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Now that's excellent info !! Thank you for the explanation!!
What does that mean Carl? I don't understand.. tia
Exactly., now with those Power Purchase Agreements, every house in American can eventually have solar panels... market is endless. I'd like to lose all or some of my electric bill that's for sure. ;)
Right, if you read back over the last pr's of two years you can see
the improvements. Materials, kilowatt hours generated capability, and now the complete list of q&a on the Solar section of the site for residential.
I'm wondering who and how many alliances the company is going with. Maybe everyone that sells and installs panels ;)
Certainly appears that the company keeps tweaking the
abilities of the STS.
Thanks BTM, looking forward to seeing the STS on the website. Can't even imagine how fast this could fly when the NJ and NY customers begin placing orders.
Till then I add. Float so low and this is no flash in the pan company.
Jon has been at this for many years. Great to catch it now.
GLTA
d
Very excited here Cash, seems the company is concentrating on the solar side and has been for some time. Looking forward to hearing about production now. Pricing at a great time to add..
This stock has been in accumulation for a week now.
Respose to email from Jon Ricker with permission
-----Original Message-----
From: jonricker <jonricker@aol.com>
To: xxxxxxxxxxxxxxxxxxx
Sent: Wed, Sep 3, 2014 9:14 am
Subject: Re: Question regarding manufacture of panels.
Hi D,
We have not decided on the strategic alliances in Massachusetts as in most cases we will not be the installers in itself but share in the profits as the additional output of 28 percent for about 5 percent additional cost is good for a mutually beneficial alliance between established installer and ourselves.
In New York and New Jersey, we will likely be supplying equipment in most cases to the installers.
The manufacturing requirements are not extensive since most of the parts are off the shelf.
The website will be revised from time to time as updates are addressed.
Best Regards,
Jon Ricker
Sent from AOL Mobile Mail
-----Original Message-----
From: d xxxxxxxxxxxxxxxxxxx
To: jonricker < jonricker@aol.com>
Sent: Wed, Sep 3, 2014 07:07 AM
Subject: Question regarding manufacture of panels.
Hi Jon,
May I ask a couple of questions? Of course if you are unable to
disclose at this time I understand. Full disclosure, I am a shareholder
and frequent poster on the Investorshub board., MMMW page.
With your permission I wish to post any reply you may have to this email.
What part will the strategic allegiances you have secured with
existing solar power companies come into play with Mass Megawatts?
For example:
Will Mass Megawatts be manufacturing all their own equipment in
Worcester or surrounding area, solar panels, frames, etc?
What portion of the work will Mass Megawatts contract out to the
strategic alliances?
Also, will the entire website be revamped when the STS is shown in full,
or will the website remain as is with the STS added?
I am seeing entire neighborhoods go up in solar array panels, and
often see the Vivint or Solar City or Sungevity installation trucks
working in those same neighborhoods.
Will Mass Megwatts have similar vehicles or will the orders come in
via the website and then delivered by a previously chosen strategic
alliance?
Will there be a Facebook page for Mass Megawatts?
I realize you have been at this many, many years and it would appear your
hard work is about to come to fruition. Congratulations on your OTCQB
status and audited filings.
Sincerely,
Dxxxxxxx xxxxxxxxxx
I certainly like the New York and New Jersey part.
(Thank you for catching that Tim, in my mind the reply was implied to be shared but after you saw it differently I did verify with Jon. All set now.)
Anyone see this yet? http://www.wnd.com/2014/08/expert-imminent-isis-threat-to-u-s-power-grid/
WND EXCLUSIVE
EXPERT: 'IMMINENT' ISIS THREAT TO U.S. POWER GRID
'It could happen tomorrow. It could happen next week'
Published: 1 day ago
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ISIS terrorists pose an “imminent” threat to the U.S. electric grid with the capacity to coordinate a devastating assault on our nation’s infrastructure, warned a leading homeland security and terrorism expert in a radio interview Sunday.
Dr. Peter Pry, a former CIA officer, is executive director of the Task Force on National and Homeland Security and director of the U.S. Nuclear Strategy Forum, both congressional advisory boards. He also served on the Congressional EMP Commission, the Congressional Strategic Posture Commission, and the House Armed Services Committee.
“There is an imminent threat from ISIS to the national electric grid and not just to a single U.S. city,” said Pry.
Pry was speaking on “Aaron Klein Investigative Radio” on New York’s AM 970 The Answer.
Outlining the threat, Pry recalled a leaked U.S. Federal Energy Regulatory Commission report divulged this past March that coordinated terrorist attacks on just nine of the nation’s 55,000 electrical power substations could provoke coast-to-coast blackouts for up to 18 months.
Such an attack would mirror the devastating impact of an electromagnetic pulse (EMP) attack without the need for any nuclear device or delivery system.
The chances of a major electrical outage across America are now surging. Get your autographed copy of “A Nation Forsaken” which probes this crucial issue.
The congressional EMP Commission previously estimated that within 12 months of a nationwide blackout, upwards of 90 percent of the U.S. population could possibly die from disease, lack of food and resources and larger societal breakdown.
Speaking to Klein’s audience, Pry pointed specifically to the possibility of ISIS immediately hiring Mexican extremists such as the Knights Templar drug cartel, which last year successfully utilized guns and Molotov cocktails to attack numerous Mexican power stations, leaving 11 towns without electricity.
“Now those guys are just across our southern border,” stated Pry.
Pry continued: “That means that ISIS doesn’t have to actually come to the United States on those U.S. passports. You know, Obama is always talking about how he’s got a phone. Well, ISIS has got a telephone, too. All they’ve got to do is contact the Knights Templar, wire these guys $10 million, I mean they’ll do anything for money. And say, ‘Hey, go across that open U.S. border and take out the electric grid in Arizona, or New Mexico, or Minnesota or New York. Or the entire nation.’”
Pry surmised such an attack on the U.S. power grid “wouldn’t be difficult for them.”
“There are … open-source computer models where you can figure out which are those nine critical transformer substations where if attacked would take down the whole national power grid,” he said.
“So something like that could be arranged. It could happen tomorrow. It could happen next week.”
Dr. Peter Pry
Dr. Peter Pry
Pry pointed out ISIS allies in al-Qaida last June attacked power lines in Yemen that left the entire nation without power for a day.
He took issue with a statement last week from former deputy director of the CIA Mike Morell who said it would take ISIS two to three years to develop the capacity to carry out a 9/11-style attack.
Morell stated that “over the long term – two and a half, three years – we need to worry about a 9/11-style attack by ISIS.”
Countered Pry: “I don’t think that’s true at all. You know, because they can hire these criminal gangs that are south of our porous border. Or criminal gangs that are already present here.”
“We also have Muslim terror cells already in this country that would be willing to do anything for money and it’s very easy to attack the electrical grid,” he added.
Pry also warned of rogue nations such as Iran and North Korea passing ISIS a nuclear device and delivery system, such as a SCUD missile, to launch an actual EMP attack.
Read more at http://www.wnd.com/2014/08/expert-imminent-isis-threat-to-u-s-power-grid/#ZjscYz0ysjswrB5E.99
Being the financials were 'audited' for 2013/2014,
(Audit related fees 2014: $14,000 2013: $ 14,000 )
and in addition to the OCTQB certification cost (7,500),
I'd say we're on our way to entering the game. It may be that the
'strategic alliances' companies require these audits and QB cert.
Keeping close watch...
http://www.fool.com/investing/general/2014/08/31/corporate-america-is-betting-big-on-solar-energy.aspx
Corporate America Is Betting Big on Solar Energy
By Travis Hoium | More Articles
August 31, 2014 | Comments (0)
Many people may still question the future of solar energy in the United States, but there's little debate in corporate America over whether to go solar. What may surprise you is that the discussion has nothing to do with climate change.
Some of the largest and most influential companies in the country are spending billions of dollars to outfit their businesses with solar energy. And they're doing so in the name of increasing shareholder value.
An image of eBay's headquarters with a solar system built by SolarCity. Source: SolarCity.
Verizon takes the telecommunications industry solar
The latest company to make a big investment in solar is Verizon Communications (NYSE: VZ ) , which is installing 10.2 megawatts of solar power systems from SunPower (NASDAQ: SPWR ) at eight network facilities around the country. The investment will cost about $40 million and will nearly double the company's investment in solar energy.
When discussing the investment on Bloomberg TV, James Gowen, Verizon's chief sustainability officer, said "It's not just about going green. It's about driving shareholder value; it's about building redundancy." Today, solar energy created on-site is cheaper than buying energy from the grid, particularly when you include the tax benefits to companies such as Verizon.
Corporate America bets big on solar
Verizon is just the latest in a long line of corporations to go solar by building its own sun-powered energy systems. These include some major U.S. names.
Wal-Mart (NYSE: WMT ) has installed over 250 solar energy systems on store and distribution center rooftops, providing 15% to 30% of each location's energy needs. In all, the mega-retailer has built over 335 renewable energy projects around the globe. SolarCity (NASDAQ: SCTY ) is one of Wal-Mart's main suppliers of solar, with an agreement to build 60 rooftop systems in California alone.
Source: Wal-Mart.
Apple (NASDAQ: AAPL ) is another notable corporate solar and renewable energy supporter. The company has built three 20-megawatt solar systems at data centers around the country and has at least 40 MW more solar in the pipeline. The company also uses fuel cells that run on biogas and other renewable (or at least cleaner) forms of energy to power its business.
