Skip to main content

Featured

9 Everyday Foods Associated with Increased Cancer Risk

In today's fast-paced world, dietary habits often revolve around convenience and taste. However, several commonly consumed foods may contribute to an increased risk of cancer. Understanding these potential risks can aid in making informed choices about daily dietary intake. 1. Processed Meats: Processed meats like bacon, sausage, and deli meats contain nitrates and nitrites, compounds used as preservatives. When these meats are cooked at high temperatures, these chemicals can convert into carcinogenic nitrosamines, linked to an elevated risk of colorectal cancer. 2. Sugary Beverages: Sodas, energy drinks, and certain fruit juices often contain high amounts of added sugars. Regular consumption of these beverages not only contributes to obesity and diabetes but also increases the risk of certain cancers, including pancreatic cancer and breast cancer. 3. Charred or Grilled Foods: Cooking meat, poultry, or fish at high temperatures and charring them produces heterocyclic am...

Virtual technologies for the factory of the future

The BMBF has published seven funding announcements for the realization of Industry 4.0. Among other things, within the agenda of the announcement published in 2013 "Virtual technologies for the factory of the future - A contribution to the future project Industry 4.0",5 research projects are  funded.

IT strategy

Research funding in the IT sector concentrates on fields of strategic importance. Largely ignored, the hardware basis of embedded and cyber-physical systems is subject to rapid change. The hardware of these systems today consists of classic single-core processors. In a few years they will no longer be available and will be replaced by multi-core processors. The consequences are considerable, but the potential for the user clearly outweighs it. For every type of embedded system with a long service life, this changeover to the new multi-core system architecture means dealing with fundamentally different conditions - such as parallelism and concurrency. This change also poses a special challenge for areas of application with certified embedded systems.  bolts


In addition, software for embedded systems is becoming more complex, because with the desired end-to-end networking in the Internet of Things, the functional dependencies between embedded systems also increase exponentially and result in new reliability requirements. Guaranteeing the security of networked systems is a further fundamental challenge that has not previously had to be considered methodologically to the extent necessary today in the case of embedded systems. For these requirements, the current software development for embedded systems has reached the limit of its possibilities. In the wide range of application domains, methodically well-founded software development methods are required, which are also accepted in practice thanks to easy-to-use tools.

The intelligent control and networking of machines and systems is specific to Industry 4.0. For plant engineering, this already means the integration of components in a plant that are often equipped with 25 or more different software systems. Mechanical engineering, on the other hand, which develops and maintains the software for its own product lines on a large scale, sees itself challenged by the requirements of customer requests and networking. The existing system landscapes in mechanical and plant engineering are too fragmented and heterogeneous to allow an "ecosystem" of suitable software developers and modern tools to arise. Efforts are required here to standardize the various levels of the IT system architecture.

The BMBF funding is therefore aimed at three levels:

1. Support in the changeover due to the change in software development caused by multi-core hardware . The ARAMiS project, completed in 2015, provided effective methods for developing embedded multi-core systems. The ARTEMIS project EMC² is working on making these systems more flexible in order to further increase reliability and failure safety. And finally, the ARAMiS II project, which started in 2016, is about efficient methods and tools for the development of embedded multi-core systems.

2. Method and tool development for software production in embedded systems.

The BMBF began in 2010 with the sequence of the projects SPES 2020, SPES_XT Core and currently SPEDiT and CrESt to develop methods and practical tools for software development in embedded systems. CrESt extends the spectrum to collaborative embedded systems; SPEDiT is supposed to spread the results.

3. Development of a basic Industry 4.0 system based on RAMI 4.0 as an architecture concept that offers a unified modular software environment between embedded hardware and communication network or application software for Industry 4.0.

 marketingmediaweb   divinebeautytips