mhurhangee/patent-ind-claim-en huggingface dataset:
Method for mounting a heater cord in a heatsink configured to be installed inside a rung of an electrically-heated towel rail, which heatsink comprises a housing and a shoe , characterized in that said method comprises the steps consisting in: - creating a longitudinal slot in the housing ; - shaping the heatsink , which is made of a rigid material such as, for example, steel, aluminium, cast iron, copper or composite material, in such a way that the housing comprises a cradle extended by lateral walls positioned one on each side of the sagittal plane (P) of said heatsink, which lateral walls have free ends defining the longitudinal slot , - creating a reduced-thickness zone at the junction where each lateral wall meets the cradle , which zone forms an articulation or a fold allowing the longitudinal slot to be closed back on itself, - using a flexible heater cord having an electrically double-insulated sheath and inserting it in the housing , insertion being performed from the longitudinal slot ; - closing the longitudinal slot back on itself so as to hold the flexible heater cord permanently in position in the housing . - creating a longitudinal slot in the housing ; - shaping the heatsink , which is made of a rigid material such as, for example, steel, aluminium, cast iron, copper or composite material, in such a way that the housing comprises a cradle extended by lateral walls positioned one on each side of the sagittal plane (P) of said heatsink, which lateral walls have free ends defining the longitudinal slot , - creating a reduced-thickness zone at the junction where each lateral wall meets the cradle , which zone forms an articulation or a fold allowing the longitudinal slot to be closed back on itself, - using a flexible heater cord having an electrically double-insulated sheath and inserting it in the housing , insertion being performed from the longitudinal slot ; - closing the longitudinal slot back on itself so as to hold the flexible heater cord permanently in position in the housing .
A composite oxide consisting of cerium, silicon, oxygen, and at least one element selected from yttrium and rare earth metal elements other than cerium, wherein a mass ratio of said cerium to said at least one element is 85:15 to 99:1 in terms of oxides, wherein a content of said silicon is more than 0 parts by mass and not more than 20 parts by mass in terms of SiO 2 with respect to 100 parts by mass of a total of said cerium and said at least one element in terms of oxides, wherein said composite oxide has properties of exhibiting a specific surface area of not less than 40 m 2 /g as measured by BET method using nitrogen gas adsorption after calcination at 900 °C for 5 hours, and a reducibility represented by a percent of trivalent cerium in the composite oxide reduced from tetravalent cerium of not lower than 30 % as calculated from measurement of temperature-programmed reduction from 50 °C to 900 °C after calcination at 1000 °C for 5 hours.
A fuel cell structure 1000 comprising: at least one fuel cell stack 1100 in which a fuel channel and air channel areformed, the fuel cell stack including: an upper end plate 1120 having a first pressing plate 1121, and at least one first fastened portion 1122 protruding in a horizontal direction from at least one lateral face of the first pressing plate; a lower end plate 1130 having a second pressing plate 1131 opposite to the first pressing plate and at least one second fastened portion 1132 protruding in a horizontal direction from at least one of lateral face of the second pressing plate; and a stack structure 1110 of single cells disposed between the first pressing plate and the second pressing plate;a support 1200 including a support plate 1210 disposed on a bottom of the fuel cell stack 1110 to support the fuel cell stack 1110; anda fastener extending through the first fastened portion, the second fastened portion and the support plate to fasten the fuel cell stack 1100 to the support 1120, characterized in that - the second pressing plate 1131 comprises a first fuel supply hole 130-1a defining an inlet of the fuel channel and a first air supply hole 130-2a defining an inlet of the air channel, - the support plate 1210 comprises a second fuel supply hole 210-1a to which a fuel supply pipe configured to supply fuel to the fuel channel is connected and a second air supply hole 210-2a to which an air supply pipe 1430 configured to supply air to the air channel is connected, - the second fuel supply hole 210-1a and the second air supply hole 210-2a respectively communicate with the first fuel supply hole 130-1a and the first air supply hole 130-2a. an upper end plate 1120 having a first pressing plate 1121, and at least one first fastened portion 1122 protruding in a horizontal direction from at least one lateral face of the first pressing plate; a lower end plate 1130 having a second pressing plate 1131 opposite to the first pressing plate and at least one second fastened portion 1132 protruding in a horizontal direction from at least one of lateral face of the second pressing plate; and a stack structure 1110 of single cells disposed between the first pressing plate and the second pressing plate;a support 1200 including a support plate 1210 disposed on a bottom of the fuel cell stack 1110 to support the fuel cell stack 1110; anda fastener extending through the first fastened portion, the second fastened portion and the support plate to fasten the fuel cell stack 1100 to the support 1120, - the second pressing plate 1131 comprises a first fuel supply hole 130-1a defining an inlet of the fuel channel and a first air supply hole 130-2a defining an inlet of the air channel, - the support plate 1210 comprises a second fuel supply hole 210-1a to which a fuel supply pipe configured to supply fuel to the fuel channel is connected and a second air supply hole 210-2a to which an air supply pipe 1430 configured to supply air to the air channel is connected, - the second fuel supply hole 210-1a and the second air supply hole 210-2a respectively communicate with the first fuel supply hole 130-1a and the first air supply hole 130-2a.
