mhurhangee/ep-ind-claims huggingface dataset:
A method of modifying an imaging cartridge detachably mountable to an imaging apparatus, the imaging cartridge comprising a cartridge chip, the method comprising: detaching the cartridge chip from the imaging cartridge, the cartridge chip comprising a light emitting device adapted for emitting light in the visible spectrum; and attaching a replacement cartridge chip to the imaging cartridge, wherein the replacement cartridge chip attached to the imaging cartridge comprises a light emitting device adapted for emitting light outside the visible spectrum. detaching the cartridge chip from the imaging cartridge, the cartridge chip comprising a light emitting device adapted for emitting light in the visible spectrum; and attaching a replacement cartridge chip to the imaging cartridge, wherein the replacement cartridge chip attached to the imaging cartridge comprises a light emitting device adapted for emitting light outside the visible spectrum.
A static multiview display comprising: a light guide configured to guide light beams; a light source at an input location on the light guide, the light source being configured to provide within the light guide a plurality of guided light beams having a common point of origin and different radial directions from one another; and a plurality of diffraction gratings configured to emit directional light beams representing a static multiview image, each diffraction grating being configured to provide from a portion of a guided light beam of the guided light beam plurality a directional light beam having an intensity and a principal angular direction corresponding to an intensity and a view direction of a view pixel of the static multiview image, such that a plurality of different views of a predetermined multiview image are displayed, wherein a grating characteristic of the diffraction grating is configured to determine the intensity and the principal angular direction, the grating characteristic being a function of the radial location of the guided light beam incident on the diffraction grating from the light source. a light guide configured to guide light beams; a light source at an input location on the light guide, the light source being configured to provide within the light guide a plurality of guided light beams having a common point of origin and different radial directions from one another; and a plurality of diffraction gratings configured to emit directional light beams representing a static multiview image, each diffraction grating being configured to provide from a portion of a guided light beam of the guided light beam plurality a directional light beam having an intensity and a principal angular direction corresponding to an intensity and a view direction of a view pixel of the static multiview image, such that a plurality of different views of a predetermined multiview image are displayed, wherein a grating characteristic of the diffraction grating is configured to determine the intensity and the principal angular direction, the grating characteristic being a function of the radial location of the guided light beam incident on the diffraction grating from the light source.
Method for transmitting a user interface, provided for a screen of a mobile device, of an application program running in the mobile device to a screen of an infotainment system arranged in a vehicle, characterized in that the screen size of the infotainment system is ascertained in the unit of a comparison variable in the infotainment system, wherein the screen size is expressed by a horizontal length and a vertical length of the screen, the screen size of the infotainment system is transmitted to the mobile device via a data interface, the user interface size of the application program running in the mobile device is ascertained in the unit of the comparison variable in the mobile device, the screen size of the infotainment system is compared with the user interface size of the application program running in the mobile device and the comparison is taken as a basis for deciding in the mobile device whether and if applicable which image data relating to the user interface are transmitted from the mobile device to the infotainment system via the data interface, wherein image data modifying the user interface are transmitted from the mobile device to the infotainment system via the data interface if the comparison reveals that the screen size of the infotainment system is smaller than the user interface size of the application program running in the mobile device and the application program keeps a modified user interface for the screen size of the infotainment system, wherein the screens are assigned to layout classes on the basis of their size in the unit of the comparison variable, the layout classes representing screens whose sizes come within particular intervals, and a suitable user interface is kept for each layout class.
A vehicle propulsion control handle, especially for underwater vehicles, fitted with a handpiece having a lever and a knob and with a board having a microprocessor and an encoder, wherein: the lower end of its handpiece is connected in a detachable manner to an offset of the upper surface of the base and to a lower inner offset, mounted thereon, of the profile lever arranged on a slot of the handpiece, wherein the profile lever is provided above the offset with an inner offset with a spring mounted thereon whose other end is adjacent to the inner surface of the handpiece, and characterized in that said profile lever is provided with an upper offset with magnet M1 fitted loosely to a pin in the slot of the handpiece, inside the upper end of said handpiece, and in that there there is provided the lower end of the housing with an outer ring-shaped offset and a bottom whose lower surface has two offsets (26, 26') separated by a slot such that an upper offset for the lever is provided in said slot; in said housing, there is set an electronic board permanently connected to an encoder and to at least one Hall sensor (H2, H3), arranged on the upper surface of the board, and the Hall sensor arranged on the lower surface of said board such that electrical wires are led out of said board through a pass-through hole in the offset of the housing; next to each of the Hall sensors (H2, H3), in the side surface of the housing, there is provided at least one socket (44, 44') for a bistable slide function switch (45, 45') with a magnet (M2, M3), from top side, the electronic board is covered with a sleeve-shaped lid having on its upper face blind holes (35, 35') for springs (36, 36') with metal balls (37, 37') mounted thereon, wherein, on said lid, there is mounted a sleeve-shaped knob with an upper bottom, connected to the lid in a detachable manner, whose inner surface has an offset for the upper end of the profile encoder and blind holes for said metal balls (37, 37') of the springs (36, 36').
