Technology

Fiberglass Recycling Market to Grow by USD 543.2 Million (2024-2028) as Eco-Friendly Practices Drive Revenue; AI-Redefined Market Landscape Report – Technavio

Published

6 hours ago

October 29, 2024

NEW YORK, Oct. 29, 2024 /PRNewswire/ — Report with market evolution powered by AI – The global fiberglass recycling market size is estimated to grow by USD 543.2 million from 2024-2028, according to Technavio. The market is estimated to grow at a CAGR of 6.4% during the forecast period. Emphasis on eco-friendly practices for resource efficiency is driving market growth, with a trend towards methods for recycling fiberglass from wind turbines. However, challenges in recycling wind turbine blades poses a challenge.Key market players include Adesso Advanced Materials, Borealis AG, Carbon Rivers Inc., Eco Wolf Inc., European Metal Recycling Ltd., Gen 2 Carbon Ltd., General Kinematics Corp., Global Fiberglass Solutions Inc., Johns Manville Corp, Neowa GmbH, Owens Corning, ReFiber ApS, Sinoma Science and Technology Co. Ltd., Strategic Materials Inc., Toray Industries Inc., Veolia Environnement SA, Vestas Wind Systems AS, and WindEurope VZW ASBL.

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Forecast period

2024-2028

Base Year

2023

Historic Data

2018 – 2022

Segment Covered

End-user (Construction, Automotive, Aerospace, Wind energy, and Others), Type (Mechanical recycling, Thermal recycling, and Chemical recycling), and Geography (APAC, North America, Europe, South America, and Middle East and Africa)

Region Covered

APAC, North America, Europe, South America, and Middle East and Africa

Key companies profiled

Adesso Advanced Materials, Borealis AG, Carbon Rivers Inc., Eco Wolf Inc., European Metal Recycling Ltd., Gen 2 Carbon Ltd., General Kinematics Corp., Global Fiberglass Solutions Inc., Johns Manville Corp, Neowa GmbH, Owens Corning, ReFiber ApS, Sinoma Science and Technology Co. Ltd., Strategic Materials Inc., Toray Industries Inc., Veolia Environnement SA, Vestas Wind Systems AS, and WindEurope VZW ASBL

Key Market Trends Fueling Growth

The fiberglass recycling market is experiencing notable progress, particularly in the development of advanced methods for recycling fiberglass from wind turbines. A recent innovation is a new facility in Fairfax, US, which unveiled a groundbreaking turbine blade recycling process in June 2024. This facility utilizes a patent-pending technology to process around 12 tons of turbine blades per hour. The process consists of shredding the blades and separating non-recyclable components, resulting in shredded fiberglass composite available in various forms such as fine powder and different sizes. This recycled fiberglass is poised to make a significant impact in the construction industry. Once fully operational, the facility will supply these materials for use in concrete and asphalt production, offering a sustainable alternative to traditional construction materials. This not only reduces the environmental impact of wind turbine disposal but also supports the circular economy by reintroducing recycled materials into the supply chain. The trend towards more efficient and eco-friendly recycling methods is anticipated to fuel growth in the fiberglass recycling market. As more facilities adopt similar technologies, an increase in the availability of recycled fiberglass for various applications is expected, attracting investments and fostering collaborations to improve recycling processes and expand the market for recycled fiberglass products.

The Fiberglass Recycling Market is experiencing significant growth due to the increasing demand for Fiber-reinforced plastic (FRP) in various industries, particularly Building and Construction and Transportation. The generation of FRP waste is a growing concern, leading to a need for effective recycling solutions. Recycling technologies, such as Mechanical Recycling, Pyrolysis, and Chemical Recycling, are being explored to reduce landfill waste and increase sales revenue. The Engineering Sector is embracing the Circular Economy, using recycled materials to produce new Fiberglass Composites for applications like Lightweight Vehicles, Electric Vehicles, and Green Building Initiatives. Woven Roving and Thermoplastic Fiberglass waste are valuable resources for Renewable Energy projects like Wind Energy and industries such as Aerospace and Defense with high fiberglass content. However, high recycling costs and waste disposal regulations pose challenges. Closed-loop recycling systems are being developed to address these issues, ensuring a sustainable future for Fiberglass Recycling.

