mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit, IC, structure , comprising: a first interconnect metallization level ; a second interconnect metallization level ; and first (201; 301) and second (202; 302) transistor structures between the first interconnect metallization level and the second interconnect metallization level , wherein: the first transistor structure (201; 301) comprises a first gate electrode around a stack of a first number of channel regions; the second transistor structure (202; 302) comprises a second gate electrode around a stack of a second number of channel regions, greater than the first number of channel regions; and a first spacing between the second interconnect metallization level and a nearest one of the first number of channel regions is greater than a second spacing between the second interconnect metallization level and a nearest one of the second number of channel regions; wherein the first interconnect metallization level is over a top of the first (201; 301) and second (202; 302) transistor structures; and wherein the second interconnect metallization level is under a bottom of the first and second transistor structures. a first interconnect metallization level ; a second interconnect metallization level ; and first (201; 301) and second (202; 302) transistor structures between the first interconnect metallization level and the second interconnect metallization level , wherein: the first transistor structure (201; 301) comprises a first gate electrode around a stack of a first number of channel regions; the second transistor structure (202; 302) comprises a second gate electrode around a stack of a second number of channel regions, greater than the first number of channel regions; and a first spacing between the second interconnect metallization level and a nearest one of the first number of channel regions is greater than a second spacing between the second interconnect metallization level and a nearest one of the second number of channel regions; wherein the first interconnect metallization level is over a top of the first (201; 301) and second (202; 302) transistor structures; and wherein the second interconnect metallization level is under a bottom of the first and second transistor structures. the first transistor structure (201; 301) comprises a first gate electrode around a stack of a first number of channel regions; the second transistor structure (202; 302) comprises a second gate electrode around a stack of a second number of channel regions, greater than the first number of channel regions; and a first spacing between the second interconnect metallization level and a nearest one of the first number of channel regions is greater than a second spacing between the second interconnect metallization level and a nearest one of the second number of channel regions; wherein the first interconnect metallization level is over a top of the first (201; 301) and second (202; 302) transistor structures; and wherein the second interconnect metallization level is under a bottom of the first and second transistor structures.
Closure for a receptacle , for example an ampoule in which preferably a medicament is accommodated, having a closure cap and a closure plug accommodated in the closure , latching formations being formed on the closure cap for holding the closure on the receptacle in a latching manner, and a sliding part being provided which can be moved relative to the closure cap in order to displace the closure plug from an open position into the closed position, the sliding part being moved downwards relative to the closure cap when in the closed position, it furthermore being possible to slide the closure plug relative to the closure cap by means of the sliding part in order to shift said plug into the closed position, and the depressed position of the sliding part , in which position the closure plug is in the closed position, being secured in a latching manner, characterised in that the closure plug is manufactured separately from the closure cap and the sliding part , in that the closure plug comprises a flange , a central region which extends upwards from the flange so as to have a smaller diameter, and an insertion portion which extends downwards from the flange , in that the sliding part comprises latching arms and/or snap-in fingers which engage in corresponding latching openings or latching recesses in the closure cap , the closure plug being acted on by means of sliding projections formed on the sliding part in order to slide said plug into the closed position, the sliding part directly acting on the closure plug .
A computing device comprising: a location finder configured to obtain location information of the computing device; a display configured to display information indicating routes of the computing device; and a controller configured to: track locations of the computing device by determining that a location of the computing device has changed based on the location information of the computing device obtained by the location finder , obtain information corresponding to an initial route of the computing device based on the tracked locations of the computing device , determine a predicted route of the computing device based on the information corresponding to the initial route of the computing device and past location information of the computing device , display the predicted route on the display , and control the location finder to track an actual location of the computing device by varying a time interval of obtaining the location information of the computing device based on at least one from among surrounding environment information of the computing device and the predicted route. a location finder configured to obtain location information of the computing device; a display configured to display information indicating routes of the computing device; and a controller configured to: track locations of the computing device by determining that a location of the computing device has changed based on the location information of the computing device obtained by the location finder , obtain information corresponding to an initial route of the computing device based on the tracked locations of the computing device , determine a predicted route of the computing device based on the information corresponding to the initial route of the computing device and past location information of the computing device , display the predicted route on the display , and control the location finder to track an actual location of the computing device by varying a time interval of obtaining the location information of the computing device based on at least one from among surrounding environment information of the computing device and the predicted route. track locations of the computing device by determining that a location of the computing device has changed based on the location information of the computing device obtained by the location finder , obtain information corresponding to an initial route of the computing device based on the tracked locations of the computing device , determine a predicted route of the computing device based on the information corresponding to the initial route of the computing device and past location information of the computing device , display the predicted route on the display , and control the location finder to track an actual location of the computing device by varying a time interval of obtaining the location information of the computing device based on at least one from among surrounding environment information of the computing device and the predicted route.
