Market Insight:
Passive electronic components are those that do not generate electricity and are incapable of power gain. Passive electronic components collect energy and operate without the need of electricity.
Given the increasing use of MLCCs in different developing industries and applications (e.g., 5G infrastructure, 5G SP, server/cloud, and automotive), demand for total passive components is likely to rise steadily over the next five years. The global passive components market is projected to reach US$39.68 billion by 2023. The market is expected to grow at a CAGR of 5.44% during the forecast period of 2022-2027, with multilayer ceramic capacitors (MLCCs) being the dominant product and a key growth driver.
Segment Covered:
Geographic Coverage:
The report provides insight into the passive components market based on the geographical operations, namely North America, Europe, Asia Pacific, and Rest of the world. The countries covered in North America region are the US, Mexico, Canada, while Europe includes UK, Germany, France, Italy and Rest of Europe. Moreover, China, Japan, Asia excluding China & Japan are included in the Asia Pacific region.
Asia Pacific held the largest share in the market, owing to rapid urbanization in the developing markets such as India and China which has surged the demand for passive components in the cities. Within North America, the US is leading the market, due to rising demand for smart home devices, implementation of Industry 4.0, and rising environmental concerns over limiting carbon emissions. Whereas, in the Europe region, Germany is dominating the market due to growth in automotive sector.
Top Impacting Factors:
Growth Drivers
Challenges
Trends
Driver: Surging Demand for Electric vehicles
The increase in inductors and electric vehicles (EV-type cars) is rapidly reducing the environmental burden and increasing the number of ECUs (electronic control units), thereby leading to stronger demand for electronic components whose miniaturization and further performance improvements have been rising. The growing market for these vehicles will offer additional growth opportunities to power inductor manufacturers. Electric vehicles, plug-in inductors, and other motor vehicles deploy electric drive trains. These drive trains are creating a significant demand for electronic components and subsystems. In these vehicles, aluminum electrolytic and film capacitors are used in drive-train applications, including boost inverters, DC/DC converters, motor inverters, onboard chargers, and wall chargers, thus propelling the overall passive components market in coming years.
The increased cost of metals substantially impacts the mass-produced electronic components used in the consumer electronics and automotive industries. The variable costs for manufacturing passive electronic components are between 40% and 50%, while the fixed costs are between 15% and 20%. Metal costs, as a proportion of the total cost of goods sold, may account for approximately 25% of large producers' expenses. Consequently, increases in the prices of palladium, nickel, and ruthenium affect the total cost of production for specific high-volume components. In addition, external factors such as mine closures, labor disputes, refinery closures, and speculation are anticipated to contribute to the price increases of critical metals used in the mass manufacturing of passive electronic components market.
Electrical grids include several components such as wires, switches, resistors, capacitors, inductors, and transformers, among others; wherein the smart grid system adds a digital communication and remote-control facilities. Smart grids facilitate two-way communication, aiding end users in energy management, minimizing power disruptions, and transporting the required amount of electricity. The main components of a smart grid include smart meters and a communication channel. Smart meters are capable of enhancing electrical grid efficiency, reliability, and security. Various components such as soft magnetic components are used in smart meters ensure communication between the location of customers and the remote center. As a result, the increasing smart grid initiatives by the government followed by smart meter installations are expected to drive the passive electronic components market considerably over the forecast period.
The COVID-19 Analysis:
The novel coronavirus pandemic and the resulting lockdowns have negatively impacted numerous manufacturing and service industries by hampering both the supply-side and demand-side supply chains. The passive component’s raw materials supply chain is affected by supply disruptions caused by the COVID-19 outbreak. Proximity to production sites impacted by the pandemic (China and Taiwan) and volatile materials supply showcased that chip resistors are the largest red flag. Asia-Pacific countries, such as Malaysia, faced several closures of passive components production sites due to the rise in the COVID-19 outbreak. For instance, in June 2021, Bourns Magnetic Components announced the closure of its Malaysia production site, and no shipments will be made from the manufacturing factory due to the complete lockdown.
Analysis of Key Players:
The passive components market is consolidated, where, TDK Corporation, Panasonic Corporation and Yageo Corporation are major market players. Japanese makers are leaders in many key passive component categories (e.g., MLCC, inductor, and film capacitor). The key players in the global passive components market are:
Some of the strategies among key players in the market for passive components market are mergers, acquisitions, and collaborations. For instance, in 2022, Vishay Intertechnology, Inc. introduced a new series of screw-terminal aluminum electrolytic capacitors that allow designers to pack more energy storage into less space. Available in 11 case sizes ranging from 35 mm by 60 mm to 90 mm by 220 mm. Whereas, Kyocera Corporation has developed a new thin-film process technology for making unique silicon (Si) substrates for gallium nitride (GaN)-based micro-light sources, including short-cavity lasers and micro-LEDs.