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Market Challenges

The wind energy sector encounters a substantial challenge in recycling wind turbine blades, which make up a significant portion of the turbine’s composition. These blades, engineered to withstand extreme weather conditions, are primarily made of fiberglass reinforced with epoxy resin, making them incredibly durable. However, this durability poses a challenge during the recycling process. Approximately 90% of wind turbine components are easily recyclable. However, the fiberglass and epoxy resin blend in the blades is resistant to conventional recycling methods. This resistance necessitates the development of specialized recycling technologies, which are often expensive and not widely available. The high costs and technical difficulties involved in recycling these blades deter many companies from investing in the necessary infrastructure. As the number of wind turbines reaching the end of their operational life continues to increase, so does the volume of waste generated by decommissioned turbine blades. This growing waste stream underscores the urgent need for innovative recycling solutions that can efficiently and cost-effectively process these materials. The fiberglass recycling market faces significant growth hurdles due to these challenges. The high costs and technical difficulties associated with recycling fiberglass and epoxy resin blades will likely limit market expansion during the forecast period.Fiberglass recycling is a growing market with significant challenges. Mechanical and thermal recycling are common methods, but high recycling costs limit their use. Incineration and landfill waste reduction are alternatives, but they don’t fully address the circular economy goal. Demand for recycling in the engineering sector is increasing, but recycling technologies must improve to meet this need. Fiberglass waste comes from various types, including woven roving, thermoplastic fiberglass, and surface mat. Recycling applications include lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and more. Waste disposal regulations drive the need for closed-loop recycling systems. Fiberglass composites, with high, medium, and low fiberglass content, present different recycling challenges. Renewable materials offer potential solutions, but the recycling methods and costs must be competitive. Recycling fiberglass composites requires specialized technologies, such as chemical recycling. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. Recycling fiberglass types, including woven roving, thermoplastic fiberglass, and surface mat, presents various challenges. Mechanical recycling can be used for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are options for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The recycling market for fiberglass composites is growing, driven by the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. The recycling of fiberglass composites, which include woven roving, thermoplastic fiberglass, and surface mat, presents various challenges. Mechanical recycling is an option for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites, but each has its challenges. The recycling market for fiberglass composites is growing, driven by the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. The recycling of fiberglass composites, which include woven roving, thermoplastic fiberglass, and surface mat, presents various challenges. Mechanical recycling is an option for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Recycling fiberglass composites, which include woven roving, thermoplastic fiberglass, and surface mat, presents various challenges. Mechanical recycling is an option for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites, but each has its challenges. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market. The circular economy vision calls for closed-loop systems, but the current high costs and regulatory landscape limit progress. The fiberglass recycling market is growing due to the demand for lightweight vehicles, electric vehicles, green building initiatives, wind energy, aerospace and defense, and other applications. However, the high recycling costs and regulatory landscape limit the market’s growth potential. Mechanical recycling, thermal recycling, and chemical recycling are the main recycling methods for fiberglass composites. Mechanical recycling is suitable for woven roving and thermoplastic fiberglass, while thermal recycling and chemical recycling are alternatives for other types. Renewable materials offer potential solutions, but their recycling methods and costs must be competitive. Waste disposal regulations and recycling technologies are evolving, creating opportunities for innovation in the fiberglass recycling market.

