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Changelog

What we have shippedin Phase 1.

We are not putting fake dates on a roadmap. Phase 1 is what is in front of you today. We will start dating entries once we have a regular public release cadence.

  1. Phase 1 · Current preview

    3-D elasto-plastic continuum footing FE — the shape effect a 2-D model can’t see

    Our largest differentiator went live: a genuine three-dimensional nonlinear finite-element bearing-capacity solve — the meshed 3-D continuum answer firms otherwise keep a PLAXIS-3D / RS3 specialist seat for — built from the governing textbook and validated against published worked examples before it shipped.

    • 3-D elasto-plastic continuum footing bearing capacity — a square, circular or rectangular pad on a c′-φ′ half-space solved as a full 3-D boundary-value problem (quarter-symmetry, 20-node serendipity hexahedra, general-stress Mohr-Coulomb enforced by a viscoplastic stress-redistribution scheme), load-ramped to the collapse mechanism. Returns the full load–settlement curve and q_ult, capturing the square/circular shape effect (Skempton s_c ≈ 1.2) that a 2-D plane-strain model fundamentally cannot
    • An interactive 3-D deformed-continuum viewer — the real computed settlement bowl on the soil block (orbit, section-cut, isosurface, deform slider, turntable export), cross-checked live against the closed-form Skempton / Vesić bearing capacity and shape factors (φ=0 square converges on Skempton 6·sᵤ)
    • Heavy solve runs on scalable cloud compute with a coarse in-app fallback, an on-screen progress timer and a cancel control — you never wait blind
  2. Phase 1 · Current preview

    Advanced continuum FE, automated site response, and a fuller wall / pile / traffic toolkit

    A depth wave that pushes into the analyses firms used to keep a separate specialist seat for — each built from the governing textbook and validated against published worked examples before it went live.

    • 2-D elasto-plastic footing bearing capacity by finite element — a plane-strain continuum BVP with a general-stress Mohr-Coulomb strength and the Hardening-Soil stress-dependent stiffness law, B-bar elements to beat volumetric locking; returns the full load–settlement curve and the ultimate bearing capacity, cross-checked live against the closed-form Prandtl / Vesić factors (validated to Prandtl 5.14·sᵤ, converging to the exact limit as the mesh refines)
    • Automated equivalent-linear site response (SHAKE-type) — the Seed-Idriss strain-iteration loop with a G/Gmax–damping curve library (Vucetic-Dobry / Seed-Idriss / Darendeli); reports the surface motion, period lengthening and the converged strain-compatible profile (anchored to Kramer §7)
    • Transient / unsaturated seepage (Richards equation + van Genuchten / Mualem) — a mass-conservative control-volume solve of infiltration and drainage, wetting-front advance and the soil-water characteristic curve (validated against the Celia-Bouloutas-Zarba 1990 benchmark)
    • Embedded walls now take non-uniform (Boussinesq / NAVFAC DM-7.2) strip surcharges and a passive berm; laterally-loaded piles now include the axial P-Δ (beam-column) amplification that magnifies deflection and moment toward buckling
    • Full axle-load spectra (NALS) with AASHTO MEPDG traffic wander — the fourth-power load-equivalency spectrum plus the lateral wheel-wander distribution that spreads damage off the critical point
  3. Phase 1 · Current preview

    Multi-modal core logging and a live streaming lab

    Two deep additions that close the loop from the rig to the bench: a core box becomes a logged run with one photo, and a load frame streams onto your screen as the test runs — both feeding the same audit-grade numbers you would otherwise type in by hand.

    • Core-box AI logging — photograph a core box on web or mobile; vision drafts the fracture positions, lithology and weathering grade, you verify the pieces, and the engine computes RQD / TCR / SCR deterministically (Deere 1964 · ISRM · IS 11315) and fills the rock-core run. The RQD is never a model guess — it is the math, from the pieces you confirm
    • A report-grade graphic core log — depth-scaled, sound vs weathered vs core-loss, fractures marked — that exports straight into the signed report
    • Live lab monitor (streaming LIMS) — open a session for a UCS / triaxial / consolidation frame and watch the stress–strain curve build in real time with the peak marked live; on Stop, the captured series is reduced by the same golden-tested reducer as the batch datalogger (IS 2720-10 / ASTM D2166)
    • A documented bench bridge + a clearly-labelled simulator — wire your existing logger (Controls / VJ Tech / GDS / Humboldt / Wykeham Farrance) to the live monitor via one small endpoint, or run the simulator to see the whole flow without hardware. A simulated feed is always badged “Simulated”, never shown as real instrument data
  4. Phase 1 · Current preview

    Report-grade figures, a hover-glossary, and find-anything search

    A polish wave that turns every result into a defensible plate, explains every symbol and method in context, and makes the whole catalogue navigable — the things an engineer notices on the second day.

