Global Integrated Passive Devices Market Size, Trend & Opportunity Analysis Report, By Passive Devices (Baluns, Filters, Couplers, Diplexers And Triplexers, Resonators, Others Including Power Splitters, Combiners, And Attenuators), By Substrate (Silicon, Glass Wafer, Ceramic, Others), By Technology (Thin-Film Technology, Thick-Film Technology, 3D IPD Technology), By Packaging Configuration (Chip-Scale Package (CSP), Wafer-Level Package (WLP), System-in-Package (SiP), Flip-Chip Package), By End-Use Industry (Consumer Electronics (Smartphones, Wearables, Tablets And Laptops, Smart TVs, Gaming Consoles, Others), Telecommunications (5G Infrastructure, Base Stations, Small Cells, Satellite Communications, Routers And Modems, IoT Connectivity, Fibre Optic Networks, Others), Automotive (ADAS, Infotainment Systems, Battery Management Systems, V2X Communication, Autonomous Driving, Telematics, Others), Healthcare (Wearable Health Devices, Implantable Medical Devices, Medical Imaging, Patient Monitoring, Diagnostic Equipment, Smart Drug Delivery, Others), Aerospace And Defence (Radar Systems, Satellite Communication, Military Radios, Avionics, Electronic Warfare, Space Exploration, Others), Industrial (Smart Sensors, Automation And Robotics, Motor Control, Security And Surveillance, Others), Others), and Forecast 2026-2035
Global Integrated Passive Devices Market Size, Opportunity Analysis and Forecast, 2026-2035
Integrated Passive Devices Market Overview and Definition
The Global Integrated Passive Devices Market was valued at USD 1.61 billion in 2025, and is projected to reach USD 3.16 billion by 2035, growing at a CAGR of 7.00% from 2026 to 2035. That consistent growth rate reflects a component market whose commercial relevance is accelerating, not just expanding. The relentless miniaturisation of smartphones, wearables, and IoT devices is compressing the space available for discrete passive components, and IPDs solve that problem directly by integrating resistors, capacitors, inductors, filters, baluns, and couplers into a single, compact package. North America held the largest market share at approximately 27 to 32% in 2024, driven by 5G deployment and defence electronics demand, whilst Asia-Pacific is the fastest-growing region, powered by consumer electronics manufacturing scale and smartphone-driven demand.
Key Market Trends & Analysis
- The Integrated Passive Devices Market size reached USD 1.61 billion in 2025, reflecting expanding semiconductor integration demand globally.
- The market is projected to grow at a 7.00% CAGR during 2026–2035, supported by accelerating device miniaturisation trends.
- Global market value is forecast to reach USD 3.16 billion by 2035, driven by 5G, IoT, and automotive adoption.
- Rising 5G deployment, smartphone miniaturisation, and expanding IoT ecosystems are primary growth drivers shaping industry analysis.
- North America accounted for approximately 27–32% market share in 2024, supported by defense electronics and 5G investments.
- Filters dominate the passive device segment, benefiting from increasing frequency selection requirements across 5G and wireless applications.
- Silicon substrate held 84.8% market share in 2024, driven by semiconductor compatibility and advanced process integration capabilities.
- Consumer electronics remains the leading end-use segment, supported by growing smartphone, wearable, and wireless connectivity demand.
- The United States generated approximately USD 421 million revenue in 2024, leading regional demand through telecom infrastructure expansion.
- In August 2025, STMicroelectronics launched nine RF IPDs, delivering up to 30% board space savings for IoT applications.
Integrated Passive Devices Market Size and Growth Projection:
- Market Size in 2025: USD 1.61 Billion
- Market Size by 2035: USD 3.16 Billion
- CAGR: 7.00% from 2026 to 2035
- Base Year: 2025
- Forecast Period: 2026–2035
- Historical Data: 2024–2025
IPDs are semiconductors consisting of multiple functions like filtering, impedance matching, ESD protection, and signal conditioning within one integrated circuit made up of silicon, glass wafer, ceramics, or composite substrates. The key segments for the market are six major passive devices categories: baluns, filters, couplers, diplexers & triplexers, resonators, and power splitters & attenuators. The three main technological processes involved in production are thin film technology which ensures high accuracy in performance, thick film technology providing economic advantage, and 3D IPD technology allowing maximum integration density. The packaging technologies involved are chip scale package, wafer level package, system in package, and flip chip package. The end-use industries include consumer electronics, telecommunication, automotive, health care, aerospace & defence, and industrial automation, where consumer electronics holds the largest revenue share while 5G telecommunication is the fastest growing application area.
