mhurhangee/ep-ind-claims huggingface dataset:
Syringe assembly for facilitating treatment of a fluid containing a sample for analysis, comprising: a syringe comprising a barrel and a needle; and a flow control apparatus comprising a body having spaced ends (24, 25), which body defines therein a fluid flow passage arrangement extending between said ends (24, 25); wherein the fluid flow passage arrangement includes two flow paths (34, 36) that are configured in parallel in part and merge within said body, and a one-way check valve and a medium selected to treat or modify sample-containing fluid flowing therethrough; said flow control apparatus being mounted within the barrel of the syringe, wherein said merged paths (34, 36) form a single 2. bore communicable with the needle of for the syringe, and said flow paths open separately into the interior chamber of said barrel characterised in that each of the two flow paths (34, 36) comprises a first duct portion (34a, 36a) and a second duct portion (34b, 36b) and an enlarged chamber portion (34c, 36c), wherein the first duct portions extend parallel to the axis of the barrel and the needle, and wherein the second duct portions (34b, 36b) extend radially to link the first duct portions (34a, 36a) to the bore and whereby one of the enlarged chamber portions contains the one-way check valve and the other of the enlarged chamber portions contains the medium. a syringe comprising a barrel and a needle; and a flow control apparatus comprising a body having spaced ends (24, 25), which body defines therein a fluid flow passage arrangement extending between said ends (24, 25); wherein the fluid flow passage arrangement includes two flow paths (34, 36) that are configured in parallel in part and merge within said body, and a one-way check valve and a medium selected to treat or modify sample-containing fluid flowing therethrough; said flow control apparatus being mounted within the barrel of the syringe, wherein said merged paths (34, 36) form a single 2. bore communicable with the needle of for the syringe, and said flow paths open separately into the interior chamber of said barrel characterised in that each of the two flow paths (34, 36) comprises a first duct portion (34a, 36a) and a second duct portion (34b, 36b) and an enlarged chamber portion (34c, 36c), wherein the first duct portions extend parallel to the axis of the barrel and the needle, and wherein the second duct portions (34b, 36b) extend radially to link the first duct portions (34a, 36a) to the bore and whereby one of the enlarged chamber portions contains the one-way check valve and the other of the enlarged chamber portions contains the medium.
A SNP molecular marker for weeping trait of Mei, comprising molecular markers: Marker301243 and/or Marker311414, the nucleotide sequences of which are represented by SEQ ID NO. 1 and SEQ ID NO. 2, respectively.
Method of manufacturing a device for electrically connecting terminals of modular devices mounted on a mounting support, comprising the steps consisting in: - taking a predetermined so-called first length of a flexible or semi-rigid conductor, - then creating at regular intervals along this flexible or semi-rigid conductor stripped portions having a certain, so-called second length, characterized in that it further consists in bending said conductor in areas substantially corresponding to the middle (m) of the stripped portions and superposing the two portions (6, 7) situated on respective opposite sides of each bending area (m) so as to form a succession of bridges, - then removably mechanically fastening together and electrically connecting the two facing portions (6, 7) situated on respective opposite sides of each bending area (m) so as to form connection elements each adapted to be inserted in a terminal of the devices so as to make the electrical connection of all the devices to one another. - taking a predetermined so-called first length of a flexible or semi-rigid conductor, - then creating at regular intervals along this flexible or semi-rigid conductor stripped portions having a certain, so-called second length, - then removably mechanically fastening together and electrically connecting the two facing portions (6, 7) situated on respective opposite sides of each bending area (m) so as to form connection elements each adapted to be inserted in a terminal of the devices so as to make the electrical connection of all the devices to one another.
A tissue clipping apparatus, comprising: a flexible, elongate member, a proximal end of which remains external to the body accessible to a user while a distal end of the flexible member is inserted into the body to a location adjacent to target tissue to be clipped; a control wire extending through the flexible member; a capsule releasably coupled to a distal end of the flexible member; and a clip, a proximal portion of which is received within the capsule; wherein a distal end of the flexible member comprises a bushing releasably coupled to the capsule wherein the capsule is maintained in engagement with the bushing by a retainer, characterised in that the retainer engages the capsule by a friction fit. a flexible, elongate member, a proximal end of which remains external to the body accessible to a user while a distal end of the flexible member is inserted into the body to a location adjacent to target tissue to be clipped; a control wire extending through the flexible member; a capsule releasably coupled to a distal end of the flexible member; and a clip, a proximal portion of which is received within the capsule; wherein a distal end of the flexible member comprises a bushing releasably coupled to the capsule wherein the capsule is maintained in engagement with the bushing by a retainer, characterised in that the retainer engages the capsule by a friction fit.
