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Rockbox mail archiveSubject: Problems with the German lang fileProblems with the German lang file
From: Gerhard Jaworek <jaworek_at_szs.uni-karlsruhe.de>
Date: 2006-04-30
Dear Rockers,
I want to build a own German voice file. Therefore I need a deutsch.lang
Thank you for help.
Best Regards.
Page was last modified "Jan 10 2012" The Rockbox Crew |


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CHOLAGOL drops 10ml
Application form | drops and solutions for internal use |
Indication group | choleretics, cholekinetics |
Manufacturer | Ivax Pharmaceuticals s.r.o., Opava, Czech Republic, www.ivax-cz.com |
Active substance | Curcumae radicis pigmenta 0,0225 g, Magnesii salicylas 0,18 g, Menthae piperitae etheroleum 3,6 g, Eucalypti etheroleum 1,926 g, Frangulaemodinum 0,009 g v 10 ml |
minimum amount for dispatch | Cholagol : The active substances of the preparation are mostly of vegetable origin. Most of them have a stimulating efect on production and secretion of bile. Besides that, Cholagol moderates the spasms of smooth muscles of biliary tracts, and it has an anti-inflammatory effect and also disinfection and slightly laxative effect. |
Summary of product characteristics SHOW | Information on a drug is available on the official website: Medicines.org.uk or EMEA : European Medicines Agency |
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What IS an internship?
The most important thing to know is that an internship is not just a job! Rather, it is a learning experience. You take a classroom course in order to gain specific learning outcomes - an internship has the same objective. An internship provides you with the unique opportunity to gain "real world" experience in your chosen career field while pursuing your classroom studies. It provides the opportunity for you apply knowledge and skills that you learned in the classroom to practical situations and problems under the supervision and guidance of a practicing professional. It will also help you to build extremely valuable "networking" relationships with those already working in your area of interest.
Do I have to meet any academic requirements to be eligible for an internship?
Yes. You must be well advanced in your degree program. As a general rule, this means that you will have taken the majority of courses required for your degree and that you are classified as a Senior. In addition, your overall GPA must be at least 3.0 at the time you start your internship.
If you are reviewing this information at an earlier stage in your program (freshman through junior status), please be sure to read the section "Ok, I want to do an internship. How do I start?" The time to start preparing is now, for any status.
Who are the people involved in making your internship a quality learning experience?
Intern: You!
Academic Advisor/Internship Program Coordinator: Mrs. Rodgers, located in Building 76A, is the person responsible for developing Marketing & Economics internships, coordinating with Marketing & Economics Faculty Advisors, assessing your career and internship objectives, guiding you to find the internship position that best meets your goals, and maintaining the records of your internship that are necessary for the awarding of academic credit.
Faculty Advisor: The faculty member responsible for evaluating and approving the internship for the awarding of academic credit, reviewing the Internship Sponsor's evaluation of your performance, evaluating your Internship Report, and assigning your grade for the internship.
Internship Team: Your Academic Advisor and your Faculty Advisor.
Internship Sponsor: The on-the-job person directly supervising your internship experience and evaluating your performance at the firm or organization where you do your internship. Typically, this person is a mid- to upper-level manager in the firm or organization, and is a practicing marketing professional.
Do all internships earn academic credit?
Not necessarily. Internships must meet the Department's academic standards in order to qualify for course credit. It is possible for students to arrange non-credit internships on their own, but we don't recommend it. Usually if we don't think the internship is worthy of awarding academic credit, you're taking a chance on the quality of the learning experience. All the information in these FAQ's applies only to internships that qualify for academic credit.
How much academic credit can I earn?
Typically, you can earn up to 3 hours of academic credit (i.e., the equivalent of one elective course in your degree program). In certain circumstances, the Faculty Advisor may approve the awarding of additional credit, up to 6 hours. For example, some large firms offer very high quality, well-managed internship programs where students interns may work as much as 40 or more hours per week while earning a professional-level salary. Exceptions to the standard 3 credit hour policy must be approved by your Internship Team.
How does an internship count in my degree program?
For Marketing and Economics majors, an approved internship may count as a MAR or ECO elective. Internships cannot be used as substitutes for College of major core courses required in your degree program.
How am I graded for my internship?
Internships are graded on a "Satisfactory/Unsatisfactory" (S/U) basis. A "U" counts as 0.0 grade points (same as an "F") while an "S" has no impact in the calculations of your GPA. Your Faculty Advisor determines your grade based on the performance evaluation provided by the Internship Sponsor and the Faculty Advisor's evaluation of your Internship Report.
How is my performance evaluated by the Internship Sponsor?
This is the Supervisor Evaluation form used by the Internship Sponsor.
What is an "Internship Report"?
You are required to write and submit a report of your internship experience. The deadline for the report is the last day of regularly scheduled classes in the semester in which you do your internship. In general, the report will consist of four sections: (1) a summary of your activities during the internship; (2) a discussion of how you applied knowledge and skills that you learned in our courses in your degree program during your internship activities; (3) a discussion of new knowledge and skills that you acquired during your internship; and (4) your assessment of your personal career possibilities in the industry in which you did your internship. Specific guidelines for your report will be agreed on by you and your Faculty Advisor.
Where are good internship opportunities geographically located?
Literally, all over the world. Opportunities are available just about anywhere you want to go, from here on the UWF campus to all over NW Florida to Atlanta to New York and beyond. However, depending on your learning goals for your internship, your selection might be somewhat limited geographically.
May I do an internship where I am already employed?
In most cases, no. Rare exceptions may be made if the proposed internship is not related in any way to your current job responsibilities. Exceptions must be approved by your Faculty Advisor.
How do I find a good internship position?
There are several ways to find an Internship Sponsor. The best internships are carefully planned and carefully selected.
First, contact your Academic Advisor/Marketing & Economics Internship Program Coordinator for one-on-one discussion to develop your internship plan of action and coordinate with your Faculty Advisor.
Second, find your own Internship! If you locate an opportunity that you find attractive, just remember that both, your prospective Internship Sponsor and Internship Position, will have to be approved by your Internship Team. You may obtain an "Internship Position Description" form for the prospective Internship Sponsor to complete and submit before approval will be considered.
How much time does it take to do an internship?
Total time spend "on the job" for a 3 credit hour internship will be at least 160 hours and should not exceed 180 hours during the internship period. Usually, it's best to divide hours evenly during the term, as in the following examples, but exceptions may be made by mutual agreement of the Internship Sponsor, the Faculty Advisor, and you.
Hours worked per week (based on minimum total hours, rounded to the next whole hour) | Minimum Total Hours | Academic Credit Earned | ||
Fall/Spring Term (15 weeks) | Summer Term (12 weeks) | Summer Term (6 weeks) | ||
11 | 14 | 27 | 160 | 3 hours |
7 | 9 | 18 | 105 | 2 hours |
4 | 5 | 9 | 54 | 1 hour |
Will I be paid by my Internship Sponsor?
Maybe. The best internships usually compensate you in some manner, although opportunities may arise where unpaid positions are a perfect match for your interests and you may decide to forgo compensation. The bottom line is that it's your decision; if you decide that you must receive compensation, then you are free to limit your search to those that pay!
When do I have to start the application process for an internship?
You should start a minimum of six weeks before the beginning of the term in which you plan to do the internship. It can take some time to find the perfect match for your goals. The best internship experiences are those that are carefully planned and carefully selected.
Ok, I want to do an internship. How do I start?
Follow these steps; each is important and each must be accomplished.
- Go back and read all the FAQ's in this document, if you haven't already. Determine your eligibility (senior status and 3.0 GPA).
- Develop your goals for the internship experience. Ask yourself these questions: What do I want to learn and experience? Do I want to learn a particular skill? What knowledge do I want to acquire? What type of business or industry do I want to know more about? How will an internship advance my future career goals? How will an internship "fit" in my degree program?
- You will want to discuss some of these issues with your Academic Advisor/Internship Coordinator, your Faculty Advisor, and Career Services. Career Services is an excellent source for information, particularly in the very early stages of your career planning. It is recommended that you be oriented to their array of services early in your degree program.
- Summarize the results of Step 2 into a targeted Objective statement and integrate it into your current resume.
- Meet with your Academic Advisor/Internship Coordinator to submit your current resume and to complete a demographic profile. Be prepared to discuss the type of questions suggested in Number 2. If you have already identified a prospective Internship Sponsor, you may bring with you to the meeting a completed Internship Position Description form (PDF) and the Internship Program Memorandum of Understanding (PDF).
- Upon approval of your participation and the Internship Position, you will be registered by the Department for course credit. You can then start your internship and have a great learning experience!
