mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel cell stack assembly comprising: a plurality of fuel cells each having a fluid coolant conduit; and a coolant feed inlet manifold having a coolant inlet ; the coolant feed inlet manifold coupled to each fluid coolant conduit for distribution of coolant to each fuel cell ; and the coolant feed inlet manifold further comprising first and second discharge conduits ; wherein the first discharge conduit is located at one end of the coolant feed inlet manifold, and the second discharge conduit is located at an opposite end of the coolant feed inlet manifold , with the coolant inlet in between; and wherein the discharge conduits are configured to discharge excess coolant from the coolant feed inlet manifold . a plurality of fuel cells each having a fluid coolant conduit; and a coolant feed inlet manifold having a coolant inlet ; the coolant feed inlet manifold coupled to each fluid coolant conduit for distribution of coolant to each fuel cell ; and the coolant feed inlet manifold further comprising first and second discharge conduits ; wherein the first discharge conduit is located at one end of the coolant feed inlet manifold, and the second discharge conduit is located at an opposite end of the coolant feed inlet manifold , with the coolant inlet in between; and wherein the discharge conduits are configured to discharge excess coolant from the coolant feed inlet manifold . the coolant feed inlet manifold coupled to each fluid coolant conduit for distribution of coolant to each fuel cell ; and the coolant feed inlet manifold further comprising first and second discharge conduits ; wherein the first discharge conduit is located at one end of the coolant feed inlet manifold, and the second discharge conduit is located at an opposite end of the coolant feed inlet manifold , with the coolant inlet in between; and wherein the discharge conduits are configured to discharge excess coolant from the coolant feed inlet manifold .
Use, in a water-based paint, of a composition comprising an undoped tin oxide, a doped tin oxide and water, as an antistatic additive to impart a surface resistivity of 10 5 to 10 9 Ω/square to a coating obtained by applying and drying one or more layers of this paint onto a substrate.
A liquid level sensor comprising: a substrate for immersion of a portion thereof in the liquid and having at least one reflective side surface (110; 510; 820); at least one transducer (102; 202; 302; 502; 702; 802) on one end of the substrate configured to transmit an acoustic wave (116; 202; 408; 504; 712; 814) operating in a first mode along the surface of the substrate in a first direction and receive an acoustic wave travelling opposite to the first direction; and a plurality of reflective echelons (108; 208; 308; 508; 708; 808) positioned on the substrate such that each echelon is at an angle relative to a reflective side surface of the substrate, wherein the reflective echelons are configured to: i) convert a wave of a first mode to a wave of a second mode; ii) convert a wave of a second mode to a wave of a first mode; iii) direct the transmitted wave toward the reflective surface; and iv) direct the wave reflected from the reflective surface toward the at least one transducer, wherein the wave of the first mode is a zeroth order shear wave, and the wave of the second mode is an antisymmetric first order Lamb flexural wave, wherein the liquid level is determined via a transition in the amplitude of the wave received by the at least one transducer. a substrate for immersion of a portion thereof in the liquid and having at least one reflective side surface (110; 510; 820); at least one transducer (102; 202; 302; 502; 702; 802) on one end of the substrate configured to transmit an acoustic wave (116; 202; 408; 504; 712; 814) operating in a first mode along the surface of the substrate in a first direction and receive an acoustic wave travelling opposite to the first direction; and a plurality of reflective echelons (108; 208; 308; 508; 708; 808) positioned on the substrate such that each echelon is at an angle relative to a reflective side surface of the substrate, wherein the reflective echelons are configured to: i) convert a wave of a first mode to a wave of a second mode; ii) convert a wave of a second mode to a wave of a first mode; iii) direct the transmitted wave toward the reflective surface; and iv) direct the wave reflected from the reflective surface toward the at least one transducer, wherein the wave of the first mode is a zeroth order shear wave, and the wave of the second mode is an antisymmetric first order Lamb flexural wave, wherein the liquid level is determined via a transition in the amplitude of the wave received by the at least one transducer.
A method for the fabrication of a food supplement comprising providing a blood fraction of a subject, preferably a mammal, and drying the blood fraction, characterized in that , the dried blood fraction is subjected to a high-intensity heat treatment after drying, in which the fraction is heated to a temperature between 80.0 and 110.0°C, at a pressure between 200 and 500 kPa, for 0.1 to 10.0 seconds.
