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General Office of the State Council on Strengthening Supervision and Inspection

  

  Notice of work contact

  Guo ban Han 1997 No.62

  People’s governments of all provinces, autonomous regions and municipalities directly under the Central Government, ministries and commissions and institutions directly under the State Council:

  In recent years, the supervision and inspection of the government system (hereinafter referred to as "supervision") has been strongly strengthened with the great attention and support of local governments and leaders of various departments in the State Council. At present, most regions and departments have instructed specific units and full-time personnel to undertake the work, which has played an important role in ensuring the smooth development of the inspection work. In order to further improve the supervision work and promote the implementation of the important work arrangements in the State Council, the General Office of the State Council decided to strengthen the supervision work with all regions and departments. The relevant matters are hereby notified as follows:

  First, the supervision work contact content. First, the major decisions and important work arrangements made by the State Council, as well as the matters that need to be reported by various regions and departments in the official documents of the general offices of the State Council and the State Council; Second, the matters that need to be implemented in the decision of the the State Council meeting; Third, the matters that need to be investigated and implemented in the on-site instructions of the State Council leaders and reported to the leading comrades; Fourth, other matters assigned by the general offices of the State Council and the State Council that need to be supervised by various regions and departments.

  Second, the contact form of supervision work. The General Office of the State Council is responsible for supervising the implementation of the official documents of the State Council and the State Council, the decisions of the the State Council meeting and the instructions of the leading comrades of the State Council. Where the official documents and meetings of the general offices of the State Council and the State Council have clear time limit requirements for implementation, the general office of the State Council will report to the relevant regions and departments as required, and assist the regions and departments to do a good job in the feedback of inspection results and promote the implementation of decision-making; With regard to the instructions of the leading comrades of the State Council transferred to the relevant regions and departments, the General Office of the State Council will take the initiative to negotiate with the regions and departments for investigation, and promptly report the investigation results. For important matters or long-delayed issues, the General Office of the State Council will directly organize supervision with the host area and relevant departments when necessary to promote the solution of the problem.

  Three, the inspection work contact channels. The State Council General Office and local governments and the State Council departments should establish normal contact channels for inspection work, strengthen regular contact, cooperate closely, coordinate well, and form a convenient, smooth and effective inspection organization network. The General Office of the State Council designated the Secretariat Bureau to undertake the daily work of the General Office of the State Council. Responsible for the organization and coordination of matters that need to be supervised and inspected in the State Council, and contact with units responsible for supervision work in various regions and departments. All localities and departments should also designate relevant units to undertake the daily work of supervision, and keep in touch with the General Office of the State Council. Please all regions and departments in February 10, 1998 will be responsible for the supervision of the name of the organization, the name of the person in charge and contact telephone number to the Secretariat of the General Office of the State Council.

  the General Office of the State Council

  December 17, 1997

Colin JeffreyNovember 26, 2014Bio-Electric-Hybrid-Aircraft concept aims to quietly rule the skies

  

  The Faradair BEHA concept is intended to be one of the world’s quietest, most efficient and environmentally friendly aircraft ever created (Image: Faradair)

  Image Gallery (15 images)

  Touted as the world’s first true hybrid aircraft, the Faradair BEHA (Bio-Electric-Hybrid-Aircraft) is a triple box-wing design concept that combines electric motors and a bio-diesel engine. Fitted with a range of energy conservation and recovery tec hnologies, including solar panels on all flight surfaces and high-lift, low-speed flight capabilities, the BEHA is intended to be one of the world’s most environmentally friendly aircraft.

  Aimed at the traditional multi-role light aircraft market, the BEHA concept is premised for a range of operations with lower cost overheads and minimal environmental effect. Included in a potential list of use rs are those who are engaged in inter-city travel, operate flight schools, run observation and emergency services, or simply want a low running cost aircraft for recreational use.

  To this end, the designers of the BEHA claim that their concept electric design offers true "hybrid" dual-fuel capability with a combined bio-diesel/ electric propulsion combination that will put it into a different league from currently available electric aircraft, by no longer requiring ground-based recharging. As such, it is intended that the Faradair craft also employ such energy recovery technologies as all flight surfaces being skinned with solar panels, along with wind-turbine technology to allow battery-charging for the vehicle whilst it is in-flight or on the ground.

  The plan is to equip the BEHA concept with twin electric fan motors (from the company’s renderings, somewhat similar in appearance to those used on the recently flown Airbus E-Fan electric aircraft) that deliver some 200 hp (150 kW) each, in combination with a similarly powerful bio-diesel generator incorporating a ducted pusher propeller. Designed to take off and land using electric power, the bio-diesel engine is intended to recharge the batteries whilst the craft is cruising to increase the overall performance and flying time.

