RASP Security: How It Works, Threats, and Implementation
RASP Security: How It Works, Threats, and Implementation
RASP Security: How It Works, Threats, and Implementation
Understand RASP security, how it detects runtime attacks, where it fits in DevSecOps, and what to consider before implementation.
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Team Bureau
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A production application can look secure until a malicious request triggers an unsafe database query, altered function, or compromised session inside the runtime.
Attackers use injection techniques, hooking frameworks, emulators, app tampering, network manipulation, and unpatched vulnerabilities to change how software behaves while it is running. For security teams, the challenge is understanding whether a suspicious input is harmless or about to trigger a damaging operation.
This is where RASP security becomes useful. It monitors application behavior and runtime context, then applies security policies before an attack completes.
This blog will explain how runtime application self-protection works, which threats it can address, where it fits in DevSecOps, and how teams can implement it effectively.
What Is RASP Security?
RASP security, or runtime application self-protection, is a control embedded within an application or its execution environment. It monitors behavior while the software is running, evaluates activity using internal application context, and responds to suspicious actions in real time.
The “self-protection” refers to security logic that operates within or alongside the application rather than relying entirely on external controls. RASP may be deployed through an agent, library, SDK, runtime hook, build-time instrumentation, or application shielding. Unlike vulnerability assessment tools that identify weaknesses, RASP focuses on detecting or stopping exploitation during execution.
RASP security typically performs three functions:
Observe: Monitor inputs, application activity, execution paths, user sessions, sensitive operations, and runtime conditions.
Evaluate: Use application context and security policies to classify an action as legitimate, anomalous, or malicious.
Respond: Log the event, warn the user, restrict functionality, terminate a session, or block the operation.
ENISA Threat Landscape report found that vulnerability exploitation accounted for 21.3% of identified initial-access activity in its analysis of 4,875 incidents. By evaluating application behavior as an exploit unfolds, RASP can detect and stop malicious actions that reach vulnerable functions during execution.
How Does RASP Security Work?
RASP instruments an application or its runtime environment so security logic can observe sensitive operations as they happen. It evaluates the attempted action alongside application, session, device, and execution context, then applies the configured policy before the operation completes.
The process generally follows five steps:
Added to the application or runtime: Protection is deployed through an agent, library, SDK, build-time instrumentation, or application shielding, depending on the application architecture.
Monitors runtime activity: RASP observes application execution, including database queries, API calls, sessions, file access, and, for mobile apps, device integrity, emulators, rooting, and network conditions.
Adds application context: Instead of inspecting an input alone, RASP evaluates how the application processes it to determine whether it reaches a sensitive operation.
Applies security policies: Runtime activity is evaluated using rules, integrity checks, behavioral analysis, anomaly detection, or risk signals to determine the appropriate response.
Responds in real time: Based on policy and threat confidence, RASP can allow, monitor, warn, restrict, terminate, or block the action.
Server-side RASP focuses on application execution and data access, while mobile RASP also evaluates device and runtime integrity. Detection capabilities vary by platform, so policies should be tailored to the application's architecture and threat model.
What Threats Can RASP Detect and Prevent?
RASP coverage varies by application type, platform, runtime, deployment method, and configured policies. Server-side and mobile implementations may therefore address different threat categories.
1. Injection and Application-Layer Attacks
RASP can detect when an input changes how the application executes. This includes SQL injection, cross-site scripting, command injection, path traversal, unsafe file access, deserialization attacks, restricted function calls, and exploitation of known vulnerabilities.
For example, if a request value alters the intended structure of a database query, RASP can block the query before execution. It may also stop some zero-day exploitation patterns by detecting dangerous runtime effects, although it cannot protect against every unknown vulnerability.
2. Runtime Tampering and Code Manipulation
Attackers may try to alter application behavior through code injection, runtime patching, function hooking, debugging, memory manipulation, repackaging, app cloning, or attempts to disable security controls.
Runtime application self-protection can detect these changes during execution and respond by restricting functionality, terminating the session, or blocking the application.
3. Compromised Devices and Execution Environments
According to Google’s 2026 Android ecosystem security report, Google Play Protect blocked 266 million risky installation attempts in 2025 and identified more than 27 million new malicious apps distributed outside Google Play, highlighting the scale of threats that can reach mobile devices through untrusted installation channels.
