首頁 產業/市場分類 出版商一覽 Email 通知 GII媒體代理會議 公司簡介 聯絡我們
首頁 > 市場調查報告書 > 材料 > 奈米技術 > 奈米材料的生產(2002-2016年):產量,銷售額,及最終消費者的市場需求
產業/市場分類
材料 (3856)
包裝/容器 (506)
有機化合物 (440)
防火 (24)
奈米技術 (198)
金屬 (242)
玻璃 (62)
陶瓷 (110)
稀有金屬 (109)
塑膠 (437)
(39)
聚合物 (164)
墨水/ 列印 (53)
黏結劑 (51)
觸媒 (33)
市場調查報告書

奈米材料的生產(2002-2016年):產量,銷售額,及最終消費者的市場需求

Nanomaterials Production 2002-2016: Production volumes, revenues and end user market demand

出版商 Future Markets, Inc.
出版日期 2011年09月 商品編碼 213474
內容資訊 英文 326 Pages
價格
本報告書已不再販售

本報告已在2012年04月06日停止出版。

更改為出版

NANOMATERIALS PRODUCTION 2002-2016: PRODUCTION VOLUMES, REVENUES AND END USER MARKET DEMAND
出版日期 : 2012年01月
商品編碼: 229391

簡介

奈米材料以其優異的磁性,光,觸媒,及電子特性被許多產業及技術應用。根據期貨市場的推算,2010年奈米材料的生產量估計最少也有2萬1,713噸,幾乎是2002年10倍以上的規模,如果樂觀的估計生產量大概會達到3萬1,574噸。也由於電子產品,能源,醫藥品,塗料,及催化劑應用程式的推動,保守預測2016年的生產量將達到4萬4,267噸。

本報告提供全球奈米材料市場相關調查分析,金屬氧化物奈米粉末,奈米碳管,富勒烯及POSS(多面體矽氧烷寡聚物),石墨烯,奈米黏土,奈米光纖,奈米銀,及量子點等各種材料,從2002年開始到2016年為止的實際成果及預測,以及各材料的主要生產業者的資訊,為您概述為以下內容。

第1章 摘要整理

第2章 調查手法

第3章 市場規模和需求

  • 奈米材料的應用程式
  • 2010年的估計產量
  • 各類型材料及各市場的需求
    • 氧化鋁
    • 銻錫氧化物(ATO)
    • 氧化鉍
    • 奈米碳管
    • 氧化鈰
    • 氧化鈷
    • 氧化銅
    • 富勒烯及POSS(多面體矽氧烷寡聚物)
    • 石墨烯
    • 氧化鐵
    • 氧化鎂
    • 氧化錳
    • 奈米黏土
    • 奈米光纖
    • 奈米銀
    • 氧化鎳
    • 量子點
    • 氧化矽
    • 二氧化鈦
    • 氧化釔
    • 氧化鋅
    • 氧化鋯

第4章 奈米碳管生產業者

第5章富勒烯 與POSS(多面體矽氧烷寡聚物)的生產業者

第6章 石墨烯的生產業者

第7章 金屬氧化物奈米粉末的生產業者

第8章 奈米黏土的生產業者

第9章 奈米纖維的生產業者

第10章 奈米銀的生產業者

第11章 量子點的生產業者

參考資料

圖表

目錄

Abstract

SUMMARY

Nanomaterials Production 2002-2016: Production volumes, revenues and end user market demand

image1

Nanomaterials are being applied across a raft of industries and technologies due to their outstanding magnetic, optical, catalytic and electronic properties, which depend greatly on their size, structure, and shape. Nanomaterials Production 2002-2016 is the only market study ever conducted on how much nanomaterials are produced.

Future Markets conservatively estimates the 2010 worldwide production of nanomaterials to be 21,713 tons, a tenfold increase from 2002. Optimistic forecasts for 2010 are 31,574 tons. The conservative market value is $2.64 billion. Optimistic market estimates are also covered in the report.

The production volume in 2016 is conservatively estimated to more than double to 44, 267 tons, driven by demand from applications in electronics, energy, medicine, chemicals, coatings and catalysts.

The market is forecasted from 2002 through to 2016. End user markets are also outlined. The report covers metal oxide nanopowders; carbon nanotubes; fullerenes and POSS; graphene; nanoclays; nanofibers; nanosilver; and quantum dots.

