mhurhangee/patent-ind-claim-en huggingface dataset:
An electric home appliance comprising: a sensing unit for sensing whether a human body is within a predetermined range; an input unit for allowing a user's input, the input unit being configured to be protruded or retreated based on a result sensed by the sensing unit ; and a controller for deciding whether to protrude or retreat the input unit based on presence or absence of the human body sensed by the sensing unit , wherein the sensing unit includes at least one of a camera, a kinetic sensor, an infrared sensor and an ultrasonic sensor, wherein the controller is configured to control the input unit to be protruded more outward than a display unit which is placed at the upper side of the front case of the electric home appliance, if the human body is sensed by the sensing unit . a sensing unit for sensing whether a human body is within a predetermined range; an input unit for allowing a user's input, the input unit being configured to be protruded or retreated based on a result sensed by the sensing unit ; and a controller for deciding whether to protrude or retreat the input unit based on presence or absence of the human body sensed by the sensing unit , wherein the sensing unit includes at least one of a camera, a kinetic sensor, an infrared sensor and an ultrasonic sensor, wherein the controller is configured to control the input unit to be protruded more outward than a display unit which is placed at the upper side of the front case of the electric home appliance, if the human body is sensed by the sensing unit .
A seal for a bearing arrangement for sealing an interior space between at least two parts of the bearing arrangement rotatable relatively to each other, in which the interior space contains a lubricant, wherein the seal comprises a seal part which is shaped for conveying the lubricant with a direction component pointing into the interior space , characterized in that the seal comprises a seal body connected to the seal part , wherein the seal part comprises an edge with a lubricant-guiding edge profile , which is a periodically repeated pattern, wherein the edge of the seal part protrudes the seal body into the interior space .
A method for processing signals, the method comprising: in a CMOS chip , receiving optical signals from one or more optical fibers via grating couplers (117A-117D) on a top surface of said CMOS chip ; converting said optical signals to electrical signals via one or more photodetectors (111A-111D) integrated in said CMOS chip ; processing said electrical signals using circuitry in said CMOS chip ; receiving a continuous-wave (CW) optical signal from a laser source via grating couplers on said top surface of said CMOS chip ; modulating said received CW optical signal using one or more optical modulators (105A-105D) integrated in said CMOS chip ; receiving electrical signals from circuitry in said CMOS chip ; driving said one or more optical modulators using said received electrical signals; and communicating said modulated optical signal out of said top surface of said CMOS chip into one or more optical fibers via one or more grating couplers (117E-117H) integrated in said CMOS chip; wherein said laser source is bonded to said top surface of said CMOS chip , wherein said laser source comprises an optical bench , a laser mount , a laser diode , a ball lens , an optical isolator , a mirror element , bond pads , a lid , and a support ring , wherein in operation, the CW optical signal is generated by the laser diode which is focused and/or collimated by the ball lens onto the optical isolator , wherein the CW optical signal is then reflected out of the laser source via the mirror element . receiving optical signals from one or more optical fibers via grating couplers (117A-117D) on a top surface of said CMOS chip ; converting said optical signals to electrical signals via one or more photodetectors (111A-111D) integrated in said CMOS chip ; processing said electrical signals using circuitry in said CMOS chip ; receiving a continuous-wave (CW) optical signal from a laser source via grating couplers on said top surface of said CMOS chip ; modulating said received CW optical signal using one or more optical modulators (105A-105D) integrated in said CMOS chip ; receiving electrical signals from circuitry in said CMOS chip ; driving said one or more optical modulators using said received electrical signals; and communicating said modulated optical signal out of said top surface of said CMOS chip into one or more optical fibers via one or more grating couplers (117E-117H) integrated in said CMOS chip; wherein said laser source is bonded to said top surface of said CMOS chip , wherein said laser source comprises an optical bench , a laser mount , a laser diode , a ball lens , an optical isolator , a mirror element , bond pads , a lid , and a support ring , wherein in operation, the CW optical signal is generated by the laser diode which is focused and/or collimated by the ball lens onto the optical isolator , wherein the CW optical signal is then reflected out of the laser source via the mirror element .
