#depolymerization

[whats-in-a-sentence]

When growing roots are treated with a microtubule-depolymerizing drug, such as oryzalin, the region of elongation expands laterally, becoming bulbous and tumor like (Figure 14.17A and B). (...) The CESA units were observed to move within the plasma membrane along microtubule tracks (Figure 14.17C); they were also seen to be inserted into the plasma membrane from the Golgi apparatus at microtubule-tethered compartments.

"Plant Physiology and Development" int'l 6e - Taiz, L., Zeiger, E., Møller, I.M., Murphy, A.

[todays-xkcd]

I'm an H⁺ denier, in that I refuse to consider loose protons to be real hydrogen, so I personally believe it stands for 'pretend'.

Unsolved Chemistry Problems [Explained]

Transcript

[Hairbun stands behind a lectern on a podium with two Cueballs and Megan standing behind her. There is a "Grand Opening" sign hanging in the background along with some ornaments.]

Hairbun: Our lab will be working on chemistry's top unsolved problems: arbitrary enzyme design, protein folding, depolymerization, and, of course, the biggest one of all: Hairbun: Figuring out what the "p" in "pH" stands for.

[mindblowingscience]

A staggering 60 million tons of polyester are produced annually, for things like clothes, couches, and curtains. That polyester production takes a toll on the climate and  environment, as only 15% of it gets recycled. The rest ends up in landfills or incinerated, which results in more carbon emissions. “The textile industry urgently requires a better solution to handle blended fabrics like polyester/cotton. Currently, there are very few practical methods capable of recycling both cotton and plastic—it’s typically an either-or scenario,” explains postdoctoral researcher Yang Yang of the Jiwoong Lee group at the University of Copenhagen’s chemistry department. “However, with our newly discovered technique, we can depolymerize polyester into its monomers while simultaneously recovering cotton on a scale of hundreds of grams, using an incredibly straightforward and environmentally friendly approach. This traceless catalytic methodology could be the game-changer.”

Continue Reading

[materialsscienceandengineering]

An enzyme used in laundry detergent can recycle single-use plastics within 24 hours

Scientists at King's College London have developed an innovative solution for recycling single-use bioplastics commonly used in disposable items such as coffee cups and food containers. The novel method of chemical recycling, published in Cell Reports Physical Science, uses enzymes typically found in biological laundry detergents to "depolymerize"—or break down—landfill-bound bioplastics. Rapidly converting the items into soluble fragments within just 24 hours, the process achieves full degradation of the bioplastic polylactic acid (PLA). The approach is 84 times faster than the 12-week-long industrial composting process used for recycling bioplastic materials. This discovery offers a widespread recycling solution for single-use PLA plastics, as the team of chemists at King's found that in a further 24 hours at a temperature of 90°C, the bioplastics break down into their chemical building blocks. Once converted into monomers—single molecules—the materials can be turned into equally high-quality plastic for multiple reuse.

Read more.

[covenawhite66]

Pseudomonas aeruginosa

Polyethylene plastic, found in products such as plastic bags, water bottles, and food packaging, takes 1,000 years to dissolve naturally.

The RPI team tackled the challenge of engineering this bacteria to convert the carbon atoms of polyethylene into a genetically encoded silk protein.

Polyethylene is particularly problematic, as it is commonly found in single-use applications. Resultingly, polyethylene is the most commonly produced plastic, representing 30% of all plastics production

Mechanical recycling is inefficient, typically yielding materials that have inferior mechanical properties compared to virgin plastics.

The development of a new strain of Pseudomonas bacteria capable of converting depolymerized polyethylene into high value bespoke recombinant protein products.

[clairelsonao3]

Happy STS! So, while recently thinking about the words depolymerize, neodymium, ammonium persulfate, and other chemistry-related terminology for no reason, I found myself wondering: How do you go about your chemistry-related research for GSNBTR, and how do you decide which compounds, etc. to name-drop for the scientific elements of your story?

Happy STS, Kate!

