mhurhangee/patent-ind-claim-en huggingface dataset:
A system for indicating bottoming contact between an inner wall of a fluid carrying conduit and a distal tip of a process measurement probe , the system comprising: the fluid carrying conduit ; a process device having the process measurement probe configured for insertion into the fluid carrying conduit ; an insertion mechanism coupled to the process measurement probe and configured to apply force to insert the process measurement probe into the fluid carrying conduit ; and a bottoming indicator configured to provide an indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit as a function of an insertion related force or pressure; wherein the bottoming indicator includes at least one spring , wherein one end of the spring is fixed to a reference feature configured as a plate so that the spring is compressed in response to application of the force from the insertion mechanism to insert the process measurement probe , the system being characterized in that the bottoming indicator further includes a visual marker which moves relative to the reference feature when proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit is achieved, wherein the spring is located on one side of the reference feature opposite to the visual marker , and wherein the movement of the visual marker relative to the reference feature provides a visual indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit . the fluid carrying conduit ; a process device having the process measurement probe configured for insertion into the fluid carrying conduit ; an insertion mechanism coupled to the process measurement probe and configured to apply force to insert the process measurement probe into the fluid carrying conduit ; and a bottoming indicator configured to provide an indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit as a function of an insertion related force or pressure; wherein the bottoming indicator includes at least one spring , wherein one end of the spring is fixed to a reference feature configured as a plate so that the spring is compressed in response to application of the force from the insertion mechanism to insert the process measurement probe , the system being characterized in that the bottoming indicator further includes a visual marker which moves relative to the reference feature when proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit is achieved, wherein the spring is located on one side of the reference feature opposite to the visual marker , and wherein the movement of the visual marker relative to the reference feature provides a visual indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit .
An ink jet liquid composition comprising: an organic solvent; a bifunctional urethane (meth)acrylate oligomer having a weight-average molecular weight of 2,000 to 15,000; a photopolymerization initiator; and a vinyl chloride-vinyl acetate copolymer, wherein a content of the organic solvent is 40% by mass or more and 90% by mass or less with respect to a total mass of the liquid composition, and wherein a colorant is not contained. an organic solvent; a bifunctional urethane (meth)acrylate oligomer having a weight-average molecular weight of 2,000 to 15,000; a photopolymerization initiator; and a vinyl chloride-vinyl acetate copolymer, wherein a content of the organic solvent is 40% by mass or more and 90% by mass or less with respect to a total mass of the liquid composition, and wherein a colorant is not contained.
Oscillating weight for a self winding watch mechanism including a basic part made of composite material and heavy metal elements , wherein the basic part includes an inner portion and a peripheral portion , characterized in that the peripheral portion includes housings inside which the heavy metal elements are set, said housings being blind holes partially closed by at least one lug integral with the peripheral portion and arranged to resiliently lock the housings.
A tyre for a passenger vehicle comprising a crown , two beads , two sidewalls each connecting each bead to the crown , and a carcass reinforcement anchored in each bead , the crown comprising a crown reinforcement and a tread , the carcass reinforcement extending in each sidewall and in the crown radially internally to the crown reinforcement , the crown reinforcement being arranged radially between the tread and the carcass reinforcement and comprising a working reinforcement comprising at least an axially narrowest working layer , the axially narrowest working layer having an axial width T2 expressed in mm, the tyre is adapted to be mounted on a mounting support comprising a rim , characterized in that the tyre has a load index LI such that LI ≥ LI'+1, LI' being the load index of an EXTRA LOAD tyre of the same size according to the ETRTO 2019 Standards Manual, and in that, when the tyre is mounted on a rim having a rim width code equal to the measuring rim width code for the tyre size defined according to the ETRTO 2019 Standards Manual minus 0.5, the ratio T2/A is such that T2/A ≤ 1.00 with A being the rim width A according to the ETRTO 2019 Standards Manual, expressed in mm of the rim.
