#Polymer and Elastomer

[olechamical]

Polymer and Elastomer

OLE Chemical is a leading manufacturer of high-quality polymers and elastomers, including Chlorinated Polyethylene (CPE) and Chlorosulfonated Polyethylene (CSM). Our versatile materials are used in a wide range of industries, from PVC impact modifiers to ABS products and flame retardants.

[materialsscienceandengineering]

3D-printed solutions shield electronics from electrostatic discharge

Electrostatic discharge (ESD) protection is a significant concern in the chemical and electronics industries. In electronics, ESD often causes integrated circuit failures due to rapid voltage and current discharges from charged objects, such as human fingers or tools. With the help of 3D printing techniques, researchers at Lawrence Livermore National Laboratory (LLNL) are "packaging" electronics with printable elastomeric silicone foams to provide both mechanical and electrical protection of sensitive components. Without suitable protection, substantial equipment and component failures may occur, leading to increased costs and potential workplace injuries. The team's research is featured in ACS Applied Materials & Interfaces.

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[nozhan-polymer]

Polymers are another ETP ( Export Trade Product) that Nozhan Polymer Co is handling The four basic polymer structures are linear, branched, crosslinked, and networked In the next posts. In detail, we'll explain fully, and then all types of polymers we can export will be introduced fully #polymers #polymer #engineering #polymerclay #plastics #chemistry #polymerclayart #polymerclayearrings #plastic #polymerclaycreation #polymerclaystuds #polymerclaycharms #elastomers #polymere #polymereclay #polymerclaylove #polymo #polymerc #technology #manufacturing #oilandgas #materialsengineering #laboratory #construction #automotive #materialscience #chemicals #science #ceramics #aerospace (at Nozhan Polymer Co) https://www.instagram.com/p/CqnvLjhueu-/?igshid=NGJjMDIxMWI=

[ofbusinessrawmaterial]

India's Elastomers Market to Grow Rapidly with a CAGR of 8.41%

Get insights into the rapidly growing elastomers market in India with a forecasted CAGR of 8.41% until 2028.

[databridgemarket456]

The coated fabrics market is estimated to reach a value of USD 36.96 billion by 2028 and is expected to grow at a compound annual growth rate of 4.65% for the forecast period of 2021 to 2028. 

[rjzimmerman]

Excerpt from this story from DeSmog Blog:

Environmental groups are teeing up a legal challenge to new Environmental Protection Agency (EPA) rules on pollution from chemical and plastics plants, citing concerns the EPA relied too heavily on lowball industry estimates as it sized up the risks to people’s health posed by ethylene oxide (EtO), chloroprene, and other toxic air pollution.

The EPA just announced the new rules in April, saying they’re intended to “significantly reduce” dangerous pollution from chemical plants and some plastics plants.

But the Environmental Integrity Project, Earthjustice, Sierra Club, California Communities Against Toxics, Air Alliance Houston, and others filed suit this week in the federal D.C. Circuit Court of Appeals, with attorneys for the groups telling DeSmog they believe the EPA’s rules remain too weak.

“The EPA’s underestimation of the risks posed by chemical facilities puts nearby communities in grave danger,” Earthjustice attorney Deena Tumeh said in a statement announcing the litigation. “By downplaying ethylene oxide emissions, the EPA fails to protect public health adequately.”

When contacted by DeSmog, the EPA declined to comment, citing pending litigation.

Roughly 200 plants, dotted across the country but heavily clustered along the Gulf Coast, are covered by the new rules. Those plants primarily make chemicals and “polymers and resins,” or plastics — and they release dangerous chemicals into the air in the process.

The new rules, years in the making, update Clean Air Act standards on a half dozen pollutants from those plants, including the highly carcinogenic EtO and benzene, chloroprene (used to make the neoprene that’s found in wetsuits), vinyl chloride (which was notoriously burnt off in the East Palestine, Ohio, train derailment), a vinyl chloride precursor known as ethylene dichloride, and 1,3 butadiene (used to make synthetic rubber).

The EPA has said its rule “will provide critical health protections to hundreds of thousands of people living near chemical plants.”