Costco had 47 MW of solar installed as of mid-2013, enough to make it the second-largest commercial installer at the time.
Commercial solar system on the roof of a Wal-Mart distribution center. Source: SolarCity.
These are big, profitable companies that wouldn't put solar on their rooftops or adjacent to data centers if it wasn't profitable. As Verizon's Gowen said, it's about adding shareholder value, and that means saving money.
The tip of the iceberg
If solar energy makes sense anywhere it's on the large rooftops of stores and distribution centers, which is where most of these companies are building the systems. The installations provide energy at the source of demand, and the large scale of the installation brings costs in far lower than a small residential rooftop system. That's why the economics are too good for corporate America to pass up.
Keep in mind that this trend is just beginning. The Center for Environmental Innovation in Roofing estimates there are 50 billion square feet of flat commercial rooftops in the U.S. If only 25% were suitable for solar, that's potential for 125 gigawatts of installations, or more than three times the amount of solar installed in the world in 2013.
To put it another way, 125 GW of solar is enough to power 20.5 million households in the U.S. Corporate America has already started to see the value in turning its rooftop space into power-generating assets, and I think this trend is only going to grow in the future.
The energy boom is happening all around you
You already know record oil and natural gas production is changing the lives of millions of Americans. But what you probably haven't heard is that the IRS is encouraging investors to support our growing energy renaissance, offering you a tax loophole to invest in some of America's greatest energy companies. Take advantage of this profitable opportunity by grabbing your brand-new special report, "The IRS Is Daring You to Make This Investment Now!," and you'll learn about the simple strategy to take advantage of a little-known IRS rule. Don't miss out on advice that could help you cut taxes for decades to come. Click here to learn more.
Travis Hoium manages an account that owns shares of Apple, SunPower, and Verizon Communications and is personally long shares of SunPower. The Motley Fool recommends Apple, Costco Wholesale, and SolarCity. The Motley Fool owns shares of Apple, Costco Wholesale, and SolarCity. Try any of our Foolish newsletter services free for 30 days. We Fools may not all hold the same opinions, but we all believe that considering a diverse range of insights makes us better investors. The Motley Fool has a disclosure policy.
http://www.otcmarkets.com/edgar/GetFilingPdf?FilingID=10150644
Is this 'FAQ' section new to the website? I don't recall these
q&a's prior:
http://www.massmegawatts.com/solar-power/
FAQ
Can an existing, stationary solar system be converted to a Mass Megawatts SPS?
Yes, this is possible, but needs to be determined on a case-by-case basis.
Are better backup systems available?
Yes. Mass Megawatts will explain the options.
How can I tell if the unit is performing adequately?
Meter is installed at the site to report results and output from system. Mass Megawatts will also continue to monitor performance at site.
Any potential for high-wind and/or snow accumulation damage?
The system is designed to handle wind speeds up to 120 mph, and snow will fall off panels due to angle of position and natural sun/thermal melting.
Any potential cosmetic issues with rust, etc.?
No rust will occur on the framework, and no painting is required.
Is there any noticeable noise generated?
No noticeable noise is generated due to the use of a passive, non-electrical, tracking technology.
Who’s responsible for making any needed repairs?
Mass Megawatts will perform any needed repairs over the first 10 years of service.
Is there any routine maintenance that I need to perform?
There is no annual, routine maintenance to perform. However, inverters have a typical life expectancy of 10 years, and the protective, solar wall may likely to be updated every 5 years. Mass Megawatts provides service for these updates.
Is there a performance guarantee?
Yes, Mass Megawatts provides a full, performance guarantee on the system for the first 10 years. If the system does produce the documented, expected results, Mass Megawatts will provide a credit to the customer to cover the discrepancy.
Does MMMW oversee the complete installation?
Yes, Mass Megawatts will handle the complete installation of each system, including meeting permitting requirements and handling interconnection with electric utility/grid.
My town provides a municipal electric service. Will they likely allow this type of system?
They may, but this needs to be determined on a case-by-case basis. Mass Megawatts will evaluate.
How can I tell if my property is a good fit for solar?
A Mass Megawatts representative will perform a site evaluation to determine site eligibility
Any zoning and/or permitting requirements to be aware of?
No expected zoning problems. Local permitting requirements must be met. Mass Megawatts will satisfy these requirements for the customer.
What type of purchase and financing options are available?
Several options are available, including outright purchases, lease programs, and power purchase agreements (PPA). Mass Megawatts will help the customer to determine the best option.
What type of warrantee’s come with the system?
The solar panels come with a 20 year warranty. The inverter comes with a 10 year warranty. Mass Megawatts also provides a full, performance guarantee on the SPS for the first 10 years.
What’s the life expectancy of an STS system?
The system has an expected useful life of 30 years.
How long does it take to install an STS system?
In most cases, a 6.25 kW system can be installed within a few business days.
What’s the expected ROR for the STS system?
In many locations, ROR can reach 40% with payback at 3.5 years.
What are the physical size/dimensions of a single, 6.25 kW, STS unit?
5 kW unit is approximately 50' (L) x 15' (W) x 15' (H).
How much energy is generated (or rated) for each solar unit?
The smallest unit is rated at 6.25 kW (Kilowatts), which would be appropriate for most residential and small business installations. However, Mass Megawatts can deliver almost unlimited capacity for larger installations.
Is the Mass Megawatts’ Solar Tracking System (STS) a complete solar power system or just a component to improve an existing system?
The SPS is a complete solar power system, including solar panels, inverter, and solar tracking framework, delivered by Mass Megawatts.
Bit of news: http://www.otcmarkets.com/stock/OTCM/news/OTC-Markets-Group-Welcomes-Mass-Megawatts-Wind-Power-to-OTCQB?id=86917&b=y
OTC Markets Group Welcomes Mass Megawatts Wind Power to OTCQB
Aug 29, 2014
OTC Disclosure & News Service
New York, NY -
OTC Markets Group Inc. (OTCQX: OTCM), operator of Open, Transparent and Connected financial marketplaces, today announced that Mass Megawatts Wind Power, Inc. (OTCQB: MMMW) is verified for trading on OTCQB®, the venture marketplace for entrepreneurial and development stage companies, as of August 29, 2014.
Mass Megawatts Wind Power is a leader in the development of a revolutionary wind power technology, bringing a product to the renewable energy marketplace capable of producing electricity at a cost 30% lower than other wind power equipment. Designed on a paradigm that “lower height, lower wind speeds and lower costs equal higher profits,” this technology puts MAT electricity generation on a competitive footing with fossil fuels, such as coal and natural gas.
U.S. investors can find current financial disclosure and Real-Time Level 2 quotes for the company on www.otcmarkets.com.
About OTC Markets Group Inc.
OTC Markets Group Inc. (OTCQX: OTCM) operates Open, Transparent and Connected financial marketplaces for 10,000 U.S. and global securities. Through our OTC Link® ATS, we directly link a diverse network of broker-dealers that provide liquidity and execution services for a wide spectrum of securities. We organize these securities into marketplaces to better inform investors of opportunities and risks – OTCQX®, The Best Marketplace; OTCQB®, The Venture Marketplace; and OTC Pink®, The Open Marketplace. Our data-driven platform enables investors to easily trade through the broker of their choice at the best possible price and empowers a broad range of companies to improve the quality and availability of information for their investors. To learn more about how we create better informed and more efficient financial marketplaces, visit www.otcmarkets.com.
OTC Link ATS is operated by OTC Link LLC, member FINRA/SIPC and SEC regulated ATS.
Subscribe to the OTC Markets RSS Feed
Media Contact:
Saskia Sidenfaden, OTC Markets Group Inc., +1 (212) 896-4428, saskia@otcmarkets.com
Copyright © 2014 OTC Markets. All Rights Reserved
From Stonewall:
Here's From Wikipedia: It's the OTCQB designation definition:
Effective May 1, 2014, OTCQB will be implementing a one penny ($0.01) bid price requirement which is "intended to remove companies that are most likely to be the subject of dilutive stock fraud schemes and promotions." Each company verify via an annual OTCQB Certification, signed by the company CEO or CFO, that their company information is current. This will include information about a company’s reporting status, company profile, information on management and boards, major shareholders, law firms, transfer agents, and IR / PR firms. Investor confidence improves when there is more information about a company’s ownership structure, professional advisors and service providers. This certification will be required for any security newly qualified to be publicly quoted by a broker-dealer under SEC Rule 15c2-11, or when an OTC Pink traded company becomes a current SEC reporting company, beginning May 1, 2014. For companies already traded on OTCQB, there will be an annual management certification requirement throughout 2014 and 2015 based on a company’s Fiscal Year End ("FYE"). The first set of certifications will be due by July 31, 2014 for companies that have a FYE of March 31, 2014. Also beginning May 1, 2014, International Reporting companies may upgrade from OTC Pink to OTCQB if they publish their 12g3-2(b) compliant disclosure on our website and verify their company profile. There will be an annual fee for the OTCQB marketplace of $10,000 per year and a one-time $2,500 application fee. These fees are discounted for current OTCQB companies that apply in 2014 to $7,500 per year for the first two years, and the application fee will be waived. Companies that are not currently OTCQB companies will be required to pay the standard annual fee and application fee.
Nice article Stonewall., entire neighborhoods are installing solar-panels. It's a virtual domino effect and no cost to start up for the consumer with those solar PPA's (power purchase arangement).