A method comprising: initially illuminating a large area corresponding to at least 33% of the field of view of a time-of-flight camera by an illuminator; receiving, at an image sensor of the time-of-flight camera, reflected light; measuring against some threshold, at circuitry included in the image sensor, received signal intensity at each pixel of the image sensor; identifying the pixels whose received optical intensity fell below the threshold; determining, weak signal regions from the pixels that fell below the threshold; upon recognition of the weak signal regions directing commands to the illuminator to re-illuminate these same weak signal regions wherein re-illuminating is performed with more concentrated light through the formation of smaller regions of illuminated light with a same amount of illuminator intensity that was emitted when the large area was flooded. initially illuminating a large area corresponding to at least 33% of the field of view of a time-of-flight camera by an illuminator; receiving, at an image sensor of the time-of-flight camera, reflected light; measuring against some threshold, at circuitry included in the image sensor, received signal intensity at each pixel of the image sensor; identifying the pixels whose received optical intensity fell below the threshold; determining, weak signal regions from the pixels that fell below the threshold; upon recognition of the weak signal regions directing commands to the illuminator to re-illuminate these same weak signal regions wherein re-illuminating is performed with more concentrated light through the formation of smaller regions of illuminated light with a same amount of illuminator intensity that was emitted when the large area was flooded.
Device for temporarily mounting a door on a vehicle body , comprising: - a first support attached to the vehicle body in the vicinity of the door opening, including means which define a hinge axis , - a second support fixed to the door of the vehicle which carries articulation means complementary to those of the first support to be received by the latter and allow the door to be rotated about this hinge axis , characterized in that the second support is fixed on the inner face of the door including the edge thereof, and in that the hinge axis is located inside the body and beyond an edge of the door on the side to which is fixed the second support. - a first support attached to the vehicle body in the vicinity of the door opening, including means which define a hinge axis , - a second support fixed to the door of the vehicle which carries articulation means complementary to those of the first support to be received by the latter and allow the door to be rotated about this hinge axis , characterized in that the second support is fixed on the inner face of the door including the edge thereof, and in that the hinge axis is located inside the body and beyond an edge of the door on the side to which is fixed the second support.
A treatment liquid composition for use in ink jet pigment textile printing by attaching the composition to fabric, the composition comprising: at least one cationic compound; at least one compound selected from polyvinylpyrrolidones, polyethylene oxides, carboxymethyl celluloses, hydroxyethyl celluloses, and polyvinyl alcohols; and water, wherein the fabric contains polyester; an amount of the at least one compound selected from polyvinylpyrrolidones, polyethylene oxides, carboxymethyl celluloses, hydroxyethyl celluloses, and polyvinyl alcohols is 0.5% by mass or more and 6.0% by mass or less of a total mass of the treatment liquid composition; the composition comprises polyethylene oxide; and the composition further comprising fine particles of resin. at least one cationic compound; at least one compound selected from polyvinylpyrrolidones, polyethylene oxides, carboxymethyl celluloses, hydroxyethyl celluloses, and polyvinyl alcohols; and water, wherein the fabric contains polyester; an amount of the at least one compound selected from polyvinylpyrrolidones, polyethylene oxides, carboxymethyl celluloses, hydroxyethyl celluloses, and polyvinyl alcohols is 0.5% by mass or more and 6.0% by mass or less of a total mass of the treatment liquid composition; the composition comprises polyethylene oxide; and the composition further comprising fine particles of resin.
Device for providing sorted elements in order to supply a downstream workstation, said device comprising a descending chute that conducts the elements, a means for individual processing that receives the elements from the chute, an ascending transporter branch that extends from the processing means and that receives the elements therefrom, and an ejection means situated at the level of the ascending transporter branch, at least one viewing means positioned so as to inspect the elements at the level of the processing means , such as a camera and a control unit that triggers the viewing means as a function of a signal representing the forward movement of the processing means and that triggers the actuation of the ejection means in the event of detection of a defect by the viewing means , the operation of the viewing means being synchronized with that of the processing means.
