Why Traditional Security Falls Short

For decades, most security programs have followed the same rhythm: conduct an annual penetration test, run periodic audits, patch vulnerabilities after they are reported, and add controls around a network perimeter.

That approach is no longer enough for modern AI infrastructure. Applications change daily. Dependencies change constantly. APIs, models, tools, and agent workflows introduce new paths through which data can be accessed, or actions can be performed.

At the same time, attackers can use AI agents to scan systems faster, automate reconnaissance, test many attack paths at once, and adapt their techniques as environments change. A security program that only evaluates risk periodically cannot keep pace with an attack surface that evolves continuously.

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The future of security is not simply more automation. It is agentic: continuous, contextual, adaptive, and built into every layer of the platform.

Aman @ Lamatic

At Lamatic.ai, we build agentic infrastructure that is secure in two directions:

  • Secure from agents: Our platform is designed to resist malicious autonomous behavior, unauthorized tool use, data exposure, prompt injection, and automated exploitation.

  • Secure for agents: Legitimate agents operate with clear identity, narrowly scoped access, isolated execution environments, observable actions, and enforceable policy boundaries.

Our Security Partners

Strong security requires depth. Rather than relying on a single tool or a once-a-year assessment, Lamatic combines specialist security, compliance, and testing partners with controls built into our own engineering workflows.

Vanta: Continuous Trust and Compliance

Vanta helps automate the operational work behind compliance programs such as SOC 2, ISO 27001, HIPAA, and GDPR. Instead of manually collecting screenshots and evidence before an audit, we use continuous monitoring to identify controls that drift out of compliance before they become audit or customer issues.

For Lamatic, compliance automation supports security rather than replacing it. It gives the team an ongoing view of device posture, access-control coverage, policy acknowledgment, vendor reviews, and evidence collection. This helps turn compliance from a periodic documentation exercise into a continuously measured operating practice.

What this enables:

  • Continuous monitoring of security controls and compliance evidence

  • Faster identification of missing controls, stale access, or configuration drift

  • A centralized source of truth for policies, risk management, and audit readiness

  • More time for engineering teams to focus on risk reduction instead of manual evidence collection

Aikido Security: Security Built Into Development

Aikido provides application-security coverage across the software development lifecycle. It helps identify issues in source code, third-party dependencies, infrastructure-as-code, containers, cloud configuration, and running applications.

This matters because a vulnerability can enter a system in many ways. It may be introduced through a code change, a vulnerable open-source package, an exposed cloud service, a misconfigured Terraform resource, or a container image. A unified platform helps us see these risks in context and prioritize the issues most relevant to the services we operate.

What we use this layer to detect:

  • Vulnerable dependencies and supply-chain risks

  • Hardcoded secrets, API keys, and exposed credentials

  • Insecure application patterns in source code

  • Risky cloud and infrastructure configurations

  • Vulnerabilities in container images and running services

Prescient Assurance: Independent Validation

Independent assurance is important because internal teams can become accustomed to their own assumptions and operating patterns. Prescient Assurance supports independent security and compliance validation, helping verify that our controls are designed, documented, and operating as intended.

External review adds rigor to our security program. It challenges our evidence, tests our processes, and provides customers with greater confidence that Lamatic’s security posture is evaluated beyond internal claims.

HackerOne: Continuous Human-Validated Offensive Security

Traditional penetration tests are useful, but they are point-in-time assessments. When the application changes, the test scope can quickly become outdated.

HackerOne’s agentic pentesting model combines autonomous testing capacity with human security expertise. AI agents can continuously explore known attack paths and environmental changes, while experienced security researchers validate the impact of significant findings and help distinguish real risk from noise.

This provides a stronger offensive-security loop:

  • Continuous testing as applications, APIs, and infrastructure change

  • Broader attack-surface coverage than a manual-only test can provide

  • Human validation for high-impact or complex vulnerabilities

  • Actionable findings that engineering teams can reproduce and remediate

Secure Development Lifecycle

Security should not be something added before release. It needs to be part of how software is planned, written, reviewed, tested, deployed, and monitored.

Agent-Assisted Code Review

Every code change can introduce security consequences. A new endpoint may expose information, an authorization check may be missed, a dependency may introduce a known vulnerability, or a small configuration change may accidentally broaden access.

Lamatic uses automated and agent-assisted review to continuously examine code changes. These agents look beyond simple keyword matching: they evaluate patterns, data flows, permissions, and the security implications of a change in context.