A method of installing a rotor on a nacelle of a wind turbine, the method comprising: providing a rotor hub at a downtower location, the rotor hub having first, second and third flanges at positions spaced 120 degrees apart and extending around the axis of rotation of the rotor hub ; providing a first counterweight mounted to the first flange at the downtower location; providing a second counterweight mounted to the second flange at the downtower location; providing a lifting apparatus connecting member mounted to the third flange ; connecting a portion of a lifting apparatus to the lifting apparatus connecting member at the downtower location; lifting the rotor hub and the first and second mounted counterweights , to an uptower location adjacent a hub connection side of the nacelle wherein lifting the rotor hub further comprises initially standing the rotor hub on respective first and second base portions , of the first and second counterweights , at the downtower location; and mounting the rotor hub to the hub connection side of the nacelle . providing a rotor hub at a downtower location, the rotor hub having first, second and third flanges at positions spaced 120 degrees apart and extending around the axis of rotation of the rotor hub ; providing a first counterweight mounted to the first flange at the downtower location; providing a second counterweight mounted to the second flange at the downtower location; providing a lifting apparatus connecting member mounted to the third flange ; connecting a portion of a lifting apparatus to the lifting apparatus connecting member at the downtower location; lifting the rotor hub and the first and second mounted counterweights , to an uptower location adjacent a hub connection side of the nacelle wherein lifting the rotor hub further comprises initially standing the rotor hub on respective first and second base portions , of the first and second counterweights , at the downtower location; and mounting the rotor hub to the hub connection side of the nacelle .
Method for manufacturing at least one part in silicon wherein a) a substrate is provided comprising the superposition, in a transverse direction (Z), of at least a first layer of silicon of thickness e1, an intermediate layer of silicon dioxide, and a second layer of silicon of thickness e2, the intermediate layer thus being interposed between the first and second layers ; then, in this order or another: b) the first layer is etched to form the at least one part , c) at least one detachment groove is etched in the second layer to delimit within said second layer at least one portion to be detached covering or intended to cover said at least one part , at least one so-called blind portion of the detachment groove being etched in such a way that a part of the second layer , forming a connection, is retained in line with said portion , and d) the intermediate layer is partially removed by eliminating the silicon dioxide in line with the said at least one portion to be detached or the intended location of the said portion to be detached ; and finally e) the at least one portion to be detached is mechanically separated from the rest of the substrate by breaking the connection . a) a substrate is provided comprising the superposition, in a transverse direction (Z), of at least a first layer of silicon of thickness e1, an intermediate layer of silicon dioxide, and a second layer of silicon of thickness e2, the intermediate layer thus being interposed between the first and second layers ; b) the first layer is etched to form the at least one part , c) at least one detachment groove is etched in the second layer to delimit within said second layer at least one portion to be detached covering or intended to cover said at least one part , at least one so-called blind portion of the detachment groove being etched in such a way that a part of the second layer , forming a connection, is retained in line with said portion , and d) the intermediate layer is partially removed by eliminating the silicon dioxide in line with the said at least one portion to be detached or the intended location of the said portion to be detached ; and finally e) the at least one portion to be detached is mechanically separated from the rest of the substrate by breaking the connection .
A transport apparatus , comprising: a load port with an atmosphere replacing function placing a hermetically-sealed container for housing a semiconductor wafer (W) and replacing an inside of the container with an inert gas atmosphere; a transport robot with an atmosphere replacing function, the transport robot having a finger for holding the semiconductor wafer (W) and replacing an atmosphere on a surface to be processed of the semiconductor wafer; and an aligner with an atmosphere replacing function holding the semiconductor wafer (W) and replacing the atmosphere on the surface to be processed of the semiconductor wafer, wherein the finger includes a holding part for holding the semiconductor wafer (W) and a purge part for ejecting an inert gas toward the surface to be processed of the semiconductor wafer (W) held by the holding part , and the transport robot transports the semiconductor wafer (W) to another clean inert gas atmosphere while replacing the atmosphere on the surface to be processed of the semiconductor wafer. a load port with an atmosphere replacing function placing a hermetically-sealed container for housing a semiconductor wafer (W) and replacing an inside of the container with an inert gas atmosphere; a transport robot with an atmosphere replacing function, the transport robot having a finger for holding the semiconductor wafer (W) and replacing an atmosphere on a surface to be processed of the semiconductor wafer; and an aligner with an atmosphere replacing function holding the semiconductor wafer (W) and replacing the atmosphere on the surface to be processed of the semiconductor wafer, wherein the finger includes a holding part for holding the semiconductor wafer (W) and a purge part for ejecting an inert gas toward the surface to be processed of the semiconductor wafer (W) held by the holding part , and the transport robot transports the semiconductor wafer (W) to another clean inert gas atmosphere while replacing the atmosphere on the surface to be processed of the semiconductor wafer.
