10 Secure Enterprise Browser Use Cases [+ Examples & Tips]

Secure enterprise browser use cases include:

  1. Securing third-party and contractor access
  2. Monitoring and managing privileged user activity
  3. Enabling secure BYOD policies
  4. Preventing data exposure in GenAI apps
  5. Mitigating web-based threats in the browser
  6. Reducing VDI dependency
  7. Securing undecryptable traffic
  8. Protecting data at the last mile
  9. Secure M&A onboarding
  10. Preventing insider-driven data leakage
  11. 8 min. read
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1. Securing third-party and contractor access

Independent workers—like freelancers, contractors, and consultants—often operate outside traditional IT boundaries. They use their own unmanaged devices, work across multiple organizations, and frequently require access to enterprise SaaS and private apps. Which means: they introduce risk that’s hard to control without also slowing them down.

Here's why this is a challenge.

Unmanaged devices increase the attack surface. Most ransomware and phishing attacks come through web browsers or compromised endpoints. And since independent workers often skip the same onboarding and oversight processes as full-time employees, sensitive data becomes harder to protect.

Architecture diagram showing a sequence labeled 'Unmanaged device accessing corporate app introducing risk via web browser.' It begins with a user icon connected to a red box labeled 'Unmanaged device' with a warning icon, followed by a red box labeled 'Outdated browser' with another warning icon. An arrow leads through the internet icon to a gray building icon labeled 'HQ data center,' then to a gray circle with a download icon and a gray box labeled 'DMS.' An HQ user icon appears at the top right, connected to the DMS with a line and download icon. Red text indicates that a malicious file is uploaded into the DMS and that a corporate user unknowingly downloads the malicious file from the DMS.

A secure enterprise browser helps contain this risk. It gives independent workers access to only what they need. With security policies enforced at the browser level—like masking sensitive data, blocking unauthorized uploads, and inspecting traffic in real time—it's possible to maintain compliance without deploying full desktop environments.

Like this:

The diagram shows a freelancer using an unmanaged device represented by a red laptop icon with a warning symbol, which connects to a secure browser represented by a teal-colored browser icon with a padlock. From the secure browser, three connection lines branch out. The top connection, marked with a green check icon, leads to a box labeled 'Internal apps.' The other two connections, each marked with a red blocked icon, lead to boxes labeled 'www.draftkings.com' and 'www.espn.com.' The diagram is captioned 'Enforcing least-privilege access in the browser.'

In other words: organizations can reduce complexity while extending protections across all users, regardless of device ownership or employment status. That’s key for maintaining productivity and security at the same time.

Tip:
To strengthen oversight, consider integrating browser session logs into your existing SIEM or audit workflows. This makes it easier to correlate contractor activity with other security events—even when the device itself isn’t managed.

 

2. Monitoring and managing privileged user activity

Privileged users manage the systems that keep everything running. They hold elevated access to critical infrastructure, sensitive data, and administrative controls. Any compromise could lead to serious operational or security consequences.

The challenge is visibility and control. These users often work across environments and use secure protocols like SSH or RDP to access remote systems. Without fine-grained access policies and proper session oversight, privileged activity can bypass traditional defenses.

Architecture diagram showing a freelancer using an unmanaged device represented by a red laptop icon with a warning symbol, which connects to a secure browser represented by a teal-colored browser icon with a padlock. From the secure browser, three connection lines branch out. The top connection, marked with a green check icon, leads to a box labeled 'Internal apps.' The other two connections, each marked with a red blocked icon, lead to boxes labeled 'www.draftkings.com' and 'www.espn.com.' The diagram is captioned 'Enforcing least-privilege access in the browser.'

A secure enterprise browser helps reduce this risk.

It enables contextual controls directly in the browser—like enforcing just-in-time access, device posture checks, and step-up authentication for sensitive tasks. It can also restrict session behavior, log actions, and apply least-privilege rules without needing full endpoint control.

