mhurhangee/patent-ind-claim-en huggingface dataset:
Device for a medicament delivery device , which device comprises - a medicament delivery device , wherein the medicament delivery device is an auto-injector, - at least one shell section (12; 102; 200) provided with an entry passage (18; 105; 204) and designed such that at least a major part of the medicament delivery device entered through said entry passage (18; 105; 204) is accommodated inside said at least one shell section (12; 102; 200), - a closure element (38; 104; 214) operably arranged to said at least one shell section (12; 102; 200) for closing said entry passage (18; 105; 204), and - fixation elements (20, 32, 34, 48, 54, 58; 106, 108, 116, 122, 126; 208, 210, 212, 218, 220) arranged for fixating said medicament delivery device in relation to said at least one shell section (12; 102; 200) and said closure element (38; 104; 214). - a medicament delivery device , wherein the medicament delivery device is an auto-injector, - at least one shell section (12; 102; 200) provided with an entry passage (18; 105; 204) and designed such that at least a major part of the medicament delivery device entered through said entry passage (18; 105; 204) is accommodated inside said at least one shell section (12; 102; 200), - a closure element (38; 104; 214) operably arranged to said at least one shell section (12; 102; 200) for closing said entry passage (18; 105; 204), and - fixation elements (20, 32, 34, 48, 54, 58; 106, 108, 116, 122, 126; 208, 210, 212, 218, 220) arranged for fixating said medicament delivery device in relation to said at least one shell section (12; 102; 200) and said closure element (38; 104; 214).
Bearing for a support bearing, having a first housing part and a second housing part , between which a housing gap is formed, wherein a bearing apparatus is arranged in the housing gap , wherein a sealing system is provided, which seals the housing gap , wherein the sealing system has at least one first sealing lip , which is formed such that it can pivot, wherein the first sealing lip is at a distance from the first housing part and/or the second housing part in the non-sealing state, and for sealing the housing gap , same is pivoted and brought into contact with the first housing part and/or the second housing part , wherein the sealing system has a support section for supporting a spring element, characterised in that the support section is materially uniformly integrated into the sealing system, wherein the sealing system is positively and/or firmly connected to the first housing part and/or the second housing part , and wherein the sealing system and the first housing part and/or the second housing part are produced using a 2-component injection moulding method.
A shoe insole to be used by being inserted into an inner bottom part of a shoe (A), comprising: a part of a body part of the shoe insole , that supports an arch of a foot, the part being configured to maintain an arched shape to recover a balance of the foot by setting the shape of the part to a foot shape having a predetermined height of the arch of the foot; and a part of the body part , that supports a heel of an underside of the foot, the part being configured to maintain a predetermined state and improve stability of the foot by shaping a heel back side into a horizontal surface, wherein a shock absorbing member is pressure-fitted at least to a back side of the part of the body part that supports the heel of the underside of the foot, the body part made of a first material, and the shock absorbing member made of second material that is softer than the first material, wherein the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot are formed thicker at an inside area of a peripheral edge portion thereof to give a support to the foot, while the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot are formed thinner at the peripheral edge portion to be bent when a load is applied, and wherein the shock absorbing member is attached to the thinned parts of the peripheral edge portion of the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot, and an upper portion of the thinned parts. a part of a body part of the shoe insole , that supports an arch of a foot, the part being configured to maintain an arched shape to recover a balance of the foot by setting the shape of the part to a foot shape having a predetermined height of the arch of the foot; and a part of the body part , that supports a heel of an underside of the foot, the part being configured to maintain a predetermined state and improve stability of the foot by shaping a heel back side into a horizontal surface, wherein a shock absorbing member is pressure-fitted at least to a back side of the part of the body part that supports the heel of the underside of the foot, the body part made of a first material, and the shock absorbing member made of second material that is softer than the first material, wherein the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot are formed thicker at an inside area of a peripheral edge portion thereof to give a support to the foot, while the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot are formed thinner at the peripheral edge portion to be bent when a load is applied, and wherein the shock absorbing member is attached to the thinned parts of the peripheral edge portion of the part of the body part that supports the heel of the underside of the foot and the part that supports the arch of the foot, and an upper portion of the thinned parts.
