mhurhangee/patent-ind-claim-en huggingface dataset:
Filter device having a filter housing jar and a ring filter element arranged therein, - wherein the filter housing jar has a central drain channel , in which a drain screw having a driver contour is arranged, - wherein the ring filter element has a lower end disc , having a ring seal lying on the outside and, in the installed state, interacting with the filter housing jar and having a counter-driver contour interacting with the driver contour , characterised in that - the drain screw is adjustable between at least three positions, namely - a lower position, in which the drain screw tightly closes the drain channel , - an intermediate position, in which the drain screw frees the drain channel , but does not yet interact with the counter-driver contour on the ring filter element side via the driver contour thereof, - an upper position, in which the drain screw frees the drain channel and interacts with the counter-driver contour on the ring filter element side via the driver contour thereof, by way of which a twisting of the drain screw causes a twisting of the ring filter element . - wherein the filter housing jar has a central drain channel , in which a drain screw having a driver contour is arranged, - wherein the ring filter element has a lower end disc , having a ring seal lying on the outside and, in the installed state, interacting with the filter housing jar and having a counter-driver contour interacting with the driver contour , characterised in that - the drain screw is adjustable between at least three positions, namely - a lower position, in which the drain screw tightly closes the drain channel , - an intermediate position, in which the drain screw frees the drain channel , but does not yet interact with the counter-driver contour on the ring filter element side via the driver contour thereof, - an upper position, in which the drain screw frees the drain channel and interacts with the counter-driver contour on the ring filter element side via the driver contour thereof, by way of which a twisting of the drain screw causes a twisting of the ring filter element . - a lower position, in which the drain screw tightly closes the drain channel , - an intermediate position, in which the drain screw frees the drain channel , but does not yet interact with the counter-driver contour on the ring filter element side via the driver contour thereof, - an upper position, in which the drain screw frees the drain channel and interacts with the counter-driver contour on the ring filter element side via the driver contour thereof, by way of which a twisting of the drain screw causes a twisting of the ring filter element .
A prosthetic system comprising: a liner adapted to receive a residual limb therein, the liner having a liner body formed from an elastomeric material the liner body defining: a proximal end having an open configuration; a distal end having a closed configuration: an outer surface : an inner surface opposite the outer surface . wherein the inner surface includes a first part arranged to form a seal between the liner and the residual limb, and a second part having at least one flow channel arranged for promoting movement of fluid away from a skin surface of the residual limb; and an outlet defined in the second part and extending between the inner and outer surfaces , the at least one flow channel is defined in the elastomeric material forming the liner body and is in fluid communication with the outlet , characterized in that the liner body defines at least one inlet extending between the inner and outer surfaces , the at least one inlet being in fluid communication with the at least one flow channel and an area external to the liner . a liner adapted to receive a residual limb therein, the liner having a liner body formed from an elastomeric material the liner body defining: a proximal end having an open configuration; a distal end having a closed configuration: an outer surface : an inner surface opposite the outer surface . a proximal end having an open configuration; a distal end having a closed configuration: an outer surface : an inner surface opposite the outer surface . wherein the inner surface includes a first part arranged to form a seal between the liner and the residual limb, and a second part having at least one flow channel arranged for promoting movement of fluid away from a skin surface of the residual limb; and an outlet defined in the second part and extending between the inner and outer surfaces , the at least one flow channel is defined in the elastomeric material forming the liner body and is in fluid communication with the outlet , characterized in that the liner body defines at least one inlet extending between the inner and outer surfaces , the at least one inlet being in fluid communication with the at least one flow channel and an area external to the liner .
- Computer implemented method for processing a seismic image obtained from seismic measurements performed on a geological formation, said method comprising: - (S30) determining a relative geological time, RGT, image based on the seismic image; - (S31) obtaining setpoints for the RGT image, said setpoints representing constraints to be satisfied by a reference RGT surface to be determined; - (S32) retrieving an RGT surface of the RGT image for each of the setpoints, wherein each point of an RGT surface is defined by a vertical position and at least one horizontal position; - (S33) determining the reference RGT surface by combining the RGT surfaces determined for the setpoints, wherein the vertical position of a point of the reference RGT surface is obtained by combining the vertical positions of the points of the RGT surfaces having the same at least one horizontal position as the considered point of the reference RGT surface; wherein said combining of the vertical positions uses weighting coefficients; wherein the value of a weighting coefficient used for the vertical position of an RGT surface decreases with a distance between the at least one horizontal position of the considered point of the reference RGT surface and the at least one horizontal position of the setpoint associated to the considered RGT surface. - (S30) determining a relative geological time, RGT, image based on the seismic image; - (S31) obtaining setpoints for the RGT image, said setpoints representing constraints to be satisfied by a reference RGT surface to be determined; - (S32) retrieving an RGT surface of the RGT image for each of the setpoints, wherein each point of an RGT surface is defined by a vertical position and at least one horizontal position; - (S33) determining the reference RGT surface by combining the RGT surfaces determined for the setpoints, wherein the vertical position of a point of the reference RGT surface is obtained by combining the vertical positions of the points of the RGT surfaces having the same at least one horizontal position as the considered point of the reference RGT surface; wherein said combining of the vertical positions uses weighting coefficients; wherein the value of a weighting coefficient used for the vertical position of an RGT surface decreases with a distance between the at least one horizontal position of the considered point of the reference RGT surface and the at least one horizontal position of the setpoint associated to the considered RGT surface.
