mhurhangee/patent-ind-claim-en huggingface dataset:
Laboratory cabinet , for example a cooling cabinet, warming cabinet, drying cabinet or an incubation cabinet, with at least one outer door with a housing comprising an outer door locking device and having at least one inner chamber that can be closed with an inner door that has an inner door locking device , wherein the inner door locking device is a mechanical lock and in that the laboratory cabinet comprises first means that can be operated to unlock the inner door locking device when the outer door is closed and which are implemented such that, when the outer door is opened, the inner door also opens, characterized in that the first means are implemented as an electromagnet that is arranged on the outer door and on the inner door and which interacts, when in an activated state, with the other magnetisable element of the outer door and the inner door or with a different element arranged on the magnetisable element of the outer door and the inner door and the holding force of which is greater than the locking force of the mechanical lock.
A computer program for coding tiles and slices into which an image is partitioned, to generate a bitstream, the computer program comprising instructions which, when the program is executed by a computer, cause the computer to carry out the steps of: partitioning the image into the tiles and the slices; and coding the tiles and the slices resulting from the partitioning; wherein the type of each of the slices is either a normal slice type or a dependent slice type; a slice of the normal slice type is coded without referring to a different slice and has, in a header , information that is required to decode the slice, and can be used for a different slice; a slice of the dependent slice type is decoded using information included in a slice header of another slice; characterized in that when a first tile includes a normal slice starting from a position other than a beginning of the first tile, a second tile coded next to the first tile includes a normal slice starting from a beginning of the second tile. partitioning the image into the tiles and the slices; and coding the tiles and the slices resulting from the partitioning; wherein the type of each of the slices is either a normal slice type or a dependent slice type; a slice of the normal slice type is coded without referring to a different slice and has, in a header , information that is required to decode the slice, and can be used for a different slice; a slice of the dependent slice type is decoded using information included in a slice header of another slice; characterized in that when a first tile includes a normal slice starting from a position other than a beginning of the first tile, a second tile coded next to the first tile includes a normal slice starting from a beginning of the second tile.
An automatic movable machine for chamfering a pipe and a metal sheet, comprising a vertical plate , which is closely adhered to a cutting surface of a pipe or a metal sheet, and a support plate , which is closely adhered to the outside of the pipe or a top of the metal sheet, are fixed, in a perpendicular direction to each other, to a semicircular chamfering angle adjusting plate , which is installed in a head of a chamfering apparatus ; a vertical fixing plate is installed at a front of the vertical plate and a horizontal fixing plate is installed at an end of the vertical fixing plate to face the inside of the pipe or a bottom of the metal sheet; a moving body with an inscribing roller installed therein is provided above the horizontal fixing plate and is installed so as to be vertically movable in response to an inscribing roller adjustment screw installed on the horizontal fixing plate being rotated, and thus to be closely adhered to the inside of the pipe or the bottom of the metal sheet characterised in that the automatic movable machine further comprises J Z a fixing bolt is installed on the support plate , guides are installed on both sides of the fixing bolt , and the fixing bolt and the guides are inserted into holes formed on the fixing plate , which protrudes from, and is fixed at, the front of the gear box ; once the fixing plate is engaged with the fixing bolt , a fixing nut is inserted and tightened; circumscribing rollers , which protrude forward from both sides of the gear box and are closely adhered to the outside of the pipe or the top of the metal sheet, are rotated by receiving a force decelerated from a force of a motor from the gear box ; and the rotation of the motor is selected with a control panel .
A thrust producing unit for producing thrust in a predetermined direction , comprising at least two rotor assemblies and a shrouding that accommodates at most one of the at least two rotor assemblies , wherein the shrouding defines a cylindrical air duct that is axially delimited by an air inlet region and an air outlet region , and wherein the air inlet region exhibits in circumferential direction of the cylindrical air duct an undulated geometry; wherein the cylindrical air duct exhibits a height defined between the air outlet region and the air inlet region in axial direction of the cylindrical air duct that varies in circumferential direction of the cylindrical air duct , wherein the height that varies in the circumferential direction of the cylindrical air duct defines the undulated geometry of the air inlet region ; the cylindrical air duct comprising in circumferential direction a leading edge and a diametrically opposed trailing edge , a board side lateral shoulder and a diametrically opposed star board side lateral shoulder , the leading edge , in use, being arranged during forward flight of a multirotor aircraft in an upstream position with respect to the trailing edge , wherein the board side lateral shoulder and the star board side lateral shoulder are respectively arranged in the circumferential direction of the cylindrical air duct between the leading edge and the trailing edge , and wherein a height at the leading edge is smaller than a height at the board side lateral shoulder and/or the star board side lateral shoulder ; and wherein a first rotor assembly of the at least two rotor assemblies is arranged outside of the cylindrical air duct and adjacent to the air inlet region of the cylindrical air duct , the shrouding accommodating a second rotor assembly of the at least two rotor assemblies .
