Dr. Daniel Saloni is an associate professor in the Department of Forest Biomaterials at North Carolina State University. Before applying to a faculty position at NCSU, he was a laboratory manager and research assistant in the Wood Machining and Tooling Research Program at North Carolina State University. Prior to joining NCSU, he was an assistant professor in the Department of Industrial Engineering and Junior Consultant in UCAB Consulting for five years at Andres Bello Catholic University in Caracas, Venezuela.
Dr. Saloni received his Ph.D. in Wood Science from the Department of Forest Biomaterials and a Master’s degree in Integrated Manufacturing System Engineering at North Carolina State University. He also obtained a bachelor’s degree in Industrial Engineering and a Master’s degree in Project Management at Andres Bello Catholic University.
He has published various papers and participated in several conferences on process improvement, supply chain, biomass and bioenergy conversion and additive manufacturing, which are his major research areas.
Dr. Saloni is currently a affiliated faculty at the Center for Additive Manufacturing and Logistics (CAMAL).
Area(s) of Expertise
Process improvement, supply chain, biomass and bioenergy conversion
- Tuning the Adhesive Properties of Soy Protein Wood Adhesives with Different Coadjutant Polymers, Nanocellulose and Lignin , POLYMERS (2021)
- Characterization of Selected Pyrolysis Products of Diseased Orange Wood , BIORESOURCES (2020)
- Investigation of Bioplastics for Additive Manufacturing , ADVANCES IN ADDITIVE MANUFACTURING, MODELING SYSTEMS AND 3D PROTOTYPING (2020)
- Thermal, Structural, and Mechanical Effects of Nanofibrillated Cellulose in Polylactic Acid Filaments for Additive Manufacturing , BIORESOURCES (2020)
- Novel 3D printing filament composite using diatomaceous earth and polylactic acid for materials properties and cost improvement , COMPOSITES PART B-ENGINEERING (2019)
- Qualitative analysis of the extractives of orange wood , Wood and Fiber Science (2017)
- Improving Housing Conditions from the Crawl Space up with a Monitoring and Control System , Housing and Society (2014)
- US biomass opportunities for value-added biomass exports based on the European Union renewable energy share targets , BioResources (2014)
- Capacity, production, and consumption assessment of the U.S. south Atlantic wood pellet industry , BioResources (2013)
- Evaluation of O/W microemulsions to penetrate the capillary structure of woody biomass: interplay between composition and formulation in green processing , Green Chemistry (2013)
In North Carolina, poultry is the top agricultural industry with an economic impact of more than $37 billion, employing over 146,000 people. Although, the main heating fuel for poultry houses is propane, recent pilot studies in the state have shown that wood pellets may be a cheaper heating fuel. Anecdotal evidence also suggests that wood pellet-heated poultry houses also produce better chicken survival, health, and growth. Our goal is to comprehensively assess the technical and economic feasibility of producing pellets specifically for the poultry industry in the Western NC, where a great proportion of broiler and â€˜backyardâ€™ poultry farms are located. As the economics of poultry farming is heavily dependent on mortality and overall growth/productivity of chicken, we will examine how wood pellet-based heating affects indoor air quality and health of the broiler chickens in the poultry houses. Our project results will demonstrate if this fuel is cost-effective and sustainable for poultry production to facilitate decision-making about poultry house fuel selection. Additionally, our project will generate information about potential income enhancements associated with pellet-based poultry heating.
- Need for a uniform format for herbaceous feedstock - Briquettes and pellets are a great alternative as they provide compacted storage with a longer shelf live paving the way for lower transportation cost and year-round feedstock availability - NC already has X commercial pelletizing facilities that could be leveraged as feeding pipelines to a larger national industry of value-added herbaceous biomass
The main objective of this work is to perform a comprehensive characterization of wood materials based on standardized tests such as mechanical tests, compression under hot-press at various conditions, surface characterization and product inspection. In addition, we will perform a material preparation and conditioning prior to processing to assure consistency throughout the performance of the work. We will utilize equipment and machines listed in the facilities and other resources document.