A gasket comprising: a reinforcing body that is made of a resin film; a one-side gasket body that is provided on one surface of the reinforcing body in a thickness direction thereof; characterized by further comprising another-side gasket body that is provided on another surface of the reinforcing body in the thickness direction, wherein the reinforcing body has, in a portion sandwiched between both the gasket bodies , a three-dimensional shape in which the resin film is bent in its thickness direction. a reinforcing body that is made of a resin film; a one-side gasket body that is provided on one surface of the reinforcing body in a thickness direction thereof; characterized by further comprising another-side gasket body that is provided on another surface of the reinforcing body in the thickness direction, wherein the reinforcing body has, in a portion sandwiched between both the gasket bodies , a three-dimensional shape in which the resin film is bent in its thickness direction.
An absorbent article comprising a topsheet, a backsheet, and an absorbent core structure comprising one or more layers wherein at least one layer is a heterogeneous mass layer comprising a fibrous web and one or more pieces of open cell foam intermixed within the fibrous web and/or enrobing one or more fibers within the fibrous web, wherein the absorbent core structure comprises two or more zones comprising one or more visual patterns, and wherein the topsheet is integrated with the heterogeneous mass layer.
A method for manufacturing optical interference coatings, comprising: a) providing a first optical coating (9.1) having layers of alternating high and low refractive indices on a first host substrate (21.1) as a base coating structure (11.1); b) providing a second optical coating (9.2) having layers of alternating high and low refractive indices on a second host substrate (21.2); c) directly bonding the base coating structure (11.1) to the second optical coating (9.2), thereby obtaining one combined coating (11.1', 11.2', 11.3'); d) detaching one of the first host substrate (21.1) and the second host substrate (21.2) from the combined coating (11.1', 11.2', 11.3'); determining (i) whether a thickness of the combined coating is larger than a predefined thickness, or (ii) whether a predefined number n of repetitions of steps b) to d) has been performed, where n is a positive integer larger than or equal to 1; e) if the result of the determining step is negative, taking the combined coating (11.1', 11.2', 11.3') together with the remaining host substrate as the base coating structure (11.1) to be processed next and continuing with step b); f) if the result of the determining step is positive, providing an optical substrate and directly bonding the optical substrate to the combined coating (11.1', 11.2', 11.3'); g) removing the other one of the first host substrate (21.1) and the second host substrate (21.2); wherein the maximum reflectivity of the combined coating depends on the refractive index contrast of the individual layers, the total number of layers, and a refractive index of the first or second host substrate. a) providing a first optical coating (9.1) having layers of alternating high and low refractive indices on a first host substrate (21.1) as a base coating structure (11.1); b) providing a second optical coating (9.2) having layers of alternating high and low refractive indices on a second host substrate (21.2); c) directly bonding the base coating structure (11.1) to the second optical coating (9.2), thereby obtaining one combined coating (11.1', 11.2', 11.3'); d) detaching one of the first host substrate (21.1) and the second host substrate (21.2) from the combined coating (11.1', 11.2', 11.3'); e) if the result of the determining step is negative, taking the combined coating (11.1', 11.2', 11.3') together with the remaining host substrate as the base coating structure (11.1) to be processed next and continuing with step b); f) if the result of the determining step is positive, providing an optical substrate and directly bonding the optical substrate to the combined coating (11.1', 11.2', 11.3'); g) removing the other one of the first host substrate (21.1) and the second host substrate (21.2);
An explosive charge (1; 100) comprising: - a detonator (3; 300), - an element for transmitting a detonation wave (7; 700) comprising at least one transmission line (17a-17d) of the detonation wave (F), each transmission line including at least one through aperture (170a- 170d) formed in the thickness of the transmission element as well as a channel (171a-171d) opening out into said through aperture and arranged on the surface of the transmission element on the side of the detonator, a propagation material (M) of the detonation wave being present in said channel and said aperture, said propagation material having a first critical diameter, - a first explosive charge (5; 500) constituting an insensitive charge and having a second critical diameter greater than the first critical diameter, and - a second explosive charge (9; 900) interposed between the first explosive charge and the transmission element, the through aperture opening out onto the second explosive charge and the second explosive charge having a third critical diameter greater than or equal to the first critical diameter and smaller than the second critical diameter, the detonation wave coming from the detonator being intended