An image segmentation method, performed by a computer device, the method comprising: encoding an original image based on a vector, to obtain a target feature map, the original image comprising a target object, the vector comprising a plurality of weights each representing an accuracy level of labeling a region of an object in an image ; decoding the target feature map, to obtain a first segmented image of the original image, the first segmented image indicating a target region in which the target object is located in the original image ; performing image reconstruction on the first segmented image based on the vector, to obtain a plurality of labeled segmented images, each of the labeled segmented images corresponding to one weight, and each of the labeled segmented images indicating a corresponding labeled target region ; and processing the target feature map based on the plurality of labeled segmented images, to obtain a second segmented image of the original image . encoding an original image based on a vector, to obtain a target feature map, the original image comprising a target object, the vector comprising a plurality of weights each representing an accuracy level of labeling a region of an object in an image ; decoding the target feature map, to obtain a first segmented image of the original image, the first segmented image indicating a target region in which the target object is located in the original image ; performing image reconstruction on the first segmented image based on the vector, to obtain a plurality of labeled segmented images, each of the labeled segmented images corresponding to one weight, and each of the labeled segmented images indicating a corresponding labeled target region ; and processing the target feature map based on the plurality of labeled segmented images, to obtain a second segmented image of the original image .
A sensor element structure for a MEMS vibrating sensor of angular velocity, the sensor element structure comprising at least a rotor mass , two linearly moving masses , and exciting means for exciting the two linearly moving masses into a linear primary oscillation motion within a structural plane formed by inertial masses of the sensor element structure in their initial position when not excited to any movement, the inertial masses comprising the rotor mass and the two linearly moving masses, the sensor element structure further comprising: - a suspending structure essentially in the middle of the rotor mass , for supporting the rotor mass , using flexible springs between the suspending structure and the rotor mass , the suspending structure allowing the rotor mass to be excited into a primary rotation of the rotor mass , which primary rotation occurs in the structural plane, about the centre of the rotor mass; characterized in that the sensor element structure further comprises: - two stiff T-shaped levers each coupled to the two linearly moving masses and to the rotor mass by other flexible springs , wherein the T-shaped levers enable the rotor mass and the two linearly moving masses to be excited into an anti-phase primary mode combining the linear primary oscillation motion and the rotary motion, at a given nominal frequency, - wherein the two T-shaped levers are configured to convey the linear primary oscillation motion of the two linearly moving masses into the primary rotation of the rotor mass so that a direction of the angular momentum of the rotor mass with respect to a geometrical center of the sensor element structure is opposite to a direction of the angular momenta of the linearly moving masses when the rotor mass and the linearly moving masses are excited into the anti-phase primary mode. - a suspending structure essentially in the middle of the rotor mass , for supporting the rotor mass , using flexible springs between the suspending structure and the rotor mass , the suspending structure allowing the rotor mass to be excited into a primary rotation of the rotor mass , which primary rotation occurs in the structural plane, about the centre of the rotor mass; - two stiff T-shaped levers each coupled to the two linearly moving masses and to the rotor mass by other flexible springs , wherein the T-shaped levers enable the rotor mass and the two linearly moving masses to be excited into an anti-phase primary mode combining the linear primary oscillation motion and the rotary motion, at a given nominal frequency, - wherein the two T-shaped levers are configured to convey the linear primary oscillation motion of the two linearly moving masses into the primary rotation of the rotor mass so that a direction of the angular momentum of the rotor mass with respect to a geometrical center of the sensor element structure is opposite to a direction of the angular momenta of the linearly moving masses when the rotor mass and the linearly moving masses are excited into the anti-phase primary mode.