Hmmm ... what a funny question to ask, being that I'm an English and creative writing major with absolutely no knowledge of any of those concepts. 😅

The truth is, a layperson can sound fairly authoritative (at least to other laypeople) using a combination of knowledge gleaned from AP science courses, years of having read widely but not particularly deeply, and, of course, Google. 😅

It really does help if you do have some baseline knowledge, although you don't need much. For instance, I'd heard of the concept of neodymium magnets, although not what they were actually called, so I googled "strong magnets used in scientific research" and they came up instantly.

Same thing with depolymerization, basically. And then as I was reading about that, it emphasized the importance of catalysts, of which ammonium persulfate is a common one -- essentially chosen at random, though I tried to go for something plausible. Reading about that, in turn, led me to the process of electrolysis, which is the common way it's synthesized in the lab. In that way, one concept can lead you to another.

The key, for me, is to go lightly on trying to explain concepts I myself don't fully understand, or I'll end up sounding ridiculous. If you're fairly sure you understand something, chances are your readers will, too. And have faith that your scientific wunderkind of an MC can handle everything else 😁

And of course, all of this is predicated on the assumption that nobody reading my work is an actual research chemist, because if they are, they're sure to hunt me down and hurl a beaker of sulfuric acid in my face (yes, I googled that, too). 😂

(For anyone confused by this delightfully tongue-and-cheek answer and question, the words Kate mentioned all appear in Ch. 31 of GSNBTR, posted yesterday. )

[wumblr]

in the interest of using my journal as a journal, this week i have...

got a drill (literally essential to almost every other item on this list). this pairs well with my extremely long extension cord (another essential product recommendation) since the nearest outlet to my living room is halfway up the attic stairs

went to menards (this isn't the first time, but i joked about never quite getting there, and then never posted about it when i did, which is a violation of my menards influencer contract) and found a nest chair on clearance (thing that has been on a list for years)

put up curtains, put up curtains, put up curtains (two windows and one room-dividing red curtain to hide the HVAC in my attic bedroom. i was sort of going for like, theater style curtains or twin peaks red room or aurora album cover... the lighting is wrong, the fabric is neither quite the right color nor texture, i have half as many curtains as i need, and i couldn't find exactly the right kind of rug to drive the illusion home, but it does make the whole thing seem a lot more like sleeping in a bedroom than squatting in a half-remodeled attic like some kind of modest mouse frontman, so, i guess i'll buy a used spotlight to pair with my used disco/dj/classic skating lights and keep looking for rugs to cover up the stain on the floor that i hope is from a long-past roof leakage and is not the spot where a previous tenant died)

put up wall art

anchored my bookshelves

deposited my tax return (i'm sorry for posting so many yoshi tax evasion jokes all these years and then just dutifully filing my taxes. or, if you're a tax auditor, this is not a joke)

got a kitchen table and chairs and put them together (regret to inform you i did not really have chairs this whole time. like i had chairs once. terrible chairs. and i got rid of them when i left portland. pleased to inform you my new ones are really nice). also a kitchen shelf. because i have the world's smallest cupboards. 6.5in wide. i measured them. what are you even supposed to do with these

replaced a fraction of the cardboard boxes that i've been keeping everything in with actual containers

i still need to...

take the old, mismatched, outdated front license plate off my car (augh) (surely this is illegal), an impossible task that requires the absurd notion of taking a screwdriver outside

fix... my studio... (it looks exactly like it did in the picture i posted and i'm actually mad i didn't have more time to use it in that state but now there's also a former kitchen table and a clearance nest chair in there. i have also sort of half-commited to a standing desk in the closet, which has shelves that are not exactly the same height, so now my if-you-give-a-mouse-a-cookie ass needs a piece of lumber, and i haven't even stained my spice rack board yet)

strip the seasoning off my cast iron pan (don't ask... i am learning about polymerization the hard way. i spread it on too thick. rookie mistake. how do you even start over. i am learning about depolymerization)

go to the hardware store because i used all my fucking screws. this is a literary technique called bookending and lets the reader know that the character's life is an endlessly repeating cycle of screwing and getting screws

[erherr]

(when she says she likes to be degraded) that's right depolymerize like the chain of monomers that you are

[aquitainequeen]

Plastic degradation by biological systems with re-utilization of the by-products could be a future solution to the global threat of plastic waste accumulation. Here, we report that the saliva of Galleria mellonella larvae (wax worms) is capable of oxidizing and depolymerizing polyethylene (PE), one of the most produced and sturdy polyolefin-derived plastics. 

