mhurhangee/ep-ind-claims huggingface dataset:
An alloy powder having a predetermined chemical composition comprising: Co within a range of 20 atomic % or more and 35 atomic % or less; Cr within a range of 10 atomic % or more and 25 atomic % or less; Fe within a range of 10 atomic % or more and 25 atomic % or less; Ni within a range of 15 atomic % or more and 30 atomic % or less; and Ti within a range of 5 atomic % or more and 15 atomic % or less; Mo within a range of 1 atomic % or more and 5 atomic % or less; an element with a larger atomic radius than the atomic radiuses of the Co, Cr, Fe and Ni within a range of 1 atomic % or more and 4 atomic % or less; and a balance of inevitable impurities, wherein the element with a larger atomic radius is at least one from among Ta, Nb, Hf, Zr, and Y, and the total content of the element with a larger atomic radius and the Mo is 2 atomic % or more and 6 atomic % or less. Co within a range of 20 atomic % or more and 35 atomic % or less; Cr within a range of 10 atomic % or more and 25 atomic % or less; Fe within a range of 10 atomic % or more and 25 atomic % or less; Ni within a range of 15 atomic % or more and 30 atomic % or less; and Ti within a range of 5 atomic % or more and 15 atomic % or less; Mo within a range of 1 atomic % or more and 5 atomic % or less; an element with a larger atomic radius than the atomic radiuses of the Co, Cr, Fe and Ni within a range of 1 atomic % or more and 4 atomic % or less; and a balance of inevitable impurities, wherein the element with a larger atomic radius is at least one from among Ta, Nb, Hf, Zr, and Y, and the total content of the element with a larger atomic radius and the Mo is 2 atomic % or more and 6 atomic % or less.
A method for forming a circuit comprising: providing an ink containing a plurality of pre-formed, 3-terminal semiconductor electrical devices (40; 74) mixed in a solvent, thereby producing an ink, each of the devices (40; 74) having a first electrode (58; 80), a second electrode (48; 76), and a third electrode (46; 78); providing a substrate having a first conductor layer; depositing the ink over the first conductor layer; curing the ink to form a layer of the devices (40; 74) having the first electrode (58; 80) electrically connected to the first conductor layer; depositing a first dielectric layer overlying the first conductor layer; depositing a second conductor layer overlying the first dielectric layer to electrically contact the second electrode (48; 76); and depositing a third conductor layer overlying the first dielectric layer to electrically contact the third electrode (46; 78), wherein the devices (40; 74) are electrically connected in parallel by a combination of the first conductor layer, the second conductor layer, and the third conductor layer, wherein the first electrode is a bottom electrode of the devices, the third electrode is a top electrode of the devices, and the second electrode is an intermediate electrode located vertically between the top electrode and the bottom electrode, and wherein the method further comprises depositing a second dielectric layer over the second conductor layer, wherein the step of depositing the third conductor layer comprises depositing the third conductor layer over the second dielectric layer. providing an ink containing a plurality of pre-formed, 3-terminal semiconductor electrical devices (40; 74) mixed in a solvent, thereby producing an ink, each of the devices (40; 74) having a first electrode (58; 80), a second electrode (48; 76), and a third electrode (46; 78); providing a substrate having a first conductor layer; depositing the ink over the first conductor layer; curing the ink to form a layer of the devices (40; 74) having the first electrode (58; 80) electrically connected to the first conductor layer; depositing a first dielectric layer overlying the first conductor layer; depositing a second conductor layer overlying the first dielectric layer to electrically contact the second electrode (48; 76); and depositing a third conductor layer overlying the first dielectric layer to electrically contact the third electrode (46; 78), wherein the devices (40; 74) are electrically connected in parallel by a combination of the first conductor layer, the second conductor layer, and the third conductor layer, wherein the first electrode is a bottom electrode of the devices, the third electrode is a top electrode of the devices, and the second electrode is an intermediate electrode located vertically between the top electrode and the bottom electrode, and wherein the method further comprises depositing a second dielectric layer over the second conductor layer, wherein the step of depositing the third conductor layer comprises depositing the third conductor layer over the second dielectric layer.
