mhurhangee/patent-ind-claim-en huggingface dataset:
A method of dispensing a plurality of treating compositions into a multistage automatic washing machine comprising operating a device in the machine, the device comprising at least two chambers, each chamber containing a treating composition, wherein the chambers are activated in response to input from a sensor, characterized in that the device has an associated reservoir for collection of wash liquor; wherein the sensor is disposed within the reservoir and the reservoir fills in accordance with the following formula: V i − min − V o − min / C av > H Where: V o -min = Volume of water lost per minute (mm 3 ) V i -min = Volume of water collected per minute (mm 3 ) C av = average cross sectional area of the reservoir (mm 2 ) H = Height from base of the reservoir to top edge of sensor (mm). V o -min = Volume of water lost per minute (mm 3 ) V i -min = Volume of water collected per minute (mm 3 ) C av = average cross sectional area of the reservoir (mm 2 ) H = Height from base of the reservoir to top edge of sensor (mm).
Tank comprising a first and a second half-shell comprising a hydrocarbon barrier layer (B) made of a first material and a structural containment layer (S) made of a second material, forming respectively an inner hydrocarbon barrier layer and an outer structural containment layer, or an inner structural containment layer and an outer hydrocarbon barrier layer, wherein said outer layer is overmoulded on said inner layer, wherein said half-shells are joined along a perimeter line of contact (J) in such a way as to obtain at least continuity of the respective barrier layers, and characterized in that the second material of said structural layer includes a carbon nanotube filler (N) located at a flame-exposed surface and forming a protective mask against combustion for the rear-lying material.
A method for manufacturing an electrochemical block comprising the following steps: forming a flexible conductive film comprising chains of a linear polymer, each of which having carbon nanotubes bonded thereto by pi stacking; cutting pellets from said film; and stacking the pellets and submitting them to a pressure in the order of from 5 to 10 tons per square centimeter pressure, wherein few drops of water are inserted between each pellet, and between each pellet and the bearing plates of the press and inserting between pellets, during the pressure, an aqueous solution containing an appropriated catalyst. forming a flexible conductive film comprising chains of a linear polymer, each of which having carbon nanotubes bonded thereto by pi stacking; cutting pellets from said film; and stacking the pellets and submitting them to a pressure in the order of from 5 to 10 tons per square centimeter pressure, wherein few drops of water are inserted between each pellet, and between each pellet and the bearing plates of the press and inserting between pellets, during the pressure, an aqueous solution containing an appropriated catalyst.
A mold for processing plastic particle material for producing a particle foam molding, comprising at least one mold body wall portion (2a - 2d) limited mold cavity having a mold body , comprising a first tempering device for tempering the mold cavity , wherein the first tempering device is set up to introduce thermal energy required for tempering the mold cavity into the mold cavity , in particular convection-free, exclusively through the at least one mold body wall portion (2a - 2d); and a second tempering device for tempering the mold cavity , wherein the second tempering device is configured to introduce thermal energy required for tempering the mold cavity into the mold cavity via a tempering fluid (6.2) flowing through at least one flow opening (6.1) into the mold cavity , wherein which at least one flow opening (6.1) is arranged or formed in at least one mold body wall portion (2a - 2d) or formed flow channel outlet opening (10.1) of a flow channel structure present at least in sections at or in at least one mold body wall portion (2a - 2d) is arranged or formed or forms such a flow channel structure , characterized in that the flow channel structure is arranged to temper a temperature control fluid (6.2) passing through it between a flow channel input opening (10.2) and a flow channel output opening (10.1) by heat transfer, in particular convection-free. a second tempering device for tempering the mold cavity , wherein the second tempering device is configured to introduce thermal energy required for tempering the mold cavity into the mold cavity via a tempering fluid (6.2) flowing through at least one flow opening (6.1) into the mold cavity , wherein which at least one flow opening (6.1) is arranged or formed in at least one mold body wall portion (2a - 2d) or formed flow channel outlet opening (10.1) of a flow channel structure present at least in sections at or in at least one mold body wall portion (2a - 2d) is arranged or formed or forms such a flow channel structure , characterized in that the flow channel structure is arranged to temper a temperature control fluid (6.2) passing through it between a flow channel input opening (10.2) and a flow channel output opening (10.1) by heat transfer, in particular convection-free.