Read more...

[whats-in-a-sentence]

These γ-tubulin ring complexes are present in the cortical cytoplasm, sometimes associated with the microtubule branches (Figure 1.26A-C), similar to how Arp 2/3 is present at branches of microfilaments. (...) Next, the protofilaments (the number varies with species) associate laterally to form a flat sheet (see Figure 1.26A). The sheet curls into a cylindrical microtubule as GTP is hydrolyzed (see Figure 1.26B). (...) The hydrolysis of GTP to GDP on the β-tubulin subunit causes the dimer to bend slightly, and if the rate of GTP hydrolysis "catches up" with the rate of addition of new heterodimers, the GTP-charged cap of tubulin vanishes and the protofilaments come apart from each other, initiating a catastrophic depolymerization that is much more rapid than the rate of polymerization (see Figure 1.26C). (...) This process is called dynamic instability (see Figure 1.26A-C).

However, plant microtubules can be released from γ-tubulin ring complexes by an ATPase, katanin (from the Japanese word katana, "samurai sword"), which severs the microtubule at the point where the growing microtubule branches off another (see Figure 1.26D). (...) During treadmilling, tubulin heterodimers are added to the growing plus end at about the same rate that they are removed from the shrinking minus end (see Figure 1.26D). The actual tubulin subunits do not move relative to the cell once they are polymerized into the microtubule (see shaded region in Figure 1.26D), because the microtubule is usually bound to a membrane through a variety of MAPs.

"Plant Physiology and Development" int'l 6e - Taiz, L., Zeiger, E., Møller, I.M., Murphy, A.

[yeast-papers]

Modular Nano-Scaffold Biocatalysis for Superior PET Depolymerization and Valorization

BioRxiv: http://dlvr.it/TDKXS6

[rupalic]

Specialty Enzymes Industry Future Outlook, Global Trends, Industry Share And Top Key Players

The specialty enzymes market is poised for growth, driven by technological advancements, expanding applications, and rising health consciousness. However, companies need to navigate regulatory challenges and production costs to capitalize on the market opportunities effectively.

Specialty Enzymes Market Size and Growth

Current Market Size: The specialty enzymes market has been experiencing steady growth, driven by increasing demand across various industries such as pharmaceuticals, biotechnology, food and beverages, and diagnostics.

Projected Growth: According to MarketsandMarkets, the global specialty enzymes market size is estimated to be valued at USD 6.1 billion in 2024 and is projected to reach USD 9.2 billion by 2029, recording a CAGR of 8.5%.

Genetic Engineering and Sustainability: Enzymes Leading the Way

Advancements in enzyme engineering have enabled the discovery of new enzymes from natural sources, ensuring their safety and efficacy in various applications. This includes their use in producing specialty pharmaceuticals and in biocatalytic processes. A recent study by the University of Notre Dame researchers in January 2022 emphasized biocatalytic depolymerization as an efficient and sustainable method for plastic treatment, addressing environmental concerns and enhancing recycling efforts. Additionally, the Manchester Institute of Biotechnology (MIB) has developed an enzyme engineering platform to improve plastic degradation using directed evolution techniques. These advancements in genetic engineering and enzymes engineering for sustainable practices highlight the specialty enzymes market’s growth potential, especially in addressing environmental issues and promoting eco-friendly solutions.

Why Are Animal-Sourced Enzymes Gaining Popularity in the Specialty Enzymes Industry?

Animal-derived enzymes are often favored for their high specificity and efficiency in catalyzing biochemical reactions, which are crucial for various specialized processes. Pancreatic enzymes like trypsin and chymotrypsin are widely used in drug formulation and the production of biologics. These enzymes facilitate the precise cleavage of peptide bonds, which is vital for the development and manufacturing of therapeutic proteins and peptides. Their specificity and activity levels make them indispensable in pharmaceutical applications, significantly contributing to their market share.

