mhurhangee/patent-ind-claim-en huggingface dataset:
A connecting end fitting of a flexible pipe for transporting fluid, the flexible pipe comprising at least one pressure sheath and a plurality of tensile armor layers arranged outwardly relative to the pressure sheath , the end fitting comprising: - an end vault extending along a central axis (A-A'); - an outer cover fastened on the end vault and delimiting, with the end vault , a chamber for receiving an end segment of the armor layers ; - first end segments of the armor elements of a first armor layer and second end segments of the armor elements of a second armor layer , arranged outwardly relative to the first end segments ; - an outer ring applied outwardly on the second end segments ; - an intermediate ring , inserted between the first end segments and the second end segments , in contact with the first end segments and with the second end segments , the intermediate ring extending around the central axis (A-A') between a rear edge and a front edge , the second end segments being clamped between the outer ring and the intermediate ring , the first end segments being clamped between the intermediate ring and a bearing surface ; characterized in that the intermediate ring is at least partially split. - an end vault extending along a central axis (A-A'); - an outer cover fastened on the end vault and delimiting, with the end vault , a chamber for receiving an end segment of the armor layers ; - first end segments of the armor elements of a first armor layer and second end segments of the armor elements of a second armor layer , arranged outwardly relative to the first end segments ; - an outer ring applied outwardly on the second end segments ; - an intermediate ring , inserted between the first end segments and the second end segments , in contact with the first end segments and with the second end segments , the intermediate ring extending around the central axis (A-A') between a rear edge and a front edge , the second end segments being clamped between the outer ring and the intermediate ring , the first end segments being clamped between the intermediate ring and a bearing surface ; characterized in that the intermediate ring is at least partially split. the second end segments being clamped between the outer ring and the intermediate ring , the first end segments being clamped between the intermediate ring and a bearing surface ; characterized in that the intermediate ring is at least partially split.
A method of operating a dishwasher as a humidifier, the method comprising: in response to an input indicating a humidifying cycle of operation, implementing the humidifying cycle of operation by generating moisture-laden air within a treating chamber of the dishwasher , and emitting the generated moisture-laden air to an exterior surrounding the dishwasher , without the simultaneous implementation of a dish treating cycle of operation.
A method for overlaying an adjusted second image over a plurality of adjusted first images, the method carried out by a system and comprising: receiving a plurality of first images forming a first scene of related images and receiving a second image, said first images differing in dynamic range and size from said second image; receiving scene-based parameters regarding said first images, wherein said scene-based parameters are computed for each image of said first scene and then computed for said first scene itself; applying a scene-adaptive mapping of a dynamic range of said first images according to a dynamic range of a display to generate adjusted first images with an adjusted dynamic range , wherein said adjusted dynamic range of said first images is different from a maximum dynamic range of said display ; performing appearance mapping of said second image to determine an adjusted second image to map said second image to the characteristics of said first images, said adjusted second image differing in dynamic range from said second image, wherein performing appearance mapping of said second image is performed according to the scene-based parameters ; forming a composite image by overlaying said adjusted second image onto a portion of at least one of said adjusted first images; and performing dynamic mapping of a third image to composite said third image with said adjusted first images, said third image intended to replace at least a part of said adjusted second image previously composited with said adjusted first images. receiving a plurality of first images forming a first scene of related images and receiving a second image, said first images differing in dynamic range and size from said second image; receiving scene-based parameters regarding said first images, wherein said scene-based parameters are computed for each image of said first scene and then computed for said first scene itself; applying a scene-adaptive mapping of a dynamic range of said first images according to a dynamic range of a display to generate adjusted first images with an adjusted dynamic range , wherein said adjusted dynamic range of said first images is different from a maximum dynamic range of said display ; performing appearance mapping of said second image to determine an adjusted second image to map said second image to the characteristics of said first images, said adjusted second image differing in dynamic range from said second image, wherein performing appearance mapping of said second image is performed according to the scene-based parameters ; forming a composite image by overlaying said adjusted second image onto a portion of at least one of said adjusted first images; and performing dynamic mapping of a third image to composite said third image with said adjusted first images, said third image intended to replace at least a part of said adjusted second image previously composited with said adjusted first images.
