超材料:技術及全球市場 是由出版商BCC Research在2012年01月所出版的。
這份英文市場調查報告書包含150 Pages 價格從美金4850起跳。
全球超材料市場2010年為2億2,230萬美元，BCC預計2011年將達到2億5,610萬美元的規模。該市場2011年以年複合成長率(複合年度成長率)24.3％增長，2016年將以7億5,870萬美元的規模擴大，年複合成長率19.6％的2021年將達到19億美元。
本報告提供全球超材料市場相關調查分析，超材料概要，種類，及應用彙整，人工介電質，負折射介質，活性兆赫超材料，手性材料，光晶體，極限參數超材料，磁性奈米複合材料，及聲波超材料等主要的市場區隔分析，各不同市場區隔的市場預測（∼2021年），主要的企業的資訊等，為您概述為以下內容。
第1章 簡介
第2章 摘要整理
第3章 概要
- 超材料概要
- 超材料種類與應用程式
- 整體的市場規模與市場區隔
第4章 人工介電質:材料，最終用途，及市場(2010-2021年)
第5章 負折射介質:材料，最終用途，及市場(2010-2021年)
第6章 活性兆赫超材料:材料，最終用途，及市場(2010-2021年)
第7章 手性材料:材料，最終用途，及市場(2010-2021年)
第8章 光晶體:材料，最終用途，及市場(2010-2021年)
第9章 超傳導 超材料:材料，最終用途，及市場(2010-2021年)
第10章 極限參數超材料:材料，最終用途，及市場(2010-2021年)
第11章 磁性奈米複合材料:材料，最終用途，及市場(2010-2021年)
第12章 聲波超材料:材料，最終用途，及市場(2010-2021年)
第13章 企業簡介
- ALIGHT TECHNOLOGIES APS
- ALPS ELECTRIC CO., LTD.
- COLOSSAL STORAGE CORP.
- FIANIUM, LTD.
- ICX TECHNOLOGIES
- INFRAMAT CORP.
- JEM ENGINEERING, LLC
- LUMINUS DEVICES, INC.
- LUXTERA, INC.
- NEOMAX COMPANY, LTD.
- OMNIGUIDE, INC.
- NANOSTEEL COMPANY, INC.
- NEWPORT CORPORATION
- NKT PHOTONICS A/S
- OMNIGUIDE, INC.
- OPALUX INC.
- PHOTEON TECHNOLOGIES GMBH
- PHOTONIC LATTICE, INC.
- RAYSPAN, INC.
- ROOM TEMPERATURE SUPERCONDUCTORS, INC.
- SANDVIK MATERIALS TECHNOLOGY AB
- TERAVIEW, LTD.
- VACUUMSCHMELZE GMBH
第14章 附錄:專利分析
第15章 參考文獻
圖表
Abstract
REPORT HIGHLIGHTS
BCC estimates the global market for metamaterials was worth $222.3 million in
2010 and $256.1 million in 2011. BCC expects the market to grow to $758.7
million by 2016, a compound annual growth rate (CAGR) of 24.3% since 2011, and
to reach nearly $1.9 billion by 2021, a CAGR of 19.6% between 2016 and 2021.
The Electromagnetic segment of the market was estimated to be worth $140
million in 2010 and $160.6 million in 2011. BCC expects the market to grow to
$412.2 million by 2016, a CAGR of 20.7% since 2011, and to reach nearly $1.2
billion by 2021, a CAGR of 23.5% between 2016 and 2021.
The extreme-parameter and other segments were collectively estimated to be
worth $82.3 million in 2010 and $95.5 million in 2011. BCC expects the market
to grow to $346.5 million by 2016, a CAGR of 29.4% since 2011, and to reach
nearly $630 million by 2021, a CAGR of 12.7% between 2016 and 2021.
