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Enterprise AI Control Layer: MCP Gateway & AI Firewall

Security, Governance, and Observability

As employees increasingly rely on generative and agentic AI in their daily operations, organizations are challenged to control who can use external AI models and how, prevent confidential data sharing, and help employees safely automate routine tasks. As an AI transformation company, ScienceSoft develops custom AI firewalls that sit between users and AI models to intercept AI traffic, enforce granular AI usage policies, detect and mask sensitive information, and monitor AI activity across the organization. We also build MCP gateways that sit between AI applications and enterprise systems, providing secure, authenticated access to business tools and data. Together, these components establish a secure control layer for enterprise AI adoption without compromising productivity or governance.

Custom AI Gateway - ScienceSoft
Custom AI Gateway - ScienceSoft

Enterprise AI Control Layer: The Essence

An enterprise AI control layer is a company-specific architecture that enables organizations to securely govern AI interactions across employees, AI applications, external AI models, and enterprise systems. It establishes a centralized layer of security, governance, and connectivity that allows organizations to adopt generative and agentic AI at scale while maintaining control over how information is shared, accessed, and used.

As AI becomes embedded in everyday business processes, organizations need more than isolated security controls. They must understand which AI services employees use, what information is shared with AI models, how AI assistants and agents access enterprise systems, and whether these interactions comply with internal policies, industry regulations, and security requirements. They also need the flexibility to apply different governance rules across business units, data types, user roles, AI providers, and business applications.

To meet these requirements, organizations build an enterprise AI control layer tailored to their business processes, technology landscape, and compliance obligations. Rather than functioning as a single product, it combines complementary components that govern different aspects of AI interactions.

An AI firewall governs communication between users and AI models. It inspects AI requests, evaluates them against organizational policies, protects sensitive information, and monitors AI usage across the organization.

An MCP gateway governs communication between AI applications and enterprise systems. It authenticates requests, enforces authorization policies, routes requests to approved enterprise services, and enables AI assistants and agents to securely retrieve information and execute business operations on behalf of authorized users.

Core Capabilities of Custom AI Firewalls

The capabilities below represent a baseline that ScienceSoft commonly recommends when designing AI firewalls. Depending on the organization's risk profile, regulatory obligations, existing security stack, and AI adoption goals, the solution may be implemented using a combination of custom-developed components, existing security platforms, endpoint technologies, and cloud services (e.g., for telemetry analysis and visualization). Not every organization requires every capability, but together they illustrate how a comprehensive AI gateway can provide visibility, control, and governance over enterprise AI usage.

AI traffic interception

Before an organization can govern AI usage, it first needs visibility into which AI services employees use and what information is shared with them. To provide this visibility, AI firewall architectures typically begin with a traffic interception layer running on employee devices. In Learning mode, this component identifies AI services accessed across the organization. For the set of supported AI services the organization chooses to govern, it can also intercept AI requests and extract prompts, uploaded documents, and text contained in screenshots or images before they leave the device. This combined visibility helps organizations define AI usage policies and configure the firewall to enforce them through capabilities such as data masking and blocking, rather than replacing the need for those policies.

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Sensitive data detection (deep content scanning)

Once AI-related content becomes visible, the next challenge is determining whether that content contains information that should be protected. To address this, a custom AI firewall includes a deep content analysis layer that runs through prompts, documents, and image-derived text and evaluates them for sensitive information. The primary purpose of this capability is not only to detect potential policy violations but also to help organizations understand where their real exposure risks exist. Many companies discover that employees regularly share customer information, financial data, source code, contracts, or internal business knowledge with AI systems without realizing the associated risks.

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Document labels and watermark checks (fast sensitivity classification)

Not every protection decision requires deep content analysis. Many organizations already classify information using sensitivity labels, document classifications, or watermarks. When such controls already exist, an AI firewall can use them as an additional quick source of context when evaluating AI requests.

Instead of analyzing every document from scratch, the firewall can first determine whether a document has already been identified as public, internal, confidential, or otherwise restricted. This allows security decisions to align with existing information governance practices while reducing unnecessary inspection overhead, e.g., allowing documents marked as Public, restricting Internal documents to approved AI services, or blocking the use of Confidential information altogether.

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Document origin tracking and traceability

Knowing what information employees share with AI tools is often not enough to accurately assess risk. Organizations also need to understand where that information came from. The same document may require very different handling depending on whether it originated from a public website, a CRM system, a customer proposal repository, a contract management platform, or an internal product development project.

For this reason, AI firewall implementations may include document traceability mechanisms that associate uploaded files with their original business sources. More advanced implementations can also preserve this traceability when files are renamed, copied, or modified, helping organizations maintain visibility into the origin and business sensitivity of information throughout its lifecycle.

