mhurhangee/ep-ind-claims huggingface dataset:
A disposable absorbent insert comprising: a liquid permeable topsheet; a liquid impermeable backsheet; and an absorbent core comprising absorbent material therein and being sandwiched between said topsheet and backsheet; wherein the insert comprises a perimeter formed by first and second transverse edges (6, 7) and first and second longitudinal edges (8, 9) connecting the first and second transverse edges (6, 7); a longitudinal centerline (y) extending substantially parallel to said first and second longitudinal edges (8, 9) and interposed therebetween such to divide said insert into a first longitudinal half between said longitudinal centerline (y) and said first longitudinal edge and a second longitudinal half between said longitudinal centerline (y) and said second longitudinal edge; and a transverse centerline (x) extending substantially parallel to said first and second transverse edges (6, 7) and interposed therebetween such to divide said insert into a first transverse half between said transverse centerline (x) and said first transverse edge and a second transverse half between said transverse centerline (x) and said second transverse edge; characterised in that the insert comprises longitudinally extending folds (F o, F o ') proximal to each said first and second longitudinal edges (8, 9) wherein said folds (F o, F o ') comprise a contact surface where a first portion of the backsheet is in contact with a second portion of the backsheet and in that said contact surface is a garment-facing surface of said backsheet. a liquid permeable topsheet; a liquid impermeable backsheet; and an absorbent core comprising absorbent material therein and being sandwiched between said topsheet and backsheet; wherein the insert comprises a perimeter formed by first and second transverse edges (6, 7) and first and second longitudinal edges (8, 9) connecting the first and second transverse edges (6, 7); a longitudinal centerline (y) extending substantially parallel to said first and second longitudinal edges (8, 9) and interposed therebetween such to divide said insert into a first longitudinal half between said longitudinal centerline (y) and said first longitudinal edge and a second longitudinal half between said longitudinal centerline (y) and said second longitudinal edge; and a transverse centerline (x) extending substantially parallel to said first and second transverse edges (6, 7) and interposed therebetween such to divide said insert into a first transverse half between said transverse centerline (x) and said first transverse edge and a second transverse half between said transverse centerline (x) and said second transverse edge; characterised in that the insert comprises longitudinally extending folds (F o, F o ') proximal to each said first and second longitudinal edges (8, 9) wherein said folds (F o, F o ') comprise a contact surface where a first portion of the backsheet is in contact with a second portion of the backsheet and in that said contact surface is a garment-facing surface of said backsheet.
A sensor device comprising: a cylindrical casing; a vibration detecting unit including a detection probe, a bottomed cylindrical holder (22, 52, 62) having a bottom wall in which a rear end of the detection probe is inserted and fixed, and a spring that is disposed rearward of the vibration detecting unit, is configured to contact the holder (22, 52, 62) to bias the holder (22, 52, 62) forward, and causes a tip of the detection probe to project from the casing, wherein the tip of the detection probe is configured to be pushed against a measurement object to detect vibration of the measurement object, characterized in that a piezoelectric element (25, 26) is held in the holder (22, 52, 62) disposed rearward of the detection probe, and configured to contact the rear end of the detection probe and in that the vibration detecting unit further includes a push member (29, 31, 21) held in the holder (22, 52, 62) and configured to push the piezoelectric element (25, 26) against the rear end of the detection probe, the vibration detecting unit being disposed in the casing. a cylindrical casing; a vibration detecting unit including a detection probe, a bottomed cylindrical holder (22, 52, 62) having a bottom wall in which a rear end of the detection probe is inserted and fixed, and a spring that is disposed rearward of the vibration detecting unit, is configured to contact the holder (22, 52, 62) to bias the holder (22, 52, 62) forward, and causes a tip of the detection probe to project from the casing, wherein the tip of the detection probe is configured to be pushed against a measurement object to detect vibration of the measurement object, characterized in that a piezoelectric element (25, 26) is held in the holder (22, 52, 62) disposed rearward of the detection probe, and configured to contact the rear end of the detection probe and in that the vibration detecting unit further includes a push member (29, 31, 21) held in the holder (22, 52, 62) and configured to push the piezoelectric element (25, 26) against the rear end of the detection probe, the vibration detecting unit being disposed in the casing.