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Segment Overview

This fiberglass recycling market report extensively covers market segmentation by

End-user 1.1 Construction1.2 Automotive1.3 Aerospace1.4 Wind energy1.5 OthersType 2.1 Mechanical recycling2.2 Thermal recycling2.3 Chemical recyclingGeography 3.1 APAC3.2 North America3.3 Europe3.4 South America3.5 Middle East and Africa

1.1 Construction- The construction industry is a major consumer of recycled fiberglass materials, particularly fiberglass mats, which are extensively used in roofing applications. These mats are a preferred choice for residential roofing due to their versatility and cost-effectiveness. Available in a wide range of colors and styles, they cater to various architectural designs and neighborhood aesthetics. Although they may not match the luxurious appearance of high-end materials like wood shakes or natural slate, fiberglass mats have become the standard visual choice for many residential buildings. Thicker architectural shingles can even mimic the look of wood or slate, providing homeowners with more design options. Recycled fiberglass offers superior fire resistance, with a Class A fire rating, making it a suitable choice for areas prone to wildfires. While other fire-resistant materials like metal and slate exist, fiberglass shingles have an edge over organic asphalt and wood shakes and shingles due to their fire resistance. This feature not only enhances safety but also contributes to the durability and longevity of the roofing materials. In commercial construction, recycled fiberglass is valued for its durability and ease of installation. The ability to recycle fiberglass materials into new roofing products supports sustainability goals and reduces the environmental impact of construction projects. Recycled fiberglass mats maintain the same high performance and safety standards as new ones, making them a dependable choice for commercial buildings. These factors contribute significantly to the growth of the global fiberglass recycling market in the construction sector.

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Research Analysis

Fiber-reinforced plastic (FRP), also known as Glass-fiber reinforced plastic (GFRP), is a composite material with excellent strength and durability, widely used in the building and construction and transportation industries. However, the end-of-life management of FRP waste remains a challenge due to the complex composition and low recycling demand. The recycling market for FRP is growing as the circular economy gains momentum and waste management becomes increasingly important. Recycling technologies, such as pyrolysis, mechanical, and chemical methods, are being explored to reduce landfill waste and generate revenue from recycled materials. High recycling costs and the variety of fiberglass types and applications pose challenges, but advancements in technology and increasing regulations on plastic pollution offer opportunities. Renewable materials are also being explored as alternatives to fiberglass in some applications to reduce the overall environmental impact.

Market Research Overview

Fiberglass recycling refers to the process of converting waste from fiber-reinforced plastic (FRP), also known as glass-fiber reinforced plastic, into valuable resources. With the increasing use of FRP in various industries, including building and construction and transportation, the generation of FRP waste is becoming a significant challenge. Recycling technologies, such as mechanical, thermal, and chemical methods, are being explored to reduce landfill waste and increase recycling demand in the engineering sector. Pyrolysis, chemical recycling, and mechanical recycling are common recycling methods for FRP waste. Mechanical recycling involves shredding and melting the waste, while thermal recycling uses high temperatures to break down the materials into their constituent parts. Chemical recycling, on the other hand, involves breaking down the polymers in the FRP waste into their monomers, which can then be reused to produce new FRP products. The circular economy is a key driver for fiberglass recycling, as it promotes the reuse of resources and reduces plastic pollution. Renewable materials and waste disposal regulations are also playing a role in increasing the demand for recycled materials. However, high recycling costs and the need for closed-loop recycling systems are challenges that need to be addressed. Fiberglass recycling has various applications, including the production of new fiberglass composites for use in lightweight vehicles, electric vehicles, wind energy, and aerospace and defense. Different fiberglass types, such as woven roving, thermoplastic fiberglass, and surface mat, have different recycling methods and applications. In conclusion, fiberglass recycling is an essential aspect of the circular economy, and various recycling technologies are being explored to reduce waste and increase the demand for recycled materials. The engineering sector, building and construction, transportation, and renewable energy industries are key areas where fiberglass recycling can make a significant impact. However, challenges such as high recycling costs and the need for closed-loop recycling systems need to be addressed to make fiberglass recycling more economically viable and sustainable.

