mhurhangee/ep-ind-claims huggingface dataset:
Arrangement and interconnection of planar, rigid or flexible solar cells, the photoelectrically active layers of which are applied to an insulating substrate material, the positive and negative contacts of which are arranged on one side, exclusively on one side of the surface and / or on one side of the surface and on one or more end faces, wherein the solar cells are arranged in an overlapping manner with one or more adjacent solar cells in the contact area, wherein the solar cells are connected to one another once or several times with a contact material in the overlapping area, wherein the contact material bridges the insulating substrate and the interconnection only is made on a front side or only on a rear side or between the end faces or between one or more end faces and a front or rear side (18, 19). wherein the solar cells are arranged in an overlapping manner with one or more adjacent solar cells in the contact area, wherein the solar cells are connected to one another once or several times with a contact material in the overlapping area, wherein the contact material bridges the insulating substrate and the interconnection only is made on a front side or only on a rear side or between the end faces or between one or more end faces and a front or rear side (18, 19).
An implantation system including a sling for urinary and faecal incontinence treatment and a tool said sling comprising a mid-part, at least two fixing tails provided with substantially flat self-anchoring means (30, 31, 32, 33) and comprising a substantially flat elongated part fixed to the mid-part, and an end part fixed to the elongated part, the end part including a connection means connectable to a tool characterized in that said connection means of the end part are axially disconnectable from the tool and include a butting surface substantially perpendicular to a distal portion of the elongated part, a fixing hole, substantially parallel to the distal portion of the elongated part, said implantation tool comprising a cannula and an aw1 axially movable inside the cannula between a protruding and a non-protruding position, wherein the awl has a diameter adapted to enter into the fixing hole of the sling, and the awl includes a tip with a stop, wherein the fixing hole has a diameter smaller than the stop diameter and is elastically deformable to allow the awl tip to cross along the fixing hole, and wherein the tool is disconnectable in an axial direction when the awl is pulled inside the cannula.
Method for migrating a virtualized function (VNF1 61, VNF2 62, VNF3 63) installed on a first server (VM 51, VM 52) in a data centre of a communication architecture, implemented in an administration entity (NFVI TE 10, VIM 40) for administering said first server, said entity being able to transmit, to a management entity (VNFM 70) for managing the virtualized function (VNF1 61, VNF2 62, VNF3 63), data relating to the installation of the virtualized function, the method comprising at least receiving a notification message (Notif) comprising at least one item of data of a technical environment parameter (Air 91, Elec 92, Detec 93) relating to the first server (VM51, VM 52), determining (Det) an action to safeguard the virtualized function (VNF1 61, VNF2 62, VNF3 63) if the at least one item of data crosses a predefined threshold, sending, to the management entity (VNFM 70), a message (Migr) to migrate the virtualized function (VNF1 61, VNF2 62, VNF3 63) to a second server, and receiving, from the management entity, an information message comprising an identifier of the second server to which the virtualized function has been migrated, the information message being designed to update a correspondence table indicating the servers on which the various virtualized functions are installed, said correspondence table being used so that the administration entity receives the notification messages concerning the servers actually present in said table.
