mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first antenna element mounted above a ground plane; a dual antenna support and isolation enhancer that includes a plurality of loading pins, a plurality of support tabs, and a support base that form a single monolithic structure; and a coaxial cable electrically coupled to the first antenna element, wherein the plurality of support tabs are coupled to the first antenna element to support the antenna element in an elevated position relative to the support base and the ground plane, and wherein the dual antenna support and isolation enhancer is configured to isolate a shield of the coaxial cable and portions of the first antenna element from external radiation that would otherwise induce current on the shield of the coaxial cable and/or incur coupling to the first antenna element wherein the shield of the coaxial cable is electrically connected to the support base and wherein at least one of the plurality of loading pins is configured to be positioned between the coaxial cable and a second antenna element coupled to the ground plane that emits the external radiation. a first antenna element mounted above a ground plane; a dual antenna support and isolation enhancer that includes a plurality of loading pins, a plurality of support tabs, and a support base that form a single monolithic structure; and a coaxial cable electrically coupled to the first antenna element, wherein the plurality of support tabs are coupled to the first antenna element to support the antenna element in an elevated position relative to the support base and the ground plane, and wherein the dual antenna support and isolation enhancer is configured to isolate a shield of the coaxial cable and portions of the first antenna element from external radiation that would otherwise induce current on the shield of the coaxial cable and/or incur coupling to the first antenna element wherein the shield of the coaxial cable is electrically connected to the support base and wherein at least one of the plurality of loading pins is configured to be positioned between the coaxial cable and a second antenna element coupled to the ground plane that emits the external radiation.
Method for regenerating cellulose fibers from textile comprising both cellulose and synthetic fibers, comprising the steps: (a) treating the textile with a cellulose solvent comprising an amine oxide to dissolve the cellulose at a temperature of 40-120 °C, for a duration of 1-90 minutes and with a cellulose concentration in the cellulose-containing liquid phase of 0.5-35 wt.%, (b) separating a cellulose-containing liquid phase from the synthetic fibers, by decantation, centrifuge or filtration; and (c) subjecting the cellulose-containing liquid phase to a cellulose spinning process to produce cellulose fibers, wherein the textile is treated with a biocatalytical or chemical solubilisation enhancer before or during the dissolution step (a) to bring the degree of polymerisation of cellulose in the range 200-1200 as measured according to ASTM D1795. (a) treating the textile with a cellulose solvent comprising an amine oxide to dissolve the cellulose at a temperature of 40-120 °C, for a duration of 1-90 minutes and with a cellulose concentration in the cellulose-containing liquid phase of 0.5-35 wt.%, (b) separating a cellulose-containing liquid phase from the synthetic fibers, by decantation, centrifuge or filtration; and (c) subjecting the cellulose-containing liquid phase to a cellulose spinning process to produce cellulose fibers,
A method performed by a Vectoring Control Entity, VCE, for handling Disorderly Leaving Event, DLE, causing Sudden Termination Change, STC, in a Digital Subscriber Line, DSL, system, the method comprising: when a DLE occurs on a line m in a vectored group of DSL lines, and the transmission on line m is, at least partly, continued: - obtaining at least one error sample from Customer Premises Equipments, CPEs, connected to other lines in the vectored group of DSL lines, - calculating an estimate of the channel coefficients, H', changed due to the DLE, based on the at least one error sample, thus providing a channel estimate, and - modifying a downstream precoder, based on the channel estimate, such that retraining of the other lines in the vectored group due to the DLE is avoided, characterized in that the estimate of the channel coefficients is calculated based on the model H'=H+CΛH, where C is a near-end crosstalk coupling matrix for the CPE end of the vectored group; Λ is a diagonal matrix with the reflection coefficients, after the DLE, of the CPE-end of the cables associated with the vectored group; H is a matrix with the channel coefficients before the DLE; and H' is a matrix with the estimated channel coefficients after the DLE. when a DLE occurs on a line m in a vectored group of DSL lines, and the transmission on line m is, at least partly, continued: - obtaining at least one error sample from Customer Premises Equipments, CPEs, connected to other lines in the vectored group of DSL lines, - calculating an estimate of the channel coefficients, H', changed due to the DLE, based on the at least one error sample, thus providing a channel estimate, and - modifying a downstream precoder, based on the channel estimate, such that retraining of the other lines in the vectored group due to the DLE is avoided, - obtaining at least one error sample from Customer Premises Equipments, CPEs, connected to other lines in the vectored group of DSL lines, - calculating an estimate of the channel coefficients, H', changed due to the DLE, based on the at least one error sample, thus providing a channel estimate, and - modifying a downstream precoder, based on the channel estimate, such that retraining of the other lines in the vectored group due to the DLE is avoided, characterized in that the estimate of the channel coefficients is calculated based on the model H'=H+CΛH, where C is a near-end crosstalk coupling matrix for the CPE end of the vectored group; Λ is a diagonal matrix with the reflection coefficients, after the DLE, of the CPE-end of the cables associated with the vectored group; H is a matrix with the channel coefficients before the DLE; and H' is a matrix with the estimated channel coefficients after the DLE.