A method of forming an electrode structure, comprising: mixing a first conductive material with a first binder and coating the mixture on a substrate to form a first conductive layer ; drying the mixture of the first conductive material and the binder; mixing a second conductive material with a second binder and coating the mixture on the first conductive layer to form a second conductive layer ; drying the mixture of the second conductive material and the second binder; wherein one of the first conductive material and the second conductive material comprises a plurality of silver nanowires, and the other of the first conductive material and the second conductive material comprises RuO 2 ; and the conductive layer comprising silver nanowires has a thickness of 40 nm, and the other conductive layer, which comprises RuO 2 , has a thickness of equal to or less than 10 nm. mixing a first conductive material with a first binder and coating the mixture on a substrate to form a first conductive layer ; drying the mixture of the first conductive material and the binder; mixing a second conductive material with a second binder and coating the mixture on the first conductive layer to form a second conductive layer ; drying the mixture of the second conductive material and the second binder; wherein one of the first conductive material and the second conductive material comprises a plurality of silver nanowires, and the other of the first conductive material and the second conductive material comprises RuO 2 ; and the conductive layer comprising silver nanowires has a thickness of 40 nm, and the other conductive layer, which comprises RuO 2 , has a thickness of equal to or less than 10 nm.
A control system for a vehicle , the system comprising: a dynamic state sensor ; an object detection sensor ; and, a controller configured to: determine a path of the vehicle based on a signal from the dynamic state sensor ; detect an object based on the vehicle's path and a signal from the object detection sensor ; and, control a braking system of the vehicle based on the determined path and the detected object ; characterized in that the controller is configured to control the braking system by prefilling the braking system when the object is detected in or near the determined path of the vehicle , applying a first braking amount in a range between 0.1g and 0.35g when a value of the signal from the dynamic state sensor reaches a first threshold , and applying a second braking amount of increasingly heavier braking until full braking is reached when a value of the signal from the dynamic state sensor reaches a second threshold . a dynamic state sensor ; an object detection sensor ; and, a controller configured to: determine a path of the vehicle based on a signal from the dynamic state sensor ; detect an object based on the vehicle's path and a signal from the object detection sensor ; and, control a braking system of the vehicle based on the determined path and the detected object ; characterized in that determine a path of the vehicle based on a signal from the dynamic state sensor ; detect an object based on the vehicle's path and a signal from the object detection sensor ; and, control a braking system of the vehicle based on the determined path and the detected object ; characterized in that the controller is configured to control the braking system by prefilling the braking system when the object is detected in or near the determined path of the vehicle , applying a first braking amount in a range between 0.1g and 0.35g when a value of the signal from the dynamic state sensor reaches a first threshold , and applying a second braking amount of increasingly heavier braking until full braking is reached when a value of the signal from the dynamic state sensor reaches a second threshold .