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Centralized policy configuration

A centralized policy configuration layer serves as the organization's AI rulebook, allowing security and governance teams to define and manage AI usage policies from a single place. The policy layer determines how the AI firewall should respond in different situations, including which AI services are approved, what information is considered sensitive, which document classifications require special handling, and when content should be monitored, masked, or blocked. For example, an organization may allow marketing teams to use public AI tools with publicly available information, require finance teams to use only approved enterprise AI services, or prohibit confidential documents from being shared with any external AI platform.

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Policy enforcement

The enforcement layer is responsible for evaluating the results of content inspection, document classification, traceability analysis, and policy rules, then determining how a particular AI request should be handled before it leaves the employee's device.

Depending on the organization's governance objectives, the firewall may simply record the event, allow the request to approved AI services, remove sensitive information while preserving the business context, or prevent the request from being transmitted altogether. This capability represents the transition from AI visibility to active AI protection.

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Enterprise-wide AI usage monitoring and reporting

As AI adoption expands across the organization, security and governance teams need a consolidated view of how policies are performing and where risks remain. The reporting layer collects events generated throughout the firewall architecture and transforms them into operational and governance insights. Instead of analyzing isolated incidents on individual devices, organizations gain a centralized understanding of AI usage patterns, policy violations, enforcement actions, and emerging risks across departments and locations.

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Centralized firewall management

For organizations operating hundreds or thousands of devices, governance controls must be manageable at scale. A centralized management capability allows security teams to deploy, configure, update, monitor, and control firewall components across the employee devices from a single administrative interface. This ensures that policies remain consistent, protection mechanisms stay up to date, and governance changes can be rolled out quickly when business requirements evolve.

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Core Capabilities of Сustom MCP Gateways

The MCP gateway acts as the communication layer between AI application (e.g., Claude) and the company's connected business systems (project management tools, IT service management software, knowledge bases, and HR platforms). It authenticates requests, routes them to the appropriate MCP servers or enterprise integrations, retrieves data, and executes actions on the user's behalf. This allows employees to access multiple business applications through a single conversational interface while the gateway manages the underlying system interactions securely and transparently.

Popular Business Use Cases Enabled Through AI Firewalls and MCP Gateways

On top of AI firewalls and MCP gateways, organizations can build AI assistants and agent-based automations that retrieve information, execute business operations, and coordinate multi-step workflows according to defined business rules.

The use cases below reflect AI-powered automations that ScienceSoft first implemented internally. While each organization will prioritize different scenarios, the best starting points are typically frequent, high-volume processes supported by high-quality data and clear business rules.

Project & sprint management

AI agents can work with project management systems (e.g, Jira) via the AI gateway to create, update, and organize work items such as tasks, tickets, epics, and milestones. They can also retrieve context like dependencies, timelines, and activity history, and perform bulk updates across multiple items. This becomes especially valuable when teams manage large or fast-moving delivery pipelines where manual ticket handling slows down coordination and reporting. Instead of switching between tools, users can manage work through natural language, and the AI translates it into structured updates inside project systems.

Work time management

AI agents can create and update official time entries inside HR/time tracking systems, while ensuring entries are correctly linked to existing tasks or issues. They also enforce organizational rules such as allowable logging periods or restrictions on editing past entries. This is especially important in organizations where time tracking is mandatory but often inconsistent or incomplete due to manual effort. It becomes particularly valuable in consulting, outsourcing, or project-based delivery environments.

IT support (service management)

AI agents can interact with IT service systems to create support tickets, check status, and update existing requests through conversational interaction. This is useful in organizations with high IT support volume, where employees spend time navigating service portals or waiting for updates. It becomes even more valuable in distributed or hybrid workplaces where IT communication is fragmented.

Employee activity analytics

AI agents can combine signals from multiple enterprise systems such as code repositories, project management tools, documentation platforms, and AI usage logs to generate unified insights into how work is distributed, how teams collaborate, and how AI is being adopted over time.

Knowledge and documentation management

AI agents can search, read, create, and update content across internal knowledge bases and documentation systems, including retrieving metadata, version history, comments, and attachments, and generating consolidated summaries from multiple sources. It is critical when employees often need accurate, up-to-date information across projects, systems, or legacy documentation.

Branded content and visual asset generation

AI agents can generate structured drafts of reports, proposals, and presentations using approved corporate templates, as well as produce visual assets like diagrams, process flows, and presentation-ready slides from text descriptions. This works for businesses where content creation is repetitive but must remain consistent in branding and structure.

What to Consider When Designing AI Firewalls

ML for sensitive data detection

Many organizations initially rely on strict automatic filters that look for known patterns such as emails, credit card numbers, API keys, or other clearly structured identifiers. This approach is popular because it is fast to deploy and immediately useful for catching obvious data leaks. However, this approach quickly shows its limitations when AI is used for real business work. Sensitive information rarely appears in clean, structured formats. A support engineer might paste a troubleshooting summary that says: “Customer AcmeCorp reported repeated login failures after API migration, account ending in 4821.” A marketing manager might ask an AI to rewrite a proposal that includes internal project codenames and partially anonymized client references. A developer might paste logs where sensitive tokens are mixed with technical output and not explicitly labeled. In such cases, a strict pattern-based system may either miss the real sensitivity hidden in context or block the entire request unnecessarily. Both outcomes reduce trust in the system and make AI less usable for everyday work (side effect: employees start using external or personal AI tools where no restrictions exist).