Indeed, this is no false tension. The advantages that IPDs provide in terms of miniaturization and integration are obvious. However, the difficulties associated with IPDs' fabrication and the associated cost of substrate processing constitute real roadblocks that impede widespread deployment outside the most lucrative markets like smartphones and 5G radio frequency (RF) front-end devices. For every designer working towards integrating IPDs in their devices, another one compares the cost of discrete components to the benefits of the former. The factor that makes this tipping point tilt decisively in favor of IPDs is density: with the proliferation of components on smaller devices in 5G, ADAS, and wearable technology markets, IPDs become not just desirable, but necessary.
In August 2025, STMicroelectronics introduced nine new RF IPDs optimised for STM32WL wireless microcontrollers, supporting frequencies from 490 MHz to 915 MHz and delivering up to 30% board space savings compared to discrete component designs.
Recent Developments in the Integrated Passive Devices Industry
- In June 2024, Johanson Technology launched their 900MHz directional RF SMD coupler which they named P/N 0898CP14C0035001T for use in wireless applications that support IoT and cellular and LoRa systems and ISM band operations. The compact EIA 0603 form factor and RoHS compliance enable seamless PCB integration. The launch helps Johanson maintain its market position in high-growth IoT connectivity because sub-GHz frequency IPD solutions have reached increased demand from smart meter and industrial wireless and agricultural IoT markets worldwide.
- In October 2024, Johanson Technology introduced an antenna design based on IPD technology which decreases component dimensions by 15% while increasing bandwidth capacity to meet the growing density needs of IoT devices. The development shows how IPD manufacturers need to compete by delivering actual size reductions which make their products worth more than standard products. The 15% size decrease of antenna components provides essential design flexibility to system designers who work with congested PCB layouts for wearable and IoT devices.
- In October 2024, As part of the expansion of their integrated passive devices offering, Murata Manufacturing opened a new production line in France that would provide a range of miniature and high-performance IPDs to cater to the needs of wireless and telecommunication sectors. The opening of the production facility in France is indicative of Murata's dedication towards building a manufacturing presence in Europe due to the growing regionalization of the telecom value chains.
- In August 2025, STMicroelectronics has rolled out a series of nine new radio frequency (RF) Integrated Passive Devices (IPD), optimized for use with its STM32WL wireless microcontrollers. These IPDs incorporate antenna matching, baluns, and harmonic filters into one chip solution. The new IPDs operate within a frequency range of 490 to 915 MHz and provide up to 30 percent board area savings over discrete components. For STMicroelectronics, this development represents an enhanced vertical integration in the STM32 microcontroller line-up, addressing applications in the Internet of Things (IoT) and industrial wireless segments.
Integrated Passive Devices Market Dynamics: Drivers, Restraints, Opportunities, Trends and Challenges
Rising 5G deployment and smartphone miniaturisation are driving integrated passive device market growth.
Every new 5G smartphone generation requires more RF filters, baluns, and diplexers packed into a progressively smaller form factor. The primary technology that enables this compression process operates through IPDs. Sub-6GHz and mmWave 5G front-end architectures demand precise impedance matching and harmonic filtering which discrete components fail to provide at their required size and performance level. The IoT device market is expected to reach 29.4 billion connected devices by 2030 which creates ongoing demand for small space multi-function passive solutions across consumer products industrial equipment and healthcare systems.
High manufacturing complexity and substrate cost constraints continue to restrain IPD market expansion.
The production of IPDs needs semiconductor-grade manufacturing processes and precision thin-film deposition and yield management processes which create production costs that exceed the costs of producing discrete components. The use of discrete passive components proves practical for applications which have moderate form factor limitations and face strong cost constraints. The qualification process for automotive and medical applications creates additional delays and expenses which slow down IPD adoption in markets where its performance benefits should drive procurement but existing discrete designs remain the popular choice.
5G infrastructure rollout and automotive ADAS integration offer strong IPD market growth opportunities.
