mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a first user, the apparatus comprising: a communicator configured to, when an external device of a second user is located within a predetermined distance from the apparatus , receive identification, ID, information of the external device from the external device and transmit the received ID information of the external device to a content providing server ; and characterized by a controller configured to request the content providing server for content including both an image of the first user and an image of the second user in at least one from among content stored in another apparatus of the first user, content stored by the first user at the content providing server , and content uploaded by the first user to a social networking service, SNS, server , based on ID information of the apparatus and the received ID information of the external device ; wherein the communicator receives the content including the image of the first user and the image of the second user from the content providing server in response to the request. a communicator configured to, when an external device of a second user is located within a predetermined distance from the apparatus , receive identification, ID, information of the external device from the external device and transmit the received ID information of the external device to a content providing server ; and characterized by a controller configured to request the content providing server for content including both an image of the first user and an image of the second user in at least one from among content stored in another apparatus of the first user, content stored by the first user at the content providing server , and content uploaded by the first user to a social networking service, SNS, server , based on ID information of the apparatus and the received ID information of the external device ; wherein the communicator receives the content including the image of the first user and the image of the second user from the content providing server in response to the request.
Draining device for a kitchen appliance , having - a hollow drive shaft , - a coupling , wherein the coupling is connected to the hollow drive shaft and in the integrated state the housing of the kitchen appliance traverses at least partially from the drive output in the pot recess as far as the base of the kitchen appliance , wherein the coupling has a hollow interior space, characterised in that in the connected state the hollow drive shaft and the coupling form a continuous cavity through which liquid entering through the drive output can drain. - a hollow drive shaft , - a coupling , wherein the coupling is connected to the hollow drive shaft and in the integrated state the housing of the kitchen appliance traverses at least partially from the drive output in the pot recess as far as the base of the kitchen appliance , wherein the coupling has a hollow interior space, characterised in that in the connected state the hollow drive shaft and the coupling form a continuous cavity through which liquid entering through the drive output can drain.
A magnetic actuator, comprising: a movable unit capable of moving between a first position and a second position, the movable unit comprising an eddy-current component and a first magnetic yoke component which are formed integrally; a second magnetic yoke component for forming a magnetic circuit with said first magnetic yoke component , wherein the first magnetic yoke component and the second magnetic yoke component form a square framework, the second magnetic yoke component further comprising; an electromagnetic coil capable of generating an exciting magnetic field when being energized, with magnetic lines generated by said electromagnetic coil being energized penetrating the magnetic circuit formed by said second magnetic yoke component and said first magnetic yoke component , and an eddy-current coil arranged opposite to said eddy-current component and enabling an eddy current to be generated in said eddy-current component , so as to produce an electromagnetic repulsive force to said movable unit , and a permanent magnetic holding component comprising a permanent magnet for holding said movable unit in the first position or the second position, whereby the electromagnetic coil and the eddy-current coil are both located in the framework formed by the first magnetic yoke component and the second magnetic yoke component , and the movable unit being movable relative to the second magnetic yoke component . a movable unit capable of moving between a first position and a second position, the movable unit comprising an eddy-current component and a first magnetic yoke component which are formed integrally; a second magnetic yoke component for forming a magnetic circuit with said first magnetic yoke component , wherein the first magnetic yoke component and the second magnetic yoke component form a square framework, the second magnetic yoke component further comprising; an electromagnetic coil capable of generating an exciting magnetic field when being energized, with magnetic lines generated by said electromagnetic coil being energized penetrating the magnetic circuit formed by said second magnetic yoke component and said first magnetic yoke component , and an eddy-current coil arranged opposite to said eddy-current component and enabling an eddy current to be generated in said eddy-current component , so as to produce an electromagnetic repulsive force to said movable unit , and a permanent magnetic holding component comprising a permanent magnet for holding said movable unit in the first position or the second position, whereby the electromagnetic coil and the eddy-current coil are both located in the framework formed by the first magnetic yoke component and the second magnetic yoke component , and the movable unit being movable relative to the second magnetic yoke component .
A weave having a plurality of warp threads running linearly and in parallel, and a plurality of weft threads running linearly and in parallel, characterized in that the weave comprises an outer contour deviating from the extended warp direction (K) in one or more segments (21, 23; 25, 26; 27; 28; 29; 30) along the weave , formed by at least one additional warp thread (5; 6; 7; 8; 9) deviating from the extended warp direction (K) and/or running discontinuously, wherein the additional warp thread or threads (5; 6; 7; 8; 9), respectively, are made of high-performance material, for example in the form of glass fibers, ceramic fibers, carbon fibers, steel fibers or wire, or of a thermoplastic material.
