mhurhangee/ep-ind-claims huggingface dataset:
A set of oligonucleotide sequences for amplifying and detecting one or more human immunodeficiency virus-1 (HIV-1) nucleic acid sequences in a sample, which comprises: (a) a primer and probe set that amplifies and detects at least a portion of the HIV-1 integrase gene comprising a forward primer oligonucleotide sequence comprising SEQ ID NO: 1, a reverse primer oligonucleotide sequence comprising SEQ ID NO: 2, and a double-stranded probe oligonucleotide sequence comprising (i) a first nucleic acid sequence of SEQ ID NO: 3 and a detectable label and (ii) a second nucleic acid sequence of SEQ ID NO: 4 and a quencher moiety, and (b) a primer and probe set that amplifies and detects at least a portion of an HIV-1 long terminal repeat region, which comprises a forward primer oligonucleotide sequence comprising SEQ ID NO: 5, a reverse primer oligonucleotide sequence comprising SEQ ID NO: 6, a first double-stranded probe oligonucleotide sequence, and a second double-stranded probe oligonucleotide sequence, wherein each of the first and second double-stranded probe oligonucleotide sequences comprises a detectable label and a quencher moiety. (a) a primer and probe set that amplifies and detects at least a portion of the HIV-1 integrase gene comprising a forward primer oligonucleotide sequence comprising SEQ ID NO: 1, a reverse primer oligonucleotide sequence comprising SEQ ID NO: 2, and a double-stranded probe oligonucleotide sequence comprising (i) a first nucleic acid sequence of SEQ ID NO: 3 and a detectable label and (ii) a second nucleic acid sequence of SEQ ID NO: 4 and a quencher moiety, and (b) a primer and probe set that amplifies and detects at least a portion of an HIV-1 long terminal repeat region, which comprises a forward primer oligonucleotide sequence comprising SEQ ID NO: 5, a reverse primer oligonucleotide sequence comprising SEQ ID NO: 6, a first double-stranded probe oligonucleotide sequence, and a second double-stranded probe oligonucleotide sequence, wherein each of the first and second double-stranded probe oligonucleotide sequences comprises a detectable label and a quencher moiety.
A broadband flexible radome for a microwave antenna, wherein the microwave antenna comprises a fence arranged around the antenna and a reflecting surface, wherein the radome is configured to be opposite to the reflecting surface and wherein the radome comprises a periphery of which is configured to be fixed to the fence, wherein the radome is compounded by a high molecular polymer outer layer and a composite fiber textile structural layer mixed with a shielding wave absorbing wire, wherein the radome comprises a tensioning element for connecting a traction mechanism of the radome, the tensioning element being arranged on a side of the radome configured to face the reflecting surface of the antenna, wherein the traction mechanism is configured to be connected to an inner wall of the fence, such that the traction mechanism deforms the radome into a concave surface by means of a traction force acting on the radome. wherein the microwave antenna comprises a fence arranged around the antenna and a reflecting surface, wherein the radome is configured to be opposite to the reflecting surface and wherein the radome comprises a periphery of which is configured to be fixed to the fence, wherein the radome is compounded by a high molecular polymer outer layer and a composite fiber textile structural layer mixed with a shielding wave absorbing wire, wherein the radome comprises a tensioning element for connecting a traction mechanism of the radome, the tensioning element being arranged on a side of the radome configured to face the reflecting surface of the antenna, wherein the traction mechanism is configured to be connected to an inner wall of the fence, such that the traction mechanism deforms the radome into a concave surface by means of a traction force acting on the radome.
