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Marc Patton

PAEMST » Home - 1 views

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    The Presidential Awards for Excellence in Mathematics and Science Teaching are the Nation's highest honors for teachers of mathematics and science.
Steve Kelly

What would an exceptional middle and high school computer science curriculum include? -... - 48 views

  • What would an exceptional middle and high school computer science curriculum include?
  • This isn't a complete answer, but one thing the very first introductory classes should require is that the students turn off all their electronic computers and actually learn to walk through  algorithms with a computer that exists only on paper. (Or, I suppose, a whiteboard or a simulator.) This exercise would give the students a grounding in what is going on inside the computer as a very low level.My first computer programming class in my Freshman year of high school was completely on paper. Although it was done because the school didn't have much money, it turned out to be very beneficial.Another class I had in high school, that wouldn't normally be lumped into a Computer Science curriculum but has been a boon to my career, was good old Typing 101.
  • If you followed the CS Unplugged curriculum your students would know more about CS than most CS grads:http://csunplugged.orgIt's a really great intro to basic computer science concepts and very easy for students to understand.  Best of all you don't even need a computer per student if your school doesn't have the budget,
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  • For younger students, I think that the ability to make something professional-looking, like a real grown-up would, is paramount.  Sadly, I think this means that LOGO and BASIC aren't much use any more*.
  • So, we have a few choices.  You can try to write phone apps that look just like real phone apps, design interactive websites that look just like real interactive websites, or do something with embedded systems / robotics.  Avoid the temptation to make these things into group projects; the main thing every student needs to experience is the process of writing code, running it, debugging it, and watching the machine react to every command.
  • It is important to consider what an 11 to 18-year old is familiar with in terms of mathematics and logical thinking. An average 11-year old is probably learning about fractions, simple cartesian geometry, the concept of units, and mathematical expressions. By 15, the average student will be taking algebra, and hopefully will have the all-important concept of variables under his/her belt. So much in CS is dependent on solid understanding that symbols and tokens can represent abstract concepts, values, or algorithms. Without it, it's still possible to teach CS, but it must be done in a very different way (see Scratch).
  • At this point, concepts such as variables, parenthesis matching, and functions (of the mathematical variety) are within easy reach. Concepts like parameter passing, strings and collections, and program flow should be teachable. More advanced concepts such as recursion, references and pointers, certain data structures, and big-O may be very difficult to teach without first going through some more foundational math.
  • I tend to agree strongly with those that believe a foundational education should inspire interest and enforce concepts and critical thinking over teaching any specific language, framework, system, or dogma.
  • The key is that the concepts in CS aren't just there for the hell of it. Everything was motivated by a real problem, and few things are more satisfying than fixing something you really want to work with a cool technique or concept you just learned.
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    Great resource for teachers (especially those of us not initially trained in Computer Science) about what should 'count' as Computer Science.  Worth the read!
Marc Patton

SIAM: Society for Industrial and Applied Mathematics - 0 views

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    Welcome to SIAM! Applied mathematics, in partnership with computational science, is essential in solving many real-world problems. Our mission is to build cooperation between mathematics and the worlds of science and technology through our publications, research, and community.
Marc Patton

Courses | NJCTL - 31 views

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    All the digital materials needed to teach over twenty courses in Mathematics and Science are available for the free use by any student or teacher. These courses are part of the Progressive Mathematics Initiative (PMI) and Progressive Science Initiative (PSI).
Roland Gesthuizen

Engineering the Perfect Poem by Using the Vocabulary of STEM - ReadWriteThink - 7 views

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    "Engineering is the "silent E" in STEM subject areas. While science, mathematics, and technology are often topics of content area lessons, engineering is often ignored. However, engineering is inclusive of all STEM subjects because engineers use science, mathematics, and technology to solve problems. Engineering careers are diverse, spanning many different technologies and disciplines, such as agricultural engineering, aerospace engineering, computer engineering, mechanical engineering, and chemical engineering."
Marc Patton

Cash Grants for Science and Math Programs from Intel Corporation - 0 views

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    Every year, Intel honors U.S. schools demonstrating excellence in math and science education through innovative teaching and learning environments. To be considered as an Intel School of Distinction, schools must develop an environment and curricula that meet or exceed benchmarks put forth by national mathematics and science content standards.
Marita Thomson

Quantum Victoria | A Centre of Excellence & Innovation in Science & Mathematics - 78 views

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    Quantum Victoria will deliver an online professional development module that will equip teachers with the skills and tools necessary for teaching in 21st century learning environments. This embedded professional development opportunity will focus primarily on project-based learning (PBL) and the effective integration of ICT in the areas of science, technology, engineering and mathematics. ... [more]
Michele Brown

