mhurhangee/ep-ind-claims huggingface dataset:
A device for mixing a sample, the device comprising: a jig supporting a capless tube such that the capless tube stands upright so as to enable rotation; and a driving unit (120, 220) generating a driving power for the rotation of the capless tube, wherein the jig is configured such that the capless tube is seated on an upper surface of the jig so as to be freely rotatable, and wherein the driving unit (120, 220) is provided at an upper end of the capless tube and includes: a lifting frame configured to be movable up and down; and a first driving source (222a, 222b) moving the lifting frame up and down; characterised in that the driving unit (120, 220) further comprises a gripping head (121, 223) provided at the lifting frame so as to be rotatable and gripping the upper end of the capless tube in close contact therewith; and a second driving source (122, 225a, 225b) rotating the gripping head (121, 223). a jig supporting a capless tube such that the capless tube stands upright so as to enable rotation; and a driving unit (120, 220) generating a driving power for the rotation of the capless tube, wherein the jig is configured such that the capless tube is seated on an upper surface of the jig so as to be freely rotatable, and wherein the driving unit (120, 220) is provided at an upper end of the capless tube and includes: a lifting frame configured to be movable up and down; and a first driving source (222a, 222b) moving the lifting frame up and down; characterised in that the driving unit (120, 220) further comprises a gripping head (121, 223) provided at the lifting frame so as to be rotatable and gripping the upper end of the capless tube in close contact therewith; and a second driving source (122, 225a, 225b) rotating the gripping head (121, 223). a lifting frame configured to be movable up and down; and a first driving source (222a, 222b) moving the lifting frame up and down; characterised in that the driving unit (120, 220) further comprises a gripping head (121, 223) provided at the lifting frame so as to be rotatable and gripping the upper end of the capless tube in close contact therewith; and a second driving source (122, 225a, 225b) rotating the gripping head (121, 223). a gripping head (121, 223) provided at the lifting frame so as to be rotatable and gripping the upper end of the capless tube in close contact therewith; and a second driving source (122, 225a, 225b) rotating the gripping head (121, 223).
A method of producing gasoline from raw hydrocarbon fractions, fractions of gaseous olefins and oxygenates, wherein the feedstock component flow is supplied to a unit for supplying the flows to be processed into a reactor, wherein the reaction is carried out in the presence of a zeolite-containing catalyst, high-octane gasoline is isolated by separation of the conversion product, while diverting simultaneously the reaction water and the exhaust gases, characterized in that (a) as a reactor, a reactor is used, which contains at least two reaction zones with a zeolite-containing catalyst, (b) between which there are further arranged means for mixing the reaction product from the previous reaction zone and the supplied methanol and / or other oxygenates and olefin-containing feedstock, and (c) by means of the unit for supplying flows the methanol and / or other oxygenates and olefin-containing feedstock are separated into at least two flows, wherein a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone. (a) as a reactor, a reactor is used, which contains at least two reaction zones with a zeolite-containing catalyst, (b) between which there are further arranged means for mixing the reaction product from the previous reaction zone and the supplied methanol and / or other oxygenates and olefin-containing feedstock, and (c) by means of the unit for supplying flows the methanol and / or other oxygenates and olefin-containing feedstock are separated into at least two flows, wherein a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone. a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone.
Tyre provided with an external sidewall, said external sidewall comprising at least one elastomeric composition based on: a) an elastomeric matrix comprising at least one diene elastomer, b) a crosslinking system, c) at least one polymer incompatible with the elastomeric matrix, the mixture of this polymer and of the elastomeric matrix exhibiting at least two glass transition temperatures (Tg), the elastomeric composition comprising at least one reinforcing filler, the content of reinforcing filler(s) in the elastomeric composition ranges from 1 to 90 phr. a) an elastomeric matrix comprising at least one diene elastomer, b) a crosslinking system, c) at least one polymer incompatible with the elastomeric matrix, the mixture of this polymer and of the elastomeric matrix exhibiting at least two glass transition temperatures (Tg), the elastomeric composition comprising at least one reinforcing filler, the content of reinforcing filler(s) in the elastomeric composition ranges from 1 to 90 phr.
