mhurhangee/patent-ind-claim-en huggingface dataset:
Multifunctional unit for reading and processing of soil parameters of soil sample, mounted on a frame of a trailed agricultural equipment, which includes an electronic processing and a storage system of the command and control unit (UCC), a GPS and a portable computer, a coulter in the form of lying "V", with the tip of the coulter oriented from a mounting bracket on the frame towards a forward direction, the coulter comprising a tube with a spheric head provided with a hole for taking soil sample, a gutter through which the soil circulates or stands from which the samples can be taken, a shutter configured to stop the soil inside the gutter for reading of the parameters and allows the soil sample to be taken into the gutter , a linear actuator configured for actuating the shutter vertically between the end positions of a slider, a transducer for determining soil humidity and soil temperature and a soil pH through two sensors (S1, S2), which are mounted in solidarity with the shutter .
Support vehicle for performing support operations in an automated storage and retrieval system , where the support vehicle comprises: - a vehicle body ; - a drive system comprising wheels provided in a lower part of the vehicle body , the drive system being configured to drive the support vehicle along a track system of the automated storage and retrieval system ; - a connection system provided on a first side of the support vehicle ; characterized in that - the connection system comprises a connector member protruding through an aperture of the vehicle body ; - the connection system comprises an actuator for moving the connector member in the aperture in relation to the vehicle body ; - the connection system is connectable to and disconnectable from a connection interface (CI); - the support vehicle comprises an additional support unit (60; 60a; 60b; 60c; 60d), where the connection interface (CI) is fixed to the additional support unit (60; 60a; 60b; 60c; 60d); - the additional support unit (60; 60a; 60b; 60c; 60d) is a counterweight unit for balancing the support vehicle . - a vehicle body ; - a drive system comprising wheels provided in a lower part of the vehicle body , the drive system being configured to drive the support vehicle along a track system of the automated storage and retrieval system ; - a connection system provided on a first side of the support vehicle ; - the connection system comprises a connector member protruding through an aperture of the vehicle body ; - the connection system comprises an actuator for moving the connector member in the aperture in relation to the vehicle body ; - the connection system is connectable to and disconnectable from a connection interface (CI); - the support vehicle comprises an additional support unit (60; 60a; 60b; 60c; 60d), where the connection interface (CI) is fixed to the additional support unit (60; 60a; 60b; 60c; 60d); - the additional support unit (60; 60a; 60b; 60c; 60d) is a counterweight unit for balancing the support vehicle .
Overflow for a sink (1, 1', 1"), having at least one inlet opening which is intended for mounting on a basin or an overflow tray or a separate drain outlet (2") of the sink (1, 1', 1"), and having an outlet opening which is intended for mounting at an outlet or venting valve of the sink (1, 1', 1"), wherein between the inlet opening and the outlet opening there is arranged a flow channel for a fluid , there being provided in the flow channel at least one section (20.1-20.4; 20.5) in which the flow channel has a substantially circular cross-section, characterised in that a plurality of such sections of circular cross-section (20.1-20.4) are arranged in parallel in the flow channel , the sections (20.1-20.4) being arranged one next to the other, triangle-like, offset or in a zig-zag, in each case in relation to the position of their centre points.
A method of compressing a video signal for transmission to a decoder of a receiving terminal, the method comprising: receiving a video signal comprising a plurality of frames, each frame comprising a plurality of portions of video data; transforming each of said portions into a transform domain, so as for each portion to generate transformed video data comprising a set of transform domain coefficients, each transform domain coefficient representing a contribution to one of a luminance and a colour of the portion at a different spatial and/or temporal frequency; and for each of a plurality of target ones of said portions, generating difference data representing a difference between the transform domain coefficients of the target image portion and transform domain coefficients of a respective reference portion; encoding the difference data by an entropy encoder and outputting the difference data in an encoded bitstream; and prior to generating the difference data, modifying one or more of the transform domain coefficients of at least one of said target and reference portions based on a measure of human sensitivity to a visual structure of the video data, thereby reducing a number of bits required to encode the difference data; and wherein: the modification reduces a magnitude of the difference data; and/or the modification reduces a variation in said difference data so as to reduce entropy. receiving a video signal comprising a plurality of frames, each frame comprising a plurality of portions of video data; transforming each of said portions into a transform domain, so as for each portion to generate transformed video data comprising a set of transform domain coefficients, each transform domain coefficient representing a contribution to one of a luminance and a colour of the portion at a different spatial and/or temporal frequency; and for each of a plurality of target ones of said portions, generating difference data representing a difference between the transform domain coefficients of the target image portion and transform domain coefficients of a respective reference portion; encoding the difference data by an entropy encoder and outputting the difference data in an encoded bitstream; and prior to generating the difference data, modifying one or more of the transform domain coefficients of at least one of said target and reference portions based on a measure of human sensitivity to a visual structure of the video data, thereby reducing a number of bits required to encode the difference data; and wherein: the modification reduces a magnitude of the difference data; and/or the modification reduces a variation in said difference data so as to reduce entropy.
