mhurhangee/ep-ind-claims huggingface dataset:
Solid amorphous alloy, characterized in that the alloy contains no beryllium and in that it consists, in atomic percent values, of: - a base composed of zirconium and/or hafnium, with a total zirconium and hafnium content: minimum value 50%, maximum value 63%; - a first additional metal, the total value in atomic percent of said at least one first additional metal or said first additional metals being comprised between: minimum value 2.5%, maximum value 4.5%, said at least one first additional metal being selected from a first group comprising titanium, niobium and tantalum, the niobium value being less than 2.5%; - a second additional metal, the total value in atomic percent of said at least one second additional metal or said second additional metals being comprised between: minimum value 0.5 %, maximum value 4.5%, said at least one second additional metal being selected from a second group comprising silver, gold and platinum; - a third additional metal, the total value in atomic percent of said at least one third additional metal or said third additional metals being comprised between: minimum value 8.5%, maximum value 17.5%, said at least one third additional metal being selected from a third group comprising nickel, cobalt, manganese and iron; - aluminium: minimum value 9%, maximum value 13%; - copper and inevitable impurities: the complement to 100%, but less than 18%. - a base composed of zirconium and/or hafnium, with a total zirconium and hafnium content: minimum value 50%, maximum value 63%; - a first additional metal, the total value in atomic percent of said at least one first additional metal or said first additional metals being comprised between: minimum value 2.5%, maximum value 4.5%, said at least one first additional metal being selected from a first group comprising titanium, niobium and tantalum, the niobium value being less than 2.5%; - a second additional metal, the total value in atomic percent of said at least one second additional metal or said second additional metals being comprised between: minimum value 0.5 %, maximum value 4.5%, said at least one second additional metal being selected from a second group comprising silver, gold and platinum; - a third additional metal, the total value in atomic percent of said at least one third additional metal or said third additional metals being comprised between: minimum value 8.5%, maximum value 17.5%, said at least one third additional metal being selected from a third group comprising nickel, cobalt, manganese and iron; - aluminium: minimum value 9%, maximum value 13%; - copper and inevitable impurities: the complement to 100%, but less than 18%.
A computer-implemented method to increase security of a blockchain-implemented transaction, in a network comprising a dealer node, and a plurality of participating nodes each having its own public key and private key, the method comprising: at said dealer node, generating a cycle by: ordering said participating nodes, such that there exists a node order, designating the first node in the node order as a message originator, and the last node as a propagator, and designating one of the remaining participating nodes as a selector; at said message originator, generating ciphertext comprising two nested encrypted messages and transmitting said ciphertext to the next participating node in said node order; at each remaining participating node: receiving ciphertext from a prior node, if said participating node is said selector, choosing one of said nested encrypted messages and discarding the other one, such that said ciphertext comprises a single nested encrypted message, decrypting said ciphertext using said node's private key, and transmitting said ciphertext to the next participating node in said node order; and at said propagator node, receiving said ciphertext comprising one nested encrypted message and decrypting it, and using said message to generate a blockchain transaction. at said dealer node, generating a cycle by: ordering said participating nodes, such that there exists a node order, designating the first node in the node order as a message originator, and the last node as a propagator, and designating one of the remaining participating nodes as a selector; ordering said participating nodes, such that there exists a node order, designating the first node in the node order as a message originator, and the last node as a propagator, and designating one of the remaining participating nodes as a selector; at said message originator, generating ciphertext comprising two nested encrypted messages and transmitting said ciphertext to the next participating node in said node order; at each remaining participating node: receiving ciphertext from a prior node, if said participating node is said selector, choosing one of said nested encrypted messages and discarding the other one, such that said ciphertext comprises a single nested encrypted message, decrypting said ciphertext using said node's private key, and transmitting said ciphertext to the next participating node in said node order; and receiving ciphertext from a prior node, if said participating node is said selector, choosing one of said nested encrypted messages and discarding the other one, such that said ciphertext comprises a single nested encrypted message, decrypting said ciphertext using said node's private key, and transmitting said ciphertext to the next participating node in said node order; and at said propagator node, receiving said ciphertext comprising one nested encrypted message and decrypting it, and using said message to generate a blockchain transaction.