Method for recording and processing elevator data of an existing elevator installation , via at least one measuring run using the existing elevator installation , each floor of the existing elevator installation is approached at least once, and by means of a measuring apparatus , at least those measurement data (G1, G2, G3, G4, h1, h2, h3) which represent floor heights (h1, h2, h3) are recorded, wherein a three-dimensional digital-double dataset is generated from component model datasets and stored in a memory medium , wherein the component model datasets can have different configurations and are defined by characterizing properties (T, B, H) which are predefined with default values (x, y, z), wherein, for each floor of the elevator installation recorded by the measuring run , in the recorded sequence, component model datasets configured as a floor portion component model dataset or component model datasets configured as a shaft portion component model dataset are arranged one above the other in the vertical direction, and in each of these cases, the default value (x, y, z) of the characterizing property (T, B, H) which defines the height distance (h1, h2, h3) to the next floor portion component model dataset or shaft portion component model dataset is replaced by the corresponding floor height (h1, h2, h3) determined from the measurement data (G1, G2, G3, G4, h1, h2, h3). a three-dimensional digital-double dataset is generated from component model datasets and stored in a memory medium , wherein the component model datasets can have different configurations and are defined by characterizing properties (T, B, H) which are predefined with default values (x, y, z), wherein, for each floor of the elevator installation recorded by the measuring run , in the recorded sequence, component model datasets configured as a floor portion component model dataset or component model datasets configured as a shaft portion component model dataset are arranged one above the other in the vertical direction, and in each of these cases, the default value (x, y, z) of the characterizing property (T, B, H) which defines the height distance (h1, h2, h3) to the next floor portion component model dataset or shaft portion component model dataset is replaced by the corresponding floor height (h1, h2, h3) determined from the measurement data (G1, G2, G3, G4, h1, h2, h3).
A board work machine control device comprising: a processor configured to control a board work machine comprising multiple working members for mounting components on a board, and a tracing data output device configured to output tracing data, being outputted from the processor , to an external device for the purpose of real-time debugging or defect analysis, and a main memory , wherein, the tracing data output device further comprises: a tracing register configured to temporarily store the tracing data which is outputted from the processor ; a ring buffer into which the tracing data temporarily stored in the tracing register is written before being periodically transferred to the main memory using a direct memory access (DMA) functionality; and an output control section configured to output only part of the tracing data stored in the ring buffer on a real-time basis to the external device , wherein the part of the tracing data stored in the ring buffer outputted to the external device is tracing data of a type set in advance. a processor configured to control a board work machine comprising multiple working members for mounting components on a board, and a tracing data output device configured to output tracing data, being outputted from the processor , to an external device for the purpose of real-time debugging or defect analysis, and a main memory , wherein, the tracing data output device further comprises: a tracing register configured to temporarily store the tracing data which is outputted from the processor ; a ring buffer into which the tracing data temporarily stored in the tracing register is written before being periodically transferred to the main memory using a direct memory access (DMA) functionality; and an output control section configured to output only part of the tracing data stored in the ring buffer on a real-time basis to the external device , wherein the part of the tracing data stored in the ring buffer outputted to the external device is tracing data of a type set in advance. a tracing register configured to temporarily store the tracing data which is outputted from the processor ; a ring buffer into which the tracing data temporarily stored in the tracing register is written before being periodically transferred to the main memory using a direct memory access (DMA) functionality; and an output control section configured to output only part of the tracing data stored in the ring buffer on a real-time basis to the external device , wherein the part of the tracing data stored in the ring buffer outputted to the external device is tracing data of a type set in advance.
A device for detecting a force in a surface region of tissue, the device comprising: a transparent backing material comprising a planar shape, the transparent backing material comprising a first surface and a second surface on an opposite side of the planar shape; a first elastomer on the first surface of the transparent backing material , where a light transmission property of the first elastomer changes upon application of force to the first elastomer ; a second elastomer on the first surface of the transparent backing material , where a light transmission property of the second elastomer changes upon application of force to the first elastomer ; and a stiffening layer on the second elastomer on a side opposite to the transparent backing material , wherein when positioned on the surface region of tissue, the force in the surface region causes a deformation of the first elastomer resulting in a change in the light transmission property of the first elastomer and wherein when positioned on the surface region, the stiffening layer prevents at least a portion of the force from changing the light transmission property of the second elastomer such that the second elastomer provides a reference to determine a deformation of the first elastomer . a transparent backing material comprising a planar shape, the transparent backing material comprising a first surface and a second surface on an opposite side of the planar shape; a first elastomer on the first surface of the transparent backing material , where a light transmission property of the first elastomer changes upon application of force to the first elastomer ; a second elastomer on the first surface of the transparent backing material , where a light transmission property of the second elastomer changes upon application of force to the first elastomer ; and a stiffening layer on the second elastomer on a side opposite to the transparent backing material , wherein when positioned on the surface region of tissue, the force in the surface region causes a deformation of the first elastomer resulting in a change in the light transmission property of the first elastomer and wherein when positioned on the surface region, the stiffening layer prevents at least a portion of the force from changing the light transmission property of the second elastomer such that the second elastomer provides a reference to determine a deformation of the first elastomer .
