mhurhangee/patent-ind-claim-en huggingface dataset:
A mountable construction in the form of a deflection device for a belt for continuously conveying material, the mountable construction comprising: a first support frame arranged in a first direction and a second support frame arranged in a second direction ; the support frames are coupleable with each other; the mountable construction further comprising first and second belt deflectors (121, 122; 231, 232, 233, 234) being arranged in connection to the support frames , wherein the first belt deflector is arranged substantially vertically and the second belt deflector is arranged substantially horizontally; characterised in that the mountable construction includes a connection module for coupling the second support frame with the first support frame , the connection module serves as an interface via which the first and second support frames can be connected to each other and released from each other; the connection module comprises a first face for coupling the connection module with the first support frame and/or the connection module comprises a second face for coupling the connection module with the second support frame ; and the first face is adapted to form a horizontal angle (Y) with a connection direction of the connection module , and/or the second face is adapted to form a further horizontal angle with the connection direction of the connection module , the connection module being adapted such that the second support frame is coupleable to the first support frame at a variable or different horizontal angle (Z). a first support frame arranged in a first direction and a second support frame arranged in a second direction ; the support frames are coupleable with each other; the mountable construction further comprising first and second belt deflectors (121, 122; 231, 232, 233, 234) being arranged in connection to the support frames , wherein the first belt deflector is arranged substantially vertically and the second belt deflector is arranged substantially horizontally; characterised in that the mountable construction includes a connection module for coupling the second support frame with the first support frame , the connection module serves as an interface via which the first and second support frames can be connected to each other and released from each other; the connection module comprises a first face for coupling the connection module with the first support frame and/or the connection module comprises a second face for coupling the connection module with the second support frame ; and the first face is adapted to form a horizontal angle (Y) with a connection direction of the connection module , and/or the second face is adapted to form a further horizontal angle with the connection direction of the connection module , the connection module being adapted such that the second support frame is coupleable to the first support frame at a variable or different horizontal angle (Z).
A resin composition comprising: (A) an epoxy resin; (B) an epoxy compound shown by the following formula and/or formula ; (C) a phenolic curing agent that is solid at ordinary temperature having 2 to 6 phenolic hydroxy groups in the skeleton; and (D) a curing accelerator, wherein "A" represents a single bond or a divalent organic group selected from the following formulae. -CH 2 -, (A) an epoxy resin; (B) an epoxy compound shown by the following formula and/or formula ; (C) a phenolic curing agent that is solid at ordinary temperature having 2 to 6 phenolic hydroxy groups in the skeleton; and (D) a curing accelerator,
A gas generator comprising an electrolytic cell and the electrolytic cell containing an electrolyzed water including an electrolyte, the electrolytic cell being used for electrolyzing the electrolyzed water to generate a gas with hydrogen, wherein the gas generator is characterized by : a condensate filter device comprising a gas pathway , a filter , and an isolated component , wherein the gas pathway is used for receiving the gas with hydrogen, and the filter is configured in the gas pathway for filtering the gas with hydrogen to generate a filtered gas with hydrogen, and the isolated component is configured in the condensate filter device for limiting the movement of the filter in the gas pathway , wherein the condensate filter device has an inlet and a vent , the inlet is configured to receive the gas with hydrogen, the vent is configured to output the filtered gas with hydrogen, and the condensate filter device further has a bottom cover of the gas pathway on which the isolated component is positioned, and the filter comprises a plurality of filter films separated by the isolated component and distributed on the same plane of the bottom cover of the gas pathway ; and an atomizing device for receiving the filtered gas with hydrogen, wherein the atomizing device further generates an atomizing gas to be mixed with the filtered gas with hydrogen to generate a healthy gas. a condensate filter device comprising a gas pathway , a filter , and an isolated component , wherein the gas pathway is used for receiving the gas with hydrogen, and the filter is configured in the gas pathway for filtering the gas with hydrogen to generate a filtered gas with hydrogen, and the isolated component is configured in the condensate filter device for limiting the movement of the filter in the gas pathway , wherein the condensate filter device has an inlet and a vent , the inlet is configured to receive the gas with hydrogen, the vent is configured to output the filtered gas with hydrogen, and the condensate filter device further has a bottom cover of the gas pathway on which the isolated component is positioned, and the filter comprises a plurality of filter films separated by the isolated component and distributed on the same plane of the bottom cover of the gas pathway ; and an atomizing device for receiving the filtered gas with hydrogen, wherein the atomizing device further generates an atomizing gas to be mixed with the filtered gas with hydrogen to generate a healthy gas.
