What Is a Secure Enterprise Browser (AKA Secure Browser)?


An enterprise browser is a secure, managed web browsing environment designed for business use. It enforces security policies, manages user activity, and isolates browsing to protect sensitive data.

Secure browsers provide IT teams with controls to oversee browsing and integrate with existing systems for seamless security and productivity.

Note:
Enterprise browser-related terminology is evolving. Currently, enterprise browsers are also referred to as “secure browsers” and “secure enterprise browsers.”

 

How do enterprise and consumer secure browsers differ?

Before we get into the nuts-and-bolts of secure browsers, it's worth taking a moment to make a distinction between personal and enterprise secure browsers.

Enterprise secure browsers and consumer secure browsers both aim to protect users. But they have very different roles.

Consumer secure browsers are built for individuals who want to browse privately and block online threats.

They focus on features like ad-blocking, tracker prevention, and phishing protection. This helps keep personal browsing sessions safe and private.

Enterprise secure browsers are designed for businesses that need dedicated tools to manage browsing activity and security.

Secure browsers let IT teams set policies, monitor activity, and integrate with company systems.

They keep work data separate from personal use and reduce the chance of data leaks. Plus, they support identity checks and session control to protect sensitive data and applications.

Essentially, consumer secure browsers protect the individual. Enterprise secure browsers protect the organization.

 

What created the need for secure enterprise browsers?

Enterprise browsers emerged to fill a critical gap that traditional security tools couldn't cover.

Work has changed.

Most employees now spend nearly all of their time in the browser, accessing SaaS applications and cloud services.

This shift has left businesses exposed because the browser was never designed to manage security on its own.

  • Over 85% of daily work is conducted through the browser.
  • 42% of employees are expected to work outside of the office in some capacity.
  • 98% of organizations report policy violations involving BYOD devices, and 53% feel unprepared to address security issues stemming from unmanaged devices.

Why does this matter?

Because legacy security models focused on protecting corporate networks and managed devices.

But they didn’t address the growing use of unmanaged devices like personal laptops and mobile phones. Or anticipate the need to manage so many third-party and contractor connections.

And with the rise of remote work, unmanaged environments have become a permanent part of daily operations.

At the same time, threats have evolved.

Attackers target the browser directly, using phishing, ransomware, and web-based attacks.

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.

Data is constantly at risk, especially when users rely on personal devices that lack enterprise-level protection.

  • Nearly half (44%) of the security incidents Unit 42 investigated involved a web browser as a key conduit for threats.
  • These included phishing, malicious redirects, and malware downloads exploiting the browser session without adequate detection or blocking.
  • Attackers exploit gaps in browser-level security to pivot to other targets, leveraging these sessions for further compromise.

This new environment created a gap. It became clear that businesses needed a better way to secure the browser itself. Not just the network around it.

Secure enterprise browsers address this challenge.

They bring critical security and management functions directly into the browser.

This ensures that every interaction—whether on a corporate laptop or an unmanaged device—stays within a controlled and secure environment.

 

How do secure enterprise browsers work?

An enterprise browser works by enforcing security policies and managing resource access directly in the browser.

Like this:

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.'

A secure browser controls and monitors user activity. This happens through rules like content inspection and access control.

Web processes are isolated. Which means sensitive data stays protected in a controlled environment.

Separating corporate and personal browsing helps maintain security and user privacy.

Also, most enterprise browsers allow for some level of customization to align the browser with an organization's branding.

 

What are the use cases for secure enterprise browsers?

A two-column grid displays twelve secure browser use cases, each represented by a teal square icon with a white line illustration and corresponding text label. In the left column from top to bottom, the use cases are: securing third-party and contractor access, monitoring and managing privileged user activity, enabling secure BYOD policies, preventing data exposure in GenAI apps, and mitigating web-based threats in the browser. In the right column from top to bottom, the use cases are: reducing VDI dependency, securing undecryptable traffic, protecting data at the last mile, secure M&A onboarding, and preventing insider-driven data leakage. Each icon visually represents the function, such as a person with a clipboard, a computer screen with a lock, a chart, or overlapping files, providing a quick visual reference for each use case. The heading at the top reads 'Secure browser use cases' in bold black text.