Table of Contents:

1 Executive Summary
2 Market Landscape
3 Market Sizing
4 Historic Market Size
5 Five Forces Analysis
6 Market Segmentation

End-userConstructionAutomotiveAerospaceWind EnergyOthersTypeMechanical RecyclingThermal RecyclingChemical RecyclingGeographyAPACNorth AmericaEuropeSouth AmericaMiddle East And Africa

7 Customer Landscape
8 Geographic Landscape
9 Drivers, Challenges, and Trends
10 Company Landscape
11 Company Analysis
12 Appendix

About Technavio

Technavio is a leading global technology research and advisory company. Their research and analysis focuses on emerging market trends and provides actionable insights to help businesses identify market opportunities and develop effective strategies to optimize their market positions.

With over 500 specialized analysts, Technavio’s report library consists of more than 17,000 reports and counting, covering 800 technologies, spanning across 50 countries. Their client base consists of enterprises of all sizes, including more than 100 Fortune 500 companies. This growing client base relies on Technavio’s comprehensive coverage, extensive research, and actionable market insights to identify opportunities in existing and potential markets and assess their competitive positions within changing market scenarios.

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Email: media@technavio.com
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Technology

14-year-old Develops Water Filtration System Using Animal Bone Waste to Facilitate Access to Clean Water Globally; Wins $25,000 Top Award at Thermo Fisher Scientific Junior Innovators Challenge

Published

9 seconds ago

October 30, 2024

Exceptional middle school scientists and engineers rewarded with $100K in prizes for STEM research and innovations that take on global issues

WASHINGTON, Oct. 29, 2024 /PRNewswire/ — Society for Science and Thermo Fisher Scientific today announced the winners of the Thermo Fisher Scientific Junior Innovators Challenge (Thermo Fisher JIC), the nation’s premier middle school science, technology, engineering and math (STEM) competition. Tina Jin, 14, from San Jose, Calif., won the $25,000 Thermo Fisher Scientific ASCEND (Aspiring Scientists Cultivating Exciting New Discoveries) Award, the top prize in the competition.

Tina won the ASCEND Award for her research that proved the ability of animal bones to filter water, in addition to demonstrating leadership, collaboration and critical thinking skills throughout the competition. After learning that one in three people globally lack access to clean water, Tina was inspired to create an accessible and scalable water filtration system that could be used anywhere in the world. She used natural materials and common household supplies to create her filter. Third-party testing by the San Jose Water Company showed that her filter achieved potable standards.

The Thermo Fisher JIC, a program of Society for Science, reaches 65,000 middle schoolers nationwide and inspires them to follow their personal STEM passions to exciting college and career paths. The 30 finalists are counted among the nation’s brightest students, with several, including Tina, collectively accepting more than $100,000 at tonight’s award ceremony in Washington, D.C.

Thermo Fisher’s sponsorship of the Junior Innovators Challenge continues the company’s longstanding commitment to widespread and equitable access to STEM education. Together with Society for Science, Thermo Fisher is helping to increase the number of students who enter the competition and nurture a future STEM talent pool that is more diverse than ever.

Each of the 30 finalists participated in team challenges in addition to being judged on their research projects. The challenges leveraged project-based learning and tested their critical thinking, communication, creativity and collaboration skills across a variety of STEM fields. They included creating home automation systems using Raspberry Pi Pico, diagnosing sickle cell disease and using biocubes to analyze ecosystems.

“Congratulations to Tina for using her STEM skills to develop a solution to a worldwide problem: access to clean drinking water. She used animal bone waste and other household supplies to filter water,” said Maya Ajmera, President & CEO, Society for Science and Executive Publisher, Science News. “Tina’s scientific ingenuity coupled with her exceptional leadership, collaboration and critical thinking skills illustrate what we are looking for in the Thermo Fisher JIC. I look forward to seeing how Tina continues to innovate in the years to come.”

