mhurhangee/patent-ind-claim-en huggingface dataset:
A hair treatment method comprising steps 1 to 5 to be performed in the following order: 1. a step of applying a first composition to hair, wherein the first composition is acidic and comprises one or more member selected from the group consisting of glyoxylic acid, glyoxylic acid hydrates, glyoxylates, and glyoxyl amides; 2. a step of leaving the hair having the first composition applied thereto to stand; 3. a step of heating the hair with a high temperature heating device, which is a hair iron having a plate whose surface temperature is 130°C or more and 250°C or less; 4. a step of applying a second composition to the hair, wherein the second composition comprises an oxidizing agent, has a pH of 0.5 or more and less than 8.0, and has a content of a dye component of less than 0.2% by mass; and 5. a step of leaving the hair having the second composition applied thereto to stand. 1. a step of applying a first composition to hair, wherein the first composition is acidic and comprises one or more member selected from the group consisting of glyoxylic acid, glyoxylic acid hydrates, glyoxylates, and glyoxyl amides; 2. a step of leaving the hair having the first composition applied thereto to stand; 3. a step of heating the hair with a high temperature heating device, which is a hair iron having a plate whose surface temperature is 130°C or more and 250°C or less; 4. a step of applying a second composition to the hair, wherein the second composition comprises an oxidizing agent, has a pH of 0.5 or more and less than 8.0, and has a content of a dye component of less than 0.2% by mass; and 5. a step of leaving the hair having the second composition applied thereto to stand.
A system for converting sensory data to haptic effects, comprising: a memory storing video data and sensor data, the video data including an image associated with an object, the sensor data measuring a movement of a sensor located on the object, the sensor data being acquired concurrently with the video data; a processor , coupled to the memory , configured to read the sensor data from the memory , receive a sensor type from a user input device or the sensor , receive a sensor position on the object from the user input device , select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; a haptic output device , coupled to the processor , configured to receive the haptic signal and generate the haptic effect based on the haptic signal; and a display , coupled to the processor, configured to display the selected scene synchronized with the haptic effect generated by the haptic output device . a memory storing video data and sensor data, the video data including an image associated with an object, the sensor data measuring a movement of a sensor located on the object, the sensor data being acquired concurrently with the video data; a processor , coupled to the memory , configured to read the sensor data from the memory , receive a sensor type from a user input device or the sensor , receive a sensor position on the object from the user input device , select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; read the sensor data from the memory , receive a sensor type from a user input device or the sensor , receive a sensor position on the object from the user input device , select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; a haptic output device , coupled to the processor , configured to receive the haptic signal and generate the haptic effect based on the haptic signal; and a display , coupled to the processor, configured to display the selected scene synchronized with the haptic effect generated by the haptic output device .
A device for increasing the service life of an HT-PEM fuel cell having an HT-PEM fuel cell stack, a cell of the stack being constructed in the following order: a supply plate having an anode channel structure, an anode gas diffusion electrode, a polymer membrane containing an electrolyte, a cathode gas diffusion electrode, a supply plate having a cathode channel structure, characterized in that at least one acid reservoir filled with acid is provided, which is connected to a distributor channel extending in the supply plates perpendicular to the channel structures, the distributor channel being connected to at least one of the gas diffusion electrodes and/or to the polymer membrane of at least one of the cells of the fuel cell stack in such a manner that acid can be supplied to at least one of the gas diffusion electrodes and/or to the polymer membrane of at least one of the cells of the fuel cell stack. a supply plate having an anode channel structure, an anode gas diffusion electrode, a polymer membrane containing an electrolyte, a cathode gas diffusion electrode, a supply plate having a cathode channel structure,
An isolated polypeptide, comprising the amino acid sequence of SEQ ID NO: 31, 74, 91, 92, 104, 106, 108, or 150.
