mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode material for a lithium ion battery, made of a composite material comprising silicon-containing particles, artificial graphite particles and a carbon coating layer, wherein the silicon-containing particles are silicon particles having a SiOx layer (0<x≤2) on a surface of the particle, have an oxygen content ratio as measured by Inductive Coupled Plasma, of 2 mass% or more and 18 mass% or less in the entirety of the particles, and a number based fraction of 90 % or more of the particles in one field of a micrograph observation have a primary particle diameter of 200 nm or less; and the artificial graphite particles have a scale-like shape; by observing the optical structures in the cross-section of the formed body made of the artificial graphite particles in a rectangular field of 480 μm x 640 μm under a polarizing microscope, when areas of the optical structures are accumulated from a smallest structure in an ascending order, SOP represents an area of an optical structure whose accumulated area corresponds to 60% of the total area of all the optical structures; when the structures are counted from a structure of a smallest aspect ratio in an ascending order, AROP represents the aspect ratio of the structure which ranks at the position of 60% in the total number of all the structures; and when D50 represents a volume-based average particle diameter by laser diffraction method; SOP, AROP and D50 satisfy the following relationship: 1.5 ≤ AROP ≤ 6 and 0.2 × D 50 ≤ SOP × AROP 1 / 2 < 2 × D 50.
Arrangement for high frequency sealing of the space between a connector and a housing with an electrically conducting high frequency sealing element, comprising a connector and a printed circuit board, wherein one or more electrically conducting plastic mats are provided as high frequency sealing element, wherein the connector is connected firmly with a printed circuit board and this printed circuit board is enclosed by a housing cover and a housing base plate, and wherein the connector consists of a connector connecting region and a housing fastening region and the housing fastening region is inserted in an opening in the housing, characterised in that at least one slot (12, 17) is formed in the radial direction in the housing fastening region of the connector, which slot at least partly surrounds the housing fastening region of the connector in the circumferential direction, wherein the high frequency sealing element is fitted immovably into the slot in the housing fastening region of the connector.
A power conversion device for converting an alternating current, AC, voltage or a direct current, DC, voltage into an AC voltage to control a three-phase AC synchronous motor, the power conversion device comprises: a control unit configured to select two phases to be energized from three phase windings of the three-phase AC synchronous motor, and control the three-phase AC synchronous motor in six energization modes, characterized in that the control unit is configured to estimate a magnetic pole position of the three-phase AC synchronous motor based on a detected voltage of a non-energized phase of the three-phase windings, a detected current of an energized phase of the three-phase windings and an energization mode, and control the three-phase AC synchronous motor by using the estimated magnetic pole position, wherein the control unit is configured to estimate the magnetic pole position based on the intensity and direction of the detected current of the energized phase. a control unit configured to select two phases to be energized from three phase windings of the three-phase AC synchronous motor, and control the three-phase AC synchronous motor in six energization modes, characterized in that the control unit is configured to estimate a magnetic pole position of the three-phase AC synchronous motor based on a detected voltage of a non-energized phase of the three-phase windings, a detected current of an energized phase of the three-phase windings and an energization mode, and control the three-phase AC synchronous motor by using the estimated magnetic pole position, wherein the control unit is configured to estimate the magnetic pole position based on the intensity and direction of the detected current of the energized phase.
An aircraft emergency power unit - EPU -, comprising: a bleed-air powered turbine; a hydraulic pump powered by the turbine, the hydraulic pump having an operational mode during which hydraulic power is supplied to a hydraulic system of an aircraft at a level sufficient to support hydraulic operation of the aircraft and a fault mode during which the hydraulic pump is supplying insufficient power to the hydraulic system of the aircraft; a generator powered by the turbine, the generator having an operational mode during which electrical power is supplied to an electrical system of an aircraft at a level sufficient to support electrical operation of the aircraft and a fault mode during which the generator is supplying insufficient electrical power to power the electrical system of the aircraft; a battery; a hydraulic motor pump powered by the battery, the hydraulic motor pump activated to supply hydraulic power to the aircraft hydraulic system responsive to one, or both, of: (a) an occurrence of the fault mode of the hydraulic pump; and (b) an occurrence of a speed of the turbine at a level other than a desired operating speed; and an inverter, the inverter activated to receive DC power from the battery and supply electrical power to the electrical system of the aircraft responsive to the occurrence of the fault mode of the generator. a bleed-air powered turbine; a hydraulic pump powered by the turbine, the hydraulic pump having an operational mode during which hydraulic power is supplied to a hydraulic system of an aircraft at a level sufficient to support hydraulic operation of the aircraft and a fault mode during which the hydraulic pump is supplying insufficient power to the hydraulic system of the aircraft; a generator powered by the turbine, the generator having an operational mode during which electrical power is supplied to an electrical system of an aircraft at a level sufficient to support electrical operation of the aircraft and a fault mode during which the generator is supplying insufficient electrical power to power the electrical system of the aircraft; a battery; a hydraulic motor pump powered by the battery, the hydraulic motor pump activated to supply hydraulic power to the aircraft hydraulic system responsive to one, or both, of: (a) an occurrence of the fault mode of the hydraulic pump; and (b) an occurrence of a speed of the turbine at a level other than a desired operating speed; and an inverter, the inverter activated to receive DC power from the battery and supply electrical power to the electrical system of the aircraft responsive to the occurrence of the fault mode of the generator.