The trend towards denser 5G base station deployment, small cell technology implementation, and satellite communication networks is driving high-value demand for IPD filters, couplers, and diplexers which offer the frequency selectivity and isolation performance that contemporary RF architectures need. The increasing prevalence of ADAS applications in vehicles is also contributing to rising demand for IPDs through the requirements of radar, V2X communication, and telematics units. The launch of IPD devices targeting ADAS applications by STMicroelectronics in January 2025 highlights the commercial potential of the segment.
Thermal dissipation limitations and advanced packaging qualification timelines challenge IPD market participants globally.
As IPD operating frequencies move into the mmWave range, and with increasing power demands in automotive and industrial markets, thermal considerations become a true design constraint inside the package. Different materials behave thermally dissimilarly, and the thermal differences between the materials have led to specification differences that prevent the use of IPD technology for certain high-power applications. The qualification process for advanced packaging in automotive AEC-Q200 and medical IEC 60601 standards adds a six- to twelve-month delay in time-to-market, putting companies at a competitive disadvantage in tackling these lucrative markets.
Thin-film technology advances, SiP adoption, and edge AI integration reshape integrated passive device trends.
Thin film technology is evolving to bring high accuracy in terms of sub-micron deposition tolerances, which allow IPD frequency response behavior comparable to discrete component design. The use of SIPs technology is helping IPD applications extend their reach from isolated passive component functions to integrated RF front end modules that incorporate both active and passive components within one chip. At the same time, the inclusion of Edge AI capabilities in IoT and industrial devices is requiring compact and efficient passive solutions for continuous sensor operation and communication capabilities.
Where Are the Biggest Opportunities in the Integrated Passive Devices Market?
- 5G RF Front-End Modules: Sub-6GHz and mmWave 5G device proliferation is creating sustained high-value demand for IPD-based filter and balun solutions.
- Automotive ADAS Integration: Radar, V2X, and telematics system miniaturisation requirements are generating automotive-grade IPD procurement demand across Tier 1 suppliers.
- IoT Device Miniaturisation: Billions of connected IoT devices requiring compact multi-function passive integration represent a structurally growing addressable market for IPD manufacturers.
- Wearable Healthcare Devices: Implantable and wearable medical devices demanding precise RF performance in miniaturised form factors represent a premium-priced IPD application segment.
- System-in-Package Expansion: Growing SiP adoption across smartphones and IoT modules is creating demand for IPD components integrated within advanced multi-chip packaging architectures.
- Glass Wafer Substrate Adoption: Through-glass-via technology enabling high-frequency performance advances is creating differentiation opportunities for manufacturers investing in glass substrate IPD platforms.
- Satellite Communication Systems: Expanding LEO satellite constellation deployments are generating demand for high-reliability IPD solutions in compact satellite communication modules.
- Industrial Smart Sensor Networks: Automation and robotics smart sensor deployments requiring miniaturised wireless interface components are creating consistent IPD procurement in industrial markets.
- ESD and EMI Protection Integration: Stricter electromagnetic compatibility regulations across automotive and consumer electronics are driving demand for integrated ESD and EMI protection IPD solutions.
- 3D IPD Technology Platforms: Three-dimensional IPD integration enabling the highest component density is creating competitive differentiation for manufacturers investing in next-generation packaging platforms.
Integrated Passive Devices Market Segmentation Analysis
Report Attributes | Details |
Market Size in 2025 | USD 1.61 Billion |
Market Size by 2035 | USD 3.16 Billion |
CAGR (2026-2035) | 7.00% |
Base Year | 2025 |
Forecast Period | 2026-2035 |
Historical Data | 2022-2024 |
Report Scope & Coverage | Market Size, Segments Analysis, Competitive Landscape, Regional Analysis, Analysis, Forecast Outlook |
Key Segments | By Passive Devices: Baluns, Filters, Couplers, Diplexers and Triplexers, Resonators, Others including Power Splitters, Combiners, and Attenuators By Substrate: Silicon, Glass Wafer, Ceramic, Others By Technology: Thin-Film Technology, Thick-Film Technology, 3D IPD Technology By Packaging Configuration: Chip-Scale Package (CSP), Wafer-Level Package (WLP), System-in-Package (SiP), Flip-Chip Package By End-Use Industry:
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Regional Analysis/Coverage | North America (U.S, Canada, Mexico), Europe (UK, Germany, France, Spain, Italy, rest of Europe), Asia Pacific (China, India, Japan, Australia, South Korea, rest of Asia Pacific), LAMEA (Latin America, Middle East, and Africa) |
Company Profiles | Broadcom, CTS Corporation, Global Communication Semiconductors LLC, Infineon Technologies AG, Johanson Technology Inc., MACOM, Murata Manufacturing Co. Ltd., NXP Semiconductors, ON Semiconductors, Qorvo Inc., STMicroelectronics, Texas Instruments Incorporated |
Dominating Segments in the Integrated Passive Devices Market
Filters dominate the passive device segment through 5G and wireless connectivity proliferation demand.