Request Custom Data to Address your Specific Business Needs

In addition, animal-derived enzymes are essential in clinical diagnostics and the food industry. For example, rennet, obtained from calves’ stomachs, is used in the coagulation process of cheese production. In clinical settings, enzymes like lactase, sourced from animals, are used in diagnostic kits to test for lactose intolerance, demonstrating their versatility in both food processing and medical diagnostics. Moreover, thrombin, derived from bovine sources, plays a crucial role in surgical procedures by promoting blood clotting and is used in topical hemostatic agents to control bleeding during surgeries. The high efficacy and reliability of thrombin in medical applications underscore the importance of animal-derived enzymes in the specialty enzymes industry.

Specialty Enzymes Market Growth Drivers

Pharmaceutical Industry Demand: Specialty enzymes are extensively used in pharmaceutical applications for drug formulation and biocatalysis, boosting market demand.

Advancements in Biotechnology: Innovations in enzyme engineering and biotechnology are enhancing enzyme efficiency and expanding their application range.

Food and Beverage Industry: Enzymes play a crucial role in improving food quality, processing, and shelf life, increasing their demand in this sector.

Rising Health Awareness: Growing consumer preference for natural and organic products is driving the demand for enzymes in nutraceuticals and dietary supplements.

North America Specialty Enzymes Set to Lead the Market

North America holds the largest specialty enzymes market share in the specialty enzymes sector, driven by several key factors. The region boasts a strong pharmaceutical and biotechnology industry, supported by substantial investments in research and development. This investment climate encourages innovation, resulting in the creation of advanced enzyme-based solutions. Companies like Codexis, Inc. (US) lead the way in enzyme engineering, consistently developing new enzymes for pharmaceutical and industrial uses.

Additionally, North America’s well-established healthcare infrastructure and high demand for diagnostic tools contribute to market growth. Specialty enzymes play a vital role in various diagnostic applications, such as ELISA (Enzyme-Linked Immunosorbent Assay) tests, which are extensively used in medical diagnostics. The rising prevalence of chronic diseases, including cancer and diabetes, in North America further fuels the demand for these advanced diagnostic tools, boosting the specialty enzymes market.

2024's Game-Changing Innovations in Specialty Enzymes: Recent Advances

In March 2024, Biocatalysts, part of the BRAIN Biotech Group, enhanced its production capacity by adding a large-scale freeze-drying facility at its Cardiff site. This new facility would support the customization and precise formulation of enzymes for the food, beverage, and life sciences industries. By complying with kosher, halal, ISO9001:2015, and FSSC22000 standards, the facility ensured high-quality and flexible enzyme production.

In March 2024, Merck invested over USD 324.68 million in a new bioprocessing production center in Daejeon, South Korea, marking its largest life science investment in the Asia Pacific. This expansion, expected to create around 300 jobs by 2028, underscores Merck’s commitment to enhancing its capacity in this rapidly growing region.

In March 2024, Sanofi India Limited (SIL) approved an agreement with Emcure Pharmaceuticals to exclusively distribute and promote SIL’s Cardiovascular products in India. While SIL retains ownership, import, and manufacturing, Emcure would enhance engagement with healthcare professionals and broaden the reach, benefiting patients nationwide and strengthening Sanofi’s market presence.

Top Specialty Enzymes Companies

BRAIN Biotech AG (Germany)

Novozymes A/S (Denmark)

Codexis, Inc. (US)

Sanofi (France)

Merck KGaA (Germany)

Dyadic International Inc (US)

Advanced Enzyme Technologies (India)

Amano Enzyme Inc (Japan)

F. Hoffmann-La Roche Ltd (Switzerland)

New England Biolabs (US)

BBI Solutions (UK)

Make an Inquiry to Address your Specific Business Needs

[industrynewsupdates]