  "Markets will be opened up as this lightweight, state-of-the-art, carbon fiber, high-lift designed aircraft will negate night flight restrictions and pollution concerns," says Neil Cloughley, Managing Director of Faradair Aerospace Limited. "Its truly radical and futuristic design aims to follow in the footsteps of other great aviation achi evements by becoming a game changing aircraft that helps transform aviation as we know it today."

  The inspiration for the BEHA was the de Havilland Dragon Rapide, an iconic British design from the 1930s. With a large surface area from its three lift surfaces, combined with an efficiency-enhancing box wing design that reduces turbulent airflow, the makers of the BEHA also hope to emulate the popularity and success of their design’s inspiration as a comfortable, smooth flying model of light commercial transport.

  A range of active and passive safety features are promised, including a ballistic parachute recovery system, high-impact capability crash protection (apparently modeled on Formula One motor racing technology), the ability to run on fewer than its full complement of engines, and a high-efficiency glide capability that allows longer unpowered flight in the unlikely event that all engines fail.

  And – perhaps most interesting of all – the ultimate safety feature: If anything should happen to the pilot and he is unable to fly the plane, Faradair also plan to outfit the BEHA with a remote control system so that the aircraft can be flown and landed by a pilot in control from the ground. Despite the fact that no such system has yet had approval on any aircraft, the designers believe that being able to remotely control the craft in times of emergency would boost passenger confidence and safety immensely.

  "This aircraft will be one of the most eco-friendly and safest aircraft in the world, costing somewhere close to $1m US Dollars per aircraft, " says Cloughley. "Plus our production facility will be equally environmentally focused."

  Recently launched on Kickstarter, the company intends to spend the next 12 months through 2015 on Research and Development, with a specific aim to complete specifications and fabrication of prototype parts, provided its £20,000 Kickstarter aspirations are met.

  The video below shows the company’s Kickstarter pitch and some animations of the concept.

  Source: Faradair

  Bio-electronic hybrid aircraft should rule the sky quietly. The concept of bio-electric hybrid aircraft aims to rule skies quietly. The concept of faradair behavior is the quietest, most effective and most environmentally friendly aircraft ever created in the world (photo: faradair).

  Image Gallery (15 sheets)

  Faradair behavior (bioelectrical hybrid aircraft), touted as the world’s first real hybrid aircraft, is a design concept of a triple box wing, which combines an electric motor and a biodiesel engine. Equipped with a series of energy-saving and recycling technologies, including all flying surfaces and high-lift solar panels, it is one of the most environmentally friendly aircraft in the world.

  The premise of the behavior concept aimed at the traditional multi-purpose light aircraft market is a series of operations with low cost and minimal environmental impact. Include potential user list are those who are engaged in inter-city travel, operate flight schools, run observation and first aid services, or just want a low-cost airplane for entertainment.

  To this end, it is claimed that their behavior concept of electrical design provides a real "hybrid" dual-fuel capability combined with biodiesel/electric propulsion, which will turn it into a different league from the existing electric aircraft designers, and no longer requires ground charging. Therefore, its purpose is that the faradair process also uses this energy recovery technology for all flying solar panels on the surface of the skin, and with the wind power generation technology, the battery is charged for the car, although it is in the air or on the ground.

  The plan is to make the behavior concept similar to that of the double electric fan motor (from the company’s renderings, the appearance of the Airbus E-Fan electric aircraft used recently is somewhat similar), provide 200 horsepower (150 kW), and combine an equally powerful biodiesel generator to push the catheter to the propeller. Designed to take off and use electric land, biodiesel is used to charge boats for cruising to improve overall performance and flight time.

  "Opening the market for this lightweight, state-of-the-art, carbon fiber, high-lift aircraft will negate night flight restrictions and pollution concerns," said Neil Carare, general manager of faradair Aviation Co., Ltd. Its truly radical and avant-garde design aims to follow the footsteps of other great aviation achievements and become a game-changing plane, which can take aviation as what we know today. "

  The act of inspiration is De Harvey Lanxunlong, an iconic British design from the 1930s. With the large surface area from three liters, combined with the improved efficiency of the box wing design to reduce turbulence, the behavior makers also hope to imitate the popularity of their design inspiration for the success as a comfortable, light commercial transport smooth flight model.

  A series of active and passive safety functions are promised, including ballistic parachute recovery system, high impact protection (obviously imitating the technology of F1 racing car), the ability to run below its complete engine, and an efficient gliding ability, all the impossible events of engine failure are allowed without power flight.

  And-perhaps most interestingly-the ultimate safety function: If the pilot can’t fly the plane, faradair also plans to equip the pilot with the performance and remote control system so that the plane can fly and land from the ground. Despite the fact that there is no such system and no aircraft has been accepted, the designer believes that the first-aid technology that can be remotely controlled will enhance the confidence and safety of passengers.