Mobile conveyor system for conveying agricultural produce with a detection unit , wherein the detection unit is designed to detect a hazardous object , in order to prevent the conveyed agricultural produce from being contaminated with the hazardous object , characterized in that the detection unit is designed to detect the hazardous object on the basis of a gas which is output by the hazardous object .
A method of forming an article formed of a gamma-prime precipitation strengthened nickel-base superalloy having a gamma-prime solvus temperature, the superalloy being R104 having a composition of, by weight, 16.0-22.4% cobalt, 6.6-14.3% chromium, 2.6-4.8% aluminum, 2.4-4.6% titanium, 1.4-3.5% tantalum, 0.9-3.0% niobium, 1.9-4.0% tungsten, 1.9-3.9% molybdenum, 0.0-2.5% rhenium, 0.02-0.10% carbon, 0.02-0.10% boron, 0.03-0.10% zirconium, one or more of up to 2% vanadium, up to 2% iron, up to 2% hafnium, and up to 0.1% magnesium, the balance nickel and incidental impurities, wherein the superalloy has a gamma prime volume fraction of 50% or more, the method comprising the steps of: hot isostatic pressing or extrusion consolidating a powder of the gamma-prime precipitation strengthened nickel-base superalloy to form a billet having a sufficiently fine grain size to achieve superplasticity of the superalloy during a subsequent working step; working the billet at a temperature below the gamma-prime solvus temperature of the superalloy so as to form a worked article, wherein the billet is worked so as to maintain strain rates above a lower strain rate limit of 0.001 sec -1 to control average grain size and below an upper strain rate limit of 0.1 sec -1 to avoid critical grain growth; heat treating the worked article at a temperature above the gamma-prime solvus temperature of the superalloy for a duration sufficient to uniformly coarsen the grains of the worked article; and cooling the worked article at a rate sufficient to reprecipitate gamma-prime within the worked article. hot isostatic pressing or extrusion consolidating a powder of the gamma-prime precipitation strengthened nickel-base superalloy to form a billet having a sufficiently fine grain size to achieve superplasticity of the superalloy during a subsequent working step; working the billet at a temperature below the gamma-prime solvus temperature of the superalloy so as to form a worked article, wherein the billet is worked so as to maintain strain rates above a lower strain rate limit of 0.001 sec -1 to control average grain size and below an upper strain rate limit of 0.1 sec -1 to avoid critical grain growth; heat treating the worked article at a temperature above the gamma-prime solvus temperature of the superalloy for a duration sufficient to uniformly coarsen the grains of the worked article; and cooling the worked article at a rate sufficient to reprecipitate gamma-prime within the worked article.
Data-processing method implemented by a mobile processing device and a plurality of receiving devices, the mobile processing device being able to move in a plurality of distinct positioning regions associated with a plurality of respective encryption keys stored on the mobile processing device, each receiving device being associated with a single positioning region in proximity to which it is located, the method comprising: - a step (E8, S6) of selecting, from said plurality of keys (Kcl, Kc2), on said mobile processing device, one encryption key (Kc) depending on at least one criterion of comparison (CR2) between at least a position of said mobile processing device and a said positioning region; - a step (E10) of obtaining, on the mobile processing device, second data (DC1) by applying, to obtained first data (Dl), a cryptographic encryption function (Fl) using the selected key; - a step (E12) of dispatching said second data via a radio communication link; - a step (E20) in which said second data is received by each receiving device in the radio field of which the processing device is located; - a step (E22) in which, by at least one of the receiving devices, a decryption key (Kdl) associated with the encryption key associated with the region in proximity to which it is located, is obtained; - a step in which each receiving device having received the second data and obtained a decryption key applies a decryption function using the obtained key to said received second data, the applying step leading to the obtainment (E24) of said first data when the decryption key is associated with said selected encryption key. - a step (E8, S6) of selecting, from said plurality of keys (Kcl, Kc2), on said mobile processing device, one encryption key (Kc) depending on at least one criterion of comparison (CR2) between at least a position of said mobile processing device and a said positioning region; - a step (E10) of obtaining, on the mobile processing device, second data (DC1) by applying, to obtained first data (Dl), a cryptographic encryption function (Fl) using the selected key; - a step (E12) of dispatching said second data via a radio communication link; - a step (E20) in which said second data is received by each receiving device in the radio field of which the processing device is located; - a step (E22) in which, by at least one of the receiving devices, a decryption key (Kdl) associated with the encryption key associated with the region in proximity to which it is located, is obtained; - a step in which each receiving device having received the second data and obtained a decryption key applies a decryption function using the obtained key to said received second data, the applying step leading to the obtainment (E24) of said first data when the decryption key is associated with said selected encryption key.