A DC circuit breaker comprising: an interruption mechanism portion configured to perform opening between a fixed contact and a movable contact , to interrupt DC current; an arc extinguishing plate obtained by superposing an insulating plate and a grid which has electrical conductivity and has a plate shape, the arc extinguishing plate having a surface oriented in a horizontal direction; and an arc extinguishing chamber in which the arc extinguishing plate has an opening at a center portion thereof, and a plurality of the arc extinguishing plates are accommodated in a stacked state at fixed intervals such that edges that delimit the openings are located above the fixed contact and the movable contact , wherein a fixed-side arc runner and a movable-side arc runner , characterized in that the fixed-side arc runner and the movable-side arc runner are fixed and protrude from the opening of the arc extinguishing plate at a lowermost stage, have side surfaces on which an interrupting portion having a projecting-shape side surface brought into close contact with a surface of the arc extinguishing plate is disposed such that ends of the interrupting portion are in contact with the side surfaces of the fixed-side arc runner and the movable-side arc runner . an interruption mechanism portion configured to perform opening between a fixed contact and a movable contact , to interrupt DC current; an arc extinguishing plate obtained by superposing an insulating plate and a grid which has electrical conductivity and has a plate shape, the arc extinguishing plate having a surface oriented in a horizontal direction; and an arc extinguishing chamber in which the arc extinguishing plate has an opening at a center portion thereof, and a plurality of the arc extinguishing plates are accommodated in a stacked state at fixed intervals such that edges that delimit the openings are located above the fixed contact and the movable contact , wherein a fixed-side arc runner and a movable-side arc runner , characterized in that the fixed-side arc runner and the movable-side arc runner are fixed and protrude from the opening of the arc extinguishing plate at a lowermost stage, have side surfaces on which an interrupting portion having a projecting-shape side surface brought into close contact with a surface of the arc extinguishing plate is disposed such that ends of the interrupting portion are in contact with the side surfaces of the fixed-side arc runner and the movable-side arc runner .
Expandable polymeric composition comprising: a) from 70% to 90% by weight of a vinyl aromatic polymer and/or copolymer, calculated with respect to (a) + (b); b) from 10% to 30% by weight, calculated with respect to (a) + (b), of an ethylene-vinyl acetate copolymer (EVA), functionalized with polar groups, containing a percentage that ranges from 10% to 30% by weight of vinyl acetate; c) from 3 to 10 parts by weight of a blowing agent, calculated on 100 parts of the sum of the quantities of component a) and of component b); such copolymer (b) being distributed in the polymer (a) in the form of particles having an average volumetric diameter Dv (measured according to the description) ranging from 1 nm to 2000 nm; and with the proviso that said polymer composition does not contain a hydrogenated or non-hydrogenated, styrene-butadiene or styrene-isoprene block copolymer, a thermoplastic polyurethane, a polystyrene- butadiene grafted polymer or a styrene core-shell polymer. a) from 70% to 90% by weight of a vinyl aromatic polymer and/or copolymer, calculated with respect to (a) + (b); b) from 10% to 30% by weight, calculated with respect to (a) + (b), of an ethylene-vinyl acetate copolymer (EVA), functionalized with polar groups, containing a percentage that ranges from 10% to 30% by weight of vinyl acetate; c) from 3 to 10 parts by weight of a blowing agent, calculated on 100 parts of the sum of the quantities of component a) and of component b);
A driver assistance apparatus comprising: at least one camera configured to generate a main image by capturing at least one image of a periphery of a vehicle ; a communication unit configured to receive a at least one of sub images generated by at least one other vehicle; and a processor connected to the at least one camera and the communication unit ; characterized in that the processor is configured to: select at least one of the sub images based on a predetermined condition or user input; generate an expanded image using the main image and the selected at least one of the sub images; and change a generation period of the expanded image according to speed information of the vehicle . at least one camera configured to generate a main image by capturing at least one image of a periphery of a vehicle ; a communication unit configured to receive a at least one of sub images generated by at least one other vehicle; and a processor connected to the at least one camera and the communication unit ; characterized in that the processor is configured to: select at least one of the sub images based on a predetermined condition or user input; generate an expanded image using the main image and the selected at least one of the sub images; and change a generation period of the expanded image according to speed information of the vehicle . select at least one of the sub images based on a predetermined condition or user input; generate an expanded image using the main image and the selected at least one of the sub images; and change a generation period of the expanded image according to speed information of the vehicle .