  "This plane will become the most environmentally friendly and safest plane in the world, and the cost is close to one million dollars," said Carare. "Plus our production facilities will be equally environmentally friendly. "

  Recently launched on Kickstarter, the company plans to provide £20000 Kickstarter in the next 12 months through 2015 research and development, complete specifications and prototype parts processing for specific purposes.

  The following video shows the tone of the company’s Kickstarter and some animation concepts.

Pay attention to the reply keyword "welfare" and send you high-quality English audio books for free!

  

  The materials for TEM-8 mainly come from British and American newspapers, magazines, radio stations or websites. One of them includes: TED talk, and Mini-lecture in 2018 and 2016 comes from TED talk. I suggest you watch and listen to TED talk more often.

  Speaker: Alex Laskey

  Topic: how behavioral science can lower your energy bill

  How many of you have checked your email today? Come on, raise your hands. How many of you are checking it right now?

  How many of you checked your mailbox today? Come on, hands up. How many people are checking it now?

  And how about finances? Anybody check that today? Credit card, investment account? How about this week?

  What about the fund account? Has anyone checked it today? Credit cards, investment accounts? Have you checked this week?

  Now, how about your household energy use? Anybody check that today? This week? Last week? A few energy geeks spread out across the room. It’s good to see you guys. But the rest of us — this is a room filled with people who are passionate ab out the future of this planet, and even we aren’t paying attention to the energy use that’s driving climate change.

  What about household energy use? Has anyone checked that today? This week? What about last week? There are some energy geeks in this room. Nice to meet you. But the rest of us, this is a room full of people who are passionate about the future of this planet, but we don’t care about the energy consumption that causes climate warming.

  The woman in the photo with me is Harriet. We met her on our first family vacation. Harriet’s paying attention to her energy use, and she is decidedly not an energy geek. This is the story of how Harriet came to pay attention.

  The woman with me in this photo is Harriet. We met her on our first family holiday. Harriet is paying attention to her energy use. There is no doubt that she is not an energy geek. This is the story of why Harriet pays attention to energy.

  This is coal, the most common source of electricity on the planet, and there’s enough energy in this coal to light this bulb for more than a year. But unfortunately, between here and here, most of that energy is lost to things like transmission leakage and heat. In fact, only 10 percent ends up as light. So this coal will last a little bit more than a month. If you wanted to light this bulb for a year, you’d need this much coal.

  This is coal, the most common power source on the planet. There is enough energy in this coal to make this light bulb light for more than a year. Unfortunately, in the process from here to here, most of this energy was lost because of conduction loss and heat release. In fact, only 10% of energy is finally released in the form of light energy. So this coal can only last for a little more than a month at most. You need so much coal if you want to light this light bulb for a year.

  The bad news here is that, for every unit of energy we use, we waste nine. That means there’s good news, because for every unit of energy we save, we save the other nine. So the question is, how can we get the people in this room and across the globe to start paying attention to the energy we’re using, and start wasting less of it?

  The bad news is that for every 10% of the energy we use, we waste 90%. This also means that there is good news, that is, for every 10% energy we save, we save the remaining 90%. The question is, how can we make people in this room and people all over the world pay attention to the energy we use and start to reduce waste?

  The answer comes from a behavioral science experiment that was run one hot summer, 10 years ago, and only 90 miles from here, in San Marcos, California. Graduate students put signs on every door in a neighborhood, asking people to turn off their air conditioning and turn on their fans. One quarter of the homes received a message that said, did you know you could save 54 dollars a month this summer?

  The answer comes from a behavioral science experiment, which was conducted on a hot summer day ten years ago, only 90 miles away in San Marcos, California. Graduate students made a message on every door in a certain block, telling people to turn off the air conditioner and turn on the electric fan. A quarter of families received a message saying, Do you know? You can save $54 a month this summer?

  Turn off your air conditioning, turn on your fans. Another group got an environmental message. And still a third group got a message about being good citizens, preventing blackouts. Most people guessed that money-saving message would work best of all. In fact, none of these messages worked. They had zero impact on energy consumption. It was as if the grad students hadn’t shown up at all.

  Just turn off the air conditioner and use the electric fan. The other group received messages about the environment. The message the third group got was to be a civilized citizen and prevent power failure. Most people think that messages that save money will be the most effective. In fact, none of the messages worked. They don’t care about these energy consumption problems. It’s as if graduate students haven’t posted these messages.

  But there was a fourth message, and this message simply said, "When surveyed, 77 percent of your neighbors said that they turned off their air conditioning and turned on their fans. Please join them. Turn off your air conditioni ng and turn on your fans." And wouldn’t you know it, they did. The people who received this message showed a marked decrease in energy consumption simply by being told what their neighbors were doing.