This is why ScienceSoft recommends moving toward a hybrid detection approach that combines rules with machine learning. Rules continue to handle high-confidence cases such as financial identifiers, authentication tokens, and standard personal data formats. These remain important because they are fast, deterministic, and easy to validate. At the same time, machine learning models are used to interpret context and detect sensitive entities that do not follow fixed structures. They understand whether a term like “Apple,” “Jordan,” or “Mercury” refers to a company, a person, or a non-sensitive concept based on surrounding text. ML models also continuously learn from your business data and employee feedback to understand specific contextual sensitivity, for example, recognizing references to specific customers, internal project codenames, or system components. In our internal implementations, these machine learning models are optimized to run directly on the user’s device using lightweight inference engines. This ensures that sensitive data detection happens locally before any information leaves the machine, preserving privacy while still enabling contextual understanding.

Masking without breaking the context

We often see organizations struggle with overly strict masking approaches that remove too much context, resulting in prompts that no longer make sense for the AI and produce low-quality or irrelevant outputs. From our experience, effective masking requires context-aware rules that distinguish between different types of information and their role in the prompt.

For example, customer identifiers such as names, emails, account numbers, or phone numbers are typically fully anonymized, since they directly expose individuals or organizations. At the same time, technical elements like system logs, API endpoints, error codes, or service names are often preserved or only partially transformed, because they are essential for the AI to understand and analyze the issue correctly. We also often recommend more nuanced handling within technical contexts. Internal system names, for instance, are usually safe to keep in engineering or troubleshooting prompts, while secrets such as API keys, authentication tokens, or credentials must always be removed regardless of context.

Timestamps require special consideration. While exact values can sometimes introduce unnecessary sensitivity, they are often important for understanding sequence and causality (for example, whether an issue started after a deployment). In such cases, we typically recommend converting precise timestamps into relative or abstracted values that preserve ordering without exposing exact activity patterns. For example, “2026-06-28 14:32:10” might be converted into “recent timestamp” or “T+0” to keep ordering without exposing exact activity patterns that could be sensitive in security or compliance contexts.

Finally, masking only works effectively when it is applied consistently before data leaves the controlled environment. In our implementations, we typically enforce masking at the device level so that sensitive information is transformed locally, ensuring it never reaches external AI services in its original form.

How Much Does It Cost to Implement Custom AI Firewalls and MCP Gateways?

Implementation of custom AI firewalls and MCP gateways typically costs $30,000–$500,000+, depending on the depth of AI usage visibility, complexity and granularity of security controls, governance automation, and integration with enterprise systems. The ranges below reflect the most common implementation scenarios we see across organizations adopting AI at scale.

$30,000–$80,000+

We implement a pilot AI visibility solution. This means deploying AI usage monitoring for a selected user group, capturing representative prompts and file uploads, and delivering centralized reporting on AI adoption, usage patterns, and potential exposure of sensitive information.

$80,000–$200,000+

We implement enterprise-wide AI visibility and core AI data protection capabilities. This means inspecting prompts, documents, spreadsheets, presentations, and images before they are sent to AI services, detecting sensitive information, applying masking or blocking policies in near real time, and providing centralized reporting on AI activity and policy violations.

Disclaimer: These estimates cover the design and implementation of custom AI firewalls and MCP gateways and exclude third-party software licenses, cloud infrastructure costs, and AI model usage fees. The figures shown are indicative only and do not represent ScienceSoft's official pricing. We estimate each project individually based on the client's requirements, existing environment, and business objectives.

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Why Choose ScienceSoft for Custom AI Firewall and MCP Gateway Development

  • 37 years in AI and software engineering.
  • 23 years in cybersecurity and 18 years in ITSM.
  • 21 years in IT services for regulated industries like healthcare and insurance.
  • 750+ specialists, including AI architects, machine learning engineers, data scientists, software developers, DevSecOps, and security specialists. Over 50% of them are senior- and lead-level experts.
  • An Architecture and Solutions CoE that continuously extracts and enforces best practices for designing AI systems that fully justify investments and remain resilient over time.
  • A 7-year PMO that applies lessons learned from thousands of our enterprise IT projects to control scope, quality, budget, timelines, and risks in complex, fast-moving AI initiatives.
  • In-house compliance consultants to align AI solutions with global standards (e.g., SOC 2, PCI DSS/SSF, NIST), regional privacy rules (e.g., GDPR, Saudi PDPL), and sectoral regulations (e.g., HIPAA, FDA QMSR, SOX, GLBA, NYDFS).

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