10.3_Innovative High-Performance Deposition Technology for Low-Cost Manufacturing of OLED Lighting

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印生物质发电项目技术方案中英文

印生物质发电项目技术方案中英文

印度xx生物质发电工程技术方案2015年6月目录1 总论(General) ........................................................1.1概述(Overview)..................................................1.2建设规模(Scale of Construction).................................1.3主要技术指标(Main Technical Index)..............................1.4主要设备(Main Equipment)........................................1.5 项目实施进度(Implementation Scheduling of the Project).........1.6投资估算(Investment Estimate)................................... 2燃料供应及烟风系统(Total static investment)...........................2.1设计标准(Design Standard) ......................................2.2燃料供应系统(Fuel Supply System) ...............................2.3烟风系统(Flue Gas and Air System) .............................. 3锅炉及辅机系统(Boiler and the Auxiliary System).......................3.1设计采用的规程、规范及标准(The Regulations, Specification and Standards Adopted in the Design).................................................3.2锅炉的布置与结构(Arrangement and Structure of the Boiler) ......3.3汽水流程(Steam/ Water Process) .................................3.4 锅炉排污、疏放水、汽水取样(Boiler Blowdown, Water Drainage and Steam/ Water Sampling)..............................................................3.5 锅炉给水及减温水系统(Boiler Water Supply and Attemperating Water System) .......................................................................3.6 锅炉技术参数(Technical Parameters of Boiler)...................3.7 锅炉特点(Boiler Features)......................................4 汽轮发电机组系统(Turbine Generator Set System).......................4.1设计中所采用的规程、规范(Regulations and Specifications Adopted in Design) .......................................................................4.2热力管道(Thermal pipe) .........................................4.3发电站热力设施(Thermal Equipment of Power Station) .............5尾气处理系统(Exhaust Gas Treatment)...................................5.1设计标准(Standards of Design) ..................................5.2 脱硫系统(Desulfurization System)...............................5.3 脱硝工艺(Denitrification System)...............................5.4烟气除尘系统(Ash Conveying and Dedusting System) ...............6 化学水系统(Chemical Water System)....................................6.1设计规范(Design Code) ..........................................6.2水处理方式(Selection of water treatment ways) ..................6.3水量的确定(Water consumption) ..................................7 循环冷却水系统(Circulating Cooling Water System).....................7.1设计规范(Design Code) ..........................................7.2系统冷却用水量(Water Consumption for System Cooling) ...........7.3设备冷却水系统方案(Plan for the Equipment Cooling Water System)7.4系统损失水量与补充水量(Water Loss Amount and Supplemented Water Amount of the System)............................................................8电气系统(Electric System).............................................8.1 编制范围(Compilation Scope )...................................8.2 电气技术方案(Electric Technical Plan ).........................9仪表自动化(Automation Instrument).....................................9.1 概述(Overview )................................................9.2 检测仪表的选型(Design Code)....................................9.3 自动化控制系统(Automatic Control System).......................9.4 仪表电源(Instrument Power Supply)..............................10 建筑及结构(Construction and structure)..............................10.1 建筑(Construction)............................................10.2 结构设计(Structural Design)................................... 11总图(General Drawings)...............................................11.1设计规范(Design Code) .........................................11.2 总平面布置(General Layout)....................................11.3道路设计(Road Design) .........................................11.4竖向设计和雨水排除(Vertical Design and Rainwater Drainage) ..11.5物料运输(Material Transportation) .............................11.6管线及沟道布置(Pipeline and Ditch Arrangement) ................11.7 绿化(Greening)................................................12 公辅系统(Auxiliary system)..........................................12.1给排水(Public auxiliary system) ...............................12.2暖通空调(HVAC) ................................................13 劳动定员(Manpower Quota)............................................1 总论(General)1.1概述(Overview)项目名称:印度生物质直燃发电项目。