  But there was a fourth message, which simply said, "The survey found that 77% of your neighbors said they turned off the air conditioner and started using electric fans. Please join them. Turn off the air conditioner and turn on the electric fan. " Do you believe it or not? They did it! The people who received this message significantly reduced their energy consumption. Just because I told them what the neighbors were doing.

  So what does this tell us? Well, if something is inconvenient, even if we believe in it, moral suasion, financial incentives, don’t do much to move us — but social pressure, that’s powerful stuff. And harnessed correctly, it can be a powerful force for good. In fact, it already is.

  What does this tell us? Well, if something is inconvenient, even if we believe it, moral persuasion and economic encouragement will not make us act, but social pressure is strong. If used correctly, it can be a powerful positive energy. In fact, it already is.

  Inspired by this insight, my friend Dan Yates and I started a company called Opower. We built software and partnered with utility companies who wanted to help their customers s ave energy. We deliver personalized home energy reports that show people how their consumption compares to their neighbors in similar-sized homes.

  Inspired by this, my friend Dan Yates and I started planning a company called "Opower". We develop software and cooperate with public utility companies, which also want to help their customers save energy. We publish personalized home energy reports to show people how much they consume compared with their neighbors with similar houses.

  Just like those effective door hangers, we have people comparing themselves to their neighbors, and then we give everyone targeted recommendations to help them save. We started with paper, we moved to a mobile application, web, and now even a controllable thermostat, and for the last five years we’ve been running the largest behavioral science experiment in the world.

  Just like those effective messages posted on the door, we ask people to compare themselves with their neighbors and then give targeted suggestions. Help them save. We started with paper, then mobile phone applications, internet, and now even controllable thermostats. In the past five years, we have started the largest behavioral science experiment in the world.

  And it’s working. Ordinary homeowners and renters have saved more than 250 million dollars on their energy bills, and we’re just getting started. This year alone, in partnership with more than 80 utilities in six countries, we’re going to generate another two terawatt hours of electricity savings.

  It worked. Ordinary homeowners and renters have saved more than $250 on their energy bills, when we were just beginning. Just this year, we have cooperated with more than 80 public institutions in six countries, and we are trying to save another two terawatt-hours (100 million kWh) of electricity.

  Now, the energy geeks in the room know two terawatt hours, but for the rest of us, two terawatt hours is more than enough energy to power every home in St. Louis and Salt Lake City combined for more than a year. Two terawatt hours, it’s roughly half what the U.S. solar industry produced last year.

  Now, the energy geeks in the house know two terawatt hours, but for us, the remaining two terawatt hours can be used by every household in St. Louis and Salt Lake City for more than a year. Two terawatt hours, about half of the annual output of American solar factories last year.

  And two terawatt hours? In terms of coal, we’d need to burn 34 of these wheelbarrows every minute around the clock every day for an entire year to get two terawatt hours of electricity. And we ‘re not burning anything. We’re just motivating people to pay attention and change their behavior.

  Just two terawatt hours? If we switch to coal, we need to burn 34 wheelbarrows of this kind of coal every minute, 24 hours a day for a whole year, in order to get two terawatt hours of energy. However, we don’t burn anything, we just inspire people to pay attention and change their behavior.

  But we’re just one company, and this is just scratching the surface. Twenty percent of the electricity in homes is wasted, and when I say wasted, I don’t mean that people have inefficient lightbulbs. They may. I mean we leave the lights on in empty rooms, and we leave the air conditioning on when nobody’s home.

  But we are just a company, and these are just a drop in the bucket. 20% of the energy in a family is wasted. When I say wasted, I don’t mean that people install some useless light bulbs. They can have it. I mean, we leave lights on in empty rooms, and we still turn on the air conditioner when no one is at home.

  That’s 40 billion dollars a year wasted on electricity that does not contribute to our well-being but does contribute to climate change. That’s 40 bill ion — with a B — every year in the U.S. alone. That’s half our coal usage right there.

  The $40 billion wasted every year has not contributed to building a well-off society in an all-round way, but it will lead to climate change. That’s $40 billion, in America alone. Half of our coal was used there.

  Now thankfully, some of the world’s best material scientists are looking to replace coal with sustainable resources like these, and this is both fantastic and essential. But the most overlooked resource to get us to a sustainable energy future, it isn’t on this slide. It’s in this room. It’s you, and it’s me. And we can harness this resource with no new material science simply by applying behavioral science. We can do it today, we know it works, and it will save us money right away.

