Hi everyone. Thanks for joining my session today. I'll be discussing Coase architecture for securing telemedicine data. The rapid expansion of telemedicine has brought about a significant shift in how healthcare is delivered, making it more accessible and convenient for patients worldwide. However, this advancement comes with serious cybersecurity risk as patient data is transmitted over multiple networks. Often making it a target for malicious actors. In today's presentation, I will discuss how go based architecture provides a secure, scalable, and efficient solution for telemedicine platforms. Go as a programming language is built with security first principles, offering features such as automatic memory management, high performance encryption, and secure authentication mechanisms. These features. Make it an ideal choice for protecting patient information while ensuring HIPAA compliance. We will explore the key security challenges in telemedicine, the multi-layered security framework provided by Go and also look at some real world success stories demonstrating how go power solutions are reducing security risk in healthcare environment. But before that. Let's talk a little bit about me. I'm a senior product manager at Adobe for security and compliance. I have 10 plus years of experience in application and data security, seven plus years of experience and product management. And before entering product manager, I was a software developer. I had six years of experience in software development, in security, legal and banking industry. So with that, let's talk about the telemedicine revolution. Telemedicine has transformed healthcare delivery, eliminating the geographical barriers between doctors and patients. This shift has been specially prominent in communities where access to medical professional was previously limited. The adoption of TE telemedicine skyrocketed 38 times after COVID-19 pandemic proving its long-term viability as a mainstream healthcare solution. However, with increased usage comes increased risk. Hackers and cyber minerals are now targeting telehealth platforms attempting to gain. Unauthorized access to sensitive patient data, medical records, and financial information. Healthcare providers must balance accessibility with security, ensuring that virtual con consultations remain private, secure, and fully compliant with healthcare regulations such as HIPAA and GDPR. GOs architecture is particularly suited for secure tele telemedicine applications as it allows for efficient handling of concurrent application, seamless authentication and strong encryption protocol. Now let's talk about the security challenges in telemedicine. The rapid adoption of telemedicine has introduced several. Several, security challenges that must be, addressed to ensure the privacy, integrity and confidentiality of patient data. One of the biggest risk is data transmission security as patient information is traveling across multiple networks, some of which may be unsecured or vulnerable to cyber attacks. Another major concern is authentication. While providers must implement strong identity verification to prevent unauthorized access, they must also ensure that the login process remains, seamless and user-friendly. Regulatory compliance is another significant challenge with loss, such as HIPAA and GDPR requiring strict data protection measures. Failure to comply with these regulations can lead to hefty files and reputational damage. Additionally third party integration with cloud services, payment gateways, and electronic health records introduced multiple attack vectors, increasing the likelihood of data breaches. In 2023, the healthcare sector witnessed 6 47 data breaches affecting more than 78 million individuals highlighting the urgent need of robust security frameworks. Why go for Healthcare Security Go is an excellent choice for securing telemedicine platform due to its security oriented architecture and high performance capabilities. One of its standout feature is memory safety, which prevents common ties like buffer overflow and memory leak, reducing the risk of cyber attacks that exploit memory management flaws. Another critical aspect is close lightweight concurrency model, which allows healthcare application to handle thousands of simul list patient connections without compromising security or performance. Furthermore, CO comes with a rich standard library that includes cryptographic tools, enabling developers to implement strong encryption mechanism without relying on third party dependencies. This reduces the chance of introducing Vulner through external libraries. These features may go a powerful and reliable choice for developing secure telemedicine application that can withstand modern cybersecurity threats. Let's talk about a multi-layered security framework. A multi-layered security free approach is essential for fortifying telemedicine platform against cyber threats. The first layer, the application security ensures that all input is validated. Output is contextually encoded, and the system adheres to the O OSP compliance safeguards to prevent common web vulnerabilities such as SQL injection and cross site scripting. The second layer is data protection, which leverages a ES 2 56 encryption for data at rest and DLS 1.3 for secure transmission. Ensuring that patient records remain confidential. The third layer access controls involve granular, role-based permission, and multifactor authentication, reducing the risk of unauthorized access. The fourth layer network security incorporates TLS mutual authentication, zero trust segmentation, and next gen firewalls to protect against external threats. Finally, infrastructure security focus on focuses on hardened cloud configurations, immutable infrastructure, and continuous security monitoring. Studies show that organizations that implement a defense in depth strategy, experience 87% reduction in security incident while maintaining a high system performance. Let's talk about authentication mechanisms. Authentication is a corner store of cybersecurity in telemedicine, ensuring only authorized users such as doctors, nurses, and patients can access sensitive healthcare data. Architecture provides four primary authentication mechanism to enhance security. First. Multifactor authentication integrates seamlessly with go's context pack, context package, allowing secure one-time password and biometric verification with minimal latency. Second, JWT, which is Chase and web token. Implementation is powered by go's native cryptographic libraries, ensuring authentication, tokens for user sessions. Third is session management. In GO is lightweight and scalable efficiently tracking thousands of concurrent user sessions while enforcing strict expiration controls. Lastly, single Sign-on Federation allows COB platform to seamlessly integrate with identity providers such as or Open id, and SAML Enhancing Usability. While maintaining robust security research has shown that organization using COASE