The other top winners included:

Gary Allen Montelongo, 14, La Joya, Texas, won the $10,000 Broadcom Coding with Commitment ® Award for combining expert STEM knowledge and passion for helping or improving one’s community through coding. In his project, Gary used his coding and engineering skills to build models of train suspension systems to learn how the vibrations produced by springs and the weight distribution of the train cars contribute to train derailment.

Sophie Tong, 14, Palo Alto, Calif., won the $10,000 DoD STEM Talent Award for demonstrating excellence in science, technology, engineering or math, along with the leadership and technical skills necessary to excel in the 21st Century STEM workforce and build a better community for tomorrow. For her project, Sophie sought to improve the safety of vehicles, such as airplanes and self-driving cars, by understanding how vision is degraded in dark, foggy conditions. She then developed algorithms to accurately analyze scenes during bad weather.

Samvith Mahadevan, 14, Austin, Texas, won the $10,000 Lemelson Foundation Award for Invention, awarded by The Lemelson Foundation to a young inventor creating promising product-based solutions to real-world problems. Motivated by his own allergies, Samvith developed a chemical “nose” trained with machine learning to detect allergens in food products; and tested it on common allergens including nuts, eggs and processed foods.

Tyler Malkin, 14, Greenwich, Conn., won the $10,000 Robert Wood Johnson Foundation Award for Health Advancement, which recognizes the student whose work and performance shows the most promise in health-related fields and demonstrates an understanding of the many social factors that affect health. Tyler, who has experienced iodine deficiency—a disorder that impacts nearly 2 billion people worldwide—developed a saliva test that makes it easier for people to monitor their iodine levels without medical intervention.

“Congratulations to our 2024 Thermo Fisher Scientific Junior Innovators Challenge award winners!” said Dr. Karen Nelson, Chief Scientific Officer, Thermo Fisher Scientific. “These exceptionally bright students have demonstrated incredible talent and ingenuity, and they are the foundation for the next generation of leaders in STEM. Thermo Fisher is honored to provide a platform from which these rising leaders can advance their research, connect with peers and expose more young students to the wonder and power of STEM.”

Thermo Fisher JIC winners were chosen from the 30 finalists, who were selected from nearly 2,000 applicants from 48 states, American Samoa, Guam, Northern Mariana Islands, Puerto Rico and U.S. Virgin Islands. Winners were selected by a panel of distinguished scientists, engineers and educators. All the finalists’ schools also receive a $1,000 grant to support STEM programming.

In addition to the top prizes, Thermo Fisher and the Society announced first- and second-place winners in each STEM category (science, technology, engineering and math), as well as the competition’s Team Award.

First- and second-place winners of STEM Awards demonstrated acumen and promise in science, technology, engineering or math. First-place winners were awarded $3,500 and second-place winners received $2,500 to support their choice of a STEM summer camp experience in the US. All STEM Award winners received an iPad.

Science Award:
First place: Mikah Elizabeth Kaalund, Greenwich, Conn., The Synergistic Improvement of Indoor Air HEPA Filtration Using Concurrent Dehumidification
Second place: Mackensey “Macky” McNeal Wilson, Riverside, Conn., Shedding Light on the Prevalence of Harmful Butylated Hydroxytoluene Preservative in Artificially Formulated Dog Foods

Technology Award:
First place: Yash Mehta, Durham, N.C. Using Motors To Simulate Braille
Second place: Sophia Yuxin Zhang, Salt Lake City, Utah, Green Solution for Blue Gold: Examining Three Types of Biodegradable Hydrogels on Water Conservation in Irrigation

Engineering Award:
First place: Oliver Nicolas Cottrell, La Jolla, Calif., Automatic Hockey Puck-Passer Machine
Second place: Sophia Hou, Livingston, N.J., The Effect of Methylcobalamin on Vigna radiata Germination Under Heat Stress

Mathematics Award:
First place: Leif Speer, Terre Haute, Ind., Does a Dendroclimatic Reconstruction of the Southern Hemisphere Show a “Hockey Stick Curve”?
Second place: Ezekiel “Zeke” Wheeler, Portland, Ore., An Affordable, Portable Orbital Desktop Satellite Tracker

Team Award, sponsored by Teaching Institute for Excellence in STEM (TIES): Each member of the Finals Week challenge team that best demonstrates an ability to work together and solve problems through shared decision making, communication and scientific and engineering collaboration received a $200 science supply company gift card to support their interests in STEM. The winning team members are Oliver Nicolas Cottrell, Olivia Huang, Tyler Malkin, Jocelyn Mathew and Samhita Paranthaman.