A system , comprising: a hemodynamic system ; and an interface for intravascular pressure sensing devices, the interface being configured to be communicatively coupled to the hemodynamic system via a connection and the interface comprising: a distal input configured to receive a distal pressure signal from a pressure sensing device ; a distal output configured to output the distal pressure signal to the hemodynamic system in a format useable by the hemodynamic system; a proximal input configured to receive a proximal pressure signal from the pressure sensing device or from a further pressure sensing device ; a proximal output configured to output the proximal pressure signal to the hemodynamic system in a format useable by the hemodynamic system; a wireless transceiver coupled to the distal input, distal output, proximal input, and proximal output, the wireless transceiver being configured to wirelessly transmit the distal pressure and the proximal pressure to a computing system spaced from the interface, wherein the computing system is distinct from the hemodynamic system; and a power extraction device coupled to a pair of leads that receive an excitation signal from the hemodynamic system, the power extraction device being configured to extract power from the excitation signal, associated with the distal or proximal pressure measurement input of the hemodynamic system, for use in operating at least the wireless transceiver. a hemodynamic system ; and an interface for intravascular pressure sensing devices, the interface being configured to be communicatively coupled to the hemodynamic system via a connection and the interface comprising: a distal input configured to receive a distal pressure signal from a pressure sensing device ; a distal output configured to output the distal pressure signal to the hemodynamic system in a format useable by the hemodynamic system; a proximal input configured to receive a proximal pressure signal from the pressure sensing device or from a further pressure sensing device ; a proximal output configured to output the proximal pressure signal to the hemodynamic system in a format useable by the hemodynamic system; a wireless transceiver coupled to the distal input, distal output, proximal input, and proximal output, the wireless transceiver being configured to wirelessly transmit the distal pressure and the proximal pressure to a computing system spaced from the interface, wherein the computing system is distinct from the hemodynamic system; and a power extraction device coupled to a pair of leads that receive an excitation signal from the hemodynamic system, the power extraction device being configured to extract power from the excitation signal, associated with the distal or proximal pressure measurement input of the hemodynamic system, for use in operating at least the wireless transceiver.
A method of stopping and restarting production in an undersea bottom-to-surface connection production pipe comprising a first pipe portion (1-1) resting on the sea bottom from a well head to the bottom end of a second pipe portion (1-2) going up to a ship or floating support on the surface, in which method, when production is stopped, at least said first pipe portion is filled with a depressurized production fluid, the method being characterized in that the following restarting steps are performed: e1) forming a gel from two reagents in a first gel-forming chamber on the sea bottom, said first chamber communicating with the end (1-1a) of the first pipe portion (1-1) that is closest to the well head , said first chamber preferably being formed by a pipe segment in situ on the sea bottom, having its end leading to the proximity of the end of the first pipe portion (1-1) resting on the sea bottom that is closest to the well head; and e2) sending a quantity of said gel into the first pipe portion (1-1) from said first chamber forming a separator gel segment that pushes the cold fluid contained in the first pipe portion (1-1) to the second pipe portion (1-2), prior to closing said first chamber ; and then e3) starting production by sending said production fluid from the production fluid well into the first pipe portion (1-1) behind said separator gel segment, said production fluid pushing said gel segment into said bottom-to-surface connection pipe towards its top (1-2b), said gel forming a physical separation and also thermal isolation between firstly the production fluid behind said gel segment within the first pipe portion and secondly a fluid that has been at least partially degassed ahead of said gel segment within said first production pipe portion (1-1). e1) forming a gel from two reagents in a first gel-forming chamber on the sea bottom, said first chamber communicating with the end (1-1a) of the first pipe portion (1-1) that is closest to the well head , said first chamber preferably being formed by a pipe segment in situ on the sea bottom, having its end leading to the proximity of the end of the first pipe portion (1-1) resting on the sea bottom that is closest to the well head; and e2) sending a quantity of said gel into the first pipe portion (1-1) from said first chamber forming a separator gel segment that pushes the cold fluid contained in the first pipe portion (1-1) to the second pipe portion (1-2), prior to closing said first chamber ; and then e3) starting production by sending said production fluid from the production fluid well into the first pipe portion (1-1) behind said separator gel segment, said production fluid pushing said gel segment into said bottom-to-surface connection pipe towards its top (1-2b), said gel forming a physical separation and also thermal isolation between firstly the production fluid behind said gel segment within the first pipe portion and secondly a fluid that has been at least partially degassed ahead of said gel segment within said first production pipe portion (1-1).