The environmental groups’ lawsuit comes shortly after Denka Performance Elastomers asked the D.C. Circuit to block the rules from going into effect in May. Denka, a Japanese company, alleged that the EPA allowed too little time for the company to slash chloroprene emissions from its LaPlace, Louisiana, operations, giving the company just 90 days, while other chemical manufacturers would be allowed two years to curb their emissions. 

Denka’s claims have drawn public support from the state’s governor, Jeff Landry, and Louisiana attorney general Liz Murrill, who also filed a D.C. Circuit challenge, citing concerns that the Denka plant could be shut down.

Back in April, DeSmog first reported on concerns that loopholes in the rules, combined with plans from companies like Koch Industries to expand their operations, could mean Louisiana’s Cancer Alley won’t see a decrease in total toxic air pollution.

A July 16, E&E News investigation found that tightened EPA regulations governing hazardous air pollution from oil refineries – a similar set of rules to the ones covering chemical and plastics plants – successfully tamped down dangerous emissions from most of the 130 refineries reviewed. Dozens of other refineries, however – mostly located in communities of color – saw emissions rise. Troy Abel, a Western Washington University professor of environmental policy, faulted “less stringent rules enforcement in some states versus others.”

This week’s legal challenge to the rules for plastics and chemical plants doesn’t specify what criticisms the groups intend to raise before the court.

But attorneys for environmental groups behind the new lawsuit filed July 16 said that while EPA’s rule marks an improvement in many ways, it also contains some dangerous flaws. 

“The basic structure of the rule is good, we just don’t think it runs far enough,” Abel Russ, a senior attorney for the Environmental Integrity Project, told DeSmog.

[jinlichemical]

N-ethyl-p-toluene sulfonamide Best Price

Product Description:

N-Ethyl-p-toluene sulfonamide is a white crystalline solid. It is required to have a minimum purity of 99% and a melting point between 58-62°C. The maximum allowed water content is 0.5%, and the colority (APHA) should not exceed 30 Pt/Co units. The chloride ion content is limited to a maximum of 100 ppm, and the ash content should not exceed 0.2%. The acid value (calculated as KOH) has a maximum limit of 1.6 mg/g.

This chemical is commonly used in various industries and applications. It serves as an important intermediate in organic synthesis and finds wide usage in the production processes of pharmaceuticals, agrochemicals, dyes, and polymers.

N-Ethyl-p-toluene sulfonamide exhibits good solubility in organic solvents and has moderate solubility in water. Its compliance with quality standards ensures its stability and usability in various formulations.

Chemical Properties

Molecular Formula: C9H13NO2S

CAS Number: 2042-53-9

Appearance: Colorless to light yellow liquid or crystalline solid

Melting Point: 62-64°C

Solubility: Soluble in alcohol, chloroform, and other organic solvents

The structure of N-ethyl-p-toluene sulfonamide contributes to its versatility in both research and industrial applications.

Applications of N-Ethyl-p-Toluene Sulfonamide

N-ethyl-p-toluene sulfonamide is used in a variety of fields, including pharmaceuticals, organic synthesis, and agrochemicals. Understanding its key applications can help buyers appreciate its value and understand the importance of securing it at the best price.

Pharmaceutical Industry

Antibiotic Synthesis: Sulfonamide-based drugs are important in the treatment of bacterial infections. N-ethyl-p-toluene sulfonamide derivatives are used to synthesize these antibiotics.

Diuretics: N-ethyl-p-toluene sulfonamide is used in the synthesis of drugs that help manage conditions like hypertension and fluid retention.

Anti-inflammatory Drugs: Sulfonamide derivatives are key in the development of medications that reduce inflammation and pain.

Organic Synthesis

Polymer Production: N-ethyl-p-toluene sulfonamide is used as a monomer in the preparation of specialty polymers, which are widely used in coatings, adhesives, and elastomers.

Heterocyclic Compounds: Sulfonamides, including N-ethyl-p-toluene sulfonamide, are involved in the synthesis of heterocyclic compounds that are important in drug discovery and industrial chemistry.

Agrochemical Applications

Herbicides and Pesticides: Compounds derived from N-ethyl-p-toluene sulfonamide are used to create agrochemicals that protect crops from pests and diseases.

