市场调查报告书
商品编码
1219906
石墨烯电子产品全球市场规模,份额,行业趋势分析报告(电池,显示器,太阳能电池,存储器,集成电路/芯片,其他),按行业,地区展望和预测2022-2028Global Graphene Electronics Market Size, Share & Industry Trends Analysis Report By Product (Batteries, Display, Solar Cell, Memories, Integrated Circuits & Chips and Others), By Industry, By Regional Outlook and Forecast, 2022 - 2028 |
到 2028 年,石墨烯电子产品的全球市场规模预计将达到 16 亿美元,在预测期内以 32.7% 的复合年增长率增长。
石墨烯具有导电、薄的特性,被用于电池、传感器、太阳能电池等各种电子设备部件,已经进行了研究。 可以在室温下导电并且只有一个原子厚的石墨烯半导体可以取代当前的计算机芯片技术。
石墨烯有可能製造出具有卓越性能的复合材料,从而提高散装材料的强度和导电性。 复合材料是两种或多种具有不同特性的物质的混合物,以创建具有独特特性的最终产品。 类似的工艺用于製造石墨烯复合材料。
COVID-19 影响分析
COVID-19 大流行对石墨烯电子市场的扩张产生了重大的负面影响。 这场大流行导致缺乏技术工人来製造下一代石墨烯电子产品,如电池、存储器和显示器。 它还影响了消费行业对成品零件和原材料的生产需求。 此外,此前不愿数字化的企业也因疫情进入市场。 因此,用于商业应用的柔性电子产品获得了新的前景,扩大了石墨烯在电子产品中的应用。
市场增长因素
对电子存储设备的需求正在增加
随着配备非易失性存储器和易失性存储器的中高端机型,如笔记本电脑、智能手机、穿戴式终端、游戏机等的普及,存储器件的应用领域正在急剧扩大。 低功耗、高均匀性、高密度、SET 电压调製和透明度等因素有望推动存储设备製造商生产石墨烯并将其整合到他们的产品中。 因此,基于石墨烯的存储系统将在未来的消费电子市场中获得更大的吸引力。
扩大石墨烯在汽车和电子应用中的应用
由于其优异的导热性、机械强度和高速电子迁移率等特性,石墨烯的使用在过去几年中显着增加,用于实现低功率、高速电子设备。 基于石墨烯的霍尔效应传感器提供了更快、更直接的磁场评估,具有精确映射电池单元所需的精度和范围,并已在英国一家公司进行了演示。 该传感器是作为电子设备中的稀有金属铟的替代品而开发的。 根据分析,原始设备製造商越来越关注製造基于石墨烯的电子产品,这正在显着推动市场增长。
市场製约因素
与使用石墨烯相关的高初始投资和其他挑战
石墨烯可以有效地导电,但它不能阻挡电流,因为它没有像石墨那样的带隙。 最近,科学家们采用了一种称为激光衝击印蹟的工艺来永久改变石墨烯的带隙结构。 在这个过程中,激光产生的衝击波脉衝撞击下面的石墨烯片。 这种激光轰击永久性地形成石墨烯,因为它将石墨烯层推入沟槽状模具中。 儘管这种方法使石墨烯的光学、磁学和热学性质更加通用,但石墨烯在半导体器件中的实际应用仍然存在明显的延迟。
行业展望
石墨烯电子市场按行业划分为消费电子、汽车、医疗保健、工业机器人、航空航天和国防等。 汽车领域将在 2021 年占据石墨烯电子市场的最高收入份额。 石墨烯具有众多内在应用,包括轮胎、电子产品、流体和流体系统,显示出巨大的潜力并正在推动这一领域的增长。 触摸屏和液晶显示器 (LCD) 是最常见的用户界麵类型,因此石墨烯是一种可用于各种用户界面的理想材料。
产品展望
石墨烯电子市场按产品细分为显示器、存储器、电池、太阳能电池、集成电路/芯片等。 到 2021 年,集成电路和芯片领域将在石墨烯电子市场中占据重要的收入份额。 在高速电子电路和设备的开发方面正在进行大量研究,以利用石墨烯在高频应用中的优异电气特性。 大面积石墨烯片的高电子迁移率有望提高石墨烯电子器件在高频应用中的电气性能和适用性。
区域展望
石墨烯电子市场按地区分析,横跨北美、欧洲、亚太地区和 LAMEA。 亚太地区在 2021 年提高了石墨烯电子市场的最高收入份额。 由于该地区有主要的消费电子产品製造商,例如手机和智能电视,因此许多产品中都使用了基于石墨烯的组件。 此外,石墨烯薄膜替代氧化铟锡作为智能电视、太阳能电池、智能手机、平板电脑和可穿戴电子产品中的透明导体的潜在应用有望推动该地区市场的增长。
The Global Graphene Electronics Market size is expected to reach $1.6 billion by 2028, rising at a market growth of 32.7% CAGR during the forecast period.
