We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Characterization of Mycelium Biocomposites under Simulated Weathering Conditions
AI summary Read the abstract
Researchers evaluated a commercially available mycelium-based biocomposite as a sustainable alternative to expanded polystyrene packaging and found it maintained good thermal stability and impact resistance across a range of simulated weathering conditions. While high temperatures caused some structural changes and combined cold and humidity reduced hardness by nearly half, the material's overall performance supports its potential as an eco-friendly packaging substitute.
Expanded polystyrene (EPS) remains a popular packaging material despite environmental concerns such as pollution, difficulty to recycle, and toxicity to wildlife. The goal of this study is to evaluate the potential of an ecofriendly alternative to traditional EPS composed of a mycelium biocomposite grown from agricultural waste. In this material, the mycelium spores are incorporated into cellulosic waste, resulting in a structurally sound biocomposite completely enveloped by mycelium fibers. One of the main criteria for shipping applications is the ability of a material to withstand extreme weather conditions. Accordingly, this study focused on evaluating a commercially available mycelium material before and after exposure to various weathering conditions, including high and low temperatures at different humidity levels. Fourier transform infrared spectroscopy (FTIR) was performed to examine any transformations in the mycelium structure and composition, whereas scanning electron microscopy (SEM) was used to reveal any changes in the morphology. Similarly, thermogravimetric analysis (TGA) and differential scanning calorimetry (DSC) analyses were conducted to evaluate the thermal behavior, whereas mechanical properties were measured by using shore hardness and Izod Impact testing. Although some irreversible changes were observed due to the exposure to high temperatures, the material exhibited good thermal stability and impact resistance. FTIR analysis demonstrated small changes in the biocomposite structure and protein rearrangement as a result of weathering, whereas SEM revealed some cracking in the cellulose substrate. A combination of low temperatures and humidity resulted in significant moisture absorption, as indicated by TGA and DSC. This in turn decreased the hardness of the fibers by nearly 2-fold; however, the impact strength of the entire biocomposite remained unchanged. Overall, these results provide important insight into the structure-property relationships of mycelium-based materials.
More Papers Like This
Pure mycelium materials production from agri‐processing water: Effects of feedstock composition on material properties for packaging applications
AI summary Read the abstract
This study explores producing mycelium-based materials from agricultural processing waste streams as biodegradable alternatives to conventional plastics. Fungal mycelium binds agricultural residues into solid, lightweight structures that can replace single-use plastics or packaging foams. The research demonstrates a circular approach to waste valorization while reducing dependence on petroleum-based plastics.
Textile residue-based mycelium biocomposites from Pleurotus ostreatus
AI summary Read the abstract
Researchers demonstrated that Pleurotus ostreatus mushroom mycelium can grow on textile waste — including polyester-cotton blends — and bind the fibers into lightweight biocomposites with compressive strength of 100–270 kPa, offering a potential bio-based alternative to polystyrene packaging from otherwise unrecyclable fabric scraps.
Low-density, water-repellent, and thermally insulating cellulose-mycelium foams
AI summary Read the abstract
This study developed cellulose-mycelium composite foams through fungal bioconversion of cellulosic matrices, demonstrating that these bio-based materials match fossil-derived polymeric foams on water contact angle, compression strength, and thermal conductivity while exhibiting selective antimicrobial properties. The composites had low densities (0.058–0.077 g/cm³) and high water contact angles (118–140°), representing a promising sustainable alternative to plastic foams with lower carbon impact.
Preparation of fungal biocomposite for environment friendly packaging of plant saplings
AI summary Read the abstract
Researchers grew Pleurotus ostreatus and Ganoderma lucidum fungi on agricultural waste substrates to produce mycelium biocomposites for biodegradable plant sapling packaging, finding that Ganoderma lucidum composites showed superior thermal stability and mechanical strength as a sustainable alternative to plastic packaging.
Study on the Properties and Design Applications of Polyester–Cotton Matrix Mycelium Composite Materials
AI summary Read the abstract
This paper investigates the physical and mechanical properties of polyester materials with the goal of informing their use in design and product applications. It examines characteristics such as tensile strength, flexibility, and durability under various conditions. The results provide practical guidance for designers and engineers selecting polyester for functional or aesthetic applications.
Research digests by email
When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.