Plant Growth Regulators: N-ethyl-p-toluene sulfonamide derivatives can also serve as plant growth regulators, enhancing crop yields and quality.

Safety and Handling of N-Ethyl-p-Toluene Sulfonamide

Health and Safety Precautions: N-ethyl-p-toluene sulfonamide is generally considered to be of low toxicity. However, it may cause irritation to the skin, eyes, and respiratory system. Personal protective equipment (PPE), such as gloves, goggles, and lab coats, should be worn when handling this chemical. In case of accidental exposure, rinse the affected area with water immediately and seek medical attention if necessary.

Fire and Explosion Hazards: N-ethyl-p-toluene sulfonamide is not highly flammable but should be kept away from open flames or high heat sources. Proper storage in a cool, dry area is recommended to prevent decomposition or other hazardous reactions.

Health and Safety Precautions: Proper disposal of N-ethyl-p-toluene sulfonamide and its derivatives is essential to prevent environmental contamination. Follow local environmental regulations when disposing of waste or excess chemical material.

[olechamical]

Polymer and Elastomer

Discover Olechem.com: Your ultimate online resource for polymer and elastomer enthusiasts. Dive into expert insights, latest trends, and innovative solutions in the field of chemical engineering. Join our vibrant community of professionals and learners, accessing top-notch articles, tutorials, and networking opportunities. Fuel your passion for polymers and elastomers today!

Polymer and Elastomer

[materialsscienceandengineering]

Bright and tough: A material that heals itself and glows

A research team at the RIKEN Center for Sustainable Resource Science (CSRS) has succeeded in developing a self-healing material that is also capable of emitting a high amount of fluorescence when absorbing light. The research, published in the Journal of the American Chemical Society, could lead the way to the creation of new materials such as organic solar cells that are more durable than current types. In 2019, Zhaomin Hou and his team at RIKEN CSRS successfully copolymerized ethylene and anisylpropylene using a rare-earth metal catalyst. The resulting binary copolymer displayed remarkable self-healing properties against damage. The copolymer's soft components, alternating units of ethylene and anisylpropylene, coupled with hard crystalline units of ethylene-ethylene chains, acted as physical cross-linking points, forming a nano-phase-separated structure that proved crucial for self-healing. Building upon this success, they incorporated a luminescent unit, styrylpyrene, into a monomer and then formed polymers that also included anisylpropylene and ethylene. This process led to the synthesis, in a single step, of a self-healing material with fluorescence characteristics.

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[pranaliahuja12]

The Role of Antioxidant 1076 in Industrial Application

One of the most effective ways to enhance the properties of various materials in industrial manufacturing besides their longevity and stability is by using antioxidants. Among these, Antioxidant 1076 (CAS 2082-79-3) has become a crucial component in a variety of industries, including plastics, rubber, and coatings. This versatile compound helps prevent the degradation of materials caused by oxidation, ensuring that products remain durable, reliable, and high performing over time. 

What is Antioxidant 1076? 

Antioxidant 1076, also known by its chemical identifier CAS 2082-79-3, is a widely used hindered phenolic antioxidant. It is specifically designed to prevent the oxidative degradation of organic materials by neutralizing free radicals. These free radicals, generated by exposure to heat, oxygen, or UV light, can break down polymers and other materials, leading to discoloration, loss of mechanical strength, and overall material failure. Antioxidant 1076 effectively stabilizes these materials, preserving their integrity and extending their service life. 

Key Roles of Antioxidant 1076 in Industrial Applications 

1. Preventing Oxidative Degradation in Polymers 

One of the most common uses of Antioxidant 1076 is in the stabilization of polymers, particularly in high-performance applications where materials are exposed to heat or UV radiation. In plastics, rubber, and synthetic fibers, oxidation can cause significant deterioration, leading to brittleness, fading, or even structural failure. Antioxidant 1076 helps to neutralize the free radicals that cause this degradation, ensuring that these materials maintain their mechanical properties and appearance over an extended period. 

For example, in automotive parts made from plastic, Antioxidant 1076 helps prevent the degradation caused by high temperatures under the hood, as well as oxidation from exposure to UV rays. Similarly, in the construction industry, it helps protect materials like PVC from environmental factors that could otherwise cause the material to degrade over time. 