A data processing method performed by a data mapping processing function module, comprising: receiving a second message, wherein the second message comprises a data type and a coding mode used to indicate a data collection requirement; determining, based on a locally stored context of each collector and the second message, a collector that supports the data type and the coding mode in the second message, wherein the context of the collector comprises attribute capability information of the collector; receiving (101, 411) data description information and reported data from the determined collector that supports the data type and the coding mode in the second message, wherein the data description information comprises at least one of a vendor name, network element version information, a data type supported by a network management system, or a coding mode supported by the network management system; converting (102, 414) the reported data based on the data description information, wherein reported data obtained through conversion meets a virtual network function event streaming VES specification; and sending (103, 416) a VES event, wherein the VES event comprises the reported data obtained through conversion. receiving a second message, wherein the second message comprises a data type and a coding mode used to indicate a data collection requirement; determining, based on a locally stored context of each collector and the second message, a collector that supports the data type and the coding mode in the second message, wherein the context of the collector comprises attribute capability information of the collector; receiving (101, 411) data description information and reported data from the determined collector that supports the data type and the coding mode in the second message, wherein the data description information comprises at least one of a vendor name, network element version information, a data type supported by a network management system, or a coding mode supported by the network management system; converting (102, 414) the reported data based on the data description information, wherein reported data obtained through conversion meets a virtual network function event streaming VES specification; and sending (103, 416) a VES event, wherein the VES event comprises the reported data obtained through conversion.
An instep enclosure arrangement for a cabin of a vehicle, comprising at least one instep portion, a retractable cover for enclosing access to the instep portion in a closed orientation, and a displaceable mechanical linkage assembly for operatively connecting the retractable cover with a door of the vehicle, whereby the retractable cover is configured to move from the closed orientation towards a retracted state in response to a movement of the door so as to permit access to the instep portion, wherein the displaceable mechanical linkage assembly is arranged to extend between the retractable cover and the door, the displaceable mechanical linkage assembly further comprising a movable door-cabin connecting part for connecting the door with the cabin, said movable door-cabin connecting part being arranged to effect movement of the retractable cover upon a rotational movement of the door, and wherein the moveable door-cabin connecting part is a door rotational locking device configured to stop the door at a number of positions.
A method for producing a transparent polycarbonate article, the method comprising: melting a composition at a temperature of 300 to 390°C, the composition comprising a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g, and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; extruding the melted composition to form a strand; cooling the strand of extruded composition to at least 20°C below the T g of the polycarbonate; cutting the cooled strand into pellets of the extruded composition; drying the pellets at a temperature of 50 to 140 °C; and injection molding or extruding the pellets at a temperature of 300 to 380 °C to form an article, wherein the article has a haze of less than 5% and a percent transmission above 70% at 3.2 mm according to ASTM D1003-00. melting a composition at a temperature of 300 to 390°C, the composition comprising a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g, and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g, and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; extruding the melted composition to form a strand; cooling the strand of extruded composition to at least 20°C below the T g of the polycarbonate; cutting the cooled strand into pellets of the extruded composition; drying the pellets at a temperature of 50 to 140 °C; and injection molding or extruding the pellets at a temperature of 300 to 380 °C to form an article, wherein the article has a haze of less than 5% and a percent transmission above 70% at 3.2 mm according to ASTM D1003-00.
Electric motor, which comprises a stator; which stator comprises slots, into which slots a concentrated winding is fitted; and which electric motor comprises a rotating rotor; which rotor comprises permanent magnets (3a, 3b) placed consecutively in a ring in the direction of the rotational movement; wherein the ratio L M L P of the width (L M) of a permanent magnet (3a, 3b) at the center line of the magnet and the width (L P) of the magnetic pole of the rotor is at least 2/3 and at most 4/5 characterized in that the direction of at least one side of at least one permanent magnet (3a, 3b) on the rotor differs from the direction of the stator slot with a slot inclination (s), the ratio S L P of which slot inclination (s) and the width (L P) of a magnetic pole of the rotor is at least 5/36 and at most 1/5 wherein, in degrees of electrical angle, the slot indication ranges between 25 and 36 degrees of electrical angle. which stator comprises slots, into which slots a concentrated winding is fitted; and which electric motor comprises a rotating rotor; which rotor comprises permanent magnets (3a, 3b) placed consecutively in a ring in the direction of the rotational movement; wherein the ratio L M L P of the width (L M) of a permanent magnet (3a, 3b) at the center line of the magnet and the width (L P) of the magnetic pole of the rotor is at least 2/3 and at most 4/5 characterized in that the direction of at least one side of at least one permanent magnet (3a, 3b) on the rotor differs from the direction of the stator slot with a slot inclination (s), the ratio S L P of which slot inclination (s) and the width (L P) of a magnetic pole of the rotor is at least 5/36 and at most 1/5 wherein, in degrees of electrical angle, the slot indication ranges between 25 and 36 degrees of electrical angle.
