Nb-Ti Capillary Tube & Quantum Computer
Specification of Nb-Ti capillary tube for quantum computer:
OD1mm X Wall Thickness 0.14mm X 1000mm
OD1.4mm X Wall Thickness 0.14mm X 1000mm
OD2.2mm X Wall Thickness 0.18mm X 1500mm
OD2.19mm X Wall Thickness 0.26mm X 1000mm
Nb-Ti superconducting wire specification
OD1mm
OD0.5mm
OD0.2mm
Introduction of Nb-Ti superconducting materials
The practical Nb-Ti superconducting materials are mostly simple binary alloys, containing 35% ~ 55% Nb; Some tantalum and zirconium can be added to improve superconductivity.
We have Nb-47Ti, Nb-47Ti-5Al, Nb-35Ti, Nb-30Ti, Nb-55Ti Nb-Ti alloy for your choice.
Due to the stability of superconductivity, Nb-Ti superconducting materials are commonly used as matrix materials with pure copper, pure aluminum or copper-nickel alloy, and inserted into multiple strands of Nb-Ti fine cores to form composite multi-core superconducting materials.
A superconducting wire can contain dozens to tens of thousands of Nb-Ti cores, with a minimum core diameter of 1μm.
We have Nb-47Ti, Nb-47Ti-5Al, Nb-35Ti, Nb-30Ti, Nb-55Ti Nb-Ti alloy for your choice.
Due to the stability of superconductivity, Nb-Ti superconducting materials are commonly used as matrix materials with pure copper, pure aluminum or copper-nickel alloy, and inserted into multiple strands of Nb-Ti fine cores to form composite multi-core superconducting materials.
A superconducting wire can contain dozens to tens of thousands of Nb-Ti cores, with a minimum core diameter of 1μm.
The basic processing technology of Nb-Ti superconducting materials is as follows: pure titanium and pure niobium are melted into alloy ingots by consumable electric arc furnace or plasma furnace, and then the blanks are opened by hot extrusion, and the bars are formed by hot rolling and cold drawing.
Then the Nb-Ti alloy rod will be inserted into the oxygen-free copper tube as the base material to form a single core rod. And after multiple composite assembly, processed into multi-core Nb-Ti superconducting wire and strip.
Then the Nb-Ti alloy rod will be inserted into the oxygen-free copper tube as the base material to form a single core rod. And after multiple composite assembly, processed into multi-core Nb-Ti superconducting wire and strip.
The material needs to be subjected to several large cold processing (processing rate of more than 90%) and low temperature (below 400℃) aging heat treatment, so that the superconductor can obtain enough effective pinning center and improve the superconducting electrical properties of the superconducting material.
Due to the characteristics of no joule heat loss caused by the zero resistance effect of superconductors, and the ability of Nb-Ti superconductors to carry high transport currents under strong magnetic fields, Nb-Ti superconductors are particularly suitable for electrical applications with high currents and strong magnetic fields.
Due to the characteristics of no joule heat loss caused by the zero resistance effect of superconductors, and the ability of Nb-Ti superconductors to carry high transport currents under strong magnetic fields, Nb-Ti superconductors are particularly suitable for electrical applications with high currents and strong magnetic fields.
For example: high-field magnets, generators, motors, magnetic fluid power generation, controlled thermonuclear reaction, energy storage devices, high-speed maglev trains, Marine electromagnetic propulsion and transmission cables.
So far, the most successful applications of Nb-Ti alloy superconducting materials are: large cyclotron high energy accelerators with a diameter of more than 1km and magnetic nuclear resonance imaging diagnostic instruments widely used in the medical sector.
So far, the most successful applications of Nb-Ti alloy superconducting materials are: large cyclotron high energy accelerators with a diameter of more than 1km and magnetic nuclear resonance imaging diagnostic instruments widely used in the medical sector.
Introduction of superconducting quantum computers
The research and development of quantum computer is a hot field in the current international science and technology competition.
Superconducting quantum is an important technology in quantum communication, it is being controled by physicists at the University of California, Santa Barbara, and is preparing for the creation of quantum devices in the future, including powerful, super-fast quantum computers.
Superconducting computer is a computer and its components produced by using superconducting technology.
Superconducting quantum is an important technology in quantum communication, it is being controled by physicists at the University of California, Santa Barbara, and is preparing for the creation of quantum devices in the future, including powerful, super-fast quantum computers.
Superconducting computer is a computer and its components produced by using superconducting technology.
Its switching speed can reach several microseconds. Its computing speed is faster than the current electronic computer and it consumes less electric energy.
Superconducting computers can play a great role in the development of human civilization.
Because of its excellent superconducting properties, niobium titanium wire can be processed into superconducting cables, which has a broad prospect in the field of superconducting computers.
Because of its excellent superconducting properties, niobium titanium wire can be processed into superconducting cables, which has a broad prospect in the field of superconducting computers.
The relationship between superconductivity and quantum computer
Niobium superconducting materials can be fabricated as Josephson castings by forming thin films on very thin insulators using sputtering or evaporation.
Common niobium titanium alloys include NbTi45%, Nb53%Ti47%, NbTi50%, etc.
The superconducting products for superconducting computers include niobium titanium capillary tube and so on.
Scientists are working on using semiconductors and superconductors to make transistors, or even superconductors entirely.
