mhurhangee/ep-ind-claims huggingface dataset:
A method for assembling a microelectronic chip element on an electrically conducting wire element, characterized in that it comprises the following steps: • providing a transfer system of the wire element from a wire element supply device to a storage device of said wire element, • stretching of the wire element between the supply device and the storage device by a tensioning device (16, 18), • providing a reservoir of individualized and separated chip elements, each chip element comprising a connection terminal, the connection terminal of each chip element comprising a top with free access facing which no part of the chip element is present, • transporting a chip element from the reservoir to an assembly area located between the supply device and storage device in such a way that the wire element is tightly stretched in said assembly area, • fixing the electrically conducting wire element to the connection terminal of the chip element in the assembly area, • performing addition of electrically insulating material on the chip element after the latter has been fixed to the wire element to form a cover, said addition of material being performed on the surface of the chip element comprising the connection terminal fixed to said wire element so as to cover at least the connection terminal and a portion of the wire element at the fixing point of the latter. • providing a transfer system of the wire element from a wire element supply device to a storage device of said wire element, • stretching of the wire element between the supply device and the storage device by a tensioning device (16, 18), • providing a reservoir of individualized and separated chip elements, each chip element comprising a connection terminal, the connection terminal of each chip element comprising a top with free access facing which no part of the chip element is present, • transporting a chip element from the reservoir to an assembly area located between the supply device and storage device in such a way that the wire element is tightly stretched in said assembly area, • fixing the electrically conducting wire element to the connection terminal of the chip element in the assembly area, • performing addition of electrically insulating material on the chip element after the latter has been fixed to the wire element to form a cover, said addition of material being performed on the surface of the chip element comprising the connection terminal fixed to said wire element so as to cover at least the connection terminal and a portion of the wire element at the fixing point of the latter.
A foldable aerial vehicle, comprising: a multicopter including arms supporting a propulsion system (208, 210, 212, 802); and a foldable cage coupled to the multicopter, the foldable cage being substantially flat in a folded configuration and substantially circular in a deployed configuration, the foldable cage substantially fully enclosing the multicopter when the foldable cage is in at least one of the deployed configuration and the folded configuration, the foldable cage including a plurality of like modules (400, 400a, 400b; 700), each of the modules (400, 400a, 400b; 700) including flexible joints that couple a plurality of rods (206, 206a, 206b; 406, 410, 412) to form geometric elements, the modules being configured such that transition of the cage between the folded and deployed configurations includes rotation, and folding/deployment of the modules around a central axis (E-E) of the aerial vehicle, wherein the arms of the multicopter fold or deploy with the cage and wherein the aerial vehicle further comprises a cargo transportation mechanism (1202, 1302, 1402) coupled to the foldable cage above the propulsion system (208, 210, 212, 802). a multicopter including arms supporting a propulsion system (208, 210, 212, 802); and a foldable cage coupled to the multicopter, the foldable cage being substantially flat in a folded configuration and substantially circular in a deployed configuration, the foldable cage substantially fully enclosing the multicopter when the foldable cage is in at least one of the deployed configuration and the folded configuration, the foldable cage including a plurality of like modules (400, 400a, 400b; 700), each of the modules (400, 400a, 400b; 700) including flexible joints that couple a plurality of rods (206, 206a, 206b; 406, 410, 412) to form geometric elements, the modules being configured such that transition of the cage between the folded and deployed configurations includes rotation, and folding/deployment of the modules around a central axis (E-E) of the aerial vehicle, wherein the arms of the multicopter fold or deploy with the cage and wherein the aerial vehicle further comprises a cargo transportation mechanism (1202, 1302, 1402) coupled to the foldable cage above the propulsion system (208, 210, 212, 802).
Punch units of a powder press that slide in one another punch unit, having a plurality of punch units, wherein at least two of the the punch units are assembled from at least two parts, in each case comprising a headpiece as the first part and a widening region, adjoining the headpiece, as the second part, wherein the widening region flares to a diameter of a punch holder which can be attached directly to an end, located opposite the headpiece, of the widening region, wherein the widening region widens conically, in particular in the shape of a cone or bell; characterized in that at least two of the punch units have an approximately equal elasticity in comparison with one another, and that by means of the constructional shape and taking into account the modulus of elasticity of the material of the widening region influence can be exerted on the rigidity and therefore on an elasticity behavior, particularly when relaxing from a compressed state.
