572 35 2876 3 10325 document 2876 Interface engineering of MXene-reinforced aluminium matrix composites.zip application/zip c2c10f434f3e6a931e6f63cc80a06963 MD5 547518520 2026-07-31 00:30:16 https://bordar.bournemouth.ac.uk/572/6/Interface%20engineering%20of%20MXene-reinforced%20aluminium%20matrix%20composites.zip 572 6 6 application/zip archive Numerical data supporting the figures and results presented in the thesis chapter “Interface Engineering of MXene-Reinforced Aluminium Matrix Composites”. en public cc_by_nd_4

Interface engineering of MXene-reinforced aluminium matrix composites.zip

full_archive 2877 3 10329 document 2877 Interfacial design and electrochemical mechanisms of FeS2rGO composites.zip application/zip a9c52379a0b130690e2fa432f0354f85 MD5 5472980 2026-07-31 00:33:00 https://bordar.bournemouth.ac.uk/572/7/Interfacial%20design%20and%20electrochemical%20mechanisms%20of%20FeS2rGO%20composites.zip 572 7 7 application/zip archive Numerical data supporting the figures and results presented in the thesis chapter “Interfacial Design and Electrochemical Mechanisms of FeS2-rGO Composites”. en public cc_by_nd_4

Interfacial design and electrochemical mechanisms of FeS2rGO composites.zip

full_archive 2878 3 10333 document 2878 Hierarchical interface engineering of FeS2rGO-based flexible textile electrodes.zip application/zip b2b2cb31272c49c20c29bd5610e8777c MD5 5244189 2026-07-31 00:36:31 https://bordar.bournemouth.ac.uk/572/8/Hierarchical%20interface%20engineering%20of%20FeS2rGO-based%20flexible%20textile%20electrodes.zip 572 8 8 application/zip archive Numerical data supporting the figures and results presented in the thesis chapter “Hierarchical Interface Engineering of FeS2-rGO-Based Flexible Textile Electrodes”. en staffonly cc_by_nd_4

Hierarchical interface engineering of FeS2rGO-based flexible textile electrodes.zip

2027-07-01 2027-07-01 full_archive 2879 2 10336 document 2879 Read me.txt text/plain 44ec6a3b08cb796815f1f8feed9aafad MD5 1284 2026-07-31 00:52:13 https://bordar.bournemouth.ac.uk/572/9/Read%20me.txt 572 9 9 text/plain text Documentation describing the organisation, content, file formats, and figure identification of the research data deposited in support of the associated PhD thesis. en public cc_by_nd_4

Read me.txt

full_archive 2880 1 10345 document 2880 indexcodes.txt text/plain 0eb96dcc8e17bad5bbdcf63593b97dd5 MD5 688 2026-07-31 01:02:33 https://bordar.bournemouth.ac.uk/572/10/indexcodes.txt 572 10 10 text/plain other Generate index codes conversion from text to indexcodes en public

indexcodes.txt

http://eprints.org/relation/isVersionOf https://bordar.bournemouth.ac.uk/id/document/2879 http://eprints.org/relation/isVolatileVersionOf https://bordar.bournemouth.ac.uk/id/document/2879 http://eprints.org/relation/isIndexCodesVersionOf https://bordar.bournemouth.ac.uk/id/document/2879 archive 12288 disk0/00/00/05/72 2026-07-31 14:26:30 2026-07-31 14:28:49 2026-07-31 14:26:30 data_collection show Ye Jing s5429490@bournemouth.ac.uk submitted fac_mst Two-dimensional materials; aluminium matrix composites; MXene; reduced graphene oxide; iron sulfide; mechanical properties; energy storage Two-dimensional (2D) materials possess high aspect ratios, tuneable surface chemistry, high electrical conductivity and favourable mechanical properties, making them promising interfacial modifiers for composite systems. However, their tendency to aggregate, restack or lose effective contact with surrounding phases remains a key challenge. The central hypothesis of this thesis is that processing-controlled interfacial assembly can regulate three key interface-related factors: the spatial co-distribution of 2D materials and adjacent functional components, their interfacial contact or coupling, and the structural integrity of 2D nanosheets and constructed interfaces during processing and operation. Controlling these factors is expected to enable more load transfer, more stable conductive pathways and improved electrode integrity. To examine this hypothesis, three representative systems were investigated at different structural levels: reinforcement-matrix interfaces in aluminium matrix composites, active material-conductive network interfaces in conversion-type electrodes, and active material-textile scaffold in flexible electrodes. First, Ti3C2Tx (MXene) was incorporated into aluminium matrices through electrostatic self-assembly followed by high-pressure torsion (HPT) processing. The surface terminations, layered morphology and mildly acidic assembly environment of MXene facilitated its attachment to aluminium powder surfaces, while HPT promoted further nanosheet dispersion and grain refinement. This combined strategy improved microstructural homogeneity and contributed to enhanced hardness and tensile performance. Second, FeS2/reduced graphene oxide (rGO) composites were prepared through scalable ball milling of natural pyrite-derived FeS2 with rGO and evaluated as lithium- and sodium-ion battery electrodes. This process refined the FeS2 particles and promoted -IIIinterfacial contact with rGO, enabling improved electronic connectivity, reduced charge-transfer resistance and enhanced cycling stability in both battery systems. In addition, the cycling-induced evolution of the composite structure, electrode thickness and charge-transfer resistance was analysed to clarify the origins of capacity fluctuation and fading. Third, flexible electrodes were constructed by electrochemically reducing graphene oxide on textile scaffolds, followed by dip-coating FeS2/rGO active materials onto the conductive rGO-textile framework. The rGO-coated textile acted as a flexible conductive scaffold and interfacial mediator, improving active-layer adhesion, enabling high mass loading and maintaining electrochemical performance under bending and cycling. 2026-07-24 submitted Bournemouth University 10.18746/bmth.data.00000572 Experimental numerical data bordar@bournemouth.ac.uk Researcher Ye Jing ye870859657@163.com thesis submitted Bournemouth University Bournemouth University The data were generated through experimental materials characterisation and performance testing conducted as part of the associated PhD research. Numerical measurements were collected, analysed and organised according to the relevant thesis chapters and figures. Full details of the experimental procedures, testing conditions and analytical methods are provided in the corresponding chapters of the thesis. 2023-01-23 2026-01-19