A method for producing a recess or a projection on a cut edge of a plate-shaped workpiece, in particular a metal sheet, characterized by the following steps: cutting the cut edge by means of a laser beam which emerges from a laser processing head that can be moved above the workpiece in at least one direction (X, Y) in order to cut the cut edge and whose longitudinal axis can be set at an angle to the surface normal of the workpiece, wherein, when cutting the recess or the projection, the laser processing head is positioned and moved at an angle such that the laser beam moves along contours (14a, 14b) of different lengths on the two workpiece sides (13a, 13b) facing the laser and facing away from the laser, so that, as a result, an inclined recess or an inclined projection is produced relative to the actual cut edge, wherein, during the cutting of the inclined recess or of the inclined projection, the laser processing head is positioned and moved at an angle such that the laser beam moves along a recess or projection contour on the one, first workpiece side and, in doing so, always cuts the actual cut edge with its beam axis on the edge provided on the other, second workpiece side, so that the inclined recess or the inclined projection on the second workpiece side ends in the edge of the actual cut edge, and wherein, during the cutting of the inclined recess or the inclined projection, the beam axis of the laser beam that cuts the edge of the actual cut edge remains in a fixed point on this edge. cutting the cut edge by means of a laser beam which emerges from a laser processing head that can be moved above the workpiece in at least one direction (X, Y) in order to cut the cut edge and whose longitudinal axis can be set at an angle to the surface normal of the workpiece, wherein, when cutting the recess or the projection, the laser processing head is positioned and moved at an angle such that the laser beam moves along contours (14a, 14b) of different lengths on the two workpiece sides (13a, 13b) facing the laser and facing away from the laser, so that, as a result, an inclined recess or an inclined projection is produced relative to the actual cut edge, wherein, during the cutting of the inclined recess or of the inclined projection, the laser processing head is positioned and moved at an angle such that the laser beam moves along a recess or projection contour on the one, first workpiece side and, in doing so, always cuts the actual cut edge with its beam axis on the edge provided on the other, second workpiece side, so that the inclined recess or the inclined projection on the second workpiece side ends in the edge of the actual cut edge, and wherein, during the cutting of the inclined recess or the inclined projection, the beam axis of the laser beam that cuts the edge of the actual cut edge remains in a fixed point on this edge.
A method of facing an edge of a workpiece to prepare that edge for welding, the method comprising scanning the edge with at least one scanning tool mounted on a moving head of an edge-facing machine while that moving head is moved along said edge, and cutting or grinding the edge using an edge-facing tool of the edge-facing machine to face said edge.
Apparatus for delivering a coating substance towards a product to be coated, the apparatus comprising a first coating station including a pressurised gas supply, an inverting station, a second coating station including a pressurised gas supply and conveyor (36, 37, 39) to convey product through said apparatus: wherein said conveyor is operable to convey product upon a surface thereof to said first coating station to enable coating using gas assistance upon an exposed surface of said product toward the inverting station; wherein the inverting station is operable to invert product such that, prior to product being transported by the conveyor to said second station where product is arranged such that an uncoated surface thereof is exposed; wherein said conveyor is operable to convey product upon a surface thereof through and out of said second coating station to enable coating using gas assistance upon a second exposed surface of said product as it passes therethrough; each said coating station comprising an enclosure, each said enclosure being placed in close proximity to the conveyor, whereby application of the coating substance is contained within a confined volume above the conveyor of each respective coating station, whereby coating product pollution with regard to the atmosphere is substantially absent. wherein said conveyor is operable to convey product upon a surface thereof to said first coating station to enable coating using gas assistance upon an exposed surface of said product toward the inverting station; wherein the inverting station is operable to invert product such that, prior to product being transported by the conveyor to said second station where product is arranged such that an uncoated surface thereof is exposed; wherein said conveyor is operable to convey product upon a surface thereof through and out of said second coating station to enable coating using gas assistance upon a second exposed surface of said product as it passes therethrough; each said coating station comprising an enclosure, each said enclosure being placed in close proximity to the conveyor, whereby application of the coating substance is contained within a confined volume above the conveyor of each respective coating station, whereby coating product pollution with regard to the atmosphere is substantially absent.
A radio transmission apparatus with a passive radio transmission device, which is arranged on a front side and a rear side of an electrically conductive carrier plate, wherein the radio transmission device comprises on the front side of the carrier plate a first foil with a first antenna and a microchip coupled to the first antenna and comprises on the rear side a second foil with a second antenna, wherein the first foil is connected to the second foil via a flexible web, which is guided around an end face of the carrier plate connecting the front side to the rear side, so that the second antenna is connected to the first antenna or the microchip via at least one connecting line running along the web, in order to transmit information from the microchip using both the first antenna and the second antenna, wherein the first foil, the second foil and the web are combined as one component, characterized in that the carrier plate is the key blade of a key, and wherein a layer for conducting the magnetic flux, which layer is designed as a ferrite foil, is arranged between the carrier plate and the radio transmission device. wherein the radio transmission device comprises on the front side of the carrier plate a first foil with a first antenna and a microchip coupled to the first antenna and comprises on the rear side a second foil with a second antenna, wherein the first foil is connected to the second foil via a flexible web, which is guided around an end face of the carrier plate connecting the front side to the rear side, so that the second antenna is connected to the first antenna or the microchip via at least one connecting line running along the web, in order to transmit information from the microchip using both the first antenna and the second antenna, wherein the first foil, the second foil and the web are combined as one component, characterized in that the carrier plate is the key blade of a key, and wherein a layer for conducting the magnetic flux, which layer is designed as a ferrite foil, is arranged between the carrier plate and the radio transmission device.