Here’s how it works:

Architecture diagram showing a freelancer connecting through a secure browser that enforces access conditions based on context. A dotted box next to the user lists three conditions: 'M–F 09:00–17:00,' 'VPN,' and 'OS up to date,' each marked with a green check. The freelancer connects to a secure browser icon with a padlock, which branches out into four single session paths. The top two paths lead to icons labeled 'Internal apps' and 'SaaS apps.' The third path is labeled 'SSH' and leads to 'Allowed servers.' The fourth path is also labeled 'SSH' and leads to 'HR server,' but is blocked with a red prohibited icon. The image is captioned 'Granular, context-aware browser security.'
In other words: Organizations can monitor and manage privileged user activity in a precise, browser-native way. That makes it easier to detect anomalies, prevent unauthorized access, and maintain compliance without slowing down operations.
Tip:
If your solution supports browser-based session monitoring, consider setting alerts for unusual access patterns—like off-hours activity or unexpected app usage. This helps surface early signs of misuse or compromise without requiring full-blown UEBA tooling.

 

3. Enabling secure BYOD policies

Bring-your-own-device (BYOD) programs let employees use personal devices for work. This supports flexibility and can reduce hardware costs. But it also expands the attack surface—especially when unmanaged devices access sensitive applications.

Here's why that's a problem.

Most web-based threats originate from browsers. And without consistent controls across devices, organizations may lose visibility into risky behavior, data movement, or even credential misuse.

Architecture diagram illustrating a corporate network where a user on a laptop connects to a browser, which then attempts to access both the internet and local applications. Two red warning icons appear between the browser and its destinations, indicating potential risk paths to the internet and to local apps. A label above reads 'Risk exposure from inconsistent browser controls,' and a caption below notes, 'User traditionally allowed because the firewall trusts the local corporate network.'

Traditional solutions like VDI and DaaS are often too expensive or frustrating to scale for every user.

A secure enterprise browser offers a more practical approach. It enables secure access to SaaS and private apps without requiring full device management. Security is applied directly in the browser—through posture checks, policy enforcement, and data protection controls—so personal devices stay isolated from enterprise assets.

Architecture diagram showing a user on a laptop connecting to a browser within a corporate network. From the browser, two paths emerge—one to the internet and one to local applications—each with an associated security control icon. Beyond these paths, URL filtering is depicted with six applications arranged in two columns. Green and red checkmarks indicate allowed and blocked access based on filtering policies, with some apps connected to the internet and others to local apps. The title above reads 'Applying security controls directly in the browser.'

In other words: BYOD can stay flexible without compromising oversight. That balance makes it easier to support a modern workforce without creating new security gaps.

Tip:
To reduce residual risk on unmanaged devices, consider enforcing session expiration and automatic browser data flushing. Clearing history, cached files, and cookies at logout—or after a fixed period—helps prevent sensitive data from lingering beyond the intended session. This can be especially useful in BYOD and contractor scenarios where full device control isn’t possible.

 

4. Preventing data exposure in GenAI apps

Today, most organizations have no visibility on user activity in GenAI apps.

And yet, generative AI tools are becoming a core part of many workflows. They support everything from content creation to software development and data analysis.

"3x more employees are using gen AI for a third or more of their work than their leaders imagine…"

But they also create new security concerns—especially when users input sensitive data into public models.

"By 2027, more than 40% of AI-related data breaches will be caused by the improper use of generative AI (GenAI) across borders,” according to Gartner, Inc."

Here’s why that matters.

Most GenAI platforms operate in the cloud. Which means: organizations don’t fully control where data goes once it’s submitted. Without guardrails, users can unknowingly share confidential information, intellectual property, or customer data with third-party services.

