mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting carbapenemase genes in a biological sample, which comprises the steps: - carrying out a multiplex amplification reaction in the presence of a nucleic acid template from the biological sample, and primers, said primers being 15 to 50 nucleotides long and having or comprising a nucleotide sequence selected from the group comprising SEQ ID NOS: 15 and 16, SEQ ID NOS: 1 or 49 and 2, SEQ ID NOS: 9 and 10, SEQ ID NOS: 13 and 14, SEQ ID NOS: 19 and 20, and SEQ ID NOS: 21 and 22; - analyzing the dissociation curves of the products, and - determining in one reaction the presence of more than one of KPC, OXA-48, VIM, GES, and/or IMP genes or their subvariants responsible of carbapenem resistance indicating that the biological sample comprises carbapenemase genes causing carbapenem resistance in bacteria. - carrying out a multiplex amplification reaction in the presence of a nucleic acid template from the biological sample, and primers, said primers being 15 to 50 nucleotides long and having or comprising a nucleotide sequence selected from the group comprising SEQ ID NOS: 15 and 16, SEQ ID NOS: 1 or 49 and 2, SEQ ID NOS: 9 and 10, SEQ ID NOS: 13 and 14, SEQ ID NOS: 19 and 20, and SEQ ID NOS: 21 and 22; - analyzing the dissociation curves of the products, and - determining in one reaction the presence of more than one of KPC, OXA-48, VIM, GES, and/or IMP genes or their subvariants responsible of carbapenem resistance indicating that the biological sample comprises carbapenemase genes causing carbapenem resistance in bacteria.
Parapet for a building, having at least one parapet plate with a parapet rear side and a parapet front side and at least one fastening device for fastening the parapet plate to a component of the building, in particular in the form of a story ceiling, landing, staircase, balcony or terrace, wherein the fastening device has at least one fastening plate which is designed to be firmly connected to component with an end face of the component via at least one connecting element, wherein the fastening plate is arranged on the parapet rear side of the parapet plate, characterised in that the fastening plate is firmly connected to the parapet plate via at least one first screw connection, each first screw connection - passing through the fastening plate - being screwed in on the parapet rear side of the parapet plate, wherein the thread of each first screw connection is arranged entirely within the parapet plate, and in that the connecting element is formed by at least one second screw connection penetrating the fastening plate, wherein the second screw connection can be screwed from the parapet front side of the parapet plate.
Temperature sensor device for sensing the temperature of a surface of an object, comprising: a temperature sensor element, in particular, being or comprising a thermistor; a measuring cavity; a housing; and a measuring surface configured for contacting the surface of the object; wherein the housing comprises an outer shell, an inner shell, and a measuring cavity shell, wherein an outer cavity is formed between the outer shell and the inner shell that are configured for thermally insulating the measuring cavity and the measuring surface from an environment of the object, wherein an inner cavity is formed between the inner shell and the measuring cavity shell, and wherein the measuring cavity is formed between the measuring cavity shell and the measuring surface; wherein the temperature sensor element is located in the measuring cavity; and wherein the housing is made of one integrally formed single piece. a temperature sensor element, in particular, being or comprising a thermistor; a measuring cavity; a housing; and a measuring surface configured for contacting the surface of the object; wherein the housing comprises an outer shell, an inner shell, and a measuring cavity shell, wherein an outer cavity is formed between the outer shell and the inner shell that are configured for thermally insulating the measuring cavity and the measuring surface from an environment of the object, wherein an inner cavity is formed between the inner shell and the measuring cavity shell, and wherein the measuring cavity is formed between the measuring cavity shell and the measuring surface; wherein the temperature sensor element is located in the measuring cavity; and wherein the housing is made of one integrally formed single piece.
A padlock for securing and monitoring a switch of an industrial plant, having a lock housing of plastic, furthermore having a hoop which is displaceably held at the lock housing, and having a lock cylinder which is arranged in the lock housing and can selectively be brought from an open position into a locked position to lock the hoop to the lock housing, wherein the lock cylinder has a longitudinal shape having a longitudinal axis, characterized in that an RFID transponder is arranged in the lock housing and is arched with respect to the longitudinal axis of the lock cylinder.
