ContiMech
Robotics & Automation Engineering

Capabilities/Engineering Project Planning

Engineering Project Planning

Turn an engineering idea into an executable plan.

We connect scope, engineering work, roles, standards, procurement, manufacturing, verification, logistics and cost into one realistic delivery model — before the project starts consuming serious time and money.

Proposal preparationRoles & effortPhases & timelineStandardsDeliverablesBudgetRisk
Project model
01
Project definitionScope · assumptions · constraints · acceptance
Baseline
02
Engineering workstreamsSystem · HW · FW · MECH · Test · Manufacturing
Mapped
03
Dependencies & gatesCritical path · reviews · readiness · lead times
Linked
04
Cost & riskEffort · hardware · logistics · tax · contingency
Visible
Engineering effort
Hardware & manufacturing
Standards & verification
Supply chain & logistics
Budget & risk
What we plan

The whole delivery system, not just the Gantt.

Engineering planning starts from the product and works backwards. We define what must exist at the end, what evidence will prove it, which activities create it, which roles and tools are required, and which dependencies shape the real timeline.

01 / PROJECT

Scope & Project Definition

Goals, system boundaries, assumptions, constraints, customer inputs, exclusions, open questions and acceptance conditions.

ScopeAssumptionsConstraintsAcceptance
02 / WORK

Phases & Work Breakdown

System, hardware, firmware, mechanics, modelling, integration, manufacturing and certification decomposed into work that can be estimated and assigned.

WBSWork packagesDependencies
03 / TEAM

Roles & Resource Model

Required competencies, responsibility split, expected seniority, effort, phase involvement and external expertise.

RolesOwnershipEffort
04 / COMPLIANCE

Standards & Regulatory Planning

Applicable standards translated into required engineering activities, evidence, verification work and responsible roles.

SafetyEMCCEProcess
05 / OUTPUT

Deliverables & Acceptance

Concrete outputs per phase: specifications, design artifacts, manufacturing packages, test evidence and acceptance criteria.

DeliverablesEvidenceGate criteria
06 / ENABLEMENT

Tooling & Infrastructure

Engineering software, licenses, repositories, test equipment, prototype hardware, fixtures and manufacturing tooling.

ToolsLicensesTest equipment
07 / COMMERCIAL

Cost & Budget Model

Engineering, hardware, prototypes, manufacturing, external services, transport, customs, taxes and risk contingency.

EngineeringBOMLogisticsContingency
08 / RISK

Risk Analysis

Technical, schedule, supply-chain, manufacturing, compliance and external-dependency risks with owners and mitigation.

ProbabilityImpactMitigation
UnderstandKnown, assumed, missing.
StructureSystem and workstreams.
DecomposePhases, tasks, dependencies.
EstimateEffort, tools, hardware, cost.
ValidateCross-check plan and risks.
BaselineExecution-ready project model.
Timeline that reflects engineering reality

Plan by readiness gates, not by wishful dates.

A target delivery date is useful. A dependency model is what makes it credible. We connect engineering reviews, prototype iterations, component availability, manufacturing, integration and verification into a critical path.

G01
Requirements Baseline

Scope and critical inputs are sufficiently defined.

G02
Architecture Review

System split, interfaces and key technical decisions are agreed.

G03
Design Release

Engineering package is ready for prototype commitment.

G04
Integration Readiness

Required components, firmware and test setup are available.

G05
Verification & Acceptance

Planned evidence is produced and reviewed.

G06
Production / Delivery Readiness

Product and supporting package can move to the next lifecycle stage.

Cost model

See the real project budget before commitments are made.

For a physical product, engineering is only one cost category. The planning model can include prototype and production hardware, external manufacturing, specialist services, logistics, duties, taxes and contingency.

E
EngineeringRoles, effort, reviews, integration.
H
HardwareComponents, PCBAs, mechanics, harnesses.
M
ManufacturingPrototypes, tooling, assembly, series.
X
External servicesLabs, certification, consultants.
L
Logistics & taxTransport, insurance, customs, VAT.
R
ContingencyReserve tied to identified risk.
What you receive

An Engineering Project Planning Package.

One coherent baseline that can be used to launch development, compare delivery scenarios or build a technical and commercial proposal.

01
Project DefinitionScope, assumptions, constraints and clarification list.
02
Technical Execution ModelEngineering workstreams, work packages and dependencies.
03
Project Phases & MilestonesDevelopment phases, gates and readiness points.
04
Timeline & Critical PathTask sequencing, parallel activities and external lead times.
05
Team PlanRoles, ownership, effort and phase involvement.
06
Deliverables MatrixExpected engineering outputs and acceptance criteria.
07
Standards & Compliance MatrixApplicable standards and resulting project activities.
08
Tooling PlanSoftware, equipment, licenses and project infrastructure.
09
Cost ModelEngineering, hardware, manufacturing, services and logistics.
10
Risk RegisterRisk impact, ownership, mitigation and contingency.
11
Proposal PackageWhen required, the plan is converted into a structured technical and commercial proposal.
Delivery scenarios

One project can have more than one valid plan.

We make the trade-off visible. The same technical result can often be reached through a balanced baseline, an accelerated path with more parallel work, or a cost-optimized sequence with lower early expenditure.

Recommended reference

Baseline

Balanced calendar duration, engineering load and project risk.

  • Controlled parallelization
  • Normal review cadence
  • Balanced contingency
Time priority

Accelerated

Shorter elapsed time through additional parallel activities and earlier commitments.

  • Higher coordination load
  • Earlier procurement decisions
  • Higher rework exposure
Spend priority

Cost-Optimized

Lower early expenditure with staged investment and reduced parallelization.

  • Longer elapsed duration
  • Delayed external commitments
  • Lower early burn rate
Worked examples

Different products. The same planning discipline.

These examples are deliberately generic. They illustrate the planning problem without reusing any client-specific architecture, commercial data or confidential implementation detail.

Embedded product

Multidisciplinary control device

Starting point

Functional concept and preliminary interfaces for an industrial electronic device.

Planning challenge

Electronics, MCU firmware, enclosure, communication, prototype manufacturing and system verification must converge.

Execution model

System definition → HW / MECH → FW → Prototype → Integration → Verification → Series readiness

Simulation

Industrial process model

Starting point

A physical process must be represented in simulation and calibrated against measured equipment behavior.

Planning challenge

Model progress depends on an experiment executed by the equipment owner.

Execution model

Baseline model → Experiment definition → Measurement → Calibration → Validation → Handover

Test system

Controller test platform

Starting point

A real controller must operate against simulated sensors and actuators in a portable test environment.

Planning challenge

Electrical interfaces, runtime software, models and mechanics have different readiness dependencies.

Execution model

Architecture → Interfaces → HW / SW / Model → Assembly → Integration → Acceptance

Planning before commitment

Build the project before you build the product.

A realistic plan is cheaper than discovering missing engineering, manufacturing or certification work during integration. We can start from an RFQ, a product concept, preliminary requirements or an existing project that needs replanning.

Plan your engineering project