CircularBioMat

Publikationen: Beitrag in Buch/Bericht/KonferenzbandBeitrag in Konferenzband

Standard

CircularBioMat. / Schuschnigg, Stephan; Holzer, Clemens.
32nd Leoben-Conference on Polymer Engineering and Science. Hrsg. / Thomas Griesser; Elisabeth Ladstätter. Band 13 Leoben, 2024. S. 223.

Publikationen: Beitrag in Buch/Bericht/KonferenzbandBeitrag in Konferenzband

Harvard

Schuschnigg, S & Holzer, C 2024, CircularBioMat. in T Griesser & E Ladstätter (Hrsg.), 32nd Leoben-Conference on Polymer Engineering and Science. Bd. 13, Leoben, S. 223, 32nd Leoben-Conference on
Polymer Engineering and Science, Leoben, Österreich, 21/11/24.

APA

Schuschnigg, S., & Holzer, C. (2024). CircularBioMat. In T. Griesser, & E. Ladstätter (Hrsg.), 32nd Leoben-Conference on Polymer Engineering and Science (Band 13, S. 223).

Vancouver

Schuschnigg S, Holzer C. CircularBioMat. in Griesser T, Ladstätter E, Hrsg., 32nd Leoben-Conference on Polymer Engineering and Science. Band 13. Leoben. 2024. S. 223

Author

Schuschnigg, Stephan ; Holzer, Clemens. / CircularBioMat. 32nd Leoben-Conference on Polymer Engineering and Science. Hrsg. / Thomas Griesser ; Elisabeth Ladstätter. Band 13 Leoben, 2024. S. 223

Bibtex - Download

@inproceedings{404f201421034c859fb2b7a179b33860,
title = "CircularBioMat",
abstract = "In the CircularBioMat project we want to minimize the environmental footprint by substitutingpetroleum-based polymers with bio-based polymers for building services engineering. Wealso want to improve the resource efficiency and bring the materials into a circular economy.To do this, we need to develop a catalogue of requirements, taking into account the currentstandards for the construction industry. First, we evaluate the existing materials and thenwe can select bio-based or recycled polymers. These are processed using standard techno-logies such as injection moulding and extrusion, but also using Additive Manufacturing viaMaterial Extrusion (MEX). During these trials, the power supply and the amount of coolingwater will be measured to provide better data for the Life Cycle Assessment (LCA). The LCAwill then show how the different materials perform in respect to the carbon footprint.As a first step, we have selected bio-based polymers that are expected to perform well com-pared to the petroleum-based polymers. All materials are characterised at the Institute ofPolymer Processing using the High Pressure Capillary Rheometer for viscosity, DifferentialScanning Calorimetry for thermal properties and pvT measurements (specific volume as afunction of pressure (p) and temperature (T)).",
author = "Stephan Schuschnigg and Clemens Holzer",
year = "2024",
month = nov,
day = "21",
language = "English",
volume = "13",
pages = "223",
editor = "Thomas Griesser and Elisabeth Ladst{\"a}tter",
booktitle = "32nd Leoben-Conference on Polymer Engineering and Science",
note = "32nd Leoben-Conference on<br/>Polymer Engineering and Science, LKK 32 ; Conference date: 21-11-2024 Through 22-11-2024",

}

RIS (suitable for import to EndNote) - Download

TY - GEN

T1 - CircularBioMat

AU - Schuschnigg, Stephan

AU - Holzer, Clemens

PY - 2024/11/21

Y1 - 2024/11/21

N2 - In the CircularBioMat project we want to minimize the environmental footprint by substitutingpetroleum-based polymers with bio-based polymers for building services engineering. Wealso want to improve the resource efficiency and bring the materials into a circular economy.To do this, we need to develop a catalogue of requirements, taking into account the currentstandards for the construction industry. First, we evaluate the existing materials and thenwe can select bio-based or recycled polymers. These are processed using standard techno-logies such as injection moulding and extrusion, but also using Additive Manufacturing viaMaterial Extrusion (MEX). During these trials, the power supply and the amount of coolingwater will be measured to provide better data for the Life Cycle Assessment (LCA). The LCAwill then show how the different materials perform in respect to the carbon footprint.As a first step, we have selected bio-based polymers that are expected to perform well com-pared to the petroleum-based polymers. All materials are characterised at the Institute ofPolymer Processing using the High Pressure Capillary Rheometer for viscosity, DifferentialScanning Calorimetry for thermal properties and pvT measurements (specific volume as afunction of pressure (p) and temperature (T)).

AB - In the CircularBioMat project we want to minimize the environmental footprint by substitutingpetroleum-based polymers with bio-based polymers for building services engineering. Wealso want to improve the resource efficiency and bring the materials into a circular economy.To do this, we need to develop a catalogue of requirements, taking into account the currentstandards for the construction industry. First, we evaluate the existing materials and thenwe can select bio-based or recycled polymers. These are processed using standard techno-logies such as injection moulding and extrusion, but also using Additive Manufacturing viaMaterial Extrusion (MEX). During these trials, the power supply and the amount of coolingwater will be measured to provide better data for the Life Cycle Assessment (LCA). The LCAwill then show how the different materials perform in respect to the carbon footprint.As a first step, we have selected bio-based polymers that are expected to perform well com-pared to the petroleum-based polymers. All materials are characterised at the Institute ofPolymer Processing using the High Pressure Capillary Rheometer for viscosity, DifferentialScanning Calorimetry for thermal properties and pvT measurements (specific volume as afunction of pressure (p) and temperature (T)).

M3 - Conference contribution

VL - 13

SP - 223

BT - 32nd Leoben-Conference on Polymer Engineering and Science

A2 - Griesser, Thomas

A2 - Ladstätter, Elisabeth

CY - Leoben

T2 - 32nd Leoben-Conference on<br/>Polymer Engineering and Science

Y2 - 21 November 2024 through 22 November 2024

ER -