A locking device including: a rotary motor ; a worm drive arrangement including a worm and a gear ; and a pivotally mounted bolt which is rotatable between a retracted position in which the locking device is in an unlocked condition and an extended position in which the locking device is in a locked condition; the motor is arranged to drive the worm to rotate the gear ; as the gear rotates it cooperates with a cam formation associated with the bolt to move the bolt between the retracted and extended positions; and a return spring for moving the bolt from the extended to the retracted position, wherein when the bolt is in the extended position, an attempt to force the bolt to rotate to the retracted position sets up a force on the gear , and the direction of the force is substantially parallel to the direction of a line passing through the axis of rotation of the gear. a rotary motor ; a worm drive arrangement including a worm and a gear ; and a pivotally mounted bolt which is rotatable between a retracted position in which the locking device is in an unlocked condition and an extended position in which the locking device is in a locked condition; the motor is arranged to drive the worm to rotate the gear ; as the gear rotates it cooperates with a cam formation associated with the bolt to move the bolt between the retracted and extended positions; and a return spring for moving the bolt from the extended to the retracted position, wherein when the bolt is in the extended position, an attempt to force the bolt to rotate to the retracted position sets up a force on the gear , and the direction of the force is substantially parallel to the direction of a line passing through the axis of rotation of the gear.
Vertical explosive reactive armor (VERA), comprising a casing, a casing cover, an inert plate, a layer of explosive material, is mounted on military vehicle and is designed to protect against penetration of the penetrator, characterized in that the vertical explosive reactive armor has a casing upper limiter , two or more inert plates and two or more layers of the explosive material , a casing and a casing cover , which are arranged in the following order looking from the side from which the penetrator arrives: - a casing cover , - a casing upper limiter , - an open part of the casing , - an inert plate , - a layer of the explosive material , - an inert plate , - a layer of the explosive material , - a base of the casing , and the casing upper limiter is a part of the casing , which has a plate-shaped form, is present at the open part of the casing construction, is mounted on the casing wall at an angle, close to 90 degrees angle, and partially covers the inert plate . - a casing cover , - a casing upper limiter , - an open part of the casing , - an inert plate , - a layer of the explosive material , - an inert plate , - a layer of the explosive material , - a base of the casing ,
An agrochemical formulation comprising an agrochemical active and a dispersant polymer of structure (I) that is random, blocky, or star shaped copolymers where R 1 R 2 and R 3 are independently H, CH 3 , COOH and CH 2 COOH, where a, b and c are the mole percent of the individual groups so that a+b+c=100, a is from 0.1 to 50, and c is from 1 to 15 , wherein X is a linking group selected from the group consisting of: R hy is 2-ethyl hexyl or benzyl; B is a moiety derived from polymerizing acrylic acid or methacrylic acid and it salts; and C is a moiety derived from polymerizing 2-acrylamido-2-methylpropane sulfonic acid and it salts; and wherein said agrochemical active is selected from the group consisting of herbicides, insecticides, fungicides, biocides, molluscicides, algaicides, plant growth regulators, anthelmintics, rodenticides, nematocides, acaricides, amoebicides, protozoacides, crop safeners and adjuvants, wherein the number average molecular weight of structure (I) is less than 20,000. where R 1 R 2 and R 3 are independently H, CH 3 , COOH and CH 2 COOH, where a, b and c are the mole percent of the individual groups so that a+b+c=100, a is from 0.1 to 50, and c is from 1 to 15 , wherein X is a linking group selected from the group consisting of: R hy is 2-ethyl hexyl or benzyl; B is a moiety derived from polymerizing acrylic acid or methacrylic acid and it salts; and C is a moiety derived from polymerizing 2-acrylamido-2-methylpropane sulfonic acid and it salts; and
An imaging system for imaging of materials, comprising of: a plurality of conductive electrodes (11 - 14, 21) positionable in an environment to be imaged; a signal generator connected to at least two of the electrodes ; a signal detector connected to at least two of the electrodes; wherein the electrodes are supported on one or more conductive substrates ; an impedance compensator arranged to counter parasitic impedance between each electrode and its substrate, wherein the impedance compensator comprises a negative impedance, wherein the negative impedance comprises a negative capacitance, a negative resistance, or a negative inductance, or some combination thereof, and is connected between said electrode and its substrate, characterized in that the negative impedance is a variable negative impedance configured to be varied to match, or approximate to, a measured impedance between the electrode and its substrate . a plurality of conductive electrodes (11 - 14, 21) positionable in an environment to be imaged; a signal generator connected to at least two of the electrodes ; a signal detector connected to at least two of the electrodes; wherein the electrodes are supported on one or more conductive substrates ; an impedance compensator arranged to counter parasitic impedance between each electrode and its substrate, wherein the impedance compensator comprises a negative impedance, wherein the negative impedance comprises a negative capacitance, a negative resistance, or a negative inductance, or some combination thereof, and is connected between said electrode and its substrate, characterized in that the negative impedance is a variable negative impedance configured to be varied to match, or approximate to, a measured impedance between the electrode and its substrate .