Mobile RASP helps address this risk by detecting rooted or jailbroken devices, emulators, hooking frameworks, app virtualization, device masking, malware-controlled processes, and other signs of a compromised runtime. Device intelligence complements it by assessing device identity, reputation, and links across accounts or sessions.
4. Session, Network, and Interaction-Based Attacks
RASP may also detect threats involving manipulated connections, compromised sessions, or automated interactions. These include man-in-the-middle activity, proxy manipulation, replay attacks, session hijacking, location spoofing, overlays, tapjacking, gesture automation, and emulator-driven abuse.
These signals can help identify when an apparently valid session is being controlled through a manipulated application or execution environment. Detection depth varies by implementation, so teams should validate coverage against their application architecture and threat model.
Related Read: What Is a Device ID and How Does It Detect Fraud?
Where Does RASP Fit in a DevSecOps Stack?
RASP sits at the runtime and production end of a DevSecOps stack. Development and testing controls help teams find vulnerabilities before release, while RASP helps detect or stop exploitation after the application is deployed and running.
The lifecycle typically looks like this:
Plan: Define security requirements and model likely threats.
Code: Apply secure coding, code reviews, and source-level testing.
Build: Scan dependencies, protect secrets, sign builds, and add runtime instrumentation where needed.
Test: Run dynamic testing, penetration testing, and security validation.
Release: Validate protected builds and enforcement policies.
Run: Use RASP to monitor application behavior and runtime conditions.
Monitor: Send runtime events to security, fraud, or incident-response systems.
Improve: Use confirmed attacks to update code, tests, rules, and policies.
Security testing helps identify vulnerabilities before release. RASP protects the application after deployment by monitoring runtime activity. Together, they provide protection across both development and production.
RASP vs WAF
A web application firewall, or WAF, sits in front of an application and inspects incoming web or API traffic. RASP operates inside or alongside the application and evaluates what happens after that traffic is accepted.
Criteria | RASP | WAF |
Deployment position | Inside or alongside the application runtime | In front of the application |
Primary visibility | Application execution, internal calls, sessions, and runtime conditions | HTTP and API traffic |
Detection basis | Runtime behavior and application context | Rules, signatures, traffic patterns, and request attributes |
Response point | Before a sensitive operation completes | Before a request reaches the application |
Application awareness | High | Limited |
Coverage | Instrumented or protected applications | Applications routed through the WAF |
Common use cases | Injection prevention, runtime tampering, app integrity, and sensitive function protection | Request filtering, bot filtering, virtual patching, and API traffic control |
Key limitation | Requires application integration and may add runtime overhead | May not see how accepted input behaves inside the application |
RASP and WAF are complementary controls. A WAF filters traffic before it reaches the application, while RASP evaluates activity within the running application.
Other DevSecOps controls serve different stages:
SAST: Examines source code or binaries before deployment.
DAST: Tests a running application externally, usually in staging or testing.
IAST: Observes an instrumented application during functional or security testing.
RASP: Uses runtime instrumentation to detect or prevent exploitation in production.
RASP does not replace secure coding, patching, dependency scanning, vulnerability testing, or penetration testing.
What Are the Benefits of RASP Security?
The main benefit of RASP security is that it evaluates suspicious activity using the internal context of a running application. This can help teams prevent attacks in real-time, improve runtime visibility, reduce exposure during patching windows, and automate security responses.
Key benefits include:
Context-aware detection: Evaluates how the application processes an input, improving detection accuracy and reducing unnecessary alerts.
Real-time protection: Can monitor, restrict, terminate, or block high-confidence threats while the application is running.
Reduced exposure: May protect applications while vulnerabilities are being investigated and patches are being deployed. NIST enriched nearly 42,000 CVE records in 2025, 45% more than in any previous year. Because teams cannot patch every vulnerability immediately, RASP can block exploitation during the gap between discovery and remediation.
Better runtime visibility: Provides insight into affected functions, execution paths, user sessions, devices, and runtime conditions.
