mhurhangee/ep-ind-claims huggingface dataset:
A vehicle equipped with a wireless power reception device, the vehicle including a a vehicle-mounting structure and a floor tunnel part, the vehicle-mounting structure comprising: a power-reception-side coil unit arranged under the floor tunnel part and including a power-reception-side coil configured to wirelessly receive power transmitted from a power-supply-side coil; and the floor tunnel part and the power-reception-side coil unit form a closed-cross-section part in a front view of the vehicle, characterized in that the vehicle-mounting structure further comprises an electric-component container accommodating an electric component, and in that the electric-component container is accommodated in the closed-cross-section part and is mounted on an upper surface of the power-reception-side coil unit, and in that the electric-component container is disposed on any one of the front side and the rear side of the upper surface of the power-reception-side coil unit in the vehicle front-rear direction, thereby exposing a part of the upper surface of the power-reception-side coil unit corresponding to the power-reception-side coil to form an upward-airflow generation surface configured to generate an upward airflow with heat of the power-reception-side coil. a power-reception-side coil unit arranged under the floor tunnel part and including a power-reception-side coil configured to wirelessly receive power transmitted from a power-supply-side coil; and the floor tunnel part and the power-reception-side coil unit form a closed-cross-section part in a front view of the vehicle, characterized in that the vehicle-mounting structure further comprises an electric-component container accommodating an electric component, and in that the electric-component container is accommodated in the closed-cross-section part and is mounted on an upper surface of the power-reception-side coil unit, and in that the electric-component container is disposed on any one of the front side and the rear side of the upper surface of the power-reception-side coil unit in the vehicle front-rear direction, thereby exposing a part of the upper surface of the power-reception-side coil unit corresponding to the power-reception-side coil to form an upward-airflow generation surface configured to generate an upward airflow with heat of the power-reception-side coil.
Refrigerator interior liner made of a rubber modified monovinylaromatic polymer composition comprising: a) a monovinylaromatic polymer matrix having an average molecular weight in weight Mw above 150,000 g/mol, b) rubber particles dispersed therein, said particles having: a volume median particle size (RPS volume) in the range 7 to 10 μm, a monomodal distribution, the RPS volume-to-RPS surface ratio is below 2, the crosslinking of the rubber expressed as a swell index above 13.8, a rubber phase volume fraction (RPVF) of at least 39%, c) a moderate amount of low- Mw plasticizers, defined as the weight fraction of solubles in methanol, and such that the weight ratio c/(a+b+c) ranges from 0 to 5%, said low- Mw plasticizers are selected among mineral oil and one or more of vegetable, essential, silicone and animal oil. a) a monovinylaromatic polymer matrix having an average molecular weight in weight Mw above 150,000 g/mol, b) rubber particles dispersed therein, said particles having: a volume median particle size (RPS volume) in the range 7 to 10 μm, a monomodal distribution, the RPS volume-to-RPS surface ratio is below 2, the crosslinking of the rubber expressed as a swell index above 13.8, a rubber phase volume fraction (RPVF) of at least 39%, a volume median particle size (RPS volume) in the range 7 to 10 μm, a monomodal distribution, the RPS volume-to-RPS surface ratio is below 2, the crosslinking of the rubber expressed as a swell index above 13.8, a rubber phase volume fraction (RPVF) of at least 39%, c) a moderate amount of low- Mw plasticizers, defined as the weight fraction of solubles in methanol, and such that the weight ratio c/(a+b+c) ranges from 0 to 5%, said low- Mw plasticizers are selected among mineral oil and one or more of vegetable, essential, silicone and animal oil.
A wireless power receiving unit, comprising: a first receiving coil to inductively couple to a wireless power transmitting unit having a transmitting coil; a second receiving coil configured for data communication; and a safety component to reduce an inductive coupling of wireless power at the second receiving coil from the wireless power transmitting unit by detuning the second receiving coil such that a resonance frequency of the power transmitted from the wireless power transmitting unit is not a resonance frequency of the second receiving coil, or an integer multiple of the resonance frequency, wherein the safety component comprises: a rectifier coupled to the first receiving coil to receive wireless power from the first receiving coil; and a communicative coupling between the rectifier and a capacitor (C_de_tune) associated with the second receiving coil, wherein the capacitor (C_de_tune) is to detune the second receiving coil in response to power received at the rectifier. a first receiving coil to inductively couple to a wireless power transmitting unit having a transmitting coil; a second receiving coil configured for data communication; and a safety component to reduce an inductive coupling of wireless power at the second receiving coil from the wireless power transmitting unit by detuning the second receiving coil such that a resonance frequency of the power transmitted from the wireless power transmitting unit is not a resonance frequency of the second receiving coil, or an integer multiple of the resonance frequency, wherein the safety component comprises: a rectifier coupled to the first receiving coil to receive wireless power from the first receiving coil; and a communicative coupling between the rectifier and a capacitor (C_de_tune) associated with the second receiving coil, wherein the capacitor (C_de_tune) is to detune the second receiving coil in response to power received at the rectifier. a rectifier coupled to the first receiving coil to receive wireless power from the first receiving coil; and a communicative coupling between the rectifier and a capacitor (C_de_tune) associated with the second receiving coil, wherein the capacitor (C_de_tune) is to detune the second receiving coil in response to power received at the rectifier.