There are a range of secure browser use cases that typical security tools can't fully address.

They help businesses manage security risks and productivity challenges in ways that are purpose-built for the modern work environment.

Let's take a look at how secure browsers handle real-world scenarios.

  • Securing third-party and contractor access: Independent workers often connect using unmanaged devices. A secure enterprise browser gives organizations a way to enforce access policies without requiring full device management.
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.'
  • Monitoring and managing privileged user activity: Privileged accounts have elevated access that makes them high-value targets. With session monitoring and in-browser controls, security teams can keep critical activities in check.
  • Mitigating web-based threats in the browser: The browser is a common entry point for phishing, malware, and other attacks. Built-in threat prevention features help block dangerous sites and risky behavior at the point of use.
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.'
  • Enabling secure BYOD policies: Bring-your-own-device programs increase flexibility but also expand the attack surface. A secure browser applies controls directly in the browser environment, helping to reduce exposure without interfering with the device.
  • Preventing data exposure in GenAI apps: Users may unintentionally enter sensitive data into AI tools like ChatGPT. Browser-level inspection can detect and restrict these actions in real time, before the data leaves the organization.
  • Preventing insider-driven data leakage: Insider threats—whether intentional or accidental—remain a persistent risk. Fine-grained browser policies help limit data movement and reduce the likelihood of exfiltration from within.
  • Reducing VDI dependency: Not all users need full desktop virtualization. For those who mainly access web apps, a secure browser can deliver the necessary security controls without the complexity and cost of VDI.
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.'
  • Protecting data at the last mile: The browser is often the final point where data is accessed or transferred. Controls like watermarking, masking, and session isolation help protect sensitive information right where it's most exposed.
  • Securing undecryptable traffic: Some browser traffic, like QUIC or certain Microsoft 365 flows, can't be decrypted by network tools. Secure enterprise browsers apply enforcement directly, eliminating the need for decryption.
Diagram titled 'Securing encrypted browser sessions without traffic decryption' showing two horizontal sequences. The top sequence starts with a user icon leading to a secure browser icon marked with a green lock. An arrow labeled 'SSL' points to a red firewall icon labeled 'Firewall decrypt' with subtext 'Allowed or denied based on policy.' The sequence then branches to green circles with check marks or red circles with X marks, connecting to icons labeled 'Website A' and 'Website B.' The bottom sequence also begins with a user icon leading to a secure browser icon, followed by an arrow labeled 'SSL' pointing to a red firewall icon labeled 'Firewall' with subtext 'Allowing encrypted traffic.' The sequence ends with a green circle and an icon labeled 'Internet.'
  • Secure M&A onboarding: During mergers and acquisitions, users often need immediate access to sensitive systems and data. Secure enterprise browsers provide controlled access across managed and unmanaged devices to support fast onboarding without increasing risk.

 

What are the primary features of secure enterprise browsers?

Circular diagram labeled 'Secure browser features' at the center, with sixteen feature labels evenly distributed around it and connected by straight lines. Each feature is represented by a blue icon with white graphics. Starting from the top left and moving clockwise, the features are: 'Integration with your existing tech stack' with a puzzle piece icon, 'Device management' with a device screen and checklist icon, 'Frictionless onboarding' with a megaphone icon, 'Familiar look and feel' with a browser window icon, 'Data loss prevention (DLP)' with a shield and document icon, 'Seamless logon' with a login screen icon, 'Convenience and productivity' with a gear and checkmark icon, 'Consistent experience across devices' with two synchronized screens icon, 'Software distribution and deployment' with a package box icon, 'Unified management' with a gear network icon, 'Threat protection' with a shield icon, 'Visibility and analytics' with a pie chart and bar graph icon, and 'Web and SaaS app filtering' with a funnel icon. Each icon connects to the center circle, creating a radial layout. Pale gray dots of varying sizes are scattered in the background.