An apparatus for controlling fluid flow, the apparatus comprising a device and a housing for an optical instrument, the housing having a perimeter and a window, the device comprising: an arcuate surface having a curvature, at least a portion of the arcuate surface being shaped to complement the perimeter of the housing, wherein the device is configured to couple with the housing in use such that the arcuate surface can extend into an upstream portion of a freestream flow field to split the freestream flow field into first and second flow domains, wherein the first flow domain comprises an aero-optical flow region that extends at least partially over the window. an arcuate surface having a curvature, at least a portion of the arcuate surface being shaped to complement the perimeter of the housing, wherein the device is configured to couple with the housing in use such that the arcuate surface can extend into an upstream portion of a freestream flow field to split the freestream flow field into first and second flow domains, wherein the first flow domain comprises an aero-optical flow region that extends at least partially over the window.
A pulp processing arrangement including a first endless wire and an opposed endless second wire, which wires are conveyed in a same conveying direction to define a web forming space between them, in which space pulp in the form of a web is to be dewatered, wherein both wires are supported by a first and a second perforated dewatering table (4, 5), respectively, for pressing the wires towards the web, both tables having a front end (7, 8) and back end (9, 10) with respect to the conveying direction of the wires (2, 3) and wherein the first dewatering table of the two ends upstream of the second table and that the arrangement includes a press roll downstream of the back end of the first table, which press roll is opposed the back end of the second table so as to form a nip between the press roll and the back end of the second table, characterised in that the back end of the second table has a profiled surface that interacts with the press roll so as to prolong the nip between the press roll and the back end of the second table.
A magnetic resonance guided thermal treatment system, comprising: - a thermal treatment system configured for applying thermal treatment pulses to a target in a subject, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a magnetic resonance system, configured for performing a temperature measurement on the subject by acquiring temperature dependent magnetic resonance signals, - a controller configured for switching the thermal treatment system on or off, based on the temperature dependent magnetic resonance signals, characterized in that - the magnetic resonance guided thermal treatment system is configured for determining the end of the cool-down period, based on a temperature measurement in fat outside the target performed by acquisition of temperature dependent magnetic resonance signals during the cool-down period, wherein a temperature or temperature change in fat outside the target is determined based on relaxation time constant based thermometry. - a thermal treatment system configured for applying thermal treatment pulses to a target in a subject, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a magnetic resonance system, configured for performing a temperature measurement on the subject by acquiring temperature dependent magnetic resonance signals, - a controller configured for switching the thermal treatment system on or off, based on the temperature dependent magnetic resonance signals, - the magnetic resonance guided thermal treatment system is configured for determining the end of the cool-down period, based on a temperature measurement in fat outside the target performed by acquisition of temperature dependent magnetic resonance signals during the cool-down period, wherein a temperature or temperature change in fat outside the target is determined based on relaxation time constant based thermometry.
Construction for limiting an x-ray beam of a dental extra oral imaging apparatus, said construction comprising a plate mechanism and a drive mechanism including an actuator arranged to move at least one plate element (2, 3) comprised in the mechanism, wherein the plate mechanism comprises a first plate element including at least a first slot for limiting the x-ray beam and a second plate element including at least a second slot for limiting the x-ray beam, characterized in that said drive mechanism is arranged to directly or indirectly move said first plate element independently of location of said second plate element and said second plate element is arranged to be moved solely by and dependent on the movements of said first plate element, and that at least portions of said first and second plate elements (2, 3) are arranged to be movable on different planes so as to enable positioning of said first and second slots (12, 13) of the first and second plate elements (2, 3) in an overlapping position with respect to each other so as to form an aperture for limiting the x-ray beam, the form of said aperture then being limited by both the first slot and the second slot.
