mhurhangee/ep-ind-claims huggingface dataset:
Horizontal formwork system comprising longitudinal beams arranged in a longitudinal direction, formwork panels and safety means for protecting operators against falling when installing the formwork panels, said safety means comprising a safety structure which is arranged parallel to the formwork panels, wherein the safety means comprise displacement means for moving the safety structure in the longitudinal direction, which allow the operator to move said safety structure as the operator places the formwork panels and to cover at least partially a gap existing immediately after the last assembled formwork panel, characterized in that the safety structure is arranged in a plane that is below said formwork panels, at least partially covering the gap existing immediately after the last assembled formwork panel.
Method for generating an antibody binding to a cell surface protein of interest, the method comprising the following steps: (a) providing a non-human cell which does not express the endogenous form of the cell surface protein of interest but expresses an exogenous form of the cell surface protein of interest comprising at least one human segment; (b) immunization of a non-human animal with the cell line provided in step (a); (c) generation of hybridomas from the immunized non-human animal of step (b); (d) screening for an antibody that binds to the cell surface protein of interest by contacting the antibodies secreted by the hybridomas of step (c) with human cells which do not express the endogenous form of the cell surface protein of interest but express an exogenous form of the cell surface protein of interest comprising at least one human segment, wherein the non-human animal that is immunized in step (b) is of another species than the non-human cell line provided in step (a), wherein the cell surface protein of interest is a TCR receptor, wherein the exogenous TCR comprises a variable human TCR α chain, a variable human TCR β chain, a constant mouse TCR α chain and a constant mouse TCR β chain, wherein the cell provided in step (a) does neither express an endogenous TCR α chain nor an endogenous TCR β chain, and wherein in step (d) the antibodies secreted by the hybridomas of step (c) are contacted with a mixture of human cells which does not express the endogenous form of the cell surface protein of interest comprising: (i) a first proportion of the mixture of human cells which expresses the functional cell surface molecule of interest; and (ii) a second proportion of the mixture of human cells which does not express the functional cell surface molecule of interest and which comprises a selection marker, wherein the selection marker is preferably a fluorescent marker; wherein binding to (i) and not to (ii) indicates that the antibody is specifically binding to the cell surface protein of interest. (a) providing a non-human cell which does not express the endogenous form of the cell surface protein of interest but expresses an exogenous form of the cell surface protein of interest comprising at least one human segment; (b) immunization of a non-human animal with the cell line provided in step (a); (c) generation of hybridomas from the immunized non-human animal of step (b); (d) screening for an antibody that binds to the cell surface protein of interest by contacting the antibodies secreted by the hybridomas of step (c) with human cells which do not express the endogenous form of the cell surface protein of interest but express an exogenous form of the cell surface protein of interest comprising at least one human segment, (i) a first proportion of the mixture of human cells which expresses the functional cell surface molecule of interest; and (ii) a second proportion of the mixture of human cells which does not express the functional cell surface molecule of interest and which comprises a selection marker, wherein the selection marker is preferably a fluorescent marker;
Method for activating at least one processing entity (11, 14) from among a plurality of entities (11, 13, 14, 16) situated on the path of the data of a session between a terminal of a user and a server of a services provider, the terminal and the server being attached to a communication network, implemented in said terminal and comprising - a step of transmission to the server of an identification message (M9, M19) intended to receive identifiers of entities (11, 13, 14, 16) of the plurality added by the entities (11, 13, 14, 16), - a step (E'11) of reception from the server of an acknowledgement message (M11, M21) comprising identifiers included in the identification message, - a step of selection of at least one identifier from among those received from the server, - a step of transmission to the server of a message (M13, M23) relating to the activation of entities (11, 14) from among the plurality (11, 13, 14, 16). - a step of transmission to the server of an identification message (M9, M19) intended to receive identifiers of entities (11, 13, 14, 16) of the plurality added by the entities (11, 13, 14, 16), - a step (E'11) of reception from the server of an acknowledgement message (M11, M21) comprising identifiers included in the identification message, - a step of selection of at least one identifier from among those received from the server, - a step of transmission to the server of a message (M13, M23) relating to the activation of entities (11, 14) from among the plurality (11, 13, 14, 16).
