mhurhangee/ep-ind-claims huggingface dataset:
A board comprising acetylated wood elements, wherein the acetylated wood elements are obtained from rubberwood, wherein said acetylated wood elements have an acetyl content of at least 17%, and wherein said acetylated wood elements are selected from the group consisting of fibres, chips, particles, splinters, and fibre bundles; preferably fibres; wherein fibres have a length of from 1 mm to 5 mm, a width of from 0.05 mm to 0.1 mm, and a thickness of from 0.05 mm to 0.1 mm; chips have a length of from 5 mm to 75 mm, a width of from 5 mm to 50 mm, and a thickness of from 1.5 mm to 25 mm; particles have a length of from 1.5 mm to 20 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm; splinters have a length of from 5 mm to 75 mm, a width of from 0.15 mm to 0.5 mm, and a thickness of from 0.15 mm to 0.5 mm; and fibre bundles have a length of from 1.5 mm to 25 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm. wherein fibres have a length of from 1 mm to 5 mm, a width of from 0.05 mm to 0.1 mm, and a thickness of from 0.05 mm to 0.1 mm; chips have a length of from 5 mm to 75 mm, a width of from 5 mm to 50 mm, and a thickness of from 1.5 mm to 25 mm; particles have a length of from 1.5 mm to 20 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm; splinters have a length of from 5 mm to 75 mm, a width of from 0.15 mm to 0.5 mm, and a thickness of from 0.15 mm to 0.5 mm; and fibre bundles have a length of from 1.5 mm to 25 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm.
A hydrogel particle that has an average cross-sectional diameter in the range from 3 micrometer (μm) to 1000 μm, wherein the particle comprises a first polymer network with an average mesh size that allows diffusion of a molecule with an hydrodynamic radius of 1000 nanometer (nm) or less into the first polymer network and which particle comprises a binding molecule that is immobilized by the polymer network, and which binding molecule binds a molecule with hydrodynamic radius of 1000 nanometer (nm) or less, wherein the hydrogel comprises a dextran-tyramine hydrogel; a hyaluronic acid-tyramine hydrogel; a PEG-tyramine hydrogel or a combination thereof, wherein the mesh size is determined according to the description, wherein the average cross-sectional diameter of the particle is measured, after incubation in a physiological aqueous saline solution being phosphate-buffered saline at pH7.4 until the hydrogel diameter has reached equilibrium, by microscopy in combination with digital image analysis, and wherein the hydrodynamic radius of the molecule is determined using dynamic light scattering as according to Stetefeld et al, Biophys Rev. 2016 Dec; 8: 409-427. wherein the average cross-sectional diameter of the particle is measured, after incubation in a physiological aqueous saline solution being phosphate-buffered saline at pH7.4 until the hydrogel diameter has reached equilibrium, by microscopy in combination with digital image analysis, and wherein the hydrodynamic radius of the molecule is determined using dynamic light scattering as according to Stetefeld et al, Biophys Rev. 2016 Dec; 8: 409-427.
A method of manufacturing a solid formulation product comprising steps of: positioning a platform into a cup comprising an open end comprising a skirt, such that the platform is at least partially received by the cup; then filing the cup with liquid formulation to a predetermined level such that the platform is at least partially submerged in the liquid formulation; solidifying the liquid formulation in the cup to form a solid formulation; once the solid formulation is formed, deforming then releasing the skirt, wherein the skirt is shaped such that when the platform is received within the cup a space is defined between the platform and the skirt and wherein deforming the skirt comprises compression of the skirt along a compressible axis of the skirt which causes expansion of the skirt along an expandible axis of the skirt which is substantially normal to the compressible axis of the skirt. positioning a platform into a cup comprising an open end comprising a skirt, such that the platform is at least partially received by the cup; then filing the cup with liquid formulation to a predetermined level such that the platform is at least partially submerged in the liquid formulation; solidifying the liquid formulation in the cup to form a solid formulation; once the solid formulation is formed, deforming then releasing the skirt, wherein the skirt is shaped such that when the platform is received within the cup a space is defined between the platform and the skirt and wherein deforming the skirt comprises compression of the skirt along a compressible axis of the skirt which causes expansion of the skirt along an expandible axis of the skirt which is substantially normal to the compressible axis of the skirt.
