Mike Hunkapiller
Analyst · Piper Jaffray. Your line is open
Thanks Trevin. Good afternoon and thank you for joining us today. We are pleased with our first quarter results and the progress we continue to make in driving our overall business. Highlights of our Q1 financial results are as follows. Total revenue grew to $17.6 million, representing over 50% growth compared with $11.6 million in Q1 of last year. This included an increase in Roche contractual revenue, triggered driven by recent progress we have made in our development efforts with Roche. I will describe our progress in more details shortly, and Susan will provide details on the revenue recognition. Excluding Roche, contractual revenue from both years, our total revenue grew by over 40%. Instrument revenue for the first quarter grew to $7 million, up over 30% from Q1 2014. Consumable revenue for the first quarter was $4.3 million, up 69% from Q1 2014. Our average consumable revenue per installed system has steadily increased and now exceeds $130,000 per year on a rolling 12-month basis. Today, we announced that we achieved the second development milestone under our development, commercialization, and license agreement with Roche. As a reminder, we are developing sequencing products for the clinical diagnostics market, which Roche will purchase from us and distribute to their customers. We have now earned half of the milestone revenue set forth in our agreement with Roche, and a pathway to the finish line is becoming more definite. We expect to be able to deliver products to Roche for the second half of next year, consistent with the targeted timeline we announced when the Roche agreement was signed about 18 months ago. Both we and Roche are very pleased with the progress we have made and while there is still lot of work left to do, we are excited to see this development program coming closer to fruition. Last week, we announced multiple new solutions for targeted sequencing applications. We have partnered with Roche NimbleGen to provide a workflow using their sequence capture technology to enrich large DNA fragments of up to 6 kilobase pairs. When combined with SMRT Sequencing, this approach can provide a very comprehensive view of structural variants in haplotype information. In addition, we have introduced new barcode sample prep kits, which enable customers to pool multiple samples under a single SMRT Cell. This can dramatically bring down the cost of sequencing large numbers of samples for applications such as HLA typing. The barcode product release continues our theme of reducing the cost of SMRT Sequencing to expand its use across a broader spectrum of applications. Today, we also announced the co-development and co-marketing agreement with RainDance Technologies to commercialize novel solutions for de novo assembly of complex genomes. These solutions will combine the power of RainDance's proprietary digital droplet technology and single-molecule barcoding capabilities with PacBio's proprietary long-range DNA amplification technology. This combination could allow synthetic read lengths exceeding 100 kilobase pairs by the unique barcode labeling of 10 kilobase to 30 kilobase pair fragments generated from single very long, DNA fragments. Together with this fragmentation and labeling scheme, on a sequence context, unbiased amplification method, SMRT Sequencing could allow haplotype phase assembly of complex genomes, even in genomic regions containing complex repeats or PCR challenged sequences that limit the performance of other synthetic long read approaches based on short read sequencing technologies. Finally, we were pleased to announce earlier this week that the Beijing Genome Institute, BGI, the world's largest genomics organization has purchased its first PacBio RS2 instrument and agreed to a plan to purchase additional units in order to integrate SMRT Sequencing into their global sequencing service business. Their commitment to our technology further validates the distinct advantages we offer over other sequencing technologies for a wide array of applications, including human, plant, animal and microbial sequencing. BGI has a tremendous amount of resources dedicated to sequencing data analysis, and we are excited they plan to devote some of those resources towards analyzing SMRT Sequencing data. We look forward to building a strong relationship with BGI over the coming months. Now, I would like to provide some highlights from this year's AGBT conference, which held in late February. An overriding theme for us at this year's conference was the emergence of SMRT Sequencing for human biomedical research. At the beginning of the conference, the Genome Reference Consortium, which is comprised of the Wellcome Trust Sanger Institute, the Genome Institute at Washington University, the European Bioinformatics Institute, and National Center for Biotechnology Information hosted a workshop to discuss the latest developments in advancing human reference assemblies. The presentations at the workshop highlighted how PacBio de novo assemblies are being used by the consortium to create what they refer to as platinum genomes that are highly contiguous haplotype result representations of structural as well as SNP variants . With the success that have achieved so far with PacBio, they decided to sequence additional genomes using SMRT Sequencing to better define the scope of global genomic diversity. The next day at the conference, Dr. Evan Eichler from the University of Washington kicked off the plenary sessions with his talk entitled resolving the complexity of human genetic variation by single molecule sequencing. As background, towards the end of last year, Dr. Eichler had published a paper in Nature describing over 26,000 novel structural variants he had uncovered from sequencing a human cell line with PacBio. Since that time, Dr. Eichler sequenced a different human cell line, and to his surprise discovered an equally large and different set of structural differences, suggesting that the actual genomic structural variability among different individuals is much greater than previously believed. His talk was one of the highlights of the conference and it was referenced often throughout the rest of the week, PacBio was this year's gold sponsor to AGBT, which gave us the opportunity to host a two-hour workshop featuring presentations from a group of highly respected scientists, all stressed the importance of de novo assembly of human genomes using PacBio Sequencing to decipher the structural variation in human population. One demonstrated the use of our technology to decipher the complex rearrangements and copy number variations, the breast cancer cell line. Collectively, the scientists reported de novo assembly of several human genomes with contig N50s at the multi-megabase pair level, using our latest P6C4 chemistry. Our workshop was attended by approximately 500 people at the conference and other approximately 1,000 on the live video feed for people not at AGBT. Our technology is also being used increasingly for targeted sequencing of human DNA, as illustrated in the paper that was published in BMC Cancer last month, and researchers at Uppsala University, were studying chronic myeloid leukemia. In this research study, researchers sequenced samples from six CML patients, who experienced poor response to the standard cancer treatment. The team checked for mutations in the BCR-ABL1 fusion gene, using the PacBio RS2 at the time of diagnosis and again following treatment with a regimen of tyrosine kinase inhibitor or TKI-based therapy. Over 10,000 full-length BCR-ABL1 sequences were obtained for all samples studied. In all six patients, PacBio Sequencing successfully identified all mutations seen by other standard methods. Importantly, the team also identified several mutations that escape detection of routine clinical analysis, including analysis by short-read sequencing methods. All mutations identified had previously been implicated in resistance to one or more TKI therapies. Moreover, the assay development, the Uppsala team for PacBio sequencing enabled a quick turnaround time, along samples to be reported upon two days. These results are very promising for development of future treatments to CML patients. The researchers concluded in their paper, and I quote, "In summary, the PacBio sequencing assay they can be applied to detect BCR-ABL1 resistance mutations in both, diagnostic and follow-up CML patient samples using a simple protocol applicable to routine analysis. The method besides its sensitivity gives a complete view of the Clonal distribution mutations, which is of importance when making therapy decisions." This quarter, you will note that we are not providing details on instrument bookings and unit shipments. As our sales grow and as our technology becomes more competitive and mainstream sequencing applications, especially those involving human samples. We reached a point where instrument bookings, placement numbers and pricing are better kept confidential for competitive reasons. Therefore, we have decided to conform to the industry standard of just providing instrument revenues without the unit detail. We continue to be confident driving growth in our business and we expect our total revenues this year to grow at least 25% over last year. That concludes my remarks. I will now turn it over to Susan to provide more details on our financial results.