mhurhangee/patent-ind-claim-en huggingface dataset:
A joint filling profile for forming a joint sealing between floor panels comprising a vertical leg , which projects into the joint , and a profile body formed by a joint sealing compound and placed in a joint enlargement , wherein the joint enlargement extends horizontally above the joint in the area of the free upper edges, which face each other, of the floor panels and which joint enlargement is filled with the joint sealing compound in a flush manner with the surface, and wherein the profile body rests upon the associated floor panel without connection in a first section adjacent to the joint with interposition of a separation material , wherein the vertical leg and the profile body are separated from each other by interposition of the said separation material , characterized in that a plurality of signal lines is embedded in the vertical leg and /or the profile body , which signal lines form a signal line mat, which also serves simultaneously as separation material .
Gentle detergent composition comprising: a) sodium cocoyl alaninate; b) cocoyl methyl glucamide; c) laureth-7 citrate and d) PCA ethyl cocoyl arginate; wherein: i) a, b, c are the cleaning substances whose total concentration is between 8 and 18% by weight on the total weight of said composition; ii) the ratio (a/b/c)/c is between 0.8 and 1.4; iii) d is present in an amount ranging from 0.1 to 0.6% on the total weight of said composition. a) sodium cocoyl alaninate; b) cocoyl methyl glucamide; c) laureth-7 citrate and d) PCA ethyl cocoyl arginate; i) a, b, c are the cleaning substances whose total concentration is between 8 and 18% by weight on the total weight of said composition; ii) the ratio (a/b/c)/c is between 0.8 and 1.4; iii) d is present in an amount ranging from 0.1 to 0.6% on the total weight of said composition.
A composite film comprising a polyamide substrate layer having a first and second surface; a primer coating layer disposed on the first surface of the substrate layer, wherein the primer coating layer is derived from a composition comprising an acid copolymer resin, an organic crosslinker and an acid catalyst; and a heat-sealable polymeric coating layer disposed on the primer coating layer.
A wheel disc adapted for use in a fabricated vehicle wheel comprising: a steel wheel disc defining an axis (X1) and including a center mounting portion , an outer rim connecting flange , a plurality of radially outwardly extending spokes connecting the center mounting portion to the outer rim connecting flange and a ventilation opening provided between each pair of adjacent spokes, the center mounting portion including a center hub hole and a plurality of lug bolt mounting holes , the outer rim connecting flange parallel to the axis (X1) and including a side edge , each of the spokes including a center wall , a generally axially outwardly side wall extending from each end of the center wall, and a bent back outwardly extending outer wall extending from each of the side walls, and the ventilation opening being defined by the side edge of the outer rim connecting flange and the outer walls of adjacent pairs of spoke characterized in that the center mounting portion includes a mounting pad defined at a backside of each of the lug bolt holes, the mounting pad having a pair of side walls tapered radially outwardly for a substantial portion thereof relative to one another at each lug bolt hole to define at the hub hole a first angular distance (D2'), and a pair of adjacent side walls between an adjacent pair of lug bolt holes are tapered radially outwardly to define at the hub hole a second angular distance (D1'), wherein the first and second angular distances are equal to one another or the first and second distances are different than one another.
An interior part manufacturing method, comprising: a mixing step for mixing only a wood powder as a plant fiber with a powder of alkaline substances, so as to form a mixture only of wood powder and powder of alkaline substances; wherein the method comprises a kneading step after the mixing step is completed, wherein the mixture and a resin are fed into a kneading machine and kneaded together to a condition in which the resin is thermally melted, so as to form a plant fiber-reinforced resin; and wherein the method further comprises a molding step for forming an interior part using the plant fiber-reinforced resin obtained in the kneading step. a mixing step for mixing only a wood powder as a plant fiber with a powder of alkaline substances, so as to form a mixture only of wood powder and powder of alkaline substances; wherein the method comprises a kneading step after the mixing step is completed, wherein the mixture and a resin are fed into a kneading machine and kneaded together to a condition in which the resin is thermally melted, so as to form a plant fiber-reinforced resin; and wherein the method further comprises a molding step for forming an interior part using the plant fiber-reinforced resin obtained in the kneading step.