Motley Fool trade article shows the trend of solar., and it is just beginning:
http://www.fool.com/investing/general/2014/08/03/how-solar-energy-is-taking-over-the-us.aspx
Here is the list of pending solar array carve outs for Massachusetts as of August 8th:
https://www.google.com/url?sa=t&rct=j&q=&esrc=s&source=web&cd=2&cad=rja&uact=8&ved=0CCQQFjAB&url=http%3A%2F%2Fwww.mass.gov%2Feea%2Fdocs%2Fdoer%2Frps-aps%2Fsolar-carve-out-units.xlsx&ei=JzrzU4rcCcWYyASArYDAAw&usg=AFQjCNFBUtrvLcUEHFHWkb_4w9y801ZrCg
From the August 14 PR http://ih.advfn.com/p.php?pid=nmona&article=63255427
Starting at 6.25 kW rated units, the Mass Megawatts STS is appropriate for ground-level, residential and business sites, as well as, commercial, roof-top installations. Mass Megawatts coordinates all aspects of system delivery, including permitting, installation, and working to obtain any available tax incentives. They monitor the performance of each system, and provide a full, performance guarantee.
Mass Megawatts reports strong demand from both residential and business energy-consumers. To accelerate market penetration, the company plans to leverage recently developed, strategic-partnerships with established solar-power companies in the Northeastern United States.
With its patent pending, Solar Tracking System, only approximately 50 million shares issued and outstanding, and very little debt, Mass Megawatts believes it is well positioned to ramp-up production in the shorter term while expanding its infrastructure to support mass-production goals in the longer term.
Scrolling down the list of pending carve-outs., residential installations are in the hundreds. Question is who are the 'recently developed, strategic partnerships' with? Both commercial and residential... SolarCity, Vivint and Sungevity have many residential jobs.. First Wind has possibly two of the largest solar array fields for commercial use already established in two locations in Mass.. they are not public, but did try to go public in 2010..
Will be interesting to see who/how many are involved here.
Thank you Bulldozer., I appreciate the kind words. Sharing info is
very important. I am curious to know how many orders are anticipated by the end of the year., and who will be manufacturing the product.
One more article: (from November 2013)
(Not posting for any other reason than it gives more detail about the system and it's specs.)
Mass Megawatts Wind Power, Inc. (MMMW)
Penny Stocks Profile and SmallCapVoice reported earlier on Mass Megawatts Wind Power, Inc. (MMMW), and we are highlighting the Company today, here at the QualityStocks Daily Newsletter.
Based in Worcester, Massachusetts, Mass Megawatts Wind Power, Inc. is a leader in the development of a ground-breaking wind power technology. The Company is bringing a product to the renewable energy marketplace that they indicate can produce electricity at a cost 30 percent lower than other wind power equipment. Mass Megawatts holds exclusive patent rights to the Multi-Axis Turbo system (MAT) for 11 percent of the worldwide territory, and 50 percent territorial rights in the United States.
The MAT system is economically scalable to meet electric supply requirements from small users to large utilities. MAT units range between 50 feet to a maximum of 80 feet in overall height. The Company’s MAT technology is adaptable to high and lower wind resource areas. The MAT technology is the first wind power technology that enables purchasers to size their electric generation facility to fit their usage needs.
MAT units have very productive generation capabilities in areas with lower wind speeds, where 'tall tower' utility-scaled projects are not financially feasible or successful. The MAT units offer durability and low cost maintenance. Mass Megawatts’ equipment is rated to withstand winds of up to 120 mph. All mechanical and electrical components are close to ground level. Projected maintenance costs are 50 percent less than the wind power industry's average.
The Company announced, in August 2013, the development of a new solar tracking technology designed to increase solar energy production by 30 percent. The design of the patent pending, Mass Megawatts ‘Solar Tracking System’ (STS) is to automatically adjust the position of solar panels to receive an optimal level of direct sunlight throughout the day. The Mass Megawatts STS utilizes a low-cost structure that adds stability to the overall system while improving energy production levels.
In mid-October, Mass Megawatts Wind Power announced the start of electrical production from their first new solar tracking system. The Company will be comparing the new unit’s power output with the electricity generated from a stationary system of similar size over the next month. The expectation is that this particular design of the patent pending, Mass Megawatts ‘Solar Tracking System’ (STS) will increase solar energy production by 22 percent to 28 percent for less than 7 percent additional cost than a standard stationary configuration.
Last week, the Company announced that their first, no-money-down, power purchase agreement (PPA) sale is projected to begin construction soon in central Massachusetts. With this PPA, Mass Megawatts will deliver their STS with no upfront, out-of-pocket costs incurred by the small business customer. Installation is planned to start this month.
Mass Megawatts Wind Power, Inc. (MMMW), closed at $0.0366, down 2.66%, on 48,599 volume with 8 trades. The average volume for the last 60 days is 210,875 and the stock's 52-week low/high is $0.011/$0.21.
From a 2002 interview with WPI: Worcester Polytechnic Institute
http://www.wpiventureforum.org/Images/CMS/VentureForum/jan2002.pdf
Case Presenter
Mass Megawatts, Inc.
Jonathan C. Ricker, president and founder
11 Maple Avenue
Shrewsbury, MA 01545
508-751-5432 phone
508-842-1802 fax
508-942-3531 cell
www.massmegawatts.com
As the global community searches for viable alternatives to fossil fuel energy, one source remains virtually overlooked –the wind. Jonathan C. Ricker is tapping into that under-utilized resource. President and founder of Mass Megawatts, Inc., Ricker has been
researching wind power generators for the last ten years. His version of a wind-powered electric generator, known as a Multi-Axis Turbosystem or M.A.T., is a 24-foot tall, 24-foot wide and 24-foot long steel structure that begins generating electricity with a wind speed of 14 mph. Since wind speeds average just over 15 mph, the design is profitable, according to Ricker. Recently, Mass Megawatts built one of its high-tech windmills atop Dresser Hill in Charlton. This prototype is capable of generating
two kilowatts of energy, which services only a portion of a single-family home. In the next five years, Ricker hopes to manufacture thousands of M.A.T.s for worldwide distribution. Each structure would produce one million kilowatt hours of energy annually, enough to supply power to approximately 150 homes.
The low cost factor of the generator makes it even more appealing.
Ricker estimates that each unit could generate electricity for less than three cents per kilowatt, significantly lower than traditional sources, depending on the average wind speed. Companies that receive tax credits and use the new wind-powered generators would realize even greater savings. Ricker graduated from Bentley College with a bachelor’s degree in business and accounting. Before turning to renewable energy sources,
Ricker had attended many inventors' conferences and had built
an anti-collision device for automobiles. Following Ricker’s presentation, a panel of experts will offer comments and constructive feedback. Alan Glou of Glou International Inc.,
an executive recruiting firm, brings his expertise
in the issues of executive search and management consulting
issues to the panel. Two other as-yet unnamed business experts will join Glouin providing Ricker with helpful suggestions in
his search for venture capital funding. VF
(In this interview from 2002, it states he was hoping to manufacture thousands of MATS in the next 5 years., business and economics what they are, as well as improvements since this article, in addition to the recent articles/pr's stating he is ready to go to production this quarter could indicate the time is near for his business plan to unfold, it seems he has stuck with this project for over 15 years.)
In this more recent PR from August 14th it appears the improvment is from 2kw to 6.25 kw rated units.. http://www.accesswire.com/viewarticle.aspx?id=419104
it states the STS is making 6.25kw , or am I interpreting this statement incorrectly?
The patent pending, Mass Megawatts 'Solar-Power Tracking System' (STS) is a complete solar-power system designed to automatically adjust the position of its solar panels throughout the day to receive an optimal level of direct sunlight. Unlike other solar tracking technologies, the Mass Megawatts STS utilizes a low-cost structure that adds stability to the overall system while improving energy production levels 25% or more.
Starting at 6.25 kW rated units, the Mass Megawatts STS is appropriate for ground-level, residential and business sites, as well as, commercial, roof-top installations. Mass Megawatts coordinates all aspects of system delivery, including permitting, installation, and working to obtain any available tax incentives. They monitor the performance of each system, and provide a full, performance guarantee.
Mass Megawatts reports strong demand from both residential and business energy-consumers. To accelerate market penetration, the company plans to leverage recently developed, strategic-partnerships with established solar-power companies in the Northeastern United States.
With its patent pending, Solar Tracking System, only approximately 50 million shares issued and outstanding, and very little debt, Mass Megawatts believes it is well positioned to ramp-up production in the shorter term while expanding its infrastructure to support mass-production goals in the longer term
and this from the 10/25/2013 PR:
http://www.accesswire.com/408958/Mass-Megawatts-Anticipates-the--Start-of-Construction-on-First-No-Money-Down-Power-Purchase-Agreement-for-Low-Cost-Solar-Tracking-System-in-November
With a PPA, Mass Megawatts would own the STS at the customer’s home or business location. The company would install and maintain it, at no cost to the customer. The customer would only pay for the electricity that’s actually generated by the system, at a rate that’s below their current electricity rate. In this manner, customers encounter no up-front costs to acquire an STS, while realizing immediate savings from the clean, solar power generated by the STS. In many cases, customers that enter into a PPA with Mass Megawatts can expect to see their electricity costs reduced by over 20%.
