mhurhangee/ep-ind-claims huggingface dataset:
Accessory for a medical device, in particular for an operating table or a transfer board, comprising: a first plate for supporting a body part of a patient, and a second plate which is movable relative to the first plate in a predetermined adjustment range, wherein the first plate and the second plate are insertable into a holder on the medical device, and a first clamping surface, and a second clamping surface spaced apart from the first clamping surface, wherein the first clamping surface is arranged on the first plate and the second clamping surface is arranged on the second plate, wherein a movement of the second plate relative to the first plate causes a movement of the second clamping surface relative to the first clamping surface in a direction substantially parallel to a surface of the first or second plate (4, 5) to increase or decrease a clamping force between the accessory and the suitable holder on the medical device, wherein the first plate and the second plate are arranged one above the other. a first plate for supporting a body part of a patient, and a second plate which is movable relative to the first plate in a predetermined adjustment range, wherein the first plate and the second plate are insertable into a holder on the medical device, and a first clamping surface, and a second clamping surface spaced apart from the first clamping surface, wherein the first clamping surface is arranged on the first plate and the second clamping surface is arranged on the second plate, wherein a movement of the second plate relative to the first plate causes a movement of the second clamping surface relative to the first clamping surface in a direction substantially parallel to a surface of the first or second plate (4, 5) to increase or decrease a clamping force between the accessory and the suitable holder on the medical device, wherein the first plate and the second plate are arranged one above the other.
A process for producing expandable pelletized material which comprises polylactic acid, which comprises the following steps: a) melting and mixing to incorporate the following components: i) from 50 to 99.9% by weight, based on the total weight of components i to iii, of polylactic acid, ii) from 0 to 49.9% by weight, based on the total weight of components i to iii, of one or more further polymers, iii) from 0.1 to 2% by weight, based on the total weight of components i to iii, of a diepoxide or polyepoxide, and iv) from 0.1 to 5% by weight, based on the total weight of components i and iii, of a nucleating agent, b) mixing to incorporate v) from 1 to 7% by weight, based on the total weight of components i to iv, of an organic blowing agent, and vi) from 0.01 to 5% by weight of a co-blowing agent - selected from the group of nitrogen, carbon dioxide, argon, helium, and mixtures thereof - into the polymer melt by means of a static or dynamic mixer at a temperature of at least 140°C, c) discharging through a die plate with holes, the diameter of which at the exit from the die is at most 1.5 mm, and d) pelletizing the melt comprising blowing agent directly downstream of the die plate, and under water, at a pressure in the range from 1 to 20 bar. a) melting and mixing to incorporate the following components: i) from 50 to 99.9% by weight, based on the total weight of components i to iii, of polylactic acid, ii) from 0 to 49.9% by weight, based on the total weight of components i to iii, of one or more further polymers, iii) from 0.1 to 2% by weight, based on the total weight of components i to iii, of a diepoxide or polyepoxide, and iv) from 0.1 to 5% by weight, based on the total weight of components i and iii, of a nucleating agent, b) mixing to incorporate v) from 1 to 7% by weight, based on the total weight of components i to iv, of an organic blowing agent, and vi) from 0.01 to 5% by weight of a co-blowing agent - selected from the group of nitrogen, carbon dioxide, argon, helium, and mixtures thereof - into the polymer melt by means of a static or dynamic mixer at a temperature of at least 140°C, c) discharging through a die plate with holes, the diameter of which at the exit from the die is at most 1.5 mm, and d) pelletizing the melt comprising blowing agent directly downstream of the die plate, and under water, at a pressure in the range from 1 to 20 bar.
Learning method particular positions of actuators for engaging the gear ratios of a double-clutch gearbox, for a hybrid motor vehicle comprising a heat engine successively driving a primary clutch, a machine electric, then two input clutches (10, 20) of the gearbox each driving a primary shaft (12, 22), characterized in that when running in freewheel mode comprising the opening of the primary clutch, for learning the engagement of a final gear linked to a final primary shaft (12; 22), coming from an engaged initial gear linked to the other initial primary shaft (12; 22), it opens the input clutches (10, 20) which are closed, it controls the speed of the electric machine to adjust it to that of the initial primary shaft (12; 22), then it closes the clutch of the initial report (Ei), and it then engages the final report by learning the particular positions of the actuator of this final report.