An aerosol generation device comprising a housing, the housing defining an internal space, the device comprising at least a heat source within the internal space; the housing comprising at least an insulation wall comprising an inner surface facing the internal space and an outer surface opposite to the inner surface; the device further comprising a thermal insulation layer arranged on at least a thermo-protected portion of the outer surface of the insulation wall, the thermal insulation layer comprising a mesh sublayer, the mesh sublayer comprising an interlaced structure, characterized in that the interlaced structure comprises through-holes through which the heat generated by the heat source flows from the internal space to the outside of the device, the through-holes having a size between 20 μm and 100 μm. the housing comprising at least an insulation wall comprising an inner surface facing the internal space and an outer surface opposite to the inner surface; the device further comprising a thermal insulation layer arranged on at least a thermo-protected portion of the outer surface of the insulation wall, the thermal insulation layer comprising a mesh sublayer, the mesh sublayer comprising an interlaced structure, characterized in that the interlaced structure comprises through-holes through which the heat generated by the heat source flows from the internal space to the outside of the device, the through-holes having a size between 20 μm and 100 μm.
An amorphous polyetherimide fiber comprising an amorphous polyetherimide polymer having a molecular weight distribution (Mw/Mn) of less than 2.5, having a shrinkage percentage under dry heat at 200 °C of 5% or less, and a single fiber fineness of 3.0 dtex or less, and a tenacity of the fiber at room temperature of 2.0 cN/dtex or greater, wherein the fiber is an undrawn melt spun fiber.
An encapsulated protective suit, comprising: an external air flow hose coupled to the suit; a skin; a filter incorporated in the skin of the protective suit; and a seal, wherein when the seal is intact, air does not flow through the filter; wherein the seal is coupled to one of an outside of the filter or an outside of the protective suit; and wherein the seal is coupled by a tearable weld to one of the outside of the filter or the outside of the protective suit, wherein after the tearable weld has been torn, air passes through the filter to an interior of the protective suit. an external air flow hose coupled to the suit; a skin; a filter incorporated in the skin of the protective suit; and a seal, wherein when the seal is intact, air does not flow through the filter; wherein the seal is coupled to one of an outside of the filter or an outside of the protective suit; and wherein the seal is coupled by a tearable weld to one of the outside of the filter or the outside of the protective suit, wherein after the tearable weld has been torn, air passes through the filter to an interior of the protective suit.
Process for producing a tread for a vehicle tyre, characterized in that: - a tread strip made of rubber is extruded; - at least one furrow is formed in the tread strip, the tread strip exhibiting material that is contiguous with the furrow; - at least one string is supplied from a coil; - the string is inserted into the one furrow or each furrow; and - the furrow is reclosed over the string using material of the tread strip that is contiguous with the furrow. - a tread strip made of rubber is extruded; - at least one furrow is formed in the tread strip, the tread strip exhibiting material that is contiguous with the furrow; - at least one string is supplied from a coil; - the string is inserted into the one furrow or each furrow; and - the furrow is reclosed over the string using material of the tread strip that is contiguous with the furrow.