- At the end of the internship, you must present a 3-5 page report and two evaluation forms (the Student Evaluation (PDF) andSupervisor Evaluation (PDF) forms) to the Advisor for review and evaluation. Upon approval, the academic credit based on the hours worked will be added to your records.


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Topic: Bob Kagan
New START Treaty: Much Ado About Nothing
A lot of foreign-policy experts I respect — including John Bolton, Eric Edelman, John Yoo, and Jim Woolsey — have come out against the ratification of the New START treaty, which would decrease American and Russian nuclear arsenals. For my part, I'm with Bob Kagan in wondering what the fuss is all about.
Arms-control treaties between Moscow and Washington were a big deal during the Cold War when the Soviet Union was bent on global expansionism and the U.S. had to stand on the frontlines of freedom. But the Soviet Union is gone. Today's Russia may be a local threat to its smaller neighbors, the likes of Georgia or Estonia, but on a global scale it's more of a nuisance — certainly not an existential threat to the United States. Thus the continuing quest for arms-control treaties seems like a bit of an anachronism.
Yet it is an anachronism that has been pursued by both Republican and Democratic administrations. As this crib sheet from the Arms Control Association reminds us, George H.W. Bush signed START II in 1993, Bill Clinton followed with a START III framework (never completed) in 1997, and George W. Bush reached agreement on SORT (a.k.a. the Moscow Treaty) in 2002. Kagan sums up the results of all these treaties along with New START:
The START I agreement cut deployed strategic nuclear weapons on both sides roughly 50 percent, from between 10,000 and 12,000 down to 6,000. The never-ratified (but generally abided-by) START II Treaty cut forces by another 50 percent, down to between 3,000 and 3,500. The 2002 Moscow Treaty made further deep cuts, bringing each side down to between 1,700 and 2,200. And New START? It would bring the number on both sides down to 1,550.
The final figure of 1,550 warheads is plenty big enough to maintain America's nuclear deterrence; actually, we will have more than that because for the purposes of the treaty B-2 and B-52, bombers are counted as one "warhead" even though they can carry dozens of nuclear warheads. Opponents of the treaty throw out all sorts of other objections, arguing that it would constrict the development of missile defenses or non-nuclear missiles; but no such prohibition is to be found in the language of the treaty.
Let me be clear. I do not buy the Obama administration's rationales for the treaty. Administration officials cite the need to "reset" relations with Russian and to take a step toward the eventual elimination of all nuclear weapons. I very much doubt that this treaty will do anything substantial to achieve either goal. We are likely to continue clashing with Russia diplomatically as long as it remains an authoritarian state. As for the quixotic goal of eliminating nuclear weapons: Suffice it to say, reductions in the American arsenal are not going to encourage North Korea or Iran to give up their nuclear programs. But nor will relatively modest reductions in our nuclear forces prevent us from vaporizing Iran or North Korea, should they use nuclear weapons against us or our allies.
One of the important benefits of the treaty is that, in the course of negotiations over ratification, Senate Republicans have won assurances from the administration that it will spend $80 billion over 10 years to modernize our nuclear program. Yet this doesn't seem to be enough. Sen. Jon Kyl, who has been the lead GOP negotiator, now says he doesn't want to see a vote during the lame-duck session.
As Kagan suggests, this will allow the administration to blame Republican "obstructionism" if and when relations with Russia deteriorate. Therefore, Republican foot-dragging on ratification isn't smart politics. It's not necessary for the national defense either. Republicans should keep their powder dry to fight off attempts to slash the defense budget — an issue that really could imperil our security. That will be harder to do, however, because there are a number of Republicans who appear willing to go along with defense cuts, even as they're taking pot shots at the (largely symbolic) New START treaty.
Obama's Iran Policy: A Dead End
Elliott Abrams, former deputy national security adviser, Danielle Pletka of AEI, and Ray Takeyh of the Council on Foreign Relations held a lively discussion, moderated by Bob Kagan of the Carnegie Endowment for International Peace and Foreign Policy Initiative, at the FPI's Iran program. It was, to say the least, a sobering discussion.
Takeyh led off by explaining that the Obama team has not yet given up on negotiations and sees sanctions now as means of getting the Iranians back to the bargaining table. However, Takeyh, like the other panelists, thinks that there is "no sanctions solution" to the problem of Iranian nuclear ambitions. And even if Iran returns to the table, at best we will have an inconclusive result. The ability of economic sanctions, especially of the modest type currently being contemplated, he contends, will not affect the calculation of the regime's self-interest. Pletka concurred, "At this point sanctions are not going to deliver."
She pointed out that rather than preparing for the Iranians' inevitable rejection of our negotiating efforts, we seemingly frittered away the time. We are now "gobsmacked" that the Iranians have said no to our bargaining offers, and we are only now trying to cobble together a sanctions effort. Abrams pointed out that a sanctions approach might have made sense last Labor Day — our original deadline, when Obama was still fresh on the scene. But now the "U.S. position has been diminished," and our relations with Britain, France, and India are worse, making a cohesive effort harder. As for unilateral sanctions, Pletka reports that the administration is putting pressure on "skeptics" in Congress to slow down the reconciliation process between the House and Senate sanctions bills. She doubts Congress is "willing to take on the administration," which is adverse to a unilateral effort. The U.N. is where the action is for the administration.
The consensus of the group was that the watered-down sanctions, for which we are struggling to obtain Russian and Chinese agreement, will have no effect on the Iranians' nuclear plans. Would a ban on importation of Iranian oil and on export to Iran of refined gasoline? Takeyh says yes, but the "international community won't do it."
Likewise, the panelists agreed that containment is a nonstarter. Abrams pointed out that the difference between deterrence before Iran gets the bomb and containment after is critical. ("Containment doesn't guarantee anything, " he noted.) After five years of saying a nuclear Iran was unacceptable, any containment policy, which would by necessity require use of force or threat of force to deter aggressive Iranian action, Abrams explained, would certainly lack credibility. Kagan summed up: "If they don't want to use [military force] now, why would they use it when Iran has the bomb?"
Pletka argued that the acquisition of a nuclear weapon would enhance the regime's staying power and deter efforts to undermine the regime. As for the Green Movement, Abrams noted allowing the regime to get the bomb would have a huge impact on morale. "The world would have been defeated," he explains, and the regime would have achieved a great victory.
Abrams made several key points. First, he notes Israel desperately would prefer not to launch a military strike, but only if "there is another way to keep Iran from getting the bomb." He notes that the Israelis are amazed at "how stupid" the U.S. has been in taking the military option off the table. "What leverage do you have?" he asked. "Even if you don't believe it [that force would be used], why isn't he saying" a military option would be no big deal? He imagines that some in the administration do not want to see the entire Nuclear Nonproliferation Treaty system break down and would be willing to employ force, but this is not a view shared by Secretary of Defense Robert Gates or the U.S. military.
Second, he notes that by inaction both under the Bush and Obama administrations, we have conveyed to Iran that there "is no price to be paid for killing Americans." He said that despite Iranians killing Americans directly and indirectly in Iraq, "there was absolute insistence by the U.S. military" not to act against Iran, presumably on the theory that "there was already too much on the table." The lesson learned by the Iranians, therefore, was that they can impose a price on the U.S. without brining any suffering on themselves.
Finally, he argues that we should be making an "all-fronts" effort to contest Iranian behavior in all international bodies — whether on the mullahs' arming of Hezbollah, human rights atrocities, or violation of nuclear agreements. We should urge European parliaments to denounce the regime. "Put the regime on the defensive everywhere. Make it a pariah state," he argues, noting ruefully that instead, Israel has become the pariah nation.
The conclusion one draws from the panel is not an optimistic one. The Obama team wasted a year on engagement, only serving to undermine the Green Movement's effort to delegitimize the regime. The sanctions currently contemplated are too puny and too late. The administration has disclaimed use of force. So while the administration is not officially stating that its policy is to accept the "unacceptable," the inevitable result of its policy decision is precisely that. We now face what was thought to be unimaginable: a nuclear-armed revolutionary Islamic state. That will be the legacy of the Obama administration — a world infinitely more dangerous and unstable.
Finding His Inner Pol
Noemie Emery smartly observes, "Patrolling the world is not an idea that appeals to Obama by nature, nor one he can reach without strain." She explains:
He was not taken, like Kennedy, to North Church as a toddler, and made to recite "Paul Revere's Ride." In more ways than one he grew up outside of the mainland, with an outsider's view of America's presence, and when he came here, he gravitated to its more radical critics. … If a conservative is a liberal who has been mugged by reality, Obama is a liberal who is being mugged slowly by the realization that the weight of the world really does rest on his shoulders: That he is no longer an outsider or activist or a professor, but the real life commander in chief.