A composite particle comprising: i) at least one baculovirus particle; and ii) an enveloping coating of wax for the baculovirus particle of i) made up of at least one wax that is degradable and/or soluble in the gut of a larva of an arthropod species, wherein the baculovirus particle is completely enveloped by the coating. i) at least one baculovirus particle; and ii) an enveloping coating of wax for the baculovirus particle of i) made up of at least one wax that is degradable and/or soluble in the gut of a larva of an arthropod species, wherein the baculovirus particle is completely enveloped by the coating.
A device that is configured to be inserted into a body lumen, comprising: an elongate shaft comprising a proximal end and a distal end; an expandable assembly configured to transition from a radially compact state to a radially expanded state; a flexible printed circuit board (flex-PCB) substrate ; a plurality of electronic elements coupled to the flex-PCB substrate and configured to at least one of receive or transmit an electrical signal; and a plurality of communication paths positioned at least one of on or within the flex-PCB substrate and selectively coupling the plurality of electronic elements to a plurality of electrical contacts configured to electrically connect to an electronic module configured to process the electrical signal, wherein the plurality of electronic elements comprises a plurality of ultrasound transducers , the expandable assembly comprises at least two splines (120, 120a-120c) including a first spline (120, 120a - 120c) and a second spline (120, 120a-120c), with at least two ultrasound transducers of the plurality of ultrasound transducers mounted to each spline (120, 120a-120c), and the at least two ultrasound transducers mounted to the first spline (120, 120a - 120c) are linearly staggered from at least two ultrasound transducers mounted to the second spline (120, 120a - 120c), such that a protrusion of one of the ultrasound transducer on the first spline (120, 120a - 120c) extends between protrusions of the at least two ultrasound transducers on the second spline (120, 120a-120c). an elongate shaft comprising a proximal end and a distal end; an expandable assembly configured to transition from a radially compact state to a radially expanded state; a flexible printed circuit board (flex-PCB) substrate ; a plurality of electronic elements coupled to the flex-PCB substrate and configured to at least one of receive or transmit an electrical signal; and a plurality of communication paths positioned at least one of on or within the flex-PCB substrate and selectively coupling the plurality of electronic elements to a plurality of electrical contacts configured to electrically connect to an electronic module configured to process the electrical signal, wherein the plurality of electronic elements comprises a plurality of ultrasound transducers , the expandable assembly comprises at least two splines (120, 120a-120c) including a first spline (120, 120a - 120c) and a second spline (120, 120a-120c), with at least two ultrasound transducers of the plurality of ultrasound transducers mounted to each spline (120, 120a-120c), and the at least two ultrasound transducers mounted to the first spline (120, 120a - 120c) are linearly staggered from at least two ultrasound transducers mounted to the second spline (120, 120a - 120c), such that a protrusion of one of the ultrasound transducer on the first spline (120, 120a - 120c) extends between protrusions of the at least two ultrasound transducers on the second spline (120, 120a-120c).
Method for the controlled deposition of liquid droplets in polymer compositions for forming droplet polymer composite compositions, comprising the steps of: (i) providing an unpolymerized pre-polymer composition, (ii) providing a liquid for droplet formation in the unpolymerized pre-polymer composition, (iii) controlled deposition of the liquid in the form of discrete droplets on the surface of or into the unpolymerized pre-polymer composition, (iv) time-controlled settlement of the deposited discrete liquid droplets within the unpolymerized pre-polymer composition, and (v) controlled polymerization of the pre-polymer composition comprising the settling discrete droplets, wherein (a) the liquid for droplet formation and the unpolymerized pre-polymer composition are immiscible, (b) the discrete liquid droplets are deposited on the surface of or into the pre-polymer composition to form a one, two or three-dimensional pattern within the unpolymerized pre-polymer composition by settlement, and (c) the density of the liquid for droplet formation at 20 °C is at least 5 % higher than the density of the pre-polymer composition at 20 °C. (i) providing an unpolymerized pre-polymer composition, (ii) providing a liquid for droplet formation in the unpolymerized pre-polymer composition, (iii) controlled deposition of the liquid in the form of discrete droplets on the surface of or into the unpolymerized pre-polymer composition, (iv) time-controlled settlement of the deposited discrete liquid droplets within the unpolymerized pre-polymer composition, and (v) controlled polymerization of the pre-polymer composition comprising the settling discrete droplets, (a) the liquid for droplet formation and the unpolymerized pre-polymer composition are immiscible, (b) the discrete liquid droplets are deposited on the surface of or into the pre-polymer composition to form a one, two or three-dimensional pattern within the unpolymerized pre-polymer composition by settlement, and (c) the density of the liquid for droplet formation at 20 °C is at least 5 % higher than the density of the pre-polymer composition at 20 °C.
