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Threats Can't Hide – Every Attack, Thwarted
Partner with DeepSAFE Technology® to implement and license DEEPSAFE™ industrial safety, security, and protection technologies. Our experts provide tailored cybersecurity, privacy, and safety consulting to help organizations build resilient and trusted systems.
DeepSAFE Six Pillars Model
Since 1996, Mr. Ahmed Sallam, founder, architect, and inventor of DeepSAFE Technology®, has led a transformative mission to reimagine how hardware, firmware, and software defend against internal and external threats.
That multi-decade journey culminated in DEEPSAFE™, a proprietary framework integrating security, safety, privacy, and protection at every computing layer—from microarchitecture to intelligent systems.
Built upon the Six Pillars Model, DEEPSAFE™ represents the evolution of trusted protection: hardware-assisted defense, below-OS integrity, autonomous behavioral analytics, verifiable trust boundaries, and self-healing systems.
Our engineering team brings decades of experience embedding these mechanisms into real-world infrastructures. Every DEEPSAFE™ component is custom-developed, securely delivered through encrypted channels, and protected from adversarial analysis.
Partners can integrate, customize, and extend DEEPSAFE™ while maintaining innovation confidentiality and operational secrecy.
Through this approach, DeepSAFE Technology® provides the architecture, knowledge, and toolsets needed to build and maintain resilient, future-ready foundations for an evolving cyber landscape.
Using specialized hardware or hardware extensions to enhance the security features and performance of a system. These hardware solutions are designed to enhance, offload and accelerate security functions that are typically handled by software. Some key objectives are the following:
Ensuring hardware is robust enough for security tasks.
Utilizing hardware for establishing a Root of Trust (both static and dynamic).
Leveraging hardware for defense against malware attacks.
Employing hardware in creating a comprehensive protection lifecycle.
Intel Hardware Root of Trust:
Use case: Protection against tampering attacks
Description: Establishing a hardware root of trust is fundamental to secure system boot processes and software integrity. It ensures that the system starts with a trusted state, protecting against unauthorized tampering with firmware and software.
Memory Protection Units (MPU) and Memory Management Units (MMU):
Use Case: Memory Access Control
Description: These units control access to the memory, defining regions and setting permissions for read, write, and execute operations. They play a vital role in preventing unauthorized memory access and buffer overflow attacks.
Trusted Platform Module (TPM):
Use Case: Secure Boot and Disk Encryption
Description: A TPM is a microcontroller that stores keys, passwords, and digital certificates. It is used in secure boot processes to ensure that a device boots using only software that is trusted by the manufacturer. TPMs also play a critical role in full disk encryption systems like BitLocker, enhancing data security.
Hardware Security Module (HSM):
Use Case: Key Management and Digital Signing
Description: HSMs are physical devices that provide secure key management and are used extensively in data centers and cloud environments. They are used for managing and storing cryptographic keys, and for performing digital signings, encryption, and decryption tasks. They are critical in scenarios that require high assurance levels like banking transactions.
Intel Software Guard Extensions (SGX):
Use Case: Secure Data Processing in Enclaves
Description: Intel SGX allows applications to create protected areas in memory, called enclaves. These enclaves are designed to be protected from processes running at higher privilege levels. SGX can be used to securely process sensitive data, like personal identification information, within an isolated environment, even if other parts of the system are compromised.
Network Processors for SSL/TLS Offloading:
Use Case: Securing Web Traffic
Description: Network processors can offload SSL/TLS processing from CPUs, improving web server performance. This hardware acceleration is vital for handling secure HTTPS traffic, especially for high-traffic websites, as it reduces latency and improves user experience.
Cryptographic Accelerators:
Use Case: Fast Cryptographic Operations
Description: Cryptographic accelerators are used to speed up tasks like encryption, decryption, and hashing. These are particularly important in scenarios where large volumes of data must be encrypted/decrypted quickly, such as in secure file transfers or streaming encrypted video content.
Firewall and Intrusion Detection/Prevention Systems (IDS/IPS):
Use Case: Network Security
Description: Many modern firewall and IDS/IPS devices come with dedicated hardware to process and analyze network traffic. This hardware acceleration allows them to inspect packets and apply security rules without significantly impacting network throughput.
