mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device comprising: a semiconductor chip (7,8); a first conductive member for supporting the semi-conductor chip (7,8); a second conductive member arranged above the semi-conductor chip (7,8) and facing the conductive member spaced apart therefrom, a resin package that seals the semiconductor chip (7,8), the first conductive member and the second conductive member so as to get into a space between the conductive member and the second conductive member; a joint material provided between the first conductive member and the semiconductor chip (7,8); and a release groove formed on the surface of the first conductive member and arranged away from the semi-conductor chip (7,8) with the one end and the other end thereof connected to peripheral edges of the first conductive member, respectively, the first conductive member has end surfaces forming the peripheral edges, and the one end and the other end of the release groove are opened at the end surfaces, respectively, a stepped structure formed on the lateral surface of the release groove, wherein the stepped structure is formed by partitioning the release groove into a plurality of stages in the depth direction, the stepped structure extending from the one end to the other end of the release groove, wherein a plurality of the release grooves is formed on the surface of the first conductive member, and the semiconductor chip (7,8) is arranged in a chip area sandwiched between the plurality of the release grooves. a semiconductor chip (7,8); a first conductive member for supporting the semi-conductor chip (7,8); a second conductive member arranged above the semi-conductor chip (7,8) and facing the conductive member spaced apart therefrom, a resin package that seals the semiconductor chip (7,8), the first conductive member and the second conductive member so as to get into a space between the conductive member and the second conductive member; a joint material provided between the first conductive member and the semiconductor chip (7,8); and a release groove formed on the surface of the first conductive member and arranged away from the semi-conductor chip (7,8) with the one end and the other end thereof connected to peripheral edges of the first conductive member, respectively, the first conductive member has end surfaces forming the peripheral edges, and the one end and the other end of the release groove are opened at the end surfaces, respectively, a stepped structure formed on the lateral surface of the release groove, wherein the stepped structure is formed by partitioning the release groove into a plurality of stages in the depth direction, the stepped structure extending from the one end to the other end of the release groove, wherein a plurality of the release grooves is formed on the surface of the first conductive member, and the semiconductor chip (7,8) is arranged in a chip area sandwiched between the plurality of the release grooves.
A sheath flow device comprising: (a) a first laminar buffer flow establishing surface upstream of a sheath flow plane area; (b) a sample laminar flow establishing surface parallel to the sheath flow plane area and upstream of a sample sheath flow plane area; (c) a particle sorting station configured to deflect a target species from a sample laminar flow, wherein the station employs a magnetic force and is adapted for magnetophoretic particle separation, wherein the station has a substantially rectangular interior space for bounding fluid flowing through sorting station, and wherein the interior space has first and second lateral dimensions transverse to the sample stream's direction of flow, and wherein the second lateral dimension is at least 2 times larger than the first lateral dimension; wherein the interior space is defined, in part, by two substantially parallel and substantially planar surfaces separated by a distance not greater than 2 millimeters, and the at least one sheath flow inlet channel is configured to provide two sheath streams flowing in contact with the two parallel planar surfaces and separated from one another by the sample stream; and (d) a second laminar buffer flow establishing surface upstream of a second sheath flow plane area; wherein the laminar flow establishing surfaces in (a) (b) and (d) are sufficient to maintain separate sheath flow planes substantially free of turbulent flow, wherein the sample laminar flow is established by the sample laminar flow establishing surface and the sheath laminar flow is established in the sheath flow plane area; and wherein the sample laminar flow establishing surface of subpart (b) has a top and a bottom surface, and the second laminar buffer flow surface of subpart (d) is located on the surface opposite that used for sample laminar flow. (a) a first laminar buffer flow establishing surface upstream of a sheath flow plane area; (b) a sample laminar flow establishing surface parallel to the sheath flow plane area and upstream of a sample sheath flow plane area; (c) a particle sorting station configured to deflect a target species from a sample laminar flow, wherein the station employs a magnetic force and is adapted for magnetophoretic particle separation, wherein the station has a substantially rectangular interior space for bounding fluid flowing through sorting station, and wherein the interior space has first and second lateral dimensions transverse to the sample stream's direction of flow, and wherein the second lateral dimension is at least 2 times larger than the first lateral dimension; wherein the interior space is defined, in part, by two substantially parallel and substantially planar surfaces separated by a distance not greater than 2 millimeters, and the at least one sheath flow inlet channel is configured to provide two sheath streams flowing in contact with the two parallel planar surfaces and separated from one another by the sample stream; and (d) a second laminar buffer flow establishing surface upstream of a second sheath flow plane area;
A no-clean resin-based flux for a lead-free solder containing resin as a base component, an activator, and at least one compound selected from acid phosphate esters and derivatives thereof in an organic polar solvent, the content of the compound selected from acid phosphate esters and derivatives thereof is 0.2 - 4 mass % with respect to 100 % of a flux including the solvent.
