mhurhangee/ep-ind-claims huggingface dataset:
A vehicle, comprising: an internal combustion engine serving as a drive source of a vehicle; a rotating electric machine for rotating an output shaft of said internal combustion engine; and a control unit for controlling said rotating electric machine so as to increase the number of revolutions of said internal combustion engine based on a velocity of said vehicle, while said vehicle is not driven, wherein while said vehicle is decelerating with an accelerator pedal being in a released state, as at least any one of a speed of pressing-down of said accelerator pedal and a speed of switching from a brake pedal to said accelerator pedal is higher, said control unit increases a rate of increase in said number of revolutions, as compared with a rate of increase when the speed is low, characterized in that said control unit determines a target value of said number of revolutions such that, as deceleration of said vehicle is higher, the number of revolutions of said internal combustion engine increased by said rotating electric machine becomes great, as compared with the number of revolutions when deceleration is low. an internal combustion engine serving as a drive source of a vehicle; a rotating electric machine for rotating an output shaft of said internal combustion engine; and a control unit for controlling said rotating electric machine so as to increase the number of revolutions of said internal combustion engine based on a velocity of said vehicle, while said vehicle is not driven, wherein while said vehicle is decelerating with an accelerator pedal being in a released state, as at least any one of a speed of pressing-down of said accelerator pedal and a speed of switching from a brake pedal to said accelerator pedal is higher, said control unit increases a rate of increase in said number of revolutions, as compared with a rate of increase when the speed is low, characterized in that said control unit determines a target value of said number of revolutions such that, as deceleration of said vehicle is higher, the number of revolutions of said internal combustion engine increased by said rotating electric machine becomes great, as compared with the number of revolutions when deceleration is low.
A wireless charging board comprising: a coil pattern; a soft magnetic layer having one side on which the coil pattern is disposed; and a heat dissipation layer disposed on the other side of the soft magnetic layer and comprising a first uneven pattern portion, wherein the first uneven pattern portion is disposed in a partial region or on an entire surface of the heat dissipation layer, wherein the first uneven pattern portion is directly formed on the surface of the heat dissipation layer, wherein the first uneven pattern portion has a structure in which embossed patterns and engraved patterns are mixed on the surface of the heat dissipation layer, and characterized in that the soft magnetic layer comprises a second uneven pattern portion corresponding to the first uneven pattern portion of the heat dissipation layer, wherein a surface of the first uneven pattern portion and a surface of the second uneven pattern portion are in close contact with each other. a coil pattern; a soft magnetic layer having one side on which the coil pattern is disposed; and a heat dissipation layer disposed on the other side of the soft magnetic layer and comprising a first uneven pattern portion, wherein the first uneven pattern portion is disposed in a partial region or on an entire surface of the heat dissipation layer, wherein the first uneven pattern portion is directly formed on the surface of the heat dissipation layer, wherein the first uneven pattern portion has a structure in which embossed patterns and engraved patterns are mixed on the surface of the heat dissipation layer, and characterized in that the soft magnetic layer comprises a second uneven pattern portion corresponding to the first uneven pattern portion of the heat dissipation layer, wherein a surface of the first uneven pattern portion and a surface of the second uneven pattern portion are in close contact with each other.
A substance determining apparatus for determining a substance within a fluid, the substance determining apparatus comprising: particles for being attached to the substance within the fluid, a binding surface for binding the particles, if the particles have been attached to the substance, a sensing unit for sensing the particles within a sensing region on the binding surface, wherein the sensing unit is adapted to generate a sensing signal depending on the particles in the sensing region, a location event determination unit for determining location events indicating that a particle is located in the sensing region and a property of the location events from the generated sensing signal, a location events selection unit for selecting a part of the location events having a property in a predefined property range, and a substance determination unit for determining the substance within the fluid based on the selected part of the location events, wherein the location events determination unit is adapted to determine the following properties of the respective location event: lifetime, starting moment, and ending moment, wherein the sensing unit is adapted such that the generated sensing signal is indicative of starting moments and ending moments of location events and wherein the location event determination unit is adapted to determine the lifetimes of location events by determining the starting moments and the ending moments of the location events from the generated sensing signal. particles for being attached to the substance within the fluid, a binding surface for binding the particles, if the particles have been attached to the substance, a sensing unit for sensing the particles within a sensing region on the binding surface, wherein the sensing unit is adapted to generate a sensing signal depending on the particles in the sensing region, a location event determination unit for determining location events indicating that a particle is located in the sensing region and a property of the location events from the generated sensing signal, a location events selection unit for selecting a part of the location events having a property in a predefined property range, and a substance determination unit for determining the substance within the fluid based on the selected part of the location events, wherein the location events determination unit is adapted to determine the following properties of the respective location event: lifetime, starting moment, and ending moment, wherein the sensing unit is adapted such that the generated sensing signal is indicative of starting moments and ending moments of location events and wherein the location event determination unit is adapted to determine the lifetimes of location events by determining the starting moments and the ending moments of the location events from the generated sensing signal.
