Augmented Engineering with AI-First Approach

AI tools are everywhere, but adoption in engineering processes is random, with developers experimenting individually while teams lack coherent integration strategies. 

At Techstack, we identified three key challenges: speed/quality limitations, economic inefficiency, and AI talent gaps. We asked: How can we adopt AI systematically to speed up development and enhance code quality? How can we convert random AI usage into measurable efficiency?

Our team tackled these challenges head-on. In just two sprints, the core engineering team achieved up to 35% velocity increase while maintaining quality. This case study shares our approach, challenges, and results—offering an honest view of AI-first engineering.

Industry:

Automation processes, Digital Transformation

Services:

AI & ML, Consulting Service

Location:

United States

01

Challenge

Techstack's engineering team faced several ongoing challenges that were limiting productivity and scalability:

  • Lengthy code reviews and quality assurance processes

  • Repetitive coding tasks consuming valuable engineering resources

  • Inconsistent development velocity across sprints

  • Limited capacity for innovation due to ongoing maintenance needs

As development requirements grew, we needed a solution to help our team achieve more. We wanted to achieve this without compromising quality or increasing headcount.

We had to focus on product ownership and use AI as a tool to augment engineering expertise. While it was intended to help us optimize routine tasks, it required careful adoption to ensure alignment within the team. We didn’t aim to replace existing development expertise, but rather to assist in the workflow. 

Balancing this approach with the need to increase development velocity was a complex and challenging task.

02

Solution

We developed a comprehensive AI-powered engineering approach that directly addressed our core challenges:

Comprehensive metrics framework

Created a clear way to measure real impact across our teams.

  • Built a three-pillar measurement system: Productivity metrics: code completion rates, language usage, team velocity Quality metrics: bug density, code coverage, defect rates Adoption metrics: tool usage, engineer satisfaction, feature utilization

  • Established baseline metrics before implementation to ensure accurate comparison

Experimental methodology

Started small to learn what actually works before scaling.

  • Selected core engineering teams as test groups

  • Emphasized an "AI-first" mindset: start with AI, then refine with human expertise

  • Conducted a controlled experiment across two sprints with consistent measurement

Technical stack optimization

Focused on what mattered most in our development environment.

  • Prioritized our most-used languages: JavaScript/TypeScript, Terraform, and YAML

  • Customized AI tools for our specific development patterns and project needs

  • Put in place security measures and NDA agreements to protect our intellectual property

Strategic AI adoption

Integrated AI tools thoughtfully to support our teams, not disrupt them.

  • Implemented GitHub Copilot as the foundation for real-time code assistance

  • Developed contextually-aware custom AI assistants that understood our codebase

  • Gradually integrated AI tools (e.g. GitHub Copilot, Cursor, ChatGPT, Claude) into existing workflows

Workflow transformation

Targeted the most time-consuming parts of our development process.

  • Unit tests are no longer a pain: delegate writing 90% of unit tests to AI, reducing preparation time by over 70%

  • Implemented early-stage code reviews using AI before PR submission

  • Created and shared best-work combinations like VS Code & Copilot & Claude

  • Enabled AI-powered brainstorming for architectural solutions

Knowledge sharing

Built a culture where teams learned from each other's AI successes.

  • Established systems for collaborative learning across teams

  • Created feedback loops for engineers to share successful strategies

  • Documented effective prompts and approaches for common tasks

  • Built an internal knowledge base of AI usage patterns

03

Technologies Used

Strategic selection of AI tools and languages to maximize adoption and results formed the foundation of our approach, balancing technical capabilities with team expertise and project requirements.

Augmented Engineering with AI-First Approach
04

The workflow

Our AI-adoption in engineering unfolded in three distinct phases, each with its own challenges and breakthroughs that transformed our workflows and elevated team productivity.

01

Integration & setup

Laying the foundation for AI-augmented development:

  • Selected engineering teams with complex products

  • Integrated custom AI assistants and out-of-the-box solutions

  • Established security measures and NDA agreements

  • Initial training focused on basic AI-assisted cases

02

Initial exploration

Building confidence through low-risk experimentation:

  • Launched two-sprint experiment with "AI-first" directive for all tasks

  • Started with simple use cases code generation

  • Identified language-specific adoption patterns

  • Increased AI assistant for unit test generation

  • Created collaborative learning environment for sharing insights

03

Expanding capabilities

Scaling AI usage to more complex engineering tasks:

  • AI-augmentation code reviews before formal PR submissions

  • Collaborated with AI in brainstorming and solution exploration

  • Maintained quality standards with consistent bug density metrics

  • Measured team velocity improvements & AI-penetration

  • Presented final results for teams and stakeholders

05

About the team

For this AI-adoption initiative, we took a streamlined approach. Instead of creating a specialized team, we assigned one engineering manager drove our AI adoption effort. The manager collaborated directly with leadership on strategy, with architects on integration, and with engineers on day-to-day usage. This approach speed up adoption and allowed AI tools to integrate naturally into existing workflows without disrupting team dynamics.

Team composition

  • Engineering manager

    1

06

Impact

The results delivered measurable business value across all key metrics:

Accelerated productivity & efficiency

Routine tasks transformed into development velocity.

  • Up to 35% increase in team velocity (measured in story points) compared to previous sprints

  • Engineers spent 65-70% less time on repetitive tasks

  • Approximately 3.5K AI-generated code lines accepted from 20K+ suggestions

  • TypeScript showed the highest AI acceptance rate, offering language-specific optimization opportunities

Consistent code quality

Despite faster development, quality remained stable throughout the transition.

  • Bug density remained unchanged as teams actively integrated AI-generated code (~30%)

  • AI-assisted code maintained the same quality standards as human-written code

  • Developers used AI to find edge cases and improve test coverage

Organizational transformation

Engineers became advocates for expanding AI integration across more workflows.

  • Teams reduced review cycles through AI-assisted early-stage code reviews

  • AI handled repetitive coding tasks, freeing engineers for higher-value work

  • Initial investment in AI tools quickly offset by reduced need for multiple third-party subscriptions

  • Team members created knowledge sharing systems to spread successful AI practices

Let’s create together!
Get in touch with us
07