mhurhangee/patent-ind-claim-en huggingface dataset:
Power module, preferably induction module for powering one, two, three, four, at least one, at least two, at least three or at least four heating element(s), preferably electrical, radiant and/or induction heating elements, more preferably induction coils , of a cooking appliance, preferably a cooking hob, more preferably a radiant or induction hob , in particular according to one of the subsequent claims 5 to 21, the power module at least comprising: - one, two or at least two heating power units , in particular three or at least three heating power units, more in particular four or at least four heating power units, preferably heating frequency units and/or induction generators , each for providing power, in particular electrical power, to one, two, three, at least one, at least two or at least three heating elements ; - one or at least one controller for controlling the heating power unit(s) ; - a communication interface for coupling the power module with one or at least one user interface ; - wherein, in a first configuration mode, the power module is adapted to be operated either according to a master module configuration or a slave module configuration, and - wherein, in a second configuration mode, the power module is configured to directly communicate with the at least one user interface. - one, two or at least two heating power units , in particular three or at least three heating power units, more in particular four or at least four heating power units, preferably heating frequency units and/or induction generators , each for providing power, in particular electrical power, to one, two, three, at least one, at least two or at least three heating elements ; - one or at least one controller for controlling the heating power unit(s) ; - a communication interface for coupling the power module with one or at least one user interface ; - wherein, in a first configuration mode, the power module is adapted to be operated either according to a master module configuration or a slave module configuration, and - wherein, in a second configuration mode, the power module is configured to directly communicate with the at least one user interface.
A nanoparticle device carrying a substance comprising: a shell structure including at least two layers including an internal layer and an external layer, wherein the substance is a macromolecule; wherein the internal layer encloses a hollow interior region comprising the substance in the hollow region; wherein the internal layer includes one or more holes penetrating said internal layer, the one or more holes having a diameter larger than the diameter of the macromolecule, wherein the one or more holes are mesopores with a size ranging from 2 nm to 50 nm, and the mesopores are sealed with a nanoporous shell material, wherein the external layer is formed around the internal layer and includes pores with a size less than 2 nm to allow substances smaller than 2 nm to diffuse in and out but prevent macromolecules from entering or leaving; wherein the substance and the internal layer are such that the substance is capable of passing through the one or more holes of the internal layer; and wherein the substance and the external layer are such that the substance is incapable of passing through the external layer. a shell structure including at least two layers including an internal layer and an external layer, wherein the substance is a macromolecule; wherein the internal layer encloses a hollow interior region comprising the substance in the hollow region; wherein the internal layer includes one or more holes penetrating said internal layer, the one or more holes having a diameter larger than the diameter of the macromolecule, wherein the one or more holes are mesopores with a size ranging from 2 nm to 50 nm, and the mesopores are sealed with a nanoporous shell material, wherein the external layer is formed around the internal layer and includes pores with a size less than 2 nm to allow substances smaller than 2 nm to diffuse in and out but prevent macromolecules from entering or leaving; wherein the substance and the internal layer are such that the substance is capable of passing through the one or more holes of the internal layer; and wherein the substance and the external layer are such that the substance is incapable of passing through the external layer.
A method, performed by a base station, for J Z configuring uplink sounding transmissions by mobile terminals in a wireless communication network, the method comprising: determining multiple different sets of configuration parameters for the uplink sounding signa transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, thereby enabling the given mobile terminal to generate different sounding signals based on the multiple different sets of configuration parameters , and receiving said different sounding signals from the given terminal. determining multiple different sets of configuration parameters for the uplink sounding signa transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, thereby enabling the given mobile terminal to generate different sounding signals based on the multiple different sets of configuration parameters , and receiving said different sounding signals from the given terminal.
A movement track recording method, wherein the method comprises: determining a positioning trigger condition according to positioning precision; and positioning a terminal device when the positioning trigger condition is met, and recording a location of the terminal device , wherein the positioning trigger condition is a positioning time interval, and the positioning time interval is dynamically adjustable, wherein the determining a positioning trigger condition according to positioning precision comprises: when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device , a positioning time interval for a next time of positioning as T i = D / Vi , wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, and the positioning a terminal device when the positioning trigger condition is met, and recording location information of the terminal device comprises: starting timing, positioning the terminal device when the timing reaches the positioning time interval for the next time of positioning, and recording a current location of the terminal device . determining a positioning trigger condition according to positioning precision; and positioning a terminal device when the positioning trigger condition is met, and recording a location of the terminal device , wherein the positioning trigger condition is a positioning time interval, and the positioning time interval is dynamically adjustable, wherein the determining a positioning trigger condition according to positioning precision comprises: when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device , a positioning time interval for a next time of positioning as T i = D / Vi , wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, and when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device , a positioning time interval for a next time of positioning as T i = D / Vi , wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, the positioning a terminal device when the positioning trigger condition is met, and recording location information of the terminal device comprises: starting timing, positioning the terminal device when the timing reaches the positioning time interval for the next time of positioning, and recording a current location of the terminal device .