Secure enterprise browsers are designed with a set of core features that make them a reliable choice for managing web access and user activity.

These features address risks, support compliance, and help align browsing activity with organizational policies.

Here's a closer look at the primary features you can expect to find in most secure enterprise browsers.

  • Threat protection: Protects against phishing, malware, data exfiltration, and other threats. Most secure browsers can integrate with threat intelligence databases and apply zero trust policies directly in the browser.
  • Device management: Tracks the devices where the browser is installed, checks device health, and enables access revocation when needed.
  • Web and SaaS app filtering: Controls which sites and applications users can reach, limiting exposure to shadow IT and enforcing app-level restrictions.
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.'
  • Frictionless onboarding: Installs and updates with minimal user input, so new users can get started quickly and securely.
  • Familiar look and feel: Delivers a Chromium-based experience to reduce user training and ease the transition from consumer browsers.
  • Seamless logon: Integrates with SSO and identity providers to simplify authentication and reduce password fatigue.
  • Data loss prevention (DLP): Enforces DLP rules in the browser, including blocking uploads, restricting screenshots, and applying watermarks.
Architecture diagram titled 'Protect sensitive data with file access based on user, application, and destination.' It features a flowchart illustrating data encryption and decryption processes across different devices. On the left, a green icon labeled 'Encrypt' sends data to two corporate computers which then link to another corporate computer where data is decrypted, represented by a green 'Decrypt' icon. This decrypted data then continues to a personal computer. The diagram emphasizes granular encryption and file access controls based on user, application, and file type, depicted by lines connecting the elements. Icons of a lock, computers, and documents help clarify the processes involved.
  • Consistent experience across devices: Maintains the same interface and behavior on desktops and mobile devices to support productivity.
  • Convenience and productivity: Supports bookmarks, shortcuts, and smooth performance to reduce friction in everyday tasks.
  • Software distribution and deployment: Supports management tools like SCCM and MDM for scalable rollout and updates.
  • Unified management: Applies centralized policies across all users, reducing drift and simplifying policy enforcement.
Screenshot depicting the Prisma Access Browser dashboard interface. On the left, a sidebar menu lists various categories like Home, Analytics, Events, Directory, and Users. In the main part of the screen, multiple widgets display data: one shows user statistics including active and inactive users, another lists device data with active device counts, and a third displays a graph for blocked events. Additionally, there is a large circular diagram in the center detailing total events and classifications such as Access, Data, and Posture. The top right corner features a greeting to a user named 'Richard Dorlinger' and below it are details about top access events.
  • Integration with your existing tech stack: Works with existing security tools and infrastructure to ease adoption and maximize visibility.
  • Visibility and analytics: Provides detailed browser-level activity logs to help teams monitor usage, detect risk, and support compliance efforts.
Screenshot showcasing the Prisma Access Browser dashboards, which provide analytics on web and application security. The main dashboard displays various charts and graphs. On the top left, a bar chart shows the top 10 most visited apps and websites. Below that, a line graph represents the correlation between allowed and blocked access activities over time. On the top right, a donut chart details the top 10 most visited web classifications by events. Adjacent to it, another bar chart displays the top 10 most active apps and websites by data focus. At the bottom right, there's a circular graph showing top SaaS applications by user data volume, and next to it, a pair of numerical indicators depict average and median blocked events per user. The left sidebar of the dashboard includes navigation options such as Home, Analytics, and Events, while the page header greets a user named Richard Dorlinger.

 

What are the benefits of secure enterprise browsers?

Rectangular diagram titled 'Secure browser benefits' on the left side in black text against a light gray vertical background panel. The right side of the image has a white background and contains six turquoise squares, each representing a benefit with a white icon and a black label. From top to bottom and left to right, the first icon shows a database stack with a checkmark labeled 'Better data protection,' the second icon shows a shield labeled 'Improved security posture,' and the third icon shows a gear and nodes labeled 'Centralized control & visibility.' To the right, the first icon is a diagram with arrows pointing outward and a block labeled 'Reduced reliance on other tools,' the second icon shows a browser window with a user icon labeled 'Enhanced user experience,' and the third icon shows four arrows pointing diagonally outward labeled 'Scalability & flexibility.' Each icon visually corresponds to the text beside it, and all elements are evenly spaced in a grid layout.

