mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting and quantifying a target nucleic acid having as few as one nucleotide difference from another nucleic acid in a sample, wherein the target nucleic acid is generated by reverse transcription polymerase chain reaction (RT-PCR) of miRNA in the sample, and wherein the target nucleic acid sequence comprises from 5' to 3' a cDNA sequence corresponding to the sequence of a miRNA from the sample, a poly sequence, and the reverse complement of a 5' adaptor sequence; the method comprising: (a) contacting the target nucleic acid with a probe, wherein the probe is substantially complementary to the target nucleic acid having one nucleotide mismatch, and has a length of from 20 to 60 nucleotides, and wherein the probe comprises, from 5' to 3', a portion substantially complementary to the 5' adaptor sequence having one nucleotide mismatch, a poly sequence, and a sequence complementary to the cDNA sequence of the target nucleic acid; and (b) quantifying the target nucleic acid by comparing the level of probe binding to the target nucleic acid with a control, whereby the level of probe binding to the target nucleic acid compared to a control is indicative of the level of said miRNA present in the sample. (a) contacting the target nucleic acid with a probe, wherein the probe is substantially complementary to the target nucleic acid having one nucleotide mismatch, and has a length of from 20 to 60 nucleotides, and wherein the probe comprises, from 5' to 3', a portion substantially complementary to the 5' adaptor sequence having one nucleotide mismatch, a poly sequence, and a sequence complementary to the cDNA sequence of the target nucleic acid; and a portion substantially complementary to the 5' adaptor sequence having one nucleotide mismatch, a poly sequence, and a sequence complementary to the cDNA sequence of the target nucleic acid; and (b) quantifying the target nucleic acid by comparing the level of probe binding to the target nucleic acid with a control,
Method for managing the current consumption of a logic circuit supplied with power between a supply terminal and a reference terminal and including at least one output terminal, wherein, on each transition of the signal on the output terminal, at least one action is carried out, this action being chosen from the group formed by: - attenuating the current flowing between the supply terminal and the reference terminal; - increasing the current flowing between the supply terminal and the reference terminal; or - generating an additional current that flows through the logic circuit, this current not being delivered by the supply terminal and not being observable therefrom; or indeed no action is carried out, the choice as to whether or not to carry out an action and the possible choice of said at least one action from the group being made depending on a random criterion. - attenuating the current flowing between the supply terminal and the reference terminal; - increasing the current flowing between the supply terminal and the reference terminal; or - generating an additional current that flows through the logic circuit, this current not being delivered by the supply terminal and not being observable therefrom;
A method for controlling a plurality of document service requests at a mobile device to be carried out at a document processing device, comprising: establishing, from the mobile device, a first connection and a second connection with the document processing device; receiving an identified document by the mobile device through the first connection; defining in a job ticket for the identified document at the mobile device a workflow that specifies two or more document service requests for which at least one of the plurality of document service requests is to be performed at the document processing device; and transmitting the identified document and the job ticket from the mobile device to the document processing device through the second connection upon receipt of input instructing the document service request to be carried out at the document processing device; wherein the document processing device is adapted (a) to perform all document service requests specified in the job ticket or (b) to forward processed document result data and the job ticket to another document processing device to perform uncompleted ones of the document service request specified in the job ticket. establishing, from the mobile device, a first connection and a second connection with the document processing device; receiving an identified document by the mobile device through the first connection; defining in a job ticket for the identified document at the mobile device a workflow that specifies two or more document service requests for which at least one of the plurality of document service requests is to be performed at the document processing device; and transmitting the identified document and the job ticket from the mobile device to the document processing device through the second connection upon receipt of input instructing the document service request to be carried out at the document processing device; wherein the document processing device is adapted (a) to perform all document service requests specified in the job ticket or (b) to forward processed document result data and the job ticket to another document processing device to perform uncompleted ones of the document service request specified in the job ticket.
Method of using an atomic force microscope by means of amplitude modulation, of the type that comprises exciting at least one natural lower vibration mode and one natural higher vibration mode of a microlever of said microscope, placed on a sample to be examined, the method comprising: - analysing at least the variation of the resonance frequency of a first output signal (Ai cos(ωi t-φi)) that is representative of the response of said microlever to said excitation of said lower mode, with respect to the variation of at least one parameter which is influenced by the resonance frequency of a second output signal (Aj cos(ωj t-φj)) that is representative of the response of said microlever to said excitation of said higher mode. - analysing at least the variation of the resonance frequency of a first output signal (Ai cos(ωi t-φi)) that is representative of the response of said microlever to said excitation of said lower mode, with respect to the variation of at least one parameter which is influenced by the resonance frequency of a second output signal (Aj cos(ωj t-φj)) that is representative of the response of said microlever to said excitation of said higher mode.
