mhurhangee/ep-ind-claims huggingface dataset:
A weaving loom comprising at least one main shaft with a crank drive, a warp thread feeder, a weaving site with a shed forming device for forming a shed, a reed, a weft thread insertion device with a weft needle and a weft shaft lever, wherein the weft thread insertion device is cooperatively connected to the the main shaft of the weaving loom by means of the crank drive, characterized in that a knee lever system is arranged between the crank drive and the weft shaft lever and that the weft thread insertion device further comprises a second lever system for driving the weft needle, wherein the movement of the weft needle is changed by the action of the knee lever in such manner that, the weft needle enters into the shed in a delayed manner and/or exits therefrom in an advanced manner.
A method comprising: applying one or more of a tape or a sealant along an interior of a recess of a vehicle to move through a fluid, the recess being defined between the surface of a first panel of the vehicle and the surface of a second panel of the vehicle, the recess having a first edge defined by the first panel and a second edge defined by the second panel, each of the edges having a respective height; and leveling the one or more of the tape or the sealant to a first height at the first edge of the recess, and a second height at the second edge of the recess to modify a fluid dynamic property of a fluid flow over the vehicle, wherein the first height meets a first tolerance range and the second height meets a second tolerance range, the first tolerance range and the second tolerance range representing the allowable difference between the height of the one or more of the tape or the sealant and the height of the adjacent surface of the first panel and the height of the adjacent surface of the second panel, respectively, the first tolerance range and the second tolerance range being different. applying one or more of a tape or a sealant along an interior of a recess of a vehicle to move through a fluid, the recess being defined between the surface of a first panel of the vehicle and the surface of a second panel of the vehicle, the recess having a first edge defined by the first panel and a second edge defined by the second panel, each of the edges having a respective height; and leveling the one or more of the tape or the sealant to a first height at the first edge of the recess, and a second height at the second edge of the recess to modify a fluid dynamic property of a fluid flow over the vehicle, wherein the first height meets a first tolerance range and the second height meets a second tolerance range, the first tolerance range and the second tolerance range representing the allowable difference between the height of the one or more of the tape or the sealant and the height of the adjacent surface of the first panel and the height of the adjacent surface of the second panel, respectively, the first tolerance range and the second tolerance range being different.
Tufting machine, comprising ▪ a frame, ▪ a drive unit which is designed to move the frame on a base at least in a forward direction, and ▪ a tufting unit which is designed to insert a number of yarn strands into the substrate during a respective tufting operation, characterized in that the tufting machine has a horizontal movement unit which is designed to move the tufting unit relative to the frame during a tufting operation at least counter to the forward direction. ▪ a frame, ▪ a drive unit which is designed to move the frame on a base at least in a forward direction, and ▪ a tufting unit which is designed to insert a number of yarn strands into the substrate during a respective tufting operation,
A co-crystal of a sodium benzoate compound and a co-former, wherein the co-former is a compound of Formula: in which L is alkyl, carbocyclyl, C=C, C=C-C=C, C=C, or absent; A is alkyl, carbocyclyl, aryl, or heteroaryl; and X=O or N-B, B being H, alkyl, carbocyclyl, aryl, or heteroaryl; provided that when L is absent, A is pyridyl and X is O. L is alkyl, carbocyclyl, C=C, C=C-C=C, C=C, or absent; A is alkyl, carbocyclyl, aryl, or heteroaryl; and X=O or N-B, B being H, alkyl, carbocyclyl, aryl, or heteroaryl; provided that when L is absent, A is pyridyl and X is O.
