mhurhangee/patent-ind-claim-en huggingface dataset:
A shelf bracket to conduct electricity to a shelf of a refrigerator , the shelf bracket comprising: an end configured to engage a support rail , wherein the end comprises a first area to conduct electricity from the support rail to the shelf bracket ; an arm extending from the end , wherein the arm is configured to support the shelf , and wherein the arm comprises a second area to conduct electricity from the shelf bracket to the shelf ; a non-electrically conductive coating applied to substantially all of the shelf bracket except in the first and second areas; a first electrically conductive material applied to at least a portion of the first area; and a second electrically conductive material applied to at least a portion of the second area, wherein the shelf bracket is formed from a third electrically conductive material, the third electrically conductive material to conduct electricity between the first and second areas. an end configured to engage a support rail , wherein the end comprises a first area to conduct electricity from the support rail to the shelf bracket ; an arm extending from the end , wherein the arm is configured to support the shelf , and wherein the arm comprises a second area to conduct electricity from the shelf bracket to the shelf ; a non-electrically conductive coating applied to substantially all of the shelf bracket except in the first and second areas; a first electrically conductive material applied to at least a portion of the first area; and a second electrically conductive material applied to at least a portion of the second area, wherein the shelf bracket is formed from a third electrically conductive material, the third electrically conductive material to conduct electricity between the first and second areas.
A method for processing morphology information and elasticity information of a tissue, comprising: obtaining a gray-scale morphology image of the tissue from morphology characteristic information detected and obtained by an ultrasonic transducer configured to generate an ultrasonic wave in the tissue to detect and obtain said morphology characteristic information according to the returned ultrasonic wave, obtaining a gray-scale or colorized elasticity image of the tissue from elasticity characteristic information detected and obtained by an ultrasonic transducer configured to generate an elasticity shear wave in the tissue to detect and obtain said elasticity characteristic information generated by the tissue under action of the elasticity shear wave, wherein the morphology image includes morphology characteristic information of the tissue, and the elasticity image includes elasticity characteristic information of the tissue; merging and displaying the elasticity image in the morphology image; and determining a puncture position according to guidance of the merged image. obtaining a gray-scale morphology image of the tissue from morphology characteristic information detected and obtained by an ultrasonic transducer configured to generate an ultrasonic wave in the tissue to detect and obtain said morphology characteristic information according to the returned ultrasonic wave, obtaining a gray-scale or colorized elasticity image of the tissue from elasticity characteristic information detected and obtained by an ultrasonic transducer configured to generate an elasticity shear wave in the tissue to detect and obtain said elasticity characteristic information generated by the tissue under action of the elasticity shear wave, wherein the morphology image includes morphology characteristic information of the tissue, and the elasticity image includes elasticity characteristic information of the tissue; merging and displaying the elasticity image in the morphology image; and determining a puncture position according to guidance of the merged image.
A kingpin assembly for a semitrailer of a road train, comprising a kingpin defining an axis of rotation (A), a pivot bearing arranged around the axis of rotation (A), and a holder connected to the pivot bearing and pivotable about the axis of rotation (A) for indirectly or directly holding in particular an electrical and/or electromagnetic and/or pneumatic and/or hydraulic connecting means, wherein the king pin comprises a king pin flange for mounting the king pin indirectly or directly to the semitrailer, wherein the pivot bearing comprises a bearing ring fixed relative to the king pin or a bearing ring segment fixed relative to the king pin and a bearing ring rotatable relative to the king pin or a bearing ring segment rotatable relative to the king pin , wherein the holder is fixed to the rotatable bearing ring or rotatable bearing ring segment, and wherein a support element is connected to the holder , which support element is axially spaced from the rotatable bearing ring or the rotatable bearing ring segment, abuts directly against the king pin and is adjustable in length in the radial direction (R) with respect to the axis of rotation (A). wherein the king pin comprises a king pin flange for mounting the king pin indirectly or directly to the semitrailer, wherein the pivot bearing comprises a bearing ring fixed relative to the king pin or a bearing ring segment fixed relative to the king pin and a bearing ring rotatable relative to the king pin or a bearing ring segment rotatable relative to the king pin , wherein the holder is fixed to the rotatable bearing ring or rotatable bearing ring segment, and wherein a support element is connected to the holder , which support element is axially spaced from the rotatable bearing ring or the rotatable bearing ring segment, abuts directly against the king pin and is adjustable in length in the radial direction (R) with respect to the axis of rotation (A).