Power Purchase Agreement details:
http://www.accesswire.com/408958/Mass-Megawatts-Anticipates-the--Start-of-Construction-on-First-No-Money-Down-Power-Purchase-Agreement-for-Low-Cost-Solar-Tracking-System-in-November
The patent pending, Mass Megawatts 'Solar-Power Tracking System' (STS) is a complete solar-power system designed to automatically adjust the position of its solar panels throughout the day to receive an optimal level of direct sunlight. Unlike other solar tracking technologies, the Mass Megawatts STS utilizes a low-cost structure that adds stability to the overall system while improving energy production levels between 22 to 28 percent..
With a PPA, Mass Megawatts would own the STS at the customer’s home or business location. The company would install and maintain it, at no cost to the customer. The customer would only pay for the electricity that’s actually generated by the system, at a rate that’s below their current electricity rate. In this manner, customers encounter no up-front costs to acquire an STS, while realizing immediate savings from the clean, solar power generated by the STS. In many cases, customers that enter into a PPA with Mass Megawatts can expect to see their electricity costs reduced by over 20%.
Other, modified PPA plans can also be arranged to allow the customer to provide an initial, up-front payment, which would secure a lower rate on the electricity they receive in the future. With energy costs projected to increase, the savings and investment return for a customer will continue to grow throughout the expected lifetime of the unit (30+ years). Customers also have the option to purchase the STS outright after a specified number of years. In addition, other purchasing options are available, including lease programs and direct purchases.
The alternative energy sector is moving forward., I can remember a few years ago these PPA's were not even an option. Very lucrative now in the northeast states.
The patent: http://patft.uspto.gov/netacgi/nph-Parser?Sect1=PTO2&Sect2=HITOFF&p=1&u=%2Fnetahtml%2FPTO%2Fsearch-bool.html&r=1&f=G&l=50&co1=AND&d=PTXT&s1=%22Multi-Axis+turbo+system%22&OS=
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United States Patent 8,408,867
Ricker April 2, 2013
Multi directional augmenter and diffuser
Abstract
This invention relates to an augmenter system for the increase of power generation primarily used for utilizing wind energy. The augmenter system includes an augmenter having a plurality of walls, such as flexible walls, connected to each other with supporting horizontal elongated members. The augmenter is used in conjunction with a blade system and an air flow regulation or furling system to achieve optimal power output. The augmenter includes a relatively lightweight, low cost flexible wall structure to enhance an air flow into impact impellers associated with the blade system. In one arrangement, the blade system defines a swept area with a height to diameter ratio of greater than four. In one arrangement, the blade system defines a swept area with a height to diameter ratio of greater than ten.
Inventors: Ricker; Jonathan C. (Shrewsbury, MA)
Applicant:
Name City State Country Type
Ricker; Jonathan C.
Shrewsbury
MA
US
Family ID: 45995851
Appl. No.: 13/294,522
Filed: November 11, 2011
Prior Publication Data
Document Identifier Publication Date
US 20120104759 A1 May 3, 2012
Related U.S. Patent Documents
Application Number Filing Date Patent Number Issue Date
12319484 Jan 8, 2009
PCT/US2010/038947 Jun 17, 2010
61010691 Jan 10, 2008
61269043 Jun 20, 2009
61273740 Aug 8, 2009
61284515 Dec 21, 2009
61336206 Jan 19, 2010
61342658 Apr 15, 2010
61572693 Jul 20, 2011
61574143 Jul 28, 2011
61574225 Jul 28, 2011
Current U.S. Class: 415/119 ; 290/44; 290/55; 415/151
Current CPC Class: F03D 3/02 (20130101); F03D 3/04 (20130101); F05B 2240/133 (20130101); F05B 2240/40 (20130101); F05B 2280/6001 (20130101); F05C 2253/02 (20130101); Y02E 10/74 (20130101)
Current International Class: H02P 9/04 (20060101)
Field of Search: ;415/119,151,183 ;290/44,55
References Cited [Referenced By]
U.S. Patent Documents
4021135 May 1977 Pedersen et al.
4285481 August 1981 Biscomb
4406584 September 1983 Stepp
4616973 October 1986 Souchik, Jr.
4695736 September 1987 Doman et al.
7256512 August 2007 Marquiss
2010/0236716 September 2010 Hisha et al.
2012/0014794 January 2012 Bailey
Primary Examiner: Paumen; Gary F.
Attorney, Agent or Firm: Dingman; Brian M.
Parent Case Text
CROSS REFERENCE TO RELATED APPLICATION
This application is a continuation-in-part of U.S. patent application Ser. No. 12/319,484 filed on Jan. 8, 2009 which is based upon and claims the benefit of U.S. Provisional Application No. 61/010,691, filed on Jan. 10, 2008, the entire contents of which are incorporated by reference herein. This application is also a continuation-in-part of International Application No. PCT/US2010/038947, filed on Jun. 17, 2010, which is based upon and claims benefit to U.S. Provisional Application No. 61/269,043, filed on Jun. 20, 2009, U.S. Provisional Application No. 61/273,740, filed Aug. 8, 2009, U.S. Provisional Application No. 61/284,515, filed on Dec. 21, 2009, U.S. Provisional Application No. 61/336,206, filed on Jan. 19, 2010, and U.S. Provisional Application No. 61/342,658, filed on Apr. 15, 2010, the entire contents of which are incorporated by reference herein. This application also claims the benefit of U.S. Provisional Application No. 61/572,693, filed on Jul. 20, 2011, U.S. Provisional Application No. 61/574,143, filed on Jul. 28, 2011, and U.S. Provisional Application No. 61/574,225, filed on Jul. 28, 2011, the entire contents of which are incorporated by reference herein.
Claims
What is claimed is:
1. An augmenter system, comprising: at least one augmenter element having a frame and a set of walls carried by the frame, the set of walls defining a taper from a wind inlet portion to a wind outlet portion of the at least one augmenter element; and a blade system disposed in proximity to the wind outlet portion of the at least one augmenter element, the blade system having a frame, at least one blade shaft rotatably coupled to the frame, and set of blades coupled to the at least one blade shaft and adapted to be rotated by the wind, the at least one blade shaft being coupled to a generator by an output shaft.
2. The augmenter system of claim 1 wherein the at least one augmenter element comprises a first augmenter element and a second augmenter element, the first augmenter element defining a first wind path relative to an active area of the blade system and the second augmenter element defining a second wind path relative to the active area of the blade system, the first wind path opposing the second wind path.
3. The augmenter system of claim 1, wherein the set of walls comprises a set of top panel lift systems disposed between side walls defined by the frame and hingedly coupled to the frame, each top panel lift system being configured to rotate relative to the frame about the hinged coupling and lift above a subsequently disposed top panel lift system to vent wind to outside of the augmenter.
4. The augmenter system of claim 3, wherein the top panel lift system comprises a first top panel lift system, the first top panel lift system having a first set of panel components, the first set of panel components defining a taper from a wind inlet of the first top panel lift system toward a blade area of the augmenter system.
5. The augmenter system of claim 4, wherein each panel of the first set of panel components is disposed in a substantially coplanar manner such that the first set of panel components defines a slope angle relative to the ground and extending from the blade area toward the wind inlet area.
6. The augmenter system of claim 4, wherein the top panel lift system further comprises a second top panel lift system, the second top panel lift system disposed adjacent to the first top panel lift system and the second top panel lift system having a second set of panel components, the second set of panel components defining a taper from a wind outlet of the second top panel lift system toward the blade area of the augmenter system.
7. The augmenter system of claim 6, wherein each panel of the second set of panel components is disposed in a substantially coplanar manner such that the second set of panel components defines a slope angle relative to the ground and extending from the blade area toward the wind outlet area.
8. The augmenter system of claim 1 wherein the set of walls comprises: a first set of side wall dump panels hingedly coupled to a first side wall defined by the frame; and a second set of side wall dump panels hingedly coupled to a second side wall defined by the frame, the first set of side wall dump panels opposing the second set of side wall dump panels, the first set of side wall dump panels and the second set of side wall dump panels being configured to rotate relative to the frame about the corresponding hinged coupling to vent wind to outside of the augmenter.
9. The augmenter system of claim 1, further comprising a furling system having: a frame disposed in proximity to the blade system; a furling door carried by the frame; and a furling motor operatively coupled to the furling door, the furling motor configured to position the furling door between a first position and a second position, the first position exposing the blade system to the wind and the second position blocking the blade system from the wind.
10. The augmenter system of claim 9, wherein the furling system comprises a controller disposed in electrical communication with the furling motor, the controller configured to: detect a power output rating associated with a power generating unit; when the power output rating has a first value above a rated power output of the power generating unit, transmitting a signal to the furling motor to lower the furling door relative to the blade system to block the blade system from the wind; and when the power output rating has a second value below a rated power output of the power generating unit, transmitting a signal to the furling motor to raise the furling door relative to the blade system to expose the blade system to the wind.
11. The augmenter system of claim 1, wherein the at least one blade shaft rotatably coupled to the frame and the set of blades coupled to the at least one blade shaft are disposed vertically relative to the frame.
12. The augmenter system of claim 1, wherein the at least one blade shaft rotatably coupled to the frame and the set of blades coupled to the at least one blade shaft are disposed horizontally relative to the frame.
13. The augmenter system of claim 1, wherein the set of walls is formed from a shrink wrap material disposed on a wall frame.
14. The augmenter system of claim 1, wherein the set of walls is formed from an inflatable structure.
15. The augmenter system of claim 1, further comprising a wind straightener disposed in proximity to the at least one augmenter element.
