mhurhangee/ep-ind-claims huggingface dataset:
A skin cleansing agent composition having an isotropic liquid phase, which is a bicontinuous structure, and comprising: 15 to 30 mass% of a nonionic surfactant having hydrophilic-lipophilic balance of higher than 9 and equal to or lower than 20; 1 to 15 mass% of a nonionic surfactant having HLB of equal to or higher than 5 and equal to or lower than 9; 10 to 40 mass% of an oil agent, which is composed of a hydrocarbon oil, and one, two or more compound(s) selected from the group consisting of ester oil and an ether oil, wherein the viscosity at 30°C is equal to or lower than 30 mPa·s; 10 to 40 mass% of a water-soluble compound acting as a solvent for obtaining the bicontinuous structure, and having 3 or more of hydroxyl groups in single molecule; 10 to 30 mass% of a water-soluble compound acting as a solvent for obtaining the bicontinuous structure, and having 1 or 2 hydroxyl group(s) in single molecule; 0.05 to 1.0 mass% of a water-soluble polymer comprising (meta)acrylic acid as a configuration unit and/or an acryloyl methyl taurate-vinylpyrrolidone copolymer; 0.001 to 2.0 mass% of a water-soluble inorganic salt and/or an organic salt having 1 to 8 carbon atoms; and water. 15 to 30 mass% of a nonionic surfactant having hydrophilic-lipophilic balance of higher than 9 and equal to or lower than 20; 1 to 15 mass% of a nonionic surfactant having HLB of equal to or higher than 5 and equal to or lower than 9; 10 to 40 mass% of an oil agent, which is composed of a hydrocarbon oil, and one, two or more compound(s) selected from the group consisting of ester oil and an ether oil, wherein the viscosity at 30°C is equal to or lower than 30 mPa·s; 10 to 40 mass% of a water-soluble compound acting as a solvent for obtaining the bicontinuous structure, and having 3 or more of hydroxyl groups in single molecule; 10 to 30 mass% of a water-soluble compound acting as a solvent for obtaining the bicontinuous structure, and having 1 or 2 hydroxyl group(s) in single molecule; 0.05 to 1.0 mass% of a water-soluble polymer comprising (meta)acrylic acid as a configuration unit and/or an acryloyl methyl taurate-vinylpyrrolidone copolymer; 0.001 to 2.0 mass% of a water-soluble inorganic salt and/or an organic salt having 1 to 8 carbon atoms; and water.
Bearing cage for a seat rail pair of a vehicle seat, comprising two interconnected cage elements (6.1, 6.2) for receiving a number of rolling bodies, characterized in that - the cage elements (6.1, 6.2) are of axially symmetrical design, and - on facing longitudinal sides of the cage elements (6.1, 6.2) between said elements there is arranged a connecting element (6.3) which runs parallel to the axis of symmetry and is of mechanically flexible design, - wherein the connecting element (6.3) is in the form of a spring, and the cage elements (6.1, 6.2) form spring legs which are pivotable about the axis of symmetry. - the cage elements (6.1, 6.2) are of axially symmetrical design, and - on facing longitudinal sides of the cage elements (6.1, 6.2) between said elements there is arranged a connecting element (6.3) which runs parallel to the axis of symmetry and is of mechanically flexible design, - wherein the connecting element (6.3) is in the form of a spring, and the cage elements (6.1, 6.2) form spring legs which are pivotable about the axis of symmetry.
An agricultural machine, comprising: a vehicle frame; and a capacitive sensor carried by the vehicle frame, the capacitive sensor comprising: a transmitter assembly comprising a signal driver, at least one guard driver, and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor. a vehicle frame; and a capacitive sensor carried by the vehicle frame, the capacitive sensor comprising: a transmitter assembly comprising a signal driver, at least one guard driver, and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor. a transmitter assembly comprising a signal driver, at least one guard driver, and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor.
