mhurhangee/ep-ind-claims huggingface dataset:
An attachment system in a vehicle, which attachment system comprises interchangeable attachment devices arranged to be removably mounted adjacent an upright interior surface facing the passenger compartment, and each interchangeable attachment device comprises a front portion (18, 19) arranged for supporting an accessory associated with the attachment device, wherein - the attachment system comprises at least two spaced apart parallel tracks (26, 27, 28) each arranged in at least a first and a second surface (31, 32, 33) angled away from the upright interior surface and a corresponding number of projections (41, 42, 43) arranged on each attachment device, - a first and a second track (26, 27) comprises open grooves extending into said first and second surfaces (31, 32), respectively, from opposite directions, - said attachment device comprises at least a first projection for cooperating with said first track and at least a second projection for cooperating with said second track, wherein said attachment device and its associated accessory is arranged to be slidable in a horizontal direction along said upright interior surface, and wherein the accessory is removably attached to the attachment device wherein the attachment system comprises a storage unit and the upright interior surface comprises a front section of the storage unit. - the attachment system comprises at least two spaced apart parallel tracks (26, 27, 28) each arranged in at least a first and a second surface (31, 32, 33) angled away from the upright interior surface and a corresponding number of projections (41, 42, 43) arranged on each attachment device, - a first and a second track (26, 27) comprises open grooves extending into said first and second surfaces (31, 32), respectively, from opposite directions, - said attachment device comprises at least a first projection for cooperating with said first track and at least a second projection for cooperating with said second track,
A battery system, comprising: at least one plurality of aligned battery cells arranged in a first direction (y), each of the battery cells comprising a vent hole; and an extinguishing system with a reservoir for an extinguishing agent and at least one conduit means for conducting the extinguishing agent, wherein the at least one conduit means is positioned such that it is hit by a vent-gas jet emitted by any of the vent holes of the plurality of aligned battery cells, wherein the at least one conduit means is configured to be melted by the vent-gas jet, and wherein the shortest distance between the at least one conduit means and each of the vent holes is larger than half the extension of an average vent-gas jet of one of the battery cells. at least one plurality of aligned battery cells arranged in a first direction (y), each of the battery cells comprising a vent hole; and an extinguishing system with a reservoir for an extinguishing agent and at least one conduit means for conducting the extinguishing agent, wherein the at least one conduit means is positioned such that it is hit by a vent-gas jet emitted by any of the vent holes of the plurality of aligned battery cells, wherein the at least one conduit means is configured to be melted by the vent-gas jet, and wherein the shortest distance between the at least one conduit means and each of the vent holes is larger than half the extension of an average vent-gas jet of one of the battery cells.
A process comprising contacting a feedstock olefin with a solid acid catalyst to form an oligomer product at an oligomerization temperature in a range from -20 °C to 40 °C, wherein the feedstock olefin comprises trisubstituted olefins, wherein the solid acid catalyst comprises a functionalized styrene-divinylbenzene polymer, a 4-vinylpyridine divinylbenzene polymer, a tetrafluoroethylene polymer modified with perfluorovinyl ether groups terminated with sulfonate groups, or a combination thereof.
An encoding method for encoding a speech signal, comprising: dividing a to-be-encoded time-domain signal into a low band signal and a high band signal; performing encoding on the low band signal to obtain a low frequency encoding parameter; performing encoding on the high band signal to obtain a high frequency encoding parameter, and obtaining a synthesized high band signal according to the low frequency encoding parameter and the high frequency encoding parameter; the method being characterized by: performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein, compared with a shape of a spectral envelope of the synthesized high band signal, a shape of a spectral envelope of the short-time filtered signal is closer to a shape of a spectral envelope of the high band signal; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. dividing a to-be-encoded time-domain signal into a low band signal and a high band signal; performing encoding on the low band signal to obtain a low frequency encoding parameter; performing encoding on the high band signal to obtain a high frequency encoding parameter, and obtaining a synthesized high band signal according to the low frequency encoding parameter and the high frequency encoding parameter; the method being characterized by: performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein, compared with a shape of a spectral envelope of the synthesized high band signal, a shape of a spectral envelope of the short-time filtered signal is closer to a shape of a spectral envelope of the high band signal; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein, compared with a shape of a spectral envelope of the synthesized high band signal, a shape of a spectral envelope of the short-time filtered signal is closer to a shape of a spectral envelope of the high band signal; and calculating a high frequency gain based on the high band signal and the short-time filtered signal.