A holding device for holding a necked tubular object , the holding device comprising: a substantially annular gripper ring , the gripper ring comprising an annular base and a plurality of fingers that extend axially from the annular base , the holding device being characterised in that each of the plurality of fingers comprises: a first portion extending axially from base of the gripper ring up to a boundary region , and a second portion extending axially from the first portion and connected to the first portion at the boundary region ; wherein, in its rest position, the maximum outer radius of each finger occurs at the boundary region between the first portion and the second portion such that, when an opening of a necked tubular object is axially pushed over the gripper ring , a force exerted by the opening of the necked tubular object on the second portion of each finger causes each finger to be progressively bent inwards towards the central axis of the gripper ring until the opening of the necked tubular object has passed over the boundary region , whereupon each finger resiliently springs radially outwards such that an outer surface of the first portion contacts an inner surface of the necked tubular object , thereby providing a holding force for holding the object onto the gripper ring . a substantially annular gripper ring , the gripper ring comprising an annular base and a plurality of fingers that extend axially from the annular base , the holding device being characterised in that each of the plurality of fingers comprises: a first portion extending axially from base of the gripper ring up to a boundary region , and a second portion extending axially from the first portion and connected to the first portion at the boundary region ; wherein, in its rest position, the maximum outer radius of each finger occurs at the boundary region between the first portion and the second portion such that, when an opening of a necked tubular object is axially pushed over the gripper ring , a force exerted by the opening of the necked tubular object on the second portion of each finger causes each finger to be progressively bent inwards towards the central axis of the gripper ring until the opening of the necked tubular object has passed over the boundary region , whereupon each finger resiliently springs radially outwards such that an outer surface of the first portion contacts an inner surface of the necked tubular object , thereby providing a holding force for holding the object onto the gripper ring .
A method for encapsulating a nanostructure , the method comprising the steps of: - providing a substrate ; - forming a plug composed of plug material at said substrate ; - forming a nanostructure at said plug ; - forming a shell composed of at least one shell material on external surfaces of the nanostructure , with the at least one shell material covering said nanostructure and at least some of the plug material, whereby the shell and the plug encapsulate the nanostructure wherein the nanostructure is formed by a growth technique selected from the group comprising physical vapour deposition (PVD), chemical vapour deposition (CVD), electro- or electroless deposition, molecular beam epitaxy and inkjet printing, and wherein the nanostructure is fabricated using a material that can be deposited or grown as a nanostructure on top of a seed, wherein the nanostructure is formed at said plug having a size selected in the range of 10 nm to 10000 nm in at least one dimension thereof. - providing a substrate ; - forming a plug composed of plug material at said substrate ; - forming a nanostructure at said plug ; - forming a shell composed of at least one shell material on external surfaces of the nanostructure , with the at least one shell material covering said nanostructure and at least some of the plug material, whereby the shell and the plug encapsulate the nanostructure wherein the nanostructure is formed by a growth technique selected from the group comprising physical vapour deposition (PVD), chemical vapour deposition (CVD), electro- or electroless deposition, molecular beam epitaxy and inkjet printing, and wherein the nanostructure is fabricated using a material that can be deposited or grown as a nanostructure on top of a seed, wherein the nanostructure is formed at said plug having a size selected in the range of 10 nm to 10000 nm in at least one dimension thereof.
A method of identifying a heterogeneous cell population comprising an antibody secreting cell (ASC) that secretes an antibody that has an agonist or antagonist effect on a cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter, comprising, retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC that secretes an antibody, wherein the contents of the microreactor further comprise a readout cell population comprising readout cells that express the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter; incubating the heterogeneous cell population and the readout cell population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying for the agonist or the antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter; and determining, based on the results of the assaying step, whether the heterogeneous cell population includes the ASC that secretes an antibody that has the agonist or antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter. retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC that secretes an antibody, wherein the contents of the microreactor further comprise a readout cell population comprising readout cells that express the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter; incubating the heterogeneous cell population and the readout cell population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying for the agonist or the antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter; and determining, based on the results of the assaying step, whether the heterogeneous cell population includes the ASC that secretes an antibody that has the agonist or antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette (ABC) transporter.