An exhaust system for an internal combustion engine, the exhaust system comprising - at least one turbocharger, - an exhaust duct for conducting exhaust gases out of the cylinders of the engine, - a catalytic converter that is arranged downstream from the turbine of the turbocharger for selective catalytic reduction, - a mixing space (1, 2) that is arranged apart from the exhaust duct and in fluid communication with a source of pressurized gas (3, 6), and - means (10, 13) for introducing reducing agent into the mixing space (1, 2), the mixing space (1, 2) being in fluid communication with the exhaust duct of the engine for introducing the mixture of the reducing agent and the pressurized gas into the exhaust duct upstream from the turbine of the turbocharger, characterized in that the source of pressurized gas (3, 6) is an exhaust manifold or an intake duct of the engine. - at least one turbocharger, - an exhaust duct for conducting exhaust gases out of the cylinders of the engine, - a catalytic converter that is arranged downstream from the turbine of the turbocharger for selective catalytic reduction, - a mixing space (1, 2) that is arranged apart from the exhaust duct and in fluid communication with a source of pressurized gas (3, 6), and - means (10, 13) for introducing reducing agent into the mixing space (1, 2),
A Na based secondary battery comprising: an anode containing sodium or a sodium alloy; a cathode containing metal halide, which is a halide of at least one metal selected from a group consisting of alkali metals, transition metals, and Groups 12 to 14 metals, and a solvent dissolving the metal halide, wherein the solvent is a non-aqueous organic solvent, ionic liquid, or mixture thereof; and wherein: the secondary battery is charged by a charge reaction according to Reaction Formula 1 and discharged by a discharge reaction according to Reaction Formula 2, whereby Reaction Formula 1 is: mNaX+M → mNa+MX m and Reaction Formula 2 is: mNaX+M ← mNa+MX m where M is at least one metal selected from a group consisting of the transition metals and Groups 12 to 14 metals, X is a halogen atom, and m is a natural number of 1 to 4; wherein the secondary battery has an operation temperature from room temperature to 200°C; characterized in that the secondary battery comprises a Na super ionic conductor solid electrolyte separating the cathode and the anode from each other; and the secondary battery comprises a liquid-state cathode in which sodium halide, represented by NaX, and metal halide, represented by MX m, of Reaction Formulas 1 and 2 are dissolved at the time of charging and discharging the battery. an anode containing sodium or a sodium alloy; a cathode containing metal halide, which is a halide of at least one metal selected from a group consisting of alkali metals, transition metals, and Groups 12 to 14 metals, and a solvent dissolving the metal halide, wherein the solvent is a non-aqueous organic solvent, ionic liquid, or mixture thereof; and the secondary battery is charged by a charge reaction according to Reaction Formula 1 and discharged by a discharge reaction according to Reaction Formula 2, whereby Reaction Formula 1 is: mNaX+M → mNa+MX m and Reaction Formula 2 is: mNaX+M ← mNa+MX m where M is at least one metal selected from a group consisting of the transition metals and Groups 12 to 14 metals, X is a halogen atom, and m is a natural number of 1 to 4; wherein the secondary battery has an operation temperature from room temperature to 200°C; characterized in that the secondary battery comprises a Na super ionic conductor solid electrolyte separating the cathode and the anode from each other; and the secondary battery comprises a liquid-state cathode in which sodium halide, represented by NaX, and metal halide, represented by MX m, of Reaction Formulas 1 and 2 are dissolved at the time of charging and discharging the battery.
A lamp for a vehicle, comprising: a light generation unit configured to generate light; and a lens configured to change an optical path of light generated by the light generation unit, wherein the light generation unit comprises a plurality of array modules, each array module comprising a plurality of micro Light Emitting Diode, LED, devices, and wherein the plurality of array modules are arranged in a stacked configuration, wherein the light generation unit further comprises a base that supports the plurality of array modules, characterized in that, the plurality of array modules comprise a first plurality of array modules that are stacked at a first side of an optical axis of the lens, and a second plurality of array modules that are stacked at a second side of the optical axis that is different than the first side, wherein the base comprises holes configured to allow light generated by the plurality of array modules to pass through, wherein the holes are configured to allow light, which is generated by the first plurality of array modules, to pass through in a direction toward the second side of the optical axis, and wherein the holes are configured to allow light, which is generated by the second plurality of array modules, to pass through in a direction toward the first side of the optical axis. a light generation unit configured to generate light; and a lens configured to change an optical path of light generated by the light generation unit, wherein the light generation unit comprises a plurality of array modules, each array module comprising a plurality of micro Light Emitting Diode, LED, devices, and wherein the plurality of array modules are arranged in a stacked configuration, wherein the light generation unit further comprises a base that supports the plurality of array modules, characterized in that, the plurality of array modules comprise a first plurality of array modules that are stacked at a first side of an optical axis of the lens, and a second plurality of array modules that are stacked at a second side of the optical axis that is different than the first side, wherein the base comprises holes configured to allow light generated by the plurality of array modules to pass through, wherein the holes are configured to allow light, which is generated by the first plurality of array modules, to pass through in a direction toward the second side of the optical axis, and wherein the holes are configured to allow light, which is generated by the second plurality of array modules, to pass through in a direction toward the first side of the optical axis.