Quantum Cryptography Systems:
Use Case: Secure Communications
Description: Though still emerging, quantum cryptography systems use the principles of quantum mechanics to secure data transmissions. Hardware for quantum key distribution (QKD) is used in highly secure communication channels, providing a level of security theoretically immune to conventional hacking methods.
Biometric Sensors for Authentication:
Use Case: Secure User Authentication
Description: Hardware sensors for fingerprint scanning, facial recognition, or retinal scans provide a more secure form of user authentication compared to traditional passwords. These are used in devices like smartphones, laptops, and secure access control systems.
Hardware Random Number Generator (RNG):
Use Case: Generating Secure Random Numbers
Description: A hardware RNG in ARM chips generates random numbers used in cryptographic operations, providing a more secure and unpredictable source of randomness compared to software-based RNGs.
ARMv8-A Pointer Authentication:
Use Case: Protection Against Exploits
Description: This feature in ARMv8-A architecture adds cryptographic checks to validate pointers, helping to protect against certain types of attacks, such as buffer overflows and return-oriented programming (ROP) attacks.
Memory Protection Keys (MPKs):
Use Case: Application Memory Isolation in a Multithreaded Environment
Description: MPKs allow a process to divide its memory into up to 16 isolated regions, each of which can have different access permissions. This can be useful for security purposes, as it can help to prevent unauthorized access to sensitive data. It can also be used to improve performance by caching data in a more efficient way.
Intel Threat Detection Technology (TDT):
Use Case: Runtime malware protection
Description: TDT is designed to detect and mitigate various types of security threats, including malware and advanced persistent threats (APTs). It enhances security software by providing hardware-based telemetry and acceleration for threat detection.
These hardware-assisted and accelerated security technologies provide an additional layer of protection and performance, complementing traditional software-based security measures. Their use cases span various domains, from individual device security to enterprise and cloud environments, enhancing overall security posture and efficiency.
Below-OS refers to security, safety and protection measures and mechanisms that operate beneath the operating system level. This includes hardware-level and firmware-level solutions that provide foundational security, safety and protection independent of the OS. Some key objectives are the following:
Implementing security, safety and protection both within and beyond the operating system.
Providing extensive control and visibility over operations inside, beneath, and around the OS, while maintaining platform availability and usability.
Positioning security in out-of-band environments such as firmware, hypervisors, or separate manageability areas.
Trusted Platform Module (TPM):
Use Case: Secure Boot and Hardware-Based Encryption
Description: A TPM is a specialized chip on a computer's motherboard that provides hardware-based security. It helps in the secure boot process by ensuring the integrity of the operating system loader and other critical components. TPMs also aid in hardware-based encryption, storing encryption keys securely at the hardware level.
Unified Extensible Firmware Interface (UEFI) Secure Boot:
Use Case: Prevention of Unauthorized OS Loading
Description: UEFI Secure Boot is a feature in the system firmware that checks the signature of each piece of boot software, including firmware drivers and the operating system. If the signatures are valid, the system boots, and if not, it stops, preventing malware from infecting the boot process.
Hardware Security Modules (HSM):
Use Case: Key Management and Crypto-processing
Description: HSMs are physical devices used to manage digital keys for strong authentication and provide crypto-processing. These modules traditionally operate independently of the OS, offering a secure cryptoprocessor.
Intel Software Guard Extensions (SGX):
Use Case: Secure Data Processing
Description: Intel SGX provides hardware-based memory encryption that isolates specific application code and data in memory. SGX allows sensitive data to be processed in isolated environments (enclaves), protecting the data from unauthorized access, even if other parts of the system are compromised.
ARM TrustZone:
Use Case: Secure Execution Environment
Description: ARM TrustZone technology provides a secure environment that runs parallel to the non-secure standard operating environment. It offers hardware isolation between secure and non-secure applications, allowing sensitive operations like cryptographic processing, secure boot, and secure I/O operations to be handled in a secure world, isolated from the main operating system.