REPORT SCOPE
INTRODUCTION
STUDY BACKGROUND
In October 2006, David R. Smith of Duke University and other researchers
announced that they had created an " invisibility shield." Using concentric
rings of fiberglass, circuit boards that had been printed with
millimeter-scale metal wires, and C-shaped split rings, the researchers were
able to divert microwaves around a metal cylinder placed at the center of the
ring. The microwaves behaved as though there was nothing there.
In principle, there is no reason why a similar device that cloaks an object
from visible light could not be built, although such a visible-light cloak is
probably years away from becoming a reality. While not yet exactly the stuff
of science fiction, the invisibility cloak is probably the most dramatic
demonstration so far of what can be achieved with metamaterials, which are
composites made up of precisely arranged patterns of two or more distinct
materials.
Metamaterials can manipulate electro-magnetic radiation (e.g., light) in ways
not readily observed in nature. Photonic crystals, which are periodic
dielectric structures that diffract light of specific wavelengths and do not
allow that light to leave the structure (i.e. the band gap), present a current
example of optical metamaterials. Photonic crystals have a number of
commercial applications, such as in ultrabright light-emitting diodes (LEDs).
Other commercial applications of metamaterials include radio frequency (RF)
metamaterial air interface solutions for high-performance wireless
communications networks. Most practical applications of metamaterials
technology, however, still lie in the future, such as magnetic metamaterials
for ultrasensitive magnetic resonance imaging (MRI) detectors and acoustical
metamaterials for noise barriers.
STUDY GOALS AND OBJECTIVES
Metamaterials offer seemingly endless possibilities, but it is unlikely that
all of these possibilities will become reality. The goal of this report,
which is an update of an earlier BCC Research report published in 2008, is to
survey emerging metamaterials technologies and applications, identify those
that are most likely to achieve significant commercial sales in the next 5 to
10 years, and develop quantitative estimates of potential sales. The report
generally avoids futuristic speculation concerning technology applications
that might be possible 10 years or further into the future and instead focuses
on applications that are expected make it to market by 2021.
The report's specific objectives, which include identifying the metamaterials
with the greatest commercial potential in the 2012 to 2021 time frame,
identifying market drivers and evaluating obstacles to their successful
commercialization, and projecting their future sales, support this broad goal.
INTENDED AUDIENCE
This report is intended specifically for marketing executives, entrepreneurs,
investors, venture capitalists, and other readers who need to know where the
emerging metamaterials market is headed over the next 5 to 10 years. The
information is organized around specific technologies, but it is largely
non-technical in nature and coverage. Therefore, it is less concerned with
theory and jargon, and more concerned with products that work, the amount of a
particular product the market is likely to purchase, and the price consumers
are willing to pay.
The report has not been written specifically for scientists and technologists,
but its findings concerning the market for their work, including the
availability of government and corporate research funding for different
technologies and applications, should be of interest to them as well.
SCOPE AND FORMAT
This report addresses the emerging global market for metamaterials, including
the following classes. The common thread uniting this diverse group of
materials is that they are all artificial materials with characteristics
usually not found in nature, and they owe these characteristics to their
structure rather than to their constituent element or elements.
- Artificial dielectrics
- Negative refraction media
- Active terahertz (THz) materials (i.e., metamaterials that respond
magnetically to far-infrared or THz electromagnetic radiation)
- Chiral materials
- Photonic crystals
- Superconducting metamaterials
- Extreme-parameter metamaterials (i.e., metamaterials whose internal
structure has been modified or engineered on a molecular or nanoscale level to
impart extraordinary strength, flexibility, or other characteristics)
- Acoustic metamaterials
The study format includes the following major elements:
- Executive summary
- Definitions
- General properties of metamaterials
- Historical milestones in the development of metamaterials
- Emerging and developmental metamaterials technologies and applications
that demonstrate the greatest commercial potential through 2021
- Detailed market estimates and projections for each application and
material during the period from 2011 to 2016
- General assessment of expected market trends in the longer term (i.e.,
2016 - 2021)
- Patent analysis
INFORMATION SOURCES AND METHODOLOGY
Projecting the market for emerging technologies whose commercial potential has
not yet been proven is a challenging task. This is most true in the
metamaterials field, which may help to explain why many analysts focus on
supply-side technology assessments.