2. Enhancing the Durability of Rubber and Elastomers 

Rubber and elastomers are prone to oxidative damage when exposed to air and heat, which can lead to cracking, hardening, or loss of flexibility. By incorporating Antioxidant 1076 into rubber formulations, manufacturers can improve the material's resistance to aging and prolong its useful life. This is especially important in industries like automotive manufacturing, where rubber components such as tires, seals, and hoses must withstand extreme conditions without compromising their performance. 

3. Improving Stability in Coatings and Paints 

Coatings and paints are often exposed to UV light and oxygen, both of which can cause oxidation and a breakdown of the pigment or binder. Antioxidant 1076 is often added to paint formulations to prevent discoloration, loss of gloss, and the degradation of the coating. This is particularly beneficial in outdoor applications where exposure to the elements is constant, ensuring that the coating maintains its aesthetic qualities and protective functions over time. 

4. Versatility Across Multiple Industries 

The versatility of Antioxidant 1076 is one of its greatest strengths. It is used not only in polymers and rubber but also in adhesives, sealants, lubricants, and electrical cables. In each of these applications, it helps maintain the integrity of the material, ensuring that it performs consistently and reliably. In the automotive, aerospace, and electrical industries, where high performance and safety standards are critical, Antioxidant 1076 helps to meet these demands by enhancing material stability. 

Antioxidant 1076 (CAS 2082-79-3) plays an indispensable role in modern industrial applications by protecting materials from oxidative degradation. Its ability to stabilize polymers, rubber, coatings, and other materials ensures longer product lifespans, improved durability, and enhanced performance across a range of sectors. Whether in automotive manufacturing, construction, or electronics, the inclusion of Antioxidant 1076 helps manufacturers create more reliable, cost-effective products that withstand the challenges of time and the environment. For more info, visit Vinati Organics’ official page today.  

[subavarsha]

Understanding Rubber Gaskets: Types, Properties, and Selection Criteria

Rubber gaskets are essential components across industries, ensuring the seamless operation of machinery, pipelines, and various industrial systems. For businesses seeking durable, reliable, and cost-effective sealing solutions, understanding rubber gaskets is crucial. This comprehensive guide will explore their types, properties, and critical selection criteria, catering to B2B requirements.

What Are Rubber Gaskets?

Rubber gaskets are flexible sealing components made from various elastomers designed to fill gaps between two or more surfaces, preventing leakage of fluids, gases, or contaminants. These components are extensively used in industries such as automotive, manufacturing, chemical processing, and aerospace.

Key functions include:

Leak prevention: Protecting systems from fluid or gas leaks.

Vibration dampening: Reducing noise and mechanical vibrations.

Electrical insulation: Offering non-conductive properties in specific applications.

Types of Rubber Gaskets

1. Natural Rubber (NR) Gaskets

Material: Derived from latex, a natural polymer.

Applications: Used in environments requiring high elasticity and tear resistance.

Limitations: Poor resistance to oils and extreme temperatures.

2. Neoprene Rubber Gaskets

Material: Made from chloroprene, known for its balanced properties.

Applications: Ideal for refrigeration systems, automotive uses, and chemical-resistant seals.

Strengths: Excellent resistance to weathering, ozone, and moderate chemicals.

3. Nitrile Rubber (NBR) Gaskets

Material: Crafted from acrylonitrile-butadiene rubber.

Applications: Frequently used in fuel systems and oil industries.

Strengths: Superior resistance to oils, fuels, and heat.

4. EPDM Rubber Gaskets

Material: Composed of ethylene propylene diene monomer.

Applications: Widely used in HVAC systems, outdoor seals, and water pipelines.

Strengths: Exceptional resistance to UV rays, weather, and steam.

5. Silicone Rubber Gaskets

Material: Made from silicone, known for thermal stability.

Applications: Commonly found in food-grade and medical equipment.

Strengths: Excellent flexibility and resistance to extreme temperatures.

6. Viton (FKM) Rubber Gaskets

Material: Fluoroelastomer gaskets for extreme environments.

Applications: Used in aerospace, automotive, and chemical industries.