A processor comprising: a plurality of cores (120a,..., 120n) each to independently execute instructions; a cache memory including a plurality of portions distributed across a die of the processor; a plurality of sleep circuits each coupled to one of the plurality of portions of the cache memory; and characterized by: at least one sleep control logic coupled to the plurality of portions of the cache memory to dynamically determine a sleep setting independently for each of the plurality of sleep circuits based at least in part on a process, voltage, and temperature associated with the corresponding portion of the cache memory and dynamically determine a retention voltage for the corresponding portion of the cache memory based at least in part on the sleep setting, wherein the at least one sleep control logic controls the corresponding sleep circuit using the sleep setting to maintain the corresponding cache memory portion at or above the retention voltage. a plurality of cores (120a,..., 120n) each to independently execute instructions; a cache memory including a plurality of portions distributed across a die of the processor; a plurality of sleep circuits each coupled to one of the plurality of portions of the cache memory; and characterized by: at least one sleep control logic coupled to the plurality of portions of the cache memory to dynamically determine a sleep setting independently for each of the plurality of sleep circuits based at least in part on a process, voltage, and temperature associated with the corresponding portion of the cache memory and dynamically determine a retention voltage for the corresponding portion of the cache memory based at least in part on the sleep setting, wherein the at least one sleep control logic controls the corresponding sleep circuit using the sleep setting to maintain the corresponding cache memory portion at or above the retention voltage. at least one sleep control logic coupled to the plurality of portions of the cache memory to dynamically determine a sleep setting independently for each of the plurality of sleep circuits based at least in part on a process, voltage, and temperature associated with the corresponding portion of the cache memory and dynamically determine a retention voltage for the corresponding portion of the cache memory based at least in part on the sleep setting, wherein the at least one sleep control logic controls the corresponding sleep circuit using the sleep setting to maintain the corresponding cache memory portion at or above the retention voltage.
A pharmaceutical composition comprising a. oxytocin (SEQ ID NO:1), and/or one or more fragment(s) and/or variant(s) thereof according to SEQ ID NO:2, as well as pharmaceutically acceptable salts thereof; and b. at least one non-ionic cellulose ether; wherein SEQ ID NO:2 is X 1 -X 2 -X 3 -X 4 -Asn-Cys-X 5 -X 6 -X 7 -X 8 -NH 2 wherein X 1 is selected from the group consisting of Cys and nothing; X 2 is selected from the group consisting of Tyr, Phe, and nothing; X 3 is selected from the group consisting of Ile, Val, Hoph, Phe, Cha, and nothing; X 4 is selected from the group consisting of Gln, Ser, Thr, Cit, Arg, and Daba; X 5 is selected from the group consisting of Pro and nothing; X 6 is selected from the group consisting of Ile, Leu, nothing, Val, Hos, Daba, Thr, Arg, and Cit; X 7 is selected from the group consisting of Gly, nothing, and Ala; X 8 is selected from the group consisting of Gly and nothing; wherein said pharmaceutical composition has a pH within the range of between 3 and 4, with the proviso that said variant of oxytocin is not vasopressin (SEQ ID NO:7). a. oxytocin (SEQ ID NO:1), and/or one or more fragment(s) and/or variant(s) thereof according to SEQ ID NO:2, as well as pharmaceutically acceptable salts thereof; and b. at least one non-ionic cellulose ether; wherein SEQ ID NO:2 is X 1 -X 2 -X 3 -X 4 -Asn-Cys-X 5 -X 6 -X 7 -X 8 -NH 2 wherein X 1 is selected from the group consisting of Cys and nothing; X 2 is selected from the group consisting of Tyr, Phe, and nothing; X 3 is selected from the group consisting of Ile, Val, Hoph, Phe, Cha, and nothing; X 4 is selected from the group consisting of Gln, Ser, Thr, Cit, Arg, and Daba; X 5 is selected from the group consisting of Pro and nothing; X 6 is selected from the group consisting of Ile, Leu, nothing, Val, Hos, Daba, Thr, Arg, and Cit; X 7 is selected from the group consisting of Gly, nothing, and Ala; X 8 is selected from the group consisting of Gly and nothing; wherein said pharmaceutical composition has a pH within the range of between 3 and 4, with the proviso that said variant of oxytocin is not vasopressin (SEQ ID NO:7). X 1 -X 2 -X 3 -X 4 -Asn-Cys-X 5 -X 6 -X 7 -X 8 -NH 2 wherein X 1 is selected from the group consisting of Cys and nothing; X 2 is selected from the group consisting of Tyr, Phe, and nothing; X 3 is selected from the group consisting of Ile, Val, Hoph, Phe, Cha, and nothing; X 4 is selected from the group consisting of Gln, Ser, Thr, Cit, Arg, and Daba; X 5 is selected from the group consisting of Pro and nothing; X 6 is selected from the group consisting of Ile, Leu, nothing, Val, Hos, Daba, Thr, Arg, and Cit; X 7 is selected from the group consisting of Gly, nothing, and Ala; X 8 is selected from the group consisting of Gly and nothing;
