mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting target molecules on a solid support, comprising: a. forming at least one complex comprising an oligonucleotide primer hybridized to a circularized nucleic acid probe, wherein the primer is bound to a surface on a solid support, and wherein the forming the at least one complex comprises exposing the solid support to a crowding agent comprising at least 12% (w:v) polyethylene glycol, wherein the PEG has an average molecular weight between 400 and 800; b. detecting formation of the at least one complex in a process comprising: i. extending the primer in the complex in a rolling circle amplification reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe; wherein hybridized labeled probe is indicative of the presence of the target molecule on the solid support. a. forming at least one complex comprising an oligonucleotide primer hybridized to a circularized nucleic acid probe, wherein the primer is bound to a surface on a solid support, and wherein the forming the at least one complex comprises exposing the solid support to a crowding agent comprising at least 12% (w:v) polyethylene glycol, wherein the PEG has an average molecular weight between 400 and 800; b. detecting formation of the at least one complex in a process comprising: i. extending the primer in the complex in a rolling circle amplification reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe; i. extending the primer in the complex in a rolling circle amplification reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe;
Drawer-type cooling box consisting of a cooling box which is mounted in a housing of a kitchen unit of a camping vehicle so as to be able to be pulled out and pushed in on pull-out guides and has an upwardly directed access opening and an upper cooling box covering, characterized in that the cooling box covering is mounted movably in the kitchen unit via coupling elements, which consist of double-jointed levers which are arranged in pairs and on both sides of the cooling box covering and have horizontal positionally fixed axes of rotation at right angles to the pull-out direction, is lifted off upward from the cooling box in a pulled-out position of same while remaining within the kitchen unit and, in a pushed-in position, is lowered downward onto the access opening of the cooling box, wherein an elastic spring element is arranged between the cooling box covering and a part of the housing of the kitchen unit located thereabove, which spring element keeps the cooling box covering permanently prestressed upward with an elastic spring force that side of the cooling box covering which is opposite to the pull-out direction is assigned a downwardly extending driver against which the rear inner end side of the cooling box presses from a virtually completely closed position as far as the closed position and moves the cooling box covering in parallel downward onto the access opening counter to the elastic spring force and keeps said covering there.
Handle for a door of a household appliance, with an elongated front strip and at least one handle bracket, which is connected to the front strip and by means of which the handle can be positioned on the door, and having at least one light source, which is arranged in the handle and having at least one light-guiding element with which light from the light source can be radiated from the front strip, wherein the front strip takes the form of a plate which is transparent at least in regions and which covers the light-guiding element on the front side, wherein light which is radiated from the light-guiding element is able to be radiated at least through a light-permeable material region of the front strip, wherein the light-guiding element is arranged between the front strip and the handle bracket, characterised in that the light-guiding element is embodied to be elastically deformable and the light-guiding element is arranged as a compressible spacer element between the front strip and the handle bracket.
A method for spectral domain interferometry of an object using a slave measuring interferometer having a pair of interferometer arms, comprising: in a preliminary step, preparing a set of P versions (70, 70,... 70(p)) of a master reference signal, wherein the set of master reference signals is generated from a plurality of mask signals M p deposited in a master reference block, wherein the mask signals correspond to channelled spectra at the output of the slave measuring interferometer having a mirror placed in one of its arms, wherein p = 1,2,...P for P respective values of an optical path difference in the slave measuring interferometer, the P respective optical path differences corresponding to respective depths in the object; and in a second step, acquiring a slave signal proportional to a measured spectrum at the output of the slave measuring interferometer, with an object placed in one of the slave measuring interferometer arms; comparing the slave signal with each mask signal M p of the master reference signal delivered by the master reference block in order to recognise respective parts of the slave signal due to each respective depth in the object; delivering, for each mask signal M p, a signal (640, 640...640) proportional to the similarity between the mask signal M p and the part of the slave signal corresponding to the same optical path difference in the slave interferometer as the optical path difference corresponding to the mask signal M p. in a preliminary step, preparing a set of P versions (70, 70,... 70(p)) of a master reference signal, wherein the set of master reference signals is generated from a plurality of mask signals M p deposited in a master reference block, wherein the mask signals correspond to channelled spectra at the output of the slave measuring interferometer having a mirror placed in one of its arms, wherein p = 1,2,...P for P respective values of an optical path difference in the slave measuring interferometer, the P respective optical path differences corresponding to respective depths in the object; and in a second step, acquiring a slave signal proportional to a measured spectrum at the output of the slave measuring interferometer, with an object placed in one of the slave measuring interferometer arms; comparing the slave signal with each mask signal M p of the master reference signal delivered by the master reference block in order to recognise respective parts of the slave signal due to each respective depth in the object; delivering, for each mask signal M p, a signal (640, 640...640) proportional to the similarity between the mask signal M p and the part of the slave signal corresponding to the same optical path difference in the slave interferometer as the optical path difference corresponding to the mask signal M p.