A vacuum adiabatic body, comprising: a first plate that defines at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate that defines at least one portion of a second side of the wall adjacent to a second space having a second temperature different from the first temperature of the first space; sealing parts provided between the first plate and the second plate to provide a third space that has a third temperature between the first temperature of the first space and the second temperature of the second space, the third space being in a vacuum state; a support that supports the first and second plates (10, 20) and is provided in the third space; a heat resistance device including a conductive resistance sheet to decrease a heat transfer amount between the first plate and the second plate, the conductive resistance sheet being provided with the sealing parts at which both ends of the conductive resistance sheet are sealed to define at least one portion of a wall adjacent to the third space and maintain the vacuum state; and an exhaust port through which a gas in the third space is exhausted, wherein the support includes at least two bars to support the first plate and the second plate, each bar of the at least two bars includes a material having a lower emissivity than emissivities of each of the first and second plates (10, 20), and each bar is fabricated using at least one material selected from the group consisting of polycarbonate, glass fiber PC, low outgassing PC, polyphenylene sulfide, and liquid crystal polymer. a first plate that defines at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate that defines at least one portion of a second side of the wall adjacent to a second space having a second temperature different from the first temperature of the first space; sealing parts provided between the first plate and the second plate to provide a third space that has a third temperature between the first temperature of the first space and the second temperature of the second space, the third space being in a vacuum state; a support that supports the first and second plates (10, 20) and is provided in the third space; a heat resistance device including a conductive resistance sheet to decrease a heat transfer amount between the first plate and the second plate, the conductive resistance sheet being provided with the sealing parts at which both ends of the conductive resistance sheet are sealed to define at least one portion of a wall adjacent to the third space and maintain the vacuum state; and an exhaust port through which a gas in the third space is exhausted, wherein the support includes at least two bars to support the first plate and the second plate, each bar of the at least two bars includes a material having a lower emissivity than emissivities of each of the first and second plates (10, 20), and each bar is fabricated using at least one material selected from the group consisting of polycarbonate, glass fiber PC, low outgassing PC, polyphenylene sulfide, and liquid crystal polymer.
A method of performing a handover by a mobile station in a multi-carrier supportive broadband wireless access system, the method comprising: receiving, from a serving base station, a first message containing carrier assignment information on at least one secondary carrier pre-assigned to the mobile station by a target base station; and performing a network re-entry into the target base station, characterized by further comprising: determining whether multi-carrier configurations of the serving base station and the target base station are identical to each other; and if the multi-carrier configurations of the serving base station and the target base station are not identical to each other, performing a multi-carrier capability negotiation by sending, to the target base station, a second message for a multi-carrier request for changing an assigned carrier. receiving, from a serving base station, a first message containing carrier assignment information on at least one secondary carrier pre-assigned to the mobile station by a target base station; and performing a network re-entry into the target base station, characterized by further comprising: determining whether multi-carrier configurations of the serving base station and the target base station are identical to each other; and if the multi-carrier configurations of the serving base station and the target base station are not identical to each other, performing a multi-carrier capability negotiation by sending, to the target base station, a second message for a multi-carrier request for changing an assigned carrier. determining whether multi-carrier configurations of the serving base station and the target base station are identical to each other; and if the multi-carrier configurations of the serving base station and the target base station are not identical to each other, performing a multi-carrier capability negotiation by sending, to the target base station, a second message for a multi-carrier request for changing an assigned carrier.
Firearm suppressor, in particular a rifle suppressor, which suppressor has a substantially rotationally symmetrical cylindrical form and comprises a suppressor housing, chambers (18, 20, 30) for expansion and burning of propellant gases and arranged inside the suppressor housing, an aperture for a projectile configured to be fired by the firearm and located around an imaginary center axis of the suppressor, which suppressor comprises an inner flow guide structure, which suppressor comprises a circumferential chamber inside the suppressor housing and a baffle chamber with baffles, which inner flow guide structure is located inside the circumferential chamber and comprises radially inclined guide openings, and a sleeve is provided around the baffles configured to form a separate burning chamber for the propellant gases, characterized in that the radially inclined guide openings have an inclination angle of 30 - 70 degrees in relation to travel direction of the projectile, that a tubing for gas is provided in the circumferential chamber inside the suppressor housing and that inlet end/-s of the tubing is in flow connection with the radially inclined guide openings of the inner flow guide structure.