A pressure vessel comprising: a liner including a cylindrical section and paired dome sections; and a reinforcement layer formed outside the liner and made of a fiber reinforced resin material, wherein the reinforcement layer includes: bulging sections formed respectively in shoulder sections of the paired dome sections by high-angle helical winding to bulge in a radial direction of the liner; wherein each of the bulging sections is continuously formed from and integrally formed with a high-angle helical winding layer covering the cylindrical section of the liner, each of the bulging sections is formed in a mountain shape locally having an increased thickness in the radial direction of the liner by winding strands of the high-angle helical winding such that the strands overlap one another in a circumferential direction densely and without gaps to bulge in the radial direction of the liner, while in the cylindrical section the strands are wound adjacent to one another and are tightly packed; and an intermediate section formed outside of the high angle helical winding layer with respect to the radial direction of the liner, across the portion between vertices of the bulging sections, by hoop winding or near-hoop winding in which winding is performed at a higher angle than the high-angle helical winding. a liner including a cylindrical section and paired dome sections; and a reinforcement layer formed outside the liner and made of a fiber reinforced resin material, wherein the reinforcement layer includes: bulging sections formed respectively in shoulder sections of the paired dome sections by high-angle helical winding to bulge in a radial direction of the liner; wherein each of the bulging sections is continuously formed from and integrally formed with a high-angle helical winding layer covering the cylindrical section of the liner, each of the bulging sections is formed in a mountain shape locally having an increased thickness in the radial direction of the liner by winding strands of the high-angle helical winding such that the strands overlap one another in a circumferential direction densely and without gaps to bulge in the radial direction of the liner, while in the cylindrical section the strands are wound adjacent to one another and are tightly packed; and an intermediate section formed outside of the high angle helical winding layer with respect to the radial direction of the liner, across the portion between vertices of the bulging sections, by hoop winding or near-hoop winding in which winding is performed at a higher angle than the high-angle helical winding.
An ablation catheter system comprising: a longitudinally extending ablation catheter to be operated by one or more principal catheter operators and having a proximal end and a distal end, a handle attached to the proximal end of the catheter, a mechanism at the distal end of the catheter for delivering ablation therapy to a desired location, an ablation therapy generator or controller in communication with the handle and the distal end of the catheter, and a manually operable switching mechanism operable by a principal catheter operator and positioned between the ablation catheter distal end and the ablation therapy generator or controller and which is capable of causing abrupt termination of ablation therapy by manual, automatic, remote, or voice-activated operation, characterised in that the switching mechanism is configured such that it cannot initiate therapy by itself following said ablation therapy termination and needs to be reset after said termination, whereby the ablation therapy generator or controller must be manually re-initiated to apply or continue ablation therapy. a longitudinally extending ablation catheter to be operated by one or more principal catheter operators and having a proximal end and a distal end, a handle attached to the proximal end of the catheter, a mechanism at the distal end of the catheter for delivering ablation therapy to a desired location, an ablation therapy generator or controller in communication with the handle and the distal end of the catheter, and a manually operable switching mechanism operable by a principal catheter operator and positioned between the ablation catheter distal end and the ablation therapy generator or controller and which is capable of causing abrupt termination of ablation therapy by manual, automatic, remote, or voice-activated operation, characterised in that the switching mechanism is configured such that it cannot initiate therapy by itself following said ablation therapy termination and needs to be reset after said termination, whereby the ablation therapy generator or controller must be manually re-initiated to apply or continue ablation therapy.
