mhurhangee/ep-ind-claims huggingface dataset:
Supporting device for a ceiling support for supporting a ceiling formwork panel, the supporting device having at least one upper elongated supporting element and one lower elongated supporting element, and the supporting elements (7, 8) being pivotably connected to one another, the supporting elements (7,8) can be brought into a working position in which the support elements (7, 8) are preferably aligned coaxially with one another, and the support elements (7, 8) can be pivoted into a tilting position in which the support elements (7, 8) are pivoted through a tilting angle (α) with respect to one another, a locking element being provided, which secures the support elements (7, 8) against pivoting in the operating position, wherein the locking element bridges a connecting region between the two support elements (7, 8) in the operating position, and wherein the locking element can be moved into a release position in which the locking element is arranged outside the connecting region, characterized in that the locking element in the operating position extends from a lower end region of the upper supporting element to an upper end region of the lower supporting element and in the process bridges the connecting region.
An in vitro or ex vivo method of integrating an exogenous sequence into an albumin gene of an isolated mammalian cell, the method comprising sequentially administering (i) one or more adeno-associated viral vectors encoding at least one nuclease, the nuclease comprising a pair of zinc finger nucleases (ZFNs) or TAL-effector protein nucleases (TALENs) that cleaves the albumin gene and (ii) one or more double-stranded donor sequences that encode one or more clotting factors and are integrated into the albumin gene following cleavage of the albumin gene by the one or more nucleases, wherein the donor sequences are administered between 24 and 72 hours after the one or more nucleases.
An internal medium pressure type two-stage compression compressor comprising a motor and a compression mechanism in an airtight container, in which the motor and the compression mechanism are connected to each other through a shaft, the compression mechanism includes a cylinder (31A, 31B), a piston (32A, 32B) placed in the cylinder (31A, 31B) and a vane for partitioning an interior of the cylinder (31A, 31B), the compression mechanism includes a first compression mechanism which carries out first stage low stage compression, and a second compression mechanism which carries out second stage high stage compression, an oil supply passage is formed in a suction passage of the second compression mechanism, refrigerant gas which is compressed by the first compression mechanism is discharged into the airtight container, the refrigerant gas is compressed by the second compression mechanism and discharged outside the airtight container, and oil is supplied to a second compression chamber of the second compression mechanism from the oil supply passage by a pressure difference between case internal pressure in the airtight container and suction pressure in the suction passage of the second compression mechanism 30B), characterized in that when the piston turns from a top dead center to a position of the suction passage, a closed space is not formed between the vane, the cylinder and the piston. the motor and the compression mechanism are connected to each other through a shaft, the compression mechanism includes a cylinder (31A, 31B), a piston (32A, 32B) placed in the cylinder (31A, 31B) and a vane for partitioning an interior of the cylinder (31A, 31B), the compression mechanism includes a first compression mechanism which carries out first stage low stage compression, and a second compression mechanism which carries out second stage high stage compression, an oil supply passage is formed in a suction passage of the second compression mechanism, refrigerant gas which is compressed by the first compression mechanism is discharged into the airtight container, the refrigerant gas is compressed by the second compression mechanism and discharged outside the airtight container, and oil is supplied to a second compression chamber of the second compression mechanism from the oil supply passage by a pressure difference between case internal pressure in the airtight container and suction pressure in the suction passage of the second compression mechanism 30B), characterized in that when the piston turns from a top dead center to a position of the suction passage, a closed space is not formed between the vane, the cylinder and the piston.
A polishing composition comprising a synthetic water-soluble polymer M L-end and a synthetic water-soluble polymer M C-end, the synthetic water-soluble polymer M L-end having a hydrophobic region at least at one end of its main chain, the hydrophobic region having at least one hydrophobic group derived from a polymerization initiator, and the synthetic water-soluble polymer M C-end having a main chain formed with a non-cationic region as its main structural part and a cationic region located at least at one end of the main chain, the cationic region having at least one cationic group.
Electrically conductive, biphasic mixed oxide based on perovskite of the structure ABO 3 with A=Ba and B=Co, comprising additionally 5-45 at%, preferably 15 to 30 at%, particularly preferably 25 at%, Co 3 O 4, wherein the at% of Co are based on the total number of the Co atoms in the perovskite ABO 3 and 0.5 to 3 at%, preferably 1 to 2.5 at%, particularly preferably 2 at% Ti as dopant, wherein the at% Ti are based on the total number of the Co-cations in the perovskite ABO 3.
