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David P. Norton

Researcher at University of Florida

Publications -  549
Citations -  67855

David P. Norton is an academic researcher from University of Florida. The author has contributed to research in topics: Thin film & Pulsed laser deposition. The author has an hindex of 92, co-authored 549 publications receiving 66007 citations. Previous affiliations of David P. Norton include Harvard University & Louisiana State University.

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Journal Article

Having trouble with your strategy? Then map it.

TL;DR: The authors show step by step how the Mobil division used the map to transform itself from a centrally controlled manufacturer of commodity products to a decentralized, customer-driven organization.
Journal Article

Measuring the Strategic Readiness of Intangible Assets

TL;DR: The creators of the Balanced Scorecard draw on its tools and framework--in particular, a tool called the strategy map--to present a step-by-step way to determine "strategic readiness," which refers to the alignment of an organization's human, information, and organization capital with its strategy.
Journal ArticleDOI

Wide band gap ferromagnetic semiconductors and oxides

TL;DR: In this paper, a review focusing on promising candidate materials (such as GaN, GaP and ZnO) is presented, where the introduction of Mn into these and other materials under the right conditions is found to produce ferromagnetism near or above room temperature.
Journal ArticleDOI

High critical current density superconducting tapes by epitaxial deposition of YBa2Cu3Ox thick films on biaxially textured metals

TL;DR: Deposited conductors made using this technique offer a potential route for the fabrication of long lengths of high‐Jc wire capable of carrying high currents in high magnetic fields and at elevated temperatures.
Journal Article

High critical current density superconducting tapes by epitaxial deposition of YBa2Cu3Ox thick films on biaxially textured metals

TL;DR: In this article, a method to obtain long lengths of flexible, biaxially oriented substrates with smooth, chemically compatible surfaces for epitaxial growth of high-temperature superconductors is reported.