mhurhangee/patent-ind-claim-en huggingface dataset:
Device for changing work tools on a loading crane, comprising a first coupling member on the work tool side or the loading crane side with a receiving opening and a second coupling member on the loading crane side or the work tool side with a guide member extending along a longitudinal axis , which guide member is engageable with the receiving opening of the first coupling member by movement of the first coupling member and the second coupling member towards each other in the direction of the longitudinal axis , wherein the first coupling member comprises a support surface for axial abutment of the second coupling member and the second coupling member comprises a bearing surface corresponding to the support surface and at least one locking element which can be moved by means of a drive transversely to the longitudinal axis of the second coupling member between a release position and a holding position, characterized in that the locking element has a clamping surface for frictionally abutting the first coupling member and in that the first coupling member has an abutment surface corresponding to the clamping surface for backlash-free axial clamping of the first coupling member and the second coupling member .
A cryoablation device, comprising: an annular mapping catheter ; and a cryoballoon catheter , wherein the annular mapping catheter is adapted to be used with the cryoballoon catheter ; wherein the annular mapping catheter comprises a catheter body , wherein the catheter body has a distal end and a proximal end, a distal assembly is disposed at the distal end of the catheter body , and a handle is disposed at the proximal end of the catheter body ; the distal assembly is composed of a head tube having a shape memory function, and the distal assembly presents a predetermined bend comprising an annular portion and a vertical portion in a free state, and the vertical portion connects the annular portion to the catheter body ; and the distal assembly is provided with electrodes ; characterized in that two groups of electrodes are distributed on the distal assembly , wherein the annular portion of the distal assembly is provided with one group of electrodes , and the vertical portion of the distal assembly is provided with the other group of electrodes ; and that the predetermined bend is formed such that, in a free state, the vertical portion extends toward the distal end at least partially beyond the annular portion . an annular mapping catheter ; and a cryoballoon catheter , wherein the annular mapping catheter is adapted to be used with the cryoballoon catheter ; wherein the annular mapping catheter comprises a catheter body , wherein the catheter body has a distal end and a proximal end, a distal assembly is disposed at the distal end of the catheter body , and a handle is disposed at the proximal end of the catheter body ; the distal assembly is composed of a head tube having a shape memory function, and the distal assembly presents a predetermined bend comprising an annular portion and a vertical portion in a free state, and the vertical portion connects the annular portion to the catheter body ; and the distal assembly is provided with electrodes ; characterized in that two groups of electrodes are distributed on the distal assembly , wherein the annular portion of the distal assembly is provided with one group of electrodes , and the vertical portion of the distal assembly is provided with the other group of electrodes ; and that the predetermined bend is formed such that, in a free state, the vertical portion extends toward the distal end at least partially beyond the annular portion .
Field effect transistor device, comprising: - a substrate of semiconductor material, - a body well of a first type of electric conductivity in the substrate, - a source region in the body well , the source region having an opposite second type of electric conductivity, - a source contact on the source region , - a body contact region of the first type of electric conductivity in the body well , - a body contact on the body contact region , and - a gate electrode layer partially overlapping the body well , wherein - the source contact is one of a plurality of source contacts on a straight line, - the body contact is one of a plurality of body contacts arranged on the straight line at a distance (d) from one another, and - a portion (2*) of the gate electrode layer is present on the straight line between the source contact and the body contact . - a substrate of semiconductor material, - a body well of a first type of electric conductivity in the substrate, - a source region in the body well , the source region having an opposite second type of electric conductivity, - a source contact on the source region , - a body contact region of the first type of electric conductivity in the body well , - a body contact on the body contact region , and - a gate electrode layer partially overlapping the body well , wherein - the source contact is one of a plurality of source contacts on a straight line, - the body contact is one of a plurality of body contacts arranged on the straight line at a distance (d) from one another, and - a portion (2*) of the gate electrode layer is present on the straight line between the source contact and the body contact .