A solar cell, comprising: an N-type substrate having a front surface and a rear surface opposite to the front surface, wherein the N-type substrate is a crystalline silicon substrate; a P-type emitter formed on a front surface of the N-type substrate ; a first passivation layer , a second passivation layer , and a third passivation layer sequentially formed on the front surface and in a direction away from the P-type emitter ; wherein the first passivation layer comprises a first silicon oxynitride SiO x N y material, wherein x>y; the second passivation layer comprises a first silicon nitride Si m N n material, wherein m>n; and the third passivation layer comprises a second silicon oxynitride SiO i N j material, wherein a ratio of i/j is in a range of 0.97 to 7.58, and wherein the first passivation layer includes nitrogen ions and hydrogen ions implanted during a same process step, wherein nitrogen ion concentration on a side of the first passivation layer away from the N-type substrate is greater than nitrogen ion concentration on a side of the first passivation layer close to the N-type substrate , and hydrogen ion concentration on the side of the first passivation layer close to the N-type substrate is greater than hydrogen ion concentration on the side of the first passivation layer away from the N-type substrate ; and a passivated contact structure formed on the rear surface. an N-type substrate having a front surface and a rear surface opposite to the front surface, wherein the N-type substrate is a crystalline silicon substrate; a P-type emitter formed on a front surface of the N-type substrate ; a first passivation layer , a second passivation layer , and a third passivation layer sequentially formed on the front surface and in a direction away from the P-type emitter ; wherein the first passivation layer comprises a first silicon oxynitride SiO x N y material, wherein x>y; the second passivation layer comprises a first silicon nitride Si m N n material, wherein m>n; and the third passivation layer comprises a second silicon oxynitride SiO i N j material, wherein a ratio of i/j is in a range of 0.97 to 7.58, and wherein the first passivation layer includes nitrogen ions and hydrogen ions implanted during a same process step, wherein nitrogen ion concentration on a side of the first passivation layer away from the N-type substrate is greater than nitrogen ion concentration on a side of the first passivation layer close to the N-type substrate , and hydrogen ion concentration on the side of the first passivation layer close to the N-type substrate is greater than hydrogen ion concentration on the side of the first passivation layer away from the N-type substrate ; and a passivated contact structure formed on the rear surface.
Method for installing a cell stack of battery cells in a housing of a battery module, wherein each cell stack has an outer side surface which, after the installation process, rests against a respective inner housing surface of the housing, and, during the installation process, the cell stack and/or the housing is moved transversely to the stacking direction in a defined installation direction, wherein at least one sliding element - preferably formed by at least one film - is arranged on each outer side surface of the cell stack in a first step prior to the installation process, wherein at least one end of the sliding element projects beyond the respective outer side surface on at least one installation side of the cell stack , in a further step the housing and the cell stack are moved relative to one another in the installation direction such that first the at least one end of the at least one sliding element is guided into the housing or the housing is guided over the at least one end of the sliding element , and then, in a further step, the cell stack of battery cells arranged in a row - preferably without pretension - together with the at least one sliding element is pushed into the housing or the housing is pushed over the cell stack of battery cells arranged in a row - preferably without pretension - together with the at least one sliding element , wherein the inner housing surface and an outer sliding surface of the at least one sliding element facing away from the cell stack slides relatively against one another until the cell stack has reached its predetermined position in the housing , characterised in that at least one gripping element is provided, which is guided through the housing in preparation for the installation process, wherein the at least one gripping element is in engagement with the at least one end of the sliding element during the sliding of the cell stack into the housing .
A medical device lead connection assembly comprising; an end connector element comprising a plurality of fixed connection element tabs extending from the end connector element to a tab distal end; a lead body comprising a plurality of lead filars extending through the lead body , each of the plurality of lead filars are coupled to a corresponding fixed connection tab ; a tubular guide hub extending from a hub proximal end to a hub distal end, the tubular guide hub comprising a plurality of guide elements circumferentially disposed about an outer surface of the guide hub , the hub distal end disposed within the lead body and the hub proximal end received within the end connector element , and selected guide elements contact selected lead filars . an end connector element comprising a plurality of fixed connection element tabs extending from the end connector element to a tab distal end; a lead body comprising a plurality of lead filars extending through the lead body , each of the plurality of lead filars are coupled to a corresponding fixed connection tab ; a tubular guide hub extending from a hub proximal end to a hub distal end, the tubular guide hub comprising a plurality of guide elements circumferentially disposed about an outer surface of the guide hub , the hub distal end disposed within the lead body and the hub proximal end received within the end connector element , and selected guide elements contact selected lead filars .