Actionable security insights: Runtime attack data can help teams prioritize active threats and improve future security controls. Bureau combines runtime telemetry with device, behavioral, and identity intelligence, helping teams prioritize incidents based on overall risk rather than isolated security events.
Protection for mobile environments: Depending on the implementation, RASP can detect compromised devices, runtime manipulation, and untrusted execution environments.
How to Implement RASP Security
Successful RASP implementation starts with understanding what needs protection and continues with policy tuning after deployment. Rather than enabling every available control, teams should prioritize the runtime threats that matter most to their applications.
Step 1: Define the Runtime Threat Model
Start by identifying the applications, sensitive functions, and runtime activities that need protection. Consider the data being processed, high-risk workflows, existing security controls, supported platforms, likely attack techniques, and regulatory requirements.
For mobile applications, include risks such as rooting, jailbreaking, hooking, emulators, app cloning, overlay attacks, location spoofing, network interception, and automated interactions.
The goal is to produce a prioritized list of runtime threats and the expected response for each.
Step 2: Choose a Deployment Approach
The deployment model should align with the application architecture and release process. Depending on the platform, this may involve a runtime agent, SDK, application library, build-time instrumentation, post-build shielding, or custom runtime checks.
Evaluate integration effort, runtime visibility, policy flexibility, performance impact, CI/CD compatibility, and support for telemetry. Protected builds should be versioned, signed, tested, and validated before release.
Step 3: Define Detection and Response Policies
Not every runtime signal requires the same action. Response policies should consider threat confidence, transaction sensitivity, and business impact.
Risk level | Example | Suggested response |
Low | Inconclusive environment signal | Log and monitor |
Medium | Rooted device during a low-risk action | Warn or restrict functionality |
High | Hooking framework detected during a sensitive transaction | Block the action and alert security |
Critical | Confirmed code injection or repackaged application | Terminate the session or application |
Clearly define who owns policy changes and how exceptions are reviewed.
Step 4: Test and Tune
Validate RASP against realistic attack scenarios before enabling enforcement. Start in monitor-only mode to tune policies and reduce false positives without affecting production users.
Before enabling blocking, measure detection accuracy, application performance, and user impact.
Step 5: Integrate with Security Operations
Runtime events become more valuable when they feed existing security workflows. Integrate RASP with SIEM platforms, incident response, fraud systems, application monitoring, and development workflows so confirmed attacks lead to code fixes, updated tests, and refined policies.
Measure outcomes such as attacks detected, attacks blocked, investigation time, remediation time, repeat attack attempts, policy exceptions, and customer impact to continuously improve protection.
Some platforms extend this further by combining runtime telemetry with fraud and identity signals. Bureau correlates runtime events with device, behavioral, identity, and transaction risk, giving security and fraud teams a shared view for investigation and response.
Related Read: Best Fraud Detection Software in 2026 for Unified Risk Decisions
How Bureau ID Approaches RASP Security
Modern mobile fraud rarely begins with stolen credentials alone. Attackers also manipulate the application, device, or network while the app is running, making these threats difficult to detect with backend controls alone.
Bureau applies RASP at the mobile application layer to help security teams identify and stop these attacks before they impact sensitive user actions. It protects against 99.7% of supported runtime threats, giving organizations greater visibility into risks that emerge during execution.
The Bureau RASP security solution combines four layers of runtime protection:
Protect application logic: Helps prevent reverse engineering, code injection, app tampering, repackaging, and unauthorized modification, reducing opportunities for attackers to alter application behavior.
Detect compromised runtime environments: Identifies rooted or jailbroken devices, emulators, app cloning, hooking frameworks, device masking, memory manipulation, and other indicators that the application is running in an untrusted environment.
Secure network communication: Helps detect packet interception, man-in-the-middle attacks, proxy usage, replay attacks, session hijacking, and location spoofing before they compromise sensitive transactions.
Enforce risk-based responses: Lets teams monitor, warn, or block threats while preserving device, session, timestamp, and decision context for investigations and audits.
Bureau's RASP solution is purpose-built for mobile application runtime protection rather than serving as a generic server-side RASP agent.