An automated specimen processing system , comprising: a slide ejector having a first portion for pushing a plurality of slides to break a bond between the plurality of slides and a slide carrier ; and a second portion for ejecting one slide from the plurality of slides from the slide carrier , wherein the plurality of slides are horizontally aligned and rest on a corresponding plurality of flat surfaces in the slide carrier to enable alignment and even spacing via gravitational forces.
Enclosure assembly for mounting at various depth positions and for receiving at least one connector terminating a data and/or power transmission line in at least two different retaining positions (E min, E max ) distanced from each other along a longitudinal direction (X) of the enclosure assembly comprising at least one housing sub-assembly and a telescoping sub-assembly with at least one spring retainer and a retaining section formed at a retainer bushing of the telescoping sub-assembly , the retaining section providing the retaining positions (E min , E max ) defined by at least two ribs at least partially extending along an outer circumference of the telescoping sub-assembly , where at least in a retained state (K) of the enclosure assembly , the telescoping sub-assembly is held within the housing sub-assembly in a manner at least being non-relocatable in the longitudinal direction (X) with respect to the housing sub-assembly , wherein the at least one spring retainer comprises at least one retaining element interacting with the retaining section at least in the fully assembled state (C), whereby movements of the spring retainer and the retainer bushing with respect to each other are inhibited at least along the longitudinal direction (X) and wherein teeth or ribs are formed at each of the retaining elements.
A method comprising: receiving a computerized tomography (CT) image comprising voxels of a body part of a subject; segmenting the image so as to identify a surface of a skin and a surface of a bone in the image; measuring respective minimum distances to the bone from a plurality of points on the surface of the skin; and rendering an image of the surface of the skin while visually coding the rendered image so as to indicate the respective minimum distances. receiving a computerized tomography (CT) image comprising voxels of a body part of a subject; segmenting the image so as to identify a surface of a skin and a surface of a bone in the image; measuring respective minimum distances to the bone from a plurality of points on the surface of the skin; and rendering an image of the surface of the skin while visually coding the rendered image so as to indicate the respective minimum distances.
A method of detecting a stent strut in a representation of a blood vessel, the method comprising: storing, in memory accessible by an intravascular diagnostic system, intravascular data collected from imaging a blood vessel and side branch data comprising locations of side branches of the blood vessel collected during the imaging of the blood vessel, wherein the intravascular data comprises a first group of scan lines; extracting side branch scan lines from the first group of scan lines and the side branch data ; identifying a second group of scan lines corresponding to the extracted side branch scan lines; determining a "peak-at-line" intensity for each scan line in the second group of scan lines; partitioning each scan line of the second group of scan lines into a plurality of samples; determining an intensity threshold based on the "peak-at-line" intensity; determining the number of samples in each scan line having an intensity greater than the intensity threshold; identifying a candidate scan line as containing a potential metal strut in a side branch when the number of samples determined to have an intensity greater than the intensity threshold is less than or equal to a threshold T; and validating the candidate scan lines to identify scan lines that include a side branch and a metal strut disposed therein. storing, in memory accessible by an intravascular diagnostic system, intravascular data collected from imaging a blood vessel and side branch data comprising locations of side branches of the blood vessel collected during the imaging of the blood vessel, wherein the intravascular data comprises a first group of scan lines; extracting side branch scan lines from the first group of scan lines and the side branch data ; identifying a second group of scan lines corresponding to the extracted side branch scan lines; determining a "peak-at-line" intensity for each scan line in the second group of scan lines; partitioning each scan line of the second group of scan lines into a plurality of samples; determining an intensity threshold based on the "peak-at-line" intensity; determining the number of samples in each scan line having an intensity greater than the intensity threshold; identifying a candidate scan line as containing a potential metal strut in a side branch when the number of samples determined to have an intensity greater than the intensity threshold is less than or equal to a threshold T; and validating the candidate scan lines to identify scan lines that include a side branch and a metal strut disposed therein.