Electromechanical brake booster (1, 100) for a motor vehicle, comprising: an electric motor which is operatively connected via a gear mechanism to a spindle in such a way that a rotation of a rotor of the electric motor causes a translational movement of the spindle, wherein at least one support element (2a, 2b) is fastened to a gear mechanism housing bottom of the gear mechanism and extends substantially parallel to an adjustment axis of the spindle, wherein a master brake cylinder can be fastened to the at least one support element (2a, 2b), and wherein the at least one support element (2a, 2b) is designed to support forces acting on the at least one support element (2a, 2b) in the axial and/or radial direction, characterized in that the at least one support element (2a, 2b) is pressed into an opening (40a, 40b) formed in the gear mechanism housing bottom, wherein a collar (63a, 63b) formed on a first axial end portion (2c, 2d) of the at least one support element (2a, 2b) bears against the gear mechanism housing bottom. an electric motor which is operatively connected via a gear mechanism to a spindle in such a way that a rotation of a rotor of the electric motor causes a translational movement of the spindle, wherein at least one support element (2a, 2b) is fastened to a gear mechanism housing bottom of the gear mechanism and extends substantially parallel to an adjustment axis of the spindle, wherein a master brake cylinder can be fastened to the at least one support element (2a, 2b), and wherein the at least one support element (2a, 2b) is designed to support forces acting on the at least one support element (2a, 2b) in the axial and/or radial direction, characterized in that the at least one support element (2a, 2b) is pressed into an opening (40a, 40b) formed in the gear mechanism housing bottom, wherein a collar (63a, 63b) formed on a first axial end portion (2c, 2d) of the at least one support element (2a, 2b) bears against the gear mechanism housing bottom.
A method of blowing and filling a container from a thermoplastic polymer preform, comprising: - stretching a thermoplastic polymer preform placed within a mould during a stretching phase, starting an injection phase for injecting a liquid into the preform, the injection phase starting after the stretching phase has started, wherein, prior to starting the injection phase, the method comprises bringing the liquid to a predetermined pressure above the atmospheric pressure, wherein the method comprises a step of storing, in energy storing means, energy produced when bringing the liquid to said predetermined pressure above the atmospheric pressure, the injection phase being powered in part by the stored energy that is released when starting the injection phase, the method being characterized in that the energy storing means comprising at least one of the following in the liquid circuit in which the liquid is brought to said predetermined pressure: - presence of air added to the liquid in the liquid circuit and compressed during the pressurization of the liquid, - at least one deformable membrane (32; 34; 69a-f) that is elastically-deformable when submitted to said predetermined pressure so as to store energy. - stretching a thermoplastic polymer preform placed within a mould during a stretching phase, - presence of air added to the liquid in the liquid circuit and compressed during the pressurization of the liquid, - at least one deformable membrane (32; 34; 69a-f) that is elastically-deformable when submitted to said predetermined pressure so as to store energy.
A vehicle comprising: a floor panel that constitutes a part of a vehicle body and extends in a front to rear direction of a vehicle and a width direction of the vehicle; a rear seat that is disposed on a vehicle upper side of the floor panel such that a gap is formed with respect to the floor panel; and an autonomous driving device module that is equipped with a plurality of devices and is disposed on the vehicle upper side of the floor panel and a vehicle lower side of the rear seat, wherein the plurality of devices includes an autonomous driving control unit, an auxiliary power supply unit, and a power converting unit, the vehicle characterized in that: the autonomous driving control unit is configured to control a movement of the vehicle in an autonomous driving mode, the auxiliary power supply unit is provided separately from a main power supply unit provided in the vehicle and is configured to supply power to the autonomous driving control unit, and the power converting unit is configured to convert power supplied from the auxiliary power supply unit and to supply the power to the autonomous driving control unit. a floor panel that constitutes a part of a vehicle body and extends in a front to rear direction of a vehicle and a width direction of the vehicle; a rear seat that is disposed on a vehicle upper side of the floor panel such that a gap is formed with respect to the floor panel; and an autonomous driving device module that is equipped with a plurality of devices and is disposed on the vehicle upper side of the floor panel and a vehicle lower side of the rear seat, wherein the plurality of devices includes an autonomous driving control unit, an auxiliary power supply unit, and a power converting unit, an autonomous driving control unit, an auxiliary power supply unit, and a power converting unit, the autonomous driving control unit is configured to control a movement of the vehicle in an autonomous driving mode, the auxiliary power supply unit is provided separately from a main power supply unit provided in the vehicle and is configured to supply power to the autonomous driving control unit, and the power converting unit is configured to convert power supplied from the auxiliary power supply unit and to supply the power to the autonomous driving control unit.