The process for producing compressed nitrogen with a residual oxygen content of 1000 ppm, 10 ppm, or 5 ppm, using a nitrogen generator, fully interconnected in the nitrogen's flow direction A) a means of nitrogen generation from compressed air; B) consolidation agent for compressing the a) produced nitrogen to a pressure of more than 10 up to approx. 400 bar comprising a booster or high-pressure compressor; and C) a means of storing the b) compressed nitrogen; D) whereby upstream of the storage, derivation and/or diversion of the compressed nitrogen is intended, in which process, one a) produces nitrogen from compressed air; b) compresses it in the a) produced nitrogen using a consolidation agent, comprising a booster or high-pressure compressor with a pressure of more than 10 up to approx. 400 bar; c) stores the appropriately b) compressed nitrogen; thus characterized in that one starts up or powers up the consolidation agent, or as soon as the oxygen content exceeds a given limit of the compressed nitrogen in step b), which starts or powers up the process of compressed nitrogen in step b) for a specific freely preselectable or adjustable period, so that it is not directed toward use as storage for the selected time period, whereby the booster or high-pressure compressor is purged in that period and the compressed nitrogen is directed or discharged into a circuit, whereby the compressed nitrogen stream, directed to the circuit, passes at least a filter material and / or a cutter. A) a means of nitrogen generation from compressed air; B) consolidation agent for compressing the a) produced nitrogen to a pressure of more than 10 up to approx. 400 bar comprising a booster or high-pressure compressor; and C) a means of storing the b) compressed nitrogen; D) whereby upstream of the storage, derivation and/or diversion of the compressed nitrogen is intended, in which process, one a) produces nitrogen from compressed air; b) compresses it in the a) produced nitrogen using a consolidation agent, comprising a booster or high-pressure compressor with a pressure of more than 10 up to approx. 400 bar; c) stores the appropriately b) compressed nitrogen; a) produces nitrogen from compressed air; b) compresses it in the a) produced nitrogen using a consolidation agent, comprising a booster or high-pressure compressor with a pressure of more than 10 up to approx. 400 bar; c) stores the appropriately b) compressed nitrogen;
A compound of formula II: - wherein Z is H, CO 2 H, NH 2, SH or OH; - wherein each R 1 is the same or different moiety and is selected from the group consisting of, and: alternatively, R 1 is a peptide ligand to an enzyme or endothelial receptor; and - wherein R 2 is a chelating moiety, a fluorescent dye or H, wherein when R 2 is a chelating moiety, it can be bound to a metal ion useful in imaging, or as a cytotoxic moiety; or a pharmaceutically acceptable salt, solvate, or stereoisomer thereof. - wherein Z is H, CO 2 H, NH 2, SH or OH; - wherein each R 1 is the same or different moiety and is selected from the group consisting of, and: alternatively, R 1 is a peptide ligand to an enzyme or endothelial receptor; and - wherein R 2 is a chelating moiety, a fluorescent dye or H, wherein when R 2 is a chelating moiety, it can be bound to a metal ion useful in imaging, or as a cytotoxic moiety; or a pharmaceutically acceptable salt, solvate, or stereoisomer thereof. - wherein R 2 is a chelating moiety, a fluorescent dye or H, wherein when R 2 is a chelating moiety, it can be bound to a metal ion useful in imaging, or as a cytotoxic moiety;
A tube bottom for a heat exchanger, which has a bottom region with slot-type openings, wherein the slot-type openings are rimmed by eyelets and the tube bottom has an attached rim region, wherein between the eyelets and the attached rim region, a U-shaped trough is formed as a receiving area for the bottom of a box-like cover, wherein the U-shaped trough is formed by an inner first wall, the attached rim region and a second wall forming the trough bottom, wherein the inner first wall has at least one hump-like portion in the extension of an eyelet on the side facing the U-shaped trough, which bounds the breadth of the U-shaped trough between the attached rim region and the first wall and extends from the trough bottom to the end region of the eyelet facing the U-shaped trough, characterised in that a depression is formed in the hump-like portion which serves to produce a lead-in chamfer (92, 93) for tubes.