A container section comprising a convex external surface, a removable resilient cover for covering said external surface and a retention frame for removably retaining said resilient cover on said external surface, in which said resilient cover comprises a plurality of pairs of adjoining edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) which are angularly displaced from one another when said resilient cover is arranged flat, and which are adjacent to one another when said resilient cover assumes a three dimensional shape corresponding to said external surface, in which said retention frame comprises a plurality of guard portions (7, 54, 55, 56), each one of which overlies one of said pairs of edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) when said retention frame retains said resilient cover on said external surface, in which said external surface comprises a panel with a flange portion extending from a periphery thereof, in which said flange portion comprises a plurality of sides (15, 16, 17, 18), in which disposed between each adjoining side (15, 16, 17, 18) is one of a plurality of first curved portions (20, 21, 22, 23), in which said resilient cover comprises a central section which substantially corresponds in size and shape with said panel, and a first set of extension portions (29, 30, 31, 32), each of which extends from said central section and covers a substantial part of one of said plurality of sides (15, 16, 17, 18) of said flange portion, characterized in that said resilient cover comprises a second set of extension portions (33, 34, 35, 36), each of which extends from said central section and substantially covers one of said plurality of first curved portions (20, 21, 22, 23), and in which each of said plurality of pairs of adjoining edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) of said resilient cover comprises an edge of one of said first set of extension portions (29, 30, 31, 32) and an adjoining edge of one of said second set of extension portions (33, 34, 35, 36).
An occluder pushing device for deployment of an occluder, comprising: a pushing component comprising a pushing tube and a traction element slidably inserted into the pushing tube; and a handle fixedly connected with a proximal end of the pushing tube and internally provided with a translation mechanism, a rotation mechanism and a locking component; wherein the translation mechanism is configured to drive the traction element to move in an axial direction within the pushing tube; the rotation mechanism is configured to drive the traction element to rotate around an axis within the pushing tube; the locking component is configured to lock relative positions of the traction element and the pushing tube; and the rotation mechanism comprises a locking structure for locking or releasing linkage between the rotation mechanism and the traction element, wherein, for deployment, the distal ends of the pushing tube and the traction element of the pushing component are configured to be detachably connected to a proximal end and a distal end of the occluder, respectively. a pushing component comprising a pushing tube and a traction element slidably inserted into the pushing tube; and a handle fixedly connected with a proximal end of the pushing tube and internally provided with a translation mechanism, a rotation mechanism and a locking component; wherein the translation mechanism is configured to drive the traction element to move in an axial direction within the pushing tube; the rotation mechanism is configured to drive the traction element to rotate around an axis within the pushing tube; the locking component is configured to lock relative positions of the traction element and the pushing tube; and the rotation mechanism comprises a locking structure for locking or releasing linkage between the rotation mechanism and the traction element, wherein, for deployment, the distal ends of the pushing tube and the traction element of the pushing component are configured to be detachably connected to a proximal end and a distal end of the occluder, respectively.
Process for producing polyurethane foam by reacting at least one polyol component with at least one isocyanate component in the presence of one or more catalysts which catalyse isocyanate-polyol and/or isocyanate-water and/or isocyanate trimerization reactions, characterized in that the reaction is performed in the presence of a component A comprising a polyhydrazide, a polysulfonyl hydrazide and/or carbodihydrazide, in particular a polyhydrazide, wherein the component A is employed in the form of a mixture C which further comprises a component B comprising a dispersion medium from the group of alkyl phthalates, alkyl dicarboxylates, alkyl adipates, alkyl sebacates, alkyl dodecanoates, polyesters, phosphate esters, fatty acid esters, straight-chain and modified natural oils or mineral oils, sulfonated oils, ethoxylated oils, epoxidized oils, fatty acids, sulfonamides, glycols, polyglycols, alkyl 1,2,4-benzenetricarboxylates and/or lecithin, in particular butyl diglycol, tris(decyl) 1,2,4-benzenetricarboxylate or diisononyl 1,2-cyclohexanedicarboxylate.