A movable flight control surface (11, 12) for aircraft, the movable surface comprising: • a skin mounted to pivot on a pivot shaft forming a hinge and having at least one end that projects from the skin; • at least one electric motor that is mounted inside the skin and that has an outlet shaft coupled to the pivot shaft so as to cause the skin to pivot on the pivot shaft; and • a power circuit and a control circuit for powering and controlling the motor, the circuits being housed inside the skin and being connected to connectors leading to the outside of the skin. • a skin mounted to pivot on a pivot shaft forming a hinge and having at least one end that projects from the skin; • at least one electric motor that is mounted inside the skin and that has an outlet shaft coupled to the pivot shaft so as to cause the skin to pivot on the pivot shaft; and • a power circuit and a control circuit for powering and controlling the motor, the circuits being housed inside the skin and being connected to connectors leading to the outside of the skin.
Alcoholic extract of aerial parts of Solidago virgaurea subsp. alpestris, obtainable by a method comprising the following steps: a) extracting the aerial parts of Solidago virgaurea subsp. alpestris, with at least one alcoholic solvent; b) incubating the mixture obtained in a) for at least 10h; c) filtering the incubated mixture obtained in b); and d) removing the solvent from the filtrate obtained, and then final dilution in another alcoholic solvent. a) extracting the aerial parts of Solidago virgaurea subsp. alpestris, with at least one alcoholic solvent; b) incubating the mixture obtained in a) for at least 10h; c) filtering the incubated mixture obtained in b); and d) removing the solvent from the filtrate obtained, and then final dilution in another alcoholic solvent.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, a plurality of staples, each staple being disposed within one of the plurality of staple cavities, a plurality of staple drivers, the plurality of staple drivers being upwardly movable to eject the plurality of staples from the plurality of staple cavities, and a sled longitudinally movable through the cartridge body and configured to cause upward movement of the plurality of staple drivers; wherein at least a portion of an outer surface of at least one of the cartridge body, the plurality of staple cavities, the plurality of staples, and the plurality of staple drivers includes a coating configured to selectively control an interaction between at least one matrix metalloproteinase inhibitor and the outer surface, characterised in that the plurality of staples include a coating configured to permit adhesion of an MMP inhibitor, and at least one of the cartridge body, the plurality of staple drivers, and the sled include a coating configured to at least minimize adhesion of an MMP inhibitor, and wherein each of the plurality of staples comprises staple legs and a crown, and wherein the coating configured to permit adhesion is disposed on the staple legs, and wherein the coating configured to at least minimize adhesion is disposed on the crown. a cartridge body having a plurality of staple cavities, a plurality of staples, each staple being disposed within one of the plurality of staple cavities, a plurality of staple drivers, the plurality of staple drivers being upwardly movable to eject the plurality of staples from the plurality of staple cavities, and a sled longitudinally movable through the cartridge body and configured to cause upward movement of the plurality of staple drivers; a plurality of staple cavities, a plurality of staples, each staple being disposed within one of the plurality of staple cavities, a plurality of staple drivers, the plurality of staple drivers being upwardly movable to eject the plurality of staples from the plurality of staple cavities, and a sled longitudinally movable through the cartridge body and configured to cause upward movement of the plurality of staple drivers; wherein at least a portion of an outer surface of at least one of the cartridge body, the plurality of staple cavities, the plurality of staples, and the plurality of staple drivers includes a coating configured to selectively control an interaction between at least one matrix metalloproteinase inhibitor and the outer surface, characterised in that the plurality of staples include a coating configured to permit adhesion of an MMP inhibitor, and at least one of the cartridge body, the plurality of staple drivers, and the sled include a coating configured to at least minimize adhesion of an MMP inhibitor, and wherein each of the plurality of staples comprises staple legs and a crown, and wherein the coating configured to permit adhesion is disposed on the staple legs, and wherein the coating configured to at least minimize adhesion is disposed on the crown.
An ear unit for stably fitting in an ear having an antihelix, a crus of helix, a tragus and a concha surrounded by the antihelix, said ear unit is shaped as a decremental curve, wherein said decremental curve has a surface shaped in such a way that the curve falls along the inner part of the antihelix and is partially positioned under antitragus; said decremental curve adapting a first radius of curvature along the upper inner part of the antihelix and a second radius of curvature along the lower inner part of the antihelix, wherein the first radius of curvature is greater than the second radius of curvature, and wherein the distance between the ends (5, 8) of the decremental curve is approximately equal to the distance between a first cavity formed under the tragus of the ear and second cavity covered by the lower node of the antihelix of the ear, wherein said ear unit has a curvature providing an improved attachment in that said curvature follows the inner surface of the ear mussel to provide a contact surface, thereby enabling the ear unit to fit closely against the ear mussel when the ear unit is positioned into the ear.
