It is a milestone on the path to the chip factory of the future: at the new Bosch semiconductor fab in Dresden, silicon wafers are passing through the fully automated fabrication process for the first time. This is a key step toward the start of production operations, which is scheduled for late 2021. Manufacturing of automotive microchips will be a primary focus when the fully digital and highly connected semiconductor plant is up and running. “Chips for tomorrow’s mobility solutions and greater safety on our roads will soon be produced in Dresden. We plan to open our chip factory of the future before the year is out,” says Harald Kroeger, member of the board of management of Robert Bosch GmbH. The company already operates a semiconductor fab in Reutlingen near Stuttgart. The new wafer fab in Dresden is Bosch’s response to the surging number of areas of application for semiconductors, as well as a renewed demonstration of its commitment to Germany as a high-tech location. Bosch is investing around one billion euros in the high-tech manufacturing facility, which will be one of the most advanced wafer fabs in the world. Funding for the new building is being provided by the federal German government, and more specifically the Federal Ministry for Economic Affairs and Energy. Bosch plans to officially open its wafer fab in June 2021.
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Scientists uncover a process that stands in the way of making quantum dots brighter
Bright semiconductor nanocrystals known as quantum dots give QLED TV screens their vibrant colors. But attempts to increase the intensity of that light generate heat instead, reducing the dots’ light-producing efficiency.
Nanotech Powered Mass Testing Now the Key to Unlocking COVID-19 Lockdowns
The World Nano Foundation and pandemic experts say regular use of inexpensive lateral flow rapid antigen mass testing kits is the way to beat COVID-19, its variants and future viruses.
Immune Cells Boosted by Nanoparticles
By developing nanoparticle “backpacks” that hold immune-stimulating drugs, and attaching them directly to T cells, the MIT engineers showed in a study of mice that they could enhance those T cells’ activity without harmful side effects. In more than half of the treated animals, tumors disappeared completely.
Manipulating single atoms with an electron beam
An electron beam with sub-atomic precision, allowing scientists to directly see each atom in two-dimensional materials like graphene, and also to target single atoms with the beam. Each electron has a tiny chance of scattering back from a nucleus, giving it a kick in the opposite direction.
Generating Electrical Power From Waste Heat
Generating electrical power from waste heat New Sandia solid-state silicon device may one day power space missions...
Nanomaterial Superconductivity Lost? Physicists Uncover Why
Scientists discovered the phenomenon 30 years ago, but the mechanism for superconductivity remains an enigma because the majority of materials are too complex to understand QPT physics in details. A good strategy would be first to look at less complicated model systems.
Realtime Flexible Sensor Tests and Cures Inflammation
Realtime Flexible Sensor for Healing HKU Engineering and Medicine collaborate and develop a real-time flexible sensor...
Quantum Transistor for Semiconductor Applications Enables Photon Computing
Quantum computers will need analogous hardware to manipulate quantum information. But the design constraints for this new technology are stringent, and today’s most advanced processors can’t be repurposed as quantum devices. That’s because quantum information carriers, dubbed qubits, have to follow different rules laid out by quantum physics.
Osteoarthritis Pain Eased by Graphene Foam Suggested by Research
Boise State researchers believe graphene foam-enhanced cartilage could one day be used to treat the joint pain caused by osteoarthritis as well as prevent the need for joint replacement. Osteoarthritis is incurable and affects half the U.S. population over the age of 65.
Neural Network Recognizes Molecular Handwriting
Researchers at Caltech have developed an artificial neural network made out of DNA that can solve a classic machine learning problem: correctly identifying handwritten numbers. The work is a significant step in demonstrating the capacity to program artificial intelligence into synthetic biomolecular circuits.
Nanoscale Kirigami Technique Could Enable Microchip-Based 3-D Optical Devices
Nanoscale Kirigami has taken off as a field of research in the last few years; the approach is based on the ancient arts of origami (making 3-D shapes by folding paper) and kirigami (which allows cutting as well as folding) but applied to flat materials at the nanoscale, measured in billionths of a meter.