It isn't yet clear that Obama has made that transition or is willing to put aside his lefty academic fixations. At West Point, he still couldn't get out the word victory or avoid providing the netroots with a security blanket (i.e., a withdrawal date), which then had to be ripped from their clutches by the principal grown-up in the administration, Robert Gates. At West Point, Obama also felt compelled to prattle on about "prohibiting torture" (actually, he prohibited everything from a face slap to loud music; torture was illegal before) and closing Guantanamo. He's still pressing ahead with the KSM civilian trial. All this suggests that he's not quite able to give up the lure of leftist lawyers and activists, whose goal above all else is to demonstrate the Neanderthal-ness of the Bushies. Being commander in chief means fighting a war on terror against the terrorists, not the prior administration or our own intelligence community.
Meanwhile Obama seems blissfully unconcerned about Iran's dogged pursuit of nuclear weapons and disdain for engagement. He seems to lack a viable Plan B. (Plan A was "Obama charms the mullahs by denigrating America.") As Bob Kagan wrote recently, we don't yet know whether Obama can play "hardball" with our enemies (the real ones, not Fox News and ObamaCare opponents).
But Obama is plainly a president in progress when it comes to foreign policy. He had no significant national-security or military experience before coming to the Oval Office, so it's not surprising that he would treat war-planning like a negotiation over a public-works bill. Perhaps their all-consuming addiction to politics and desire to see foreign policy through the prism of domestic politics will, in this case, actually help the Obami get it right. After all, the public opposes a KSM civilian trial and the closing of Guantanamo, is willing to use military force to deprive the mullahs of nuclear weapons, and is supportive of a troop surge for Afghanistan. So if Obama can't find his inner commander in chief, perhaps he can simply be a smart pol — something he's quite practiced at.
The Secret History of Neoconservatism
The furor over the supposedly perfidious influence of "neocons" in the making of Bush foreign policy seems to have died down a bit. But it will nevertheless remain part of the lasting legend about this administration. Bob Kagan, one of our foremost foreign policy sages, has a must-read article on the subject in the latest issue of Lawrence Kaplan's new foreign policy quarterly, World Affairs.
Kagan makes many valuable points, but in essence his argument is that there is absolutely nothing new or foreign about the "neocon" vision—combining power with idealism to make the defense of democracy a central tenet of American policy. The more fevered critics of the neocons insist on explaining their world view with reference to Leon Trotsky, Leo Strauss, and other philosophers of marginal influence in modern America. (I can't speak for anyone else, but I personally have never read a single book by either Trotsky or Strauss.) They would be better advised, Kagan notes, to look to figures as varied as Alexander Hamilton, William Seward, Theodore Roosevelt, Woodrow Wilson, Dean Acheson, John F. Kennedy, and Ronald Reagan, all of whom advocated an expansive vision of America's role in the world.
The opposing viewpoint—which denounces American "imperialism" and abjures the defense of liberty abroad—has an equally long history. It lists among its proponents not only modern-day neocon-bashers such as Michael Moore and Pat Buchanan, but also such illustrious predecessors as the "progressive" historians Charles Beard and William Appleman Williams and realpolitik thinkers like Hans Morgenthau and Walter Lippmann.
Nor is this the first time that the more fevered critics of the war effort have wound up charging that the country was "lied" into war by nefarious conspirators. Today it's neocons. In the past it was banana companies, "merchants of death," and international bankers. Such assertions have been heard about the Spanish-American War, World War I, the Korean War, and the Vietnam War. (In other words, after every conflict that has turned out to be tougher than anticipated.) Even when it came to World War II, some die-hard isolationists accused FDR of somehow forcing Japan to fight us and of deliberately not warning Pearl Harbor in advance of the attack.
Kagan does not deny that folly and miscalculation played a large role in planning the Iraq War. But, as he notes, there is nothing unique about America being overweening or imprudent in the pursuit of its ideals. The only way to avoid such setbacks is to pursue an isolationist or narrowly realpolitik agenda—which would wind up causing us far greater problems in the long run.


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Somerset, KY - As the Ebola virus gains more and more attention overseas and throughout the US, medical facilities are scrambling for a way to take extra precautions in an attempt to keep the deadly virus at bay. Just last week, a Liberians man traveled through Brussels and Washington before finally being diagnosed with the Ebola virus in Dallas. He died from the virus shortly after, sparking even more national concern.
"There may be a small outbreak because he did walk around with symptoms," said an infectious disease expert, Debra Spicehandler, at Northern Westchester Hospital in Mount Kisco, NY. "So we may see a few more cases related to him." The CDC highlights the importance of intense sterilization and precautions to prevent the virus from spreading any further.
Now, the President of Bondtech Corporation, Elsa J. Brown, stated that the outbreak of Ebola is quite alarming. We are all at risk here - and we at Bondtech believe that aggressive methods should be put in place to stop this horrible virus from spreading into our neighborhood.
Custom Design for independent customer needs:
Industries application:
Please click here to fill out our Questionaire.This will allow us to serve you better.
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BONDTECH Co. Partners Websites: Hodge International - Quick Opening Doors and Autoclaves IMS Fabrication - OTR Retreading Machinery Innovacycle - Inventive Way to Recycle Innovacycle - Document destruction Environmental Ultraviolet - Clean. Healthy. Safe.
BONDTECH Co. Friends Websites: Somerset Foundation The "Growing to Serve" spirit Somerset Charity Step by step
Copyright 2012 All rights are reserved to BONDTECH Corporation


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Do you realize that you are a daughter of the King? You need to live, hope, and dream as if this were true–because it is! You don't need to be paralyzed with fear, frozen by the chaos you feel inside. Instead, you must choose to stand on the truth of who God says you are.
In The Storm Inside, an 8-session, video-based small group Bible study, popular teacher and author Sheila Walsh unpacks the stories of women from the Bible who faced seemingly insurmountable problems–regret, shame, insecurity, and heartbreak. And just like the women from the Bible, you can overcome the lies the enemy uses to torment you. You too can rely on the truth of God's word so you can stand during the strongest storms of your life.
The next The Storm Inside group will meet in the fall of 2015. For more information or assistance at this time, please contact Kristy DeSanti, Director of Recovery, Care and Prayer at email@example.com or 630-232-7068, ext. 151.


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KRWG.ORG-The Region's Home Page
NPR Story
10:41 am
Tue June 25, 2013
Border Surge Amendment Clears First Hurdle
Originally published on Tue August 6, 2013 1:56 pm
A majority of U.S. Senators backed the border surge amendment added to the immigration bill in a vote late Monday. Approving the surge was essential to the immigration bill's fate.
The procedural vote received nearly two-thirds of support from the Senators. It's a small step but it means the border surge amendment now only has to clear a simple majority vote in the Senate.
Over the next ten years the plan will add about 20,000 new U.S. Border Patrol agents to the existing 21,000. It will also add new radar and surveillance systems.
A small group of protesters gathered in Tucson on Monday to criticize the amendment.
Norma Price volunteers with the Tucson Samaritans, a humanitarian group that helps immigrants who crossed the border illegally and ran into trouble in the desert.
"Wanting to get this bill through people have sacrificed increasing border security to get Republican votes. But I don't think those people really know what they did here," she said.
Up next, a vote on the surge, and the full bill in the Senate. Then the immigration debate moves to the House this summer.
For more Fronteras Desk news, visit fronterasdesk.org.


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Friday, January 16, 2009 :::
I hope I'm never this stupid with my car. Although I don't think the odds are in my favor. Not with my clumsy track record. Caution: Hole in Floor Caution: Do Not Attempt Caution: Low Clearance Don't worry, I did a little research before posting and surprisingly nobody died in that last one. ::: posted by dan at 12:06 PM :: [ link ] :: (3) comments
3 previous comments: "You know, ma, I guess I misunderstood them when they told me to knock over a bank." By Erik, at 5:19 PM Destroyed in Seconds--security camera edition By , at 4:50 AM Aw crap...I KNEW this camping weekend would go wrong. By Trudy, at 10:42 AM < Back to Blog |
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A floption is a word used to describe a girl who is willing to have sexual intercourse with you, although you havent decided if you want to have it with her or not. More than one of these girls are called Floptions.