Method for mixing at least two fluids by means of an externally mixing nozzle for medical purposes, which has at least two outlet channels (10, 20) and at least two inlet openings (13, 23) with different or identical cross sections, wherein - a first fluid is conveyed laterally, in particular tangentially, via a first supply channel into a first chamber which is fluidically connected to a first outlet channel, - a second fluid is conveyed laterally, in particular tangentially, via a second supply channel into a second chamber which is fluidically connected to a second outlet channel, - via the first outlet channel, the first fluid, and via the second outlet channel, the second fluid flow out in such a manner that overlapping fluid cones form, wherein the first fluid and the second fluid have different volumetric flow rates and/or different viscosity and the ratio of the cross sections of the inlet openings (13, 23) and/or of the outlet channels (10, 20) corresponds to the ratio of the volumetric flow rates, so that the first fluid and the second fluid flow through the outlet channels (10, 20) and/or the inlet openings (13, 23) at substantially equal average flow speeds. - a first fluid is conveyed laterally, in particular tangentially, via a first supply channel into a first chamber which is fluidically connected to a first outlet channel, - a second fluid is conveyed laterally, in particular tangentially, via a second supply channel into a second chamber which is fluidically connected to a second outlet channel, - via the first outlet channel, the first fluid, and via the second outlet channel, the second fluid flow out in such a manner that overlapping fluid cones form,
A method for wireless communications with improved Hybrid Automatic Repeat Request, HARQ feedback indication, the method comprising: establishing, by a wireless communications device, WCD, communication within a wireless network, NW; indicating to the NW that the WCD is a constrained device that cannot reliably detect a Physical Hybrid Automatic Repeat Request Indicator Channel, PHICH; interpreting, by the WCD, Format 0 Downlink Control Information, DCIo received on a Physical Downlink Control Channel, PDCCH from the NW by the WCD as a negative acknowledgement, NACK indication corresponding to a HARQ feedback from the NW; and performing, by the WCD, a retransmission according to the interpreted DCIo. establishing, by a wireless communications device, WCD, communication within a wireless network, NW; indicating to the NW that the WCD is a constrained device that cannot reliably detect a Physical Hybrid Automatic Repeat Request Indicator Channel, PHICH; interpreting, by the WCD, Format 0 Downlink Control Information, DCIo received on a Physical Downlink Control Channel, PDCCH from the NW by the WCD as a negative acknowledgement, NACK indication corresponding to a HARQ feedback from the NW; and performing, by the WCD, a retransmission according to the interpreted DCIo.
A sealed and thermally insulating tank for storing a fluid comprising a secondary thermal insulation barrier which is retained on a carrier structure, a secondary sealing membrane, a primary thermal insulation barrier and a primary sealing membrane which is intended to be in contact with the fluid contained in the tank, the tank comprising a corner structure comprising: - a first panel and a second panel (1, 2) forming a corner of the secondary thermal insulation barrier, and comprising an external face opposite the carrier structure and an internal face; - a corner arrangement (8, 9, 10) of the secondary sealing membrane, which arrangement is fixed to the first and second panels (1, 2); - a first insulating block and a second insulating block (13, 14) of a primary thermal insulation barrier which are fixed to the first and second panels (1, 2), respectively, and which rest against the corner arrangement (8, 9, 10) of the secondary sealing membrane; and - a corner of a primary sealing barrier comprising a first wing and a second wing (15a, 15b) which are fixed to the first and second insulating blocks (1, 2), respectively; the said sealed and thermally insulating tank being characterized in that: - the first and second panels (1, 2) each comprise a metal plate which is fixed to the internal face thereof and which carries a fixing member for an insulating block; and - the corner arrangement of the secondary sealing membrane is of metal, has openings for the introduction of the fixing members for the insulating blocks and is welded, at the periphery of the openings, to the metal plates which carry the fixing members so as to ensure the sealing of the secondary sealing membrane. - a first panel and a second panel (1, 2) forming a corner of the secondary thermal insulation barrier, and comprising an external face opposite the carrier structure and an internal face; - a corner arrangement (8, 9, 10) of the secondary sealing membrane, which arrangement is fixed to the first and second panels (1, 2); - a first insulating block and a second insulating block (13, 14) of a primary thermal insulation barrier which are fixed to the first and second panels (1, 2), respectively, and which rest against the corner arrangement (8, 9, 10) of the secondary sealing membrane; and - a corner of a primary sealing barrier comprising a first wing and a second wing (15a, 15b) which are fixed to the first and second insulating blocks (1, 2), respectively; the said sealed and thermally insulating tank being characterized in that: - the first and second panels (1, 2) each comprise a metal plate which is fixed to the internal face thereof and which carries a fixing member for an insulating block; and - the corner arrangement of the secondary sealing membrane is of metal, has openings for the introduction of the fixing members for the insulating blocks and is welded, at the periphery of the openings, to the metal plates which carry the fixing members so as to ensure the sealing of the secondary sealing membrane.