Gooru - 71 views

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    A Free Search Engine for Learning. Millions of resources for 5th-12th grade science, math and social science courses at our fingertips. Find videos, games, worksheets and more aligned to Common Core Standards for Mathematics and California Science Curriculum Standards
Gareth Jones

Looking in the Wrong Places | Edge.org - 5 views

  • We should be very careful in thinking about whether we’re working on the right problems. If we don’t, that ties into the problem that we don’t have experimental evidence that could move us forward. We're trying to develop theories that we use to find out which are good experiments to make, and these are the experiments that we build.   We build particle detectors and try to find dark matter; we build larger colliders in the hope of producing new particles; we shoot satellites into orbit and try to look back into the early universe, and we do that because we hope there’s something new to find there. We think there is because we have some idea from the theories that we’ve been working on that this would be something good to probe. If we are working with the wrong theories, we are making the wrong extrapolations, we have the wrong expectations, we make the wrong experiments, and then we don’t get any new data. We have no guidance to develop these theories. So, it’s a chicken and egg problem. We have to break the cycle. I don’t have a miracle cure to these problems. These are hard problems. It’s not clear what a good theory is to develop. I’m not any wiser than all the other 20,000 people in the field.
  • I’m still asking myself the same question that I asked myself ten years ago: "What is going on in my community?" I work in the foundations of physics, and I see a lot of strange things happening there. When I look at the papers that are being published, many of them seem to be produced simply because papers have to be produced. They don’t move us forward in any significant way. I get the impression that people are working on them not so much because it’s what they’re interested in but because they have to produce outcomes in a short amount of time. They sit on short-term positions and have short-term contracts, and papers must be produced.
  • The field that I mostly work in is the foundations of physics, which is, roughly speaking, composed of cosmology, the foundations of quantum mechanics, high-energy particle physics, and quantum gravity. It’s a peculiar field because there hasn’t been new data for almost four decades, since we established the Standard Model of particle physics. There has been, of course, the Higgs particle that was discovered at the LHC in 2012, and there have been some additions to the Standard Model, but there has not been a great new paradigm change, as Kuhn would have put it. We’re still using the same techniques, and we’re still working with the same theories as we did in the 1970s.
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  • That makes this field of science rather peculiar and probably explains why there hasn’t been much progress. But it’s not like we don’t have any questions that need to be answered. There are a lot of questions that have been around for decades. For example, what is dark energy? What is dark matter? What are the masses of the Standard Model particles? And what’s up with the foundation of quantum mechanics? Is a theory that's fundamentally not deterministic, where we cannot predict outcomes, the last word that we have, or is there something more to it? Is there maybe another underlying structure to reality?
  • but we haven't reached the fundamental level. Maybe we will never reach it. Certainly, the theories that we have right now are not all there is. The question is, of course, if we don’t have any guidance by experiment, how do we make progress? And are we doing the right thing?
  • We’ve reached this point where we have to carefully rethink if the criteria that we’re using to select our theories are promising at all. If one looks at the history of this field in the foundations of physics, progress has usually been made by looking at questions that, at least in hindsight, were well posed, where there was an actual mathematical contradiction. For example, special relativity is incompatible with Newtonian gravity. If you try to resolve this incompatibility, you get general relativity.
  • There are various similar examples where such breakthroughs have happened because there was a real problem. There was an inconsistency and people had to resolve it. It had nothing to do with beauty. Maybe beauty was, in some cases, the personal motivation of the people to work on it. There’s certainly some truth to this, but I don’t think it’s good to turn this story around and say that if we only pay attention to this motivation that comes from ideals of beauty it will lead to progress.
  • If we are working with the wrong theories, we are making the wrong extrapolations, we have the wrong expectations, we make the wrong experiments, and then we don’t get any new data. We have no guidance to develop these theories. So, it’s a chicken and egg problem. We have to break the cycle. I don’t have a miracle cure to these problems. These are hard problems. It’s not clear what a good theory is to develop. I’m not any wiser than all the other 20,000 people in the field.
  • The way that research is funded in foundations of physics and in many other fields just puts a lot of things at a disadvantage that are not pursued anymore. Typically, everything that takes longer than three years to complete, no one will start it because they can’t afford it. They can literally not afford it.
  • Who makes the decisions about the funding? Superficially, people say that it's a funding agency, so it’s the university who get to hire people. But that puts the blame on the wrong party. In the end it’s the community itself who makes the decisions. What do the funding agencies do if they get a proposal? They send it to reviewers. And who are the reviewers? They're people from the same community. If you look at how hiring decisions are being made, there’s some committee and they are people from the same community. They have some advisory boards or something, which contains people from the same community.
  • Even if that wasn’t so, what the people in these committees would be doing is looking at easy measures for scientific success. Presently, the most popular of these measures are the number of publications and the number of citations. And maybe also whether the person has published in high-impact journals. So, these are the typical measures that are presently being used. But what do they measure? They primarily measure popularity. They indicate whether somebody’s research is well received by a lot of people in the same community. And that’s why once a research area grows beyond a certain critical mass, you have sufficiently many people who tell each other that what they’re doing is the good thing to do. They review each other’s papers and say that that’s great and it's what we should continue to do. It’s a problem in all communities that grow beyond a certain size.
  • I later came to the United States and then Canada, and that gave me the opportunity to learn a lot about quantum gravity. I also figured out that much of what goes on in quantum gravity is very detached from reality. It’s pretty much only mathematics. Yes, the mathematics is there, but I still don’t know if it’s the mathematics that describes reality.
  • That’s the very reason why we don’t normally think of gravity as a weak force. It’s the only force that is left over on long distances, and the reason for this is that it adds up. It gets stronger the more mass you pile up. More precisely, we should say that the reason we find it so hard to measure quantum gravitational effects is that we either have a particle that has very pronounced quantum properties, like, say, a single electron or something like that, but then it’s so light that we cannot measure the gravitational field. Or we have some object that is so heavy that we can measure the gravitational field, but then it doesn’t have quantum properties. Okay, so that’s the actual problem.
Marc Patton