  Now, fortunately, some of the best materials scientists in the world are looking for sustainable energy instead of coal. Like these, this is amazing and necessary. But most neglected resources lead us to the future of sustainable energy, and the people who can do this are not on this screen. But in this room, you and me. We can make use of this resource without using the latest material science and technology. We can do it today, we know it is feasible, and it will save us money immediately.

  So what are we waiting for? Well, in most places, utility regulation hasn’t changed much since Thomas Edison. Utilities are still rewarded when their customers waste energy. They ought to be rewarded for helping their customers save it.

  Then what are we waiting for? Well, in most places, the regulation and utilization of energy has not changed much since Edison’s time. Public utilities have been rewarded for customers wasting energy. But they should be rewarded for helping customers save energy.

  But this story is much more than about household energy use. Take a look at the Prius. It’s efficient not only because Toyota invested in material scie nce but because they invested in behavioral science. The dashboard that shows drivers how much energy they’re saving in real time makes former speed demons drive more like cautious grandmothers.

  But this story is much more than just about the energy use of the family. Look at this Toyota Prius. It is very efficient, not only because Toyota invested in materials science, but also because they invested in behavioral science. The dashboard tells drivers how much energy they have saved in real time. Make the previous speed devil more like a cautious grandmother.

  Which brings us back to Harriet. We met her on our first family vacation. She came over to meet my young daughter, and she was tickled to learn that my daughter’s name is also Harriet. She asked me what I did for a living, and I told her, I work with utilities to help people save energy. It was then that her eyes lit up.

  This brings us back to Harriet’s story. We met her on our first family holiday. She came to see my little daughter, and she was glad to learn that my daughter’s name was Harriet, too. She asked me what I do, and I told her that I work with public institutions to help people save energy. Just then her eyes lit up.

  She looked at me, and she said, "You’re exactly the person I need to talk to. You see, two weeks ago, my husband and I got a letter in the mail from our utility. It told us we were using twice as much energy as our neighbors."

  She looked at me and said, "You are the very person I want to communicate with. You see, two weeks ago, my husband and I received a letter from our public utility. Tell us that we use more than twice as much energy as our neighbors. "

  "And for the last two weeks, all we can think about, talk about, and even argue about, is what we should be doing to save energy. We did everything that letter told us to do, and still I know there must be more. Now I’m here with a genuine expert. Tell me. What should I do to save energy? "

  "In the past two weeks, all we thought, discussed and even argued was what we should do to save energy. We did everything the letter told us, and I knew there must be more. Now I am standing here with a real expert. Tell me. What should I do to save energy? "

  There are many experts who can help answer Harriet’s question. My goal is to make sure we are all asking it.

  There are many experts who can answer Harriet’s questions. My goal is to make sure that everyone will ask this question.

  Thank you.

  Thank you.

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Keeping up with the latest problem best prACTices is a sart -and cracial -defiSION, Regardless of WHETHER It Pertains to CNC Machine, 3D Printing, as in this case, inject, inject, inject, inject, inject, inject, inject, inject, inject, inject, the

  

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  Four Key areas of the Machine Are Responsible for Low AMounts of Waste Plastic — The Gate Locations, Runners, Sprue, And the Cavity, where excwine,

  

  Your End Product Can Be Greatly Determined Before Production Even Begins.

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  About the author

The countdown to the opening of PVSEC-29 is 37 days, and Xiaobian presents the detailed arrangement of the tenth venue "Performance and Reliability of Photovoltaic Modules".

  

  Feng Zhiqiang, chairman of the sub-venue.

  He is currently the vice president of Trina Solar and the director of the State Key Laboratory of Photovoltaic Technology. Part-time professor of Sun Yat-sen University, doctoral supervisor of Changzhou University, deputy director of Photovoltaic Professional Committee of China Renewable Energy Society, and member of National 863 Program Expert Group. Participate in the "Jiangsu Innovation and Entrepreneurship Leading Talents Program". He holds Ph.D. and Master’s degrees in materials science from Yokohama National University, Japan, and works as a postdoctoral fellow at Iowa State University, USA. Dr. Feng has worked as a research and development engineer and scientist in Japan, American National Laboratory and top semiconductor companies for more than 20 years. In 2015, he won the China Photovoltaic Achievement Award. His research interests are the reliability of high-efficiency crystalline silicon solar cells and photovoltaic modules and photovoltaic products. He has published more than 120 papers and obtained 10 patents.

  Zhang Zhen, chairman of the sub-venue

  Mainly engaged in high-efficiency photovoltaic systems and photovoltaic reliability research. He focuses on the research and development of Trina Solar photovoltaic projects, including special solar module and module materials, solar module efficiency and hybrid photovoltaic systems. As a postdoctoral researcher in the photovoltaic reliability team of the National Renewable Energy Laboratory. He graduated from China Academy of Sciences and received his Ph.D. from Sun Yat-sen University, specializing in photovoltaic research. He has served as the head of module research and development team in Trina Solar Energy Co., Ltd. and Solar Energy Company, and has guided many projects such as low series resistance module, low power consumption module, service life of module packaging materials, BIPV module development and smart photovoltaic module and system research.