A method comprising: causing a first apparatus to participate in determining, with a second apparatus , a set of common location-sensitive sensors; obtaining, in the first apparatus, a first sensor output from a first sensor of said set of common location-sensitive sensors; receiving , by the first apparatus, from the second apparatus a first received sensor output of a sensor of said set of common location-sensitive sensors; comparing, by the first apparatus, the first sensor output to the first received sensor output, and responsive to the outputs matching, granting a first level of access to the second apparatus. causing a first apparatus to participate in determining, with a second apparatus , a set of common location-sensitive sensors; obtaining, in the first apparatus, a first sensor output from a first sensor of said set of common location-sensitive sensors; receiving , by the first apparatus, from the second apparatus a first received sensor output of a sensor of said set of common location-sensitive sensors; comparing, by the first apparatus, the first sensor output to the first received sensor output, and responsive to the outputs matching, granting a first level of access to the second apparatus.
A composition comprising an agent that inhibits the expression and/or activity of EMP2 and a pharmaceutically acceptable excipient, for use in the treatment or prevention of a lung disorder, wherein the lung disorder is selected from the group consisting of acute lung injury, acute respiratory distress syndrome, bronchopulmonary dysplasia, pneumonia, COPD, bronchiectasis, cystic fibrosis, asthma, lung inflammation, lung fibrosis, and idiopathic pulmonary fibrosis.
A nuclear reactor dismantlement system, comprising a bio-protective concrete including a first space (P1) into which a reactor is inserted and a second space (P2) that is connected to the first space (P1) and is a more expanded space than the first space (P1), a moving device that is positioned in the second space (P2) and adapted to move the reactor , and a cutting device that is positioned in the second space (P2) and adapted to cut the reactor . a bio-protective concrete including a first space (P1) into which a reactor is inserted and a second space (P2) that is connected to the first space (P1) and is a more expanded space than the first space (P1), a moving device that is positioned in the second space (P2) and adapted to move the reactor , and a cutting device that is positioned in the second space (P2) and adapted to cut the reactor .
A computer-implemented method of optimizing the performance of a reconfigurable power system, comprising the steps of: receiving an operating profile for the reconfigurable power system; partitioning the operating profile into a plurality of sub-phases; performing a coarse optimisation routine of the power system over each sub-phase of the operating profile to derive a respective coarsely optimised configuration of the power system; performing a fine optimisation routine of each coarsely optimised configuration over its respective sub-phase of the operating profile to derive a respective finely optimised configuration for that sub-phase; and defining settings of the power system to implement the finely optimised configurations thereon, wherein the computer-implemented method is characterised in that it further comprises before partitioning the operating profile, receiving a condition of the power system; determining, based on the operating profile and the condition of the power system, whether a goal of the operating profile can be achieved, wherein determining whether the goal of the operating profile can be achieved includes determining whether power available within the power system is sufficient to achieve the goal of the operating profile; and wherein if the determination is that the power available is insufficient, additional power support from an energy storage system is used during optimisation. receiving an operating profile for the reconfigurable power system; partitioning the operating profile into a plurality of sub-phases; performing a coarse optimisation routine of the power system over each sub-phase of the operating profile to derive a respective coarsely optimised configuration of the power system; performing a fine optimisation routine of each coarsely optimised configuration over its respective sub-phase of the operating profile to derive a respective finely optimised configuration for that sub-phase; and defining settings of the power system to implement the finely optimised configurations thereon, wherein the computer-implemented method is characterised in that it further comprises before partitioning the operating profile, receiving a condition of the power system; determining, based on the operating profile and the condition of the power system, whether a goal of the operating profile can be achieved, wherein determining whether the goal of the operating profile can be achieved includes determining whether power available within the power system is sufficient to achieve the goal of the operating profile; and wherein if the determination is that the power available is insufficient, additional power support from an energy storage system is used during optimisation.
A method comprising: receiving at a user equipment a list of prepared candidate cells from a source cell, the prepared candidate cells being candidate cells from among which the user equipment can select a target cell for a user equipment autonomous handover from the source cell; and transmitting the list of prepared candidate cells from the user equipment to a target cell after or during handover from the source cell to the target cell. receiving at a user equipment a list of prepared candidate cells from a source cell, the prepared candidate cells being candidate cells from among which the user equipment can select a target cell for a user equipment autonomous handover from the source cell; and transmitting the list of prepared candidate cells from the user equipment to a target cell after or during handover from the source cell to the target cell.