Dr. Aris Thorne

Dr. Thorne holds a Ph.D. in Polymer Science and specializes in the tensile strength and thermal properties of interlocking yarn structures (crochet mechanics). Former researcher at the Institute of Advanced Textiles.

Rheological and Morphological Evolution of Shear-Thickening Fluid Impregnated Kevlar Fabrics Under High-

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Introduction to Active Nanocomposite Textiles The engineering of advanced ballistic protection systems has historically relied on the passive mechanical properties of high-performance polymeric fibers. Poly-paraphenylene terephthalamide, commercially known as Kevlar, has long been the gold standard in this domain due to its exceptional specific tensile strength, high elastic modulus, and remarkable thermal stability. These properties … Read more

Interfacial Shear Strength and Matrix Adhesion Dynamics in Silane-Treated Glass Fiber Rovings

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Introduction to Glass Fiber Rovings and Interfacial Adhesion The structural efficacy of glass fiber reinforced polymers (GFRP) is fundamentally contingent upon the efficiency of stress transfer between the high-modulus inorganic reinforcing fibers and the relatively compliant organic polymer matrix. Glass fiber rovings, which consist of thousands of continuous, parallel filaments bundled together without twist, offer … Read more

Energy Absorption and Impact Dynamics in Hierarchical Weft-Knitted Auxetic Metamaterials

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Introduction to Weft-Knitted Auxetic Metamaterials The pursuit of advanced impact-resistant materials has increasingly focused on the unique mechanical properties of auxetic metamaterials. Characterized by a negative Poisson’s ratio, these structures exhibit the counter-intuitive behavior of expanding transversely when subjected to longitudinal tension, and conversely, contracting transversely under compression. When this auxetic behavior is engineered into … Read more

Micro-Mechanical Characterization of Shape-Memory Polyurethane (SMPU) Yarns Under Cyclic Tensile Loading

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Introduction to Shape-Memory Polyurethanes (SMPUs) The advent of smart materials has fundamentally transformed the landscape of advanced textile engineering, shifting the paradigm from passive structural reinforcement to active, stimuli-responsive fibrous networks. At the vanguard of this technological evolution are Shape-Memory Polyurethanes (SMPUs). These advanced elastomeric polymers possess the extraordinary ability to be deformed into a … Read more

Strain-Rate Dependency of Crystalline Morphology in Melt-Spun Polypropylene Fibers

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Introduction to Melt-Spun Polypropylene Polypropylene (PP) is a ubiquitous thermoplastic polymer utilized extensively in the advanced textile industry due to its low density, excellent chemical resistance, and highly tunable mechanical properties. The melt-spinning process, the primary method for producing continuous PP filaments, involves the extrusion of molten polymer through a spinneret, followed by rapid cooling … Read more

Topology Optimization of 3D-Woven Preforms for Enhanced Out-of-Plane Impact Resistance

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Introduction to 3D-Woven Preforms The engineering of advanced composite materials for aerospace, ballistic, and high-performance automotive applications has historically relied on two-dimensional laminated structures. While these materials offer exceptional in-plane specific strength and stiffness, their susceptibility to out-of-plane impact and subsequent delamination remains a critical structural vulnerability. To address this, the field of textile engineering … Read more

Thermomechanical Degradation Kinetics in Basalt Fiber Reinforced Polymer (BFRP) Matrices Under Sustained Tensile Loads

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Introduction to BFRP Thermomechanical Dynamics Basalt Fiber Reinforced Polymer (BFRP) composites have emerged as a highly sustainable and cost-effective alternative to traditional carbon and glass fiber composites. Extracted from naturally occurring volcanic rock, basalt fibers possess excellent tensile strength, high chemical resistance, and a significantly broader operational temperature range than standard E-glass fibers. The unique … Read more

Geometric Frustration and Defect Propagation in Kagome-Lattice Crocheted Metamaterials

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Introduction to Kagome-Lattice Metamaterials The architectural translation of the Kagome lattice—a trihexagonal tiling traditionally studied in the context of condensed matter physics and quantum spin liquids—into macroscopic crocheted metamaterials represents a frontier in advanced structural engineering. A Kagome lattice is composed of interlaced triangles and hexagons, creating a highly coordinated network that is inherently predisposed … Read more

Kinematic Modeling of Jamming Phase Transitions in Densely Packed Crocheted Metamaterials

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Introduction to Crocheted Metamaterials and Topological Interlocking The field of mechanical metamaterials has witnessed a paradigm shift with the introduction of topologically interlocked fibrous networks. Unlike conventional composite materials, where macroscopic mechanical properties are dictated by the intrinsic chemical composition and the adhesive bonding of the constituent phases, mechanical metamaterials derive their anomalous behaviors from … Read more

Thermodynamic Dissipation and Load-Bearing Efficacy of Aramid-Infused Textile Composites Under Cyclic Fatigue

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Introduction to Aramid-Infused Composites Aramid fibers, characterized by their highly oriented rigid polymer chains and aromatic polyamide molecular structure, exhibit exceptional specific strength, high tensile modulus, and remarkable thermal stability. When infused into polymeric matrices to form advanced textile composites, these fibers create a structural architecture capable of withstanding extreme mechanical and thermal stresses. However, … Read more