16. The augmenter system of claim 1, wherein the at least one augmenter element comprises a set of panels having a first panel and a second panel hingedly coupled to the augmenter element and configured to move between a closed position and an open position in response to wind flowing into the augmenter element.
17. The augmenter system of claim 1, wherein the set of walls are flexible.
18. An augmenter system, comprising: a wall to capture, and funnel, wind into a wind power plant; the wall comprising a shrink wrap panel system with side wall dump panels and top panel lift systems configured to minimize structural stress, the side wall dump panels and top panel lift systems configured to move between a first position and a second position when a pressure exist between an inside and outside of the augmenter; the top panel lift system comprising a bracket that allows the suspension cable to lift above the next panel to vent wind to an outside of the augmenter; the wind power plant comprising: a frame structure supported on the ground and comprising a plurality of vertical elongated structural members connected by a plurality of horizontal elongated structural members, the tower structure forming a box-like structure with at least two active sides, and a plurality of vertical shafts located coextensively with the active sides of the frame structure, each shaft carrying a plurality of blades adapted to be rotated by the wind, each shaft is supported by a plurality of the horizontal structural members coupled to the shaft at spaced locations along the shaft, with one support location proximate the top of each shaft, one support location proximate the bottom of each shaft, and at least one support location intermediate the top and bottom support locations; at least one electric generator; and an output shaft configured to connect each shaft to the at least one generator, to generate electricity from the wind energy.
19. The augmenter system of claim 18, further comprising a shaft bearing and a vibration absorbing component disposed between the shaft bearing and the horizontal structural member at each support location, to decrease transmission of vibration between the shafts and the frame structure.
Description
FIELD
Embodiments of the invention relates to an adjustable or flexible augmenter configured to utilize wind energy for the generation of power.
BACKGROUND
Embodiments of the invention relate generally to the field of wind energy, and more particularly to the use of augmenters to enhance air velocity into the blade or impact impeller area and augmenter with walls, such as flexible walls.
With considerable attention toward renewable energy, the efficient use of wind power and the capturing of increased energy from the winds has received much consideration. One attempt to harness increased wind energy power is disclosed in U.S. Pat. No. 4,070,131 wherein ambient wind is admitted into a vertical structure producing a vortex flow and corresponding low pressure area for enhancing air flow across a wind turbine.
U.S. Pat. No. 4,031,405 discloses a horizontal turbine with a wind enhancement structure which adjusts to the direction of wind for optimizing the wind velocity.
Other methods have been proposed for directing the wind and increasing its effects against a turbine blade or impact impeller.
Wind turbines utilize a rotor for converting the energy of the air stream into rotary mechanical power as a power conversion device from the wind. Wind machines can take advantage of a free and inexhaustible power source of mechanical power for various purposes including driving an electrical generator. In generating large amounts of power, conventional turbines had large rotors in order to generate a sufficient amount of energy in order to make it worthwhile for having a generator in order to produce electricity. Unfortunately, the large rotors are expensive because the stress on the rotors increases dramatically as the diameter increases. Conventional turbines had to increase the diameter of the blades in order to capture more energy generated by the moving air impacting the blades. This increase in the diameter of blades for producing substantial power can increase the cost of other items in the turbine other than the blades. Large blades which have not been properly produced can create structural stress and fatigue problems for the gearbox, tower, and the system that turns the generator toward the optimal wind direction.
In the past, wind turbines were supported by a single tower and guy wires in many cases leading to many vibration and frequency related problems. The blades of vertical axis turbines were large and could be limited in the design and the materials used. For example aluminum extrusion and fiberglass pultrusion were used in the two most serious commercial applications of vertical axis turbines. Due to the large size of the fiberglass blades, the strength was limited in order to bend the blade at the place of installation. The aluminum blades could not form a true troposkein shape. The blades had to be made of significant length and the available extrusion equipment is not available. The patents of both serious commercial prior applications of vertical axis technology are described in "Vertical Axis Wind Turbine" U.S. Pat. No. 4,449,053 and "Vertical Axis Wind Turbine with Pultruded Blades" in U.S. Pat. No. 5,499,904. However, the fatigue factor in blades using those materials suffered from structural stress caused by cyclical loads on vertical blades. The lift forces push the blades back and forth as they rotate. The more popular horizontal wind turbines are not subject to this cyclical stress occurring many thousand of times per day. The construction and installation was complex and costly.
The vertical blades in prior technology could not place the rotor high enough above the ground in order to a turbulence leading to long term structural problems.
In other prior technology, the swept area of the turbine had an aspect ratio of less than four due to construction limitations. The aspect ratio, the swept area height to diameter, is preferred to be high for better efficiency. This occurs when a tall and thin rotor maintains a large swept area and a high RPM. As a result, the moment of inertia is reduced and less energy is spent on its own motion.
In prior blade technology, two or more blades per shaft section, were used in order to achieve proper blade balance. The designing of one blade per shaft section was expensive and had imbalance problem in past turbines there were numerous attempts toward developing a horizontal one bladed turbine.
SUMMARY
One object of embodiments of the invention is to create an augmenter system to capture, and funnel, the wind into its Multi-Axis Turbo system (MAT) units to dramatically increase the power output without a proportional increase in structural size and cost.
Another object of embodiments of the invention is the use of less material and the ability to use less costly material which would help bring the kilowatt/hour cost down significantly.
Another object of embodiments of this invention is the use of an augmenter system with integral dump panels and top panel lift systems to minimize damage during wind gusts.
A further object of embodiments of this invention is the use of side wall dump panels and top panel lift systems to minimize the pressure spikes in the augmenter during extreme wind events. These side dump panels will swing open when sufficient pressure differences exist between the inside and outside of the augmenter. The top panel lift system provides a hinge that allows the suspension cable to lift above the next panel to vent air velocity to the outside of the augmenter.
The side dump panels and top panel lift system allow the system to be built with lighter components, reducing the cost of the augmenter system. The panels and lift system also reduce the potential damage to the panels, suspension cables, and poles during extreme wind events, decreasing maintenance costs during the life time of the MAT wind power plant and augmenter system.
Every site has extreme wind events during some point of the annual weather cycle. These wind events provide an opportunity for the MAT wind power plant design to produce the maximum amount of power that the traditional, horizontal axis generators cannot harness, including damage to traditional augmenter systems.
A further object of embodiments of the invention is to provide more durable blades by resolving structural stress problems in wind turbines with large blades.
Another object of embodiments of the invention is to reduce manufacturing cost by using more but smaller components instead of larger and fewer components.
A further object of embodiments of the invention is to provide longer life for the bearing by reducing structural and mechanical stress.
Yet another object of embodiments of the invention is to provide a more efficient turbine with reductions in the moment of inertia and easier self starting capability.
Still yet another object of embodiments of the invention is to provide a more durable blade design by overcoming imbalance problem of larger blades.
Another object of embodiments of the invention is to allow stiffer and more rigid blades by making them smaller.
A further object of embodiments of the invention is to provide an easier construction method. Yet another object of embodiments of the invention is to allow for construction with standard parts which do not need to be custom made with the exception of the mass produced blades. The augmenter parts and the preferred embodiment of wind power plant can be supplied by several suppliers to avoid supplier backlog problems.
Still yet another object of embodiments of the invention is to enhance structural support with an augmenter. Another object of the invention is to provide weather protection and additional structural support with its roof.
Other objects and advantages of the present embodiments of the invention will become apparent from the following descriptions, taken in connection with the accompanying drawings, wherein, by way of illustration and example, an embodiment of the present invention is disclosed.
Embodiments of the invention provides an augmenter system to capture, and funnel, the wind into wind power plants to dramatically increase the power output without a proportional increase in structural size and cost. This is a major development bringing the kilowatt/hour cost down significantly.
In one arrangement, the augmenter system is configured as a canvas panel system with integral dump panels and top panel lift systems to minimize damage during wind gusts. Further, the invention has developed side wall dump panels and top panel lift systems to minimize the pressure spikes in the augmenter during extreme wind events. These side dump panels will swing open when sufficient pressure differences exist between the inside and outside of the augmenter. The top panel lift system provides a bracket that allows the suspension cable to lift above the next panel to vent air velocity to the outside of the augmenter.
The side dump panels and top panel lift system allow the system to be built with lighter components, reducing the cost of the augmenter system. The panels and lift system also reduce the potential damage to the canvas panels, suspension cables, and poles during extreme wind events, decreasing maintenance costs during the life time of the wind power plant and augmenter system.
Every site has extreme wind events during some point of the annual weather cycle. These wind events provide an opportunity for the wind power plant design to produce the maximum amount of power that the traditional, horizontal axis generators cannot harness, including damage to traditional augmenter systems.
One arrangement of the augmenter system provides a wind power producing means comprising an external upper covering or roof, a tower structure comprising a plurality of vertical elongated members connected to each other with supporting horizontal elongated members like a large lattice tower section, and a plurality of smaller blades. The blades are connected to a shaft or any other rotation means which is connected to a tower structure with a plurality of shafts. The blades or any form of impact impellers are connected to the shaft or any rotation means creating an aspect ratio or a swept area with a height to diameter ratio of greater than four. Each shaft is connected to a generator near the ground. The structure support for the blades or impact impellers and shafts or rotation means are not individually supported in itself. The frame or tower structure supports the shafts collectively. Embodiments of the invention include a vibration absorber or bushiness between the bearings or moving parts and the support structure. The plurality of small blades with a simple design of no twist and taper are connected a plurality of generators with each generator connected to each shaft or rotation means of the invention's plurality of shafts or rotation means. A single blade or impact impeller at each section of the rotation means could be placed at different positions or angles along the axis for reducing torque ripple.