A device for attached flow of blood , the device comprising: a housing defining a centerline (CL) and having a first end , a second end , and a flow channel having an inlet and an outlet , a portion of the flow channel offset from the centerline (CL) of the housing , the flow channel having a flow directing attachment portion adjacent the outlet ; and a container removably connectable to the housing , the container defining a collection cavity and having an interior wall , wherein, with the container connected to the housing , the outlet of the flow channel is in fluid communication with the collection cavity of the container and the outlet of the flow channel is adjacent the interior wall of the container , characterized in that the housing having a hollow needle between the first end of the housing and the flow channel . a housing defining a centerline (CL) and having a first end , a second end , and a flow channel having an inlet and an outlet , a portion of the flow channel offset from the centerline (CL) of the housing , the flow channel having a flow directing attachment portion adjacent the outlet ; and a container removably connectable to the housing , the container defining a collection cavity and having an interior wall , wherein, with the container connected to the housing , the outlet of the flow channel is in fluid communication with the collection cavity of the container and the outlet of the flow channel is adjacent the interior wall of the container , characterized in that the housing having a hollow needle between the first end of the housing and the flow channel .
An elevator assembly, comprising: a first elevator cab ; a second elevator cab ; at least one linear actuator coupled with the first elevator cab and the second elevator cab ; characterized by further comprising an H frame supporting the first elevator cab and the second elevator cab , the H frame having a plurality of vertically oriented beams and at least one horizontally oriented beam extending between the vertically oriented beams , the at least one horizontally oriented beam being spaced from ends of the vertically oriented beams , the H frame having no horizontally oriented beam at either end of the vertically oriented beams ; and the at least one linear actuator being configured to selectively cause movement of the elevator cabs relative to the H frame . a first elevator cab ; a second elevator cab ; at least one linear actuator coupled with the first elevator cab and the second elevator cab ; characterized by further comprising an H frame supporting the first elevator cab and the second elevator cab , the H frame having a plurality of vertically oriented beams and at least one horizontally oriented beam extending between the vertically oriented beams , the at least one horizontally oriented beam being spaced from ends of the vertically oriented beams , the H frame having no horizontally oriented beam at either end of the vertically oriented beams ; and the at least one linear actuator being configured to selectively cause movement of the elevator cabs relative to the H frame .
Roller bearing comprising two members and rolling bodies arranged in a rolling space formed between said members in order to allow for the relative rotation thereof about an axis, at least one side of the rolling space having an annular opening which is provided with a sealing device comprising an armature integral with a first member and a wall integral with the second member , said armature being provided with: - a dynamic sealing element which has at least one lip (11a-11c) arranged in friction contact on an inner surface of the wall ; - an outer sector arranged facing an outer portion of the wall by forming at their interface a reduced sealing clearance ; said bearing being characterised in that the outer sector has a convex surface which is arranged at least partially in a concave groove formed in the outer portion of the wall , the reduced sealing clearance being formed at least partially at the interface between said convex surface and said groove, and the convex surface has a geometry complementary with the geometry of the concave groove , said surface being offset with respect to said groove by a distance that is sufficient to form the reduced sealing clearance at their interface. - a dynamic sealing element which has at least one lip (11a-11c) arranged in friction contact on an inner surface of the wall ; - an outer sector arranged facing an outer portion of the wall by forming at their interface a reduced sealing clearance ;
A method of determining a geological model, comprising the acts of: identifying an array of parameter sets, wherein each parameter set is of a unique size and contains values of geological parameters estimated from historical production data associated with a target geological region; characterized by the following steps: determining a fitting error between a first set of the historical production data and modeled production data , wherein the modeled production data is obtained through execution of a simulation model based on each parameter set of the array; determining a validation error between a second set of the historical production data and extrapolated production data for each parameter set of the array, wherein the extrapolated production data is obtained based on the modeled production data for the respective parameter set of the array; determining a combined error for each parameter set of the array based on the fitting error and the validation error ; and identifying an optimal parameter set size for modeling the target geological region, wherein the optimal parameter set size is determined in reference to a minimum combined error of the combined errors determined for each parameter set of the array. determining a fitting error between a first set of the historical production data and modeled production data , wherein the modeled production data is obtained through execution of a simulation model based on each parameter set of the array; determining a validation error between a second set of the historical production data and extrapolated production data for each parameter set of the array, wherein the extrapolated production data is obtained based on the modeled production data for the respective parameter set of the array; determining a combined error for each parameter set of the array based on the fitting error and the validation error ; and identifying an optimal parameter set size for modeling the target geological region, wherein the optimal parameter set size is determined in reference to a minimum combined error of the combined errors determined for each parameter set of the array.