A method for handover operation management by a target base station, comprising: receiving a reference signal configuration of a user equipment, UE (115; 115-a), from a source base station (105-a); monitoring reference signal information associated with the UE (115; 115-a), based at least in part on a reference signal configuration of the UE (115; 115-a) received from a source base station (105-a); estimating timing information for the UE (115; 115-a) based at least in part on the reference signal information; and transmitting, during a handover preparation operation between the source base station (105-a) and the target base station, the timing information to the source base station (105-a) such that a physical random access channel, PRACH, transmission from the UE (115; 115-a) to the target base station is not necessary; negotiating physical uplink shared channel, PUSCH, resources during the handover preparation operation; and receiving an uplink data transmission from the UE (115; 115-a) after uplink resources are assigned by the source base station (105-a) for the target base station. receiving a reference signal configuration of a user equipment, UE (115; 115-a), from a source base station (105-a); monitoring reference signal information associated with the UE (115; 115-a), based at least in part on a reference signal configuration of the UE (115; 115-a) received from a source base station (105-a); estimating timing information for the UE (115; 115-a) based at least in part on the reference signal information; and transmitting, during a handover preparation operation between the source base station (105-a) and the target base station, the timing information to the source base station (105-a) such that a physical random access channel, PRACH, transmission from the UE (115; 115-a) to the target base station is not necessary; negotiating physical uplink shared channel, PUSCH, resources during the handover preparation operation; and receiving an uplink data transmission from the UE (115; 115-a) after uplink resources are assigned by the source base station (105-a) for the target base station.
A rollable glass sheet configured to reversibly transition between a flat configuration and a bent configuration, the rollable glass sheet comprising: a first major surface; a second major surface opposite to the first major surface, the first major surface and the second major surface defining a thickness of the glass sheet, wherein the thickness is from 0.21 mm to 0.4 mm; wherein, in the flat configuration, the first major surface comprises a first surface compressive stress and a first depth of compression, wherein the first depth of compression is at least 32 μm; wherein, in the flat configuration, the rollable glass sheet comprises a central tension between the first major surface and the second major surface, wherein the central tension is at most 175 MPa; and wherein, in the bent configuration, the first major surface comprises a curvature and wherein, at a radius of curvature of 50 mm, the first major surface comprises a second surface compressive stress less than the first surface compressive stress and a second depth of compression less than the first depth of compression and greater than 11 μm. a first major surface; a second major surface opposite to the first major surface, the first major surface and the second major surface defining a thickness of the glass sheet, wherein the thickness is from 0.21 mm to 0.4 mm; wherein, in the flat configuration, the first major surface comprises a first surface compressive stress and a first depth of compression, wherein the first depth of compression is at least 32 μm; wherein, in the flat configuration, the rollable glass sheet comprises a central tension between the first major surface and the second major surface, wherein the central tension is at most 175 MPa; and wherein, in the bent configuration, the first major surface comprises a curvature and wherein, at a radius of curvature of 50 mm, the first major surface comprises a second surface compressive stress less than the first surface compressive stress and a second depth of compression less than the first depth of compression and greater than 11 μm.
A method to remove unwanted very weak acidic compounds, which include in particular 4-ethylphenol and 4-ethylguaiacol, from a beverage, wherein the beverage is first processed by nanofiltration to obtain a raw nanofiltration permeate and a beverage concentrate, then the nanofiltration permeate is processed by electrodialysis to obtain a purified nanofiltration permeate, and finally the purified nanofiltration permeate is mixed with the beverage concentrate to obtain the treated beverage, comprising: adjusting the pH of the nanofiltration permeate to a value higher than 10.5 by the addition of a food grade alkaline substance and running the electrodialysis until the conductivity at 25°C of the permeate is lower than 100 microsiemen/cm.