Autonomous work device, in particular lawnmower robot, comprising at least one housing , comprising at least one, in particular drive-free, wheel unit , comprising at least one sensor unit for identifying a movement of the wheel unit relative to the housing , and comprising at least one open-loop control and/or closed-loop control unit at least for processing signals detected by means of the sensor unit , characterized in that the open-loop control and/or closed-loop control unit is designed to identify a stuck state and/or a caught state on the basis of identifying the movement of the at least one wheel unit relative to the housing by detecting a translational movement of the wheel unit along the vertical axis and/or by detecting a rotational movement of the wheel unit about the vertical axis using the sensor unit , wherein the vertical axis is formed substantially perpendicularly to a main direction of travel and to a wheel axle of the wheel unit .
A lithium secondary battery electrolyte, comprising an organic solvent, a conductive lithium salt, 2-propynyl methyl carbonate and an additive, characterized in that the additive is at least one selected from lithium difluorodioxalate phosphate, lithium tetrafluorooxalate phosphate, 1,3,2-dioxathiolane 2,2-dioxide and 1-propyl phosphate cyclic anhydride.
A gas turbine engine comprising: a compressor section including an aft most exit ; means for drawing air from the compressor section at a point upstream of the aft most exit ; an auxiliary compressor configured to receive air from the means for drawing air and discharge air to a turbine section ; an electric motor configured to drive the auxiliary compressor ; a first heat exchanger within an inlet passage between the means for drawing air and an inlet to the auxiliary compressor ; and a second heat exchanger disposed within an outlet passage between an outlet of the auxiliary compressor and the turbine section , characterised in that : the gas turbine engine further comprises a gear system driven by the electric motor for driving the auxiliary compressor . a compressor section including an aft most exit ; means for drawing air from the compressor section at a point upstream of the aft most exit ; an auxiliary compressor configured to receive air from the means for drawing air and discharge air to a turbine section ; an electric motor configured to drive the auxiliary compressor ; a first heat exchanger within an inlet passage between the means for drawing air and an inlet to the auxiliary compressor ; and a second heat exchanger disposed within an outlet passage between an outlet of the auxiliary compressor and the turbine section , characterised in that : the gas turbine engine further comprises a gear system driven by the electric motor for driving the auxiliary compressor .
Regulating method for a charged internal combustion engine , wherein, in the regulating method, an operating point of the compressor in a compressor map is adjusted by a compressor position regulator as a function of a throttle valve regulation deviation (dDK) in that both a first manipulated variable (αVBP) for actuating the compressor bypass valve and a second manipulated variable (αWG) for actuating the turbine bypass valve are calculated by the compressor position regulator , characterized in that , in the regulating method, the operating point of the compressor is corrected by a correction regulator as a function of an air mass regulation deviation (dmL) in that both a first correction variable (KORR1) for correcting the first manipulated variable (αVBP) and a second correction variable (KORR2) for correcting the second manipulated variable (αWG) are calculated by the correction regulator .
A clamping system for connecting a first and a second pipe whose facing ends have bearing surfaces (1'A, 2'A) protruding relative to the cylindrical external surface of said pipes, the system comprising a collar that can be clamped and a washer , the collar comprising a belt able to cooperate with said bearing surfaces by its internal periphery delimiting a recess into which the bearing surfaces can be inserted, the washer comprising an annular part disposed inside the belt and carrying support lugs which have a hook configured to hook on an edge of the belt and a link section which extends between the annular part and the hook , characterized in that the link section carries at least one retaining wing which is bent radially outwardly and which has a retaining edge spaced from the hook, the retaining wing having a width (I30D), measured axially, which decreases towards its free end (30D"), the edge of the belt being housed in the space formed between the retaining edge and the hook.
