mhurhangee/ep-ind-claims huggingface dataset:
A non-transient computer-readable medium containing programming instructions executable by a processor associated with a user equipment, UE, which, when executed, perform the following operations: measuring, by the user equipment, UE, arranged to operate in a wireless neighborhood of a heterogeneous network comprising entities operating in different radio access technologies, RATs, comprising at least one enhanced node B, eNB, transceiver, frequency layers in a group, the size of the group being the number of frequency layers, N freq_g1, received by the UE from the enhanced node B, eNB, assigned to the group, the group corresponds to a group of frequency layers with high performance requirements, the measuring to take place according to a measurement gap repetition period, MGRP, to be determined by the UE; obtaining a second number of measurement gaps, M inter_g1, to enable measurements of frequency layers assigned to the group, the frequency layers on which measurements are performed are inter-frequency and inter-RAT frequency layers other than the serving frequency layers pcell and scell between the UE and its serving eNB, wherein M inter_g1 is to be derived from the size of the group and the MGRP; wherein the group does not include a serving frequency layer between the UE and its serving eNB; and wherein the group comprises a frequency layer between the eNB and a second UE in the wireless neighborhood. measuring, by the user equipment, UE, arranged to operate in a wireless neighborhood of a heterogeneous network comprising entities operating in different radio access technologies, RATs, comprising at least one enhanced node B, eNB, transceiver, frequency layers in a group, the size of the group being the number of frequency layers, N freq_g1, received by the UE from the enhanced node B, eNB, assigned to the group, the group corresponds to a group of frequency layers with high performance requirements, the measuring to take place according to a measurement gap repetition period, MGRP, to be determined by the UE; obtaining a second number of measurement gaps, M inter_g1, to enable measurements of frequency layers assigned to the group, the frequency layers on which measurements are performed are inter-frequency and inter-RAT frequency layers other than the serving frequency layers pcell and scell between the UE and its serving eNB, wherein M inter_g1 is to be derived from the size of the group and the MGRP; wherein the group does not include a serving frequency layer between the UE and its serving eNB; and wherein the group comprises a frequency layer between the eNB and a second UE in the wireless neighborhood.
An in vitro method to assess the potency of a cell, the cell being a multipotent adult progenitor cell characterised in that the cell is a non-embryonic, non-germ cell that expresses one or more of oct4, telomerase, rex-1, or rox-1, the method comprising assaying for the potency of the cell to enhance differentiation, proliferation, or lifespan (viability) of red blood cells, leukocytes, platelets, or precursors of these cells.
A linear wall or ceiling panel (1, 11, 13, 15, 17) the panel being shaped to provide means for mounting the panel to a carrier and wherein the means for mounting the linear panel form an integral part of the panel, characterized in that both the panel and the means for mounting the panel comprising and being formed from a woven or non-woven fibrous material.
Method for enabling functions (103', 104') of at least one tachograph which comprises a control unit (100; 100') and an interface connected thereto, wherein the control unit is enabled by means of programming to perform a first group of functions and the method has the following steps: a) an external storage medium is connected to the interface of the at least one tachograph, wherein the storage medium has one instruction (210, 211) which can be read by the control unit for the purpose of enabling a function, wherein the function produces an available further interface of the tachograph for the purpose of wireless data interchange via the further interface; b) authentication is performed between the external storage medium and the control unit; c) the function associated with the instruction (210, 211) is enabled such that the function from the first group is associated with the control unit (100; 100') wherein the function can be enabled on a number of tachographs which is stipulated by the external storage medium, and the stipulated number and/or the number of enabling operations already performed by means of the external storage medium and/or the magnitude of the difference between the stipulated number and the number of enabling operations already performed by means of the external storage medium are stored on the external storage medium; d) the connection between the external storage medium and the interface of the at least one tachograph is broken. a) an external storage medium is connected to the interface of the at least one tachograph, wherein the storage medium has one instruction (210, 211) which can be read by the control unit for the purpose of enabling a function, wherein the function produces an available further interface of the tachograph for the purpose of wireless data interchange via the further interface; b) authentication is performed between the external storage medium and the control unit; c) the function associated with the instruction (210, 211) is enabled such that the function from the first group is associated with the control unit (100; 100') wherein the function can be enabled on a number of tachographs which is stipulated by the external storage medium, and the stipulated number and/or the number of enabling operations already performed by means of the external storage medium and/or the magnitude of the difference between the stipulated number and the number of enabling operations already performed by means of the external storage medium are stored on the external storage medium; d) the connection between the external storage medium and the interface of the at least one tachograph is broken.
