mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for making contact with an electrical conductor , in particular a cable conductor of a power supply cable, wherein the apparatus has a connecting body which delimits a receiving space into which the conductor with which contact is to be made can be inserted with its front end, and wherein the apparatus has a contact medium with which electrical contact can be made with the front end of the conductor accompanied by the action of a contact force, wherein the contact medium has a plurality of electrically conductive contact bodies which are introduced into the receiving space and bear against one another and of which at least a part can be brought into electrical contact-making contact with the front end of the conductor , characterised in that the contact bodies have an at least partially spherical surface, preferably are designed ball-shaped, and that the apparatus has at least one force-application element acting on the contact medium with which the contact force can be applied to the contact medium .
A method performed by a user equipment "UE" for wireless communication, the method comprising: establishing a signaling radio link with a cellular access node "AN" via a cellular radio access technology "RAT"; transmitting , to the cellular AN via the signaling radio link, a connectivity request comprising a packet data network "PDN" connectivity type set to "Ethernet" for establishing connectivity to a local area network "LAN", wherein the connectivity request further includes at least a first parameter configured to be one of a physical address of the UE, an Ethernet frame type, and at least a first virtual LAN "VLAN" tag; establishing a data radio link "DRL" with the cellular AN based at least in part on an acceptance of the connectivity request by the cellular AN, wherein the acceptance of the connectivity request comprises the UE receiving an accept message that includes at least a second parameter for configuring the connectivity to the LAN, wherein the second parameter is at least the physical address of the UE and one of: the Ethernet frame type and the at least first VLAN tag, and wherein establishing the DRL includes configuring the DRL based on the accept message, and mapping the DRL to the physical address of the UE; and signaling successful completion of connectivity to the LAN for establishing a data flow for exchanging data link layer packets with the LAN via the DRL. establishing a signaling radio link with a cellular access node "AN" via a cellular radio access technology "RAT"; transmitting , to the cellular AN via the signaling radio link, a connectivity request comprising a packet data network "PDN" connectivity type set to "Ethernet" for establishing connectivity to a local area network "LAN", wherein the connectivity request further includes at least a first parameter configured to be one of a physical address of the UE, an Ethernet frame type, and at least a first virtual LAN "VLAN" tag; establishing a data radio link "DRL" with the cellular AN based at least in part on an acceptance of the connectivity request by the cellular AN, wherein the acceptance of the connectivity request comprises the UE receiving an accept message that includes at least a second parameter for configuring the connectivity to the LAN, wherein the second parameter is at least the physical address of the UE and one of: the Ethernet frame type and the at least first VLAN tag, and wherein establishing the DRL includes configuring the DRL based on the accept message, and mapping the DRL to the physical address of the UE; and signaling successful completion of connectivity to the LAN for establishing a data flow for exchanging data link layer packets with the LAN via the DRL.
Method for operating a vacuum soldering system, wherein for a soldering process, in at least one method step , heat is introduced, in particular by heat radiation, into at least one vacuum chamber of the vacuum soldering system by means of at least one heating unit of the vacuum soldering system, which is embodied as an infrared heating unit, which is in particular arranged at the vacuum chamber and which is oriented vertically or horizontally, the heating unit comprising a plurality of infrared radiators , which are arranged at the vacuum chamber , wherein within the vacuum chamber , in particular along a direction extending at least substantially parallel to a longitudinal axis of the heating unit that is embodied as an infrared heating unit, at least two, in particular at least three, heat treatment zones realized as soldering zones with different soldering temperatures are provided, wherein an inhomogeneous temperature distribution is generated within the vacuum chamber along a maximum total extent of the vacuum chamber , in particular along the direction extending at least substantially parallel to the longitudinal axis of the heating unit that is embodied as an infrared heating unit, characterised in that in at least one operation state the heating unit surrounds the vacuum chamber by more than 90°. wherein for a soldering process, in at least one method step , heat is introduced, in particular by heat radiation, into at least one vacuum chamber of the vacuum soldering system by means of at least one heating unit of the vacuum soldering system, which is embodied as an infrared heating unit, which is in particular arranged at the vacuum chamber and which is oriented vertically or horizontally, the heating unit comprising a plurality of infrared radiators , which are arranged at the vacuum chamber , wherein within the vacuum chamber , in particular along a direction extending at least substantially parallel to a longitudinal axis of the heating unit that is embodied as an infrared heating unit, at least two, in particular at least three, heat treatment zones realized as soldering zones with different soldering temperatures are provided, wherein an inhomogeneous temperature distribution is generated within the vacuum chamber along a maximum total extent of the vacuum chamber , in particular along the direction extending at least substantially parallel to the longitudinal axis of the heating unit that is embodied as an infrared heating unit, characterised in that in at least one operation state the heating unit surrounds the vacuum chamber by more than 90°.
