mhurhangee/ep-ind-claims huggingface dataset:
An assembled battery comprising a rectangular battery and a spacer, wherein the rectangular battery comprises a flat winding-type electrode winding having a positive electrode plate including a positive electrode mixture layer, and a negative electrode plate including a negative electrode mixture layer, wound together with a separator between the positive electrode plate and the negative electrode plate, the electrode winding having a flat part with a flat outer surface and two curved parts with curved outer surfaces; a non-aqueous electrolyte; and a battery case containing the electrode winding and the non-aqueous electrolyte, the spacer has a board and multiple ribs protruding from at least one side of the board, the ribs face the flat part of the electrode winding and extend in a direction approximately perpendicular to the winding axis of the electrode winding, when the height of the flat part of the electrode winding is 100, the length of the ribs is 60 or more and 100 or less, when the width of the ribs is A and the interval between the adjacent ribs is B, 2 ≤ B/A ≤ 10, and the assembled battery includes at least one minimum unit of the spacer, the rectangular battery, and the spacer stacked in this order; wherein the negative electrode mixture layer includes a first region located in the flat part of the electrode winding and a second region located in the two curved parts, and the ratio (D/C) of the packing density of the second region to the packing density of the first region is 0.75 or more and 0.98 or less. the rectangular battery comprises a flat winding-type electrode winding having a positive electrode plate including a positive electrode mixture layer, and a negative electrode plate including a negative electrode mixture layer, wound together with a separator between the positive electrode plate and the negative electrode plate, the electrode winding having a flat part with a flat outer surface and two curved parts with curved outer surfaces; a non-aqueous electrolyte; and a battery case containing the electrode winding and the non-aqueous electrolyte, the spacer has a board and multiple ribs protruding from at least one side of the board, the ribs face the flat part of the electrode winding and extend in a direction approximately perpendicular to the winding axis of the electrode winding, when the height of the flat part of the electrode winding is 100, the length of the ribs is 60 or more and 100 or less, when the width of the ribs is A and the interval between the adjacent ribs is B, 2 ≤ B/A ≤ 10, and the assembled battery includes at least one minimum unit of the spacer, the rectangular battery, and the spacer stacked in this order; wherein the negative electrode mixture layer includes a first region located in the flat part of the electrode winding and a second region located in the two curved parts, and the ratio (D/C) of the packing density of the second region to the packing density of the first region is 0.75 or more and 0.98 or less.
Printed circuit board and a connecting terminal (10, 10') having an insulating connecting terminal housing and at least one or at least two clamp contacts (20, 20a, 20b) arranged in the connecting terminal housing for connecting an electrical conductor, wherein a contact element, which in the connecting terminal housing is connected in an electrically conductive manner to one of the clamp contacts or to two clamp contacts (20a, 20b), is guided through a first opening of the connecting terminal housing to the outer side of the connecting terminal housing and, when the connecting terminal is placed onto the printed circuit board, comes into contact with a contact area of the printed circuit board in order to establish an electrical contact between the printed circuit board and the clamp contact or the clamp contacts (20a, 20b), wherein the contact area is arranged on the inner side of a contact opening of the printed circuit board and the contact element has two leaf-spring-like spring elements (32, 34) which are designed to extend away from one another and then towards one another at least in some sections, wherein the distance (d) between the free ends (32a, 34a) of the spring elements (32, 34) is smaller than the diameter of the contact opening when the connecting terminal (10, 10') is not placed on the printed circuit board, and the spring elements (32, 34) are then designed to extend away from one another so that a lead chamfer is formed, wherein the greatest distance (a) between the spring elements (32, 34) is arranged outside of the connecting terminal housing, and wherein the greatest distance (a) between the spring elements (32, 34), when the connecting terminal (10, 10') is not placed on the printed circuit board, is larger than the diameter of the contact opening so that it is possible to achieve reliable contacting between the contact element and the contact area on the inner side of the contact opening, characterized in that the first opening on the outer side of the connecting terminal housing has a rim extending around in sections, said rim having a first section and a second section which are arranged on the rim of the first opening and each adjoin the spring elements (32, 34).