A method in a controller for coordinating data transmissions by antennas of a distributed antenna system, wherein the distributed antenna system, comprises the controller and a plurality of base stations connected to the controller, wherein each base station comprises a plurality of antennas, and wherein the method, performed by the controller, comprises: - performing dirty-paper coding on downlink transmissions to users based on an order of the users; - calculating beamforming vectors for each user to provide that each of the downlink transmissions associated with each of the users does not interfere with other users; and - maximizing, based on the calculated beamforming vectors, a data rate subject to a power constraint of the distributed antenna system; wherein maximizing the data rate subject to the power constraint comprises: - maximizing a sum throughput data rate subject to the power constraint; wherein maximizing the sum throughput data rate subject to the power constraint comprises: - maximizing the sum throughput data rate subject to a per-antenna transmit power constraint of the distributed antenna system. - performing dirty-paper coding on downlink transmissions to users based on an order of the users; - calculating beamforming vectors for each user to provide that each of the downlink transmissions associated with each of the users does not interfere with other users; and - maximizing, based on the calculated beamforming vectors, a data rate subject to a power constraint of the distributed antenna system; - maximizing a sum throughput data rate subject to the power constraint; - maximizing the sum throughput data rate subject to a per-antenna transmit power constraint of the distributed antenna system.
A method for assisting in synchronization of slave clocks of a communication network, the method comprising: - receiving, by a node (10, 14; 16; 18) of said communication network, a message comprising a representation of a value of a synchronization accuracy (σ rec) of a first upstream node (10; 12; 14; 16) in said communication network; - obtaining a value of an accuracy (σ link) of a link latency unbalance between forward and reverse signalling in a link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message; - calculating a value of a total synchronization accuracy (σ tot) of said node (10, 14; 16; 18) comprising at least said accuracy (σ link) of said link latency unbalance of said link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message, and wherein the obtaining of a value of an accuracy (σ link) of a link latency unbalance in turn comprises: - transmitting a request for a value of an accuracy of a link latency unbalance to a synchronization support node of said communication network comprising information of at least one of an identity and model type of said link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message; and - receiving, from said synchronization support node, information associated with said value of said accuracy (σ link) of said link latency unbalance. - receiving, by a node (10, 14; 16; 18) of said communication network, a message comprising a representation of a value of a synchronization accuracy (σ rec) of a first upstream node (10; 12; 14; 16) in said communication network; - obtaining a value of an accuracy (σ link) of a link latency unbalance between forward and reverse signalling in a link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message; - calculating a value of a total synchronization accuracy (σ tot) of said node (10, 14; 16; 18) comprising at least said accuracy (σ link) of said link latency unbalance of said link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message, and - transmitting a request for a value of an accuracy of a link latency unbalance to a synchronization support node of said communication network comprising information of at least one of an identity and model type of said link (20, 21; 22; 23) on which said node (10, 14; 16; 18) received said message; and - receiving, from said synchronization support node, information associated with said value of said accuracy (σ link) of said link latency unbalance.
Method for a construction of a hybrid foundation structure, which provides an upper support layer and a lower support layer with different cross-sectional sizes from each other and vertically positioned, wherein the upper support layer and the lower support layer are vertically installed on a ground, and comprising the upper support layer formed on the ground in the vertical direction; the lower support layer extended downward from the upper support layer in order to have the narrower width compared to the width of the upper support layer, and the upper support layer and the lower support layer are formed by injection of solidified soil which is a mixture of earth, sand, and a soil-solidifying agent, the method including: a boring step to form a boring hole on the ground for forming the upper support layer and the lower support layer; a basic formation step to inject the mixture of earth, sand, and a soil-solidifying agent into the boring hole for forming the upper support layer and the lower support layer, characterized in that the earth and sand are a mixture of slimes produced in the boring step and aggregates, and the boring step and the basic formation step are to ridge a part of slimes produced in the boring step and inject the mixture of remaining slimes, aggregates and a soil-solidifying agent. a boring step to form a boring hole on the ground for forming the upper support layer and the lower support layer; a basic formation step to inject the mixture of earth, sand, and a soil-solidifying agent into the boring hole for forming the upper support layer and the lower support layer, characterized in that the earth and sand are a mixture of slimes produced in the boring step and aggregates, and the boring step and the basic formation step are to ridge a part of slimes produced in the boring step and inject the mixture of remaining slimes, aggregates and a soil-solidifying agent.