A system for ranging an object in a scene external to an aircraft, the system comprising: a light projector configured to be mounted at a projector location on the aircraft, and further configured to project linearly-patterned light in a controllable direction onto the scene external to the aircraft, thereby illuminating a linear-patterned portion of the scene; first and second cameras configured to be mounted at first and second distinct camera locations on the aircraft and aligned so as to be able to simultaneously capture, when the linear-patterned light is projected onto the scene, first and second vectors of pixel data corresponding to active first and second rows or first and second columns of pixels, respectively, upon which the linear-patterned light projected by the light projector and reflected by the scene is focused; a controller configured to coordinate the controllable direction of the projected linearly-patterned light so that the illuminated linearly-patterned portion of the scene is focused onto the active first and second rows or the first and second columns of pixels; and a range calculator configured to calculate range to the object using triangulation based on the captured first and second vectors of pixel data and the first and second distinct camera locations from which the first and second vectors of pixel data are simultaneously captured. a light projector configured to be mounted at a projector location on the aircraft, and further configured to project linearly-patterned light in a controllable direction onto the scene external to the aircraft, thereby illuminating a linear-patterned portion of the scene; first and second cameras configured to be mounted at first and second distinct camera locations on the aircraft and aligned so as to be able to simultaneously capture, when the linear-patterned light is projected onto the scene, first and second vectors of pixel data corresponding to active first and second rows or first and second columns of pixels, respectively, upon which the linear-patterned light projected by the light projector and reflected by the scene is focused; a controller configured to coordinate the controllable direction of the projected linearly-patterned light so that the illuminated linearly-patterned portion of the scene is focused onto the active first and second rows or the first and second columns of pixels; and a range calculator configured to calculate range to the object using triangulation based on the captured first and second vectors of pixel data and the first and second distinct camera locations from which the first and second vectors of pixel data are simultaneously captured.
A method for manufacturing a tire comprising a vulcanization step of vulcanizing a green tire provided with a belt having at least one belt layer, wherein the belt layer includes a steel cord formed by twisting a steel filament together with a resin filament having a softening point of 125°C or lower, wherein the softening point refers to a value measured using a softening point test method described in JIS K 7206 , and wherein the resin filament includes at least an ionomer and includes 0.1 to 30 parts by mass of an inorganic filler with respect to 100 parts by mass of a resin component, wherein the resin filament further includes a resin modified with an acid anhydride, wherein the modified resin is a maleic acid-modified resin and/or a dimer acid-modified resin and wherein a mass ratio of the maleic acid-modified resin to the ionomer is 4:6 to 6:4; and wherein the resin encompasses thermoplastic resins including thermoplastic elastomers and thermosetting resins including thermosetting elastomers, but not encompassing vulcanized rubber.
A composition comprising at least one Botanical Powder, and at least one Delivery System; wherein the Botanical Powder comprises amaranth flour, wherein at least a portion of the Botanical Powder is encapsulated in the Delivery System and the Delivery System comprises Liposome I; wherein the term Liposome I is denoted to mean an artificially prepared vesicle made of at least one lipid bilayer, wherein the delivery system comprises naturally-derived or synthetic phospholipids of type PL2, wherein phospholipids of type PL2 comprise phosphatidylcholine, phosphatidylethanolamine and phosphatidic acid, wherein the content of phosphatidylcholine is from 10 wt% to 60 wt%, based on the total weight of the phospholipids and wherein the composition comprises glycerol as a solvent.
A turning working vehicle comprising: a prime mover part, said prime mover part being covered at the rear with a hood arranged behind a turning body ; an operation part , said operation part being arranged on said prime mover part; and a cabin , said cabin covering said operation part characterized in that the cabin comprises a rear wall portion of said cabin being formed of a rear window portion and of a housing part , and in that the housing part for housing a condenser for an air conditioner is arranged under the rear window portion and over the hood . a prime mover part, said prime mover part being covered at the rear with a hood arranged behind a turning body ; an operation part , said operation part being arranged on said prime mover part; and a cabin , said cabin covering said operation part characterized in that the cabin comprises a rear wall portion of said cabin being formed of a rear window portion and of a housing part , and in that the housing part for housing a condenser for an air conditioner is arranged under the rear window portion and over the hood .