A wiper blade (20; 20a; 20b; 70) for vehicle windows, in particular for vehicle windscreens, adapted to be fastened with a wiper arm which carries an adapter on the wiper arm side, wherein the wiper blade (20; 20a; 20b; 70) comprises an adapter element (18; 18a) on the wiper blade side, wherein the wiper blade (20; 20a; 20b; 70) has a wiper rubber and at least one carrier rail (26, 27; 71) arranged in the longitudinal direction of the wiper blade (20; 20a; 20b; 70), wherein the wiper blade (20; 20a; 20b; 70) is closed at its two end faces, lying opposite, by two closure pieces (41, 42), the at least one carrier rail is arranged in operative connection with a heating arrangement (28; 28a; 72) having an electrical connection (46; 56, 57; 76), the heating arrangement is connected on the surface with the at least one carrier rail and has a flexible heating foil (30; 30a; 32 to 35; 78), which is arranged in abutting contact with the at least one carrier rail (26, 27; 71). characterized in that the electrical connection (46; 56; 57; 76) of the heating arrangement (28; 28a; 72) is held in a sealing manner in a first plug connector body (48; 54, 55; 77) arranged in an integrated manner in the adapter element (18; 18a) on the wiper blade side and in that the electrical connection (46; 56; 57; 76), which is connected with the first plug connector body (48; 54, 55; 77), is constructed so as to be flexible and is arranged in a curved shape on the adapter.
A flow damper comprising: a cylindrical vortex chamber; a first inlet pipe connected to a peripheral edge of the vortex chamber along a tangential direction thereof; a second inlet pipe connected to the peripheral edge with a predetermined angle with respect to the first inlet pipe; an outlet pipe connected to an outlet formed in a central part of the vortex chamber; and a pressure equalization pipe with respective ends being connected to the peripheral edge located on opposite sides of the outlet, characterized in that the pressure equalization pipe is arranged such that in use at least a part of the pressure equalization pipe is located at a higher position than a top surface of the vortex chamber, and an outgassing hole is provided at an uppermost part of the pressure equalization pipe. a cylindrical vortex chamber; a first inlet pipe connected to a peripheral edge of the vortex chamber along a tangential direction thereof; a second inlet pipe connected to the peripheral edge with a predetermined angle with respect to the first inlet pipe; an outlet pipe connected to an outlet formed in a central part of the vortex chamber; and a pressure equalization pipe with respective ends being connected to the peripheral edge located on opposite sides of the outlet, characterized in that the pressure equalization pipe is arranged such that in use at least a part of the pressure equalization pipe is located at a higher position than a top surface of the vortex chamber, and an outgassing hole is provided at an uppermost part of the pressure equalization pipe.
A handle assembly for an elongate medical device, comprising an exterior adjusting knob extending along a longitudinal axis and configured to rotate about said axis, an insert engaging said adjusting knob and configured to rotate about said axis responsive to rotation of said adjusting knob, said insert comprising an annular groove engaging a dowel pin to resist rotation of said insert and to create an autolock, said annular groove comprising a first sidewall comprising a chamfer, a second sidewall and an interior surface, the dowel pin and the insert are configured so that a tip of the dowel pin is disposed within the annular groove with the dowel pin extending generally transverse to the interior surface and an axis of the dowel pin positioned in the annular groove, wherein the chamfer improves both the total force of the autolock and the effective movement range of the autolock, wherein the chamfer extends at an angle (θ2) relative to a line parallel to the axis to create an autolock strength.
A method for an access point within a wireless local area network, WLAN, the method comprising: receiving, prior to authentication of a wireless device with the WLAN, a generic advertisement service, GAS, request from the wireless device, the GAS request requesting emergency contact information; and transmitting a GAS response in response to the GAS request, the GAS response including the requested emergency contact information which includes a uniform resource name, URN, emergency service label. receiving, prior to authentication of a wireless device with the WLAN, a generic advertisement service, GAS, request from the wireless device, the GAS request requesting emergency contact information; and transmitting a GAS response in response to the GAS request, the GAS response including the requested emergency contact information which includes a uniform resource name, URN, emergency service label.