BCC's objective in this report is to provide not just a technology assessment,
but also an initial commercial assessment of the potential market for
metamaterials. To accomplish this objective, BCC used a multiphase approach
to identify the metamaterials with the greatest commercial potential and then
quantified the related markets.
In the first phase of the analysis, BCC identified a long list of
metamaterials technologies and applications, including those that are still
under development. In the second phase, BCC used a literature review and
interviews with industry sources to eliminate those metamaterials applications
that appear to have little likelihood of making it into commercial use in the
next 5 to 10 years. This second-phase research resulted in a short list of
metamaterials with the greatest commercial potential over the time period
covered by this report.
The third phase focused on quantifying the potential market for each
short-listed metamaterial by application and identifying the main
prerequisites for commercial success. This phase actually had two sub-phases:
1) development of near- to mid-term (2011 to 2016) projections, and 2)
development of longer-term (2017 to 2021) projections. The development of
such long-term projections is a departure from the usual BCC report format,
but this is necessary due to the long time frame for commercialization of many
of the technologies analyzed in this report. Obviously, the projections for
the years beyond 2016 are more tentative than those for 2011 to 2016.
The specific assumptions and approach BCC used to develop the projections,
both near/mid-term and long-term, for each metamaterial and application are
documented in detail under the various segments addressed. This way, readers
may see how the market estimates were developed and, if they so desire, test
the impact on the final numbers of changing the underlying assumptions.
One of BCC's specific approaches deserves special mention here. BCC used the
sales performance of a non-metamaterial application that has some of the same
functions or shares other characteristics with the metamaterials application
as a benchmark for assessing the latter's sales potential. This is especially
relevant for metamaterials applications currently under development.
ANALYST CREDENTIALS
Andrew McWilliams is a partner at 43rd Parallel, LLC, a Boston-based
international technology and marketing consulting firm. He is the author of a
number of other BCC Research market opportunity reports on advanced materials
technologies, including the previous edition of this report. Other reports by
Mr. McWilliams include IFT066A Printed Electronics: The Global Market; NAN017F
Nanostructured Materials: Electronic/Magnetic/Optoelectronic; AVM050B Smart
and Interactive Textiles; AVM015E High Performance Ceramic Coatings: Markets
and Technologies; AVM064A Geosynthetics: Materials, Applications and Markets;
AVM025G Diamond, Diamond-like and CBN Films and Coating Products; NAN015F
Advanced Ceramics and Nanoceramic Powders; NAN036A Nanotechnology for
Photonics; AVM075A Graphene: Technologies, Applications, and Markets; AVM066B:
Superconductors: Technologies and Global Markets; and AVM038D Advanced
Structural Carbon Products: Fibers, Foams, and Composites.
