プロフィール詳細

プロジェクトを作成

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Dr. Tone D.に依頼

United States

ChE PhD, Expert in FEA, Thermomechanical and Thermochemical Characterization

プロフィール概要

I am an expert in thermochemical and thermomechanical characterization as well as Finite Element simulation (with a particular focus on heat transfer). Between publications, presentations, and experience in industry, I have experience communicating complex, highly technical information and data to audiences ranging from laypeople to academics to businesses.

専門分野

• ☆ Engineering Thermodynamics/Thermophysical Engineering
• ☆ Chemical Engineering
• ☆ Chemical Manufacturing
• ☆ Reactor Design
• ☆ Heat Transfer & Calorimetry
• ☆ Industrial Engineering
• ☆ Manufacturing
• ☆ Lean Manufacturing
• ☆ Manufacturing Optimization
• ☆ Data Analysis
• ☆ Computer Simulation/Computational Modeling
• ☆ Data Processing
• ☆ Data Exploration
• ☆ Data Visualization
• ☆ Statistics
• ☆ Regression Analysis
• ☆ Multivariate Analysis
• ☆ Nonlinear Regression
• ☆ Mass Transfer
• ☆ Applied Mathematics
• ☆ Mathematical Models
• ☆ Device Fabrication
• ☆ Product Design
• ☆ CAD & 3D Modeling
• ☆ Hypothesis
• ☆ Peer Review
• ☆ Research Methodology
• ☆ Fact Checking
• ☆ Literature Search
• ☆ Presentation Design
• ☆ Technical & Scientific Writing
• ☆ Manuscript & Journal Article Writing
• ☆ SOP & Protocol Writing
• ☆ Scientific Proofreading & Editing
• ☆ 3D Printing/Additive Manufacturing

サービス

• Writing
• Research
• Consulting
• Data & AI

Writing Technical Writing

Research Fact Checking, Scientific and Technical Research

Consulting Scientific and Technical Consulting

Data & AI Data Visualization, Data Processing, Data Insights

職務経験

Research and Development Engineer

Carbon Composites Inc.

1月 2023 - 6月 2024

Senior Validation Specialist

MilliporeSigma

1月 2021 - 9月 2022

学歴

PhD (Chemical Engineering)

Worcester Polytechnic Institute

8月 2014 - 現在

Bachelor of Science (Chemical Engineering)

University of New Hampshire

8月 2010 - 5月 2014

認定資格

• 認定資格の詳細は未入力です。

出版物

JOURNAL ARTICLE

Tone D’Amico, Amy M. Peterson(2020). Bead parameterization of desktop and room-scale material extrusion additive manufacturing: How print speed and thermal properties affect heat transfer . Additive Manufacturing. 34. Microsoft.AspNetCore.Mvc.Localization.LocalizedHtmlString 101239. Elsevier {BV}

(2019). Harnessing irreversible thermal strain for shape memory in polymer additive manufacturing . Journal of Applied Polymer Science.

(2019). Micromechanical modeling of irreversible thermal strain . Additive Manufacturing.

Tone D’Amico, Connor Barrett, Joseph Presing, Amy M. Peterson(2019). Micromechanical modeling of irreversible thermal strain . Additive Manufacturing. 27. Microsoft.AspNetCore.Mvc.Localization.LocalizedHtmlString 91--98. Elsevier {BV}

Anthony D’Amico and Amy M. Peterson(2018). An adaptable FEA simulation of material extrusion additive manufacturing heat transfer in 3D . Additive Manufacturing. 21. Microsoft.AspNetCore.Mvc.Localization.LocalizedHtmlString 422 - 430.

Effect of layer thickness on irreversible thermal expansion and interlayer strength in fused deposition modeling @article{doi:10.1108/RPJ-05-2016-0077, author= {Anthony A. D’Amico and Analise Debaie and Amy M. Peterson}, title= {Effect of layer thickness on irreversible thermal expansion and interlayer strength in fused deposition modeling}, journal= {Rapid Prototyping Journal}, volume= {23}, number= {5}, pages= {943-953}, year= {2017}, doi= {10.1108/RPJ-05-2016-0077}, URL= {https://doi.org/10.1108/RPJ-05-2016-0077 }, eprint= {https://doi.org/10.1108/RPJ-05-2016-0077 }, abstract= {Purpose The aim of this paper is to examine the impact of layer thickness on irreversible thermal expansion, residual stress and mechanical properties of additively manufactured parts. Design/methodology/approach Samples were printed at several layer thicknesses, and their irreversible thermal expansion, tensile strength and flexural strength were determined. Findings Irreversible thermal strain increases with decreasing layer thickness, up to 22 per cent strain. Tensile and flexural strengths exhibited a peak at a layer thickness of 200 μm although the maximum was not statistically significant at a 95 per cent confidence interval. Tensile strength was 54 to 97 per cent of reported values for injection molded acrylonitrile butadiene styrene (ABS) and 29 to 73 per cent of those reported for bulk ABS. Flexural strength was 18 to 41 per cent of reported flexural strength for bulk ABS. Practical implications The large irreversible thermal strain exhibited that corresponding residual stresses could lead to failure of additively manufactured parts over time. Additionally, the observed irreversible thermal strains could enable thermally responsive shape in additively manufactured parts. Variation in mechanical properties with layer thickness will also affect manufactured parts. Originality/value Tailorable irreversible thermal strain of this magnitude has not been previously reported for additively manufactured parts. This strain occurs in parts made with both high-end and consumer grade fused deposition modeling machines. Additionally, the impact of layer thickness on tensile and flexural properties of additively manufactured parts has received limited attention in the literature. }} . Rapid Prototyping Journal.

Oxidation Kinetics of Oil Shale Semicokes: Reactivity as a Function of Pyrolysis Temperature and Shale Origin @article{doi:10.1021/ef3015052, author= {Jillian L. Goldfarb and Anthony D’Amico and Christopher Culin and Eric M. Suuberg and Indrek Külaots}, title= {Oxidation Kinetics of Oil Shale Semicokes: Reactivity as a Function of Pyrolysis Temperature and Shale Origin}, journal= {Energy \& Fuels}, volume= {27}, number= {2}, pages= {666-672}, year= {2013}, doi= {10.1021/ef3015052}, URL= {http://dx.doi.org/10.1021/ef3015052 }, eprint= {http://dx.doi.org/10.1021/ef3015052 }} . Energy & Fuels.