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UAS C2 Platform Security: What to Verify Before You Buy

TacLink C2 Team 5 min read
UAS C2 Platform Security: What to Verify Before You Buy

When an IT security lead gets involved in a UAS platform evaluation for the first time, the conversation usually starts with a version of the same question: what data does this thing actually generate, where does it go, and who can see it?

The answers matter more for UAS platforms than for most enterprise software categories. The data a drone program generates includes precise flight paths over sensitive facilities, live video feeds of people and property, biometric-adjacent thermal imagery, and operational records that may become evidence in legal proceedings. That data deserves security treatment commensurate with its sensitivity, and a significant portion of the UAS platform market has not kept pace with what that requires.

This article gives IT security leads the framework to evaluate platform security honestly and gives procurement teams the language to turn security requirements into contractual obligations.

Why UAS Data Is a Distinct Security Problem

Most enterprise software security reviews focus on encryption, authentication, audit logging, and certifications. Those questions apply here, but UAS platforms introduce data categories that general IT frameworks do not specifically address.

Live video feeds may capture individuals, sensitive infrastructure, and in some cases classified facilities in the background of footage intended for a different purpose. That footage exists on vendor infrastructure if the platform is cloud-based, and the vendor’s data governance policies govern who can access it, how long it is retained, and what happens to it if the vendor is acquired or receives a lawful access request.

Telemetry data creates a detailed record of where officers were, when, in what configuration. That information has operational security implications beyond the individual incidents it documents.

For agencies operating near defense facilities or handling criminal justice information, specific regulatory frameworks apply that most commercial vendors have not designed their systems to meet.

Security Architecture

Four Security Layers Every UAS C2 Platform Must Address

Data in Transit
TLS 1.2 minimum for all API traffic Baseline
TLS 1.3 for video stream transmission Recommended
Certificate pinning to prevent MITM attacks Gov recommended
Encrypted telemetry links between aircraft and platform Baseline
Data at Rest
AES-256 encryption for stored operational records Baseline
Encrypted backup storage with key management Baseline
Database-level encryption for mission data Recommended
Hardware security module for key storage Gov recommended
Access Control
Role-based access control with least-privilege defaults Baseline
Multi-factor authentication for all user accounts Baseline
Single sign-on integration with agency identity provider Recommended
Session timeout and concurrent session controls Baseline
Audit and Monitoring
Immutable audit log for all user actions Baseline
SIEM integration for security event export Gov recommended
Failed authentication attempt alerting Recommended
Data access logging with user attribution Baseline
Baseline
Recommended
Gov recommended

Encryption: What the Minimum Looks Like

For data in transit, TLS 1.2 is the floor. TLS 1.3 is meaningfully more secure and should be the standard for government and public safety. Known vulnerabilities in TLS 1.0 and 1.1 have been exploited in practice, which is why both are formally deprecated.

Video stream encryption deserves specific attention. Live video involves higher bandwidth and different latency constraints than API traffic. Some platforms handle video through less rigorously encrypted pathways. Ask specifically about the video pipeline encryption, not just general data transport.

For data at rest, AES-256 is the baseline standard. Key management practices matter as much as the encryption algorithm. Who holds the keys, where are they stored, and can they be rotated without disrupting operations are questions that reveal the maturity of the vendor’s encryption implementation.

Role-Based Access Control

RBAC in a UAS platform needs to reflect how drone operations actually work. A pilot needs aircraft controls and task visibility. A coordinator needs the full operational picture. An IT admin needs user management without operational record access. An auditor needs read access to logs without operational access.

A platform that implements these distinctions with granular permissions is meaningfully more secure than one with a few broad role buckets. The test is whether the platform satisfies least-privilege for each role in your organization without workarounds that give users unnecessary access.

Audit Logs: Immutability Matters

A genuine audit log records who did what within the platform and when — not just flight telemetry but user actions. An administrator exporting a dataset, a user accessing sensitive footage, a supervisor modifying a record — all should appear with enough detail to reconstruct what occurred.

Immutability is not optional for government use cases. An audit log that can be modified by an administrator has limited evidentiary value. An append-only log that is cryptographically signed carries stronger standing in legal proceedings.

Ask vendors specifically how their log prevents modification, what the tamper-resistance mechanism is, and whether it can be exported to your SIEM while preserving tamper-evident properties.

