mhurhangee/patent-ind-claim-en huggingface dataset:
A laser scanning sensor comprising: a head part configured to acquire range information in each measurement direction by containing a laser range finder and a scanning mechanism for changing a measurement direction by the laser range finder; a base part configured to be mounted on an installation surface; and a joint part configured to join any one of the attachment portions in the head part with the base part, characterised in that the head part has a shape inscribed in a virtual cube (C), wherein the head part has a wiring hole oriented to an intersection of three mutually orthogonal planes in the cube, and three attachment portions each provided at an inscribed point in a different one of the three planes, the joint part has, on an inner circumferential surface thereof, an annular fitted portion in a shape of a partially cutaway sphere, wherein the base part has a fitting portion shaped to fit in the fitted portion, and wherein the fitted portion and the fitting portion are fitted with each other via a resilient member . a head part configured to acquire range information in each measurement direction by containing a laser range finder and a scanning mechanism for changing a measurement direction by the laser range finder; a base part configured to be mounted on an installation surface; and a joint part configured to join any one of the attachment portions in the head part with the base part, characterised in that the head part has a shape inscribed in a virtual cube (C), wherein the head part has a wiring hole oriented to an intersection of three mutually orthogonal planes in the cube, and three attachment portions each provided at an inscribed point in a different one of the three planes, the joint part has, on an inner circumferential surface thereof, an annular fitted portion in a shape of a partially cutaway sphere, wherein the base part has a fitting portion shaped to fit in the fitted portion, and wherein the fitted portion and the fitting portion are fitted with each other via a resilient member .
A smart window comprising a transmittance-variable element, the transmittance-variable element comprising: two substrates each comprising an electrode ; an electrophoresis layer provided between said substrates ; and an electrode wiring having a plurality of wiring groups (G 1 , G2) electrically disconnected from each other, wherein at least one of said electrodes has a mesh pattern formed by intersecting electrode lines extending along a first direction and electrode lines extending along a second direction, wherein each of said wiring groups (G 1 , G2) is distributed to a respective plurality of sub-wiring groups (g11-g23), wherein each of said sub-wiring groups (g11-g23) is distributed to a respective plurality of wiring lines (w111-w234), the wiring lines (w111-w234) being electrically connected to a respective one of electrode lines directly adjacent to each other while extending along said first direction, and wherein,for each sub-wiring group, one of said electrode lines electrically connected to one of the sub-wiring groups (g11-g13) distributed from one wiring group (G1) is directly adjacent to one electrode line electrically connected to one of sub-wiring groups (g21-g23) of another wiring group (G2). two substrates each comprising an electrode ; an electrophoresis layer provided between said substrates ; and an electrode wiring having a plurality of wiring groups (G 1 , G2) electrically disconnected from each other, wherein at least one of said electrodes has a mesh pattern formed by intersecting electrode lines extending along a first direction and electrode lines extending along a second direction, wherein each of said wiring groups (G 1 , G2) is distributed to a respective plurality of sub-wiring groups (g11-g23), wherein each of said sub-wiring groups (g11-g23) is distributed to a respective plurality of wiring lines (w111-w234), the wiring lines (w111-w234) being electrically connected to a respective one of electrode lines directly adjacent to each other while extending along said first direction, and wherein,for each sub-wiring group, one of said electrode lines electrically connected to one of the sub-wiring groups (g11-g13) distributed from one wiring group (G1) is directly adjacent to one electrode line electrically connected to one of sub-wiring groups (g21-g23) of another wiring group (G2).
A redirection method, comprising: sending (S1002, S1102), by a terminal to a mobility management network element in a first system, a cellular internet of things, CIOT, feature supported by the terminal in a second system and a CIOT feature preferred by the terminal in the second system, wherein the CIOT feature simported by the terminal and the CIOT feature preferred by the terminal is used to determine redirection indication information, wherein the first and second system are different; receiving (S1006, S1106), by the terminal, the redirection indication information from the mobility management network element in the first system; selecting (S1008, S1108), by the terminal, a second system based on the redirection indication information; and sending (S1010, S1110), by the terminal, a second message to the second system, wherein the second message requests to access the second system. sending (S1002, S1102), by a terminal to a mobility management network element in a first system, a cellular internet of things, CIOT, feature supported by the terminal in a second system and a CIOT feature preferred by the terminal in the second system, wherein the CIOT feature simported by the terminal and the CIOT feature preferred by the terminal is used to determine redirection indication information, wherein the first and second system are different; receiving (S1006, S1106), by the terminal, the redirection indication information from the mobility management network element in the first system; selecting (S1008, S1108), by the terminal, a second system based on the redirection indication information; and sending (S1010, S1110), by the terminal, a second message to the second system, wherein the second message requests to access the second system.