Graphene is the first 2-D carbon substance discovered. As a result, graphene is suitable for a wide range of uses in the electronics industry. Compared to steel, Graphene is 200 times stronger, 200 times lighter than air, a good conductor of electricity, and fire-resistant. Graphene is also valued as a powerful catalyst in the chemical industry due to attributes including its absorption capacity and high surface area.
The next-generation semiconductor technology may be developed using graphene, which conducts electricity better than existing electrode materials. The revolutionary material known as graphene is composed of a graphite atoms' single layer arranged as a single sheet. Graphene has several beneficial properties, some of which include improved heat conductivity, excellent mechanical strength, and extremely high electron mobility.
Due to graphene's distinctive characteristics of conductivity and thinness, which include its use in a variety of electronic device components, like batteries, sensors, solar cells, and more, extensive studies have been conducted on graphene's potential uses as a semiconductor. Current computer chip technology might be replaced by graphene semiconductors, as these can conduct electricity at room temperature and are only one atom thick.
Graphene has the ability to produce composite materials with exceptional properties and improve the strength and conductivity of bulk materials. Composite materials are created by mixing two or more substances with different qualities to create an end product with distinctive attributes. Similar processes are used in the production of graphene composites.
COVID-19 Impact Analysis
The COVID-19 pandemic had a substantial negative impact on the expansion of the graphene electronics market. The pandemic propagated the lack of a skilled workforce to create next-generation graphene electronics, including batteries, memories, displays, and other products. It also affected the demand for the production of final components and raw materials utilized in consumer industries. Several businesses that had reservations about the advantages of digitalization joined on board as a result of the pandemic. Flexible electronics for business applications consequently received new prospects, leading to the greater use of graphene on electronic products.
Market Growth Factors
Increasing need for electronic memory devices
Due to the growing popularity of mid- and high-end laptops, smartphones, wearables, gaming consoles, and other devices that employ these chips for non-volatile and volatile memory, the application of memory devices has experienced a tremendous increase. Low power consumption, high uniformity, increased density, SET voltage modulation, transparency, and other factors are expected to cause memory device manufacturers to shift their attention to the creation and incorporation of graphene in their products. This should help graphene-based memory systems gain more traction in the market for consumer electronics in the future.
Rising use of graphene in automotive and electronic applications
Due to its superior thermal conductivity, great mechanical strength, rapid electron mobility, and other features, the usage of graphene for the creation of lower-power-consuming and faster electronics have significantly increased during the past few years. A Hall Effect sensor based on graphene that delivers a quicker, more direct assessment of the magnetic field with the precision and range needed for precise battery cell mapping was introduced by a UK-based company. This sensor has been developed to replace rare metal indium in electronic devices. According to analysis, the OEMs' increasing focus on creating electrical goods based on graphene is greatly aiding the market growth.
Market Restraining Factors
High initial investment and other challenges associated with the use of graphene
Graphene is an efficient conductor of electricity, yet, like graphite, it cannot be shut off because it lacks a band gap. Recently, scientists employed a process called laser shock imprinting to permanently alter the band gap structure in graphene. During this process, shockwave impulses generated by a laser were directed at a graphene sheet beneath it. These laser shocks permanently shaped the graphene layer as they forced it into a trench-like mold. Although the method allows for greater versatility in utilizing the optical, magnetic, and thermal properties of graphene, there remains a large delay to market for commercializing graphene into semiconducting devices.
Industry Outlook
Based on industry, the graphene electronics market is categorized into consumer electronics, automotive, healthcare, industrial robotics, aerospace & defense, and others. The automotive segment garnered the highest revenue share in the graphene electronics market in 2021. With numerous essential uses, including tires, electronics, fluids, and fluidic systems, graphene exhibits significant potential and drives the segment's growth. Since touchscreens and liquid-crystal displays (LCDs) are the most common types of user interfaces, graphene is a desirable material that might be employed in various user interfaces.
Product Outlook
On the basis of product, the graphene electronics market is divided into display, memories, batteries, solar cell, integrated circuits & chips, and others. The integrated circuits and chips segment witnessed a significant revenue share in the graphene electronics market in 2021. Numerous research has been focused on developing high-speed electron circuits and devices to take advantage of graphene's exceptional electrical characteristics in high-frequency applications. The electrical abilities of graphene electronics and their applicability for high-frequency purposes are expected to be enhanced by the large-area graphene sheets' high electron mobility.