A front loader comprising: a pair of left and right masts provided to a machine body frame in a detachable manner; a pair of left and right lifting arms coupled to the masts in a vertically rotatable manner; and work equipment mounted to the pair of left and right lifting arms , wherein each of the lifting arms includes a rear lifting arm attached to the mast and a front lifting arm attached to the work equipment , and each of the front lifting arm and the rear lifting arm has a hollow, rectangular cross-section when viewed in a direction in which the front lifting arm or the rear lifting arm extends; a rear end portion of the front lifting arm is inserted into a front end portion of the rear lifting arm , the rear lifting arm has a side plate whose front end portion is provided with a protruding portion that extends along a side plate of the front lifting arm, characterized in that the cross-sectional area of the protruding portion gradually decreases from its proximal end portion toward its distal end portion when viewed in a direction in which the front lifting arm extends, and under a state where the front lifting arm is inserted into the rear lifting arm , an overlap portion where the insertion portion overlaps the protruding portion is welded so that the front lifting arm is fixed to the rear lifting arm . a pair of left and right masts provided to a machine body frame in a detachable manner; a pair of left and right lifting arms coupled to the masts in a vertically rotatable manner; and work equipment mounted to the pair of left and right lifting arms , wherein each of the lifting arms includes a rear lifting arm attached to the mast and a front lifting arm attached to the work equipment , and each of the front lifting arm and the rear lifting arm has a hollow, rectangular cross-section when viewed in a direction in which the front lifting arm or the rear lifting arm extends; a rear end portion of the front lifting arm is inserted into a front end portion of the rear lifting arm , the rear lifting arm has a side plate whose front end portion is provided with a protruding portion that extends along a side plate of the front lifting arm, the cross-sectional area of the protruding portion gradually decreases from its proximal end portion toward its distal end portion when viewed in a direction in which the front lifting arm extends, and under a state where the front lifting arm is inserted into the rear lifting arm , an overlap portion where the insertion portion overlaps the protruding portion is welded so that the front lifting arm is fixed to the rear lifting arm .
A tool for machining an object, having a plurality of finger layers each of which extends into a layer plane, wherein the finger layers are arranged in succession behind each other such that the layer planes of adjacent finger layers at least partially overlap, wherein each finger layer has a plurality of fingers , wherein the fingers of the finger layers can be bent from an undeflected state in a direction standing on the layer plane of the corresponding finger layer , wherein the fingers of the finger layers are each flat in shape and extend in the corresponding layer plane when in the undeflected state, wherein neighbouring fingers of the same finger layer in the undeflected state are spaced apart from each other by any distance greater than zero, wherein the fingers of at least some of the finger layers are in a projection on one of the adjacent finger layers arranged in the spaces between the fingers or next to the fingers of this adjacent finger layer , characterised in that adjacent finger layers are directly adjacent to one another or are spaced apart by one, two or three times the thickness of the finger layers . a plurality of finger layers each of which extends into a layer plane, wherein the finger layers are arranged in succession behind each other such that the layer planes of adjacent finger layers at least partially overlap, wherein each finger layer has a plurality of fingers , wherein the fingers of the finger layers can be bent from an undeflected state in a direction standing on the layer plane of the corresponding finger layer , wherein the fingers of the finger layers are each flat in shape and extend in the corresponding layer plane when in the undeflected state, wherein neighbouring fingers of the same finger layer in the undeflected state are spaced apart from each other by any distance greater than zero, wherein the fingers of at least some of the finger layers are in a projection on one of the adjacent finger layers arranged in the spaces between the fingers or next to the fingers of this adjacent finger layer , characterised in that adjacent finger layers are directly adjacent to one another or are spaced apart by one, two or three times the thickness of the finger layers .