A reflection-type display structure with a high-brightness diffuse reflector, comprising panel glass, a display layer and substrate glass, wherein the reflector is made by a diffuse reflection polymer film material, wherein the diffuse reflection polymer film material is a PET-based material, and the thickness of which is 175-350 μm, the panel glass, the display layer, the substrate glass and the reflector are stacked in sequence, and the reflector is arranged under the substrate glass, wherein, an adhesive layer is arranged between the substrate glass and the diffuse reflection polymer film material, which is used for adhering the diffuse reflection polymer film material to the substrate side of the display structure; and the optical property of the adhesive layer is adapted to transmit the incident light and emergent light to penetrate through the adhesive layer.
Method for rejecting noise in audio signals in a vehicle , comprising: - providing a noise rejection filter designed to reject at least part of a noise component in an audio signal; - determining whether an emergency call is received or sent; and if this is the case: - reducing the noise rejection of the noise rejection filter compared with an operating state in which an emergency call is not received or sent. - providing a noise rejection filter designed to reject at least part of a noise component in an audio signal; - determining whether an emergency call is received or sent; - reducing the noise rejection of the noise rejection filter compared with an operating state in which an emergency call is not received or sent.
A method, comprising: operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset ; determining, by a telematics server , that the telematics device must operate in a non-interfering mode in which the telematics device does not send request frames to the asset ; sending, by the telematics server , to the telematics device , a command to cause the telematics device to operate in the non-interfering mode; and enabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server ; wherein determining that the telematics device must operate in the non-interfering mode comprises: receiving, at the telematics server , a user input from an operator terminal , the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server , that a location of the telematics device is within a zone defining a service center. operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset ; determining, by a telematics server , that the telematics device must operate in a non-interfering mode in which the telematics device does not send request frames to the asset ; sending, by the telematics server , to the telematics device , a command to cause the telematics device to operate in the non-interfering mode; and enabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server ; wherein determining that the telematics device must operate in the non-interfering mode comprises: receiving, at the telematics server , a user input from an operator terminal , the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server , that a location of the telematics device is within a zone defining a service center. receiving, at the telematics server , a user input from an operator terminal , the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server , that a location of the telematics device is within a zone defining a service center.
A method for determining a presence of damage in a structure , comprising: applying energy comprising applying a first low energy, a second high energy, and a third low energy to an excitation region of the structure to induce tension shockwaves in the structure, wherein the first low energy applies to induce first tension shockwaves, the second high energy applies to induce second tension shockwaves and the third low energy applies to induce third tension shockwaves; detecting first, second and third sound waves caused by the first, second and third tension shockwaves using at least two acoustic emission sensors positioned on and in contact with a surface of the structure , wherein at least one of the at least two acoustic emission sensors is movable along the surface of the structure ; and wherein at least one of the at least two acoustic emission sensors is positioned at a first distance away from the excitation region of the structure and the other of the at least two acoustic emission sensors is positioned at a second distance from the excitation region of the structure , said first and second distances being different from each other; and determining the presence of damage in the structure due to the applied first, second and third energy based on a comparison between the detected first and third sound waves. applying energy comprising applying a first low energy, a second high energy, and a third low energy to an excitation region of the structure to induce tension shockwaves in the structure, wherein the first low energy applies to induce first tension shockwaves, the second high energy applies to induce second tension shockwaves and the third low energy applies to induce third tension shockwaves; detecting first, second and third sound waves caused by the first, second and third tension shockwaves using at least two acoustic emission sensors positioned on and in contact with a surface of the structure , wherein at least one of the at least two acoustic emission sensors is movable along the surface of the structure ; and wherein at least one of the at least two acoustic emission sensors is positioned at a first distance away from the excitation region of the structure and the other of the at least two acoustic emission sensors is positioned at a second distance from the excitation region of the structure , said first and second distances being different from each other; and determining the presence of damage in the structure due to the applied first, second and third energy based on a comparison between the detected first and third sound waves.