A trigger system for providing a trigger force (Tf), the trigger system comprising: a mounting portion configured for mounting to the trigger system with respect to an object receiving the trigger force (Tf); a restraining element; a destructive element configured for heating the restraining element to cause melting of at least a portion of the restraining element; and a trigger biasing element coupled to the restraining element, such that the melting of the restraining element by the destructive element provides for release of the trigger biasing element to move from a first trigger position to a second trigger position. a mounting portion configured for mounting to the trigger system with respect to an object receiving the trigger force (Tf); a restraining element; a destructive element configured for heating the restraining element to cause melting of at least a portion of the restraining element; and a trigger biasing element coupled to the restraining element, such that the melting of the restraining element by the destructive element provides for release of the trigger biasing element to move from a first trigger position to a second trigger position.
DC-to-AC power converter, said converter comprising an electronic power board made on an insulated metal substrate comprising: - a metal carrier forming the back face of said insulated metal substrate; and - an insulating layer covering the metal carrier, forming the front face of said insulated metal substrate, the converter further comprising at least one component mounted on the back face of the insulated metal substrate, characterized in that said component comprises at least one connector that passes through the insulated metal substrate via a through-hole in said insulated metal substrate, and said component is soldered to at least one electrical connection track by means of an intermediate part placed on the front face of said insulated metal substrate and allowing an interface to be made between said at least one electrical connection track and the connector of the component. - a metal carrier forming the back face of said insulated metal substrate; and - an insulating layer covering the metal carrier, forming the front face of said insulated metal substrate,
A far-infrared radiation heating furnace for a steel sheet (15-1,..., 15-6) for hot stamping, the far-infrared radiation heating furnace comprising: a heating unit (13-1,..., 13-6) and a metallic furnace body frame disposed around the heating unit (13-1,..., 13-6), the heating unit (13-1,..., 13-6) comprising: blocks (16a,..., 16f) comprising a thermal insulation material, the blocks (16a,..., 16f) being disposed around a horizontal plane of a space for accommodating the steel sheet (15-1,..., 15-6) for hot stamping; and far-infrared radiation heaters (14-1,..., 14-7) positioned above and below the steel sheet (15-1,..., 15-6) for hot stamping to heat the steel sheet (15-1,..., 15-6) for hot stamping, the furnace body frame comprising: spacers (17-1,..., 17-7) that space the heating unit (13-1,..., 13-6) apart from the furnace body frame and support the heating unit (13-1,..., 13-6). blocks (16a,..., 16f) comprising a thermal insulation material, the blocks (16a,..., 16f) being disposed around a horizontal plane of a space for accommodating the steel sheet (15-1,..., 15-6) for hot stamping; and far-infrared radiation heaters (14-1,..., 14-7) positioned above and below the steel sheet (15-1,..., 15-6) for hot stamping to heat the steel sheet (15-1,..., 15-6) for hot stamping,
A contact electrification effect-based back gate field-effect transistor, comprising: a conductive substrate; an insulating layer formed on a front face of the conductive substrate; a field-effect transistor assembly comprising: a channel layer formed above the insulating layer, a drain and a source formed above the channel layer, and a gate formed on a back face of the conductive substrate; and a triboelectric nanogenerator assembly comprising: a static friction layer formed at a lower surface of the gate, a movable friction layer disposed opposite to the static friction layer, and a second electro-conductive layer formed at an outside of the movable friction layer and being electrically connected to the source; wherein, the static friction layer and the movable friction layer are made of materials which are in different ratings in triboelectric series, and the static friction layer and the movable friction layer are configured to be switchable between a separated state and a contact state under the action of an external force. a conductive substrate; an insulating layer formed on a front face of the conductive substrate; a field-effect transistor assembly comprising: a channel layer formed above the insulating layer, a drain and a source formed above the channel layer, and a gate formed on a back face of the conductive substrate; and a triboelectric nanogenerator assembly comprising: a static friction layer formed at a lower surface of the gate, a movable friction layer disposed opposite to the static friction layer, and a second electro-conductive layer formed at an outside of the movable friction layer and being electrically connected to the source; wherein, the static friction layer and the movable friction layer are made of materials which are in different ratings in triboelectric series, and the static friction layer and the movable friction layer are configured to be switchable between a separated state and a contact state under the action of an external force.