A method to reduce the power consumption of switching circuits by applying charge sharing/reuse on capacitive loads, the method comprising the steps of: providing a switching or logic circuitry comprising two or more units, wherein inputs of the units comprise either differential input signals or uncorrelated input signals, wherein each unit has an output capacitive means (C L) and wherein one terminal of said output capacitive means (C L) is connected to ground; and stacking the units of the circuitry in a way that, if an output potential (Vout) of an unit of said units is to be lowered, a charge of this unit, whose potential is to be lowered, flowing out of the output node of this unit is either used right away to lift the potential of an output node (Vout) of a neighboring unit of said units, whose potential is to be lifted, or flows in case of uncorrelated input signals (Vin1, Vin2) into a storage element (Cstor, 50) for subsequent use by the neighboring unit. providing a switching or logic circuitry comprising two or more units, wherein inputs of the units comprise either differential input signals or uncorrelated input signals, wherein each unit has an output capacitive means (C L) and wherein one terminal of said output capacitive means (C L) is connected to ground; and stacking the units of the circuitry in a way that, if an output potential (Vout) of an unit of said units is to be lowered, a charge of this unit, whose potential is to be lowered, flowing out of the output node of this unit is either used right away to lift the potential of an output node (Vout) of a neighboring unit of said units, whose potential is to be lifted, or flows in case of uncorrelated input signals (Vin1, Vin2) into a storage element (Cstor, 50) for subsequent use by the neighboring unit.
Current sensor element comprising: at least one resistance section comprising a resistance material having a first specific electrical conductivity and a first temperature coefficient; a first electrically conductive connection section connected to a first end of the resistance section, and a second electrically conductive connection section connected to a second end of the resistance section, wherein the first and second connection sections (102, 104) each have a second specific electrical conductivity which is higher than the first electrical conductivity of the resistance material, and a second temperature coefficient which is higher than the first temperature coefficient, and wherein the first and second connection sections (102, 104) are connectable to feed a current to be measured through the resistance section; wherein the first electrically conductive connection section comprises a first voltage measurement contact, and wherein the second electrically conductive connection section comprises a second voltage measurement contact and characterised in that the second electrically conductive connection section further comprises at least one third voltage measurement contact, wherein the first, second, and third voltage measurement contacts (116, 118, 120) are arranged in a way that the resistance between the first and the second measurement contact (116, 118) is smaller than the resistance between the first and the third measurement contact (116, 120). at least one resistance section comprising a resistance material having a first specific electrical conductivity and a first temperature coefficient; a first electrically conductive connection section connected to a first end of the resistance section, and a second electrically conductive connection section connected to a second end of the resistance section, wherein the first and second connection sections (102, 104) each have a second specific electrical conductivity which is higher than the first electrical conductivity of the resistance material, and a second temperature coefficient which is higher than the first temperature coefficient, and wherein the first and second connection sections (102, 104) are connectable to feed a current to be measured through the resistance section; wherein the first electrically conductive connection section comprises a first voltage measurement contact, and wherein the second electrically conductive connection section comprises a second voltage measurement contact and at least one third voltage measurement contact, wherein the first, second, and third voltage measurement contacts (116, 118, 120) are arranged in a way that the resistance between the first and the second measurement contact (116, 118) is smaller than the resistance between the first and the third measurement contact (116, 120).
