Measurable Impact on Development Operations
Our services deliver documented improvements in deployment speed, system reliability, and team productivity.
Back to HomeWhat Our Services Accomplish
Results vary by project scope and team engagement, but these categories represent typical outcomes.
Technical Performance
- • Reduced deployment time through automation
- • Improved server response times under load
- • Lower error rates in production environments
- • Better resource utilization efficiency
Development Velocity
- • Faster iteration cycles on new features
- • Reduced time spent on manual processes
- • Quicker bug identification and resolution
- • More predictable release schedules
System Reliability
- • Higher uptime percentages
- • More graceful handling of traffic spikes
- • Better monitoring and alerting systems
- • Improved disaster recovery capabilities
Team Efficiency
- • Less time on infrastructure maintenance
- • Clearer workflows for common tasks
- • Better collaboration through standardization
- • More focus on creative development
Performance Indicators
These metrics represent typical improvements observed across projects completed between October 2024 and December 2025.
Project Success Factors
Strong Performance Drivers
- Clear initial requirements and scope definition
- Regular communication during implementation
- Team involvement in testing and feedback
- Adequate documentation and knowledge transfer
Common Challenges
- Underestimated complexity in legacy systems
- Scope expansion without timeline adjustments
- Delayed decisions on architectural choices
- Insufficient testing time before deployment
Methodology Application Examples
These scenarios show how our systematic approach addresses different technical challenges.
Multiplayer Backend Scaling
Challenge
A mobile puzzle game was experiencing server timeouts when player count exceeded 500 concurrent users. The existing architecture used a single server instance with no load distribution.
Solution Applied
We implemented horizontal scaling with load balancing and session management. The process involved:
- 1. Analyzing traffic patterns to identify bottlenecks
- 2. Containerizing the application for easier deployment
- 3. Setting up auto-scaling based on CPU and memory metrics
- 4. Implementing Redis for distributed session storage
- 5. Load testing to verify performance under stress
Results Achieved
The system now handles up to 2,000 concurrent users comfortably. Response times improved from 800ms average to 120ms. The infrastructure automatically scales during peak hours and reduces costs during off-peak periods.
DevOps Pipeline Implementation
Challenge
A small studio was manually building and deploying their game, taking 3-4 hours per release. This process required coordinating multiple team members and frequently resulted in configuration errors.
Solution Applied
We established a continuous integration and deployment pipeline:
- 1. Set up version control workflow with branch protection
- 2. Configured automated builds triggered by code commits
- 3. Integrated unit and integration test suites
- 4. Created staging environment for pre-release validation
- 5. Automated deployment to production with rollback capability
Results Achieved
Deployment time dropped to 20 minutes with minimal manual intervention. The team now deploys 3-4 times per week instead of once every two weeks. Production incidents decreased by 70% due to automated testing.
Logistics Game Mechanics Optimization
Challenge
A logistics puzzle game had performance issues when simulating complex supply chains. Frame rates would drop below 30fps with more than 100 active entities, limiting level complexity.
Solution Applied
We refactored the simulation engine for efficiency:
- 1. Profiled code to identify performance bottlenecks
- 2. Implemented spatial partitioning for collision detection
- 3. Moved calculations to update cycles instead of every frame
- 4. Added object pooling to reduce garbage collection
- 5. Optimized pathfinding algorithms with caching
Results Achieved
The game now maintains 60fps with 400+ active entities. This allowed for more complex puzzle designs and better player satisfaction. CPU usage decreased by 55%, improving battery life on mobile devices.
Project Development Stages
Most projects follow this general progression, though specific timelines vary based on scope.
Discovery & Planning (Week 1-2)
Initial assessment of existing systems, requirements gathering, and technical specification development. We identify priorities and potential challenges.
Foundation Building (Week 2-4)
Core infrastructure setup, initial implementations, and establishing basic functionality. Early testing begins to validate approach.
Iteration & Refinement (Week 4-8)
Expanding functionality, performance optimization, and addressing edge cases. Regular feedback loops ensure alignment with goals.