to propagate in the channel and through the aperture to be transmitted to the second explosive charge, then to the first explosive charge. - a detonator (3; 300), - an element for transmitting a detonation wave (7; 700) comprising at least one transmission line (17a-17d) of the detonation wave (F), each transmission line including at least one through aperture (170a- 170d) formed in the thickness of the transmission element as well as a channel (171a-171d) opening out into said through aperture and arranged on the surface of the transmission element on the side of the detonator, a propagation material (M) of the detonation wave being present in said channel and said aperture, said propagation material having a first critical diameter, - a first explosive charge (5; 500) constituting an insensitive charge and having a second critical diameter greater than the first critical diameter, and - a second explosive charge (9; 900) interposed between the first explosive charge and the transmission element, the through aperture opening out onto the second explosive charge and the second explosive charge having a third critical diameter greater than or equal to the first critical diameter and smaller than the second critical diameter, the detonation wave coming from the detonator being intended to propagate in the channel and through the aperture to be transmitted to the second explosive charge, then to the first explosive charge.
An electric apparatus for an electric power steering system of a vehicle , comprising: - at least one electric machine , - an electronic arrangement at least for controlling the at least one electric machine , wherein the at least one electric machine and the electronic arrangement form a single common assembly unit for being mounted on the vehicle , the electronic arrangement being arranged on at least two different sides (A, B) of the at least one electric machine , characterized in that the at least one electric machine is arranged in between the two different sides (A, B), wherein the two sides (A, B) are designed as opposite sides of the electric machine along a motor shaft axis or orthogonal to this axis . - at least one electric machine , - an electronic arrangement at least for controlling the at least one electric machine , wherein the at least one electric machine and the electronic arrangement form a single common assembly unit for being mounted on the vehicle , the electronic arrangement being arranged on at least two different sides (A, B) of the at least one electric machine , characterized in that the at least one electric machine is arranged in between the two different sides (A, B), wherein the two sides (A, B) are designed as opposite sides of the electric machine along a motor shaft axis or orthogonal to this axis .
An oil and fat composition satisfying the following conditions of (a) to (d): (a) an X3 content is 1 to 20% by weight; (b) an X2O content is 50 to 90% by weight; (c) a weight ratio of XOX/X2O is 0.20 to 0.80; (d) a diglyceride content is 0.2% to 3.5% by weight; (in the above conditions of (a) to (d), each of X, O, X3, X2O, and XOX represents the following: X: saturated fatty acid having 14 carbon atoms or more; O: oleic acid; X3: triglyceride in which three molecules of X are bound; X2O: triglyceride in which two molecules of X and one molecule of O are bound;and XOX: triglyceride in which X is bound at positions 1 and 3 and O is bound at position 2). (a) an X3 content is 1 to 20% by weight; (b) an X2O content is 50 to 90% by weight; (c) a weight ratio of XOX/X2O is 0.20 to 0.80; (d) a diglyceride content is 0.2% to 3.5% by weight; X: saturated fatty acid having 14 carbon atoms or more; O: oleic acid; X3: triglyceride in which three molecules of X are bound; X2O: triglyceride in which two molecules of X and one molecule of O are bound;and XOX: triglyceride in which X is bound at positions 1 and 3 and O is bound at position 2).
A method of data conditioning comprising the steps of: receiving a data stream; encoding, by an encoder , a time code in the data stream to identify a portion of the data stream corresponding to a content fragment, wherein the time code indicates a time the content fragment was created; encoding, by the encoder a horizon window indicating one or more next in time fragments into the content fragment and, for each of the one or more next in time fragments, indicating a quality level of the next in time fragment; separating, by a fragmentor , the identified portion of the data stream based on the time code to define the content fragment, wherein the content fragment comprises the encoded time code; and transmitting, by the fragmentor , the content fragment to a distribution network . receiving a data stream; encoding, by an encoder , a time code in the data stream to identify a portion of the data stream corresponding to a content fragment, wherein the time code indicates a time the content fragment was created; encoding, by the encoder a horizon window indicating one or more next in time fragments into the content fragment and, for each of the one or more next in time fragments, indicating a quality level of the next in time fragment; separating, by a fragmentor , the identified portion of the data stream based on the time code to define the content fragment, wherein the content fragment comprises the encoded time code; and transmitting, by the fragmentor , the content fragment to a distribution network .