Nylon Procurement Intelligence 2024 - 2030: Key Insights for Success

The nylon category is anticipated to grow at a CAGR of 6.5% from 2024 to 2030. The increasing demand for lightweight and durable materials in industries such as automotive, textiles, and consumer goods are driving the growth of the category. The increase in car manufacturing is anticipated to boost the need for nylon employed within the automotive sector. The surge in automobile production can be attributed mainly to the rapid expansion of the Chinese market and the steady growth of the European automotive industry. Furthermore, the vehicle industry has experienced significant growth in recent years, particularly in the Asia-Pacific region. According to the International Organization of Motor Vehicle Manufacturers, a total of 85,016,728 vehicles were produced globally in 2022, with China, the U.S., and Japan are the top three producers. Anticipated growth in automobile demand is expected to have an indirect impact on the production of nylon, consequently giving rise to a surge in the overall category expansion.

Advancements in nylon technology are driving sustainable practices by tackling plastic waste through recycling. For instance, in October 2023, the U.S. DOE’s BETO department announced that researchers at Los Alamos National Laboratory created biosensing technology which is aimed at tackling the issue of plastic waste, particularly focusing on nylon-based waste found in textiles, carpets, tires, and fishing nets. These products are made from nylon-66, which is made from a polymer building block known as adipic acid (ADA). However, petroleum-based ADA releases nitrous oxide into the environment. Depolymerizing nylon with biocatalysts could open avenues for minimizing nylon waste in landfills and oceans. This can facilitate the repurposing of nylon components into fresh products without emitting nitrous oxide. Another instance of a company utilizing biotechnology is Genomatica, Inc. It employs microorganisms to generate caprolactam from plant sugars. Using its proprietary platform, the company converts renewable carbon into precursors to nylon. The resultant nylon-6 product is completely renewable carbon-based, thereby fostering sustainability.

Rising concerns about the environmental impact of the textile industry has led to the increasing demand for recycled nylon. Recycled nylon is becoming the preferred material by avoiding the polluting and resource-intensive processes of traditional nylon production. Scientists from Aarhus University in Denmark developed a new technology that can help to increase garment recycling rates in January 2024. This technology has the potential to assist in the extraction of elastane from nylon, a frequently used fabric combination in garments such as leggings, activewear, shapewear, and swimwear. Companies such as Patagonia, Finisterre, and Mara Hoffman are among the most sustainable recycled nylon clothing brands. These companies utilize low-impact materials, try for textile circularity, and employ full traceability.

Order your copy of the Nylon Procurement Intelligence Report, 2024 - 2030, published by Grand View Research, to get more details regarding day one, quick wins, portfolio analysis, key negotiation strategies of key suppliers, and low-cost/best-cost sourcing analysis

The carpet industry, especially in Europe, is witnessing a considerable increase in demand for Nylon 6. Turkey, with its substantial textile industry, centered around nylon, stands out as one of the leading importers of this material. Moreover, the apparel sector is experiencing dynamic growth, driven by consumer preferences for exploring diverse raw materials.

Nylon comes under the family of synthetic polymers. The plastics, polymers, and in turn the nylon category are fragmented in nature. The fragmentation is attributed to its wide array of different specifications and end-use industries. Fragmentation is expected to decrease as recycling procedures become standardized and monitored with advancing technology and policy changes.

Substitutes for nylon, such as other synthetic polymers like polyester or fibers like silk, wool, and rayon, can pose a threat, particularly if they offer comparable performance at a lower cost or with environmental advantages. Also, bio-based products are gaining traction due to the environmental impact of fossil-based nylon. This is expected to create a moderate threat of substitutes.

Raw material, labor, machinery, facilities, and packaging & transportation are some of the key cost components incurred in producing nylon. Other costs are rent and utilities, repair and maintenance, and legal charges. The average cost of starting a nylon production business can be around USD 35,000. Raw materials and labor account for a major part of the overall cost structure. The price of nylon 6/6 as of December 2023 was around USD 2.69/kg in China, USD 3.35 in the U.S., and USD 3.20 in Germany. In H1 2023, nylon prices fluctuated at the lower end of the pricing spectrum due to falling demand accompanied by over-stocked inventories and the availability of cheap imports from China. With the stabilization of freight and supply chain processes in H1 2023, there was a notable reduction in upstream cost pressures.