An air sensor arrangement for a work vehicle, comprising: - a channel including a measuring point ; and - a sensor ; characterized in that the arrangement further comprises: - a valve fluidly coupled to both the sensor and the measuring point , the valve being actuatable between a first position where the measuring point and sensor are fluidly coupled together and a second position where the measuring point and a flush line are fluidly coupled together and fluidly uncoupled from the sensor . - a channel including a measuring point ; and - a sensor ; - a valve fluidly coupled to both the sensor and the measuring point , the valve being actuatable between a first position where the measuring point and sensor are fluidly coupled together and a second position where the measuring point and a flush line are fluidly coupled together and fluidly uncoupled from the sensor .
A filter device, comprising an inlet , an outlet , and a flow path between the inlet and the outlet , wherein the flow path, viewed in the flow direction, has a first section (12; 30), a second section , and a third section , wherein - the first section (12; 30) exclusively contains glass beads (16; 36, 38), and - the third section exclusively contains glass beads , characterized in that the second section contains a mixture comprising glass beads and an adsorption granulate , and characterized in that (i) the first section has at least two subsections filled with glass beads , wherein the nominal diameter of the glass beads in a respective subsection is equal and wherein the nominal diameter of the glass beads of the individual subsections increases in the direction toward the inlet , and/or (ii) wherein the third section has at least two subsections filled with glass beads, wherein the nominal diameter of the glass beads in a respective subsection is equal and wherein the nominal diameter of the glass beads of the individual subsections increases in the direction toward the outlet . - the first section (12; 30) exclusively contains glass beads (16; 36, 38), and - the third section exclusively contains glass beads , characterized in that the second section contains a mixture comprising glass beads and an adsorption granulate , and characterized in that (i) the first section has at least two subsections filled with glass beads , wherein the nominal diameter of the glass beads in a respective subsection is equal and wherein the nominal diameter of the glass beads of the individual subsections increases in the direction toward the inlet , and/or (ii) wherein the third section has at least two subsections filled with glass beads, wherein the nominal diameter of the glass beads in a respective subsection is equal and wherein the nominal diameter of the glass beads of the individual subsections increases in the direction toward the outlet .
Front end for an inductive proximity sensor, having a metal front face , having a coil for detecting an approaching metal object and having a circuit board arranged at the metal front face , wherein the coil is formed as a circuit board coil , wherein a metallic influencing element , which is similar in construction to the metal front face , is integrally arranged in the circuit board , by means of which disruptions of the symmetry with respect to the position and material properties, and thus to the inductive properties of the front end , caused by the metal front face are corrected and which provides at least one recess being filled with an electric insulator to receive at least one electrical "vertical interconnect access" connection element , wherein a through contact of the circuit board , through the metallic influencing element , to an electric connection plane , which serves to electrically connect the circuit board to a control electronics of the proximity sensor, takes place by means of the at least one electric "vertical interconnect access" connection element .
A shoulder strap positioner for releasably connecting a first and a second strap (B1, B2) of a child restraining seat harness (B), the shoulder strap positioner comprising a male member configured to be connected to the first strap (B1) of the child restraining seat harness (B) and a female member configured to be connected to the second strap (B2) of the child restraining seat harness (B), wherein said male member is removably connected to said female member , wherein the female member comprises a receptacle provided with an opening for insertion of said male member , the opening being provided over a part of a circumference of said receptacle of the female member , characterized in that at least one rib is provided over a part of the opening , and where the male member comprises a tongue provided with a groove , the male and female members being locked to each other through a movement of the male member towards the at least one rib , the at least one rib being brought into contact and accommodated in the groove through this movement, and released from each other through a movement of the male member away from the at least one rib . at least one rib is provided over a part of the opening , and where the male member comprises a tongue provided with a groove , the male and female members being locked to each other through a movement of the male member towards the at least one rib , the at least one rib being brought into contact and accommodated in the groove through this movement, and released from each other through a movement of the male member away from the at least one rib .