Methyl [1-({6-[ -butan-2-ylamino]-2-(pyrazolo[5,1-b] thiazol-7-yl)pyrimidin-4-yl}carbonyl)piperidin-4-yl]carbamate tosylate monohydrate.
A system for controlling energy in a securement system for a mobility device temporarily fixed to a vehicle during an adverse driving condition, the system comprising a computing system including a processor configured to: ascertain that the adverse driving condition has occurred; ascertain at least one characteristic of the adverse driving condition; and, trigger a first safety device for reducing an excursion of the mobility device, wherein the first safety device is selected from a plurality of safety devices based on the at least one characteristic of the adverse driving condition. ascertain that the adverse driving condition has occurred; ascertain at least one characteristic of the adverse driving condition; and, trigger a first safety device for reducing an excursion of the mobility device,
A control device for a machine tool , the machine tool including a first linear motion axis (X), a second linear motion axis (Y), and a third linear motion axis (Z) of a machine coordinate system which are orthogonal to each other and a first rotary feed axis (B) about a first axis line inclined with respect to all linear motion axes (X, Y, Z) of the first linear motion axis (X), the second linear motion axis (Y), and the third linear motion axis (Z), the control device configured to control the machine tool based on a machining program or an instruction of manual operation by an operator, the control device further comprising: a servomotor control unit configured to drive and control the respective-axes servomotors of the machine tool by an instruction based on the machine coordinate system; an arithmetic unit configured to calculate, from a coordinate value of the machine coordinate system, a coordinate value of a table coordinate system including a first virtual linear motion axis (X'), a second virtual linear motion axis (Y'), and a third virtual linear motion axis (Z') orthogonal to each other with a reference being a workpiece attachment surface of a table and a first virtual rotary feed axis (A', B') about a first virtual axis line parallel to any virtual linear motion axis (X', Y', Z') of the first virtual linear motion axis (X'), the second virtual linear motion axis (Y'), and the third virtual linear motion axis (Z'); and a display unit configured to display a coordinate value of the table coordinate system calculated by the arithmetic unit , the coordinate value serving as a virtual coordinate value which simulates the coordinate value of the machine coordinate system of the machine tool configured so that the rotary feed axis (B) is parallel to the linear motion axes (X, Y, Z). a servomotor control unit configured to drive and control the respective-axes servomotors of the machine tool by an instruction based on the machine coordinate system; an arithmetic unit configured to calculate, from a coordinate value of the machine coordinate system, a coordinate value of a table coordinate system including a first virtual linear motion axis (X'), a second virtual linear motion axis (Y'), and a third virtual linear motion axis (Z') orthogonal to each other with a reference being a workpiece attachment surface of a table and a first virtual rotary feed axis (A', B') about a first virtual axis line parallel to any virtual linear motion axis (X', Y', Z') of the first virtual linear motion axis (X'), the second virtual linear motion axis (Y'), and the third virtual linear motion axis (Z'); and a display unit configured to display a coordinate value of the table coordinate system calculated by the arithmetic unit , the coordinate value serving as a virtual coordinate value which simulates the coordinate value of the machine coordinate system of the machine tool configured so that the rotary feed axis (B) is parallel to the linear motion axes (X, Y, Z).
A method for forming an e-textile, the method comprising: depositing a particle-free conductive ink on a textile substrate to form at least one pattern, wherein the particle-free conductive ink conformally coats fibers of the textile; and curing the particle-free conductive ink in the at least one pattern to form at least one conductive pattern, characterized in that the at least one conductive pattern exhibits an ink bleed of less than 0.2mm, and a resistance of less than 1 Ω/□, said ink bleed being measured as a distance from an intended border of a printed trace that said ink may extend, further comprising, during depositing the particle-free conductive ink: heating the textile substrate to a temperature of 30°C to 90°C, such as 40°C to 80°C. depositing a particle-free conductive ink on a textile substrate to form at least one pattern, wherein the particle-free conductive ink conformally coats fibers of the textile; and curing the particle-free conductive ink in the at least one pattern to form at least one conductive pattern, characterized in that the at least one conductive pattern exhibits an ink bleed of less than 0.2mm, and a resistance of less than 1 Ω/□, said ink bleed being measured as a distance from an intended border of a printed trace that said ink may extend, further comprising, during depositing the particle-free conductive ink: heating the textile substrate to a temperature of 30°C to 90°C, such as 40°C to 80°C.