A method of analyzing phosphorus content in soil, the method comprising: a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction and performing chemical analysis on the soil mixture flowing through the analysis tool, whereby a phosphorus absorbance of the soil mixture is measured. a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction and performing chemical analysis on the soil mixture flowing through the analysis tool, whereby a phosphorus absorbance of the soil mixture is measured.
A valve comprising: a body having an inlet , an outlet , an access port comprising an interior space , and a post , wherein the inlet is selectively coupled to the outlet through the interior space ; and a rotatable element having an axis of rotation, wherein the rotatable element is disposed within the body so that the post protrudes into the rotatable element , and the body and rotatable element are configured to cooperatively displace the rotatable element with respect to the body and along the axis of rotation as the rotatable element is moved between a first and a second position; wherein, in the first position, fluid entering the inlet entirely flows through the interior space to the outlet , and in the second position, the rotatable element is displaced along the axis of rotation such that fluid entering the inlet flows between the post and the rotatable element to the outlet . a body having an inlet , an outlet , an access port comprising an interior space , and a post , wherein the inlet is selectively coupled to the outlet through the interior space ; and a rotatable element having an axis of rotation, wherein the rotatable element is disposed within the body so that the post protrudes into the rotatable element , and the body and rotatable element are configured to cooperatively displace the rotatable element with respect to the body and along the axis of rotation as the rotatable element is moved between a first and a second position; wherein, in the first position, fluid entering the inlet entirely flows through the interior space to the outlet , and in the second position, the rotatable element is displaced along the axis of rotation such that fluid entering the inlet flows between the post and the rotatable element to the outlet .
An information processing system comprising a first input apparatus including a strain sensor and a holding portion to be held by both hands of a user, a second input apparatus including a motion sensor and different from the first input apparatus, and an information processing apparatus , characterized in that the strain sensor outputs the strain data corresponding to a force applied to the holding portion of the first input apparatus, the motion sensor provides an output corresponding to a motion of the second input apparatus, the second input apparatus is attached to a user's body, and the information processing apparatus includes a data obtaining section (81, S502, S602) that obtains strain data corresponding to the output of the strain sensor and motion data corresponding to the output of the motion sensor, and a game processing section (81, S503-S510, S603-S610) that executes first control (81, S506, S605) on an object (OBJ2a, OBJ2b, PC) disposed in a virtual space based on the strain data, and second control (81, S505, S607) on the object based on the motion data, the second control being different from the first control. the strain sensor outputs the strain data corresponding to a force applied to the holding portion of the first input apparatus, the motion sensor provides an output corresponding to a motion of the second input apparatus, the second input apparatus is attached to a user's body, and the information processing apparatus includes a data obtaining section (81, S502, S602) that obtains strain data corresponding to the output of the strain sensor and motion data corresponding to the output of the motion sensor, and a game processing section (81, S503-S510, S603-S610) that executes first control (81, S506, S605) on an object (OBJ2a, OBJ2b, PC) disposed in a virtual space based on the strain data, and second control (81, S505, S607) on the object based on the motion data, the second control being different from the first control. a data obtaining section (81, S502, S602) that obtains strain data corresponding to the output of the strain sensor and motion data corresponding to the output of the motion sensor, and a game processing section (81, S503-S510, S603-S610) that executes first control (81, S506, S605) on an object (OBJ2a, OBJ2b, PC) disposed in a virtual space based on the strain data, and second control (81, S505, S607) on the object based on the motion data, the second control being different from the first control.
A foldable five-star foot, comprising a center body and five legs , wherein each one of the legs is provided with a first mounting block and a second mounting block , wherein the first mounting block corresponds to a first mounting groove , the second mounting block corresponds to a second mounting groove , the first mounting groove and the second mounting groove are formed on the center body ; wherein the first mounting groove and the second mounting groove are both internally provided with a pair of first connecting blocks and a pair of second connecting blocks , each one of the first connecting blocks is connected with each corresponding one of the first mounting blocks , and each one of the second connecting blocks is connected with each corresponding one of the second mounting blocks ; each one of the first mounting blocks is provided with a first connecting groove : characterized in that , each one of the second mounting blocks is provided a second connecting groove ; each one of the first connecting grooves is clamped with each corresponding one of the first connecting blocks and each one of the second connecting grooves is clamped with each corresponding one of the second connecting blocks to connect and fix each corresponding one of the legs .