An advantage of embodiments of the invention is to reduce the cost of producing the turbine systems by allowing cheaper material. The shape preferably of an airfoil can be added to the structure in order to increase the air velocity approaching the turbine which would result in greater power output. A roof can be configured from any cost effective material, including relatively inexpensive plastic, placed above the wind turbine structure including any wind power system. The roof on this four legged tower structure could be curved into a shape which would increase the air velocity approaching a wind turbine unit. Less vibrations and better protection would allow the use of relatively less expensive material in the wind system. We can use cheap wooden and less treated elongated structures which is also easier to construct. We would also have the ability to use cheaper materials for other parts like the turbines and bearings as examples. Another advantage of the roof is to prevent excess wear and tear from the rain and snow from falling onto the turbine system and causing rapid deterioration including warping and rotting.
BRIEF DESCRIPTION OF THE DRAWINGS
The foregoing and other objects, features and advantages will be apparent from the following description of particular embodiments of the invention, as illustrated in the accompanying drawings in which like reference characters refer to the same parts throughout the different views. The drawings are not necessarily to scale, emphasis instead being placed upon illustrating the principles of various embodiments of the invention.
FIG. 1 illustrates a top view of an augmenter system.
FIG. 2 illustrates a side view of dump panels of the augmenter system of FIG. 1.
FIG. 3 illustrates a top view of a set of top lift panel systems of the augmenter system of FIG. 1.
FIG. 4 illustrates a front view of a blade area of the augmenter system of FIG. 1.
FIG. 5 illustrates a front view of a furling system of the augmenter system of FIG. 1.
FIG. 6A illustrates a base portion of a wind blocking device of the augmenter system of FIG. 1.
FIG. 6B illustrates a furling panel section of the wind blocking device of FIG. 6A.
FIG. 6C illustrates an upper frame portion of the wind blocking device of FIG. 6A.
FIG. 7 is a side view of the augmenter system of FIG. 1.
FIG. 8 illustrates a composite bamboo structure utilized as part of a frame of the augmented system, according to one arrangement.
FIG. 9 illustrates an inlet side view of an arrangement of an augmenter element, according to one arrangement.
FIG. 10 illustrates the inlet side view of the augmenter element of FIG. 10.
FIG. 11 illustrates a gearbox and gearshift mechanism, according to one embodiment.
FIG. 12 illustrates an air straightener of the augmenter system of FIG. 1, according to one arrangement.
DETAILED DESCRIPTION
An augmenter system is configured to funnel airflow, such as wind, into a wind power plant to increase the power output produced by the power plant without a proportional increase in structural size and cost of the augmenter system, thereby reducing the overall kilowatt/hour cost.
FIGS. 1 and 7 illustrate an augmenter system 10 having first and second augmenter elements 15, 16. Each of the augmenter elements 15, 16 includes a frame 11 which carries a set of walls, such as top panel lift systems 5-1, 5-2, 5-N, collectively top panel lift systems 5, and side dump panels 4 and which is secured to the ground G. While the frame can be secured to ground G in a variety of ways, in one arrangement, the frame is secured using vibration absorbing foot elements 150.
The augmenter system 10 also includes a blade system 12 disposed in a blade area 2. Each of the augmenter elements 15, 16, defines a wind path that is configured to direct wind toward the blade system 12, depending upon the direction of the wind flow relative to the augmenter system 10. For example, as shown in FIG. 1, wind flows along direction 60 moves from an inlet area 1 of the augmenter system 10 (e.g., an inlet area of the second augmenter element 16), through the blade area 2, and eventually to an opposing inlet area 1' of the augmenter system 10 (e.g., an inlet area 1' of the first augmenter element 15). The low velocity created near outlet 3 allows for the acceleration of airflow through blade area 2. The wind can flow between the areas perpendicular to the wind inlet area 1 and the outlet area 3 of the second augmenter element 16, the blade area 2, and the wind inlet area 1' and the wind outlet area 3' of the first augmenter element 15. It should be noted that the augmenter system 10 can also capture wind flowing substantially from a direction opposing direction 60 (i.e. from an inlet area 1' of the first augmenter element 15 to the outlet area 3' of the first augmenter element 3', through the blade area 2, and to the opposing outlet area 3 and inlet area 1 of the second augmenter element 16.
In one arrangement, each top panel lift system 5 and each integral side dump panel 4 are configured to minimize damage during wind gusts and to minimize the pressure spikes in the augmenter during extreme wind events. For example, with reference to FIG. 2, each of the side dump panels 4 is secured to the frame 11 with a corresponding hinge 17. During operation, when a sufficient pressure differences exist between the inside and outside of the augmenter system 10, one or more of the side dump panels 4 can pivot on its corresponding hinge 17 to swing away from the frame 11 (i.e., along a direction from out of the page) to vent the wind away from the blade area 2. Additionally, in FIG. 3, each top panel lift system 5 includes a set of top panel lift system sections 6 where each section 6 includes a hinge 19 coupled to the frame 11. During operation as relatively high velocity air flows through the augmenter system 12, the hinge 19 allows a leading frame edge 7, such as a suspension cable 7, to lift above the next panel section 6 to vent air to the outside of the augmenter system 10 to reduce the air velocity.
In one arrangement, the walls of the augmenter elements 15, 16, such as the top panel lift systems 5 and side dump panels 4, are manufactured from flexible, lightweight, and durable material to reduce the cost of the augmenter system 10. The flexible, lightweight, and durable material also reduces the potential damage to the top panel lift systems 5, the side dump panels 4, leading frame edges 77, and frame 11 during extreme wind events and decreases maintenance costs during the life time of the MAT wind power plant and augmenter system 10. For example, in one arrangement the walls of the augmenter elements 15, 16, such as the top panel lift systems 5 and side dump panels 4 are formed as canvas panels from a canvas material. The walls of the augmenter elements 15, 16, such as the top panel lift systems 5 and side dump panels 4 can also be manufactured from a shrink wrap material, from injection molded plastic or injection molded foam from an inflatable structure, or from a sheet metal skin.
With reference to FIG. 3, in the case where the top panel lift systems 5 are manufactured from a shrink wrap material, such as a polymer or plastic material, a manufacturer wraps one or more layers of a shrink wrap material 42, such as a shrink wrap film, to a top panel lift system frame 40 associated with each of the top panel lift system sections 6. The manufacturer applies heat to the shrink wrap material 42 to cause the material to shrink about the frame 40. With reference to FIG. 2, in the case where the side dump panels 4 are manufactured from a shrink wrap material, a manufacturer wraps one or more layers of a shrink wrap material 50 about a side dump panel frame 52. The manufacturer applies heat to the shrink wrap material 50 to cause the material to shrink about the frame 52.
Following the heating process, the shrink wrap material shrinks in size and becomes tight relative to the associated frame 40, 52. Accordingly, the relatively low cost shrink wrap material provides the top panel lift systems 5 and side dump panels 4 with a relatively firm and strong structure that minimizes an accelerated structural stress wear and tear on the panels 4, 5 particularly compared to conventional non-tightened materials when exposed to a relatively high wind area. While other low cost materials, such as canvas, can avoid excessive wear and tear if properly tightened, such tightening can be costly.
In one arrangement, the frame 11 can also be formed from a lightweight durable material. For example, the frame can be formed from a steel material or from a bamboo material. In the case where the frame 11 is formed from a bamboo material, in order to minimize weakness found in the joints of individual bamboo rods, each frame element is formed from a set of three or more bamboo rods 22, 24, 26, as illustrated in FIG. 8. The rods 22, 24, 26 are arranged such that their respective bamboo joints are supported by a continuous (i.e., non-jointed) portion of the adjacent bamboo rod. The rods 22, 24, 26 are then laminated together and secured using securing portions 28, such as ratchet straps.
In FIG. 4, a front view or active area of the blade system 12 is shown. The blade system 12 includes a plurality of impeller assemblies 29 carried by a frame 14. Each impeller assembly 29 includes one or more blades or impact impellers 8 disposed on a corresponding vertically arranged shaft 9 or connector. The shaft 9 is disposed in rotational communication with an output shaft 13 which, in turn, is coupled to a generator (not shown).
A bearing and bushing 102 is located at each intersection of shaft 9 and where it is supported by each of the cross (horizontal) structural members such as member 104. For example, bearing and bushing 102 is located between blades 8-1 and 8-2 where blade shaft 9 is coupled to horizontal member 104. This construction supports shaft 9 at a plurality of locations along its length (including between the turbines), thus leading to less vibration and wear of the shaft 9 and better coupling into and less wear of generator.
In one arrangement, each of the blades 8 is manufactured from a relatively lightweight material to reduce the moment of inertia of the blades 8.
The frame 14 includes side walls 21, as indicated in FIG. 7 to concentrate wind received from the first and second augmenters 15, 16 toward the impeller assemblies 29. The frame 14 can be manufactured from a variety of lightweight and structurally strong materials, such as steel or bamboo. The frame 14 can further include a roof member to covering the frame and to protect the shafts 9 and blades 8 from the elements.