Thermo Fisher Scientific Leadership Award: Bestowed upon one finalist, this award recognizes the student elected by their peers to speak on behalf of their Thermo Fisher JIC class at the Awards Ceremony. The Class Speaker demonstrates the collegiality and spirited leadership that has earned the collective esteem of the class and united them around common goals.

Zealand Murphy Dobrowski, Dehydration Observation: Can Hyperspectral Remote Sensing Be Used To Estimate Fuel Moisture Content?

Media Kit: https://www.societyforscience.org/thermo-fisher-jic-2024-media-kit/

About Society for Science
Society for Science is a champion for science, dedicated to promoting the understanding and appreciation of science and the vital role it plays in human advancement. Established in 1921, Society for Science is best known for its award-winning journalism through Science News and Science News Explores, its world-class science research competitions for students, including the Regeneron Science Talent Search, the Regeneron International Science and Engineering Fair and the Thermo Fisher Scientific Junior Innovators Challenge, and its outreach and equity programming that seeks to ensure that all students have an opportunity to pursue a career in STEM. A 501(c)(3) membership organization, Society for Science is committed to inform, educate and inspire. Learn more at www.societyforscience.org and follow us of Facebook, Twitter/X, Instagram, LinkedIn and Snapchat (Society4Science).

About Thermo Fisher Scientific
Thermo Fisher Scientific Inc. is the world leader in serving science, with annual revenue over $40 billion. Our Mission is to enable our customers to make the world healthier, cleaner and safer. Whether our customers are accelerating life sciences research, solving complex analytical challenges, increasing productivity in their laboratories, improving patient health through diagnostics or the development and manufacture of life-changing therapies, we are here to support them. Our global team delivers an unrivaled combination of innovative technologies, purchasing convenience and pharmaceutical services through our industry-leading brands, including Thermo Scientific, Applied Biosystems, Invitrogen, Fisher Scientific, Unity Lab Services, Patheon and PPD. For more information, please visit www.thermofisher.com.

Media Contact: Gayle Kansagor, gkansagor@societyforScience.org

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SOURCE Society for Science

Technology

Coda Partners with EA SPORTS FC™ to Launch FC Mobile Webstore

Published

11 seconds ago

October 30, 2024

SINGAPORE, Oct. 29, 2024 /PRNewswire/ — Coda, a pioneer in out-of-app content monetization solutions, has partnered with Electronic Arts (EA), a global leader in interactive entertainment, to launch the EA SPORTS FC™ Mobile Webstore (“the Webstore”) in 60 markets.

EA SPORTS FC™ Mobile Webstore is built on Coda and EA’s shared commitment to delivering the best value and richest experiences to gamers worldwide. Leveraging Coda’s expertise in creating successful digital marketplaces and EA’s deep understanding of its dedicated EA SPORTS FC™ Mobile fanbase, the Webstore offers a localized, user-friendly platform where players can access free daily rewards, high-value product offerings, and enjoy special bonuses or discounts.

Since its launch, EA SPORTS FC™ Mobile has enjoyed widespread success, quickly becoming a fan favorite in the mobile gaming community. The game’s seamless blend of engaging gameplay, real-world team and player integration, and regular content updates has earned it a strong and growing player base. The launch of the Webstore adds to this momentum by providing fans with an even more convenient way to enhance their gaming experience.

