IGNISFORMA bridges physical industrial assets to actionable intelligence through complete asset sensorization, intelligent edge monitoring, and deterministic operational outcomes.
The name IGNISFORMA reflects our core engineering mandate: Ignis (the spark of innovation, deep-tech research, and physical ignition) joined with Forma (giving hardened, dependable physical shape to complex physics and mathematical models). We ignite cutting-edge ideas and form them into production-grade electronic and mechanical systems designed to endure the harsher realities of industry.
Founded by industry veterans with over 20+ years of deep domain experience developing safety-critical electronics and embedded products, our leadership team has spearheaded mission-critical architectures across aerospace avionics, semiconductor cleanrooms, off-highway mobile vehicles, and process plants. Our engineering leadership brings extensive track records delivering mission-critical architectures developed to IEC 61508 (SIL 2/3), ISO 26262 ASIL, hazardous area design principles (ATEX / IECEx), MIL-STD-810H, and global CE/FCC standards at tier-1 industrial organizations.
Safety is designed into every layer of our hardware. We build deterministic architectures with rapid fault mitigation, electrical isolation, and proven industrial safety principles engineered to safeguard plant personnel and mission-critical assets.
Cyber-physical security built into the device foundation, ensuring verifiable data authenticity, tamper protection, and continuous system integrity across connected plant environments.
Engineered for seamless operational growth. Our platforms scale smoothly from pilot trials on individual machines to fleet-wide enterprise deployments, integrating natively with standard industrial networks and enterprise systems.
Beyond commercial production platforms, IGNISFORMA actively investigates foundational quantum physics, extreme physical miniaturization, conformal substrates, and sub-milliwatt computing architectures to expand what is physically measurable and deployable.
Investigating optically pumped magnetometers (OPMs) and quantum spin states for room-temperature, sub-picotesla magnetic anomaly detection. Applications include non-destructive testing (NDT) of sub-surface pipeline defects, electrical current distribution mapping in battery packs, and early-stage structural fatigue diagnostics.
Advancing wafer-level chip-scale packaging (WLCSP) and 3D heterogeneous die stacking. We compress multi-modal sensing dies (triaxial MEMS accelerometer, acoustic membranes, and precision AFEs) into sub-millimeter footprints with high galvanic isolation and robust thermal dissipation.
Engineering ultra-thin, flexible polyimide sensor ribbons and multi-node strip arrays that adhere directly to complex curved surfaces. Engineered for turbine blade root monitoring, high-pressure piping elbows, composite wing spars, and stator slot thermal-vibration mapping.
Architecting sub-milliwatt TinyML engines and specialized micro-DSP pipelines running on compact RISC-V and ARM micro-controllers. Enabling continuous on-node 4096-point FFTs and autoencoder anomaly models under 15 mW power budgets for battery and energy-harvested nodes.
Partner with IGNISFORMA on applied research initiatives, industrial joint R&D pilots, and novel physical sensor prototypes. We actively collaborate with universities, research institutions, and enterprise R&D teams.