During operation and in one arrangement, as wind flows through the wind inlet area 1 and the wind outlet area 3 of the second augmenter 16, through the blade system 12, and through the wind outlet area 3' and the wind inlet area 1' of the first augmenter 15, the wind rotates the impact impellers 8 about a longitudinal axis 31, thereby causing the corresponding shafts 9 to rotate about the axis 31. Rotational energy generated by the shafts 9 is transferred to, and causes rotation of, the output shaft 13. Rotation of the output shaft 13 relative to the generator causes the generator to produce electricity.
Every site has extreme wind events during some point of the annual weather cycle. These wind events provide an opportunity for the MAT wind power plant augmenter system 10 to produce the maximum amount of power that the traditional, horizontal axis generators cannot harness, including damage to traditional augmenter systems.
In certain cases, excessive wind velocity can damage the augmenter system 10. To minimize damage, in one arrangement, the augmenter system 10 includes a furling system 20, as illustrated in FIGS. 5 and 6. For example, the furling system 20 is disposed in proximity to the blade system 12 along the wind flow path between the wind inlet area 1 and the wind outlet area 3. The furling system 20 is operable to block the wind relative to the blade system 12 in order to prevent excessive and damaging output by the blade system 12 or generator. The furling system 20 is thus useful to act essentially as a speed limiter or governor for the blades 8 to prevent them from spinning the generator 100 too fast. An example of a furling system is explained in more detail below
In one arrangement, referring to FIGS. 5, 6A, 6B, and 6C, the furling system 20 includes a wind blocking device, such as a furling door 30 having panels 35, carried by a frame 32. The furling door 30 is configured to be positioned on the frame 32 between an open position, allowing wind to flow into the blade system 12 and a closed position to minimize the flow of wind into the blade system 12. For example, the furling door 30 is connected to a furling motor 34 by a furling control shaft speed decreaser unit (not shown) such as a cable and pulley. A controller 36 determines the optimal amount of wind blockage for the blade system 12 and adjusts the position of the furling door 30 by using the furling control shaft speed decreaser unit. For example, the controller 36 is configured to determine the optimal wind velocity level for the generator (not shown) or other energy-producing device, such as an alternator, which is determined by the power output generated by the blade system 12 of the augmenter system 10.
The controller 36, in one arrangement, includes a normally open relay or diode at 12 volts. When open, the relay activates the furling motor 18 to cause lowering of the furling door 30, similar to a garage door. A normally closed relay or diode at 10 volts would activate the furling motor 18 in the direction of raising the furling door 30 when the relay or diode is opened at a rating below 10 volts.
In one arrangement, the controller 36, such as a memory and processor, is configured to operate the furling system 20 based upon feedback from the generator or power generating unit 100. In one arrangement, the generator 100 provides the controller 36 with an output signal, such as a power output rating, that is proportional to the power output created by the generator. In the case where the controller 36 detects the signal as indicating the generator 100 producing an excessive output rating, as compared to threshold such as a rated power output of the power generating unit, the controller 36 activates the furling motor 34 in the direction of lowering the furling door 30. For example, if the signal indicates the generator output is ten percent over the rated maximum, the controller 36 can cause the motor 34 to adjust the position of the furling door 30 so that ten percent of the blade system 12 is blocked. Alternatively, there can be a proportional feedback control that moves the door 30 appropriately. In the case where the controller 36 detects the signal as indicating the generator 100 as producing an output below its rated output, then the controller 36 would activate the furling motor 34 in the direction of raising the furling door 30. The gearing ratio for the speed decreasing unit, in one arrangement, is directly proportional to the height of the blade area 2 and the height of the furling door 30 (i.e., the total height of the furling panels).
As indicated above, and as illustrated in FIG. 4, the blade system 12 includes a set of vertically arranged impeller assemblies 29. In one arrangement, as illustrated in FIG. 9, the blade system 12 includes a set of horizontally arranged impeller assemblies 70 where each impeller assembly 70 includes one or more impellers 78 carried by a blade shaft 79 disposed in operative communication with an output shaft 73.
In one arrangement, as shown in FIG. 9, the augmenter system 10 is configured to direct wind toward the horizontally arranged blade or impeller assemblies 70 during operation. For example, as indicated in FIG. 9, the augmenter system 80 includes a first augmenter element (not shown) and a second augmenter element 86. Each of the augmenter elements includes a frame 91 and walls that are disposed at a tapered angle toward the impeller assemblies 70. For example, the augmenter element 86 includes a first wall 88 and a second wall 90 that are angled, relative to a horizontal reference, toward the impeller assemblies 70. For example, either one or both of the first and second walls 88, 90 are disposed at an angle of about 22 degrees toward the impeller assemblies 70 relative to a horizontal reference. Additionally, the augmenter element 86 includes a third wall 92 and a fourth wall 94. Either one or both of the third and fourth walls 92, 94 can be disposed at a tapered angle, such as an angle of about 22 degrees toward the impeller assemblies 70 relative to a vertical reference. Tapering of the walls 88, 90, 92, and 94 can accelerate the wind or air flow from the wind inlet area 1 toward the impeller assemblies 70.
The walls 88, 90, 92, and 94 can be manufactured from a variety of materials. For example, the walls 88, 90, 92, and 94 can be manufactured from a sheet metal skin or from a shrink wrap material disposed on frame 91. In one arrangement, the first wall 86 is configured as a set of top panel lift systems 5, as illustrated in FIG. 1, while the third and fourth walls 92, 94 are configured as side dump panels 4 as illustrated in FIG. 2.
In another arrangement, the augmenter element 86 is configured as an inflatable structure. For example, the walls 88, 90, 92, and 94 of the augmenter element 86 can be configured as helium or cold air balloons that, once inflated, direct and accelerate wind toward the impeller assemblies 70 during operation. With such an arrangement, the inflatable structure minimizes the set-up time associated with assembling non-inflatable wall portions of the augmenter.
As indicated above, the augmenter system 10 can utilize a furling system 20 to adjust the flow of wind to the blade system. In one arrangement, as illustrated in FIGS. 9 and 10, the augmenter system 10 includes a set of panels 115 disposed in proximity to an augmenter opening 124 to control the flow of wind to the blade system. For example, in the case where the augmenter element 86 is manufactured from a sheet metal skin, the set of panels 115 can include a first panel 120 and a second panel 122 hingedly coupled to the augmenter element 86 via hinges 126, 128, respectively. The first and second panels 120, 122 are configured to move from a closed position, as shown in FIG. 10, to an open position, as shown in FIG. 9, in response to wind flowing into the augmenter element 86 (i.e., along a direction substantially into the page) to the blade assemblies 70. With such an arrangement, the set of panels directs the wind toward the blade assemblies 70 during operation. In the case where wind flows from the blade assemblies 70 to the augmenter element 86 (i.e., along a direction that is substantially out of the page), the first and second panels 120, 122 are configured to move from the open position shown in FIG. 9 to a closed position shown in FIG. 10. Such a configuration allows the augmenter system 10 to concentrate the wind energy, as received from the opposing first augmenter element (not shown), toward the blade assemblies 70 and minimizes the flow of the wind through the augmenter element 86.
While the set of panels 115 can be positioned between an open and closed position using wind energy, in one arrangement, the position of each panel 120, 122 is controlled by a controller, such as a motor. In such an arrangement, the controller can independently position each of the panels 120, 122 to control both the volume of wind flow and the direction of wind flow to particular blade assemblies 70 in the system 10.
In one arrangement, a gearshift mechanism, such as a clutch, can be used to adjust the speed of the output shaft 13 and to allow optimal power output from the blade system 12 over a relatively wide range of wind velocities. Additionally, with the gearshift mechanism maintaining a particular speed of rotation of the output shaft 13, the clutch minimizes overspeeding of the output shaft 13. For example, with reference to FIG. 11, the blades 8 can be connected to a gearbox 85 having a gearshift mechanism 86, such as a magnetic clutch, coupled to the generator 100. During operation, the shaft connecting the blades 8 to the gearbox 85 would totally or partially disengage. Such disengagement minimizes or prevents an overheat or overspeed of the generator 100.
In one arrangement, the gearshift mechanism 86, such as a clutch, can be directly connected to the generator 100 from the blades 8 or connected between the gearbox 85 and the generator 100. In an alternate arrangement, the gearshift mechanism 86 is disposed between adjacent blades 8 in order to achieve a particular power output over a relatively wide range of wind speeds. For example, the gearshift mechanism 86 can disengage or engage one or more blades 8 based upon the wind velocity to prevent the output shaft 13 from rotating in an overspeed situation (i.e., at a greater speed than the rated output of the generator). While the gearshift mechanism 86 can be configured as a clutch, in one arrangement, the gearshift mechanism 86 is configured as a transmission, such as an electronic transmission, to control the speed of the output shaft 13
In one arrangement, augmenter system 10 can include an air straightener 130 to reduce air turbulence at the blades 8. For example, with reference to FIGS. 1 and 12, the air straightener 130 employs an open lattice-like structure 132, similar to that of a honeycomb or a wind prism, to minimize wind turbulence as the wind 60 enters the inlet area 1 of an augmenter element, such as augmenter element 15. The air straightener 130 directs the wind 60 through the augmenter element 15 such that the wind 60 flows substantially parallel to the walls of the lattice structure 132 and at a particular direction relative to the blades 8, such as a direction that is substantially perpendicular to the blades 8 of the blade system 12.
While various embodiments of the invention have been particularly shown and described, it will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.
For example, as indicated above the controller 36, such as a memory and processor, is configured to operate the furling system 20 based upon power output rating feedback from the generator or power generating unit 100. Such description is by way of example only. In one arrangement, the controller 36 is configured to operate the furling system 20 based upon the operating speed of the generator 100.
