X-ray Diffraction Facility

Position
Experimental facilities

About the facility 

Our X-ray Diffraction (XRD) Facility is the ideal first step in any materials characterisation journey. This technique is used to confirm and quantify the chemical phases present within a crystalline material, with high-throughput options available. We can apply XRD to characterise samples from a variety of industries, such as pharmaceuticals, sustainable construction materials and next-generation electronics.

If you’re a business, learn about accessing our facilities.

Available equipment 

  • Malvern Panalytical Empyrean Multicore Diffractometer for high-throughput standard powder XRD experiments with a 45 samples changer. Equipped with non-ambient sample chambers enabling both heating and cooling experiments. Compatible with a wide range of sample mounting, sample types and modes, such as reflection, transmission, grazing incidence, reflectivity and pole figure. 
  • Malvern Panalytical Aeris Diffractometer for high-throughput powder XRD with six samples changer. High-quality phase identification and quantification. 
  • Malvern Panalytical Empyrean Series 2 Diffractometer configured with focusing mirrors for molybdenum (Mo) and silver (Ag) radiation and a Galipix3D detector with cadmium telluride (CdTe) sensor, enabling pair distribution function data collection. 
  • Analysis suite for data processing, featuring software such as HighScore Plus, TOPAS, X’pert Texture and AMASS, and an annually updated International Centre for Diffraction Data (ICDD) database with more than 1 million powder diffraction reference files. 

Capabilities and applications 

Strain, texture, and residual stress analysis 

For analysing imperfections in a crystalline material.

Example applications:  

  • evaluating mechanical deformation in aerospace alloys
  • assessing texture evolution during forming in automotive sheet metals
  • quantifying residual stresses in additively manufactured components.

In-situ temperature-controlled studies of phase transitions

Using a dedicated temperature‑control module to observe temperature‑induced phase transitions (structural changes) and simulate real‑world operating conditions.  

Example applications: 

  • tracking transformations in steels 
  • monitoring order-disorder or polymorphic transitions in functional ceramics 
  • probing dehydration and recrystallisation in catalysts during thermal cycling 
  • probing polymorphic transitions in pharmaceuticals.

Quantitative phase analysis  

For determining the relative proportions of crystalline phases in multiphase materials. 

Example applications:  

  • monitoring phase balance in cement and clinker during production 
  • assessing phase purity in synthesised battery cathode materials, pharmaceuticals, ceramics 
  • tracking reaction progress during solid‑state synthesis.

Phase identification

Using diffraction patterns to determine the crystalline phases present in unknown or complex samples.  

Example applications:  

  • identifying corrosion products in alloys 
  • confirming phase formation in novel functional materials 
  • detecting contaminants or unexpected phases in industrial powders. 

X‑ray reflectometry (XRR) 

For measuring thin‑film thickness, density and interfacial roughness.  

Example applications:  

  • characterising oxide or nitride coatings in microelectronics 
  • determining density gradients in battery electrode thin films 
  • evaluating protective coatings used in optical and photovoltaic devices.

Grazing‑incidence X‑ray diffraction (GIXRD) 

For analysing crystalline structure in thin films and surface layers. 

Example applications:  

  • probing texture and grain size in sputtered metallic coatings 
  • characterising surface crystallisation in sol‑gel films 
  • studying near‑surface phases in catalytic and sensor materials. 

Pair distribution function (PDF) analysis 

For characterising amorphous and nanocrystalline materials with short‑range order. 

Example applications:  

  • resolving atomic‑scale structure in battery electrode materials during cycling (ex-situ) 
  • evaluating catalytic glasses and gels used in chemical processing 
  • understanding local arrangement in pharmaceutical formulations.

Images

Exterior view of the diffractometer, a large white cabinet with two closed glass doors, alongside a smaller white Multicore Diffractometer, a rectangular white metal piece of equipment with a control panel screen, on top of a waist-height table.
Malvern Panalytical Empyrean Diffractometer
Close-up interior view of the diffractometer, showing multiple white detector and optical modules mounted at angles around a circular goniometer, with visible cables, mechanical arms, and precision stages inside a grey enclosed chamber.
Close-up of Malvern Panalytical Empyrean Diffractometer
Interior view of the diffractometer, showing its mounted detector head, precision mechanical stages and metal components inside an enclosed chamber.

Malvern Panalytical Aeris Diffractometer