A vane assembly comprising a plurality of vane units and a connecting part comprising a lacing bar , wherein each of the circumferentially arranged vane units comprises at its outer periphery a base , wherein longitudinal base faces of adjacent vane units circumferentially oppose each other, the bases being trapezoidal allowing the abutting of the adjacent longitudinal base faces, each base having a through-hole extending between opposing longitudinal faces of the base and wherein in the assembly the through-holes of adjacent vane units are straight and together form a circumferential polygonal cavity, wherein the lacing bar is formed such that it is insertable into and through the through-holes for coupling at least two adjacent vane units into the vane assembly , wherein, when assembled, the lacing bar is arranged through the through-holes of the plurality of vane units, wherein the cavity and the lacing bar have dissimilar arcuate shapes, and wherein a difference between a radius of curvature of the arcuate shape of the lacing bar and an average radius of curvature of the polygonal cavity results in an elastic bending deformation of the lacing bar when inserted, such that each individual vane unit is clamped onto the lacing bar by means of a force-fit, the force-fit being created by radially inwards and outwards directed bending forces (F1, F2) induced in inner and outer areas of contact between the lacing bar and the straight through-holes , the radial forces being predefined by selecting an appropriate difference in radius of curvature, material, cross-sectional size and/or form factor between the force-fit components of the vane assembly . wherein, when assembled, the lacing bar is arranged through the through-holes of the plurality of vane units, wherein the cavity and the lacing bar have dissimilar arcuate shapes, and wherein a difference between a radius of curvature of the arcuate shape of the lacing bar and an average radius of curvature of the polygonal cavity results in an elastic bending deformation of the lacing bar when inserted, such that each individual vane unit is clamped onto the lacing bar by means of a force-fit, the force-fit being created by radially inwards and outwards directed bending forces (F1, F2) induced in inner and outer areas of contact between the lacing bar and the straight through-holes , the radial forces being predefined by selecting an appropriate difference in radius of curvature, material, cross-sectional size and/or form factor between the force-fit components of the vane assembly .
A chair comprising: a leg arrangeable on a floor surface; a leg support pole provided to stand from the leg ; a support base provided on an upper end of the leg support pole ; a movement mechanism located below a seat , the movement mechanism including a plurality of movement parts configured to allow the seat to move in a certain area along a predetermined trajectory in a front-rear and left-right directions between the support base and the seat , the movement mechanism being a support mechanism configured to support the seat movably in the front-rear direction and left-right directions; and a plurality of cover members arranged corresponding to the plurality of movement parts , wherein the plurality of cover members is configured to move relatively in accordance with movement of the plurality of movement parts and cover the support mechanism , and wherein the movement mechanism includes a left-right support part to support the seat movably in the left-right direction, and a front-rear support part to support the seat movably in the front-rear direction, the plurality of cover members includes a left-right cover member attached to the left-right support part , and a front-rear cover member attached to the front-rear support part , characterized in that the left-right cover member and the front-rear cover member move relatively while coming close to each other with a gap between the left-right cover member and the front-rear cover member . a leg arrangeable on a floor surface; a leg support pole provided to stand from the leg ; a support base provided on an upper end of the leg support pole ; a movement mechanism located below a seat , the movement mechanism including a plurality of movement parts configured to allow the seat to move in a certain area along a predetermined trajectory in a front-rear and left-right directions between the support base and the seat , the movement mechanism being a support mechanism configured to support the seat movably in the front-rear direction and left-right directions; and a plurality of cover members arranged corresponding to the plurality of movement parts , wherein the plurality of cover members is configured to move relatively in accordance with movement of the plurality of movement parts and cover the support mechanism , and wherein the movement mechanism includes a left-right support part to support the seat movably in the left-right direction, and a front-rear support part to support the seat movably in the front-rear direction, the plurality of cover members includes a left-right cover member attached to the left-right support part , and a front-rear cover member attached to the front-rear support part , characterized in that the left-right cover member and the front-rear cover member move relatively while coming close to each other with a gap between the left-right cover member and the front-rear cover member .
