mhurhangee/ep-ind-claims huggingface dataset:
Sulfur-crosslinkable rubber mixture, especially for the tread of pneumatic vehicle tyres, containing - 20 - 100 phr (parts by weight based on 100 parts by weight of all rubbers in the mixture) of at least one hydrogenated solution-polymerized styrene-butadiene copolymer having a degree of hydrogenation of 80% to 98% - up to 80 phr of at least one further diene rubber, - 40 - 350 phr of at least one filler and - a vulcanization system which contains at least one accelerator and elemental sulfur and at least one sulfur-donating substance, wherein the molar ratio of accelerator to sulfur is 0.4 to 5, wherein the total molar amount of sulfur consists of elemental sulfur and the sulfur donated by the sulfur-donating substances. - 20 - 100 phr (parts by weight based on 100 parts by weight of all rubbers in the mixture) of at least one hydrogenated solution-polymerized styrene-butadiene copolymer having a degree of hydrogenation of 80% to 98% - up to 80 phr of at least one further diene rubber, - 40 - 350 phr of at least one filler and - a vulcanization system which contains at least one accelerator and elemental sulfur and at least one sulfur-donating substance, wherein the molar ratio of accelerator to sulfur is 0.4 to 5, wherein the total molar amount of sulfur consists of elemental sulfur and the sulfur donated by the sulfur-donating substances.
An airbag device, comprising: an airbag that protects at least a side portion of a shoulder region, upper arm region, and chest region for an occupant seated on a vehicle seat; and an inflator that supplies gas to the airbag; wherein the airbag has a pair of side part protection chambers that are housed on at least both left and right sides of the vehicle seat, the side part protection chambers, when expanded and deployed, expand and deploy forward independently on both left and right sides of the vehicle seat, and a pair of inflators are provided so as to provide gas to the respective side part protection chambers of the airbag, and are controlled so as to be ignited at different timing, characterized in that when an occupant state detection sensor detects that the seating position of an occupant is offset to the left side of a regular state, the inflator disposed on the left side of the vehicle seat is ignited at an earlier timing than the inflator disposed on the right side, or when an occupant state detection sensor detects that the seating position of an occupant is offset to the right side of a regular state, the inflator disposed on the right side of the vehicle seat is ignited at an earlier timing than the inflator disposed on the left side, wherein the time difference in ignition timings between the inflators to be ignited first and the inflator to be ignited later depends on the degree of offset. an airbag that protects at least a side portion of a shoulder region, upper arm region, and chest region for an occupant seated on a vehicle seat; and an inflator that supplies gas to the airbag; wherein the airbag has a pair of side part protection chambers that are housed on at least both left and right sides of the vehicle seat, the side part protection chambers, when expanded and deployed, expand and deploy forward independently on both left and right sides of the vehicle seat, and a pair of inflators are provided so as to provide gas to the respective side part protection chambers of the airbag, and are controlled so as to be ignited at different timing, characterized in that when an occupant state detection sensor detects that the seating position of an occupant is offset to the left side of a regular state, the inflator disposed on the left side of the vehicle seat is ignited at an earlier timing than the inflator disposed on the right side, or when an occupant state detection sensor detects that the seating position of an occupant is offset to the right side of a regular state, the inflator disposed on the right side of the vehicle seat is ignited at an earlier timing than the inflator disposed on the left side, wherein the time difference in ignition timings between the inflators to be ignited first and the inflator to be ignited later depends on the degree of offset.