For example, in the case where the controller 36 detects the generator 100 as operating at an excessive speed, such as a speed of 1810 RPM or greater based upon a reporting signal from the generator 100, the controller 36 activates the furling motor 34 in the direction of lowering the furling door 30. The controller 36 can then continuously detect the speed of the generator 100 (e.g., the reporting signal) and can stop lowering the furling door 30 when the generator speed reaches a threshold, such as a threshold of 1800 RPM. In the case where the controller 36 detects the reporting signal as indicating the generator 100 operating at a relatively low speed, such as a speed of 1790 RPM or lower, the controller 36 activates the furling motor 34 in the direction of opening the furling door 30. The controller 36 can then continuously detect the speed of the generator 100 (e.g., the reporting signal) and can stop opening the furling door 30 when the generator speed reaches a threshold, such as a threshold of 1800 RPM.
For example, if the signal indicates the generator output is ten percent over the rated maximum, the controller 36 can cause the motor 34 to adjust the position of the furling door 30 so that ten percent of the blade system 12 is blocked. Alternatively, there can be a proportional feedback control that moves the door 30 appropriately. In the case where the controller 36 detects the signal as indicating the generator 100 as producing an output below its rated output, then the controller 36 would activate the furling motor 34 in the direction of raising the furling door 30. The gearing ratio for the speed decreasing unit, in one arrangement, is directly proportional to the height of the blade area 2 and the height of the furling door 30 (i.e., the total height of the furling panels).
* * * * *
images:
http://pdfpiw.uspto.gov/.piw?PageNum=0&docid=08408867&IDKey=E7749B348709%0D%0A&HomeUrl=http%3A%2F%2Fpatft.uspto.gov%2Fnetacgi%2Fnph-Parser%3FSect1%3DPTO2%2526Sect2%3DHITOFF%2526p%3D1%2526u%3D%25252Fnetahtml%25252FPTO%25252Fsearch-bool.html%2526r%3D1%2526f%3DG%2526l%3D50%2526co1%3DAND%2526d%3DPTXT%2526s1%3D%252522Multi-Axis%252Bturbo%252Bsystem%252522%2526OS%3D%2526RS%3D
I love that we're not going to drown in dilution! President wants to keep this thing low low low float... maybe we'll be where solar city is in a couple years...
Sure thing bulldozer, volume here was great yesterday.
Another video of the prototype from Youtube
This is a great article and video of the prototype:
That would huge.. anyone know where they are with
the patent?
Will do ~ company just confirmed: 'no death spiral financing'
gotta love that!!
In other news, the Company has declined and will continue to refuse convertible debt, also known a toxic debt. The “Death Spiral” or toxic debt is a loan that investors give to a publicly traded company in exchange for a note or bond with a right to buy stock at a lower price than the current market price. The conversion process results in the drop in the stock price.
Solar is hot hot hot right now... the float in this is sick., and
the country is turning to solar... great time to get in this... ceo just said no to the death spiral finance that so many otc's use...
**NEWS* Mass Megawatts Announces New Solar Tracking System to be on Website Soon and Company Rejects Toxic Debt Offer
http://ih.advfn.com/p.php?pid=nmona&article=63100143
Mass Megawatts Announces New Solar Tracking System to be on Website Soon and Company Rejects Toxic Debt Offer
Print
Alert
Mass Megawatts Announces New Solar Tracking System to be on Website Soon and Company Rejects Toxic Debt Offer
WORCESTER, Mass., July 31, 2014 -- Mass Megawatts Wind Power, Inc. (OTC: MMMW) today announces the details of new solar tracking technology to be available soon on the website www.massmegawatts.com .The new product is designed to increase solar energy production more than 25%. The patent pending, ‘Solar Tracking System’ (STS) automatically adjust the position of solar panels to receive an optimal level of direct sunlight throughout the day. Unlike other solar tracking technologies, the Mass Megawatts STS utilizes a low-cost structure to the overall system while improving energy production levels. The STS allows Mass Megawatts to lower material costs and reduce the number of solar panels needed to generate the rated capacity.
Due to this advantage, Mass Megawatts can deliver more solar power production at a price similar to lower-capacity, stationary systems. In many locations, this improved output translates into a 40% rate of return for the customer with investment payback occurring in the 4th year. Further, by taking advantage of a lease program or power purchase agreement (PPA) arrangement with the company, a customer may realize an immediate, positive cash flow, as immediate energy savings and/or revenues will be realized and/or exceed the monthly payments due.
In other news, the Company has declined and will continue to refuse convertible debt, also known a toxic debt. The “Death Spiral” or toxic debt is a loan that investors give to a publicly traded company in exchange for a note or bond with a right to buy stock at a lower price than the current market price. The conversion process results in the drop in the stock price.
With its patented, Solar Tracking System, Wind Electric Power Generation system and very little debt, Mass Megawatts believes it is well positioned to ramp-up production in the shorter term while expanding its infrastructure to support mass-production goals in the longer term.
This press release contains forward-looking statements that could be affected by risks and uncertainties. Among the factors that could cause actual events to differ materially from those indicated herein are: the failure of Mass Megawatts Wind Power, also known as Mass Megawatts Windpower, to achieve or maintain necessary zoning approvals with respect to the location of its power developments; the ability to remain competitive; to finance the marketing and sales of its electricity; general economic conditions; and other risk factors detailed in periodic reports filed by Mass Megawatts Wind Power
Product information and sales inquiries can be made through the company's contact page at www.massmegawatts.com
I'm hoping so Carlcarlos, what a partnership that would make.
Haven't heard of that yet., but now with deregulation we're going to see a lot of new products, mergers., etc.. good time to be in solar. It was hot a couple years ago then stalled. Timing is good to be back in now.
After reading the financials it looks like that is what
they are concentrating on now.. hooking up with these other
developed and working solar panel co's ... I like the
technology that turns the solar panel as well.
I think so as well. Float is sick!
Very nice !!
This is a reply I received this morning to an
inquiry about a solar trade show in Saudi:
-----Original Message-----
From: jonricker <jonricker@aol.com>
To: *************************
Sent: Mon, Jul 28, 2014 9:02 am
Subject: ( DRAFT) Solar Finance Summary from Mass Megawatts
Dear d***,
Thank you for investing and your interest in Mass Megawatts including the new low cost solar tracker designed to reduce solar power cost.
In an answer to your question, we will not be going to the Middle East during 2014. In the attachment of this e-mail, we have a finance program for solar power projects in Massachusetts that can be substantially duplicated in several other states. Although the high rate of return is less in most states, it should be a good investment in most of the country with higher than average electric rates. For more information, the office phone number is (508) 751-5432 The web site is www.massmegawatts.com . Our web site including pictures, tables, and charts will be updated to reflect the solar announcements soon. Meanwhile, the attachment should supply you a substantial amount of initial information.
Thank you for your patience.
Best Regards,
Jon Ricker
CEO
Mass Megawatts Wind Power, Inc.
Stock Ticker: MMMW
I like the statement "can be substantially duplicated in several other states".
Think one of the strategic partners could be
solar city? sct* ?
Will SCTY be one of the strategic partners of mmmw?
From friday's pr: http://online.wsj.com/article/PR-CO-20140725-906674.html
Mass Megawatts reports strong demand, both domestically and abroad, from residential and business, energy-consumers. Commercial production of the STS is anticipated to begin in the next fiscal quarter. To accelerate market penetration, the company plans to leverage recently developed, strategic-partnerships with established solar-power companies in the Northeastern United States . The patent pending, Mass Megawatts 'Solar-Power Tracking System' (STS) is a complete solar-power system designed to automatically adjust the position of its solar panels throughout the day to receive an optimal level of direct sunlight. Unlike other solar tracking technologies, the Mass Megawatts STS utilizes a low-cost structure that adds stability to the overall system while improving energy production levels up to more than 25%. Starting at 6.25 kW rated units, the Mass Megawatts STS is appropriate for ground-level, residential and business sites, as well as, commercial, roof-top installations. Mass Megawatts coordinates all aspects of system delivery, including permitting, installation, and working to obtain any available tax incentives. They monitor the performance of each system, and provide a full, performance guarantee. With its patent pending, Solar Tracking System, Wind Electric-Power Generation system, a new retail sales business, only approximately 40 million shares issued and outstanding, and very little debt, Mass Megawatts believes it is well positioned to ramp-up production in the shorter term while expanding its infrastructure to support mass-production goals in the longer term.
Good Morning my friend!!! All is well in the great North lol !!!
No PM... hit me on FB :)
Nice work Mclovin! So much in the works.. amazing team... pioneers in the alchemy of cannabis... David Hoye!! He's on our BOD., maker of Dharmanol. I bought all the dips the last 2 months... sitting pretty now... :)
Smart move !! We have great things in the works!!
Ticker change alone will be huge !!!!
Smart move !! We have great things in the works!!
Ticker change alone will be huge !!!!
http://medicalmarijuanadispensaryinlosangeles.com/menu.html
Awesomesauce !!! tons of edibles!!!
Excellent explanation JStone! The threads I've read by these folks discussed the exchange rate fluxation and payment/proceeds, as well as purchasing a wallet. These folks appear very transparent.. but again, I just want to make sure it is the same company.. I'm 99% sure... pm me your email and I will get you some info.. I don't have pm here any longer.