A method for enabling periodic scanning in a mesh network, the method comprising: transmitting from a first access point an announcement that it will be temporarily unavailable, wherein the announcement includes: a first information element comprising a Quiet Element indicating a time period in which the first access point will be temporarily unavailable; and a second information element comprising a scan indicator element indicating the temporary unavailability is due to a channel scan; and in response to receiving the announcement, operating one or more neighboring access points to queue packets designated for the first access point during the time period while continuing to communicate with one or more other access points. transmitting from a first access point an announcement that it will be temporarily unavailable, wherein the announcement includes: a first information element comprising a Quiet Element indicating a time period in which the first access point will be temporarily unavailable; and a second information element comprising a scan indicator element indicating the temporary unavailability is due to a channel scan; and a first information element comprising a Quiet Element indicating a time period in which the first access point will be temporarily unavailable; and a second information element comprising a scan indicator element indicating the temporary unavailability is due to a channel scan; and in response to receiving the announcement, operating one or more neighboring access points to queue packets designated for the first access point during the time period while continuing to communicate with one or more other access points.
A method for device-to-device wireless communications, comprising, at a user device: broadcasting a signal over a licensed radio frequency spectrum band having a first available bandwidth, the signal triggering performance of a ranging procedure over an unlicensed radio frequency spectrum band having a second available bandwidth that is greater than the first available bandwidth; tuning to the unlicensed radio frequency spectrum band; and receiving a plurality of ranging signals over the unlicensed radio frequency spectrum band in response to the broadcast signal. broadcasting a signal over a licensed radio frequency spectrum band having a first available bandwidth, the signal triggering performance of a ranging procedure over an unlicensed radio frequency spectrum band having a second available bandwidth that is greater than the first available bandwidth; tuning to the unlicensed radio frequency spectrum band; and receiving a plurality of ranging signals over the unlicensed radio frequency spectrum band in response to the broadcast signal.
A system for detecting an analyte in a bodily fluid collected from a subject, comprising: a) an external device; b) a fluidic device, said fluidic device comprising: an identifier to provide an identity of the fluidic device adapted to trigger transmission of a protocol from the external device, a sample collection unit, and an assay assembly for a sample of bodily fluid from the sample collection unit to react with reactants contained within said assay assembly to yield a signal indicative of the presence of said analyte; c) a reader assembly comprising: a detection assembly for detecting said signal, actuating elements to direct flow of fluid through the fluidic device, and a controller to control the actuating elements on the basis of instructions to control the actuating elements to direct flow of fluid through the fluidic device; and d) a communication assembly for: receiving the protocol from the external device, the protocol dependent on the identity of the fluidic device and comprising the instructions to control the actuating elements to direct flow of fluid through the fluidic device, and transmitting said signal to said external device. a) an external device; b) a fluidic device, said fluidic device comprising: an identifier to provide an identity of the fluidic device adapted to trigger transmission of a protocol from the external device, a sample collection unit, and an assay assembly for a sample of bodily fluid from the sample collection unit to react with reactants contained within said assay assembly to yield a signal indicative of the presence of said analyte; an identifier to provide an identity of the fluidic device adapted to trigger transmission of a protocol from the external device, a sample collection unit, and an assay assembly for a sample of bodily fluid from the sample collection unit to react with reactants contained within said assay assembly to yield a signal indicative of the presence of said analyte; c) a reader assembly comprising: a detection assembly for detecting said signal, actuating elements to direct flow of fluid through the fluidic device, and a controller to control the actuating elements on the basis of instructions to control the actuating elements to direct flow of fluid through the fluidic device; and a detection assembly for detecting said signal, actuating elements to direct flow of fluid through the fluidic device, and a controller to control the actuating elements on the basis of instructions to control the actuating elements to direct flow of fluid through the fluidic device; and d) a communication assembly for: receiving the protocol from the external device, the protocol dependent on the identity of the fluidic device and comprising the instructions to control the actuating elements to direct flow of fluid through the fluidic device, and transmitting said signal to said external device. receiving the protocol from the external device, the protocol dependent on the identity of the fluidic device and comprising the instructions to control the actuating elements to direct flow of fluid through the fluidic device, and transmitting said signal to said external device.
