Abstract:
A method of analysis, instrument for analysis and device for use in such an instrument are provided, which perform a number of processes need to reach a useful result in the context of a wide variety of samples. The sequence of those processes being optimised. A device, instrument using the device and method of use are also provided which offer reliable performance of a heating based process, with minimal condensation and/or sample loss issues.
Abstract:
Analysis methods and apparatus are provided for inspecting a channel, such as a capillary electrophoresis channel, in a device. Configuration and alignment systems are provided, together with optical systems and temperature control.
Abstract:
An electrophoresis device where the end of the electrophoresis channel has a part that extends vertically. The electrophoresis channel includes a first access port at one end of the channel and a second port at the other end of the channel, which are in the same horizontal plane. In this way, there is a less than 0.1% hydrostatic pressure differential between two ports and the performance of the device is improved.
Abstract:
A method, system, and apparatus for analysis of a biological sample includes receiving the sample, wherein the sample includes deoxyribonucleic acid (DNA), lysing the sample to obtain access to the DNA included in the sample, purifying the DNA in the sample to isolate the DNA from other components in the sample, amplifying the DNA, separating fragments of the amplified DNA, detecting the separated fragments using laser induced fluorescence, based on the detecting, generating a profile of the DNA in the received sample, comparing the generated profile with profiles of DNA stored in a database, and upon determining that the generated profile matches one of the stored profiles, identifying the source from which the stored profile was obtained, wherein the receiving, lysing, purifying, amplifying, and detecting are performed on corresponding portions of a microfluidic device, and wherein transporting the sample and the DNA to the portions of the microfluidic device and enabling the lysing, purifying, amplifying, separating, detecting, generating, comparing, and identifying are performed automatically without user interaction.
Abstract:
Instruments, devices and methods of analysis are provided which fully integrate a significant number of process steps in a continuous operation. Accurate positioning and full contact between components is also provided by the relative movement the designs allow. An effect interface between a low cost disposable cartridge or device and the instrument to process it is also detailed.
Abstract:
A method and system for analysing a sample are provided, wherein one or more process steps and/or sample processors are provided separately from the instrument, for instance a sample receiving step and sample preparation step and sample extraction step and sample retention step and/or purification step and washing step and elution step, and one or more process steps and/or sample processors provided by the instrument as an integrated set, the one or more process steps and/or sample processors provided by the instrument including a sample receiving step and amplification step and denaturing step and investigation step and detection step and results analysis step and results output step. Other combinations of the split in location of the steps are possible. The optimisation of the split allows the accurate processing by a cartridge based instrument of the sample, whilst fully interfacing with a variety of sample collection and/or preparation approaches.
Abstract:
A method of analysing a sample includes providing a first part of the sample and a second part of the sample. A first analysis is conducted on the first part of the sample and the results of the first analysis are considered. A second analysis is conducted on the second part of the sample, the second analysis being conducted according to a procedure using a value for each of one or more characteristics of the procedure. The consideration of the results of the first analysis is used to determine whether the value for one or more of the characteristics of the procedure is changed to a different value. The second analysis is started before the results of the first analysis are obtained.
Abstract:
A method and device structure are provided which enable an archive sample to be collected and detached relative to a device within which a series of processes, such as PCR are being provided. A chamber structure and method of use are provided in which a controlled and precise volume is obtained by control of the relative resistance to flow through various channels.
Abstract:
A method of analysis, instrument for analysis and device for use in such an instrument are provided, which perform a number of processes need to reach a useful result in the context of a wide variety of samples. The sequence of those processes being optimised. A device, instrument using the device and method of use are also provided which offer reliable performance of a heating based process, with minimal condensation and/or sample loss issues.
Abstract:
A method, system, and apparatus for analysis of a biological sample includes receiving the sample, wherein the sample includes deoxyribonucleic acid (DNA), lysing the sample to obtain access to the DNA included in the sample, purifying the DNA in the sample to isolate the DNA from other components in the sample, amplifying the DNA, separating fragments of the amplified DNA, detecting the separated fragments using laser induced fluorescence, based on the detecting, generating a profile of the DNA in the received sample, comparing the generated profile with profiles of DNA stored in a database, and upon determining that the generated profile matches one of the stored profiles, identifying the source from which the stored profile was obtained, wherein the receiving, lysing, purifying, amplifying, and detecting are performed on corresponding portions of a microfluidic device, and wherein transporting the sample and the DNA to the portions of the microfluidic device and enabling the lysing, purifying, amplifying, separating, detecting, generating, comparing, and identifying are performed automatically without user interaction.