mhurhangee/ep-ind-claims huggingface dataset:
A facility for producing radioisotopes, comprising: - at least one target able to receive a compound to be irradiated with an accelerated particle beam, - a cyclotron for producing said accelerated particle beam, comprising at least one accelerating cavity within which the beam is subjected to a radiofrequency electric field in order to be accelerated and to a magnetic field enabling it to travel through the cavity several times, describing orbits about an axis of the cyclotron, this magnetic field being produced by at least one coil, characterized in that, in which facility, the target is inside the coil when the latter is observed along the axis of the cyclotron, the coil not having symmetry of revolution about this axis. - at least one target able to receive a compound to be irradiated with an accelerated particle beam, - a cyclotron for producing said accelerated particle beam, comprising at least one accelerating cavity within which the beam is subjected to a radiofrequency electric field in order to be accelerated and to a magnetic field enabling it to travel through the cavity several times, describing orbits about an axis of the cyclotron, this magnetic field being produced by at least one coil,
A lead-free piezoelectric ceramic composition whose main phase is of an alkali niobate/tantalate perovskite oxide having piezoelectric properties and whose subphase is of a metal oxide different from the main phase, characterized in that: the mole ratio (Na/K) between Na (sodium) and K (potassium) in the main phase falls within a range represented by 0.40 < (Na/K) < 3.0; the main phase has a crystal structure in which (i) first spots corresponding to a primitive lattice period and (ii) second spots corresponding to a lattice period two times the primitive lattice period and being weaker than the first spots appear in an electron beam diffraction image obtained through a transmission electron microscope on the condition that an electron beam enters from the <100> direction with the main phase represented as a pseudo-cubic crystal system; and the water absorption rate of the lead-free piezoelectric ceramic composition is 0.1% or less. the mole ratio (Na/K) between Na (sodium) and K (potassium) in the main phase falls within a range represented by 0.40 < (Na/K) < 3.0; the main phase has a crystal structure in which (i) first spots corresponding to a primitive lattice period and (ii) second spots corresponding to a lattice period two times the primitive lattice period and being weaker than the first spots appear in an electron beam diffraction image obtained through a transmission electron microscope on the condition that an electron beam enters from the <100> direction with the main phase represented as a pseudo-cubic crystal system; and (i) first spots corresponding to a primitive lattice period and (ii) second spots corresponding to a lattice period two times the primitive lattice period and being weaker than the first spots appear in an electron beam diffraction image obtained through a transmission electron microscope on the condition that an electron beam enters from the <100> direction with the main phase represented as a pseudo-cubic crystal system; and the water absorption rate of the lead-free piezoelectric ceramic composition is 0.1% or less.
Method for protecting a charging cable in a charging device for charging a traction battery of an electrically drivable vehicle, characterized in that - a resistance value is determined, which corresponds to the magnitude of the electrical resistance between two contacts (44, 46) of the charging cable, wherein the magnitude of the electrical resistance indicates the current-carrying capacity of the charging cable, and - one of a plurality of line protection devices (20, 22, 24, 26), which are arranged in the charging device and each implement overcurrent protection and short circuit protection, are switched into the charging current path depending on the determined resistance value. - a resistance value is determined, which corresponds to the magnitude of the electrical resistance between two contacts (44, 46) of the charging cable, wherein the magnitude of the electrical resistance indicates the current-carrying capacity of the charging cable, and - one of a plurality of line protection devices (20, 22, 24, 26), which are arranged in the charging device and each implement overcurrent protection and short circuit protection, are switched into the charging current path depending on the determined resistance value.
An apparatus, comprising: first circuitry adapted to determine a service name of a Wi-Fi serial bus, WSB, service that supports one or more functions of a universal serial bus, USB, device, wherein the service name comprises a service name component indicating a USB class of the USB device and a service name component indicating a USB subclass of the USB device; and second circuitry adapted to modulate a message for wireless transmission in accordance with a service discovery mechanism of a Wi-Fi Direct Services, WFDS, framework, wherein the message comprises the service name for the WSB service that supports the one or more functions of the USB device; and wherein the service name comprises a Wi-Fi Direct Services, WFDS, service name. first circuitry adapted to determine a service name of a Wi-Fi serial bus, WSB, service that supports one or more functions of a universal serial bus, USB, device, wherein the service name comprises a service name component indicating a USB class of the USB device and a service name component indicating a USB subclass of the USB device; and second circuitry adapted to modulate a message for wireless transmission in accordance with a service discovery mechanism of a Wi-Fi Direct Services, WFDS, framework, wherein the message comprises the service name for the WSB service that supports the one or more functions of the USB device; and wherein the service name comprises a Wi-Fi Direct Services, WFDS, service name.