An aircraft comprising: an airframe having an extending tail; a counter rotating, coaxial main rotor assembly disposed at the airframe including an upper rotor assembly and a lower rotor assembly and which produces aircraft component vibrations; a translational thrust system positioned at the extending tail and providing translational thrust to the airframe; and an active vibration control, AVC, system disposed at the airframe including: a plurality of AVC actuators configured to generate forces to dampen the aircraft component vibration; and an AVC controller configured to transmit control signals to the plurality of AVC actuators to produce force generation by the plurality of AVC actuators to dampen the aircraft component vibration on the aircraft, wherein the AVC controller is configured to receive a main rotor speed signal from a drive system component and transmit a control signal to the plurality of AVC actuators to change the produced force generation based on an expected vibration at the received main rotor speed, wherein the AVC controller does not utilize directly measured vibration from AVC sensors. an airframe having an extending tail; a counter rotating, coaxial main rotor assembly disposed at the airframe including an upper rotor assembly and a lower rotor assembly and which produces aircraft component vibrations; a translational thrust system positioned at the extending tail and providing translational thrust to the airframe; and an active vibration control, AVC, system disposed at the airframe including: a plurality of AVC actuators configured to generate forces to dampen the aircraft component vibration; and an AVC controller configured to transmit control signals to the plurality of AVC actuators to produce force generation by the plurality of AVC actuators to dampen the aircraft component vibration on the aircraft, a plurality of AVC actuators configured to generate forces to dampen the aircraft component vibration; and an AVC controller configured to transmit control signals to the plurality of AVC actuators to produce force generation by the plurality of AVC actuators to dampen the aircraft component vibration on the aircraft, wherein the AVC controller is configured to receive a main rotor speed signal from a drive system component and transmit a control signal to the plurality of AVC actuators to change the produced force generation based on an expected vibration at the received main rotor speed, wherein the AVC controller does not utilize directly measured vibration from AVC sensors.
A weather strip (10; 67; 73) comprising: a welt portion (12; 53; 63), which is configured to be attached to a peripheral edge of an opening of a main body member; and a sealing portion (13; 52; 60; 70) connected to the welt portion (12; 53; 63), wherein the sealing portion (13; 52; 60; 70) includes a contact surface, which is configured to contact an opening-closing member that opens or closes the opening, the sealing portion (13; 52; 60; 70) is configured to seal a boundary between the main body member and the opening-closing member, the sealing portion (13; 52; 60; 70) has a hollow or enclosed gel, and a transverse groove (25; 64) is provided on an outer peripheral surface (27; 54, 55; 61, 63; 74) except for the contact surface, the transverse groove (25; 64) extending along a direction from the welt toward the sealing portion (13; 52; 60; 70); the weather strip (10; 67; 73) being characterized in that the outer peripheral surface (27; 61, 63; 74) is provided with a lateral groove (26; 65), which intersects with the transverse groove (25; 64). a welt portion (12; 53; 63), which is configured to be attached to a peripheral edge of an opening of a main body member; and a sealing portion (13; 52; 60; 70) connected to the welt portion (12; 53; 63), wherein the sealing portion (13; 52; 60; 70) includes a contact surface, which is configured to contact an opening-closing member that opens or closes the opening, the sealing portion (13; 52; 60; 70) is configured to seal a boundary between the main body member and the opening-closing member, the sealing portion (13; 52; 60; 70) has a hollow or enclosed gel, and a transverse groove (25; 64) is provided on an outer peripheral surface (27; 54, 55; 61, 63; 74) except for the contact surface, the transverse groove (25; 64) extending along a direction from the welt toward the sealing portion (13; 52; 60; 70); the weather strip (10; 67; 73) being characterized in that the outer peripheral surface (27; 61, 63; 74) is provided with a lateral groove (26; 65), which intersects with the transverse groove (25; 64).
A flash housing for photographic purposes, said flash housing comprising: a flash forming element arranged to generate a flash light; a lens element having a substantially circular cross-section and being arranged to let at least part of the generated flash light out of the flash housing so as to obtain the flash, a zoom element rotatably arranged at least partly along the circumference of the lens element and operatively connected to the flash forming element so as to control movement of the flash forming element by manual rotation of the zoom element along the circumference, and a transfer element arranged to transfer the rotational movement or position of the zoom element to an electrical signal, wherein an axial movement or position of the flash forming element is controlled based on the electrical signal. a flash forming element arranged to generate a flash light; a lens element having a substantially circular cross-section and being arranged to let at least part of the generated flash light out of the flash housing so as to obtain the flash, a zoom element rotatably arranged at least partly along the circumference of the lens element and operatively connected to the flash forming element so as to control movement of the flash forming element by manual rotation of the zoom element along the circumference, and a transfer element arranged to transfer the rotational movement or position of the zoom element to an electrical signal, wherein an axial movement or position of the flash forming element is controlled based on the electrical signal.