AI review does not replace engineering judgment. Instead, it acts as an always-on additional reviewer that can flag risky patterns early, before code reaches production. Engineers remain accountable for reviewing findings, validating their relevance, and making the final design decisions.

Agent-assisted review focuses on:

  1. Authentication and authorization changes

  2. Input validation and unsafe data handling

  3. Secret exposure and insecure configuration

  4. Dependency changes and known vulnerabilities

  5. Data-flow paths that could expose customer information

  6. Business-logic gaps that conventional scanners may miss

Security Gates in CI/CD

A secure development process needs enforceable checkpoints. Security gates prevent code from being promoted when it fails critical security requirements.

At Lamatic, automated checks run throughout the CI/CD pipeline. Developers receive feedback while the change is still small and easy to fix, rather than discovering a problem after it has been deployed to production.

Our security gates include:

  • Static application security testing (SAST): Reviews source code for common insecure patterns such as injection risks, unsafe deserialization, weak cryptography, and missing validation.

  • Software composition analysis (SCA): Checks open-source dependencies for known vulnerabilities, license issues, and outdated packages.

  • Secrets detection: Blocks commits that include credentials, private keys, tokens, or connection strings.

  • Infrastructure-as-code scanning: Reviews Terraform, Kubernetes manifests, Dockerfiles, and cloud configuration for insecure defaults or over-permissive access.

  • Container image scanning: Identifies vulnerable libraries, operating-system packages, and misconfigurations before an image is deployed.

  • Dynamic and API security testing: Tests running staging environments for weaknesses that only appear when services interact.

  • Release-risk review: Applies deeper analysis and agentic pentesting to material changes or major releases.

Production is not the first place where security checks happen. It is the last place a validated change is allowed to go.

Continuous Agentic Pentesting

A traditional penetration test is a snapshot. It is valuable, but it cannot represent the security state of a fast-moving platform for an entire year or quarter.

Agentic pentesting makes offensive testing continuous. Autonomous agents can map authorized attack surfaces, replay relevant tests after a deployment, look for new exposure caused by configuration changes, and test newly disclosed vulnerabilities against the current environment.

Every automated finding still needs prioritization. We combine continuous machine-scale testing with human validation to ensure security teams focus on vulnerabilities that are practical, impactful, and relevant to customers.

Area

Traditional Pentest

Continuous Agentic Pentesting

Timing

Scheduled periodically

Runs continuously and after meaningful changes

Scope

Defined before the engagement

Evolves with the approved attack surface

Detection speed

Often weeks after a release

Can identify issues shortly after change

Validation

Primarily manual

Autonomous testing plus human validation

Retesting

Usually a separate engagement

Automated after remediation or deployment

Continuous testing helps us:

  • Detect exposures introduced by new releases or configuration changes

  • Validate whether newly published vulnerabilities affect our environment

  • Test APIs, web applications, cloud services, and integration boundaries together

  • Verify fixes by retesting the original attack path

  • Give engineering teams actionable evidence instead of abstract alerts

Static Analysis Plus Agentic Reasoning

Static analysis is fast and reliable for detecting known insecure patterns. It is an essential part of secure software delivery, but it does not always understand why a feature exists or whether a sequence of valid actions creates a business-logic vulnerability.

Agentic analysis adds contextual reasoning. It can evaluate how data moves through an application, how identity and permission checks are used across services, and whether a user could perform an action that their role should not permit.

Together, these layers provide broader coverage:

Security Layer

What It Does Best

Static analysis

Finds known patterns such as injection, weak cryptography, exposed secrets, and unsafe functions

Dependency analysis

Finds vulnerable or outdated third-party packages

Agentic reasoning

Investigates data flow, authorization paths, business logic, and multi-step attack scenarios

Human review

Validates product intent, threat model assumptions, and risk trade-offs

CVE Exploitability Analysis

Not every critical CVE is equally dangerous. A CVSS 9.8 vulnerability in a library you don't use or a code path that's never executed poses little real risk. At Lamatic, we use CVE exploitability analysis to separate theoretical severity from actual exploitability in our environment.

Our approach:

  • Initial triage within 24 hours: Identify affected components, map to our services, and check for known exploits in the wild

  • Contextual risk assessment: Evaluate attack surface, authentication requirements, network position, data sensitivity, existing mitigating controls, and business criticality

  • Exploitability scoring: Classify as Exploitable (immediate action), Conditionally Exploitable (planned remediation), or Not Exploitable in Context (documented risk acceptance)

  • Targeted remediation: Patch exploitable vulnerabilities within SLA targets while avoiding alert fatigue from theoretical risks

We combine automated dependency scanning, static analysis, and threat intelligence with human judgment from engineers who understand our codebase and architecture. The result is faster response to real threats and informed risk decisions on everything else.