Composition comprising: (i) one or more acrylate-functionalized silicone polymers comprising a polysiloxane portion and a portion constituted of a non-silicone organic chain comprising one or more acrylate reactive groups; the non-silicone portion being grafted onto said polysiloxane portion in a side or end position, (ii) one or more silicones chosen from silicones functionalized with one or more mercapto groups, amino silicones, and mixtures thereof. (i) one or more acrylate-functionalized silicone polymers comprising a polysiloxane portion and a portion constituted of a non-silicone organic chain comprising one or more acrylate reactive groups; the non-silicone portion being grafted onto said polysiloxane portion in a side or end position, (ii) one or more silicones chosen from silicones functionalized with one or more mercapto groups, amino silicones, and mixtures thereof.
A method of determining concurrency factors for a kernel comprising workgroups in an application running on a parallel processor, the method comprising: partitioning the kernel into sequentially executed mini-kernels, each mini-kernel comprising a number of the workgroups that are executing concurrently, the number of the workgroups that are executing concurrently being a concurrency factor of the mini-kernel, wherein the concurrency factor of at least one of the mini-kernels is being greater than one; running at least a portion of the kernel as sequences of mini-kernels, wherein the at least a portion of the kernel is run repeatedly, wherein the concurrency factor of the mini-kernels in each sequence changes with each repetition; determining a performance measure of the parallel processor or the kernel for each of the executed sequences of mini-kernels; selecting , from the sequences of mini-kernels, a particular sequence of mini-kernels based on the performance measure; and executing , the kernel by executing the mini-kernels in the selected sequence. partitioning the kernel into sequentially executed mini-kernels, each mini-kernel comprising a number of the workgroups that are executing concurrently, the number of the workgroups that are executing concurrently being a concurrency factor of the mini-kernel, wherein the concurrency factor of at least one of the mini-kernels is being greater than one; running at least a portion of the kernel as sequences of mini-kernels, wherein the at least a portion of the kernel is run repeatedly, wherein the concurrency factor of the mini-kernels in each sequence changes with each repetition; determining a performance measure of the parallel processor or the kernel for each of the executed sequences of mini-kernels; selecting , from the sequences of mini-kernels, a particular sequence of mini-kernels based on the performance measure; and executing , the kernel by executing the mini-kernels in the selected sequence.
A calibrating system for calibrating a camera of a vehicle , the system comprising: - a base unit ; - a support structure connected to the base unit ; - a vehicle calibration assistance structure mounted on the support structure and including a target panel , which has a surface facing forward towards a service area , wherein the surface of the target panel bears a first combination of predetermined graphical features, the vehicle being positioned in the service area so that the camera of the vehicle can see the surface of the target panel ; - a processing system, operatively connected the vehicle calibration assistance structure to process data received from the vehicle calibration assistance structure in order to facilitate alignment or calibration of the camera of the vehicle ; - a positioning device , configured to aid a relative positioning between the vehicle and the vehicle calibration assistance structure , characterized in that the processing system is configured to display on the surface of the target panel an image which provides the first combination of predetermined graphical features visible to the camera of the vehicle . - a base unit ; - a support structure connected to the base unit ; - a vehicle calibration assistance structure mounted on the support structure and including a target panel , which has a surface facing forward towards a service area , wherein the surface of the target panel bears a first combination of predetermined graphical features, the vehicle being positioned in the service area so that the camera of the vehicle can see the surface of the target panel ; - a processing system, operatively connected the vehicle calibration assistance structure to process data received from the vehicle calibration assistance structure in order to facilitate alignment or calibration of the camera of the vehicle ; - a positioning device , configured to aid a relative positioning between the vehicle and the vehicle calibration assistance structure ,
A free space optical communication system comprising: a plurality of optical beam expanders arranged to receive incoming optical signals from ground sites and neighboring satellites; a plurality of optical preamplifiers arranged to preamplify the received optical signals; a single optical main amplifier arranged to amplify the preamplified optical signals; and an optical crossbar switch arranged to direct respective amplified optical signals to respective destinations via a respective optical beam expander, wherein respective amplified optical signals are inputted to a respective optical beam expander arranged to transmit to said respective destinations outgoing optical signals. a plurality of optical beam expanders arranged to receive incoming optical signals from ground sites and neighboring satellites; a plurality of optical preamplifiers arranged to preamplify the received optical signals; a single optical main amplifier arranged to amplify the preamplified optical signals; and an optical crossbar switch arranged to direct respective amplified optical signals to respective destinations via a respective optical beam expander, wherein respective amplified optical signals are inputted to a respective optical beam expander arranged to transmit to said respective destinations outgoing optical signals.