Liquid cooling device for electronic cards comprising a plurality of electronic modules (20, 20a, 20b; 120), such as memory modules or electronic components similar or comparable to memory modules, associated to a printed circuit board which comprises support elements configured to position said electronic modules (20, 20a, 20b; 120) inclined with respect to said printed circuit board by a first acute angle (α), said electronic cards further comprising connection elements of a shape mating with said electronic modules (20, 20a, 20b; 120), so as to house inside them part of said electronic modules (20, 20a, 20b; 120) for connection to said printed circuit board, and wherein said liquid cooling device comprises at least a plate-type heat exchange means in order to cool in contact at least a portion of each of said electronic modules (20, 20a, 20b; 120) protruding from a corresponding connection element and bearing one or more electronic components to be cooled, wherein said heat exchange means is provided with at least a cooling circuit comprising pipes which extend parallel to the longitudinal development of the connection elements of the electronic modules (20, 20a, 20b; 120) and through which a cooling liquid is able to pass, said heat exchange means having a heat exchange surface which can be positioned, when in use, substantially parallel to said printed circuit board, wherein said heat exchange surface comprises a plurality of cavities which develop in a main direction substantially parallel to said pipes, each cavity having at least a contact surface inclined with respect to said heat exchange surface by a second acute angle (β), and wherein interposition means (26, 26a, 26b; 126) are provided, which can be inserted in said cavities to be interposed between said contact surfaces and said support elements, so as to each cooperate directly in contact with both the contact surface of the corresponding cavity of said heat exchange surface and also with the corresponding portion of each of said electronic modules (20, 20a, 20b; 120) protruding from said connection elements which has said electronic components, wherein said interposition means (26, 26a, 26b; 126) comprises at least a first interface element (35; 150; 250) and a substantially rigid interposition element (36; 153), wherein said first interface element (35; 150; 250) is made of high deformability heat-conductive material and is interposed, in direct contact with said contact surface, between a first surface to be cooled of the corresponding electronic module (20, 20a, 20b; 120) and said contact surface, further wherein said interposition element (36; 153) is interposed between said electronic module (20, 20a, 20b; 120) and said support element and is shaped to cover a top end and a second surface, opposite said first surface, of the corresponding electronic module (20, 20a, 20b; 120), so as to completely surround at least said corresponding portion of said electronic modules (20, 20a, 20b; 120) which has said electronic components.
A flap support structure for a trailing edge flap of an aircraft wing, the flap support structure comprising: a flap support beam including an aerodynamic fairing; a drive unit which rotatably receives a drive shaft connected to a drive arm for moving a trailing edge flap supported by the flap support structure; and a universal support structure; wherein the universal support structure forms part of the drive unit and supports the drive shaft, and also forms part of the flap support beam, and wherein the drive shaft is supported by an upper portion of the universal support structure which projects beyond the aerodynamic fairing, characterised by: the universal support structure supporting the aerodynamic fairing. the universal support structure supporting the aerodynamic fairing.
A spun yarn take-up system comprising spun yarn take-up apparatuses each of which is configured to wind yarns spun out from a spinning device provided on an upper floor by a winding device provided on a lower floor, each of the spun yarn take-up apparatuses including: a yarn sucking unit provided on the upper floor; and a yarn bring-down apparatus which brings the yarns held by the yarn sucking unit down to the lower floor from the upper floor, the spun yarn take-up system comprising: a sending unit (3,4,61,62,63,64) which sends a delivery complete signal indicating that, in at least one of the spun yarn take-up apparatuses, the yarns brought down to the lower floor by the yarn bring-down apparatus are delivered to a yarn threading robot or an operator on the lower floor; and a valve controlling unit which closes a valve of the yarn sucking unit of the at least one of the spun yarn take-up apparatuses, upon receiving the delivery complete signal from the sending unit (3,4,61,62,63,64). a yarn sucking unit provided on the upper floor; and a yarn bring-down apparatus which brings the yarns held by the yarn sucking unit down to the lower floor from the upper floor, the spun yarn take-up system comprising: a sending unit (3,4,61,62,63,64) which sends a delivery complete signal indicating that, in at least one of the spun yarn take-up apparatuses, the yarns brought down to the lower floor by the yarn bring-down apparatus are delivered to a yarn threading robot or an operator on the lower floor; and a valve controlling unit which closes a valve of the yarn sucking unit of the at least one of the spun yarn take-up apparatuses, upon receiving the delivery complete signal from the sending unit (3,4,61,62,63,64).