A method for lysing a cell or cells, comprising: placing a plurality of discrete chambers on a surface, wherein each chamber comprises a cell or cells of interest, one or more magnetic stirrer elements, and a plurality of beads; and rotating a magnet at between 1000 to 6000 rpm for 90 to 120 seconds about an axis to produce a rotating magnetic field, wherein said axis is parallel to the surface said chambers reside on, said rotation of said magnet causes said one or more magnetic stirrers in the chambers to rotate, which in turn drives motion of the beads, the cell or cells and the liquid medium and lyses the cells inside the chambers. placing a plurality of discrete chambers on a surface, wherein each chamber comprises a cell or cells of interest, one or more magnetic stirrer elements, and a plurality of beads; and rotating a magnet at between 1000 to 6000 rpm for 90 to 120 seconds about an axis to produce a rotating magnetic field, wherein said axis is parallel to the surface said chambers reside on, said rotation of said magnet causes said one or more magnetic stirrers in the chambers to rotate, which in turn drives motion of the beads, the cell or cells and the liquid medium and lyses the cells inside the chambers.
A cartridge for use in an electrically operated aerosol-generating system, comprising: a liquid storage portion to store a liquid, a fluid permeable heating element, comprising a first and a second surface wherein the first surface is arranged in an upstream position to receive a liquid and the second surface is arranged in a downstream position to release the liquid in vaporized form, and a capillary body having a first elongated end and a second end, the first elongated end extending into the liquid storage portion for contact with the liquid, the second end contacting the first surface of the heating element, wherein the cross sectional area of the capillary body at the second end is greater than the cross sectional area of the capillary body at the elongated first end. a liquid storage portion to store a liquid, a fluid permeable heating element, comprising a first and a second surface wherein the first surface is arranged in an upstream position to receive a liquid and the second surface is arranged in a downstream position to release the liquid in vaporized form, and a capillary body having a first elongated end and a second end, the first elongated end extending into the liquid storage portion for contact with the liquid, the second end contacting the first surface of the heating element, wherein the cross sectional area of the capillary body at the second end is greater than the cross sectional area of the capillary body at the elongated first end.
A tooth whitening chewing gum composition comprising: (a) a chewing gum base; and (b) a plurality of active-containing particles, each of said active-containing particles comprising an inner region comprising a solid peroxide composition, a middle region comprising a first encapsulating material, and an outer region comprising a second encapsulating material, wherein the first encapsulating material comprises polyvinyl acetate and the second encapsulating material comprises a cellulosic material; and each of said active-containing particles comprises between 20-50% by weight encapsulating material and between 50-80% by weight of peroxide. (a) a chewing gum base; and (b) a plurality of active-containing particles, each of said active-containing particles comprising an inner region comprising a solid peroxide composition, a middle region comprising a first encapsulating material, and an outer region comprising a second encapsulating material,
Composition for forming artificial leather comprising at least one polymer and plant powder from plant residues containing cellulose with a particle size of 1 μ to 450 μ and a moisture content of between 1-20% by weight, wherein the polymer is polyurethane and the plant residues are fruit powder containing cellulose with a particle size of 1 μ to 450 μ and a moisture content of between 1 and 20%.