A method for inducing production of caudalised ventral mesencephalon progenitor cells, comprising: plating embryonic stem cells onto a substrate containing laminin-111, wherein said stem cells are cultured in cell culture mediums to produce said caudalised ventral mesencephalon progenitor cells, wherein said caudalised ventral mesencephalon progenitor cells express high levels of EN1, SPRY1, WNT1, CNPY1, PAX8, ETV5, PAX5, FGF8, SP5, or TLE4, wherein the stem cells are cultured in a primary medium comprising N2 medium, a TGF-β inhibitor, noggin, sonic hedgehog protein, and a GSK3 inhibitor, and which does not contain B27 supplement, wherein the primary medium is removed and a secondary medium is added, the secondary medium comprising N2 medium and a fibroblast growth factor, and which does not contain B27 supplement, wherein the FGF is FGF8b, wherein the substrate consists of intact laminin or fragments of the laminin, wherein the secondary medium is added 156 hours to 228 hours after the plating, wherein the secondary medium is removed and the stem cells are replated, wherein the replating occurs 252 hours to 276 hours after the plating, wherein the replating occurs using a tertiary medium that comprises a B27 medium, a ROCK inhibitor, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid, and/or wherein the stem cells are then cultured in a quaternary medium, the quaternary medium comprising a B27 medium, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid. plating embryonic stem cells onto a substrate containing laminin-111, wherein said stem cells are cultured in cell culture mediums to produce said caudalised ventral mesencephalon progenitor cells, wherein said caudalised ventral mesencephalon progenitor cells express high levels of EN1, SPRY1, WNT1, CNPY1, PAX8, ETV5, PAX5, FGF8, SP5, or TLE4, wherein the stem cells are cultured in a primary medium comprising N2 medium, a TGF-β inhibitor, noggin, sonic hedgehog protein, and a GSK3 inhibitor, and which does not contain B27 supplement, wherein the primary medium is removed and a secondary medium is added, the secondary medium comprising N2 medium and a fibroblast growth factor, and which does not contain B27 supplement, wherein the FGF is FGF8b, wherein the substrate consists of intact laminin or fragments of the laminin, wherein the secondary medium is added 156 hours to 228 hours after the plating, wherein the secondary medium is removed and the stem cells are replated, wherein the replating occurs 252 hours to 276 hours after the plating, wherein the replating occurs using a tertiary medium that comprises a B27 medium, a ROCK inhibitor, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid, and/or wherein the stem cells are then cultured in a quaternary medium, the quaternary medium comprising a B27 medium, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid.
A method of wirelessly transmitting control information, the method comprising: generating control information comprising a plurality of control bits; encoding the control bits using a block code that outputs an encoded bit sequence comprising encoded bits b, b,...,b, wherein encoding the control bits using the block code comprises generating a linear combination of a plurality of basis sequences; dividing the encoded bits into a first group and a second group, wherein the first group comprises the encoded bits { b, b, b, b, b, b, b, b, b, b} and wherein the second group comprises the encoded bits { b, b, b, b, b, b, b, b, b, b}; transmitting the first group of encoded bits on a first set of carriers; and transmitting the second group of encoded bits on a second set of carriers, wherein the second set of carriers have different frequencies from the first set of carriers, wherein each of the plurality of basis sequences comprises a twenty-bit sequence that includes at least one non-zero value in the first ten bits and at least one non-zero value in the second ten bits. generating control information comprising a plurality of control bits; encoding the control bits using a block code that outputs an encoded bit sequence comprising encoded bits b, b,...,b, wherein encoding the control bits using the block code comprises generating a linear combination of a plurality of basis sequences; dividing the encoded bits into a first group and a second group, wherein the first group comprises the encoded bits { b, b, b, b, b, b, b, b, b, b} and wherein the second group comprises the encoded bits { b, b, b, b, b, b, b, b, b, b}; transmitting the first group of encoded bits on a first set of carriers; and transmitting the second group of encoded bits on a second set of carriers, wherein the second set of carriers have different frequencies from the first set of carriers, wherein each of the plurality of basis sequences comprises a twenty-bit sequence that includes at least one non-zero value in the first ten bits and at least one non-zero value in the second ten bits.