A molten material metering device for a casting device, comprising - a metering container, which can be evacuated and moved between a melt uptake point and a melt discharge point, configured to take out a meterable amount of casting molten material from a melt bath at the melt uptake point, to transfer the molten material to the melt discharge point of the casting device and to discharge it there, and - an evacuation device (7, 17), which is coupled to the metering container for evacuation of the same, characterized by - a weight sensor, which is configured to monitor the weight of the empty metering container during lowering into the melt bath with respect to reaching a predefinable submerged position (1 A) of the metering container. - a metering container, which can be evacuated and moved between a melt uptake point and a melt discharge point, configured to take out a meterable amount of casting molten material from a melt bath at the melt uptake point, to transfer the molten material to the melt discharge point of the casting device and to discharge it there, and - an evacuation device (7, 17), which is coupled to the metering container for evacuation of the same, characterized by - a weight sensor, which is configured to monitor the weight of the empty metering container during lowering into the melt bath with respect to reaching a predefinable submerged position (1 A) of the metering container.
An infrared radiation emitter comprising an emitter body which comprises a ceramic material and wherein the emitter body has a working region which emits incoherent infrared radiation when an electric current is applied, wherein the ceramic material comprises a first material component which has an electrical conductivity (σ) which increases when the temperature increases, and wherein the ceramic material has a second material component which increases the electrical conductivity (σ) of the ceramic material in a lower temperature range of below 700° Celsius, wherein at least the working region is substantially dimensionally stable and self-supporting and is formed as an elongated body and wherein the longitudinal extension of the emitter body is a multiple or multiples of a width and a height of a cross-section of the emitter body oriented or arranged transversely to the longitudinal extension, and wherein the working region comprises one or more curvatures or bends along its longitudinal extension.
A method for receiving a time division multiplexed transmission, the method comprising: demultiplexing a first payload transmitted in a first partition of a transmission interval of the TDM transmission, wherein the TDM transmission further includes a second payload transmitted in a second partition of the transmission interval, wherein the transmission interval is a slot in a frame including a number of slots; processing the first payload first in accordance with a first signal processing scheme; demultiplexing the second payload transmitted in the second partition of the transmission interval; processing the second payload in accordance with a second signal processing scheme, wherein the first and second signal processing schemes use different schemes and the first payload comprises voice/data and the second payload comprises packet data. demultiplexing a first payload transmitted in a first partition of a transmission interval of the TDM transmission, wherein the TDM transmission further includes a second payload transmitted in a second partition of the transmission interval, wherein the transmission interval is a slot in a frame including a number of slots; processing the first payload first in accordance with a first signal processing scheme; demultiplexing the second payload transmitted in the second partition of the transmission interval; processing the second payload in accordance with a second signal processing scheme, wherein the first and second signal processing schemes use different schemes and the first payload comprises voice/data and the second payload comprises packet data.
Process for producing water-absorbing polymer structures, comprising the process steps of: i) providing an aqueous monomer solution comprising - a polymerizable, monoethylenically unsaturated monomer (α1) bearing acid groups, or a salt thereof, - optionally a monoethylenically unsaturated monomer (α2) polymerizable with monomer (α1), and - optionally a crosslinker (α3), ii) free-radically polymerizing the aqueous monomer solution to obtain a polymer gel, iii) optionally comminuting the polymer gel, iv) drying the optionally comminuted polymer gel to obtain water-absorbing polymer structures, v) optionally grinding and sieving the water-absorbing polymer structures, and vi) surface postcrosslinking the optionally ground and sieved water-absorbing polymer structures, by adding I) to the aqueous monomer solution before process step ii) or during process step ii), preferably before process step ii), or II) to the polymer gel after process step ii) and before process step iv) a thermoplastic polymer in the form of a dispersion comprising the thermoplastic polymer, a dispersion medium and optionally a dispersant, and wherein the dispersion has a Brookfield viscosity determined at 20°C within a range from 0.1 to 10 000 mPa × sec, and the dispersion medium is water, and the amount of thermoplastic polymer in the dispersion is within a range from 5 to 95% by weight, based on the total weight of the dispersion, and wherein the water-absorbing polymer structure is not contacted at all with ultrafine particles, preferably not at all with an organic or inorganic powder. i) providing an aqueous monomer solution comprising - a polymerizable, monoethylenically