PDF

Influence of impurities on the performances of HIPS recycled f 2016 Waste Ma

Didier Perrin, Olivier Mantaux

2026enHIPSplastic recyclingWEEEimpuritiesmechanical propertiespolymer compatibility

Abstract

Language:

In order to produce a high quality recycled material from real deposits of electric and electronic equipment, the rate of impurities in different blended grades of reclaimed materials has to be reduced. Setting up industrial recycling procedures requires to deal with the main types of polymers presents in WEEE (Waste Electric and Electronic Equipment), particularly High Impact Polystyrene (HIPS) as well as other styrenic polymers such as Acrylonitrile-Butadiene-Styrene (ABS), Polystyrene (PS) but also polyolefin which are present into WEEE deposit as Polypropylene (PP). The production of a substantial quantity of recycled materials implies to improve and master the compatibility of different HIPS grades. The influence of polymeric impurities has to be studied since automatic sorting techniques are not able to remove completely these fractions. Investigation of the influence of minor ABS, PS and PP polymer fractions as impurities has been done on microstructure and mechanical properties of HIPS using environmental scanning electron microscopy (ESEM) in order to determine the maximum tolerated rate for each of them into HIPS after sorting and recycling operations.

Download

Cite This Work

@article{7432b97d-8482-45d6-8c73-d4e076d16a0a,
  title={Influence of impurities on the performances of HIPS recycled f 2016 Waste Ma},
  author={Didier Perrin and Olivier Mantaux},
  year={2026},
  language={en}
}
TY  - JOUR
TI  - Influence of impurities on the performances of HIPS recycled f 2016 Waste Ma
AU  - Didier Perrin
AU  - Olivier Mantaux
PY  - 2026
LA  - en
ER  -

Similar Items

Void formation due to gas evolution during the recycling of 2009 Polymer Deg

J.C. Arnold, S. Alston

During processing of recycled ABS and ABS/HIPS blends, voiding defects can occur within the resulting material which can result in deterioration of me

2026enPDF

Towards a more circular economy for WEEE plastics Part B As 2019 Waste Ma

F. Wagner, J.R. Peeters

This two paper series describes a method to develop and evaluate new recycling strategies for WEEE plastics. Part A presents a SWOT analysis that lead

2026enPDF

The use of FTIR mapping to assess phase distribution in mixe 2010 Polymer Te

J.C. Arnold, T. Watson

Attenuated total internal reflection FTIR mapping was used to examine the coarse microscopic two-phase structure seen with some blended and recycled p

2026enPDF

Treatment of manufacturing scrap TV boar

The leachability tests for manufacturing scrap TV boards (STVB) have indicated the release of metals beyond the limit levels with potential problems f

2026enPDF

Does WEEE recycling make sense from an environmental perspe 2005 Environment

R. Hischier, P. Wa¨ger

The production of electrical and electronic equipment (EEE) is one of the fastest growing markets in the world, leading to an expected increase in was

2026enPDF

Constructing an automatic object recognition algorithm using l 2019 Waste Ma

Naohito Hayashi, Shigeki Koyanaka

In an attempt to select an efficient recycling process for waste electrical and electronic equipment based on the value of individual products, we are

2026enPDF