mhurhangee/ep-ind-claims huggingface dataset:
A process for hydroprocessing a heavy hydrocarbon oil, comprising contacting a heavy hydrocarbon oil in the presence of hydrogen with a mixture of hydroprocessing catalyst I and hydroprocessing catalyst II wherein catalyst I comprises a Group VIB metal component and optionally a Group VIII metal component on a porous inorganic carrier, said catalyst having a specific surface area of at least 100 m 2 /g, a total pore volume of at least 0.55 ml/g, at least 50% of the total pore volume in pores with a diameter of at least 20 nm (200 Å) and at least 65% of the total pore volume in pores with a diameter of 10-120 nm (100-1200 Å), and catalyst II comprises a Group VIB metal component and optionally a Group VIII metal component on a porous inorganic carrier, said catalyst having a specific surface area of at least 100 m 2 /g, a total pore volume of at least 0.55 ml/g, 30-80% of the total pore volume in pores with a diameter of 10-20 nm (100-200 Å), and at least 5% of the total pore volume in pores with a diameter of at least 100 nm (1000 Å), wherein the catalyst I has a larger percentage of its pore volume in pores with a diameter of at least 20 nm (200 Å) than catalyst II, wherein the determination of the total pore volume and the pore size distribution is effected via mercury penetration at a contact angle of 140° with a surface tension of 480 dynes/cm and the surface area is determined in accordance with the BET method based on N 2 adsorption.
A method of decontaminating an aseptic filling apparatus, the aseptic filling apparatus comprising various kinds of stations including a content filling station arranged from an upstream side to a downstream side of a flow of a preform or container fed by rotation of wheels in a wheel train, and each of the various kinds of stations being covered by a chamber, wherein a Cleaning In Place, CIP, of the content filling station is performed after rotation of only a wheel of the content filling station is stopped, a Cleaning Out of Place, COP, or Sterilizing Out of Place, SOP, of the content filling station is performed while the wheel in the content filling station is rotating immediately after the CIP is completed, an Sterilizing In Place, SIP, of the content filling station is performed with rotation of the wheel in the content filling station being stopped immediately after the COP or SOP is completed, and one or both of the COP and SOP of the other stations is performed in a predetermined order while wheels in the other stations are rotating in a period from the start of the CIP to the end of the SIP.
A network function service invocation system in core network, the network function service invocation system comprising a first network function module and an authorization module according to claim 17, wherein the first network function module is configured to send the first request message to the authorization module, wherein the first network function module is further configured to: receive the token from the authorization module, wherein one network function module is one network element on dedicated hardware, a software instance that runs on dedicated hardware, or a virtual function instance on a related platform. the first network function module is configured to send the first request message to the authorization module, wherein the first network function module is further configured to: receive the token from the authorization module, wherein one network function module is one network element on dedicated hardware, a software instance that runs on dedicated hardware, or a virtual function instance on a related platform.
An operating process for a hydraulic servo-steering system of a vehicle, in which a steering cylinder introducing the power assist into a steering gear is integrated in a hydraulic circuit via a steering valve the steering valve opening of which specifies the power assist, wherein the power assist is set by the steering valve, depending on a steering momentum applied to the steering wheel, via a backlashed gear, and the steering system furthermore comprises an actuator acting on the gear to cause relative adjustment thereof, characterized in that the operating process provides a compensating step, wherein, provided that reversal of steering direction is being detected, the gear is relatively adjusted by the actuator, oppositely to its precedent engagement direction, for a specified period of time or for a specified adjustment track.
Drug delivery device comprising: a cartridge with a movable bung, a drive mechanism including a piston rod with a bearing at a distal end, wherein a distal end of the bearing is provided to make contact with the bung and to drive the bung in a distal direction, and a movable element, which is disposed displaceably in an axial direction within the drive mechanism, wherein the moveable element is movable relative to the bearing between a first position and a second position, wherein in the first position a distal end of said movable element protrudes from said bearing, characterized in that the movable element is in the second position when the bearing makes contact with the bung and the distal end of said movable element lies flush with the distal end of said bearing such that the length of the movable element extending from the distal end of the bearing in proximal direction is used for indicating contact between the bearing and the bung and, that the movable element is provided detachably in the drive mechanism such as to enable removal of the movable element after adjustment of the drug delivery device.
