Michael W. Hunkapiller
Analyst · Morgan Stanley
Thanks, Trevin. Good afternoon and thank you for joining us today. We are continuing to make progress against the plans we laid out earlier this year. Highlights of our third quarter achievements are as follows: We booked orders for 4 new PacBio RS systems, up 3 from the 1 order we booked during the second quarter; our recurring revenue grew sequentially despite the effects of typical season summer seasonality; we launched our automated mag bead station for the PacBio RS during the third quarter as we had planned and we have upgraded nearly all the systems in the field; finally, we continue to see numerous scientific papers published highlighting the advantages of the PacBio RS. In just the past few months, there have been 11 papers published in journals such as Nature, Nucleic Acids Research, Genome Research and the International Journal of Cancer. Now, I'd like to take this time to review the priorities we established at the beginning of the year and then highlight the progress we've made on those priorities. Those priorities are: one, improving system reliability and performance; two, delivering a series of product enhancements; three, providing full customer solutions including front-end sample prep and back-end bioinformatics; and four, focusing on the key applications where we add significant value, which are de novo assembly, targeted sequencing and base modification analysis. We are very pleased with the progress we have made over the course of the year on these priorities. In terms of system reliability, we've come a long way in just a few quarters. Beginning of the year, our customers were having issues that stem from hardware and software bugs as well as training. In many cases, this resulted in low system availability and low utilization. Since then, we upgraded the installed base with a comprehensive release called C2, which included a host of reliability improvements and we have continued to provide focused training and support through our field and technical support organizations. While we will always continue to work to improve reliability, our system uptime is now very good and comparable to that of some of the more mature life science tools. We are pleased that system reliability is not the pressing issue it was at the beginning of the year. We've also made excellent progress throughout the year on improving system performance to product enhancements. In the first quarter, we launched our C2 release, which doubled the read lengths to approximately 3,000 bases on average, with 5% of those reads above 8,000 bases. Our C2 release also significantly increased throughput and improved accuracy. During the second quarter, we launched new software which provided customers with the ability to detect base modifications using the kinetic information captured by the PacBio RS system. This was the first step in enabling our customers to study base modifications with the PacBio RS. I will elaborate on this in just a minute when I describe the follow-up software which we just announced earlier this week. The third quarter, we introduced the automated mag bead station, which has already made a big impact. Customers who have had trouble with difficult sample preparations in the past have been telling us that the mag bead station does a wonderful job cleaning up samples so they can generate more useful sequence data from them. This can make a big difference as customers hesitate to start projects when they only have a small amount of input sample to work with and they want to make sure they can generate good data from that sample. One customer summed up their feedback on the new upgrade in a recent e-mail to us which read: Mag bead equals awesome. Right on the heels of releasing the mag bead station, we just announced our latest secondary analysis software release, which further enables the study of base modifications. This software release includes automated tools for detecting and characterizing methylated bases and bacteria. As a background, the most common modified bases found in bacteria are 6-methyladenosine, 4-methylcytosine, and 5-methylcytosine. These methylated bases can have a significant effect on the pathogenicity and viability of certain strains of bacteria. Up to now, the study of these methylated bases has been limited due to lack of available tools to study them. Now with the PacBio RS, and these new secondary analysis informatics tools, the methylomes of bacteria can be studied on a large scale. As an example, a paper entitled The Methylomes of 6 Bacteria was published in the Journal Nucleic Acid Research earlier this month, which illustrates how researchers have used the PacBio RS for discovering a series of new methylation patterns in bacteria that were previously unknown. This is a very exciting area and we have likely just seen the tip of the iceberg. We have recently seen a significant increase in base modification studies by our customers and we expect to continue to see growth going forward. We also continue to push the capabilities of the PacBio RS and later this quarter, we plan on releasing new chemistry and software that we expect to increase the current read length achieved by our customers to approximately 5,000 bases on average. With 5% of those reads above 13,000 bases, long read lengths are especially valuable for de novo assembly applications and targeted sequencing of large repeat regions, regions with complex structural variations. These types of projects are not easily addressable with short read technologies and the PacBio RS is proving to be the only way to completely sequence certain complex genomes. We've been working with some customers to test an early access version of this chemistry and the feedback has been very positive. One customer used the chemistry to sequence the rice genome, they commented that the results they have achieved with 9x coverage, so