Self-Encrypting Drives (SEDs):
Use Case: Full Disk Encryption
Description: SEDs are storage devices (like SSDs or HDDs) that automatically and transparently encrypt the data on the drive. This process occurs at the hardware level and is independent of the operating system, offering a secure method of data encryption.
BIOS/UEFI Firmware:
Use Case: Integrity Checks and Low-Level Hardware Control
Description: The system firmware (BIOS or UEFI) is responsible for initializing hardware during the boot-up process and provides runtime services for operating systems and programs. Modern firmware often includes security features to verify the integrity of the boot process and to provide a secure foundation for the OS.
Hardware-enforced Stack Protection:
Use Case: Protect Against Return-oriented Programming (ROP) Attacks
Description: This is a hardware-based solution to detect and prevent common exploit techniques like stack buffer overflows. It works by creating a hardware-protected shadow stack, which is separate from the data stack and helps in maintaining the integrity of return addresses.
Direct Memory Access (DMA) Protection:
Use Case: Prevent DMA Attacks
Description: DMA protection involves hardware mechanisms to prevent external devices from bypassing the operating system and directly accessing the system memory, a technique often used in sophisticated cyber attacks.
Firmware-Based Trusted Execution Environments (TEE):
Use Case: Isolated Execution for Sensitive Tasks
Description: TEEs, such as those implemented using ARM TrustZone, provide a secure and isolated execution environment for sensitive tasks, separate from the main operating system. This is critical for processing secure transactions, handling DRM (Digital Rights Management), and protecting cryptographic keys and personal data.
Secure Boot:
Use Case: Verified Boot Process
Description: Secure boot on ARM systems ensures that the device boots using only software that is authorized by the device manufacturer. It verifies each stage of the boot process, from the bootloader to the kernel, ensuring that each component is digitally signed and has not been tampered with.
These below-OS security measures are crucial in establishing a root of trust and ensuring that the hardware and firmware layers of a computer system are secure and trustworthy. They provide a foundational security level that is critical in the face of increasingly sophisticated and low-level cyber threats.
High Integrity Assured Computing refers to computing environments and systems that are designed to be highly secure, reliable, and resilient, especially in handling critical tasks where errors or breaches can have severe consequences. Some key objectives include:
Initiating security measures before the OS kernel Boot Loader.
Upholding platform integrity during boot-up and runtime.
Consistently safeguarding data confidentiality and code integrity.
Code Signing and measurements: Code Integrity relies on digital signatures applied to executable files, drivers, and other code modules. These signatures are provided by trusted software publishers and developers. Code signing ensures that the code has not been tampered with and can be traced back to a legitimate source.
System Integrity Levels: Code Integrity Policies can assign different integrity levels to code, including System, High, Medium, and Low. Higher integrity levels have stricter rules, while lower levels are more permissive. For example, system-level code is highly trusted, while low-integrity code may be more restricted.
Windows Device Guard: Device Guard is an advanced security feature that uses Code Integrity to block the execution of code that isn't explicitly trusted. It is particularly useful in high-security environments and is often used to prevent the execution of untrusted scripts and applications.
Application Whitelisting: Code Integrity can be used as part of an application whitelisting strategy, allowing only trusted and approved applications to run on a system while blocking all others.
Aerospace and Avionics Systems:
Use Case: Flight Control Systems
Description: In avionics, high integrity systems are crucial for flight control and navigation. These systems must function with utmost reliability, often adhering to stringent standards like DO-178C for software development. They use redundant and fault-tolerant designs to ensure continuous operation even in the event of hardware failures.
Automotive Industry:
Use Case: Autonomous Vehicle Guidance Systems
Description: In self-driving cars, high integrity computing ensures that the vehicle's guidance and control systems operate safely and reliably, even under unpredictable road conditions. This involves real-time processing of sensor data, decision-making algorithms, and fail-safe mechanisms to handle potential system failures.
Nuclear Energy Control Systems:
Use Case: Reactor Control Systems
Description: Nuclear power plants use high integrity systems to monitor and control nuclear reactors. These systems are designed to withstand a wide range of failure scenarios, including hardware malfunctions and external threats, ensuring safe operation of the plant.