Electric machine comprising an electromagnetic motor and a complementary connection assembly, said electromagnetic motor comprising a magnetic stator circuit having radially extending teeth and coils (2 to 6) surrounding at least part of said teeth, each coil (2 to 6) being formed by a winding of an insulated conductor around an insulating body, each winding comprising two winding ends, the connection assembly comprising a first subassembly formed by arcuate conductive tracks (11 to 14), each of said arcuate tracks (11 to 14) terminating at one end in at least one connection pin (21 to 24) which extends in a connection direction and terminating at the other end in a pad for coupling to one of said coils (2 to 6), said arcuate tracks (11 to 14) being joined by an insulating plastics material, the insulating bodies of said coils (2 to 6) having two slots (56, 57) on their upper part for inserting connectors, each formed by a conductive blade having a first connection end having a coupling zone suitable for receiving and conductively engaging one of the winding ends of the coil (2 to 6), and a pin on the second end, opposite said coupling zone and forming a connection which is forcibly inserted, without welding, into a complementary coupling pad formed in one of said arcuate tracks (11 to 14), the connection assembly being produced by overmolding the arcuate tracks with a plastics material and being devoid of an electronic circuit.
A water dispersible sheet that is a base paper sheet impregnated with a chemical solution, the base paper sheet being made of a water dispersible fiber aggregate that is a single layer or multiple layers of paper or nonwoven fabric, including natural fibers and/or synthetic fibers impregnated with a water-soluble binder having a carboxyl group, comprising: diethylene glycol monobutyl ether and propylene glycol monomethyl ether in the chemical solution, wherein the chemical solution contains 11.50% by mass to 13.50% by mass of propylene glycol monomethyl ether and 3.00% by mass to 5.00 by mass of diethylene glycol monobutyl ether. diethylene glycol monobutyl ether and propylene glycol monomethyl ether in the chemical solution, wherein the chemical solution contains 11.50% by mass to 13.50% by mass of propylene glycol monomethyl ether and 3.00% by mass to 5.00 by mass of diethylene glycol monobutyl ether.
A Centralized Unit of a Next Generation NodeB, gNB-CU, comprising: circuitry to provide an interface to a plurality of Distributed Units of the Next Generation NodeB, gNB-DUs,, the gNB-CU implementing Radio Resource Control, RRC, layer and Packet Data Convergence Protocol, PDCP, layer functionality of the gNB and the gNB-DUs implementing Radio Link Control, RLC, layer, Media Access Control, MAC, layer, Physical, PHY, layer, and Radio Frequency, RF, layer functionality of the gNB; and one or more processors to: detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units, PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected. circuitry to provide an interface to a plurality of Distributed Units of the Next Generation NodeB, gNB-DUs,, the gNB-CU implementing Radio Resource Control, RRC, layer and Packet Data Convergence Protocol, PDCP, layer functionality of the gNB and the gNB-DUs implementing Radio Link Control, RLC, layer, Media Access Control, MAC, layer, Physical, PHY, layer, and Radio Frequency, RF, layer functionality of the gNB; and one or more processors to: detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units, PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected. detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units, PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected.
An apparatus for providing film sheets that are self-adhesive on at least one side, the apparatus having a film dispenser providing a film strip consisting of at least one carrier film and a film for use arranged thereon and self-adhesive on at least one side, the film for use being divided or divisible into film sheets, and wherein a conveying device is provided for conveying the film strip from the film dispenser together with the carrier film on a guide track to a removal station where the film for use is removed from the carrier film, characterised in that the removal station has a carriage which has, at its end opposite the film dispenser, a separating edge over which the carrier film can be drawn by means of the conveying device, and to which an actuator is assigned for displacing the carrier film along the guide track, and wherein the removal station is associated with a gripper that grips a film sheet located in front of the separating edge, as seen in a conveying direction, and holds it stationary, while the carriage is displaced on the guide track by means of the actuator against the conveying direction of the carrier film and, at the same time, the carrier film is drawn away over the separating edge for detachment from the film sheet.