A system for detecting the approach of a train, the system comprising: - a first sensor unit for detecting the approach of a train, the first sensor unit comprising first and second non-rail-mounted sensors, wherein the non-rail-mounted sensors are different from one another in that they work on different physical principles, and - a first control unit , itself comprising first and second non-rail-mounted sensors, wherein the non-rail-mounted sensors are different from one another in that they work on different physical principles, wherein the first sensor unit and first control unit are arranged to cooperate with one another to detect the approach of a train, the system being arranged to generate sensor information at first and second non-rail-mounted sensors of the first sensor unit, to compare the generated sensor information of the first and second non-rail-mounted sensors of the first sensor unit, and in the event of disagreement between the generated sensor information of the first and second non-rail-mounted sensors the of the first sensor unit, to use additional sensor information from the first control unit to confirm detection of approach of a train. - a first sensor unit for detecting the approach of a train, the first sensor unit comprising first and second non-rail-mounted sensors, wherein the non-rail-mounted sensors are different from one another in that they work on different physical principles, and - a first control unit , itself comprising first and second non-rail-mounted sensors, wherein the non-rail-mounted sensors are different from one another in that they work on different physical principles, wherein the first sensor unit and first control unit are arranged to cooperate with one another to detect the approach of a train,
A device for welding a rail joint of a track , comprising two rail clamping devices spaced from one another in a rail longitudinal direction which are connected to one another via push rods to press rail ends apart prior to welding, wherein at least one rail clamping device is coupled to a transverse displacement device for flush-aligning the rail ends after being pressed apart characterized in that the transverse displacement device comprises transverse guides by means of which the push rods are guided for a transverse adjustment, that the device is designed as an integrated welding machine with the push rods as integrated push rods and the transverse displacement device as integrated transverse displacement device and that the one rail clamping device is arranged in a first welding head half , and that the other rail clamping device is arranged in a second welding head half .
A wiring structural body provided with a wiring pattern including a through-wiring pattern , the wiring structural body comprising: a silicon substrate having a through hole in which the through-wiring pattern is disposed; an insulating layer provided on a surface of the silicon substrate including an inner surface of the through hole along at least the wiring pattern; a boron layer provided on the insulating layer along the wiring pattern; and a metal layer provided on the boron layer. a silicon substrate having a through hole in which the through-wiring pattern is disposed; an insulating layer provided on a surface of the silicon substrate including an inner surface of the through hole along at least the wiring pattern; a boron layer provided on the insulating layer along the wiring pattern; and a metal layer provided on the boron layer.
A threaded fastener comprising: a first end , a second end , and a threaded portion extending between the first end and the second end , wherein the fastener has a longitudinal axis extending through the fastener from the first end to the second end , and a normal axis extending perpendicular to the longitudinal axis, and wherein the threaded portion has a thread defined by, in series, a crest portion oriented at an angle (δ) of -5° to 5° relative to the longitudinal axis, a leading flank oriented at an angle (α) of 30° to 40° relative to the normal axis, a root portion oriented at an angle (ρ) of 22° to 32° relative to the longitudinal axis, and a trailing flank oriented at angle (β) of 17° to 27° relative to the normal axis. a first end , a second end , and a threaded portion extending between the first end and the second end , wherein the fastener has a longitudinal axis extending through the fastener from the first end to the second end , and a normal axis extending perpendicular to the longitudinal axis, and wherein the threaded portion has a thread defined by, in series, a crest portion oriented at an angle (δ) of -5° to 5° relative to the longitudinal axis, a leading flank oriented at an angle (α) of 30° to 40° relative to the normal axis, a root portion oriented at an angle (ρ) of 22° to 32° relative to the longitudinal axis, and a trailing flank oriented at angle (β) of 17° to 27° relative to the normal axis. a crest portion oriented at an angle (δ) of -5° to 5° relative to the longitudinal axis, a leading flank oriented at an angle (α) of 30° to 40° relative to the normal axis, a root portion oriented at an angle (ρ) of 22° to 32° relative to the longitudinal axis, and a trailing flank oriented at angle (β) of 17° to 27° relative to the normal axis.