Method for assembling a flexible sleeve on a steering gear , wherein the steering gear has a receptacle pin which protrudes axially in the direction of a longitudinal axis (L) and from which a tie rod protrudes in a manner to be articulated relative to the longitudinal axis (L), and the sleeve comprises a flexible hose-shaped bellows which towards the gear has an annular connecting flange that is configured so as to be coaxial with a flange axis and towards the tie rod has an annular seal , comprising the following steps: - moving the connecting flange in order to introduce the tie rod , - offering up the connecting flange to the receptacle pin , and - plug-fitting the connecting flange on the receptacle pin , - gripping the bellows in the gripper of a robotic manipulator, - moving the gripper in order to introduce the tie rod through the connecting flange , - inclining the gripper in order to incline the flange axis (F) about a predefined inclination angle (a) relative to the longitudinal axis (L), - moving the gripper in order to offer up the connecting flange to the receptacle pin , - detecting the impact of the connecting flange on the receptacle pin , - moving the gripper in order to carry out tumbling and/or arcuate and/or translatory assembling movements of the connecting flange relative to the longitudinal axis (L), - pressing the gripper in a force-controlled and/or position-controlled manner in the direction of the longitudinal axis (L) against the receptacle pin , in order to plug-fit the connecting flange on the receptacle pin , until a predefined terminal position of the connecting flange on the receptacle pin is reached, - releasing the gripper from the sleeve. - moving the connecting flange in order to introduce the tie rod , - offering up the connecting flange to the receptacle pin , and - plug-fitting the connecting flange on the receptacle pin , - gripping the bellows in the gripper of a robotic manipulator, - moving the gripper in order to introduce the tie rod through the connecting flange , - inclining the gripper in order to incline the flange axis (F) about a predefined inclination angle (a) relative to the longitudinal axis (L), - moving the gripper in order to offer up the connecting flange to the receptacle pin , - detecting the impact of the connecting flange on the receptacle pin , - moving the gripper in order to carry out tumbling and/or arcuate and/or translatory assembling movements of the connecting flange relative to the longitudinal axis (L), - pressing the gripper in a force-controlled and/or position-controlled manner in the direction of the longitudinal axis (L) against the receptacle pin , in order to plug-fit the connecting flange on the receptacle pin , until a predefined terminal position of the connecting flange on the receptacle pin is reached, - releasing the gripper from the sleeve.
A multimeric chimeric antigen receptor (CAR) which comprises at least three CAR-forming polypeptides, each CAR-forming polypeptide comprising: (i) an antigen-binding domain; (ii) a coiled-coil spacer domain; (iii) a transmembrane domain; and (iv) an endodomain. (i) an antigen-binding domain; (ii) a coiled-coil spacer domain; (iii) a transmembrane domain; and (iv) an endodomain.
An austenitic alloy consisting of the following elements in weight%: C ≤ 0.03 ; Si ≤ 1.0 ; Mn ≤ 1.5 ; S ≤ 0.03 ; P ≤ 0.03 ; Cr 25.5 to 32.0; Ni 42.0 to 52.0; Mo 6.0 to 9.0; N 0.07 − 0.11 ; Cu ≤ 0.4 ; Optionally one or more of Al, Mg, Ca, Ce and B ≤ 1.0; Balance Fe and unavoidable impurities; characterized in that the austenitic alloy fulfills the following condition: E Ni > 1.864 ∗ E Cr − 19.92 wherein E Cr = wt % Cr + wt % Mo + 1.5 ∗ wt % Si , E Ni = wt % Ni + 30 ∗ wt % C + 30 ∗ wt % N + 0.5 ∗ wt % Mn + 0.5 ∗ wt % Cu , wherein CPT is greater than 88°C (ASTM G150 with 3 M MgCl2 as electrolyte). Optionally one or more of Al, Mg, Ca, Ce and B ≤ 1.0; Balance Fe and unavoidable impurities; characterized in that the austenitic alloy fulfills the following condition: E Ni > 1.864 ∗ E Cr − 19.92 wherein E Cr = wt % Cr + wt % Mo + 1.5 ∗ wt % Si , E Ni = wt % Ni + 30 ∗ wt % C + 30 ∗ wt % N + 0.5 ∗ wt % Mn + 0.5 ∗ wt % Cu , wherein CPT is greater than 88°C (ASTM G150 with 3 M MgCl2 as electrolyte).
A rubber composition comprising: (A) a polymer having a carbon-carbon unsaturated bond and exhibiting a value α of 0.6 or more as obtained by formula (i): α = p + 0.5 × r / p + q + 0.5 × r + s wherein p, q, r, and s are the proportions by mole of structural units represented by formulae , , , and , respectively in the polymer: and (B) modified silica. (A) a polymer having a carbon-carbon unsaturated bond and exhibiting a value α of 0.6 or more as obtained by formula (i): α = p + 0.5 × r / p + q + 0.5 × r + s wherein p, q, r, and s are the proportions by mole of structural units represented by formulae , , , and , respectively in the polymer: and (B) modified silica.