Under sourcing intelligence, end-use companies such as automotive firms usually outsource nylon production. These companies may have partnerships or contracts with nylon manufacturers to ensure a reliable supply of materials for various components in their vehicles, such as engine compartments, interior trims, and exterior components. For instance, Jaguar Land Rover, a part of Tata Motors, works with ECONYL nylon to develop quality interiors. Automotive companies seek to source bio-based nylon to increase their sustainability. These companies also maintain long-term relationships with nylon suppliers to get discounts on bulk orders, and consistent and on-time delivery.

Nylon Procurement Intelligence Report Scope

• Nylon Category Growth Rate: CAGR of 6.5% from 2024 to 2030

• Pricing growth Outlook: 5% - 9% (annual)

• Pricing Models: Volume-based pricing, competition-based pricing

• Supplier Selection Scope: Cost and pricing, past engagements, productivity, geographical presence

• Supplier selection criteria: Type and quality of nylon, end-use served, geographical presence, years in services, regulatory compliance, operational and functional capabilities, and others.

• Report Coverage: Revenue forecast, supplier ranking, supplier matrix, emerging technology, pricing models, cost structure, competitive landscape, growth factors, trends, engagement, and operating model

Browse through Grand View Research’s collection of procurement intelligence studies:

• Fiber Reinforced Plastics Procurement Intelligence Report, 2023 - 2030 (Revenue Forecast, Supplier Ranking & Matrix, Emerging Technologies, Pricing Models, Cost Structure, Engagement & Operating Model, Competitive Landscape)

• Synthetic Fibers Procurement Intelligence Report, 2023 - 2030 (Revenue Forecast, Supplier Ranking & Matrix, Emerging Technologies, Pricing Models, Cost Structure, Engagement & Operating Model, Competitive Landscape)

Key companies 

• BASF SE

• Lanxess AG

• Huntsman International LLC

• AdvanSix Inc.

• UBE Corporation

• DOMO Chemicals

• Toray Industries Inc.

• Alliance Polymers

• Ascend Performance Materials Operations LLC

• Toyobo Co., Ltd

Brief about Pipeline by Grand View Research:

A smart and effective supply chain is essential for growth in any organization. Pipeline division at Grand View Research provides detailed insights on every aspect of supply chain, which helps in efficient procurement decisions.

Our services include (not limited to):

• Market Intelligence involving – market size and forecast, growth factors, and driving trends

• Price and Cost Intelligence – pricing models adopted for the category, total cost of ownerships

• Supplier Intelligence – rich insight on supplier landscape, and identifies suppliers who are dominating, emerging, lounging, and specializing

• Sourcing / Procurement Intelligence – best practices followed in the industry, identifying standard KPIs and SLAs, peer analysis, negotiation strategies to be utilized with the suppliers, and best suited countries for sourcing to minimize supply chain disruptions

[creativecontentcraze]

Rising Demand For Pharmaceutical Excipients To Boost Microcrystalline Cellulose Market Growth