An apparatus for supplying user inputs to a game computer program for controlling the game program, the apparatus comprising: a base chassis member ; at least one depressible trigger mechanism pivotally mounted to the apparatus and resiliently biased to a first position; the base chassis member having an edge defining an end stop (E) limiting movement of the at least one depressible trigger mechanism ; and a trigger adjustment system insertable into a void between an end stop of the base chassis member and the at least one depressible trigger mechanism including: a first mechanism for reducing the range of motion of the at least one depressible trigger mechanism , the first mechanism comprising: an arm being arranged such that it extends between a rear edge of the at least one depressible trigger mechanism and the edge of the base chassis member , and having a front edge (15A/56)) providing the end stop, the front edge (15A/56) being disposed closer to said rear edge of the at least one depressible trigger mechanism than to said end stop (E) provided by the edge of the base chassis member such that, when the trigger adjustment system is inserted, the degree of rotation of the pivotally mounted at least one depressible trigger mechanism is reduced. a base chassis member ; at least one depressible trigger mechanism pivotally mounted to the apparatus and resiliently biased to a first position; the base chassis member having an edge defining an end stop (E) limiting movement of the at least one depressible trigger mechanism ; and a trigger adjustment system insertable into a void between an end stop of the base chassis member and the at least one depressible trigger mechanism including: a first mechanism for reducing the range of motion of the at least one depressible trigger mechanism , the first mechanism comprising: an arm being arranged such that it extends between a rear edge of the at least one depressible trigger mechanism and the edge of the base chassis member , and having a front edge (15A/56)) providing the end stop, the front edge (15A/56) being disposed closer to said rear edge of the at least one depressible trigger mechanism than to said end stop (E) provided by the edge of the base chassis member such that, when the trigger adjustment system is inserted, the degree of rotation of the pivotally mounted at least one depressible trigger mechanism is reduced.
A device for supplying a hardening and pumpable or blowable or sprayable building material to a material application site, comprising a hose for conducting said material from a material supply to an operator manually distributing said material on the application site by means of the device , the device comprises a load distribution support and a connector , wherein the load distribution support is connectable to the operator and comprises one or more connecting devices , and wherein the connector is connected to the hose and is connectable to the one or more connecting devices of the load distribution support to form an articulated connection between the support and the hose , so that the hose is supported on the operator through the articulated connection when the device is operated by the operator to distribute said material on the application site, characterised in that the device comprises a flexible tube connected to the hose , wherein the hose is arranged between the material supply and the flexible tube , and wherein the flexible tube is more flexible than the hose .
A method for determining a corrective lenses prescription for a patient, separately for each eye of the patient, and providing the patient with a corrective lenses prescription for the patient's preferred type of corrective lenses, using a system comprising a patient terminal with a first computerized screen and a remote device with a second computerized screen, the method comprising: sending a link to the remote device to enable the patient to launch an interface on the remote device for interacting with the system in a hand held manner, wherein interacting includes receiving instructions from the system and enabling the patient to make at least one input to the system via the remote device over a communication interface to control the first computerized screen from a distance, and determining a power of the corrective lenses prescription via the first computerized screen, wherein determining the power comprises displaying a figure on the first computerized screen, and enabling the patient to make a least one input via the remote device to change the size of the figure until the patient can just barely make out the figure, wherein the input corresponds to a sphere measurement of the patient. sending a link to the remote device to enable the patient to launch an interface on the remote device for interacting with the system in a hand held manner, wherein interacting includes receiving instructions from the system and enabling the patient to make at least one input to the system via the remote device over a communication interface to control the first computerized screen from a distance, and determining a power of the corrective lenses prescription via the first computerized screen, wherein determining the power comprises displaying a figure on the first computerized screen, and enabling the patient to make a least one input via the remote device to change the size of the figure until the patient can just barely make out the figure, wherein the input corresponds to a sphere measurement of the patient.
A personal care device comprising: an image capture device adapted, in use, to capture images of one or more features of a user; vibratory means adapted to vibrate the personal care device so that, in use, the personal care device vibrates with a vibration cycle having a vibration frequency; a sensor arrangement adapted to sense an operating parameter of the personal care device; and a control unit adapted to determine a target part of the vibration cycle based on the sensed operating parameter and to control the image capture device based on the target part of the vibration cycle. an image capture device adapted, in use, to capture images of one or more features of a user; vibratory means adapted to vibrate the personal care device so that, in use, the personal care device vibrates with a vibration cycle having a vibration frequency; a sensor arrangement adapted to sense an operating parameter of the personal care device; and a control unit adapted to determine a target part of the vibration cycle based on the sensed operating parameter and to control the image capture device based on the target part of the vibration cycle.