The passive device segment generates most of its revenue through filter sales because wireless communication systems require filters to provide both frequency selection and signal separation needed in smartphone RF front ends and 5G base stations and automotive V2X modules. 5G devices need multiple filters to separate uplink from downlink frequencies while also suppressing harmonics and handling multiple wireless standards that operate at the same time. Device filter requirements are increasing because more 5G bands operate at sub-6GHz and mmWave frequencies which create additional frequency diversity. The second biggest passive device category consists of baluns which provide Bluetooth and Wi-Fi and cellular applications with both impedance transformation and balanced-to-unbalanced signal conversion functions. The demand for diplexers and triplexers is increasing because device manufacturers need to manage multiple frequency signals at the same time in their multi-band device designs.
In August 2025, STMicroelectronics introduced nine new RF IPDs including harmonic filter circuitry for STM32WL microcontrollers, delivering up to 30% board space savings over discrete filter designs for IoT applications.
Silicon substrate leads the IPD segment through semiconductor compatibility and advanced process integration.
The substrate segment in 2024 had 84.8% market share for silicon, which achieved this status through its semiconductor process capabilities and miniaturisation abilities and developed ecosystem. Standard CMOS production lines enable the manufacturing of silicon IPDs, which permit the integration of active circuitry and connection to the complete worldwide manufacturing network. Silicon process flexibility and thin-film deposition accuracy make it the primary substrate choice for 5G and IoT and automotive applications that need maximum integration density. The development of glass wafer substrates for high-frequency applications, which use through-glass-via technology, achieves fast progress because these substrates exhibit lower dielectric loss at mmWave frequencies than silicon, which creates a premium niche that will grow as mmWave 5G and satellite communications deployments increase.
In October 2024, Murata Manufacturing launched a new production line in France for compact high-performance IPD solutions, with silicon-based advanced packaging platforms central to its telecommunications and wireless application portfolio.
Consumer electronics leads the end-use segment through smartphone and wearable miniaturisation demand globally.
End-use applications constitute the highest revenue segment, based on smartphone RF front-end development and the constant pressure of miniaturization that forces the increasing need for IPDs in each new product iteration. The latest flagship smartphones make use of multiple IPDs to perform filtering, balun, and impedance matching duties for signals received in cellular, Wi-Fi, Bluetooth, and GPS bands. Consumer electronics have seen steady growth in the wearables category, which includes devices like headphones, smart watches, and health monitoring systems. The need for miniaturized wireless interfaces can only be met through the use of IPDs. Other products that contribute to this category include gaming consoles and smart TVs.
In October 2024, Johanson Technology released an IPD-based antenna reducing component size by 15% whilst enhancing bandwidth, directly targeting IoT and consumer electronics device designers managing crowded PCB layouts.
Thin-film technology dominates the IPD technology segment through precision and high-frequency performance advantages.
Thin-film technology is clearly the technology to beat in terms of its dominance in the technology category due to its ability to deliver the required dimensional precision, reduced parasitic effects, and high frequency requirements. Thin-film technology is able to provide sub-micron deposition tolerances that lead to high consistency and accuracy in components values, which is something thick film technology cannot achieve. Thin-film technology is, therefore, the preferred technology in the development of IPDs for 5G RF applications, whereby frequency response accuracy influences certification. Thick-film technology is relevant in cost-sensitive consumer applications and lower frequencies. The fastest growing technology is 3D IPD technology due to the increased density per unit area offered through vertical integration.
In September 2023, X-FAB Silicon Foundries added thin-film IPD fabrication to its 130nm RFSOI process at its Corbeil-Essonnes, France facility, targeting 5G, 6G, radar, and satellite communications applications.
