Panna Sharma
Analyst · Colliers Securities
Thank you, Marek, and good morning to everyone on the call today. Thank you for joining us and taking the time to participate in our first quarterly call as a publicly traded company. I appreciate the time you all are taking to listen in to our conference call or our webcast, and I also want to take a moment early on to thank some of our frontline service workers, essential service and care staff, and of course, everyone in our health care and hospital systems. I know this is a particularly challenging time for many of us, especially as the global numbers for COVID have reached over 15 million. And I'm fully confident though that we'll be able to collaborate to conquer COVID-19, and also the multitude of issues it has exacerbated in our economy and society.
Given all that though, today, we are experiencing and living in the beginnings of a golden age of artificial intelligence, an era where the availability of relevant data, computing power, cloud resources, on-demand sequencing, talent and the acceleration of AI and large-scale data analytics and algorithms, along with economic and investor demands have aligned to make large, data-driven, highly-responsive, machine-leveraged approaches to solving complex problems of reality.
Every industry in almost every profession is experiencing the changes and benefits of this transformation. Drug development and drug discovery is one of the industry segments that is still in the early phases of this approach, and has the potential to be one of the largest manufacturers of this golden age of AI, as this approach can be used to massively increase the productivity of our efforts while significantly reducing the costs and risk in oncology drug development. Lantern is at the forefront of this model of AI-driven transformation in the area of targeted oncology drug development, which we believe will have the potential to yield improved outcomes for cancer patients globally.
Our business model at Lantern is to leverage the power and potential of artificial intelligence to help us both rescue and develop drug candidates. We have 3 drug candidates in our portfolio today. And also, we are identifying new potential drug candidates or combination therapies that we can pursue as potential drugs that can be rescued and developed using our data-driven approach.
In addition, the core RADR engine is able to help generate a very robust biomarker or genomic signature that can eventually be used as a companion diagnostic to help enroll, stratify and select patients that have the greatest potential to benefit from our therapy, both during late-stage clinical trials and eventually as a commercial diagnostic. We believe that by combining these leading AI and genomic capabilities, along with our highly experienced senior leadership team, all of whom have been focused purely in oncology for an average of 15-plus years, gives our company a very unique position to transform the cancer drug development process. It's an area that we all at Lantern feel very passionately about.
Our team is half cancer researchers and biologists and half data scientists and AI professionals. It's a combination that we believe is uniquely assembled to solve the interdisciplinary problems of data-driven cancer drug therapy development.
Shortly after our IPO closed on June 15, where we raised 26.3 million, we announced that our proprietary AI platform for precision oncology drug development, RADR, surpassed 450 million data points. That was roughly 6 months ahead of our previous plans. We've now crossed over 500 million and expect to cross the 1 billion mark in the next few quarters. Our current roadmap has us reaching 3 to -- over 3 billion on our current trajectory.
All of this data is curated specifically for oncology drug development and drug response prediction. This data comes from a variety of sources. In the slides that were distributed earlier this morning and are available on our website, we detailed some of the sources. But these include open-source scientific and clinical data sets that get normalized and cleaned, data that we create and collaborative efforts with our research partners to look at drug sensitivity, to look at the genomics of cancer, to look at sequencing response. And then also our own proprietary studies from sequencing campaigns, drug sensitivity studies, cell assays and also from trials that we are pursuing.
And finally, this data also comes from historical studies and trials in the relevant compounds or drug classes of interest to us. This can come again from a variety of sources, both from publications, but also from the companies from which we buy or acquire the therapeutic.
It is important to note that nearly 2 years ago when I first joined the company, we were just approaching about 10 million data points, all from open source and only covering a handful of drug classes. Today, our platform has data spanning over 144 drug tumor interactions across over 95% of the known, approved compounds in oncology and has been significantly enriched in several areas where we are pursuing our own therapeutic development.
Our team constantly seeks out experienced industry partners, top-notch collaborators that can help us further develop our AI platform, our models and further develop and validate our approaches and algorithms. These approaches and algorithms are critical since they provide the insight to the biomarker signature and insight that guides the accelerated drug development process that our company undertakes. Our goal today is to add an additional oncology development program each year through a partnership, collaboration or in-licensing of an additional compound. We believe that this constant, disciplined cycle of identifying, securing and developing a potential targeted therapy can create meaningful value for our investors while exploiting the full potential of our growing AI platform.
Our pipeline today is small oncology -- small molecule oncology assets, includes new compounds that we have identified through our biomarker discovery efforts, as well as 2 compounds with extensive clinical experience that we acquired from after previous owners had abandoned development efforts following Phase III failures. Our RADR AI platform underpins all of these efforts. And as the quantity and quality of our AI data and algorithms grow, we are confident that so too will the value of our transformative business model. This data-driven, genomically-targeted and biomarker-guided approach allows us to pursue a transformational drug development strategy that identifies, rescues or develops drug candidates that we believe can be done at a fraction of the time and cost associated with traditional cancer drug development.
Importantly, 2 of the drug candidates we are developing and that are in clinical stages have extensive clinical histories that we can leverage. These include data in safety, tolerability, history tolerability in patients, history of efficacy in certain patient groups and, of course, data from clinical trials. Unfortunately, these drugs did not meet the primary endpoints being pursued in the Phase III trials, but they did have notable improvement in outcome for certain patients. It was, however, unclear how to stratify for these patients. And in one case, an indication was pursued without full understanding, that a genomically defined subtype of that disease could have been more responsive.
Again, these trials were conducted several years back and the knowledge about the genomics of cancer and the computational approaches have advanced significantly. More importantly, there's so much more data out there today that also has changed some of the regulatory environment to allow for these precision and, more importantly, personalized therapeutic trials.
At the heart of all these problems, this is really a data analytics effort, the data problem, oftentimes an incomplete and overwhelmingly uncorrelated data sets. This is a perfect problem area for AI and a perfect problem area for cancer biologists that are computationally driven to help guide and supervise the AI. At the core, this is what our company does.
Additionally, we are using these drug candidates because they have a substantial body of data that can be mined to illuminate potential mechanisms of action that can aid in efficiently driving our biomarker discovery studies to pinpoint the cancers and the subtypes of patients where these drugs can be best focused. These insights then help guide targeted clinical trials in stratified patient groups that can hopefully demonstrate statistically meaningful results. Our dual approach to both develop de novo biomarker-guided drug candidates and rescue historical drug candidates by leveraging the data sets in our platform along with the continuous advances in genomics, computational biology and cloud computing is emblematic of a new era in drug discovery and development, one that we are very excited to be participating in and pioneering.
Leveraging our AI platform-based approach to potentially derisk, focus and accelerate the drug discovery and development process is a central value proposition for investors and one that will help both our current portfolio but also future compounds that we have the opportunity to collaborate or in-license.
In this context, we are focused on building a portfolio of targeted potentially high-value oncology drug candidates, each of which has the potential to be a partner for pivotal registration trials in later phases, providing a defined path for potential significant value creation for our investors and more importantly, for cancer patients.
Turning to our [ current ] compounds in active development across 4 programs. The first LP-100, the most mature, also known as Irofulven, is in an active Phase II trial that is using a genomic signature, measuring gene expression and a targeted set of genes to guide enrollment in a prostate cancer trial. LP-100 is a drug candidate that exploits cancer cells' deficiency and DNA repair mechanisms, and the trial is being managed and sponsored by our out-licensing partner, Oncology Venture, a European biotech based in Denmark. LP-100 is in an active Phase II trial for metastatic hormone refractory prostate cancer. We expect that results from the ongoing Phase II trial will be available for us to report in the first half of 2021.
LP-300, formerly known as Tavocept, is being prepared to enter a Phase II trial for non-small cell lung cancer in never-smokers, which many researchers today have characterized as a hidden but rising disease. The incidence of lung cancer, and non-small cell lung cancer, in particular, is rising among never-smokers and also is a significant clinical need, especially among women and in certain Asian populations.
Our review of the data and literature shows that nearly 20% of the global cases of non-small cell lung cancer, NSCLC, are now occurring in never-smokers. It is important to note that nontobacco-based lung cancer and NSCLC in particular has a very different molecular and mutational profile as compared to lung cancer and smokers. We believe that this was partly one of the reasons that the primary endpoints were not achieved in historical clinical trials.
So we are planning on initiating a Phase II clinical trial with key research centers and KOLs to look at this drug in this population as a combination agent with chemotherapy in patients that do not qualify for other targeted therapies or have become unresponsive to prior treatment regimens. It is important to note that based on retrospective analysis from both prior Phase III and Phase II studies, certain subsets of patients, including nonsmokers, showed a significant increase in both progression-free and overall survival. But those trials were not focused on these subsets of patients or indications, and therefore, the drug was not advanced in a more targeted fashion.
Today, we have a better appreciation of the genomics of lung cancer, of non-small cell lung cancer, the variety of biological pathways and proteins that are involved in all the subtypes of cancer -- lung cancer. And then we can now devise a biomarker-driven approach that can help stratify these patients into a potentially more responsive and nuanced group. And we believe that would be a statistically meaningful group and more importantly, help these patients survive longer and derive benefit from this therapy.
Our third molecule, LP-184, is an active development in 2 programs. LP-184 is a highly potent DNA damaging agent in the acylfulvene class of compounds. And now we believe this works very selectively in certain solid tumors that overexpress PTGR-1 or have a certain genomic profile. And it also works in certain CNS cancers.
The first program is focused on site-agnostic solid tumors. So this is based on the tumor occurring anywhere in the body, but as long as it has the genomic profile that matches, so this would be a targeted, genomically-driven drug or biomarker-driven drug, much like many of the new small molecules that have been approved over the last several years.
So we're leveraging our RADR AI platform to study and clarify the signature of response prediction across several solid tumors. This is a preclinical program. We have published posters of both ASCO and AACR. These are available on our website, describing some of the signature details and results, and also some of the preliminary studies that show this highly-potent, in fact, nano-molar potency, targeted efficacy in these certain solid tumors.
We also have published a signature that we believe correlates with response. LP-184 belongs to the folding class of compounds and has already demonstrated increased plasma stability, reduced total body clearance, significantly longer half-life and potentially greater tumor regression than other known folding based compounds across a number of preclinical studies.
Importantly, LP-184 has demonstrated high nano-molar potency and the ability to cross the blood-brain barrier. This opens up a potentially high value and important opportunity to help patients with certain glioblastomas. Approximately half of all glioblastoma patients today currently fail existing standard of care therapy. We are currently conducting numerous preclinical studies of LP-184 and preparing for launching IND-enabling studies in 2021, which we anticipate will lead to the start of the Phase I/II trial in 2022. Further work on these biomarkers, both in clinical and in preclinical studies, will help establish a genomic signature that may accelerate our time to a clinical trial to also derisk and focus our development efforts and ultimately help guide patient selection and bring this drug where it's needed, which is to patients with certain genomically defined cancers.
We believe the market for our drug candidates, LP-100; LP-300; and LP-184 as focused small molecule oncology therapies, could be several billion U.S. dollars per year in the top 10 medicine markets alone. As the studies and trials develop further and get increasingly focused and mature, we will provide updates to investors and to press about these efforts.
After completing our IPO, we've also been developing our AI, data science and biology and development teams, but plan on keeping our efforts very focused and leverage partnerships and the high-quality on-demand services from select labs, CROs and CMOs, Establishing and managing these partnerships and networks will be an essential part of our growth model, and we will provide investors updates from time to time on how these efforts are progressing and how they help in our mission of getting the right cancer treatment to the right patients faster and with reduced economic burden and higher investor yield.
By bringing together our current portfolio of drug candidates and our RADR AI platform, Lantern provides the potential for multiple shareholder value-enhancing milestones over the coming quarters and years, and also significant upside in potential future deals as a result of our platform-centric approach to identifying and developing new compounds for development.
Now I'll hand the call over to our CFO, David Margrave, for a review of our second quarter results. David?