Architecture diagram illustrating a scenario labeled 'Accidental data exposure in GenAI apps.' On the left, a user uploads a secure file that contains sensitive information such as social security numbers and account numbers. The user then issues a prompt that reads, 'Please summarize this file.' On the right, the GenAI system responds with a summary that includes partial sensitive data, displaying a response such as 'Account numbers starting with [000-00...].' Arrows connect the user and GenAI to show the flow of information between them.

A secure enterprise browser helps reduce that risk. It enables policy enforcement directly at the point of interaction—inside the browser. For example, security teams can block or redact sensitive inputs, apply content-based controls, and restrict usage based on identity, device posture, or app context.

In other words: organizations can safely enable GenAI without sacrificing data protection. That’s especially important as these tools become more integrated into daily operations.

Tip:
To reduce the risk of accidental data exposure in GenAI tools, consider policies that inspect typed inputs and redact sensitive content in real time. This can help prevent users from unintentionally sharing confidential data during everyday interactions with public models.

 

5. Mitigating web-based threats in the browser

The browser is a primary target for external attacks. It connects users to SaaS apps, cloud platforms, and public websites—creating an open channel for phishing, malware, and exploit attempts. That's why browser activity needs to be monitored and controlled like any other threat surface.

Architecture diagram showing a sequence titled 'How browsers create open channels for web-based threats.' A user accesses an unmanaged device, which then uses an outdated browser to open an email. The user clicks a phishing email link, represented by an icon and a label reading 'User clicks phishing email link.' This triggers the browser to create a new session to a malicious site, depicted with an icon and the label 'Browser creates new session to malicious site.' Arrows connect each step to illustrate the flow from user to threat.

Here’s the challenge.

Most browsers aren’t built with enterprise risk in mind. They offer limited control over how users interact with data and applications. That makes it easy to trigger security incidents—even unintentionally—through downloads, third-party extensions, or unsafe websites.

A secure enterprise browser changes that.

It applies real-time controls at the point of use. Security teams can inspect behavior, enforce policies by app type or device posture, and block risky actions like downloading malware or logging into personal services.

Architecture diagram demonstrating a secure web browser blocking compromised web traffic. It depicts a user on the left side connected to a secure browser represented by a green icon with security features. This secure browser intercepts traffic from a compromised website shown on the right, which is indicated by a red icon with a warning symbol. The malicious code in the response traffic is highlighted between the browser and the compromised website, emphasizing the browser’s protective action. The caption beneath reads, 'Secure web browser blocking compromised web traffic.'

This reduces exposure without disrupting the user experience.

If you're deploying secure browser access, consider restricting domain-level logins to prevent users from signing in to personal accounts within the same session. This helps contain phishing attempts that rely on cross-account activity and keeps sensitive workflows separated from unmanaged destinations.

Tip:
To reduce exposure from web-based threats, prioritize browser tools that can isolate personal and corporate account access. Enforcing login restrictions by email domain helps block phishing attempts that exploit session overlap—and keeps data from leaking across environments.

 

6. Reducing VDI dependency

Virtual desktop infrastructure (VDI) and desktop as a service (DaaS) are commonly used to support remote access. They offer centralized control and consistent user environments. But they also introduce high costs, complexity, and performance trade-offs.

Here's why that's becoming a problem.

VDI setups are difficult to scale and maintain. Many users only need access to web-based apps—not full virtual desktops. Running all activity through VDI creates overhead that may not be necessary.

A secure enterprise browser offers a simpler option. It enables secure access to SaaS and internal web apps without relying on virtual desktops. That means fewer VDI licenses, reduced infrastructure needs, and a better user experience for browser-based tasks.