A medical imaging system comprising: - a memory storing machine executable instructions ; and - a processor for controlling the medical imaging system, wherein the processor is configured to: - receive a static angiographic image of a region of interest , wherein the region of interest comprises voxels; - receive a time series of angiographic images of the region of interest; - construct an image mask using the static angiographic image, wherein the image mask is an identification of voxels within the region of interest; - determine a time dependent signal for each voxel within the image mask using the time series of angiographic images; characterized in that the processor is further configured to construct a composite angiographic image by: - assigning a fill time to each voxel within the image mask using an extremum of the time dependent signal if the extremum deviates from an average of the time dependent signal more than a predetermined threshold; and - identifying voxels within the image mask as being unfilled voxels if the extremum deviates from the average of the time dependent signal less than the predetermined threshold - rendering the composite angiographic image such that a measure for the fill time is displayed in the composite angiographic image . - a memory storing machine executable instructions ; and - a processor for controlling the medical imaging system, wherein the processor is configured to: - receive a static angiographic image of a region of interest , wherein the region of interest comprises voxels; - receive a time series of angiographic images of the region of interest; - construct an image mask using the static angiographic image, wherein the image mask is an identification of voxels within the region of interest; - determine a time dependent signal for each voxel within the image mask using the time series of angiographic images; characterized in that the processor is further configured to construct a composite angiographic image by: - assigning a fill time to each voxel within the image mask using an extremum of the time dependent signal if the extremum deviates from an average of the time dependent signal more than a predetermined threshold; and - identifying voxels within the image mask as being unfilled voxels if the extremum deviates from the average of the time dependent signal less than the predetermined threshold - rendering the composite angiographic image such that a measure for the fill time is displayed in the composite angiographic image .
Inflatable separating region for a vehicle interior , in particular for a passenger cabin of an aircraft , having: a supporting structure which has a plurality of interconnected inflatable tubes made of a flexible material and being arranged and designed so as, in an inflated state, to form a self-supporting frame structure for the separating region ; and a covering which comprises a plurality of flexible wall membranes which connect the inflatable tubes to one another in a planar manner and are designed to separate off the separating region in the inflated state from the vehicle interior , wherein the separating region in the inflated state is open upwards, wherein the supporting structure and the covering are designed to close off the separating region upwards at least in regions in a precisely fitting manner with the vehicle interior . a supporting structure which has a plurality of interconnected inflatable tubes made of a flexible material and being arranged and designed so as, in an inflated state, to form a self-supporting frame structure for the separating region ; and a covering which comprises a plurality of flexible wall membranes which connect the inflatable tubes to one another in a planar manner and are designed to separate off the separating region in the inflated state from the vehicle interior , wherein the separating region in the inflated state is open upwards, wherein the supporting structure and the covering are designed to close off the separating region upwards at least in regions in a precisely fitting manner with the vehicle interior .
A rollover prevention apparatus that prevents a vehicle steering apparatus from steering a vehicle beyond a predetermined rollover threshold angle of said vehicle and yet allows said vehicle steering apparatus to remain otherwise usable over a non-rollover steering range of motion of said vehicle.
A process for producing hardwood black pellets comprising the steps of a) Providing hardwood material; b) Combining the hardwood material with a source of glue of wood origin; c) Subjecting the combined hardwood material and source of glue to heat pretreatment to form a glue; d) Subjecting the heat pretreated hardwood material and formed glue to steam explosion; e) Pelleting the steam exploded hardwood material and formed glue to hardwood black pellets. a) Providing hardwood material; b) Combining the hardwood material with a source of glue of wood origin; c) Subjecting the combined hardwood material and source of glue to heat pretreatment to form a glue; d) Subjecting the heat pretreated hardwood material and formed glue to steam explosion; e) Pelleting the steam exploded hardwood material and formed glue to hardwood black pellets.