  Atsushi Masuda, Chairman of the Sub-venue

  Atsushi Masuda received his Ph. D degree inEngineering from Kanazawa University, Japan in 1996. In 1996 he joined School of Materials Science, Japan Advanced Institute of Science and Technology and in 2005 hejoined Research Center for Photovoltaics, National Institute of Advanced Industrial Science and Technology. He iscurrently a Deputy Director, Research Center for Photovoltaics, National Institute of Advanced Industrial Science and Technology. His main research field is solar-cellmaterials and reliability of photovoltaic module s. He was a member of Steering Committee of 6thWorld Conference on Photovoltaic Energy Conversion and a member of Steering and Organizing Committees o f 27th International Photovoltaic Science andEngineering Conference. He is an authorand co-author of over 200 technical papers and conference papers. He has applied for over 50 foreign anddomestic patents. He is a senior memberof the Japan Society of Applied Physics, the Ceramic Society of Japan, theJapan Society of Vacuum and Surface Science, and the Institute of Electronics,Information and Communication Engineers.

  Sarah Kurtz, Chairperson of the breakout session.

  Dr. Sarah Kurtz received her PhD from Harvard University in Chemical Physics in 1985 with Roy Gordon. She moved directly tothe Solar Energy Research In stitute (now the National Renewable EnergyLaboratory, NREL) where she has worked for more than 30 years on a variety ofsolar energy projects. She is known for her contributions to developing multijunction, GaInP/GaAs solar cells, supporting the Concentrator Photovoltaic(PV) industry, and, more recently, her work with PV performance andreliability. Her work has been recognized with a jointly received Dan David Prize in 2007, the Cherry Award in 2012, and the C3E Lifetime Achievement Award in 2016. In late 2017 she transitioned to a faculty position at the University of California at Merced, while continuing work with NREL.

  Session 10 (tentative schedule)

  Session 1: November4th 13: 30-16: 00.

  Moderator: Zhang Zhen

  Invitation report

  13: 30-13: 50 Max B. Koen Topp Han Wha Q Cells R&D Analysis & Modeling Team Leader

  Subject of report: to be determined

  oral report

  13:50-14:05 Chengying Shi

  Report topic: Effect of high wind speed dust on silicon photovoltaic modules performance.

  14: 05-14: 20 Dr. Pei-Chieh Hsiao, University of New South Wales (UNSW)

  Topic of the report: The RMO mechanical stress in glass-glass modules of half silicon solar cells interconnected by preventive tabbing.

  14: 20-14: 35 Yoshihiro Hishikawa (AIST) invited researchers.

  Report topic: performance monitoring of PV modules and arrays for reliability evaluation.

  14:35-14:50 Yating Zhang

  Topic of the report: The Irradiance Mismatch Effects on the Performance of Bifacial Photovoltaic Modules.

  14: 50-15: 05 Dr. Juan Camilo Ortiz Liz Cano Delft University of Technology

  Topic of the report: thermal management of PV modules: passive cooling solutions for front and back surfaces.

  15:05-15:20 Yunlinsun

  Topic of the report: Study on Simulation and Optimization for Output Characters of Bifacial PV Modules Based on Outdoor Empirical Tests.

  15:20-15:35 Marco Ernst, Research Fellow, Australian National University

  Report topic: Impact of (multi-) bus bar design in full and half cell modules on the cell-to-module yield under realistic conditions.

  15:35-15:50 Peide Han

  Report topic: physical mechanism and temperature control of shaded solar cell hot-spot

  Session 2: November6th 8: 30-10: 00.

  Moderator: Feng Zhiqiang.

  Invitation report

  8:30-8:50 Yasuaki Ishikawa, Associate Professor, Nara Institute of Science and Technology, Japan

  Topic of the report: Detailed analysis of potential induced degradation in p-type crystalline silicon photovoltaic modules.

  He worked as a postdoctoral researcher at the Institut Fur Physiikalische Elektronik in Stuttgart University, Germany, studying wearable photovoltaics. Since 2005, he has been engaged in postdoctoral research in the Department of Physics and Astronomy, University of Toledo, USA, studying multi-junction amorphous silicon solar cells. In 2006, he joined Sharp Corporation in Japan, engaged in solar cell research. Since 2010, he has been an associate professor at the Graduate School of Materials Science, Nara Institute of Science and Technology, Japan. The current research fields include the application of nanostructures in energy harvesters, printing electronics, processing of oxide materials and devices, and photoelectric reliability.

  oral report

  8: 50-9: 05 Yujino, researcher, National Institute of Advanced Industrial Science and Technology (AIST)

  Subject of the report: lifetime prediction of crystalline SiPV modules under UV-hydrothermal stress.

