Scott Landes
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Scott Landes has a total of 5 co-authors. Here are the top co-authors by number of shared publications:
- Todd Letcher
Mechanical Engineering Department, South Dakota State University, Brookings, SD 57007, USA
3 shared publications - Anamika Prasad
Department of Biomedical Engineering, Florida International University, Miami, FL, USA.
2 shared publications - David L. Ellis1 shared publication
- Paul R. Gradl
NASA Marshall Space Flight Center, Huntsville, USA
1 shared publication - Trupti Suresh Mali1 shared publication
Latest Publications
- Open Access
- 16 July 2021
- Published by ASME International
Investigation of Additive Manufactured GRCop-42 Alloy Developed by Directed Energy Deposition Methods
GRCop is an alloy family constructed of copper, chromium, and niobium and was developed by NASA for high heat flux applications. The first of its kind, GRCop-84, was specifically designed for the environments seen in regeneratively-cooled combustion chambers and nozzles \[1\]. To further increase thermal conductivity while maintaining material strength characteristics, the- 16 July 2021
- Published by ASME International
Open AccessInvestigation of Additive Manufactured GRCop-42 Alloy Developed by Directed Energy Deposition Methods
GRCop is an alloy family constructed of copper, chromium, and niobium and was developed by NASA for high heat flux applications. The first of its kind, GRCop-84, was specifically designed for the environments seen in regeneratively-cooled combustion chambers and nozzles \[1\]. To further increase thermal conductivity while maintaining material strength characteristics, the - Open Access
- 16 July 2021
- Published by ASME International
Nanomechanical Characterization of Additive Manufactured GRCop-42 Alloy Developed by Directed Energy Deposition Methods
Introduction: Aerospace applications such as combustion chambers and liners for rocket engines have an aggressive thermomechanical environment. For example, the combustion chambers of Reusable Launch Vehicle (RLV) can reach temperatures as high as 3315^0^C, the pressure of 20 MPa, sizeable thermal gradient between internal and external surfaces, and repeating thermal stress from
- 16 July 2021
- Published by ASME International
Open AccessNanomechanical Characterization of Additive Manufactured GRCop-42 Alloy Developed by Directed Energy Deposition Methods
Introduction: Aerospace applications such as combustion chambers and liners for rocket engines have an aggressive thermomechanical environment. For example, the combustion chambers of Reusable Launch Vehicle (RLV) can reach temperatures as high as 3315^0^C, the pressure of 20 MPa, sizeable thermal gradient between internal and external surfaces, and repeating thermal stress from
- Open Access
- 26 October 2020
- Published by MDPI AG in Journal of Composites Science
- Vol. 4 (4) , 159
Mechanical Strength of Bamboo Filled PLA Composite Material in Fused Filament Fabrication
Through the past two decades, there has been a continued push for renewable resources and future sustainability of materials and processes. This has prompted more developments of providing environmentally friendly practices and products, both in terms of higher recyclability and greater use of renewable resources. An important area of interest are materials for construction and manufacturing purposes, specifically “green” sustainable reinforcement materials for thermoplastic composite materials. During this time, there has also been an evolution in manufacturing methods. Additive manufacturing (AM) has continued to grow exponentially since its inception for its extensive benefits. This study aims to investigate an additive manufactured composite material that is a greener alternative to other composites that are not reinforced by natural fibers. A bamboo filled polylactic acid (PLA) composite manufactured by fused filament fabrication was evaluated in order to gather mechanical strength characteristics by means of tensile, flexure, compression, impact, and shear tests. In this material, the bamboo reinforcing material and the PLA matrix material can both be sourced from highly renewable resources. In this study, a variety of test samples were manufactured at different manufacturing parameters to be used for mechanical testing. The results were recorded with respect to varying manufacturing parameters (raster angle orientation). It was found that the 0° raster angle orientation performed the best in every category except tensile. Additively manufactured bamboo filled PLA was also seen to have comparable strength to certain traditionally manufactured bamboo fiber reinforced plastics.
- 26 October 2020
- Published by MDPI AG in Journal of Composites Science
- Vol. 4 (4) , 159
Open AccessMechanical Strength of Bamboo Filled PLA Composite Material in Fused Filament Fabrication
Through the past two decades, there has been a continued push for renewable resources and future sustainability of materials and processes. This has prompted more developments of providing environmentally friendly practices and products, both in terms of higher recyclability and greater use of renewable resources. An important area of interest are materials for construction and manufacturing purposes, specifically “green” sustainable reinforcement materials for thermoplastic composite materials. During this time, there has also been an evolution in manufacturing methods. Additive manufacturing (AM) has continued to grow exponentially since its inception for its extensive benefits. This study aims to investigate an additive manufactured composite material that is a greener alternative to other composites that are not reinforced by natural fibers. A bamboo filled polylactic acid (PLA) composite manufactured by fused filament fabrication was evaluated in order to gather mechanical strength characteristics by means of tensile, flexure, compression, impact, and shear tests. In this material, the bamboo reinforcing material and the PLA matrix material can both be sourced from highly renewable resources. In this study, a variety of test samples were manufactured at different manufacturing parameters to be used for mechanical testing. The results were recorded with respect to varying manufacturing parameters (raster angle orientation). It was found that the 0° raster angle orientation performed the best in every category except tensile. Additively manufactured bamboo filled PLA was also seen to have comparable strength to certain traditionally manufactured bamboo fiber reinforced plastics.