v3.7.1
Fourier Transform F(ω) = ∫₋∞^∞ f(t)·e^(−iωt) dt SOLVED
Navier-Stokes ρ(∂v/∂t + v·∇v) = −∇p + μ∇²v + f SOLVED
Neural Loss L = Σ(ŷᵢ − yᵢ)² + λ·R(θ) OPTIMIZED
Heat Equation ∂u/∂t = α·∇²u CONVERGED
Gaussian Prior P(x) = (1/σ√2π)·e^(−(x−μ)²/2σ²) CALIBRATED
[SYS] Physics Engine Online...
[SYS] AI Modules Loading...
[SYS] PINN Initiating...
[SYS] Digital Twin Connected
[SYS] Quantum Compute Engine Ready
[OK ] All Systems Fully Operational
x: 0.000 y: 0.000
PHYSICS-INFORMED ARTIFICIAL INTELLIGENCE

AI That Makes Production Work Easier to Understand

We read reports, drawings, maintenance records, and technical data for you
We surface risky points earlier, simplify technical work, and turn it into clear next steps

Reads files
Shows risk early
Builds reports
SCROLL
01.2

What We Do

We turn complex technical work into outputs that are easier for people to read, discuss, and act on

AI WORKFLOW

How we build AI around your files

We do more than turn a model on. We collect the data, clean it, index it, and shape it into a company-ready answer flow

MODULE 1

We Collect the Data

PDFs, CAD files, tables, audio notes, and images are gathered in one place

MODULE 2

We Clean and Index It

OCR, labeling, and indexing make the files searchable and usable

MODULE 3

We Add Company Context

Terminology, rules, permissions, and use cases are defined inside the system

MODULE 4

We Prepare the AI for the Job

We define which questions it should answer and the limits it should follow

MODULE 5

We Generate Grounded Answers

The question is matched to the files and turned into a summary, risk note, and next step

MODULE 6

We Keep Improving It

Feedback, new data, and new workflows are used to strengthen the system over time

HOW IT WORKS IN 3 STEPS

We take the file, AI reviews it, and you get a clear result

Reports, drawings, maintenance records, and technical files are turned into simpler outputs with clearer risk and clearer next steps

PDF and report reading OCR and scan cleanup Risk point detection Ready to read summaries
Main Benefit

Faster

Long technical review work is turned into quicker, easier to scan outputs

Main Benefit

Clearer

Dense technical material becomes easier to read and talk through with teams

Main Benefit

Less repetition

We reduce repeated manual work by building digital flows around the same files

01

We take the file

PDF, drawing, table, audio note, or image

02

AI reviews it

Important details, gaps, and risk points are pulled out

03

You get the result

A clearer summary, report, and suggested next step

01

Finding the important point inside files

Scope

Long reports, technical files, and document archives

Solution

We find the relevant part faster and turn it into a short, readable answer

02

Turning old PDFs and drawings into usable data

Scope

Scanned PDFs, old drawings, handwritten notes, and archive documents

Solution

We convert hard to read documents into searchable, usable digital content

03

Finding risky points in plant schemes

Scope

P&ID files, flow schemes, and critical process systems

Solution

We make equipment, key nodes, and risky areas easier to see and review

04

Getting drawings ready for production

Scope

Part designs, raw CAD models, and production drawing packages

Solution

We move draft drawings closer to production by adding the details teams need

05

Turning technical output into a readable report

Scope

Simulation outputs, technical analysis, and reporting needs

Solution

We turn dense technical output into a summary, report, and suggested next step that teams can read quickly

01.5

Local AI That Talks to Your Files

It reads PDF, video, audio notes, and images together, then returns one answer in plain language

Upload the file Ask the question Get the answer
File Area LOCAL
PDF
Maintenance-Report-Q1.pdf Maintenance notes, failure records, and service comments
VID
Line-Monitoring-Clip.mp4 Production line footage with event timing
AUD
Operator-Voice-Note.wav Shift observations captured as audio
IMG
Thermal-Camera-Frame.jpg Heat concentration and image evidence
AI Review Flow CHAT
Reading PDF video audio and images
Matching shared events and context
Preparing one grounded answer
Question
Answer MODEL

Preparing answer from mixed file types

The model finds the relevant parts across PDF video audio and image inputs, then builds one grounded response

Sources are loading
How It Works MULTI
1 Mixed files are read
2 Shared context is found
3 One answer with sources is returned
02

Problems We Help You Understand Faster

We make common production problems like cost, failure risk, and energy loss easier to see

∇²ψ + k²ψ = 0
∂ρ/∂t + ∇·(ρv) = 0
E = ½mv² + mgh
F = ma
PDE Loss + Data Loss = Total Loss

Virtual Prototyping and Optimization

Review parts and processes in a virtual environment before production and reduce repeated trials

Risk Prediction and Mitigation

Helps teams notice heat, pressure, and process risks earlier

Energy and Resource Optimization

Shows energy loss and waste heat areas so improvement opportunities are easier to see

Predictive Maintenance

Helps plan maintenance earlier by tracking wear, fatigue, and damage behavior

03

One Screen Status Summary

Read temperature, pressure, maintenance timing, and core operating data in one place

SAMPLE OPERATIONS NOTE

Turbine Unit A-7 remains inside its operating band based on the current screen

Status Summary

Temperature, pressure, and rotation speed remain within a range that supports continued operation. Friction should still be watched because it is often where the first maintenance related drift begins to build

Analyst View

The AI metrics do not indicate an emergency stop condition. Efficiency remains strong, the anomaly score stays low, and the energy gain metric suggests there is still room for further optimization