World energy demand has been continuously increasing, with no indication of slowing down in the coming years. There exists an imperative need for cleaner, sustainable, renewable energy sources that can be locally produced. Biomass is identified as a sustainable long-term plan to reduce the dependency on imported energy and as a national security strategy, and wood pellet is identified as an important biomass product with growing demand and an established expert market mainly in Europe. Many bioenergy-focused field studies conducted by NC State University have shown the efficacy of Populus as short rotation woody crops (SRWC) when clones are matched to site conditions. The objectives of this project are to develop a novel preprocessing during pellet production, assess its effects on the technical feasibility of wood pellet production, and evaluate potential of utilizing Populus clones that are suitable and highly productive in NC for producing the next generation of solid fuels. The expected outcomes include validity of the modified production method to improve the quality of wood pellets and identification of poplar clones for producing high-quality and durable pellets.
This project will develop new sensor technology to directly assess feedstock quality characteristics, including chemical composition that will be coupled with process data in an advanced statistical process control framework, enabling production of consistently high-quality feedstock at reduced cost. With information on feedstock properties available at various points along the supply chain, more accurate cost analysis will be conducted along with life-cycle analysis of the feedstock production systems.
The manufacturing of MDF and HDF with UF resins and PMDI resins results in different machinability of the fiberboards. One method of assessing machinability is edge panel quality after processing with a router. This is illustrated in the photos included. Both adhesives result in boards that meet physical property standards such as IB, TS, MOR and MOE but, it is observed that these boards machine differently. The use of hardwood versus softwood species also influences machinability. Perhaps the resin loading level and distribution of resin on the fiber surface influences machinability. It is important for both resin suppliers and MDF/HDF manufacturers to understand the way these resins interact and adhere to fibers and the how they affect properties like machinability.
The CNR torrefaction machinery at Lake Wheeler Field Laboratory will process up to 6000 lbs. of Miscanthus pellets/Arundo donax grass and unspecified biomass pellets supplied by Jacobs Engineering. These results will be provided to Jacobs as part of an EPA project administered by Jacobs Engineering.
Additive manufacturing is a relatively new manufacturing process by which components are fabricated directly from computer models by selectively depositing and consolidating or curing raw materials in successive layers. Currently, the polymer based additive manufacturing industry mainly uses petroleum based filaments. Traditionally materials such as acrylonitrile butadiene styrene (ABS), polycarbonate, and Nylon are created from petroleum, a limited and nonrenewable resource, and dominate the marketplace for traditional manufacturing methods such as injection molding. Recently, biopolymers that are more sustainable, such as polylactic acid (PLA), have started to gain traction as a competitor to these traditional synthetic polymers. The main goal of this project is to design, evaluate and characterize the use of biopolymers enhanced with cellulose nanofibril (CNF) for additive manufacturing in order to provide more sustainable products. CNF will act as a reinforcing component to increase MOR/MOE, and also change crystallization rates and crystal size. The main outcome of this project will be a clear understanding of the sustainability aspects of enhanced biopolymers with CNF intended for additive manufacturing
Environmental and health concerns on the use of petroleum based adhesives (UF and PF) has pushed the market into other alternatives based on less harmful chemistries, including natural products. Soybean proteins alone have been used for the development of adhesives with main focus on the wood products market. The aim of this work is to evaluate the synergy between soybean proteins and other natural polymers in adhesive formulations for applications in wood composites. One of the advantages of using soybean proteins combined with other natural polymers in adhesive formulations is the synergy between the components in these materials (amino acids in soybean proteins with other polar groups on biopolymers). This could lead to improved interactions that will enhance adhesive properties. In addition, a huge advantage of this work is the use of environmentally friendly solvents (e.g. water), which will help reduce toxic solvents and the associated costs.
This work will begin in September, 2015 and continue through April, 2016. It will provide a small commercial scale demonstration of the supply chain for flue cured tobacco stalk fiber production. In consultation with RJRT for this proposal, NCSU will focus its efforts on the production of tobacco silage at a commercial scale using a contracted forage harvester. This material will be ensiled in one or more large piles using techniques developed over the last two years. Finally the ensiled material will be dried using NCSU developed and fabricated drying equipment. Pith and skin will be separated and sorted from the woody fraction with a forced air system.