
We match you with qualified Chroma developers in 5 days on average, not the 42+ days typical with traditional recruiting firms.
Only 3 out of every 100 applicants make it through our vetting process. You get developers who've already proven themselves.
Hire senior engineers at 40-60% less than US rates without sacrificing quality or experience level.
Our placements stick. Nearly all clients keep their developers beyond the first year, proving the quality of our matches.
Work with developers in timezones within 0-3 hours of US hours. No more waiting overnight for responses.





Where you hire changes what you pay. US employers face substantial overhead beyond base compensation: benefits administration, payroll taxes, recruiting expenses, and compliance costs that add up fast.
Total hidden costs: $65K-$85K per professional
Add base compensation and you're looking at $230K-$270K total annual investment per professional.
All-inclusive rate: $96K-$120K annually
Everything included: compensation, benefits, payroll taxes, PTO, HR administration, recruiting, vetting, legal compliance, and performance management. Fully transparent with no agency markups.
The math on nearshore Chroma developers is straightforward. US hiring runs $230K-$270K total per developer. Tecla's all-inclusive rate runs $96K-$120K.Savings per developer: $110K-$174K annually, or 48-63% cost reduction. Scale to five developers and US costs hit $1.15M-$1.35M versus Tecla's $480K-$600K.You pocket $550K-$870K annually without sacrificing vector database expertise or English fluency. All-inclusive pricing eliminates benefits administration complexity entirely.
A Chroma developer specializes in building vector databases and semantic search systems using Chroma's open-source embedding database. They architect retrieval systems that power AI applications requiring accurate, context-aware information retrieval.
Chroma developers bridge machine learning engineering and backend development. They don't just implement vector search. They design embedding pipelines, optimize retrieval accuracy, and architect systems that scale from prototype to production without performance collapse.
They sit at the intersection of AI/ML knowledge and production engineering discipline. Understanding embeddings, similarity metrics, and LLM integration separates them from general backend developers who treat vector databases as just another data store.
Companies typically hire Chroma developers when building RAG systems for customer support, internal knowledge bases, or recommendation engines. The role fills the gap between data scientists who train models and backend engineers who deploy APIs. Someone who understands both embedding theory and production system design.
When you hire a Chroma developer, your AI applications stop hallucinating and start citing actual sources. Most companies see 40-60% reduction in LLM hallucinations and 3-5x faster query response times compared to naive vector search implementations.
Retrieval Accuracy: They implement hybrid search combining dense embeddings with keyword matching. This produces 25-35% improvement in relevant document retrieval over single-method approaches.
System Performance: They build indexing strategies and caching layers optimized for your query patterns. Result is sub-100ms response times even with 10M+ embeddings.
Cost Optimization: Their embedding model selection and quantization strategies reduce infrastructure spend. This delivers 40-60% lower compute costs compared to using default embedding models without optimization.
Production Reliability: They spot memory leaks, implement graceful degradation, and build monitoring that catches retrieval quality issues before users complain. Systems that maintain 99.9% uptime as data scales.
Your job description either attracts engineers who've built production vector search systems or people who followed a LangChain tutorial once. Be specific enough to filter for actual Chroma experience and real RAG implementation.
State whether you need RAG pipeline development, vector database optimization, or full-stack AI integration. Include what success looks like: "Reduce answer latency to under 200ms for 95th percentile queries" or "Improve retrieval precision from 0.6 to 0.8+ within 90 days."
Give real context about your current state. Are you migrating from Pinecone? Building your first RAG system? Scaling from 100K to 10M embeddings? Candidates who've solved similar problems will self-select. Those who haven't will skip your posting.
List 3-5 must-haves that truly disqualify candidates: "2+ years production experience with vector databases," "Built RAG systems handling 1M+ queries/month," "Optimized embedding pipelines reducing latency by 50%+." Skip generic requirements like "strong Python skills." Anyone applying already has those.
Separate required from preferred so strong candidates don't rule themselves out. "Experience with Chroma specifically" is preferred. "Experience with any production vector database (Chroma, Pinecone, Weaviate, Milvus)" is required.
Describe your actual stack and workflow instead of buzzwords. "We use FastAPI, deploy on AWS ECS, run async embedding jobs with Celery, and do code review in GitHub. Daily standups at 10am EST, otherwise async communication in Slack" tells candidates exactly what they're walking into.
Tell candidates to send you a specific RAG system they built, the retrieval metrics before/after their optimizations, and the biggest technical challenge they solved. This filters for people who've shipped actual systems versus those who played with notebooks.
Set timeline expectations: "We review applications weekly and schedule technical screens within 5 days. Total process takes 2-3 weeks from application to offer." Reduces candidate anxiety and shows you're organized.
Good interview questions reveal hands-on experience with vector search systems, embedding optimization, and RAG architecture versus surface-level tutorial knowledge.
What it reveals: Strong answers compare model dimensions (384 vs 768 vs 1536), discuss speed/accuracy trade-offs, mention specific models (OpenAI ada-002, sentence-transformers, Cohere), and explain how query latency and infrastructure costs factor into the decision. They should reference actual benchmarks or production experience.
What it reveals: This shows they understand the underlying algorithms, not just the API calls. Listen for explanations of graph-based indexing, the recall/speed trade-off when tuning parameters, and practical examples of when they've adjusted these settings. Candidates who've actually optimized production systems will mention specific scenarios and results.
What it reveals: Strong candidates walk through embedding model selection, chunking strategy, metadata filtering implementation, and specific metric improvements. They'll cite numbers: "Started at 0.52 precision, implemented hybrid search and semantic re-ranking, reached 0.79 precision." Listen for ownership of the entire pipeline, not just one component.
What it reveals: Real production experience means dealing with failures. Listen for specifics about memory issues with large collections, query latency spikes under load, or retrieval quality degrading as data grew. Strong answers include root cause analysis, the fix they implemented, and monitoring they added to prevent recurrence.
What it reveals: This tests architectural thinking and understanding of scale. Watch for discussions of partitioning strategies, caching frequently accessed embeddings, batch indexing patterns, and infrastructure choices. Strong candidates mention specific technologies (Redis for caching, horizontal scaling patterns) and acknowledge trade-offs between cost and performance.
What it reveals: Tests collaborative problem-solving and system design flexibility. Listen for questions about the use case, proposals for collection schemas supporting multiple strategies, and concerns about migration complexity. Strong candidates balance technical purity with pragmatic delivery timelines.
What it reveals: Neither answer is wrong, but reveals their natural orientation. Prototypers excel in early-stage product development. Optimizers thrive maintaining production systems at scale. Strong candidates are honest about what energizes them and what feels like a grind. This prevents hiring someone great who hates the actual work.