An individual cellulose nanofibril decorated with magnetic nanoparticles that are distributed along the nanofibril, wherein the amount of magnetic nanoparticles adhering together or lying very close together at ≤ 5nm particle to particle inter-distance, in a collection composed of 20 or more magnetic nanoparticles, is less than 30%.
A warehouse method, comprising: receiving status of inventory moving tasks for a warehouse; predicting at least one location of an inventory moving device (116A-116D) in the warehouse by: identifying a task, among the inventory moving tasks, associated with moving an inventory item from a first location (217A-217D) to a second location (217A-217D); determining a predicted route from the first location (217A-217D) to the second location (217A-217D) for the identified task; and predicting the at least one location of the inventory moving device along the predicted route based on the status of the identified task; and determining an obstacle-free path of an aerial vehicle to a desired location in the warehouse based on the predicted at least one location of the inventory moving device (116A-116D). receiving status of inventory moving tasks for a warehouse; predicting at least one location of an inventory moving device (116A-116D) in the warehouse by: identifying a task, among the inventory moving tasks, associated with moving an inventory item from a first location (217A-217D) to a second location (217A-217D); determining a predicted route from the first location (217A-217D) to the second location (217A-217D) for the identified task; and predicting the at least one location of the inventory moving device along the predicted route based on the status of the identified task; and identifying a task, among the inventory moving tasks, associated with moving an inventory item from a first location (217A-217D) to a second location (217A-217D); determining a predicted route from the first location (217A-217D) to the second location (217A-217D) for the identified task; and predicting the at least one location of the inventory moving device along the predicted route based on the status of the identified task; and determining an obstacle-free path of an aerial vehicle to a desired location in the warehouse based on the predicted at least one location of the inventory moving device (116A-116D).
A staggered three-dimensional printing method, wherein a plurality of jet holes at two sides of a print head along a width direction of the print head are closed and opened cyclically in a layer-by-layer printing process, whereby jet positions of each jet hole on adjacent layers in a printing area are staggered with each other, and jet holes arranged along the width direction of the print head are divided into a front closed area , a rear closed area , and an open area between the front closed area and the rear closed area and for performing jet printing; and in a layer-by-layer printing process, jet holes in the rear closed area are opened on a layer-by-layer basis, and jet holes in the front closed area are closed on a layer-by-layer basis, whereby jet holes at a front end and a rear end of the open area are cyclically closed and opened in a staggered manner on a layer-by-layer basis to keep a width of the open area unchanged in printing of all layers, characterized in that widths of the front closed area and the rear closed area of the print head are changed in a staggered manner on a layer-by-layer basis, and the widths of the two closed areas increase or decrease between zero and a maximum width on a layer-by-layer basis. a plurality of jet holes at two sides of a print head along a width direction of the print head are closed and opened cyclically in a layer-by-layer printing process, whereby jet positions of each jet hole on adjacent layers in a printing area are staggered with each other, and jet holes arranged along the width direction of the print head are divided into a front closed area , a rear closed area , and an open area between the front closed area and the rear closed area and for performing jet printing; and in a layer-by-layer printing process, jet holes in the rear closed area are opened on a layer-by-layer basis, and jet holes in the front closed area are closed on a layer-by-layer basis, whereby jet holes at a front end and a rear end of the open area are cyclically closed and opened in a staggered manner on a layer-by-layer basis to keep a width of the open area unchanged in printing of all layers, characterized in that widths of the front closed area and the rear closed area of the print head are changed in a staggered manner on a layer-by-layer basis, and the widths of the two closed areas increase or decrease between zero and a maximum width on a layer-by-layer basis.