mhurhangee/ep-ind-claims huggingface dataset:
A transdermal device for sensing one or more analytes in a biological fluid, the device comprising: a liquid or gel layer having a thickness (x); a sensor located in the liquid or gel layer for sensing analyte in the liquid or gel layer and characterised in that the transdermal device further comprises an outer layer adapted to bind with or trap the one or more analytes of interest, wherein the device is arranged so that in use the analyte is continuously drawn from the skin through the liquid or gel and then drawn out of the liquid or gel and into the outer layer and the analyte concentration as a function of position across the thickness (x) of the gel/liquid has a defined profile. a liquid or gel layer having a thickness (x); a sensor located in the liquid or gel layer for sensing analyte in the liquid or gel layer and characterised in that the transdermal device further comprises an outer layer adapted to bind with or trap the one or more analytes of interest, wherein the device is arranged so that in use the analyte is continuously drawn from the skin through the liquid or gel and then drawn out of the liquid or gel and into the outer layer and the analyte concentration as a function of position across the thickness (x) of the gel/liquid has a defined profile.
Hinge for a door which covers at least in part a compartment, of the type comprising a fixed support coupled to the compartment frame, and a mobile support coupled to the door, said mobile and fixed supports being at least rotatably constrained one to the other at a first pin, as well as means to impose a predefined law of motion to the mobile support with respect to the fixed support during opening and/or closing of said door, wherein said means to impose a predefined law of motion comprise elastic means operatively interposed between said fixed support and said mobile support to counter and/or aid the opening and/or closing of said door, and wherein said hinge further comprises at least one motion guide bar articulated indirectly to said mobile support and coupled slidingly to said fixed support and provided with a second pin, to which a first end of a connecting rod is hinged, the second end of the connecting rod being hinged to a third pin integral with the mobile support in a position distinct from the first pin, wherein said second pin, during its travel, is guided within a slot obtained on the outer frame of the fixed support, which allows the bar to move only axially and defines limit points for the bar itself, corresponding to the required engagement of the second pin with the ends and of the slot, characterized in that said hinge comprises controlled motor means for aiding opening and/or closing of the door, said controlled motor means applying a push and/or a pull force onto said mobile support with respect to said fixed support, by applying an axial push and/or pull force onto said motion guide bar.
Pallet top for the attachment to a transport pallet, particularly a standard pallet, such as a europallet or a single-use pallet, comprising a pallet connection base preferably with at least two base carriers for laying on a transport pallet upper side, at least two support walls extending essentially vertically from the pallet connection base, such as handrail frames, and a support wall strutting arranged above the transport pallet upper side, by which the support walls are coupled to each other with forming a circumferentiating force fit, wherein each pair of strutting connections being arranged up at the support walls, on which the support wall strutting is attached releasably, characterized in that longitudinal struts of the support wall strutting are formed complementary to the strut connections in such a way that one strut can be attached in two, preferably in three, different horizontal distances to the other strut.
Method for forming at least a metal mesh consisting of longitudinal wires and transverse wires, by means of at least a welding unit provided with a plurality of welders, each of said welders comprising two electrodes (15, 16), of which at least one is selectively movable between a first distanced position, to feed the wires to be welded, and a second welding position in which both the electrodes (15, 16) contact and weld said wires (12, 13) to each other, wherein it provides: - to supply electric feed of the three-phase type to the electrodes (15, 16), in which the lower electrodes or the upper electrodes are each connected to a specific phase (R, S, T) of the three-phase system; characterized in that the method further provides - to selectively move only some of the upper or lower electrodes, according to the welding pitch to be obtained, so that the electric circuit between the lower electrode, the wires to be welded (12, 13) and upper electrode of a triad of longitudinally adjacent electrodes (15, 16) is closed in such a manner that all three phases (R, S, T) of the three-phase system are always present. - to supply electric feed of the three-phase type to the electrodes (15, 16), in which the lower electrodes or the upper electrodes are each connected to a specific phase (R, S, T) of the three-phase system; - to selectively move only some of the upper or lower electrodes, according to the welding pitch to be obtained, so that the electric circuit between the lower electrode, the wires to be welded (12, 13) and upper electrode of a triad of longitudinally adjacent electrodes (15, 16) is closed in such a manner that all three phases (R, S, T) of the three-phase system are always present.