A compound according to the structure: wherein: A is -R, -N 2, -C(=NR)N 2, or -OR, each R is, independently, H, alkyl, alkenyl, alkynyl, aryl, or aralkyl; each X is, independently, H, halo, alkyl, alkenyl, alkynyl, aralkyl, -OR, -CH 2 -CO 2 R, -C R, -CO 2 R, -N 2, -NR-C R, -C N 2, -NR-CO 2 R, -SO 3 CF 3, -NO 2, - N 3, -CF 3, -CH=CHY, or -CN; Y is halo; n is an integer from 0-3; and R 1 is an optionally substituted heteroaryl selected from the group consisting of thiophene and pyrimidine; or a pharmaceutically acceptable ester, amide, salt, solvate, or stereoisomer thereof. A is -R, -N 2, -C(=NR)N 2, or -OR, each R is, independently, H, alkyl, alkenyl, alkynyl, aryl, or aralkyl; each X is, independently, H, halo, alkyl, alkenyl, alkynyl, aralkyl, -OR, -CH 2 -CO 2 R, -C R, -CO 2 R, -N 2, -NR-C R, -C N 2, -NR-CO 2 R, -SO 3 CF 3, -NO 2, - N 3, -CF 3, -CH=CHY, or -CN; Y is halo; n is an integer from 0-3; and R 1 is an optionally substituted heteroaryl selected from the group consisting of thiophene and pyrimidine;
Floor board for forming a surface on which can be travelled and/or walked, wherein two or more suchlike floor boards can be laid together, comprising a base body which has a connection device, said connection device comprising an engaging element and at least one receiving region, wherein the engaging element has a retaining part and a head part connected to same, wherein the receiving region comprises a passage through which the retaining part can reach and a recess interacting with the head part, wherein the base body has lateral walls (17, 19, 21, 23), from which the at least one engaging element proceeds and which comprise the at least one receiving region, wherein the passage is introduced from below into the base body or the lateral walls (21 and 23) of same and does not extend over the whole height of the lateral walls (21 and 23), and wherein a height locking mechanism is provided, which comprises a contact surface for the retaining part and a support surface for the head part, characterised in that the head part of the floor board interacts with the recess of another suchlike floor board in that the head part over the regions of the circumferential surface of same, namely the bottom of same, is supported against the support surface of the recess such that any projections on the engaging element can be dispensed with.
A method performed during cold ischemia for preventing or reducing intercellular gap formation in a lung cell in extracorporeal tissue or organs or in tissue or organs that are being transplanted from a tissue or organ donor into a transplant recipient, wherein said tissue or organs are not located in a living organism, the method comprising contacting the cell or the tissue or organ during cold ischemia with an effective amount of a compound represented by the Formula: wherein: n is an integer from 1 to 6; X 1 is O or S; X 2 is O or S; R 1, R 2, and R 3 are independently C 2 -C 16 acyl, wherein at least one of R 1, R 2, and R 3 is C 2 -C 7 acyl; R 4 is selected from the group consisting of H, hydroxylalkyl, -C(=O)NH 2, and -(CH 2) m C(=O)OH, wherein m is an integer from 0 to 2; and R 5, R 6, and R 7 are independently C 10 -C 12 alkyl, or a pharmaceutically acceptable salt thereof. n is an integer from 1 to 6; X 1 is O or S; X 2 is O or S; R 1, R 2, and R 3 are independently C 2 -C 16 acyl, wherein at least one of R 1, R 2, and R 3 is C 2 -C 7 acyl; R 4 is selected from the group consisting of H, hydroxylalkyl, -C(=O)NH 2, and -(CH 2) m C(=O)OH, wherein m is an integer from 0 to 2; and R 5, R 6, and R 7 are independently C 10 -C 12 alkyl, or