Authentication method, by an industrial printer, of at least one consumable or detachable element , the printer comprising a 1 st microcontroller intended to manage the controlling of the printing functions of the printer and to perform a data transfer with a 2 nd microcontroller of the printer intended to be used as a communication interface with the consumable or detachable element , this method comprising at least: a) one authentication of the 2 nd microcontroller by the 1 st microcontroller , then, after this authentication, b) a sending, by one of the microcontrollers to another microcontroller , of at least one first data transfer secret key Sk1 between the two microcontrollers , then c) a data exchange between the two microcontrollers by symmetric encryption using the first data transfer secret key Sk1, and further comprising an authentication of the consumable or detachable element by the 2 nd microcontroller by using a secret authentication key K_AUTH stored in the printer and in the consumable or detachable element . a) one authentication of the 2 nd microcontroller by the 1 st microcontroller , then, after this authentication, b) a sending, by one of the microcontrollers to another microcontroller , of at least one first data transfer secret key Sk1 between the two microcontrollers , then c) a data exchange between the two microcontrollers by symmetric encryption using the first data transfer secret key Sk1,
An apparatus , comprising: a protective headgear ; a sensor element integrated within the protective headgear , wherein the sensor element is attached or rigidly bonded on an inner surface of the protective headgear ; and characterised by : an actuator element integrated within the protective headgear ; a processor element electronically coupled to the actuator element and the sensor element , wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear ; and receive a first output from the sensor element in response to the first ultrasonic wave. a protective headgear ; a sensor element integrated within the protective headgear , wherein the sensor element is attached or rigidly bonded on an inner surface of the protective headgear ; and characterised by : an actuator element integrated within the protective headgear ; a processor element electronically coupled to the actuator element and the sensor element , wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear ; and receive a first output from the sensor element in response to the first ultrasonic wave. an actuator element integrated within the protective headgear ; a processor element electronically coupled to the actuator element and the sensor element , wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear ; and receive a first output from the sensor element in response to the first ultrasonic wave. cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear ; and receive a first output from the sensor element in response to the first ultrasonic wave.
An apparatus for thermal treatment of a mineral starting material, wherein the apparatus comprises a calciner , wherein the calciner comprises at least a first calciner section and a second calciner section , wherein the first calciner section is arranged vertically, wherein the second calciner section is arranged at an incline, wherein the second calciner section has an angle α between the horizontal and the flow direction of the second calciner section , wherein the angle α is between 20° and 80°, wherein the first calciner section has a first hydraulic diameter d h,1 , wherein the second calciner section has a second hydraulic diameter d h,2 , wherein the second hydraulic diameter d h,2 is less than or equal to the first hydraulic diameter d h,1 multiplied by the sine of the angle α.
A method of producing a zeolite-metal chloride hybrid moisture adsorbent, the method comprising the steps of: i) dissolving a metal chloride into water to prepare a first solution; ii) mixing a porous zeolite including a ferroaluminophosphate zeolite with the first solution to prepare a second solution; iii) spraying the second solution to form droplets having a predetermined average particle diameter, and; iv) drying the droplets to produce a moisture adsorbent, wherein the steps iii) and iv) are performed by using a spray dryer ; and wherein the step iii) or the step iv) is conducted at 100 to 150 °C. i) dissolving a metal chloride into water to prepare a first solution; ii) mixing a porous zeolite including a ferroaluminophosphate zeolite with the first solution to prepare a second solution; iii) spraying the second solution to form droplets having a predetermined average particle diameter, and; iv) drying the droplets to produce a moisture adsorbent, wherein the steps iii) and iv) are performed by using a spray dryer ; and wherein the step iii) or the step iv) is conducted at 100 to 150 °C.