A device for collecting blood from an anatomical feature of a mammalian subject, the device comprising: a rigid vibrating plate assembly structured and arranged to push against the anatomical feature from which blood is collected; a housing portion releasably connectable to the vibrating plate assembly ; a first biasing device attached to the housing portion and releasably attachable to the vibrating plate assembly , wherein the first biasing device is structured and arranged to constrict blood flow in the anatomical feature; and a plurality of vibrating motors located beneath the vibrating plate assembly , wherein vibrations generated by the vibrating motors are configured to enhance blood flow in and to the anatomical feature. a rigid vibrating plate assembly structured and arranged to push against the anatomical feature from which blood is collected; a housing portion releasably connectable to the vibrating plate assembly ; a first biasing device attached to the housing portion and releasably attachable to the vibrating plate assembly , wherein the first biasing device is structured and arranged to constrict blood flow in the anatomical feature; and a plurality of vibrating motors located beneath the vibrating plate assembly , wherein vibrations generated by the vibrating motors are configured to enhance blood flow in and to the anatomical feature.
Elafibranor, or a pharmaceutically acceptable salt thereof, for administration at a dose varying between 1 mg and 150 mg per administration, for use for the treatment of Primary Biliary Cholangitis (PBC).
Engine cooling system with a cooling circuit comprising a coolant pump for supplying an engine with a coolant and for circulating the coolant in the cooling circuit, and at least one heat exchanger for cooling said coolant downstream of the engine, wherein an expansion tank is connected to the cooling circuit upstream of the coolant pump , wherein the cooling system is pressurized by a pressure regulating means arranged to pressurize coolant supplied to the cooling circuit from the expansion tank during at least one predetermined operating mode of the engine and that the expansion tank is closed to the ambient atmosphere during all normal engine operation modes, wherein the pressure regulating means is located in a supply conduit connecting the expansion tank to the cooling circuit, characterized in that the cooling system further comprises a deaeration chamber located upstream of the coolant pump , wherein the expansion tank is connected to the deaeration chamber via a controllable valve such that excess pressure can be released from the deaeration chamber to the expansion tank .
A wall-mounted air conditioner comprising: a main body casing including first and second side end portions disposed respectively on opposite sides to each other in a horizontal direction, and a central portion disposed between the first and second side end portions; a heat exchanger disposed in the central portion of the main body casing ; a fan motor disposed in the first side end portion of the main body casing ; a mounting plate having a locking unit for locking the main body casing , the locking unit being disposed at an upper portion of the mounting plate ; and a holding member configured to hold the main body casing in an inclined state where the main body casing is locked to the locking unit during installation, wherein the main body casing includes a holding member containing unit configured to contain the holding member , and a rotational supporting unit having a horizontal shaft engaged with the holding member , and the holding member includes a rotational shaft unit using the horizontal shaft as an axis, characterized in that the holding member is disposed in a position being in the second side end portion of the main body casing and on a side of a back surface of the main body casing , and that the holding member rotates upward to be contained in the main body casing . a main body casing including first and second side end portions disposed respectively on opposite sides to each other in a horizontal direction, and a central portion disposed between the first and second side end portions; a heat exchanger disposed in the central portion of the main body casing ; a fan motor disposed in the first side end portion of the main body casing ; a mounting plate having a locking unit for locking the main body casing , the locking unit being disposed at an upper portion of the mounting plate ; and a holding member configured to hold the main body casing in an inclined state where the main body casing is locked to the locking unit during installation, wherein the main body casing includes a holding member containing unit configured to contain the holding member , and a rotational supporting unit having a horizontal shaft engaged with the holding member , and the holding member includes a rotational shaft unit using the horizontal shaft as an axis, characterized in that the holding member is disposed in a position being in the second side end portion of the main body casing and on a side of a back surface of the main body casing , and that the holding member rotates upward to be contained in the main body casing . the main body casing includes a holding member containing unit configured to contain the holding member , and a rotational supporting unit having a horizontal shaft engaged with the holding member , and the holding member includes a rotational shaft unit using the horizontal shaft as an axis, characterized in that the holding member is disposed in a position being in the second side end portion of the main body casing and on a side of a back surface of the main body casing , and that the holding member rotates upward to be contained in the main body casing .