Medical Devices:
Use Case: Life-Support and Surgical Systems
Description: Critical medical devices, such as pacemakers, life-support machines, and robotic surgical systems, rely on high integrity computing. The reliability and accuracy of these devices are vital, as they directly impact patient health and safety.
Finance and Banking:
Use Case: Transaction Processing Systems
Description: Financial institutions use high integrity systems for secure and accurate processing of transactions. These systems ensure the integrity of financial data, prevent fraud, and provide robust security against cyber threats.
Military and Defense Systems:
Use Case: Weapon Control and Surveillance Systems
Description: Military applications demand high integrity computing for weapon control systems, surveillance, and communication systems. The reliability and security of these systems are paramount for national security and defense operations.
Industrial Control Systems (ICS) and SCADA:
Use Case: Process Control in Critical Infrastructure
Description: In industrial environments, high integrity systems control and monitor industrial processes, such as those in chemical plants or water treatment facilities. These systems ensure the safe and reliable operation of processes that can be hazardous if malfunctions occur.
Space Exploration:
Use Case: Spacecraft Control and Communication
Description: In space missions, high integrity computing is vital for spacecraft control, data collection, and communication. These systems must withstand harsh space environments and provide reliable operation over long durations, often without the possibility of physical maintenance or repair.
These examples highlight the importance of high integrity assured computing across various critical domains. The common theme is the need for systems that are robust, secure, and able to operate reliably under challenging conditions, where failure can lead to significant consequences.
Proactive behavioral protection in cybersecurity refers to methods and systems that anticipate and defend against potential security threats by analyzing and responding to the behavior of users, applications, and network traffic, rather than relying solely on known threat signatures. Some key objectives are the following:
Understanding and differentiating between normal and malicious behaviors, including malware and user actions, as well as attack patterns.
Operating autonomously, independent of known virus signatures, while maintaining context for repair and recovery from malware infections.
Anomaly Detection Systems:
Use Case: Identifying Unusual Network Traffic
Description: These systems monitor network traffic to detect unusual patterns that may indicate a security breach, such as a sudden increase in data transfer or unusual login attempts from a foreign location. By recognizing deviations from normal behavior, they can alert administrators to potential threats before they escalate.
User and Entity Behavior Analytics (UEBA):
Use Case: Monitoring User Activities
Description: UEBA tools analyze the typical behavior of users and entities (like devices or applications) within an organization. They can detect anomalies like a user accessing files they normally don’t, or logging in at odd hours, which could suggest a compromised account or insider threat.
Endpoint Detection and Response (EDR):
Use Case: Protecting End-user Devices
Description: EDR solutions continuously monitor and gather data from endpoints (like laptops and mobile devices) to identify suspicious activities. They can detect behaviors indicative of malware, such as unauthorized data encryption or modification of system files.
Advanced Threat Protection (ATP) in Email Systems:
Use Case: Email Security
Description: ATP solutions in email gateways analyze email behavior, such as the frequency and type of attachments sent by a user. If a user suddenly sends a high volume of emails with attachments, the system can flag this as potential spam or a malware distribution attempt.
Behavior-based Antivirus:
Use Case: Malware Detection
Description: Unlike traditional antivirus software that relies on virus signatures, behavior-based antivirus tools monitor the behavior of programs. If a program tries to execute suspicious activities, like modifying system files or registry settings, it is flagged as potentially malicious.
Intrusion Prevention Systems (IPS):
Use Case: Network Intrusion Prevention
Description: IPS solutions monitor network and system activities for malicious activities or policy violations. If a network packet’s behavior matches that of a known attack method, the IPS can block it proactively.
Artificial Intelligence and Machine Learning in Cybersecurity:
Use Case: Adaptive Threat Response
Description: AI and ML algorithms are increasingly used to predict new types of cyberattacks by analyzing patterns and trends in data. They can adapt to evolving threats more quickly than traditional methods, offering a dynamic approach to threat detection and response.
Zero Trust Security Models:
Use Case: Continuous Verification in Network Access
Description: In a zero trust framework, the security model continuously monitors and validates user and device behavior every time they request access to resources. This approach assumes no entity is trustworthy by default, thus constantly analyzing behavior to ensure security.