A method for operating a textile machine, particularly in the form of a comber preparation machine or spinning machine, the textile machine receiving fiber material from containers for processing, at least one parameter of the fiber material present in the corresponding container being determined by means of a container identifier on the containers, and the containers being located at at least one inlet location of the textile machine for feeding in the fiber material, and a place identifier is associated with at least one inlet location, and that the textile machine does not begin processing the fiber material from the corresponding container at the inlet location until comparing the parameters of the fiber material present in the corresponding container to the location identifier indicates that the fiber material intended for the inlet location is present in the container characterized in that the location identifier and/or the container identifier is captured by means of a mobile reading device, and/or that the container identifier is detected by means of a location reading device disposed on the textile machine and particularly associated with the inlet location, and/or that the container identifier is captured by means of a machine reading device, wherein the container identifier of the container in which the processed fiber material is or has been laid down is preferably captured by means of the machine reading device, and comparing the parameter to the location identifier is performed by a higher-level control system, by the mobile reading device, and/or by the location reading device. the textile machine receiving fiber material from containers for processing, at least one parameter of the fiber material present in the corresponding container being determined by means of a container identifier on the containers, and the containers being located at at least one inlet location of the textile machine for feeding in the fiber material, and a place identifier is associated with at least one inlet location, and that the textile machine does not begin processing the fiber material from the corresponding container at the inlet location until comparing the parameters of the fiber material present in the corresponding container to the location identifier indicates that the fiber material intended for the inlet location is present in the container characterized in that the location identifier and/or the container identifier is captured by means of a mobile reading device, and/or that the container identifier is detected by means of a location reading device disposed on the textile machine and particularly associated with the inlet location, and/or that the container identifier is captured by means of a machine reading device, wherein the container identifier of the container in which the processed fiber material is or has been laid down is preferably captured by means of the machine reading device, and comparing the parameter to the location identifier is performed by a higher-level control system, by the mobile reading device, and/or by the location reading device.
A method for fabricating an object, comprising: (a) irradiating a layer of powder in a powder bed with an energy beam in a series of scan lines to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed to a second side of the powder bed; and (c) repeating steps (a) and (b) until the object and at least one thermal dissipation support structure is formed in the powder bed, wherein the at least one thermal dissipation support structure absorbs heat away from the object and includes a sacrificial structure separated from the object by a portion of unfused powder, and wherein a rate of thermal dissipation from areas of each cross-section of the object are increased by a presence of the sacrificial structure to maintain a thermal dissipation rate of each cross-section such that thermal gradients in the object remain below a specified threshold that prevents deformation of the object; wherein the object has an hour-glass shape including a base portion, a narrow middle portion, and a wider top portion, wherein the surface of the thermal dissipation support that faces the object generally conforms to the shape of the object; wherein the facing surfaces of the object and the thermal dissipation support have similar curvature to keep a consistent separation between the object and the thermal dissipation support. (a) irradiating a layer of powder in a powder bed with an energy beam in a series of scan lines to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed to a second side of the powder bed; and (c) repeating steps (a) and (b) until the object and at least one thermal dissipation support structure is formed in the powder bed,
An electrically heated aerosol-generating system for receiving an aerosol-forming article, the system comprising: a tubular portion for receiving an aerosol-forming article; a heater element comprising an end face and positioned proximate an end of the tubular portion so that the end face is proximate an end of an aerosol-forming article when the aerosol-forming article is inserted into the tubular portion; and an annular thermally conductive element provided on an inner surface of the tubular portion, the annular thermally conductive element comprising a first portion connected to the heater element and a second portion arranged to contact an aerosol-forming article when the aerosol-forming article is inserted into the tubular portion; wherein the system is configured to supply a first amount of electrical energy to the heater element to heat the heater element to a first temperature, wherein the system is configured to supply a second amount of electrical energy to the heater element to maintain the heater element at a second temperature, wherein the second temperature is lower than the first temperature and wherein the difference between the first and second temperatures is at least 100 degrees Celsius. a tubular portion for receiving an aerosol-forming article; a heater element comprising an end face and positioned proximate an end of the tubular portion so that the end face is proximate an end of an aerosol-forming article when the aerosol-forming article is inserted into the tubular portion; and an annular thermally conductive element provided on an inner surface of the tubular portion, the annular thermally conductive element comprising a first portion connected to the heater element and a second portion arranged to contact an aerosol-forming article when the aerosol-forming article is inserted into the tubular portion; wherein the system is configured to supply a first amount of electrical energy to the heater element to heat the heater element to a first temperature, wherein the system is configured to supply a second amount of electrical energy to the heater element to maintain the heater element at a second temperature, wherein the second temperature is lower than the first temperature and wherein the difference between the first and second temperatures is at least 100 degrees Celsius.
An on board inert gas generation system for use in an aircraft having an on board source of low pressure air, said gas generation system including a positive displacement compressor (20,40) having an inlet for receiving a portion of said low pressure air, and an outlet in flow communication with an air separation module (24,48), the positive displacement compressor further including an integrated cooling means provided internally of the compressor for cooling the compressed air delivered by said compressor.
Roller carrier for sliding doors, comprising a carrier body which is roughly U-shaped in cross section, the one first side leg whereof acts as a mounting plate for securing to a sliding door and on the other second side leg whereof at least one roller is mounted, and a safety slide (10; 10') which is transversely displaceable on the central web of the carrier body parallel to the axis of the roller between a safety and a release position and which projects further beyond the second side leg with a safety arm in the safety position than in the release position, characterized in that the safety slide (10; 10') is mounted in a freely displaceable manner against the restoring force of a spring (19, 19') from the safety position at least into the release position and that the end section of the safety slide (10; 10') located opposite the projecting safety arm is configured as a deflectable operating handle which projects in the safety position at least partially beyond the first side leg of the carrier body and that the safety slide (10; 10') can be moved for disengagement of the roller carrier beyond the release position into a locked position in which the operating handle can be locked with the carrier body.
