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Benjamin T. Hogan

Researcher at University of Oulu

Publications -  29
Citations -  229

Benjamin T. Hogan is an academic researcher from University of Oulu. The author has contributed to research in topics: Thin film & Graphene. The author has an hindex of 7, co-authored 26 publications receiving 126 citations. Previous affiliations of Benjamin T. Hogan include Science and Technology Facilities Council & University of Exeter.

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Multi-layer graphene as a selective detector for future lung cancer biosensing platforms

TL;DR: It is demonstrated that an advanced e-nose approach integrated with MLG electrodes has significant potential as a design concept for utilization of molecular detection at variable concentrations such as in early-stage disease diagnosis.
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3D Mueller matrix mapping of layered distributions of depolarisation degree for analysis of prostate adenoma and carcinoma diffuse tissues.

TL;DR: In this article, a 3D Mueller matrix polarimeter was used to map the degree of depolarization in prostate tumor tissues using a reference laser beam with the interference pattern of the sample in the image plane.
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Mechanochemical synthesis of carbon-stabilized Cu/C, Co/C and Ni/C nanocomposites with prolonged resistance to oxidation.

TL;DR: This approach demonstrates an environmentally friendly method of mechanochemistry for controllable synthesis of metal-carbon nanocomposites, which possess attractive physical-chemical properties compared to their macroscopic counterparts.
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Embossed topographic depolarisation maps of biological tissues with different morphological structures.

TL;DR: In this paper, the authors used a polarisation-holographic Mueller matrix method to estimate the depolarization of biological tissues. But they focused on the distribution of the first to fourth order statistical moments, which characterised the changing distributions of depolarisation values through the volume of biological tissue with different morphological structures.
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Dynamic in-situ sensing of fluid-dispersed 2D materials integrated on microfluidic Si chip

TL;DR: An ultra-high signal sensitivity to the xyz alignment of 2D flakes within the optofluidic waveguide enables precise in-situ alignment detection, for the first practicable realisation of 3D photonic microstructure shaping based on 2D-fluid composites and CMOS photonics platform, while also representing a useful technological tool for the control of liquid phase deposition of2D materials.