Sciences

Red mud industrial waste was used as a filler in polymer composites extruded with a Rondol 21 mm twin-screw extruder, with DOE methodology optimizing tensile strength.

Sustainable vegan leather alternatives were produced from fungal biomass grown on food waste, hot-pressed with Rondol equipment into flexible multilayer composites.

Polypropylene biocomposites reinforced with hydroxyapatite and carbon nanotubes were developed using Rondol twin-screw extrusion, demonstrating improved mechanical properties for structural or biomedical applications.

Oligomeric lactic acid was used as a plasticizer to maintain PHBV properties during mechanical recycling, processed through extrusion for circular biopolymer use.

A novel dual dynamic network polyolefin was processed using a Rondol vertical twin-screw extruder, enabling self-healing and reprocessable material properties.

PLA/PBAT/clay nanocomposites were processed using a Rondol microcompounder, with machine learning models predicting optimal structure-property relationships.

PLA films with combined antimicrobial treatments were extruded and evaluated for active packaging applications with improved bacterial barrier performance.

LDPE films for food packaging were modified with zeolite and nanoclay using a Rondol 21 mm extruder, improving barrier and thermal properties for extended shelf life.

Pressure-sensitive polyisoprene/carbon black composites were hot-pressed with Rondol equipment, demonstrating capacitance-based sensing for flexible electronics.

Recycled polyamide 6 fibres were enhanced with ZnO nanoparticles via melt spinning on a Rondol 21 mm extruder, improving properties for circular economy textile applications.

Nanosilica's stabilizing role in PLA/PBAT blends was assessed after extrusion processing, demonstrating improved thermal stability for biodegradable packaging.

Extensional rheology of biodegradable polymers processed by extrusion was studied to predict film blowing processability, guiding material selection for packaging.

PLA active films combining gamma irradiation and antimicrobial agents were produced by extrusion, offering enhanced food safety performance.

Extruded plastic indicator films for real-time CO2 monitoring in aquatic environments were produced using a Rondol Microlab extruder, enabling low-cost environmental sensing.

Pharmaceutical eutectic systems were formed in situ within a polymer matrix using hot-melt reactive extrusion on a Rondol Microlab extruder, enhancing drug solubility.

Bioresorbable 3D scaffolds of PLLA/PCL/PHBV with nano-hydroxyapatite were produced by melt extrusion, showing strong osteogenic activity for bone tissue engineering.

Nylon 6 nanocomposites with graphene oxide were melt-blended using extrusion, achieving improved tensile and impact strength for engineering applications.

Biobased polyamide reinforced with cellulose nanofillers was processed by extrusion, yielding sustainable nanocomposites with enhanced mechanical and thermal properties.

Electrical percolation thresholds of PLA/CNT composites prepared by extrusion were theoretically modeled across DC and radiofrequency regimes for electronics applications.

PMMA composites incorporating hydroxyapatite, ZnFe2O4 and ZnO were extruded to produce antibacterial materials with low cytotoxicity for biomedical surfaces.

Solid-state polymerization was used to restore PHBV properties after degradation during extrusion, supporting the use of this biopolymer in sustainable packaging.

Rondol twin-screw extrusion was used to produce amorphous solid dispersions of BCS Class II drugs, significantly enhancing dissolution and oral bioavailability.

Hot melt extrusion using a Rondol extruder improved dissolution rate and intestinal absorption of the poorly soluble drug hydrochlorothiazide.

Foam properties of PE/EVA/CNT composites were tailored by controlling CNT localization during extrusion foaming, enabling lightweight structural materials.

Functional polymer composites for 3D printing of static mixers were compounded by extrusion and characterized for thermal and mechanical performance in process engineering.

Carbonaceous nanofillers were used to modify PLA foam crystallization kinetics during extrusion foaming, improving foam morphology for lightweight packaging.

Nylon 6 nanocomposites with graphene nanoplatelets were melt-blended by extrusion, achieving significant improvements in stiffness and toughness for engineering parts.

Extruded TiO2-loaded plastic films were shown to photocatalytically inactivate viruses under UV light, offering low-cost disinfection surfaces for healthcare environments.

PLA/TiO2 masterbatch produced with a Rondol extruder was 3D printed into photocatalytic flow reactors, enabling affordable solar-driven water decontamination.

PCL chains were confined within SBA-15 nanochannels via extrusion processing, creating nanocomposites with unique structural characteristics for drug delivery applications.

Binary and ternary blends of PLLA with PCL and PHBV were produced by extrusion, optimizing thermal and mechanical balance for sustainable packaging or biomedical use.

Graphene nanofibers were incorporated into metallocene iPP by extrusion, improving crystallization behavior and mechanical properties of isotactic polypropylene nanocomposites.

Tri-layer active packaging films from recycled PLA and yerba mate nanoparticles were extruded, combining antioxidant function with circular material sourcing.