It also works alongside other Bureau capabilities. Device intelligence provides persistent device context, while behavioral biometrics helps identify automated or anomalous interactions. These signals are combined with identity, network, and transaction risk to determine whether an action should be allowed, challenged, restricted, or blocked.
Build Runtime Protection Into a Layered AppSec Strategy
Mobile application security doesn't end after deployment. Teams need visibility into runtime threats that target the application, device, and network while users are actively interacting with them.
Bureau brings these signals together through mobile RASP, device intelligence, behavioral biometrics, and fraud decisioning, helping security teams detect runtime threats and respond with the right level of enforcement.
Organizations assessing gaps in their mobile application security strategy should determine whether existing controls can detect and stop runtime attacks before users are affected. Book a demo with Bureau to see how the RASP solution helps secure mobile applications against runtime threats.
FAQs
1. What does RASP stand for in security?
RASP stands for runtime application self-protection. It is a security technology that protects applications while they are running by monitoring runtime activity, evaluating application context, and responding to suspicious behavior before sensitive operations are completed.
2. How does runtime application self-protection work?
RASP works by instrumenting an application or its runtime environment. It monitors application behavior, evaluates runtime context, applies security policies, and can monitor, restrict, or block suspicious activity in real time based on the configured response.
3. What is the difference between RASP and WAF?
A WAF filters HTTP and API traffic before it reaches the application. RASP operates inside or alongside the running application, allowing it to evaluate runtime behavior and application context before a sensitive operation is completed. Many organizations use both as complementary controls.
4. How does Bureau's RASP differ from traditional RASP solutions?
Bureau focuses on mobile runtime protection rather than acting as a generic server-side RASP agent. It combines runtime protection with device intelligence, behavioral biometrics, and fraud decisioning, allowing teams to evaluate runtime threats alongside broader identity, device, network, and transaction risk.
5. Can RASP prevent zero-day attacks?
Not always. RASP can help stop some zero-day exploitation by detecting dangerous runtime behavior instead of relying only on known signatures. However, it cannot guarantee protection against every unknown vulnerability or attack technique.
6. What should teams evaluate before implementing RASP?
Teams should evaluate platform support, deployment model, runtime threat coverage, policy flexibility, performance impact, false-positive rates, CI/CD integration, telemetry, and how well the solution fits existing security and incident-response workflows.
A production application can look secure until a malicious request triggers an unsafe database query, altered function, or compromised session inside the runtime.
Attackers use injection techniques, hooking frameworks, emulators, app tampering, network manipulation, and unpatched vulnerabilities to change how software behaves while it is running. For security teams, the challenge is understanding whether a suspicious input is harmless or about to trigger a damaging operation.
This is where RASP security becomes useful. It monitors application behavior and runtime context, then applies security policies before an attack completes.
This blog will explain how runtime application self-protection works, which threats it can address, where it fits in DevSecOps, and how teams can implement it effectively.
What Is RASP Security?
RASP security, or runtime application self-protection, is a control embedded within an application or its execution environment. It monitors behavior while the software is running, evaluates activity using internal application context, and responds to suspicious actions in real time.
The “self-protection” refers to security logic that operates within or alongside the application rather than relying entirely on external controls. RASP may be deployed through an agent, library, SDK, runtime hook, build-time instrumentation, or application shielding. Unlike vulnerability assessment tools that identify weaknesses, RASP focuses on detecting or stopping exploitation during execution.
RASP security typically performs three functions:
Observe: Monitor inputs, application activity, execution paths, user sessions, sensitive operations, and runtime conditions.
Evaluate: Use application context and security policies to classify an action as legitimate, anomalous, or malicious.
Respond: Log the event, warn the user, restrict functionality, terminate a session, or block the operation.
ENISA Threat Landscape report found that vulnerability exploitation accounted for 21.3% of identified initial-access activity in its analysis of 4,875 incidents. By evaluating application behavior as an exploit unfolds, RASP can detect and stop malicious actions that reach vulnerable functions during execution.
How Does RASP Security Work?
RASP instruments an application or its runtime environment so security logic can observe sensitive operations as they happen. It evaluates the attempted action alongside application, session, device, and execution context, then applies the configured policy before the operation completes.
