OR 2 wherein R 1 is an alkylene group of 1 to 15 carbon atoms, R 2 is hydrogen, an alkyl group of 1 to 30 carbon atoms or an organic group of - -R 3, R 3 is an alkyl group of 1 to 30 carbon atoms, a is an integer of 2 to 50, and b is an integer of 0 to 15, and a divalent polyoxyalkylene group, attached to a silicon atom in the organopolysiloxane, having the formula: -R 4 (OCH 2 CH 2) c (OCH(CH 3)CH 2) d OR 5 - wherein R 4 is an alkylene group of 1 to 15 carbon atoms, R 5 is an alkylene group of 1 to 15 carbon atoms, c is an integer of 2 to 50, and d is an integer of 0 to 15, wherein the monovalent polyoxyalkylene group of formula and the divalent polyoxyalkylene group of formula are present in a mass ratio in the range from 10:90 to 95:5.
A method for fabricating vertical nanowire MOSFETs, having a bottom source and a top drain contact, on a semiconductor substrate having nanowires, the method consisting of: depositing an organic or inorganic protection layer around a bottom of the nanowire, the thickness of the protection layer defining the gate-drain spacing and the gate length of the device being controlled by controlling the thickness of the protection layer around each nanowire; forming a top metal contact by metal deposition; anisotropically etching the top metal contact such that the planar layer is removed and only the metal on the sidewalls of the nanowires is kept; removing the protection layer; depositing an organic or inorganic spacer layer, the thickness of the spacer layer defining the gate-source spacing, wherein the thickness of the spacer layer is smaller than the thickness of the protection layer; depositing a high-k oxide; depositing a metal gate, thereby defining the final gate length; contacting the metal gate and the top metal contact separately; and forming a bottom electrode. depositing an organic or inorganic protection layer around a bottom of the nanowire, the thickness of the protection layer defining the gate-drain spacing and the gate length of the device being controlled by controlling the thickness of the protection layer around each nanowire; forming a top metal contact by metal deposition; anisotropically etching the top metal contact such that the planar layer is removed and only the metal on the sidewalls of the nanowires is kept; removing the protection layer; depositing an organic or inorganic spacer layer, the thickness of the spacer layer defining the gate-source spacing, wherein the thickness of the spacer layer is smaller than the thickness of the protection layer; depositing a high-k oxide; depositing a metal gate, thereby defining the final gate length; contacting the metal gate and the top metal contact separately; and forming a bottom electrode.
A method of controlling a screening device, wherein the method comprises: - registering a climate characteristic based on a sensor, - wherein a controller (3, 4, 5, 10), controls the position of the screening device (1a, 1b, 1c, 1c, 13) based on the registered climate characteristic, - interrupting said control of the position of the screening device (1a, 1b, 1c, 1c, 13) in accordance with a defined temporal scheme, wherein the defined temporal interruption scheme is manually defined by a user, characterized in that the scheme is defined by a countdown time period during which the control is interrupted, and wherein the control is resumed after the interrupt. - registering a climate characteristic based on a sensor, - wherein a controller (3, 4, 5, 10), controls the position of the screening device (1a, 1b, 1c, 1c, 13) based on the registered climate characteristic, - interrupting said control of the position of the screening device (1a, 1b, 1c, 1c, 13) in accordance with a defined temporal scheme,
A Mobile Virtual Network Enabler, MVNE, for enabling subscribers of an enterprise to utilize an enterprise-specific high speed data access at a guaranteed Quality of Service, QoS, through a mobile network of a Mobile Network Operator, MNO, associated with the MVNE, wherein the enterprise is a client of the MVNE, and the enterprise and the subscribers of the enterprise are not clients of the MNO, and wherein the MVNE comprises: a multimedia server for offering Internet Protocol, IP, multimedia services to the subscribers of the enterprise via the mobile network of the MNO; a subscription management unit configured to facilitate authentication and registration of the enterprise's subscribers with the MNO via the MVNE and to allow the MVNE to function as a roaming partner to the MNO, wherein the subscription management unit aggregates a number of subscribers from a plurality of enterprise clients of the MVNE to obtain wholesale pricing from the MNO for each enterprise client of the MVNE; a Service Delivery Platform, SDP, coupled to the subscription management unit to expose one or more