A solar cell module comprising: a solar cell including a photoelectric conversion body, a transparent conductive oxide layer disposed on a first main surface (10a2) of the photoelectric conversion body, and an electrode disposed on the transparent conductive oxide layer; a sealing material sealing the solar cell therein; a first protection member disposed on the sealing material at a second main surface side of the solar cell; and a second protection member disposed on the sealing material at a first main surface side of the solar cell, wherein a portion of the sealing material located on the electrode contains an ethylene-vinyl acetate copolymer, characterized in that the second protection member is made of a resin sheet with no metal layer, and the electrode contains no less than 50 ppm and no more than 500 ppm of a chemically basic compound containing a polymeric material containing an amino group or an imino group. a solar cell including a photoelectric conversion body, a transparent conductive oxide layer disposed on a first main surface (10a2) of the photoelectric conversion body, and an electrode disposed on the transparent conductive oxide layer; a sealing material sealing the solar cell therein; a first protection member disposed on the sealing material at a second main surface side of the solar cell; and a second protection member disposed on the sealing material at a first main surface side of the solar cell, wherein a portion of the sealing material located on the electrode contains an ethylene-vinyl acetate copolymer, characterized in that the second protection member is made of a resin sheet with no metal layer, and the electrode contains no less than 50 ppm and no more than 500 ppm of a chemically basic compound containing a polymeric material containing an amino group or an imino group.
A pole piece support structure for a magnetic gear or an electrical machine comprising an integrated magnetic gear, the pole piece support structure comprising: a substantially cylindrical frame having a central axis, the frame having a spaced array of non-magnetic support structures (302, 306, 310, 406, 602, 606, 806) extending axially, each non-magnetic support structure comprises an aperture having a stiffening bar extending therethrough, the stiffening bar being held under tension; a magnetic pole piece (300, 304, 308, 400, 500, 604, 804) disposed between at least a pair of adjacent non-magnetic support structures (302, 306, 310, 602, 606, 806), the magnetic pole piece (300, 304, 308, 400, 500, 604, 804) being supported along at least a portion of its body by the adjacent non-magnetic support structures, the body of the magnetic pole piece comprising a retaining feature and the retaining feature mating with a corresponding retaining feature in the body of each of the non-magnetic support structures, an end support (802, 810) at each axial end; and an intermediate support structure (700, 808) forming a ring structure at least partially circumferentially around the frame, the intermediate support structure (700, 808) having an array of holes for the stiffening bars to pass through, the intermediate support structure (700, 808) being provided between axial ends of the adjacent non-magnetic support structures (602, 606, 806), wherein the substantially cylindrical frame, the intermediate support structure (700, 808) and the end supports (802, 810) form a grid-like structure to axially, radially and circumferentially retain the magnetic pole pieces (402, 604, 804). a substantially cylindrical frame having a central axis, the frame having a spaced array of non-magnetic support structures (302, 306, 310, 406, 602, 606, 806) extending axially, each non-magnetic support structure comprises an aperture having a stiffening bar extending therethrough, the stiffening bar being held under tension; a magnetic pole piece (300, 304, 308, 400, 500, 604, 804) disposed between at least a pair of adjacent non-magnetic support structures (302, 306, 310, 602, 606, 806), the magnetic pole piece (300, 304, 308, 400, 500, 604, 804) being supported along at least a portion of its body by the adjacent non-magnetic support structures, the body of the magnetic pole piece comprising a retaining feature and the retaining feature mating with a corresponding retaining feature in the body of each of the non-magnetic support structures, an end support (802, 810) at each axial end; and an intermediate support structure (700, 808) forming a ring structure at least partially circumferentially around the frame, the intermediate support structure (700, 808) having an array of holes for the stiffening bars to pass through, the intermediate support structure (700, 808) being provided between axial ends of the adjacent non-magnetic support structures (602, 606, 806),
A system having a chain of apparatuses for receiving and forwarding data and energy signals, the chain of apparatuses comprising: a primary unit (5A, 5B, 5C), operable to receive a data signal and comprising a modulator operable to generate and transmit a signal modulated with the data signal, said signal being a radio or magnetic induction signal, or both; and one or more secondary units in the chain, wherein each of the one or more secondary units comprises: first antenna means, operable to receive an input signal modulated to include the data signal; means operable to receive and decode the input signal to provide a decoded data signal; means operable to convert the input signal into electrical energy for powering each of the one or more secondary units; means to generate an output signal modulated with the decoded data signal; and second antenna means operable to transmit the output signal, characterized in that, the one or more secondary units are concatenable in the chain with the primary unit (5A, 5B, 5C) forming the start of the chain. a primary unit (5A, 5B, 5C), operable to receive a data signal and comprising a modulator operable to generate and transmit a signal modulated with the data signal, said signal being a radio or magnetic induction signal, or both; and one or more secondary units in the chain, wherein each of the one or more secondary units comprises: first antenna means, operable to receive an input signal modulated to include the data signal; means operable to receive and decode the input signal to provide a decoded data signal; means operable to convert the input signal into electrical energy for powering each of the one or more secondary units; means to generate an output signal modulated with the decoded data signal; and first antenna means, operable to receive an input signal modulated to include the data signal; means operable to receive and decode the input signal to provide a decoded data signal; means operable to convert the input signal into electrical energy for powering each of the one or more secondary units; means to generate an output signal modulated with the decoded data signal; and second antenna means operable to transmit the output signal, characterized in that, the one or more secondary units are concatenable in the chain with the primary unit (5A, 5B, 5C) forming the start of the chain.