A foldable mobile terminal apparatus (10, 401, 501) comprising: a first section; a second section coupled to the first section and configured to be movable between a fully folded state and an unfolded state including a plurality of partially folded states; a flexible display coupled to the first section and the second section; a geomagnetic sensor; at least one second sensor configured to detect a folded state of the mobile terminal apparatus (10, 401, 501), the at least one second sensor comprising an angle sensor; and at least one processor (420, 511) configured to: while the mobile terminal apparatus (10, 401, 501) is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus (10, 401, 501); identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction. a first section; a second section coupled to the first section and configured to be movable between a fully folded state and an unfolded state including a plurality of partially folded states; a flexible display coupled to the first section and the second section; a geomagnetic sensor; at least one second sensor configured to detect a folded state of the mobile terminal apparatus (10, 401, 501), the at least one second sensor comprising an angle sensor; and at least one processor (420, 511) configured to: while the mobile terminal apparatus (10, 401, 501) is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus (10, 401, 501); identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction. while the mobile terminal apparatus (10, 401, 501) is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus (10, 401, 501); identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction.
An emissions abatement system for an engine system having an engine and an after-treatment system, the emissions abatement system being configured for operation in an off-highway vehicle and comprising a controller arranged to: a. receive an input indicative of an intent to start the vehicle, b. upon receipt of said input, activate a heating component to raise an operating temperature of at least a portion of the after-treatment system, c. determine when the after-treatment system has reached a first heated condition, d. once the first heated condition has been reached, direct the engine to be started and direct the vehicle to operate in a first mode; e. determine when the after-treatment system has reached a second heated condition, and f. once the second heated condition has been reached, direct the vehicle to operate in a second mode; wherein in the first mode, the vehicle is controlled to maintain the load on the engine below a predetermined load threshold. a. receive an input indicative of an intent to start the vehicle, b. upon receipt of said input, activate a heating component to raise an operating temperature of at least a portion of the after-treatment system, c. determine when the after-treatment system has reached a first heated condition, d. once the first heated condition has been reached, direct the engine to be started and direct the vehicle to operate in a first mode; e. determine when the after-treatment system has reached a second heated condition, and f. once the second heated condition has been reached, direct the vehicle to operate in a second mode;
A method of communicating discovery information in a wireless neighborhood aware network, NAN, comprising: receiving, at a first wireless device, a message from a neighboring wireless device, the message comprising a data structure indicative of discovered device identifiers; determining whether the data structure indicates an identifier of the first wireless device; and transmitting a message comprising the identifier of the first wireless device when the data structure does not indicate the identifier of the first wireless device; wherein the data structure comprises a Bloom filter; wherein the Bloom filter is a bit array of m bits with k different hash functions associated with the bit array, wherein each hash function maps an input string to one of the m array positions with a uniform random distribution; and at least one of the k hash functions H(j,X,m) is defined as (CRC32(j || X) & oxFFFF) mod m, wherein j is a modification string, X is the input string, and CRC32 is a 32 bit cyclic redundancy code. receiving, at a first wireless device, a message from a neighboring wireless device, the message comprising a data structure indicative of discovered device identifiers; determining whether the data structure indicates an identifier of the first wireless device; and transmitting a message comprising the identifier of the first wireless device when the data structure does not indicate the identifier of the first wireless device; wherein the data structure comprises a Bloom filter; wherein the Bloom filter is a bit array of m bits with k different hash functions associated with the bit array, wherein each hash function maps an input string to one of the m array positions with a uniform random distribution; and at least one of the k hash functions H(j,X,m) is defined as (CRC32(j || X) & oxFFFF) mod m, wherein j is a modification string, X is the input string, and CRC32 is a 32 bit cyclic redundancy code.