A process of producing a relief image printing plate, the process comprising the steps of: a) providing a photosensitive printing element comprising: i) a support layer; ii) a layer of a photosensitive composition comprising: (a) one or more binders; (b) one or more monomers; (c) at least one photoinitiator; and (d) optionally, one or more ingredients selected from the group consisting of dyes, plasticizers, fillers, polymerization inhibitors and additives; and iii) optionally a release layer selected from the group consisting of matte coatings and slip film layers; and b) quenching dissolved oxygen in the photosensitive layer by pre-exposing the photosensitive layer to one or more sources of actinic radiation,; and c) imagewise exposing the photosensitive layer to actinic radiation to crosslink and cure the photosensitive layer, characterised in that wherein the range of wavelengths spanned by the one or more sources of actinic radiation in step b) is no more than about 20 nm, and wherein the at least one photoinitiator is present in the photosensitive composition in an amount sufficient to provide an optical density in the photosensitive composition of between 0.05 and 0.43 at a wavelength of the one or more sources of actinic radiation used to pre-expose the photosensitive composition. a) providing a photosensitive printing element comprising: i) a support layer; ii) a layer of a photosensitive composition comprising: (a) one or more binders; (b) one or more monomers; (c) at least one photoinitiator; and (d) optionally, one or more ingredients selected from the group consisting of dyes, plasticizers, fillers, polymerization inhibitors and additives; and iii) optionally a release layer selected from the group consisting of matte coatings and slip film layers; and i) a support layer; ii) a layer of a photosensitive composition comprising: (a) one or more binders; (b) one or more monomers; (c) at least one photoinitiator; and (d) optionally, one or more ingredients selected from the group consisting of dyes, plasticizers, fillers, polymerization inhibitors and additives; and (a) one or more binders; (b) one or more monomers; (c) at least one photoinitiator; and (d) optionally, one or more ingredients selected from the group consisting of dyes, plasticizers, fillers, polymerization inhibitors and additives; and iii) optionally a release layer selected from the group consisting of matte coatings and slip film layers; and b) quenching dissolved oxygen in the photosensitive layer by pre-exposing the photosensitive layer to one or more sources of actinic radiation,; and c) imagewise exposing the photosensitive layer to actinic radiation to crosslink and cure the photosensitive layer,
A controller apparatus, comprising: a wireless system comprising logic configured to communicate with a radio frequency identification, RFID, tag via at least one wireless access point; wherein the wireless system is configured to assign an identifier for the RFID tag during an initial communication session, the initial communication session being secured with a pre established key; wherein the wireless system logic is configured to generate an announce mode key for the RFID tag, the announce mode key being derived from the identifier and a master key; wherein the wireless system logic is configured to send the announce mode key and the identifier to the RFID tag; wherein the wireless system logic is configured to discard the announce mode key responsive to sending the announce mode key to the RFID tag; wherein the wireless system logic is responsive to a message received from the RFID tag to acquire an identifier from the message; and wherein the wireless system logic is further configured to regenerate the announce mode key employing the master key and the identifier acquired from the message. a wireless system comprising logic configured to communicate with a radio frequency identification, RFID, tag via at least one wireless access point; wherein the wireless system is configured to assign an identifier for the RFID tag during an initial communication session, the initial communication session being secured with a pre established key; wherein the wireless system logic is configured to generate an announce mode key for the RFID tag, the announce mode key being derived from the identifier and a master key; wherein the wireless system logic is configured to send the announce mode key and the identifier to the RFID tag; wherein the wireless system logic is configured to discard the announce mode key responsive to sending the announce mode key to the RFID tag; wherein the wireless system logic is responsive to a message received from the RFID tag to acquire an identifier from the message; and wherein the wireless system logic is further configured to regenerate the announce mode key employing the master key and the identifier acquired from the message.
A semiconductor power module, comprising: - a leadframe or substrate, and - a resin body coupled to the leadframe or substrate including at least a first resin element and a second resin element, wherein the first and second resin elements (1, 2) are arranged laterally adjacent to each other with respect to a lateral direction (B, C) of the semiconductor power module, wherein a resin material of the first resin element is different from a resin material of the second resin element and wherein the first resin element and the second resin element are separated in part at least with respect to surface areas facing each other by means of a recess (5, 6) in form of a groove providing at least a partial space between the first and second resin elements (1, 2), and characterised in that the recess (5, 6) in form of a groove is mechanically formed by means of at least one of cutting, sawing or milling, or thermally formed by means of laser cutting, or chemically formed by means of etching. - a leadframe or substrate, and - a resin body coupled to the leadframe or substrate including at least a first resin element and a second resin element, wherein the first and second resin elements (1, 2) are arranged laterally adjacent to each other with respect to a lateral direction (B, C) of the semiconductor power module, wherein a resin material of the first resin element is different from a resin material of the second resin element and wherein the first resin element and the second resin element are separated in part at least with respect to surface areas facing each other by means of a recess (5, 6) in form of a groove providing at least a partial space between the first and second resin elements (1, 2), and characterised in that the recess (5, 6) in form of a groove is mechanically formed by means of at least one of cutting, sawing or milling, or thermally formed by means of laser cutting, or chemically formed by means of etching.