Isoinertial training apparatus, comprising a flywheel provided with a shaft , a flexible traction member connected to and windable to the same shaft and a supporting structure , fitted with an outlet hole for the traction member , characterised in that it comprises at least one sleeve slidable along the shaft of the traction member and of the flywheel so as to vary the effective diameter of the shaft on which the traction member can wind and unwind.
A substrate insertion system for insertion of a substrate under a product being carried on a conveyor , comprising: a support frame ; a substrate path for substrate that is to be fed; pull rollers mounted to the support frame along the substrate path, the pull rollers defining a pull roller nip through which the substrate is fed; tear rollers mounted to the support frame along the substrate path, the tear rollers defining a tear roller nip through which the substrate is fed; a pull roller drive and a tear roller drive , the pull roller drive and the tear roller drive being configured to be driven at different speeds; a controller that controls the pull roller drive and the tear roller drive ; a product sensor located along a product path defined by the conveyor ; a pre-perforated substrate supply provided in a substrate box , the substrate box including first and second opposing pairs of sidewalls and a top cover , the first opposing pair of sidewalls defining a first side-to-side guidance for the pre-perforated substrate supply, and the top cover defining an opening having a length that is less than 50% of a length of a leaf of the pre-perforated substrate supply, said leafs being arranged in a fan-folded manner in the substrate box .
Process to prepare an activated carbon product and a syngas mixture comprising hydrogen and carbon monoxide from a solid biomass feed comprising the following steps: (i) subjecting the solid biomass feed to a pyrolysis reaction thereby obtaining a gaseous fraction comprising hydrogen, carbon monoxide and a mixture of gaseous organic compounds and a solid fraction comprising of char particles having a reduced atomic hydrogen over carbon ratio and a reduced atomic oxygen over carbon ratio relative to the solid biomass feed and wherein the solid biomass feed are pellets of torrefied biomass and wherein char particles are obtained in step (i) as particles having substantially the same shape as the starting pellet of torrefied biomass, (ii) separating the char particles from the gaseous fraction, (iii) subjecting the gaseous fraction obtained in step (ii) to a continuously operated partial oxidation by reaction with oxygen having a purity of at least 90 vol.% to obtain a syngas mixture further comprising water and having an elevated temperature and (iv) activating the char particles as obtained in step (ii) to obtain the activated carbon product. (i) subjecting the solid biomass feed to a pyrolysis reaction thereby obtaining a gaseous fraction comprising hydrogen, carbon monoxide and a mixture of gaseous organic compounds and a solid fraction comprising of char particles having a reduced atomic hydrogen over carbon ratio and a reduced atomic oxygen over carbon ratio relative to the solid biomass feed and wherein the solid biomass feed are pellets of torrefied biomass and wherein char particles are obtained in step (i) as particles having substantially the same shape as the starting pellet of torrefied biomass, (ii) separating the char particles from the gaseous fraction, (iii) subjecting the gaseous fraction obtained in step (ii) to a continuously operated partial oxidation by reaction with oxygen having a purity of at least 90 vol.% to obtain a syngas mixture further comprising water and having an elevated temperature and (iv) activating the char particles as obtained in step (ii) to obtain the activated carbon product.
An orienting tool for use in wells, the orienting tool comprising: a housing , said housing containing: an orientation sensor , a processor and a flow control device ; the processor being configured to actuate the flow control device based on indications of the orientation sensor, and the flow control device controlling flow between an interior and an exterior of a body of the orienting tool to thereby transmit at least one signal indicative of an orientation of the body, the housing being outwardly extendable relative to the body.