A protocol data unit, PDU, session activation method, characterized by comprising: receiving (S401), by a session management function, SMF, entity, a downlink data notification message; determining (S402), by the SMF entity, that a PDU session for transmitting the downlink data is a multi-access PDU session, and then determining at least one access and mobility management function, AMF, entity corresponding to the multi-access PDU session; and sending (S403), by the SMF entity, a message configured to activate the PDU session to the at least one AMF entity, wherein the message configured to activate the PDU session carries at least a PDU session identifier of the multi-access PDU session, and the message configured to activate the PDU session is used for enabling the at least one AMF entity to activate any one or specific one of at least two user plane connections of the multi-access PDU session corresponding to the PDU session identifier. receiving (S401), by a session management function, SMF, entity, a downlink data notification message; determining (S402), by the SMF entity, that a PDU session for transmitting the downlink data is a multi-access PDU session, and then determining at least one access and mobility management function, AMF, entity corresponding to the multi-access PDU session; and sending (S403), by the SMF entity, a message configured to activate the PDU session to the at least one AMF entity, wherein the message configured to activate the PDU session carries at least a PDU session identifier of the multi-access PDU session, and the message configured to activate the PDU session is used for enabling the at least one AMF entity to activate any one or specific one of at least two user plane connections of the multi-access PDU session corresponding to the PDU session identifier.
A musical sound effect adding device comprising: a periodic signal generator configured to generate a periodic signal synchronized with an n-beat or 1/n-beat (n: integer) cycle of a musical sound signal of music piece data; a plurality of acoustic signal generators each configured to generate an acoustic signal with a pitch continuously shifted on an octave basis in synchronization with the periodic signal; and a pitch shift section configured to shift the pitch of the acoustic signal generated from each of the plurality of acoustic signal generators to a mutually different pitch the periodic signal generator further configured to read beat position information from the music piece data to generate the periodic signal; the musical sound effect adding device being characterised by faders each configured to fade out the acoustic signal generated by each of the acoustic signal generators when a pitch of the acoustic signal reaches a first pitch and fade in the acoustic signal when the acoustic signal reaches a second pitch. a periodic signal generator configured to generate a periodic signal synchronized with an n-beat or 1/n-beat (n: integer) cycle of a musical sound signal of music piece data; a plurality of acoustic signal generators each configured to generate an acoustic signal with a pitch continuously shifted on an octave basis in synchronization with the periodic signal; and a pitch shift section configured to shift the pitch of the acoustic signal generated from each of the plurality of acoustic signal generators to a mutually different pitch the periodic signal generator further configured to read beat position information from the music piece data to generate the periodic signal; the musical sound effect adding device being characterised by faders each configured to fade out the acoustic signal generated by each of the acoustic signal generators when a pitch of the acoustic signal reaches a first pitch and fade in the acoustic signal when the acoustic signal reaches a second pitch.