unsaturated monomer (α1) bearing acid groups, or a salt thereof, - optionally a monoethylenically unsaturated monomer (α2) polymerizable with monomer (α1), and - optionally a crosslinker (α3), - a polymerizable, monoethylenically unsaturated monomer (α1) bearing acid groups, or a salt thereof, - optionally a monoethylenically unsaturated monomer (α2) polymerizable with monomer (α1), and - optionally a crosslinker (α3), ii) free-radically polymerizing the aqueous monomer solution to obtain a polymer gel, iii) optionally comminuting the polymer gel, iv) drying the optionally comminuted polymer gel to obtain water-absorbing polymer structures, v) optionally grinding and sieving the water-absorbing polymer structures, and vi) surface postcrosslinking the optionally ground and sieved water-absorbing polymer structures, I) to the aqueous monomer solution before process step ii) or during process step ii), preferably before process step ii), or II) to the polymer gel after process step ii) and before process step iv)
A nonwoven fabric, comprising: (i) a first disposable-high-loft ("DHL") nonwoven layer comprising a first plurality of crimped continuous multi-component fibers; wherein the first DHL nonwoven layer has a first density and a first bonded area comprising 15% or less and being defined by a first plurality of discrete first bond sites; and (ii) a scrim comprising a first side, a second side, a scrim density, and a scrim bonded area comprising more than 15% and being defined by a plurality of discrete scrim bond sites; wherein the first side of the scrim is bonded directly to the first DHL nonwoven layer and the scrim density is larger than the first density, and wherein the average distance between adjacent scrim bond sites is smaller than the average distance between adjacent first bond sites, wherein the average distance between adjacent scrim bond sites is from 0.1 mm to 10 mm; wherein the first DHL nonwoven layer has a thickness from 0.2 to 2.75 mm. (i) a first disposable-high-loft ("DHL") nonwoven layer comprising a first plurality of crimped continuous multi-component fibers; wherein the first DHL nonwoven layer has a first density and a first bonded area comprising 15% or less and being defined by a first plurality of discrete first bond sites; and (ii) a scrim comprising a first side, a second side, a scrim density, and a scrim bonded area comprising more than 15% and being defined by a plurality of discrete scrim bond sites; wherein the first side of the scrim is bonded directly to the first DHL nonwoven layer and the scrim density is larger than the first density, and wherein the average distance between adjacent scrim bond sites is smaller than the average distance between adjacent first bond sites, wherein the average distance between adjacent scrim bond sites is from 0.1 mm to 10 mm;
High-pressure fuel pump of an internal combustion engine, having a pump housing for receiving at least one pump element and also a drive shaft for actuating the at least one pump element, wherein the pump housing comprises at least one housing part manufactured from plastic, characterized in that, at least in the region of a site subjected to high mechanical and/or thermal loading, the housing part manufactured from plastic has a nanocrystalline metallic coating which increases the strength and/or the temperature resistance.
A pneumatic tire for heavy load including a circumferentially-formed groove running in a circumferential direction of the tire on a surface of a tread part, wherein when a pneumatic pressure equivalent to a normal inner pressure is applied to the tire with reference to a case where a pneumatic pressure equivalent to an inner pressure of 100 kPa is applied, a radius growth in a radial direction of the tire at a crown center of the tread part and in the circumferentially-formed groove located at a most lateral side in a width direction of the tire is less than 0.3%, the pneumatic tire comprising: at least two crossing belts (72, 74) arranged at an angle not less than 10 degrees and not more than 30 degrees with respect to the circumferential direction of the tire; and at least one circumferential reinforcement layer arranged at an angle not less than zero degrees and not more than five degrees with respect to the circumferential direction of the tire are provided at an outer side of a carcass layer in the radial direction of the tire, wherein a summation ΣLi [kN] of a circumferential force of the crossing belts and the circumferential reinforcement layer with respect to a normal load W [kN] is set within a range expressed by 3.00 ≤ ΣLi/W ≤ 4.20, and the circumferential force is a force of a wire in the tire circumferential direction and is expressed by (a wire force against a rupture)×[number of wire ends (number of ends/50[mm])] ×cos[wire angle] 2). at least two crossing belts (72, 74) arranged at an angle not less than 10 degrees and not more than 30 degrees with respect to the circumferential direction of the tire; and at least one circumferential reinforcement layer arranged at an angle not less than zero degrees and not more than five degrees with respect to the circumferential direction of the tire are provided at an outer side of a carcass layer in the radial direction of the tire, wherein a summation ΣLi [kN] of a circumferential force of the crossing belts and the circumferential reinforcement layer with respect to a normal load W [kN] is set within a range expressed by 3.00 ≤ ΣLi/W ≤ 4.20, and the circumferential force is a force of a wire in the tire circumferential direction and is expressed by (a wire force against a rupture)×[number of wire ends (number of ends/50[mm])] ×cos[wire angle] 2).