电位器3296

电位器3296

Specifications are subject to change without notice.Customers should verify actual device performance in their specific applications.Electrical Characteristics Standard Resistance Range........................10 ohms to 2 megohms(see standard resistance table)Resistance Tolerance............±10 % std.(tighter tolerance available)Absolute Minimum Resistance..............................1 % or 2 ohms max.(whichever is greater)Contact Resistance Variation...........................1.0 % or 3 ohms max.(whichever is greater)AdjustabilityVoltage.....................................±0.01 %Resistance...............................±0.05 %Resolution.....................................Infinite Insulation Resistance................500 vdc.1,000 megohms min.Dielectric StrengthSea Level..................................900 vac 70,000 Feet...............................350 vac Effective Travel..................25 turns nom.Environmental Characteristics Power Rating (300 volts max.)70 °C ........................................0.5 watt 125 °C .........................................0 watt Temperature Range..................................-55 °C to +150 °C Temperature Coefficient....±100 ppm/°C Seal Test.......................85 °C Fluorinert*-STD-202 Method 10396 hours(2 % ∆TR, 10 Megohms IR)Vibration.........20 G (1 % ∆TR; 1 % ∆VR)Shock...........100 G (1 % ∆TR; 1 % ∆VR)Load Life...............1,000 hours 0.5 watt @ 70 °C(3 % ∆TR; 3 % or 3 ohms,whichever is greater, CRV)Rotational Life........................200 cycles(4 % ∆TR; 3 % or 3 ohms,whichever is greater, CRV)Physical CharacteristicsTorque .............................3.0 oz-in. max.Mechanical Stops..................Wiper idles Terminals........................Solderable pins Weight ........................................0.03 oz.Marking...........................Manufacturer’strademark, resistance code,wiring diagram, date code,manufacturer’s modelnumber and styleWiper..................................50 % ±10 %Flammability ..........................U.L. 94V-0Standard Packaging.....50 pcs. per tube Adjustment Tool..............................H-90Common Dimensions3296X3296Z (Commercial Only)Resistance Resistance (Ohms)Code 1010020200505001001012002015005011,0001022,0002025,00050210,00010320,00020325,00025350,000503100,000104200,000204250,000254500,0005041,000,0001052,000,000205Standard Resistance TableA V A I L AB L E T H R O U G H D I S T R I B U T I O N*”FLUORINERT” IS A REGISTERED TRADEMARK OF 3M CO.Popular values listed in boldface. Special resistances available.How to Order3296 W - 1 - 103 __ LFModel StyleStandard or Modified Product Indicator-1 = Standard Product Resistance CodePackaging DesignatorBlank =Tube (Standard)R =T ape and Reel (X and W Pin StylesOnly)A =Ammo Pack (X and W Pin Styles Only)TerminationsLF =100 % Tin-plated (lead free)Blank =90 % Tin / 10 % Lead-plated Consult factory for other available options.Specifications are subject to change without notice.Customers should verify actual device performance in their specific applications.SIDE ADJUST 3296X-1TOP ADJUST 3296W-11000/REEL/BOXPackaging SpecificationsMeets EIA Specification 468.REV. 06/04。