Regional Outlook
Based on region, the graphene electronics market is analyzed across North America, Europe, Asia Pacific, and LAMEA. The Asia Pacific region procured the highest revenue share in the graphene electronics market in 2021. Due to the presence of major producers of consumer electronics, such as mobile phones and smart TVs, in the region, graphene-based components are being used in many products. Additionally, the regional market is anticipated to experience growth due to the potential usage of graphene films, substituting the indium tin oxide as a transparent conductor in smart TVs, solar cells, smartphones, tablets, and wearable electronics.
The market research report covers the analysis of key stake holders of the market. Key companies profiled in the report include Samsung Electronics Co., Ltd. (Samsung Group), Talga Group Ltd., NanoXplore, Inc., Versarien plc, AMG Advanced Metallurgical Group N.V., Haydale Graphene Industries PLC, First Graphene Ltd., Graphenea, Graphene Platform Corporation, and Graphene Square, Inc.
Strategies deployed in Graphene Electronics Market
Jan-2023: Graphenea added new features to the mGFET line of products with the help of an inbuilt reservoir for liquids. This upgrade would be used for rapid screening and clinical testing. Additionally, this product eases the use of bio sensing. The mGFET product line is developed to reduce the barriers to the adoption of graphene as a biosensor.
Sep-2022: Versarien collaborated with BiaBrazil, a sport and activewear manufacturer. Under this partnership, the company would manufacture garments designed for both style and comfort along with maintaining performance and quality levels with Graphene-Wear technology.
Jun-2022: Versarien unveiled a new nanomaterial having super paramagnetic properties that can be used in various fields including healthcare and defense. Through this launch, the company is growing into the generation of nanomaterial and delivering innovation to the industries globally.
Jun-2022: Versarien partnered with OG Classic, a sports and leisurewear manufacturer. The partnership would result in the growth of graphene-based fabrics in the markets of the Middle East.
Jul-2022: Graphenea partnered with Grapheal, a company providing digital biosensors for wearables, wound care and diagnostics. Under this partnership, the companies would hasten the research on biosensors with the help of the new software GraphLAB. This software would integrate acquisition protocols, capacitance change detection and automation programming with actual time conductance shift analysis.
Dec-2021: NanoXplore Inc. acquired Canuck Compounders Inc., a company engaged in custom compounding of engineered resins. This acquisition would increase the company's capabilities for graphene compounding in recycled plastics and would allow the company to partner with the end customers.
Sep-2021: Talga is expanding its footprints in northern Sweden by building a low emission battery anode production factory and integrating graphite mining operations with the use of renewable electricity. On reaching the growth phase of battery anode operations in Sweden this would electrify the underground mining processes
Jun-2021: NanoXplore Inc. signed a distribution and supply agreement with Gerdau Grafeno LTDA, a company engaged in making graphene-based solutions. This would help in the expansion of graphene applications at industrial levels and would target the customers in construction and concrete markets. This agreement would help in boosting the company's position in the graphene market and would potentially increase the demand of graphene much more than the NanoXplore's producing capacity.
Dec-2020: Talga Group signed an MoU with ABB, a technology company in the field of electrification and automation. Under this MoU, the companies would develop Talga's Vittangi Anode Project in northern Sweden. This would help the company to build the biggest lithium-ion battery anode production factory in Europe.
Dec-2020: Graphenea came into collaboration with Lantania, a construction engineering company. Under this collaboration, the combining companies would study the usage of graphene in concrete. Through this collaboration, the company would bring graphene-based additives for concrete to the market to provide performance advancements.
Sep-2020: NanoXplore Inc. took over Continental Structural Plastics, a design and service supplier to transportive industries. Through this acquisition, the company would enter US markets and increase the sale of graphene. The graphene-based products can be manufactured and stored in the Newton facility.
Nov-2019: Graphenea unveiled highly flat monolayer graphene. This launched product would be able to demand wafer-scale integration to manufacture uniform graphene devices which are compatible with ongoing fabrication methods in the industries.
Jan-2018: Graphenea unveiled a 6" graphene wafer on all the organization's standard substrates. This newly launched wafer would be used by commercial fabrication lines for their use in sensing, NEMS, MEMS and electronics.
Market Segments covered in the Report:
By Product
By Industry
By Geography
Companies Profiled
Unique Offerings from KBV Research
List of Figures