Damn man, you have some floptions on your plate
od uživatele MotorboatnMooseZ
28. Srpen 2010


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US 7414325 B2 Abstract Energy conversion systems utilizing nanometer scale assemblies are provided that convert the kinetic energy (equivalently, the thermal energy) of working substance molecules into another form of energy that can be used to perform useful work at a macroscopic level. These systems may be used to, for example, produce useful quantities of electric or mechanical energy, heat or cool an external substance or propel an object in a controllable direction. In particular, the present invention includes nanometer scale impact masses that reduce the velocity of working substance molecules that collide with this impact mass by converting some of the kinetic energy of a colliding molecule into kinetic energy of the impact mass. Various devices including, piezoelectric, electromagnetic and electromotive force generators, are used to convert the kinetic energy of the impact mass into electromagnetic, electric or thermal energy. Systems in which the output energy of millions of these devices is efficiently summed together are also disclosed.
Claims(29) 1. An assembly that converts energy from one form to another and is submersed in a working substance having a plurality of moving molecules, wherein said working substance is heated by a source of heat, said assembly comprising:
a paddle that reduces the velocity of said molecules that impact said paddle;
a generator device that is coupled to said paddle, wherein said generator device converts kinetic energy of said paddle into a different form of energy as a result of said paddle reducing the velocity of said molecules that impact said paddle;
a resistor, wherein said generator device includes a pair of output leads coupled across said resistor; and
a thermoelectric generator, wherein said resistor is coupled to one side of said thermoelectric generator.
2. The assembly of
a base member; and
wherein said generator device further comprises:
a stationary portion that is coupled to said base member, said stationary portion being stationary with respect to said base member; and
a non-stationary portion that is coupled to said paddle, said non-stationary portion that moves in response to the movement of said paddle.
3. The assembly of
4. The assembly of
a first conductive layer;
a second conductive layer; and
a piezoelectric layer coupled between said first and second conductive layers.
5. The assembly of
6. The assembly of
7. The assembly of
8. The assembly of
9. The assembly of
at least one heat sink coupled to said thermoelectric generator.
10. The assembly of
11. The assembly of
12. The assembly of
13. A nanometer scale assembly that converts energy and is submersed in a working substance having a plurality of moving molecules, wherein said working substance is heated by a source of heat, said nanometer scale assembly comprising:
a base member; and
a piezoelectric generator device, wherein a stationary portion of said piezoelectric device is coupled to said base member, said stationary portion is stationary with respect to said base member, a non-stationary portion that is operable to move with respect to said stationary portion, and kinetic energy of said piezoelectric generator device is created by the reduction of velocity of said molecules and converted to a voltage differential when said non-stationary portion of said piezoelectric device moves with respect to said stationary portion of said piezoelectric device, and said piezoelectric generator device is operable to produce an output voltage of a one polarity and is not operable to produce said output voltage at the other polarity.
14. The nanometer scale assembly of
a first conductive layer;
a second conductive layer; and
a piezoelectric layer coupled between said first and second conductive layers.
15. The nanometer scale assembly of
16. The nanometer scale assembly of
17. The nanometer scale assembly of
18. The nanometer assembly of
19. The nanometer assembly of
20. The assembly of
21. An energy conversion system that is immersed in a working substance having a plurality of moving molecules, wherein said working substance is heated by a source of heat, said system comprising:
a base member;
a plurality of nanometer scale assemblies coupled to said base member, each of said nanometer scale assemblies comprising:
a paddle that reduces the velocity of said molecules that impact said paddle, wherein said paddle includes a spring constant and the movement in one direction of said paddle is limited by an object; and
a piezoelectric generator device that is coupled to said paddle, wherein said generator is configured to convert kinetic energy of said paddle into a DC voltage as a result of said paddle reducing the velocity of said molecules that impact said paddle, and wherein said generator is operable to produce said DC voltage at one polarity and is not operable to produce said DC voltage at the other polarity.
22. The energy conversion system of
23. The energy conversion system of
24. An assembly that converts energy from one form to another and is submersed in a working substance having a plurality of moving molecules, wherein said working substance is heated by a source of heat, said assembly comprising:
a nanometer-scale generator device, wherein said generator device converts kinetic energy of said molecules into a different form of energy as a result of said generator reducing the velocity of said molecules, wherein said generator is operable to produce a DC output of one polarity and is not operable to produce said DC output at the other polarity.
25. The assembly of
26. The assembly of
27. The assembly of
28. The assembly of
29. The assembly of
Description This application is a continuation of U.S. patent application Ser. No. 09/885,367, filed Jun. 20, 2001, now U.S. Pat. No. 6,593,666 which is hereby incorporated by reference herein in its entirety. This invention relates to nanometer scale electromechanical systems. In particular, the present invention relates to nanometer scale electromechanical systems that may be used in various applications, such as heat engines, heat pumps, or propulsion systems. Electromechanical systems that rely on molecular motion are known. For example, U.S. Pat. No. 4,152,537 (the �'537 patent�), describes an electricity generator that produces electrical energy from the random movement of molecules in a gas, and the uneven distribution of thermal energy in different molecules of the gas, which is at an overall uniform temperature. Other such systems are described in, for example, U.S. Pat. Nos. 3,365,653; 3,495,101, 2,979,551; 3,609,593; 3,252,013 and 3,508,089. These systems produce electricity or devices driven by electricity, such as an oscillator, based on molecular motion and thermal energy. One problem common to all of these systems is the low level of output power when compared to the amount of power required to operate the systems. For example, such systems often require a certain amount of energy to maintain the systems at a constant overall temperature. While the '537 patent attempted to address some of the known deficiencies in such systems, the electricity generator described therein also suffers from similar deficiencies. For example, the '537 patent attempts to heat the thermocouple junction between two dissimilar materials by simply being in contact with a gas-molecule having an above-average speed. In addition, the '537 patent utilizes an array of electrical rectifiers (see, e.g., rectifier bridge 40 in Moreover, as the use of electronic devices continues to flourish, there is an ever increasing need to provide more efficient and/or quieter ways to cool the components that are typically the heart of such devices. For example, most personal computers include one or more fans that are required to maintain the temperature of the microprocessor within a certain operational range. These fans are often noisy; and often result in large quantities of dirty air being pulled through the computer from the air intakes. Accordingly, it is an object of the present invention to provide nanometer scale electromechanical systems that efficiently convert molecular-level energy into another form that can be used at a macroscopic scale. Another object of the present invention is to provide nanometer scale electromechanical systems that efficiently convert molecular-level heat energy into useful mechanical and/or electrical energy. A still further object of the present invention is to provide nanometer scale electromechanical systems that utilize molecular-level energy to create a pressure differential on a surface of an object to propel the object in a controllable direction. An even further object of the present invention is to provide nanometer scale electromechanical systems that utilize molecular-level energy to heat or cool an external substance. The nanometer scale electromechanical systems of the present invention efficiently convert molecular-level energy from one form into another form by reducing the velocity of the molecules within the working substance. These systems may include, for example, a heat engine that converts molecular-level heat energy into useful mechanical or electrical energy. Such systems may also include a heat pump that utilizes molecular-level energy to either heat or cool a substance. For example, a system of the present invention may be mounted to a microprocessor as the primary cooling device, so that little or no fans would be necessary. In addition, these systems may also include propulsion systems in which molecular-level energy is utilized to create a pressure differential on the surface of an object, thereby providing the ability to propel that object in a controllable direction. Nanometer scale electromechanical systems constructed in accordance with the present invention may include a large number of nanometer-sized objects, such as paddles, impact masses, and/or tubes, that are placed in a liquid or gas. These objects may be sized on the order of several nanometers per side, and may have a thickness on the order of about one or two nanometers. One side of the paddle is connected to a flexible, spring-like, attachment, that couples the paddles to a common base. Also attached to each paddle is some form of generator device, such as a piezoelectric, electromotive force or electrostatic generator, that converts random molecular motion into electrical, electromagnetic or thermal energy. The nanometer-sized paddles, in conjunction with an associated generator, reduce the speed of individual molecules which results in a reduction of thermal energy within the working fluid. The generated electrical energy may be converted back to thermal energy at a higher temperature than the working fluid and used to establish a temperature differential that is capable of performing useful work. Essentially, the paddles are configured to be immersed in a working substance. The paddles move in a random manner within the working substance due to variations in the thermal motion of the molecules of the working substance. This movement necessarily results from collisions between the molecules of the working substance and the paddles which are large enough to cause the paddles to oscillate. The kinetic energy from this oscillation may then be converted into electrical, electromagnetic or thermal energy by various methods, as described above. Nanometer scale electromechanical systems