A tooth protector forming a facial side, a lingual side, and a bottom side, the facial, lingual and bottom sides configured to provide coverage for a set of teeth, wherein the tooth protector further comprises at least one protrusion (104, 204, 205, 403) formed in at least one of the facial side and the lingual side and extending towards the other one of the facial and lingual sides, the protrusion being elastically deformable to facilitate holding of the tooth protector in a fitted position on the set of teeth by deformation of the protrusion upon contact with a tooth, the tooth protector further comprises at least one opening (106, 401) through the U-shaped body, the opening increasing the ability of the body to deform elastically, characterised in that the at least one protrusion (104, 204, 205, 403) projects inwardly from an inner surface of the facial side or lingual side and forms an indentation in an opposite outer surface of the facial or lingual side and the opening forms the shape of a slit extending between the bottom side (103, 402) and one of the at least one protrusions. (104, 403).
A method of manufacturing a flexible LED module, comprising the steps of - providing a translucent flexible encapsulant comprising a number of layers (11a, 11b, 11c) to enclose a number of LEDs of the LED module; - after providing the encapsulant to enclose the number of LEDs, modifying the surface structure of an outer surface (111, 112, 113) of a layer (11a, 11c) to form at least one dense scattering region (P d) corresponding to the position of an LED of the LED module; to form at least one sparse scattering region (P s) that does not correspond to the position of an LED of the LED module; and to form a transition scattering region (P t) between a dense scattering region (P d) and a sparse scattering region (P s) characterized in that the surface structure of the outer surface (111, 112, 113) of the layer (11a, 11c) is modified in the outer surface of that layer. - providing a translucent flexible encapsulant comprising a number of layers (11a, 11b, 11c) to enclose a number of LEDs of the LED module; - after providing the encapsulant to enclose the number of LEDs, modifying the surface structure of an outer surface (111, 112, 113) of a layer (11a, 11c) to form at least one dense scattering region (P d) corresponding to the position of an LED of the LED module; to form at least one sparse scattering region (P s) that does not correspond to the position of an LED of the LED module; and to form a transition scattering region (P t) between a dense scattering region (P d) and a sparse scattering region (P s) characterized in that the surface structure of the outer surface (111, 112, 113) of the layer (11a, 11c) is modified in the outer surface of that layer.
An electronic device, comprising: a memory for storing instructions; a processing system communicatively coupled to the memory, wherein the processing system is configured to: generate a view request message, wherein the view request message comprises: a view handle field to identify the requested view; and a variable length path list configured to indicate a schema path, the schema path being a description for a data item or container on a node; transmit the view request message via the electronic device through a fabric network over a platform layer; receive a view response message based on the view request message, wherein the view response message comprises: a view handle field, the view handle field containing a value that matches a value of the view handle field transmitted in the view request through the fabric network; and a view request status configured to indicate a status of the view request. a memory for storing instructions; a processing system communicatively coupled to the memory, wherein the processing system is configured to: generate a view request message, wherein the view request message comprises: a view handle field to identify the requested view; and a variable length path list configured to indicate a schema path, the schema path being a description for a data item or container on a node; transmit the view request message via the electronic device through a fabric network over a platform layer; receive a view response message based on the view request message, wherein the view response message comprises: a view handle field, the view handle field containing a value that matches a value of the view handle field transmitted in the view request through the fabric network; and a view request status configured to indicate a status of the view request. generate a view request message, wherein the view request message comprises: a view handle field to identify the requested view; and a variable length path list configured to indicate a schema path, the schema path being a description for a data item or container on a node; a view handle field to identify the requested view; and a variable length path list configured to indicate a schema path, the schema path being a description for a data item or container on a node; transmit the view request message via the electronic device through a fabric network over a platform layer; receive a view response message based on the view request message, wherein the view response message comprises: a view handle field, the view handle field containing a value that matches a value of the view handle field transmitted in the view request through the fabric network; and a view request status configured to indicate a status of the view request. a view handle field, the view handle field containing a value that matches a value of the view handle field transmitted in the view request through the fabric network; and a view request status configured to indicate a status of the view request.