A frame for glasses, comprising at least one technical layer made of a thermoplastic material that is interposed between a first aesthetic layer and a second aesthetic layer, characterized in that both said first and second aesthetic layers are made of a fabric material, one of said first and second aesthetic layers being a layer that is externally visible and being the outermost layer of said frame, and another one of said first and second aesthetic layers being the layer of said frame, that is destined to be in contact with the user's skin, being made of velvet or silk.
A method by a user equipment, UE, for mobility management, comprising: identifying a target cell as an active set candidate; calculating a first filtered EcpI o measurement of the target cell using a first time constant value; calculating a second filtered EcpI o measurement of the target cell using a second time constant value that is less than the first time constant value; determining that a trigger adjustment condition exists based on an absolute value of a difference between the first filtered EcpI o measurement and the second filtered EcpI o measurement, wherein the trigger adjustment condition triggers an adjustment of a timing value that manages a sending time of a target cell add message to a serving cell; and sending the target cell add message including the target cell to the serving cell at the sending time based on determining that the trigger adjustment condition exists. identifying a target cell as an active set candidate; calculating a first filtered EcpI o measurement of the target cell using a first time constant value; calculating a second filtered EcpI o measurement of the target cell using a second time constant value that is less than the first time constant value; determining that a trigger adjustment condition exists based on an absolute value of a difference between the first filtered EcpI o measurement and the second filtered EcpI o measurement, wherein the trigger adjustment condition triggers an adjustment of a timing value that manages a sending time of a target cell add message to a serving cell; and sending the target cell add message including the target cell to the serving cell at the sending time based on determining that the trigger adjustment condition exists.
A controller, comprising: a first circuit board, wherein a first connector is disposed on the first circuit board; a radio frequency module, disposed on the first circuit board; a control chip, disposed on the first circuit board; and a second circuit board, wherein a second connector is disposed on the second circuit board, wherein the first circuit board is detachably mounted to the second circuit board through a connection between the first connector and the second connector, wherein the controller further comprises a thermoelectric cooler and a shield, wherein the thermoelectric cooler is disposed on the first circuit board so as to dissipate heat for the control chip, wherein the shield shields the control chip and the thermoelectric cooler so as to suppress condensation generated between the control chip and the thermoelectric cooler. a first circuit board, wherein a first connector is disposed on the first circuit board; a radio frequency module, disposed on the first circuit board; a control chip, disposed on the first circuit board; and a second circuit board, wherein a second connector is disposed on the second circuit board, wherein the first circuit board is detachably mounted to the second circuit board through a connection between the first connector and the second connector, wherein the controller further comprises a thermoelectric cooler and a shield, wherein the thermoelectric cooler is disposed on the first circuit board so as to dissipate heat for the control chip, wherein the shield shields the control chip and the thermoelectric cooler so as to suppress condensation generated between the control chip and the thermoelectric cooler.
A photovoltaic device assembly comprising a plurality of photovoltaic devices arranged in at least two rows; the said photovoltaic devices including a photovoltaic cell assembly and a body portion; wherein the devices are physically and electrically connected by connectors, edge pieces, spacer pieces, or any combination thereof; wherein the said photovoltaic devices each comprise an active portion and an inactive portion (135; the said edge pieces including: at least one connecting edge piece located at the end of at least two rows of photovoltaic devices wherein the said connecting edge piece includes a body portion and two or more edge connector assemblies for connecting each respective row of photovoltaic devices; a starter edge piece; and an end edge piece; wherein said starter edge piece and said end edge piece each include a body portion and a single edge connector assembly; wherein the said at least one connecting edge piece physically and electrically connects at least two rows of photovoltaic devices, wherein the said starter edge piece connects a return circuit in a said row, and the said end edge piece includes a pass-through electrical connector assembly or electrical lead assembly; and wherein the main body portion of said connecting edge pieces (i) is stepped vertically to provide a complementary fit to two rows of stacked and layered photovoltaic devices; or (ii) is staggered horizontally to provide a complimentary fit to two rows of offset photovoltaic devices. at least one connecting edge piece located at the end of at least two rows of photovoltaic devices wherein the said connecting edge piece includes a body portion and two or more edge connector assemblies for connecting each respective row of photovoltaic devices; a starter edge piece; and an end edge piece; wherein said starter edge piece and said end edge piece each include a body portion and a single edge connector assembly; wherein the said at least one connecting edge piece physically and electrically connects at least two rows of photovoltaic devices, wherein the said starter edge piece connects a return circuit in a said row, and the said end edge piece includes a pass-through electrical connector assembly or electrical lead assembly; and wherein the main body portion of said connecting edge pieces (i) is stepped vertically to provide a complementary fit to two rows of stacked and layered photovoltaic devices; or (ii) is staggered horizontally to provide a complimentary fit to two rows of offset photovoltaic devices. (i) is stepped vertically to provide a complementary fit to two rows of stacked and layered photovoltaic devices; or (ii) is staggered horizontally to provide a complimentary fit to two rows of offset photovoltaic devices.