A folding method for liner bags that are produced integral with a cap and which are used as a disposable in aspiration systems where fluids are collected from a body during surgery, said liner bags being made of plastic material, which perform their functions while inside a canister, the method being characterized in that it consists of the following method steps: • folding from the liner bag bottom part towards an internal part of the liner bag body and • folding into two from mid-point starting from the liner bag bottom part of the liner bag body and folding in the form of a straight line to the cap part around a primary line (1.1) formed on the liner bag body. • folding from the liner bag bottom part towards an internal part of the liner bag body and • folding into two from mid-point starting from the liner bag bottom part of the liner bag body and folding in the form of a straight line to the cap part around a primary line (1.1) formed on the liner bag body.
A method comprising: determining, by a wearable device (102, 202), whether the wearable device is connected to a computing device using a first wireless communication technology from a plurality of wireless communication technologies of the wearable device; responsive to determining that the wearable device is not connected to the computing device using the first wireless communication technology, determining, by the wearable device, whether the wearable device is currently being worn; responsive to determining that the wearable device is currently being worn: determining, by the wearable device, whether the wearable device can connect to the computing device using a second wireless communication technology from the plurality of wireless communication technologies, wherein the first wireless communication technology uses less power to establish and maintain a connection with the computing device than the second wireless communication technology; and responsive to determining that the wearable device can connect to the computing device using the second wireless communication technology, establishing, by the wearable device, a connection to the computing device using the second wireless communication technology. determining, by a wearable device (102, 202), whether the wearable device is connected to a computing device using a first wireless communication technology from a plurality of wireless communication technologies of the wearable device; responsive to determining that the wearable device is not connected to the computing device using the first wireless communication technology, determining, by the wearable device, whether the wearable device is currently being worn; responsive to determining that the wearable device is currently being worn: determining, by the wearable device, whether the wearable device can connect to the computing device using a second wireless communication technology from the plurality of wireless communication technologies, wherein the first wireless communication technology uses less power to establish and maintain a connection with the computing device than the second wireless communication technology; and responsive to determining that the wearable device can connect to the computing device using the second wireless communication technology, establishing, by the wearable device, a connection to the computing device using the second wireless communication technology. determining, by the wearable device, whether the wearable device can connect to the computing device using a second wireless communication technology from the plurality of wireless communication technologies, wherein the first wireless communication technology uses less power to establish and maintain a connection with the computing device than the second wireless communication technology; and responsive to determining that the wearable device can connect to the computing device using the second wireless communication technology, establishing, by the wearable device, a connection to the computing device using the second wireless communication technology.
A method of updating a key, the method comprising: a small base station monitoring user plane uplink Packet Data Convergence Protocol, PDCP, count value or user plane downlink PDCP count value of each User Equipment, UE, connected with the small base station; and the method characterised by the small base station transmitting a key update request as a function of the user plane uplink PDCP count value or the user plane downlink PDCP count value to a macro base station so that the macro base station updates a key in response to the key update request. a small base station monitoring user plane uplink Packet Data Convergence Protocol, PDCP, count value or user plane downlink PDCP count value of each User Equipment, UE, connected with the small base station; and the method characterised by the small base station transmitting a key update request as a function of the user plane uplink PDCP count value or the user plane downlink PDCP count value to a macro base station so that the macro base station updates a key in response to the key update request.
An epitaxial substrate for use in a semiconductor element, in which a group of group-III nitride layers are laminated on a base substrate such that a crystal plane of said group of group-III nitride layers is substantially in parallel with a substrate surface of said base substrate, said epitaxial substrate comprising: a channel layer made of a first group-III nitride having a composition of In x1 Al y1 Ga z1 N (x1+y1+z1=1, z1>0) formed on said base substrate; a barrier layer made of a second group-III nitride having a composition of In x2 Al y2 N (x2+y2=1, x2>0, y2>0) formed on said channel layer; an anti-diffusion layer made of AlN and having a thickness of 3 nm or more formed on said barrier layer; and a cap layer made of GaN being doped with Mg as an acceptor element formed on said anti-diffusion layer, wherein said anti-diffusion layer prevents elements existing in said cap layer from diffusing into said barrier layer. a channel layer made of a first group-III nitride having a composition of In x1 Al y1 Ga z1 N (x1+y1+z1=1, z1>0) formed on said base substrate; a barrier layer made of a second group-III nitride having a composition of In x2 Al y2 N (x2+y2=1, x2>0, y2>0) formed on said channel layer; an anti-diffusion layer made of AlN and having a thickness of 3 nm or more formed on said barrier layer; and a cap layer made of GaN being doped with Mg as an acceptor element formed on said anti-diffusion layer, wherein said anti-diffusion layer prevents elements existing in said cap layer from diffusing into said barrier layer.