Strengths: Superior chemical resistance and high-temperature stability.

Key Properties of Rubber Gaskets

1. Elasticity

Rubber gaskets must retain their shape and function after deformation, ensuring a reliable seal.

2. Chemical Resistance

Industries such as oil and gas demand gaskets resistant to corrosive substances. NBR and Viton excel in this regard.

3. Temperature Tolerance

Gaskets must endure varying temperatures without compromising performance. Silicone and Viton are suitable for extreme temperature ranges.

4. Durability

Longevity in harsh conditions is essential, particularly in B2B contexts where maintenance downtime is costly.

5. Compressibility

Compressibility ensures the gasket fills gaps adequately, enhancing sealing efficiency.

Applications of Rubber Gaskets in B2B Industries

Automotive Industry

Rubber gaskets are vital for engines, transmissions, and exhaust systems, providing leak-proof solutions.

Oil and Gas Sector

Used extensively in pipelines, refineries, and storage tanks, gaskets ensure the safe transport and storage of fluids and gases.

Aerospace

In aerospace, precision-engineered rubber gaskets prevent leaks in fuel systems and protect sensitive equipment from extreme environments.

HVAC Systems

Rubber gaskets in heating, ventilation, and air conditioning ensure efficient sealing and prevent energy loss.

Food and Beverage

FDA-compliant silicone gaskets maintain hygiene standards in food processing and packaging equipment.

Selection Criteria for Rubber Gaskets

1. Application-Specific Requirements

Identify the operational conditions (e.g., temperature, pressure, and medium) where the gasket will be used.

2. Material Compatibility

Choose a material that resists the chemicals and substances it will encounter. For instance, NBR is ideal for oil exposure.

3. Size and Shape

Accurate sizing ensures optimal sealing and prevents leakages. Custom-made gaskets cater to non-standard requirements.

4. Environmental Factors

Consider exposure to UV rays, ozone, or extreme weather conditions. EPDM excels in outdoor applications.

5. Regulatory Compliance

Industries like food processing require gaskets that meet health and safety standards, such as FDA or NSF certifications.

6. Cost-Effectiveness

Weigh the initial cost against longevity and performance. Investing in high-quality gaskets reduces long-term operational expenses.

Advances in Rubber Gasket Technology

Modern developments in rubber gasket technology have elevated their performance and application potential.

Reinforced Gaskets: Incorporating metal or fabric layers for added strength.

Smart Gaskets: Integrated with sensors to monitor pressure and wear.

Eco-Friendly Materials: Use of biodegradable or recycled elastomers to align with sustainability goals.

Benefits of Choosing the Right Rubber Gaskets for Your Business

1. Enhanced Operational Efficiency

Proper sealing reduces downtime caused by leaks and equipment failures.

2. Cost Savings

Durable gaskets minimize replacement and maintenance costs.

3. Compliance and Safety

Ensuring regulatory compliance protects your business from legal risks and enhances safety.

4. Versatility

A broad range of materials allows businesses to find gaskets suited for diverse applications.

Top Rubber Gasket Suppliers for B2B Needs

When sourcing rubber gaskets for your business, partner with trusted suppliers offering:

Custom Solutions: Tailored gaskets to meet specific industrial requirements.

High-Quality Materials: Products made from certified and tested elastomers.

Technical Support: Expert advice on material selection and application.

Conclusion: Why Rubber Gaskets Matter for Your Business

Rubber gaskets are indispensable components in industrial operations. Selecting the right type and material ensures durability, efficiency, and safety. By understanding their properties and applications, businesses can make informed decisions to optimize their systems.

Invest in quality rubber gaskets tailored to your industry needs, and ensure a robust foundation for operational success.

[alcamiglobale]

Mould Injection Moulding: A Comprehensive Guide to Its Process and Applications

Mould injection moulding is a widely used manufacturing process that enables the mass production of precision parts with high consistency and efficiency. This technique involves injecting molten material, typically plastic, into a pre-designed mould cavity to create complex shapes and structures. Its versatility, speed, and ability to produce detailed components make it a preferred choice in various industries. Let’s explore the process, advantages, and applications of mould injection moulding.