An ethylenically unsaturated macromer comprising the reaction product of: (a) an amine initiated polyether polyol having a hydroxyl functionality of 3 to 8, having a number average molecular weight of from 4000 to 15,000, determined according to the method identified in the specification, and which comprises the reaction product of (i) an amine compound having an amine functionality of from 1 to 6 and a number average molecular weight of from 60 to 1000, wherein said amine groups are selected from primary and/or secondary amine groups, and optionally from tertiary amine groups, with the proviso that one or more primary and/or secondary amine groups is also present; with (ii) an alkylene oxide; with (b) an ethylenically unsaturated compound which is present in an amount such there is at least 0.08 mole unsaturation/mole polyol present in the resultant macromer; optionally, in the presence of (c) a catalyst. (a) an amine initiated polyether polyol having a hydroxyl functionality of 3 to 8, having a number average molecular weight of from 4000 to 15,000, determined according to the method identified in the specification, and which comprises the reaction product of (i) an amine compound having an amine functionality of from 1 to 6 and a number average molecular weight of from 60 to 1000, wherein said amine groups are selected from primary and/or secondary amine groups, and optionally from tertiary amine groups, with the proviso that one or more primary and/or secondary amine groups is also present; with (ii) an alkylene oxide; with (i) an amine compound having an amine functionality of from 1 to 6 and a number average molecular weight of from 60 to 1000, wherein said amine groups are selected from primary and/or secondary amine groups, and optionally from tertiary amine groups, with the proviso that one or more primary and/or secondary amine groups is also present; with (ii) an alkylene oxide; (b) an ethylenically unsaturated compound which is present in an amount such there is at least 0.08 mole unsaturation/mole polyol present in the resultant macromer; optionally, in the presence of (c) a catalyst.
A mould for moulding at least portion of a curved part, the part having a first part surface and a second part surface separated by a thickness, the mould comprising: • a shell comprising: ∘ a first portion comprising a first moulding surface for moulding the first part surface, and a first outer surface opposite the first moulding surface, ∘ a second portion comprising a second moulding surface for moulding the second part surface, and a second outer surface opposite the second moulding surface, at least one of the first and second outer surfaces (12, 22) being non-planar; • a bearing system comprising: ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction, and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction; the mould being configured to allow sliding in at least one direction perpendicular to the first direction between the first portion of the shell and the first bearing device, and between the second portion of the shell and the second bearing device. • a shell comprising: ∘ a first portion comprising a first moulding surface for moulding the first part surface, and a first outer surface opposite the first moulding surface, ∘ a second portion comprising a second moulding surface for moulding the second part surface, and a second outer surface opposite the second moulding surface, at least one of the first and second outer surfaces (12, 22) being non-planar; ∘ a first portion comprising a first moulding surface for moulding the first part surface, and a first outer surface opposite the first moulding surface, ∘ a second portion comprising a second moulding surface for moulding the second part surface, and a second outer surface opposite the second moulding surface, at least one of the first and second outer surfaces (12, 22) being non-planar; • a bearing system comprising: ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction, and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction; ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction, and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction;
A mobile terminal, comprising: a first fixed-interval timer configured to count a first interval; a second fixed-interval timer configured to count a second interval that is longer than the first interval; a motion acceleration detection unit (19, 31) configured to obtain a first period of acceleration data from an acceleration sensor at the first interval and detect motion acceleration based on the first period of acceleration data; a walking state detection unit configured to detect a walking state or a non-walking state based on a second period of acceleration data from the acceleration sensor when the motion acceleration is detected based on the first period of acceleration data, the second period being longer than the first period; and a continuous walking determining unit configured to determine that continuous walking is detected when the walking state is detected a predetermined number of times or more within the second interval, characterized in that after the walking state is detected the predetermined number of times or more within the second interval, the motion acceleration detection unit is configured to stop obtaining acceleration data from the acceleration sensor until the second interval passes. a first fixed-interval timer configured to count a first interval; a second fixed-interval timer configured to count a second interval that is longer than the first interval; a motion acceleration detection unit (19, 31) configured to obtain a first period of acceleration data from an acceleration sensor at the first interval and detect motion acceleration based on the first period of acceleration data; a walking state detection unit configured to detect a walking state or a non-walking state based on a second period of acceleration data from the acceleration sensor when the motion acceleration is detected based on the first period of acceleration data, the second period being longer than the first period; and a continuous walking determining unit configured to determine that continuous walking is detected when the walking state is detected a predetermined number of times or more within the second interval, characterized in that after the walking state is detected the predetermined number of times or more within the second interval, the motion acceleration detection unit is configured to stop obtaining acceleration data from the acceleration sensor until the second interval passes.