far, were 7x better than they could achieve with Illumina technology at 60x coverage. The rice genome, like that of most plants, is replete, with repetitive genetic elements and chromosomal duplications that make analysis for short read sequencing technologies very challenging, over which the PacBio RS long reads are particularly helpful. I just gone through an impressive list of product enhancements that we've released or plan to release this year. I'd like to acknowledge our product development and product rollout teams for doing a remarkable job in getting these enhancements in the hands of our customers so quickly. Now circling back to our efforts in delivering full customer solutions. We've made significant progress on sample preparation and bioinformatics tools. With regard to sample preparation since the beginning of the year, we've made method improvements that have cut the sample input required to sequence with the PacBio RS by approximately 90%. Our customers want to take full advantage of the fact that our platform does not require amplification and therefore, it's important to be able to generate sequence data from a small amount of sample input. For base modification analysis, it's also necessary to be able to study samples without amplification, because the amplification process would render the sample useless for this purpose. In addition, we are continuing to work with vendors on sharing in sample capture products, which further simplify the sample preparation process for the PacBio RS. Equally important to improvements in sample preparation for us, is development of bioinformatics tools and we've made tremendous progress in this area. We have seen that even the best sequencing data generated does not help customers solve problems without the right software tools to take advantage of the data. The additional of software tools we released for studying base modifications, we released a series of software tools for enhancing the assembly of genomes with PacBio data. Our latest software release, for example, includes a version of Celera Assembler that has been tuned specifically for the PacBio RS long reads. A recent publication in the journal Nature Biotechnology highlighted how researchers at Cold Spring Harbor and the National Bio Defense Analysis and Countermeasures Center use this version of Celera Assembler to improve assemblies for a range of genomes from microbes to higher new carry outs. This highlights a very important point that's worth repeating. For new sequencing technologies, it typically takes time for software and bioinformatics tools to develop, which takes full advantage of the data being generated. A lot of people in the industry are used to working with short read data and the assembly tools they use have been tuned for that kind of data. We commercialized the PacBio RS about 18 months ago, and now, we're seeing a series of bioinformatics tools coming out that take full advantage of the long reads and random error profile of our data. As a preview of bioinformatics tools to come, we have recently made available a set of new software tools on our DevNet site, which is where we and our customers share the latest developments in secondary analysis tools. With these latest software tools, we've been able to demonstrate an ability to generate high quality, high accuracy assemblies, while using only PacBio long reads. We are cautiously optimistic about where this will take us as this could dramatically simplify the process of assembling the most complex genomes. Instead of using a combination of different platforms, multiple libraries and hybrid assembly techniques, users can create a single library for a sample, make one run with the PacBio RS and end up with an answer in front of a complete assembly and epigenetic profile of a bacteria. It's still early and our customers need some time to work with these new tools to see how they can incorporate them into their workflows, but we believe this will be instrumental in driving broader adoption. Switching now to customer successes in our key applications. A number of good examples were customers' progress represented last week at the user group meeting we hosted at our headquarters in Menlo Park. We had 78 attendees from 25 different customer sites. There were numerous presentations from a wide range of customers covering applications at all of our key target areas: de novo assembly, targeted sequencing and base modification analysis. While all of the presentations were well received, I will highlight just 2: the first comes from a customer who has only had their PacBio RS for a little less than a year. Garth Ehrlich and Joshua Earl from the Center for Genomic Sciences at Allegheny-Singer Research Institute discussed how they were using the PacBio RS system in production mode to sequence and assemble high-quality genomes of multiple bacterial strains from both human and plant pathogens. Their optimized strategy is a cost-effective approach using solely PacBio data with the Celera Assembler. This produces much better assembly results than assemblies that they have generated using the Roche 454 Titanium system. In one recent project, they sequenced and assembled 20 strains of Xylella fastidiosa, a plant pathogen responsible for causing disease in over 100 species, many of which are important agriculturally. They received 20 strains from the U.S. Department of Agriculture and used just 4 SMRT cells per strain. The USDA gave them 6 weeks to deliver the results but they were able to upload assembly results for all the strains a week before the deadline. The team at Allegheny also shared some preliminary results for a pilot project which has just received NIH funding to sequence 1,700 Haemophilus influenzae strains as part of a program to understand pathogen evolution of C2 but they were able to show highly improved assemblies using just 3 SMRT cells per genome. This work at