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This Award Notice opportunity from National Science Foundation was posted on August 11, 2026. The submission period has ended. Browse the details below for market research, or find similar active opportunities.

SBIR Phase I: Selective Thermochemical Delignification for Industrial Cellulose Pulp Production

Awarded
2604675Grant

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This SBIR Phase I project, funded by the National Science Foundation, focuses on the development of a selective thermochemical delignification process to convert herbaceous materials into high-value industrial cellulosic pulp. By utilizing a lower-intensity aqueous cycle at ambient pressure, the project aims to selectively solubilize lignin units while maintaining a high degree of cellulose polymerization. Key technical objectives include validating a proprietary closed-loop catalyst system for chemical recovery and establishing reaction kinetics to ensure consistent fiber strength across various seasonal materials. The commercial goal of this innovation is to provide a more sustainable and cost-effective alternative to traditional pulping methods by significantly reducing energy, chemical, and water consumption. This approach is designed to meet the increasing demand for advanced packaging solutions while protecting manufacturers from resource volatility. Ultimately, the project seeks to create a scalable industrial framework for transforming heterogeneous herbaceous materials into high-performance cellulose substrates.

General Info

NSF-funded project developing sustainable thermochemical delignification to convert herbaceous materials into cellulosic pulp.

Contract Value

$304,968

Place of Performance

CO, USA

Set-Aside

NONE

Award Issued Date

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0

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Timeline

PhaseAwarded
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Awarded

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Organization & Contact Information

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AgencyNational Science Foundation → Start-ups and Small Businesses Section
Contacts1 person available
OfficeN/A

Full Description

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The broader/commercial impact of this Small Business Innovation Research (SBIR) Phase I project is the chemical transformation of herbaceous materials into a high-value industrial cellulosic pulp. Furthermore, this approach to manufacturing cellulosic pulp significantly reduces production costs due to lower energy, chemical, and water requirements compared to traditional technology. It also insulates manufacturers from volatility while meeting the rising commercial demand for advanced packaging solutions. The primary technical innovation of this project is a selective thermochemical delignification process engineered to target the unique molecular architecture of herbaceous materials. While traditional pulping methods are designed for the high recalcitrance of wood lignin, this project utilizes a lower-intensity aqueous cycle to selectively solubilize specific lignin units found in herbaceous materials at ambient pressure. This approach aims to solve the technical challenge of maintaining a high degree of polymerization in herbaceous cellulose while efficiently removing other contaminants through mechanical fractionation. The research goals include validating the chemical recovery efficiency of a proprietary closed-loop catalyst system and establishing the fundamental reaction kinetics required for consistent fiber strength across variable seasonal materials. By successfully demonstrating this selective digestion at scale, the project intends to establish a new framework for the industrial-grade conversion of heterogeneous herbaceous materials into high-performance cellulose substrates. This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

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Miguel
Hillary
Keith Deutsch
Christine

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