Heat-conductive silicone composition comprising 100 parts by weight of an organopolysiloxane as a base polymer and a heat-conductive filler, wherein the heat-conductive filler accounts for 60 to 85% by volume of the heat-conductive silicone composition, and comprises: (B-I) 1,100 to 1,400 parts by weight of aluminum nitride having an average particle size of 50 μm to less than 70 μm, (B-II) 900 to 1,200 parts by weight of aluminum nitride having an average particle size of 70 μm to 90 μm, (B-III) 650 to 800 parts by weight of aluminum oxide having an average particle size of 5 μm to 15 μm, and (B-IV) 1,300 to 1,700 parts by weight of aluminum oxide having an average particle size of 0.5 μm to less than 5 μm or aluminum hydroxide having an average particle size of 0.5 μm to less than 5 μm, said average particle sizes being as measured by a laser diffraction/scattering mode particle size distribution analyzer, and wherein aluminum nitride having an average particle size of at least 50 μm accounts for 40 to 60% by volume of the heat-conductive filler. 100 parts by weight of an organopolysiloxane as a base polymer and a heat-conductive filler, (B-I) 1,100 to 1,400 parts by weight of aluminum nitride having an average particle size of 50 μm to less than 70 μm, (B-II) 900 to 1,200 parts by weight of aluminum nitride having an average particle size of 70 μm to 90 μm, (B-III) 650 to 800 parts by weight of aluminum oxide having an average particle size of 5 μm to 15 μm, and (B-IV) 1,300 to 1,700 parts by weight of aluminum oxide having an average particle size of 0.5 μm to less than 5 μm or aluminum hydroxide having an average particle size of 0.5 μm to less than 5 μm, said average particle sizes being as measured by a laser diffraction/scattering mode particle size distribution analyzer, and wherein aluminum nitride having an average particle size of at least 50 μm accounts for 40 to 60% by volume of the heat-conductive filler.
Lifting device for a motor vehicle sub-assembly with - a load-bearing unit with at least one support arm pivotable about a longitudinal axis of the load-bearing unit as well as - a coupling unit arranged on the support arm for the releasable connection of the support arm with the motor vehicle sub-assembly, wherein the coupling unit is mounted in a longitudinally displaceable manner on the support arm and the load-bearing unit is designed for connection with a crane unit, wherein the load-bearing unit is connected releasably with a connection body of a support unit, wherein the connection body is arranged in a tiltable manner on the support unit, characterized in that a blocking unit is arranged on the support arm, which is adjustable between a release position releasing the support arm for pivoting and a locking position fixing the support arm on the load-bearing unit and the blocking unit has a brake body, which is adjustable in the direction towards a housing main body of the load-bearing unit by means of an actuating element, wherein the brake body in the locking position locks the support arm in a frictional manner on the housing main body. - a load-bearing unit with at least one support arm pivotable about a longitudinal axis of the load-bearing unit as well as - a coupling unit arranged on the support arm for the releasable connection of the support arm with the motor vehicle sub-assembly, wherein the coupling unit is mounted in a longitudinally displaceable manner on the support arm and the load-bearing unit is designed for connection with a crane unit, wherein the load-bearing unit is connected releasably with a connection body of a support unit, wherein the connection body is arranged in a tiltable manner on the support unit, characterized in that a blocking unit is arranged on the support arm, which is adjustable between a release position releasing the support arm for pivoting and a locking position fixing the support arm on the load-bearing unit and the blocking unit has a brake body, which is adjustable in the direction towards a housing main body of the load-bearing unit by means of an actuating element, wherein the brake body in the locking position locks the support arm in a frictional manner on the housing main body.
