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Scope of Work AI/ML-Based Predictive Active Hydro-Pneumatic Suspension Control Software Development Project Overview We are developing an Active Hydro-Pneumatic Suspension System for a heavy off-road defence/mining vehicle. The mechanical suspension, hydraulic system, proportional valves, ECU hardware, and sensors are being developed in-house. The objective of this project is to develop an AI/ML-based suspension control algorithm capable of operating in two configurations: Configuration A: Accelerometer-based Active Suspension Control. Configuration B (Optional): LiDAR-assisted Predictive Active Suspension Control. The software shall automatically control the proportional hydraulic valves to achieve optimum ride comfort, vehicle stability, and suspension performance. Scope of Development Phase 1 – Sensor Integration Develop software interfaces for the following sensors: Mandatory 3-axis Accelerometer Gas Pressure Sensor (Hydro-Pneumatic Suspension) Suspension Position / Displacement Sensor Vehicle Speed Signal Optional Steering Angle Sensor LiDAR Sensor (for predictive mode) Note: Hydraulic pressure sensors, GPS and RGB cameras are not part of the present scope. Phase 2 – Active Suspension Control Develop the suspension controller capable of: Processing accelerometer signals Estimating road-induced vibration Determining suspension response requirements Controlling proportional hydraulic valves Regulating valve opening and closing continuously Optimizing damping characteristics Minimizing vertical acceleration transmitted to the vehicle body The controller shall support multiple terrain conditions while maintaining ride comfort and stability. Phase 3 – Predictive Suspension (Optional) If LiDAR is available: Develop predictive algorithms capable of: Reading terrain profile ahead of the vehicle Predicting wheel impact Pre-adjusting proportional valve opening Optimizing damping before obstacle impact The software architecture shall be modular so that LiDAR functionality can be enabled or disabled without affecting the accelerometer-based control strategy. Phase 4 – AI/ML-Based Adaptive Learning Develop machine learning algorithms capable of learning from: Suspension displacement Vehicle acceleration Vehicle speed Gas pressure Driver inputs (if steering signal available) The controller shall progressively improve suspension performance by adapting valve control parameters under varying operating conditions. Phase 5 – Suspension Health Diagnostics Develop intelligent diagnostic algorithms capable of detecting: Gas leakage Proportional valve degradation Sensor failures Abnormal damping characteristics Seal wear The system shall generate diagnostic warnings and maintenance recommendations based on observed suspension behaviour. Phase 6 – Control Strategy Develop software capable of: Real-time proportional valve control Adaptive damping control Ride comfort optimization Roll mitigation (using available sensors) Pitch mitigation (using available sensors) Fail-safe operation during sensor failure Manual tuning of controller parameters Phase 7 – User Interface Develop a graphical interface displaying: Vehicle acceleration Suspension displacement Gas pressure Valve command Suspension operating mode Diagnostic status Alarm messages Historical performance trends Deliverables The selected developer/team shall provide: Complete source code AI/ML models Control algorithms Embedded software GUI software Documentation Installation guide Parameter tuning guide Testing report Support during integration with our hardware Preferred Technical Skills Vehicle Dynamics Active Suspension Systems Control Systems Machine Learning Signal Processing Embedded Systems Python C/C++ MATLAB/Simulink (preferred) CAN Communication Real-Time Control Systems Additional Recommendations Preference will be given to AI/ML companies, university research groups, or multidisciplinary engineering teams with proven experience in: Active or Semi-Active Suspension Systems Vehicle Dynamics and Chassis Control Automotive Control Algorithms Heavy Off-Road Vehicles Mining Equipment Defence Mobility Platforms Robotics and Autonomous Ground Vehicles Real-Time Embedded Control Systems AI/ML applications in mechatronic systems Applicants should demonstrate previous work in control systems, embedded AI, or intelligent vehicle technologies. Experience in simulation tools such as MATLAB/Simulink, CarSim, AMESim, or similar vehicle dynamics software will be considered an advantage
Project ID: 40586066
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22 freelancers are bidding on average ₹115,932 INR for this job

Drawing on my comprehensive skills and experience as an Electrical Engineer, I am ideally positioned to deliver impeccable results for your challenging AI-Hydro-Pneumatic Suspension System project. My intimate understanding of Embedded Systems is a crucial advantage in developing the system software interfaces for various motion sensors. I have a proven track record of translating motion sensor signals into real-time, accurate control algorithms that optimize damping characteristics for optimal ride comfort and vehicle stability and significantly lower vertical accelerations. Moreover, my specialization in Firmware Development (using C/C++), combined with my adeptness in utilizing Machine Learning methodologies for edge devices, will drive innovation and ensure your Suspension System realizes superior performance, adapts to varying terrain conditions, and progressively improves with adaptive learning. Additionally, my proficiency in developing Graphical User Interfaces (GUIs) will provide you with an intuitive tool that intelligently presents critical vehicle operational data and historical performance trends—a-game changer for predictive diagnostics and monitoring suspension health, given the complexity of this pioneering system. Your project necessitates a multi-disciplinary approach, which is at the heart of my expertise.
₹150,000 INR in 30 days
7.2
7.2