Medication device for the dosed dispensing of a fluidic medium, in particular a fluidic therapeutic and/or diagnostic agent, in particular an insulin pump, comprising: a) at least one transporting and transferring container, the transporting and transferring container having at least one reservoir for receiving the fluidic medium, the reservoir having at least one displaceable element, the displaceable element being mounted movably in relation to the reservoir and a relative positioning of the displaceable element in relation to the reservoir determining an interior space of the reservoir available for receiving the fluidic medium, b) at least one measuring element, the measuring element being designed to sense the relative positioning of the displaceable element in relation to the reservoir, and c) at least one adjusting element for influencing a dispensing of the fluidic medium by way of at least one fluid connection to the interior space, the measuring element and the adjusting element interacting in such a way that the dispensing of the fluidic medium is influenced by the relative positioning sensed by the measuring element, characterized in that the medication device has at least one housing, the reservoir being movably accommodated in the housing and the displaceable element being fixed in relation to the housing, the measuring element being designed to sense a relative positioning of the reservoir in the housing. a) at least one transporting and transferring container, the transporting and transferring container having at least one reservoir for receiving the fluidic medium, the reservoir having at least one displaceable element, the displaceable element being mounted movably in relation to the reservoir and a relative positioning of the displaceable element in relation to the reservoir determining an interior space of the reservoir available for receiving the fluidic medium, b) at least one measuring element, the measuring element being designed to sense the relative positioning of the displaceable element in relation to the reservoir, and c) at least one adjusting element for influencing a dispensing of the fluidic medium by way of at least one fluid connection to the interior space,
A resonant interferometric coupler comprising: a substrate; a bus waveguide mounted to the substrate, the bus waveguide having in serial connection an input section, a bent section and an output section; a first resonator mounted to the substrate and having a first evanescent coupling point with the input section and a second evanescent coupling point with the output section, the first resonator having first resonances; an interferometer having a first arm path extending along the bent section between the first and second evanescent coupling points, and a second arm path extending along the first resonator between the first and second evanescent coupling points; and characterized by a second resonator being mounted to the substrate and having a third evanescent coupling point with the bent section, the second resonator having at least a second resonance overlapping with at least one of the first resonances and across which a first phase shift is imparted, the first phase shift causing interference at the second evanescent coupling point. a substrate; a bus waveguide mounted to the substrate, the bus waveguide having in serial connection an input section, a bent section and an output section; a first resonator mounted to the substrate and having a first evanescent coupling point with the input section and a second evanescent coupling point with the output section, the first resonator having first resonances; an interferometer having a first arm path extending along the bent section between the first and second evanescent coupling points, and a second arm path extending along the first resonator between the first and second evanescent coupling points; and characterized by a second resonator being mounted to the substrate and having a third evanescent coupling point with the bent section, the second resonator having at least a second resonance overlapping with at least one of the first resonances and across which a first phase shift is imparted, the first phase shift causing interference at the second evanescent coupling point.