A printing device (100, 500) comprising: a print substance reservoir (102, 502) to house a print substance, wherein the print substance reservoir (102, 502) is communicatively coupled to a fill port (104, 504); an indicator to convey information to a user through haptic feedback; a sensor to determine when a refill container is connected to the fill port (104, 504); a processing resource; and a non-transitory machine-readable medium storing instructions executable by the processing resource to: transmit signals to the indicator responsive to an indication that the sensor has detected the refill container connected to the fill port (104, 504), wherein the signals correspond to the information to be conveyed by the indicator; and authenticate the refill container. a print substance reservoir (102, 502) to house a print substance, wherein the print substance reservoir (102, 502) is communicatively coupled to a fill port (104, 504); an indicator to convey information to a user through haptic feedback; a sensor to determine when a refill container is connected to the fill port (104, 504); a processing resource; and a non-transitory machine-readable medium storing instructions executable by the processing resource to: transmit signals to the indicator responsive to an indication that the sensor has detected the refill container connected to the fill port (104, 504), wherein the signals correspond to the information to be conveyed by the indicator; and authenticate the refill container. transmit signals to the indicator responsive to an indication that the sensor has detected the refill container connected to the fill port (104, 504), wherein the signals correspond to the information to be conveyed by the indicator; and authenticate the refill container.
Method of storing a message in a wireless device, comprising: receiving a message at a wireless device; filtering the message according to a set of rules including at least one predetermined criterion specified by the user of the wireless device; characterized by encrypting the message if the message includes at least the one predetermined criteria; and storing the encrypted message in the wireless device. receiving a message at a wireless device; filtering the message according to a set of rules including at least one predetermined criterion specified by the user of the wireless device; characterized by encrypting the message if the message includes at least the one predetermined criteria; and storing the encrypted message in the wireless device.
A process for producing a powder comprising a cationic surfactant (b), comprising the steps of mixing water, an anionic aromatic compound (a) and the cationic surfactant (b) to obtain a viscous material wherein the viscous material contains the anionic aromatic compound (a) in an amount of 1 to 35% by weight and the cationic surfactant (b) in an amount of 1 to 40% by weight, and drying the viscous material (drying step), the viscous material, heated at 50 to 120°C, being fed to the drying step, wherein the viscous material has a viscosity of 50 to 500 mPa s at a temperature of 60 to 80°C, wherein the cationic surfactant is in the form of a quaternary salt and has, in its structure, at least one saturated linear or branched alkyl group having 10 to 26 carbon atoms, and wherein the anionic aromatic compound is selected from carboxylic acids having aromatic rings and salts thereof, phosphonic acids and salts thereof, and sulfonic acids and salts thereof.
A unit (14, 14') arranged for being disposed in a distributed antenna system, the unit being characterized in that it comprises: an interface section configured for: outputting a first complex digital signal and a second complex digital signal, wherein the first complex digital signal is generated from a digital signal in a standardized format received from a digital base station, wherein the digital signal in the standardized format includes data packets formatted according to a standard communication protocol; outputting an additional complex digital signal, wherein the additional complex digital signal is generated from an additional digital signal in an additional standardized format, wherein the additional digital signal in the additional standardized format includes data packets formatted according to an additional standard communication protocol different from the standard communication protocol; and an output section configured for combining the first complex digital signal, the second complex digital signal, and the additional complex digital signal into a combined digital signal and for outputting the combined digital signal, wherein the combined digital signal comprises information to be wirelessly transmitted to a wireless user device (22a, 22b). an interface section configured for: outputting a first complex digital signal and a second complex digital signal, wherein the first complex digital signal is generated from a digital signal in a standardized format received from a digital base station, wherein the digital signal in the standardized format includes data packets formatted according to a standard communication protocol; outputting an additional complex digital signal, wherein the additional complex digital signal is generated from an additional digital signal in an additional standardized format, wherein the additional digital signal in the additional standardized format includes data packets formatted according to an additional standard communication protocol different from the standard communication protocol; and outputting a first complex digital signal and a second complex digital signal, wherein the first complex digital signal is generated from a digital signal in a standardized format received from a digital base station, wherein the digital signal in the standardized format includes data packets formatted according to a standard communication protocol; outputting an additional complex digital signal, wherein the additional complex digital signal is generated from an additional digital signal in an additional standardized format, wherein the additional digital signal in the additional standardized format includes data packets formatted according to an additional standard communication protocol different from the standard communication protocol; and an output section configured for combining the first complex digital signal, the second complex digital signal, and the additional complex digital signal into a combined digital signal and for outputting the combined digital signal, wherein the combined digital signal comprises information to be wirelessly transmitted to a wireless user device (22a, 22b).