Suggested Action

Keep the planned 14 day maintenance window in place instead of forcing an unplanned intervention. If the trend chart or anomaly score rises again, the first inspection target should be the A-7 friction and thermal behavior line

Turbine Unit A-7 ● ONLINE
78°
Temp (°C)
3.2
Pressure (MPa)
0.04
Friction (μ)
2847
RPM
Maint. Est. 14 Days

AI Analysis Metrics

Efficiency
0%
Anomaly Score
0
Energy Saved
0%
Downtime Risk
0%

System Log

13:04:22 Thermal analysis complete
13:03:58 Pressure optimization applied
13:03:12 PINN model updated
13:02:47 Anomaly scan: Normal
04

See Failure Risk Before It Grows

Notice rising equipment risk earlier and make maintenance decisions with less guesswork

SAMPLE RISK NOTE

The current curve remains below the critical threshold but still shows a controlled rise toward the risk band

Status Summary

The blue marker shows that the present condition is still inside the safe zone. The gold prediction curve indicates that the same behavior pattern could move the equipment into a higher risk band over time

Analyst View

The sample remaining life and failure probability values do not justify an immediate shutdown. Even so, the upward direction of the curve means this equipment should move higher in the maintenance priority list

Suggested Action

A planned maintenance window should be opened and extra observation should focus on vibration and thermal drift points. If the approach to the critical line accelerates, the planned intervention should be moved forward

GAUSSIAN FAILURE PROBABILITY T+0:00:00
Current Status Prediction Curve Critical Threshold
QUANTITATIVE DATA OUTPUT

Sample Analysis Report

Equipment Turbine Blade #A7-03
Failure Probability P(fail) = 0.0023
Remaining Life 2,847 ± 124 hours
Confidence Interval 99.7% (3σ)
Suggested Action Planned Maintenance — within 14 days
R(t) = e^(−(t/η)^β)  |  Weibull Distribution β=2.4, η=3200h
04.5

3D Part Analysis

Inspect stress, temperature, and part fit in a digital environment before production

Drag to rotate · Scroll to zoom
SYNPHYS CAD
Camera View
Analysis Tools
LIGHT
CAMERA EULER ANGLES (⍺, β, ɣ)
Roll: 0.00° Pitch: 0.00° Yaw: 0.00°
AI SMART-SNAP
θ = --
Design:--
Simulation:--
Deviation:--
CRITICAL: Stress Accumulation Detected
⌀ 45.2mm (Tolerance ±0.01)
Excessive Stress Zone: 310 MPa
MaterialTi-6Al-4V
Density4.43 g/cm³
Yield Strength880 MPa
Elastic Modulus113.8 GPa

Real-Time Stress Analysis

See how load is distributed across the part in one view

Thermal Deformation Simulation

Review how the part reacts under changing temperatures

Fatigue Life Calculation

Examine fatigue behavior under repeated loading

Tolerance & Fit Control

Check part compatibility digitally before assembly

05

Analysis Layers for Production

We offer a layered analysis structure so a problem can be reviewed from material level up to the full facility

01

1. Micro-Scale: Material, Thermodynamics & Chemical Kinetics

We help reduce laboratory workload by reviewing material behavior and chemical processes digitally

  • Material Science: Phase transitions, phonon distribution, thermal conductivity, and negative thermal expansion analyses of new-generation alloys.
  • Chemical Processes: Exothermic reaction kinetics, reactor safety (pressure buildup and thermal runaway risks).
  • Thermal Management: Heat conduction calculations across electronic components up to large battery systems.
02

2. Macro-Scale: System Dynamics, Vibration & Mechanical Integrity

We help analyze machine, pipeline, and equipment behavior under operating conditions

  • Machinery and Equipment: Rock interaction, wear, and fatigue analysis of mining crushers and drills.
  • Pipelines: Fluid dynamics (CFD) under extreme pressures and acoustic resonance simulations.
  • Damage Analysis: Thermal shock tests and root cause analyses for frequently failing parts.
03

3. Mega-Scale: Environmental Physics & Facility Modeling

We model facility surroundings, storage areas, and environmental effects to support clearer decisions

  • Storage & Silos: Physical modeling of humidity, spontaneous combustion, and load pressure in large-scale repositories.
  • Mine Ventilation: Seismic wave propagation and toxic gas evacuation simulations in underground mines.
  • Environmental Impact: Atmospheric dispersion analysis of factory emissions and waste heat mapping.
04

4. Meta-Scale: Operational Mathematics & Automation

We build automation flows that turn production data into operational decisions

  • Operations Optimization: Production planning including energy costs for continuous sectors like metallurgy and chemistry.
  • Engineering Automation: AI-powered Python scripts reducing week-long data analyses to mere minutes for process engineers.
06

Application Domains

Main sectors we can support

Aerospace

Aerodynamic optimization, structural integrity, and engine performance

Automotive

Production line optimization, quality control, autonomous driving simulations

Energy

Wind turbine optimization, solar panel efficiency, energy storage

Construction

Structural analysis, earthquake simulations, material durability

Pharma & BioTech

Molecular dynamics, drug interaction simulation, bioreactor optimization

Maritime

Ship hydrodynamics, fuel optimization, corrosion prediction models

07

Why SynPhysMath AI?

We combine technical depth with clear business-focused execution

01 Academic Depth and Sectoral Synthesis

We combine software, engineering, and physics knowledge around the real production problem

02 Holistic Approach

We look at the same problem from material level to production line level instead of from a single angle

03 Custom Built Solutions

We build tailored workflows, including local AI solutions that work directly on your files when needed

04 Cost and Time Efficiency

We focus on reducing unnecessary trial cycles, confusion, and decision overhead

Physics + Math + AI
08

Contact & Connect

Send us the problem you want to solve and we can define the clearest next step together