An article to be applied to the skin, the mucous membranes or a wound, in order to absorb therein a liquid, especially an exudate, comprising: - a distal absorbent layer, - a plurality of discrete visual indicators that change appearance in the event of contact with the liquid, this or these visual indicator(s) being in contact with the distal absorbent layer, - an interface intended to contact the skin or the mucous membranes, - between the interface and the distal absorbent layer, at least one proximal absorbent layer adjacent to the interface, - between the proximal absorbent layer and the distal absorbent layer, at least one layer forming a barrier to water provided with at least one passage, preferably being unique an/or off-center, enabling the liquid that has penetrated the proximal absorbent layer to reach the distal absorbent layer, the water absorption capacity of the proximal absorbent layer being superior to the water absorption capacity of the distal absorbent layer. - a distal absorbent layer, - a plurality of discrete visual indicators that change appearance in the event of contact with the liquid, this or these visual indicator(s) being in contact with the distal absorbent layer, - an interface intended to contact the skin or the mucous membranes, - between the interface and the distal absorbent layer, at least one proximal absorbent layer adjacent to the interface, - between the proximal absorbent layer and the distal absorbent layer, at least one layer forming a barrier to water provided with at least one passage, preferably being unique an/or off-center, enabling the liquid that has penetrated the proximal absorbent layer to reach the distal absorbent layer,
A method of producing a shaped part, the method comprising: - suspending, in a liquid consisting of water, a powder comprising one or more refractory metals having a Fisher sub-sieve sizer (FSSS) particle-size distribution as determined by air permeability assuming perfectly spherical powder particles of d10 between 0.15 micron and 0.5 micron, d50 between 0.6 micron and 1 micron, and d90 between 2.4 microns and 3 microns, thereby forming a slip, wherein a particle-size distribution dX of Y denotes that X% of particles have a size less than Y; - introducing the slip into a mold having a shape approximately equal to a desired shape of the shaped part, the particle-size distribution of the powder comprising one or more refractory metals (i) substantially preventing separation of the powder comprising one or more refractory metals from the liquid by at least one of agglomeration or sedimentation and (ii) maintaining a substantially homogeneous distribution of powder particles comprising one or more refractory metals within the liquid; - thereafter, allowing at least a portion of the liquid to drain out of the slip to produce a green body comprising the powder comprising one or more refractory metals, further comprising applying a super-atmospheric pressure to at least one of the mold or the slip during or after introducing the slip into the mold; and - sintering the green body to produce the shaped part. - suspending, in a liquid consisting of water, a powder comprising one or more refractory metals having a Fisher sub-sieve sizer (FSSS) particle-size distribution as determined by air permeability assuming perfectly spherical powder particles of d10 between 0.15 micron and 0.5 micron, d50 between 0.6 micron and 1 micron, and d90 between 2.4 microns and 3 microns, thereby forming a slip, wherein a particle-size distribution dX of Y denotes that X% of particles have a size less than Y; - introducing the slip into a mold having a shape approximately equal to a desired shape of the shaped part, the particle-size distribution of the powder comprising one or more refractory metals (i) substantially preventing separation of the powder comprising one or more refractory metals from the liquid by at least one of agglomeration or sedimentation and (ii) maintaining a substantially homogeneous distribution of powder particles comprising one or more refractory metals within the liquid; - thereafter, allowing at least a portion of the liquid to drain out of the slip to produce a green body comprising the powder comprising one or more refractory metals, further comprising applying a super-atmospheric pressure to at least one of the mold or the slip during or after introducing the slip into the mold; and - sintering the green body to produce the shaped part.
A dental handpiece for rotationally driving a rotating dental tool comprising: a housing having a handle and a chuck for receiving the dental tool, a turbine drivable by compressed gas having a turbine wheel and a rotor shaft, the rotor shaft being connected to the chuck for rotationally driving the chuck; at least one ball bearing with balls, inner ring, outer ring and ball bearing cage, which rotatably supports the rotor shaft, wherein the inner ring of the ball bearing is arranged on the rotor shaft and the outer ring of the ball bearing is supported in the housing via an elastic element in order to dampen vibrations, wherein the outer ring and the inner ring each have a raceway for guiding the balls, wherein the raceway of the inner ring, seen in cross-section, has a concave shape with a constant curvature, the radius of which substantially corresponds to the radius of the balls, wherein the raceway of the outer ring, also seen in cross section, in a central region has a first curvature with a first radius (r 0) and in at least one region adjoining the central region has a second curvature with a second radius (r 1), characterized in that the second radius (r 1) is greater than the first radius (r 0) by about 50% to about 100%. a housing having a handle and a chuck for receiving the dental tool, a turbine drivable by compressed gas having a turbine wheel and a rotor shaft, the rotor shaft being connected to the chuck for rotationally driving the chuck; at least one ball bearing with balls, inner ring, outer ring and ball bearing cage, which rotatably supports the rotor shaft, wherein the inner ring of the ball bearing is arranged on the rotor shaft and the outer ring of the ball bearing is supported in the housing via an elastic element in order to dampen vibrations, wherein the outer ring and the inner ring each have a raceway for guiding the balls, wherein the raceway of the inner ring, seen in cross-section, has a concave shape with a constant curvature, the radius of which substantially corresponds to the radius of the balls, wherein the raceway of the outer ring, also seen in cross section, in a central region has a first curvature with a first radius (r 0) and in at least one region adjoining the central region has a second curvature with a second radius (r 1), characterized in that the second radius (r 1) is greater than the first radius (r 0) by about 50% to about 100%.
