>
Animal Farm Rewritten: Hollywood Betrayed Orwell's Anti-Communist Classic
Jim Rickards & Peter Schiff :"Your SILVER Is About to Become Priceless (50x)"
Peter Schiff vs Jim Rickards: Monetary Endgame Debate
Japan unveils 'fastest ever' passenger jet 2.5x speedier than Concorde
Cars Are Fast Becoming Dystopian Prison Pods...
Our Emergency Water Plan Wasn't Good Enough - So We Built This
Sodium Ion Batteries Can Reach 100 Gigawatt Per Hour Per Year Scale in 2027
Juiced Bikes proves capable electric motorcycles don't have to cost a lot
Headlight projectors turn your car into a drive-in theater
US To Develop Small Modular Nuclear Reactors For Commercial Shipping
New York Mandates Kill Switch and Surveillance Software in Your 3D Printer ...
Cameco Sees As Many As 20 AP1000 Nuclear Reactors On The Horizon
His grandparents had heart disease.
At 11, Laurent Simons decided he wanted to fight aging.
Mayo Clinic's AI Can Detect Pancreatic Cancer up to 3 Years Before Diagnosis–When Treatment...

A quantum computing breakthrough by researchers at IBM and Daimler AG, the parent company of Mercedes-Benz, uses a quantum computer to model the dipole moment of three lithium-containing molecules, which brings us one step closer the next-generation lithium sulfur (Li-S) batteries that would be more powerful, longer lasting and cheaper than today's widely used lithium ion batteries.
Simulating molecules is extremely difficult but modeling them precisely is crucial to discover new drugs and materials. In the research paper "Quantum Chemistry Simulations of Dominant Products in Lithium-Sulfur Batteries," we simulated the ground state energies and the dipole moments of the molecules that could form in lithium-sulfur batteries during operation: lithium hydride (LiH), hydrogen sulfide (H2S), lithium hydrogen sulfide (LiSH), and the desired product, lithium sulfide (Li2S). In addition, and for the first time ever on quantum hardware, we demonstrated that we can calculate the dipole moment for LiH using 4 qubits on IBM Q Valencia, a premium-access 5-qubit quantum computer.
Arxiv- Quantum Chemistry Simulations of Dominant Products in Lithium-Sulfur Batteries