A measurement data acquisition system for acquiring measurement data from or by using a test vehicle having a first wheel and a second wheel, the measurement data acquisition system comprising: a wheel rotation speed sensor (11 b) configured to acquire a first wheel rotation speed, wherein the first wheel rotation speed is a rotation speed of the first wheel; a vehicle speed sensor configured to acquire a vehicle speed of the test vehicle; an attitude detection unit configured to acquire a bank angle of a vehicle body of the test vehicle; and an arithmetic unit configured to, during travel at a predetermined bank angle and in the absence of any braking force and in the absence of any driving force, acquire measurement data representing a relationship between the first wheel rotation speed and the vehicle speed, wherein the measurement data is installable or to be installed in a predetermined or subject vehicle for use in determining a relationship between the rotation speed of a wheel of the predetermined or subject vehicle and the vehicle speed of the predetermined or subject vehicle during travel of the predetermined or subject vehicle at the predetermined bank angle. a wheel rotation speed sensor (11 b) configured to acquire a first wheel rotation speed, wherein the first wheel rotation speed is a rotation speed of the first wheel; a vehicle speed sensor configured to acquire a vehicle speed of the test vehicle; an attitude detection unit configured to acquire a bank angle of a vehicle body of the test vehicle; and an arithmetic unit configured to, during travel at a predetermined bank angle and in the absence of any braking force and in the absence of any driving force, acquire measurement data representing a relationship between the first wheel rotation speed and the vehicle speed, wherein the measurement data is installable or to be installed in a predetermined or subject vehicle for use in determining a relationship between the rotation speed of a wheel of the predetermined or subject vehicle and the vehicle speed of the predetermined or subject vehicle during travel of the predetermined or subject vehicle at the predetermined bank angle.
A gas turbine engine which includes a fan, a low pressure compressor downstream of the fan, a low pressure compressor panel which is radially outwardly from the low pressure compressor, and a V-groove downstream of the low pressure compressor panel and an air-oil cooler, the air-oil cooler comprising: an oil inlet (80; 100; 130; 160) for receiving a hot oil from a component of the gas turbine engine; an oil outlet (82; 102; 132; 162); and a plurality of heat exchange elements (84; 104; 134; 136; 164, 166, 168, 170) between the oil inlet (80; 100; 130; 160) and the oil outlet (82; 102; 132; 162), characterised in that the air-oil cooler has a curved geometry and extends circumferentially about the low pressure compressor, wherein the air-oil cooler is longitudinally located between the fan and the V-groove and radially spaced between the low pressure compressor and the low pressure compressor panel and the air-oil cooler has a low profile such that the air-oil cooler does not protrude outside of the low pressure compressor panel, and wherein the air-oil cooler receives a current of cold air bled from the low pressure compressor and the current of cold air bled exits the air-oil cooler through an overboard exhaust. an oil inlet (80; 100; 130; 160) for receiving a hot oil from a component of the gas turbine engine; an oil outlet (82; 102; 132; 162); and a plurality of heat exchange elements (84; 104; 134; 136; 164, 166, 168, 170) between the oil inlet (80; 100; 130; 160) and the oil outlet (82; 102; 132; 162), characterised in that the air-oil cooler has a curved geometry and extends circumferentially about the low pressure compressor, wherein the air-oil cooler is longitudinally located between the fan and the V-groove and radially spaced between the low pressure compressor and the low pressure compressor panel and the air-oil cooler has a low profile such that the air-oil cooler does not protrude outside of the low pressure compressor panel, and wherein the air-oil cooler receives a current of cold air bled from the low pressure compressor and the current of cold air bled exits the air-oil cooler through an overboard exhaust.
An optical sensor (11, 21, 31a) comprising: a light emitter; a light receiver; a rod-shaped grasping member in which one of the light emitter and the light receiver is disposed, and which is to be grasped by a hand of a subject; and a clamping member which is adapted to clamp a part of the hand of the subject with the grasping member, another one of the light emitter and the light receiver being disposed in the clamping member, wherein the clamping member extends in a longitudinal direction of the rod-shaped grasping member; wherein the one of the light emitter and the light receiver is disposed in the rod-shaped grasping member, which includes a curved outer circumferential surface in which a light emitting surface of the light emitter or a light receiving surface of the light receiver is directed to the outside of the grasping member; and wherein the grasping member has a shape of a body, which is rotationally symmetric about the axis extending in the longitudinal direction. a light emitter; a light receiver; a rod-shaped grasping member in which one of the light emitter and the light receiver is disposed, and which is to be grasped by a hand of a subject; and a clamping member which is adapted to clamp a part of the hand of the subject with the grasping member, another one of the light emitter and the light receiver being disposed in the clamping member, wherein the clamping member extends in a longitudinal direction of the rod-shaped grasping member; wherein the one of the light emitter and the light receiver is disposed in the rod-shaped grasping member, which includes a curved outer circumferential surface in which a light emitting surface of the light emitter or a light receiving surface of the light receiver is directed to the outside of the grasping member; and wherein the grasping member has a shape of a body, which is rotationally symmetric about the axis extending in the longitudinal direction.