PLA/SBA-15 mesoporous silica composites were extruded to study crystallization behavior and polymorphism, relevant for controlled-release and packaging applications.

Leather-like textiles were produced from fungal biomass grown on bread waste and hot-pressed with Rondol equipment, offering a fully circular bio-based alternative.

PLA/carbon nanoparticle composite filaments were extruded and used in 3D-printed sensor structures, enabling low-cost piezoresistive sensing applications.

Magnetite nanoparticles were dispersed in PLA and PS matrices by melt extrusion, producing magnetically responsive composites for smart material applications.

POSS nanoparticles were melt-blended into PLA by extrusion to study filler content effects on thermal stability and mechanical behavior for packaging or medical uses.

Nano-tungsten was incorporated into EVA by extrusion to evaluate thermal conductivity and stability for shielding and high-temperature industrial applications.

Organic fillers were incorporated into mechanically recycled PLA via extrusion to compensate property losses and extend the material's useful lifecycle.

The feasibility of locally recycling PLA 3D printing waste by extrusion was evaluated, supporting decentralized circular economies for additive manufacturing.

Carbon-loaded PLA filaments were extruded and 3D-printed into lossy photonic crystal structures, investigating the role of electrical conductivity in microwave absorption.

Silk fibroin nanoparticles were incorporated into PLA/PCL blends by extrusion, significantly improving toughness and dynamic mechanical properties for packaging and biomedical films.

PLA nanocomposite foams were produced by extrusion with various nanofillers and blowing agents, enabling lightweight biodegradable packaging with controlled cell structure.

Agave bagasse waste was compounded with PLA by extrusion to produce bio-based composites, demonstrating agricultural waste valorization for lightweight parts.

Yerba mate-derived nanoparticles were extruded into recycled PLA, improving barrier, optical and thermal properties for sustainable food packaging films.

Isotactic PP confined within mesoporous silica channels during extrusion showed altered crystallinity and mechanical behavior, relevant for high-performance PP products.

Strontium-doped PLLA hybrid composites were produced by extrusion for use in 3D-printed bone scaffolds, enhancing osteoinductive properties for bone repair.

SBA-15 mesoporous silica was incorporated into PLA by extrusion to improve thermal stability and control crystallization behavior for packaging and biomedical uses.

Dielectric elastomers with mixed carbon nanotubes were compounded by extrusion, exhibiting self-healing and strain-sensitive electromechanical behavior for soft actuator applications.

Advanced hot melt extrusion formulation strategies using Rondol equipment were developed to improve bioavailability and delivery of hydroxychloroquine for antiviral and autoimmune therapies.

Silicon clathrate thin films were processed by extrusion to explore their potential as low-cost photovoltaic absorber layers in solar cell applications.

Multilayer PET/PP films processed by extrusion were biaxially oriented to study interlayer adhesion, critical for high-performance barrier packaging design.

Ultrathin PLA films incorporating silver nanoparticles were produced by extrusion, delivering sustained antimicrobial performance for active food and medical packaging.

EBS nucleating agent was used to modify surface morphology of extruded PLA and PLA-halloysite nanocomposites, improving crystallinity and processability.

Processing parameters for rotomoulded polymer foams were systematically optimized using extrusion-compounded materials, improving foam density and mechanical performance.

PLA/POSS nanocomposites were compared when produced by 3D printing versus compression molding after extrusion compounding, assessing process-structure-property relationships.

UHMWPE-based composite parts produced by extrusion-based 3D printing and hot-pressing were compared for wear resistance and mechanical performance.

Technical metrics for mechanical recycling of PLA 3D printing waste via extrusion were evaluated, providing industry guidance for sustainable additive manufacturing.

Phosphorescent oxygen-sensitive films were produced by extrusion in an industrially scalable process, enabling real-time oxygen monitoring in food packaging.

Highly oriented polyethylene films produced by extrusion were laminated into transparent high-performance structures with exceptional stiffness-to-weight ratio.

Oxygen-sensitive indicator films produced by extrusion were integrated into 3D-printed packaging structures, enabling real-time freshness monitoring in food packaging.

Different preparation methods including extrusion were compared for PLA/cellulose nanocrystal composites, identifying optimal processing for sustainable packaging films.

The effect of SBA-15 silica on PLA isothermal crystallization was studied in extruded composites, providing insight for controlled crystallinity in packaging films.

Rondol extrusion parameters for UHMWPE composite feedstock were optimized using Taguchi DOE, enabling FDM 3D printing of highly wear-resistant parts.

Polyamide powders functionalized with nanosilica were processed by extrusion and characterized as functional coatings with improved hardness and tribological performance.

Cellulose microfibers were compounded with PHA and PLA biopolymers by extrusion to improve mechanical properties, supporting bio-based packaging and disposable products.