A network slice selection method, comprising: obtaining , by a radio access network, RAN, network slice information, wherein the network slice information comprises a first attribute information of at least two different network slices, and the at least two different network slices include a first network slice; sending , by the RAN, a first message to a terminal, wherein the first message comprises the network slice information; receiving , by the RAN, a first access request message that is sent by the terminal, after the terminal selects , based on the network slice information, second attribute information of the first network slice to be accessed by the terminal; and determining , by the RAN based on the second attribute information of the first network slice, a second network slice to be accessed by the terminal. obtaining , by a radio access network, RAN, network slice information, wherein the network slice information comprises a first attribute information of at least two different network slices, and the at least two different network slices include a first network slice; sending , by the RAN, a first message to a terminal, wherein the first message comprises the network slice information; receiving , by the RAN, a first access request message that is sent by the terminal, after the terminal selects , based on the network slice information, second attribute information of the first network slice to be accessed by the terminal; and determining , by the RAN based on the second attribute information of the first network slice, a second network slice to be accessed by the terminal.
Pull rod device arrangement of a brake caliper , comprising a pull rod top , a pull rod bottom , and two vertical rods , wherein the pull rod top and the pull rod bottom of the pull rod device are connected to each other, wherein the pull rod top and the pull rod bottom of the pull rod device are designed as separate parts, wherein the pull rod top and the pull rod bottom of the pull rod device being separate parts are connected to each other by the two vertical rods , characterised in that the pull rod top has a triangular shape, wherein two side portions (30a, 30'a) form mirror-inverted lateral triangle legs having their vertex in a connection , wherein each free end of the side portions (30a, 30'a) is connected to a respective support portion (30b, 30'b), wherein transition areas of each connection of the side portions (30a, 30'a) and the respective support portions (30b, 30'b) are spaced apart and are connected via a cross-connector , wherein said cross-connector has a crescent-shape, which is bent to the connection , wherein each support portion (30b, 30'b) has a fastening boring (30e, 30'e), in which top ends of the vertical rods are inserted, wherein the pull rod bottom has a crescent shape, wherein each end of the pull rod bottom is connected to a respective support portion (31a, 31'a), each support portion (31a, 31'a) having a fastening boring (31b, 31'b), in which bottom ends of the vertical rods are inserted. wherein the pull rod top and the pull rod bottom of the pull rod device are designed as separate parts, wherein the pull rod top and the pull rod bottom of the pull rod device being separate parts are connected to each other by the two vertical rods , characterised in that the pull rod top has a triangular shape, wherein two side portions (30a, 30'a) form mirror-inverted lateral triangle legs having their vertex in a connection , wherein each free end of the side portions (30a, 30'a) is connected to a respective support portion (30b, 30'b), wherein transition areas of each connection of the side portions (30a, 30'a) and the respective support portions (30b, 30'b) are spaced apart and are connected via a cross-connector , wherein said cross-connector has a crescent-shape, which is bent to the connection , wherein each support portion (30b, 30'b) has a fastening boring (30e, 30'e), in which top ends of the vertical rods are inserted, wherein the pull rod bottom has a crescent shape, wherein each end of the pull rod bottom is connected to a respective support portion (31a, 31'a), each support portion (31a, 31'a) having a fastening boring (31b, 31'b), in which bottom ends of the vertical rods are inserted.
A photovoltaic module comprising: a base plate including: a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a photovoltaic laminate that is connected to the base plate; wherein the photovoltaic module is configured to be directly connected to a roofing structure and provide roofing functions, wherein the photovoltaic laminate is connected to the support portion and the photovoltaic laminate is removable from the support portion without damaging the base plate and the overlap portion is configured to be at least partially covered by one or more adjacent photovoltaic modules; wherein one or more adjacent photovoltaic modules include one or more connection hooks that extend through the one or more connection recesses in the overlap portion so that the one or more adjacent photovoltaic modules are connected to the base plate; and wherein the base plate retains its roofing functions when the photovoltaic laminate is removed. a base plate including: a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a photovoltaic laminate that is connected to the base plate;