Method for producing a structured seed layer for depositing carbon nanotubes thereon, a metal layer previously applied to a substrate being energised by means of a laser beam in such a way that the metal layer deforms, characterised in that individual islands are produced by expanding the laser beam to form a beam which has a linear cross section and simultaneously exposing a linear exposure zone of the metal layer that travels over the metal layer in a direction transverse to the extension direction of said exposure zone.
A method for wireless communication at a base station, comprising: contending for access to a shared channel of a shared radio frequency spectrum band, wherein the shared channel comprises a number of first component carrier, CC, communication windows and a number of second CC communication windows, each first CC communication window including an enhanced CC, eCC, and each second CC communication window including a number of non-eCCs; and time division multiplexing first component carrier, CC, communication windows and second CC communication windows in the shared channel, wherein a duration of orthogonal frequency domain multiplexed, OFDM, symbols of the first CC communication windows being different from a duration of OFDM symbols of the second CC communication windows, and wherein the time multiplexing occurring on the shared channel upon winning contention for access to the shared channel. contending for access to a shared channel of a shared radio frequency spectrum band, wherein the shared channel comprises a number of first component carrier, CC, communication windows and a number of second CC communication windows, each first CC communication window including an enhanced CC, eCC, and each second CC communication window including a number of non-eCCs; and time division multiplexing first component carrier, CC, communication windows and second CC communication windows in the shared channel, wherein a duration of orthogonal frequency domain multiplexed, OFDM, symbols of the first CC communication windows being different from a duration of OFDM symbols of the second CC communication windows, and wherein the time multiplexing occurring on the shared channel upon winning contention for access to the shared channel.
A sensor device for use in detecting current in a conductor , said sensor device comprising: a Rogowski coil defining an aperture ; and a dielectric material at least partially enclosing said Rogowski coil , said dielectric material comprising a first part and a second part and having a dielectric constant of at least about 3.5 at a frequency range between approximately 10 Hz to 1000 Hz, said dielectric material configured such that, when a conductor is at least partially inserted within said aperture , at least said first part of said dielectric material is positioned between said Rogowski coil and the conductor , wherein said first part of said dielectric material has a first thickness, said second part of said dielectric material has a second thickness that is less than the first said thickness, and said second part of said dielectric material is positioned adjacent to said Rogowski coil opposite said aperture ; and an enclosure comprising a mount and said dielectric material , said enclosure substantially enclosing said Rogowski coil , said conductor being rectangularly shaped and said mount defining an aperture structured to form a friction fit with said conductor . a Rogowski coil defining an aperture ; and a dielectric material at least partially enclosing said Rogowski coil , said dielectric material comprising a first part and a second part and having a dielectric constant of at least about 3.5 at a frequency range between approximately 10 Hz to 1000 Hz, said dielectric material configured such that, when a conductor is at least partially inserted within said aperture , at least said first part of said dielectric material is positioned between said Rogowski coil and the conductor , wherein said first part of said dielectric material has a first thickness, said second part of said dielectric material has a second thickness that is less than the first said thickness, and said second part of said dielectric material is positioned adjacent to said Rogowski coil opposite said aperture ; and an enclosure comprising a mount and said dielectric material , said enclosure substantially enclosing said Rogowski coil , said conductor being rectangularly shaped and said mount defining an aperture structured to form a friction fit with said conductor .
An inverter with charging capability , comprising: an arm circuit having an upper arm switching element to which a positive electrode of a battery is connected and a lower arm switching element to which a negative electrode of the battery is connected wherein the upper arm switching element and the lower arm switching element are connected at a connection point; a first capacitor having one end connected to the positive electrode of the battery ; a second capacitor connected between the other end of the first capacitor and the negative electrode of the battery ; characterized by a first diode having a cathode electrode connected to the connection point; and a second diode having a cathode electrode connected to the other end of the first capacitor , wherein power is supplied from an external power supply to a feeding point at which an anode electrode of the first diode and an anode electrode of the second diode are connected. an arm circuit having an upper arm switching element to which a positive electrode of a battery is connected and a lower arm switching element to which a negative electrode of the battery is connected wherein the upper arm switching element and the lower arm switching element are connected at a connection point; an upper arm switching element to which a positive electrode of a battery is connected and a lower arm switching element to which a negative electrode of the battery is connected wherein the upper arm switching element and the lower arm switching element are connected at a connection point; a first capacitor having one end connected to the positive electrode of the battery ; a second capacitor connected between the other end of the first capacitor and the negative electrode of the battery ; characterized by a first diode having a cathode electrode connected to the connection point; and a second diode having a cathode electrode connected to the other end of the first capacitor , wherein power is supplied from an external power supply to a feeding point at which an anode electrode of the first diode and an anode electrode of the second diode are connected.