Vehicle heating device comprising a control device with electronic and a heat exchanger having a temperature sensor for a vehicle heating device , wherein the heat exchanger comprises - the temperature sensor , - a heat input surface , - an electrical heating element controlled by the control device and arranged on the heat input surface , and - a heat output surface , at which heat is transmitted to a medium which is to be heated up, wherein a heat exchanger body of the heat exchanger comprises fins which extend substantially perpendicular to the heat input surface and define at least one duct in which the medium flows, characterized in that the temperature sensor is arranged in a depression on the heat output surface , and that the control device is arranged on a heat exchanger side facing away from the electrical heating element , wherein the depression is formed in a direction of thickness of the heat exchanger perpendicular to the heat input surface. - the temperature sensor , - a heat input surface , - an electrical heating element controlled by the control device and arranged on the heat input surface , and - a heat output surface , at which heat is transmitted to a medium which is to be heated up,
Method of producing an axial turbine engine stator , particularly a compressor stator (4; 6), said stator comprising an external shroud (28; 128) with an internal surface (46; 146) and an annular row of stator blades extending radially inwardly from the shroud (28; 128), the method comprising the following stages carried out in that order: (a) supply or production (74; 174) of a material bar (34; 134); (b) bending (76; 176) of the bar (34; 134) so that it makes a circle, in order to form an external shroud (28; 128); (c) welding (78; 178) of a row of blades onto the external shroud (28; 128); characterized in that the internal surface (46; 146) of the shroud comprises blade-receiving portions (42; 142) which are generally perpendicular to the radial direction and formed on blade stubs (40; 140) and in that during the welding (78; 178) stage (c), the blades are friction-welded onto the blade-receiving portions (42; 142). (a) supply or production (74; 174) of a material bar (34; 134); (b) bending (76; 176) of the bar (34; 134) so that it makes a circle, in order to form an external shroud (28; 128); (c) welding (78; 178) of a row of blades onto the external shroud (28; 128);
A method, comprising: generating a first clock signal using clock generation circuitry included in a synchronous digital system; selecting the first clock signal as a primary clock signal for the synchronous digital system; replacing the first clock signal with a second clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during a time when the second clock signal is acting as the primary clock signal by selecting the second clock signal in response to a condition requiring selection of a clock signal generated on-chip as the primary clock, wherein the condition comprises a signal indicating possible tampering with the synchronous digital system; and in response to determining the clock generation circuitry has stabilized, replacing the second clock signal with the first clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system. generating a first clock signal using clock generation circuitry included in a synchronous digital system; selecting the first clock signal as a primary clock signal for the synchronous digital system; replacing the first clock signal with a second clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during a time when the second clock signal is acting as the primary clock signal by selecting the second clock signal in response to a condition requiring selection of a clock signal generated on-chip as the primary clock, wherein the condition comprises a signal indicating possible tampering with the synchronous digital system; and in response to determining the clock generation circuitry has stabilized, replacing the second clock signal with the first clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system.
A method of forming an NMOS device comprising: forming openings in a silicon substrate in source/drain regions of the NMOS device; forming a dislocation nucleation material in the source/drain openings on the substrate , wherein the dislocation nucleation material comprises a lattice constant that is larger than a substrate lattice constant, wherein the dislocation nucleation material comprises a silicon germanium material that is selectively grown in the source/drain openings and wherein a plurality of dislocations form in the dislocation nucleation material ; and forming a silicon or silicon carbon alloy source/drain material on the dislocation nucleation material , wherein a plurality of source/drain dislocations are formed in the source/drain material , wherein a tensile strain along a conduction direction is imparted to a channel region adjacent the source/drain material . forming openings in a silicon substrate in source/drain regions of the NMOS device; forming a dislocation nucleation material in the source/drain openings on the substrate , wherein the dislocation nucleation material comprises a lattice constant that is larger than a substrate lattice constant, wherein the dislocation nucleation material comprises a silicon germanium material that is selectively grown in the source/drain openings and wherein a plurality of dislocations form in the dislocation nucleation material ; and forming a silicon or silicon carbon alloy source/drain material on the dislocation nucleation material , wherein a plurality of source/drain dislocations are formed in the source/drain material , wherein a tensile strain along a conduction direction is imparted to a channel region adjacent the source/drain material .
Organic or hybrid electronic device, having an NIP structure, comprising successively: - a transparent substrate , - a first transparent and electrically conducting electrode - an N type layer , - an active layer comprising a polyethylenimine (PEI) and: ∘ an electron donor material and an electron acceptor material, ∘ or a perovskite material, - a P type layer , - a second electrode , characterized in that the active layer has a concentration gradient of PEI that increases towards the interface of the active layer /N type layer . - a transparent substrate , - a first transparent and electrically conducting electrode - an N type layer , - an active layer comprising a polyethylenimine (PEI) and: ∘ an electron donor material and an electron acceptor material, ∘ or a perovskite material, ∘ an electron donor material and an electron acceptor material, ∘ or a perovskite material, - a P type layer , - a second electrode , characterized in that the active layer has a concentration gradient of PEI that increases towards the interface of the active layer /N type layer .