Allegheny demonstrates how the PacBio RS is becoming the gold standard for bacterial sequencing. The second presentation I will highlight comes from Jeff Rogers, Adam English, Kim Worley, Stephen Richards and the group from the Human Genome Sequencing Center or HGSC at Baylor College of Medicine. At the HGSC, they are using PacBio to improve their assembly of primate genomes. As background, the study of primate genomes is important because of their close similarity to the human genome. As a result, the primates are often used as animal models for human diseases. Researchers have created what they call draft genomes for a number of primates using Sanger sequencing or Illumina short read sequencing. One problem with these draft genomes is the large number of gaps that researchers have not been able to close and relatively short continuous pieces that they have assembled due to the limitations of these methods. For example, the sooty mangabey genome was sequenced using Illumina technology to more than 100x coverage but assembly resulted in a draft genome with an estimated number of 186,000 gaps. And the contigs are continuous pieces of sizes such as half of the genome falls in contigs less than 35,000 bases long. The HGSC team has embarked on upgrading and improving the genome with PacBio reads and so far, they have reduced the gap count by 65%, and they have more than tripled the length of the contigs. The software used to improve this assembly work will soon be published on the Journal PLoS ONE. Doctors Rogers and English explained the importance of this improvement the following way: The sooty mangabey is an important genome because this species is an important model for the study of AIDS. The HGSC group is collaborating with Dr. Guido Silvestri at Emory University to develop mangabey into a better model for characterizing its genome. This primate has a natural resistance to AIDS, whether it's been infected with relevant virus in the wild or in a lab environment. In contrast, the Rhesus macaque, a closely related primate, develops the disease readily when exposed to the same virus to which the mangabey is resistant. In order to understand how the sooty mangabey is able to control the virus, researchers want to study the relevant genetic pathways that direct the response of its immune system to infection. Therefore, the investigators must have a long continuous assembly of the important coding and regulatory regions of its genome. What they have already accomplished with the PacBio RS is taking us significantly forward in our knowledge of this genome and they believe this will significantly impact the value of the species in AIDS research. One of our customers, the University of Oslo in Norway, was not in attendance at our U.S. user group meeting but we recently received a highlight from them. They've just announced a large grant from their Norwegian Research Council to study the genomes of Atlantic Salmon and Cod. They plan to sequence 1,000 salmon genomes and 1,000 Cod genomes from a variety of locations to provide a deep catalog of genetic variation in each species. Their goal is to understand the impact of this variation on the breeding and production of upper culture grown salmon and cod. We're excited as the University of Oslo plans to use their PacBio RS as an integral part of the study. Now turning to our sales activities. As a reminder, at the beginning of the year, we cautioned listeners on our conference calls not to expect many bookings in the first part of the year, but that we were targeting higher bookings in the second half of the year. We made progress on this goal in the third quarter with bookings for 4 new systems. We attribute this improvement in bookings to all the progress we've been making this year in improving system reliability and performance and focusing on making our customers successful. In addition, we are continuing to expand the addressable applications of the PacBio RS with performance enhancements and new products which will continue to drive growth in consumable revenue. We measure our sales by the results we deliver and our goals is to make progress every quarter. Finally, I am proud that we announced Dr. Lucy Shapiro has joined the PacBio Board of Directors. Dr. Shapiro holds the Virginia and D.K. Ludwig Chair in Cancer Research at the department of Developmental Biology at Stanford University School of Medicine where she's also the Director of the Beckman Center for Molecular and Genetic Medicine. She previously served as chair of the Department of Microbiology and Immunology in the College of Physicians and Surgeons, Columbia University. Dr. Shapiro received a Bachelor of Arts from Brooklyn College and a Ph.D. in Molecular Biology in the Albert Einstein College of Medicine. She is also a Co-founder and Director of the anti-infective discovery company, Anacor Pharmaceuticals. Dr. Shapiro has received numerous awards, most recently, the 2012 Louisa Gross Horwitz prize for her work on the dynamic 3-dimensional organization of bacterial cells. She has been elected to the National Academy of Sciences, the American Academy of Microbiology, the American Academy of Arts and Sciences, and the Institute of Medicine of the National Academy of Sciences for her work in the fields of molecular biology and microbiology. We are fortunate and honored that Lucy has joined our board. As a reminder, last quarter, we announced the addition of Dr. David Botstein to our Board who is held in high regard for his many accomplishments in genetics. With the recent additions of David and Lucy Shapiro, we have a wealth of scientific expertise on our board. They are active in the scientific communities of genetics and microbiology, which are highly synergistic with the strengths of our products. I'm excited to work with them both on maximizing the value we bring to the scientific community. With that, I'll turn the call over to Susan.