An optical path processing apparatus, comprising a fiber array FA, a lens array LA, an aspheric lens, a filter, and a reflector, wherein the FA is configured to comprise a test optical channel and a plurality of service optical channels, each service optical channel comprising a pair of segments, wherein the test optical channel is configured to receive test light, and enable the test light to be incident through the LA and the aspheric lens to a surface of the filter; the test light is Optical Time Domain Reflectometer, OTDR, test light within a transmission band whose range is 1610 nm to 1675 nm; the service light is within a reflection band of the filter, where a range of the reflection band is 1260 nm to 1587 nm; the filter is located between the aspheric lens and the reflector, and is configured to perform transmission on the test light; the reflector is at a distance of less than or equal to a first preset value away from a focus of light transmitted through the aspheric lens, and is configured to reflect, at a preset angle, the test light transmitted through the filter to a specular surface of the reflector, so that reflected light corresponding to the test light passes through the filter, the aspheric lens and the LA, and is output through a particular channel; said particular channel is one of the segments of one of the service optical channels; further characterized in that the first preset value is 1mm. the test optical channel is configured to receive test light, and enable the test light to be incident through the LA and the aspheric lens to a surface of the filter; the test light is Optical Time Domain Reflectometer, OTDR, test light within a transmission band whose range is 1610 nm to 1675 nm; the service light is within a reflection band of the filter, where a range of the reflection band is 1260 nm to 1587 nm; the filter is located between the aspheric lens and the reflector, and is configured to perform transmission on the test light; the reflector is at a distance of less than or equal to a first preset value away from a focus of light transmitted through the aspheric lens, and is configured to reflect, at a preset angle, the test light transmitted through the filter to a specular surface of the reflector, so that reflected light corresponding to the test light passes through the filter, the aspheric lens and the LA, and is output through a particular channel; said particular channel is one of the segments of one of the service optical channels; further characterized in that the first preset value is 1mm.
Displacement conversion device adapted to convert an input rotation, in any direction, into an output rotation in a single predetermined direction, comprising: - an eccentric that is arranged to be driven by said input rotation; - an output wheel comprising a drive surface; - a frame bearing a set of drive arms that are arranged to drive said output wheel in said single predetermined direction, said eccentric being arranged so as to move said frame in translation; characterized in that: - said set of drive arms comprises at least three drive arms whose ends are arranged so as to cooperate with said drive surface; and - said frame is guided by a flexible guiding arrangement comprising at least four flexible blades (25a, 25d, 25f, 25g) that are arranged as an X-Y table so as to grant said frame substantially two degrees of freedom in translation and substantially no degree of freedom in rotation. - an eccentric that is arranged to be driven by said input rotation; - an output wheel comprising a drive surface; - a frame bearing a set of drive arms that are arranged to drive said output wheel in said single predetermined direction, said eccentric being arranged so as to move said frame in translation; - said set of drive arms comprises at least three drive arms whose ends are arranged so as to cooperate with said drive surface; and - said frame is guided by a flexible guiding arrangement comprising at least four flexible blades (25a, 25d, 25f, 25g) that are arranged as an X-Y table so as to grant said frame substantially two degrees of freedom in translation and substantially no degree of freedom in rotation.
An oxygen-permeable bladder for storing liquids containing microorganisms, said bladder comprising two walls (12, 14) coupled to each other along each outer edge of the two walls (12, 14), wherein each of the two walls (12, 14) comprises: (a) a first film defining an inner wall of the bladder, the first film comprising a thin, non-barrier flexible film that is permeable to oxygen; and (b) a second film disposed adjacent to an outer surface of the first film and comprising a plurality of perforations wherein each of the plurality of perforations has a diameter ranging from about 0.1 mm to about 3 mm. (a) a first film defining an inner wall of the bladder, the first film comprising a thin, non-barrier flexible film that is permeable to oxygen; and (b) a second film disposed adjacent to an outer surface of the first film and comprising a plurality of perforations wherein each of the plurality of perforations has a diameter ranging from about 0.1 mm to about 3 mm.
A flexible circuit board which at least has a wiring layer adapted to be electrically connected to a circuit element, an insulating layer, and a heat dissipation layer, wherein said wiring layer is formed of a copper foil which has a tensile strength of 250 MPa or less and a thickness of 50 μm or less; and said heat dissipation layer is formed of a copper foil which has a tensile strength of 400 MPa or more and a thickness of 70 μm or more, the tensile strength 250 MPa or less and the tensile strength of 400 MPa or more indicating values after the flexible circuit board has been subjected to heating treatment in the production process of the flexible circuit board.