Modular power rack intended for an aircraft comprising a set of electrical machines each equipped with a position sensor, and an onboard electrical network, characterized in that the modular power rack comprises: - a number of inverters, supplied with electrical power by the onboard electrical network, - a supervision member comprising means for: ∘ collecting, for each electrical machine, a machine control setpoint ( CONS_MAC), and position information (θ 0) delivered by the position sensor of the electrical machine, ∘ determining, for each inverter, an inverter setpoint ( CONS_OND) from the machine control setpoints ( CONS_MAC) of the set of electrical machines, - a first communication channel (15; 31), between the supervision member and each of the inverters, making it possible to transmit to each of the inverters the inverter setpoint ( CONS_OND) determined by the supervision member, - a second communication channel (16; 31), between the supervision member and each of the inverters, making it possible to transmit position information (θ 0) to each of the inverters, - a distribution device, which supplies to each electrical machine an electrical supply signal assembled from power electrical signals generated by the inverters, each of the inverters comprising means for generating a power electrical signal as a function of the inverter setpoint ( CONS_OND) and of the position information (θ 0) transmitted by the supervision member respectively via the first and the second communication channels (15, 16; 31). - a number of inverters, supplied with electrical power by the onboard electrical network, - a supervision member comprising means for: ∘ collecting, for each electrical machine, a machine control setpoint ( CONS_MAC), and position information (θ 0) delivered by the position sensor of the electrical machine, ∘ determining, for each inverter, an inverter setpoint ( CONS_OND) from the machine control setpoints ( CONS_MAC) of the set of electrical machines, ∘ collecting, for each electrical machine, a machine control setpoint ( CONS_MAC), and position information (θ 0) delivered by the position sensor of the electrical machine, ∘ determining, for each inverter, an inverter setpoint ( CONS_OND) from the machine control setpoints ( CONS_MAC) of the set of electrical machines, - a first communication channel (15; 31), between the supervision member and each of the inverters, making it possible to transmit to each of the inverters the inverter setpoint ( CONS_OND) determined by the supervision member, - a second communication channel (16; 31), between the supervision member and each of the inverters, making it possible to transmit position information (θ 0) to each of the inverters, - a distribution device, which supplies to each electrical machine an electrical supply signal assembled from power electrical signals generated by the inverters,
A method for fabricating a sock with zones of varying numbers of layers of material (404, 406, 408), the method comprising: knitting a sock blank in the form of a single continuous tube of material on a circular knitting machine, the sock blank being symmetric about a first fold line from a first end of the sock blank to a first zone division line; wherein the first zone division line is located adjacent to a midfoot region of the sock, folding a first portion of the sock blank at the first foldline so as to be coextensive with a second portion of the sock blank, the first portion extending from the first end of the sock blank to the first fold line, the second portion extending from the first fold line to the first zone division line; whereby the first portion of the sock blank corresponds to an inner layer of the sock in a first zone of the sock and the second portion of the sock blank corresponds to an outer layer of the sock in the first zone; and attaching the first end of the sock blank to the second portion of the sock blank at the first zone division line, the first zone division line being located a predetermined distance away from a second end of the sock blank, wherein the first zone is adjacent to a second zone, the second zone surrounding the circumference of the sock and extending axially along the length of the sock from the zone division line (416, 222) in a direction away from the first zone; and the second zone has a single layer of material; characterized in that the first portion of the sock blank comprises a first heel and ankle portion; and the second portion of the sock blank comprises a second heel and ankle portion. knitting a sock blank in the form of a single continuous tube of material on a circular knitting machine, the sock blank being symmetric about a first fold line from a first end of the sock blank to a first zone division line; wherein the first zone division line is located adjacent to a midfoot region of the sock, folding a first portion of the sock blank at the first foldline so as to be coextensive with a second portion of the sock blank, the first portion extending from the first end of the sock blank to the first fold line, the second portion extending from the first fold line to the first zone division line; whereby the first portion of the sock blank corresponds to an inner layer of the sock in a first zone of the sock and the second portion of the sock blank corresponds to an outer layer of the sock in the first zone; and attaching the first end of the sock blank to the second portion of the sock blank at the first zone division line, the first zone division line being located a predetermined distance away from a second end of the sock blank, wherein the first zone is adjacent to a second zone, the second zone surrounding the circumference of the sock and extending axially along the length of the sock from the zone division line (416, 222) in a direction away from the first zone; and the second zone has a single layer of material; characterized in that
An accessory (140, 240, 340, 440, 540, 80) for shielding a mobile device (10,14,30) enabled for proximity-based communications, the accessory including a shielding component sized and located within the accessory so that when the accessory is operably coupled to the mobile device, the shielding component is aligned with a device antenna used for conducting said proximity-based communications to prevent operation of the antenna, without preventing operation of at least one other antenna of the device.