Regional Insights in the Integrated Passive Devices Market
North America leads integrated passive device market growth through 5G expansion and defence electronics investment.
The United States 5G network deployment and semiconductor research and development investment and defense and aerospace electronics procurement activities enable North America to maintain its status as the leading global market for IPD. The United States market reached a value of about USD 421 million in 2024, as the deployment of 5G network infrastructure and Internet of Things connectivity created a steady demand for IPD in both enterprise and telecommunications sectors. University-industry partnerships established through National Science Foundation and Semiconductor Research Corporation programs have developed cutting-edge IPD prototypes that enable high-frequency applications. The United States markets IPD products through Broadcom and Qorvo and MACOM, which enables the region to compete in all IPD application areas needed for both commercial wireless and defense radar systems.
In August 2025, STMicroelectronics introduced nine new RF IPDs for STM32WL microcontrollers delivering 30% board space savings, directly addressing North American IoT and industrial wireless design engineer demand.
Europe accelerates IPD adoption through automotive electrification mandates and industrial automation investment programmes.
The European IPD market demonstrates growth through automotive electrification requirements and Industry 4.0 technology investments and telecommunications system enhancements. The German automotive industry drives European IPD demand through its substantial investments into electric vehicle platform development and advanced driver assistance systems and vehicle-to-everything communication technology. STMicroelectronics will introduce automotive-grade integrated power devices for advanced driver assistance systems in January 2025, which will establish STMicroelectronics as a European automotive power device design center. Murata established a new IPD production line in France to demonstrate its commitment to regional manufacturing, which European OEMs need for building local supply chains that reduce geopolitical risks. X-FAB Silicon Foundries expanded its RFSOI IPD manufacturing operation in France to enhance European IPD production capabilities for 5G networks and radar systems and satellite communication technologies.
In October 2024, Murata Manufacturing launched a new IPD production line in France targeting compact high-performance wireless and telecommunications solutions, reinforcing European regional manufacturing capacity for IPD supply chains.
Asia-Pacific dominates IPD production through smartphone manufacturing scale and 5G infrastructure deployment.
Asia-Pacific is the leading source for IPD manufacturing, as well as the most promising regional demand center owing to the huge production volume of smartphones from countries such as China, Japan, and South Korea and the development of their 5G infrastructure, and the increasing number of electronic components used in automobiles. The predominance of the Murata Manufacturing company in the Asian region speaks for the history of Japan in terms of producing highly accurate passive components. The huge production of consumer electronics in China makes up the highest procurement demands for IPDs from any single country worldwide, while the products of companies like Samsung and LG from South Korea continue to create a constant demand for high-quality IPDs.
In June 2024, Johanson Technology launched a 900MHz RF SMD coupler in EIA 0603 format targeting IoT, cellular, and LoRa applications, directly addressing Asia-Pacific's accelerating sub-GHz IoT connectivity device demand.
LAMEA builds integrated passive device capability through telecommunications and industrial infrastructure investment growth.
The LAMEA region represents a nascent opportunity in terms of demand generation for IPDs, especially with the investments from GCC countries into 5G telecom networks, smart city infrastructure, and industry automation, which will result in the requirement for IPDs. In Saudi Arabia and the United Arab Emirates, their programs for a digital economy have resulted in the creation of opportunities for developing 5G networks and investing in electronics manufacturing to create IPD demand. Within Latin America, the demand generation for IPDs can be driven by the upgrading of telecom networks and the growth in consumer electronics in Brazil.
In January 2025, STMicroelectronics introduced automotive-grade IPDs for ADAS applications offering improved durability in harsh environments, with Gulf region automotive market expansion among the targeted growth opportunities for the product range.
How Can Stakeholders Benefit from the Integrated Passive Devices Market Report?
- The report offers a quantitative assessment of market segments, emerging trends, projections, and market dynamics for the period 2024 to 2035.
- The report presents comprehensive market research, including insights into key growth drivers, challenges, and potential opportunities.
- Porter's Five Forces analysis evaluates the influence of buyers and suppliers, helping stakeholders make strategic, profit-driven decisions and strengthen their supplier-buyer relationships.
- A detailed examination of market segmentation helps identify existing and emerging opportunities.
- Key countries within each region are analysed based on their revenue contributions to the overall market.