The process generally follows five steps:
Added to the application or runtime: Protection is deployed through an agent, library, SDK, build-time instrumentation, or application shielding, depending on the application architecture.
Monitors runtime activity: RASP observes application execution, including database queries, API calls, sessions, file access, and, for mobile apps, device integrity, emulators, rooting, and network conditions.
Adds application context: Instead of inspecting an input alone, RASP evaluates how the application processes it to determine whether it reaches a sensitive operation.
Applies security policies: Runtime activity is evaluated using rules, integrity checks, behavioral analysis, anomaly detection, or risk signals to determine the appropriate response.
Responds in real time: Based on policy and threat confidence, RASP can allow, monitor, warn, restrict, terminate, or block the action.
Server-side RASP focuses on application execution and data access, while mobile RASP also evaluates device and runtime integrity. Detection capabilities vary by platform, so policies should be tailored to the application's architecture and threat model.
What Threats Can RASP Detect and Prevent?
RASP coverage varies by application type, platform, runtime, deployment method, and configured policies. Server-side and mobile implementations may therefore address different threat categories.
1. Injection and Application-Layer Attacks
RASP can detect when an input changes how the application executes. This includes SQL injection, cross-site scripting, command injection, path traversal, unsafe file access, deserialization attacks, restricted function calls, and exploitation of known vulnerabilities.
For example, if a request value alters the intended structure of a database query, RASP can block the query before execution. It may also stop some zero-day exploitation patterns by detecting dangerous runtime effects, although it cannot protect against every unknown vulnerability.
2. Runtime Tampering and Code Manipulation
Attackers may try to alter application behavior through code injection, runtime patching, function hooking, debugging, memory manipulation, repackaging, app cloning, or attempts to disable security controls.
Runtime application self-protection can detect these changes during execution and respond by restricting functionality, terminating the session, or blocking the application.
3. Compromised Devices and Execution Environments
According to Google’s 2026 Android ecosystem security report, Google Play Protect blocked 266 million risky installation attempts in 2025 and identified more than 27 million new malicious apps distributed outside Google Play, highlighting the scale of threats that can reach mobile devices through untrusted installation channels.
Mobile RASP helps address this risk by detecting rooted or jailbroken devices, emulators, hooking frameworks, app virtualization, device masking, malware-controlled processes, and other signs of a compromised runtime. Device intelligence complements it by assessing device identity, reputation, and links across accounts or sessions.
4. Session, Network, and Interaction-Based Attacks
RASP may also detect threats involving manipulated connections, compromised sessions, or automated interactions. These include man-in-the-middle activity, proxy manipulation, replay attacks, session hijacking, location spoofing, overlays, tapjacking, gesture automation, and emulator-driven abuse.
These signals can help identify when an apparently valid session is being controlled through a manipulated application or execution environment. Detection depth varies by implementation, so teams should validate coverage against their application architecture and threat model.
Related Read: What Is a Device ID and How Does It Detect Fraud?
Where Does RASP Fit in a DevSecOps Stack?
RASP sits at the runtime and production end of a DevSecOps stack. Development and testing controls help teams find vulnerabilities before release, while RASP helps detect or stop exploitation after the application is deployed and running.
The lifecycle typically looks like this:
Plan: Define security requirements and model likely threats.
Code: Apply secure coding, code reviews, and source-level testing.
Build: Scan dependencies, protect secrets, sign builds, and add runtime instrumentation where needed.
Test: Run dynamic testing, penetration testing, and security validation.
Release: Validate protected builds and enforcement policies.
Run: Use RASP to monitor application behavior and runtime conditions.
Monitor: Send runtime events to security, fraud, or incident-response systems.
Improve: Use confirmed attacks to update code, tests, rules, and policies.
Security testing helps identify vulnerabilities before release. RASP protects the application after deployment by monitoring runtime activity. Together, they provide protection across both development and production.
RASP vs WAF
A web application firewall, or WAF, sits in front of an application and inspects incoming web or API traffic. RASP operates inside or alongside the application and evaluates what happens after that traffic is accepted.