A method of measuring a metabolic activity of a cell, the method comprising independently measuring in an extracellular environment of the cell, time-dependent acidification profiles due to secretion of: (i) non-volatile soluble metabolic products; (ii) non-volatile soluble metabolic products and volatile soluble metabolic products; and (iii) volatile soluble metabolic products; wherein said measuring acidification profile of said (i) is effected in an air-exposed chamber, and wherein said measuring acidification profile of said (ii) is effected in an air-sealed chamber, and wherein said measuring acidification profile of said (iii) is by subtracting an acidification profile of said (i) from an acidification profile of said (ii), and further wherein at least one of said time dependent acidification profiles is indicative of the metabolic activity of the cell. (i) non-volatile soluble metabolic products; (ii) non-volatile soluble metabolic products and volatile soluble metabolic products; and (iii) volatile soluble metabolic products;
An electromagnetic energy device comprising: an electromagnetic energy base unit; a connector that connects to the electromagnetic energy base unit; a conduit that connects to the connector; and an electromagnetic energy handpiece, that connects to the conduit, wherein the electromagnetic energy handpiece is capable of receiving electromagnetic energy, and one or more of illumination light and excitation light having a propagation path that envelops at least a part of a propagation path of the electromagnetic energy within the electromagnetic energy handpiece, characterized in that the handpiece is furthermore capable of receiving fluid from the electromagnetic energy base unit, wherein the electromagnetic energy handpiece comprises a handpiece tip, the handpiece tip comprising: a plurality of mirrors (420, 425); a fiber tip (55, 400); a plurality of tip waveguides, capable of receiving one or more of electromagnetic energy, illumination light, and excitation light, and directing the one or more of electromagnetic energy, illumination light, and excitation light to a target surface; and a housing having disposed therein the plurality of tip waveguides, the fiber tip (55, 400), and a plurality of fluid outputs, wherein the plurality of tip waveguides and the plurality of fluid outputs are circularly disposed around the fiber tip (55, 400). an electromagnetic energy base unit; a connector that connects to the electromagnetic energy base unit; a conduit that connects to the connector; and an electromagnetic energy handpiece, that connects to the conduit, wherein the electromagnetic energy handpiece is capable of receiving electromagnetic energy, and one or more of illumination light and excitation light having a propagation path that envelops at least a part of a propagation path of the electromagnetic energy within the electromagnetic energy handpiece, a plurality of mirrors (420, 425); a fiber tip (55, 400); a plurality of tip waveguides, capable of receiving one or more of electromagnetic energy, illumination light, and excitation light, and directing the one or more of electromagnetic energy, illumination light, and excitation light to a target surface; and a housing having disposed therein the plurality of tip waveguides, the fiber tip (55, 400), and a plurality of fluid outputs, wherein the plurality of tip waveguides and the plurality of fluid outputs are circularly disposed around the fiber tip (55, 400).
A ski-stick or a walking-stick comprising, on the one hand, a tubular shaft and, on the other hand, a handle provided with a strap forming a wrist-strap and with means for adjusting the length of said strap in the form of a reel, at least partially accommodated in a cavity provided inside the handle, characterized in that said reel is provided with an actuator accessible from the outside and with a device for locking the disengageable reel.
A method for controlling a wind power plant connected to an electrical grid, the wind power plant comprising at least one wind turbine generator and a power plant controller, the power plant controller comprising a signal controller for controlling an electrical parameter with a gain (Kgs), the method is characterised comprising: - measuring at least one electrical parameter in the electrical grid, - determining an internal signal value at least partially based on the at least one electrical parameter, - comparing the internal signal value with a saturation value (356, 361), and - if the internal signal value exceeds the saturation value, increasing the gain (Kgs) of the signal controller to a first gain value, in order to decrease a rise time for a slope for the electrical parameter in the electrical grid. - measuring at least one electrical parameter in the electrical grid, - determining an internal signal value at least partially based on the at least one electrical parameter, - comparing the internal signal value with a saturation value (356, 361), and - if the internal signal value exceeds the saturation value, increasing the gain (Kgs) of the signal controller to a first gain value, in order to decrease a rise time for a slope for the electrical parameter in the electrical grid.
A method for allocating radio resources to logical channels when performing a logical channel prioritization, LCP, procedure in a user equipment of a mobile communication system, wherein a plurality of logical channels for Proximity Services, ProSe, are configured in the user equipment and are associated with one out of a plurality of ProSe destination groups as possible destinations of ProSe data, wherein each of the plurality of ProSe destination groups is associated with a ProSe destination group priority, wherein each of the plurality of ProSe logical channels is mapped to one out of a plurality of ProSe Logical Channel Groups, LCGs, and wherein each of the plurality of ProSe LCGs is associated with a ProSe LCG priority, the method characterized by comprising the following steps performed by the user equipment when generating a first Protocol Data Unit, PDU, for transmission: selecting that ProSe destination group with ProSe data available for transmission with the highest ProSe destination group priority, and allocating radio resources to those ProSe logical channels with ProSe data available for transmission, that are associated with the selected ProSe destination group, in a decreasing order of the ProSe LCG priority associated with the ProSe LCGs to which those ProSe logical channels are mapped. selecting that ProSe destination group with ProSe data available for transmission with the highest ProSe destination group priority, and allocating radio resources to those ProSe logical channels with ProSe data available for transmission, that are associated with the selected ProSe destination group, in a decreasing order of the ProSe LCG priority associated with the ProSe LCGs to which those ProSe logical channels are mapped.
Computer-implemented method for checking the state of wear of vibration dampers of an air conditioner, arranged between the air conditioner and an installation interface, comprising at least the following steps: a) acquiring data from a vibration sensor during operation of the air conditioner, b) comparing the data of the vibration sensor recorded in step a) with reference data, c) As a result of the comparison according to step b), the state of wear of the vibration dampers is determined. a) acquiring data from a vibration sensor during operation of the air conditioner, b) comparing the data of the vibration sensor recorded in step a) with reference data, c) As a result of the comparison according to step b), the state of wear of the vibration dampers is determined.
