Control systems engineering involves analyzing complex feedback loops, system responses, and optimization parameters. Whether you're designing PID controllers, analyzing system stability, or optimizing performance metrics, the right analytical approach can mean the difference between a robust system and costly instability.
Sourcetable transforms control systems analysis by combining the familiar spreadsheet interface with AI-powered insights. Instead of juggling multiple software tools or writing complex code, you can analyze transfer functions, model system responses, and optimize controller parameters directly in your spreadsheet.
Input your system parameters and get immediate frequency response plots, pole-zero maps, and stability analysis without complex software setup.
Let AI suggest optimal PID gains, analyze system margins, and recommend controller tuning based on your performance requirements.
Model step responses, impulse responses, and frequency characteristics with automatic plot generation and performance metric calculations.
Automatically calculate gain margins, phase margins, and assess system stability with clear visual indicators and recommendations.
Compare different controller designs, analyze trade-offs, and visualize performance differences across multiple system configurations.
Generate professional reports with plots, calculations, and analysis summaries ready for technical documentation or presentations.
A manufacturing facility needed to optimize temperature control for their industrial furnace. The existing PID controller was causing oscillations and poor settling time.
Using Sourcetable, the engineering team input their plant transfer function: G(s) = 2.5/(s² + 3s + 2)
. The AI immediately generated:
A robotics team was designing a precision positioning system requiring sub-millimeter accuracy. They needed to analyze their servo motor control loop performance.
The analysis included:
An aerospace engineering team needed to verify the stability of their altitude hold autopilot system across different flight conditions.
Sourcetable enabled them to:
Enter your transfer function coefficients, system matrices, or upload existing data. Sourcetable recognizes standard control system formats and automatically structures your analysis.
Our AI engine immediately calculates poles, zeros, stability margins, and system characteristics. Get instant insights into system behavior and performance metrics.
Generate professional plots including Bode diagrams, root locus, step responses, and Nyquist plots. All visualizations update automatically as you modify parameters.
Use AI recommendations to optimize controller parameters, then export your analysis as professional reports or share interactive spreadsheets with your team.
Analyze and optimize control loops for chemical processes, manufacturing equipment, and power systems. Improve product quality and reduce waste through better controller tuning.
Design and validate engine control units, anti-lock braking systems, and stability control algorithms. Ensure safety and performance across all operating conditions.
Develop robust autopilot systems, flight management computers, and guidance algorithms. Analyze stability and performance for aircraft and spacecraft applications.
Design precision motion control systems, robotic manipulators, and automated assembly equipment. Optimize trajectory tracking and disturbance rejection.
Analyze switching converters, motor drives, and renewable energy inverters. Design control loops for optimal efficiency and stability under varying loads.
Optimize temperature, humidity, and air quality control systems. Reduce energy consumption while maintaining comfort and indoor air quality standards.
Work with state-space representations for multi-input, multi-output systems. Sourcetable automatically converts between transfer function and state-space forms, calculates controllability and observability matrices, and designs state feedback controllers.
Analyze system uncertainty and design robust controllers using H∞
and μ-synthesis
techniques. Generate uncertainty models and assess worst-case performance across parameter variations.
Linearize nonlinear models around operating points, analyze limit cycles using describing functions, and assess stability using Lyapunov methods. Handle complex nonlinear dynamics with confidence.
Design and analyze discrete-time controllers, perform z-transform analysis, and assess digital implementation effects. Include quantization, sampling, and computational delays in your analysis.
Yes, Sourcetable excels at analyzing complex control architectures including cascaded loops, feedforward controllers, and MIMO systems. The AI automatically identifies loop interactions and provides stability analysis for the complete system.
Our AI uses proven control theory algorithms and optimization techniques. The recommendations are based on classical methods like Ziegler-Nichols tuning, pole placement, and modern optimal control theory, ensuring reliable and theoretically sound results.
Absolutely. Sourcetable accepts data from MATLAB/Simulink, LabVIEW, and other engineering software. You can import transfer functions, time-series data, and frequency response measurements directly into your analysis.
Yes, we include templates and analysis frameworks for automotive (ISO 26262), aerospace (DO-178C), and industrial (IEC 61508) safety standards. The AI can assess compliance requirements and generate appropriate documentation.
While Sourcetable focuses on design and analysis, you can export optimized controller parameters and validation data to real-time platforms. We provide interfaces for popular real-time systems and embedded controllers.
Yes, Sourcetable supports real-time collaboration. Multiple engineers can work on the same analysis simultaneously, with automatic version control and change tracking. Comments and annotations help document design decisions.
If you question is not covered here, you can contact our team.
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