Micromechanics-based sensor module with at least one movable structure, at least one active primary transducer for transforming a mechanical signal of the movable structure into an electric signal and an electronic circuit for measured data acquisition of movements of the movable structure, wherein the sensor module comprises besides the active primary transducer, which has to be supplied with auxiliary energy for completing its measuring task, at least one secondary transducer for transforming a mechanical signal of the movable structure into an electric signal, wherein the primary transducer and the secondary transducer are coupled with the electronic circuit, and wherein the secondary transducer is provided as waking generator for the primary transducer and/or the electronic circuit from a resting state to a measuring state is provided, characterized in that the secondary transducer is integrated in the movable structure, wherein the secondary transducer is a passive signal transducer, which can autonomously produce a signal without electric energy, and/or the sensor module comprises a sensor unit, which comprises the primary transducer and the secondary transducer, and then electronic circuit, is formed as integrated chip and the secondary transducer is integrated in a further movable structure in the electronic circuit, wherein the further movable structure is provided in a wiring level of the integrated electronic circuit, wherein the integrated secondary transducer is a passive signal transducer, which can autonomously produce a signal without electric energy.
Floating device for supporting an offshore wind turbine and comprising: - a central floating pillar arranged for fixedly receiving a tower of the wind turbine, - at least three peripheral floaters, - one leg per floater, each leg extending in a radial longitudinal direction in relation to the central pillar and each leg comprising a proximal end that is secured to the central pillar and a distal end that is secured to said floater, an outer tubular element which extends in the longitudinal direction of the leg and has a curved cross-section perpendicularly to the longitudinal direction, the floating device being characterised in that the legs comprise: - an inner tubular element which extends in the longitudinal direction of the leg and has a polygonal cross-section perpendicularly to the longitudinal direction, the polygonal cross-section being inscribed in the curved cross-section. - a central floating pillar arranged for fixedly receiving a tower of the wind turbine, - at least three peripheral floaters, - one leg per floater, each leg extending in a radial longitudinal direction in relation to the central pillar and each leg comprising a proximal end that is secured to the central pillar and a distal end that is secured to said floater, - an inner tubular element which extends in the longitudinal direction of the leg and has a polygonal cross-section perpendicularly to the longitudinal direction, the polygonal cross-section being inscribed in the curved cross-section.
A heating device for one or more components of an extracorporeal circuit of a blood treatment device comprising a reception region for the component; a heating element for heating the component located in the receiver,; an elastically deformable layer; and a flexible layer, characterized in that the heating device has a rigid layer; and the elastically deformable layer is arranged between the rigid layer and the flexible layer, with a layer structure of the heating element being designed such that an outer side of the heating device is formed by the rigid layer which the elastically deformable layer adjoins and such thar the inner layer that can be brought into contact with the component is formed by the flexible layer. a blood treatment device comprising a reception region for the component; a heating element for heating the component located in the receiver,; an elastically deformable layer; and a flexible layer, characterized in that the heating device has a rigid layer; and the elastically deformable layer is arranged between the rigid layer and the flexible layer, with a layer structure of the heating element being designed such that an outer side of the heating device is formed by the rigid layer which the elastically deformable layer adjoins and such thar the inner layer that can be brought into contact with the component is formed by the flexible layer.
Elevator system comprising: an elevator car configured for traveling along a hoistway between a plurality of landings; a reflecting building structure (22, 24) including a ceiling at at least one of the plurality of landings; and at least one passenger sensor provided at at least one of the landings; wherein the at least one passenger sensor is configured for detecting passengers being present within a detection zone defined at the respective landing by detecting a detection signal reflected by the ceiling of the reflecting building structure (22, 24) at the respective landing, and for providing a corresponding sensor signal; characterized in that the at least one passenger sensor comprises at least one emitter configured for emitting a detection signal to be reflected by the ceiling towards the predefined detection zone, and at least one detector configured for detecting a detection signal reflected from at least one of the passengers within the predefined detection zone via the ceiling towards the detector. an elevator car configured for traveling along a hoistway between a plurality of landings; a reflecting building structure (22, 24) including a ceiling at at least one of the plurality of landings; and at least one passenger sensor provided at at least one of the landings; wherein the at least one passenger sensor is configured for detecting passengers being present within a detection zone defined at the respective landing by detecting a detection signal reflected by the ceiling of the reflecting building structure (22, 24) at the respective landing, and for providing a corresponding sensor signal; characterized in that the at least one passenger sensor comprises at least one emitter configured for emitting a detection signal to be reflected by the ceiling towards the predefined detection zone, and at least one detector configured for detecting a detection signal reflected from at least one of the passengers within the predefined detection zone via the ceiling towards the detector.