A knee arthrodesis implant comprising a femur nail, which is introduced into the bone marrow canal of the femur and has a nail neck, and comprising a tibia nail, which is introduced into the bone marrow canal of the tibia and has a nail neck, which nails are connected rigidly together by a connecting means which comprises at least one sleeve-like module (3, 3.1, 3.2, 3.3, 3.4, 3.5) positioned in the axial direction of the nails (1, 2), characterised in that the module comprises at least two half-shells (6.1; 6.2) divided in the axial direction of the module (3; 3.1-3.6), in that the half-shells (6.1; 6.2) are connected detachably together and form an axially extending passage for insertion of the respective nail neck (4; 5) into the passage and in that the half-shells comprise mutually corresponding openings (10.1) for accommodating a clamping means, said openings (10.1) being arranged coaxially in the axial direction of the module (3; 3.1-3.6) and each positioned perpendicular to the axial direction, which clamping means, in the clamped state, immobilises the respective nail neck (4; 5) in the passage solely by means of frictional engagement in the manner of clamping jaws with a tightening torque sufficient to counteract axial displacement and rotation.
A device for curing a coating substance inside a pipe, the device comprising a flexible shaft disposed at least partially inside a duct, an air inlet channel between the flexible shaft and the duct, a body attached to the duct, a heat sink in connection with the body and defining a plurality of cooling channels which are in fluid connection with the air inlet channel, and a plurality of light emitting devices configured to be cooled by the heat sink, wherein the device further comprises an air outlet channel in fluid connection with the cooling channels of the heat sink, and the air outlet channel exits the body from the same side of the body as the air inlet channel enters the body, wherein the air outlet channel is a through-hole in the body, characterized in that the air outlet channel is parallel to the air inlet channel or the length direction of the device, where air is configured to flow in the air inlet channel to an opposite direction to the air flowing in the air outlet channel. a flexible shaft disposed at least partially inside a duct, an air inlet channel between the flexible shaft and the duct, a body attached to the duct, a heat sink in connection with the body and defining a plurality of cooling channels which are in fluid connection with the air inlet channel, and a plurality of light emitting devices configured to be cooled by the heat sink, wherein the device further comprises an air outlet channel in fluid connection with the cooling channels of the heat sink, and the air outlet channel exits the body from the same side of the body as the air inlet channel enters the body, wherein the air outlet channel is a through-hole in the body, characterized in that the air outlet channel is parallel to the air inlet channel or the length direction of the device, where air is configured to flow in the air inlet channel to an opposite direction to the air flowing in the air outlet channel.
A drive unit including a motor such as a bypass turbojet engine, and a nacelle comprising on the outside around an annular flow path of fresh air, from the upstream, an air inlet, lateral front cowls, a thrust reverser comprising thrust reverser cascades and movable rear cowls, the lateral front cowls surrounding the thrust reverser cascades of the thrust reverser when it is closed, and the movable rear cowls moving back with these cascades to open the thrust reverser, the motor including lifting points forming resistant hooking points intended to receive handling clevises allowing lifting and transporting the drive unit, the drive unit being such that the lifting points are two upper lifting points disposed on the motor, each on one side of the motor radially behind the lateral front cowls above the horizontal diameter of the drive unit, and such that each lateral front cowl includes a removable hatch which is movable between a closed position in which the hatch is flush with said cowl and an open position in which the hatch opens the access to an upper lifting point, disposed radially outward of the upper lifting point on its side.
A method for checking products (10, 48) of the tobacco industry having in each case a substantially circular front-end contour (40, 53), in particular cigarettes, in which an electro-optical check element, preferably a camera, is used to record an electronic image of the front end (24, 55) of at least one product (10, 48), wherein the recorded image (47, 50) is evaluated for identification of the product (10, 48) in the image (47, 50), characterized in that, by evaluating image information of the recorded image (47, 50) along at least three evaluation lines, which extend in each case from an inner image position, at which the front end (24, 55) of the product (10, 48) is expected in the image (47, 50), up to an outer image position, at which the area surrounding the front end (24, 55) of the product (10, 48) is expected in the image (47, 50), boundary points of the front-end contour (40, 53) of the product (10, 48) located on the evaluation lines are ascertained, wherein the centre point of a circle extending through the boundary points is calculated from at least three ascertained boundary points.