Material, characterized in that it has the general formula (I): {[(M 2+ ) 1-x (R + ) 2x ] 2 [(P 2 O 7 4- ) 1-y (PO 4 3- ) 4y/3 ]} n(H 2 O) (I) wherein: x and y are positive rational numbers such that: 0 < x ≤ 0.8 0 < y ≤ 0.8 n is a positive rational number such that the percentage by weight of water in the material is greater than 0 and less than or equal to 95, M 2+ represents a divalent ion of a metal chosen from calcium, magnesium, strontium, copper, zinc, cobalt, manganese and nickel, or any mixture of such divalent ions, and R + represents a monovalent ion of a metal chosen from potassium, lithium, sodium and silver, or any mixture of such monovalent ions. x and y are positive rational numbers such that: 0 < x ≤ 0.8 0 < y ≤ 0.8 n is a positive rational number such that the percentage by weight of water in the material is greater than 0 and less than or equal to 95, M 2+ represents a divalent ion of a metal chosen from calcium, magnesium, strontium, copper, zinc, cobalt, manganese and nickel, or any mixture of such divalent ions, and R + represents a monovalent ion of a metal chosen from potassium, lithium, sodium and silver, or any mixture of such monovalent ions.
An impeller comprising: an impeller body that is formed of a resin, forms a disk-like shape about an axis (O), and has a boss hole section formed therein, a rotating shaft rotating about the axis being fitted to the boss hole section; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring that is disposed in a circumferential direction of the impeller body inside the impeller body, and forms an annular shape, wherein the reinforcing ring has a base part that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part. an impeller body that is formed of a resin, forms a disk-like shape about an axis (O), and has a boss hole section formed therein, a rotating shaft rotating about the axis being fitted to the boss hole section; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring that is disposed in a circumferential direction of the impeller body inside the impeller body, and forms an annular shape, wherein the reinforcing ring has a base part that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part. a base part that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part.
A wind tower for delivering wind flow to a turbine including: • a support structure mounted to a support surface ; • a stackable wind intake section rotatably mounted to the support structure and elevated with respect to the support surface, the intake section having a central aperture and a plurality of internal passageways separated by a plurality of internal partitions extending between a plurality of wind-facing inlets oriented for concurrently receiving an oncoming wind-flow across the width of the stackable intake section and a plurality of outlets , each of the plurality of wind-facing inlets being in fluid communication with one of the plurality of outlets and the outlets being arranged around and in fluid communication with the central aperture, with the central aperture being of lesser diameter than the total width of the inlets to concentrate wind flow captured across a wider area via one of the passageways; and • an output passageway for collecting wind flow from the plurality of outlets, the output passageway being in fluid communication with the outlets and extending downwardly from the intake section toward the support surface for delivering wind flow to a turbine located at or proximate to the support surface. • a support structure mounted to a support surface ; • a stackable wind intake section rotatably mounted to the support structure and elevated with respect to the support surface, the intake section having a central aperture and a plurality of internal passageways separated by a plurality of internal partitions extending between a plurality of wind-facing inlets oriented for concurrently receiving an oncoming wind-flow across the width of the stackable intake section and a plurality of outlets , each of the plurality of wind-facing inlets being in fluid communication with one of the plurality of outlets and the outlets being arranged around and in fluid communication with the central aperture, with the central aperture being of lesser diameter than the total width of the inlets to concentrate wind flow captured across a wider area via one of the passageways; and • an output passageway for collecting wind flow from the plurality of outlets, the output passageway being in fluid communication with the outlets and extending downwardly from the intake section toward the support surface for delivering wind flow to a turbine located at or proximate to the support surface.
A treefall preventing device to be buried in soil such that roots entwine the treefall preventing device as a planted tree grows, wherein the treefall preventing device comprises three or more supporting parts extending in parallel with each other and ring-like retaining bodies supported by the supporting parts , and the retaining bodies are secured so as to be placed at intervals along the supporting parts , characterized in that the treefall preventing device further comprises spiral assisting bodies , which are in a spiral shape, disposed inside the retaining bodies . the treefall preventing device comprises three or more supporting parts extending in parallel with each other and ring-like retaining bodies supported by the supporting parts , and the retaining bodies are secured so as to be placed at intervals along the supporting parts , characterized in that the treefall preventing device further comprises spiral assisting bodies , which are in a spiral shape, disposed inside the retaining bodies .