A process for manufacturing fatty acid sugar esters comprising the steps of: - dissolving a sugar in an organic solvent selected from the group consisting of dimethyl sulfoxide, methyl ethyl ketone, ethyl acetate, and isobutanol to form a sugar-solvent mixture; - mixing an alkali metal salt catalyst into the sugar solvent mixture; - mixing a vinyl ester of a fatty acid into the sugar solvent-catalyst mixture; - reacting the resulting mixture at a temperature between 30°C and 90°C for at least five minutes to yield a reaction product containing the organic solvent, the alkali metal salt catalyst, unreacted sugar, unreacted vinyl ester, sugar ester and acetaldehyde; - forming an emulsion by adding brine whereupon the unreacted sugar and the metal carbonate catalyst dissolve into the brine; - breaking the emulsion by adding an organic solvent after which phase separation occurs into an organic phase which contains crude sugar ester and unreacted vinyl ester; and - spray drying the organic phase with supercritical carbon dioxide. - dissolving a sugar in an organic solvent selected from the group consisting of dimethyl sulfoxide, methyl ethyl ketone, ethyl acetate, and isobutanol to form a sugar-solvent mixture; - mixing an alkali metal salt catalyst into the sugar solvent mixture; - mixing a vinyl ester of a fatty acid into the sugar solvent-catalyst mixture; - reacting the resulting mixture at a temperature between 30°C and 90°C for at least five minutes to yield a reaction product containing the organic solvent, the alkali metal salt catalyst, unreacted sugar, unreacted vinyl ester, sugar ester and acetaldehyde; - forming an emulsion by adding brine whereupon the unreacted sugar and the metal carbonate catalyst dissolve into the brine; - breaking the emulsion by adding an organic solvent after which phase separation occurs into an organic phase which contains crude sugar ester and unreacted vinyl ester; and - spray drying the organic phase with supercritical carbon dioxide.
A wireless active suspension system for a vehicle comprising: at least one sensor (35f, 35r) configured to be mounted to an unsprung mass of the vehicle, said at least one sensor comprising a low-power wireless communication capability, said at least one sensor to send a sensor data transmission; and a controller in wireless communication with said at least one sensor, wherein said controller receives said sensor data from said at least one sensor, and communicates an adjustment command to modify at least one damping characteristic of at least one damper (288, 38) of the vehicle; said controller comprising at least one radio with a low power wireless communication capability dedicated to any low-latency/low power devices in the system, including the at least one sensor, characterised in that the at least one radio is configured such that, in use, it is always-listening for a message from the low latency/low power devices; and wherein said controller further comprises: one other radio with a normal-power wireless communication capability adapted to handle wireless communication with peripherals where latency and/or battery life is not a concern. at least one sensor (35f, 35r) configured to be mounted to an unsprung mass of the vehicle, said at least one sensor comprising a low-power wireless communication capability, said at least one sensor to send a sensor data transmission; and a controller in wireless communication with said at least one sensor, wherein said controller receives said sensor data from said at least one sensor, and communicates an adjustment command to modify at least one damping characteristic of at least one damper (288, 38) of the vehicle; said controller comprising at least one radio with a low power wireless communication capability dedicated to any low-latency/low power devices in the system, including the at least one sensor, characterised in that the at least one radio is configured such that, in use, it is always-listening for a message from the low latency/low power devices; and wherein said controller further comprises: one other radio with a normal-power wireless communication capability adapted to handle wireless communication with peripherals where latency and/or battery life is not a concern.
A device for implanting a surgical screw comprising an outer sleeve with a hollow interior and an inner sleeve with a hollow interior suitable to couple axially and slidingly, said outer sleeve comprising an outer central body, an outer proximal end part, an outer distal end part, integrally connected to one another, at least one outer channel (304, 305) extending along the entire outer proximal end part and along a substantial portion of the outer central body, said inner sleeve comprising an inner central body, an inner proximal end part, an inner distal end part, integrally connected to one another, at least one inner channel (404, 405) extending along the entire inner proximal end part and along a substantial part of the inner central body, said inner proximal end part being divided in two end portions (411, 421) by said at least one inner channel; said inner sleeve comprises, in the inner proximal part thereof, at least one lateral engagement element (412, 422) and at least one axial engagement element (417.1, 417.2, 417.3, 417.4) for releasably engaging a surgical screw, characterized in that said at least one lateral engagement element (412, 422) is formed from the inner proximal part by cutting and bending towards the outside of a part of one of said two outer surface of the end portion (411, 421), and is integrally connected to the latter only by means of its upper side (412.3) while for the remaining three sides it protrudes from said end portion (411, 421) radially and for a substantial part of its length.