A radar-based proximity sensor (1, 100, 200, 301, 400, 410, 500) with a transmitting antenna for transmitting an output signal and with at least one first receiving antenna for receiving a first reception signal, with a signal generator for generating the output signal, wherein the first reception signal is demodulated into the base band signals (I, Q) by means of an I/Q demodulator (4, 8, 9), wherein the base band signals (I, Q) are separated into an alternating voltage part (I d, Q d, 15, 16) and a direct voltage part (I 1, Q 1, 14, 17), wherein the respective alternating voltage part (I d, Q d, 15, 16) is filtered by means of a high-pass filter (10, 11) and is optionally amplified and the respective direct voltage part (I 1, Q 1, 14, 17) optionally experiences an offset compensation (12, 13), wherein at least one alternating voltage part is supplied to a Doppler evaluation in order to detect moving objects (201, 304, 505) and at least one direct voltage part is supplied to a close range presence detector in order to detect static objects (201, 304, 505).
Crate half, in particular for use in a dividable crate, with a coupling wall which comprises a bar mechanism by means of which the crate half can be releasably fastened to another crate half, wherein the coupling wall has a bar handle for actuating the bar mechanism, by means of which the bar mechanism can be displaced into a locked state and into an unlocked state, characterised in that the coupling wall is formed at the same height as the side walls of the crate half, the bar handle projecting beyond an upper edge of the coupling wall in the unlocked state and ending flush with the upper edge of the coupling wall or being recessed into the coupling wall in the locked state.
Metallic safety barrier to be used in the margins and median strips of roads for vehicle contention comprising at least a horizontal fence and a succession of vertical poles, said fence having a succession of orifices, each of said poles having an orifice, said barrier being of the type that contains vehicle lateral impacts with a controlled fence -pole uncoupling according to a pre-established threshold value of uncoupling, characterized In that said barrier comprises a bolted fence -pole joint mechanism, said bolted joint mechanism comprising a fusible bolt, said bolt having a rod, said rod having a an area of lower mechanical resistance (11,12,12',12") than the rest of the rod, said area of lower mechanical resistance being located at a given distance from the bolt's head and in a position such that, once the bolted joint is implemented, said section having lower mechanical resistance (11,12,12',12") is placed, simultaneously, inside both the orifice of the fence and the orifice of the pole.
A method for detecting zearalenone effect, wherein zearalenone effect refers to exposure of a biological system to zearalenone or an effect of zearalenone on a biological system, comprising: (c) determining in a test sample the expression level of at least one miRNA selected from the group consisting of ssc-miR-1, ssc-miR-181c, ssc-miR-206, ssc-miR-503, ssc-miR-542-3p, ssc-miR-135, ssc-miR-129a-3p, ssc-miR-142-3p, ssc-miR-432-5p, ssc-miR-455-5p, ssc-miR-182, ssc-miR-493-3p, ssc-miR-455-3p, ssc-miR-183, and ssc-miR-140-3p, wherein the test sample is a blood sample; and (d) comparing the expression level with a reference value. (c) determining in a test sample the expression level of at least one miRNA selected from the group consisting of ssc-miR-1, ssc-miR-181c, ssc-miR-206, ssc-miR-503, ssc-miR-542-3p, ssc-miR-135, ssc-miR-129a-3p, ssc-miR-142-3p, ssc-miR-432-5p, ssc-miR-455-5p, ssc-miR-182, ssc-miR-493-3p, ssc-miR-455-3p, ssc-miR-183, and ssc-miR-140-3p, wherein the test sample is a blood sample; and (d) comparing the expression level with a reference value.