Setting unit for a punch riveting device, into which setting unit a rivet is introducible, having a vibrating system comprising a vibration converter that is connectable to a vibration generator, a booster and a sonotrode, and having a punch by means of which the rivet is able to be subjected to a force in a joining direction and is introducible into at least two components (11, 12) during a riveting operation, and having a housing unit for the vibrating system, characterized in that the booster and the sonotrode are configured as an integral component produced from one piece.
A method for transmitting a broadcast channel, BCH, carrying system information in a cellular communication system, which supports a scalable bandwidth and uses multiple access technology, the method comprising the steps of: mapping BCH modulation symbols including system information to a central band of a system band, the central band having a bandwidth equal to a transmission bandwidth of the BCH, wherein the BCH modulation symbols are constituted by sub-carrier symbols and are divided into first and second resource blocks, wherein each of the sub-carrier symbols refers to a modulation symbol mapped to one sub-carrier, and wherein the first resource block is mapped into a first half of the system band and the second resource block is mapped into a second half of the system band; additionally mapping the first resource block of the BCH modulation symbols into the second half of the system band, and the second resource block of the BCH modulation symbols into the first half of the system band, in case the system bandwidth is two times or larger than the maximum reception bandwidth of a user equipment, UE; and transmitting a frequency domain signal, to which the first and second resource blocks are mapped, to the UEs located within the cell. mapping BCH modulation symbols including system information to a central band of a system band, the central band having a bandwidth equal to a transmission bandwidth of the BCH, wherein the BCH modulation symbols are constituted by sub-carrier symbols and are divided into first and second resource blocks, wherein each of the sub-carrier symbols refers to a modulation symbol mapped to one sub-carrier, and wherein the first resource block is mapped into a first half of the system band and the second resource block is mapped into a second half of the system band; additionally mapping the first resource block of the BCH modulation symbols into the second half of the system band, and the second resource block of the BCH modulation symbols into the first half of the system band, in case the system bandwidth is two times or larger than the maximum reception bandwidth of a user equipment, UE; and transmitting a frequency domain signal, to which the first and second resource blocks are mapped, to the UEs located within the cell.
A particle charger, comprising: a) a housing; b) a filter composed of a plurality of electrodes (28a, 28b) extending in a virtual surface partitioning an inside of the housing into a first space and a second space; c) a particle introducer for introducing a particle to be charged into the first space; d) a gas ion supplier for supplying the first space with a gas ion; e) a potential gradient creator (26, 27, 31) for creating a potential gradient within the housing so as to make the gas ion and a charged particle resulting from a contact of the aforementioned particle with the gas ion move from the first space toward the second space; f) an AC voltage supplier (32, 33) for applying an AC voltage to each of the electrodes forming the filter, where the voltages applied to any two electrodes neighboring each other among the plurality of electrodes have a phase difference; g) a controller for controlling the AC voltage supplier so as to apply, to the plurality of electrodes, voltages which are previously determined so that, among the charged particle and the gas ion moving from the first space toward the second space, the charged particle is allowed to pass through a gap between the electrodes while the gas ion is trapped by one of the electrodes; and h) a charged particle extractor (23, 25, 34) for extracting the charged particle admitted to the second space to an outside of the housing. a) a housing; b) a filter composed of a plurality of electrodes (28a, 28b) extending in a virtual surface partitioning an inside of the housing into a first space and a second space; c) a particle introducer for introducing a particle to be charged into the first space; d) a gas ion supplier for supplying the first space with a gas ion; e) a potential gradient creator (26, 27, 31) for creating a potential gradient within the housing so as to make the gas ion and a charged particle resulting from a contact of the aforementioned particle with the gas ion move from the first space toward the second space; f) an AC voltage supplier (32, 33) for applying an AC voltage to each of the electrodes forming the filter, where the voltages applied to any two electrodes neighboring each other among the plurality of electrodes have a phase difference; g) a controller for controlling the AC voltage supplier so as to apply, to the plurality of electrodes, voltages which are previously determined so that, among the charged particle and the gas ion moving from the first space toward the second space, the charged particle is allowed to pass through a gap between the electrodes while the gas ion is trapped by one of the electrodes; and h) a charged particle extractor (23, 25, 34) for extracting the charged particle admitted to the second space to an outside of the housing.