A combination of a covering device of an axle box, an axle box and an axle, the covering device thereof being adapted and configured to be coupled to the axle box so as to define an inner compartment between the axle box and the covering device, wherein the covering device comprises an electric generator housed in the inner compartment and adapted to produce electric power by converting part of the rotational kinetic energy of the axle, wherein: - the electric generator comprises a stator having a stator winding wound on a metal sheet and wherein the covering device comprises a case (61,62) and the stator is attached to the case (61,62); - the electric generator comprises a rotor (300a, 300b) attached to an end portion of the axle adapted to rotate integrally with the axle along the rotation axis of the axle; characterized in that: - the rotor comprises a first portion and a second portion between which the stator is axially interposed; - the case (61,62) comprises a first portion and a second portion axially overlapping each other and coupled to each other, and wherein the first portion of the case (61,62) is interposed between the axle box and the second portion of the case (61, 62) and wherein the stator is attached to the first portion of the case (61,62). - the electric generator comprises a stator having a stator winding wound on a metal sheet and wherein the covering device comprises a case (61,62) and the stator is attached to the case (61,62); - the electric generator comprises a rotor (300a, 300b) attached to an end portion of the axle adapted to rotate integrally with the axle along the rotation axis of the axle; - the rotor comprises a first portion and a second portion between which the stator is axially interposed; - the case (61,62) comprises a first portion and a second portion axially overlapping each other and coupled to each other, and wherein the first portion of the case (61,62) is interposed between the axle box and the second portion of the case (61, 62) and wherein the stator is attached to the first portion of the case (61,62).
A composite, obtainable by photostructuring a photostructurable matrix material in a composite batch containing said photostructurable matrix material and nanoparticles in a volume fraction of at least 1% to form a structured matrix having nanoparticles contained therein, wherein the refractive index of said composite having nanoparticles differs by less than 0.5 from the refractive index of said composite having no nanoparticles at a wavelength selected from the range of 150 nm to 2000 nm, wherein the composite is hierarchically structured and comprises at least one structural unit of a thickness (i) selected from the range of 10 μm to 100 mm and structural units branching off from the structural unit of a thickness (ii) respectively selected from the range of 100 nm to 1000 μm, wherein the thickness (ii) at the branch-off points is at most half the thickness (i).
An absorbent core comprising absorbent material enclosed in a core wrap, wherein the core wrap comprises a liquid permeable substrate layer, wherein the absorbent material comprises from 87% to 100% of superabsorbent polymer by weight of the absorbent material; and wherein the core further comprises a tube-shaped swelling chamber, the swelling chamber having a length to width aspect ratio of less than or equal to about 5:1; wherein the area of the core is at least twice the area of the swelling chamber, and the core contains a water responsive immobilizing agent to immobilize the superabsorbent polymer prior to water insult; wherein the water responsive immobilizing agent is selected from a water soluble adhesive, a frangible pocket sealed with water responsive bonds, and combinations thereof; and wherein the tube-shaped swelling chamber is a portion of the absorbent core containing superabsorbent polymer that is delimited by a plurality of continuous permanent seals that each join together overlapping parts of the core wrap and prevent superabsorbent polymer from moving across the seals.
Shelf, comprising at least one vertically adjustable longitudinal section, holding means, attachable on the longitudinal section in any desired position, provided with clamping means, which holding means are each provided with a receiving element, supporting elements, which are provided with suspension means, which are able to be hung in the receiving elements of the holding means and are held in a suspended way, and supporting structures, which are attachable to the supporting elements, and which are designed to carry shelf boards, cupboard elements or other shelving elements, the longitudinal section having a base surface, a surface opposite the base surface and a first wedge surface machined in each case in the lateral surfaces, the holding means being composed of two clamping jaws opposite one another, which are each provided with a second wedge surface corresponding to the first wedge surface, which clamping jaws are able to be tensioned with respect to one another via tensioning means in such a way that the second wedge surfaces end up under the first wedge surfaces and the clamping jaws are pressable against the surface of the longitudinal section, characterized in that the receiving means are designed as longitudinal slot, which is made in each case in the clamping jaws and runs parallel to the surface of the longitudinal section and above the surface and in that the supporting elements are provided with a projection, which is able to be hung in the longitudinal slot.