A Turkish coffee cooking and serving machine having a cooking compartment whose inner volume is heated by a heater and wherein coffee mixture including Turkish coffee, water and optionally sugar is cooked; and when the cooking process is completed, providing transfer of the cooked coffee mixture in the cooking compartment through a discharge spout to a beverage receptacle for serving the cooked coffee to people; said machine comprising a pushing head moving vertically between a cooking position (i) and a discharge position (ii) where the coffee mixture in the cooking compartment is raised to the same level as the discharge spout, and defining the base of the cooking compartment; a drive mechanism moving said pushing head between cooking and discharging positions (i, ii); and a control unit controlling said drive mechanism; characterized in that the cooking compartment is positioned at the top inside a main compartment, separated into two compartments by the pushing head, where said compartments are called cooking compartment and drive mechanism compartment, and the pushing head has a movement so as to change the volume of the cooking compartment and of the drive mechanism compartment having the drive mechanism providing movement of the coffee mixture inside the cooking compartment.
Method of printing a continuous tone image by a printer having an asymmetric printer resolution, said method comprising the step of a) multi-level halftoning the continuous tone image by assigning a level out of a number of levels to each pixel of the image, b) determining the number of levels on the basis of the asymmetric printer resolution, c) selecting for each level a collection of at least one binary pattern, each binary pattern consisting of a plurality of sub-pixels the number of which is determined by the number of levels, d) selecting for each pixel of the halftoned image a binary pattern from the collection selected for the level assigned to the pixel, e) transforming each pixel of the halftoned image into the selected binary pattern, and f) printing the binary patterns of the transformed pixels using the asymmetric printer resolution, wherein the binary pattern is different for pixels of the halftoned image corresponding to the same level in that the method comprises the step of g) selecting a first binary pattern of a level of the number of levels for even pixels of the halftoned image to be different than a second binary pattern of the same level for odd pixels of the halftoned image. a) multi-level halftoning the continuous tone image by assigning a level out of a number of levels to each pixel of the image, b) determining the number of levels on the basis of the asymmetric printer resolution, c) selecting for each level a collection of at least one binary pattern, each binary pattern consisting of a plurality of sub-pixels the number of which is determined by the number of levels, d) selecting for each pixel of the halftoned image a binary pattern from the collection selected for the level assigned to the pixel, e) transforming each pixel of the halftoned image into the selected binary pattern, and f) printing the binary patterns of the transformed pixels using the asymmetric printer resolution, g) selecting a first binary pattern of a level of the number of levels for even pixels of the halftoned image to be different than a second binary pattern of the same level for odd pixels of the halftoned image.
A composition comprising an agrochemical active substance and a random terpolymer which comprises the monomers i), ii), iii) and optionally further monomers incorporated into the polymer, where monomer i) comprises an olefinically unsaturated monomer comprising a sulfonic acid group and/or a salt thereof, monomer ii) comprises (meth)acrylamide and/or an N-substituted derivative thereof, and monomer iii) comprises a monoethylenically unsaturated C 3 -C 8 -carboxylic acid, an anhydride and/or a salt thereof, wherein the terpolymer comprises 5 to 80% by weight of monomer i), 5 to 80% by weight of monomer ii), and 20 to 90% by weight of monomer iii), based on the total mass of all monomers of the terpolymer. monomer i) comprises an olefinically unsaturated monomer comprising a sulfonic acid group and/or a salt thereof, monomer ii) comprises (meth)acrylamide and/or an N-substituted derivative thereof, and monomer iii) comprises a monoethylenically unsaturated C 3 -C 8 -carboxylic acid, an anhydride and/or a salt thereof,