Architecture diagram shows a comparison of VDI resource usage for 5,000 users before and after reducing VDI instances. On the left side, a labeled section reads 'VDI resources for 5,000 VDI users' and shows an icon representing multiple computer screens stacked, indicating full VDI allocation. Below it, text states that users spend 30% of the time on thick client app access and 70% on browser app access. An arrow points to the right with a note above it saying 'Reduce costs by up to 79% by reducing the VDI instances,' accompanied by an icon of a cloud with a downward arrow. To the right of the arrow, another section labeled 'Reduced VDI resources for 5,000 VDI users' displays a single monitor icon and the same usage breakdown—30% on thick client app access and 70% on browser app access. Next to it, a plus sign separates this from a blue monitor icon labeled 'Same 5,000 users.' Below the diagram, a caption reads 'Minimizing VDI deployments using a secure enterprise browser.'

Essentially, organizations can reserve VDI for users who truly need it. Everyone else can operate securely through the browser, lowering cost and operational burden across the board.

Architecture diagram showing a segmentation of 5,000 VDI users before and after deploying a secure enterprise browser. On the left side, a group labeled '5,000 VDI users' is split into two subgroups: '2,000 Full desktop users' with green icons and '3,000 Browser-only users' with orange icons. An arrow points to the right, where the same label '5,000 VDI users' is used again, but the subgroups are now labeled '2,000 Full desktop need (using VDI or DaaS)' with green icons and '3,000 Prisma Access Browser users' with blue icons. A caption below states that secure enterprise browsers allow organizations to deploy VDI exclusively to users who require it.
Tip:
When evaluating alternatives to VDI, look for browser-based solutions that support role-based access segmentation. This makes it easier to separate users who need full desktop environments from those who can work entirely in the browser—so you can right-size your VDI footprint without compromising security or access.

 

7. Securing undecryptable traffic

Most internet traffic is now encrypted. That's a good thing for privacy. But it also makes it harder for traditional security tools to inspect and control what users are doing—especially inside the browser.

But here's the problem.

Some protocols, like QUIC, aren't easy to decrypt. Others, like Microsoft 365 traffic, come with service-level agreements that discourage deep inspection. So even if traffic is suspicious, security teams may not be able to analyze it without breaking compliance or disrupting performance.

A secure enterprise browser offers a different approach. Instead of decrypting traffic in transit, it applies controls directly at the point of use—within the browser itself.

This is how it works:

Graphic titled 'Securing encrypted browser sessions without traffic decryption' and is divided into two horizontal sections. In the top section, a user accesses a secure browser, which communicates via SSL to a firewall labeled 'Firewall decrypt – Allowed or denied based on policy.' From there, traffic is either allowed to Website A or blocked from accessing Website B, shown with green and red indicators respectively. In the bottom section, a user again accesses a secure browser, which sends SSL traffic to a firewall labeled 'Firewall – Allowing encrypted traffic.' From there, the traffic is allowed to reach the internet, shown with a green indicator.

That means organizations can still monitor access, enforce policies, and detect risky activity even when the underlying traffic remains encrypted.

Basically, you don’t need to break encryption to secure the session. Browser-based visibility helps fill the gaps left by network-based tools, especially as more web and SaaS apps shift to modern encrypted protocols.

Tip:
When considering browser-level controls for encrypted traffic, check whether the solution can apply policies without needing decryption. That includes visibility into apps using QUIC or Microsoft 365 traffic, which many traditional tools miss. This helps close blind spots without affecting performance or compliance.

 

8. Protecting data at the last mile

The browser is where sensitive data is most exposed. Users read, edit, download, and share business-critical information in real time. Which means: the last mile—where users interact with data—is one of the most important places to apply security.

Here's why that matters.

Even with strong network and cloud protections, data is still at risk once it reaches the user. For example: someone might copy confidential content into a personal app, take a screenshot of sensitive material, or upload files to an unapproved drive. Traditional controls often miss this activity.

A secure enterprise browser addresses these gaps directly at the endpoint. It can mask sensitive data, block screenshots, restrict file uploads, and apply watermarks—without interrupting the user experience. These policies adapt based on content, user identity, and context.

