Our Technology: A First-Principles Approach

CairnDB is a purpose-built database engine, designed from first principles for a single task: providing a high-speed, auditable, in-memory store for the system's most critical assets. It is engineered for the extreme read-dominant workloads of AI memory and core security assets.

The Problem it Solves: AI workloads require instant, concurrent access to core data, but the integrity of that data must be absolute. Traditional databases introduce performance bottlenecks (locking, I/O) and operational complexity that are unacceptable for this mission-critical role.

The Payoff: Extreme read performance without sacrificing data integrity. By using a simple, index-last commit strategy, we achieve crash-consistent writes without the overhead of a transaction log. This allows for concurrent, memory-speed reads, providing a foundational performance and reliability advantage.

The Clearance System is a deterministic implementation of the ABAC model. Users and AI agents are assigned a list of 'clearances' (e.g., 'HR', 'FINANCE'), which act as their security attributes. Access to any object is granted based on these attributes.

The Problem it Solves: Conventional ABAC systems rely on complex policy engines that are powerful but opaque. This complexity makes them difficult to audit and prone to misconfigurations, which are a primary source of security breaches. For a high-assurance system, this is an unacceptable risk.

The Payoff: An access control system that is verifiably secure and completely predictable. By replacing a complex policy engine with a simple, deterministic rule set, we eliminate an entire class of configuration risks. The result is a high-assurance security model that can be audited and understood at a glance.

A complete, end-to-end data science environment that allows our AI agents to perform sophisticated data analysis and generate rich, interactive visualizations by writing and executing Python code.

The Problem it Solves: Data science is a critical capability for a modern AI system, but it requires the ability to programmatically interact with data. This engine provides that capability, running all AI-generated code within our Verified Sandbox.

The Payoff: The ability to automate complex data analysis and visualization tasks. This is a core component of changing your unit economics, as it allows you to automate tasks that would otherwise require a team of expensive data scientists, with the assurance that all operations are securely contained.

Dolmen is a UI toolkit built around a single, non-negotiable principle: verifiable security. Its architecture—a simple reactive core, a curated dependency set, and a first-party script bundling model—is a set of interlocking decisions made to achieve this goal.

The Problem it Solves: Conventional UI frameworks are not designed for high-assurance environments. Their vast, unauditable dependency trees and reliance on third-party script origins make it architecturally impossible to enforce a truly strict Content Security Policy (CSP).

The Payoff: A verifiably secure UI layer, proven by a consistent A+ rating from the Mozilla Observatory. By rejecting the conventional framework model, we gain the control necessary to enforce security policies (like a `script-src 'self'` CSP) that are simply not feasible in most off-the-shelf solutions.

A suite of automated tests that run when the server starts, and continue to run periodically, to validate its own security posture. It asserts that all security headers have the exact strongest possible values, and then actively probes its own defenses with requests from a simulated malicious origin to ensure its CORS logic correctly rejects the threat.

The Problem it Solves: Security misconfigurations are a leading cause of breaches, and they are often silent failures. A security control that is not actively and continuously tested is a security control that cannot be trusted.

The Payoff: A verifiable guarantee that the server is secure before it accepts a single connection, and remains so throughout its lifetime. By treating a failed security self-test as a fatal error that immediately terminates the application, we provide a level of assurance that is impossible to achieve with manual configuration and periodic scanning.

A hybrid TLS management system that provides two modes of operation: a fully automated, zero-touch mode for rapid deployment, and a client-managed mode for integration with existing Public Key Infrastructure (PKI). In both modes, all configurations are subjected to a suite of paranoid validation checks at startup.

The Problem it Solves: TLS misconfiguration is a primary cause of security breaches. Weak protocols, insecure ciphers, or invalid certificates can silently undermine the security of the entire system. A secure system cannot be built on a transport layer that is not actively verified to be secure.

The Payoff: A transport layer that is secure by construction, not just by convention. Our zero-touch system eliminates the risk of human error for managed deployments, while our paranoid startup validation provides a verifiable guarantee that the server will not run in an insecure state, regardless of the certificate source.