A radio communication system comprising a plurality of nodes including a base station ; at least one terminal ; and at least one relay node through which each terminal can be connected to the base station , wherein each relay node is connected to an upper-layer node by a first radio link and to a lower-layer node by a second radio link, wherein the base station in a network higher in layer than each relay node is arranged to configure the relay node to set a target value for a predetermined parameter reflecting a radio link status of the relay node wherein the radio link status indicates first link information of the first radio link and second link information of the second radio link; the relay node is arranged to monitor the predetermined parameter to notify the upper-layer node about a difference between the target value and a monitored parameter value, wherein the parameter may be the amount of data stored in the relay node to be transmitted to the terminal , a throughput ratio between the first radio link and the second radio link, a throughput difference between the first radio link and the second radio link, or another parameter related to both the first radio link and the second radio link, and the upper-layer node is arranged to control resource allocation of the first radio link depending on the difference between the target value and the monitored parameter value.
Method for producing in a melt spinning method a crimped multicolored composite thread from a plurality of extruded sub-threads in the following steps: 1.1. separately extruding a plurality of colored filament bundles, and cooling the filament bundles; 1.2. separately gathering the filament bundles so as to form the separate sub-threads; 1.3. separately pre-interlacing the individual sub-threads and/or a composite sub-thread formed from a plurality of sub-threads; 1.4. drafting the sub-threads and the composite sub-thread; 1.5. separately post-interlacing the individual sub-threads and/or the composite sub-thread formed from a plurality of sub-threads; 1.6. separately texturizing the individual sub-threads and/or the composite sub-thread; 1.7. collecting the sub-threads and the composite sub-thread so as to form the composite thread; and 1.8. winding the composite thread so as to form a wound package. 1.1. separately extruding a plurality of colored filament bundles, and cooling the filament bundles; 1.2. separately gathering the filament bundles so as to form the separate sub-threads; 1.3. separately pre-interlacing the individual sub-threads and/or a composite sub-thread formed from a plurality of sub-threads; 1.4. drafting the sub-threads and the composite sub-thread; 1.5. separately post-interlacing the individual sub-threads and/or the composite sub-thread formed from a plurality of sub-threads; 1.6. separately texturizing the individual sub-threads and/or the composite sub-thread; 1.7. collecting the sub-threads and the composite sub-thread so as to form the composite thread; and 1.8. winding the composite thread so as to form a wound package.
A blend, comprising: (a) a first poly(D,L-lactide-co-glycolide-co-ε-caprolactone) having a weight average molecular weight (M w ) of from 75,000 to 250,000 Daltons and a polydispersity index (PDI) of less than 2.0 obtained by dividing Mw by Mn (number average molecular weight), both Mw and Mn are determined by gel-permeation chromatography, and (b) a second poly(D,L-lactide-co-glycolide-co-ε-caprolactone) having a weight average molecular weight (M w ) of 130,000 Daltons or less and a polydispersity index (PDI) of less than 2.0 obtained by dividing Mw by Mn (number average molecular weight). Both Mw and Mn are determined by gel-permeation chromatography, wherein the second poly(D,L-lactide-co-glycolide-co-e-caprolactone) has a molecular weight (M w ) that is less than the first poly(D,L-lactide-co-glycolide-co-ε-caprolactone); and wherein the weight ratio of the first poly(D,L-lactide-co-glycolide-co-ε-caprolactone) to the second poly(D,L-lactide-co-glycolide-co-e-caprolactone) is from about 90:10 to about 60:40. (a) a first poly(D,L-lactide-co-glycolide-co-ε-caprolactone) having a weight average molecular weight (M w ) of from 75,000 to 250,000 Daltons and a polydispersity index (PDI) of less than 2.0 obtained by dividing Mw by Mn (number average molecular weight), both Mw and Mn are determined by gel-permeation chromatography, and (b) a second poly(D,L-lactide-co-glycolide-co-ε-caprolactone) having a weight average molecular weight (M w ) of 130,000 Daltons or less and a polydispersity index (PDI) of less than 2.0 obtained by dividing Mw by Mn (number average molecular weight). Both Mw and Mn are determined by gel-permeation chromatography,
A nonlinearity measuring method for measuring optical nonlinearity of an optical fiber to be measured comprising a first end , a second end opposing the first end, a plurality of cores (21; 22) which extend between the first end and the second end and have mutually coupled waveguide modes, and a single cladding surrounding the plurality of cores, the nonlinearity measuring method comprising: a preparing step of preparing a laser light source and a detecting unit each optically connected to any one specific core among the plurality of cores at the first end of the optical fiber to be measured; a light launching step of inputting laser light from the laser light source into the specific core at the first end; a light detecting step of determining an intensity of a specific wavelength component caused by optical nonlinearity of the optical fiber to be measured among wavelength components included in light received by the detecting unit after receiving light emitted from the specific core at the first end in response to the laser light incident into the specific core by the detecting unit; and an analyzing step of determining optical nonlinearity of the optical fiber to be measured by means of determining local effective area on the basis of the intensity of the specific wavelength component, the local effective area being determined at each position in a longitudinal direction of the optical fiber by measuring Brillouin backscattering as a time function. a preparing step of preparing a laser light source and a detecting unit each optically connected to any one specific core among the plurality of cores at the first end of the optical fiber to be measured; a light launching step of inputting laser light from the laser light source into the specific core at the first end; a light detecting step of determining an intensity of a specific wavelength component caused by optical nonlinearity of the optical fiber to be measured among wavelength components included in light received by the detecting unit after receiving light emitted from the specific core at the first end in response to the laser light incident into the specific core by the detecting unit; and an analyzing step of determining optical nonlinearity of the optical fiber to be measured by means of determining local effective area on the basis of the intensity of the specific wavelength component, the local effective area being determined at each position in a longitudinal direction of the optical fiber by measuring Brillouin backscattering as a time function.