Method for determining a product quality (Q) that results from a manufacturing method based on a generated predictive model; comprising: a simulative determination of one of multiple manufacturing state variables (X) as a function of a scattering manufacturing state variable of the manufacturing state variables (X); a sensory detection of one of the manufacturing state variables (X); and an associative determination of the product quality (Q) as a function of the manufacturing state variables (X) obtained through simulative determination and through sensory detection, wherein these manufacturing state variables are used as input variables for the associative determination , wherein the associative determination comprises performing a machine learning method, and wherein through associative determination the total of all determined or recorded manufacturing state variables (X) are connected or linked to a product quality Q of the manufactured product on the basis of the predictive model , provision of the predictive model , which is able to make a statement regarding a product quality on the basis of manufacturing state variables. a simulative determination of one of multiple manufacturing state variables (X) as a function of a scattering manufacturing state variable of the manufacturing state variables (X); a sensory detection of one of the manufacturing state variables (X); and an associative determination of the product quality (Q) as a function of the manufacturing state variables (X) obtained through simulative determination and through sensory detection, wherein these manufacturing state variables are used as input variables for the associative determination , wherein the associative determination comprises performing a machine learning method, and wherein through associative determination the total of all determined or recorded manufacturing state variables (X) are connected or linked to a product quality Q of the manufactured product on the basis of the predictive model , provision of the predictive model , which is able to make a statement regarding a product quality on the basis of manufacturing state variables.
A container comprising a refrigerant composition, wherein the composition comprises (i) at least one fluoroolefin comprising at least one member of HFO-1234yf and HFO-1234ze, (ii) 30 ppm to 3,000 ppm by weight, based on the total weight of the composition, of at least one inhibitor selected from the group consisting of limonene, α-terpinene and α-tocopherol, and (iii) a member selected from the group consisting of air, oxygen, cumene hydroperoxide, and fluoroolefin polyperoxides, peroxides, hydroperoxides, persulfates, percarbonates, perborates and hydropersulfates, and wherein the composition contains less than 0.03 wt.% of oligomeric, homopolymers or other polymeric products.
A tabletop product demonstration fixture for a portable electronic device , the product demonstration fixture comprising: a base configured to sit on a tabletop, the base comprising an upper layer and a bottom layer , the upper layer defining an uppermost surface of the product demonstration fixture and comprising a display window extending through the upper layer ; a tablet computing device having a touch screen accessible through and disposed below the display window; an elevating attachment rigidly coupled to the base and extending above the upper layer of the base , the elevating attachment configured to secure the portable electronic device to the base above the upper layer and next to the tablet computing device such that the portable electronic device and the tablet computing device are disposed in a side-by-side relationship; wherein the upper layer is angled relative to the bottom layer , and wherein the maximum depth dimension of the base is larger than the maximum height dimension of the base . a base configured to sit on a tabletop, the base comprising an upper layer and a bottom layer , the upper layer defining an uppermost surface of the product demonstration fixture and comprising a display window extending through the upper layer ; a tablet computing device having a touch screen accessible through and disposed below the display window; an elevating attachment rigidly coupled to the base and extending above the upper layer of the base , the elevating attachment configured to secure the portable electronic device to the base above the upper layer and next to the tablet computing device such that the portable electronic device and the tablet computing device are disposed in a side-by-side relationship; wherein the upper layer is angled relative to the bottom layer , and wherein the maximum depth dimension of the base is larger than the maximum height dimension of the base .
A method for preventing sight deterioration caused by prolonged use of electronic visual displays in low-light conditions, the method comprising: capturing , using a camera included in an electronic device , of an image containing a face of a user or at least a part of it; detecting , in the image, an area containing at least a part of said face ; computing a mean illuminance of the sampled area of the face according to the following equation: E = k ⋅ Y ⋅ N 2 t ⋅ S where E is the mean illuminance of the sampled area of the face , Y is the mean gray level of the pixels in the sampled area of the image, N is the F-number of the objective of the camera , t is the exposure time, S is the ISO sensitivity value of the digital image sensor of the camera , and k is a proportionality value which depends on the reflectance of the user's face and a calibration constant of the camera and is previously obtained in a calibration process ; determining if the computed illuminance fulfills at least one criterion; and generating a control signal according to the at least one criterion fulfilled; notifying the user of an inadequate illuminance based on said control signal. capturing , using a camera included in an electronic device , of an image containing a face of a user or at least a part of it; detecting , in the image, an area containing at least a part of said face ; computing a mean illuminance of the sampled area of the face according to the following equation: E = k ⋅ Y ⋅ N 2 t ⋅ S where E is the mean illuminance of the sampled area of the face , Y is the mean gray level of the pixels in the sampled area of the image, N is the F-number of the objective of the camera , t is the exposure time, S is the ISO sensitivity value of the digital image sensor of the camera , and k is a proportionality value which depends on the reflectance of the user's face and a calibration constant of the camera and is previously obtained in a calibration process ; determining if the computed illuminance fulfills at least one criterion; and generating a control signal according to the at least one criterion fulfilled; notifying the user of an inadequate illuminance based on said control signal.