Blood treatment device for an extracorporeal blood treatment comprising a dialyser which is subdivided by a semipermeable membrane into a blood chamber , which can be flowed through by blood at a predetermined blood flow Q b , and a dialysate chamber , which can be flowed through by dialysate at a predetermined dialysate flow Q d , an arterial blood line leading to the blood chamber and a venous blood line leaving the blood chamber and a dialysate supply line leading to the dialysate chamber and a dialysate removal line leaving the dialysate chamber , a device for determining an optimum dialysate flow Q dopt for the extracorporeal blood treatment, comprising a calculation and/or evaluation unit and a measurement device for measuring at least one value which is characteristic of the clearance K, the calculation and/or evaluation unit being configured in such a way that the clearance is determined on the basis of the at least one value which is characteristic of the clearance, and the calculation and/or evaluation unit being configured in such a way that the optimum dialysate flow Q dopt is determined from a relationship describing the dependence of the clearance on the dialysate rate on the basis of the measured clearance K or the optimum dialysate flow Q dopt is determined from at least one measured clearance K, characterised in that the blood treatment device comprises a valve arrangement which is formed in such a way that a flow connection between the arterial blood line and the venous blood line can be established for measuring the clearance K at a predetermined blood flow rate Q b and a predetermined dialysate rate Q d .
A subsea manifold layout interconnecting first and second subsea production pipelines that extend beside each other to convey hydrocarbon production fluids in use, wherein: each of the first and second pipelines has at least one manifold portion disposed in line, the in-line manifold portions of the respective pipelines being structurally separate from each other; and at least one bridging pipe is in fluid communication with the in-line manifold portions of the respective pipelines to provide for flow of production fluids between those pipelines . each of the first and second pipelines has at least one manifold portion disposed in line, the in-line manifold portions of the respective pipelines being structurally separate from each other; and at least one bridging pipe is in fluid communication with the in-line manifold portions of the respective pipelines to provide for flow of production fluids between those pipelines .
A compound of formula selected from: wherein x = 0-6; wherein y = 3 or 4 or 5; wherein z = 3 or 4 or 5; or a pharmaceutically acceptable salt thereof; wherein x = 0-6; wherein y = 3 or 4 or 5; and wherein z = 3 or 4 or 5; R= acyl, or alkyl, or a pharmaceutically acceptable salt thereof; and wherein x = 1; wherein y = 3; R= acetyl, methyl or ethyl, or a pharmaceutically acceptable salt thereof. wherein x = 0-6; wherein y = 3 or 4 or 5; wherein z = 3 or 4 or 5; wherein x = 0-6; wherein y = 3 or 4 or 5; and wherein z = 3 or 4 or 5; R= acyl, or alkyl, wherein x = 1; wherein y = 3; R= acetyl, methyl or ethyl,
Fall detection system comprising at least one processing device , at least one personal module comprising a personal module pressure sensor , and at least one reference module comprising a reference module pressure sensor , wherein the at least one processing device is arranged to: receive personal pressure data from the at least one personal module pressure sensor ; receive reference pressure data from the at least one reference module pressure sensor ; determine a personal pressure (P P ) using the personal pressure data and the reference pressure data; determine an individual personal pressure profile based on the historical personal pressure (P P ) of the individual; compare the personal pressure (P P ) with the determined individual personal pressure profile; and set a fall detection alert based at least on whether the personal pressure (Pp) lies beyond the individual personal pressure profile. receive personal pressure data from the at least one personal module pressure sensor ; receive reference pressure data from the at least one reference module pressure sensor ; determine a personal pressure (P P ) using the personal pressure data and the reference pressure data; determine an individual personal pressure profile based on the historical personal pressure (P P ) of the individual; compare the personal pressure (P P ) with the determined individual personal pressure profile; and set a fall detection alert based at least on whether the personal pressure (Pp) lies beyond the individual personal pressure profile.