An endoscopic system for use in a controlled light environment comprising: an endoscope comprising a lumen and an image sensor located at a distal end of the endoscope; an emitter; a fiber optic cable; a control circuit in electronic communication with the image sensor and the emitter; wherein the image sensor comprises: an oscillator located on the image sensor; and data pads, wherein the area of the image sensor is reduced by not having a dedicated synchronization clock pad; wherein the image sensor is configured to have a frame period that is divided into three defined phases: a rolling-readout phase during which the image sensor is configured to output image data through each of the data pads, a service-line phase during which the image sensor is configured to output non-image data through each of the data pads, and a configuration phase during which the image sensor is configured to receive the instruction data through each of the data pads, wherein signal transitions are encoded within the output data from the image sensor in correspondence to the phases. an endoscope comprising a lumen and an image sensor located at a distal end of the endoscope; an emitter; a fiber optic cable; a control circuit in electronic communication with the image sensor and the emitter; wherein the image sensor comprises: an oscillator located on the image sensor; and data pads, wherein the area of the image sensor is reduced by not having a dedicated synchronization clock pad; an oscillator located on the image sensor; and data pads, wherein the area of the image sensor is reduced by not having a dedicated synchronization clock pad; wherein the image sensor is configured to have a frame period that is divided into three defined phases: a rolling-readout phase during which the image sensor is configured to output image data through each of the data pads, a service-line phase during which the image sensor is configured to output non-image data through each of the data pads, and a configuration phase during which the image sensor is configured to receive the instruction data through each of the data pads, a rolling-readout phase during which the image sensor is configured to output image data through each of the data pads, a service-line phase during which the image sensor is configured to output non-image data through each of the data pads, and a configuration phase during which the image sensor is configured to receive the instruction data through each of the data pads, wherein signal transitions are encoded within the output data from the image sensor in correspondence to the phases.
A bonding method comprising: (a) applying an aqueous primer composition onto a surface of a metallic substrate to form a curable primer film, the aqueous primer composition comprising: i. one or more epoxy resins; ii. at least one curing agent; iii. a silane compound having at least one hydrolyzable group; iv. a carbon-based material, in particulate form, selected from graphene in the form of platelets or graphite in the form of flakes, both having planar dimensions (length and width) in the range of 0.1 μm to 100 μm,; and v. water; (b) adhesively joining the metallic substrate to a second substrate whereby a curable adhesive is positioned between the primer film and the second substrate; (c) curing the adhesive to form a bonded structure. (a) applying an aqueous primer composition onto a surface of a metallic substrate to form a curable primer film, the aqueous primer composition comprising: i. one or more epoxy resins; ii. at least one curing agent; iii. a silane compound having at least one hydrolyzable group; iv. a carbon-based material, in particulate form, selected from graphene in the form of platelets or graphite in the form of flakes, both having planar dimensions (length and width) in the range of 0.1 μm to 100 μm,; and v. water; i. one or more epoxy resins; ii. at least one curing agent; iii. a silane compound having at least one hydrolyzable group; iv. a carbon-based material, in particulate form, selected from graphene in the form of platelets or graphite in the form of flakes, both having planar dimensions (length and width) in the range of 0.1 μm to 100 μm,; and v. water; (b) adhesively joining the metallic substrate to a second substrate whereby a curable adhesive is positioned between the primer film and the second substrate; (c) curing the adhesive to form a bonded structure.
A reservoir comprising an upper and a lower reservoir part (1 a, 1 b) divided by a member into a first and second reservoir chamber (CRI, CR2), which reservoir is intended to be joined together with and pressurize a hydraulic shock absorber comprising a substantially cylindrical shock absorber body comprising a damping cylinder having an inner damping chamber (Cd) filled with a damping medium, the damping chamber being delimited at both its ends by fastening members (3, 4) and divided by an axially movable main piston, wherein the reservoir is fixed to one of the fastening members (3, 4), wherein the lower reservoir part is delimited by two parallel-displaced flat base surfaces (Ab) and a reservoir wall as a contacting surface between these base surfaces and has a vertical extent which is substantially parallel with the shock absorber body, characterized in that one of or both of the base surfaces (Ab) of the lower reservoir part (1 b) are kidney-shaped and are connected by the reservoir wall so that the lower reservoir part (1 b) has a vertical extent which partially follows the cylindrical shape of the shock absorber body, wherein that part of the reservoir wall of the lower part (1 a) of the reservoir which faces toward the shock absorber body has an inner surface (Ai) which substantially follows the cylindrical shape of the shock absorber body and that part of the reservoir wall of the lower part (1 a) of the reservoir which faces away from the shock absorber body is an outer surface (Ay) which is arranged at a greater radial distance from the shock absorber body than the inner surface, wherein the inner surface of the lower reservoir part (1 a, 1 b) is arranged at a distance (x) from the shock absorber body.