Application Programming Interfaces, APIs, of the MNO to the subscribers of the enterprise even though the subscribers of the enterprise are not clients of the MNO; and a plurality of IP Multimedia Subsystem, IMS, core elements (76, 77, 78, 79) operatively coupled to the multimedia server, the subscription management unit, and a core portion of the MNO's mobile network to facilitate delivery of high speed data associated with the IP multimedia services to the subscribers of the enterprise via the mobile network of the MNO at the guaranteed QoS. a multimedia server for offering Internet Protocol, IP, multimedia services to the subscribers of the enterprise via the mobile network of the MNO; a subscription management unit configured to facilitate authentication and registration of the enterprise's subscribers with the MNO via the MVNE and to allow the MVNE to function as a roaming partner to the MNO, wherein the subscription management unit aggregates a number of subscribers from a plurality of enterprise clients of the MVNE to obtain wholesale pricing from the MNO for each enterprise client of the MVNE; a Service Delivery Platform, SDP, coupled to the subscription management unit to expose one or more Application Programming Interfaces, APIs, of the MNO to the subscribers of the enterprise even though the subscribers of the enterprise are not clients of the MNO; and a plurality of IP Multimedia Subsystem, IMS, core elements (76, 77, 78, 79) operatively coupled to the multimedia server, the subscription management unit, and a core portion of the MNO's mobile network to facilitate delivery of high speed data associated with the IP multimedia services to the subscribers of the enterprise via the mobile network of the MNO at the guaranteed QoS.
A method for selecting transmission channels in a multi-channel communication system for use for data transmission wherein data s(k) are sent at a time k, the data s(k) are received, wherein r(k) denotes data which are received at the time k, and wherein a comparison between sent data and received data occurs according to the formula: r k = ∑ l = 0 L − 1 h l s k − l + n k wherein h... h(L-1) denotes a channel impulse response with length L and n(k) denotes noise signals at the receiver, characterized in, that a blind channel estimator is modified for receiving feedback from a decoder with a residual error for an estimated tap due to a usage of a time average instead of a true expectation, wherein an a-posteriori output of the decoder, L D (c), with c being a vector of coded bits, and channel taps estimated in a previous iteration of a turbo equalizer, u h are used for cancelling the residual error, wherein a linear code is characterized by its generator matrix, G, and parity check matrix, H of size M × N, with M and N being natural numbers: c = Gb, Hc = 0, with b being a vector of information bits and a set A = {[λm,1,..., λm,p,..., λm,P]} with P being a natural number, the set A being a set of M vectors with the p-th column indices of the nonzero elements of the m-th row of the parity check matrix in such a way that: and such that an l-th tap of a channel can be estimated by using a P q th-order moment according to ξ l q = E r π m, q + l ∏ i = 1 i ≠ q P ̃ + 1 r π m, i + v ∏ i = P ̃ + 1 i ≠ q P r ∗ π m, i + v, wherein P∼ = (P+1)/2; q = {1,..., p,..., P}, with q and I natural numbers, and v are the estimated value and the estimated position of a strongest tap of the channel wherein by setting I = v a main tap of the channel is estimated and afterwards other taps are calculated as a function of an absolute value of the main tap for l ≠ v, such that the estimated value of the main tap is given by h ^ l = 1 P ∑ q = 1 P ξ l q.
A galley cooling system comprising: a plurality of galley monuments; a plurality of galley cooling units each associated with a separate galley monument; and a sensor (42,44) for sensing a condition at each of the galley monuments; characterized in that the system further comprises a control for determining whether a sensed condition is indicative of efficient operation of a particular galley cooling unit, and said control being operable to decrease cooling capacity delivered to a galley cooling unit which is experiencing inefficient operation in the form of loss of cooling. a plurality of galley monuments; a plurality of galley cooling units each associated with a separate galley monument; and a sensor (42,44) for sensing a condition at each of the galley monuments; characterized in that the system further comprises a control for determining whether a sensed condition is indicative of efficient operation of a particular galley cooling unit, and said control being operable to decrease cooling capacity delivered to a galley cooling unit which is experiencing inefficient operation in the form of loss of cooling.