An in vitro method for assessing the capacity of a candidate molecule to inhibit covalently closed circular (ccc) DNA of a hepadnavirus comprising the steps of (a) contacting a cell comprising a nucleic acid molecule comprising a nucleic acid sequence encoding a tagged hepadnavirus e antigen with said candidate molecule; wherein the nucleic acid molecule comprises a sequence encoding one or more tags, wherein the sequence is inserted into the epsilon structure as encoded by a hepadnavirus genome, wherein said nucleic acid molecule comprising a sequence encoding the one or more tag is inserted between nucleotides corresponding to position C1902 and position A1903 of the HBV genome, wherein said nucleic acid molecule comprises 5' of the sequence encoding the one or more tag a sequence that is capable of forming base pairs with the lower stem of the epsilon structure as encoded by a hepadnavirus genome and wherein the sequence that is capable of forming base pairs with said lower stem of the epsilon structure as encoded by a hepadnavirus genome is capable of forming base pairs with nucleotides corresponding to positions T1849 to A1854 of the HBV genome; (b) assessing the level of the tagged hepadnavirus e antigen; and (c) selecting a candidate molecule when the level of tagged hepadnavirus e antigen is decreased compared to a control. (a) contacting a cell comprising a nucleic acid molecule comprising a nucleic acid sequence encoding a tagged hepadnavirus e antigen with said candidate molecule; wherein the nucleic acid molecule comprises a sequence encoding one or more tags, wherein the sequence is inserted into the epsilon structure as encoded by a hepadnavirus genome, wherein said nucleic acid molecule comprising a sequence encoding the one or more tag is inserted between nucleotides corresponding to position C1902 and position A1903 of the HBV genome, wherein said nucleic acid molecule comprises 5' of the sequence encoding the one or more tag a sequence that is capable of forming base pairs with the lower stem of the epsilon structure as encoded by a hepadnavirus genome and wherein the sequence that is capable of forming base pairs with said lower stem of the epsilon structure as encoded by a hepadnavirus genome is capable of forming base pairs with nucleotides corresponding to positions T1849 to A1854 of the HBV genome; (b) assessing the level of the tagged hepadnavirus e antigen; and (c) selecting a candidate molecule when the level of tagged hepadnavirus e antigen is decreased compared to a control.
Arrangement in the manufacture of mineral fibres, which arrangement comprises - a rotating fiberising rotor (1, 21, 21') arranged on a horizontal axis, which fiberising rotor (1, 21, 21') has an active periphery at which the mineral fibres are mainly formed, - a fibre blow-off means (4, 24, 24'), which is arranged around the active periphery of the fiberising rotor (4, 24, 24'), and which comprises a blow-off slot (4', 29, 29'), characterised in that, one or several additional nozzles are arranged inside the blow-off slot (4', 29, 29') of the fibre blow-off means (4, 24, 24') and a number of separate treatment nozzles (7, 27, 27') are arranged directly on the outside of the blow-off means (4, 24, 24'), at a maximum distance of 50 mm from the fibre blow-off means, whereby the additional nozzle or nozzles are fed with pressurised air and are inclined towards the surface of the fiberising rotor (1, 21, 21') and the treatment nozzles (7, 27, 27') are used for distributing binder, dust binding oil or water and inclined towards the area of the fiberising rotor (1, 21, 21') where the fibre structure is formed from the melt that is located on the surface of the fiberising rotor (1, 21, 21'). - a rotating fiberising rotor (1, 21, 21') arranged on a horizontal axis, which fiberising rotor (1, 21, 21') has an active periphery at which the mineral fibres are mainly formed, - a fibre blow-off means (4, 24, 24'), which is arranged around the active periphery of the fiberising rotor (4, 24, 24'), and which comprises a blow-off slot (4', 29, 29'), characterised in that,
Withdrawable electrical device for cutting off an electric current, comprising: - a static frame, including a rigid back plate fixed on the frame; - connection terminals capable of being connected to an electrical installation; - a removable part including an apparatus for cutting off an electrical current, this removable part being selectively movable between: • an inserted position, in which the removable part is received inside a corresponding housing of the static frame and in which the cut-off system is electrically connected to the connection terminals, and • a withdrawn position, in which the removable part is outside the housing and in which the cut-off system is electrically isolated from the connection terminals; the back plate being made of a thermosetting polymer material and including reinforcing beams (26, 28) integrated in the back plate and extending in a vertical direction (Z26, Z28), characterized in that the back plate is fixed to the frame by means of fixing elements (50, 52), the electrical device also comprising retaining strips (30, 32) which extend vertically along lateral edges (34, 36) of the back plate, the retaining strips (30, 32) being clamped against the lateral edges (34, 36) by the fixing elements (50, 52). - a static frame, including a rigid back plate fixed on the frame; - connection terminals capable of being connected to an electrical installation; - a removable part including an apparatus for cutting off an electrical current, this removable part being selectively movable between: • an inserted position, in which the removable part is received inside a corresponding housing of the static frame and in which the cut-off system is electrically connected to the connection terminals, and • a withdrawn position, in which the removable part is outside the housing and in which the cut-off system is electrically isolated from the connection terminals; • an inserted position, in which the removable part is received inside a corresponding housing of the static frame and in which the cut-off system is electrically connected to the connection terminals, and • a withdrawn position, in which the removable part is outside the housing and in which the cut-off system is electrically isolated from the connection terminals;