Method for determining position information of a motor vehicle , which has an inductive charging device with at least one charging coil , which is in particular arranged in the region of a vehicle floor, and a measurement means assigned to the charging coil for measuring a magnetic field, having the following steps: - magnetising, by supplying current to the charging coil , at least one magnetic structure (9, 9a-9d) which is arranged in or on a subsurface on which the motor vehicle drives, wherein the structure (9, 9a-9d) and further structures (9, 9a-9d) are stored together with a position indication for the respective structure (9, 9a-9d) in a digital map, - measuring, using the measurement means , measurement data which describe the magnetic behaviour of the structure (9, 9a-9d), - identifying the structure (9, 9a-9d) by evaluating the measurement data and determining the position information depending on the position indication assigned to the identified structure (9, 9a-9d). - magnetising, by supplying current to the charging coil , at least one magnetic structure (9, 9a-9d) which is arranged in or on a subsurface on which the motor vehicle drives, wherein the structure (9, 9a-9d) and further structures (9, 9a-9d) are stored together with a position indication for the respective structure (9, 9a-9d) in a digital map, - measuring, using the measurement means , measurement data which describe the magnetic behaviour of the structure (9, 9a-9d), - identifying the structure (9, 9a-9d) by evaluating the measurement data and determining the position information depending on the position indication assigned to the identified structure (9, 9a-9d).
Method for an, in particular at least largely automated, measurement of tools , in particular reamers , which comprise support bars and/or at least one cutter bar , by means of a tool presetting and/or tool measuring apparatus with at least one optics unit for a contact-free measuring of the tools , in particular the reamers , preferably of at least one cutting edge of the reamers , wherein at least one support bar and/or at least one cutting bar of at least one tool , in particular reamer , is at least partially captured in a contact-free manner by a support bar and/or cutting bar capturing unit of the tool presetting and/or tool measuring apparatus , characterised in that a true-running of the tool is captured in a contact-free manner by a true-running capturing unit of the support bar and/or cutting bar capturing unit , wherein for a superposition of a centre point of the support bars with a rotary axis of the tool , in particular the reamer , at least one parameter for a setting dimension of the support bars is determined by the true-running capturing unit using a control unit of the tool presetting and/or tool measuring apparatus , and wherein an automatic positioning of the tool , in particular the reamer , into at least one adjustment position of the tool , in particular the reamer , is carried out by a positioning unit of the tool presetting and/or tool measuring apparatus on the basis of data captured by means of the support bar and/or cutting bar capturing unit , wherein the adjustment position is at least one position of the tool , in particular the reamer , with respect to the tool presetting and/or tool measuring apparatus , which is configured to make a support bar and/or cutting bar that is to be adjusted easily accessible for an operator. characterised in that a true-running of the tool is captured in a contact-free manner by a true-running capturing unit of the support bar and/or cutting bar capturing unit , wherein for a superposition of a centre point of the support bars with a rotary axis of the tool , in particular the reamer , at least one parameter for a setting dimension of the support bars is determined by the true-running capturing unit using a control unit of the tool presetting and/or tool measuring apparatus , and wherein an automatic positioning of the tool , in particular the reamer , into at least one adjustment position of the tool , in particular the reamer , is carried out by a positioning unit of the tool presetting and/or tool measuring apparatus on the basis of data captured by means of the support bar and/or cutting bar capturing unit , wherein the adjustment position is at least one position of the tool , in particular the reamer , with respect to the tool presetting and/or tool measuring apparatus , which is configured to make a support bar and/or cutting bar that is to be adjusted easily accessible for an operator.
A spinal correction system comprising: a first rod configured to extend along a first side of a spine; a first stabilization member configured to extend along the first side of the spine, the first stabilization member configured to laterally constrain the first rod while allowing the first rod to slide axially and to change in pitch, yaw, and roll about a first pivot point (PIB); a first rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the first stabilization member while allowing the first stabilization member to slide axially and to change in pitch, yaw, and roll about a second pivot point; a second rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the first stabilization member while preventing the first stabilization member from sliding axially and from changing in pitch, yaw, and roll; a second stabilization member configured to extend along a second side of the spine; a third rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the second stabilization member while allowing the second stabilization member to slide axially and to change in pitch, yaw, and roll about a third pivot point; and a fourth rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the second stabilization member while preventing the second stabilization member from sliding axially and from changing in pitch, yaw, and roll. a first rod configured to extend along a first side of a spine; a first stabilization member configured to extend along the first side of the spine, the first stabilization member configured to laterally constrain the first rod while allowing the first rod to slide axially and to change in pitch, yaw, and roll about a first pivot point (PIB); a first rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the first stabilization member while allowing the first stabilization member to slide axially and to change in pitch, yaw, and roll about a second pivot point; a second rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the first stabilization member while preventing the first stabilization member from sliding axially and from changing in pitch, yaw, and roll; a second stabilization member configured to extend along a second side of the spine; a third rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the second stabilization member while allowing the second stabilization member to slide axially and to change in pitch, yaw, and roll about a third pivot point; and a fourth rod anchor configured to be secured to a vertebra of the spine and to laterally constrain the second stabilization member while preventing the second stabilization member from sliding axially and from changing in pitch, yaw, and roll.