The Injection Moulding Process The mould injection moulding process consists of several steps, each essential to ensuring the production of high-quality parts

Clamping The mould is secured in the injection moulding machine, and the two halves are tightly clamped together to withstand the high pressure during injection.

Injection The raw material, typically in the form of plastic pellets, is melted in the barrel of the machine. The molten material is then injected into the mould cavity under high pressure.

Cooling Once the mould is filled, the material begins to cool and solidify into the desired shape. Proper cooling is crucial to prevent defects such as warping or shrinkage.

Ejection After the part solidifies, it is ejected from the mould using an ejector mechanism. The mould is then ready for the next cycle.

Post-Processing Depending on the requirements, the part may undergo additional finishing processes such as trimming, painting, or assembly.

Materials Used in Mould Injection Moulding A wide range of materials can be used in injection moulding, each chosen for its specific properties and application requirements. Common materials include

Thermoplastics: Such as ABS, polypropylene, and polycarbonate, offering versatility and recyclability.

Thermosetting plastics: Used for applications requiring heat and chemical resistance.

Elastomers: For parts needing flexibility and durability.

Additionally, advanced composites and biodegradable plastics are increasingly being used in response to sustainability goals.

Advantages of Mould Injection Moulding High Efficiency: Once set up, the process allows for rapid production of large volumes.

Precision and Detail: Capable of producing intricate shapes and tight tolerances.

Material Versatility: Suitable for a broad range of materials tailored to specific uses.

Cost-Effectiveness: Especially for high-volume production, as the cost per unit decreases with scale.

Waste Minimization: Excess material can often be recycled and reused in future cycles.

Applications of Mould Injection Moulding The applications of mould injection moulding span diverse industries due to its adaptability and precision:

Automotive Industry: For manufacturing components like dashboards, bumpers, and interior trim.

Medical Devices: Used to produce surgical instruments, syringes, and prosthetics.

Consumer Goods: Includes items such as containers, household appliances, and toys.

Electronics: For crafting durable casings, connectors, and components.

Aerospace and Defense: Producing lightweight and strong parts for specialized uses.

Emerging Trends in Mould Injection Moulding Sustainability Initiatives: The integration of biodegradable materials and energy-efficient machinery.

Automation: Robots and AI-driven systems to enhance precision and reduce labor costs.

Advanced Materials: Development of high-performance polymers and composites for specialized applications.

3D Printing Integration: Combining mould injection moulding with 3D printing for rapid prototyping and tooling.

For more info:-

Injection Molding

Plastic Molding

[marketingreportz]

Pressure Sensitive Adhesives Market-Industry Forecast, 2024–2030.

Pressure Sensitive Adhesives Market Overview

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The increasing usage of resins such as silicone polymers, polyisobutene, and elastomers, generally synthetic rubber as the base polymer owing to its functionality and durability, in various end-use sectors will also substantially drive the demand for PSAs. Nitrocellulose adhesive, hydrogenated hydrocarbon resins, and ethylene-vinyl acetate are the thermoplastic resins generally employed in pressure-sensitive adhesives. Moreover, the increasing usage of bio-based pressure-sensitive adhesives and advancements in pressure-sensitive adhesive tapes is expected to offer enormous market expansion opportunities and boost the pressure-sensitive adhesives (PSA) industry in the projected time frame.

Impact of Covid-19

The COVID-19 pandemic and its disruption to several manufacturing activities declined the growth of the pressure sensitive adhesives market in the year 2020. Due to the supply chain disruption and insufficient labor, the manufacturing activities of the packaging, automotive, and electrical and electronic industries were set at a pause which affected the market growth. Furthermore, considering the new government norms and reopening of several industries, it is presumed that the market for pressure sensitive adhesives will return to normal conditions.

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Report Coverage

The: “Pressure Sensitive Adhesives Market Report — Forecast (2024–2030)”, by IndustryARC, covers an in-depth analysis of the following segments of the pressure sensitive adhesives Market.