Modern Application of mooc课后章节答案期末考试题库2023年

Modern Application of mooc课后章节答案期末考试题库2023年

Modern Application of Optoelectronic Technology_南京邮电大学中国大学mooc课后章节答案期末考试题库2023年1.Reconstructive spectrometer is based on compressive sensing theory.参考答案:正确2.Photoconductive detector gain depends on the difference of electron andhole drift speed参考答案:正确3.As tandem structure can increase solar cell efficiency, so we can add as manycells as possible to increase the overall absorption and energy conversionefficiency.参考答案:错误4.The solar cell performance can be degraded by参考答案:Series resistance_Defects in semiconductors_Shunt resistance5.The optical transition in silicon devices is usually indirect参考答案:正确6.Write the bandgap (300k) of silicon _______ eV.参考答案:1.117.The commercial solar cell panels are still dominated by silicon photovoltaics.参考答案:正确D means __________________________参考答案:charge coupled device9._____________________are the study and application of _________________ devices andsystems that source, detect and control ______________.参考答案:Optoelectronics, electronic, photon##%_YZPRLFH_%##Optoelectronics, electronic, light10.Which of the following factors affect the LED output spectrum?参考答案:Operation temperature_Semiconductor bandgap_Dopingconcentration_Applied voltage/current11.Conventional spectrometers used in laboratories are参考答案:Based on dispersive optics_High resolution12.Some typical research results show that graphene hybrid photodetectors can参考答案:Cover a wide detection bandwidth from UV to MIR._Have highresponsivity_Use both planar and vertical heterostructures._Have high detectivity13.The equation to express photoelastic effect is【图片】, which means therefractive index changes with strain参考答案:正确14.What are the four typical layers of optical fibers?____________,___________,____________,_____________.参考答案:core, cladding, protective polymeric coating, buffer tube15.Second harmonic generation happens when an intense light beam offrequency ω passing through an appropriate crystal (e.g., quartz) generates a light beam of half the frequency, 1/2ω参考答案:错误16.The two regimes in acousto-optic modulators are Raman-Nath regimeand___________参考答案:Bragg regime17.Optically anisotropic crystals are called __________ because an incident lightbeam may be doubly refracted. There is also a special direction in abirefringent crystal, called the optic axis.参考答案:birefringent18._____________ is the rotation of the plane of polarization by a substance参考答案:optical activity19.What efficiency is typical of a commercial PERC solar panel?参考答案:20%20.The advantages of perovskite materials include参考答案:High quantum yields_Low-cost_High quantum yields21.Typical optoelectronic process includes参考答案:Light transmission_Light modulation_Light detection_Light generation22.The two operation principles of photonic crystal fibers are ___________________and _____________________.参考答案:total internal reflection, photonic bandgap23.The propagation modes in waveguide can be classified in terms of____________________(TE) mode and ____________________(TM) mode?参考答案:transverse electric field, transverse magnetic field24.Kerr effect can be used to induce birefringence参考答案:正确25.The lattice constant of AlGaAs alloy follows nonlinear mixing rule参考答案:错误26.Which of the following is not a challenge for 2D semiconductor technology?参考答案:Materials choice27.In the space charge region, a high doping concentration results a shortdepletion width参考答案:正确28.CMOS means __________________________参考答案:complementary metal oxide semiconductor29.Photodetectors convert ___________________ to an electrical signal such asa____________________.参考答案:light, voltage or current##%_YZPRLFH_%##photon, voltage or current。

High-Performance Computing

High-Performance Computing

High-Performance Computing High-performance computing (HPC) has become an essential tool in variousfields, including scientific research, engineering, finance, and healthcare. The demand for faster and more powerful computing resources continues to grow as the complexity of problems that need to be solved increases. However, meeting these demands presents several challenges, including the need for more efficienthardware and software, as well as the increasing energy consumption of HPC systems. One of the main challenges in high-performance computing is the need for more powerful hardware. As the size and complexity of datasets continue to grow, sodoes the demand for faster processors, larger memory capacities, and moreefficient interconnects. This requires significant investment in research and development to design and manufacture the next generation of HPC hardware. Additionally, the integration of new technologies such as GPUs and FPGAs into HPC systems presents both opportunities and challenges, as these technologies can significantly improve performance but also require specialized programming and optimization. In addition to hardware challenges, software optimization is also crucial for achieving high performance in HPC. Writing efficient parallel codethat can effectively utilize the resources of a supercomputer is a complex taskthat requires expertise and experience. Furthermore, the development of software tools and libraries that can simplify the process of parallel programming and optimization is essential for enabling a wider range of researchers and engineersto take advantage of HPC resources. Another significant challenge in high-performance computing is the increasing energy consumption of HPC systems. As the performance of HPC systems continues to improve, so does their power consumption. This not only leads to higher operating costs but also raises concerns about the environmental impact of HPC. Addressing this challenge requires the development of more energy-efficient hardware and software solutions, as well as the implementation of advanced cooling technologies and power management strategies. From a financial perspective, the cost of acquiring and maintaining high-performance computing resources can be prohibitive for many organizations. Theinitial investment in HPC hardware and infrastructure, as well as the ongoingcosts of power, cooling, and maintenance, can be significant. This can limitaccess to HPC resources for smaller research groups and organizations with limited budgets, creating a barrier to entry for many researchers and engineers who could benefit from access to high-performance computing. In conclusion, high-performance computing presents several challenges that need to be addressed in order to meet the growing demand for faster and more powerful computing resources. These challenges include the need for more efficient hardware and software, the increasing energy consumption of HPC systems, and the financial barriers to access for many organizations. Addressing these challenges will require continued investment in research and development, as well as collaboration between industry, academia, and government to develop and implement innovative solutions. By overcoming these challenges, we can ensure that high-performance computing continues to play a crucial role in advancing scientific research, engineering, and innovation.。

