Most assemblers build a graph from overlapping reads. Bio-Scry includes a different approach: it treats the genome as a neural field and fits it to your reads, GPU-accelerated end-to-end, entirely on-device.
The assembler fits that network to your reads and then reads the genome back out of the trained field. It also emits a repeat graph that makes the structure of hard-to-resolve regions explicit.
The sequence becomes a continuous neural field — a small network whose input is a genomic coordinate and whose output is a base.
The network is trained to agree with your reads, GPU-accelerated end-to-end on the phone via Apple's Metal — no server, no offload.
The genome is read back out of the trained field, plus a repeat graph that makes the structure of hard-to-resolve regions explicit.
The neural-field assembler is offered as a research mode alongside the classic assemblers — a demonstration of a novel method running entirely on consumer hardware. The story here is the novelty and the on-device achievement, not a claim that it is more accurate than established assemblers.
The heaviest steps run on the phone's GPU. No cloud compute, no uploads, no code downloaded at runtime.
Beyond a linear sequence, it makes the structure of repetitive, hard-to-resolve regions explicit.
Use it next to long-read, short-read, hybrid and reference-guided pipelines — all on the same device.