An optical engine for use in a bench top flow cytometer comprising a flow cell, the optical engine comprising: a) a set of multiple lasers, each tuned to a wavelength suited for excitation of fluorescent molecules, wherein light from each of the lasers is focused horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position along a same excitation plane, wherein the same horizontal position along the excitation plane intersects a flow path through a flow cell of a flow cytometer; b) a set of optics comprising collection optics (152, 154) for collecting fluorescence emitted from the flow cell and filtration optics that filter the emitted fluorescence from the flow cell into different wavelength ranges, wherein the set of optics further separate the fluorescence of a same wavelength range into different locations in a focal plane of the collection optics (152, 154) according to the different lasers by which the fluorescent light is excited; and c) a detector that selectively detects light from the different locations thereby distinguishing between fluorescence emitted within the same wavelength range as excited by different lasers within the set of lasers and converts light to an electrical signal, wherein the detector is multi-pixel photon counter (MPPC) or silicon photomultiplier (SiPM), wherein the MPPC or SiPM is operated with a linear dynamic range above 3 decades, optionally above 4 decades under a single operational voltage. a) a set of multiple lasers, each tuned to a wavelength suited for excitation of fluorescent molecules, wherein light from each of the lasers is focused horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position along a same excitation plane, wherein the same horizontal position along the excitation plane intersects a flow path through a flow cell of a flow cytometer; b) a set of optics comprising collection optics (152, 154) for collecting fluorescence emitted from the flow cell and filtration optics that filter the emitted fluorescence from the flow cell into different wavelength ranges, wherein the set of optics further separate the fluorescence of a same wavelength range into different locations in a focal plane of the collection optics (152, 154) according to the different lasers by which the fluorescent light is excited; and c) a detector that selectively detects light from the different locations thereby distinguishing between fluorescence emitted within the same wavelength range as excited by different lasers within the set of lasers and converts light to an electrical signal, wherein the detector is multi-pixel photon counter (MPPC) or silicon photomultiplier (SiPM), wherein the MPPC or SiPM is operated with a linear dynamic range above 3 decades, optionally above 4 decades under a single operational voltage.
A CD27 receptor agonist protein comprising a single-chain fusion polypeptide comprising: (i) a first soluble CD27L domain, (ii) a first peptide linker, (iii) a second soluble CD27L domain, (iv) a second peptide linker, and (v) a third soluble CD27L domain, and (vi) a hinge-linker selected from the group consisting of SEQ ID NOs: 16 and 19-24, and (vii) an antibody Fc fragment, wherein the antibody Fc fragment (vii) consists of the amino acid sequence as shown in SEQ ID NO: 13 or amino acids 1-217 of SEQ ID NO: 13, wherein the first and second peptide linkers (ii) and (iv) independently have a length of 3-8 amino acids, particularly a length of 3, 4, 5, 6, 7 or 8 amino acids, and preferably are glycine/serine linkers, optionally comprising an asparagine residue which may be glycosylated, wherein the soluble CD27L domains each comprise a stalk free CD27 receptor binding site, in particular wherein the antibody Fc fragment (vii) is fused to the C-terminal end of the third CD27L domain (v) via the hinge-linker (vi) (i) a first soluble CD27L domain, (ii) a first peptide linker, (iii) a second soluble CD27L domain, (iv) a second peptide linker, and (v) a third soluble CD27L domain, and (vi) a hinge-linker selected from the group consisting of SEQ ID NOs: 16 and 19-24, and (vii) an antibody Fc fragment, wherein the antibody Fc fragment (vii) consists of the amino acid sequence as shown in SEQ ID NO: 13 or amino acids 1-217 of SEQ ID NO: 13, wherein the first and second peptide linkers (ii) and (iv) independently have a length of 3-8 amino acids, particularly a length of 3, 4, 5, 6, 7 or 8 amino acids, and preferably are glycine/serine linkers, optionally comprising an asparagine residue which may be glycosylated, wherein the soluble CD27L domains each comprise a stalk free CD27 receptor binding site, in particular wherein the antibody Fc fragment (vii) is fused to the C-terminal end of the third CD27L domain (v) via the hinge-linker (vi)
A manufacturing method of a tank including a tubular body portion, and dome-shaped side end portions (3, 4) formed on both sides of the body portion, the manufacturing method comprising: forming a tubular compact serving as at least part of the body portion from one fiber reinforced resin sheet by winding the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin several times around a peripheral surface of a core from a direction perpendicular to an axial center of the core in a state where the thermoplastic resin is melted, characterized in that the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin is prepared in advance, the fiber reinforced resin sheet is subsequently heated to a temperature of a softening point of the thermoplastic resin or higher before being wound on the peripheral surface of the core, and, in a state where the thermoplastic resin in the fiber reinforced resin sheet is melted, the fiber reinforced resin sheet is wound several times around the peripheral surface of the core. forming a tubular compact serving as at least part of the body portion from one fiber reinforced resin sheet by winding the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin several times around a peripheral surface of a core from a direction perpendicular to an axial center of the core in a state where the thermoplastic resin is melted, characterized in that the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin is prepared in advance, the fiber reinforced resin sheet is subsequently heated to a temperature of a softening point of the thermoplastic resin or higher before being wound on the peripheral surface of the core, and, in a state where the thermoplastic resin in the fiber reinforced resin sheet is melted, the fiber reinforced resin sheet is wound several times around the peripheral surface of the core.
