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The potential of fly ash-based calcium silicate as paper filler: Physical properties and printability

The potential of fly ash-based calcium silicate as paper filler: Physical properties and printability, TAPPI JOURNAL October 2014

Chemicals Play Key Role in Food Packaging, Paper360º January/February 2020

Chemicals Play Key Role in Food Packaging, Paper360º January/February 2020

Effect of conductivity on paper and board machine performanc

Effect of conductivity on paper and board machine performance— a review and new experiences, TAPPI JOURNAL October 2017

World’s Most Northerly Paper Mill Makes Sustainable Choices, Paper360º January/February 2024

Coatings for sustainable paper-based flexible packaging: Barrier properties and processability, TAPPI Journal November 2022

ABSTRACT: In this study, the use of waterborne barrier dispersions from trademarked BLUEWAVE Mechanical Dispersion Technology as thin coatings for paper-based flexible packaging was investigated. Prototypes were designed and examined for their performance in process, rheology, barrier, heat-seal/hot-tack, and coefficient of friction (CoF). Compositional details such as the type and amount of base resins and dispersants were found to significantly impact performances and were key to the development of new prototypes that deliver the performance profiles for implementation in paper-based flexible packaging applications.

Practical Strategies to Reduce Pulp and Paper Mill Energy Use, Paper360º July/August 2018

Practical Strategies to Reduce Pulp and Paper Mill Energy Use, Paper360º July/August 2018

Industrial Internet Delivers Optimized Mill Performance, Low

Industrial Internet Delivers Optimized Mill Performance, Lower Costs, Paper360º March/April 2017

A true green cover for industrial waste landfills, TAPPI Journal April 2024

ABSTRACT: Greenhouse gas (GHG) emissions in the United States totaled 5,981 million metric tons of carbon dioxide equivalent (MMT CO2eq) in 2020. Of that, GHG emissions by the pulp and paper sector amounted to 35 MMT CO2eq direct emissions and those by industrial waste landfills summed to 7.4 MMT CO2eq direct emissions. Loss of GHG sinks due to change in land use further contributes to the net GHG emissions. Industrial waste landfills are typically required to comply with certain federal and state regulations, including meeting requirements for final cover systems. Conventional final cover systems have included use of soil covers and/or soil-geosynthetic composite covers. An engineered turf cover provides for an excellent “green” alternative final cover system for industrial waste landfills.This paper discusses various sustainability aspects pertaining to use of an engineered turf final cover, including: (i)significantly low carbon footprint associated with the construction of an engineered turf alternative final coverwhen compared to closure using a traditional or prescriptive cover system; (ii) saving valuable soil and land resourc-es; (iii) saving water resources by reduction in its use during and after construction; (iv) reducing impacts associated with borrow areas; and (v) reducing overall carbon footprint. Further, when using an engineered turf cover, opportunities exist for beneficial reuse of land, including development of solar energy. A brief discussion on the potential fordevelopment of solar energy is included.

TAPPI Journal, Paper360º January/February 2023

TAPPI Journal Summaries, Paper360º March/April 2023

TAPPI Journal Summaries, Paper360º March/April 2023