Thanks very much, Cameron, and good morning, everyone. I'd like to start by providing a little more color and detail to the Capture-Seq project. We've recently submitted a paper on this describing an entirely new liquid biopsy method to analyze blood samples to find DNA from cancer cells. This is not a new way to target the same cancer-derived DNA targeted by other tests. Instead, we target an entirely new class of cancer-derived DNA. This represents an entirely new class of cancer biomarkers with hundreds or possibly thousands of new targets, all of which are ignored by current methods. We have isolated this previously ignored DNA from blood and removed the background DNA. This is important because background DNA is the single biggest problem in current liquid biopsy methods and nobody has ever previously managed to remove this background; however, our new method isolates just the DNA we are looking at with 180-fold concentration. That's an 18,000% enrichment and removes more than 99.5% or almost all of the background DNA. This is a great result, but it would be easy to throw away the baby with the bathwater. That didn't happen. We retained 48% of the target material for analysis with almost all the background DNA removed. This is the first. It's never previously been achieved in liquid biopsy. Our new Capture-Seq method is extremely exciting, and I personally believe it may become commonly used worldwide, both in the detection of cancer and in cancer patient management. The focus of the paper we've submitted is scientific rather than clinical and showcases what we believe is a revolutionary new liquid biopsy method for detecting cancer DNA in blood. So how is it revolutionary or different to existing biopsy methods? Well, the vast majority of DNA circulates in the blood as nuclear proteins called nucleosomes, and most of this is actually background; however, small amounts of DNA also circulate bound directly to epigenetic regulators called transcription factors. And this DNA, as I say, it's ignored by present methods is our target. Some transcription factors bind to different DNA locations in the genome or DNA sequences in the cells of cancer patients; however, their isolation from blood has never previously been successful. And consequently, the different transcription factor binding that occurs in cancer has never previously been measured in blood samples. We have now succeeded in isolating transcription factors from blood plasma and found hundreds of transcription factor bound DNA sequences in the plasma of cancer patients that are not present in the plasma of healthy people. As I said, these new sequences represent an entirely new class of cancer biomarkers with hundreds or maybe thousands of new targets available to science for the first time, and Capture-Seq is an entirely new way to analyze blood samples to find them. So the next step was then to establish a proof of concept for cancer detection by transcription factor occupancy measurement in blood using Capture-Seq. The technical details will be published in the paper when it comes out, but the transcription factor we've worked on is called CTCF, and we've shown in a small number of patients that a panel of plasma CTCF ChIP-Seq results identified patients with cancer with 100% sensitivity and specificity. In lay terms, we detected all the cancers with no false positives. That was very encouraging, and we have good reason to believe Capture-Seq will be accurate and economic in routine use. Although we focused on one particular transcription factor, CTCF, this may be a pathfinder for many other similar tests using other transcription factors that are important in particular cancers. An easy example would be the estrogen receptor as a transcription factor in breast cancer. And perhaps most importantly, this new transcription factor DNA method may be used alone or in combination with other existing methods to bring multi-omics cancer DNA testing to patients for patient management and for early cancer detection. As Cameron mentioned, we're in many confidential discussions, and this is certainly proving a hot topic. So scientifically, a great step forward and hopefully, one which will translate into real-world clinical benefits for patients. We will, of course, update you more fully once the paper is out. I also wanted to take the opportunity to update you on a few other Q3 activities. I was very fortunate this quarter to visit our key collaborators in our lung cancer product development programs. In August, I met with Professor Chen and his team as well as the screening program leaders at the National Taiwan University Hospital in Taipei. During the visit, the IDS-i10 analyzer, which is the automated platform for our tests, was installed in NTU's laboratory and training was provided by 2 of our team to progress their validation study for lung cancer screening. They've also performed some analysis regarding use of the Nu.Q H3K27 [ TriMethyl ] test in prognostication of diagnosed lung cancer patients in studies similar to our previous collaborative studies in France. I also visited our colleagues in France who are continuing their work using Nu.Q [ H3K27 TriMethyl ] in lung cancer, and they're now expanding into other cancers. The clinical lung cancer patient management results in France are consistently excellent, and we're preparing for the introduction of Nu.Q [ H3K27 TriMethyl ] test in clinical practice in a group of hospitals in France. There will also be quite a few upcoming publications in cancer in the near future. In August, we also published a paper showing the utility and reliability of our Nu.Q NETs assay, and we expect further publications from ourselves and from collaborators over the coming months in NETs. So a lot of activity. And with that, I'll hand over to Terig for the finance.