By Formulation: Water-based, Solvent-based, Hot Melt, Others

By Resin Type: Elastomer (Natural and Synthetic), Acrylic, Silicone, Ethylene-Vinyl Acetate, Polyvinyl Ether, Polyisobutene, Polybutadiene, and Others

By Application: Tapes, Labels, Graphics, and Others

By End Use Industry: Construction, Automotive, Electronics, Medical and Healthcare, Paper, Furniture, Renewable Energy, Wood Working, and Others

By Geography: North America (USA, Canada, and Mexico), Europe (UK, Germany, Italy, France, Spain, Netherlands, Russia, Belgium, and Rest of Europe), Asia Pacific (China, Japan, India, South Korea, Australia and New Zealand, Taiwan, Indonesia, Malaysia, and Rest of Asia Pacific),South America (Brazil, Argentina, Colombia, Chile, and Rest of South America), and RoW (Middle East and Africa)

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Key Takeaways

Asia-pacific region dominated the pressure sensitive adhesives Market due to the rising government investments in the healthcare, electronics, and construction and infrastructure segments in countries such as China, India, South Korea, and Australia.

Current product innovations to improve modulus of elasticity and rigidity are expected to broaden the application range of pressure sensitive adhesives in structural applications and drive the growth of the market in the projected period.

Rising demand for silicone polymers based pressure sensitive adhesive (PSA) in the electronic and medical industry will further drive the growth of the pressure sensitive adhesives market.

Low adhesive strength provided by the pressure-sensitive adhesives (PSA) would further affect the growth of the market over the forecast period.

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Pressure Sensitive Adhesives Market Segment Analysis- By Resin Type

Acrylic resin held the largest share in the pressure sensitive adhesives market in 2020. Acrylic PSAs are widely employed in a variety of applications due to the saturated nature of the polymer and its subsequent oxidation resistance. Also, the acrylic PSAs have good physical properties in general for a wide range of long-term exterior applications. Owing to its attractive properties such as non-flammable, easy to handle, low level of contamination, little tendency to migrate, good resistance to sunlight, oxygen and heat, and offer adhesion, cohesion and tack, the demand for acrylic resins is anticipated to rise. With the increasing demand for acrylic resin, the market for pressure sensitive adhesives will also increase, which will further drive the market growth in the forecast period.

Pressure Sensitive Adhesives Market Segment Analysis- By Application

Tapes held the largest share in the pressure sensitive adhesives market in 2020. Rising demand for tapes owing to its low cost and ease of use when compared to traditional methods is estimated to uplift the growth of the market. Due to the advantageous properties of pressure sensitive adhesives tapes such as reduced assembly time, vibration dampening and noise reduction eliminates the need for surface refinishing, and others has raised the demand for these tapes in various end use industries. Moreover, pressure sensitive adhesive tapes do not require the use of a water, solvent, or heat to activate. The amount of pressure used to apply the adhesive to the surface has a direct impact on the bond. Rising demand for polypropylene tapes owing to its flexibility and strength, and good low temperature characteristics will further drive the market growth. Thus, rising demand and production for pressure sensitive adhesives tapes is estimated to drive the pressure sensitive adhesives market growth over the forecast period.

Pressure Sensitive Adhesives Market Segment Analysis- By End Use Industry

The packaging sector held the largest share in the pressure sensitive adhesives market in 2020 and is projected to grow at a CAGR of 6% during the forecast period 2021–2026. There are two types of packaging namely flexible and rigid, pressure sensitive adhesives (PSAs) are used in these packaging depending on the application’s suitability. These adhesives are used in the packaging of electronics and electrical devices, hygiene and medical packaging, drug delivery packaging, construction sector transit packaging, automotive-related logistics packaging, and consumer and industrial goods packaging, among others. Furthermore, the increasing use of packaging tapes such as polypropylene tapes in a variety of applications including packaging transport, cartons, goods, warehousing, and logistics is estimated to uplift the market growth. PSAs are used in packaging sectors to improve consumer appeal through graphics. Therefore, the pressure sensitive adhesives market is estimated to see an upsurge over the forecast period with the growing packaging industry.