A transmission device comprising: a transmission section configured, when data is transmitted to a reception device, to transmit a first signal that includes the data and a second signal generated by performing, based on identification information of the reception device, phase modulation on a known signal.
A method for analysing an image of a tooth, the method comprising: fitting a model to the image to identify a part of the image representing an outside edge of the tooth; the method being characterised by: analysing image variations in an area of the image to detect indications of dental caries, the area of the image representing a part of the tooth and being defined with reference to the fitted model; and generating data indicating the presence of dental caries based upon said analysed image variations. fitting a model to the image to identify a part of the image representing an outside edge of the tooth; the method being characterised by: analysing image variations in an area of the image to detect indications of dental caries, the area of the image representing a part of the tooth and being defined with reference to the fitted model; and generating data indicating the presence of dental caries based upon said analysed image variations. analysing image variations in an area of the image to detect indications of dental caries, the area of the image representing a part of the tooth and being defined with reference to the fitted model; and generating data indicating the presence of dental caries based upon said analysed image variations.
A server for transmitting data over a transport network, the server comprising: a clock generator configured to generate a server clock signal; a mapping circuit configured to receive a client data signal and a client clock signal that is asynchronous with respect to the server clock signal, wherein the mapping circuit is further configured to map the client clock signal and the client data signal into a server data stream based on timing of the server clock signal; and a clock difference calculation circuit comprising at least one time-to-digital converter, TDC, configured to generate a first plurality of digital timestamps representing a plurality of transitions of the client clock signal and a second plurality of digital timestamps representing a plurality of transitions of the server clock signal, the clock difference calculation circuit configured to generate clock difference data comprising a digital representation of a time difference between the server clock signal and the client clock signal, based on the first plurality of digital timestamps and on the second plurality of digital timestamps, wherein the mapping circuit is further configured to insert the clock difference data into the server data stream, wherein the server data stream comprises a frame, wherein the mapping circuit is configured to include the clock difference data in an overhead portion of the frame, and wherein the clock difference calculation circuit is further configured to measure the time difference between the server clock signal and the client clock signal over a time period of the frame. a clock generator configured to generate a server clock signal; a mapping circuit configured to receive a client data signal and a client clock signal that is asynchronous with respect to the server clock signal, wherein the mapping circuit is further configured to map the client clock signal and the client data signal into a server data stream based on timing of the server clock signal; and a clock difference calculation circuit comprising at least one time-to-digital converter, TDC, configured to generate a first plurality of digital timestamps representing a plurality of transitions of the client clock signal and a second plurality of digital timestamps representing a plurality of transitions of the server clock signal, the clock difference calculation circuit configured to generate clock difference data comprising a digital representation of a time difference between the server clock signal and the client clock signal, based on the first plurality of digital timestamps and on the second plurality of digital timestamps, wherein the mapping circuit is further configured to insert the clock difference data into the server data stream, wherein the server data stream comprises a frame, wherein the mapping circuit is configured to include the clock difference data in an overhead portion of the frame, and wherein the clock difference calculation circuit is further configured to measure the time difference between the server clock signal and the client clock signal over a time period of the frame.
A composition for application to the skin comprising a phenylpropanoid selected from the group consisting of rosavin, rosin, rosarin, and mixtures thereof, or an extract of Rhodiola rosea comprising the same; a silicone selected from the group consisting of dimethicone or cyclomethicone, and mixtures thereof; and an ingredient selected from the group consisting of antioxidants, chelating agents, emulsion stabilizers, preservatives, fragrances, flavoring agents, humectants, waterproofing agents, water soluble film-formers, oil-soluble film formers, moisturizing agents, cationic polymers, anionic polymers, and vitamins, for use as a medicament in inhibiting the effects ofUV exposure or alleviating the effects of UV induced damage on the skin. a phenylpropanoid selected from the group consisting of rosavin, rosin, rosarin, and mixtures thereof, or an extract of Rhodiola rosea comprising the same; a silicone selected from the group consisting of dimethicone or cyclomethicone, and mixtures thereof; and an ingredient selected from the group consisting of antioxidants, chelating agents, emulsion stabilizers, preservatives, fragrances, flavoring agents, humectants, waterproofing agents, water soluble film-formers, oil-soluble film formers, moisturizing agents, cationic polymers, anionic polymers, and vitamins, for use as a medicament in inhibiting the effects ofUV exposure or alleviating the effects of UV induced damage on the skin.