Method for tracking process parameters in the production of rubber products, in particular unvulcanized treads for vehicle pneumatic tyres, comprising the steps of: a) producing an unvulcanized rubber product, comprising a crosslinkable rubber mixture, and b) applying an identification to a surface of the unvulcanized rubber product, wherein the identification comprises information about one or more process parameters of production and/or is linked with information about one or more process parameters of production by way of a system for data processing, wherein applying the identification is carried out by producing depressions on the surface using a material-removing method and/or an impressing method, wherein the depressions produced have a depth of 100 μm or less. a) producing an unvulcanized rubber product, comprising a crosslinkable rubber mixture, and b) applying an identification to a surface of the unvulcanized rubber product, wherein the identification comprises information about one or more process parameters of production and/or is linked with information about one or more process parameters of production by way of a system for data processing, wherein applying the identification is carried out by producing depressions on the surface using a material-removing method and/or an impressing method, wherein the depressions produced have a depth of 100 μm or less.
Rotary valve, in particular for a coolant circuit of an internal combustion engine having a plurality of branches, comprising a plurality of cross-section adjustment elements (2, 3, 4; 24, 25, 38; 102, 103) and at least one device which couples the cross-section adjustment elements (2, 3, 4; 24, 25, 38; 102, 103) to one another, characterised in that, when in the coupled state, the device which couples the cross-section adjustment elements (2, 3, 4; 24, 25, 38; 102, 103) to one another produces a rotational angle difference between the cross-section adjustment elements (2, 3, 4; 24, 25, 38; 102, 103).
Motor apparatus comprising: - a segmented motor, which has a first active part having a plurality of independent, separately controllable windings distributed around the circumference and a second active part, wherein the first active part comprises a plurality of segments (1 1, 1_2,..., 6_3), and each of the windings is assigned to a single segment of the segments of the segmented motor - a control unit, which has a processing unit and for each of one or more of the windings a motor module (M1 to M6) containing a power converter, and - a sensor device, which is designed to supply a position signal for the first active part in relation to the second active part, wherein - one of the motor modules (M1 to M6) is a master module, which receives the position signal directly from the sensor device as the only motor module to do so, and transmits a corresponding piece of position information to the processing unit, - one of the motor modules (M1 to M6) is a slave module, which receives directly from the processing unit a single piece of position-related information regarding the position of the first active part in relation to the second active part based on the position information. - a segmented motor, which has a first active part having a plurality of independent, separately controllable windings distributed around the circumference and a second active part, wherein the first active part comprises a plurality of segments (1 1, 1_2,..., 6_3), and each of the windings is assigned to a single segment of the segments of the segmented motor - a control unit, which has a processing unit and for each of one or more of the windings a motor module (M1 to M6) containing a power converter, and - a sensor device, which is designed to supply a position signal for the first active part in relation to the second active part, wherein - one of the motor modules (M1 to M6) is a master module, which receives the position signal directly from the sensor device as the only motor module to do so, and transmits a corresponding piece of position information to the processing unit, - one of the motor modules (M1 to M6) is a slave module, which receives directly from the processing unit a single piece of position-related information regarding the position of the first active part in relation to the second active part based on the position information.
A semiconductor device (30, 200) mountable to a substrate, comprising: - a plurality of semiconductor dies; - an electrically conductive continuous lead frame 202) having a first end portion to be enclosed by a housing and a second end portion and a first attachment surface and a second attachment surface, wherein the semiconductor dies electrically and mechanically contact the first end portion of the lead frame on the first attachment surface, the first end portion and the second end portion being continuously connected to one another, and wherein each of the semiconductor dies and the lead frame are collinear with one another; - an externally exposed housing (40, 210) enclosing the semiconductor dies and the first end portion of the lead frame, said housing (40, 210) including a metallic plate (45, 220) facing the second attachment surface of the lead frame; and - a dielectric, thermally conductive interlayer material screen printed as a coating on the metallic plate (45, 220), wherein the interlayer material is disposed between the metallic plate (45, 220) and the second attachment surface of the lead frame, wherein the metallic plate (45, 220) is secured using the interlayer material as an adhesive; wherein a portion of said housing (40, 210) lies between said second attachment surface of the lead frame and the metallic plate (45, 220), wherein the lead frame extends through said housing (40, 210), so that it is externally accessible, wherein said housing (40, 210) is a molding compound (40, 210), wherein a thickness of any portion of said housing located directly over the interlayer material on the side of the second attachment surface and between the electrically conductive lead frame and the interlayer material is thinner than