An antibody which comprises a combination of heavy chains and light chains selected from the following possibilities (i) to (ix): (i) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 115 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 122, (ii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 116 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 121, (iii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 117 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 123, (iv) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 119 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 126, (v) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 118 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 125, (vi) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 124, (vii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 127, (viii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 128, and (ix) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 129. (i) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 115 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 122, (ii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 116 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 121, (iii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 117 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 123, (iv) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 119 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 126, (v) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 118 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 125, (vi) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 124, (vii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 127, (viii) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 128, and (ix) the heavy chain comprises an amino acid sequence represented by SEQ ID NO: 120 and the light chain comprises an amino acid sequence represented by SEQ ID NO: 129.
A current detecting circuit, comprising: a shunt resistor R1; an amplifier; a first signal line L1 connecting a first terminal of the shunt resistor to a first input terminal Vn of the amplifier; a second signal line L2 connecting a second terminal of the shunt resistor to a second input terminal Vp of the amplifier; and a third signal line L3 connecting the second terminal of the shunt resistor to a first power supply terminal Vee of the amplifier, wherein the first power supply terminal is a ground terminal, characterised in that: a pattern of the third signal line is arranged between a pattern of the first signal line and a pattern of the second signal line, and a distance between the third signal line L3 and the first signal line L1 and a distance between the third signal line L3 and the second signal line L2 are substantially the same. a shunt resistor R1; an amplifier; a first signal line L1 connecting a first terminal of the shunt resistor to a first input terminal Vn of the amplifier; a second signal line L2 connecting a second terminal of the shunt resistor to a second input terminal Vp of the amplifier; and a third signal line L3 connecting the second terminal of the shunt resistor to a first power supply terminal Vee of the amplifier, wherein the first power supply terminal is a ground terminal, characterised in that: a pattern of the third signal line is arranged between a pattern of the first signal line and a pattern of the second signal line, and a distance between the third signal line L3 and the first signal line L1 and a distance between the third signal line L3 and the second signal line L2 are substantially the same. a pattern of the third signal line is arranged between a pattern of the first signal line and a pattern of the second signal line, and a distance between the third signal line L3 and the first signal line L1 and a distance between the third signal line L3 and the second signal line L2 are substantially the same.
Optical pressure display device comprising a pointer mechanically movable along a display path, which pointer is adjustable, in accordance with a control pressure (p) applied via a pressure connector, for display of an absolute pressure in such a way that a slow variation of the pressure induces a change of the position of said pointer, which is swift at least in sections, with a spring-biased snap mechanism being provided for a swift change of the position of said pointer, which includes a setting piston that causes a plunger coupled to said pointer and starting out from said setting piston to perform said swift change of position when a trigger position has been reached that is generated by the application of the control pressure, characterised in that said snap mechanism comprises a first lever articulated on the end side of said plunger and mounted on a weighing bearing, which lever is connected via a spring on the side of the distal end of a second lever that is equally mounted on a weighing bearing, whose distal end moves said pointer.
A front projection screen for receiving projection light from a projector and providing a projected image to a viewer, wherein the projection screen comprises a base layer, a cylindrical lens layer formed on a side of the base layer close to the viewer, a Fresnel structure formed on a side of the base layer facing away from the viewer and comprising a first side facing the base layer and a threaded surface opposite to the first side, a reflective layer formed on the threaded surface of the Fresnel structure, and a light-absorbing layer formed on a side of the reflective layer facing away from the Fresnel structure, the reflective layer comprising reflective particles and a binder bonded to the reflective particles; the reflective layer is configured to scatter and reflect, in a solid angle range corresponding to a particle size of the reflective particles, incident light incident from the Fresnel structure, to form reflected light; the cylindrical lens layer comprises a plurality of cylindrical lenses each having a longitudinal axis perpendicular to a horizontal direction and scattering light from the Fresnel structure to increase a viewing angle of the projection screen in the horizontal direction; and the light-absorbing layer is configured to absorb ambient light transmitted through the reflective layer, wherein the reflective layer and the light-absorbing layer sequentially completely cover the threaded surface of the Fresnel structure, wherein the particle size of the reflective particles is in a range of 0.02μm to 5μm, and the solid angle varies correspondingly in a range of 5 degrees to 15 degrees.