An oral care composition comprising core shell silica particles and an orally acceptable carrier, wherein each core shell silica particle comprises a silica core, and a group I metal silicate formed on top of the silica core.
Process for obtaining single-crystalline gallium-containing nitride by making selective crystallization of gallium-containing nitride on elementary seeds under a crystallization temperature and/or pressure from a supercritical ammonia-containing solution made by dissolution of gallium-containing feedstock in a supercritical ammonia-containing solvent with alkali metal ions, comprising the steps of: providing two or more elementary seeds, and making selective crystallization on the two or more separate elementary seeds to get a merged compound seed, wherein the elementary seeds are single-crystalline gallium-containing nitride, wherein edge surfaces to be joined of the elementary seeds are C-face, A-face, M-face or R-face, and wherein the longest dimension of said compound seed is at least 2.5cm (1 inch), preferably at least 5cm (2 inches), most preferably at least 10cm (4 inches).
An optical element defining an optical axis and comprising: - a supporting structure, - a bendable cover member attached to the supporting structure, wherein an interface between the bendable cover member and the supporting structure defines an interface plane, - one or more actuators arranged for shaping said bendable cover member into a desired shape, - at least one deformable transparent lens body (107, 507) attached to the bendable cover member, wherein - one or more of o a dimension in a direction being parallel with the optical axis, and/or o a Young's modulus of the supporting structure on one side of the interface plane increases gradually and/or in a plurality of steps along at least a portion of a line being orthogonal to the optical axis and intersecting the optical axis and in a direction away from the optical axis, wherein said line spans a range from a point at an inner edge of the interface and a point more distantly placed with respect to the optical axis, and/or wherein - a dimension of the bendable cover member in a direction being parallel with the optical axis is larger ∘ at at least one first point at an inner edge of the interface, than ∘ at at least one second point on a line from said first point to the optical axis; characterized in that the Young's modulus of the supporting structure is less than the Young's modulus of the bendable cover member. - a supporting structure, - a bendable cover member attached to the supporting structure, wherein an interface between the bendable cover member and the supporting structure defines an interface plane, - one or more actuators arranged for shaping said bendable cover member into a desired shape, - at least one deformable transparent lens body (107, 507) attached to the bendable cover member, - one or more of o a dimension in a direction being parallel with the optical axis, and/or o a Young's modulus of the supporting structure on one side of the interface plane increases gradually and/or in a plurality of steps along at least a portion of a line being orthogonal to the optical axis and intersecting the optical axis and in a direction away from the optical axis, wherein said line spans a range from a point at an inner edge of the interface and a point more distantly placed with respect to the optical axis, and/or wherein o a dimension in a direction being parallel with the optical axis, and/or o a Young's modulus - a dimension of the bendable cover member in a direction being parallel with the optical axis is larger ∘ at at least one first point at an inner edge of the interface, than ∘ at at least one second point on a line from said first point to the optical axis; ∘ at at least one first point at an inner edge of the interface, than ∘ at at least one second point on a line from said first point to the optical axis;
A method for supplying items of laundry to a feeding machine for spreading out and feeding the item of laundry by two adjacent corners (20, 42) of a leading edge into a laundry treatment device, in particular a mangle, the preferably automatically separated item of laundry being supplied to the feeding machine, characterized in that two adjacent corners (20, 42) of an edge are formed on the separated item of laundry before the latter is supplied to the feeding machine, wherein the item of laundry is brought into a U-like configuration and, in the process, being stretched apart in the direction of feeding of the item of laundry into the laundry treatment device by the item of laundry being pulled by at least one clip over a spreading device, which stretches the item of laundry apart, and then the clip is opened, with the item of laundry being deposited with a central region or close to centre region on a depositing region of the spreading device in order to bring about the U-like configuration with end portions of the item of laundry hanging down on both sides from the depositing region 23, and in that the piece of laundry is pulled apart in the spreading device by at least two belt conveyors (27 to 32) which follow one another in the supply direction and are arranged one behind the other and one above the other and which are operated at least partially at different increasing transport speeds as seen in the supply direction, during transport in the supply direction to the feeding machine.