A catheter comprising: an elongated catheter body having proximal and distal ends and at least one lumen therethrough, the catheter body defining a longitudinal axis; an electrode assembly (18, 118) at the distal end of the catheter body, the electrode assembly having proximal and distal ends and comprising a plurality of spines (120, 20), the spines comprising a plurality of electrodes, each spine comprising a bowed electrode bearing portion and a generally straight distal portion, the bowed portion extending at an angle of 30 degrees to 80 degrees from the generally straight distal portion; an expander (22, 122) having proximal and distal ends (22P and 22D), the expander forming a longitudinal axis of the assembly, the spines attached at their proximal ends to the catheter body and at their distal ends to the expander; at least one puller wire (35, 37) that extends through the expander, the puller wire having a distal end anchored in the expander at a location distal of the distal end of the catheter body and proximal of the distal end of the assembly; and a control handle proximal of the catheter body, the control handle having an actuator adapted to move the at least one puller wire, wherein the expander is adapted for longitudinal movement relative to the catheter body and for deflection relative to the longitudinal axis. an elongated catheter body having proximal and distal ends and at least one lumen therethrough, the catheter body defining a longitudinal axis; an electrode assembly (18, 118) at the distal end of the catheter body, the electrode assembly having proximal and distal ends and comprising a plurality of spines (120, 20), the spines comprising a plurality of electrodes, each spine comprising a bowed electrode bearing portion and a generally straight distal portion, the bowed portion extending at an angle of 30 degrees to 80 degrees from the generally straight distal portion; an expander (22, 122) having proximal and distal ends (22P and 22D), the expander forming a longitudinal axis of the assembly, the spines attached at their proximal ends to the catheter body and at their distal ends to the expander; at least one puller wire (35, 37) that extends through the expander, the puller wire having a distal end anchored in the expander at a location distal of the distal end of the catheter body and proximal of the distal end of the assembly; and a control handle proximal of the catheter body, the control handle having an actuator adapted to move the at least one puller wire, wherein the expander is adapted for longitudinal movement relative to the catheter body and for deflection relative to the longitudinal axis.
A fireproof wooden door plank comprising: two fireproof wooden layers and a mineral sandwich layer, which sandwich layer includes adhesive and is expandable upon being heated, characterized in that the door plank is degradable and environment friendly, the two wooden layers are degradable and made of natural fiber material that includes discarded construction material, discarded wood, bamboo or cartons by mixing with natural starch adhesive, and the mineral sandwich layer with a thickness of 3 mm between the degradable wooden layers is consisted of perlite, the adhesive of the mineral sandwich layer is a mixture of polyvinyl acetate, polyvinyl alcohol and soybean extract and the mineral sandwich layer is expandable upon being heated to a temperature of 280 °C or above.
A thrust reverser torque box assembly comprising: a first fitting having a cross section configuration such that the first fitting is connectable to a first thrust reverser actuation system of an aircraft engine, wherein the first fitting has a general triangular configuration with a triangular hollow interior; a second fitting having a cross section configuration such that the second fitting is connectable to a second thrust reverser actuation system of the aircraft engine, wherein the second fitting has a general triangular configuration with a triangular hollow interior; a tube having a length with opposite first and second ends and a cross section configuration that is different from the cross section configurations of the first and second fittings and is capable of efficiently carrying torsion, the tube first end being connected to the first fitting and the tube second end being connected to the second fitting, wherein the tube has a first transition section at the tube first end, the first transition section having a cross section configuration that transitions from the cross section configuration of the tube to a cross section configuration that matches the cross section configuration of the interior of the first fitting; and wherein the tube has a second transition section at the tube second end, the second transition section having a cross section configuration that transitions from the cross section configuration of the tube to a cross section configuration that matches the cross section configuration of the interior of the second fitting. a first fitting having a cross section configuration such that the first fitting is connectable to a first thrust reverser actuation system of an aircraft engine, wherein the first fitting has a general triangular configuration with a triangular hollow interior; a second fitting having a cross section configuration such that the second fitting is connectable to a second thrust reverser actuation system of the aircraft engine, wherein the second fitting has a general triangular configuration with a triangular hollow interior; a tube having a length with opposite first and second ends and a cross section configuration that is different from the cross section configurations of the first and second fittings and is capable of efficiently carrying torsion, the tube first end being connected to the first fitting and the tube second end being connected to the second fitting, wherein the tube has a first transition section at the tube first end, the first transition section having a cross section configuration that transitions from the cross section configuration of the tube to a cross section configuration that matches the cross section configuration of the interior of the first fitting; and wherein the tube has a second transition section at the tube second end, the second transition section having a cross section configuration that transitions from the cross section configuration of the tube to a cross section configuration that matches the cross section configuration of the interior of the second fitting.