    • Report-grade figures for every analysis and lab test — the 3D bearing failure wedge and the 3D slope slip surface (orbit + PNG), the Boussinesq pressure bulb, the seepage flow net (equipotentials × flow lines), lateral-pile p-y curves with deflection / moment / shear depth profiles, Mohr circles with the Mohr-Coulomb envelope (triaxial / UCS), the Casagrande plasticity chart, the particle-size grading curve, the Proctor compaction curve (with the zero-air-voids line), and the consolidation e-log-σ′ curve — every figure exports straight into the signed report
    • Differential settlement & angular distortion — worst differential, governing β = δ/L and tilt, checked against the IS 1904:1986 Table 1 limits and the Skempton-MacDonald / Bjerrum damage bands — analysis #62
    • A "How it works" guide on every analysis and test — method, inputs, governing standard and outputs, in plain English
    • A hover-glossary across every form — every symbol (p_sw, c′, φ′, FoS, Cc, N₆₀ …) shows its full name, unit, governing standard and typical value range
    • Find-anything search with pinned + recently-used on the analysis and lab hubs — jump straight to any of the 213 analyses or 47 lab tests instead of scrolling
  5. Phase 1 · Current preview

    Migration, interoperability, monitoring, IoT and trust

    A wave focused on the things that actually move a firm off legacy tools: a one-drag escape from legacy borehole-data tools, deeper interoperability, instrument ingestion, and enterprise-grade trust — every new parser hardened against real-world messy files.

    • Migrate from legacy borehole tools — export AGS 4.x, drop it in, land a live 3D model in minutes (/migrate)
    • Free, unlimited field-logger / lab-tech seats — never share a login again; you pay only for engineer seats
    • Trust Center — data ownership, encryption, daily backups, regional residency (incl. India), AI that never trains on your data, SOC 2 roadmap, named sub-processors, single-tenant / on-prem on Enterprise by arrangement
    • Interoperability — DXF (CAD + common FE-package geometry), Mohr-Coulomb FE material table, LandXML, IFC, GeoJSON, plus UTM↔WGS84 reprojection + a coordinate converter
    • Lab datalogger import — raw load-frame output → qu / cu / stress-strain, no manual peak-picking
    • Instrumentation monitoring — bulk-import a logger dump of timestamped readings; the parser flags every bad row, never guesses
    • MWD ingestion — continuous rig parameters (rate, torque, feed, flush) with auto-flagged hard bands between SPT intervals
    • Subgrade reaction (soil springs) for the STAAD / ETABS hand-off — analysis #54
    • Firm-private knowledge (RAG) — teach Core your standards and house rules; it cites them next to IS / Eurocode / ASTM, visible only to your org
    • Print-sheet layout — make the printed bore-log match a rigid agency form (paper size, orientation, header/footer notes)
    • Firm directory — list your consultancy so clients and peers find you by region and capability (real, opted-in firms only)
  6. Phase 1 · Current preview

    Deeper analysis, an AI that acts, and the commercial layer

    The platform widened from capture-and-report into computing the whole job and running the firm side of it — every new engine golden-tested, every new AI action explicit and reversible.

    • 51 code-checked analyses and 25 lab-test workflows — added embankment basal stability and benching (IRC:75 / Ladd), relative density, shrinkage and linear shrinkage, point-load and slake-durability
    • Custom firm bore-log templates — build your house format on web, capture it on mobile, with an AI capture-advisor that maps custom fields back to the canonical ones the engines read
    • AI Core now acts, not just answers — it runs the verified engines from your numbers, sets up projects, imports pasted borelogs, builds templates, and drafts client proposals, each citing or linking what it created
    • 8 sector report templates — added embankment rehabilitation and slope-stability / landslide alongside building, highway, bridge, railway, dam and port
    • Commercial layer — proposals (PROP-YYYY-NNN) → convert to a project → client invoices → per-job financials with billed / collected / cost and gross margin
  7. Phase 1 · Current preview

    Foundation — validator, verify, signed PDF chain

    The audit-grade core that everything else builds on. Every artefact you sign in TerraBrains is hashed to the previous one. Every export can be re-verified.

    • AGS 4.x and DIGGS 2.x validator — free forever, accessible without an account
    • Verify-a-report flow with public hash lookup
    • Signed PDF chain — SHA-256 every signable artefact, server-side verified on read
    • Supabase tenant model with FORCE ROW LEVEL SECURITY across all tenant tables
    • Audit trigger on every mutation — no exception, no opt-out
  8. Phase 1 · Current preview

    AI on AWS Bedrock

    AI that drafts engineer-grade artefacts with grounded citations. No model trained on your data, ever.

    • Reasoning model — primary drafting engine for soil log narratives and long-context engineering Q&A
    • Vision model — photo-to-USCS classification from field images and paper-log OCR
    • Fast-tier model — low-latency checks (validator explanations, input sanity checks)
    • Every claim cites a numbered source — borehole, lab result, or standard clause
    • Inference runs in your AWS region. Customer data never leaves your tenancy.
  9. Phase 1 · Current preview

    Field + Lab

    The capture surfaces where the data actually starts — built for the rig and the bench, not the boardroom.

    • Offline-first field log with local SQLite and outbox sync
    • Atterberg, sieve, and triaxial entry queues in the lab workflow
    • Custody chain with QR-based sample transfer and token verification
    • Equipment calibration tracking with due / overdue states
    • GPS-stamped photo capture with Munsell colour matching and SPT / CPT fields
  10. Phase 1 · Current preview

    Mobile (iOS + Android)

    A native-feeling field app built on Expo SDK 54. Survives loss of signal, gloves, and dropped tablets.

    • iOS and Android binaries via Expo SDK 54
    • Photo-to-classification flow — capture → vision model → USCS suggestion
    • Local-first persistence — every entry is durable before sync
    • Sync reconciliation that does not lose rows when two devices edit the same log

Want to know what is next? See the roadmap.

Start free — try Phase 1