Metering device for the metered introduction of a pourable cleaning agent into a processing chamber of a program-controlled cleaning device, in particular a dishwasher , the metering device comprising a housing , a storage container which is used to accommodate the cleaning agent, and a support unit which is arranged so as to be rotatable within the housing about an axis of rotation , which support unit interchangeably receives the storage container and by means of which the storage container can be transferred from a starting position into a metering position and vice versa, the storage container having a storage chamber and a metering channel which opens into a metering opening , the metering device also comprising a discharge channel which opens into the processing chamber via a discharge opening , which discharge channel is in fluidic operative connection with the metering channel when a storage container is in the metering position, the discharge channel having an in-feed opening on the metering channel side, characterised in that the housing has an air inlet for drying air as well as an air outlet, via which air outlet the drying air introduced into the housing via the air inlet can be directed out of the housing again, the drying air flowing around the storage container which is accomodated by the housing .
A substrate bonding method, comprising: a first pressure-bonding step for disposing a first substrate on a photoresist pattern formed on a support film so as to bring the first substrate into contact with a surface of the photoresist pattern located on the side opposite to the support film , and pressure-bonding the support film , the photoresist pattern and the first substrate ; a support film release step for releasing the support film after the pressure-bonding; characterized in that it comprises a second pressure-bonding step for disposing a second substrate on the photoresist pattern so as to bring the second substrate into contact with a surface of the photoresist pattern located on the side opposite to the first substrate , and pressure-bonding the first substrate , the photoresist pattern and the second substrate . a first pressure-bonding step for disposing a first substrate on a photoresist pattern formed on a support film so as to bring the first substrate into contact with a surface of the photoresist pattern located on the side opposite to the support film , and pressure-bonding the support film , the photoresist pattern and the first substrate ; a support film release step for releasing the support film after the pressure-bonding; characterized in that it comprises a second pressure-bonding step for disposing a second substrate on the photoresist pattern so as to bring the second substrate into contact with a surface of the photoresist pattern located on the side opposite to the first substrate , and pressure-bonding the first substrate , the photoresist pattern and the second substrate .
A method for molding a thermoplastic resin product comprising: a heating step in which a stamper which is remote from a cooling member is radiation heated with infrared rays radiated from a heating apparatus with a shutter for shielding the infrared rays radiated from the heating apparatus open; a transfer step in which a structure of a shape-forming surface of the stamper which has been radiation heated is transferred to a transfer surface of a thermoplastic resin with the shutter closed; a cooling step in which, in the state where the shape-forming surface is pressed against the transfer surface , the cooling member which is in contact with the stamper cools the stamper , thereby solidifying or curing the thermoplastic resin with the shutter closed ; and a mold-releasing step in which a molded product is released from a mold by releasing the state where the shape-forming surface is pressed against the transfer surface with the shutter closed . a heating step in which a stamper which is remote from a cooling member is radiation heated with infrared rays radiated from a heating apparatus with a shutter for shielding the infrared rays radiated from the heating apparatus open; a transfer step in which a structure of a shape-forming surface of the stamper which has been radiation heated is transferred to a transfer surface of a thermoplastic resin with the shutter closed; a cooling step in which, in the state where the shape-forming surface is pressed against the transfer surface , the cooling member which is in contact with the stamper cools the stamper , thereby solidifying or curing the thermoplastic resin with the shutter closed ; and a mold-releasing step in which a molded product is released from a mold by releasing the state where the shape-forming surface is pressed against the transfer surface with the shutter closed .
