Nano-concrete technology — not another admixture
Cut cement, not strength.
One liquid, dosed at the batch plant into the mix design you already run — and it recovers so much strength that a 50% slag mix reaches its 28-day strength in 7 days.
Independently tested by SGS TEC · Ideal Laboratory · KCT Laboratory
Field notes · PDI-2026 · Rev 04Three trials below, three kinds of work: a ready-mix data-center pour, a precast plant chasing mold turns, and a high-SCM lab series.
Find your application1Case study — producer field trial · 50% slag
Half the cement. 2.5× the spec.
Fig. 2Producer QC lab · 50/50 Type IL / Grade 100 slag · 1d–28d
2.5×
Specified strength
9,940 PSI at 28 days on a 4,000 PSI spec
+2,850 PSI
40% over its own control at 28 days
9,940 PSI vs. 7,090 PSI — what the spec accepts
7,036 PSI
Control's 28-day strength, at 7 days
Three weeks early — what the schedule feels. Control reached 7,090 PSI at 28 days.
ASTM C39 cylinder breaks. Control values are poured cylinders cast alongside the Trident batch from the same 50/50 mix — not modeled. Full report available under NDA.
The problem
A hyperscaler data-center project specified 4,000 PSI. The producer wanted to run 50% slag to meet the project's carbon targets — but replacement that deep normally means strength arrives late and the pour schedule stretches to wait for it.
What we dosed
Trident at the batch plant, into the 50/50 slag mix they already had approved. No mix redesign, no new equipment, no change to the delivery schedule.
What happened
9,940 PSI at 28 days — 2.5× the specified strength, and +2,850 PSI over its own poured control: a 40% increase. The same batch reached that control's 28-day strength at 7 days. The 28-day number is what the spec accepts; the 7-day number is when the concrete can carry load.
“7,036 PSI at 7 days — the control needed 28.”
See the full data2Case study — precast
Three mold turns instead of one.
The problem
A North American precast producer was capped at one mold turn per day — 8-hour strip strength on Mix 201 stalled at 1,077 PSI.
What we dosed
Trident, added at the end of their normal batch cycle. No mix redesign, no new equipment, no change to the pour schedule.
What happened
8-hour strength rose from 1,077 PSI to 2,786 PSI — a 159% gain that unlocked three mold turns a day and effectively tripled production capacity, with zero capex.
“159% stronger at 8 hours.”
See the full precast seriesFig. 3Cumulative cylinder testing · Mix 201 · 8h–28d
159%
8-hour strength gain
Triple mold turns per day
3×
Production capacity
vs. industry standard of 1 turn/day
$0
Capital investment
No equipment changes required
3Case study — sustainability
50% slag. Stronger than the control.
Fig. 4Independent lab · 50% OPC / 50% GGBS · 1d–28d
+2,205 PSI
Best 28-day gain
F-01 — 32 oz/yd³ vs. 5,366 PSI control
5,627 PSI
7-day exceeds control 28-day
At 32 oz/yd³, 7-day strength tops control's 5,366 PSI at 28 days
7,571 PSI
Peak 28-day strength
F-01 — 32 oz/yd³
The problem
Replacing cement with slag is the fastest route to lower embodied carbon — but at 50% replacement, strength normally collapses.
What we dosed
An independent lab ran 30%, 40%, and 50% GGBS blends with Trident F-01 at dosages from 16 oz/yd³ to 32 oz/yd³ (600–1,200 g/m³), against undosed controls.
What happened
At 1,200 g/m³ every blend's 7-day strength exceeded its own control's 28-day. The 50/50 peaked at 7,571 PSI at 28 days — +2,205 PSI over control — carbon cut roughly in half, with strength to spare.
“+2,205 PSI over control.”
Explore the carbon story4The economics
Run it on your own prices
Materials are the largest single cost in a yard of concrete, and slag or fly ash costs a fraction of cement. Because Trident's strength gain grows as SCM content rises, a producer can run a 50/50 cement/slag mix that finishes stronger than their standard 80/20 — roughly ~18% off materials cost per yard, net of Trident's dosage (≈ $16/yd³).
At modest replacement (20→40% SCM) it is closer to 4–7% — real, but the range producers already see from routine mix optimization. The deep-replacement case is the one worth running.
Savings depend on local cement and SCM pricing and your current replacement level. The 18% figure is modeled on a representative U.S. ready-mix 50/50 blend at 2026 material prices; the 4–7% figure is modeled at 20→40% replacement. Both are net of Trident's cost. We will run the model on your prices before a pilot.
Have us model your mixMaterials savings calculator
Illustrative model using published savings bands (4–7% at 20–40% SCM, ~18% at 50%). Not a quote — we'll run your prices before a pilot.
- Est. $/yr saved
- $1,600,000
- ~18.0% materials · $16/yd³
- Cement removed
- 6,600,000 lbs
- Scaled from ~110 lb/yd³ at 50% SCM
- CO₂ avoided
- 12,720,000 lbs
- Scaled from ~212 lb/yd³ at 50/50
5Before you trial it
The three questions that decide it
Strength data is the easy part. These are the answers a QC director needs before Trident can go on a submittal.
6The pilot program
Validate it in your plant before you commit anything
Three steps, 30–60 days. Zero capital investment, free samples, and our R&D team on call for the duration.
Review the documentation
Trial data, SDS, and TDS upfront. Our R&D team walks through dosage guidance for your cementitious materials.
Run it in your plant
30–60 days, your materials, your terms. We supply Trident and the technical support at no cost.
Get your numbers
Strength, materials cost, and embodied carbon measured against your own control — then a roadmap to full deployment.