Method for determining yield sooting tendency using gas-chromatographic component analysis of hydrocarbon types and oxygenates of a substance mixture, in particular of a fuel or of an additive, by means of a reformulyzer analysis, the method comprising the following steps: classifying the hydrocarbon types and oxygenates of the substance mixture determined within the component analysis into functional reformulyzer supergroups, classifying the determined hydrocarbon types and oxygenates according to the number of carbon atoms into reformulyzer subgroups (i), which are associated with the functional reformulyzer supergroups, determining the percentage volumetric proportion (V i) of the relevant reformulyzer subgroup (i) from the total volume of the substance mixture, characterized by the steps of: assigning a yield sooting index (YSI i) to each reformulyzer subgroup (i), determining a total yield sooting index (YSI gesamt) according to the equation YSI Gesamt = Σ YSI i · V i /100, wherein the volumetric proportion (V i) of each reformulyzer subgroup (i) is multiplied by the yield sooting index (YSI i) associated with the reformulyzer subgroup (i), after which the determined values are summed to form the total yield sooting index (YSI gesamt). classifying the hydrocarbon types and oxygenates of the substance mixture determined within the component analysis into functional reformulyzer supergroups, classifying the determined hydrocarbon types and oxygenates according to the number of carbon atoms into reformulyzer subgroups (i), which are associated with the functional reformulyzer supergroups, determining the percentage volumetric proportion (V i) of the relevant reformulyzer subgroup (i) from the total volume of the substance mixture, characterized by the steps of: assigning a yield sooting index (YSI i) to each reformulyzer subgroup (i), determining a total yield sooting index (YSI gesamt) according to the equation YSI Gesamt = Σ YSI i · V i /100, wherein the volumetric proportion (V i) of each reformulyzer subgroup (i) is multiplied by the yield sooting index (YSI i) associated with the reformulyzer subgroup (i), after which the determined values are summed to form the total yield sooting index (YSI gesamt).
A spindle carrier assembly for use on a machine tool, comprising - a swivel arm receiving portion capable of being arranged or mounted on a machine bed of said machine tool, - a first swivel arm pivotally supported on said swivel arm receiving portion about a first axis of rotation, - a second swivel arm pivotally supported on said first swivel arm about a second axis of rotation, - a spindle carrier arm rotatably supported on said second swivel arm about a third axis of rotation, - a milling head rotatably supported on said spindle carrier arm about a fourth axis of rotation, and - a work spindle retained on said milling head for receiving a tool, wherein said third axis of rotation is oriented perpendicularly or transversely with respect to said fourth axis of rotation, said swivel arm receiving portion has two swivel arm retaining bodies (221, 222), and wherein said first swivel arm is retained in a pivotally supported manner between both swivel arm retaining bodies (221, 222); characterized in that one of said swivel arm retaining bodies is formed smaller than the other swivel arm retaining body of both swivel arm retaining bodies, wherein said second swivel arm is retained at the side of said first swivel arm facing said smaller swivel arm retaining body. - a swivel arm receiving portion capable of being arranged or mounted on a machine bed of said machine tool, - a first swivel arm pivotally supported on said swivel arm receiving portion about a first axis of rotation, - a second swivel arm pivotally supported on said first swivel arm about a second axis of rotation, - a spindle carrier arm rotatably supported on said second swivel arm about a third axis of rotation, - a milling head rotatably supported on said spindle carrier arm about a fourth axis of rotation, and - a work spindle retained on said milling head for receiving a tool,