Cap for retaining a windscreen washer liquid pipe, the cap being capable of being fitted to a driver of a wiping system for a motor vehicle, the cap comprising a housing formed on the said cap between a radially inner skirt and a radially outer skirt, arranged to receive a curved portion of a pipe, characterized in that the cap comprises at least one click-and-ratchet fastener arranged to retain the curved portion of the pipe in the housing of the cap,
An attenuator comprising: a two-line input (In+, In-) and a two-line output (Out+, Out-) connected by a first signal path and a second signal path for enabling the attenuator (500, 501,...) to attenuate differential signals; a first plurality of transmission lines (510, 512,...) being arranged along the first signal path and a second plurality of transmission lines (511, 513,...) being arranged along the second signal path; and one or more varistors (520, 521) arranged between adjacent transmission lines (510, 512, 511, 513) along the first signal path and the second signal path, each varistor connecting the first signal path and the second signal path to controllably connect the first signal path with the second signal path, thereby attenuating the differential signals. a two-line input (In+, In-) and a two-line output (Out+, Out-) connected by a first signal path and a second signal path for enabling the attenuator (500, 501,...) to attenuate differential signals; a first plurality of transmission lines (510, 512,...) being arranged along the first signal path and a second plurality of transmission lines (511, 513,...) being arranged along the second signal path; and one or more varistors (520, 521) arranged between adjacent transmission lines (510, 512, 511, 513) along the first signal path and the second signal path, each varistor connecting the first signal path and the second signal path to controllably connect the first signal path with the second signal path, thereby attenuating the differential signals.
A transducer assembly, comprising: four or more crystal controlled oscillators (19, 20, 21, 22), four or more thickness shear mode crystal quartz resonators (2, 3, 4, 5), wherein each oscillator is controlled by the associated resonator, a first and second quartz resonator are a pressure and a reference resonator, configured together as a pressure sensor providing a frequency output, a third crystal resonator is a temperature resonator, configured as a temperature sensor providing frequency output, and a fourth crystal resonator is a temperature sensor, wherein the fourth resonator is a second temperature sensor and is part of the same holder as the resonators (3, 4), or is part of a different holder, and a mixer in which an output of resonator temperature sensor is arranged to be mixed with an output of resonator temperature sensor in order to derive a dynamic thermal device with output.
A method for use in a positioning server in a communication network for determining associations between a plurality of pools (120,130) of core network nodes (121,131) and base stations (141,151) served by the pools (120,130) comprising the steps of: - selecting a base station; - calculating a probability index (Pj) for each pool (120,130) based on the location, G_enb, of the selected base station and the estimated locations, Gj, of the pools (120,130); - determining the pool that is serving the selected base station by interrogating an arbitrary core network node in at least one pool, wherein the interrogation is started with the pool having the highest probability index, Pj, until the serving pool has been identified; - receiving from the core network node the associations between the first identified serving pool and the selected base station; - storing the received associations; - repeating the steps above for each remaining base station. - selecting a base station; - calculating a probability index (Pj) for each pool (120,130) based on the location, G_enb, of the selected base station and the estimated locations, Gj, of the pools (120,130); - determining the pool that is serving the selected base station by interrogating an arbitrary core network node in at least one pool, wherein the interrogation is started with the pool having the highest probability index, Pj, until the serving pool has been identified; - receiving from the core network node the associations between the first identified serving pool and the selected base station; - storing the received associations; - repeating the steps above for each remaining base station.