  9:05-9:20 Zhao Wu

  Report topic: Statistical modeling of UV induced PV module power degradation based on acceleration tests.

  9: 20-9: 35 Senior Research Fellow, National Science and Technology Development Bureau, Amornrat Limmanee

  Topic of the report: A simple method to estimate degradation rates of photovoltaics without infrared data.

  9: 35-9: 50 TV Senior Technical Engineer of Beide Group

  Subject of the report: Reliability

  9:50-10:05 Hao Song

  Report topic: indoor accelerated aging test for silicon PV module with a combined procedure of thermal cycling and high intensity infrared.

  Session 3: November6th 10: 30-12: 00.

  Moderator: Atsushi Masuda

  Invitation report

  10: 30-10: 50 Senior Vice President and CTO of Artes Solar Photoelectricity (Suzhou) Co., Ltd.

  Subject of report: to be determined

  He has more than 20 years of research and development experience in photovoltaic and semiconductor industries. In Artes Solar Photoelectricity (Suzhou) Co., Ltd., he led the technical team to successfully launch large-scale production technologies such as single crystal and polysilicon wafers and dual-cell module, many of which have become mainstream technologies in the photovoltaic field. He won the first prize of Shanghai Science and Technology Innovation Award, the chief scientist of China 863 project, and the member of photovoltaic committee of China Renewable Energy Society. Has more than 50 invention patents.

  oral report

  10:50-11:05 Yan Yang

  Topic: Research on Optimization of Structured Ribbon for Photovoltaic Module

  11:05-11:20 Bing Gao

  Topic: performance and degradation comparison for long-term reliability of diverse kinds of photovoltaic modules in the east of China.

  11:20-11:35 Ji.Xia Du Pont Technical Fellow

  Report topic: evaluation long-term reliability of solar module and its components by field study.

  11:35-11:50 William Gambogi DuPont Technical Fellow

  Report topic: performance and durability of transparent back sheets for bilateral PV modules.

  11:50-12:05 Chunhua Zhong

  Topic of the report: the study on let id of monocrystal cz-silicon

  12: 05-12: 20 Researcher James Ma3m

  Topic: optimization of silicon PV modules for power/yield and durability using light redirecting films.

  Session 4: November7th 10: 30-12: 00.

  Moderator: Sarah Kurtz

  Invitation report

  10: 30-10: 50 Dr. Researcher, Taeko Semba Namics Corporation

  Report topic: Correction mechanisms of the front-side metallization by high-temperature high-humity test on crystalline SiPV module.

  In 2009, he received a doctorate in solid state physics from Ibaraki University. Joined NAMICS in April 2009. Participate in the development of metallization paste for P-type silicon and back contact solar cells. Since 2016, the main research focus has been on the reliability of the front metallization paste. In June 2018, he won the Best Poster Award of wcpec7 Poster Award for "Glass Corrosion and Lead Compound Formation during Metallization of Crystalline Silicon Photovoltaic Module in High Temperature and High Humidity Test".

  10:50-11:10Nikos Kopidakis, scientist, National Renewable Energy Laboratory, USA

  Report topic: low uncertainty PV module calibrations

  oral report

  11:10-11:25Takehiro Yoshida, a student of Tokyo University of Science and Technology, Japan.

  Report topic: quantitative evaluation of outdoor degradation rate of PV system by analyzing output current, voltage and power.

  11: 25-11: 40 Dr. Pei-Chieh Hsiao, University of New South Wales (UNSW)

  Report topic: balanced contact method to reduce the RMO mechanical stress in silicon solar cells induced by interconnection.

  11: 40-11: 55 Researcher Keiichiro Sakurai (AIST)

  Report topic: Recovery of CIGS solar cells from PID stress with spectrally selective illumination and light Soaking.

  11:55-12:10 Bill J.J. Liu Miasole Director

  Topic of the report: establishing the long-term reliability performance of flexible PV modules from accelerated testing.

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  be aggressive and get an overall projecting. ""

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  "He kept walking until he just couldn’t walk anymore," Said Harrod Blank.

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【 test situation analysis 】:

  

  [Hint]: From the examination questions of the past years, the external environment analysis and the risks faced are mainly investigated, and this year, the analysis model has been appropriately adjusted and expanded, and some analysis methods (such as KSF) have been added; In addition, the internal environment analysis has not been tested except in the SWOT model, which needs proper attention; Risk types are re-divided into internal and external, with a total of 12 risks, and the risk coping strategies are expanded from 4 methods to 7 methods, which should be paid special attention to.

