The $1,000 Human Genome: Are We There Yet?

The race for genomes-in-a-day heats up as two companies promise this service by the end of 2012















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Image: Courtesy of the National Human Genome Research Institute

The race to the $1,000 genome heated up today as Life Technologies, based in Carlsbad, Calif., announced that it will debut a new sequencing machine this year that will eventually be capable of decoding entire human genomes in a day for less than $1,000. The machine, called the Ion Proton, will be the successor to the Personal Genome Machine made by the company Ion Torrent, a subsidiary of Life Technologies.

Not to be outdone, Illumina, the present market leader based in San Diego, Calif., said that it will release its own genome-in-a-day contender, the HiSeq 2500, in the second half of this year. Unlike Life Technologies, which is asking customers to buy an entirely new machine, Illumina says that it will be able to upgrade existing customers’ HiSeq 2000 machines for a relatively low price.

So how will this battle of the sequencers shake out?

Ion Torrent is positioning its new machine as a lower-cost alternative to Illumina’s $690,000 HiSeq. Scientists seem willing to believe that the Ion Proton will reach its speed goals, largely because Ion Torrent’s present model, the Personal Genome Machine, is performing well for its customers. That sets Ion Torrent apart from other companies with novel technologies that couldn’t deliver on their first-generation models, such as Pacific Biosciences of Menlo Park, Calif., which switched CEOs last week amidfinancial and legal hiccups, and the Cambridge, Mass.-based Helicos, which continues to struggle with lackluster demand for its machines.

This post at the forum SeqAnswers.com has calculated that the first sequencing chip released with the Ion Proton in mid-2012, the Proton 1, will be capable of sequencing three to six human exomes—the gene-encoding portion of the genome. Life Technologies said that the second sequencing chip released with the machine at the end of this year, the Proton II, will contain enough sensors to sequence an entire genome. Life Technologies is angling the Ion Proton to take on a clinical diagnostic-sequencing market, and plans to ask the U.S. Food and Drug Administration for clearance to use the machine as a medical device this year. So far, Illumina has captured much of the small-but-growing clinical-sequencing market.

But scientists are less convinced that the cost of sequencing a human genome with the Ion Proton will come in under $1,000, or that it would cost less to run than the HiSeq. Researchers note that at present, it would cost tens of thousands of dollars to sequence a human genome using the Personal Genome Machine. Life Technologies told me that the $1,000-human-genome estimate for the Ion Proton includes the cost of the sequencing chip and reagents for the run, but analyst Isaac Ro of Goldman Sachs reports in a research note that the Proton II chip itself will cost $1,000, so it’s unclear how exactly Life Technologies arrived at that $1,000 number.

The Ion Proton machine will cost a relatively inexpensive $149,000, so even though customers will have to pay an additional $95,000 for a server and automated sample-prep device, according to Ro, he notes that "the price point is clearly best-in-class by a wide margin."



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  1. 1. GeekStatus 04:05 PM 1/10/12

    I haven't been able to figure this out anywhere. Are the chips species specific or can they be used on any DNA?

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  2. 2. bigbopper 04:56 PM 1/10/12

    "Doctor, I brought my genome printout in with me. Can you tell me how long I'll live and what I'll die of?"

    "Leave it on my desk and I'll call you."

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  3. 3. scbaker in reply to GeekStatus 07:58 PM 1/10/12

    These chips, like those of essentially of their competitors, are NOT species specific - they will sequence DNA from any organism. The only thing that is species-specific are the targeted DNA/exome products. Those are generally designed to work with a single species (human, in the case of exome).

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