DEV Community: Luis M

Founding Solutions Engineer / Solution Architect

Luis M — Tue, 12 May 2026 20:37:02 +0000

Role Overview

You are a Founding Solutions Engineer / Solution Architect responsible for transforming SynapCores’ AI-native database platform into real-world business solutions.

Your role is to deeply understand the platform's capabilities and rapidly build working demonstrations, prototypes, reference architectures, and industry-specific solutions that showcase the technology's power.

This is not a PowerPoint or whitepaper role.

You are expected to build real applications, real workflows, and real integrations that solve meaningful business problems using SynapCores’ AI-native database capabilities.

SynapCores is releasing a free Community Edition alongside its enterprise offering. Learn more at synapcores.com

You will operate at the intersection of:

Engineering
AI/ML
Product Strategy
Developer Relations
Customer Discovery
Solution Architecture

You will work directly with the founder and engineering team to identify high-impact use cases and turn them into deployable demonstrations that accelerate adoption, community growth, partnerships, and enterprise sales opportunities.

Responsibilities

Build Real Working Solutions

Design and develop production-quality demos and proof-of-concepts using SynapCores technologies including:

SQLv2
Vector search
Embedded AI inference
Graph traversal
Multimodal querying
Semantic search
AutoML capabilities
Real-time streaming analytics
AI agents and orchestration

Examples include:

Fraud detection systems
AI-native CRM platforms
RAG support systems
Identity resolution engines
Call center intelligence
Real-time anomaly detection
Healthcare analytics
Supply chain intelligence
Autonomous AI workflows
AI copilots
Semantic data applications

Solution Discovery

Research industries and identify:

High-value business pain points
Market opportunities
Technical gaps in existing platforms
Areas where AI-native databases outperform traditional architectures

Translate these findings into:

Deployable demos
Solution templates
SDK examples
Integration recipes
Industry reference implementations

Developer Enablement

Create technical assets that help developers and enterprises adopt the platform:

GitHub repositories
SDK examples
Docker deployments
Installation walkthroughs
Technical tutorials
API integrations
Architecture diagrams
Benchmark demonstrations
Sample datasets

Customer & Community Engagement

Collaborate directly with:

Early customers
Design partners
Enterprise prospects
Developer communities
Strategic partners

Help prospects understand:

How to implement SynapCores
Migration strategies
AI-native architecture patterns
Performance and scalability advantages
Cost reduction opportunities

Product Feedback Loop

Act as a bridge between:

Customers
Engineering
Product leadership

Identify:

Missing features
Developer friction points
API improvements
Usability gaps
High-value integrations
Emerging market opportunities

Provide direct feedback to improve platform adoption and developer experience.

Required Qualifications

Strong software engineering background
Experience building full-stack applications
Strong SQL knowledge
Experience with AI/ML systems
Familiarity with vector databases, embeddings, or RAG architectures
Experience with APIs and distributed systems
Strong problem-solving and rapid prototyping abilities
Ability to communicate technical concepts clearly
Comfortable working in fast-moving startup environments

Preferred Skills

Python
Node.js / TypeScript
Rust
Docker / Kubernetes
LLM integrations
Graph databases
Real-time systems
Stream processing
Cloud architecture
AI orchestration frameworks
Data engineering pipelines

Success Metrics

Success in this role will be measured by:

Working demos shipped
Adoption of solution templates
Community engagement
Developer onboarding acceleration
Enterprise proof-of-concept success
Technical content creation
GitHub engagement
Demo-to-opportunity conversion
Reduction in customer onboarding friction

What Success Looks Like

Within the first 90 days, you should be able to:

Build multiple working industry demos
Publish reusable technical assets
Create deployable reference architectures
Support enterprise proof-of-concepts
Identify new high-value market opportunities
Help establish SynapCores as a leader in AI-native database infrastructure

Culture Fit

We value:

Builders over talkers
Speed with quality
Ownership mentality
Technical curiosity
Pragmatic execution
Startup urgency
Deep systems thinking
Bias toward shipping
Continuous learning

This role is ideal for someone who enjoys building new technology categories and wants to help shape the future of AI-native infrastructure.

Apply here : https://agenthub.synapcores.com/job-listing.html?id=76e9f6c7-6e93-457b-8222-fc5052e719ff

Why Data-Driven Decisions Start with SQLv2

Luis M — Fri, 30 Jan 2026 17:24:15 +0000

Why Data-Driven Decisions Start with SQLv2

Introduction

Imagine making business decisions based on gut instinct rather than concrete data. According to recent studies, 85% of organizations that leverage advanced analytics report significant improvements in operational efficiency. This highlights a critical shift in how data informs strategic choices.

In this post, you'll learn:

The fundamental role of SQL in data analysis
The advantages of adopting SQLv2 for modern data workflows
How SQLv2 empowers faster, more accurate decision-making

The Foundation

Data-driven decision-making begins with reliable, accessible data. SQL (Structured Query Language) has long been the industry standard for extracting and manipulating data from relational databases.

Key Insight: Over 75% of data analysts rely on SQL as their primary tool for querying data.

For instance, a leading e-commerce platform used SQL queries to identify a 20% drop in sales within specific regions, enabling targeted marketing efforts that recovered revenue within weeks.

Going Deeper

While SQL has been the backbone of data analysis, traditional SQL tools often fall short in handling the complexities of modern data environments.