科技英语课后习题 中-英句子

科技英语课后习题  中-英句子

1.随着机器人技术的迅猛发展,独居老人和残障人士的生活已经变得越来越轻松了。

2.暴露于高浓度的一氧化碳之下会损害心脏和大脑的功能。

3.为了遵守已承诺的安全规范,开发商们不得不安装高质量的锁、防盗窗以及安全门。

4.一项初步调查显示,我国城乡的收入差距正在缩小。

5.一个聪明的政治家知道如何利用舆论。

1. With the rapid development of robot technology, the life of the elderly and the disabled who live alone has become increasingly easy.2. Exposure to high levels of carbon monoxide can damage heart and brain function.3. In order to comply with promised safety specifications, developers have had to install high-quality locks, burglar-proof windows and security doors.4. A preliminary survey shows that the income gap between urban and rural areas is narrowing in our country.5. A clever politician knows how to make use of public opinion.1.在不久的将来,每台电视都有一大堆互联网选项和应用程序,可以让用户自由选择和配置。

2.饮食失调会导致不良饮食习惯,在极端情况下,甚至可能引发危险性体重下降。

3.最近频繁发生的抢劫事件使大家不得不小心提防身边的陌生人。

4.以煤为主的合成燃料,提供了降低全球石油需求、降低石油成本,并且减少全球对于中东地区石油依赖的一种方法。

g7046

g7046

g7046G7046: A Revolutionary Breakthrough in TechnologyIntroductionIn an era characterized by rapid advancements in technology, the emergence of G7046 marks a significant milestone. This innovative technology has the potential to revolutionize various industries and transform the way we live and work. In this document, we will delve deeper into what G7046 entails, exploring its features, applications, and potential impact on society.1. Understanding G70461.1 Definition and ComponentsG7046 refers to a cutting-edge technology developed by leading scientists and engineers. It encompasses a suite of integrated systems and devices that work in harmony to deliver unparalleled performance and functionality. The technology is composed of various components, includingadvanced processors, data storage units, and high-speed connectivity features. Combined, these elements propelG7046 into an entirely new league of technological marvels.1.2 Features and AdvantagesG7046 boasts several remarkable features that set it apart from traditional technologies. First and foremost, it offers lightning-fast processing speeds, which enable seamless multitasking and enhance productivity. Moreover, G7046 incorporates state-of-the-art security measures, ensuring data integrity and protecting against cyber threats. Additionally, it supports expansive storage capacities, accommodating the growing demand for data-hungry applications. The cutting-edge connectivity options of G7046 facilitate faster communication, enabling real-time collaboration across geographically dispersed locations.2. Applications of G70462.1 Healthcare SectorG7046 has the potential to revolutionize the healthcare sector. By leveraging its processing power and connectivity features,G7046 can facilitate remote medical consultations, enabling patients to receive timely and accurate diagnoses from healthcare professionals located elsewhere. Additionally, the technology can enhance the accuracy and efficiency of medical imaging and diagnostics, aiding in the early detection of diseases and improving patient outcomes.2.2 Manufacturing IndustryThe manufacturing industry can benefit greatly from the integration of G7046 technology. It can optimize production processes, improving efficiency and reducing costs. With real-time data analysis and predictive maintenance capabilities, G7046 can help identify bottlenecks, anticipate operational issues, and streamline supply chain management. Moreover, G7046 can support the development of smart factories, leveraging automation and robotics to drive productivity and quality standards.2.3 Education SectorIn the field of education, G7046 presents a wealth of opportunities. Its fast processing speeds and vast storage capacities facilitate the development of immersive learning experiences and virtual reality classrooms. Moreover, G7046enables personalized learning, tailored to the needs and pace of individual students. Enhanced connectivity ensures seamless collaboration among students and educators, irrespective of their physical location.3. Potential Impact on SocietyG7046 has the potential to reshape society as we know it. Its transformative capabilities can bridge the digital divide and promote equal access to technology across different regions and demographics. The integration of G7046 in various sectors can drive economic growth, create job opportunities, and foster innovation. The increased efficiency and effectiveness facilitated by G7046 technology can lead to significant improvements in healthcare outcomes, environmental sustainability, and overall societal well-being.ConclusionIn conclusion, G7046 represents a groundbreaking advancement in technology. Its unparalleled features, vast applications, and potential societal impact set it apart from traditional technologies. As we embark on this new era defined by G7046, we must embrace its potential while also ensuring responsible and ethical deployment. With itstransformative power, G7046 has the potential to shape a brighter future for generations to come.。