Runtime Application Self-Protection (RASP):
Use Case: Runtime protection of critical services running with admin privileges
Description: With runtime application self-protection all executable components of an application are shielded from a variety of code exploitation attacks such as code and data injection. This approach locks the software service stack such that only trusted and safe code and data are allowed to execute.
Proactive behavioral protection is crucial in modern cybersecurity, as it helps in early detection of threats that might not be identified through traditional signature-based methods. This approach is particularly effective against sophisticated, unknown, or evolving cyber threats.
Dynamic trust boundaries refer to adaptive security measures that adjust the level of trust assigned to users, devices, applications or networks based on continuous assessment of their behavior and context. Instead of static, one-time verifications, trust is dynamically modified based on real-time data. Some key objectives are the following:
Treating trust as a dynamic, continuously evolving element rather than a static attribute.
Expanding trust boundaries holistically across users, devices, and networks.
Basing trust on comprehensive historical insights and decisions, without relying on predetermined assumptions, and enforcing it as needed through appropriate authentication and authorization.
Zero Trust Network Access (ZTNA):
Use Case: Network Access Control
Description: In a ZTNA model, trust boundaries are constantly reassessed. Access to network resources is not based on the traditional perimeter security model but is dynamically granted based on the user’s identity, device health, location, and behavior. Access rights can be modified in real-time as these factors change.
Adaptive Authentication:
Use Case: User Authentication
Description: Adaptive authentication systems adjust the authentication requirements based on the risk associated with a user request. For instance, a user logging in from a known device and location may only need a password, whereas login attempts from an unfamiliar device or location might trigger additional authentication steps like biometric verification or a one-time passcode.
Context-Aware Data Access Policies:
Use Case: Data Security and Access Management
Description: Organizations can implement dynamic trust boundaries by adjusting data access policies based on the context. For example, access to sensitive data might be allowed only from corporate networks or during specific hours, and any deviation from this norm can trigger additional security checks or block access.
Behavior-Based Network Segmentation:
Use Case: Internal Network Security
Description: Dynamic network segmentation involves adjusting network access permissions based on user or device behavior. If a device starts behaving suspiciously (like making unusual data requests), it can be automatically isolated or have its network access restricted to prevent potential security breaches.
AI and ML in Threat Detection and Response:
Use Case: Real-Time Threat Analysis
Description: Artificial intelligence and machine learning algorithms analyze network traffic and user behavior in real-time to identify and respond to threats. Based on this analysis, the system can dynamically adjust trust levels, such as by quarantining a potentially compromised device.
IoT Device Management:
Use Case: Securing IoT Ecosystems
Description: In IoT networks, dynamic trust can be applied by continuously monitoring device behavior and communications. If an IoT device starts transmitting data in an unusual pattern, its trust level can be downgraded, limiting its access to the network to mitigate potential risks.
Cloud Access Security Brokers (CASBs):
Use Case: Cloud Application Security
Description: CASBs enforce security policies in a cloud environment. They dynamically control access to cloud resources based on user behavior, device security posture, and other contextual factors, ensuring secure use of cloud applications.
Dynamic trust boundaries are crucial in a landscape where threats can emerge from seemingly legitimate sources and where the distinction between inside and outside the network perimeter is increasingly blurred. By continuously evaluating trust, organizations can respond more effectively to evolving security threats.
Self-protection and self-healing refers to systems and applications having built-in mechanisms to detect, prevent, respond and remediate security threats and safety incidents autonomously, including hidden or stealthy attacks. This approach is increasingly important in defending against targeted attacks, advanced persistent threats (APTs) and zero-day exploits that traditional security tools may not detect. Some key objectives:
Equipping hardware, software, and firmware with fundamental self-defense capabilities against targeted attacks.
Extending these protective capabilities to encompass devices, users, and networks.
Endpoint Detection and Response (EDR) Systems:
Use Case: Endpoint Security Against Advanced Malware
Description: EDR platforms actively monitor endpoints (like laptops, mobile devices) for suspicious activities. They use behavioral analysis and machine learning to detect signs of stealthy attacks, such as memory exploits or unusual network traffic, and can autonomously respond by isolating devices or alerting security teams.
