Strong random number generation from body physiological signals for secure communication between implants inside the body and the gateway outside the body

根据身体生理信号生成强大的随机数，用于体内植入物与体外网关之间的安全通信

• 批准号: 133566
• 金额: $ 1.4万
• 依托单位: UNIVERSITY OF GLOUCESTERSHIRE
• 依托单位国家: 英国
• 项目类别: Feasibility Studies
• 财政年份: 2018
• 资助国家: 英国
• 起止时间: 2018 至 无数据
• 项目状态: 已结题
• 来源: https://gtr.ukri.org/projects?ref=133566
• 关键词: Strong; random; number; generation; body

Smart Implantable Medical Devices (IMDs) have many benefits for both patients and care providers, with real-time monitoring, tuning the IMD based on the patient's need, updating the IMD firmware for better functionality and contributing real-time data for medical research. Considering the aging population, increases in chronic disease and technological breakthroughs, the electronic medical device market has reached an estimated $398 billion in 2017 with the market expanding at an expected rate of 3% per year until at least 2022 based on a report in 2017 from Harvard Business Review. At the same time the security of IMDs, becomes a great concern by many reports have been surfaced regarding the vulnerabilities of IMDs. Recently, in 2016, it has been shown how an attack to a brain's IMD could take control of the implant and do some alteration on the victim's emotion. In another example in 2016, Reuters reported vulnerabilities in insulin pumps created by Johnson & Johnson, where the attacker is able to intercept the commutation and/or request for a wrong dosage of insulin. As the result, more than 100,000 patients were advised to stop using remote control functionality of the device. In 2017, MedSec reported that more than half a million people in US were in danger because of the vulnerabilities found in St. Jude pacemakers. Based on the report published by WhiteScope in May 2017 reviewing four brands of IMDs, they have found almost 8,000 vulnerabilities in these devices mostly caused because of no or static encryption keys used between IMD and its gateway. To solve this problem, we have developed a new protocol which can provide secure communication between IMD and the gateway using temporary keys. The solution has been examined on a very large pool of data and proved to be as secure as AES algorithm. This methodology not only solves the problem of static keys in IMDs, it provides the opportunity to pair more than one device to an IMD or among IMDs.

智能植入式医疗器械（IMD）对患者和护理提供者都有许多好处，包括实时监控，根据患者的需求调整IMD，更新IMD固件以实现更好的功能，并为医学研究提供实时数据。考虑到人口老龄化，慢性病和技术突破的增加，电子医疗设备市场在2017年估计达到3980亿美元，根据哈佛商业评论2017年的一份报告，该市场预计将以每年3%的速度增长，直到至少2022年。与此同时，IMD的安全性也成为人们关注的焦点，许多关于IMD漏洞的报道已经浮出水面。最近，在2016年，已经显示了对大脑IMD的攻击如何控制植入物并对受害者的情绪进行一些改变。在2016年的另一个例子中，路透社报道了约翰逊和约翰逊在胰岛素泵中创建的漏洞，攻击者能够拦截转换和/或请求错误的胰岛素剂量。结果，超过10万名患者被建议停止使用该设备的远程控制功能。2017年，MedSec报告称，由于在St. Jude起搏器中发现的漏洞，美国有超过50万人处于危险之中。根据WhiteScope在2017年5月发布的报告，他们审查了四个品牌的IMD，发现这些设备中有近8,000个漏洞，主要是由于IMD及其网关之间没有使用或使用静态加密密钥。为了解决这个问题，我们已经开发了一个新的协议，可以提供IMD和网关之间的安全通信使用临时密钥。该解决方案已经在一个非常大的数据池上进行了测试，并证明与AES算法一样安全。这种方法不仅解决了IMD中的静态密钥问题，还提供了将多个设备与IMD或IMD之间配对的机会。