Advanced Thermodynamics

Advanced Thermodynamics

Advanced ThermodynamicsTitle: The Fascinating World of Advanced Thermodynamics Introduction: Thermodynamics is a branch of physics that deals with the study of energy and its transformation. Advanced thermodynamics takes this fundamental understanding to a higher level, exploring complex systems and phenomena that occur under extreme conditions. In this response, we will delve into the captivating world of advanced thermodynamics, discussing its importance, applications, challenges, and future prospects. Importance of Advanced Thermodynamics: Advanced thermodynamics plays a crucial role in various fields, including materials science, chemical engineering, aerospace engineering, and even astrophysics. By studying the behavior of energy and matter in extreme conditions, scientists and engineers can develop innovative solutions to real-world problems. For example, advanced thermodynamics enables the design of high-performance materials for aerospace applications, efficient energy conversion systems, and sustainable manufacturing processes. Understanding the principles of advanced thermodynamics is vital for technological advancements and the overall progress of society. Applications of Advanced Thermodynamics: One of the key applications of advanced thermodynamics is in the field of materials science. By studying the thermodynamic properties of materials under extreme conditions, scientists can develop new materials with enhanced properties. For instance, the development of high-temperature superconductors, which can conduct electricity without resistance, relies heavily on advanced thermodynamics. Additionally, advanced thermodynamics is instrumental in understanding phase transitions, such as the behavior of materials at the solid-liquid-gas interface, which has implications in various industries, including pharmaceuticals and chemical manufacturing. Challenges in Advanced Thermodynamics: Despite its importance, advanced thermodynamics poses several challenges. One of the main challenges is the complexity of the systems being studied. Advanced thermodynamics often deals with non-equilibrium systems, where the traditional laws of thermodynamics may not apply. Understanding and modeling such systems require advanced mathematical techniques and computational tools. Another challenge is the lack of experimental data under extreme conditions. Conducting experiments at high temperatures, pressures, or in extreme environments is often difficult andexpensive. Therefore, researchers heavily rely on theoretical models and simulations to gain insights into the behavior of complex systems. Future Prospects: The future of advanced thermodynamics looks promising, driven by advancements in computational power and experimental techniques. The development of sophisticated simulation tools, such as molecular dynamics and Monte Carlo methods, allows researchers to model complex systems more accurately. Furthermore, advancements in materials characterization techniques, such as high-resolution microscopy and spectroscopy, enable the direct observation and measurement of thermodynamic properties at the nanoscale. These advancements will not only deepen our understanding of advanced thermodynamics but also facilitate the design and development of novel materials and energy systems. Conclusion: In conclusion, advanced thermodynamics holds immense importance in various scientific and engineering disciplines. Its applications range from materials science to energy conversion systems, offering solutions to real-world challenges. However, the complexity of the systems being studied and the lack of experimental data pose significant challenges. Nevertheless, with the continuous advancements in computational power and experimental techniques, the future of advanced thermodynamics looks promising. By harnessing the principles of advanced thermodynamics, scientists and engineers can unlock new possibilities and drive innovation for a sustainable and technologically advanced future.。