Testing & Documentation (Week 8-10)
Comprehensive testing under various conditions, documentation creation, and team training on new systems.
Deployment & Handoff (Week 10-12)
Gradual rollout to production, monitoring for issues, and final knowledge transfer. Support continues during initial operation.
Note: These timeframes represent typical projects in the $2,000-$7,000 range. Larger implementations may take 3-6 months. Smaller focused tasks can be completed in 1-2 weeks.
Sustainable Technical Improvements
Our implementations focus on lasting value, not just immediate fixes.
Beyond Project Completion
The infrastructure and processes we establish continue providing value long after initial deployment. Teams report ongoing benefits months and years later.
- • Automated systems keep running without constant attention
- • Well-documented code enables future modifications
- • Scalable architecture grows with your player base
- • Established patterns guide new feature development
Knowledge Transfer
We ensure your team understands the systems we build. This independence is crucial for long-term success.
- • Comprehensive documentation for all implementations
- • Training sessions covering key systems and workflows
- • Clear troubleshooting guides for common issues
- • Follow-up support during initial operational period
Maintenance Efficiency
Good architecture reduces ongoing maintenance burden. Systems we build are designed to be maintainable by your existing team.
- • Modular design allows updating individual components
- • Monitoring tools alert to issues before they escalate
- • Standardized approaches reduce learning curve
- • Regular updates keep dependencies secure
Adaptability
Requirements change as your game evolves. We build flexibility into our solutions from the start.
- • Infrastructure scales up or down based on demand
- • Clean interfaces allow swapping components
- • Configuration over hard-coding enables easy adjustments
- • Future enhancements integrate smoothly
Engineering for Longevity
Several principles guide our approach to ensure lasting impact.
Industry-Standard Technologies
We use established tools and frameworks with strong community support. This means your team can find resources, hire talent familiar with the stack, and rely on continued development of core dependencies.
Modular Architecture
Systems are divided into discrete, well-defined components. This isolation means problems in one area don't cascade throughout the system, and improvements can be made incrementally without requiring complete rewrites.
Operational Monitoring
We implement logging, metrics, and alerting from the start. Understanding system behavior in production allows proactive maintenance rather than reactive firefighting.
Documentation Culture
Every significant decision is documented with rationale. Future team members understand not just what was built, but why those particular approaches were chosen.
Realistic Planning
We don't over-engineer for hypothetical future needs, but we also don't paint ourselves into corners. The systems we build address current requirements while remaining extensible.
Track Record of Technical Excellence
Netheroak has delivered game development infrastructure services since 2017, working with studios across Europe, North America, and Asia. Our Hamburg-based team brings engineering discipline to creative projects, applying lessons from maritime logistics and industrial systems to digital development challenges.
Our specialization in logistics puzzle games stems from deep understanding of optimization problems. These games require balancing computational efficiency with intuitive gameplay, a challenge we've successfully addressed in multiple projects. The systems we've built handle everything from simple warehouse puzzles to complex multi-stage supply chain simulations.
Multiplayer infrastructure work represents our largest service category. We've scaled backends from hundreds to thousands of concurrent players, implementing solutions that maintain low latency across geographic regions. Our approach prioritizes reliability and maintainability over cutting-edge but unstable technology.
DevOps implementation has become increasingly important as game development teams face pressure to release updates quickly. Our pipeline setups reduce manual work while maintaining quality through automated testing. Teams report significant time savings and fewer production incidents after implementation.
Results vary based on project scope, existing technical debt, and team engagement. The metrics and case studies on this page represent typical outcomes from projects completed between October 2024 and December 2025. We approach each project individually, adapting our methodology to specific circumstances rather than applying one-size-fits-all solutions.
Discuss Your Technical Challenges
If these results align with your needs, we should talk about your specific situation. We can assess whether our services would provide similar benefits for your project.
Start a ConversationNo pressure, no commitment. Just an honest discussion about what might work.