Secure enterprise browsers help organizations protect sensitive data, improve visibility, and keep users productive.

Some benefits are well known—like restricting risky activity and protecting data at the point of use.

Others address the unique challenges of modern work—like securing web access on unmanaged devices and reducing the need for other remote access tools.

Let's dive into the details.

  • Better data protection: Secure enterprise browsers apply data loss prevention controls at the point of use. This helps keep sensitive information secure.
  • Improved security posture: These browsers extend zero trust policies and integrate threat detection directly in the browser. Which means: they protect against malware, phishing, and account takeovers.
  • Centralized control and visibility: Administrators get a single place to manage security policies and user activity. Which makes it easier to maintain oversight.
  • Reduced reliance on other tools: Secure enterprise browsers can take on some tasks typically handled by VPNs, VDI, or separate endpoint tools. The consolidation simplifies security operations.
  • Enhanced user experience: Secure browsers also give users a familiar and consistent workspace, helping to reduce friction and support productivity.
  • Scalability and flexibility: Deployment across both managed and unmanaged devices allows organizations to support a dynamic workforce without weakening security.

 

How do secure enterprise browsers compare with other security technologies?

Secure enterprise browsers fill a focused role in the security stack by controlling and protecting activity within the browser.

They're often compared to broader security frameworks like SASE, threat isolation tools like RBI, and full virtual environments like VDI.

This table provides a side-by-side breakdown to show how these tools align or differ across key functions.

Feature Enterprise browser SASE RBI VDI

Integration and scope

Focuses on secure web browsing. Centralizes control over web access and user activity within a browser environment.

Combines security and networking into one cloud-delivered framework. Covers a broader range of access and protection across the network.

Focuses on isolating browser sessions from the endpoint. Keeps potentially harmful web code off the user's device.

Provides full desktop virtualization. Goes beyond browsing to cover all applications and workflows.

Control and policy management

Provides detailed access controls and policy enforcement. Ensures consistent application of security policies across browsing sessions.

Provides broad security enforcement at the edge of the network. Policies apply to all traffic types, not just web browsing.

No direct management of user or application policies. Relies on remote hosting for security enforcement.

Centralizes control and policy management at the desktop level. Manages the entire OS and application environment.

Threat isolation approach

Uses in-browser isolation to contain threats within the local device. Keeps corporate and personal activities separate without external dependencies.

Not focused on browser-level isolation. Uses cloud-based traffic inspection and security filtering to manage threats.

Runs browsing sessions in a remote server. Only a safe visual stream reaches the user's device.

Uses server-hosted desktops and applications. Isolation includes all desktop activities, not just web browsing.

Security and data protection

Secures web-based data interactions and supports compliance. Helps prevent data breaches and sensitive data exposure.

Offers secure access to applications and data across hybrid environments. Adapts security policies to dynamic, distributed workforces.

Prevents web-based threats from reaching the corporate network or endpoint. Removes exposure to malicious sites or downloads.

Protects data by containing all interactions within a remote environment. Prevents endpoint exposure to threats.

User experience and access

Maintains a familiar and seamless browsing experience. Users work directly within a secured browser on their devices.

Supports consistent access and security from anywhere. Prioritizes network-level visibility and control.

User experience may be affected by latency or remote rendering. No direct control or customization within the user's device.

Provides a complete virtual desktop experience, which may be more than needed for browser-focused work.

Operational model

Operates as a local, secure browser with managed settings and controls. Works within the enterprise's environment, complementing other security layers.

Delivered as a cloud-native service. Integrates security and network services through distributed gateways.

Delivers a secure browsing experience by separating browsing from local device resources. Offloads threat management to external infrastructure.

Delivers remote desktop environments hosted on centralized servers. Requires more infrastructure and may have higher resource demands.