An apparatus for determining a physiological functional parameter of a living being , the apparatus comprising: an image providing unit for providing ultrasound image data and Doppler image data of a vessel structure of the living being ; a registration unit configured to temporally and spatially align the ultrasound image data and the Doppler image data for registering the ultrasound image data and the Doppler image data to obtain a registered image data; a segmentation unit for segmenting the vessel structure in the registered image data, thereby generating a vessel structure segmentation; a representation generation unit for generating a representation of the vessel structure based on the vessel structure segmentation; a flow velocity determination unit for determining flow velocity values inside a vessel of the vessel structure based on the Doppler image data; and a physiological functional parameter determination unit for determining the physiological functional parameter of the living being , wherein the physiological functional parameter determination unit is adapted to a) provide a functional parameter determination model defining a functional physiological parameter in dependence of a representation of a vessel structure and flow velocity values inside a vessel of the vessel structure, and b) determine the physiological functional parameter by using the functional parameter determination model, the generated representation of the vessel structure and the determined flow velocity values. an image providing unit for providing ultrasound image data and Doppler image data of a vessel structure of the living being ; a registration unit configured to temporally and spatially align the ultrasound image data and the Doppler image data for registering the ultrasound image data and the Doppler image data to obtain a registered image data; a segmentation unit for segmenting the vessel structure in the registered image data, thereby generating a vessel structure segmentation; a representation generation unit for generating a representation of the vessel structure based on the vessel structure segmentation; a flow velocity determination unit for determining flow velocity values inside a vessel of the vessel structure based on the Doppler image data; and a physiological functional parameter determination unit for determining the physiological functional parameter of the living being , wherein the physiological functional parameter determination unit is adapted to a) provide a functional parameter determination model defining a functional physiological parameter in dependence of a representation of a vessel structure and flow velocity values inside a vessel of the vessel structure, and b) determine the physiological functional parameter by using the functional parameter determination model, the generated representation of the vessel structure and the determined flow velocity values.
A pulsed power drilling assembly for passing a pulsed electrical current through a substrate , said drilling assembly comprising: a drill bit ; a plurality of electrode sets of at least two electrodes disposed on said drill bit defining therebetween at least one electrode gap ; said electrodes of each said set oriented substantially along a face of said drill bit to pass current through the substrate ; a high-voltage pulsed power generator linked to said drill bit , delivering said pulsed current between said electrodes and through the substrate ; an electrical power source powering said pulsed power generator ; an electrical conduction conduit sending high-voltage pulses from said high-voltage pulse generator to said drill bit ; and a passage for delivering fluid down the said drilling apparatus; characterised by : a control system that varies or changes either or both a pulse repetition rate and a pulse energy among separate sets of electrodes of the plurality of electrode sets to change a direction of drilling. a drill bit ; a plurality of electrode sets of at least two electrodes disposed on said drill bit defining therebetween at least one electrode gap ; said electrodes of each said set oriented substantially along a face of said drill bit to pass current through the substrate ; a high-voltage pulsed power generator linked to said drill bit , delivering said pulsed current between said electrodes and through the substrate ; an electrical power source powering said pulsed power generator ; an electrical conduction conduit sending high-voltage pulses from said high-voltage pulse generator to said drill bit ; and a passage for delivering fluid down the said drilling apparatus; characterised by : a control system that varies or changes either or both a pulse repetition rate and a pulse energy among separate sets of electrodes of the plurality of electrode sets to change a direction of drilling.
A process for RFID certification of carton content, the process comprising: preparing a carton with at least one RFID-tagged item, wherein the RFID-tagged item is tagged with a first RFID inlay; placing the carton into a RFID read chamber and activating an RFID read process; sending a signal through at least one antenna of the RFID read chamber, wherein in response to the signal, the at least one RFID-tagged item is responding with a return signal to the RFID read chamber; communicating the return signal to a processing unit; printing a RFID Pack Certification label comprising a second RFID inlay, wherein the second RFID inlay comprises data allowing to determine the number of items present in the carton, wherein the second RFID inlay is larger than the first RFID inlay allowing to increase the distance at which the second RFID inlay can be read and allowing to validate the number and type of items in the carton by only scanning the RFID Pack Certification label; and applying the RFID Pack Certification label to the carton. preparing a carton with at least one RFID-tagged item, wherein the RFID-tagged item is tagged with a first RFID inlay; placing the carton into a RFID read chamber and activating an RFID read process; sending a signal through at least one antenna of the RFID read chamber, wherein in response to the signal, the at least one RFID-tagged item is responding with a return signal to the RFID read chamber; communicating the return signal to a processing unit; printing a RFID Pack Certification label comprising a second RFID inlay, wherein the second RFID inlay comprises data allowing to determine the number of items present in the carton, wherein the second RFID inlay is larger than the first RFID inlay allowing to increase the distance at which the second RFID inlay can be read and allowing to validate the number and type of items in the carton by only scanning the RFID Pack Certification label; and applying the RFID Pack Certification label to the carton. printing a RFID Pack Certification label comprising a second RFID inlay, wherein the second RFID inlay comprises data allowing to determine the number of items present in the carton, wherein the second RFID inlay is larger than the first RFID inlay allowing to increase the distance at which the second RFID inlay can be read and allowing to validate the number and type of items in the carton by only scanning the RFID Pack Certification label; and applying the RFID Pack Certification label to the carton.