constructed in accordance with the present invention also provide components that efficiently collect and sum the outputs of the numerous paddles so that a useful electrical output is produced. For example, one embodiment of the present invention includes the use of an array of resistive elements, one for each paddle, that are in contact with one side of the thermocouple. The other side of the thermocouple is placed in thermal contact with something else that is at an ambient temperature (such as a gas or liquid). Each of the thermocouples produces an output (i.e., a DC current and voltage) that can be summed through a simple series connection to produce an output, depending on the number of paddles and configuration, on the order of several milliwatts. In one particular embodiment, a nanometer scale electromechanical system constructed in accordance with the present invention may include an array of nanotubes, such as tubes made of carbon, which are coupled between two plates of a capacitor. One of the tubes is physically connected to one plate of the capacitor, while the other end is free to move. The entire assembly is immersed in a fluid (i.e., a liquid or a gas). A voltage is applied to the capacitor (across the plates), which creates an electric field (�E�) that keeps the length of the tubes perpendicular to the surface of the capacitor plate. The �free� ends of the tubes, which are immersed in a working substance, move erratically due to collisions between the molecules of the working substance and the tubes, causing some of the tubes collide into each other. Kinetic energy of the colliding tubes, as well as other energy, may be converted for one or more useful purposes, as previously described. In another embodiment of the present invention, numerous nanotubes are connected at each end to an electrically and thermally conductive rail. Each of the tubes is installed such that there is slack, or bend, in the tube. The slack permits the tubes to vibrate in response to random pressure variations from surrounding fluid (gas or liquid). In this case, an external magnetic field (� Further features of the invention, its nature and various advantages will be more apparent from the accompanying drawings and the following detailed description of the preferred embodiments. The above and other objects and advantages of the present invention will be apparent upon consideration of the following detailed description, taken in conjunction with accompanying drawings, in which like reference characters refer to like parts throughout, and in which: Paddle 100 may be constructed, for example, from a substance such as carbon or silicon, although persons skilled in the art will appreciate that variations may be made in the fabrication materials of paddle 100 without departing from the spirit of the present invention. Moreover, paddle 100 can generally be manufactured using known semiconductor fabrication techniques such as sputtering, etching, photolithography, etc. In addition, each paddle 100 may be constructed to be about five nanometers on each side, and have a height of about one to two nanometers�this size being selected so that the effects of Brownian motion are large enough to overcome inertia of paddle 100 and the spring constant of restraining member 102. Persons skilled in the art will appreciate that the specific size of paddle 100 is not critical to the basic operation of the present invention, provided that paddle 100 is able to move in an irregular manner within the working substance as a result of random variations in the velocity of the working substance molecules that strike paddle 100. Also shown in The molecule is a molecule of the working substance of the system, which is preferably a fluid (i.e., a gas or a liquid), but may also be a solid. The fluid may be kept at atmospheric pressure or it may be kept at an elevated pressure, such as, for example a pressure in excess of about 15 PSI. As described above, the pressure of the working fluid may have an impact in the output provided by the system. Molecule 110 strikes paddle 100, thereby causing molecule 110 to experience a reduction in velocity. The reduction in velocity corresponds to a reduction in temperature of the working substance of the system. The reduction in velocity of molecule 110 is caused by paddle 100 in conjunction with device 104, which may be any one of a variety of devices without departing from the present invention. For example, device 104 may be a piezoelectric device, or it may be a electromotive force or electrostatic generator. In each instance, device 104 converts the energy of the impact mass, from the impact of molecule 110 into impact mass 100, into electrical energy that is output via leads 106. The amount of electrical energy output via leads 106, even under the most favorable conditions will be very small. For example, the output of paddle 100 may be on the order of about 10−12 watts, depending on the size of the device and various other factors. Accordingly, for the system to provide useful output power, such as, for example, a few microwatts, the system requires that millions of such paddles be fabricated, and that they be connected together in some fashion, so that the outputs of all, or substantially all, of them can be summed into a single output signal. If a million or so of paddles 100 were arranged together in an array (see, for example, Variations in molecular impacts on paddle 100 will cause an increase in the temperature of resistive element 112, which will then be converted into electrical energy by thermocouple 116 and output via leads 120. One advantage of the use of resistive elements is the fact that, because a resistive load is independent of current/polarity direction, there is no need for a rectifier associated with each paddle. Thus, in accordance with the present invention, even infinitesimal voltages produced by the impacts of molecules 110 on paddles 100 can be used to heat resistive elements to useful values. Each thermocouple in the array, in turn, produces an output having a DC voltage, and current if connected through an electrical load. All of these outputs can then be connected together in series to produce an output of at least several microwatts. If additional power is needed, numerous subassemblies of paddles could be coupled together in series. For example, if a given subassembly was formed to include an array of paddle assemblies in which each assembly occupied approximately one hundred square nanometers, a square centimeter assembly would include roughly one trillion paddle assemblies. Then, any number of the one square centimeter subassemblies could be coupled together in series or parallel to achieve the desired ratio of voltage and current. In addition, with a combined output on the order of approximately 700 mV, the output of each one square centimeter assembly could even be manipulated using conventional semiconductor switches. Thus, a given component could be fabricated by fabricating many one square centimeter assemblies next to each other on a thin, flexible sheet of material (such as aluminum) in a continuous process. The resultant sheets of material could then be cut up and rolled into a tube, similar to the fabrication process of some capacitors. Persons skilled in the art will appreciate that the electrical output of these devices per unit surface area is proportional to the pressure of the fluid, the average temperature of the fluid, the oscillation frequency of the paddle and the mass of the fluid molecules used (regardless of whether the fluid is a gas or a liquid). The output per unit area is inversely proportional to the size of the paddle and the density of the paddle material. Accordingly, by choosing a heavy molecule gas, such as xenon, or by using a fluid heavily laden with particulates, such as air laden with carbon molecules, and/or by immersing the paddles in the gas at elevated pressure, such as 100 times atmospheric pressure, the power output of the units can be increased by a factor of over 100, as compared with units operating in air at atmospheric pressure. The embodiment shown in The piezoelectric generators are each formed from a portion of piezoelectric material and a resistor assembly. Generator 324, for example, which is substantially similar to generators 304 and 344, is illustrated to show the division between piezoelectric material 326 and resistor assembly 328. However, the division between the piezoelectric portion and the resistor assembly may also be observed in Resistor assemblies 308, 328 and 348 are each connected to two wires that are made from different material. For example, each of wires 307, 327 and 347 are made from one material, while wires 309, 329 and 349 are all made from a different material. The other end of all of the wires are connected to a series of heat sinks 360, which are themselves mechanically coupled to a substrate 370 (which may, for example, be a silicon substrate). It should be noted that paddle assemblies 302, 322 and 342 are only connected to substrate 370 at one end, generally referred to by reference number 380, so that, for example, the paddle assemblies may easily vibrate up and down. System 300 operates in accordance with the present invention as follows. The entire system is immersed in a fluid (i.e., a liquid or a gas) that is the working substance. Statistical variations in the velocity of working substance molecules that strike paddle 302, for example, cause the free end of paddle 302 to vibrate up and down. The up and down motion of paddle 302 causes strain in piezoelectric material 306, which generates a voltage between lower conductive outer layer 385 and upper conductive layer 387 of material 306. Outer conductive layers 385 and 387 of material 306 are in contact with resistor assembly 308, so that a current flows from material 306 through resistor 308 and back to material 306. The current through resistor 308 heats up the resistor, which is coupled to one side of the thermoelectric generator formed by wires 307 and 309 (which, as described above, are made from different materials). The other side of the thermoelectric generator (which may also be referred to as a thermocouple) is coupled to heat sinks 360, which are at a lower temperature. Persons skilled in the art will appreciate that other devices may be used, such as thermal to electric heat engines (such as, for example, a thermionic heat engine), rather than thermoelectric generators described herein, without departing from the spirit of the present invention. The temperature differential causes the thermoelectric generator to produce a voltage, which, as described more fully below, may be combined with the voltages from other paddle assemblies to provide a system output voltage. These voltages, in accordance with the present invention, may be coupled together in series to produce an electrical output at a useable level from system 300. The process of summing voltages from each paddle assembly is more particularly illustrated with respect to Persons skilled in the art will appreciate that, while system 300 has been described as a system that converts kinetic energy of the impact mass (resulting from the Brownian motion of the impact mass immersed in a working substance) to AC electrical energy to thermal energy and to DC electrical energy, system 300 may, with minor changes, directly produce DC electric energy as a result of this kinetic energy. In particular, it should be noted that movement of paddle 302 upward and then