Data Security and Zero Trust

Customer data is the most sensitive part of an AI infrastructure platform. Our approach assumes that no request, service, identity, or environment should receive more access than it needs.

This is the foundation of zero trust: verify explicitly, use least privilege, and limit the duration and scope of access.

Separate Environments

We separate development, staging, and production environments so that experimentation and testing do not expose production systems or customer data.

  • Development: Used for engineering work with isolated services and non-production data.

  • Staging: Mirrors production architecture as closely as possible while using synthetic, masked, or otherwise non-sensitive data.

  • Production: Hosts customer workloads and is isolated from lower environments through separate identities, resources, networks, and access controls.

Environment separation limits blast radius. A mistake in development should not provide a path to production data or infrastructure.

Authentication and Access Control

Identity is the starting point for security. Before a person, service, or agent can access a resource, Lamatic verifies who or what is making the request and whether that identity has a legitimate reason to perform the action.

Our access-control model includes:

  • 2FA/MFA: Multi-factor authentication is required for user and administrative access, reducing the risk that a stolen password alone can compromise an account.

  • OAuth 2.0 and OIDC: Federated identity standards enable scoped, revocable, and short-lived authorization rather than persistent shared credentials.

  • RBAC (Role-Based Access Control): Permissions are granted according to defined roles, so users and services receive only the capabilities required for their responsibilities.

  • RLS (Row-Level Security): Database policies restrict which records a requester can access, creating another enforcement layer even if application logic fails.

  • Service identities: Services and agents use distinct identities with narrowly scoped permissions rather than sharing broad administrator credentials.

Encryption in Depth

Encryption protects data while it is moving, stored, and accessed. We use multiple layers because no single control should be responsible for protecting sensitive information.

Layer

How It Protects Data

Encryption in transit

TLS protects data moving between users, services, APIs, and infrastructure endpoints from interception or tampering

Encryption at rest

AES-256 protects stored databases, backups, files, and persistent infrastructure resources

Per-project keys

Each project or tenant receives unique encryption key material, limiting the impact of any individual key exposure

Key separation

Encryption keys and salts are stored separately from the encrypted data they protect

Just-in-time decryption

Data is decrypted only for the authorized operation, for the minimum necessary time, and then re-encrypted

Key rotation

Key material is rotated according to policy and operational requirements to reduce long-term exposure

Just-in-time decryption is especially important for agentic systems. An agent should not receive a permanent decrypted dataset simply because it has a valid task. It should receive only the data and access required for the specific approved action.

Data Lifecycle Management

Security includes what happens to data after it has been created. We define how information is stored, retained, recovered, accessed, and deleted.

  • Point-in-Time Recovery (PITR): Continuous backup capabilities allow data to be restored to a precise moment, reducing the impact of accidental deletion, corruption, or operational failure.

  • Data retention policies: Data is retained only for an approved business, legal, operational, or customer-defined purpose. When the retention period ends, deletion is automated and documented.

  • Immutable audit logs: Security-relevant actions are recorded in tamper-evident storage to support investigations, compliance evidence, and accountability.

  • Controlled backups: Backups are encrypted, access-controlled, and subject to retention and deletion requirements.

Tenant and Resource Isolation

Multi-tenant platforms must be designed so that one customer cannot access, affect, or infer information about another customer.

Lamatic applies isolation at multiple layers, including database policies, storage boundaries, compute resources, network segmentation, identity controls, and encryption keys. Where a workload requires stronger separation, dedicated tenant infrastructure can provide an additional boundary.

Lamatic Tenant Isolated Architecture

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The principle is simple: a tenant’s access is limited to its own approved resources, and boundaries are enforced by more than one control.

People, Policy, and Accountability

Technology alone does not create a secure organization. Security also depends on how people make decisions, how quickly teams respond, and whether responsibilities are clear.

Annual Security Training

Every employee completes annual security awareness training. The goal is practical behavior, not checkbox compliance.

Training covers phishing and social engineering, secure handling of customer information, password and device hygiene, incident reporting, secure development expectations, and privacy obligations. We reinforce that security concerns should be reported early, even when the impact is uncertain.