A DNA molecule comprising a DNA sequence selected from the group consisting of: a) a sequence with at least 85 percent sequence identity to SEQ ID NO: 191 and having the gene-regulatory activity of SEQ ID NO: 191; b) a sequence comprising SEQ ID NO: 191; and c) a fragment of SEQ ID NO: 191, wherein the fragment has the gene-regulatory activity of SEQ ID NO: 191; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. a) a sequence with at least 85 percent sequence identity to SEQ ID NO: 191 and having the gene-regulatory activity of SEQ ID NO: 191; b) a sequence comprising SEQ ID NO: 191; and c) a fragment of SEQ ID NO: 191, wherein the fragment has the gene-regulatory activity of SEQ ID NO: 191;
A system comprising: a plurality of masking servers; a plurality of transport servers, each configured to store a masking server list that includes masking server Internet Protocol, IP, addresses for the plurality of masking servers; and a plurality of signal servers, each signal server configured to: store a transport server list that includes transport server IP addresses for the plurality of transport servers; receive an update request from a client device; and send the transport server IP addresses to the client device in response to the update request, wherein each transport server is configured to receive a request data payload for a destination target server from the client device, select a masking server from the masking server list, and send the request data payload to the selected masking server, wherein the selected masking server is configured to send the request data payload to the destination target server, receive a response data payload from the destination target server, and send the response data payload to the transport server from which the request data payload was received, wherein the transport server that receives the response data payload is configured to send the response data payload to the client device. a plurality of masking servers; a plurality of transport servers, each configured to store a masking server list that includes masking server Internet Protocol, IP, addresses for the plurality of masking servers; and a plurality of signal servers, each signal server configured to: store a transport server list that includes transport server IP addresses for the plurality of transport servers; receive an update request from a client device; and send the transport server IP addresses to the client device in response to the update request, store a transport server list that includes transport server IP addresses for the plurality of transport servers; receive an update request from a client device; and send the transport server IP addresses to the client device in response to the update request, wherein each transport server is configured to receive a request data payload for a destination target server from the client device, select a masking server from the masking server list, and send the request data payload to the selected masking server, wherein the selected masking server is configured to send the request data payload to the destination target server, receive a response data payload from the destination target server, and send the response data payload to the transport server from which the request data payload was received, wherein the transport server that receives the response data payload is configured to send the response data payload to the client device.
A connecting device for a secondary pipe on a main pipe, a shaft or the like, which has an opening in the wall, comprising an elastomer insert and a connecting piece which, after the elastomer insert has been installed in the opening of the wall of the main pipe, shaft or the like, can be screwed into the same until it reaches an end position, and to which the secondary pipe can be connected such that a fluid-tight connection can be made between the main pipe, shaft or the like and the secondary pipe, wherein for screwing the connecting piece into the elastomer insert an external thread is formed on the connecting piece and an internal thread is formed on the elastomer insert, wherein the elastomer insert has a support collar which has the shape of a cylindrical surface section, and wherein a retaining region is formed on the elastomer insert, wherein the retaining region of the elastomer insert has on its inner circumference at least one circumferential sealing means, which is in sealing contact with a sealing section of the connecting piece in the screwed-in end position, characterised in that the external thread on the connecting piece and the internal thread on the elastomer insert are formed as a bayonet thread, which when mutually engaged reach the end position when rotated by an angle of between 12.5° and 45°, and in that an end region is formed on the connecting piece, wherein the end region of the connecting piece has on its outer circumference a circumferential projection which is in sealing contact with a sealing surface of the elastomer insert in the screwed-in end position.
A drug delivery device comprising: - a housing comprising a distal end and a proximal end, - a cartridge adapted and arranged to contain at least one dose of a drug, a bung being movably arranged within the cartridge, wherein in an initial state of the device, the bung is arranged in a proximal end position with respect to the cartridge, - a piston rod adapted and arranged to move the bung in the distal direction with respect to the cartridge for delivering a dose of the drug, wherein the device comprises a mechanism operable such that, after a dose delivery operation was completed, the piston rod is moved into the proximal direction with respect to the bung by a back off distance, characterized in that in the initial state, a distance between a distal end of the piston rod and a proximal end of the bung is greater than zero, with the distance between the piston rod and the bung in the initial state being defined by the back off distance. - a housing comprising a distal end and a proximal end, - a cartridge adapted and arranged to contain at least one dose of a drug, a bung being movably arranged within the cartridge, wherein in an initial state of the device, the bung is arranged in a proximal end position with respect to the cartridge, - a piston rod adapted and arranged to move the bung in the distal direction with respect to the cartridge for delivering a dose of the drug,