Multilayered web comprising at least one embedded strength member layer (2, 8) and at least one layer based on at least one rubber (3, 4, 5, 6, 7), characterized in that at least one layer based on at least one rubber contains at least one flame retardant, wherein the flame retardant is free from halogens and/or halogen compounds and free from antimony and/or antimony compounds and wherein the rubber is selected from the group consisting of nitrile rubber and/or (partially) hydrogenated nitrile rubber (HNBR) and/or fluororubber and/or chloroprene rubber and/or butyl rubber and/or bromobutyl rubber (BIIR) and/or chlorobutyl rubber (CIIR) and/or butadiene rubber and/or chlorinated polyethylene and/or chlorosulphonated polyethylene and/or polyepichlorohydrin and/or ethylene-vinyl acetate rubber and/or acrylate rubber and/or ethylene-acrylate rubber and/or perfluorinated propylene rubber (FFPM) and/or perfluorocarbon rubber (FFKM).
An in vitro method for removing pluripotent cells, comprising a step of contacting a compound represented by formula: wherein R 1 represents naphthyl; m represents 1; and n represents an integer of 2 or 3, or formula: wherein R 1 represents naphthyl; R 2 represents a glycine residue; m represents 1; and n represents an integer of 3, with a cell population of interest.
Use of a stainless clad steel for heat exchangers, chemical tankers, chemical plants or pressure vessels, characterized in that the stainless clad steel comprises a stainless steel having Pitting Index represented by Formula described below of 35 or more as a cladding material, wherein the ratio of Cr concentration (atomic percent)/Fe concentration (atomic percent) in a passivation film portion of the cladding material to Cr concentration (atomic percent)/Fe concentration (atomic percent) in a parent phase portion of the cladding material is 1.20 or more and, in addition, the amount of precipitation of σ (sigma) phase of the surface of the cladding material is 2.0% or less on an area ratio basis, Pitting Index = Cr + 3.3 Mo + 16 N where Cr, Mo, and N indicate the contents (percent by mass) of their respective elements, and the case of no inclusion is specified to be 0.
A frame member supporting a display device, comprising: a bottom plate part facing a lower surface of the display device; a wall part extending upwardly from an edge part of the bottom plate part; a top plate part extending from an upper edge part of the wall part in a horizontal direction; a reinforcing plate member (135, 135a) which is continuous from the upper edge part of the wall part forming a step toward the top plate part; and an aperture into which a wiring member connected to the display device is inserted, provided between the reinforcing plate member (135, 135a) and the top plate part. a bottom plate part facing a lower surface of the display device; a wall part extending upwardly from an edge part of the bottom plate part; a top plate part extending from an upper edge part of the wall part in a horizontal direction; a reinforcing plate member (135, 135a) which is continuous from the upper edge part of the wall part forming a step toward the top plate part; and an aperture into which a wiring member connected to the display device is inserted, provided between the reinforcing plate member (135, 135a) and the top plate part.
An apparatus for applying a lifting force to a tissue site of a patient, the apparatus comprising: an occlusive layer configured to be sealed to a patient around a tissue site to define a substantially air-tight chamber; a decompression layer disposed within the chamber defined by the occlusive layer at a location proximate the tissue site, the decompression layer comprising a compressible fabric defining one or more channels therethrough; and a connector provided along the occlusive layer, the connector configured to fluidly couple the chamber to a vacuum source; wherein, the decompression layer has a centre of stiffness located closer to a surface of the decompression layer facing away from the tissue site than to a surface of the decompression layer facing the tissue site such that upon operation of the vacuum source, the decompression layer is configured to compress in a direction away from the tissue site. an occlusive layer configured to be sealed to a patient around a tissue site to define a substantially air-tight chamber; a decompression layer disposed within the chamber defined by the occlusive layer at a location proximate the tissue site, the decompression layer comprising a compressible fabric defining one or more channels therethrough; and a connector provided along the occlusive layer, the connector configured to fluidly couple the chamber to a vacuum source; wherein, the decompression layer has a centre of stiffness located closer to a surface of the decompression layer facing away from the tissue site than to a surface of the decompression layer facing the tissue site such that upon operation of the vacuum source, the decompression layer is configured to compress in a direction away from the tissue site.