A force sense presentation device (100, 200, 300), comprising: a movable body; an actuator unit that is connected to the movable body; a posture detection unit that is configured to detect posture of the force sense presentation device; a signal generation unit that is configured to generate a driving signal for generating vibration on the actuator unit, the vibration having within an oscillation period a plurality of different frequencies; and a control unit that is configured to control the generation of the driving signal by the signal generation unit depending on the detected posture, wherein the signal generation unit is configured to generate the driving signal such that the actuator unit moves along a first direction under a first frequency and along a second direction opposite to the first direction under a second frequency different from the first frequency, wherein the force sense presentation device is configured to present to a user tactile senses of a force sense such as a frictional force by using the driving signal. a movable body; an actuator unit that is connected to the movable body; a posture detection unit that is configured to detect posture of the force sense presentation device; a signal generation unit that is configured to generate a driving signal for generating vibration on the actuator unit, the vibration having within an oscillation period a plurality of different frequencies; and a control unit that is configured to control the generation of the driving signal by the signal generation unit depending on the detected posture, wherein the signal generation unit is configured to generate the driving signal such that the actuator unit moves along a first direction under a first frequency and along a second direction opposite to the first direction under a second frequency different from the first frequency, wherein the force sense presentation device is configured to present to a user tactile senses of a force sense such as a frictional force by using the driving signal.
A procedure for obtaining a carbon electrode from acid battery wastes, usable as cathode or anode for applications in electrochemistry, electroplating, electrolytic refining, and in the field of sensor electrodes, characterized in that it comprises the following stages: a) extract the carbon from a cell, and then remove the carbon covering; b) boil the carbon in distilled water; c) wash the carbon with detergent, preferably neutral; d) sand and wash with boiling water and then with detergent until no more residue is obtained; e) sonicate in distilled water; f) subject the carbon to washing with petroleum ether or some other highly nonpolar solvent; g) sonicate and wash with organic solvents from low to high polarity, ending with water and changing the water until clean water is obtained; h) boil the carbon in a solution that contains a strong oxidant at acid pH; i) repeat the washing and sonicating procedure of stage (g) if necessary; j) polish in a conventional way for its use; k) inserting the carbon in teflon or PVC to insulate part of the carbon's surface; and l) making an inner thread in the carbon to make an electric connection. a) extract the carbon from a cell, and then remove the carbon covering; b) boil the carbon in distilled water; c) wash the carbon with detergent, preferably neutral; d) sand and wash with boiling water and then with detergent until no more residue is obtained; e) sonicate in distilled water; f) subject the carbon to washing with petroleum ether or some other highly nonpolar solvent; g) sonicate and wash with organic solvents from low to high polarity, ending with water and changing the water until clean water is obtained; h) boil the carbon in a solution that contains a strong oxidant at acid pH; i) repeat the washing and sonicating procedure of stage (g) if necessary; j) polish in a conventional way for its use; k) inserting the carbon in teflon or PVC to insulate part of the carbon's surface; and l) making an inner thread in the carbon to make an electric connection.
A method for producing a modified conjugated diene rubber which comprises (a) a step in which a conjugated diene polymer, which has an alkali metal or alkaline earth metal active end and is obtained by polymerizing a conjugated diene compound or by polymerizing a conjugated diene compound with an aromatic vinyl compound with at least one of an alkali metal compound and an alkaline earth metal compound used as a polymerization initiator, is reacted with a first alkoxysilane compound which has an alkoxysilyl group having two or more alkoxy groups and has a group protected by a protecting group wherein deprotection is possible to obtain a modified conjugated-diene polymer having an alkoxysilyl group and (b) a step in which the modified conjugated diene polymer having an alkoxysilyl group is reacted with a second alkoxysilane compound which has an alkoxysilyl group, wherein step (b) is conducted in the presence of a condensation catalyst for alkoxysilane compounds which contains a metallic element. (a) a step in which a conjugated diene polymer, which has an alkali metal or alkaline earth metal active end and is obtained by polymerizing a conjugated diene compound or by polymerizing a conjugated diene compound with an aromatic vinyl compound with at least one of an alkali metal compound and an alkaline earth metal compound used as a polymerization initiator, is reacted with a first alkoxysilane compound which has an alkoxysilyl group having two or more alkoxy groups and has a group protected by a protecting group wherein deprotection is possible to obtain a modified conjugated-diene polymer having an alkoxysilyl group and (b) a step in which the modified conjugated diene polymer having an alkoxysilyl group is reacted with a second alkoxysilane compound which has an alkoxysilyl group, wherein step (b) is conducted in the presence of a condensation catalyst for alkoxysilane compounds which contains a metallic element.