A multi-specific binding protein comprising: (a) a first antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds NKG2D; (b) a second antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds HER2; and (c) an antibody Fc domain or a portion thereof sufficient to bind CD16, wherein the first antigen-binding site, the second antigen-binding site, or each of the first and the second antigen-binding sites comprises a heavy chain variable domain and a light chain variable domain present on the same polypeptide, and wherein the multi-specific binding protein is configured to bind HER2 on a cancer cell and bind NKG2D on a natural killer (NK) cell to activate the NK cell and bind CD16 on the NK cell to activate the NK cell. (a) a first antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds NKG2D; (b) a second antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds HER2; and (c) an antibody Fc domain or a portion thereof sufficient to bind CD16, wherein the first antigen-binding site, the second antigen-binding site, or each of the first and the second antigen-binding sites comprises a heavy chain variable domain and a light chain variable domain present on the same polypeptide, and wherein the multi-specific binding protein is configured to bind HER2 on a cancer cell and bind NKG2D on a natural killer (NK) cell to activate the NK cell and bind CD16 on the NK cell to activate the NK cell.
A motor housing comprising a teeth support part configured to protrude from an inner bottom surface and come in contact with end surfaces of a plurality of teeth of a stator having a divided stator core , wherein end portions of the teeth expand in a width direction and are disposed toward a center (C) of the stator core , wherein the teeth support part is configured to protrude in a cylindrical shape and has an outer diameter (R1) corresponding to an inner diameter (R2) of a virtual circle (O) formed by the end surfaces of the plurality of teeth , wherein the divided stator by itself may be disposed in a misaligned form by not having a perfect virtual circle (O), in which case, the teeth support part is configured to physically fix the teeth and to induce the end surfaces of the teeth formed on the stator core to be aligned in a circumferential direction, wherein a bearing pocket part is configured to accommodate a bearing , wherein an inner face of the bearing pocket part is fixed to an outer ring of the accommodated bearing , and an outer face of the bearing pocket part is used as the teeth support part supporting end surfaces of the teeth , wherein the teeth support part includes a guide protruding from an outer surface thereof and that is disposed between teeth adjacent to each other, wherein a width of the guide in a circumferential direction equals a distance between the end surfaces of the adjacent teeth, and wherein an outer upper surface of the guide and inner bottom surfaces of the adjacent teeth form a shape of an arc.
An image display apparatus , comprising: an image display unit configured to display an image, the image display unit being configured to be mounted on a head or face; a communication unit configured to communicate with a left and a right power generation apparatus (610, 720/730); and a control unit configured to obtain first information on power generation from each of the power generation apparatuses (610, 720/730) via the communication unit , to convert the first information into second information based on a principle of the power generation apparatuses (610, 720/730) for generating electrical power, and to control the image display unit , wherein each of the power generation apparatuses (610, 720/730) generates electrical power to a shoe worn on each of a left and a right foot of a human body according to an amount of exercise of each of the feet, characterized in that the control unit is configured to estimate a posture of the human body based on an acceleration of each of the feet that is obtained by converting each of the power generation amounts of the left and right power generation apparatuses (610, 720/730) as the second information, to derive action-inducing information for inducing an action to correct a deviation of the posture of the human body as third information, and to cause the image display unit to display the third information. an image display unit configured to display an image, the image display unit being configured to be mounted on a head or face; a communication unit configured to communicate with a left and a right power generation apparatus (610, 720/730); and a control unit configured to obtain first information on power generation from each of the power generation apparatuses (610, 720/730) via the communication unit , to convert the first information into second information based on a principle of the power generation apparatuses (610, 720/730) for generating electrical power, and to control the image display unit , wherein each of the power generation apparatuses (610, 720/730) generates electrical power to a shoe worn on each of a left and a right foot of a human body according to an amount of exercise of each of the feet, characterized in that the control unit is configured to estimate a posture of the human body based on an acceleration of each of the feet that is obtained by converting each of the power generation amounts of the left and right power generation apparatuses (610, 720/730) as the second information, to derive action-inducing information for inducing an action to correct a deviation of the posture of the human body as third information, and to cause the image display unit to display the third information.