A method, comprising: providing an electrochemical test strip with a mediator system and electrodes; introducing body fluid to the mediator system and in contact with electrodes of the test strip; applying an excitation potential difference of at least 300 mV between the electrodes of the test strip and across the body fluid, determining analyte concentration in the body fluid based on an electrical response to said excitation potential difference; and wherein said applying the excitation potential difference is performed by a meter having a slew rate capability, and wherein the slew rate at which the meter applies the excitation potential difference is slower than the slew rate capability of the meter; and characterized by that the excitation potential difference has a transition time of from 100 μs to less than 5 msec, and the application of the excitation potential difference has a linear ramp waveform. providing an electrochemical test strip with a mediator system and electrodes; introducing body fluid to the mediator system and in contact with electrodes of the test strip; applying an excitation potential difference of at least 300 mV between the electrodes of the test strip and across the body fluid, determining analyte concentration in the body fluid based on an electrical response to said excitation potential difference; and wherein said applying the excitation potential difference is performed by a meter having a slew rate capability, and wherein the slew rate at which the meter applies the excitation potential difference is slower than the slew rate capability of the meter; and characterized by that the excitation potential difference has a transition time of from 100 μs to less than 5 msec, and the application of the excitation potential difference has a linear ramp waveform.
A display device comprising: a display panel having a front surface to which an image is output and a rear surface having a first area and a second area, and enabling bending deformation; a plurality of chips arranged in the first area; a plurality of exciters arranged on the rear surface of the display panel, generating sound by vibrating the display panel; a plurality of vibration brackets, each respectively arranged between the plurality of exciters and the display panel, configured to transfer vibration of the exciters to the display panel; a controller controlling the display panel and the plurality of exciters; and a frame to which the display panel is fixed, wherein each vibration bracket has a front surface adjoining the second area of the rear surface of the display panel, in which the chips are not formed, and a rear surface adjoining the respective exciter, and each vibration bracket further includes a first vane arranged in the second area and extended in a direction of adjacent vibration brackets. a display panel having a front surface to which an image is output and a rear surface having a first area and a second area, and enabling bending deformation; a plurality of chips arranged in the first area; a plurality of exciters arranged on the rear surface of the display panel, generating sound by vibrating the display panel; a plurality of vibration brackets, each respectively arranged between the plurality of exciters and the display panel, configured to transfer vibration of the exciters to the display panel; a controller controlling the display panel and the plurality of exciters; and a frame to which the display panel is fixed, wherein each vibration bracket has a front surface adjoining the second area of the rear surface of the display panel, in which the chips are not formed, and a rear surface adjoining the respective exciter, and each vibration bracket further includes a first vane arranged in the second area and extended in a direction of adjacent vibration brackets.
An assembly for a turbocharger, the assembly comprising: a compressor housing; an adjustable wall disposed within the compressor housing that defines an air inlet to an inducer portion of a compressor wheel; and adjustment mechanisms; characterized in that, the adjustment mechanisms comprise a first adjustment mechanism that adjusts the adjustable wall to define a diameter of the air inlet and an angle of the adjustable wall leading to the air inlet and a second adjustment mechanism that acts cooperatively with the first adjustment mechanism to define the angle of the adjustable wall. a compressor housing; an adjustable wall disposed within the compressor housing that defines an air inlet to an inducer portion of a compressor wheel; and adjustment mechanisms; characterized in that, the adjustment mechanisms comprise a first adjustment mechanism that adjusts the adjustable wall to define a diameter of the air inlet and an angle of the adjustable wall leading to the air inlet and a second adjustment mechanism that acts cooperatively with the first adjustment mechanism to define the angle of the adjustable wall.