Table of Contents
Chapter- 1: INTRODUCTION - Complimentary
- STUDY BACKGROUND
- STUDY GOALS AND OBJECTIVES
- INTENDED AUDIENCE
- SCOPE AND FORMAT
- INFORMATION SOURCES AND METHODOLOGY
- ANALYST CREDENTIALS
- RELATED BCC RESEARCH REPORTS
- BCC ONLINE SERVICES
- DISCLAIMER
Chapter- 2: EXECUTIVE SUMMARY
- Table 0 : GLOBAL MARKET FOR METAMATERIALS APPLICATIONS BY MATERIAL TYPE,
THROUGH 2021
- Figure 0 : GLOBAL MARKET FOR METAMATERIALS APPLICATIONS BY MATERIAL TYPE,
2011-2021
Chapter- 3: OVERVIEW
- GENERAL DESCRIPTION OF METAMATERIALS
- TYPES AND APPLICATIONS OF METAMATERIALS
- OVERALL MARKET SIZE AND SEGMENTATION
Chapter- 4: ARTIFICIAL DIELECTRICS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- APPLICATIONS
- MARKETS
Chapter- 5: NEGATIVE REFRACTION MEDIA: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- APPLICATIONS
- MARKETS
Chapter- 6: ACTIVE TERAHERTZ METAMATERIALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- APPLICATIONS
- MARKETS
Chapter- 7: CHIRAL MATERIALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- APPLICATIONS
- MARKETS
Chapter- 8: PHOTONIC CRYSTALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- APPLICATIONS
- MARKETS
Chapter- 9: SUPERCONDUCTING METAMATERIALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- END USES
- MARKETS
Chapter- 10: EXTREME-PARAMETER METAMATERIALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- END USES
- MARKETS
Chapter- 11: MAGNETIC NANOCOMPOSITES: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- END USES
- MARKETS
- Table 53 : GLOBAL CONSUMPTION OF MAGNETIC NANOCOMPOSITES FOR ELECTRICAL
AND ELECTRONIC APPLICATIONS, THROUGH 2021
Chapter- 12: ACOUSTIC METAMATERIALS: MATERIALS, END USES, AND MARKETS, 2010 - 2021
- MATERIALS
- END USES
- MARKETS
Chapter- 13: COMPANY PROFILES
- ALIGHT TECHNOLOGIES APS
- ALPS ELECTRIC CO., LTD.
- COLOSSAL STORAGE CORP.
- FIANIUM, LTD.
- ICX TECHNOLOGIES
- INFRAMAT CORP.
- JEM ENGINEERING, LLC
- LUMINUS DEVICES, INC.
- LUXTERA, INC.
- NEOMAX COMPANY, LTD.
- OMNIGUIDE, INC.
- NANOSTEEL COMPANY, INC.
- NEWPORT CORPORATION
- NKT PHOTONICS A/S
- OMNIGUIDE, INC.
- OPALUX INC.
- PHOTEON TECHNOLOGIES GMBH
- PHOTONIC LATTICE, INC.
- RAYSPAN, INC.
- ROOM TEMPERATURE SUPERCONDUCTORS, INC.
- SANDVIK MATERIALS TECHNOLOGY AB
- TERAVIEW, LTD.
- VACUUMSCHMELZE GMBH
Chapter- 14: APPENDIX: PATENT ANALYSIS
- Figure 26 : RECENT U.S. METAMATERIALS-RELATED PATENTS ISSUED TO 11/15/1011
- Table L 26 :
- Table 58 : MAJOR U.S. METAMATERIALS PATENTS, TO NOVEMBER 15, 2011
Chapter- 15: REFERENCES