An agricultural trench depth sensing system , comprising: a trench implement for placement in a soil trench opened in a soil surface; characterized by an ultrasonic target attached to a top of said trench implement ; and a row unit supporting an arm having an ultrasonic transceiver disposed thereon. a trench implement for placement in a soil trench opened in a soil surface; characterized by an ultrasonic target attached to a top of said trench implement ; and a row unit supporting an arm having an ultrasonic transceiver disposed thereon.
An antibody that specifically binds transthyretin comprising a mature heavy chain variable region having an amino acid sequence of SEQ ID NO:9 and a mature light chain variable region having an amino acid sequence of SEQ ID NO: 17.
A camera module, comprising: a lens part ; a hollowed front body accommodating the lens part in an inner space; a board part disposed at a rear side of the front body and formed with a plurality of PCBs (Printed Circuit Boards) ; a first fence coupled to the board to mutually space the plurality of PCBs apart to an optical axis direction; a second fence coupled to a rear side of the first fence ; and a finger electrically connecting the board part and the second fence characterized in that the finger includes a board coupling part coupled to a board of saic board part , and an elastic deformation part extensively formed from the board coupling part , and in that the second fence and the elastic deformation part are mutually electrically connected. a lens part ; a hollowed front body accommodating the lens part in an inner space; a board part disposed at a rear side of the front body and formed with a plurality of PCBs (Printed Circuit Boards) ; a first fence coupled to the board to mutually space the plurality of PCBs apart to an optical axis direction; a second fence coupled to a rear side of the first fence ; and a finger electrically connecting the board part and the second fence characterized in that the finger includes a board coupling part coupled to a board of saic board part , and an elastic deformation part extensively formed from the board coupling part , and in that the second fence and the elastic deformation part are mutually electrically connected.
A method of selectively catalysing the reduction of oxides of nitrogen (NO x ) including nitrogen monoxide in an exhaust gas of a stationary source of NO x emissions, which exhaust gas also containing oxides of sulfur (SO x ), wherein the stationary source of NO x emissions is a cogeneration plant comprising a heat recovery steam generator, which method comprising the steps of passively oxidising nitrogen monoxide to nitrogen dioxide over an oxidation catalyst comprising a platinum group metal so that a NO 2 /NO x content is from 40-60%; introducing a nitrogenous reductant into the exhaust gas; and contacting exhaust gas having the 40-60% NO 2 /NO x content and containing the nitrogenous reductant with a selective catalytic reduction (SCR) catalyst comprising an aluminosilicate zeolite promoted with copper, wherein the platinum group metal in the oxidation catalyst is platinum supported on a particulate support and is disposed on a substrate at 0.0353-1.41 g/L (1-40 g/ft3) and wherein the support for the platinum group metal is silica-doped alumina, titania or optionally doped zirconia.
