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The Problem
Critical technology decisions can’t wait for bandwidth
Enterprise engineering teams are focused on delivering today’s roadmap. But CTO offices also need to evaluate what comes next: new product ideas, emerging technologies, AI use cases, architecture choices, and build-vs-buy decisions.
These questions demand focused exploration and evidence, yet internal teams often lack the bandwidth to investigate them quickly without slowing delivery.
Technology advisory brings dedicated senior engineering expertise, rapid prototyping, architecture assessments, and structured experiments to evaluate options faster, reduce uncertainty, and make confident technology decisions.
What we do
Six ways we help make better tech decisions
Validate early ideas and assess architectures at scale with senior engineering expertise and structured experimentation.
Assess architecture choices, dependencies, and risks—and define the path needed for what comes next.
- Architecture Audits: Uncover bottlenecks and technical risks through dependency analysis, architecture reviews, and technical debt assessments.
- Cloud & Application Architecture Reviews: Evaluate scalability, resilience, and cost efficiency through workload analysis, architecture assessments, and cloud benchmarking.
- Microservices & API Design: Define service boundaries and scalable APIs using domain-driven design, API contracts, and integration patterns.
- Data Architecture & Pipelines: Improve data reliability and processing through data flow analysis, pipeline assessments, and schema optimization.
- Security & Integration Architecture: Identify vulnerabilities and integration risks through threat modeling, security architecture reviews, and API assessments.
- Scaling Paths & Capacity Planning: Prepare for growing workloads through performance modeling, load testing, and infrastructure capacity forecasting.
- Build vs. Buy Decisions: Compare technology options through technical POCs, total cost of ownership (TCO) analysis, and feasibility assessments.
- Incremental Modernization: Reduce migration risks through the strangler fig pattern, phased cutovers, and parallel-run validation.
Identify the constraints that could affect performance today or limit growth tomorrow.
- Application Performance Profiling: Identify code-level bottlenecks through CPU/memory profiling, flame graphs, and distributed tracing.
- Load & Stress Testing: Validate system resilience under peak workloads using load, spike, soak, and breakpoint testing.
- Latency & Throughput Analysis: Improve response times and processing capacity through P95/P99 analysis and distributed tracing.
- Database Optimization: Accelerate data access through query tuning, indexing, partitioning, and execution-plan analysis.
- Caching Strategy: Reduce latency and database load through cache-aside patterns, TTL optimization, and intelligent invalidation.
- Scaling Strategy: Handle growing workloads efficiently through horizontal scaling, autoscaling, and workload benchmarking.
- Multi-Region & High-Availability Design: Minimize downtime through active-active architectures, automated failover, and disaster recovery testing.
- Capacity Planning: Forecast infrastructure needs through workload modeling, utilization analysis, and performance benchmarking.
Turn early-stage ideas into something that can be tested before committing to a full build.
- Discovery Workshops: Align stakeholders on problems, priorities, and opportunities through structured workshops and stakeholder interviews.
- Product & Technology Exploration: Evaluate product ideas and emerging technologies through feasibility assessments, technology comparisons, and market analysis.
- Design Prototypes: Validate user journeys and interactions through wireframes, interactive mockups, and usability testing.
- Rapid Prototyping: Test product concepts quickly through functional prototypes, iterative builds, and early user feedback.
- Quick POCs: Validate technical feasibility through focused experiments, proof-of-concept builds, and performance benchmarks.
- A/B Testing: Compare product variations through controlled experiments, hypothesis testing, and statistical analysis.
- Success Criteria & Metrics: Define measurable outcomes using KPIs, baseline assessments, and acceptance criteria.
- Usage and Engagement Validation: Assess product adoption through funnel analysis, cohort tracking, and behavioral analytics.
Evaluate new technologies and competing approaches against the criteria that matter in production.
- Focused Technology Evaluations: Validate technology suitability through targeted experiments, technical assessments, and performance testing.
- Emerging Technology Assessment: Evaluate maturity, feasibility, and adoption risks through technical POCs, readiness assessments, and use-case validation.
- Vendor & Platform Comparison: Compare solutions using weighted scorecards, feature assessments, integration testing, and vendor benchmarks.
- Proof-of-Concept Evaluation: Validate technical feasibility through working POCs, acceptance criteria, and measurable performance tests.
- Framework & Language Selection: Assess technology fit through comparative benchmarks, ecosystem analysis, and maintainability assessments.
- Build vs. Buy Evaluation: Compare custom development and commercial solutions through feasibility studies, integration assessments, and cost-benefit analysis.
- Benchmarking for Latency, Cost, Accuracy, and Scale: Measure performance through load testing, P95/P99 latency analysis, accuracy evaluations, and cost modeling.
- Total Cost of Ownership Analysis: Estimate long-term costs through infrastructure modeling, licensing analysis, maintenance forecasts, and operational cost assessments.
Assess the technology, engineering, and operational risks behind an investment or acquisition.
- Codebase Quality & Tech Debt Assessment: Identify maintainability risks through static code analysis, complexity metrics, dependency mapping, and technical debt assessments.