A method of manufacturing a loop antenna, the method comprising: obtaining a fixture comprising a first fixture and a second fixture , the first fixture comprising: a first platform having a first end and a second end, the first and second ends being located generally opposite of one another; and a first plurality of retainers positioned around a periphery of the platform; the second fixture comprising: a second platform having a first end and a second end, the first and second ends being located generally opposite of one another; and a second plurality of retainers positioned around a periphery of the platform of the second fixture; attaching the second fixture to the first fixture ; securing the fixture to a base; wrapping a wire around the retainers of both the first and second fixtures to form one loop encompassing both the first and second fixtures, the loop and fixture together comprising an antenna assembly ; and removing the fixture from the base without removing the loop from the retainers of the fixture. obtaining a fixture comprising a first fixture and a second fixture , the first fixture comprising: a first platform having a first end and a second end, the first and second ends being located generally opposite of one another; and a first plurality of retainers positioned around a periphery of the platform; the second fixture comprising: a second platform having a first end and a second end, the first and second ends being located generally opposite of one another; and a second plurality of retainers positioned around a periphery of the platform of the second fixture; attaching the second fixture to the first fixture ; securing the fixture to a base; wrapping a wire around the retainers of both the first and second fixtures to form one loop encompassing both the first and second fixtures, the loop and fixture together comprising an antenna assembly ; and removing the fixture from the base without removing the loop from the retainers of the fixture. wrapping a wire around the retainers of both the first and second fixtures to form one loop encompassing both the first and second fixtures, the loop and fixture together comprising an antenna assembly ; and removing the fixture from the base without removing the loop from the retainers of the fixture.
A rubber composition comprising: a rubber component comprising 70% by mass or more in total of at least one selected from the group consisting of a butyl rubber and a halogenated butyl rubber; a terpene-based resin having a glass-transition temperature of 60°C or lower; and 6 to 30 parts by mass in total of a non-terpene resin, other than the terpene-based resin having the glass-transition temperature of 60°C or lower, based on 100 parts by mass of the rubber component, the non-terpene resin having a glass-transition temperature of 50°C or higher, wherein the air permeability coefficient of the rubber composition calculated from the air permeation amount is 4.6 × 10 -11 cm 3 ·cm/(cm 2 ·s·Pa) or less, where the air permeation amount is an air permeation amount measured in accordance with a gas permeability test method using a gas chromatographic method, described in JIS K7126-1: 2006.
A system for measuring a radiation dose received by a patient, in real-time, in-vivo and at different locations along the length of a light guide, the system comprising: a) a light guide , which under the influence of ionizing radiation undergoes measurable and quantifiable physical changes; wherein the light guide is coated, over at least part of its length, with a coating comprising a first component acting as a place dependent spectral filter and a second component including at least one luminescent material, dispersed in a transparent matrix; b) a detector system which allows the recording and quantification of the signal emitted by the coated light guide; and c) a control unit which is adapted for calculating a dose of ionizing radiation previously or simultaneously received by the light guide on the basis of the filtered luminescence signal received or generated by said light guide . a) a light guide , which under the influence of ionizing radiation undergoes measurable and quantifiable physical changes; wherein the light guide is coated, over at least part of its length, with a coating comprising a first component acting as a place dependent spectral filter and a second component including at least one luminescent material, dispersed in a transparent matrix; b) a detector system which allows the recording and quantification of the signal emitted by the coated light guide; and c) a control unit which is adapted for calculating a dose of ionizing radiation previously or simultaneously received by the light guide on the basis of the filtered luminescence signal received or generated by said light guide .
An information processing device comprising: an acquisition unit configured to acquire attention information regarding an attention target of a user; and a zoom control unit configured to perform zoom control of a camera on a basis of non-zoom control of the camera and the attention information when the non-zoom control is performed on a basis of the attention information, wherein the non-zoom control of the camera moves the attention target to a desired position in a field of view of the camera. an acquisition unit configured to acquire attention information regarding an attention target of a user; and a zoom control unit configured to perform zoom control of a camera on a basis of non-zoom control of the camera and the attention information when the non-zoom control is performed on a basis of the attention information, wherein the non-zoom control of the camera moves the attention target to a desired position in a field of view of the camera.