A stroke analysis method comprising: sensing acceleration of a racket; sensing angular velocity of the racket; generating stroke histories based on the acceleration and angular velocity of the racket over a number of racket interactions; identifying interaction impulses within the stroke histories, wherein the interaction impulses represent angular momentum transfers during ball strikes and other racket interactions, corresponding to simultaneous impulse forces representing linear momentum transfers; generating stroke profiles by segmenting the stroke histories based on the interaction impulses; converting the stroke profiles into stroke trajectories, the stroke trajectories describing position, velocity and orientation of the racket; and separating the stroke profiles into stroke types based on pattern recognition of the stroke profiles or the stroke trajectories. sensing acceleration of a racket; sensing angular velocity of the racket; generating stroke histories based on the acceleration and angular velocity of the racket over a number of racket interactions; identifying interaction impulses within the stroke histories, wherein the interaction impulses represent angular momentum transfers during ball strikes and other racket interactions, corresponding to simultaneous impulse forces representing linear momentum transfers; generating stroke profiles by segmenting the stroke histories based on the interaction impulses;
A roller cutter unit, particularly for sponge-like ribbon materials, characterized in that it comprises a load-bearing frame equipped with support means designed to support a cutter or anvil roller arranged between a first anvil or cutter roller and a second anvil or cutter roller; the rollers (4, 5, 6) have parallel axes of rotation and the cutter or anvil roller is motorized and drives the anvil or cutter rollers (5, 6) in rotation when the ribbon is inserted between the cutter or anvil roller and the anvil or cutter rollers (5, 6); the cutter roller has cutting means that incise the ribbon at least twice, during a first passage of the ribbon between the cutter roller and the first anvil roller, and during a second passage of the ribbon between the cutter roller and the second anvil roller; the cutting means of the cutter roller are arranged on the cutter roller in such a way that in the second passage the ribbon is incised a second time exactly at the same point of the incision of the first passage.
A method for producing a wood based material body, in which the following steps are executed: - Preparation of a fragmentary material containing lignocellulose, - Mixing of the fragmentary material with a binding agent, - Spreading of one or a plurality of layers (3a, 3b, 3c, 3d) of the fragmentary material, mixed with the binding agent, onto the forming line, - Application of an expanding and hardening mass onto at least one of the spread layers (3a, 3b, 3c, 3d) of fragmentary material mixed with the binding agent, and - Pressing a layered structure of all spread layers (3a, 3b, 3c, 3d) at an elevated pressure and elevated temperature, wherein the step of pressing takes place after the step of application of the mass, - wherein the mass expands only during and/or after the step of pressing. - Preparation of a fragmentary material containing lignocellulose, - Mixing of the fragmentary material with a binding agent, - Spreading of one or a plurality of layers (3a, 3b, 3c, 3d) of the fragmentary material, mixed with the binding agent, onto the forming line, - Application of an expanding and hardening mass onto at least one of the spread layers (3a, 3b, 3c, 3d) of fragmentary material mixed with the binding agent, and - Pressing a layered structure of all spread layers (3a, 3b, 3c, 3d) at an elevated pressure and elevated temperature, wherein the step of pressing takes place after the step of application of the mass, - wherein the mass expands only during and/or after the step of pressing.
A ceramic powder material comprising a garnet-type compound containing Li, characterized in that the ceramic powder material has a pore volume of 0.4 mL/g or more and 1.0 mL/g or less measured by a mercury intrusion method with the measurement conditions specified in the description.
A composition for use in the prevention or treatment of diabetic angiogenesis impairment of foot ulcers comprising C-peptide having an amino acid sequence selected from the group consisting of SEQ ID NOS: 1 to 7.
A liquefied gas treatment system for a vessel, which includes a storage tank storing liquefied natural gas, and an engine using the liquefied natural gas stored in the storage tank as fuel, the liquefied gas treatment system comprising: a first stream of boil-off gas, which is generated from the liquefied natural gas in the storage tank and is discharged from the storage tank; a second stream of the boil-off gas, which is supplied as fuel to the engine in the first stream; and a third stream of the boil-off gas, which is not supplied to the engine in the first stream, wherein the first stream is compressed at about 150 to 400 bara in a compressor (13, 13a, 13b) and is branched into the second stream and the third stream, the third stream compressed in the compressor is cooled in a heat exchanger by exchanging heat with the first stream, without employing a reliquefaction apparatus using a separate refrigerant, the third stream cooled in the heat exchanger is decompressed by decompressing means (22,52), and the third stream decompressed by the decompressing means is in a gas-liquid mixed state and both of a gas component and a liquid component of the third stream are returned to the storage tank. a first stream of boil-off gas, which is generated from the liquefied natural gas in the storage tank and is discharged from the storage tank; a second stream of the boil-off gas, which is supplied as fuel to the engine in the first stream; and a third stream of the boil-off gas, which is not supplied to the engine in the first stream, wherein the first stream is compressed at about 150 to 400 bara in a compressor (13, 13a, 13b) and is branched into the second stream and the third stream, the third stream compressed in the compressor is cooled in a heat exchanger by exchanging heat with the first stream, without employing a reliquefaction apparatus using a separate refrigerant, the third stream cooled in the heat exchanger is decompressed by decompressing means (22,52), and the third stream decompressed by the decompressing means is in a gas-liquid mixed state and both of a gas component and a liquid component of the third stream are returned to the storage tank.
