WORM-enabled tape storage. The method meets security standards and delivers the benefits of tape.
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Healthcare financial executives need to understand the complex and growing role of information security in supporting the business of health care. The biggest security gaps in healthcare organizations occur in strategy and centralization, business executive preparation, and protected health information. CFOs should collaborate with the CIO in engaging a comprehensive framework to develop, implement, communicate, and maintain an enterprisewide information security strategy.
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Communication and co-operation in healthcare and welfare require a well-defined set of security services based on a standards-based interoperable security infrastructure and provided by a Trusted Third Party. Generally, the services describe status and relation of communicating principals, corresponding keys and attributes, and the access rights to both applications and data. Legal, social, behavioral and ethical requirements demand securely stored patient information and well-established access tools and tokens. Electronic signatures as means for securing integrity of messages and files, certified time stamps and time signatures are important for accessing and storing data in Electronic Health Record Systems. The key for all these services is a secure and reliable procedure for authentication (identification and verification). While mentioning technical problems (e.g. lifetime of the storage devices, migration of retrieval and presentation software), this paper aims at identifying harmonization and interoperability requirements of securing data items, files, messages, sets of archived items or documents, and life-long Electronic Health Records based on a secure certificate-based identification. It's commonly known that just relying on existing and emerging security standards does not necessarily guarantee interoperability of different security infrastructure approaches. So certificate separation can be a key to modern interoperable security infrastructure services.
Increasingly, health care professionals will need to retrieve, store, share, and send data using several types of wireless devices. These devices include personal digital assistants, laptops, Web tablets, cell phones, and clothing that monitor heart rate and blood pressure. Regardless of the device, several standards will vie for the right to provide the wireless communications link between the health care professional and the wired data resources located within a health care organization. This article identifies the top three technologies in the wireless communications field: Wireless Fidelity (WiFi), Mobile Communications, and Bluetooth; breaks down each according to its strengths and weaknesses; and makes recommendations for their use by health care professionals located inside and outside a health care facility. Where appropriate the discussion includes an explication of how a specific technology can be made secure from hackers and other security breeches.
The Medical Virtual French-Speaking University (UMVF) is a government sponsored program. The participating medical schools will share Web accessible scientific contents and develop their own teaching strategies and learner-trainer interactions. An e-learning platform will manage the access to the UMVF and its various resources. This access will require a unique identification/authentication. Users will then be guided toward those resources adapted to their profile. We recommend the use of a smart card for the identification/authentication. The connection should be secured via a SSL protocol when using critical resources such as assessment of a student, discussion between a student and a teacher and creation or modification of resources by a teacher. In other cases, secure connection will not be required. Usage rights of resources will be explicated. Critical data will be ciphered.
The American Heritage dictionary defines the word "web" as "something intricately contrived, especially something that ensnares or entangles." The wealth of medical resources on the World Wide Web is now so extensive, yet disorganized and unmonitored, that such a definition seems fitting. In emergency medicine, for example, a field in which accurate and complete information, including patients' records, is urgently needed, more than 5000 Web pages are available today, whereas fewer than 50 were available in December 1994. Most sites are static Web pages using the Internet to publish textbook material, but new technology is extending the scope of the Internet to include online medical education and secure exchange of clinical information. This article lists some of the best Web sites for use in emergency medicine and then describes a project in which the Web is used for transmission and protection of electronic medical records.
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Modern research techniques have led to exponential growth in the volume and complexity of scientific data. Consequently, managing these volumes securely and efficiently has become a major challenge. While all research domains face these challenges, life science research is particularly affected because current approaches often rely on a large set of different file formats, with metadata stored in separated databases or spreadsheets. This leads to fragmented datasets, orphaned data, and compromised research reproducibility. Traditional solutions also force researchers to choose between security and accessibility, with encrypted files preventing selective access and indexed formats lacking adequate security for sensitive data. These limitations are particularly problematic in large-scale genomic studies where researchers must decompress multi-gigabyte files to access specific regions, creating computational bottlenecks and inefficient network usage when working with cloud-stored datasets. We introduce Pithos, a next-generation file format specifically designed for scientific data management in distributed cloud environments. The format uses content-defined chunking to enable efficient deduplication across distributed storage systems, thereby reducing storage costs and bandwidth requirements. The append-only structure ensures data immutability and allows for incremental updates without compromising content. Benchmark results show that Pithos outperforms existing solutions in read and write performance, with comparable or improved storage efficiency.
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