Criteria | RASP | WAF |
Deployment position | Inside or alongside the application runtime | In front of the application |
Primary visibility | Application execution, internal calls, sessions, and runtime conditions | HTTP and API traffic |
Detection basis | Runtime behavior and application context | Rules, signatures, traffic patterns, and request attributes |
Response point | Before a sensitive operation completes | Before a request reaches the application |
Application awareness | High | Limited |
Coverage | Instrumented or protected applications | Applications routed through the WAF |
Common use cases | Injection prevention, runtime tampering, app integrity, and sensitive function protection | Request filtering, bot filtering, virtual patching, and API traffic control |
Key limitation | Requires application integration and may add runtime overhead | May not see how accepted input behaves inside the application |
RASP and WAF are complementary controls. A WAF filters traffic before it reaches the application, while RASP evaluates activity within the running application.
Other DevSecOps controls serve different stages:
SAST: Examines source code or binaries before deployment.
DAST: Tests a running application externally, usually in staging or testing.
IAST: Observes an instrumented application during functional or security testing.
RASP: Uses runtime instrumentation to detect or prevent exploitation in production.
RASP does not replace secure coding, patching, dependency scanning, vulnerability testing, or penetration testing.
What Are the Benefits of RASP Security?
The main benefit of RASP security is that it evaluates suspicious activity using the internal context of a running application. This can help teams prevent attacks in real-time, improve runtime visibility, reduce exposure during patching windows, and automate security responses.
Key benefits include:
Context-aware detection: Evaluates how the application processes an input, improving detection accuracy and reducing unnecessary alerts.
Real-time protection: Can monitor, restrict, terminate, or block high-confidence threats while the application is running.
Reduced exposure: May protect applications while vulnerabilities are being investigated and patches are being deployed. NIST enriched nearly 42,000 CVE records in 2025, 45% more than in any previous year. Because teams cannot patch every vulnerability immediately, RASP can block exploitation during the gap between discovery and remediation.
Better runtime visibility: Provides insight into affected functions, execution paths, user sessions, devices, and runtime conditions.
Actionable security insights: Runtime attack data can help teams prioritize active threats and improve future security controls. Bureau combines runtime telemetry with device, behavioral, and identity intelligence, helping teams prioritize incidents based on overall risk rather than isolated security events.
Protection for mobile environments: Depending on the implementation, RASP can detect compromised devices, runtime manipulation, and untrusted execution environments.
How to Implement RASP Security
Successful RASP implementation starts with understanding what needs protection and continues with policy tuning after deployment. Rather than enabling every available control, teams should prioritize the runtime threats that matter most to their applications.
Step 1: Define the Runtime Threat Model
Start by identifying the applications, sensitive functions, and runtime activities that need protection. Consider the data being processed, high-risk workflows, existing security controls, supported platforms, likely attack techniques, and regulatory requirements.
For mobile applications, include risks such as rooting, jailbreaking, hooking, emulators, app cloning, overlay attacks, location spoofing, network interception, and automated interactions.
The goal is to produce a prioritized list of runtime threats and the expected response for each.
Step 2: Choose a Deployment Approach
The deployment model should align with the application architecture and release process. Depending on the platform, this may involve a runtime agent, SDK, application library, build-time instrumentation, post-build shielding, or custom runtime checks.
Evaluate integration effort, runtime visibility, policy flexibility, performance impact, CI/CD compatibility, and support for telemetry. Protected builds should be versioned, signed, tested, and validated before release.
Step 3: Define Detection and Response Policies
Not every runtime signal requires the same action. Response policies should consider threat confidence, transaction sensitivity, and business impact.
Risk level | Example | Suggested response |
Low | Inconclusive environment signal | Log and monitor |
Medium | Rooted device during a low-risk action | Warn or restrict functionality |
High | Hooking framework detected during a sensitive transaction | Block the action and alert security |
Critical | Confirmed code injection or repackaged application | Terminate the session or application |
Clearly define who owns policy changes and how exceptions are reviewed.
Step 4: Test and Tune
Validate RASP against realistic attack scenarios before enabling enforcement. Start in monitor-only mode to tune policies and reduce false positives without affecting production users.
Before enabling blocking, measure detection accuracy, application performance, and user impact.