Electrical machine comprising a stator and a rotor, said rotor being formed of a rotor body with a stack of sheets placed on a rotor shaft, where the rotor comprises at least one a cavity with arms, for maintaining at least one dynamic balancing mass of said rotor, where the arms comprise one end at a distance from the rotor center of the cavity, characterized in that the ends of the arms comprise a concave curved surface.
A light emitting device module comprising: a first lead frame and a second lead frame electrically separated from each other; a light emitting device electrically connected to the first lead frame and the second lead frame, the light emitting device includes a light emitting structure having a first conduction type semiconductor layer, an active layer, and a second conduction type semiconductor layer; a dam disposed around the peripheral area of the light emitting device; a resin layer surrounding the light emitting device and disposed at the inner area of the dam; and a reflective member disposed around the peripheral area of the dam and including an inclined plane formed on at least one side surface thereof facing the light emitting device, wherein the reflective member is spaced from the dam by a predetermined interval, and a height of an upper surface of the reflective member is higher than that of the dam, characterised in that the height of the dam is 40 μ m to 60 μ m, and a width (W R) of an uppermost end of the inclined plane of the reflective member is between 1.5 to 2 times a width (W V) of the resin layer. a first lead frame and a second lead frame electrically separated from each other; a light emitting device electrically connected to the first lead frame and the second lead frame, the light emitting device includes a light emitting structure having a first conduction type semiconductor layer, an active layer, and a second conduction type semiconductor layer; a dam disposed around the peripheral area of the light emitting device; a resin layer surrounding the light emitting device and disposed at the inner area of the dam; and a reflective member disposed around the peripheral area of the dam and including an inclined plane formed on at least one side surface thereof facing the light emitting device, wherein the reflective member is spaced from the dam by a predetermined interval, and a height of an upper surface of the reflective member is higher than that of the dam, characterised in that the height of the dam is 40 μ m to 60 μ m, and a width (W R) of an uppermost end of the inclined plane of the reflective member is between 1.5 to 2 times a width (W V) of the resin layer.
A sensor unit for use in a multiphase flow of air and plant parts of the transport and/or separation air flow of a harvesting machine, wherein the sensor unit: a) serves as a transmitter and has at least one device for emitting electromagnetic radiation, or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation, or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation, or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation, or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation, wherein the sensor unit comprises at least one device for acquiring flow parameters, and the devices for transmitting and/or receiving and/or reflecting electromagnetic radiation (2001, 2002) for detecting grains as well as the device for acquiring flow parameters are together arranged in a housing and are in this way positionable in the multiphase flow wherein the leading edge of the housing is rounded, curvedly runs away from the surface of the fastening plane of the sensor unit, and a tripwire or turbulators are arranged at the leading adge. wherein the sensor unit: a) serves as a transmitter and has at least one device for emitting electromagnetic radiation, or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation, or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation, or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation, or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation, a) serves as a transmitter and has at least one device for emitting electromagnetic radiation, or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation, or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation, or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation, or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation, wherein the sensor unit comprises at least one device for acquiring flow parameters, and the devices for transmitting and/or receiving and/or reflecting electromagnetic radiation (2001, 2002) for detecting grains as well as the device for acquiring flow parameters are together arranged in a housing and are in this way positionable in the multiphase flow wherein the leading edge of the housing is rounded, curvedly runs away from the surface of the fastening plane of the sensor unit, and a tripwire or turbulators are arranged at the leading adge.
Multi-joint crank drive of an internal combustion engine, with at least one coupling member mounted rotatably about a coupling member rotation axis on a crankpin of a crankshaft and at least one connecting rod mounted rotatably about an eccentric rotation axis on a crankpin of an eccentric shaft, wherein the coupling member is connected with a piston rod of a piston of the internal combustion engine for pivoting about a piston rod rotation axis and with the connecting rod for pivoting about a connecting rod rotation axis, wherein the coupling member comprises a bearing eye receiving the crankpin of the crankshaft, and wherein a centre point of the coupling member is arranged outside the bearing eye, wherein the centre point is arranged on a side of a first plane which faces the piston of the internal combustion engine, said first plane receiving the coupling member rotation axis and the connecting rod rotation axis, characterised in that a coupling angle (α) between an imagined straight line through the coupling member rotation axis and the connecting rod rotation axis on the one hand and an imagined straight line through the coupling member rotation axis and the piston rod rotation axis on the other hand is at least 140° and at most 180°.