Polypeptide comprising: i) the CHAP domain of LysK endolysin according to SEQ ID NO:1 or a variant thereof exhibiting at least 80% sequence identity with the CHAP domain of LysK endolysin according to SEQ ID NO:1; ii) the M23 endopeptidase domain of lysostaphin according to SEQ ID NO:3 or a variant thereof exhibiting at least 80% sequence identity with the M23 endopeptidase domain of lysostaphin according to SEQ ID NO:3; iii) the cell wall binding domain of ALE-1 according to SEQ ID NO:5 or a variant thereof exhibiting at least 90% sequence identity with the cell wall binding domain of ALE-1 according to SEQ ID NO:5, and iv) a further peptide selected from the group consisting of an antimicrobial peptide, an amphipathic peptide, a cationic peptide, a hydrophobic peptide, a sushi peptide and a defensin. i) the CHAP domain of LysK endolysin according to SEQ ID NO:1 or a variant thereof exhibiting at least 80% sequence identity with the CHAP domain of LysK endolysin according to SEQ ID NO:1; ii) the M23 endopeptidase domain of lysostaphin according to SEQ ID NO:3 or a variant thereof exhibiting at least 80% sequence identity with the M23 endopeptidase domain of lysostaphin according to SEQ ID NO:3; iii) the cell wall binding domain of ALE-1 according to SEQ ID NO:5 or a variant thereof exhibiting at least 90% sequence identity with the cell wall binding domain of ALE-1 according to SEQ ID NO:5, and iv) a further peptide selected from the group consisting of an antimicrobial peptide, an amphipathic peptide, a cationic peptide, a hydrophobic peptide, a sushi peptide and a defensin.
X-ray generator comprising a housing, an exit window and assemblies arranged in the housing for generating one or more x-ray beams, the housing being formed by a tube body, which consists of ceramic, and the exit window consisting of ceramic, and characterized in that the exit window for the x-ray radiation is milled into the tube body as a thinned ceramic layer.
A headgear cleaner (1-1; 1-2; 1-3; 1-4; 1-5; 1-6) comprising: an ozone generator formed of flexible material; and a voltage supply part (5; 5-1; 5-2; 5-3) for supplying a voltage required to generate ozone to the ozone generator, wherein the ozone generator has a dielectric and one or more pairs of electrodes (31a, 31b), at least one electrode of each pair of electrodes (31a, 31b) is covered with the dielectric, and the voltage supply part (5; 5-1; 5-2; 5-3) is arranged to supply a voltage required to generate ozone to the one or more pairs of electrodes (31a, 31b) of the ozone generator, characterised in that the ozone generator is in an approximately semispherical hull shape and capable of receiving headgear such as a helmet thereon, the ozone generator comprises: multiple leaf parts extending radially from a top portion and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, the one or more pairs of electrodes (31a, 31b) are arranged on each of the multiple leaf parts, and the voltage supply part (5; 5-1; 5-2; 5-3) is connected in parallel with the one or more pairs of electrodes (31a, 31b) of each of the multiple leaf parts. the ozone generator has a dielectric and one or more pairs of electrodes (31a, 31b), at least one electrode of each pair of electrodes (31a, 31b) is covered with the dielectric, and the voltage supply part (5; 5-1; 5-2; 5-3) is arranged to supply a voltage required to generate ozone to the one or more pairs of electrodes (31a, 31b) of the ozone generator, characterised in that the ozone generator is in an approximately semispherical hull shape and capable of receiving headgear such as a helmet thereon, the ozone generator comprises: multiple leaf parts extending radially from a top portion and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, multiple leaf parts extending radially from a top portion and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, the one or more pairs of electrodes (31a, 31b) are arranged on each of the multiple leaf parts, and the voltage supply part (5; 5-1; 5-2; 5-3) is connected in parallel with the one or more pairs of electrodes (31a, 31b) of each of the multiple leaf parts.