An electrochemical cell packaging material comprising, as layers laminated together, at least: a base material layer formed of a resin film; a thermally adhesive layer arranged as an innermost layer and formed of a thermally adhesive resin; and a barrier layer arranged between the base material layer and the thermally adhesive layer and formed of a metal foil, wherein a chemical conversion treatment layer containing oxide particles and a modified epoxy resin is formed at least on a surface of the barrier layer facing the thermally adhesive layer, characterized in that the oxide particles are alumina particles; on the chemical conversion treatment layer formed on the surface of the barrier layer facing the thermally adhesive layer, an insulating layer containing a modified epoxy resin is laminated, and the insulating layer and the thermally adhesive layer are bonded together via an acid-modified polyolefin resin layer. a base material layer formed of a resin film; a thermally adhesive layer arranged as an innermost layer and formed of a thermally adhesive resin; and a barrier layer arranged between the base material layer and the thermally adhesive layer and formed of a metal foil, wherein a chemical conversion treatment layer containing oxide particles and a modified epoxy resin is formed at least on a surface of the barrier layer facing the thermally adhesive layer, characterized in that the oxide particles are alumina particles; on the chemical conversion treatment layer formed on the surface of the barrier layer facing the thermally adhesive layer, an insulating layer containing a modified epoxy resin is laminated, and the insulating layer and the thermally adhesive layer are bonded together via an acid-modified polyolefin resin layer.
Method for setting, in a wireless cellular telecommunication network, the power of the radio signals transferred by a node and/or of the radio signals transferred by mobile terminals served by the node, the method comprises the steps executed by the node of: - receiving, from at least one neighbouring node, at least one parameter value used by the neighbouring node for setting the power of the radio signals transferred by the neighbouring node and/or of the radio signals transferred by mobile terminals served by the neighbouring node, - determining, at least from the parameter value, a determined parameter value to be used by the node for setting the power of the radio signals transferred by the node and/or a power correction of the radio signal transferred by mobile terminals served by the node, - setting the power of the radio signals transferred by the node and/or the power correction of the radio signals transferred by mobile terminals served by the node according to the determined parameter value, - transferring at least the determined parameter value to the at least one neighbouring node, - transferring, prior the node moves in a state where no mobile terminal may be served by the node, to neighbouring nodes a predetermined value of the parameter value. - receiving, from at least one neighbouring node, at least one parameter value used by the neighbouring node for setting the power of the radio signals transferred by the neighbouring node and/or of the radio signals transferred by mobile terminals served by the neighbouring node, - determining, at least from the parameter value, a determined parameter value to be used by the node for setting the power of the radio signals transferred by the node and/or a power correction of the radio signal transferred by mobile terminals served by the node, - setting the power of the radio signals transferred by the node and/or the power correction of the radio signals transferred by mobile terminals served by the node according to the determined parameter value, - transferring at least the determined parameter value to the at least one neighbouring node, - transferring, prior the node moves in a state where no mobile terminal may be served by the node, to neighbouring nodes a predetermined value of the parameter value.
A method of manufacturing optoelectronic sensors, preferably miniature sensors, in which a plurality of circuit boards connected in a circuit board panel are automatically mounted with electronic components, wherein, after the mounting of the individual circuit boards of the circuit board panel with electronic components, optical and mechanical components (9, 8) that are overmolded and separated are attached to each circuit board of the circuit board panel for a complete setup of an optoelectronic sensor; wherein, after the mounting of all the circuit boards of the circuit board panel with all the components (5, 6, 7, 8, 9) required for the complete setup, the circuit board panel is fastened to a board-like carrier element; and wherein a high temperature resistant board or a metal plate is used as the board-like carrier element which is divided into segments and on which the mounted circuit board panel is placed such that every circuit board carrying an optoelectronic sensor fills up a predefined segment of the high temperature resistant board or metal plate, characterized in that the metal plate or the high temperature resistant board is stamped or bent before the overmolding to form at least one side wall of the sensor module.