A method of analyzing one or more target nucleic acid sequences of a single cell comprising: delivering a bead using an emulsion or liposomes to a single cell, wherein the bead comprises an oligonucleotide attached thereto, the oligonucleotide comprising a sequencing primer region, a barcode, and an annealing primer region, wherein the barcode in the oligonucleotide is unique for the single cell, and wherein the annealing primer region comprises a sequence complementary to a target nucleic acid sequence and anneals to the target nucleic acid sequence of the single cell. delivering a bead using an emulsion or liposomes to a single cell, wherein the bead comprises an oligonucleotide attached thereto, the oligonucleotide comprising a sequencing primer region, a barcode, and an annealing primer region, wherein the barcode in the oligonucleotide is unique for the single cell, and wherein the annealing primer region comprises a sequence complementary to a target nucleic acid sequence and anneals to the target nucleic acid sequence of the single cell. wherein the barcode in the oligonucleotide is unique for the single cell, and wherein the annealing primer region comprises a sequence complementary to a target nucleic acid sequence and anneals to the target nucleic acid sequence of the single cell.
A construction machine, in particular a crane, having an electronic control apparatus for controlling and/or detecting operating parameters and having at least one drive device for moving a functional element, in particular a load receiving means, wherein a detection device is provided for detecting manually carried out manipulation forces and/or manual movements that are exerted on the functional element and/or that are carried out at the functional element, with the control apparatus being configured to control the at least one drive device in dependence on the detected manipulation force and/or manipulation movement, characterized in that the detection device has a travel control module that is positionable at the functional element of the construction machine and/or at a component to be traveled that is received therein and that has at least one operating element for inputting control commands in dependence on which the functional element is travelable by the control device.
An energy delivery system for delivering energy from an energy supply unit to a target region beneath a surface of tissue, the device comprising: a device body having a handle, and a tissue engaging surface, where the tissue engaging surface allows orientation of the device body on the surface of tissue; and a plurality of energy transfer units being advanceable from the device body at an oblique angle relative to a tissue engaging surface, where each energy transfer unit comprises a pair of probes configured to transfer energy to a region of tissue; characterized in that the energy delivery system comprises an independent proportional integral derivative controller configured to control an input voltage between a pair of the probes, wherein the energy delivery system is configured to monitor an initial impedance of the tissue and the independent proportional integral derivative controller is configured to use an algorithm to control the input voltage between said pair of probes, wherein the controlled voltage is given by the following equation: V = k p ⋅ T set − T measured + k l ⋅ ∫ T set − T measured dt + k d ⋅ ∂ T set − T measured ∂ t where k p, k i, and k d are constants, T set is a set point temperature, and T measured is a measured temperature. a device body having a handle, and a tissue engaging surface, where the tissue engaging surface allows orientation of the device body on the surface of tissue; and a plurality of energy transfer units being advanceable from the device body at an oblique angle relative to a tissue engaging surface, where each energy transfer unit comprises a pair of probes configured to transfer energy to a region of tissue; characterized in that the energy delivery system comprises an independent proportional integral derivative controller configured to control an input voltage between a pair of the probes, wherein the energy delivery system is configured to monitor an initial impedance of the tissue and the independent proportional integral derivative controller is configured to use an algorithm to control the input voltage between said pair of probes, wherein the controlled voltage is given by the following equation: V = k p ⋅ T set − T measured + k l ⋅ ∫ T set − T measured dt + k d ⋅ ∂ T set − T measured ∂ t where k p, k i, and k d are constants, T set is a set point temperature, and T measured is a measured temperature.