downward to its resting location generates a voltage of one polarity. Movement downward and then upward back to the resting location generates a voltage in the opposite polarity. Thus, in accordance with the present invention, paddles 302 can be substantially limited to moving between a neutral point (i.e., the resting location) and a single limit point (versus normal vibration that goes from a first limit point, through the neutral point to a second limit point and back). Accordingly, if paddle 302 were limited to �upward� movement by placing an object at location 303 (i.e., toward the free end of paddle 302), the output voltage would be limited to one polarity (essentially, pulsating DC). In such a configuration, the outputs of the piezoelectric generators (such as generator 304) could be directly coupled together in series, which would eliminate the need of, for example, resistor assembly 308, wires 307 and 309 and heat sinks 360, while still providing useful levels of electrical power without the need for rectification circuitry. As shown in System 400 operates in very much the same way as previously described for system 300. Statistical variation in gas pressure about paddles 402, 422 and 442 cause the free end of paddle 402 to vibrate up and down, thereby causing strain in the piezoelectric material, which generates a voltage on the conductive outer layers of the piezoelectric material. In system 400, however, the up and down motion of the paddles in system 400 may be enhanced by nanotubes 492, which cause additional molecular impacts. The outer conductive layers of the piezoelectric material are in contact with resistor assembly, so that a current flows, which heats up the resistor. The thermoelectric generator formed, for example, by wires 307 and 309 is between the heated resistor and the heat sinks 360, which are at a lower temperature. The temperature differential causes the thermoelectric generator to produce a voltage. In practice, nanometer scale electromechanical systems constructed accordance with the present invention may include a billion or more paddle assemblies on a single substrate. The output voltage across each pair of wires extending from each thermoelectric generator on a single substrate are, in accordance with the present invention, coupled together in series to provide a single output signal for the system. That output signal may have a voltage that may be on the order of a volt, depending on the number of individual components used and the specific fabrication techniques used to manufacture those components. The primary difference between systems 500 and 600, is that system 500 includes a load resistor 502 while system 600 does not. Persons skilled in the art will appreciate that, while load resistor 502 is shown as being mounted to substrate 370, it may be preferable to thermally isolate load resistor from the working fluid substrate 370 is immersed in so that heat dissipated by load resistor 502 does not affect the temperature of the working fluid. One end of each nanotube 702 is fixed to lower plate 706 of capacitor 708. The other end of each nanotube 702 is free to move. The entire assembly 700 is then typically immersed in a fluid (i.e., gas or liquid). Once a voltage V is applied from source 710 across the plates of capacitor 708, an electric field E is produced that creates a force that helps keep the length of nanotubes 702 oriented substantially perpendicular with the surface of capacitor plates 704 and 706. Statistical variations in the speed and direction of working fluid molecules which strike nanotubes 702 cause statistical variations in fluid pressure about nanotubes 702 which, in turn, cause nanotubes 702 to move erratically as illustrated in As shown in In addition, as illustrated in Assembly 1000 is configured such that the net charge of nanotubes 1002 in the assembly is zero, with half of the tubes including positive charges and the other half including negative charges. In this embodiment, as the charged molecules bounce against the nanotube walls and the other molecules within the nanotubes, an acceleration of charge results that generates electromagnetic waves which pass through the tube assembly to the surrounding space. As a result of the electromagnetic radiation, gas within nanotubes 1002 cools, which cools thermally conductive base 1004. In this instance, the reduced temperature of base 1004 may be utilized to cool a volume of fluid, or can be used as the �cold side� of a heat engine, as will be apparent to persons skilled in the art. It should be noted that various other nanometer members may be used in accordance with the present invention instead of the nanotubes described herein. For example, the principles of the present invention may be carried out using essentially any electrically conductive material that may be formed into very small fibers. This may include simple carbon fibers instead of nanotubes. The nanometer members shown in Attached to thermally conductive base 1108, in accordance with the principles of the present invention, is a thermal insulation material 1110 that covers at least a majority of the otherwise exposed portions of conductive base 1108. The use of insulation 1110 aides in the prevention of thermal energy losses. Moreover, persons skilled in the art will appreciate that similar insulation may be utilized in the previously described embodiments to further increase the efficiency of those systems and assemblies. An external magnetic field (shown as � Field E induces current �i� to flow that flows from one nanotube, down one rail, across the other nanotube, and up the other rail (which, while illustrated as a clockwise current, may be counterclockwise at some other point in time when the direction of the motion of the nanotubes changes, thereby producing AC current). The current flow through the nanotubes and rails causes resistive heating and causes heat to travel along the nanotubes and rails to conductive base 1108. Fluid (either gas or liquid) surrounding the nanotubes cools while base 1108 heats up, thereby establishing a temperature differential that may be used in a variety of ways (such as the heat pump, or heat engine previously described). Assembly 1300 also relies on an external magnetic field Assembly 1300 is configured such that the resistors 1304 are located below insulating layer 1310 and above thermally conductive sheet 1312. This results in directing most of the generated power and heat downward into assembly 1300, rather than up into the working fluid. Moreover, rather than using rails, assembly 1300 utilizes posts 1306, so that only a limited amount of surface area that is at an elevated temperature is exposed to the working fluid. Resistors 1304, posts 1306 and the resistor leads are electrically insulated from thermally conductive sheet 1312 by a thin layer of electrical insulation 1314 that is deposited on top of conductive layer 1312. Heat from resistor 1304 raises the temperature of thermally conductive sheet 1312. The bottom of conductive sheet 1312 is in thermal contact with a �HOT� portion 1330 of a thermoelectric generator 1334 (sheet 1312 is electrically insulated from hot portion 1330 via electrically insulating sheet 1316). A second thermally conductive sheet 1322 is in thermal contact with a �COLD� portion 1332 of a thermoelectric generator 1334 (while the two are electrically insulated by thin layer 1318). In this manner, generated heat is directed from resistors 1304 downward through assembly 1300 and out the bottom of lower layer 1322. Temperature differentials between the HOT and COLD portions (1330 and 1332, respectively) of thermoelectric generator 1334 create a DC voltage across each junction. By interconnecting a multitude of these junctions together in series, assembly 1300 may be used to provide a useable voltage which may be about at least 1 volt, as was previously described for the other embodiments. When assembly 1300 is used to drive a load, such that the load is connected in series to thermoelectric generator 1334, and the working fluid is being cooled or maintained within a predetermined temperature range, improved efficiency of the system will be obtained by keeping the load away from the working fluid so that dissipated power in the load does not affect the temperature of the working fluid. Moreover, as can be viewed most clearly in Operation of assembly 1300 is similar to assembly 1100, and is illustrated with respect to Persons skilled in the art should appreciate that, while it may appear that an individual thermoelectric generator portion is available for each individual nanotube 1302, is will likely be impractical and or prohibitively expensive to implement such a configuration. Thus, it may be more likely that, in accordance with the present invention, several, if not millions, of nanotubes 1302 will be thermally coupled to each individual portion of thermoelectric generator 1334. Sphere 1702 may be any three-dimensional object. Although a sphere is shown, other shapes such as a cube, cylinder, etc., may be used. The surface of sphere 1702 is covered with nanometer scale assemblies, such as a series of nanotubes, that are mounted to the surface with some slack, as described above with respect to Electromagnets 1704, 1706, 1708, 1710, 1712 and 1714 may be powered from, for example, a battery or some other source. In any case, external power is provided to electronics core 1716 that is then provided to the appropriate electromagnets, as described below. Assuming sphere 1702 is located in a fluid maintained at non-zero temperature, when one electromagnet is energized, such as electromagnet 1704, the resultant magnetic field 1718, along with the nanotube assembly, lowers the fluid pressure immediately above the surface. The reduced pressure causes sphere 1702 to move in direction 1720 (if the propulsion force is strong enough). If, for example, electromagnet 1710 is also energized, thereby establishing magnetic field 1722, a force 1724 also affects sphere 1702. In this instance, sphere 1702 would be propelled along a vector 45 degrees away from magnetic axes 1718 and 1722 (as shown by arrow 1726). By varying the current supplied to each of the electromagnets, the movement of sphere 1702 through a fluid can be controlled. From the foregoing description, persons skilled in the art will recognize that this invention provides nanometer scale electromechanical assemblies and systems that may be used to convert one form of energy to another. These assemblies and systems may be used to provide, for example, heat engines, heat pumps or propulsion devices. In addition, persons skilled in the art will appreciate that the various configurations described herein may be combined without departing from the present invention. For example, the nanotubes shown in Patent Citations
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Moviehouse One, our grand downstairs theatre, seats 440 people. The theatre features state-of-the-art film projection as well as a large stage ideal for panel discussions, Q&A's, and live performances.
Moviehouse Two used to be the balcony when the Coolidge was a one-theatre house. It is now a medium-size, 217-seat theatre featuring state-of-the-art film projection and audio, as well as a small stage ideal for director q&a's, small performances and group discussions.
The GoldScreen seats 14 in our plush deluxe seats and features high-definition digital projection
The Video Screening Room seats 45 and features high-definition digital projection.