Actuating device, characterised in that it comprises: • a fixed portion forming a frame comprising an inlet intended to receive a fluid, a main outlet and a second outlet known as "bleed" outlet and return means for exerting a mechanical force on a movable portion; • a movable portion comprising: ∘ a shutter comprising a rod moving in translation between an open position of the bleed outlet and a closed position of said outlet under the effect of the mechanical force; • a thermostatic device comprising a conical turning disc integral with a collar movable around the rod of the shutter, the turning of the disc above a known critical temperature driving the shutter to the closed position of same; • a control device (30, 42, (K, 8, 6)), allowing a holding force for holding the shutter to be generated, the control device being able to be controlled in such a way that below the critical temperature, the opening or the closing of the shutter results from the balance of forces between the holding force and the mechanical force. • a fixed portion forming a frame comprising an inlet intended to receive a fluid, a main outlet and a second outlet known as "bleed" outlet and return means for exerting a mechanical force on a movable portion; • a movable portion comprising: ∘ a shutter comprising a rod moving in translation between an open position of the bleed outlet and a closed position of said outlet under the effect of the mechanical force; ∘ a shutter comprising a rod moving in translation between an open position of the bleed outlet and a closed position of said outlet under the effect of the mechanical force; • a thermostatic device comprising a conical turning disc integral with a collar movable around the rod of the shutter, the turning of the disc above a known critical temperature driving the shutter to the closed position of same; • a control device (30, 42, (K, 8, 6)), allowing a holding force for holding the shutter to be generated, the control device being able to be controlled in such a way that below the critical temperature, the opening or the closing of the shutter results from the balance of forces between the holding force and the mechanical force.
A method of controlling quality of service in servicing memory transactions, comprising: periodically reading by a quality of service management, QM, circuit disposed on a system on chip, SOC, respective first data rate metrics and respective latency metrics from a plurality of requester circuits (106-108; 110-112) disposed on the SOC while the plurality of requester circuits are actively transmitting memory transactions to a memory controller on the SOC; periodically reading by the QM circuit a second data rate metric from the memory controller while the memory controller is processing the memory transactions; gathering and storing, by a monitor circuit associated with the respective requester circuit (106-108; 110-112), respective latency metrics; and dynamically changing one or more respective values of one or more control parameters of the plurality of requester circuits (106-108; 110-112) and of the memory controller by the QM circuit, in response to determining by the QM circuit while the plurality of requester circuits (106-108; 110-112) are actively transmitting memory transactions to the memory controller, that the respective first data rate metrics, respective latency metrics, and second data rate metric do not satisfy a quality of service profile, the quality of service profile specifying memory controller utilization and for each type or class of memory transaction, a maximum latency and an expected bandwidth allocation. periodically reading by a quality of service management, QM, circuit disposed on a system on chip, SOC, respective first data rate metrics and respective latency metrics from a plurality of requester circuits (106-108; 110-112) disposed on the SOC while the plurality of requester circuits are actively transmitting memory transactions to a memory controller on the SOC; periodically reading by the QM circuit a second data rate metric from the memory controller while the memory controller is processing the memory transactions; gathering and storing, by a monitor circuit associated with the respective requester circuit (106-108; 110-112), respective latency metrics; and dynamically changing one or more respective values of one or more control parameters of the plurality of requester circuits (106-108; 110-112) and of the memory controller by the QM circuit, in response to determining by the QM circuit while the plurality of requester circuits (106-108; 110-112) are actively transmitting memory transactions to the memory controller, that the respective first data rate metrics, respective latency metrics, and second data rate metric do not satisfy a quality of service profile, the quality of service profile specifying memory controller utilization and for each type or class of memory transaction, a maximum latency and an expected bandwidth allocation.