A method in a wireless communication network, the wireless communication network comprising a base station and a terminal associated with a device application, the method comprising: the base station providing a plurality of possible network configurations to a determination application, each possible network configuration associated with transfer of device application data between the terminal and the base station; the determination application determining at least one preferred network configuration from the plurality of possible network configurations and reporting the at least one preferred network configuration to the base station; and the base station selecting a network configuration from the at least one preferred network configuration and transmitting the selected network configuration to the terminal, characterised in that the selected network configuration sets a triggering condition for transfer of the device application data from the terminal to the determination application via the base station. the base station providing a plurality of possible network configurations to a determination application, each possible network configuration associated with transfer of device application data between the terminal and the base station; the determination application determining at least one preferred network configuration from the plurality of possible network configurations and reporting the at least one preferred network configuration to the base station; and the base station selecting a network configuration from the at least one preferred network configuration and transmitting the selected network configuration to the terminal, characterised in that the selected network configuration sets a triggering condition for transfer of the device application data from the terminal to the determination application via the base station.
A steel sheet for containers, comprising: a steel sheet; an underlying Ni layer formed by performing a Ni coating or a Fe-Ni alloy coating containing Ni in an amount of 5 mg/m 2 to 150 mg/m 2 in terms of an amount of metal Ni on at least one surface of the steel sheet; a Sn coated layer formed by performing a Sn coating containing Sn in an amount of 300 mg/m 2 to 3,000 mg/m 2 in terms of an amount of metal Sn on the underlying Ni layer and including an island-shaped Sn formed by alloying the Sn coating and at least a part of the underlying Ni layer by a reflow treatment; an oxide layer formed on the Sn coated layer and containing tin oxide; and a chemical treatment layer formed on the oxide layer and containing Zr compounds containing Zr in an amount of 1 mg/m 2 to 500 mg/m 2 in terms of an amount of metal Zr and phosphoric acid compounds in an amount of 0.1 mg/m 2 to 100 mg/m 2 in terms of an amount of P, wherein the oxide layer contains tin oxide in such an amount that an amount of electricity required for reduction of the oxide layer is 5.5 mC/cm 2 to 10 mC/cm 2. a steel sheet; an underlying Ni layer formed by performing a Ni coating or a Fe-Ni alloy coating containing Ni in an amount of 5 mg/m 2 to 150 mg/m 2 in terms of an amount of metal Ni on at least one surface of the steel sheet; a Sn coated layer formed by performing a Sn coating containing Sn in an amount of 300 mg/m 2 to 3,000 mg/m 2 in terms of an amount of metal Sn on the underlying Ni layer and including an island-shaped Sn formed by alloying the Sn coating and at least a part of the underlying Ni layer by a reflow treatment; an oxide layer formed on the Sn coated layer and containing tin oxide; and a chemical treatment layer formed on the oxide layer and containing Zr compounds containing Zr in an amount of 1 mg/m 2 to 500 mg/m 2 in terms of an amount of metal Zr and phosphoric acid compounds in an amount of 0.1 mg/m 2 to 100 mg/m 2 in terms of an amount of P, wherein the oxide layer contains tin oxide in such an amount that an amount of electricity required for reduction of the oxide layer is 5.5 mC/cm 2 to 10 mC/cm 2.
A device for damage diagnostics for slowly rotating rolling bearings formed by a frame, in which a shaft driven by means of a drive wheel is mounted, on which shaft at least one shaft bearing is arranged, characterized in that the device additionally comprises a bearing and a reference element, wherein the reference element is mounted in the bearing and is arranged on the shaft bearing, wherein the bearing is attached to the frame, wherein by means of the bearing the reference element is arranged rotatably relative to the frame, wherein the reference element is arranged rotatably between the shaft bearing and the bearing, that in the event of a damaging of the shaft bearing the reference element rotates together with the shaft and wherein a position sensor is connected with the reference element, which is attached to the frame.