Intermolecular, the trusted partner for advanced materials innovation, helps leading companies accelerate and de-risk materials decisions. #MaterialsInnovation
The human brain is known as one of the most complicated objects. However, scientists at @LosAlamosNatLab have made a new interface-type memristive device, which can be used to build artificial synapses for next-gen neuromorphic computing. bit.ly/46lneXT#Neuromorphic
Nanowire thin films are composed of thin layers of nanostructured objects. They have received significant attention for several advanced applications due to their physical and chemical properties. bit.ly/43CjcrE#ThinFilms
A new study reveals that scientists have successfully split phonons paving the path for a new type of quantum computer called linear mechanical quantum computers. bit.ly/442Cg2W#QuantumComputers#Phonons
Researchers recently decided to use topology and a new kind of “quasiparticle” to come up with an error-correction technique for quantum computers. bit.ly/3NuhT7Y#Topology#Qubit
Researchers from Shimane University recently developed an innovative polarization-angle-resolved Raman microscope. This new device helps analyze the molecular structure of materials. bit.ly/44kWbtH#Materials#Ferroelectric
Quantum computing is a cutting-edge technology that has the potential to revolutionize many industries, such as sustainable energy.
Here at Intermolecular, we have in-house capabilities to achieve materials and device sustainability goals. bit.ly/3qYjXxg#Sustainability
Researchers from various universities recently discovered that water can interact directly with the carbon’s electrons: a quantum phenomenon that is very unusual in fluid dynamics. bit.ly/3NuuWq0#Electrons#Quantum
Researchers from @ASU recently developed graphene-based ultrashort laser pulse technology. This new technology has potential applications across communication, biomedical sensing, and other industries. bit.ly/44bbi94#Graphene
Researchers recently looked into the sensing characteristics of drop-cast thin films of various materials with different compositions to determine the most sensitive thin film for NO2 detection. bit.ly/43CjcrE#ThinFilms#Materials
Quantum computers are promising but are also prone to error. However, researchers from @UChicago recently developed a new method to monitor the noise around a quantum system and adjust the qubits, to minimize error. bit.ly/3oI9llC#QuantumComputing
Meet Navnidhi Upadhyay, Senior Device Engineer here at Intermolecular. He works at the intersection of electrical engineering, material science and computer science to innovate and engineer next-gen memory devices and materials. bit.ly/464Vvuk#MaterialScience
Researchers from UK universities recently exposed high-quality graphene to magnetic fields at room temperature and measured its response. This revealed that graphene can record levels of magnetoresistance without a need to push the temp down towards zero. bit.ly/41VmVzV
Check out this inspiring Q&A with Ukarian materials architect Andriy Zakutayev. Like Intermolecular, Zakutayev is focused on using materials to help develop power-efficient devices. bit.ly/3qrCyBx#MaterialScience#Memory#Engineering
A research team from @UMich developed a ferroelectric semiconductor platform for AI and IoT computing systems. They used ferroelectric semiconductor materials over conventional silicon-based architectures to sustain electrical polarization. bit.ly/3Lb129b
A research team from DGIST used intense light on the surface of a copper wire to synthesize #graphene. This method increased the production rate, lowered the cost of the high-quality transparent-flexible electrode materials, and enabled mass production. bit.ly/3L61ky4