A system for neuromodulation of nerves implantable into a human body and having electronic signal generating means provided in an implantable signal generator housing , the system also having voltage supply means connected or connectable to the signal generating means, at least one oblong multi-channel wire electrode means connected or connectable to the signal generator housing and realized for implantation on a nerve (DNP), preferably in the pelvic floor and/or abdominal area, in the human body, said multi-channel wire electrode means realizing a plurality of shell segment electrodes (16a - 16d) on a nerve contact area and, at the ends thereof, the multi-channel wire electrode means being provided with fixing means for anchoring the wire electrode means to an implantation location, the signal generator housing having a flat fixing section which sits and/or protrudes in the manner of a flange and/or a piece of tissue and which allows the surgical fixation of the signal generator housing to a tissue, muscle or bone area (PB) in the body, in particular to an area of the pubic bone, to a muscle portion and/or to a fascia and the signal generator housing having sleeve-like, curved electrode wire guide means which can be manually operated, in particular via an operation section , and which are realized for penetrating tissue of the human body from the extracorporeal at an implantation area and for guiding the wire electrode means in a sleeve-shaped guide section of the electrode wire guide means and, in particular, for inserting the wire electrode means into the guide section from the intracorporeal, characterized in that the electrode wire guide means have an assigned mandrel which can be inserted into the sleeve-shaped guide section and which can be detached from the electrode wire guide means by pulling out of an end portion on the body side of the electrode wire guide means when the electrode wire guide means are inserted into the body and which preferably realizes a tip which allows the penetration.
Dental material, which comprises at least one compound of formula I, in which R 1 is an m-valent, linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more urethane groups, ester groups, oxygen atoms and/or sulfur atoms, X,Y,Z independently of each other in each case are -COOR 2 , -CON(R 3 R 4 ), an aromatic C 6 -C 10 hydrocarbon radical or -CN, wherein R 2 ,R 3 ,R 4 in each case independently of each other are hydrogen, a linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more oxygen atoms, and m is 2 or 3. R 1 is an m-valent, linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more urethane groups, ester groups, oxygen atoms and/or sulfur atoms, X,Y,Z independently of each other in each case are -COOR 2 , -CON(R 3 R 4 ), an aromatic C 6 -C 10 hydrocarbon radical or -CN, wherein R 2 ,R 3 ,R 4 in each case independently of each other are hydrogen, a linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more oxygen atoms, and m is 2 or 3.
A rotor for use in a tangential internal batch mixer, the rotor comprising: a main body configured to rotate about a rotor axis , a wing extending from the main body, and arranged helically about a portion of the main body; the wing comprising a wing tip surface , a first portion of the wing tip surface extending between a first edge and a second edge of the wing; characterised in that the first edge comprises a first helix angle (α) and the second edge comprises a second helix angle (β), the first helix angle being different to the second helix angle. a main body configured to rotate about a rotor axis , a wing extending from the main body, and arranged helically about a portion of the main body; the wing comprising a wing tip surface , a first portion of the wing tip surface extending between a first edge and a second edge of the wing; characterised in that the first edge comprises a first helix angle (α) and the second edge comprises a second helix angle (β), the first helix angle being different to the second helix angle.
Lithium zirconium phosphate of a general formula Li a Zr b M c (PO 4 ) d , wherein M is at least one metal different from Li and Zr, 0.5 ≤ a ≤ 5.0, 0.5 ≤ b ≤ 5.0, 0 ≤ c ≤ 5, 1 ≤ d ≤ 5 characterized in that the lithium zirconium phosphate is in the form of aggregated primary particles, has a BET surface area of 5 m 2 /g -100 m 2 /g, a numerical mean particle diameter of d 50 = 0.03 μm -2 μm, as determined by static light scattering (SLS), and a tamped density of 20 g/L - 200 g/L. wherein M is at least one metal different from Li and Zr, 0.5 ≤ a ≤ 5.0, 0.5 ≤ b ≤ 5.0, 0 ≤ c ≤ 5, 1 ≤ d ≤ 5 characterized in that the lithium zirconium phosphate is in the form of aggregated primary particles, has a BET surface area of 5 m 2 /g -100 m 2 /g, a numerical mean particle diameter of d 50 = 0.03 μm -2 μm, as determined by static light scattering (SLS), and a tamped density of 20 g/L - 200 g/L.