Here's how SQLv2 transforms this landscape:

Enhanced Performance: Optimized query execution reduces wait times
Greater Flexibility: Support for complex data types and integrations
Improved Collaboration: Version control and shared query repositories

A financial services firm adopted SQLv2 to streamline their compliance reporting, decreasing report generation time from hours to minutes.

Advanced Application

To harness the full potential of SQLv2, consider these advanced strategies:

Approach	Benefit	Best For
Automated Query Scheduling	Reduces manual effort	Operational dashboards
Real-Time Data Integration	Enables instant insights	Fraud detection systems
Machine Learning Integration	Enhances predictive analytics	Customer churn prediction

By integrating these approaches, organizations can unlock unprecedented agility and precision in their decision-making processes.

Conclusion: Your Next Steps

The key to truly data-driven decisions is adopting tools that evolve with your business needs. SQLv2 provides the performance, flexibility, and collaboration features essential for modern data ecosystems.

Action Item: Begin evaluating your current data workflows and explore how SQLv2 can optimize your analytics capabilities.

Embrace the future of data-driven decision-making—start with SQLv2 today.

[Author Bio: Luis Mata is a data analytics expert with over 15 years of experience helping organizations leverage data for strategic growth. Connect with him on LinkedIn.]

Why Feature Stores Didn't Fix Training–Serving Skew

Luis M — Wed, 21 Jan 2026 00:20:05 +0000

Training–serving skew is still one of the most common failure modes in production ML.

Most teams already sense that feature stores didn't fully solve it. What's less clear is why.

The answer isn't poor implementation or missing features. It's that feature stores solve the wrong layer of the problem.

Skew is not caused by inconsistent definitions. Skew is caused by movement—every time a feature crosses a system boundary, execution context changes, and consistency becomes probabilistic rather than guaranteed.

If you've ever debugged a model that performed well in notebooks but degraded silently in production with no code changes, you've seen this failure mode. The code matched. The data didn't behave the same way.

The Promise Feature Stores Made

Feature stores promised consistent feature definitions, reusable transformations, and shared access between training and serving. On paper, this should eliminate skew.

In practice, most teams still see offline features that don't match online behavior, late or missing updates, and inference paths that quietly diverge from training logic. The issue is structural, not procedural.

Where Skew Actually Comes From

Consider a typical flow. Raw data lands in an application database. Features are computed offline and written to a feature store. Models train from one snapshot. Online serving reads from another. Inference runs in a separate service.

Even with a feature store in place, training and serving live in different execution contexts. Each context introduces different timing guarantees, different failure modes, different code paths, and often different owners.

Feature definitions match. Execution semantics do not. That gap is where skew lives.

An execution layer is where queries actually run—the query planner, the permissions model, the data access path. When training and serving share an execution layer, they share behavior, not just definitions. When they don't, consistency depends on coordination between systems that were never designed to coordinate.

Why Feature Stores Can't Close the Gap

Feature stores manage data artifacts. They do not control execution.

They cannot guarantee when a feature is computed, what version of logic ran, whether inference used the same transformation, or whether joins behaved the same way at training time versus serving time. As long as features move between systems, skew remains possible.

Most teams do not detect this. Accuracy degrades slowly. Nobody notices until business metrics slip, and by then the root cause is buried under weeks of commits and config changes.

The Execution Layer Is the Missing Piece

Skew disappears when training and serving share the same execution layer. That means the same query planner, the same permissions, the same data, and the same logic.

Features stop being artifacts that sync between systems. They become expressions evaluated at query time. Inference stops being a service call to an external system. It becomes part of data access. Similarity search stops being a separate infrastructure dependency. It becomes a filter clause.

This isn't theoretical. In practice, it looks like this: instead of computing embeddings offline, storing them in a vector database, and hoping the serving path fetches the right version, you store raw data once and compute the embedding inline when the query runs. Training and inference both execute the same transformation on the same data through the same engine.

A Concrete Contrast

Feature Store Pattern

Compute features offline. Store them separately. Recompute or fetch online. Hope consistency holds across systems and time.

Unified Execution Pattern

Store raw data once. Compute features inline at query time. Train and serve from the same source. Run inference where the data lives.

No synchronization jobs. No stale features. No silent divergence.

What This Changes for Teams

Debugging shifts from tracing requests across services to inspecting queries in one place. Experiments move to production without rewriting feature pipelines. Platform teams stop owning glue code that nobody wants to maintain. Training–serving skew becomes a visible failure with a stack trace, not a silent one that surfaces in quarterly metrics reviews.

This is not about removing tools. It is about removing unnecessary boundaries between systems that should never have been separate.

What This Means for ML Leaders

If your system has a feature store, a vector database, and a separate inference service, you still pay the coordination tax. Feature stores help with reuse and discovery. They do not fix architectural fragmentation.

Skew is an execution problem. Execution problems require execution-layer solutions.

This approach isn't free. It requires rethinking how you model features and where computation happens. Not every team is ready for that migration, and the transition cost is real. But for teams that have already felt the pain of debugging silent skew across five different systems, the tradeoff starts to look favorable.

I published concrete schemas and examples that show this approach in practice here:
https://synapcores.com/sqlv2

If you run ML in production, ask one question: do training and serving share execution, or just data definitions?

That answer explains most failures.