Installation part for the retaining of installation lines with at least one connecting section (V, V') with an alignment contour (A 1, A 2, A 3, A 4) for connecting this first installation part (1, 22) to a second installation part (1.1, 22.1) carrying a connecting section with complementary alignment contours (A 1 ', A 2 '), wherein the connecting section (V, V') of the first installation part (1, 22) comprises at least one connector (W 1), which is formed as an alignment contour either as a female link in the form of a back-cut groove or as a male link formed as complementary to the cross-section geometry of the female link (M 1), characterised in that the connecting section (V, V') of the installation part (1, 22) comprises at least two alignment contour sections (A 1, A 2, A 3, A 4) separated from one another in each case by an insertion groove running transverse to the joint direction, wherein, arranged in the one alignment contour section (A 1, A 3), is at least one female or male connector, and, in the alignment contour section (A 2, A 4), spaced apart from this by an insertion groove is a connector which is complementary to this at least one connector, wherein the clear width of the insertion groove corresponds at least to the longitudinal extension pointing in the joint direction for the connection of two installation parts (1, 1.1; 22, 22.1) of one of the two alignment contour sections (A 1, A 2, A 3, A 4), and the mutually complementary connectors (M 1, W 2; W 1, M 2) of two adjacent alignment contour sections (A 1, A 2, A 3, A 4) are arranged flush with one another in the joint direction.
A component, comprising: a wall; a first channel extending at least partially through said wall to a first outlet; a second channel adjacent to said first channel and extending to a second outlet; and said first channel configured to communicate a cooling fluid along a first swirl flow path and said second channel configured to communicate said cooling fluid along a second swirl flow path that is opposite said first swirl flow path; characterized in that a cross-section through said first channel and said second channel (70A, 70B) is elliptical. a wall; a first channel extending at least partially through said wall to a first outlet; a second channel adjacent to said first channel and extending to a second outlet; and said first channel configured to communicate a cooling fluid along a first swirl flow path and said second channel configured to communicate said cooling fluid along a second swirl flow path that is opposite said first swirl flow path; characterized in that a cross-section through said first channel and said second channel (70A, 70B) is elliptical.
In-line measuring device for determining a mass flow of a first medium (M 1) flowing through a first medium pipe and a mass flow of a second medium (M 2) flowing through a second medium pipe and/or for determining a balance between a first medium (M 1) flowing at least temporarily through a first medium pipe and a second medium (M 2) flowing at least temporarily through a second medium pipe, particularly a difference between the mass flows of the two media and/or a total of the mass flows of the two media, said in-line measuring device having a vibronic-type sensor to measure flowable media, characterized in that the sensor comprises: - at least four measuring tubes (1, 2, 3, 4) that vibrate at least temporarily during operation, particularly simultaneously, each tube having a first and a second inlet/outlet end and being designed to conduct media to be measured, - an electromechanical, particularly electrodynamic, exciter arrangement causing vibrations of the measuring tubes, and - a sensor arrangement responding at least to local vibrations of the measuring tubes, said arrangement being designed to generate at least one measuring signal influenced by vibrations of at least one of the measuring tubes, - wherein a first and a second measuring tube (1, 2) of the at least four measuring tubes are designed to be inserted at least temporarily in the course of the first medium pipe in such a way that each of these two measuring tubes (1, 2) simultaneously conduct a partial volume of the medium (M 1) flowing through the first medium pipe, and - wherein a third and a fourth measuring tube (3, 4) of the at least four measuring tubes are designed to be inserted at least temporarily in the course of the second medium pipe in such a way that each of these two measuring tubes (3, 4) simultaneously conduct a partial volume of the medium (M 2) flowing through the second medium pipe. - at least four measuring tubes (1, 2, 3, 4) that vibrate at least temporarily during operation, particularly simultaneously, each tube having a first and a second inlet/outlet end and being designed to conduct media to be measured, - an electromechanical, particularly electrodynamic, exciter arrangement causing vibrations of the measuring tubes, and - a sensor arrangement responding at least to local vibrations of the measuring tubes, said arrangement being designed to generate at least one measuring signal influenced by vibrations of at least one of the measuring tubes, - wherein a first and a second measuring tube (1, 2) of the at least four measuring tubes are designed to be inserted at least temporarily in the course of the first medium pipe in such a way that each of these two measuring tubes (1, 2) simultaneously conduct a partial volume of the medium (M 1) flowing through the first medium pipe, and - wherein a third and a fourth measuring tube (3, 4) of the at least four measuring tubes are designed to be inserted at least temporarily in the course of the second medium pipe in such a way that each of these two measuring tubes (3, 4) simultaneously conduct a partial volume of the medium (M 2) flowing through the second medium pipe.
