Abstract: A method for performing microscopy-based imaging of samples includes: loading a sample holder onto a support configured to receive the sample holder; moving the sample holder in a first direction, from a starting position on a first strip of the sample holder, to move the sample holder relative to an imaging line of a line camera, to capture an image of the first strip of the sample holder; monitoring a focal plane using an autofocus system as the sample holder is moved in the first direction; in response to a determination by the autofocus system, moving an objective lens along an optical axis to adjust the focal plane; and moving the sample holder in a second direction, to align the imaging line of the line camera with a position on a second strip of the sample holder.

Abstract: A method for detecting and characterising a microorganism in a clinical sample includes introducing the clinical sample to a first culture vessel and simultaneously transporting and incubating the clinical sample in a thermally insulated compartment of a sealable container. A test aliquot is removed from the sample and the remainder of the sample is further cultured. DNA is removed from the test aliquot and nucleic acid tests are performed on it to identify the microorganism and to detect the presence or absence of one or more genetic antimicrobial resistance markers in the microorganism. One or more nucleic acid probes or primers are used to perform the nucleic acid tests. It is detected whether or not the probes or primers have hybridised to DNA or the primers have been extended. If a microorganism is identified, then an antimicrobial susceptibility test is performed on the cultured clinical sample.

Abstract: Multiplexed methods of detecting an analyte in a sample using two or more padlock probes each specific to a different target sequence are described. The target sequence is either part of an analyte or indicative of the presence of an analyte in the sample. Each padlock probe includes an analyte-specific reporter sequence, and either a restriction cleavage site located 3? of the analyte-specific reporter sequence, and/or a first amplification primer binding site for an amplification reaction. Where the padlock probe includes a restriction cleavage site, cleavage at the restriction cleavage site occurs 3? of the analyte-specific reporter sequence. Where the padlock probe includes a first amplification primer binding site for the further amplification reaction, it does not contain a second amplification primer binding site 5? of the analyte-specific reporter sequence. Panels of probes and kits for the same are also described.

Abstract: A sample holder (10) comprises a sample chamber (33), a gas reservoir (32) and an upper layer (20) covering over the sample chamber (33) and gas reservoir (32), wherein a bottom surface of the upper layer (20) comprises a microstructure array (23) which overlies at least a portion of a top periphery of the sample chamber (33), and wherein the microstructure array (23) is in communication with a gas path which extends to the gas reservoir (32), to allow gas exchange between the sample chamber (33) and the gas reservoir (32).

Abstract: A method for performing microscopy-based imaging of samples comprises: loading a sample holder (100) onto a support (50) configured to receive the sample holder (100); moving the sample holder (100) in a first direction, from a starting position on a first strip of the sample holder (100), to move the sample holder (100) relative to an imaging line of a line camera (10), to capture an image of the first strip of the sample holder (100); monitoring a focal plane using an autofocus system (15) as the sample holder (100) is moved in the first direction; in response to a signal from the autofocus system (15), moving an objective lens (25) along the optical axis to adjust the focal plane; and moving the sample holder (100) in a second direction, to align the imaging line of the line camera (10) with a position on a second strip of the sample holder (100).

Abstract: A method for detecting and characterizing a microorganism in a clinical sample includes introducing a clinical sample to a first culture vessel containing the culture medium; removing a test aliquot; separating DNA from the test aliquot; and performing nucleic acid tests on the DNA to identify the microorganism and to detect the presence or absence of one or more genetic antimicrobial resistance markers in the microorganism. If a microorganism is identified, an antimicrobial susceptibility test is performed wherein microbial growth in the antimicrobial susceptibility test is monitored by accessing growth or markers for growth and wherein the type and concentration of antimicrobial agents used in the antimicrobial susceptibility test is determined by the identity of the microorganism and the antimicrobial resistance markers detected. A device for performing the method is also provided.

Abstract: A method of image-based analysis of multiple samples includes using a sample holder having multiple locations of interest and multiple focal structures that are each associated, one or more, with the multiple locations of interest, wherein the multiple samples are dispersed across the multiple locations of interest and obtaining image areas of the multiple locations of interest. Multiple digital image areas are thus obtained for use in an analysis of the multiple samples with each of the image areas including at least one of the locations of interest and at least one of the focal structures. An image processing algorithm is used to analyse each of the digital image areas and check if the focal structure indicates that the image area is in clear focus. An indication is provided and/or remedial action is taken if the image processing algorithm indicates that any digital image areas are out of focus.