Method for autonomously parking a motor vehicle , in which the motor vehicle is positioned in a start position , wherein the start position is associated with a parking area with a plurality of parking spaces , by means of a parking control device , one of the parking spaces is selected for parking for the motor vehicle and a trajectory for autonomously moving the motor vehicle from the start position to the selected parking space is determined, wherein interior data describing an interior of the motor vehicle is received by means of the parking control device , and it is examined based on the received interior data if a living entity is in the interior of the motor vehicle , and the moving of the motor vehicle along the determined trajectory remains undone if the living entity is in the interior , wherein the interior data is determined by means of an interior control device and is transmitted to the parking control device , wherein the interior data is determined based on sensor data by means of the interior control device , which is provided by at least one interior sensor , characterized in that a warning signal is output by means of the parking control device if the living entity is in the interior and a driver of the motor vehicle is located outside of the motor vehicle , wherein the sensor data provided by the at least one interior sensor describes a trunk of the motor vehicle . wherein interior data describing an interior of the motor vehicle is received by means of the parking control device , and it is examined based on the received interior data if a living entity is in the interior of the motor vehicle , and the moving of the motor vehicle along the determined trajectory remains undone if the living entity is in the interior , wherein the interior data is determined by means of an interior control device and is transmitted to the parking control device , wherein the interior data is determined based on sensor data by means of the interior control device , which is provided by at least one interior sensor , characterized in that a warning signal is output by means of the parking control device if the living entity is in the interior and a driver of the motor vehicle is located outside of the motor vehicle , wherein the sensor data provided by the at least one interior sensor describes a trunk of the motor vehicle .
A vision assistive device characterized by comprising: a housing having a base for positioning the housing on a surface , a top portion , and a front wall , back wall , and side walls connecting the base to the top portion and together defining an inner volume of the housing , wherein the top portion protrudes outward from the front wall of the housing ; two imaging units (44a and 44b) spaced apart from one another and integrated within the top portion of the housing , each imaging unit being stationary with respect to the housing and angled downward so a central axis of each imaging unit forms an acute angle with the surface wherein the two imaging units (44a and 44b) are configured to capture overlapping portions of a target image from a target object ; and a control system accommodated within the inner volume of the housing , the control system being programmed to combine the overlapping portions of the target image. a housing having a base for positioning the housing on a surface , a top portion , and a front wall , back wall , and side walls connecting the base to the top portion and together defining an inner volume of the housing , wherein the top portion protrudes outward from the front wall of the housing ; two imaging units (44a and 44b) spaced apart from one another and integrated within the top portion of the housing , each imaging unit being stationary with respect to the housing and angled downward so a central axis of each imaging unit forms an acute angle with the surface wherein the two imaging units (44a and 44b) are configured to capture overlapping portions of a target image from a target object ; and a control system accommodated within the inner volume of the housing , the control system being programmed to combine the overlapping portions of the target image.
A primer composition, comprising: a) 5 wt% to 70 wt% of a binder including: i) 1 wt% to 40 wt% polyvinyl alcohol ii) 1 wt% to 20 wt% starch nanoparticles having an average diameter from 1 nm to 1 μm; and iii) 10 wt% to 70 wt% polymer latex dispersion, b) 1 wt% to 20 wt% of a wax; c) 10 wt% to 50 wt% of a cationic salt; and d) water, wherein components (a) to (c) are present in an amount of all dry components of the primer composition. a) 5 wt% to 70 wt% of a binder including: i) 1 wt% to 40 wt% polyvinyl alcohol ii) 1 wt% to 20 wt% starch nanoparticles having an average diameter from 1 nm to 1 μm; and iii) 10 wt% to 70 wt% polymer latex dispersion, i) 1 wt% to 40 wt% polyvinyl alcohol ii) 1 wt% to 20 wt% starch nanoparticles having an average diameter from 1 nm to 1 μm; and iii) 10 wt% to 70 wt% polymer latex dispersion, b) 1 wt% to 20 wt% of a wax; c) 10 wt% to 50 wt% of a cationic salt; and d) water,