- Engineering Team & Process Evaluation: Assess delivery maturity through DORA metrics, SDLC reviews, team capability assessments, and workflow analysis.
- IP & Licensing Review: Identify ownership and licensing risks through software composition analysis, open-source license audits, and IP documentation reviews.
- Security & Compliance Audit: Uncover vulnerabilities and compliance gaps through SAST, DAST, penetration testing, and security control assessments.
- Infrastructure & Scalability Risk Assessment: Evaluate operational risks through architecture reviews, load testing, capacity analysis, and resilience assessments.
- Post-Acquisition Integration Planning: Define integration priorities through architecture mapping, technology stack assessments, dependency analysis, and migration planning.
- Vendor & Third-Party Dependency Review: Assess external technology risks through dependency audits, vendor risk assessments, SLA reviews, and end-of-life analysis.
Bring senior engineering perspective to technology strategy, organizational decisions, and critical initiatives.
- Technology Strategy & Roadmap Planning: Align technology investments with business goals through architecture assessments, capability gap analysis, and prioritized roadmaps.
- Engineering Org Design & Hiring Advisory: Optimize team structures and capabilities through skills assessments, capacity modeling, and organizational design.
- Build vs. Buy Decision Support: Evaluate technology choices through feasibility studies, TCO modeling, vendor comparisons, and technical POCs.
- Technical Risk & Governance Advisory: Identify and mitigate engineering risks through architecture reviews, risk assessments, and governance frameworks.
- Board & Investor Technical Reporting: Communicate engineering progress and risks through KPI dashboards, technology assessments, and technical due diligence reports.
- Interim & Fractional CTO Support: Guide critical technology decisions through architecture oversight, roadmap reviews, and engineering leadership.
- Engineering Process & Delivery Advisory: Improve delivery predictability through SDLC assessments, DORA metrics, workflow optimization, and DevOps maturity reviews.
How we de-risk decisions
From question to validated path
Every engagement is built around your technology decision, with clear findings and an actionable path forward.
Discover
Start with the problem. Define the pain point, explore relevant technology trends, and establish clear success criteria.
What this unlocks: Clear priorities and focused engineering effort.
Experiment
Evaluate viable options through assessments, prototypes, POCs, benchmarks, and A/B tests.
What this unlocks: Faster evaluation without slowing the roadmap.
Validate
Measure results across accuracy, latency, cost, scalability, usability, security, and business impact.
What this unlocks: Lower risk before major investment.
Decide
Turn findings into a clear recommendation, validated technical artifacts, and rollout plan.
What this unlocks: Faster execution with fewer unknowns.
Advisory in practice
From protocol paper to a $22M spinout
A technology conglomerate’s exploratory innovation arm wanted real-time B2B settlement on blockchain rails, but every practical design forced a trade-off: transactions could be fast and transparent, or private, but not both. Financial partners wouldn’t move onto a ledger that exposed counterparties and amounts, and the research needed to close that gap didn’t exist yet inside the team.
- Co-authored the core protocol paper defining ZK-proof based confidential transactions
- Implemented the cryptographically secure transaction layer in Rust, using Ed25519 signatures and Bulletproofs
- Contributed to system architecture through the project’s spinout phase
The confidential settlement layer became the technical foundation of an independent fintech venture, which raised $22M on the back of it, taking the protocol from whitepaper to funded spinout.
Modular AI features that doubled engagement
A telecom company operating across Singapore and Southeast Asia wanted lifestyle-driven AI experiences, like a caption generator, a stylist, and an itinerary builder, inside its app to lift engagement. But bolting features like this directly onto the core app risked a tangled codebase and made it slow to test ideas independently across different markets.
- A micro-frontend architecture using React and Webpack Module Federation
- Three AI-powered features, delivered as independent plug-and-play modules
- A Node.js and Python backend integrating the OpenAI API
- A setup that lets each market test and roll out features on its own timeline
User engagement doubled and average session time quadrupled, with new AI features shipping as isolated modules instead of core-app releases.
An AI agent that builds ad deals from constraints
A premium ad management platform for TV and radio broadcasters relied on a manual, constraint-heavy process for building advertising deals. Leadership wanted to know whether AI agents could take over deal creation directly from user-supplied constraints, but had no proven path from that idea to something production-ready.
- Evaluated and proposed an agentic workflow to replace the manual process, using Langchain, LangGraph, and Google ADK on Gemini/GCP
- Recommended a hybrid of traditional optimization and agentic techniques to keep deal accuracy high
- Validated the approach against real deal-building scenarios before rollout
The Plan Builder Agent moved from feasibility study to production, and is now integrated into multiple products across the platform.
Our partners
Tools & technologies
Cloud & Infrastructure
Containerization & Orchestration
Databases & Storage
Security & Compliance
Monitoring & Observability
Infrastructure as Code
Performance & Load Testing
Know the risk before you commit
Get senior engineering perspective on the risks, trade-offs, and path forward.