Ohio Resource Center - 1 views

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    ORC enhances teaching and learning by promoting standards-based best practices in mathematics, science, and reading for Ohio schools and universities.
Roland O'Daniel

STEM Planet | - 77 views

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    Great resource for STEM topics that are up to date, short, contain data and information. Highly suggested for mathematics and science teachers.
Marc Patton

The Center for Innovation in Engineering and Science Education - 0 views

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    To catalyze and support excellence in teaching and learning of science, technology, engineering, mathematics (STEM) and other core subjects through innovative, research-based instructional strategies and use of novel technologies.
davidlosaus

BBC News - Mathematics: Why the brain sees maths as beauty - 40 views

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    "Mathematics: Why the brain sees maths as beauty"
Marc Patton

Office of STEM Education Partnerships - 37 views

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    Connecting K-12 students & teachers with the world-class science, technology, engineering and mathematics resources of Northwestern University
Sheri Edwards

NASA - Do-It-Youself Podcast - 2 views

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    Are you looking for a new approach to engage your students in science, technology, engineering and mathematics? NASA's Do-It-Yourself Podcast activity sets the stage for students to host a show...
Martin Burrett

EarthEcho Expeditions: What's the Catch? - 5 views

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    "Teachers in England are being invited to join a professional development opportunity through EarthEcho International sponsored by the Northrop Grumman Foundation. The 'EarthEcho Expeditions: What's the Catch?' programme leverages the rich Cousteau legacy of exploration and discovery to bring Science, Technology, Engineering and Mathematics (STEM) education alive for today's 21st-century learners and their educators. The free, expenses-paid opportunity is planned to allow secondary school teachers to participate as Expedition Fellows to learn first-hand from scientists and engineers the consequences of fisheries mismanagement and how this can be changed for the better with new technological approaches and discoveries."
Martin Burrett

STEM across the school - 12 views

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    "The importance of offering a broad curriculum within the school system cannot be over-stated, allowing students to explore a range of topics that spark their interest, and potentially inspire them to follow a career path that can have a positive impact on their lives, society and the environment. STEM activities (built around Science, Technology, Engineering and Mathematics) offer a broad range of opportunities, opening up the potential of enquiry based learning that is relevant to the world we live in. Many education systems globally place a great emphasis on a STEM curriculum for all students, no matter of age, race, gender or ability, but what STEM based activities work best in your setting, helping students see the world differently, and potentially inspiring to enter STEM careers of the future?"
Mark Gleeson

cognitive acceleration | DEVELOPING CHILDREN'S THINKING - 46 views

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    Welcome to the Let's Think (Cognitive Acceleration) website. The Let's Think project draws on over 25 years of research by academics and teacher practitioners. It offers a fresh approach to teaching English, Mathematics, Science (and other subjects) that has a proven impact on students' development as thinkers. Let's Think has several published resources from Foundation Stage to KS3 in a range of curriculum areas.
Bob Rowan

Technology Student Association - 39 views

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    Mission: Leadership and opportunities in technology, innovation, design and engineering. Members apply STEM (science, technology, engineering and mathematics) concepts through co-curricular programs. Suggested by Deb Rottinger, 5/11/2012
Marc Patton

The RGK Foundation - 0 views

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    The Foundation's primary interests within Education include programs that focus on formal K-12 education (particularly mathematics, science and reading), teacher development, literacy, and higher education.
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