A manufacturing method of a reflective element for solar fields in a press system comprising first approximation means and second approximation means, the method comprising the following steps: - heating the first approximation means to a temperature T1, - arranging a first reflective sheet on said first approximation means, the reflective sheet acquiring said temperature T1, - arranging separating means in the periphery of the reflective sheet, - arranging a reinforcement sheet in contact with said separating means, - heating the second approximation means to a temperature T2 different from T1, - moving the first and second approximation means closer to one another, such that the second approximation means contact the reinforcement sheet and it acquires temperature T2, and - providing a foamable material such that it completely fills the gap between the first reflective sheet and the reinforcement sheet subjecting them to pressure, the foamable material acquiring its final consistency and forming a substantially rigid layer of foam adhered to both sheets, and - extracting the reflective element and leaving it to cool at room temperature once the process of curing the layer of foam is completed. - heating the first approximation means to a temperature T1, - arranging a first reflective sheet on said first approximation means, the reflective sheet acquiring said temperature T1, - arranging separating means in the periphery of the reflective sheet, - arranging a reinforcement sheet in contact with said separating means, - heating the second approximation means to a temperature T2 different from T1, - moving the first and second approximation means closer to one another, such that the second approximation means contact the reinforcement sheet and it acquires temperature T2, and - providing a foamable material such that it completely fills the gap between the first reflective sheet and the reinforcement sheet subjecting them to pressure, the foamable material acquiring its final consistency and forming a substantially rigid layer of foam adhered to both sheets, and - extracting the reflective element and leaving it to cool at room temperature once the process of curing the layer of foam is completed.
A dough processing plant, comprising: a dough sheet forming device configured to form a dough sheet from an unshaped mass of dough extending along the direction of a production path; a cutting device configured to form a body of dough by severing from the dough sheet; a dough processing device including a wrapping device and a sheet round moulder, wherein the wrapping device is arranged along the production path between the cutting device and the sheet round moulder and configured for wrapping the body of dough around an axis preferably oriented transversely to the production path and wherein the course of the production path through the wrapping device is oriented transversely to the course of the production path through the cutting device. a dough sheet forming device configured to form a dough sheet from an unshaped mass of dough extending along the direction of a production path; a cutting device configured to form a body of dough by severing from the dough sheet; a dough processing device including a wrapping device and a sheet round moulder, wherein the wrapping device is arranged along the production path between the cutting device and the sheet round moulder and configured for wrapping the body of dough around an axis preferably oriented transversely to the production path and wherein the course of the production path through the wrapping device is oriented transversely to the course of the production path through the cutting device.
An installation for the maintenance of a railway vehicle, intended to be arranged in a maintenance workshop, comprising: - a guide rail extending in a longitudinal direction (X-X), intended to be fixed in the maintenance workshop; and - a mobile scaffold comprising: - a set of wheels designed to rest on a floor in the maintenance workshop, - a platform comprising a floor and being raised, carried by the wheel assembly, and - a guide component, in addition to the guide rail and movable in translation along the guide rail; characterised in that the maintenance installation comprises a displacement cable, extending substantially in the longitudinal direction (X-X) and intended to be fixed in the maintenance workshop within reach of the platform, the displacement cable being adapted to withstand a force in the longitudinal direction (X-X) in order to displace the mobile scaffold along the guide rail. - a guide rail extending in a longitudinal direction (X-X), intended to be fixed in the maintenance workshop; and - a mobile scaffold comprising: - a set of wheels designed to rest on a floor in the maintenance workshop, - a platform comprising a floor and being raised, carried by the wheel assembly, and - a guide component, in addition to the guide rail and movable in translation along the guide rail; - a set of wheels designed to rest on a floor in the maintenance workshop, - a platform comprising a floor and being raised, carried by the wheel assembly, and - a guide component, in addition to the guide rail and movable in translation along the guide rail;
Method for tamping a track, wherein, with respect to a working direction new ballast is dropped onto the track before the track tamping and parallel to the latter, characterized by the following features: a) track position errors are determined by a measuring device and, for the purpose of optimal track ballasting, quantities of new ballast to be supplied corresponding thereto are calculated and stored as a required ballast value depending on the location of the respective track location, b) the stored required ballast value is retrieved in order to drop the corresponding quantity of ballast as soon as a ballasting apparatus, following the measuring device with respect to the working direction, has reached the associated track location. a) track position errors are determined by a measuring device and, for the purpose of optimal track ballasting, quantities of new ballast to be supplied corresponding thereto are calculated and stored as a required ballast value depending on the location of the respective track location, b) the stored required ballast value is retrieved in order to drop the corresponding quantity of ballast as soon as a ballasting apparatus, following the measuring device with respect to the working direction, has reached the associated track location.