A valve, comprising: a valve body containing a fluid inlet passage and a fluid outlet passage; an orifice disposed between the fluid inlet passage and the fluid outlet passage; a movable valve plug adapted to move with respect to the orifice to vary the flow of fluid between the fluid inlet passage and the fluid outlet passage; and a movable valve stem attached to the valve plug, characterized in that the movable valve stem including a plurality of serrations (62, 108a-c, 116a-c, 122a-c, 128, 132a-d, 144a-b) disposed thereon and directly interacting with a travel limiting device (42, 44, 50, 68, 94, 96, 102, 110, 118, 124, 134, 146, 158, 160, 166) for adjusting a valve travel limit wherein adjustments to the valve travel limit can be made outside the valve body and wherein the valve travel limit corresponds to a specific maximum fluid flow configuration of the valve. a valve body containing a fluid inlet passage and a fluid outlet passage; an orifice disposed between the fluid inlet passage and the fluid outlet passage; a movable valve plug adapted to move with respect to the orifice to vary the flow of fluid between the fluid inlet passage and the fluid outlet passage; and a movable valve stem attached to the valve plug, characterized in that the movable valve stem including a plurality of serrations (62, 108a-c, 116a-c, 122a-c, 128, 132a-d, 144a-b) disposed thereon and directly interacting with a travel limiting device (42, 44, 50, 68, 94, 96, 102, 110, 118, 124, 134, 146, 158, 160, 166) for adjusting a valve travel limit wherein adjustments to the valve travel limit can be made outside the valve body and wherein the valve travel limit corresponds to a specific maximum fluid flow configuration of the valve.
A remote control device for controlling an apparatus (4a, 4b, 4c) remotely in the network address configuration server of a communication network, comprising: a first receiving device for receiving a first network address configuration protocol message sent from an apparatus (4a, 4b, 4c) to be controlled in response to the apparatus (4a, 4b, 4c) to be controlled receiving a trigger signal from a user access server; a apparatus identification information determining device for determining an identification information of said apparatus (4a, 4b, 4c) to be controlled according to said first network address configuration protocol message; characterized in that the remote control device further comprising: a control information acquiring device for acquiring control information of said apparatus (4a, 4b, 4c) to be controlled from said user access server according to the identification information of said apparatus (4a, 4b, 4c) to be controlled; a first sending device for sending said control information to said apparatus (4a, 4b, 4c) to be controlled via a second network address configuration protocol message (S 13). a first receiving device for receiving a first network address configuration protocol message sent from an apparatus (4a, 4b, 4c) to be controlled in response to the apparatus (4a, 4b, 4c) to be controlled receiving a trigger signal from a user access server; a apparatus identification information determining device for determining an identification information of said apparatus (4a, 4b, 4c) to be controlled according to said first network address configuration protocol message; a control information acquiring device for acquiring control information of said apparatus (4a, 4b, 4c) to be controlled from said user access server according to the identification information of said apparatus (4a, 4b, 4c) to be controlled; a first sending device for sending said control information to said apparatus (4a, 4b, 4c) to be controlled via a second network address configuration protocol message (S 13).
A method for controlling an internal combustion engine having an intake manifold fluidly coupled to a turbocharger, the turbocharger having an effect on a manifold air pressure and a manifold air flow in the intake manifold, the internal combustion engine also having one or more fuel injectors for injecting fuel into the intake manifold of the engine, the method comprising the steps of: injecting a fueling profile into the internal combustion engine using the one or more fuel injectors; and providing one or more signals that are related to the fueling profile; wherein the method is further characterized by the step of: adjusting the manifold air pressure and/or the manifold air flow of the air in the intake manifold based, at least in part, on at least one fuel rate signal that is related to the change in fuel rate. injecting a fueling profile into the internal combustion engine using the one or more fuel injectors; and providing one or more signals that are related to the fueling profile; wherein the method is further characterized by the step of: adjusting the manifold air pressure and/or the manifold air flow of the air in the intake manifold based, at least in part, on at least one fuel rate signal that is related to the change in fuel rate.