Pressure Sensitive Adhesives Market Segment Analysis– By Geography

The Asia Pacific region held the largest share of more than 39% in the pressure sensitive adhesives market in 2020. Globally, the region’s growth in the market is mainly due to strong economic growth and heavy investments in the packaging, construction, automotive, and electronic industries. Also, the rising adoption of various resins such as polyisobutene, silicone polymers, and elastomers in emerging economies has uplifted the market growth. APAC is increasing in importance as a worldwide trade and business hub. The market for pressure sensitive adhesives is expected to rise as government investments in many medical and electronic projects increase in countries such as China, India, Japan, and South Korea. The Union Cabinet authorized the production-linked incentive (PLI) plan in ten critical industries (including electronics and white products) on November 11, 2020, in order to strengthen India’s manufacturing capabilities, increase exports, and promote the “Atmanirbhar Bharat” program as per the India Brand Equity Foundation. Thus, such initiatives taken by the government for new projects will raise the demand for pressure sensitive adhesives market in the forecast period.

Pressure Sensitive Adhesives Market Drivers

Increasing Demand for Bio-based Pressure Sensitive Adhesives

Plant-derived resources are used as a raw material in bio-based PSAs. The biomass content of a bio-based material used in an adhesive product is expressed as a percentage (dry weight basis). Also, the bio-based PSAs are considered “carbon neutral” because their plant-derived raw materials absorb the same amount of CO2 during production as they emit when incinerated at the end of product life. Additionally, there is no overall increase in greenhouse gases that can cause global warming, resulting in significantly lower CO2 emissions when compared to traditional, purely petroleum-based formulations. Furthermore, most of the raw materials used for conventional PSAs are derived from fossil fuels, which are limited in supply. Bio-based PSAs can help reduce the demand for petroleum sources by replacing them with renewable plant-based materials. Thus, due to the above mentioned factors the demand for bio-based PSAs is predicted to rise, which would further drive the growth of the pressure sensitive adhesives in the projected period.

Rising Demand from the Electronics Industry will Lead Towards the Growth of the Market

For shock absorption, thermal and electrical conductivity, electromagnetic shielding, and optical characteristics, among other factors, pressure-sensitive adhesives (PSA) are increasingly being utilized in the electronics industry. Because of its high transparency, weather resilience, heat resistance, and adhesion strength, acrylic and synthetic rubber PSA composed of hydrogenated hydrocarbon resin is widely used in the display, mobile phones, and automotive applications. PSA also provides higher processability than liquid-type adhesives since it can stick to three-dimensional substrates without the need for a hardening process. With the development of new innovative products the market for pressure sensitive adhesives is estimated to rise. For instance, in 2020 DELO has developed adhesives that has similar properties to (double-sided) adhesive tapes but is applied in liquid form and that can be extensively used in the electronic applications such as smartphone speakers or display frames. Growing demand of pressure sensitive adhesives in the electronics industry is therefore expected to drive market growth during the forecast era.

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Pressure Sensitive Adhesives Market Challenges

Low Adhesive Strength will Hamper the Market Growth

The main challenges faced by the pressure sensitive adhesives (PSAs) are that the adhesive strength (shear and peel) is low and that it is generally sensitive to high temperatures and solvents. As a result, most pressure sensitive adhesives are unsuitable for high strength or structural applications. They are frequently used with substrates that are relatively weak, such as paper or film. Pressure sensitive adhesives are also unsuitable for rough surfaces and are relatively costly in terms of cost per bond area. Thus, due to the above mentioned properties the market growth for pressure sensitive adhesives (PSAs) is estimated to face challenges in the upcoming years.

Pressure Sensitive Adhesives Market Landscape

Technology launches, acquisitions, and R&D activities are key strategies adopted by players in the pressure sensitive adhesives market. Major players in the pressure sensitive adhesives market are Henkel AG & Company KGAA, Arkema Group, The Dow Chemical Company, H.B. Fuller, Avery Dennison Corporation, Sika AG, 3M Company, Scapa Group, and Ashland Inc., among others.

Acquisitions/Technology Launches

In May 2021, with the planned acquisition of Edge Adhesives Texas, a complementary asset in pressure sensitive adhesives and hot-melt adhesive tapes for residential construction, Arkema Group increased its Bostik offering of high performance adhesives in the United States.

Key Market Players:

The Top 5 companies in the Pressure Sensitive Adhesives Market are:

Henkel AG & Co., KGaA.

Arkema Group

Dow Chemical Company

H.B. Fuller

Sika AG

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