A near-eye display comprising: a transmissive waveguide including an input coupler and an output coupler , a self-emitting microdisplay system including a microdisplay that emits light in the direction of the input coupler for generating a virtual image that is visible together with a real-world scene through the waveguide within an eyebox in front of the output coupler , wherein the microdisplay comprises an array of pixels, wherein each pixel is a self-emitting light source that emits light as a function of power applied to each self-emitting light source, a two-dimensional light sensor for detecting light levels within different portions of the real world scene, and the self-emitting microdisplay system including drive electronics configured to control the light output from individual pixels of the self-emitting microdisplay such that pixels overlaying areas within the real world scene that are relatively dim are driven at lower power levels than pixels overlaying areas within the real world scene that are relatively bright to preserve desired local contrast values between the virtual image and the real-world scene, wherein the near-eye display further comprises an electro-optical modulator configured to regulate the passage of light from the real-world scene through the transmissive waveguide , the electro-optical modular including control electronics that are configured to differentially attenuate local passages of light from the instant real-world scene to preserve desired local contrast values between the virtual image and the real-world scene. a transmissive waveguide including an input coupler and an output coupler , a self-emitting microdisplay system including a microdisplay that emits light in the direction of the input coupler for generating a virtual image that is visible together with a real-world scene through the waveguide within an eyebox in front of the output coupler , wherein the microdisplay comprises an array of pixels, wherein each pixel is a self-emitting light source that emits light as a function of power applied to each self-emitting light source, a two-dimensional light sensor for detecting light levels within different portions of the real world scene, and the self-emitting microdisplay system including drive electronics configured to control the light output from individual pixels of the self-emitting microdisplay such that pixels overlaying areas within the real world scene that are relatively dim are driven at lower power levels than pixels overlaying areas within the real world scene that are relatively bright to preserve desired local contrast values between the virtual image and the real-world scene, wherein the near-eye display further comprises an electro-optical modulator configured to regulate the passage of light from the real-world scene through the transmissive waveguide , the electro-optical modular including control electronics that are configured to differentially attenuate local passages of light from the instant real-world scene to preserve desired local contrast values between the virtual image and the real-world scene.
A rotor of a rotating electric machine for vehicle, the rotor comprising: a pair of rotor cores each having a plurality of claw-shaped magnetic poles at an outer circumference thereof, the pair of rotor cores being provided so as to be opposed to each other in an axial direction such that the claw-shaped magnetic poles of the pair of rotor cores are engaged with each other; a rotor shaft to which the pair of rotor cores are fixed; a bar-shaped permanent magnet provided at a magnet holding portion formed by the claw-shaped magnetic poles adjacent to each other in a circumferential direction; and cooling fans fixed to axial-direction end surfaces of the pair of rotor cores , wherein the cooling fan fixed to the axial-direction end surface of at least one of the pair of rotor cores is located so as not to interfere with an insertion path through which the permanent magnet is inserted, which is an area on an extension line in a longitudinal direction of the permanent magnet , a longest distance R3 from a center of the rotor shaft to the outer periphery of a blade of the cooling fan is set to be greater than the shortest distance (R1) from the center of the rotor shaft to the insertion path of the permanent magnet , wherein the cooling fan is arranged so as to avoid the insertion path of the permanent magnet a pair of rotor cores each having a plurality of claw-shaped magnetic poles at an outer circumference thereof, the pair of rotor cores being provided so as to be opposed to each other in an axial direction such that the claw-shaped magnetic poles of the pair of rotor cores are engaged with each other; a rotor shaft to which the pair of rotor cores are fixed; a bar-shaped permanent magnet provided at a magnet holding portion formed by the claw-shaped magnetic poles adjacent to each other in a circumferential direction; and cooling fans fixed to axial-direction end surfaces of the pair of rotor cores , wherein the cooling fan fixed to the axial-direction end surface of at least one of the pair of rotor cores is located so as not to interfere with an insertion path through which the permanent magnet is inserted, which is an area on an extension line in a longitudinal direction of the permanent magnet , a longest distance R3 from a center of the rotor shaft to the outer periphery of a blade of the cooling fan is set to be greater than the shortest distance (R1) from the center of the rotor shaft to the insertion path of the permanent magnet , wherein the cooling fan is arranged so as to avoid the insertion path of the permanent magnet