DB11/1340-2016居住建筑节能工程施工质量验收规程

DB11/1340-2016居住建筑节能工程施工质量验收规程
本标准主要修订的技术内容为: 1、增加了供暖、冷热源和管网、通风和空调、太阳能热水、配电和照明等 节能工程内容; 2、修订了术语的内容,增加了产品质量证明文件等术语,删除了围护结构、 保温层等术语; 3、对墙体节能工程的相关内容重新进行了编写; 4、对工程现场检验的项目和内容进行了调整; 5、删除了常用节能保温做法主要材料性能指标的附录。 本规程由北京市质量技术监督局和北京市住房和城乡建设委员会共同负责 管理,由北京市住房和城乡建设委员会归口并负责组织实施,北京住总集团有
限责任公司负责具体技术内容的解释。 为了提高《居住建筑节能工程施工质量验收规程》的编制质量和水平,请
在执行本标准的过程中,注意总结经验,积累资料,如发现需要修改和补充之 处,请将意见和有关资料寄至北京住总集团有限责任公司(地址:北京市朝阳 区十里堡北里恒泰大厦 A 座 201,电话:010-85835969,邮编:100025)。
2016-08-01 实施
北京市住房和城乡建设委员会 北京市质量技术监督局
联合发布
北京市地方标准
居住建筑节能工程施工质量验收规程
Specification for insulation constructional quality acceptance of residential building
本标准的主要技术内容是:1 总则;2 术语;3 基本规定;4 墙体节能工程; 5 外门窗节能工程;6 屋面节能工程;7 地面节能工程;8 供暖节能工程;9 冷 热源和管网节能工程;2 配电和照明节能工程;13 工程现场检验;14 节能工程质量验收。本规程的附 录 A、附录 B 均为规范性附录。
本规程主要起草人员:鲍宇清 田桂清 谢 锋 金鸿祥 周 宁 张昭瑞 蔡 倩 钱选青 胡颐蘅 白建红 夏祖宏 段 恺 宋晓辉 张金成 夏 骞 杨洪昌 张晓墨 刘东华 刘淑静 邓宝如 解文强
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Approximate Parameters
Gen 2 Baseline Gen 5 Future Glass Size 370x470 mm 1100x1300 mm Material usage 15-25% 60% TAC time 2-6 min 1-2 min Substrate Velocity 1.3-4 mm/sec 9-18 mm/sec Operating Time between loading 6 days 6 days Area of Good product 8,000-12,000 m2/year 190,000-380,000 m2/year Estimated Capital Cost of Whole line $50-100M (use $75M) $150-300M (use $200M) Depreciation per unit of production $600-1900/m2 $100-200/m2 Standard Assumptions:
• We work with many partners:
– Suppliers to the OLED lighting industry – Downstream luminaire partners.
2014-05-07 2
Innovative High-Performance Deposition Technology for Low-Cost Manufacturing of OLED Lighting
5
DOE SSL Mfg Workshop 2014-05-07
Motivation – Whyቤተ መጻሕፍቲ ባይዱthis project is important
DOE SSL MYPP April 2014
TABLE 4.5 OLED PANEL AND LUMINAIRE MILESTONES
“Meeting the panel price goal of $200/klm by 2015, or soon thereafter, seems necessary in order to create a large enough demand to justify further investments in R&D and manufacturing capability. The luminaire price goal of $80/klm is appropriate for 2020 if OLEDs are to gain sufficient market penetration to contribute significantly to global energy savings.”
• We are the only US manufacturer of OLED lighting panels. • Founded in Rochester NY in 2010 • 22 full-time OLED experts
– Over 200 years of combined OLED experience – Experience across all areas of OLED technology
• •
Unfortunately we cannot show the design of our production machine or the design of the new vapor generation and depositions sources. However, we will describe the approach, considerations, and progress.
Sunic G5
80% uptime, 80% yield, 80% glass usage efficiency 5 year straight line depreciation
DOE SSL Mfg Workshop 2014-05-07 4
Project Targets in Terms of Reference Machines
Cost and Price ($/m2)
Gaps between target price and predicted prices: • 2015 - ~3-5x • 2020 - ~4-5x We need innovation in equipment performance (cost, throughput, flexibility) to help reach the targets
– –
Sunic G2