Intrusion Prevention Systems (IPS) with Anomaly Detection:
Use Case: Network Security Against Unusual Traffic Patterns
Description: Modern IPS tools use anomaly detection to identify unusual network behavior indicative of stealthy attacks. They analyze traffic patterns and can automatically block or alert about potential threats that deviate from established norms, such as unexpected data exfiltration attempts.
Self-Healing Networks:
Use Case: Resilient Network Infrastructure
Description: Self-healing network technologies automatically detect and isolate compromised network segments, reroute traffic, and can even repair network configurations to maintain integrity against stealth attacks that try to exploit network vulnerabilities.
AI-Driven Security Information and Event Management (SIEM):
Use Case: Advanced Threat Detection and Response
Description: SIEM systems collect and analyze security logs from various sources within an organization. Advanced SIEMs use AI to identify patterns indicative of stealthy or sophisticated attacks and can trigger automated responses to mitigate these threats.
Web Application Firewalls (WAFs) with Adaptive Learning:
Use Case: Protecting Web Applications from Advanced Exploits
Description: WAFs monitor HTTP traffic to and from web applications. They employ adaptive learning techniques to understand normal application behavior and can identify and block anomalous requests that might indicate hidden SQL injection, XSS, or other stealthy web attacks.
Behavior-Based Antivirus and Anti-Malware:
Use Case: Protection Against Zero-Day Malware
Description: These antivirus systems don’t just rely on known malware signatures. Instead, they monitor the behavior of software on a system to identify actions typical of malware, such as unauthorized file access, which allows them to detect and block previously unknown (zero-day) threats.
Cloud Access Security Brokers (CASBs):
Use Case: Securing Cloud Environments
Description: CASBs provide visibility and control over cloud applications. They use advanced analytics to detect unusual access patterns or data movements in the cloud, offering protection against stealthy attacks targeting cloud-based resources.
Database Activity Monitoring (DAM):
Use Case: Protecting Sensitive Data in Databases
Description: DAM solutions monitor and analyze all database activities in real-time. They can identify unusual access patterns or unauthorized data queries, which could indicate a stealthy attempt to extract sensitive data.
These examples of self-protection mechanisms emphasize the importance of proactive and dynamic defense strategies in modern cybersecurity, especially in an era where attacks are becoming more sophisticated and harder to detect with traditional security measures.
At DeepSAFE Technology, our commitment to cybersecurity excellence is embodied in our six foundational pillars, each representing a vital facet of advanced digital protection. These pillars are not just theoretical concepts but are the bedrock of our diverse and dynamic service offerings. Each DEEPSAFE™ pillar anchors a family of DeepSAFE Technology® services:
Specialized Training and Coaching: We provide in-depth coaching and training for developers and technical staff. Our programs are meticulously designed to impart practical knowledge and application skills based on our six pillars, ensuring that your team is well-versed in the latest cybersecurity practices.
Comprehensive Product and Solution Evaluations: Our expertise extends to the evaluation of existing products and solutions against our six-pillar framework. This rigorous assessment ensures that your cybersecurity measures are robust, comprehensive, and aligned with the highest industry standards.
Innovative Protection Development: We are continuously engaged in developing new and enhanced protective measures. These innovations are derived from cutting-edge research and tailored to address emerging threats, thus expanding the boundaries of traditional cybersecurity solutions.
Large-Scale Solution Design: Our team excels in crafting large-scale security solutions and infrastructures. By integrating all six pillars, we ensure a holistic security environment that is both resilient and adaptable to the ever-changing threat landscape.
Market Product Identification: In our quest to offer you the best, we actively identify and recommend products in the market that embody one or more of our six pillars. This service is aimed at providing you with options that are not only effective but also ahead of the curve in terms of technology and implementation.
By choosing DeepSAFE Technology, you are partnering with a leader in cybersecurity that is committed to safeguarding your digital assets through a comprehensive, multi-faceted approach. Our services are designed to provide you with peace of mind, knowing that your security posture is built on a foundation of expert knowledge, advanced technology, and proactive strategies. We are dedicated to providing a cybersecurity experience that is as ethical as it is effective. Our commitment to these six pillars ensures that your digital assets are protected by the most advanced, comprehensive solutions available.