Abstract: A method for performing microscopy-based imaging of samples comprises: loading a sample holder (100) onto a support (50) configured to receive the sample holder (100); moving the sample holder (100) in a first direction, from a starting position on a first strip of the sample holder (100), to move the sample holder (100) relative to an imaging line of a line camera (10), to capture an image of the first strip of the sample holder (100); monitoring a focal plane using an autofocus system (15) as the sample holder (100) is moved in the first direction; in response to a signal from the autofocus system (15), moving an objective lens (25) along the optical axis to adjust the focal plane; and moving the sample holder (100) in a second direction, to align the imaging line of the line camera (10) with a position on a second strip of the sample holder (100).

Abstract: The present invention provides a method of recovering viable microbial cells from a complex sample, said method comprising: a) providing a sample having a volume of at least 1 ml; b) contacting said sample with a buffer solution and one or more proteases, wherein said buffer solution has a pH of at least pH 6 and less than pH 11, wherein said buffer solution and said one more proteases do not comprise a detergent or a chaotrope, and wherein the buffer solution/protease/sample mixture is non-hypotonic; c) filtering the mixture obtained in step (b) through a filter suitable for retaining microbial cells; and d) recovering the microbial cells retained by the filter in step (c), wherein the recovered microbial cells are viable, and a microbial recovery device for the same.

Abstract: A substrate for use in manufacture of a production master plate for production of a detection disc for carrying samples in an apparatus for detection of microscopic objects in a fluid, the substrate having a channel and separate focus structure, wherein the focus structure is a groove.

Abstract: The present invention provides a method of recovering viable microbial cells from a complex sample, said method comprising: a) providing a sample having a volume of at least 1 ml; b) contacting said sample with a buffer solution and one or more proteases, wherein said buffer solution has a pH of at least pH 6 and less than pH 11, wherein said buffer solution and said one more proteases do not comprise a detergent or a chaotrope, and wherein the buffer solution/protease/sample mixture is non-hypotonic; c) filtering the mixture obtained in step (b) through a filter suitable for retaining microbial cells; and d) recovering the microbial cells retained by the filter in step (c), wherein the recovered microbial cells are viable, and a microbial recovery device for the same.

Abstract: A portable apparatus and method for transport and incubation of a medical sample in a blood culture flask includes a sealable container having a thermally insulated compartment for receiving the blood culture flask and a heater for heating the medical sample to a temperature suitable for pre-culturing of the sample. An agitator is provided for agitating the sample in the blood culture flask.

Abstract: A method of image-based analysis of multiple samples includes using a sample holder having multiple locations of interest and multiple focal structures that are each associated, one or more, with the multiple locations of interest, wherein the multiple samples are dispersed across the multiple locations of interest and obtaining image areas of the multiple locations of interest. Multiple digital image areas are thus obtained for use in an analysis of the multiple samples with each of the image areas including at least one of the locations of interest and at least one of the focal structures. An image processing algorithm is used to analyse each of the digital image areas and check if the focal structure indicates that the image area is in clear focus. An indication is provided and/or remedial action is taken if the image processing algorithm indicates that any digital image areas are out of focus.

Abstract: An apparatus for moving a sample holder 110 on a platform 652 from a loading position, where the sample holder 110 can be removed from the platform 652, to a locked position, where the sample holder 110 is securely held, wherein the sample holder 110 rests on wheels 690a within a recessed portion 651 on the platform 652, wherein the apparatus is configured such that movement from the loading position to the locked position causes a vertical clamping means 653 to lower down on top of the sample holder 110, and a horizontal clamping 657 means to be pressed to the outer periphery of the sample holder 110, and such that that movement from the locked position to the loading position causes the vertical clamping means 653 to raise above the sample holder 110, and the horizontal clamping means 657 to be moved away from the outer periphery of the sample holder 110.

Abstract: A portable apparatus for transport and incubation of a medical sample in a blood culture flask includes a sealable container having a thermally insulated compartment for receiving the blood culture flask and a heater for heating the medical sample to a temperature suitable for pre-culturing of the sample. An agitator is provided for agitating the sample in the blood culture flask.

Abstract: An analysis instrument comprising a cartridge bay 20 for receiving a sample preparation cartridge 1, wherein the cartridge bay comprises: a first controllable heater 26 for heating a sample; a first temperature sensor for monitoring the temperature of the first controllable heater; and a second temperature sensor 28 for monitoring the temperature of the sample.

Abstract: A sample holder (10) comprises a sample chamber (33), a gas reservoir (32) and an upper layer (20) covering over the sample chamber (33) and gas reservoir (32), wherein a bottom surface of the upper layer (20) comprises a microstructure array (23) which overlies at least a portion of a top periphery of the sample chamber (33), and wherein the microstructure array (23) is in communication with a gas path which extends to the gas reservoir (32), to allow gas exchange between the sample chamber (33) and the gas reservoir (32).