List of Tables
- Summary Table : GLOBAL MARKET FOR METAMATERIALS APPLICATIONS BY MATERIAL
TYPE, THROUGH 2021
- Table 1 : MAJOR TYPES OF METAMATERIALS
- Table 2 : GLOBAL MARKET FOR METAMATERIALS BY MATERIAL TYPE, THROUGH 2021
- Table 3 : GLOBAL MARKET FOR METAMATERIALS BY END-USE SECTOR, THROUGH 2021
- Table 4 : MARKET FOR ARTIFICIAL DIELECTRICS, THROUGH 2021
- Table 5 : MATERIALS CONSUMPTION ASSOCIATED WITH AUTOMOTIVE RADAR
APPLICATIONS, THROUGH 2021
- Table 6 : AIRBORNE ANTENNAS AND RELATED MARKET FOR METAMATERIALS, THROUGH
2021
- Table 7 : GLOBAL MARKET FOR 4G DATA COMMUNICATION EQUIPMENT AND POTENTIAL
SUCCESSOR TECHNOLOGIES, THROUGH 2021
- Table 8 : SMART ANTENNAS AND THE RELATED MARKET FOR ARTIFICIAL
DIELECTRICS, THROUGH 2021
- Table 9 : MARKET FOR NEGATIVELY REFRACTIVE METAMATERIALS, THROUGH 2021
- Table 10 : METAMATERIALS MARKET IN OPTICAL MICROSCOPY APPLICATIONS,
THROUGH 2021
- Table 11 : METAMATERIALS MARKET IN PHOTOLITHOGRAPHY APPLICATIONS, THROUGH
2021
- Table 12 : METAMATERIALS MARKET IN DATA STORAGE APPLICATIONS, THROUGH 2021
- Table 13 : METAMATERIALS MARKET IN MRI APPLICATIONS, THROUGH 2021
- Table 14 : MARKET FOR THZ-ACTIVE METAMATERIALS, THROUGH 2021
- Table 15 : GLOBAL MARKET FOR THZ AND OTHER AIRPORT SECURITY SCREENING
EQUIPMENT, THROUGH 2021
- Table 16 : GLOBAL MARKET FOR THZ AND OTHER RADIOGRAPHIC NDT EQUIPMENT,
THROUGH 2021
- Table 17 : GLOBAL MARKET FOR THZ MEDICAL IMAGING APPLICATIONS, THROUGH 2021
- Table 18 : GLOBAL MARKET FOR THZ-ACTIVE METAMATERIALS IN MEDICAL IMAGING
APPLICATIONS, THROUGH 2021
- Table 19 : GLOBAL MARKET FOR INTRAOPERATIVE IMAGING EQUIPMENT, THROUGH 2021
- Table 20 : GLOBAL MARKET FOR INTRAOPERATIVE THZ IMAGING EQUIPMENT, THROUGH
2021
- Table 21 : GLOBAL MARKET FOR THZ SKIN CANCER IMAGING EQUIPMENT, THROUGH
2021
- Table 22 : GLOBAL MARKET FOR THZ DENTAL CARIES IMAGING EQUIPMENT, THROUGH
2021
- Table 23 : MARKET FOR CHIRAL METAMATERIALS, THROUGH 2021
- Table 24 : METAMATERIALS MARKET IN QUANTUM ENCRYPTION APPLICATIONS,
THROUGH 2021
- Table 25 : METAMATERIALS MARKET IN THROUGH 2021
- Table 26 : METAMATERIALS MARKET IN CATALYSIS APPLICATIONS, THROUGH 2021
- Table 27 : CONSUMPTION OF ASSYMETRIC CATALYSTS IN PHARMACEUTICALS
PRODUCTION, THROUGH 2021
- Table 28 : CONSUMPTION OF ASSYMETRIC CATALYSTS IN OTHER CHEMICALS
PRODUCTION, THROUGH 2021
- Table 29 : MARKET FOR PHOTONIC CRYSTALS, THROUGH 2021
- Table 30 : GLOBAL MARKET FOR PHOTONIC CRYSTAL FIBER USED IN FIBER LASER
APPLICATIONS, THROUGH 2021
- Table 31 : GLOBAL MARKET FOR FIBER LASERS, THROUGH 2021