Quarterly Disaster Recovery and Incident Response Exercises

A plan that has never been tested is only a document. Lamatic runs quarterly disaster recovery and incident response exercises to validate people, tooling, escalation paths, communications, and recovery procedures.

Exercises may simulate data-exfiltration attempts, ransomware, a cloud-provider outage, compromised credentials, DDoS events, or service failures. Each exercise produces lessons, follow-up actions, and owners so that our response capabilities improve over time.

Vulnerability Disclosure Program

Security researchers play an important role in improving the security of the broader ecosystem. Our Vulnerability Disclosure Program provides a responsible path for researchers to report potential issues.

We aim to acknowledge reports quickly, triage them transparently, and provide clear remediation expectations based on severity. A good disclosure program creates a constructive relationship with researchers and gives Lamatic another channel for discovering issues before they can be abused.

Security Service-Level Objectives

Not every vulnerability carries the same risk. We use severity-based service-level objectives to ensure the highest-risk issues receive the fastest attention.

Severity

Initial Response Target

Remediation Target

Typical Examples

Critical

Within 24 hours

Within 5 business days

Confirmed data exposure, remote code execution, authentication bypass

High

Within 72 hours

Within 10 business days

Significant privilege escalation or exploitable service weakness

Medium

Within 1 week

Within 30 business days

Limited-impact configuration or application weakness

Low

Within 2 weeks

Within 60 business days

Hardening opportunities with low exploitability or impact

These targets guide prioritization, but active exploitation, customer impact, and business context can always accelerate response.

Managed Device Security

Corporate devices are part of the security perimeter. A compromised laptop can bypass otherwise strong cloud controls through stolen sessions, source code access, or credential theft.

All corporate endpoints are enrolled in Mobile Device Management (MDM). This supports consistent requirements for full-disk encryption, supported operating-system versions, screen-lock policies, remote wipe, approved software, and jailbreak or root detection.

Automated and Human Review

Automation gives us speed and consistency. Human review adds context, accountability, and judgment.

  • Automated controls continuously monitor identity, code, dependencies, infrastructure, runtime signals, and compliance posture.

  • Human reviews assess architecture, high-severity findings, exceptions, vendor risk, incident learnings, and changes with meaningful business impact.

The combination is intentional: agents detect and analyze at machine speed, while people decide, prioritize, and remain accountable for outcomes.

Infrastructure and Runtime Security

Secure AI infrastructure requires more than secure code. The platform must also protect the way services run, communicate, store data, and respond to malicious traffic.

Serverless Microservices Architecture

Lamatic uses serverless microservices, including Cloudflare Workers and DigitalOcean Cloud Functions, to separate responsibilities into smaller services with explicit interfaces and limited permissions.

This architecture can reduce operational risk when implemented carefully. Services can scale automatically, execution is often short-lived, and each component can be assigned a dedicated identity with only the permissions it needs. A compromise in one service should not automatically become unrestricted access across the environment.

Core principles:

  • Least-privilege IAM for every workload

  • Separate service identities rather than shared credentials

  • Explicit APIs and network paths between services

  • Short-lived, ephemeral execution where appropriate

  • Controlled deployment through validated CI/CD pipelines

Dedicated Tenant-Isolated Infrastructure

For sensitive workloads, infrastructure isolation may need to go beyond logical access controls. Dedicated tenant-isolated infrastructure can provide separate compute, storage, network, database, and encryption boundaries for a customer or workload.

This option reduces shared-resource exposure, simplifies customer security reviews, and supports strict data-separation requirements. It is particularly valuable for organizations operating in regulated environments or handling highly sensitive data.

Full OpenTelemetry Tracing

Security cannot be effective if critical actions are invisible. Lamatic instruments services with OpenTelemetry (OTEL) to provide end-to-end traces across distributed systems.

Observability helps us understand how a request moved through services, where an authorization decision occurred, which tool an agent invoked, and what data-access operation was attempted. These signals support reliability engineering, security monitoring, incident response, and auditability.

Security-relevant telemetry includes:

  • Authentication events and failed login attempts

  • Authorization decisions, including denied requests

  • Privileged administrative actions

  • Agent tool calls and runtime behavior

  • Data-access events and sensitive configuration changes

  • API errors, abuse patterns, and anomalous traffic

Edge Protection: WAF, Rate Limiting, Bots, and DDoS

Public-facing applications need edge protection before malicious traffic reaches internal services. We use layered controls because attacks range from simple credential-stuffing attempts to sophisticated application-layer DDoS campaigns.