The global microcrystalline cellulose market is estimated to be valued at US$ 1349.84 Bn in 2024 and is expected to exhibit a CAGR of 11% over the forecast period 2024 to 2031. Microcrystalline cellulose is a partially depolymerized cellulose prepared by treating alpha cellulose, obtained as a pulp from fibrous plant materials, with mineral acids. It is commonly used as a diluent, binder, suspension agent and thickening agent in pharmaceutical formulations as well as in food & beverage industries. Microcrystalline cellulose provides advantages such as better flow properties, low density, excellent binding properties, good compaction characteristics and high compatibility with other excipients. The use of microcrystalline cellulose in pharmaceutical excipients is growing owing to increasing demand for tablets and capsules globally which will drive the market during forecast period. Key Takeaways - Key players operating in the microcrystalline cellulose market are Thermo Fisher Scientific, Inc., Illumina, Inc., PerkinElmer Genomics, QIAGEN, Agilent Technologies, Inc., F. Hoffmann-La Roche Ltd, Macrogen, Inc., Abbott, PacBio, Zymo Research Corporation, Oxford Nanopore Technologies plc, Tecan Trading AG, Hamilton Company, ZS Genetics, Inc. LI-COR, Inc. - Growing demand for pharmaceutical excipients from the pharmaceutical industry is one of the major factors driving the growth of the microcrystalline cellulose market. Tablets and capsules are the most commonly used dosage forms across the globe which requires excipients like microcrystalline cellulose in large quantities. - Technological advancements in microcrystalline cellulose production methods helps in improving product attributes such as flowability, compressibility, diluent properties etc. Continuous innovations in particle engineering techniques helps manufacturers develop application-specific microcrystalline cellulose grades. Market Trends - Growing preference for plant-based excipients: Regulatory authorities are promoting use of plant-based excipients over synthetic ones. This drives demand for naturally-sourced microcrystalline cellulose. - Development of multifunctional microcrystalline cellulose market grades: Manufacturers are developing microcrystalline cellulose with additional properties like disintegration, binder etc. to simplify formulation design. Market Opportunities - Emerging markets in Asia Pacific and Middle East & Africa: Growth in pharmaceutical manufacturing in these regions owing to low production cost and increasing demand offer opportunities for microcrystalline cellulose suppliers. - Alternative applications: Microcrystalline cellulose finds increasing usage in non-pharmaceutical applications like food, paints, coatings industries due to its functional properties. Impact of COVID-19 on Microcrystalline Cellulose Market The outbreak of the COVID-19 pandemic has significantly impacted the growth of the microcrystalline cellulose market. The imposition of nationwide lockdowns led to the temporary closure of manufacturing facilities across major regions like North America, Europe, and Asia Pacific. This disrupted supply chains and reduced the procurement of raw materials required for the production of microcrystalline cellulose. With restrictions on travel and transportation, the logistics and delivery of finished products were also interrupted. The pandemic also caused a decline in consumer spending on non-essential items like processed foods and pharmaceuticals where microcrystalline cellulose finds widespread applications. This restrained the demand from end-use industries in the initial months of the pandemic.

In terms of value, the North American region accounted for the major share of the global microcrystalline cellulose market in 2024. This can be attributed to growing healthcare expenditure and high consumption of processed and packaged foods where microcrystalline cellulose finds widespread application as an additive, binder, disintegrant, and stabilizer. The growing prevalence of lifestyle diseases coupled with an aging population has stimulated the regional demand for pharmaceuticals over the years and boosted microcrystalline cellulose procurement. Further, the presence of leading pharmaceutical companies in countries like the US and Canada also drives market growth through increased outsourcing of microcrystalline cellulose production.

Get More Insights On, Microcrystalline Cellulose Market

About Author: Money Singh is a seasoned content writer with over four years of experience in the market research sector. Her expertise spans various industries, including food and beverages, biotechnology, chemical and materials, defense and aerospace, consumer goods, etc. (https://www.linkedin.com/in/money-singh-590844163)

[materialsscienceandengineering]

Bioengineers develop a new environmentally friendly adhesive polymer

A team of bioengineers at the University of California, Berkeley, has developed a new kind of environmentally friendly adhesive polymer. In their study, published in the journal Science, the group used an electrophilic stabilizer to prevent a certain fatty acid from depolymerizing, thereby enabling its use as an adhesive. Zhibin Guan, a chemist at the University of California, Irvine, has published a Perspective piece in the same journal issue outlining the work done by the team. As Guan points out, polymer adhesives are used for a wide variety of applications. But, he notes, most are tailored for a specific use, joining wood for example, and cannot be used in different contexts. Making things worse, many adhesives are hazardous to plants and animals, creating an environmental problem.

Read more.

[123567-9qaaq9]

Advanced Recycling Technology encompasses a range of innovative processes that convert plastic waste into valuable raw materials or new high-quality plastics. Unlike traditional mechanical recycling, which typically involves melting and remodeling plastics, advanced recycling employs chemical processes such as pyrolysis, gasification, and depolymerization to break down plastics at a molecular level.