An optical power supply comprising: • a plurality of lasers each configured to provide an output at a respective optical wavelength and optical power; • a plurality of optical splitter groups , each comprising an input associated with a respective one of the plurality of lasers and configured to split the input into a plurality of outputs each having an output power approximated by: Power n = 1 x n Power input , where: x is an integer greater than 1; n is a number of the outputs of the optical splitter group and n = 1.. m ; m is a total number of outputs of the optical splitter group; Power n is the output power of the n th output; and Power input is the optical power of the output of the laser received at the input of the optical splitter group; • a plurality of optical modulator groups each comprising a plurality of modulator inputs and associated modulator outputs, each of the plurality of modulator inputs of a respective optical modulator group connected to a respective output from different optical splitting groups such that, for each modulator group, a data bit data i is configured to modulate an optical input having the ( w - i ) th highest optical power of the optical modulator group, where data i is the i th bit in a data signal and i = 0.. w - 1, where data w -1 is the most significant bit; and w is the number of bits in the data signal. • a plurality of lasers each configured to provide an output at a respective optical wavelength and optical power; • a plurality of optical splitter groups , each comprising an input associated with a respective one of the plurality of lasers and configured to split the input into a plurality of outputs each having an output power approximated by: Power n = 1 x n Power input , where: x is an integer greater than 1; n is a number of the outputs of the optical splitter group and n = 1.. m ; m is a total number of outputs of the optical splitter group; Power n is the output power of the n th output; and Power input is the optical power of the output of the laser received at the input of the optical splitter group; x is an integer greater than 1; n is a number of the outputs of the optical splitter group and n = 1.. m ; m is a total number of outputs of the optical splitter group; Power n is the output power of the n th output; and Power input is the optical power of the output of the laser received at the input of the optical splitter group; • a plurality of optical modulator groups each comprising a plurality of modulator inputs and associated modulator outputs, each of the plurality of modulator inputs of a respective optical modulator group connected to a respective output from different optical splitting groups such that, for each modulator group, a data bit data i is configured to modulate an optical input having the ( w - i ) th highest optical power of the optical modulator group, where data i is the i th bit in a data signal and i = 0.. w - 1, where data w -1 is the most significant bit; and w is the number of bits in the data signal.
Bragg mirror comprising a first part of a strip with the basis of a first material having a first refraction index n1, said strip extending mainly in a first direction (x) and being intended to guide a propagation of a light radiation of wavelength λ in said first direction (x), the Bragg mirror further comprising corrugations at at least one face of said first part of a strip , said corrugations extending mainly in a second direction (y) normal to the first direction (x) and having a height h3 in a third direction (z) normal to the first and second directions (x, y), the Bragg mirror being characterised in that the corrugations are separated from said at least one face of the first part of a strip by a separation layer with the basis of a second material having a thickness e2 taken in the third direction (z), and having a second refraction index n2, said corrugations being encapsulated in an encapsulation layer with the basis of the second material, and in that the corrugations are with the basis of a third material having a third refraction index n3, such that n2 < n3 and n2 < n1.
Electric energy storage (DS). Including i) at least one electrochemical cell (CE) of storage of prismatic electrical energy and comprising an active part (PA) lithium-ion and housed in a protective envelope (EP) including the first walls (P1) made in a material Having a first thermal and solidized conductivity to a second wall (P2), and ii) a heat exchanger (EC) against which the said second wall (P2) is placed and responsible for evacuating calories produced by said electrochemical cell (CE) and transferred in said Protective envelope (EP), characterized in that one at least first walls (P1) includes inserts (ID) extending to said second wall (P2), with a second thermal conductivity greater than said the first thermal conductivity, and responsible for draining the said calories transferred to their first wall (P1) to the said second wall (P2).