Covering device which is fixable in relation to an opening of a motor vehicle, wherein the covering device comprises at least one element (102, 103) which is able to be fastened on the circumference of the opening, wherein a covering unit (15, 15', 17) can be displaced in an expansion direction between a storage position and a covering position, wherein the covering unit (15, 15', 17) in the storage position is configured so as to be released from the opening, and in the covering position is configured so as to extend in relation to the opening, wherein the covering unit (15, 15', 17) comprises a network of optical fibres (150, 150', 150'') having lateral light scattering, wherein the network of optical fibres is supplied with light by at least one light source (16, 16'), wherein the light source (16, 16') is fastened to the element (102, 103) and, in order to supply the network of optical fibres (150, 150' 150'') with light, can illuminate ends of the optical fibres of the network in at least one illuminating position which is the covering position of the covering unit (15, 15', 17), characterized in that the ends of the optical fibres are grouped together at the height level of at least one head, and said head of the light source lies opposite the light source in the illuminating position, and wherein the head is oriented in the expansion direction, and the element in terms of the expansion direction is a forward cross member of the covering device.
A polytetrafluoroethylene tube having a tensile elongation at break of 350% or more being measured at a pulling rate of 50 mm/min at a temperature of 23°C±2°C, a melting energy of 0.6 J/g or more which is calculated from an endothermic peak at 370°C±5°C in a procedure of increasing a temperature in differential scanning calorimetry, and a thickness of 0.1 mm or less or a thickness of 5% or less of an outer diameter.
A method for configuring an enhanced dedicated channel transmission bearer mode, characterized by comprising: in a situation that a first Radio Network Controller, RNC, establishes an enhanced dedicated channel cell over a non-main carrier frequency layer in a predetermined network element, the first RNC configuring the enhanced dedicated channel transmission bearer mode of the predetermined network element, wherein the predetermined network element comprises at least one of the following: a node B connected to the first RNC and a second RNC connected to the first RNC; wherein in the situation that the first RNC only establishes or adds an enhanced dedicated channel cell over a main carrier frequency layer in the predetermined network element and the first RNC has never established an enhanced dedicated channel cell over the non-main carrier frequency layer in the predetermined network element, the first RNC does not configure the enhanced dedicated channel transmission bearer mode of the predetermined network element. in a situation that a first Radio Network Controller, RNC, establishes an enhanced dedicated channel cell over a non-main carrier frequency layer in a predetermined network element, the first RNC configuring the enhanced dedicated channel transmission bearer mode of the predetermined network element, wherein the predetermined network element comprises at least one of the following: a node B connected to the first RNC and a second RNC connected to the first RNC; wherein in the situation that the first RNC only establishes or adds an enhanced dedicated channel cell over a main carrier frequency layer in the predetermined network element and the first RNC has never established an enhanced dedicated channel cell over the non-main carrier frequency layer in the predetermined network element, the first RNC does not configure the enhanced dedicated channel transmission bearer mode of the predetermined network element.
A method to collect cardiovascular data relating to an individual user, in a system comprising an acoustic sensor configured to be coupled to the chest of the user, an arm band having an inflatable bladder configured to be placed at a predefined position around a limb of the user, for example at the left arm, a pneumatic unit with at least a pump configured to inflate and deflate the inflatable bladder, and a pressure sensor, an arterial blood path being defined from the heart to the predefined position, the method comprising a set of steps named PTT procedure: /A1/- acquiring acoustic signals at the acoustic sensor, /A2/- acquiring of blood pressure signals at the pressure sensor, image of instantaneous blood pressure prevailing at the predefined position, /S1/- determining aortic valve closing instant T1(k) from acoustic signals, the aortic valve closing instant T1(k) being defined as a second significant sound of the heartbeat, /S2/- determining subsequently, from blood circulation signals, a characteristic point occurring at instant T2(k), the characteristic point of the pressure signal curve being defined as a succession of a maximum apex and a minimum apex, said instant T2(k) being defined as the instant when said minimum apex occurs, /S3/- calculate a time difference, defined as ΔT(k) = T2(k) - T1(k) /Sloop/- repeating, for each heartbeat, steps /S1/ to /S3/ until a stop criterion is met. /A1/- acquiring acoustic signals at the acoustic sensor, /A2/- acquiring of blood pressure signals at the pressure sensor, image of instantaneous blood pressure prevailing at the predefined position, /S1/- determining aortic valve closing instant T1(k) from acoustic signals, the aortic valve closing instant T1(k) being defined as a second significant sound of the heartbeat, /S2/- determining subsequently, from blood circulation signals, a characteristic point occurring at instant T2(k), the characteristic point of the pressure signal curve being defined as a succession of a maximum apex and a minimum apex, said instant T2(k) being defined as the instant when said minimum apex occurs, /S3/- calculate a time difference, defined as ΔT(k) = T2(k) - T1(k) /Sloop/- repeating, for each heartbeat, steps /S1/ to /S3/ until a stop criterion is met.