Le Week-end
Opens Friday, March 28
1hr 33mins // directed by:Roger Michell // featuring:Jeff Goldblum, Jim Broadbent
Academy Award winner Jim Broadbent (Iris, Topsy-Turvy, Another Year) and Lindsay Duncan (About Time, Alice in Wonderland, Mansfield Park) give exquisite performances as Nick and Meg, a long-married British couple revisiting Paris for the first time since their honeymoon in an attempt to rekindle their relationship.
During a two-day escapade, diffident, wistful Nick and demanding, take-charge Meg careen from harmony to disharmony to resignation and back again as they take stock of half a lifetime of deep tenderness -- and even deeper regret. A surprise invitation from Nick's old friend Morgan (Jeff Goldblum), an amusingly eccentric American academic with a fancy Parisian address, soon leads them to an unexpectedly hopeful vision of what their love and marriage might still become.
This magically buoyant, bittersweet romantic comedy, starring two of Britain's national treasures, is a new peak in the ongoing collaboration between screenwriter Hanif Kureishi and director Roger Michell, following Venus and The Mother.
New York Magazine
"Unbelievably marvelous." — David Edelstein
The New York Times
"Critics' Pick." — A.O. Scott
Profile of lead actress Lindsay Duncan


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The Aérospatiale Puma is a four-bladed, twin-engined medium transport/utility helicopter. The Puma was originally manufactured by Sud Aviation of France under the designation SA.330.
The SA.330 Puma was originally developed by Sud Aviation to meet a requirement of the French Army for a medium-sized all-weather helicopter. The helicopter also had to be capable of operating by day and night as well as in a wide variety of climates.
In 1967, the Puma was also selected by the Royal Air Force (RAF) and given the designation Puma HC Mk.1. As a result of this decision, the SA 330 was included in a joint production agreement between Aerospatiale and Westland Helicopters of the UK.
The first of two Puma prototypes flew on 15 April 1965. Six pre-production models were also built, the last of which flew on 30 July 1968.
The first production SA 330 Puma flew in September 1968. Two years later, in 1970, Sud Aviation merged with Nord Aviation and SÉREB to form Aérospatiale, and the helicopter has been associated with that name ever since, though it still retained the "SA" (for "Sud Aviation") model designator. On 25 April 1978, the SA 330J Puma achieved the distinction of becoming the first helicopter outside the (then) Soviet Union to be certified for all-weather operations, including icy conditions.
Production of the SA 330 Puma by Aérospatiale ceased in 1987, by which time a total of 697 had been sold. The Puma was then replaced by an upgraded and improved version, the Eurocopter AS332 Super Puma.
Aérospatiale versions:
SA 330A Prototypes, originally called "Alouette IV".
SA 330B Initial production version for the French Army Aviation. Powered by 884 kW (1,185 hp) Turbomeca Turmo IIIC4 engines. 132 purchased by France.
SA 330 "Orchidée" SA 330 modified to carry an "Orchidée" battlefiled surveillance radar system with a rotating underfuselage antenna, for the French Army. One demonstrator was built, flying in 1986. The Orchidée programme was cancelled in 1990, but the prototype rushed back into service in 1991 to serve in the Gulf War, leading to production of a similar system based on the Eurocopter Cougar.
SA 330C Initial export production version. Powered by 1,044 kW (1,400 hp) Turmo IVB engines.
SA 330E Version produced by Westland Helicopters for the RAF under the designation Puma HC Mk. 1.
SA 330F Initial civilian export production version with Turbomeca Turmo IIIC4 turboshaft engines.
SA 330G Upgraded civilian version with 1175 kW (1,575 hp) Turbomeca Turmo IVC engines.
SA 330H Upgraded French Army and export version with Turbomeca IVC engines and composite main rotor blades. Designated SA 330Ba by the French Air Force. All surviving French Army SA 330Bs converted to this standard.
SA 330J Upgraded civil transport version with composite rotor blades and with higher maximum take-off weight.
SA 330L Upgraded version for so-called "hot and high" conditions. Military equivalent to civil SA 330J.
SA 330S Upgraded SA 330L (themselves converted from SA 330C) version for the Portuguese Air Force.Powered by Turbomeca Makila engines.
SA 330Z Prototype with "fenestron" tail rotor.
Versions by other manufacturers:
Atlas Aircraft Corporation Oryx This is a remanufactured and upgraded SA 330 Puma built for the South African Air Force.
IPTN NAS 330J This is a version that was assembled by IPTN of Indonesia under the local designation NAS 330J and the Aerospatiale designation of SA 330J. Eleven units were produced.
IAR 330 This is a licence-built version of the SA 330 Puma manufactured by Industria Aeronautică Română of Romania. Designated as the SA 330L by Aerospatiale.
IAR-330 Puma SOCAT 24 modified for antitank warfare.
IAR-330 Puma Naval 3 modified for the Romanian Navy, using the SOCAT avionics.
Westland Puma HC Mk.1 This is the SA 330E version assembled by Westland Helicopters for the RAF and first flown on 25 November 1970. This is basically similar to the SA 330B used by France. The RAF placed an initial order for 40 Pumas in 1967, with a further eight attrition replacement aircraft in 1979. 30 of these are planned to be upgraded to Puma HC Mk.2 standard, with new Turbomeca Makila engines, revised cockpit displays and new communications, navigation and defensive systems.
Military operators
Albania - Albanian Police Argentina Belgium - Federal Police (Belgium) Brazil Cambodia Cameroon Chile Côte d'Ivoire Ecuador Ethiopia France - French Army Gabon Gambia Guinea (1 helicopter) Indonesia Iran Kenya - Kenya Air Force, 9 in service in 2009 Kuwait - Kuwait Air Force Lebanon (10 helicopters pledged by UAE and to be delivered . Additionally 7 SA330L are currently in storage.) Malawi Mexico Morocco - Royal Moroccan Air Force Nepal Nigeria Pakistan - Pakistan Army Philippines - Philippine Air Force In active Service. Portugal - Portuguese Air Force Romania - Romanian Air Force - Romanian Navy Slovenia South Africa - South African Air Force: On the 31 January 1972 the SAAF Puma became involved with operations in Namibia and Angola, remaining involved until 1988. This first deployment to the Eastern Caprivi led to the first member of the SAAF to be awarded the Honoris Crux, one of several to be awarded to Puma crews. The Puma was to be involved in normal trooping, rapid deployment during "follow up" operations, radio relay, evacuation of casualties, rescuing downed aircrew, insertion of Special Forces (Ops Backlash and Kodak etc.) and large scale cross border operations such as Savannah, Uric, Protea, Super, Moduler etc. The Puma also saw action in Rhodesia, Zambia, Botswana and Mozambique. 13 Pumas were deployed and played a critical roles in the rescue efforts during the sinking of the MTS Oceanos Spain - Spanish Air Force Sudan Togo United Arab Emirates United Kingdom - Royal Air Force - The RAF ordered 48 Puma HC Mk 1 and in addition received a single ex-Argentine SA 330L captured in the Falklands War, and six ex-South African SA 330Ls purchased in 2002. - No. 18 Squadron RAF - No. 33 Squadron RAF - No. 230 Squadron RAF - No. 1563 Flight RAF Venezuela Zaire
Civil operators
Germany - Helog KG - SA 330J South Africa - Starlite Aviation - SA 330J United States - Evergreen Aviation - SA 330J
Specifications (SA 330H Puma)
General characteristics Crew: 3 Capacity: 16 passengers Length: 18.15 m (59 ft 6½ in) Rotor diameter: 15.00 m (49 ft 2½ in) Height: 5.14 m (16 ft 10½ in) Disc area: 177.0 m² (1,905 ft²) Empty weight: 3,536 kg (7,795 lb) Max takeoff weight: 7,000 kg (15,430 lb) Powerplant: 2× Turboméca Turmo IVC turboshafts, 1,175 kW (1,575 hp) each
Performance Never exceed speed: 273 km/h (147 knots, 169 mph) Maximum speed: 257 km/h (138 knots, 159 mph) Cruise speed: 248 km/h (134 knots, 154 mph) econ cruise Range: 580 km (313 nm, 360 mi) Service ceiling: 4,800 m (15,750 ft) Rate of climb: 7.1 m/s (1,400 ft/min)
Armament Guns: Coaxial 7.62 mm (0.30 in) machine guns Side-firing 20 mm (0.787 in) cannon Various others
Popular culture
In Red Dawn (1984) and most notably Rambo: First Blood Part II (1985) and Rambo III (1988), an SA-330 Puma was equipped with stub wings and a gun turret to mimic a Soviet Mil Mi-24 Hind.