A fiber glass strand comprising: at least one glass fiber at least partially coated with an aqueous sizing composition comprising an acid-amine component, the acid-amine component comprising molecules of at least one amine associated with molecules of at least one phosphorus-containing acid or sulfur-containing acid, wherein the molecules of the at least one amine are associated with the molecules of the at least one phosphorus-containing acid or sulfur-containing acid through Lewis acid-base interactions, and wherein the at least one glass fiber has a diameter of at least 21 μm. at least one glass fiber at least partially coated with an aqueous sizing composition comprising an acid-amine component, the acid-amine component comprising molecules of at least one amine associated with molecules of at least one phosphorus-containing acid or sulfur-containing acid, wherein the molecules of the at least one amine are associated with the molecules of the at least one phosphorus-containing acid or sulfur-containing acid through Lewis acid-base interactions, and wherein the at least one glass fiber has a diameter of at least 21 μm.
An implant surface modification treatment device comprising: an internal electrode having a barrel-shaped structure and a surface on which a plurality of transmission parts are formed; an ultraviolet discharge vessel having a barrel-shaped structure that accommodates the internal electrode and has a gas-filled area filled with a discharge gas that serves as a UV light source; an external electrode accommodating the UV discharge vessel inside thereof, and a support inserted into the internal electrode to support an implant fixture, wherein the implant fixture is placed inside the internal electrode to perform surface modification. an internal electrode having a barrel-shaped structure and a surface on which a plurality of transmission parts are formed; an ultraviolet discharge vessel having a barrel-shaped structure that accommodates the internal electrode and has a gas-filled area filled with a discharge gas that serves as a UV light source; an external electrode accommodating the UV discharge vessel inside thereof, and a support inserted into the internal electrode to support an implant fixture, wherein the implant fixture is placed inside the internal electrode to perform surface modification.
Aircraft comprising a fuselage with a longitudinal direction as well as a vertical median plane, and comprising, from the front to the rear, a central wing spar, a main landing gear compartment, as well as a section of fuselage, the main landing gear compartment comprising a rear transverse wall connected to the section of fuselage which is positioned at the rear of the main landing gear compartment, as well as a base wall which is connected to the central wing spar, the rear transverse wall and the base wall forming a sealed barrier between a first, pressurized area and a second, non-pressurized area, the aircraft comprising a ventral beam which passes through the main landing gear compartment; the main landing gear compartment comprising: - a body, produced in a single piece from composite material, separating the first pressurized area and the second non-pressurized area, said body comprising a first part (56.1) corresponding to the base wall, a second part (56.2) corresponding to the rear transverse wall, an inner face which is oriented towards the second non-pressurized area, as well as an outer face (F56') which is oriented towards the first pressurized area; - at least two longitudinal beams made of composite material, oriented parallel to the longitudinal direction and connected to the body; - bolster beams (66.1, 66.2) which assure the continuity of the ventral beam, the bolster beams (66.1, 66.2) being positioned in-line with the longitudinal beams, and being connected to the ventral beam, to the section of fuselage, as well as to the body. - a body, produced in a single piece from composite material, separating the first pressurized area and the second non-pressurized area, said body comprising a first part (56.1) corresponding to the base wall, a second part (56.2) corresponding to the rear transverse wall, an inner face which is oriented towards the second non-pressurized area, as well as an outer face (F56') which is oriented towards the first pressurized area; - at least two longitudinal beams made of composite material, oriented parallel to the longitudinal direction and connected to the body; - bolster beams (66.1, 66.2) which assure the continuity of the ventral beam, the bolster beams (66.1, 66.2) being positioned in-line with the longitudinal beams, and being connected to the ventral beam, to the section of fuselage, as well as to the body.