Apparatus for moving one or more processing devices relative to an object to be processed, comprising: first and second mounting units configured to be secured in a fixed position relative to the object to be processed and between which one or more tension members are mounted under tension; one or more carriages respectively connected to the one or more tension members, each of the carriages configured to accommodate a respective processing device; and a drive unit configured to move the one or more tension members so as to move the one or more carriages relative to the object; characterised in that the first and second mounting units comprise respective rotatable portions mounted so as to be rotatable about an axis extending from one mounting unit towards the other mounting unit; the one or more tension members are mounted to the rotatable portions; and the drive unit comprises one or more second drive units configured to rotate the rotatable portions about the axis. first and second mounting units configured to be secured in a fixed position relative to the object to be processed and between which one or more tension members are mounted under tension; one or more carriages respectively connected to the one or more tension members, each of the carriages configured to accommodate a respective processing device; and a drive unit configured to move the one or more tension members so as to move the one or more carriages relative to the object; characterised in that the first and second mounting units comprise respective rotatable portions mounted so as to be rotatable about an axis extending from one mounting unit towards the other mounting unit; the one or more tension members are mounted to the rotatable portions; and
A method for controlling a multi-terminal HVDC system having a plurality of converter stations, the method comprising: receiving a plurality of measurements from a plurality of measurement units disposed on the HVDC system; identifying from the measurements a disruption within the HVDC system; monitoring the measurements to identify a steady-state disrupted condition for the HVDC system; calculating a new set point for at least one of the plurality of converter stations, wherein the new set point is based on the steady-state disrupted condition and the measurements; and transmitting the new set point to the at least one of the plurality of converter stations. receiving a plurality of measurements from a plurality of measurement units disposed on the HVDC system; identifying from the measurements a disruption within the HVDC system; monitoring the measurements to identify a steady-state disrupted condition for the HVDC system; calculating a new set point for at least one of the plurality of converter stations, wherein the new set point is based on the steady-state disrupted condition and the measurements; and transmitting the new set point to the at least one of the plurality of converter stations.
A phacoemulsification probe, comprising: a first portion for interconnecting the probe with a phacoemulsification machine; a probe tip having a first diameter with a central axis running therethrough having a first end connected with the first portion and a second distal end with a second axis running therethrough, wherein the second axis is at a predetermined angle to the central axis, wherein the probe tip further includes a body defining a channel therein for aspirating material therethrough from a surgical region along a first direction into an opening in the probe tip, the body including a straight portion connected to the first end and a curved portion connecting the straight portion to the second end, characterized by the probe tip further including an annular protrusion having a second diameter larger than the first diameter, the annular protrusion surrounding the body and axially displaced from the second end along the second axis such that a portion of the probe tip extends from the second end to the annular protrusion; a fluid sleeve which surrounds at least a portion of the body and defines a channel between the fluid sleeve and the body for injecting a fluid into the surgical region along a second direction, an end of the fluid sleeve securely fitting over the annular protrusion to substantially seal the end of the fluid sleeve; and an aperture defined by the fluid sleeve for directing the fluid along the second direction away from the opening of the probe tip. a first portion for interconnecting the probe with a phacoemulsification machine; a probe tip having a first diameter with a central axis running therethrough having a first end connected with the first portion and a second distal end with a second axis running therethrough, wherein the second axis is at a predetermined angle to the central axis, wherein the probe tip further includes a body defining a channel therein for aspirating material therethrough from a surgical region along a first direction into an opening in the probe tip, the body including a straight portion connected to the first end and a curved portion connecting the straight portion to the second end, characterized by the probe tip further including an annular protrusion having a second diameter larger than the first diameter, the annular protrusion surrounding the body and axially displaced from the second end along the second axis such that a portion of the probe tip extends from the second end to the annular protrusion; a fluid sleeve which surrounds at least a portion of the body and defines a channel between the fluid sleeve and the body for injecting a fluid into the surgical region along a second direction, an end of the fluid sleeve securely fitting over the annular protrusion to substantially seal the end of the fluid sleeve; and an aperture defined by the fluid sleeve for directing the fluid along the second direction away from the opening of the probe tip.