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This summer saw a number of fashion-related titles published from both University and traditional Trade publishing houses. Here's a quick round-up of some of those titles you might want to add to your fall reading list: The Sky Blue Stone: The Turquoise Trade in World History by Arash Khazeni (UC Press, May 2014) This book […]
Heather (Vaughan) Lee
A writer and historian, whose work focuses on the study of dress in the late 19th through the 20th century. Covering a range of topics and perspectives in dress history, she is primarily known for her research on designer Natacha Rambova, American fashion history, and the history of knitting in America.Follow Me
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Shaving Cream Clean-Ups
Shaving cream will remove pencil and pen marks from desk tops. I put shaving cream on each child's desk and then we do some form of leaning activity with the cream. For example, I ask students to draw a picture that illustrates a certain fraction or geometric shape or they write their spelling words. The inexpensive kind works just as well as the expensive kind.


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To avoid the pitfalls endemic to online community projects, the technology evaluation process must never lose sight of overall goals of the initiative and how the platform will create value and connections for proposed participants. Doing so requires an iterative process to derive user scenarios and functional requirements, against which supporting technologies can be vetted. The diagram below shows a workflow for a community platform evaluation:
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COLUMBIA — In the first quarter of the year, 72 incidents prompted a mandatory review of police officer conduct, and 45 of those incidents involved the use of force.
The Columbia Police Department released those numbers in a quarterly report completed by its Professional Standards Division. A copy of the release is available at the department website.
Of 38,564 interactions with the public from January to March, police made 1,873 arrests, about 500 more arrests than the previous year.
Officers used pepper spray less often this the quarter, but used Tasers more often when compared to this time last year.
In the first quarter of 2010, officers drew their Tasers 15 times but fired them only seven times. In one of those incidents, the officer also used the Taser's "drive stun" mode, which is when a Taser is used to shock a suspect without deploying the probes. The other six times the officers used probe deployment mode, which allows an officer to shock suspects from a distance.
In eight incidents, officers threatened to use the Taser with its laser sight or by showing the electric arc between the two probes.
Sgt. Lloyd Simons of the Internal Affairs Unit said officers use the threats to end an incident without having to actually deploy the Taser.
"That's our goal. We don't want to use force, but at times we're going to have to," Simons said.
Officers used Tasers nine times in the first quarter of 2009, seven of which involved probe deployment or "drive stun", and twice as a threat.
In the first quarter of 2009, officers used pepper spray 33 times compared to only 15 uses in the first quarter of 2010.
The press release states there were 13 uses of firearms, two of which were ruled improper. Simons said the two improper uses were "accidental discharges." The majority of the firearm uses involved the killing of animals who had been injured, typically deer.
Police officers were also involved in 12 motor vehicle accidents, seven of which were deemed improper. Public Information Officer Jessie Haden said this number is not unusual.
"Your car is your office, and sometimes that can be a lot to assimilate," she said.
Haden said the accidents are usually minor, but an improper accident is defined as preventable. She said any accident involving Columbia police officers requires a supervisor to work the scene, then shift the investigation to Internal Affairs.
Simons said he doesn't recall any major accidents or injuries from the past quarter.
Additionally, 27 people filed formal complaints against an officer. Four of these complaints were sustained, and seven are still pending.
The punishment for these improper behavior can range from an informal memo to suspension without pay or termination, Simons said. He said he didn't know how officers were punished in the four sustained complaints.


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Washington Department of Fish & Wildlife Volunteer Program
Christine Redmond Volunteer Program Manager firstname.lastname@example.com 360-902-8303
Volunteer Opportunities
St. Helens Land Access Program
Thank you for your interest in the St Helens Land Access Program. There are no days scheduled for the current season, 2014-2015, or future seasons.
This is due to hunting access policy changes implemented on Weyerhaeuser's St Helens Tree Farm.
WDFW would like to thank all of the volunteers of this program for donating thousands of hours and making this program a success in providing weekday hunting access on the St. Helens Tree Farm for the past 7 years.
Check the Volunteer Opportunities page frequently for other volunteer events upcoming in Region 5!
About WDFW
Wildlife Viewing
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© 2015 Washington Department of Fish and Wildlife E-mail: email@example.com Privacy Statement
Fish Washington
Private Lands Hunting Access
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Report a Violation
WDFW Image Gallery
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Win FREE tickets to the Simply Zesty winter camp!
November 26, 2009 9:00 am | to | December 1, 2009 2:00 pm |
Hi guys,
The Simply Zesty team kindly offered Bloggertone 2 FREE tickets to their Winter Camp next Wednesday the second!!
Several entrepreneurs and professionals from Facebook and Google will be sharing the best of the web with you! Fantastic learning opportunity.
What do you need to do?
On Twitter, suggest the Bloggertone Facebook page to a friend that is not a fan yet and once he/she fans us, YOU AND YOUR FRIEND ARE IN FOR THE TICKETS!!
Here's the message you need to enter on Twitter:
Hi @…….. Fan Bloggertone http://bit.ly/7cnc92 and we'll both enter the draw to win two tickets for the Simply Zesty Winter Camp
Well be doing the "VIDEO draw" (as last time) on Tuesday, December 1st at 2PM so hurry up and good luck!!
And the winners are…
Fred and the Bloggertone Team


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Get the Best Priced Mitsubishi Outlander Cabin Filter
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Mitsubishi Outlander Replacement Cabin Filter Information
The people who like vehicles that are made to be tough are those who know how to have fun at all times. By driving a vehicle like the Mitsubishi Outlander you can show the driver's style everywhere you decide to venture. Precision concept and construction are characteristic of Mitsubishi products. Mitsubishi is a longstanding creator of reliable cars that combine economical expense with a comfortable ride feel. Experience comfort wherever you go when you opt to buy a Mitsubishi Outlander, a car that gives anyone in the vehicle comfort even if you have lots of cargo. Don't forget that when you own a rugged style of vehicle, it's not unheard of to cause damage when traveling off the beaten path and replacement parts can be expensive on a type of car such as the Mitsubishi Outlander. Although as a general rule, performance vehicles, such as a Mitsubishi Outlander and similar cars, aren't known for being gas savers they look great on the road. When gas saving capabilities and reliability are required for your driving habits, vehicle owners trust vehicles designed by Mitsubishi. A timeless Mitsubishi automobile is a delight to drive and has the ability to emit endless interest and fascination. Commuting in stormy climates over rough highways can be safer with modern equipment designed for greater security. Highway driving really shouldn't have to be unpleasant, because the most high-quality parts are made to accentuate your comfort. To avoid outdoor environment pollutants, Mitsubishi Outlander Cabin Filters must be changed regularly so as to ensure clean air constantly. Mitsubishi Outlander Cabin Filters operate to clean the air traveling inside your vehicle interior each time the car's inside air cooling process is working. Mitsubishi Outlander Cabin Filters are especially crucial for those who suffer with asthma and breathing difficulties. A cotton Mitsubishi Outlander Cabin Filter helps to keep microscopic elements out of your automobile's ventilation system. You and your passengers spend days at a time in your car or truck - Mitsubishi Outlander Cabin Filters improve the quality of air and the comfort of your commute.
They are available for the following Mitsubishi Outlander years: 2014, 2013, 2012, 2011, 2010, 2009, 2008, 2007, 2006, 2005, 2004, 14, 13, 12, 11, 10, 09, 08, 07, 06, 05, 04. This part is also sometimes called Mitsubishi Outlander Cabin Air Filters. We stock cabin filter parts for most Mitsubishi models including Lancer, Galant, Eclipse, Outlander Sport, Endeavor and RVR.
We stock these Cabin Filter brands for the Mitsubishi Outlander: NPN, Bosch, Fram, WIX and Beck Arnley.
14 2014 Mitsubishi Outlander Air Filter NPN
13 2013 Mitsubishi Outlander Air Mass Sensor Mitsubishi Electric
05 2005 Mitsubishi Outlander EGR Valve Standard Motor Products
I am very pleased with this filter. it was an exact fit just like the picture and it works beautifully. thank you Parts Geek.
What can I say. I placed my order one morning and got it the next day at half the price of the local chain store. Same high quality part.
The Bosch cabin airfilters for our Mitsubishi Outlander arrived on time, and fit perfectly in the holder.


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Well looks like Hollywood has lost another very good tough guy actor. Jack Palance has died at 87. He won an Oscar for his role in "City Slickers" I personally remember him as a kid back in the early 1980's when he hosted TV's "Ripleys Believe it or Not". Most people will remember his numerous western role.s http://www.cnn.com/2006/SHOWBIZ/Movies/11/10/palance.death/index.html
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