Step 5: Integrate with Security Operations
Runtime events become more valuable when they feed existing security workflows. Integrate RASP with SIEM platforms, incident response, fraud systems, application monitoring, and development workflows so confirmed attacks lead to code fixes, updated tests, and refined policies.
Measure outcomes such as attacks detected, attacks blocked, investigation time, remediation time, repeat attack attempts, policy exceptions, and customer impact to continuously improve protection.
Some platforms extend this further by combining runtime telemetry with fraud and identity signals. Bureau correlates runtime events with device, behavioral, identity, and transaction risk, giving security and fraud teams a shared view for investigation and response.
Related Read: Best Fraud Detection Software in 2026 for Unified Risk Decisions
How Bureau ID Approaches RASP Security
Modern mobile fraud rarely begins with stolen credentials alone. Attackers also manipulate the application, device, or network while the app is running, making these threats difficult to detect with backend controls alone.
Bureau applies RASP at the mobile application layer to help security teams identify and stop these attacks before they impact sensitive user actions. It protects against 99.7% of supported runtime threats, giving organizations greater visibility into risks that emerge during execution.
The Bureau RASP security solution combines four layers of runtime protection:
Protect application logic: Helps prevent reverse engineering, code injection, app tampering, repackaging, and unauthorized modification, reducing opportunities for attackers to alter application behavior.
Detect compromised runtime environments: Identifies rooted or jailbroken devices, emulators, app cloning, hooking frameworks, device masking, memory manipulation, and other indicators that the application is running in an untrusted environment.
Secure network communication: Helps detect packet interception, man-in-the-middle attacks, proxy usage, replay attacks, session hijacking, and location spoofing before they compromise sensitive transactions.
Enforce risk-based responses: Lets teams monitor, warn, or block threats while preserving device, session, timestamp, and decision context for investigations and audits.
Bureau's RASP solution is purpose-built for mobile application runtime protection rather than serving as a generic server-side RASP agent.
It also works alongside other Bureau capabilities. Device intelligence provides persistent device context, while behavioral biometrics helps identify automated or anomalous interactions. These signals are combined with identity, network, and transaction risk to determine whether an action should be allowed, challenged, restricted, or blocked.
Build Runtime Protection Into a Layered AppSec Strategy
Mobile application security doesn't end after deployment. Teams need visibility into runtime threats that target the application, device, and network while users are actively interacting with them.
Bureau brings these signals together through mobile RASP, device intelligence, behavioral biometrics, and fraud decisioning, helping security teams detect runtime threats and respond with the right level of enforcement.
Organizations assessing gaps in their mobile application security strategy should determine whether existing controls can detect and stop runtime attacks before users are affected. Book a demo with Bureau to see how the RASP solution helps secure mobile applications against runtime threats.
FAQs
1. What does RASP stand for in security?
RASP stands for runtime application self-protection. It is a security technology that protects applications while they are running by monitoring runtime activity, evaluating application context, and responding to suspicious behavior before sensitive operations are completed.
2. How does runtime application self-protection work?
RASP works by instrumenting an application or its runtime environment. It monitors application behavior, evaluates runtime context, applies security policies, and can monitor, restrict, or block suspicious activity in real time based on the configured response.
3. What is the difference between RASP and WAF?
A WAF filters HTTP and API traffic before it reaches the application. RASP operates inside or alongside the running application, allowing it to evaluate runtime behavior and application context before a sensitive operation is completed. Many organizations use both as complementary controls.
4. How does Bureau's RASP differ from traditional RASP solutions?
Bureau focuses on mobile runtime protection rather than acting as a generic server-side RASP agent. It combines runtime protection with device intelligence, behavioral biometrics, and fraud decisioning, allowing teams to evaluate runtime threats alongside broader identity, device, network, and transaction risk.
5. Can RASP prevent zero-day attacks?
Not always. RASP can help stop some zero-day exploitation by detecting dangerous runtime behavior instead of relying only on known signatures. However, it cannot guarantee protection against every unknown vulnerability or attack technique.
6. What should teams evaluate before implementing RASP?
Teams should evaluate platform support, deployment model, runtime threat coverage, policy flexibility, performance impact, false-positive rates, CI/CD integration, telemetry, and how well the solution fits existing security and incident-response workflows.
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