WHAT DOES THE REPORT INCLUDE?

  • Comprehensive quantitative data and forecasts for the global nanomaterials markets from 2002 to 2017
  • Qualitative insight and perspective on the current market and future trends in end user markets based on interviews with key executives
  • End user market analysis
  • Over 150 tables and figures illustrating market size and by end user demand
  • Over 400 full company profiles of nanocomposites application developers including technology descriptions, revenues, contact details, and end user markets for their products

WHO SHOULD BUY THIS REPORT?

  • Advanced materials producers, application developers; sales and marketing departments
  • Corporate strategists and policy advisors
  • Technology consultants and analysts, venture capitalists, and readers interested in the advanced materials market
  • New technology teams and application developers in the aerospace and aviation; automotive; consumer goods; electronics and semiconductors; energy; environment and water; materials; medical and bio; military and defense; and packaging and plastics markets.

WHAT'S INSIDE?

  • Statistics and data to illustrate nanomaterials market breakdowns
  • Historial and projected analysis of nanomaterials from 2002-2016
  • Clearly presented data to give a complete picture of the future of the nanomaterials market

Table of Contents

1. EXECUTIVE SUMMARY

2. METHODOLOGY

3. MARKET VOLUMES AND DEMAND

  • 3.1. Applications of nanomaterials
  • 3.2. Production estimates 2010 23
  • 3.3. Demand by material type and market
    • 3.3.1. Aluminium Oxide
    • 3.3.2. Antimony Tin Oxide
    • 3.3.3. Bismuth Oxide
    • 3.3.4. Carbon Nanotubes
    • 3.3.5. Cerium Oxide
    • 3.3.6. Cobalt Oxide
    • 3.3.7. Copper Oxide
    • 3.3.8. Fullerenes and POSS
    • 3.3.9. Graphene
    • 3.3.10. Iron Oxide
    • 3.3.11. Magnesium Oxide
    • 3.3.12. Manganese Oxide
    • 3.3.13. Nanoclays
    • 3.3.14. Nanofibers
    • 3.3.15. Nanosilver
    • 3.3.16. Nickel Oxide
    • 3.3.17. Quantum Dots
    • 3.3.18. Silicon Oxide
    • 3.3.19. Titanium Dioxide
    • 3.3.20. Yttrium Oxide
    • 3.3.21. Zinc Oxide
    • 3.3.22. Zirconium Oxide