A fixing apparatus , comprising: a first pressing roller ; a belt wound around the first pressing roller 2. ; a second pressing roller disposed so as to face the first pressing roller across the belt and to form a fixing nip portion between itself and the belt ; a roller position changer adapted to change a position of the second pressing roller , wherein at least one of the first pressing roller and the second pressing roller is a roller including a core metal and a foam body covering the core metal , and the roller position changer is adapted to change a position of the second pressing roller so as to change a peak surface pressure of the fixing nip portion correspondingly to a kind of a print medium so that a range where maximum shearing strain occurs from an interface between the core metal and the foam body in the foam body becomes a predetermined range; and characterized in that maximum shearing strain is 0.50 or less in a stationary state, wherein in a case where a line connecting from a rotation center of the first pressing roller to a rotation center of the second pressing roller is made an imaginary line segment, the range where the maximum shearing strain occurs is a range between a line segment drawn from a center of the roller including the foam body in a direction at 45 degrees on a upstream side in a rotation direction of the roller with respect to the imaginary line segment and a line segment drawn from the center of the roller in a direction at 45 degrees on a downstream side with respect to the imaginary line segment. a first pressing roller ; a belt wound around the first pressing roller 2. ; a second pressing roller disposed so as to face the first pressing roller across the belt and to form a fixing nip portion between itself and the belt ; a roller position changer adapted to change a position of the second pressing roller , wherein at least one of the first pressing roller and the second pressing roller is a roller including a core metal and a foam body covering the core metal , and the roller position changer is adapted to change a position of the second pressing roller so as to change a peak surface pressure of the fixing nip portion correspondingly to a kind of a print medium so that a range where maximum shearing strain occurs from an interface between the core metal and the foam body in the foam body becomes a predetermined range; and characterized in that maximum shearing strain is 0.50 or less in a stationary state, wherein in a case where a line connecting from a rotation center of the first pressing roller to a rotation center of the second pressing roller is made an imaginary line segment, the range where the maximum shearing strain occurs is a range between a line segment drawn from a center of the roller including the foam body in a direction at 45 degrees on a upstream side in a rotation direction of the roller with respect to the imaginary line segment and a line segment drawn from the center of the roller in a direction at 45 degrees on a downstream side with respect to the imaginary line segment.
A yarn having a core and a sheath , preferably comprising staple fibers, said core comprising a plurality of polymeric non-elastomeric core fibers , wherein the amount of the polymeric non-elastomeric core fibers is at least 35% by weight of the total weight of the yarn , wherein said core and said sheath are spun together, wherein said polymeric non-elastomeric core fibers are non-texturized fibers, wherein at least part of the polymeric non-elastomeric core fibers is provided as a fully drawn yarn (FDY) , wherein said yarn having the core and the sheath has tenacity comprised between 10 and 25 cN/tex measured according to EN ISO 2062, wherein said core further includes elastomeric filaments , and wherein the FDY yarn and the elastomeric filaments are combined together in a manner as obtainable by feeding them through a restriction where they are pressed together and attach to each other to such a degree that they remain attached together after exiting the restriction.
A lock comprising an accessory for security locking of said lock, said accessory enabling the locking of the door lock such that the lock cannot be opened with a key or a picklock, the lock including a lock body , a lock mechanism inside the lock body for moving the lock bolt , a rotary knob , a key cylinder and a first rotary spindle , which is between the rotary knob and the lock mechanism and the spindle head of which is in engagement with the lock mechanism , the accessory further containing a safety latch and a transfer mechanism , by which the safety latch is to be transferred from a security locking release position into a security locking position, characterized in that the lock mechanism includes a first rotary ring , with which the spindle head is in engagement, and a second rotary ring , with which a second rotary spindle to be rotated by a key is in engagement, as well as a bolt shifter , which is shifted by the first and second rotary rings as they rotate, wherein the spindle head is equipped with an extension part , which is dimensioned and shaped to extend through the first rotary ring into engagement with the second rotary ring , wherein, as the first rotary spindle (5a 5b) is being locked as non-rotatable in the security locking position of the safety latch , the extension part of the spindle head prevents the second rotary ring from rotating by means of the second rotary spindle .
A serverless cloud architecture , comprising: a service graph, SG, manager configured to: receive a state machine model specification that defines a state machine model, generate one or more service graph controllers, SGCs, configured to manage state machine instances, SMI, that implement the state machine model, generate a number of event mapping agents associated with one or more event sources , wherein each event mapping agent is configured to track events generated at the event sources , and transmit notification of the events to the one or more SGCs , and manage events, wherein the events are used to trigger actions in states of the state machine model; and a function execution engine configured to execute a plurality of cloud-hosted functions on one or more nodes in response to function calls generated by the SMIs ; wherein the actions include invoking a function call of a cloud-hosted function executed by the function execution engine. a service graph, SG, manager configured to: receive a state machine model specification that defines a state machine model, generate one or more service graph controllers, SGCs, configured to manage state machine instances, SMI, that implement the state machine model, generate a number of event mapping agents associated with one or more event sources , wherein each event mapping agent is configured to track events generated at the event sources , and transmit notification of the events to the one or more SGCs , and manage events, wherein the events are used to trigger actions in states of the state machine model; and receive a state machine model specification that defines a state machine model, generate one or more service graph controllers, SGCs, configured to manage state machine instances, SMI, that implement the state machine model, generate a number of event mapping agents associated with one or more event sources , wherein each event mapping agent is configured to track events generated at the event sources , and transmit notification of the events to the one or more SGCs , and manage events, wherein the events are used to trigger actions in states of the state machine model; and a function execution engine configured to execute a plurality of cloud-hosted functions on one or more nodes in response to function calls generated by the SMIs ; wherein the actions include invoking a function call of a cloud-hosted function executed by the function execution engine.