Enterprise browser vs. SASE

An enterprise browser provides centralized management of web access. It helps secure data and support compliance requirements. It also helps prevent data breaches by controlling web activities within an organization.

On the other hand, secure access service edge (SASE) merges networking and security into one service.

Secure Access Service Edge (SASE) architecture diagram, illustrating its structure across different cloud environments and endpoints. At the top, icons represent various cloud configurations including private cloud, public cloud, Software as a Service (SaaS), and Headquarters/Data center, aligned horizontally. Below this, the central section features a line demarcating SASE components: Firewall as a Service (FWaaS), Cloud Access Security Broker (CASB), Zero Trust Network Access (ZTNA), and Cloud Secure Web Gateway (SWG), each indicated by a circled icon. The text labels 'Security as a service layer' and 'Network as a service layer' further distinguish these layers, with SD-WAN positioned underneath as part of the network layer. At the bottom, icons for Branch/Retail, Home, and Mobile denote the types of endpoints integrated into the SASE framework, reflecting the varied environments that the architecture supports.

It connects users to the nearest cloud gateway and helps secure access for remote and hybrid workers. SASE simplifies management and adapts to changing network and security needs.

In other words:

An enterprise browser focuses on managing web access within a company. SASE extends security and networking across a dispersed workforce.

When used together, they provide strong security for web use and for remote work.

Enterprise browser vs. RBI

An enterprise browser integrates tightly with security frameworks. Basically, it centralizes control and keeps web activity compartmentalized within the device. And that keeps sensitive data safe and helps maintain efficient workflows.

In contrast, remote browser isolation (RBI) hosts the browser on a remote server.

Labeled diagram titled 'Remote browser isolation (RBI) process' illustrates a four-stage flow from left to right. The first stage shows a laptop icon labeled 'User/Browser' with the subtext 'Standard browsing experience.' To its right is a double-arrow icon labeled 'Graphical rendering' with the subtext 'Safe rendering of information sent to endpoint.' Next is a three-server stack icon labeled 'RBI server' with the subtext 'RBI executes content in an isolated container.' The final stage is a globe icon labeled 'Website' with the subtext 'Malware embedded in active web-content.' Arrows connect the stages, indicating the direction of web requests and replies. Text above the arrows includes 'Web requests' and 'Web reply,' with the phrases 'Block malicious content' and 'Prevent data leaks' shown in red and blue respectively. The visual flow emphasizes the isolation of website content within the RBI server before safe rendering back to the user.

It sends only a visual stream to the user's device. That way, any harmful code stays off the user's machine and the corporate network.

The key difference is how they isolate threats.

Enterprise browsers offer a user-centered approach that integrates with daily workflows. RBI keeps web content away from devices entirely.

Each has a unique place in a security strategy.

Enterprise browser vs. VDI

A secure enterprise browser helps manage browsing activity within a controlled environment. It also isolates web activity to reduce threats. This creates a secure browsing experience that fits into existing workflows.

Virtual desktop infrastructure (VDI) takes a different approach. It delivers a complete desktop experience from a remote server, similar to RBI.

Diagram titled 'Virtual desktop infrastructure (VDI)' depicts the five-step process for enabling remote access to a virtual machine. It begins with a user on a thin client initiating a log-in request to the connection management system. The system then performs authentication by communicating with the authentication management system. Once verified, the connection management system sends a request to the hypervisor management system to assign a virtual machine. The virtual machine is assigned and delivered back to the user through the connection management system. The user then gains remote access to the VM, which is hosted on a hypervisor that communicates with a storage system. Blue arrows indicate the numbered sequence of steps, while solid black lines depict system connections between the authentication, hypervisor, and connection management components.

This helps manage all desktop interactions. Not just web browsing.

The enterprise browser is ideal for controlling web activity and keeping it secure.

VDI provides a full virtual workspace for more complete control.

The better fit depends on whether the organization needs full desktop access or just secure browsing.