- Table 32 : GLOBAL MARKET FOR HIGH-BRIGHTNESS LEDS, THROUGH 2021
- Table 33 : GLOBAL CONSUMPTION OF PHOTONIC CRYSTALS IN THE FABRICATION OF
HB-LEDS, THROUGH 2021
- Table 34 : MARKET FOR PHOTONIC CRYSTAL-BASED PHOTOVOLTAICS AND RELATED
CONSUMPTION OF PHOTONIC CRYSTALS, THROUGH 2021
- Table 35 : MARKET FOR PHOTONIC CRYSTAL-BASED DATA STORAGE PRODUCTS AND
RELATED CONSUMPTION OF PHOTONIC CRYSTALS, THROUGH 2021
- Table 36 : GLOBAL MARKET FOR QUANTUM DOTS IN BIODETECTION APPLICATIONS,
THROUGH 2021
- Table 37 : GLOBAL MARKET FOR PHOTONIC CRYSTAL FLUORESCENCE ENHANCERS,
THROUGH 2021
- Table 38 : GLOBAL MARKET FOR HIGH-PERFORMANCE PROCESSORS, THROUGH 2021
- Table 39 : GLOBAL MARKET FOR HIGH-PERFORMANCE ALL-OPTICAL PROCESSORS,
THROUGH 2021
- Table 40 : GLOBAL MARKET FOR PHOTONIC CRYSTAL-BASED DISPLAYS AND RELATED
CONSUMPTION OF PHOTONIC CRYSTAL MATERIALS, THROUGH 2021
- Table 41 : GLOBAL MARKET FOR PHOTONIC CRYSTAL ADD/DROP FILTERS, THROUGH
2021
- Table 42 : MARKET FOR SUPERCONDUCTING POLYMER METAMATERIALS, THROUGH 2021
- Table 43 : GLOBAL MARKET FOR SPECIALIZED HPC PROCESSORS, THROUGH 2021
- Table 44 : MARKET FOR SUPERCONDUCTING INTEGRATED CIRCUITS USED IN QUANTUM
AND OTHER HIGH-PERFORMANCE AND RELATED CONSUMPTION OF METAMATERIALS, THROUGH
2021
- Table 45 : MARKET FOR SUPERCONDUCTING ELECTRIC TRANSMISSION WIRES AND
RELATED CONSUMPTION OF METAMATERIALS, THROUGH 2021
- Table 46 : MARKET FOR EXTREME-PARAMETER METAMATERIALS, THROUGH 2021
- Table 47 : MEDICAL DEVICE MARKET FOR EXTREME-PARAMETER METAMATERIALS,
THROUGH 2021
- Table 48 : GLOBAL MARKET FOR NANOSTRUCTURED STEEL SUTURE NEEDLES, THROUGH
2021
- Table 49 : GLOBAL CONSUMPTION OF CONVENTIONAL AND NANOSTRUCTURED TITANIUM
IN MEDICAL IMPLANTS, THROUGH 2021
- Table 50 : GLOBAL CONSUMPTION OF NANOSTRUCTURED STEEL, THROUGH 2021
- Table 51 : GLOBAL CONSUMPTION OF NANOSTRUCTURED STEEL COATINGS, THROUGH
2021
- Table 52 : GLOBAL CONSUMPTION OF NANOSTRUCTURED STRUCTURAL STEEL, THROUGH
2021
- Table 53 : GLOBAL CONSUMPTION OF MAGNETIC NANOCOMPOSITES FOR ELECTRICAL
AND ELECTRONIC APPLICATIONS, THROUGH 2021
- Table 54 : MARKET FOR ACOUSTIC METAMATERIALS, THROUGH 2021
- Table 55 : METAMATERIALS MARKET FOR ULTRASOUND IMAGING APPLICATIONS,
THROUGH 2021
- Table 56 : ACOUSTIC METAMATERIALS MARKET IN OUTDOOR NOISE BARRIERS,
THROUGH 2021
- Table 57 : ACOUSTIC METAMATERIALS MARKET IN SEISMIC PROTECTION
APPLICATIONS, THROUGH 2021
- Table 58 : MAJOR U.S. METAMATERIALS PATENTS, TO NOVEMBER 15, 2011
List of Figures
