The phrase "a diverse application" is correct and usable in written English.
It can be used when referring to an application that encompasses a variety of elements, features, or uses, often highlighting its versatility or inclusivity.
Example: "The software is designed to support a diverse application across different industries, making it suitable for various business needs."
Alternatives: "a varied application" or "a multifaceted application".
Pixel sensors play an essential role in contemporary experiments in high energy physics and they also have a diverse application potential in many related fields.
Due to exceptional optical properties and a diverse application in electronics, optoelectronics, energy conversion/storage and biomedicine, the examples from some wide band gap oxides for light harvesting and photocatalytic applications as well as both down and up-conversion energy-saving luminescent materials for photonic and biological applications are considered.
Nevertheless, M2M communications pose significant challenges to mobile networks, e.g., due to the expected large number of devices with simultaneous access for sending small-sized data, and a diverse application range.
Provision of biomolecular attachment onto the nanocomposite serves as a possible diverse application of this nanocomposite in various biological systems.
The genomic abundance of microsatellites, and their ability to associate with many phenotypes, make this class of molecular markers a powerful tool for diverse application in plant genetics.
These surveys have either contributed a comprehensive taxonomy of the diverse application domains where the systems have tapped into or have characterized different components of the system platforms.
Sensor array signal processing has played a significant role in many diverse application areas, including sonar, radar, audio engineering, and wireless communication [1].
In fact, BSS plays an important role in many diverse application areas, including medical diagnosis (separation of electroencephalogram signals for instance).
We demonstrate the performance of our method via a set of diverse applications, including a population of sparse cardiac MRI slices with 2D labels, 3D high resolution CT cardiac images and rodent brain MRIs with multiple structures.
They have been used in a number of diverse applications.
This unique method yields the highly structured patterning of gold and other materials on a variety of substrates, with feature sizes ranging from the sub-micron to the nanoscale, enabling a host of diverse applications.