A data analyzer for chromatograph mass spectrometry configured to analyze data collected by a chromatograph mass spectrometer provided with a chromatograph configured to temporally separate components in a sample, a main detector that is a mass spectrometer configured to detect components in the sample containing the component separated by the chromatograph , and a sub-detector that is provided separately from the mass spectrometer and configured to detect components in the sample containing the components separated by the chromatograph, the data analyzer for chromatograph mass spectrometry comprising: a) an operation processing unit configured to perform a predetermined statistical analysis operation on the mass spectrum data and the chromatogram data to determine an index value associated with a statistical correlation between temporal changes in a signal intensity value in chromatogram data obtained by the sub-detector and temporal changes in a signal intensity value of each mass-to-charge ratio in mass spectrum data repeatedly obtained by the mass spectrometer , the index value indicating a similarity or difference in temporal changes in the signal intensity value; and b) a mass-to-charge ratio value extracting unit configured to extract a mass-to-charge ratio value having a relatively high statistical correlation on a basis of the index value determined with respect to each mass-to-charge ratio value by the operation processing unit . a) an operation processing unit configured to perform a predetermined statistical analysis operation on the mass spectrum data and the chromatogram data to determine an index value associated with a statistical correlation between temporal changes in a signal intensity value in chromatogram data obtained by the sub-detector and temporal changes in a signal intensity value of each mass-to-charge ratio in mass spectrum data repeatedly obtained by the mass spectrometer , the index value indicating a similarity or difference in temporal changes in the signal intensity value; and b) a mass-to-charge ratio value extracting unit configured to extract a mass-to-charge ratio value having a relatively high statistical correlation on a basis of the index value determined with respect to each mass-to-charge ratio value by the operation processing unit .
A method for reconstructing medical images, comprising: identifying a plurality of organs in a body of a subject based on an anatomic image; assigning a plurality of voxels in the body to respective ones of the plurality of organs based on the anatomic image; and reconstructing an activity image of the body using respectively different processing for the voxels assigned to each respective one of the plurality of organs, wherein the reconstructing includes performing regularization for one or more selected organs based on information from the anatomic image; wherein the selected organs are selected based on a correlation between voxel values of the anatomic image and voxel values of the activity image; and wherein the anatomic image is a CT image, the activity image is a PET image, and the reconstructing includes: using said information from the anatomic image to reconstruct a portion of the activity image containing an organ within a torso of the body; and reconstructing a portion of the activity image containing a brain without information from the anatomic image. identifying a plurality of organs in a body of a subject based on an anatomic image; assigning a plurality of voxels in the body to respective ones of the plurality of organs based on the anatomic image; and reconstructing an activity image of the body using respectively different processing for the voxels assigned to each respective one of the plurality of organs, wherein the reconstructing includes performing regularization for one or more selected organs based on information from the anatomic image; wherein the selected organs are selected based on a correlation between voxel values of the anatomic image and voxel values of the activity image; and wherein the anatomic image is a CT image, the activity image is a PET image, and the reconstructing includes: using said information from the anatomic image to reconstruct a portion of the activity image containing an organ within a torso of the body; and reconstructing a portion of the activity image containing a brain without information from the anatomic image. using said information from the anatomic image to reconstruct a portion of the activity image containing an organ within a torso of the body; and reconstructing a portion of the activity image containing a brain without information from the anatomic image.
An eddy-current brake assembly comprising: a plurality of magnets each having a pair of poles; a shield , comprising magnetically conductive portions and magnetically non-conductive portions ; and an actuator ; wherein the shield and the magnets are arranged to be moved relative to each other by the actuator between a braking position, in which at least one pole of each of the pairs of poles is aligned with a corresponding magnetically conductive portion of the shield , and a free-running position, in which said corresponding magnetically conductive portions are misaligned from said poles.