Method for controlling an industrial truck having a control device which regulates the velocity of the industrial truck on the basis of a velocity setpoint signal of a drive signal generator and having an electric steering system, in which the control device sets the steering lock angle of at least one steered wheel by means of an actuator drive on the basis of a steering setpoint signal of a steering operator control device, wherein a steering lock actual value is sensed, and wherein the maximum velocity is limited, in particular the velocity setpoint signal is limited, via the control device as a function of the steering lock angle, characterised in that the control device determines the maximum value of the steering setpoint signal and the steering lock actual value and the limitation of the velocity takes place as a function of the maximum value.
A method for use in a wireless transmit/receive unit, WTRU, for multiple access wireless communications, the method comprising: receiving configuration information indicating a set of physical channel frequency resources; receiving a downlink control information, DCI, message, wherein the DCI message includes an indication of an allocation of at least a subset of the set of physical channel frequency resources; determining one or more physical shared channel frequency resources, from the subset of the set of physical channel frequency resources, and a time period; transmitting data in a physical shared channel transmission using the determined one or more physical shared channel frequency resources during the determined time period; determining a time location for reception of hybrid automatic repeat request acknowledgement, HARQ-ACK, information associated with the transmitted data, wherein the determination of the time location is based on the subset of the set of physical channel frequency resources; and receiving the HARQ-ACK information during the determined time location (855, 865, 895). receiving configuration information indicating a set of physical channel frequency resources; receiving a downlink control information, DCI, message, wherein the DCI message includes an indication of an allocation of at least a subset of the set of physical channel frequency resources; determining one or more physical shared channel frequency resources, from the subset of the set of physical channel frequency resources, and a time period; transmitting data in a physical shared channel transmission using the determined one or more physical shared channel frequency resources during the determined time period; determining a time location for reception of hybrid automatic repeat request acknowledgement, HARQ-ACK, information associated with the transmitted data, wherein the determination of the time location is based on the subset of the set of physical channel frequency resources; and receiving the HARQ-ACK information during the determined time location (855, 865, 895).
A rotor blade mould for the manufacture of a rotor blade for a wind energy installation, wherein the rotor blade comprises a blade root and a blade tip and wherein the rotor blade extends in a longitudinal direction from the blade root to the blade tip, wherein the rotor blade mould comprises: - a first rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade root, - a second rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade tip, and - at least a third rotor blade mould segment (4, 4', 5, 5', 7) which is adapted to be integrated in the rotor blade mould between the first rotor blade mould segment and the second rotor blade mould segment, and / or to be removed from the rotor blade mould and thereby to lengthen or shorten the rotor blade mould in the longitudinal direction, characterised in that the at least one third rotor blade mould segment (4', 5', 7) has a cross-sectional area extending substantially perpendicular to the longitudinal direction, the shape and / or size of which cross-sectional area is substantially constant at different positions of the cross-sectional area along the longitudinal direction. - a first rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade root, - a second rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade tip, and - at least a third rotor blade mould segment (4, 4', 5, 5', 7) which is adapted to be integrated in the rotor blade mould between the first rotor blade mould segment and the second rotor blade mould segment, and / or to be removed from the rotor blade mould and thereby to lengthen or shorten the rotor blade mould in the longitudinal direction, characterised in that the at least one third rotor blade mould segment (4', 5', 7) has a cross-sectional area extending substantially perpendicular to the longitudinal direction, the shape and / or size of which cross-sectional area is substantially constant at different positions of the cross-sectional area along the longitudinal direction.
