Delivered rate
+38%
Commercial rate ramps, defense recapitalisation, business-jet mix, eVTOL industrialisation and the space buildout are all rate-limited by the same manual, rework-heavy structural build.
| Segment | Improvement (%) |
|---|---|
| Commercial OEM | 38% |
| Defense prime | 71% |
| Business jet | 49% |
| eVTOL | 140% |
| Space structures | 58% |
| Tier-1 aerostructures | 64% |
Airframes assembled on Rivetira across commercial, defense, business-jet, eVTOL and space-structure programs: 8 factories, 70 assembly stations.
Narrowbody and widebody rate ramps are limited by final assembly, not by orders.
A multi-thousand-jet backlog means every hour of takt is worth more than it has ever been. Rivetira balances the moving line, removes hand-fit shimming from the wing-body join, and makes every hole in the airframe a traceable, conforming record.
Delivered rate
+38%
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 108 | 102 |
| Q3 | 118 | 103 |
| Q4 | 126 | 105 |
| Q5 | 132 | 106 |
| Q6 | 138 | 108 |
Recapitalisation programs with cleared, retiring workforces and zero tolerance for escapes.
Defense assembly combines low rate, high mix and the strictest conformance requirements in aerospace. Rivetira runs air-gapped on ITAR programs, inspects every characteristic rather than a sample, and produces the trace the program office asks for.
Escapes to next station
−71%
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 84 | 98 |
| Q3 | 62 | 97 |
| Q4 | 44 | 96 |
| Q5 | 34 | 95 |
| Q6 | 29 | 94 |
High mix, low volume, and a fit-and-finish standard no other segment has to hit.
Business-jet fuselages carry more configuration variance per airframe than any commercial program. The as-built twin models each configuration individually, so a one-off interior arrangement does not become a one-off quality problem.
Rework hours
−49%
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 88 | 99 |
| Q3 | 74 | 98 |
| Q4 | 63 | 97 |
| Q5 | 55 | 97 |
| Q6 | 51 | 96 |
Composite airframes that must go from certification build to volume production.
eVTOL programs have to industrialise a composite airframe faster than any aerospace program in history, usually without a legacy assembly workforce. Rivetira encodes the craft rather than hiring it.
Throughput
2.4×
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 124 | 106 |
| Q3 | 158 | 112 |
| Q4 | 192 | 118 |
| Q5 | 224 | 122 |
| Q6 | 240 | 126 |
Large barrel and tank structures where one bad hole scraps a very expensive part.
Launch-vehicle structures are enormous, thin and unforgiving. Friction-stir and mechanical joins on barrels leave no margin for a misdrilled hole, and the cost of a scrapped section dwarfs the cost of inspecting every characteristic.
Cycle time
−58%
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 89 | 98 |
| Q3 | 76 | 96 |
| Q4 | 64 | 95 |
| Q5 | 51 | 94 |
| Q6 | 42 | 93 |
Supplying an OEM whose rate commitment is now your rate commitment.
Aerostructures suppliers carry the OEM’s ramp with thinner margins and less capital. Rivetira lands on one cell, proves the return in a quarter, and expands across the shop as autonomy is earned.
Shim hours per join
−64%
| Quarter since go-live | With Rivetira | Baseline |
|---|---|---|
| Q1 | 100 | 100 |
| Q2 | 86 | 99 |
| Q3 | 71 | 98 |
| Q4 | 58 | 98 |
| Q5 | 44 | 97 |
| Q6 | 36 | 96 |
Each agent owns one part of the structural build. They share one perception layer, one as-built twin and one conformance record, so a decision made at the drill is visible at the join.
Adaptive control of drilling, countersinking and rivet/bolt installation.
Vision + in-process metrology sensing of hole, countersink, fastener, gap and FOD.
Metrology-assisted alignment and predictive shimming that removes hand-fit loops.
Sealant application control and fuselage / wing-body join sequencing.
Moving- and pulse-line station balancing, takt optimisation and travelled-work control.
Crawlers, AGVs, positioners and cranes moving and holding large structures.
Right-first-time, non-conformance, rework and full airworthiness traceability.
Rivetira is priced on the metric it moves. This is the value stack from a representative 14-station wing-box deployment.
| Value source | Annualised value (USD) |
|---|---|
| Shim labour removed | $4.9M |
| Rework hours avoided | $3.6M |
| Rate capacity unlocked | $3.1M |
| Scrap & escapes avoided | $2.2M |
| Overtime reduction | $1.4M |
| Inspection labour | $0.9M |
Annualised value
$16.1M
Platform cost
$2.7M
Payback period
2.4 mo
Net revenue retention
136%
Every agent starts by watching. It is promoted only when its measured accuracy clears the mechanic-plus-metrology baseline and the twin agrees.
Weeks 1–4
Agent observes the station, predicts every outcome, actuates nothing. Accuracy measured against what the mechanics actually do.
Weeks 4–10
Agent recommends feed, shim geometry and sequence. A human accepts or rejects; every rejection becomes training data.
Weeks 10–20
Agent actuates with a human in the loop and a live fail-safe stop. Airworthiness-critical dispositions still require sign-off.
Week 20+
Agent runs the step. Humans handle exceptions and the twin gates any change to the control policy.
| Week | Agent accuracy | Mechanic + metrology baseline |
|---|---|---|
| Wk 2 | 88.2% | 94.1% |
| Wk 4 | 91.4% | 94.0% |
| Wk 6 | 93.6% | 94.2% |
| Wk 8 | 95.2% | 94.1% |
| Wk 10 | 96.4% | 94.3% |
| Wk 12 | 97.1% | 94.2% |
| Wk 16 | 97.8% | 94.1% |
| Wk 20 | 98.3% | 94.2% |
| Wk 24 | 98.6% | 94.3% |
Airframe geometry is among the most protected IP in manufacturing, and much of it is export-controlled. Rivetira is architected for that reality from the edge up.
Certified
Annual audit covering security, availability and confidentiality of the control plane.
Supported
US-person access controls, on-prem and air-gapped deployment for controlled programs.
Mapped
Quality records, NCR flow and traceability mapped to aerospace quality requirements.
In progress
Information security management system certification underway. [PLACEHOLDER: target date]
Plant directors, liaison engineers and airworthiness leads on what autonomy did to their numbers.
“We stopped arguing about whether the gap was 0.4 or 0.6 millimetres. The twin predicted it, the shim came off the machine right, and the join closed in one pass.”
−64% shim hours per join
“The rate ramp was going to cost us four more positions. Instead the line rebalanced itself every shift and we found the capacity inside the stations we already had.”
+38% delivered rate
“Every hole is now inspected, not one in four. My airworthiness record writes itself, and I can hand an auditor a complete trace in ninety seconds.”
100% inspection coverage
Anything else goes to the people who build it. Ask an assembly engineer or read the full FAQ.
It changes the perception models, not the platform. Composite and mixed CFRP/Ti stacks are the hardest drilling case — delamination, burr formation and thermal load all interact — so they get dedicated models. Recall on mixed stacks is currently 98.1%.
Low-rate high-mix programs often see the strongest return, because the cost of a single escape or a scrapped large structure dominates. Defense and space deployments are frequently justified on scrap and escape avoidance alone.
Yes, and that is the ideal time. The as-built twin can be seeded from the as-designed model and tolerance study before the first article, so the first airframe benefits rather than the fiftieth.
A line assessment maps one station, quantifies the rework, shim and rate opportunity, and returns a modelled ROI in three weeks. No production disruption.