A computer-implemented method for providing arrival alerts, the method comprising: receiving a first location update from a tracking device of a user picking up an item or a driver delivering an item; determining a remaining time for the tracking device to reach a destination location of an operator providing the item to be picked up or a user receiving the item to be delivered; determining whether the remaining time is within a threshold time of a timing of an arrival alert to be sent to a device associated with the destination location; the threshold time being determined based on operator and/or user feedback, and/or automatic system determination based on prior trips to the destination, based on whether the remaining time is within the threshold time or not, configuring the tracking device to send location updates to a server in one of a continuous reporting mode or a significant reporting mode, wherein the tracking device is configured to send the location updates to the server less frequently in the significant reporting mode compared to the continuous reporting mode; and determining when to send the arrival alert to the device associated with the destination location based on one or more of the location updates received from the tracking device. receiving a first location update from a tracking device of a user picking up an item or a driver delivering an item; determining a remaining time for the tracking device to reach a destination location of an operator providing the item to be picked up or a user receiving the item to be delivered; determining whether the remaining time is within a threshold time of a timing of an arrival alert to be sent to a device associated with the destination location; the threshold time being determined based on operator and/or user feedback, and/or automatic system determination based on prior trips to the destination, based on whether the remaining time is within the threshold time or not, configuring the tracking device to send location updates to a server in one of a continuous reporting mode or a significant reporting mode, wherein the tracking device is configured to send the location updates to the server less frequently in the significant reporting mode compared to the continuous reporting mode; and determining when to send the arrival alert to the device associated with the destination location based on one or more of the location updates received from the tracking device.
An access point comprising: a home nodeB base station module for providing wireless connectivity to a communications network to one or more mobile communications devices within range of the nodeB home base station module; a home eNodeB base station module for providing wireless connectivity to a communications network to one or more mobile communications devices within range of the eNodeB home base station module; an interface for coupling the home nodeB base station module and the home eNodeB base station module; wherein each home base station module has a normal operating mode and an energy saving operating mode, and wherein at least one of the home nodeB and home eNodeB base station modules is configured to provide operating mode information to the other one of the home nodeB and home eNodeB base station modules via said interface. a home nodeB base station module for providing wireless connectivity to a communications network to one or more mobile communications devices within range of the nodeB home base station module; a home eNodeB base station module for providing wireless connectivity to a communications network to one or more mobile communications devices within range of the eNodeB home base station module; an interface for coupling the home nodeB base station module and the home eNodeB base station module; wherein each home base station module has a normal operating mode and an energy saving operating mode, and wherein at least one of the home nodeB and home eNodeB base station modules is configured to provide operating mode information to the other one of the home nodeB and home eNodeB base station modules via said interface.
Half-bridge arrangement for a converter, comprising - two switching elements (T 1, T 2), - a capacitor device (C 1, C 11, C 12) and - a circuit board, having at least four trace layers, via holes, a longitudinal direction and a transverse direction, to which the switching elements and the capacitor device are interconnected to form a half bridge, characterised in that the switching elements are arranged in series in a line in the longitudinal direction of the circuit board and with point symmetry with respect to one another on opposite surfaces of the circuit board in said line, and that a current profile of a commutation current through the switching elements, the capacitor device, the trace layers and the via holes produces two meshes, which are oriented opposite one another, whereby accordingly excited magnetic dipoles (δ +, δ -) of opposite direction are reduced. - two switching elements (T 1, T 2), - a capacitor device (C 1, C 11, C 12) and - a circuit board, having at least four trace layers, via holes, a longitudinal direction and a transverse direction, to which the switching elements and the capacitor device are interconnected to form a half bridge,
A horizontal rotation driving device for large-scale heliostat, comprising a base and an upper pedestal, wherein the upper pedestal is rotatably connected to the base, an eccentric shaft is provided on the base, the eccentric shaft being deviated from a rotation axis of the upper pedestal; and at least three hydraulic cylinders are provided circumferentially on the upper pedestal, the hydraulic cylinders being rotatably connected to the upper pedestal, and a front end of a piston rod of the hydraulic cylinders being rotatably connected to the eccentric shaft, wherein trunnions are provided symmetrically on both sides of the hydraulic cylinder, a trunnion mounting seat is provided on the upper pedestal, a trunnion hole is provided in the trunnion mounting seat for connection of the trunnions, characterized in that a bushing is provided between the trunnion and the trunnion hole, and in that, the trunnion mounting seat comprises an inner trunnion mounting seat and an outer trunnion mounting seat, the inner trunnion mounting seat and the upper pedestal are integrally molded, the outer trunnion mounting seat is bolted to the inner trunnion mounting seat; the inner trunnion mounting seat is provided with a first half trunnion hole, the outer trunnion mounting seat is provided with a second half trunnion hole corresponding to the first half trunnion hole, the first half trunnion hole and the second half trunnion hole are snap-fitted to each other to form the trunnion hole; and the outer trunnion mounting seat is provided with a sealing cover on the side away from the inner trunnion mounting seat, the sealing cover being fitted over the outer side of the hydraulic cylinder.