A reinforced film or foam having a first end and a second end, wherein said film comprises: (a) a matrix comprising a first thermoplastic material, (b) at least one or more channels disposed in parallel in said matrix from the first end to the second end of said film, wherein said one or more channels are at least 1 μm apart from each other, and wherein each said one or more channels have a diameter in the range of at least 1 μm; and (c) said one or more channels are filled with a second thermoplastic material, wherein said second thermoplastic material is different than the first thermoplastic material; wherein said film has a thickness in the range of from 2 μm to 2000 μm. (a) a matrix comprising a first thermoplastic material, (b) at least one or more channels disposed in parallel in said matrix from the first end to the second end of said film, wherein said one or more channels are at least 1 μm apart from each other, and wherein each said one or more channels have a diameter in the range of at least 1 μm; and (c) said one or more channels are filled with a second thermoplastic material,
Sealing tape roll of a sealing tape made of soft, compressible foam with internal barrier layers (3, 4); wherein the sealing tape has a top side, a bottom side and two side flanks (10, 12), connecting the top side and the bottom side, and has a longitudinal direction which is oriented parallel to the bottom side and to the side flanks (10, 12); wherein the sealing tape is wound up about an axis, which extends transversely with respect to the longitudinal direction of the sealing tape, to form the sealing tape roll in such a manner that the top side of a winding bears against the bottom side of an adjacent winding of the sealing tape roll and the side flanks (10, 12) of the sealing tape form end faces (16, 18) of the sealing tape roll, wherein a width of the sealing tape roll is defined as the distance of an end face from the opposite end face of the sealing tape roll; wherein the sealing tape has at least one first barrier layer which extends parallel to the side flanks (10, 12) in the longitudinal direction of the sealing tape; characterized in that the sealing tape comprises a plurality of second barrier layers which extends over at least 50% of the width of the sealing tape roll between the mutually opposite end faces (16, 18) of the sealing tape roll; and the sealing tape has a plurality of sealing tape portions which are arranged one behind another in the longitudinal direction in an unwound state of the sealing tape, wherein one second barrier layer of the plurality of second barrier layers is arranged between respectively two mutually adjacent sealing tape portions of the plurality of sealing tape portions.
Method for producing a coated solid carbide milling cutter with the steps in which a substrate consisting of carbide is provided with a multi-layer coating in a PVD process at least on the surface areas that come into contact with a workpiece during the milling operation, wherein the multi-layer coating comprises a single-layer or multi-layer functional layer that is deposited directly on the substrate surface and a single-layer or multi-layer covering layer deposited on top of said functional layer, wherein the functional layer is deposited by means of high power impulse magnetron sputtering (HIPIMS) in one or more layers of Ti x Al 1-x N with 0.3≤X≤0.55 with an overall thickness of 1 μm to 15 μm and the covering layer is deposited by means of high power impulse magnetron sputtering (HIPIMS) in one or more layers of ZrN with an overall thickness of 50 nm to 1 μm, wherein, during the deposition of the functional layer, each sputtering target of material to be deposited is subjected in the coating chamber to power pulses, which transfer an amount of energy to the sputtering target that exceeds a maximum power density in the pulse of ≥ 500 W/cm 2.
A disassemblable and stackable crate comprising: four sides (1,1',2,2') consisting of two longitudinal members (1,1') opposite one another and two end members (2,2') opposite one another; a bottom; and four blocks located in each of the corners forming the crate; wherein each of the blocks comprises a vertex, an inner face, and two outer faces, wherein said faces (42, 43) correspond respectively with the projection of the hypotenuse and of the catheti of a triangle forming the configuration of the block; and wherein the crate comprises fastening means located on the outer faces of the blocks and passing through to tabs (1a, 2a) of each longitudinal member (1,1') and each end member (2,2'), characterized in that the inner face of each block comprises at least two elongated mounting holes where each of the elongated mounting holes dimensionally corresponds with said tabs (1a, 2a) of each longitudinal member (1,1') and each end member (2,2'); and where said tabs (1a,2a) are housed in the elongated mounting holes of the blocks. four sides (1,1',2,2') consisting of two longitudinal members (1,1') opposite one another and two end members (2,2') opposite one another; a bottom; and four blocks located in each of the corners forming the crate; wherein each of the blocks comprises a vertex, an inner face, and two outer faces, wherein said faces (42, 43) correspond respectively with the projection of the hypotenuse and of the catheti of a triangle forming the configuration of the block; and wherein the crate comprises fastening means located on the outer faces of the blocks and passing through to tabs (1a, 2a) of each longitudinal member (1,1') and each end member (2,2'), characterized in that the inner face of each block comprises at least two elongated mounting holes where each of the elongated mounting holes dimensionally corresponds with said tabs (1a, 2a) of each longitudinal member (1,1') and each end member (2,2'); and where said tabs (1a,2a) are housed in the elongated mounting holes of the blocks.