Dr. Heather Yates

School of Science, Engineering and Environment

Photo of Dr. Heather Yates

Contact Details

Newton Building: 267

Please email me for an appointment

ORCID

Current positions

Reader in Physics

Biography

I completed my PhD (Deposition of II-VI semiconductor thin films) at UMIST (1989) where I was one of the first to achieve room temperature blue luminescence of ZnSe1-y Sy based devices.  Since then I have focussed on deposition of thin coatings for a wide range of applications all based on Chemical Vapour Deposition (CVD). These have included the first reported inverse opal systems based on InP and GaP, self-clean, conductive and anti-microbial surfaces. In 1995 I moved to the University of Salford initially as a researcher, becoming a lecturer in 2009 and then appointed as a Reader in 2017.

Over the years I have actively participated and obtained external grant funding, from particularly EU programs to research topics including photonic materials, energy related materials (solar cells, energy save glazing) and infection control coatings.

Areas of research

Energy, PV, Biocidal, CVD, Thin film coatings

Teaching

Teaching

Lecture Courses

Level 7, MPhys Thin Films and Materials Characterisation

Level 7, MPhys Research Methods

Level 4, Physics Laboratory

Level 3, Foundation Physics A

 

Project Supervision

BSc Level 6

MPhys Level 6, 7

MSc/PhD

 

Tutoring

Personal tutor to Level 3 students

Research Interests

Research Interests

My research is based on atmospheric pressure thin film deposition via Chemical Vapour Deposition. The coaters employ thermal, flame and plasma technologies, and multiple precursor delivery technologies including flash evaporation and aerosol.  These are all capable of scale-up and integration into industrial in-line processes.  They are used for producing tailored thin film coatings on a range of materials with added value functional properties. Materials such as glass, metal and depending on the exact process low melting point plastics can be coated. 

CVD technology can be adapted to meet a range of nanostructured coating and surface structures that include abrasion resistant, biocidal, conductive, anti-reflection, thermochromic and hydrophobic materials. There are wide ranging uses of these films from solar cells, energy save window glazing to anti-microbial surfaces. 

Qualifications and Memberships

Qualifications 

  • 1985 BSc (Hons) chemistry (University of Durham).
  • 1989 PhD Preparation of II-VI semiconductors by MOCVD (UMIST).

Memberships

  • 1997 Member CPhys MInstP (Institute of Physics)
  • Salford Innovation Research Centre
  • Salford Anti-Microbial Resistance Network