Future system – G5 - 1100x1300mm
E.g. LG Chem, First O-Lite, COMMED This is the largest publicly disclosed production machine in use today (370x470mm)
Gen 2 Baseline Gen 5 Future Glass Size 370x470 mm 1100x1300 mm Material usage 15-25% 60% TAC time 2-6 min 1-2 min Substrate Velocity 1.3-4 mm/sec 9-18 mm/sec Operating Time between loading 6 days 6 days Area of Good product 8,000-12,000 m2/year 190,000-380,000 m2/year Estimated Capital Cost of Whole line $50-100M (use $75M) $150-300M (use $200M) Depreciation per unit of production $600-1900/m2 $100-200/m2
DOE SSL Mfg Workshop 2014-05-07 3
• The goals of this deposition system are:
Reference Machines
• The most common OLED lighting system in production/pilot today is Sunic G2 – 370x470mm

The rough goals of the project are to design and build vapor generation and deposition sources to enable:
– – – – – Capital like G2 - $50-100M Material usage like G5 - ~60% Substrate speed like G5 – 9-18 mm/sec Depreciation like G5 - $100-200/m2 Easy on heat sensitive materials
• For our novel approach to vaporization, control, and distribution of organic vapor, the project encompasses:
– Design of the production-scale equipment of the deposition equipment, – Testing, analysis, and improvement of the equipment, – Implementation into production with demonstration 1. 2. 3. 4. Improve material usage efficiency Improve deposition rate – higher throughput Lead to lower capital cost OLED deposition machines Enable use of thermally sensitive materials
Innovative High-Performance Deposition Technology for Low-Cost Manufacturing of OLED Lighting Progress Review
John W. Hamer OLEDWorks LLC
2014-05-07
1
OLEDWorks Introduction
• Built a state of the art OLED R&D lab • Designed and started-up a novel, flexible, scalable OLED production facility. • We have commercialized our first product.
With the current equipment, we do not hit the DOE milestones for industry success.
4x 4x 3,694 1,632 369 163 80
DOE SSL Mfg Workshop 2014-05-07
7
Cost and Prices Relative to DOE Targets
DOE SSL Mfg Workshop 201405-07 6
Motivation – Why this project is important
Table 1-6 OLED Panel Cost Estimated Progress ($/m2) from Sept ‘13 DOE SSL Mfg Roadmap 2012 Integrated Substrate Organic Deposition Assembly and Test Overhead (incl labor) Total (unyielded) Yield of Good Product (%) Total Cost Deposition Machine Size TAC Time (min) Depreciation (at capacity, after yield) Total Cost with Depreciation Fraction of Total Cost due to Dep. Gross Margins Sales Price of Panels Price of light ($/klm at 10klm/m2) DOE Milestones (2014 DOE MYPP) Cost of Luminaire & Channel Costs Sales Price of Luminaire Price of light ($/klm at 10klm/m2) DOE Milestones (2014 DOE MYPP) 500 1,400 600 500 3,000 15% 20,000 G2 6 10,257 30,257 34% 50% 60,514 6,051 2013 250 600 350 300 1,500 25% 6,000 G2 6 6,154 12,154 51% 50% 24,308 2,431 2016 2020 2025 40 70 50 20 180 75% 240 G5 2 222 462 48% 50% 923 92 20 30 20 10 80 80% 100 G5 1 104 204 51% 50% 408 41 150 250 200 100 700 70% 1,000 G2 2 733 1,733 42% 50% 3,465 347 200 in FY15 4x 4x 4x 242,055 97,233 13,861 24,206 9,723 1,386
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