Our API architecture is built on a foundation of verifiable security. It combines our strict, fail-fast network server, Menhir, with an F# implementation that makes it a compile-time error to forget a security check. Authorization is then handled via a capability-based model, where a user literally does not possess the code to perform an unauthorized action.

The Problem it Solves: The vast majority of security vulnerabilities are not sophisticated attacks; they are simple programmer errors—a forgotten authentication check, a loosely parsed input. In complex systems, these errors are inevitable. For a high-assurance system, they must be made impossible.

The Payoff: An API that is secure by construction, not just by convention. By leveraging the F# compiler to enforce our security policy and providing capabilities instead of checking permissions, we eliminate an entire class of common vulnerabilities. This provides a level of assurance that is simply unattainable in conventional web frameworks.

A dedicated background AI agent that intercepts and analyzes every single business event—from emails and sales orders to CRM updates and calendar invites—in real-time. It uses a structured, multi-part scorecard to grade each event for security, financial impact, urgency, and social context.

The Problem it Solves: Businesses are drowning in a firehose of information. Critical signals are missed, and security threats are buried in the noise. Standard AI systems are passive tools that wait for you to ask the right question. This is too slow and too late.

The Payoff: This is the difference between a tool and an intelligence. SynthGrid doesn't just present you with a stream of data; it presents you with a stream of triaged, pre-analyzed intelligence. It is a proactive system that acts as a built-in chief of staff, ensuring you never miss a critical threat or opportunity.

An AI-powered analytics platform built on our secure Data Science Engine. Users can ask for a report in natural language, and the AI will write and execute the Python code to generate it. Crucially, this platform can be extended to query any internal or third-party data source via our open Module Service Protocol.

The Problem it Solves: Business intelligence is a bottleneck, and data is often siloed in proprietary internal systems. Standard BI tools are rigid and cannot answer novel questions, and they struggle to integrate with the long tail of custom internal applications.

The Payoff: The end of the data bottleneck. Any user can ask a complex business question and receive a rich, data-backed report that synthesizes information from across your entire data ecosystem—from Salesforce to your own internal microservices. This turns ad-hoc analysis into a reusable, automated, and extensible intelligence library.

SarsenDB is one of the four purpose-built storage engines that make up The Vault. It is a high-performance, in-memory database that persists each document to its own encrypted file on disk. This one-file-per-document architecture is a deliberate choice to enable true, physical data deletion.

The Problem it Solves: Most databases, especially append-only or log-structured ones, do not truly delete data; they simply mark it as deleted. This is a major compliance risk for regulations like GDPR, which require the physical erasure of user data upon request.

The Payoff: Effortless GDPR compliance. When a user exercises their 'right to be forgotten,' we can cryptographically prove that their data has been physically and irreversibly deleted from the system by simply deleting the corresponding file. This is a level of compliance that is difficult and expensive to achieve with traditional databases.

SynthCRM is a complete, built-in customer relationship management system. It is a first-party component of SynthGrid, designed for organizations that do not have an existing CRM and need a simple, secure, and AI-ready solution.

The Problem it Solves: Many organizations run on spreadsheets and email, which are inefficient, insecure, and disconnected from their AI tools. Third-party CRMs are often too complex and expensive for their needs.

The Payoff: A simple, powerful CRM that works out of the box. SynthCRM provides all the core functionality needed to manage customer relationships, and because it's a native part of SynthGrid, it's seamlessly integrated with the AI from day one. It's the perfect starter CRM for an AI-powered organization.

A sandboxed execution environment for AI-generated code. Before any code is run, each sandbox instance is automatically tested to ensure its security controls are functioning correctly.

The Problem it Solves: Sandboxing untrusted code is a standard security practice, but a static configuration can fail silently. You need constant verification to ensure the isolation is actually working as designed.

The Payoff: A reliable and verifiable guarantee of isolation for AI-generated code. By testing the sandbox at the moment of creation, we ensure that the security controls are not just configured, but are actively and correctly enforced for every single task.