Regulatory Frameworks

Data Residency Requirements by Regulatory Context

CJIS Security Policy

Applies to: Any system handling Criminal Justice Information including law enforcement drone footage

Key data requirements
Data must be stored on FBI-approved infrastructure or agency-controlled servers
Cloud storage requires a CJIS-compliant cloud service agreement
Data access requires personnel security screening
Audit logging must meet CJIS minimum standards
Platform implication

Most commercial cloud UAS platforms do not meet CJIS by default. Verify explicitly and obtain the CSA before signing.

FedRAMP Authorization

Applies to: Federal agencies and contractors using cloud services to process federal data

Key data requirements
Cloud provider must hold FedRAMP Moderate or High authorization
Data residency within US borders is typically required
Continuous monitoring and annual assessment requirements apply
Incident response procedures must meet FedRAMP standards
Platform implication

Very few UAS platform vendors have pursued FedRAMP authorization. Federal agencies should require it or obtain their own ATO.

ITAR and EAR Considerations

Applies to: Defense-adjacent agencies and contractors handling controlled technical data from UAS operations

Key data requirements
Certain UAS technical data may be subject to export control restrictions
Cloud platforms with non-US data centers may create inadvertent export issues
Personnel with access must be authorized
Data sharing must account for export control status
Platform implication

Agencies near defense applications should obtain a determination on whether operational data constitutes controlled information before deploying cloud platforms.

Data Residency: Government Requirements

The CJIS Security Policy governs law enforcement agencies handling criminal justice information. Most commercial cloud UAS platforms do not meet CJIS by default. Verify explicitly and obtain a Cloud Service Agreement before signing.

FedRAMP governs federal agencies. Very few UAS vendors have pursued FedRAMP authorization. Federal agencies should require it or obtain their own Authority to Operate.

For defense-adjacent agencies, ITAR and EAR considerations may apply to operational data. Determine whether your data constitutes controlled information before deploying cloud platforms.

Security Certifications in Context

SOC 2 Type II is meaningful but limited — it tells you controls were operating effectively during the audit period, not that they are sufficient for your regulatory environment. ISO 27001 is somewhat broader. Penetration test results are often more operationally useful because they reflect active vulnerability testing rather than control documentation review.

Ask for a summary of the most recent pen test and specifically what was found, whether it was remediated, and on what timeline.

Vendor Security Review

Security Questions to Ask Every UAS Platform Vendor

Encryption and Transmission
Q What encryption protocol is used for API traffic and at what minimum TLS version?
Q Is video transmission encrypted end-to-end between aircraft and the platform?
Q How are encryption keys managed and who has access to them?
Q Is data encrypted at rest and at what standard?
Access Control and Identity
Q Does the platform support SAML or OIDC integration with our identity provider?
Q What MFA options are supported and is MFA enforced by default?
Q How granular is the RBAC and can we define custom roles?
Q What happens to user access when an employee leaves? Is there automated deprovisioning?
Audit and Incident Response
Q What user actions are captured in the audit log and are those logs immutable?
Q Can audit logs be exported to our SIEM in real time or on schedule?
Q What is your incident response process and SLA for breach notification?
Q Have you experienced a breach in the past three years, and what happened?
Certifications and Compliance
Q What certifications does your platform hold — SOC 2 Type II, ISO 27001, FedRAMP?
Q Have you completed a CJIS assessment and do you have an executed cloud service agreement?
Q What is your pen testing cadence and can we review a recent summary?
Q How quickly are critical vulnerabilities patched?

Building Security into Procurement

Security requirements not in the contract are not enforceable. Minimum contractual obligations should include: encryption standards for transit and rest, MFA as default, immutable audit logging with retention and export rights, breach notification timelines, pen testing frequency, and data handling requirements upon termination.

For CJIS-subject agencies, the contract must include an executed Cloud Service Agreement.

For the deployment model that shapes which security requirements are most critical, the cloud versus on-premise guide covers how architecture affects security posture. For the compliance layer that overlaps with security, the FAA compliance guide covers regulatory documentation. For the procurement process where security requirements become contractual, the government procurement guide covers the full lifecycle. And for the full C2 landscape, the complete guide puts security in context alongside other capabilities.


We’re building TacLink C2 with security as a design principle — TLS 1.3, AES-256, immutable audit trails, granular RBAC, and data sovereignty controls that put your agency in charge. If you need a platform that meets government security requirements, join the early access waitlist.

security data governance UAS government CJIS encryption

Written by

TacLink C2 Team

TacLink C2 Team builds a modern desktop ground control station for independent and commercial drone pilots. Writing here covers mission planning, multi-drone operations, airspace, and the software that keeps serious UAS programs running.