Mechanochemical cocrystal formation was scaled from batch to continuous Rondol extrusion, enabling controlled polymorph selection for pharmaceutical drug products.

PLLA composites with apatite-wollastonite particles and fibres were extruded and 3D printed into scaffolds showing strong osteoinductive properties for bone defect repair.

A novel bioactive polymer composite produced by extrusion was evaluated for degradative resistance in vitro, supporting its use in long-term biomedical implant applications.

Isotactic PP confinement inside SBA-15 mesopores was confirmed by gas transport measurements in extruded nanocomposites, revealing unique barrier enhancement mechanisms.

UHMWPE/PP polymer-polymer composites were produced by extrusion for use as feedstock in additive manufacturing, offering superior wear and mechanical performance.

Halloysite nanotube-reinforced PLA foams were produced by extrusion foaming, achieving uniform particle dispersion and improved mechanical strength for packaging.

A fixed-dose anti-diabetic combination tablet was produced by continuous melt granulation extrusion, demonstrating the efficiency of Rondol equipment for pharmaceutical manufacturing.

Recycled PA6 and TPU were melt-blended by Rondol twin-screw extrusion into hybrid fibres, demonstrating viable upcycling routes for textile waste streams.

Post-consumer PLA waste was reprocessed by extrusion with property-enhancing additives, demonstrating viable mechanical recycling routes for industrial bioplastic recovery.

Freestanding PVdF-HFP/ionic liquid separator films were produced by extrusion, offering improved safety and electrochemical performance for lithium-ion batteries.

SBS/PVDF blends loaded with MWCNTs were extruded to produce composites with tunable dielectric properties for capacitor and EMI shielding applications.

Surface-modified halloysite nanotubes were added to mechanically recycled PLA via extrusion to counteract degradation and restore mechanical properties for circular use.

Zirconium MOFs were synthesized by water-assisted mechanochemistry and scaled to extrusion processing, enabling green production of porous materials for drug delivery.

Hybrid composites from sisal, waste carbon and glass fibres were compounded by extrusion, combining sustainability with high tribological and mechanical performance.

TEM characterization of extruded PHBV/nanocrystalline cellulose bionanocomposites revealed nanoscale dispersion quality, validating Rondol extrusion for biopolymer nanocomposite production.

Compatibilized TPU blends were prepared by extrusion and characterized for interfacial adhesion and mechanical properties, relevant for flexible engineering and footwear applications.

Hot melt extrusion using a Rondol extruder was applied to mechanochemical cocrystal synthesis, significantly improving yield and scalability for pharmaceutical production.

Nanoparticle-loaded PP films produced by extrusion were evaluated for migration safety and effectiveness in preserving lemon juice quality during storage.

Banana fibre geometry in PP/MAPP composites was optimized by extrusion processing, demonstrating the impact of fibre configuration on tensile and impact properties.

EGCG plant extract was incorporated into LDPE films by extrusion, producing natural antibacterial packaging films that extend food shelf life without synthetic biocides.

Extruded wood-plastic composites with zinc borate were evaluated for biodegradation resistance against brown-rot fungi, supporting durable outdoor construction applications.

EPDM/biopolyester nanocomposites with layered silicates were produced by extrusion, combining elastomeric flexibility with improved barrier and mechanical properties.

Biodegradable PLDA/magnesium composites produced by extrusion demonstrated effective antibacterial activity, making them promising for resorbable implants and wound care.

Compost flour waste was compounded with recycled PP by extrusion, producing lightweight composites with acceptable mechanical properties for non-structural applications.

Polymer materials processed by Rondol extrusion were optimized for use as microreactor components, evaluating chemical resistance and dimensional stability.

Multifunctional PP nanocomposites with organoclays and SiO2 nanoparticles were produced by melt extrusion, combining improved barrier, mechanical and thermal performance.

MMT clay nanocomposites of PLA were compatibilized with maleic anhydride and extruded, improving clay dispersion and mechanical performance for packaging applications.

Hot melt extrusion with Rondol Micro-Lite equipment and prilling were compared as solvent-free methods for producing solid oral dosage forms, supporting green pharmaceutical manufacturing.

Functionalized TiO2 nanoparticles were dispersed in LDPE by extrusion to produce photocatalytic films for self-cleaning or antimicrobial surface applications.

Ultrafine talc was used as a nucleating agent in extruded PHBH biopolymer, improving crystallization rate and final product properties for packaging films.

Woven natural fibre/thermoplastic hybrid yarn composites were consolidated by extrusion-based press processing, enabling lightweight structural composites for automotive and construction.

PCL/MWCNT composites produced by extrusion were evaluated for electrical percolation and rheological behavior, supporting design of conductive biodegradable materials.

PLA and PLA/montmorillonite nanocomposites were extruded and subjected to accelerated weathering tests, assessing outdoor durability for bio-based packaging and agricultural films.