“Working hand-in-hand with the EA team, we’ve built a space that is more than just a marketplace. The EA SPORTS FC™ Mobile Webstore is built on the solid foundation of Codashop’s decade of success. This isn’t just a new launch; it’s a necessary evolution in how gamers want to buy and interact with in-game content,” said Mike Feldkamp, Chief Technology Officer at Coda.

Following successful launches in Malaysia, Australia, Canada, and Colombia on 15th October 2024, the EA SPORTS FC™ Mobile Webstore is now available globally in Argentina, Australia, Austria, Bahrain, Bangladesh, Belgium, Bolivia, Brazil, Cambodia, Canada, Chile, Colombia, Czech Republic, Denmark, Ecuador, Egypt, France, Germany, Hong Kong SAR, Hungary, Indonesia, Iraq, Italy, Kazakhstan, Kenya, Kuwait, Laos, Malaysia, Mexico, Mongolia, Morocco, Myanmar, Nepal, Netherlands, New Zealand, Nigeria, Norway, Pakistan, Paraguay, Peru, Philippines, Poland, Portugal, Qatar, Romania, Saudi Arabia, Singapore, South Africa, Spain, Sri Lanka, Sweden, Switzerland, Taiwan region, Thailand, Timor Leste, Turkey, United Arab Emirates, United Kingdom, United States, and Uruguay.

Visit the Webstore at: store.fcm.ea.com

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SOURCE Coda

Technology

Disney Music Parade -Encore- Coming Soon to the Nintendo Switch

Published

12 seconds ago

October 30, 2024

TOKYO, Oct. 30, 2024 /PRNewswire/ — Imagineer Co., Ltd. has announced “Disney Music Parade -Encore-” for the Nintendo Switch, set to release on December 12th, 2024, in Asia regions excluding Japan. Disney Music Parade -Encore- is a rhythm action game in which players tap to the beat of Disney songs as they ride through famous scenes from Disney animated films that have been recreated on a glittering stage.

Opening Special Movie: https://youtu.be/YYAfDIPjtZQ

The game features an impressive lineup of 60 beloved Disney songs including iconic tracks such as “A Whole New World” from Disney’s Aladdin, “Under the Sea” from Disney’s The Little Mermaid, “Let It Go” from Disney’s Frozen, and “How Far I’ll Go” from Disney’s Moana. Each song has its own unique stage that players will traverse on a magical train ride, creating an immersive musical experience.

The game also features Collections consisting of different “Music Rides” – 150 dazzling and colorful rides depicting well-known Disney characters in a brilliant, vibrant art style – as well as “Memory Crystals” that feature famous scenes from beloved Disney animated films. Players will have tons of fun collecting their favorite characters and scenes from Disney classics.

Up to 4 players can enjoy playing together on local multiplayer, making it perfect for family game nights or parties.

The game offers a range of difficulty levels to cater to all players. Alongside the four traditional difficulties – Easy, Normal, Hard, and Expert – there’s a user-friendly “Shake It” mode. This control method doesn’t require any button input; players can simply shake the Joy-Con™ to perform successful commands. This accessibility feature ensures that everyone, from rhythm game experts to newcomers and young children, can join in the fun.

Product Summary
Title: Disney Music Parade -Encore-
Platform: Nintendo Switch
Genre: Rhythm-Action
Price: TBA
Release Date: December 12th, 2024
Players: 1–4 People
Age Rating: Pending review
Publisher: Imagineer
Official Website: https://mp-enc.com/en/
Language: Traditional Chinese, Simplified Chinese, Korean, and English.
© Disney

Published by Imagineer
*All company and product/service names listed here are trademarks or registered trademarks of their respective companies.

Imagineer Co., Ltd.
Imagineer Co., Ltd., established in 1986 in Japan, specializes in content creation and digital services. We turn imagination into reality, delivering high-quality experiences that consistently satisfy and exceed customer expectations.

MEDIAKIT
https://link.directcloud.jp/GdCzAaCiRH

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SOURCE Imagineer Co., Ltd.