A heat transfer plate (8a, 8b) for a plate heat exchanger, having a thickness t and comprising first and second opposing sides (22, 24), a first bar engagement portion along the first side, a second bar engagement portion along the second side, and an outer edge part comprising corrugations extending between and in first and second planes (54, 56), which first and second planes (54, 56) are parallel to each other, a distance between the first and second plane = x, the first bar engagement portion comprising a first recess for receiving a first bar of the plate heat exchanger and a first edge portion surrounding the first recess, and the second bar engagement portion comprising a second recess for receiving a second bar of the plate heat exchanger and a second edge portion surrounding the second recess, at least a part of the first edge portion extending from the first plane to a third plane which is parallel to the first plane, and at least a part of the second edge portion extending from the first plane to a fourth plane which is parallel to the first plane, characterized in that the second and third planes (56, 80) are arranged on the same side of the first plane, the third plane is arranged on a distance d1 > 0 from the first plane such that said at least a part of the first edge portion projects from a front of the heat transfer plate, the fourth plane is arranged on a distance d2 ≥ 0 from the first plane, and an edge of the first edge portion defines a first area and an edge of the second edge portion a second area, wherein the first area fits inside the second area.
A communication method, comprising: generating, by a centralized unit, CU, a UE context modification request message, wherein the UE context modification request message is used to request a distributed unit, DU, to modify a context of relay user equipment, UE, the UE context modification request message carries an identifier of remote UE, a bearer identifier of the relay UE, and an identifier of a logical channel having a mapping relationship with the bearer identifier of the relay UE, the bearer identifier of the relay UE is an identifier of a bearer between the relay UE and the CU, and the logical channel is a logical channel between the remote UE and the relay UE; and sending, by the CU, the UE context modification request message to the DU wherein the method further comprises: sending, by the CU, a downlink radio resource control RRC information transfer message to the DU, wherein the downlink RRC information transfer message comprises downlink RRC information of the remote UE, an identifier of the relay UE on a CU-DU interface, and a first indication, the downlink RRC information comprises a downlink RRC message of the remote UE and a packet data convergence protocol PDCP layer and adaptation information that are encapsulated outside the downlink RRC message, the adaptation information is used to indicate that the downlink RRC message is the downlink RRC message of the remote UE, and the first indication is used to indicate that the adaptation information is encapsulated outside the downlink RRC message.. generating, by a centralized unit, CU, a UE context modification request message, wherein the UE context modification request message is used to request a distributed unit, DU, to modify a context of relay user equipment, UE, the UE context modification request message carries an identifier of remote UE, a bearer identifier of the relay UE, and an identifier of a logical channel having a mapping relationship with the bearer identifier of the relay UE, the bearer identifier of the relay UE is an identifier of a bearer between the relay UE and the CU, and the logical channel is a logical channel between the remote UE and the relay UE; and sending, by the CU, the UE context modification request message to the DU wherein the method further comprises: sending, by the CU, a downlink radio resource control RRC information transfer message to the DU, wherein the downlink RRC information transfer message comprises downlink RRC information of the remote UE, an identifier of the relay UE on a CU-DU interface, and a first indication, the downlink RRC information comprises a downlink RRC message of the remote UE and a packet data convergence protocol PDCP layer and adaptation information that are encapsulated outside the downlink RRC message, the adaptation information is used to indicate that the downlink RRC message is the downlink RRC message of the remote UE, and the first indication is used to indicate that the adaptation information is encapsulated outside the downlink RRC message..
Use of a protective refractory material for clinker kilns, of the rotary kiln type used in the cement industry, which prevents thermochemical attack and the formation of coating or rings, in the outlet zone, the lower transition zone, the upper transition zone, the safety zone and the calcination zone of the clinker kiln, in which said material is composed of the following minerals, defined as percentage by weight: andalusite or sintered alumina or fused alumina or electrofused alumina-zirconia of between 30 and 80%; silicon carbide of between 5 and 60%; zirconium silicate of between 5 and 60%; and clay of between 5 and 15%; the sum of percentages being 100%.