Trusted access
Open weights on owned infrastructure, with tenant boundaries wired into the cache key.
Owned inference infrastructure
Frontier-class open coding models on memory-dense Apple Silicon pods, sold per engineer seat behind an OpenAI-compatible endpoint.
lower seat cost than frontier power-user API spend
floor-bounded decode streams per four-node pod
pilot pod to validate the load-bearing throughput number
The product
Engineering teams are already mixing Cursor, Copilot, Claude, GPT, Gemini, and internal agents. The result is expensive, hard to govern, and increasingly tied to metered usage. CueCode replaces that chaos with owned capacity: a per-seat line item, auditable usage, and private model serving on hardware with known provenance.
The service runs open coding models on four-node Apple Silicon pods. Customers keep the familiar API surface while CueCode owns the serving layer, scheduler, cache placement, metering, and isolation.
Open weights on owned infrastructure, with tenant boundaries wired into the cache key.
Seats price concurrency instead of surprise token bills from heavy agentic work.
SSO, budgets, audit logs, per-seat metering, and endpoint compatibility.
Pooled, reserved, and dedicated tiers map isolation and concurrency to price.
Why now
Teams are buying multiple copilots, chat tools, and agents at once. Heavy users create the most value and the least predictable bills.
The best open coding models are attractive, but enterprise buyers need provenance, governance, stable capacity, and clear jurisdiction.
A private pod turns metered token surprise into a seat contract: concurrency, isolation, auditability, and a fixed line item.
Why it works
The active weights are read every token. Apple Silicon unified memory gives the pod dense, low-power bandwidth where the workload needs it.
Coding agents decode, call tools, wait, and resume. CueCode backfills the idle gaps so one pod can serve many engineers without wasting cycles.
One forward pass advances every admitted stream by one token. The business sells the aggregate capacity above the 12 tok/s floor.
Flow test
Agentic coding is not a paragraph in chat. It is code, diffs, logs, traces, and tool output arriving while the engineer is still reasoning. Once the stream falls below the floor, attention breaks.
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Unit model
engineers per pod at this workload
Model formula: single = 28 / (1 + context / 64K); aggregate = single x batch; capacity = aggregate / 12.
Seat shape
Pooled
Shared capacity for light and mid-market teams that want predictable spend without dedicated hardware.
Reserved
Guaranteed stream headroom for engineers running multiple agents, branch explorations, and long test-fix loops.
Dedicated
Hardware-isolated pods for sensitive codebases, regulated teams, and the heaviest orchestration workloads.
The moat
waiting streams
Q1 Q2 Q3admitted batch
S1 S2 S3 S4 S5Step 1
Finished, stopped, or cancelled generations leave immediately so a waiting stream can take the slot on the next token boundary.
Pilot gate
Four 512 GB nodes, fabric, rack, instrumentation, and the real serving path.
Hold at least two reserved or five pooled streams above the 12 tok/s floor.
Three to five design partners willing to pay per seat after the pilot.
Design partners
The first deployment should measure batching efficiency, duty cycle, time-to-first-token, tiering latency, and the buyer appetite for private per-seat inference.