- The positioning of market players enables effective benchmarking and provides clarity on their current standing within the industry.
- The report covers regional and global market trends, major players, key segments, application areas, and strategies for market expansion.
Frequently Asked Question(FAQ) :
The Global Integrated Passive Devices Market is primarily driven by rising 5G deployment and the relentless miniaturisation of smartphones and IoT devices through 2035. The IoT device market is expected to reach 29.4 billion connected devices by 2030, creating sustained demand for compact, multi-function passive solutions. Additionally, the increasing prevalence of ADAS applications in vehicles, requiring radar, V2X communication, and telematics units, contributes to this demand. STMicroelectronics' January 2025 launch of IPD devices for ADAS highlights this commercial potential. Full segmentation and regional analysis is available at kaisoresearch.com.
Filters dominate the passive device segment, generating most of the revenue in the Global Integrated Passive Devices Market, driven by 5G and wireless connectivity proliferation demand. Wireless communication systems, including smartphone RF front ends and 5G base stations, require filters for frequency selection and signal separation. For example, STMicroelectronics introduced new RF IPDs in August 2025, including harmonic filter circuitry, delivering up to 30% board space savings for IoT applications.
Thin-film technology dominates the Integrated Passive Devices Market due to its precision and high-frequency performance advantages, offering sub-micron deposition tolerances critical for 5G RF applications. Thick-film technology provides an economic advantage, suitable for cost-sensitive consumer applications and lower frequencies. 3D IPD technology is the fastest-growing, enabling maximum integration density through vertical integration. X-FAB Silicon Foundries expanded its thin-film IPD fabrication in September 2023, targeting 5G and radar applications.
North America held the largest market share, approximately 27 to 32% in 2024, in the Integrated Passive Devices Market. This leadership is driven by extensive 5G deployment, defence electronics demand, and semiconductor R&D investment. The United States market alone reached about USD 421 million in 2024, supported by companies like Broadcom, Qorvo, and MACOM.
Key players in the Integrated Passive Devices Market include Broadcom, Johanson Technology Inc., Murata Manufacturing Co. Ltd., NXP Semiconductors, Qorvo Inc., and STMicroelectronics. These companies are actively introducing new IPDs, such as Johanson Technology's 900MHz RF SMD coupler in June 2024 for IoT, and STMicroelectronics' RF IPDs for STM32WL microcontrollers in August 2025. Their focus is on miniaturization, performance, and specific application areas like 5G and ADAS.
Consumer electronics holds the largest revenue share in the Integrated Passive Devices Market, driven by smartphone RF front-end development and the miniaturisation demands of wearables. The automotive sector, however, is the fastest-growing end-use application through 2035, propelled by ADAS, V2X communication, and battery management system miniaturisation. For instance, STMicroelectronics introduced automotive-grade IPDs for ADAS in January 2025, highlighting this growth area. This dual dynamic underscores the market's broad applicability.
High manufacturing complexity and the associated cost of substrate processing are main challenges restraining the Integrated Passive Devices Market expansion. Production requires semiconductor-grade processes and precision thin-film deposition, leading to costs exceeding discrete components. Thermal dissipation limitations also pose a design constraint, especially for mmWave frequencies and high-power applications, preventing IPD use in certain areas. Furthermore, the six- to twelve-month qualification process for automotive AEC-Q200 and medical IEC 60601 standards creates delays and expenses, slowing adoption in lucrative markets.
Asia-Pacific is the fastest-growing region in the Integrated Passive Devices Market, powered by its extensive consumer electronics manufacturing scale and rapid 5G infrastructure deployment. Countries like China, Japan, and South Korea are central to this growth, with China's consumer electronics production generating the highest IPD procurement demands globally. Murata Manufacturing's presence in Japan and the continuous demand from companies like Samsung and LG in South Korea further fuel this regional acceleration.
Kaiso Research's report on the Global Integrated Passive Devices Market was built using a comprehensive methodology, covering historic years 2022, 2023, and 2024, with a base year of 2025, and a forecast period extending from 2026 to 2035. The 293-page report provides detailed segmentation across passive devices, substrates, technologies, packaging configurations, end-use industries, and regions. Complete primary research methodology, including interview count and coverage scope, is disclosed in Kaiso Research's full report at kaisoresearch.com.