authentication achieve a 99.9% success rate in preventing unauthorized access attempts. Now let's talk up. Talk about encryption implementation. Encryption plays a crucial role in safeguarding telemedicine communication and data storage goes. Building security tools enable encryption at multiple levels. Transport layer, security shows end-to-end encryption for all data transmitted over networks significantly reducing the risk of man attack. For data address goal leverages AEs 2 56 encryption, which is virtually unbreakable under the current computing capabilities. Additionally, goal-based application implement end-to-end encryption for video consultation and messaging, ensuring that no third parties can intercept and decrypt confidential conversations. Finally, coup supports hardware security module. For security key for secure key management, allowing organizations to rotate and recover encryption keys seamlessly. Proper encryption practices have been shown to reduce data interception risk by 94%, making them essential for telemedicine security. Now let's talk about microservices architecture benefits. Microservices architectures have revolutionized the way telemedicine platforms handle security, scalability, and system resilience. Unlike monolithic application, microservices break down functionalities into smaller independent services, making them easier to manage and secure. Secure. One of the biggest advantage of this architecture is isolation, where each service operates independently within its security parameters. This means that even if one service is compromised, the entire system remains protected, reducing the impact of security breaches. Additionally, scalability is greatly enhanced because security critical components can be individually scaled to handle increased workloads or adjusted based on evolving threat profiles. Another gEEP benefit is seamless deployment. Because microservices allow targeted updates, organizations can deploy security patch patches without causing downtime. This ensures that security vulnerabilities are addressed promptly without disrupting patient care. Finally, monitoring and threat detections are more precise as security telemetry is collected at granular level, allowing for faster detection and mitigation of security threats. Studies show that organizations which are transitioning to go powered microservices architecture experience a 94 red percent reduction in security incidents while significantly improving systems uptime and reliability. Let's talk about some real world success stories. The effectiveness of gob base architecture in telemedicine security is not just theoretical. It has been proven by real world implementation across various healthcare organization. One notable example is major hospital network that within six months of migrating to based go powered microservices, reduced its security incident by 94% while cutting down response time. Two potential threats by 78%. This was achieved through a combination of en enhanced encryption, multifactor authentication, and zero trust network segmentation. Similarly, a virtual care startup faced challenges in scaling securely while ensuring HIPAA compliance. By adopting go based security solutions, they achieved full compliance in just 90 days while successfully handling over 50,000 daily patient consultation. This demonstrates the secure architectures do not have to compromise. Performance or scalability. Lastly, a health insurance provider that processes 12 million sensitive customer records daily, implemented a goal-based API gateway, maintaining zero data breaches for three consecutive years. This case highlights go ability to provide secure high performance solution even in data intensive environment. Let's talk about an implementation roadmap. Implementing a goal-based security framework requires a structured step-by-step approach to ensure comprehensive protection without operational disrupt disruptions. The process began with security assessment where a detailed audit is conducted to identify vulnerabilities with existing infrastructure. This is crucial because unidentified security gaps can lead to potential data breaches. The next step is architecture design. Where security components such as encryption layer, authentication mechanism, and secure APIs are crucial, are carefully integrated into the system. Once the architecture is designed, prototype development follows creating a proof of concept microservices implementation to test core security features. The fourth step is testing and hardening. Which involves conducting rigorous pen tests to stimulate real world cyber attacks, allowing organization to fine tune security measures based on testing results. Finally, the deployment and monitoring phase ensures a progressive rollout of security features supported by automated scanning and real-time threat detection organizations that follow this strategic. Roadmap typically achieves full HIPAA compliance within four to six months, all while minimizing downtime and ensuring seamless patient care. With that, let's summarize our key takeaways from the session. CO's architecture, it offers a powerful solution for securing telemedicine platform while maintaining high performance compliance. The adoption of multi-layered security framework has been shown to reduce breach incident by 94%, making telemedicine significantly more resilient to cyber attacks. Advanced multi-factor authentication protocols, including biometric verification and token based authentication ensures that only authorized personal can access sensitive patient information leading to 99%, 99.9% authentication success rate. Furthermore goes robust. cryptographic tools enables seamless encryption and key management helping organizations achieve full HIPAA compliance without operational inefficiencies. By implementing secure microservices architecture, healthcare providers can isolate security threats, enhance scalability, and ensure rapid responses to potential risk. the key takeaway is that COPA solutions are not just secure, but they also ensure system stability, scalability, and regularity adherence, making them ideal choice for telemedicine security. With that, thank you all for your time and attention. As telemedicine continues to evolve, security will remain the top priority for healthcare providers. The combination of GO security approach. And multilayered encryption, microservices, scalability makes it a perfect choice for modern telemedicine platforms. Organizations that are looking, to secure their telemedicine application must focus on structured security roadmap, continuous monitoring and proactive se security measures. By implementing go base architecture, healthcare organizations can not only enhance security, but also improve efficiency. Reducing cost and building patient trust. I hope this presentation has provided valuable insights into how go can revolutionize telemedicine security. If you have any questions, I'll please feel free to reach out to me. Thank you.