  [Declaration]: The following contents are for my reference. In view of my limited level and ability, you are welcome to criticize and correct me. This article is only for learning!

  [Mind Map]:

  Analysis of the external environment.

  (A) the macro environment analysis (General Macro Environment Analysis) (Pest Analysis)

  【 Summary 】 PEST(4, 4, 6, 6, 5)

  [Hint]: You should master the framework, pay attention to the direction of thinking when developing, and don’t memorize it!

  (B) industrial environment analysis (Analysis on the industrial environment)

  1. Product Life Cycle (product life cycle)

  The names of the four stages: introduction period, growth period, maturity period and decline period. These stages are divided by the inflection point of the growth curve of industrial sales.

  2. Five industrial competitive forces.

  (1) Potential new entrant`s threat.

  The size of the entry threat depends on the presented entry barriers (structural barriers) and the counter-attacks (behavioral barriers) of the existing incumbents that the prospective entrants may encounter, which are collectively called entry barriers.

  Barriers to entry: refers to those factors that allow existing enterprises to earn positive economic profits, but make new entrants to the industry unprofitable.

  (2) The threat of substitute products.

  There are two kinds of product substitution, one is direct product substitution, and the other is indirect product substitution.

  ① Direct substitution. That is, one product directly replaces another product.

  (2) Indirect substitution. That is, products that can play the same role indirectly replace other products.

  (3) Bargaining power of suppliers and buyers.

  (4) Intra-industry competition from existing businesses.

  [supplement]:

  (1) the strategy to deal with five kinds of competitiveness.

  First of all, companies must position themselves and isolate them from the five kinds of competitiveness by using cost advantage or differential advantage, so that they can surpass their competitors.

  Secondly, the company must identify which market segment in the industry, the impact of the five competitiveness is less, which is the "concentration strategy" put forward by Porter.

  Finally, the company must strive to change these five competitiveness.

  (2) The sixth element — Six factor complementary interaction force.

  [Summary]: Five-force model (2, 2, 4, 5)

  3. Key success factor analysis (KSF).

  The key factors of success refer to the skills and assets that a company must have to make a profit in a specific market.

  The key factor of success is the prerequisite for enterprises to achieve industrial success. To confirm the key success factors of the industry, we must consider:

  (1) What is the basis for customers to choose among competing brands?

  (2) What kind of resources and competitiveness does a vendor in the industry need to succeed in competition?

  (3) What measures must a seller and manufacturer in the industry take to gain a lasting competitive advantage?

  [Note]:

  1. The key factors of success vary with different industries.

  Oil industry — — Raw material resources; Home appliance enterprises — — marketing network

  2. With the evolution of product life cycle, the key factors of success also change.

  Lead-in period: sales, consumers’ trust and market share.

  Growth period: be sensitive to market demand and promote product quality.

  3. Even enterprises in the same industry may have different emphases on the key factors of the success of this industry.

  Wal-Mart: Logistics Distribution System

  Carrefour: Cheap and comprehensive.

  (C) competitive environment analysis (analysis on competitive environment)

  1. competitor analysis (Analysis on competitor)

  2. The strategy group in the industry.

  (1) Strategic group refers to a group of companies that adopt the same or similar strategy or have the same strategic characteristics in a certain industry.

  (2) Strategic group analysis

  (1) help to understand the competition situation between strategic groups, actively find near and far competitors, and also understand the difference between a group and other groups.

  ② It is helpful to understand the "mobility barriers" between strategic groups. Mobility obstacle is the obstacle that one group turns to another group (generally, there are the re-investment of fixed assets, the bondage of users’ existing understanding of corporate image, etc.).

  (3) help to understand the main focus of enterprise competition within the strategic group.

  ④ The strategic group diagram can also be used to predict market changes or discover strategic opportunities.

  (D) Market demand analysis

  1. Determinants of market demand

  2. Consumer analysis

  (1) consumption segmentation

  Through market research, enterprises divide the market of a product into several consumer groups according to the obvious differences in some characteristics or variables of consumer demand. Including market segmentation and industrial segmentation.

  (2) Consumption motivation

  (3) The unsatisfied demand of consumers

  The unsatisfied demand indicates that enterprises have the opportunity to enter the market or increase their market share, and it also indicates that enterprises are facing threats, because competitors also have the opportunity to seize market share.

  Related recommendations: Notes on Comprehensive Study: Internal Environment of Strategic Analysis

  Notes on Comprehensive Learning in Notes Meeting: SWOT Analysis and Gap Analysis

  Notes on comprehensive study: risk management in strategic analysis

  Comprehensive learning: an analysis of the development mode of enterprises

  Notes on comprehensive study: the test site of enterprise development mode