Hello there, we are a team of senior AI ML automation Full Stack Web and Mobile App Developers. Please, send me a message to discuss the work and finish in no time. Thanks Ashish Kumar.
₹112,500 INR in 7 days
4.3
4.3

As an accomplished Founder at Solves Inn, I possess a comprehensive set of skills that encompass all aspects required for your AI-Hydro-Pneumatic Suspension Control Development project. Having worked on various complex projects across different industries, I have a deep understanding of machine learning, control systems, vehicle dynamics, and signal processing - exactly the kind of knowledge base your project demands. Not only are we proficient in Python (the language of choice for many machine learning algorithms) but also in C/C++ favored for embedded systems. We have relevant experience with your preferred MATLAB/Simulink software as well, assuring compatibility with your existing setup. Moreover, our proficiency in real-time control systems along with CAN communication will prove valuable for integrating the software with your hardware seamlessly. In addition to technical excellence, our approach is centered around turning complex requirements into clean, scalable systems. This unique perspective resonates perfectly with your need for adaptive learning algorithms capable of observing suspension behavior and generating intelligent maintenance recommendations. Our inclusive support includes comprehensive documentation (installation, parameter tuning, etc.) making sure you're fully equipped post-project completion.
₹75,000 INR in 10 days
4.0
4.0

Active hydro-pneumatic suspension with AI/ML control is a systems integration job: sensor fusion, valve control, and adaptive learning. I’ve shipped two predictive control projects (Python/C++, MATLAB/Simulink): inertial and pressure sensor integration, CAN communication, and closed-loop algorithms for mining equipment and robotics platforms. Phase sequencing: First, build and validate sensor interfaces (Accel, pressure, position, speed as mandatory; modular option for LiDAR). Active suspension loop coded in C++ for real-time control, pipelines for Python-based ML adaptive logic and diagnostics. Simulink for control law prototyping, then deploy on ECU, with all code handover, docs, and GUI/visualization app showing real-time and trends. Is your in-house ECU running Linux, RTOS, or bare metal? That guides the embedded development and CAN interface. I can start with phased milestones and code docs ready for your hardware test rounds. Pradeep
₹112,500 INR in 7 days
3.7
3.7

Welcome to professional Python development services! Hi there, I'm Alema, a Python expert programmer who strives for clear code in atmospheric, numerical weather prediction, physics, and all other seminal fields. I'm ready to provide you with high-quality services. I have completed 350+ projects with a 100% Positive Rating. If you are looking for Quality work, look no further. Tech stack: Python, FastAPI, Django PostgreSQL, SQLAlchemy React, JavaScript, TypeScript Docker, Docker Compose CI/CD (GitHub Actions, GitLab CI) AWS (EC2, S3, Lambda, ECS), DigitalOcean, Heroku NGINX, Caddy If you're looking for a reliable Python backend developer to help with your project, feel free to reach out. Your faithfully. Eng. Alema Akter
₹75,000 INR in 1 day
3.2
3.2

Hi, there I have experience in control systems, embedded software, signal processing, AI/ML applications, and sensor integration for intelligent mechatronic platforms. I have worked with real-time control algorithms, predictive models, data processing pipelines, and hardware-software integration for complex engineering systems. For this project, I would approach the work in a modular way. The first step is integrating all required sensors and validating data quality. Then, the active suspension controller will be developed using vehicle dynamics models and adaptive control strategies. The AI/ML layer will be trained using suspension behaviour, acceleration, speed, and pressure data to continuously improve damping performance. The software architecture will keep LiDAR-based predictive control independent, allowing it to be enabled when required without affecting the main controller. Diagnostic functions, fail-safe logic, parameter tuning tools, and a monitoring GUI will also be included to support testing and integration with your hardware platform. I would be glad to discuss previous control system experience and explore how this solution can be adapted for your defence and mining vehicle requirements. Thank you, Jaroslav Caprata
₹75,000 INR in 15 days
3.3
3.3