A catalysed membrane comprising a solid polymeric proton conducting membrane and a catalyst layer deposited on one or both faces of the solid polymeric proton conducting membrane, the catalyst layer comprising: (i) a first catalytic material, wherein the first catalytic material facilitates a hydrogen oxidation reaction; and (ii) a second catalytic material, wherein the second catalytic material facilitates an oxygen evolution reaction, wherein the second catalytic material comprises iridium or iridium oxide and one or more metals M or an oxide thereof, wherein M is selected from the group consisting of transition metals and Sn, and wherein the first catalytic material comprises a primary metal which is platinum, characterized in that the first catalytic material is supported on the second catalytic material. (i) a first catalytic material, wherein the first catalytic material facilitates a hydrogen oxidation reaction; and (ii) a second catalytic material, wherein the second catalytic material facilitates an oxygen evolution reaction, wherein the second catalytic material comprises iridium or iridium oxide and one or more metals M or an oxide thereof, wherein M is selected from the group consisting of transition metals and Sn, and wherein the first catalytic material comprises a primary metal which is platinum, characterized in that the first catalytic material is supported on the second catalytic material.
A method for signal transmission comprising: receiving, by a terminal, a second signal, the second signal being configured to indicate a first transmission resource, and the first transmission resource comprising at least one of a time-domain resource, a frequency-domain resource or a code-domain resource; receiving, by the terminal, a first signal on the first transmission resource , the first signal being configured to instruct to stop uplink transmission; and stopping, by the terminal in response to the first signal, uplink transmission on a time-domain resource of stopping uplink transmission obtained based on the first transmission resource and either a preconfigured time relationship between a starting point of the time-domain resource of stopping uplink transmission and a sequence of the first signal transmitted on the first transmission resource, or correspondences between time-domain resources of stopping uplink transmission and sequences of the first signal transmitted on the first transmission resource. receiving, by a terminal, a second signal, the second signal being configured to indicate a first transmission resource, and the first transmission resource comprising at least one of a time-domain resource, a frequency-domain resource or a code-domain resource; receiving, by the terminal, a first signal on the first transmission resource , the first signal being configured to instruct to stop uplink transmission; and stopping, by the terminal in response to the first signal, uplink transmission on a time-domain resource of stopping uplink transmission obtained based on the first transmission resource and either a preconfigured time relationship between a starting point of the time-domain resource of stopping uplink transmission and a sequence of the first signal transmitted on the first transmission resource, or correspondences between time-domain resources of stopping uplink transmission and sequences of the first signal transmitted on the first transmission resource.
A method of manufacturing an airless tire including a spoke unit , comprising: a first step of injection-molding a first spoke part , a second spoke part , a third spoke part and a fourth spoke part in a disc-like shape; a second step of forming a first spoke by fusing the first spoke part and the second spoke part ; a third step of forming a second spoke by fusing the third spoke part and the fourth spoke part ; a fourth step of forming the spoke unit by fusing the first spoke and the second spoke; a fifth step of applying an adhesive agent to an outer circumferential surface of the spoke unit after performing a sanding process and a solvent cleaning process; a sixth step of winding a first cushion gum on the outer circumferential surface of the spoke unit and applying an adhesive agent to an outer circumferential surface of the first cushion gum ; a seventh step of bonding a reinforcing layer to the outer circumferential surface of the first cushion gum and applying an adhesive agent to an outer circumferential surface of the reinforcing layer ; an eighth step of winding a second cushion gum on the outer circumferential surface of the reinforcing layer ; a ninth step of winding a tread rubber on an outer circumferential surface of the second cushion gum ; and a tenth step of putting a semi-finished product that has gone through the ninth step into a vulcanization machine and vulcanizing the semi-finished product. a first step of injection-molding a first spoke part , a second spoke part , a third spoke part and a fourth spoke part in a disc-like shape; a second step of forming a first spoke by fusing the first spoke part and the second spoke part ; a third step of forming a second spoke by fusing the third spoke part and the fourth spoke part ; a fourth step of forming the spoke unit by fusing the first spoke and the second spoke; a fifth step of applying an adhesive agent to an outer circumferential surface of the spoke unit after performing a sanding process and a solvent cleaning process; a sixth step of winding a first cushion gum on the outer circumferential surface of the spoke unit and applying an adhesive agent to an outer circumferential surface of the first cushion gum ; a seventh step of bonding a reinforcing layer to the outer circumferential surface of the first cushion gum and applying an adhesive agent to an outer circumferential surface of the reinforcing layer ; an eighth step of winding a second cushion gum on the outer circumferential surface of the reinforcing layer ; a ninth step of winding a tread rubber on an outer circumferential surface of the second cushion gum ; and a tenth step of putting a semi-finished product that has gone through the ninth step into a vulcanization machine and vulcanizing the semi-finished product.