Method for obtaining a composition, comprising the following steps: a) purification of monocytes from a sample in sterile conditions; b) culturing the purified monocytes in serum free medium with tissue-specific cells; c) collection the supernatant comprising growth factors and/or cytokines produced by the culture of step b); d) cryopreservation of the supernatant collected in step c) at a temperature between -35 and -165 °C, wherein the tissue-specific cells are selected from the group consisting of myocytes, skeletal muscle cells, muscle satellite cells, tenocytes, Schwann cells, chondrocytes, synoviocytes, lymphocytes, hair follicle cells, myocardia cells, mesenchymal stem cells or combinations thereof; wherein the composition is for tissue regeneration of musculoskeletal injuries. a) purification of monocytes from a sample in sterile conditions; b) culturing the purified monocytes in serum free medium with tissue-specific cells; c) collection the supernatant comprising growth factors and/or cytokines produced by the culture of step b); d) cryopreservation of the supernatant collected in step c) at a temperature between -35 and -165 °C, wherein the tissue-specific cells are selected from the group consisting of myocytes, skeletal muscle cells, muscle satellite cells, tenocytes, Schwann cells, chondrocytes, synoviocytes, lymphocytes, hair follicle cells, myocardia cells, mesenchymal stem cells or combinations thereof; wherein the composition is for tissue regeneration of musculoskeletal injuries.
A negative pressure wound treatment (NPWT) system, the NPWT system comprising: a NPWT therapy unit; a wound dressing configured to overlay a wound bed; a first length of tubing comprising a first end and a second end, the first end of the first length of tubing coupled to the NPWT therapy unit, and the second end of the first length of tubing having a first coupling half; a second length of tubing having a first end and second end, the first end of the second length of tubing coupled to the wound dressing and the second end of the second length of tubing having a second coupling half; an inline filter (330, 430) comprising a sintered polymer and a superabsorbent material; and an inline coupling, the inline coupling comprising the first coupling half and the second coupling half, wherein the inline coupling is configured to operably couple and de-couple the NPWT therapy unit to the wound dressing, characterized in that the inline filter (330, 430) is disposed within the inline coupling. a NPWT therapy unit; a wound dressing configured to overlay a wound bed; a first length of tubing comprising a first end and a second end, the first end of the first length of tubing coupled to the NPWT therapy unit, and the second end of the first length of tubing having a first coupling half; a second length of tubing having a first end and second end, the first end of the second length of tubing coupled to the wound dressing and the second end of the second length of tubing having a second coupling half; an inline filter (330, 430) comprising a sintered polymer and a superabsorbent material; and an inline coupling, the inline coupling comprising the first coupling half and the second coupling half, wherein the inline coupling is configured to operably couple and de-couple the NPWT therapy unit to the wound dressing, characterized in that the inline filter (330, 430) is disposed within the inline coupling.
A liquid automatic dish wash detergent composition comprising: a) a strong sequestering builder, b) a subtilisin, and c) a subtilisin inhibitor; wherein the composition is essentially devoid of an anionic surfactant; wherein the inhibitor is an aldehyde having the formula P-B 2 -B 1 -B 0 -H, wherein a) H is hydrogen; b) B 0 is a single amino acid residue with L- or D-configuration of the formula -NH-CH -C(=O)-; c) B 1 and B 2 are independently single amino acid residues; d) R is independently selected from the group consisting of C 1-6 alkyl, C 6-10 aryl or C 7-10 arylalkyl optionally substituted with one or more, identical or different, substituent's R'; e) R' is independently selected from the group consisting of halogen, -OH, -OR", -SH, -SR", - NH 2, -NHR", -NR" 2, -CO 2 H, -CONH 2, -CONHR", -CONR" 2, -NHC(=N)NH 2; f) R" is a C 1-6 alkyl group; and g) P is an N-terminal protection group; and wherein the subtilisin has an amino acid sequence, which has at least 80% sequence identity to SEQ ID NO: 1 or SEQ ID NO: 4, or which has up to 10 amino acid changes as compared to SEQ ID NO: 1 or SEQ ID NO: 4. a) a strong sequestering builder, b) a subtilisin, and c) a subtilisin inhibitor; a) H is hydrogen; b) B 0 is a single amino acid residue with L- or D-configuration of the formula -NH-CH -C(=O)-; c) B 1 and B 2 are independently single amino acid residues; d) R is independently selected from the group consisting of C 1-6 alkyl, C 6-10 aryl or C 7-10 arylalkyl optionally substituted with one or more, identical or different, substituent's R'; e) R' is independently selected from the group consisting of halogen, -OH, -OR", -SH, -SR", - NH 2, -NHR", -NR" 2, -CO 2 H, -CONH 2, -CONHR", -CONR" 2, -NHC(=N)NH 2; f) R" is a C 1-6 alkyl group; and g) P is an N-terminal protection group; and