With my extensive and varied background in AI/machine learning development, particularly within the automotive domain, I am confident I can not only meet but exceed your needs for this project. My expertise spans from working on the autonomous driving domain with companies like 'Relevance AI', ‘Multi AD’ to 'Local Motors' where I focused on developing intelligent control algorithms and utilizing sensor inputs to optimize vehicle performance and safety. Hence, I possess a deep understanding of advanced suspension control systems much like the one you're aiming to develop. Crucially, I bring practical experience in using Python, C/C++, and MATLAB/Simulink for real-time control systems, which will be crucial in ensuring your AI/ML-based suspension control software functions optimally and consistently for your off-road defense/mining application. Moreover, my proficiency in signal processing combined with my capacity for adapting machine learning models based on sensor outputs (e.g., accelerometer signals, gas pressure readings), aligns perfectly with your project's needs. Lastly, I pride myself on being a collaborator-and-communicator-in-chief. Your scope demands going beyond software development to facilitating installation and integration with your in-house hardware alongside providing exhaustive documentation and support.
₹105,000 INR in 3 days
2.7
2.7

I'd like to contribute specifically to the AI/ML and signal processing layers of this project — Phases 2, 4, and 5 in your scope. My relevant background: I've worked with sensor data processing and deep learning pipelines in Python (PyTorch, TensorFlow), including building models that process multi-channel time-series signals. My work on thermal satellite imagery super-resolution involved preprocessing 11-band sensor data, designing custom loss functions, and optimizing model outputs against physical constraints — a similar mindset to what Phase 4's adaptive learning requires. For Phase 2, I can develop the ML model that learns suspension response patterns from accelerometer, displacement, and pressure signals, and outputs valve control recommendations. For Phase 4, I can build the adaptive learning loop that updates control parameters based on accumulated operating data. For Phase 5, I can develop anomaly detection algorithms for gas leakage, valve degradation, and sensor failure using unsupervised or semi-supervised ML. I'm transparent that embedded systems, CAN communication, and MATLAB/Simulink are outside my current expertise — so I'd be most effective as the AI/ML developer working alongside your hardware and control systems team, rather than as a solo end-to-end developer. If that scope fits your needs, I'd be glad to discuss further.
₹82,500 INR in 7 days
0.0
0.0

Hi, I can develop this AI/ML predictive suspension control architecture. As an Electrical Engineer specializing in custom autonomous robotics, embedded C/C++, and real-time control systems, this aligns perfectly with my stack. My recent work involves processing 2D LiDAR data using non-linear least squares algorithms for real-time spatial measurement. This translates directly to your Phase 3 requirement for reading terrain profiles and pre-adjusting proportional valves before wheel impact. I also regularly build real-time web/Python GUIs for robot telemetry, covering your Phase 7 needs. Milestone 1 : Writing low-level embedded drivers for the 3-axis accel, gas pressure, and displacement sensors. Developing the foundational closed-loop control strategy to continuously regulate proportional hydraulic valves for optimal damping. Milestone 2:Building the modular LiDAR terrain-reading algorithm. Integrating the adaptive ML model that learns from historical displacement and acceleration to refine valve control parameters dynamically. Milestone 3:Developing diagnostic algorithms to flag gas leaks or valve degradation. Building the graphical interface to display live telemetry, alarms, and historical trends. Milestone 4:Python/MATLAB algorithm validation, documentation, parameter tuning guide, and remote integration support.
₹100,000 INR in 45 days
0.0
0.0

Hi there, As an AI Engineer and Systems Architect (from IIT KGP) specializing in autonomous mobility and real-time control loops, this falls directly into my core domain. I build embedded control algorithms for heavy robotics and vehicular platforms. My Execution Strategy for your HPS System: Phase 1 & 2 (Core Control): I will develop the primary state-estimation loop in C/C++ or MATLAB/Simulink to process the 3-axis accelerometer, displacement, and speed signals. Using an LQR (Linear Quadratic Regulator) or Skyhook strategy, the controller will continuously output high-frequency PWM to regulate the proportional valves, minimizing vertical chassis acceleration. Phase 3 (Predictive LiDAR): I will architect the software modularly so incoming LiDAR point-cloud data (via ROS2/Python) feeds a predictive horizon algorithm, allowing the system to pre-charge or bleed valve pressure before wheel impact. Phase 4 & 5 (AI & Diagnostics): I will implement an embedded Reinforcement Learning agent (or adaptive Kalman filters) to auto-tune damping parameters based on historical gas pressure and displacement data, inherently detecting seal wear or valve degradation. Regarding your clarification board: Do you have a baseline AMESim or Simulink plant model of the hydraulic struts, or will we need to derive those transfer functions from scratch? Best regards,
₹125,000 INR in 36 days
0.0
0.0

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