A vial dosing device (10, 110), comprising: a connecting body (45, 145) coupleable to a vial (50, 150); a cannulated plunger (35, 135), a proximal end of the cannulated plunger being coupled to the connecting body; a dose chamber (25, 125) adapted to slidably receive a distal end of the cannulated plunger and to expel medicament through a distal end of the dose chamber; and characterized in that the vial dosing device further comprises: a plunger tip check valve (30, 130) coupled to the cannulated plunger, and adapted for fluid flow from the cannulated plunger through the plunger tip check valve into the dose chamber. a connecting body (45, 145) coupleable to a vial (50, 150); a cannulated plunger (35, 135), a proximal end of the cannulated plunger being coupled to the connecting body; a dose chamber (25, 125) adapted to slidably receive a distal end of the cannulated plunger and to expel medicament through a distal end of the dose chamber; and characterized in that the vial dosing device further comprises: a plunger tip check valve (30, 130) coupled to the cannulated plunger, and adapted for fluid flow from the cannulated plunger through the plunger tip check valve into the dose chamber.
Driver assistance system on a corner (110a, 110b,120a,120b) of a vehicle for the monitoring of cross traffic, having a transmitter device for the sending of electromagnetic signals and a receiving device for the reception of electromagnetic signals, characterized in that the transmitter device has a kindey-shaped monitoring range with a first monitoring device and with a second monitoring device, so that by means of a transmitter aerial of the transmitter device a single, kidney-shaped aerial lobe is embodied, wherein there is no gap between the two monitoring devices (42, 44), so that the appearance of cross traffic from the side can be monitored until this cross traffic is in front of or behind the vehicle.
An acoustic emission monitoring system for monitoring structural integrity of a furnace, the system comprising: a furnace shell; a controller; a plurality of acoustic emission sensors mounted to the furnace shell and in communication with the controller to provide electric signals corresponding to one or more acoustic emissions generated in the furnace to the controller, wherein the controller includes a location module for estimating a location of origin of one or more acoustic emission events; a first row of at least two acoustic emission sensors mounted at a first height on the furnace shell, the at least two acoustic emission sensors of the first row being laterally offset from each other by a first lateral spacing distance; and a second row of at least two acoustic emission sensors mounted at a second height on the furnace shell, the second height being higher than the first height by a vertical offset distance, the at least two acoustic emission sensors of the second row being laterally offset from each other by a second lateral spacing distance, the second lateral spacing distance being generally equal to the first lateral spacing distance, wherein the first row is laterally offset from the second row by a lateral offset distance; and wherein an electric signal is registered as an acoustic emission event if detected by a predetermined number of acoustic emission sensors, characterised in that the first lateral spacing distance between neighboring acoustic emission sensors of the at least two acoustic emission sensors mounted at the first height is greater than the vertical offset distance between the first height and the second height, and the controller is configured to apply a speed wave correction based on an operating temperature of the furnace to refine the location of origin of the one or more acoustic emission events. a furnace shell; a controller; a plurality of acoustic emission sensors mounted to the furnace shell and in communication with the controller to provide electric signals corresponding to one or more acoustic emissions generated in the furnace to the controller, wherein the controller includes a location module for estimating a location of origin of one or more acoustic emission events;