4. CARBON NANOTUBES PRODUCERS

5. FULLERENES AND POSS PRODUCERS

6. GRAPHENE PRODUCERS

7. METAL OXIDE NANOPOWDER PRODUCERS

8. NANOCLAY PRODUCERS

9. NANOFIBERS PRODUCERS

10. NANOSILVER PRODUCERS

11. QUANTUM DOTS PRODUCERS

REFERENCES

TABLES & FIGURES

  • Figure 1: Production volume of nanomaterials, 2002-2016, tons, conservative estimate
  • Figure 2: Demand for nanomaterials 2010, by applications, percentage
  • Figure 3: Breakdown of nanomaterials production, by country, 2010, percentage
  • Table 1: Applications of nanomaterials
  • Table 2: Nanomaterials, price per KG, price per ton, estimated production total, 2010
  • Table 3: Production volumes for nanomaterials, 2010, tons, conservative and optimistic estimate
  • Table 4: Revenues for nanomaterials, 2010, conservative and optimistic estimate, US$
  • Table 5: Aluminium oxide nanopowders: properties and applications
  • Figure 4: Demand for aluminium oxide nanopowders, by applications, percentage
  • Figure 5: Demand for aluminium oxide nanopowders, 2010, tons
  • Figure 6: Revenues for aluminium oxide nanopowders, 2010, US$
  • Table 6: Production of aluminium oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 7: Production of aluminium oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 7: Antimony tin oxide nanopowders: Properties and applications
  • Figure 8: Demand for antimony tin oxide nanopowders, by applications
  • Figure 9: Demand for antimony tin oxide nanopowders, 2010, tons
  • Figure 10: Revenues for antimony tin oxide nanopowders, 2010, US$
  • Table 8: Production of antimony tin oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 11: Production of antimony tin oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 9: Bismuth oxide nanopowders: Properties and applications
  • Figure 12: Demand for bismuth oxide nanopowders, by applications
  • Figure 13: Demand for bismuth oxide nanopowders, 2010, tons
  • Figure 14: Revenues for bismuth oxide nanopowders, 2010, US$
  • Table 10: Production of bismuth oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 15: Production of bismuth oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 11: Carbon Nanotubes: Properties and applications
  • Table 12: Production capacity of main carbon nanotubes producers, 2010, tons
  • Table 13: Price per KG of carbon nanotubes, 2010 (pricing based on quantity of 3 ton per year)
  • Figure 16: Demand for nanotubes, by applications
  • Figure 17: Demand for carbon nanotubes, 2010, tons
  • Figure 18: Revenues for carbon nanotubes, 2010, US$
  • Table 14: Production of carbon nanotubes, conservative estimate 2002-2016, tons
  • Figure 19: Production of carbon nanotubes, conservative estimate 2002-2016, tons
  • Table 15: Cerium oxide nanopowders: Properties and applications
  • Figure 20: Demand for cerium oxide nanopowders, by applications
  • Figure 21: Demand for cerium oxide nanopowders, 2010, tons
  • Figure 22: Revenues for cerium oxide nanopowders, 2010, US$
  • Table 16: Production of cerium oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 23: Production of cerium oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 17: Cobalt oxide nanopowders: Properties and applications
  • Figure 24: Demand for cobalt oxide nanopowders, by applications
  • Figure 25: Demand for cobalt oxide nanopowders, 2010, tons
  • Figure 26: Revenues for cobalt oxide nanopowders, 2010, US$
  • Table 18: Production of cobalt oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 27: Production of cobalt oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 19: Copper oxide nanopowders: Properties and applications
  • Figure 28: Demand for copper oxide nanopowders, by applications
  • Figure 29: Demand for copper oxide nanopowders, 2010, tons
  • Figure 30: Revenues for copper oxide nanopowders, 2010, US$
  • Table 20: Production of copper oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 31: Production of copper oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 32: Buckminsterfullerene, C60
  • Table 21: Fullerenes: Properties and applications
  • Figure 33: Polyhedral oligomeric silsesquioxanes (POSS)
  • Table 22: Pricing and availability for POSS and other high profile specialty additives
  • Table 23: Commercial uses of POSS, realized and potential
  • Figure 34: Demand for fullerenes and POSS, by applications
  • Figure 35: Demand for fullerenes and POSS, 2010, tons
  • Figure 36: Revenues for fullerenes and POSS, 2010, US$
  • Table 24: Production of fullerenes and POSS, conservative estimate 2002-2016, tons
  • Figure 37: Production of fullerenes and POSS, conservative estimate 2002-2016, tons
  • Table 25: Engineered graphene properties (Source: Graphene Frontiers, Ruoff etc.)
  • Figure 38: Chemical Structure of Graphite, Graphene, Carbon Nanotube and Fullerene
  • Table 26: Commercial graphite types
  • Table 27: Comparative properties of graphene with nanoclays and carbon nanotubes
  • Table 28: Cost comparison of graphene
  • Table 29: Graphene producers, production capacities per year, price and end user markets
  • Figure 39: Demand for graphene nanomaterials, by applications
  • Figure 40: Demand for graphene, 2010, tons
  • Table 30: Production of graphene, conservative estimate 2009-2016, tons
  • Figure 41: Production of graphene, conservative estimate 2009-2016, tons