A scintillator array, comprising: - a plurality of scintillator blocks; and - a reflective layer part, interposed between the adjacent scintillator blocks to integrate the plurality of scintillator blocks, comprising a transparent resin and reflective particles dispersed in the transparent resin, the reflective particles including at least one selected from titanium oxide particles and tantalum oxide particles and having a mean particle diameter of 0.01-0.4 μm and a particle size distribution having a peak in a range of 0.2-0.3 μm, wherein - the width of the reflective layer part is 10-100 μm, - the number of the reflective particles existing per unit area of 5 μm × 5 μm of the reflective layer part is in the range of 100-250, - the reflective layer part has aggregates of the reflective particles, the area ratio of these aggregates per unit area of 10 μm×10 μm of the reflective layer part being ≤ 40%, - an existing ratio of voids in a cross section in the thickness direction of the reflective layer part is ≤ 1%, - the transparent resin comprises an epoxy resin or a silicone resin, and - the warpage amount in each of the long side direction and the short side direction of the scintillator array is ≤ 0.2 mm. - a plurality of scintillator blocks; and - a reflective layer part, interposed between the adjacent scintillator blocks to integrate the plurality of scintillator blocks, comprising a transparent resin and reflective particles dispersed in the transparent resin, the reflective particles including at least one selected from titanium oxide particles and tantalum oxide particles and having a mean particle diameter of 0.01-0.4 μm and a particle size distribution having a peak in a range of 0.2-0.3 μm, wherein - the width of the reflective layer part is 10-100 μm, - the number of the reflective particles existing per unit area of 5 μm × 5 μm of the reflective layer part is in the range of 100-250, - the reflective layer part has aggregates of the reflective particles, the area ratio of these aggregates per unit area of 10 μm×10 μm of the reflective layer part being ≤ 40%, - an existing ratio of voids in a cross section in the thickness direction of the reflective layer part is ≤ 1%, - the transparent resin comprises an epoxy resin or a silicone resin, and - the warpage amount in each of the long side direction and the short side direction of the scintillator array is ≤ 0.2 mm.
An automotive lamp structured to be switchable between a low-beam mode and a high-beam mode, comprising: a first lamp unit structured to illuminate a first region having its longitudinal direction in a horizontal direction, and having its upper edge that defines a horizontal cutoff line in both the low-beam mode and the high-beam mode, when the lamp is arranged on the vehicle; a second lamp unit structured to illuminate a second region having its longitudinal direction in a direction inclined with respect to the horizontal direction, and having its upper edge that defines an oblique cutoff line in both the low-beam mode and the high-beam mode,when the lamp is arranged on the vehicle; and a third lamp unit structured to illuminate a third region having its longitudinal direction in a direction inclined with respect to the horizontal direction, and having its lower edge parallel to the oblique cutoff line in the high-beam mode, when the lamp is arranged on the vehicle, characterized in that at least one from among the first lamp unit and the second lamp unit provides a lower light intensity in the high beam mode than the light intensity thereof in the low-beam mode. a first lamp unit structured to illuminate a first region having its longitudinal direction in a horizontal direction, and having its upper edge that defines a horizontal cutoff line in both the low-beam mode and the high-beam mode, when the lamp is arranged on the vehicle; a second lamp unit structured to illuminate a second region having its longitudinal direction in a direction inclined with respect to the horizontal direction, and having its upper edge that defines an oblique cutoff line in both the low-beam mode and the high-beam mode,when the lamp is arranged on the vehicle; and a third lamp unit structured to illuminate a third region having its longitudinal direction in a direction inclined with respect to the horizontal direction, and having its lower edge parallel to the oblique cutoff line in the high-beam mode, when the lamp is arranged on the vehicle, characterized in that at least one from among the first lamp unit and the second lamp unit provides a lower light intensity in the high beam mode than the light intensity thereof in the low-beam mode.
Method for preparing trialkylindium, wherein the preparation takes place in a reaction mixture that contains at least one alkylindium halide, a trialkylaluminum, a carboxylate, and a solvent, wherein the alkyl groups are chosen, independently of one another, from C1-C4 alkyl.
Use of a decolorizing composition for discharging the colour of blood stains, the composition comprising: from 0.1 wt.% to 4 wt.% of hydrogen peroxide, from 0.1 wt.% to 10 wt.% of at least one surfactant, from 0.05 wt.% to 10 wt.% of at least one chelating agent, from 0.0005 wt.% to 5 wt.% of at least one antioxidant, and from 60 wt.% to 99 wt.% of water; wherein the chelating agent includes ethylenediaminetetraacetic acid (EDTA), a salt of ethylenediaminetetraacetic acid (EDTA), or a combination thereof; and wherein the antioxidant includes vitamin E acetate, vitamin E linoleate, vitamin E nicotinate, vitamin E succinate, or a combination thereof. from 0.1 wt.% to 4 wt.% of hydrogen peroxide, from 0.1 wt.% to 10 wt.% of at least one surfactant, from 0.05 wt.% to 10 wt.% of at least one chelating agent, from 0.0005 wt.% to 5 wt.% of at least one antioxidant, and from 60 wt.% to 99 wt.% of water;