Use of a composition comprising 0.5-5% by weight of a polyolefin wax; 10-30% by weight of fluorosilicic acid or a fluorosilicate; 1-6% by weight of an acid conditioner selected from fumaric acid, citric acid, 2,3-dihydroxybutanedioic acid, and mixtures thereof; 0.5-5% by weight of a fast drying agent selected from ethylene glycol methyl ether, ethylene glycol butyl ether, diethylene glycol butyl ether, propylene glycol methyl ether, dipropylene glycol methyl ether, propylene glycol propyl ether, dipropylene glycol propyl ether, propylene glycol butyl ether, propylene glycol methyl ether acetate, dipropylene glycol methyl ether acetate, dipropylene glycol dimethyl ether, diethylene glycol methyl ether, and mixtures thereof; and water as balance; wherein said polyolefin wax is a polypropylene wax and is added in the form of an emulsion, and the solid content of the polyolefin wax emulsion is in a range of 20% to 50% by weight, wherein the evaporation rate of said fast drying agent is greater than 0.01, wherein said polyolefin wax emulsion has a particle size in a range of 50 to 200 nm as determined by a BDL-B surface potential particle size analyzer, a pH value in the range of 4 to 10 and a viscosity in a range of 100 to 1000 mPas (100 to 1000 cps), wherein said polyolefin wax emulsion is formed by emulsifying a polyolefin wax with an emulsifier with an HLB value of 8 to 18, and wherein the number-average molecular weight Mn of said polyolefin wax is between 1000 and 20000 and its dropping point is 60 to 180 °C according to ASTM D3954-1994; for providing a glossy finish with anti-slip properties to stone in a single step.
A manufacturing method for a hydrogel contact lens comprising: a first step of preparing a hydrogel contact lens substrate; swelling the hydrogel contact lens substrate by immersing the hydrogel contact lens substrate in an alcohol solution; and a second step of immersing the hydrogel contact lens substrate in a surface-modifying solution including a sodium hyaluronate compound, a hydrophilic monomer, and a crosslinking agent for at least 1 hour, wherein the surface-modifying solution includes 0.05 to 2 wt% of the hyaluronate compound, 0.2 to 10 wt% of the hydrophilic monomer, and 0.001 to 0.5 wt% of an initiator, and 87.5 to 99.5 wt% of water, and the crosslinking agent has a content of 0.02 to 0.05 mol per 1 mol of the hydrophilic monomer. a first step of preparing a hydrogel contact lens substrate; swelling the hydrogel contact lens substrate by immersing the hydrogel contact lens substrate in an alcohol solution; and a second step of immersing the hydrogel contact lens substrate in a surface-modifying solution including a sodium hyaluronate compound, a hydrophilic monomer, and a crosslinking agent for at least 1 hour, wherein the surface-modifying solution includes 0.05 to 2 wt% of the hyaluronate compound, 0.2 to 10 wt% of the hydrophilic monomer, and 0.001 to 0.5 wt% of an initiator, and 87.5 to 99.5 wt% of water, and the crosslinking agent has a content of 0.02 to 0.05 mol per 1 mol of the hydrophilic monomer.
A flexible abrasive product having a surface, the surface comprising repeating units (RU1, RU2, RU3, RU4, RU5, RU6, RU7) of abrasive zones surrounded by channel portions (221, 222), wherein repeating unit (RU1, RU2, RU3, RU4, RU5, RU6, RU7) boundaries opposite to each other have congruent curvature to form a complementary pair to fit the repeating units (RU1, RU2, RU3, RU4, RU5, RU6, RU7) together in a pre-emptying manner, characterized in that the channel portions (221, 222) comprise first channel portions with a substantially constant first channel width and second channel portions with a substantially constant second channel width along the channel portion length.
A hand tool for flanging a component, comprising: a) a frame (1, 2); b) a single flanging roller, arranged on the frame (1, 2) in such a way that it can rotate around a rotational axis, and comprising a running surface; c) a counter pressure element, arranged on the frame (1, 2) opposite to and facing the running surface, in order to take up a force exerted by the flanging roller on the component (B 1); d) and a handle (3; 3, 16), connected to the frame (1, 2), for guiding the hand tool during flanging, characterised in that e) the counter pressure element forms a sliding pad which slides over the component (B 1) or a component protector pressed against the component (B 1) during flanging and is level or curves outwards towards the flanging roller. a) a frame (1, 2); b) a single flanging roller, arranged on the frame (1, 2) in such a way that it can rotate around a rotational axis, and comprising a running surface; c) a counter pressure element, arranged on the frame (1, 2) opposite to and facing the running surface, in order to take up a force exerted by the flanging roller on the component (B 1); d) and a handle (3; 3, 16), connected to the frame (1, 2), for guiding the hand tool during flanging, characterised in that e) the counter pressure element forms a sliding pad which slides over the component (B 1) or a component protector pressed against the component (B 1) during flanging and is level or curves outwards towards the flanging roller.