Architecture diagram titled 'Enforcing last-mile data protection in the browser' illustrates a sequence beginning with a privileged user on a managed device. The user attempts to upload a malicious file, which passes through a secure browser and into the HQ data center. At the final stage, the data management system (DMS) blocks the upload. Labels indicate that the corporate user unknowingly uploads a malicious file to the DMS, but the upload is blocked before reaching its destination.

So: You get precise control over how data is accessed and used in the browser. That’s key to protecting information at its most vulnerable point—right before it leaves your environment.

Tip:
When evaluating last-mile protections, look for browser-level controls that respond to both content and context. This includes policies that adjust based on user role, app type, or data sensitivity—like blocking uploads in high-risk sessions while still allowing read-only access.

 

9. Secure M&A onboarding

Mergers and acquisitions depend on speed. The faster newly acquired employees gain secure access to corporate applications and data, the faster the deal delivers value. Put another way, time-to-access directly impacts time-to-value.

There’s an issue, though.

Traditional onboarding approaches—like shipping laptops or provisioning VDI—take weeks. They also create logistical bottlenecks, raise costs, and delay productivity. Add compliance constraints or device assessments, and the timeline gets even longer.

A secure enterprise browser removes many of these delays. It enables secure access to SaaS, web, and private apps on both managed and unmanaged devices. Employees can start working in minutes, even before corporate hardware is delivered.

Architecture diagram titled 'Enforcing last-mile data protection in the browser' illustrates a sequence beginning with a privileged user on a managed device. The user attempts to upload a malicious file, which passes through a secure browser and into the HQ data center. At the final stage, the data management system (DMS) blocks the upload. Labels indicate that the corporate user unknowingly uploads a malicious file to the DMS, but the upload is blocked before reaching its destination.

That means organizations can scale access quickly without sacrificing security. Browser-based controls enforce policy by user, device posture, or data type—helping IT stay compliant while enabling fast, secure integration.

Security teams can define access by user group, enforce device posture checks, and apply context-aware policies like watermarking, screenshot blocking, or file upload restrictions. These last-mile protections help prevent data leakage while employees work from personal or acquired devices. The browser also supports rapid offboarding, so access can be revoked instantly if needed.

Tip:
To accelerate onboarding during M&As, consider segmenting users by device type and role. A browser-based approach lets you apply group-specific security policies immediately—so newly acquired employees can access only what they need, even before IT ships corporate devices.

 

10. Preventing insider-driven data leakage

Not all threats come from the outside. Insider risks—whether intentional or accidental—are a leading cause of data exposure. And browsers are one of the easiest ways for users to move sensitive information without detection.

That’s significant because:

The browser is where users access corporate tools, download files, and interact with data. Without guardrails, they can copy content into personal apps, upload files to unapproved destinations, or blur the line between work and personal use.

A secure enterprise browser gives security teams visibility and control over those actions. For example, they can block file uploads to personal drives, prevent copy-paste in high-risk workflows, or watermark sensitive sessions. They can also restrict login behavior or isolate sessions entirely to separate identities.

Put simply: You can reduce the risk of data loss without interrupting legitimate work. That makes browser-layer protection a practical defense against insider threats in modern work environments.

Tip:
If insider risk is a concern, assess whether browser session controls can enforce separation between personal and corporate identities—such as restricting logins by domain or isolating work sessions. This helps prevent unintentional cross-over before it becomes a security incident.

CTA banner featuring a light teal background with a circle graphic containing a book. Text within the banner reads 'Learn more about secure browsers and which solution is right for your business, featuring 'The Definitive Guide to Secure Browsers.' and includes a 'Download guide' button.

 

Secure enterprise browser use cases FAQs

An enterprise browser provides a secure, managed web browser environment designed for specific business needs, allowing for full visibility and control over all web services and user actions.
A secure enterprise browser enhances security without compromising usability. It protects data, prevents malware, and enforces policies—no endpoint installs required. Organizations benefit from lower costs, fast deployment, and a smooth user experience, all while scaling securely across managed and unmanaged devices.