A selective catalyst reduction system for use with a combustion gas stream of a gas turbine , comprising: an inlet configured to be positioned about the gas turbine ; a combined ammonia-tempering air injection grid positioned about the inlet and comprising a plurality of air injection lances for providing a flow of tempering air and a plurality of ammonia injection lances for providing a flow of ammonia, the plurality of air injection lances being in communication with a source of tempering air via one or more tempering air conduits and the plurality of ammonia injection lances being in communication with an ammonia source via one or more ammonia conduits different from the one or more tempering air conduits , the air injection lances and the ammonia injection lances being separate structures with dedicated spray nozzles and/or using dual fluid nozzles, wherein the plurality of air injection lances and the plurality of ammonia injection lances are positioned at the same location in the direction of flow of the combustion gas stream ; and a catalyst positioned downstream of the combined ammonia-tempering air injection grid ; wherein the combined ammonia-tempering air injection grid is configured to inject tempering air through the plurality of air injection lances and ammonia through the plurality of ammonia injection lances into the combustion gas stream upstream of the catalyst . an inlet configured to be positioned about the gas turbine ; a combined ammonia-tempering air injection grid positioned about the inlet and comprising a plurality of air injection lances for providing a flow of tempering air and a plurality of ammonia injection lances for providing a flow of ammonia, the plurality of air injection lances being in communication with a source of tempering air via one or more tempering air conduits and the plurality of ammonia injection lances being in communication with an ammonia source via one or more ammonia conduits different from the one or more tempering air conduits , the air injection lances and the ammonia injection lances being separate structures with dedicated spray nozzles and/or using dual fluid nozzles, wherein the plurality of air injection lances and the plurality of ammonia injection lances are positioned at the same location in the direction of flow of the combustion gas stream ; and a catalyst positioned downstream of the combined ammonia-tempering air injection grid ; wherein the combined ammonia-tempering air injection grid is configured to inject tempering air through the plurality of air injection lances and ammonia through the plurality of ammonia injection lances into the combustion gas stream upstream of the catalyst .
Device for supporting and fixing shelves of furniture items , such as bookcases, shelf units and the like, comprising a casing of substantially cylindrical shape, inside whereof a pin is mounted which is stressed by a compression spring , said device being inserted in the edge of a shelf , with a tip of the pin normally protruding from the edge of the shelf and apt to re-enter the casing when the shelf is brought into interference with a wall of the furniture item , wherein_a cam element is provided for actuating said pin between a position of maximum extraction and a position of minimum extraction of said tip from the casing , the pin being free to spring to re-enter the casing when the cam element is in said positions of maximum and minimum extraction of the tip , wherein said cam element has an eccentric lobe which can be positioned in two opposite positions in a longitudinal slot of the pin , determining said positions of maximum and minimum extraction of the tip and acting against a projection protruding from one side of the slot beyond the profile of the pin to cause the retraction of the tip from said position of maximum extraction to said position of minimum extraction following a rotation of the cam element , characterised in that said casing has a longitudinal lateral window in which said projection moves during the sliding of the pin in the casing . wherein said cam element has an eccentric lobe which can be positioned in two opposite positions in a longitudinal slot of the pin , determining said positions of maximum and minimum extraction of the tip and acting against a projection protruding from one side of the slot beyond the profile of the pin to cause the retraction of the tip from said position of maximum extraction to said position of minimum extraction following a rotation of the cam element , characterised in that said casing has a longitudinal lateral window in which said projection moves during the sliding of the pin in the casing .