System for the integrated and automated analysis of DNA or protein, with a cartridge and an evaluation device, wherein - the cartridge is designed for receiving a sample and several agents in dry and long-term stable form which are suitable for the analysis and - the evaluation device contains a control device for performing an analysis process with the cartridge inserted in the evaluation device, and with means for processing the sample within the cartridge , to which liquid from a liquid container can be supplied to the dry reagents in the cartridge for dissolving and subsequent detection of constituents to be detected of the sample, wherein - first means (103 - 113) for controlling the insertion of the cartridge into the control device and the subsequent analysis process running in the cartridge including a movement and thermostatic regulation of liquids introduced in the cartridge , as well as - second means for processing of signals obtained by the analysis process are present, and wherein - the first and second means (103 - 113, 401, 403, 405) in the control device are concerted in such a way that the analysis process of the sample can be performed in a fully integrated manner and the signals can be output directly, wherein the control device has a cartridge receptcacle for receiving, locking, unlocking and releasing the cartridge , wherein the cartridge receptcacle has two parts and wherein the system is designed to bring together the two parts and to lock the cartridge in the cartridge receptacle when the cartridge is completely inserted. - the cartridge is designed for receiving a sample and several agents in dry and long-term stable form which are suitable for the analysis and - the evaluation device contains a control device for performing an analysis process with the cartridge inserted in the evaluation device, - first means (103 - 113) for controlling the insertion of the cartridge into the control device and the subsequent analysis process running in the cartridge including a movement and thermostatic regulation of liquids introduced in the cartridge , as well as - second means for processing of signals obtained by the analysis process are present, and wherein - the first and second means (103 - 113, 401, 403, 405) in the control device are concerted in such a way that the analysis process of the sample can be performed in a fully integrated manner and the signals can be output directly,
A thermally conductive polymer compound, comprising: (a) from 40 to 50 weight percent of the polymer compound of polyamide 6, (b) from 20 to 30 weight percent of hexagonal boron nitride, (c) from 20 to 30 weight percent of talc, (d) from 2 to 10 weight percent of a laser direct structuring additive, (e) from 10 to 20 weight percent of glass fiber reinforcing agent, (f) from 0.2 to 2 weight percent of calcium stearate lubricant, (g) from 0.1 to 0.4 weight percent of phenolic anti-oxidant, and (h) from 0.1 to 0.4 weight percent of tri-aryl phosphite processing stabilizer, wherein the compound has an in-plane thermal conductivity of more than 2.5 W/mK as measured using ASTM E1461, a plating index greater than 0.7 as measured according to ASTM B568 (using Pocan 7102 at DOW Circuposit 4500 as a plating reference), and an adhesion strength greater than 0.7 N/mm as measured using IPC-TM-650. (a) from 40 to 50 weight percent of the polymer compound of polyamide 6, (b) from 20 to 30 weight percent of hexagonal boron nitride, (c) from 20 to 30 weight percent of talc, (d) from 2 to 10 weight percent of a laser direct structuring additive, (e) from 10 to 20 weight percent of glass fiber reinforcing agent, (f) from 0.2 to 2 weight percent of calcium stearate lubricant, (g) from 0.1 to 0.4 weight percent of phenolic anti-oxidant, and (h) from 0.1 to 0.4 weight percent of tri-aryl phosphite processing stabilizer,