A method for replicating first data and second data of a data set between two or more network connected data storage devices in a data storage subsystem, the method comprising: during the transmission of first data from the first network connected data storage device to the second network connected data storage device, looking ahead to second data and starting compression of the second data; characterized by the method further comprising: if compression of the second data has completed at least by the time transmission of the first data from the first network connected data storage device to the second network connected data storage device has completed, then transmitting the compressed second data from the first network connected data storage device to the second network connected data storage device, otherwise transmitting the second data, uncompressed, from the first network connected data storage device to the second network connected data storage device. during the transmission of first data from the first network connected data storage device to the second network connected data storage device, looking ahead to second data and starting compression of the second data; characterized by the method further comprising: if compression of the second data has completed at least by the time transmission of the first data from the first network connected data storage device to the second network connected data storage device has completed, then transmitting the compressed second data from the first network connected data storage device to the second network connected data storage device, otherwise transmitting the second data, uncompressed, from the first network connected data storage device to the second network connected data storage device. if compression of the second data has completed at least by the time transmission of the first data from the first network connected data storage device to the second network connected data storage device has completed, then transmitting the compressed second data from the first network connected data storage device to the second network connected data storage device, otherwise transmitting the second data, uncompressed, from the first network connected data storage device to the second network connected data storage device.
A sensor device (2500, 2700), comprising: a capacitive probe (2504, 2506, 2802, 2804) formed of a first conductor (2506, 2802) and a second conductor (2504, 2804), the first and second conductor being configured to determine a measurement based on capacitance between the first conductor and the second conductor; and a radio to generate a signal based on a measurement associated with the capacitive probe characterized in that the radio is configured to provide the signal to the first conductor (2506, 2802) for transmission using the capacitive probe as a transmission antenna. a capacitive probe (2504, 2506, 2802, 2804) formed of a first conductor (2506, 2802) and a second conductor (2504, 2804), the first and second conductor being configured to determine a measurement based on capacitance between the first conductor and the second conductor; and a radio to generate a signal based on a measurement associated with the capacitive probe characterized in that the radio is configured to provide the signal to the first conductor (2506, 2802) for transmission using the capacitive probe as a transmission antenna.
A method performed by a network node for selecting a serving Access and Mobility Management Function, AMF, in a wireless communication system, the method comprising: receiving a registration request message of a user equipment, UE, the registration request message including a network slice selection assistance information, NSSAI, for a slice requested by the UE and priority information of the NSSAI, the priority information indicates that the NSSAI is 'required' for the UE; determining whether the NSSAI is valid for the UE; based on (i) the NSSAI being valid for the UE and (ii) the priority information, searching a first AMF which is able to support the NSSAI; based on the NSSAI being not valid for the UE, transmitting to the UE a registration reject message as a response to the registration request message, the registration reject message includes a registration reject cause indicating that the NSSAI is not valid for the UE, and receiving, from the UE, in response to the registration reject message, a retransmitted registration request message including a priority information of the NSSAI updated to 'preferred', based on the first AMF being searched, selecting the first AMF as the serving AMF serving the UE and transmitting the registration request message to the first AMF, and the first AMF which is able to support the NSSAI is an AMF that supports all slices corresponding to the NSSAI indicating that the priority information is the 'required'. receiving a registration request message of a user equipment, UE, the registration request message including a network slice selection assistance information, NSSAI, for a slice requested by the UE and priority information of the NSSAI, the priority information indicates that the NSSAI is 'required' for the UE; determining whether the NSSAI is valid for the UE; based on (i) the NSSAI being valid for the UE and (ii) the priority information, searching a first AMF which is able to support the NSSAI; based on the NSSAI being not valid for the UE, transmitting to the UE a registration reject message as a response to the registration request message, the registration reject message includes a registration reject cause indicating that the NSSAI is not valid for the UE, and receiving, from the UE, in response to the registration reject message, a retransmitted registration request message including a priority information of the NSSAI updated to 'preferred', based on the first AMF being searched, selecting the first AMF as the serving AMF serving the UE and transmitting the registration request message to the first AMF, and the first AMF which is able to support the NSSAI is an AMF that supports all slices corresponding to the NSSAI indicating that the priority information is the 'required'.
Wave energy or tidal energy recovery system comprising an arrangement for a surface area adjustment of a reciprocating wing system where the wave energy or tidal energy recovery system comprises at least a body, a set of wings fastened to a support means that is hinged at its lower ends onto the body to make a reciprocating motion in response to kinetic energy of waves or tidal currents, and a power-take-off means, and adjustment means, characterized in that the wings are fastened to the support means individually so that they are arranged to be moved separately by the adjustment means in a slant direction to adjust the vertical and horizontal position of the wings of the set of wings so as to adjust the total effective surface area of the set of wings.