Competencies

Conceptual Design

A new product development process begins with the accurate definition of requirements. A robust concept design reduces risks in subsequent design, manufacturing, and validation phases while accelerating decision-making. P-Dynamics conducts concept design activities using a systematic approach, supported by extensive experience in greenfield project development.

During the concept design phase, mission definition, operational needs, and technical constraints are evaluated together to develop scalable solutions at system and subsystem levels.

Concept Design Scope

Definition of system and subsystem requirements

Functional architecture and system layout

Platform- and mission-based concept alternatives

Modularity and variant development studies

Early-stage sizing and feasibility assessments

Mechanical Design

Mechanical design is a fundamental engineering discipline that directly determines a product’s performance, reliability, and manufacturability. P-Dynamics approaches mechanical design at system and subsystem levels, delivering integrated and scalable solutions aligned with defined requirements.

Our design process covers the holistic evaluation of mechanical subsystems such as load-bearing structures, moving mechanisms, mounting structures, and protective housings. Design decisions are made by considering platform architecture, ease of maintenance, and field operating conditions.

The P-Dynamics mechanical design approach prioritizes modularity, manufacturability (DFM/DFA), serviceability, and life-cycle cost criteria. This enables the development of mechanical platforms adaptable to different mission profiles and configurations.

Mechanical Design Scope

System- and subsystem-level mechanical architecture

3D CAD part and assembly designs

Modular and scalable mechanical platforms

Design for manufacturing and assembly (DFM/DFA)

Technical drawings and production documentation

Designs compatible with mechanical–electrical–software integration

Structural Analysis

Structural analysis is a critical step in verifying and optimizing mechanical designs. P-Dynamics treats structural analysis not merely as a strength verification activity, but as an engineering tool that actively guides the design process.

For different mission profiles and operational conditions, analyses are conducted based on defined static, dynamic, and combined load scenarios. This approach enables balanced solutions between structural strength requirements and weight and cost targets.

Using Finite Element Analysis (FEA) methods, critical regions are identified and improved during early design stages. This reduces the need for physical prototypes, shortens development time, and allows entry into field testing with more mature designs.

Structural Analysis Scope

Static and quasi-static load analyses

Dynamic load and acceleration scenarios

Stress, displacement, and safety factor evaluations

Weight and geometry optimization

Pre-test structural verification

Modelling & Simulation

Modeling and simulation are fundamental engineering tools that reduce risk and accelerate decision-making in the development of complex systems. P-Dynamics establishes an end-to-end simulation infrastructure using a model-based design (MBD) approach, covering the process from concept development to validation.

Developed system models encompass mechanical, dynamic, and control subsystems. This enables low-cost evaluation of different mission scenarios, environmental conditions, and usage profiles before physical prototype manufacturing.

Simulation activities are not limited to theoretical analyses; they are conducted using models validated through field tests and experimental data. This approach supports early identification of critical parameters and reliable prediction of system performance.

Modeling and Simulation Scope

Dynamic modeling at system and subsystem levels

Mission- and usage-scenario-based simulations

Validation of control algorithms in simulation environments

Parametric studies and sensitivity analyses

Model validation using test data (model correlation)

Controls & Software

Control systems and software form the core layer that enables mechanical and electronic subsystems to operate together. P-Dynamics develops control algorithms and software solutions based on system integrity and real-time operation principles.

Developed control structures are tested and refined on simulation-validated system models. This ensures that algorithm performance, stability, and boundary conditions are evaluated before deployment to physical systems.

P-Dynamics develops control and software architectures for semi-autonomous and autonomous systems, covering state estimation, motion control, and decision-making layers. Software solutions are configured in accordance with the target platform’s hardware and mission requirements.

Control Systems and Software Scope

Control design at system and subsystem levels

State estimation and sensor fusion frameworks

Real-time control algorithms

Validation and tuning in simulation environments

Software architectures aligned with hardware and mission requirements

Vehicle Dynamics

Vehicle dynamics is the engineering discipline that defines a vehicle’s behavior in response to environmental influences and driving inputs. P-Dynamics considers vehicle dynamics not merely as an analyzed output, but as a fundamental system input that feeds control and autonomous functions.

Activities include the combined modeling of lateral, longitudinal, and vertical dynamics. For multi-axle, high-mass, or mission-oriented ground vehicles in particular, vehicle dynamic responses are analyzed under varying speed, load, and terrain conditions.

Developed vehicle dynamics models are validated in simulation environments and utilized in the development of control algorithms and driving strategies. This approach enables early-stage prediction of vehicle stability, maneuverability, and safety performance.