A method for producing an ultrafine fiber-containing sheet, comprising at least: (a) introducing a substituent having electrostatic and/or steric functionality to a fiber raw material to obtain substituent-introduced fiber, wherein the fiber raw material is a material containing cellulose, chitin, and/or chitosan and wherein the substituent having electrostatic and/or steric functionality is at least one group selected from the group consisting of a phosphoric acid-derived group, a carboxylic acid-derived group, and a sulfuric acid-derived group; (b) nanofibrillation treatment by using a defibration treatment apparatus of the substituent-introduced fiber obtained in the step (a) to obtain substituent-introduced ultrafine fiber having an average fiber width of 2 to 1000 nm; (c) preparing a sheet from the substituent-introduced ultrafine fiber obtained in the step (b); and (d) eliminating at least a portion of introduced substituents by treating the sheet obtained in the step (c) with an alcohol, until the amount of the substituent introduced in the sheet is 0.01 to 0.1 mmol/g.
A key blank for cutting to form a key to operate within a hierarchical lock system, the key blank having a bow connected to a generally flat-sided blade which has a top edge for cutting key bits therein, a bottom edge, and opposite sides for receiving grooves and ridges which define a cross-sectional shape of the key blade, wherein the blade is divided into three or more sections (A,B,C,C') between the bottom edge and the top edge, and wherein the sections (A,B,C,C') comprise: a first section having a registry groove for registering the key blade by holding the key blank in a reference position during machining; a second section having a groove that determines a primary family of a hierarchical lock system; and a third section (C.C') having different formed configurations on opposite sides of the key blank blade, one side having curved longitudinal grooves (121,123, 126) and ridges (122,124,125) both defining a curvilinear profile which can be used to determine the secondary and subgroups of the hierarchical lock system, and the other side (C') of the blade in the third section (C,C') having grooves with substantially rectangular or straight angular shapes (131,132',133) which vary in depth into the side of the blade so that the position and depth of such grooves can determine the individual location in the subgroup of the hierarchical lock system, characterized in that the grooves (121,123, 126) and ridges(122,124,125) formed on the one side of the key blade have circular profiles that are centered on a curvilinear line corresponding to the curvilinear profile. a first section having a registry groove for registering the key blade by holding the key blank in a reference position during machining; a second section having a groove that determines a primary family of a hierarchical lock system; and a third section (C.C') having different formed configurations on opposite sides of the key blank blade, one side having curved longitudinal grooves (121,123, 126) and ridges (122,124,125) both defining a curvilinear profile which can be used to determine the secondary and subgroups of the hierarchical lock system, and the other side (C') of the blade in the third section (C,C') having grooves with substantially rectangular or straight angular shapes (131,132',133) which vary in depth into the side of the blade so that the position and depth of such grooves can determine the individual location in the subgroup of the hierarchical lock system, characterized in that the grooves (121,123, 126) and ridges(122,124,125) formed on the one side of the key blade have circular profiles that are centered on a curvilinear line corresponding to the curvilinear profile.
A system comprising: an outer container; and a one-time shielding member (130; 130A) adapted to obscure a radio frequency readable tag (RFID) of a contained product (140A; 140B) from a radio frequency tag reader, wherein removal of the contained product (140A; 140B) from the outer container breaks the shielding member (130; 130A) which renders the shielding unusable as a subsequent shielding member, characterized in that an inner container (120A; 120B) disposed within the outer container has the one-time shielding member (130; 130A) made of a brittle material. an outer container; and a one-time shielding member (130; 130A) adapted to obscure a radio frequency readable tag (RFID) of a contained product (140A; 140B) from a radio frequency tag reader, wherein removal of the contained product (140A; 140B) from the outer container breaks the shielding member (130; 130A) which renders the shielding unusable as a subsequent shielding member, characterized in that an inner container (120A; 120B) disposed within the outer container has the one-time shielding member (130; 130A) made of a brittle material.
A process comprising the steps of: (a) heating to 30 - 70°C a compound of formula in the presence of hydrogen gas, a base and a homogeneous ruthenium catalyst resulting in a compound of formula (b) followed by increasing the temperature up to 100 - 150°C, resulting in a compound of formula wherein R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond. (a) heating to 30 - 70°C a compound of formula in the presence of hydrogen gas, a base and a homogeneous ruthenium catalyst resulting in a compound of formula (b) followed by increasing the temperature up to 100 - 150°C, resulting in a compound of formula wherein R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond. R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond.