Good morning. My name is Rachel, and I will be your conference operator today. Welcome to the Intellia Therapeutics second quarter 2020 financial results conference call. At this time, all participants are in a listen-only mode. Following the formal remarks, we will open the call up for your questions. Please be advised that this call is being recorded at the company's request. At this time, I would like to turn it over to Lina Li, Associate Director of Investor Relations at Intellia. Please go ahead.
Thank you, operator. Good morning, everyone, and welcome to Intellia's second quarter 2020 earnings call. Today, we are coming to you from different locations, and we ask that you please bear with us in the event that we have any audio interruptions on the call. Earlier this morning, we issued a press release outlining our progress this quarter and the topics we plan to discuss on today's call. This release can be found on the Investors and Media section of our website at intelliatx.com. This call is being broadcast live, and a replay will also be archived on our website. Before we get started, I would like to remind you that during this call, we may make certain forward-looking statements and ask that you refer to our SEC filings available at sec.gov for a discussion of potential risks and uncertainties.
All information presented on this call is current as of today, and Intellia undertakes no duty to update this information unless required by law. Joining me on today's call from Intellia are Dr. John Leonard, our Chief Executive Officer, Dr. Laura Sepp-Lorenzino, our Chief Scientific Officer, and Glenn Goddard, our Chief Financial Officer. Following their prepared remarks, we will be open for Q&A. For today's call, John will begin by discussing the company's highlights. Laura will provide an update on our R&D progress, and Glenn will review our financial results from the second quarter of 2020. With that, let me turn the call over to our CEO. John?
Thank you, Lina. Good morning, everyone. At Intellia, we continue to advance our full spectrum pipeline. We're addressing both in vivo and ex vivo conditions with our modular platform to develop curative genome editing treatments for people with life-threatening diseases. As a reminder, with our in vivo approach, CRISPR-Cas9 components are the therapy. Using our systemic lipid nanoparticle or LNP-based delivery system, we believe we have unlocked treatment of genetic diseases that originate in the liver. We've demonstrated we can selectively knock out disease-causing genes and precisely insert genes to produce normal human proteins for therapeutic purposes. A robust set of preclinical data supports the potential to treat genetic diseases with a single administration. With the durable nature of the edits we produce, we believe our approach will ultimately provide lifelong therapeutic solutions by supporting intervention early in the course of genetic diseases.
On the ex vivo side, we use CRISPR-Cas9 as a tool to create engineered cell therapies. There have been many advances in this space in the last few years, but we believe our T-cell receptor, or TCR-based approach, can truly redefine lymphocyte engineering and overcome many of the limitations of currently available cell-based immunotherapies. The encouraging preclinical data we've generated support our aim to target a variety of cancers as we've demonstrated our ability to produce a homogeneous, robust cell product designed to retain normal cell physiology. We're excited to move these approaches into the clinic, and today, we are very pleased to announce the submission of Intellia's first regulatory application. This first clinical trial application, or CTA, kicks off our strategy to initiate a global Phase I study of NTLA-2001 for the treatment of transthyretin amyloidosis, also known as ATTR.
This is our lead in vivo program and our CTA submission to the U.K.'s Medicines and Healthcare products Regulatory Agency, otherwise known as the MHRA, is a key milestone for this year, an important step in our company's mission to deliver the promise of CRISPR technology to patients. I'd also like to highlight that we anticipate NTLA-2001 will be the first systemically delivered CRISPR therapy to be dosed in humans, another significant milestone for Intellia and for the field of modern medicine. Laura will share more on our strategy for this potential single-course therapy for ATTR. Importantly, we remain on track to dose our first ATTR patient by year-end. We look forward to updating you once we have regulatory authorization and intend to share additional details on the phase I design at that time. Additionally, in June, we announced the expansion and extension of our existing collaboration with Regeneron.
The key components of the expansion are as follows. The joint development of genome editing treatments for hemophilia A and B, extension of the collaboration term until April 2024, with the option for Regeneron to renew for up to two more years, granting Regeneron rights to develop products for additional in vivo liver targets and non-exclusive ex vivo product development rights for defined cell types. In exchange, Regeneron made a $100 million payment consisting of $70 million cash and a $30 million equity investment purchased at a 100% premium over our average share price for the 30 days prior. This agreement builds on our existing collaboration and the progress we made together to permanently introduce a gene that produces a normal human protein. We were the first to demonstrate CRISPR-mediated target transgene insertion in the liver of non-human primates.
We've also shown that this approach generated normal or above-normal levels of circulating human factor IX, the blood-clotting protein that is missing or defective in hemophilia B patients. With our approach, the goal is to restore function where the effect is durable and lifelong, not just for adults, but also for children, a group with high unmet needs. This work, we believe, will address the limitations that typify viral-based gene therapy, where the gene is not permanently integrated into the cell. As a result, it's lost in organs where cell division levels are significant, which is undesirable in applications requiring long-term durability. With our targeted stable gene insertion, we believe we will address the waning of effect that occurs with traditional gene therapy. Our approach holds great potential for treating hemophilia and various other genetic diseases, which is especially important for those that manifest in childhood.
We look forward to working closely with Regeneron on our joint hemophilia programs, as well as progressing Intellia's wholly-owned targeted gene insertion programs. With the upfront payment from the collaboration expansion, along with the recent financing, we're in a strong financial position. We have the financial resources to drive our lead programs to early clinical data. This includes NTLA-2001 for ATTR, as well as our wholly-owned programs, NTLA-5001, which is our TCR T-cell therapy for the treatment of acute myeloid leukemia, and NTLA-2002, our in vivo knockout program for the treatment of hereditary angioedema. For both NTLA-5001 and NTLA-2002, IND enabling work is ongoing. We expect to submit a regulatory application for each in 2021. We're well-positioned to continue advancing our emerging pipeline and continuing to enhance our modular platform. Despite the challenging backdrop of COVID-19, the first half of 2020 has been incredibly productive for our team.
We've made tremendous progress, which builds on years of focus and commitment, and we have much still to look forward to in the second half of the year and beyond. I'll now pass the call over to Laura, who will take us through our program update. Laura?
Thank you, John, and good morning, everyone. I'm happy to share additional details on our pipeline progress. Beginning with our lead program, NTLA-2001, is in development for ATTR, a progressive and fatal disease caused by the deposition and build-up of misfolded TTR protein in multiple organs. People living with ATTR can have either the hereditary or wild-type form of the disease, which results in diverse disease manifestations, most commonly polyneuropathy and cardiomyopathy. NTLA-2001 applies our in vivo approach to knock out the TTR gene in the liver, which is the source of circulating TTR protein. Approved chronic therapies for ATTR have clinically validated the rationale for knocking down TTR, there is still unmet need for this highly under-diagnosed condition. We believe NTLA-2001 has the potential to halt and possibly reverse the disease with a single course of treatment.
Moreover, based on our preclinical data, we believe it offers a differentiated profile along with reduced treatment burden, in contrast to currently available chronic therapies. As John shared, we recently submitted our first CTA for this program to the U.K.'s health authority to begin our first-in-human study. As part of our global development strategy, we're submitting additional regulatory applications to enable enrollment in multiple countries, and we're working closely with leading ATTR treatment physicians to conduct this global phase I study. The CTA in the U.K. is currently under regulatory and ethics committee review. As NTLA-2001 is an advanced therapy medicinal product, this process could take up the 90-day statutory timeline. Pending CTA authorization and subject to the impact of COVID-19, we remain on track to dose the first patient by year-end.
As previously shared, the phase I trial will be a single ascending dose study in ATTR patients to assess the safety, tolerability, and pharmacokinetics of NTLA-2001. Given the readily observable serum biomarker, we will also be able to assess pharmacodynamics by monitoring the decrease in circulating TTR protein levels. As John noted, we plan to share more details about our phase I study design upon regulatory authorization for our pioneering first-in-human study. Moving on to NTLA-2002, our wholly-owned in vivo therapy in development for the treatment of hereditary angioedema, or HAE. HAE is a rare genetic disease characterized by recurring, painful, and unpredictable edema, which can occur in any part of the body. For example, those suffering from HAE can die of asphyxiation due to airway obstruction.
For other acute and prophylactic therapies for HAE, the treatment burden on patients is still significant. We believe there is room for additional clinical efficacy. Today, we're pleased to share updated data from an ongoing durability study in non-human primates. Following a single dose, we continue to achieve sustained reduction in plasma kallikrein protein and activity levels through 10 months. If translatable to patients, these reductions of up to approximately 90% are expected to be highly efficacious and durable in preventing HAE attacks. IND-enabling activities are ongoing. We're on track to submit a regulatory application for NTLA-2002 in the second half of 2021. Switching now to our ex vivo efforts in immune oncology. Here we're using CRISPR as a tool to create engineered cell-based therapies.
We employ a unique TCR-based approach that we believe harnesses the full therapeutic potential of T cells to attack tumor cells to address a variety of cancers. The key elements of our approach are the identification of high-avidity, naturally occurring TCR sourced directly from a healthy donor, coupled with our proprietary engineering process that allows us to introduce multiple sequential edits with high efficiency and precision. Notably, we're capable of engineering T cells without introducing undesirable changes to their chromosomal architecture, while we wire them with the functionalities required for efficient and durable antitumor activity. As we presented at the American Society of Gene & Cell Therapy's annual meeting in May, our sequential editing approach achieves removal of endogenous TCRs from greater than 98% of all T cells.
To generate a homogeneous and potent cell product with high antitumor activity, we essentially create a blank slate for the efficient insertion of the therapeutic TCR and reduce the risk of mispairing with the native endogenous TCR. Further, our engineered T cells carry favorable cell attributes. These include high viability, excellent expansion potential, and a large proportion of memory T cells, which is a highly desired characteristic associated with prolonged T cell persistence. Our proprietary process has already been applied to NTLA-5001, our engineered T cell therapy candidate targeting the Wilms' tumor 1 or WT1 antigen. It also paves a way for us to introduce more complex edited T cells, including allogeneic T cells and T cells to overcome the barriers presented by the solid tumor microenvironment.
In a second presentation at ASGCT, our research collaborators at Ospedale San Raffaele showed preclinical in vivo data demonstrating that WT1-directed TCR-T cells led to decreased AML tumor burden, substantiating the therapeutic potential of our engineered TCR-T cell approach and NTLA-5001. We're initially developing NTLA-5001 for the treatment of AML, as WT1 is overexpressed in over 90% of AML patients, regardless of driver mutations and disease subtypes. Although treatments developed over the past several years have led to improved response rates in AML, long-lasting responses are infrequent, with overall five-year survival remaining below 30%. Based on our preclinical data, we believe that NTLA-5001 could deliver a well-tolerated treatment that improves long-term outcomes for AML patients. We continue to advance NTLA-5001 toward the clinic and remain on track to submit a regulatory application in the first half of next year.
Finally, we continue to make significant progress across our platform and research programs. This includes evaluating the same WT1-targeted TCR construct for potential use in multiple solid tumors, advancing our allogeneic platform, and expanding our ex vivo capabilities with a recent license and collaboration agreements with Teneobio and GEMoaB. Regarding our in vivo research, we continue to advance the development of CRISPR-mediated targeted transgene insertion for our wholly-owned programs and in collaboration with Regeneron for hemophilia A and B. We believe our insertion technology offers a differentiated approach to traditional gene therapy, including the ability to intervene early. Our broad platform innovations and expanded capabilities, both in vivo and ex vivo, will drive the next wave of differentiated clinical candidates. With that, I would like to now hand over the call to Glenn, who will provide an overview of our second quarter 2020 financial results.
Thank you, Laura, good morning. I'll begin with a brief review of the financial terms of our expanded Regeneron collaboration. As John noted, Intellia received $100 million through a $70 million upfront payment and a $30 million equity investment at $32.42 per share. We expect a majority of these proceeds to be deferred and recognized as revenue over the extended research collaboration term. In addition, we remain eligible to receive up to $320 million in downstream milestones and royalty payments on any in vivo targets Regeneron independently develops, as well as potential royalty payments on any ex vivo products commercialized. In early June, we also raised an additional $115 million in gross proceeds from a public offering of common stock.
Overall, we had a very productive quarter from a fundraising perspective, and Intellia is in a very strong financial position. Our cash equivalents and marketable securities were $436.8 million as of June 30th, 2020, compared to $284.5 million as of December 31st, 2019. The increase was mainly driven by net proceeds of $122.4 million from financing activities and $100 million from the expanded Regeneron collaboration, offset in part by cash used to fund our ongoing operations of approximately $86.5 million. Our collaboration revenue increased by $5.1 million - $16.3 million during the second quarter of 2020, compared to $11.1 million during the second quarter of 2019. This increase in collaboration revenue was mainly driven by an $8.4 million one-time cumulative catch-up adjustment related to the expanded Regeneron collaboration.
Our R&D expenses increased by approximately $12.3 million to $37.8 million during the second quarter of 2020, compared to $25.5 million during the second quarter of 2019. The increase was driven by IND-enabling activities related to our lead programs, research personnel growth to support these programs, as well as the expansion of our development organization. Our G&A expenses decreased by $1.6 million - $11.5 million during the second quarter of 2020, compared to $13.1 million during the second quarter of 2019. This decrease was mainly driven by reduced legal expenses. Finally, we expect our cash balance to fund our operating plans through at least the next 24 months. Now I will turn the call back over to John to briefly summarize our upcoming milestones and corporate updates.
Thanks, Glenn and Laura, for the updates. We continue to make rapid progress across our pipeline to develop treatments for severe genetic diseases and cancer, highlighted by our first regulatory submission for NTLA-2001. With the expansion of our Regeneron partnership, we continue to advance our targeted insertion capabilities and are well capitalized to progress our wholly-owned and partnered programs towards the clinic. Looking ahead to the balance of 2020 and beyond, we have several milestones upcoming as we look to carry this momentum forward. In summary, for NTLA-2001, pending regulatory authorization and subject to COVID-19 impact, we expect to dose our first ATTR patient by year-end. For NTLA-5001 and NTLA-2002, we continue to advance IND-enabling activities and anticipate submitting a regulatory application for each program next year. Again, I'd like to thank you all for tuning into the call today.
We will now open the line to any questions. Operator?
Your first question comes from Maury Raycroft from Jefferies. Please go ahead.
Hi, everyone. Good morning and congrats on the milestone today. Great to see that. I'm wondering if you could provide more details on plans for submitting additional regulatory applications in different countries, and just anything additional on the global strategy, including the total number of sites.
Maury, it's John. Thanks for the question. Obviously, we're very excited about beginning, and this is obviously a milestone for the company. We're beginning in the U.K., and we do have plans that are actively underway, as we speak, submitting to other countries. We're not going to disclose which those are today, but we'll be in a position as this unfolds to give you updates. As we've said, when we're in a position of having a final approved protocol, we'll go through all the details of that so people understand exactly patient populations, how we're going to proceed in that protocol and how we would share information as it proceeds. Lots to do yet, but we are very excited that we'll be in the clinic this year and should be dosing patients before the end of 2020.
Got it. Okay. It seems like you're not providing much more on the trial plan, including patient types that you're going to go after. Maybe around the application submission, can you say whether we should expect that to come through within 90 days, or do you think it would be sooner than 90 days? I guess, can you give any more perspective on when you submit it?
It's hard for me to predict exactly the day that we will have approval. The U.K. has its own statutory guidelines in terms of the progression of the review. We're into the review. There are different twists and turns that it can take. It's a little hard for me to project. It's a little different from the way things are done at the FDA. The way we're thinking about it is there's plenty of time to complete the review and move into patients and dose them. When we have that final information, we will go through all the questions that you and others have about patient population and so on and so forth. It's a little premature to do it at this point.
Got it. Understood. I had a question on WT1 as well. Just wondering if you can provide more perspective into what you're evaluating and some of the gating factors for your decision to pursue solid tumors with WT1.
Yeah. In a nutshell, I'd say it this way. There's two aspects to that program. For the listeners, just to remind everybody, WT1 is an attractive target, especially for AML, but it does apply to a variety of different solid tumors. We've focused our work on AML thus far. We've been characterizing different solid tumors. We believe that there'll be a set of them that WT1, in the current format, will be applicable for. Right now the focus is to get up and running for AML and have the solid tumors progress shortly thereafter. As we finalize our plans in terms of exactly which tumor types, we'll share that in upcoming months, Maury.
Got it. Last quick question, just wondering if you can provide any more specifics or anything on timing for the agreements with Teneobio and GEMoaB.
The way we think about those two companies is that they really expand our platform capabilities. You may know that they have some very innovative approaches with respect to targeting moieties and the interchangeability of them that can be put on lymphocytes. As we look down the road and think about the TCR work we're doing, and then going in addition to that and beyond that, and even thinking about some of the autoimmune type diseases, we think that kind of functionality is going to be really important for those efforts. We'll leave the deal specifics out, but it's an early research collaboration that we're quite excited about at this point.
Got it. Okay. Congrats again, and thanks for taking my questions.
Thank you.
Thank you. Your next question comes from Gena Wang from Barclays. Please go ahead.
Hi, this is David Dai on for Gena. I want to add my congrats on the current progress. My first question is on the ATTR program. If you're planning for a dosing by year-end this year, would it be fair to assume that we will see data early next year?
It's hard to schedule exactly when data will come out because it's going to be tied to enrollment of patients, adequate observation, and our overall philosophy of having information that's going to be meaningful and generally applicable to the work. I'd just remind you, David, that the trial is a single ascending dose study where one begins within a therapeutic window, but probably on the lower end of that, and we do some dose finding. The particular dose that gives us the most relevant clinical information is something that will unfold during the course of the trial. Yes, we expect to get that information and do so as efficiently as possible. When we have it in hand at the appropriate time, we'll disclose it, most likely in a medical meeting.
Got it. Very helpful. Second question is on the collaboration with Novartis for the sickle cell disease. Can you just provide some more color on the target? How do you see your platform differentiate from other CRISPR-based approaches? When should we expect an update from the program? Thank you.
Thank you for the question. Just to remind everyone, we had a research collaboration with Novartis. Out of that work has emerged a development candidate, which Novartis controls and speaks for. In terms of updates, specifics of the target, the clinical trial, and its progression, that is for Novartis to say. I know there's some information that's been posted on ClinicalTrials.gov, and I would direct you there for some of that early information. Intellia is not going to be in a position to characterize that further.
Got it. Thanks for the color.
Thank you. Your next question comes from Madhu Kumar from R.W. Baird. Please go ahead.
Hey, thanks for taking our question. Related to the CTA filing in the U.K., what have you learned from earlier gene editing regulatory filings to the U.K., like I think with the Sangamo hemophilia B trial? What are the considerations you have for that regulatory submission to kind of make things go smoothly based on previous history?
We've interacted with a variety of regulatory agencies, Madhu. There's a lot of enthusiasm for gene-based clinical activity. That's been really heartening and exciting. In the case of the U.K., we've been really impressed for how they think about this and the integrated approach that they have across many levels of their healthcare system and government for trying to facilitate this work. We were enthusiastic about working with them because we thought we could get clinical work done very, very efficiently. We've interacted with investigators there. We've certainly interacted with the healthcare authorities, looking ahead to the sort of information that they wanted. We've tried to characterize that for them in the best possible way. We think we have a very strong filing. It's under review now. As it unfolds, we'll react if they have questions.
They're experienced, and I think they know very clearly what they want.
While you obviously are going to give more details about the trial once you get regulatory clearance, in broad strokes, how do you guys think about the ongoing COVID pandemic in the implementation of a clinical trial? Is it really gearing towards home visits and gearing away from hospital visits at all possible? How are you thinking and planning around those eventualities?
Yeah. Thanks for the question. I think we all know COVID's a reality that we have to be mindful of. In a first-in-human study, there's a necessary confinement period where patients need to be in the clinic. I think we're somewhat advantaged in that our trial's beginning after some of these approaches have been worked out by people that have gone before us and, some of the local actions that need to be taken with the sites that we're working with. We've tried to make provisions for virtual assessments and to the extent possible, distant monitoring of patients. There is a phase where it's absolutely necessary that patients who are in the trial will have to come into the clinic, and that's unavoidable. I think that that's realistically not going to be an impediment to enrolling this trial. It's a small trial.
It's first in human, and we're looking for some very intensive information early on so we can make decisions about how to progress to phase II and pivotal work thereafter. I think we'll be in pretty good shape, Madhu.
Okay, great. Thanks very much.
Sure.
Thank you. Your next question comes from Steve Seedhouse from Raymond James. Please go ahead.
Yes, hi. This is Timur Ivannikov on for Steve Seedhouse. Our first question is to follow up on your filing. John, could you talk about why you decided to file with MHRA first versus other agencies? Was that the thinking for a while, or is there any recent changes due to COVID or other considerations?
Yeah, thanks for the question. COVID really is secondary to our considerations, in terms of the particular set of agencies to work with. We've invested a fair amount of time over the last couple of years, getting to know regulators, especially in countries where these sorts of patients are more prevalent. As I said in response to one of the earlier questions, there are certain agencies that are very familiar with gene-based medicine, enthusiastic about advancing it very efficiently. Some of the countries have central referral centers with single investigators that serve as catchment for an entire country. When you take all of the considerations together, MHRA and the U.K., frankly, emerged as a very attractive site to include in our trial. It's not going to be the only site. There are other agencies in countries that meet those criteria as well.
As a place to get going and to collect clinical trial information very efficiently, we thought it was a great way to begin.
Okay. Got it. Thank you. A few questions about your Regeneron deal update. It looks like hemophilia A and B appears to be the lead asset in the deal. Did you partner this asset because the fields have gotten more competitive? Could you remind us whether you have animal data comparing longer-term durability of gene editing versus gene therapies?
Yeah. Two parts to your question, durability and why to partner. Remember that the Regeneron deal has two parts. The earlier stage, going back to 2016, which has had a very extensive collaboration phase to it. Hemophilia B was already in that particular collaboration. We presented data with Regeneron elsewhere showing the progress that we've made with targeted transgene insertion and, not only the extent of factor IX levels that are produced, but some of the information on durability as well. This seemed like a natural extension of work that we had done together, where we could build on the foundation of science that we had built together, by bringing factor VIII into it.
It is true that there's a fair amount of competition in the hemophilia space, but our thesis starts with the notion that, to prevail in the end by having the single best option for patients, it's important to have a stable transgene that's integrated into the chromosome that doesn't decline with time. When you think about what hemophilia is, a disease that begins in childhood, it really limits where gene-based therapy or, typical gene therapy that's delivered by a virus is able to go. By having a stably introduced transgene and ultimately delivering it in childhood. We think that that is the single best solution for the disease and would be superior to the other options that are available.
Now with respect to durability, other work that we've done, some of which is a provocative testing of hepatic turnover, shows that we would anticipate durability would be essentially lifelong. We think that that is a key advantage for our particular approach. We think we've got a lot to offer in the space and are progressing rapidly.
Okay, thank you very much. We do have one more quick question. Recently, we've seen success of mRNA-based COVID-19 vaccines that use LNP encapsulation, and since you also use that in your programs, could you see yourself perhaps going into the development of RNA-based therapeutics, without Cas9 or maybe even licensing out your LNP technology?
If I could change the verb in your question from could we see to could we imagine ourselves, it's possible to imagine that because your thesis is right. Some of the underlying technologies are the same. However, the way we set the company up, as we looked at applying that technology to the disease, we thought that others were further along and that we would not have the same sorts of advantages to offer to the public in a sufficiently rapid pace to compete. Thus, we decided to focus on what we're best at, and that's the pipeline that we're talking about.
Okay. Thank you.
Sure.
Your next question comes from Jay Olson from Oppenheimer. Please go ahead.
Hi. Congrats on all the progress, thanks for taking my questions. Based on the evolving treatment landscape in ATTR, all the approved treatments and those in development, you spoke about unmet needs. I was wondering if you could outline the key unmet needs that you hope to address specifically with your 2-0-0-1 program.
Right. We think that the product offers some highly differentiated advantages for patients with ATTR, starting with the extent of the effect that we believe that we're going to be able to achieve if we can extrapolate the work that we've done in animals to humans, which we're on the verge of learning if that's possible, this new clinical work. I would not underestimate the importance of a single application or so-called one and done, where a patient can avoid lifelong applications of whatever other modality is being provided, including some of the concomitant medications that are provided. I think that we're gonna be in a position where we have an advantageous economic offering that lies ahead that we can compete with those agents that are out there. I think it's possible to imagine even combined use, if that's appropriate.
While it's clear that progress has been made in ATTR, we're still waiting for medications that reverse the course of the disease, and we're anxious to find out if our offering will be able to do that.
Great. Thank you for that. It was super helpful. At ASGCT, you mentioned that you can activate both CD8 T cells and CD4 T cells. I was wondering, for your NTLA-5001 program, if you could provide some insights into how you've achieved that type of differentiation over other T cell therapies.
I would say that that's a function of the quality of the editing that we've been able to do, the high levels of transduction that gets into all of the cell types, and some of the specifics that are related to the T cell receptor itself. It's an added advantage to the program. It's something that we were delighted to see in our work. We would expect that that will only help the efficacy of the program going forward. I think just stepping back from what we're doing here, what we're talking about with respect to this particular program, it's a testimony to the quality of the science and the high levels of editing and gene transduction that we're able to achieve. I think that's gonna play out in many other aspects of the program as it unfolds.
Great. Congrats again on the progress, and thanks for taking our questions.
Sure. Thank you.
Thank you. I'll now hand back to Lina Li for closing remarks.
Thank you all for joining today's call and for your continued interest and support. We look forward to updating you on our progress. Hope everyone has a nice day.
Thank you. That does conclude our conference for today. Thank you for participating. You may now disconnect.