a thickness of said housing located on the side of the first attachment surface, and wherein a portion of the molding compound is coplanar with the metallic plate and surrounds the metallic plate. - a plurality of semiconductor dies; - an electrically conductive continuous lead frame 202) having a first end portion to be enclosed by a housing and a second end portion and a first attachment surface and a second attachment surface, wherein the semiconductor dies electrically and mechanically contact the first end portion of the lead frame on the first attachment surface, the first end portion and the second end portion being continuously connected to one another, and wherein each of the semiconductor dies and the lead frame are collinear with one another; - an externally exposed housing (40, 210) enclosing the semiconductor dies and the first end portion of the lead frame, said housing (40, 210) including a metallic plate (45, 220) facing the second attachment surface of the lead frame; and - a dielectric, thermally conductive interlayer material screen printed as a coating on the metallic plate (45, 220), wherein the interlayer material is disposed between the metallic plate (45, 220) and the second attachment surface of the lead frame, wherein the metallic plate (45, 220) is secured using the interlayer material as an adhesive;
Method for controlling the material flow of an agricultural round baler which is driven by a drive unit in a self-propelled vehicle or by a towing vehicle in a trailer in order to form round bales from harvested crop in a pressing chamber which is provided with a rear outlet for ejecting a finished round bale, said chamber having pressing devices, a harvested crop collector and a subsequent cutting and/or conveying unit, a storage space which attaches to said unit, extends up to an inlet region of the pressing chamber and collects harvested crop during storage phases of the pressing operation, and said round baler having a device for wrapping a finished round bale in binding material in the pressing chamber and a control or regulating device, characterised in that the control and regulating device of the round baler, on the basis of a stored theoretical minimum time for pressing a harvested crop bale that is defined using size and strength as specifiable parameters, and incorporating currently determined harvested crop parameters, controls the crop material flow at any time in the bale formation process such that the predefined bale is produced in the target pressing time determined in each case at maximum machine performance, and in that, by means of constant temporal target-actual comparison depending on the current bale diameter and/or weight as the bale increases in size, the control and regulating device provides a travel speed target value signal to the drive unit or to the towing vehicle, upon which signal the travel speed is controlled automatically.
An NMR apparatus, comprising: an NMR probe for holding a sample therein; a rotation mechanism configured to rotate a sample tube in the NMR probe, the sample tube holding the sample therein: a depressurizing device for depressurizing the NMR probe; a gas supply device for supplying gas into the NMR probe to thereby pressurize the NMR probe; and a control device for controlling depressurization using the depressurizing device and pressurization using the gas supply device, wherein the control device is configured to alternately repeat depressurization of the NMR probe, using the depressurizing device, and pressurization of the NMR probe, using the gas supply device to thereby replace gas in the NMR probe. an NMR probe for holding a sample therein; a rotation mechanism configured to rotate a sample tube in the NMR probe, the sample tube holding the sample therein: a depressurizing device for depressurizing the NMR probe; a gas supply device for supplying gas into the NMR probe to thereby pressurize the NMR probe; and a control device for controlling depressurization using the depressurizing device and pressurization using the gas supply device, wherein the control device is configured to alternately repeat depressurization of the NMR probe, using the depressurizing device, and pressurization of the NMR probe, using the gas supply device to thereby replace gas in the NMR probe. a depressurizing device for depressurizing the NMR probe; a gas supply device for supplying gas into the NMR probe to thereby pressurize the NMR probe; and a control device for controlling depressurization using the depressurizing device and pressurization using the gas supply device, wherein the control device is configured to alternately repeat depressurization of the NMR probe, using the depressurizing device, and pressurization of the NMR probe, using the gas supply device to thereby replace gas in the NMR probe.
A method of separation of sperm cells with undamaged intact heads from sperm cells with damaged heads and/or somatic cells and/or cell debris in a sperm sample obtained from an animal, comprising the steps of: - providing an anti-CD46 antibody bound to a carrier and/or to a tag; - contacting the sperm sample with the anti-CD46 antibody bound to the carrier and/or to the tag in order to bind CD46 presenting cells and/or cell debris from the sperm sample to the anti-CD46 antibody; - removing the CD46 presenting cells bound via the anti-CD46 antibody to the carrier and/or to the tag to obtain a sperm sample free of CD46 presenting cells, wherein CD46 presenting cells include sperm cells with damaged heads, somatic cells and cell debris. - providing an anti-CD46 antibody bound to a carrier and/or to a tag; - contacting the sperm sample with the anti-CD46 antibody bound to the carrier and/or to the tag in order to bind CD46 presenting cells and/or cell debris from the sperm sample to the anti-CD46 antibody; - removing the CD46 presenting cells bound via the anti-CD46 antibody to the carrier and/or to the tag to obtain a sperm sample free of CD46 presenting cells, wherein CD46 presenting cells include sperm cells with damaged heads, somatic cells and cell debris.