Ejector device, having a main body which comprises the following: - a suction chamber for sucking up a suction medium; - a mixing channel for mixing a propellant with the suction medium; - a propelling nozzle device for generating a propellant jet directed out of the suction chamber in a jet direction and into the mixing channel, the main body comprising a suction chamber element surrounding the suction chamber and a mixing channel element surrounding the mixing channel, the suction chamber element and the mixing channel element being formed by plastics injection-molded components which are different from one another and are connected to one another after individual production thereof, characterized in that the suction chamber element and the mixing channel element are welded together in a flange region. - a suction chamber for sucking up a suction medium; - a mixing channel for mixing a propellant with the suction medium; - a propelling nozzle device for generating a propellant jet directed out of the suction chamber in a jet direction and into the mixing channel, the main body comprising a suction chamber element surrounding the suction chamber and a mixing channel element surrounding the mixing channel, the suction chamber element and the mixing channel element being formed by plastics injection-molded components which are different from one another and are connected to one another after individual production thereof, characterized in that the suction chamber element and the mixing channel element are welded together in a flange region.
A system for the automatic manufacture of artificial hedge composed of, at least, one braiding machine, for the braids that will form the hedge, and a weaving machine, wherein said system comprises: - Transfer means of the braids obtained from the at least one braiding machine to the weaving machine, said transfer means being arranged between both machines, and wherein said transfer means consists of a conveyor belt with drawers placed beneath the braiding machine, wherein each braid is collected by a drawer and transferred to the entry point of the weaving machine; and - Means for introducing each of the braids successively into the weaving machine by an air propulsion system; wherein the weaving machine comprises: - a fuller, - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids, wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid, - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids, - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections. - Transfer means of the braids obtained from the at least one braiding machine to the weaving machine, said transfer means being arranged between both machines, and wherein said transfer means consists of a conveyor belt with drawers placed beneath the braiding machine, wherein each braid is collected by a drawer and transferred to the entry point of the weaving machine; and - Means for introducing each of the braids successively into the weaving machine by an air propulsion system; wherein the weaving machine comprises: - a fuller, - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids, wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid, - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids, - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections. - a fuller, - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids, wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid, - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids, - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections.
A method for producing a recombinant APMV-8 (Avian paramyxovirus 8) viral vector, wherein the method comprises the introduction into the APMV-8 genome of an isolated polynucleotide in a nonessential region of the APMV-8 genome, wherein the nonessential region is selected from the regions consisting of the untranslated region located upstream of the NP open reading frame, intergenic regions between two open reading frames of the APMV-8 genome, and the untranslated region located downstream of the L open reading frame, wherein the APMV-8 comprises a polynucleotide having at least 90% sequence identity to a polynucleotide having the sequence as set forth in SEQ ID NO:1 or a polynucleotide complementary to a polynucleotide having at least 90% sequence identity to a polynucleotide having the sequence as set forth in SEQ ID NO:1, wherein the isolated polynucleotide is heterologous and codes for and expresses an antigen derived from a pathogen, and wherein the recombinant APMV-8 viral vector is capable of eliciting an immune response which is specific to the antigen.
An electrical connector designed to be fastened on a daughterboard and to be plugged into a motherboard in a plugging direction, the connector comprising: - a plurality of contacts, each contact including a first end in the plugging direction designed to be in contact with the motherboard, and a second end opposite the first end in the plugging direction and designed to be in contact with the daughterboard, - at least one insulator (33, 35) passed through by contacts from the plurality of contacts, and - at least one single-piece fastening device (37, 39, 41), the fastening device (37, 39, 41) including a fastening base on which the insulator is mounted (33, 35), and one or the other, or both, of a fastening tip designed to be fastened on the daughterboard, and a guide tip protruding from the insulator (33, 35) in the plugging direction to be used as a guide during plugging of the connector into the motherboard, the connector being characterized in that: - the fastening device (37, 39, 41) is a single piece, and - the connector comprises at least two insulators (33, 35), each being made in a single piece and mounted on the fastening base, each insulator (33, 35) being passed through by contacts from the plurality of contacts, the fastening device (37, 39, 41) being sandwiched between the two insulators (33, 35). - a plurality of contacts, each contact including a first end in the plugging direction designed to be in contact with the motherboard, and a second end opposite the first end in the plugging direction and designed to be in contact with the daughterboard, - at least one insulator (33, 35) passed through by contacts from the plurality of contacts, and - at least one single-piece fastening device (37, 39, 41), - the fastening device (37, 39, 41) is a single piece, and - the connector comprises at least two insulators (33, 35), each being made in a single piece and mounted on the fastening base, each insulator (33, 35) being passed through by contacts from the plurality of contacts, the fastening device (37, 39, 41) being sandwiched between the two insulators (33, 35).