A foam replacement for forming a strap comprising: a first surface comprising a plurality of first interconnected struts that define a plurality of first apertures through the first surface, wherein the first surface comprises a first region and at least one second region, wherein the first region is a central region and the at least one second region is an outer region disposed radially outwardly from the central region; a second surface at least partially spaced from the first surface, the second surface comprising a plurality of second interconnected struts that define a plurality of second apertures through the second surface; and one or more third struts disposed between the first surface and the second surface and coupled to at least one of the first surface and the second surface, wherein the first surface and the second surface define a cavity therebetween, wherein the one or more third struts are disposed within or adjacent the cavity, wherein the first surface and the second surface are formed as a unitary body, wherein a configuration of the first interconnected struts, the second interconnect struts, and the third struts are tunable to control a stiffness and ventilation of the strap such that the stiffness of the central region is less than the stiffness of the outer region and the ventilation of the central region is greater than the ventilation of the outer region, and wherein the foam replacement for forming a strap forms part of a backpack. a first surface comprising a plurality of first interconnected struts that define a plurality of first apertures through the first surface, wherein the first surface comprises a first region and at least one second region, wherein the first region is a central region and the at least one second region is an outer region disposed radially outwardly from the central region; a second surface at least partially spaced from the first surface, the second surface comprising a plurality of second interconnected struts that define a plurality of second apertures through the second surface; and one or more third struts disposed between the first surface and the second surface and coupled to at least one of the first surface and the second surface, wherein the first surface and the second surface define a cavity therebetween, wherein the one or more third struts are disposed within or adjacent the cavity, wherein the first surface and the second surface are formed as a unitary body, wherein a configuration of the first interconnected struts, the second interconnect struts, and the third struts are tunable to control a stiffness and ventilation of the strap such that the stiffness of the central region is less than the stiffness of the outer region and the ventilation of the central region is greater than the ventilation of the outer region, and wherein the foam replacement for forming a strap forms part of a backpack.
Composition for bone regeneration, comprising a) a first phase comprising a plurality of cross-linked hydrogel chunks having a mean diameter of less than 1000 μm and incorporating an amount of calcium phosphate particles; and b) a second phase comprising a physiologically-compatible aqueous liquid acting as a carrier for the chunks; the chunks being embedded in the second phase; characterized in that c) the calcium phosphate particles have a mean diameter of less than 10 μm; d) the amount of the calcium phosphate particles is less than 20 weight-% of the first phase; and e) the cross-linked hydrogel chunks are made of biocompatible and degradable polymeric material that is cross-linkable to a dense gel structure. a) a first phase comprising a plurality of cross-linked hydrogel chunks having a mean diameter of less than 1000 μm and incorporating an amount of calcium phosphate particles; and b) a second phase comprising a physiologically-compatible aqueous liquid acting as a carrier for the chunks; the chunks being embedded in the second phase; characterized in that c) the calcium phosphate particles have a mean diameter of less than 10 μm; d) the amount of the calcium phosphate particles is less than 20 weight-% of the first phase; and e) the cross-linked hydrogel chunks are made of biocompatible and degradable polymeric material that is cross-linkable to a dense gel structure.
An inhibitor of IGFBP3/TMEM219 axis for use in the treatment and/or prevention of diabetes in a subject wherein said inhibitor is a fragment of the receptor TMEM219, said fragment comprising an extracellular domain of TMEM219.