  • Web Application Firewall (WAF): Filters common malicious request patterns, enforces custom rules, and helps protect against common web vulnerabilities.

  • Rate limiting: Limits how frequently a client can call a sensitive endpoint, reducing brute force, scraping, abuse, and resource exhaustion.

  • Bot detection and mitigation: Identifies suspicious automated traffic while minimizing impact on legitimate users and integrations.

  • DDoS mitigation: Absorbs or blocks volumetric and application-layer attacks so legitimate customers can keep using the platform.

Audit Logs and Intrusion Detection

Audit logs establish accountability. They record who performed an action, what action occurred, where it originated, and when it happened. These records support investigations, customer assurance, and detection of unusual patterns.

Intrusion detection adds another layer by analyzing network, host, application, and identity signals for behavior that may indicate compromise. Alerts are routed through defined severity and escalation paths so the right people can investigate quickly.

Zero Data Retention Options

Some customers need stronger control over how long data remains available. For eligible workloads, Lamatic can provide Zero Data Retention (ZDR) options that minimize or eliminate persistence beyond the active session or approved processing window.

Depending on the configuration, ZDR can include ephemeral processing, reduced logging, no storage of prompts or outputs, and destruction of session-specific encryption material after use. Exact behavior is defined by the product configuration and customer agreement.

Agent Container Sandboxing

AI agents can take actions, use tools, process inputs, and interact with external systems. That makes the agent runtime a critical security boundary.

Lamatic runs agents in isolated container sandboxes with explicit constraints. A sandbox limits what an agent can access and do, even if its instructions, tool inputs, or dependencies behave unexpectedly.

Sandbox controls include:

  • CPU, memory, execution-time, and process limits

  • Read-only or ephemeral filesystems where possible

  • Restricted system calls through security profiles

  • Explicit ingress and egress network policies

  • Scoped secrets and short-lived credentials

  • Per-agent identity and logging of tool actions

  • Isolation between customer workloads and agent sessions

The goal is to ensure that an agent can perform its intended task without receiving unrestricted access to the host, network, data plane, or other tenants.

What Makes Security Agentic

Traditional security is often reactive and periodic. Agentic security is designed for a world where software, infrastructure, agents, and threats all change continuously.

Characteristic

Traditional Security

Agentic Security at Lamatic

Monitoring

Periodic reviews and alerting

Continuous signals across code, identity, runtime, and infrastructure

Testing

Scheduled scans and annual assessments

Continuous validation triggered by changes and emerging threats

Analysis

Rules and manual investigation

Rules, AI-assisted context analysis, and human judgment

Response

Often ticket-driven and delayed

Prioritized workflows, rapid triage, and repeatable remediation

Agent controls

Generic application permissions

Scoped identity, sandboxing, policy enforcement, and observable tool use

Data protection

Broad encryption and access policies

Per-tenant isolation, key separation, just-in-time decryption, and least privilege

Agentic security does not mean handing security decisions entirely to AI. It means using agents responsibly to make security continuous, scalable, and context-aware—while keeping humans accountable for high-impact decisions.

At Lamatic.ai, we are building more than an AI platform. We are building infrastructure designed to protect customers as the threat landscape becomes more autonomous.

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Secure from agents. Secure for agents. Built for what comes next.

Aman @ Lamatic

Get in Touch

Want to learn more about Lamatic.ai’s approach to agentic security?

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Security is not a feature. It is the foundation.

Aman @ Lamatic

Appendix: Security Capabilities

Compliance Programs

  • SOC 2 Type II

  • ISO 27001

  • GDPR

Development Security Coverage

  • SAST: JavaScript, TypeScript, Python, Go, Java, and other supported languages

  • SCA: Dependency and package analysis across common ecosystems

  • IaC scanning: Terraform, Kubernetes, Docker, and CloudFormation

  • DAST: Web applications, REST APIs, and GraphQL APIs

  • Container scanning: Base images, operating-system packages, and application dependencies

Platform Security Controls

  • Multi-factor authentication and federated identity

  • RBAC and row-level security

  • Encryption in transit and at rest

  • Per-project encryption keys and key separation

  • Point-in-time recovery and defined data-retention policies

  • Dedicated tenant-isolated infrastructure options

  • WAF, rate limiting, bot mitigation, and DDoS protection

  • Audit logging, intrusion detection, and OpenTelemetry tracing

  • Sandboxed agent execution with scoped permissions