A method of predicting whether a patient with diffuse large B-cell lymphoma (DLBCL) is likely to exhibit response to CHOP-R anti-CD20 therapy comprising rituximab as an anti-CD20 antibody, comprising: (a) determining in a tumor sample obtained from the patient the level of expression of all genes selected from PTP4A1, OSBP, HNRNPD, AHCYL1, BMP2K, IDS, SERPINB9, CSRP2BP, CD58, HERC4, MAGOH, TMBIM4, SFRS12, FAS, ZNF333, the gene corresponding to NCBI Accession No. AI127295, USP6, CHD6, LOC653160, the gene corresponding to NCBI Accession No. R64696, SRPR, MIR21, ARHGAP18, the gene corresponding to NCBI Accession No. AW004885, CBFA2T2, TIMP3, CTBS, USP16, RASA1 and YJEFN3; and (b) predicting whether the patient is likely to exhibit response to said CHOP-R anti-CD20 therapy, based on the comparison between the level of expression of each gene measured in step (a) in the patient's sample and a set of control samples, wherein the expression of the genes is measured by measuring the level of RNA transcribed from each gene. (a) determining in a tumor sample obtained from the patient the level of expression of all genes selected from PTP4A1, OSBP, HNRNPD, AHCYL1, BMP2K, IDS, SERPINB9, CSRP2BP, CD58, HERC4, MAGOH, TMBIM4, SFRS12, FAS, ZNF333, the gene corresponding to NCBI Accession No. AI127295, USP6, CHD6, LOC653160, the gene corresponding to NCBI Accession No. R64696, SRPR, MIR21, ARHGAP18, the gene corresponding to NCBI Accession No. AW004885, CBFA2T2, TIMP3, CTBS, USP16, RASA1 and YJEFN3; and (b) predicting whether the patient is likely to exhibit response to said CHOP-R anti-CD20 therapy, based on the comparison between the level of expression of each gene measured in step (a) in the patient's sample and a set of control samples,
Tool for roughening a borehole surface, comprising a coupling portion for clamping the tool in a drilling device and a tool head for machining the borehole surface, cutting means being provided which are arranged on the circumference of the tool head, the cutting means comprising at least two carbide and/or diamond pins pointing radially away from the tool longitudinal axis, which pins are arranged so as to be distributed in the axial direction and/or on the circumference of the tool head, the carbide and/or diamond pins pointing outward in the radial direction defining the maximum diameter of the tool, characterized in that the tool head has at least one laterally continuous slit which extends axially along a tool longitudinal axis from an end face of the tool head, and in that the carbide and/or diamond pins are arranged on an outer lateral surface of the substantially circular-cylindrical tool head.
A connection terminal for electrically connecting the connection area of an electrical appliance to an electric cable (c) or a tooth belonging to a connection device, said terminal including a cage have a substantially parallelepipedal shape made by cutting and bending a metal strip to form a frame delimiting an opening of quadrangular section intended for the insertion of the aforementioned cable or tooth and the terminal further including a clamping screw screwed into a tapped orifice provided in a so-called upper wall of said cage, said screw being able to be rotated so as to cause a relative translational movement between the area and the cage, between a so-called clamping position in which the cable or the tooth is brought into electrical contact with the area and a so-called loosened position in which the cable or the tooth is no longer in electrical contact with the area, said cage including an upper wall, a bottom wall and two side walls, said terminal further including clamping compensation means, wherein the upper wall of the cage is constituted by the superposition of two branches (13, 14), respectively lower and upper, respectively belonging to the two side walls (6, 7), each of these branches (13, 14) being formed by bending an upper part of the side wall (6, 7) toward the other side wall (6, 7), these two branches (13, 14) each including a tapped orifice (15, 16) for passage of the screw, these two orifices (15, 16) being opposite one another, characterized in that an outer end of the upper branch of the cage is able to bear at a bearing point (p) on an inner end of the lower branch of the cage during the tightening of the screw, this causing an elastic movement of the entire cage, said cage having, in section in a plane perpendicular to the side walls (6, 7), a substantially diamond-shaped section (s) in the loosened position of the screw, and a substantially rectangular section (v) in the tightened position of the screw after the aforementioned elastic deformation.