An electric power tool that is configured to receive driving power from a rechargeable battery, comprising: a plurality of loads (M, D1, D2, D3), wherein the electric power tool is configured to operate in one of multiple operation modes, each operation mode including operation of one or more of the loads; a voltage detection circuit configured to detect a battery voltage (Vb) of the rechargeable battery; and a control circuit that is configured to set and store for each of the multiple operation modes of the plurality of loads (M, D1, D2, D3) a reference voltage value (Vkl-Vk4) of the rechargeable battery, wherein the control circuit is configured to compare the reference voltage values (Vkl-Vk4) with the battery voltage (Vb) received from the voltage detection circuit; wherein the control circuit is configured to control supply of the driving power from the rechargeable battery to the one or more of the loads (M, D1, D2, D3) being operated in the one of the multiple operation modes such that, when the battery voltage (Vb) decreases and reaches the corresponding reference voltage value (Vkl-Vk4), the control circuit stops the supply of the driving power from the rechargeable battery to at least one of the one or more of the loads or issues a notification in order to obviate over-discharging of the rechargeable battery; wherein the multiple operation modes include at least a first operation mode and a second operation mode, wherein a load current flowing through the one or more of the loads operated in the second operation mode is smaller than a load current flowing through the one or more of the loads operated in the first operation mode, and the reference voltage value for the second operation mode is set larger than the reference voltage value for the first operation mode, so that the battery voltage (Vb) does not become less than the reference voltage value for the first operation mode even after the second operation mode is switched to the first operation mode. a plurality of loads (M, D1, D2, D3), wherein the electric power tool is configured to operate in one of multiple operation modes, each operation mode including operation of one or more of the loads; a voltage detection circuit configured to detect a battery voltage (Vb) of the rechargeable battery; and a control circuit that is configured to set and store for each of the multiple operation modes of the plurality of loads (M, D1, D2, D3) a reference voltage value (Vkl-Vk4) of the rechargeable battery, wherein the control circuit is configured to compare the reference voltage values (Vkl-Vk4) with the battery voltage (Vb) received from the voltage detection circuit;
Panel, especially floor panel, whereat the panel is designed rectangular and tabular and whereat retaining profiles are disposed on the small faces of said panels (2, 3, 10), namely first and second retaining profiles, whereat oppositely arranged retaining profiles match said retaining profiles in such a manner that several panels (2, 3, 10) can be interlinked, whereat the oppositely arranged first retaining profiles are configured in such a manner that, on a panel (2, 3, 10) lying in the first row, a new panel can be interlocked in second row by attaching the new panel to the lying panel at a temporary angle relative to the lying panel and then swivelling down into the plane of the lying panel, and whereat the oppositely arranged second retaining elements comprise corresponding hook elements (6, 7), whereat a hook connection can be established by means of one of the hook elements (6, 7) of the new panel and a hook element (6, 7) of the panel that is already lying in second row by swivelling down the new panel, characterised in that an additional locking element is pre-mounted at one of the hook elements, and that the additional locking element in the hooked state of two panels (2, 3, 10) prevents the hook connection from being released in a direction perpendicular to the plane of the installed panels (2, 3, 10), whereat the locking element is designed as a claw component and, in installed state, is located between interlocking hook surfaces (41, 42) of the hook elements (6, 7), whereat the claw component displays claw elements, which in the hooked state of two panel grip into the top surface of hook surfaces and prevents vertical separation of hook elements.
An interlocking assembly characterized by comprising: a rail unit connectable to a water wall, the rail unit comprising a guide rail to move along a first axis and a support rail to control movement along a second axis, the support rail including a thermal module connected thereto and an interlocking member; and a bracket unit to engage with the support rail, the bracket unit including: a bracket body, a receiving member connected to the bracket body, the receiving member to engage with the interlocking member, when engaged the interlocking member to determine a position of the receiving member, and an alignment indicator connected to the receiving member to move based on the position of the receiving member, the alignment indicator being movable between a retracted position which allows an electronic component to be inserted into a thermal receiving member so as to be thermally connected to the thermal module and an extended position which prevents insertion of the electronic component. a rail unit connectable to a water wall, the rail unit comprising a guide rail to move along a first axis and a support rail to control movement along a second axis, the support rail including a thermal module connected thereto and an interlocking member; and a bracket unit to engage with the support rail, the bracket unit including: a bracket body, a receiving member connected to the bracket body, the receiving member to engage with the interlocking member, when engaged the interlocking member to determine a position of the receiving member, and an alignment indicator connected to the receiving member to move based on the position of the receiving member, the alignment indicator being movable between a retracted position which allows an electronic component to be inserted into a thermal receiving member so as to be thermally connected to the thermal module and an extended position which prevents insertion of the electronic component. a bracket body, a receiving member connected to the bracket body, the receiving member to engage with the interlocking member, when engaged the interlocking member to determine a position of the receiving member, and an alignment indicator connected to the receiving member to move based on the position of the receiving member, the alignment indicator being movable between a retracted position which allows an electronic component to be inserted into a thermal receiving member so as to be thermally connected to the thermal module and an extended position which prevents insertion of the electronic component.