An additive for polylactic acid resin comprising a branched polylactic acid that has at least three branched chains composed of a polylactic acid in the molecule, the branched polylactic acid being obtained by polymerizing lactide, lactic acid, or polylactic acid using as an initiator a compound having at least three polar groups in the molecule, and the branched polylactic acid comprises a branched polylactic acid molecule in which a hydrogen is substituted with an acyl group in at least one of the terminal hydroxy groups of the branched chains composed of the polylactic acid.
A medical catheter comprising: an elongate member (14,14') having proximal and distal end portions and defining a longitudinal axis through the proximal and distal end portions, the elongate member (14,14') including a wall at least partially defining a longitudinal lumen (36,38) and defining a side opening (54,56,64) extending radially from an outer surface of the wall to the longitudinal lumen (36,38); and an insert (58,60,66) at least partially disposed within the side opening (54,56,64) and at least partially defining an insert passage (58b,60b,72) in fluid communication with the longitudinal lumen (36,38), the elongate member (14,14') comprising a first material defining the side opening (54,56,64) and the insert (58,60,66) comprising a second material different from the first material, the second material comprising an anti-thrombogenic agent. an elongate member (14,14') having proximal and distal end portions and defining a longitudinal axis through the proximal and distal end portions, the elongate member (14,14') including a wall at least partially defining a longitudinal lumen (36,38) and defining a side opening (54,56,64) extending radially from an outer surface of the wall to the longitudinal lumen (36,38); and an insert (58,60,66) at least partially disposed within the side opening (54,56,64) and at least partially defining an insert passage (58b,60b,72) in fluid communication with the longitudinal lumen (36,38), the elongate member (14,14') comprising a first material defining the side opening (54,56,64) and the insert (58,60,66) comprising a second material different from the first material, the second material comprising an anti-thrombogenic agent.
An electronic device comprising: a wiring plate having a first surface to which a driving element-forming plate (29, 31) including a plurality of driving elements is connected and a second surface which is on a side opposite from the first surface and on which a drive IC that outputs signals for driving the driving elements is provided; a plurality of first terminals which are arranged in a first direction on the first surface of the wiring plate and which output the signals to the driving elements; and a plurality of second terminals which are arranged in the first direction on the second surface of the wiring plate and to which the signals are inputted, wherein wires each of which connects one of the first terminals to one of the second terminals corresponding to the first terminal each include a penetrating wire formed inside a through hole penetrating the wiring plate and made of a conductor, each of the penetrating wires is formed at a position away from the first terminal or the second terminal in a second direction perpendicular to the first direction, each two of the penetrating wires adjacent in the first direction are arranged at different positions in the second direction, a distance between centers of each two of the through holes adjacent in the first direction is larger than a sum of radii of the two through holes, and characterised in that a distance in the first direction between the centers of the two through holes adjacent in the first direction is smaller than the sum of the radii of the two through holes. a wiring plate having a first surface to which a driving element-forming plate (29, 31) including a plurality of driving elements is connected and a second surface which is on a side opposite from the first surface and on which a drive IC that outputs signals for driving the driving elements is provided; a plurality of first terminals which are arranged in a first direction on the first surface of the wiring plate and which output the signals to the driving elements; and a plurality of second terminals which are arranged in the first direction on the second surface of the wiring plate and to which the signals are inputted, wherein wires each of which connects one of the first terminals to one of the second terminals corresponding to the first terminal each include a penetrating wire formed inside a through hole penetrating the wiring plate and made of a conductor, each of the penetrating wires is formed at a position away from the first terminal or the second terminal in a second direction perpendicular to the first direction, each two of the penetrating wires adjacent in the first direction are arranged at different positions in the second direction, a distance between centers of each two of the through holes adjacent in the first direction is larger than a sum of radii of the two through holes, and characterised in that a distance in the first direction between the centers of the two through holes adjacent in the first direction is smaller than the sum of the radii of the two through holes.