 

How to choose the secure enterprise browser for your business

Diagram titled 'How to choose a secure browser' shows a horizontal five-step selection process represented by diamond-shaped icons connected by a dotted line. Each icon includes a step number, a descriptive label, and a corresponding symbol. Step 1 on the left is greyed out and labeled 'Define your security requirements' with a checklist icon. Step 2 shows a blue thumbs-up icon and reads 'Assess usability and convenience.' Step 3 features a gear with three sliders and is labeled 'Check for centralized administration features.' Step 4 displays a cloud with two connected nodes and the text 'Ensure compatibility with your existing systems.' Step 5 on the far right includes a crossed wrench and screwdriver icon and is labeled 'Consider the vendor's support and expertise.' The steps increase in numerical order from left to right.
  1. Define your security requirements

    The first step is to understand the security challenges your organization faces.

    Look for enterprise browsers with built-in threat protection, data loss prevention, and detailed controls for web access. This helps protect sensitive data and minimize risks from both external and internal threats.

    Tip:
    Consider integrating threat intelligence and AI-powered phishing prevention to stay ahead of evolving browser-based attacks.
  2. Assess usability and convenience

    Choose an enterprise browser that feels familiar to users.

    Look for options built on Chromium. These often have the same interface and user experience as consumer browsers.

    Features like seamless logon, profile syncing across devices, and the ability to import bookmarks and shortcuts are also key.

    Tip:
    Evaluate whether the browser offers familiar workflows and frictionless sign-on options to ensure minimal disruption and smoother adoption.
  3. Check for centralized administration features

    A good enterprise browser should offer centralized tools for IT and security teams.

    This includes managing policies, user onboarding, and visibility into user activity.

    Unified management makes it easier to maintain consistent security policies and respond to incidents quickly.

    Tip:
    Prioritize a solution that provides a unified, single-pane-of-glass management interface to make policy enforcement easier.
  4. Ensure compatibility with your existing systems

    Evaluate how the browser integrates with your current security tools, identity management systems, and endpoint software.

    This minimizes complexity and allows you to leverage your existing investments.

    Tip:
    Look for native integration with your identity and Zero Trust solutions to reduce deployment friction and improve security posture.
  5. Consider the vendor's support and expertise

    Choose a vendor with strong technical support and a good reputation in the industry.

    You'll want to be certain your IT or security team can get help when needed. And that the browser aligns with your long-term security and operational goals.

    Tip:
    Opt for a vendor with proven success in secure browsing and recognized by independent analysts for offering reliable technical support.

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 FAQs

An enterprise web browser is a secure, customizable browser designed for use within organizations, offering enhanced management, compliance, and consistent security posture features to support business operations and protect sensitive data.
Enterprise web browsers often provide more robust security capabilities compared to other browser security solutions like plugins or extensions. They are built with enterprise security needs in mind, offering advanced protection against threats, customizable security protocols, and integration with broader enterprise security systems.
Companies adopt enterprise browsers to boost agility, enabling secure access from unmanaged devices without sacrificing security. These browsers facilitate control over employee website access, ensuring compliance, and offering a uniform browsing experience. By balancing protection with productivity, enterprise browsers safeguard sensitive data while promoting organizational efficiency.
Enterprise browser security is designed to elevate productivity, not hinder it. It streamlines onboarding, allowing contractors to quickly adapt and begin working securely. The support for BYOD policies means employees can use their devices of choice, ensuring comfort and familiarity that lead to efficiency. With a focus on security and compliance, enterprise browsers provide a secure, controlled environment that reduces the risk of incidents, ensuring workflows remain uninterrupted.
Enterprise browsers (EBs) and security service edge (SSE) are compared because both aim to enhance security and manage access within an organization. EBs focus on secure browsing, while SSE provides a broader security framework including access control, threat protection, and data security across all cloud services and applications.
A “secure browser” typically refers to a consumer-grade tool designed to protect individual users from threats like trackers and phishing. An “enterprise browser” is an enterprise-grade tool with centralized security, policy enforcement, and administrative control. It’s built for business use, not personal browsing.
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