The phrase "a large quantum of" is correct and usable in written English.
It can be used when referring to a significant amount or quantity of something, often in a scientific or formal context.
Example: "The experiment required a large quantum of data to ensure accurate results."
Alternatives: "a significant amount of" or "a substantial quantity of".
In that case, the defendants distributed software that enabled peer-to-peer file sharing, enabling a large quantum of infringing activity by users online.
What better opportunity to apply the lessons of bioteaming than to a self-managed organization, where individual members enjoy a large quantum of autonomy in pursuit of their respective missions?
With the development of high-resolution and high-throughput mass spectrometry (MS) technology, a large quantum of proteomic data is continually being generated.
Kinsley is quite well known by magazine-editor standards (among the magazines and magazine-like entities he has edited are The New Republic, Harper's, and Slate, which he founded), though a larger quantum of his renown is based on his tart, smart, funny writing (which has embellished many places besides the ones he has been boss of, including this place).
The monomeric mKikGR displays bright fluorescence (φflR = 0.63), a large quantum yield of photoswitching (φsw = 7.5×10−3), and a low quantum yield of photobleaching (φbleaching = 6.47×10−6).
A large quantum information processor will be composed of many individual modules with precisely managed connections.
Look for some shareholders to rebel against large quantum of pay, pay program complexity, high levels of discretion, metrics that don't tie clearly to business outcomes, and low performance hurdles.
The ability to deterministically prepare a CETS on a subset of qubits in a larger quantum simulation provides a new method, in principle, to simulate contact between a quantum system of interest and a heat bath at arbitrary temperature T. This may provide an economical means for simulating open quantum systems, particularly for thermal states of systems with multifold degenerate ground states.
The work was supported by SAIT, and is part of a larger quantum-dot solar cell program within the SAIT-MIT alliance that includes professors Vladimir Bulovic and Moungi Bawendi.
The synthesized nitrogen doped (N-doped) C-dots present an unexpectedly large quantum yield of 30.7% and possess an essentially crystalline nature and desirable functional groups.
Noticeably, the synthesized C-dots present an unexpectedly large quantum yield of 38.7% without any post-treatments.