A self-leveling single axle dump truck comprising: a frame ; a dump body pivotably mounted on the frame; a propulsion and self-leveling system comprising: a single axle supporting the frame at least during motion of the self-leveling single axle dump truck, the single axle comprising at least a first and a second wheel ; and at least a first electric traction motor for driving the first wheel and a second electric traction motor for driving the second wheel a frame ; a dump body pivotably mounted on the frame; a propulsion and self-leveling system comprising: a single axle supporting the frame at least during motion of the self-leveling single axle dump truck, the single axle comprising at least a first and a second wheel ; and at least a first electric traction motor for driving the first wheel and a second electric traction motor for driving the second wheel a single axle supporting the frame at least during motion of the self-leveling single axle dump truck, the single axle comprising at least a first and a second wheel ; and at least a first electric traction motor for driving the first wheel and a second electric traction motor for driving the second wheel
A check valve , comprising: an upper housing defining an inlet of the check valve , sidewalls of the upper housing being transparent; a lower housing comprising a support portion and defining an outlet of the check valve ; a chamber interposed between and defined by the upper and lower housings for fluidly connecting the inlet and the outlet ; and a flexible diaphragm mounted in the chamber to selectively permit fluid flow in a first direction, and prevent fluid backflow in a second direction opposite to the first direction, characterized by the flexible diaphragm comprising a color changing material, wherein when the flexible diaphragm is seated on the support portion and bent due to force of the fluid flowing in the first direction, the flexible diaphragm exhibits a color change. an upper housing defining an inlet of the check valve , sidewalls of the upper housing being transparent; a lower housing comprising a support portion and defining an outlet of the check valve ; a chamber interposed between and defined by the upper and lower housings for fluidly connecting the inlet and the outlet ; and a flexible diaphragm mounted in the chamber to selectively permit fluid flow in a first direction, and prevent fluid backflow in a second direction opposite to the first direction, characterized by the flexible diaphragm comprising a color changing material, wherein when the flexible diaphragm is seated on the support portion and bent due to force of the fluid flowing in the first direction, the flexible diaphragm exhibits a color change.
An apparatus comprising means for: receiving, at a first node of a network, time window information from a second node of the network, the time window information defining a time window for transmitting data from the first node to the second node ; and enabling, at least partly based on the time window information, a first clock circuit of the first node to provide a first clock signal for data transmission from the first node to the second node , wherein the means are configured to: recover a reference clock signal from data transmitted from the second node to the first node ; generate the first clock signal based on the recovered reference clock signal; and generate, based on the reference clock signal, a second clock signal using a second clock circuit, the second clock signal being used for data transmission from the second node to the first node , the second clock circuit being different from the first clock circuit. receiving, at a first node of a network, time window information from a second node of the network, the time window information defining a time window for transmitting data from the first node to the second node ; and enabling, at least partly based on the time window information, a first clock circuit of the first node to provide a first clock signal for data transmission from the first node to the second node , wherein the means are configured to: recover a reference clock signal from data transmitted from the second node to the first node ; generate the first clock signal based on the recovered reference clock signal; and generate, based on the reference clock signal, a second clock signal using a second clock circuit, the second clock signal being used for data transmission from the second node to the first node , the second clock circuit being different from the first clock circuit. recover a reference clock signal from data transmitted from the second node to the first node ; generate the first clock signal based on the recovered reference clock signal; and generate, based on the reference clock signal, a second clock signal using a second clock circuit, the second clock signal being used for data transmission from the second node to the first node , the second clock circuit being different from the first clock circuit.
A device for inserting synthetic fibres into the ground , comprising a vehicle with a frame , which can be driven in a direction of movement across the ground, a plurality of rotatable rolls on which synthetic fibres are wound, conveying means for conveying the fibres relative to the frame from the rolls to respective insertion positions above the ground, wherein the fibres extend parallel to the direction of movement and to each other at the associated insertion positions, pin-shaped insertion elements arranged in at least one row that extends horizontally, transversely to the direction of movement above fibres at the insertion positions, first moving means for moving the insertion elements up and down between an upper position and a lower position relative to the frame, wherein lower ends of the insertion elements are located above the fibres at the insertion positions in the upper position and wherein the lower ends of the insertion elements are inserted into the ground in the lower position, wherein the fibres are carried along by the insertion elements and pressed into the ground during the downward movement of the insertion elements from the upper position to the lower position, the conveying means comprising a number of aligned side-by-side pairs of clamping elements for the clamping of a fibre by the clamping elements of aligned pairs of clamping elements and for the clamping of side-by-side fibres by the clamping elements of side-by-side pairs of clamping elements, wherein the clamping elements are provided on connecting elements that extend along the length of the at least one row, the device further comprising cutting means for cutting the fibres at positions between two adjacent clamping elements of two adjacent, aligned pairs of clamping elements, the conveying means further comprising guide means for moving the connecting elements provided with the clamping elements in an endless path relative to the frame, wherein the pin-shaped insertion elements extend within the endless path, at least in the upper position, characterised in that the connecting elements are pivotally interconnected.