Optical device comprising at least one rigid printed circuit board , said printed circuit board comprising an image-capturing electronic circuit ; a lens support comprising at least one optical lens , the lens support comprising a wall forming a cavity extending along the optical axis (O) of the device from its high end as far as its low end , the low end being mounted on the rigid printed circuit board in such a way as to align, along the optical axis (O) of the device , the image-capturing electronic circuit and optical lens ; and a flexible heating strip located in contact with the wall of the lens support and around the wall of the lens support , and comprising an electrical connection interface electrically connected to the said rigid printed circuit board of the optical device ; characterized in that the said printed circuit board , the said heating strip , and the said electrical connection interface are one single printed circuit board, comprising a rigid main portion comprising the said rigid printed circuit board , and a flexible portion comprising the flexible heating strip and an extension forming the electrical connection interface , the said flexible portion being a continuity of the substrate of the rigid main part, and the two longitudinal ends of the heating strip comprise attachment means which lock the heating strip against the wall of the lens support . at least one rigid printed circuit board , said printed circuit board comprising an image-capturing electronic circuit ; a lens support comprising at least one optical lens , the lens support comprising a wall forming a cavity extending along the optical axis (O) of the device from its high end as far as its low end , the low end being mounted on the rigid printed circuit board in such a way as to align, along the optical axis (O) of the device , the image-capturing electronic circuit and optical lens ; and a flexible heating strip located in contact with the wall of the lens support and around the wall of the lens support , and comprising an electrical connection interface electrically connected to the said rigid printed circuit board of the optical device ; characterized in that the said printed circuit board , the said heating strip , and the said electrical connection interface are one single printed circuit board, comprising a rigid main portion comprising the said rigid printed circuit board , and a flexible portion comprising the flexible heating strip and an extension forming the electrical connection interface , the said flexible portion being a continuity of the substrate of the rigid main part, and the two longitudinal ends of the heating strip comprise attachment means which lock the heating strip against the wall of the lens support .
Vehicle having a rear air guide device comprising at least one first air guide element , wherein a control device moves the at least one first air guide element between a first terminal position and a second terminal position which prolongs a body element , wherein the at least one first air guide element is mounted to pivot between the first terminal position and the second terminal position, wherein in the second terminal position at least one second air guide element coupled to the at least one first air guide element spans a gap between the at least one first air guide element and the body element , wherein the body element is designed as a tailgate , wherein in the first terminal position a first upper inflow surface (21.2A, 21.2B) of the at least one first air guide element prolongs an upper side (11.4) of a roof element (11. 2) and an upper region of the tailgate , and wherein the first upper inflow surface (21.2B) of the at least one first air guide element is arranged flush with the upper side (11.4) of the roof element (11.2) and with the upper region of the tailgate .
A computer implemented method for enabling secure processing of data using an untrusted processing application configured to process the data, the method comprising within a secure application framework running in a trusted execution environment and controlling all input to and output from the untrusted processing application: receiving (S210) the data encrypted using a first random key; receiving (S215) the first random key in a secure way; decrypting (S220) the encrypted data using the first random key, thereby obtaining the data; inputting (S225) the data to the untrusted processing application; executing (S230) the untrusted processing application to process the inputted data; receiving (S235) output data from the untrusted processing application; generating (S240) a second random key; encrypting (S245) the output data using the second random key; encrypting (S250) the second random key using a public key of a storage device; and sending (S255) the encrypted output data and the encrypted second random key to the storage device, wherein the storage device is located outside the trusted execution environment. receiving (S210) the data encrypted using a first random key; receiving (S215) the first random key in a secure way; decrypting (S220) the encrypted data using the first random key, thereby obtaining the data; inputting (S225) the data to the untrusted processing application; executing (S230) the untrusted processing application to process the inputted data; receiving (S235) output data from the untrusted processing application; generating (S240) a second random key; encrypting (S245) the output data using the second random key; encrypting (S250) the second random key using a public key of a storage device; and sending (S255) the encrypted output data and the encrypted second random key to the storage device, wherein the storage device is located outside the trusted execution environment.
Vehicle body box for a vehicle comprising a covering , which extends on an outer side of the vehicle body box , wherein the covering is screwed to the vehicle body box by means of at least one compensating element for stepless tolerance compensation in the transverse direction of the vehicle such that the covering is level regardless of irregularities of the vehicle body box .
Dust container for a vacuum cleaner, the dust container comprising a dust bag , made of an air permeable material, and a connector plate , surrounding an opening in the dust bag , whereby the connector plate can correctly position the opening within a vacuum cleaner by the connector plate being inserted in a holder of the vacuum cleaner, characterized by the connector plate extending in a main plane, comprising an injection molded plastic material and having a living hinge allowing a part of the connector plate to be flexed out of the main plane, wherein the living hinge comprises a reinforcement flange stiffening the living hinge until the reinforcement flange is broken.