- Summary Figure : GLOBAL MARKET FOR METAMATERIALS APPLICATIONS BY MATERIAL
TYPE, 2011-2021
- Figure 1 : TRENDS IN THE GLOBAL MARKET FOR METAMATERIALS, 2010 - 2021
- Figure 2 : TRENDS IN THE METAMATERIALS MARKET BY METAMATERIAL TYPE, 2010 -
2021
- Figure 3 : TRENDS IN THE METAMATERIALS MARKET BY END USE, 2010 - 2021
- Figure 4 : TRENDS IN THE ARTIFICIAL DIELECTRICS MARKET, 2010 - 2021
- Figure 5 : TRENDS IN THE ARTIFICIAL DIELECTRICS MARKET BY APPLICATION
TYPE, 2010 - 2021
- Figure 6 : NEGATIVE REFRACTION
- Figure 7 : TRENDS IN THE NEGATIVELY REFRACTIVE METAMATERIALS MARKET BY
APPLICATION TYPE, 2010 - 2021
- Figure 8 : SPLIT-RING RESONATOR
- Figure 9 : TRENDS IN THE THZ-ACTIVE METAMATERIALS MARKET BY APPLICATION
TYPE, 2010 - 2021
- Figure 10 : INTRAOPERATIVE IMAGING TECHNOLOGIES MARKET SHARES, 2010
- Figure 11 : CHIRALITY
- Figure 12 : OPTICALLY ACTIVE CHIRAL METAMATERIAL
- Figure 13 : TRENDS IN THE CHIRAL METAMATERIALS MARKET, 2010 - 2021
- Figure 14 : TRENDS IN THE CHIRAL MATERIALS MARKET BY APPLICATION TYPE,
2010 - 2021
- Figure 15 : TRENDS IN THE PHARMACEUTICAL MARKET FOR ASYMMETRIC CATALYSTS,
2010 - 2021
- Figure 16 : PHOTONIC CRYSTAL STRUCTURE
- Figure 17 : 2D VERSUS 3D PHOTONIC CRYSTALS
- Figure 18 : PHOTONIC CRYSTAL POINT DEFECT
- Figure 19 : WOOD PILE STRUCTURE
- Figure 20 : AUTOCLONED CRYSTAL STRUCTURE
- Figure 21 : GLOBAL MARKET TRENDS FOR PHOTONIC CRYSTAL METAMATERIALS, 2010
- 2021
- Figure 22 : TRENDS IN THE PHOTONIC CRYSTALS MARKET BY APPLICATION TYPE,
2010 - 2021
- Figure 23 : TRENDS IN THE SUPERCONDUCTING POLYMER METAMATERIALS MARKET BY
APPLICATION TYPE, 2010 - 2021
- Figure 24 : TRENDS IN THE EXTREME-PARAMETER METAMATERIALS MARKET BY
APPLICATION TYPE, 2010 - 2021
- Figure 25 : TRENDS IN THE ACOUSTIC METAMATERIALS MARKET BY APPLICATION
TYPE, 2010-2021
- Figure 26 : RECENT U.S. METAMATERIALS-RELATED PATENTS ISSUED TO 11/15/1011
2016年超材料(Metamaterial)•應用的全球市場將達到7億5,870萬美元規模
2012年02月10日
Global Information, Inc.已開始銷售BCC Research所發行的報告書「Metamaterials: Technologies and Global Markets (超材料:技術及全球市場)」
2011年全球超材料•應用市場是2億5,610萬美元規模，預測之後以複合年成長率(CAGR)24.3％擴大，2016年時達到7億5,870萬美元規模。而且之後的5年以CAGR 19.6％成長，預計2021年成為約19億美元規模。
超材料•應用市場能分成電磁、音響、extreme-parameter及其他的3個部門。
2011年電磁應用部門的市場是1億6,060萬美元規模，預計之後以CAGR 20.7％成長，2016年為4億1,220萬美元，之後又以CAGR 23.5％擴大，2021年達到12億美元。
現時點音響部門不太有市場價值，然BCC Research預測2021年將成長為4,500萬美元的市場規模。
2011年extreme-parameter(功能強化)及其他部門的市場是9,550萬美元規模，預計之後以CAGR 29.4％擴大，2016年為3億4,650萬美元，之後又以CAGR 12.7％成長，2021年時達到6億3,000萬美元規模。
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