Use of an ionic liquid for a liquid electrolyte for electrical storage devices, wherein said ionic liquid is of formula below: wherein Me signifies methyl.
An automation technology field device, comprising: - At least four connecting pin (1, 2, 3, 4) for connecting the field device; - Field device electronics which are configured to provide a 4-20 mA signal via a first and second connecting pin (1, 2) in a first operating state, to be supplied with a supply voltage via the first and a third connecting pin (1, 3) in a second operating state, and to enable IO-Link communication via a fourth connecting pin or to provide a first switching output via the fourth connecting pin, and additionally to provide a second switching output at the second connecting pin, and to be supplied with the supply voltage via the first and third connecting pins (1, 3) in a third operating state, and to enable IO-Link communication via the fourth connecting pin or to provide the first switching output via the fourth connecting pin, and additionally to provide a 4-20 mA power output at the second connecting pin, wherein the field device electronics are further designed to be configured so that they can be operated in any of the three operating states. - At least four connecting pin (1, 2, 3, 4) for connecting the field device; - Field device electronics which are configured to provide a 4-20 mA signal via a first and second connecting pin (1, 2) in a first operating state, to be supplied with a supply voltage via the first and a third connecting pin (1, 3) in a second operating state, and to enable IO-Link communication via a fourth connecting pin or to provide a first switching output via the fourth connecting pin, and additionally to provide a second switching output at the second connecting pin, and to be supplied with the supply voltage via the first and third connecting pins (1, 3) in a third operating state, and to enable IO-Link communication via the fourth connecting pin or to provide the first switching output via the fourth connecting pin, and additionally to provide a 4-20 mA power output at the second connecting pin, wherein the field device electronics are further designed to be configured so that they can be operated in any of the three operating states.
Protective eyewear comprising a pair of eye pieces (102a, 102b), each defining one of two opposing inner lateral surfaces (104a, 104b) spaced by a nose bridge, at least one of the inner lateral surfaces (104a, 104b) comprising a slot (118a, 118b) for slidably and releasably engaging a locating rib (122a, 122b) provided on said nose bridge, wherein the slot (118a, 118b) is elongate and extends along the at least one inner lateral surface (104a, 104b) between upper and lower in-use ends of the inner lateral surface (104a, 104b); wherein said slot (118a, 118b) comprises a slot locking element and said nose bridge comprises a nose bridge locking element (130a, 130b) and wherein, in a use configuration with the locating rib (122a, 122b) of the nose bridge engaged within the slot (118a, 118b), the slot locking element and the nose bridge locking element (130a, 130b) cooperate within said slot (118a, 118b) to releasably secure the locating rib (122a, 122b) within the slot (118a, 118b); and the at least one of the inner lateral surfaces (104a, 104b) comprises a skirt (116a, 116b) upstanding from the inner lateral surface (104a, 104b) so as to define the slot (118a, 118b) wherein the skirt (116a, 116b) comprises an open axial end to allow sliding of the locating rib into the slot (118a, 118b). wherein the slot (118a, 118b) is elongate and extends along the at least one inner lateral surface (104a, 104b) between upper and lower in-use ends of the inner lateral surface (104a, 104b); wherein said slot (118a, 118b) comprises a slot locking element and said nose bridge comprises a nose bridge locking element (130a, 130b) and wherein, in a use configuration with the locating rib (122a, 122b) of the nose bridge engaged within the slot (118a, 118b), the slot locking element and the nose bridge locking element (130a, 130b) cooperate within said slot (118a, 118b) to releasably secure the locating rib (122a, 122b) within the slot (118a, 118b); and the at least one of the inner lateral surfaces (104a, 104b) comprises a skirt (116a, 116b) upstanding from the inner lateral surface (104a, 104b) so as to define the slot (118a, 118b) wherein the skirt (116a, 116b) comprises an open axial end to allow sliding of the locating rib into the slot (118a, 118b).