  • Table 31: Iron oxide nanopowders: Properties and applications
  • Figure 42: Demand for iron oxide nanopowders, by applications
  • Figure 43: Demand for iron oxide nanopowders, 2010, tons
  • Figure 44: Revenues for iron oxide nanopowders, 2010, US$
  • Table 32: Production of iron oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 45: Production of iron oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 33: Magnesium oxide nanopowders: Properties and applications
  • Figure 46: Demand for magnesium oxide nanopowders, by applications
  • Figure 47: Demand for magnesium oxide nanopowders, 2010, tons
  • Figure 48: Revenues for magnesium oxide nanopowders, 2010, US$
  • Table 34: Production of magnesium oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 49: Production of magnesium oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 35: Manganese oxide nanopowders: Properties and applications
  • Figure 50: Demand for manganese oxide nanopowders, by applications
  • Figure 51: Demand for manganese oxide nanopowders, 2010, tons
  • Table 36: Production of manganese oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 53: Production of manganese oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 37: Nanoclay nanocomposites: Types and application
  • Table 38: Applications timeline for nanoclays
  • Figure 54: Demand for nanoclays, by applications
  • Figure 55: Demand for nanoclays, 2010, tons
  • Figure 56: Revenues for nanoclays, 2010, US$
  • Table 40: Production of nanoclays, conservative estimate 2002-2016, tons
  • Figure 57: Production of nanoclays, conservative estimate 2002-2016, tons
  • Table 41: Applications timeline for nanofibers
  • Figure 58: Demand for nanofibers, by applications
  • Figure 59: Demand for nanofibers, 2010, tons
  • Figure 60: Revenues for nanofibers, 2010, US$
  • Table 42: Production of nanofibers, conservative estimate 2002-2016, tons
  • Figure 61: Production of nanofibers, conservative estimate 2002-2016, tons
  • Table 43: Nanosilver: Properties and applications
  • Figure 62: Demand for nanosilver, by applications
  • Figure 63: Demand for nanosilver, 2010, tons
  • Figure 64: Revenues for nanosilver, 2010, US$
  • Table 44: Production of nanosilver, conservative estimate 2002-2016, tons
  • Figure 45: Production of nanosilver, conservative estimate 2002-2016, tons
  • Table 46: Nickel oxide nanopowders: Properties and applications
  • Figure 65: Demand for nickel oxide nanopowders, by applications
  • Figure 66: Demand for nickel oxide nanopowders, 2010, tons
  • Figure 67: Revenues for nickel oxide nanopowders, 2010, US$
  • Table 47: Production of nickel oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 68: Production of nickel oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 48: Quantum dots: Properties and applications
  • Figure 69: Demand for quantum dots, by applications
  • Figure 70: Demand for quantum dots, 2010, kilograms
  • Figure 71: Revenues for quantum dots, 2010, US$
  • Table 49: Production of quantum dots, conservative estimate 2008-2016, kilograms
  • Figure 72: Production of quantum dots, conservative estimate 2002-2016, kilograms
  • Table 50: Silicon oxide nanopowders: Properties and applications
  • Figure 73: Demand for silicon oxide nanopowders, by applications
  • Figure 74: Demand for silicon oxide nanopowders, 2010, tons
  • Figure 75: Revenues for silicon oxide nanopowders, 2010, US$
  • Table 51: Production of silicon oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 76: Production of silicon oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 52: Titanium dioxide nanopowders: Properties and applications
  • Figure 77: Demand for titanium dioxide nanopowders, by applications
  • Figure 78: Demand for titanium dioxide nanopowders, 2010, tons
  • Figure 79: Revenues for titanium dioxide nanopowders, 2010, US$
  • Table 53: Production of titanium dioxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 80: Production of titanium dioxide nanopowders, conservative estimate 2002-2016, tons
  • Table 54: Yttrium oxide nanopowders: Properties and applications
  • Figure 81: Demand for yttrium oxide nanopowders, by applications
  • Figure 82: Demand for yttrium oxide nanopowders, 2010, tons
  • Figure 83: Revenues for yttrium oxide nanopowders, 2010, US$
  • Table 55: Production of yttrium oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 84: Production of yttrium oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 56: Zinc oxide nanopowders: Properties and applications
  • Figure 85: Demand for zinc oxide nanopowders, by applications
  • Figure 86: Demand for zinc oxide nanopowders, 2010, tons
  • Figure 87: Revenues for zinc oxide nanopowders, 2010, US$
  • Table 57: Production of zinc oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 88: Production of zinc oxide nanopowders, conservative estimate 2002-2016, tons
  • Table 58: Zirconium oxide nanopowders: Properties and applications
  • Figure 89: Demand for zirconium oxide nanopowders, by applications
  • Figure 90: Demand for zirconium oxide nanopowders, 2010, tons
  • Figure 91: Revenues for zirconium oxide nanopowders, 2010, US$
  • Table 59: Production of zirconium oxide nanopowders, conservative estimate 2002-2016, tons
  • Figure 92: Production of zirconium oxide nanopowders, conservative estimate 2002-2016, tons
Back to Top