Schlagwort: citizen science

  • Help medical research with folding@home

    Help medical research with folding@home

    Reading Time: 3 minutes

    Did you know: the first machine to break the exaflop barrier (one quintillion floating‑point operations per second) wasn’t a huge dedicated IBM supercomputer, but a bunch of interconnected PCs with ordinary CPUs and gaming GPUs.

    With that in mind, welcome to the [email protected] project, which is targeting its enormous power at COVID-19 research. It’s effectively the world’s fastest supercomputer, and your PC can be a part of it.

    COVID-19

    The [email protected] project is now targeting COVID-19 research

    Put simply, [email protected] runs hugely complicated simulations of protein molecules for medical research. They would usually take hundreds of years for a typical computer to process. However, by breaking them up into smaller work units, and farming them out to thousands of independent machines on the Internet, it’s possible to run simulations that would be impossible to run experimentally.

    Back in 2004, Custom PC magazine started its own [email protected] team. The team is currently sitting at number 12 on the world leaderboard and we’re still going strong. If you have a PC, you can join us (or indeed any [email protected] team) and put your spare clock cycles towards COVID-19 research.

    Get folding

    Getting your machine folding is simple. First, download the client. Your username can be whatever you like, and you’ll need to put in team number 35947 to fold for the Custom PC & bit-tech team. If you want your PC to work on COVID-19 research, select ‘COVID-19’ in the ‘I support research finding’ pulldown menu.

    Set your username and team number

    Enter team number 35947 to fold for the Custom PC & bit-tech team

    You’ll get the most points per Watt from GPU folding, but your CPU can also perform valuable research that can’t be done on your GPU. ‘There are actually some things we can do on CPUs that we can’t do on GPUs,’ said Professor Greg Bowman, Director of [email protected], speaking to Custom PC in the latest issue.

    ‘With the current pandemic in mind, one of the things we’re doing is what are called “free energy calculations”. We’re simulating proteins with small molecules that we think might be useful starting points for developing therapeutics, for example.’

    Select COVID-19 from the pulldown menu

    If you want your PC to work on COVID-19 research, select ‘COVID-19’ in the ‘I support research finding’ pulldown menu

    Bear in mind that enabling folding on your machine will increase power consumption. For reference, we set up folding on a Ryzen 7 2700X rig with a GeForce GTX 1070 Ti. The machine consumes around 70W when idle. That figure increases to 214W when folding on the CPU and around 320W when folding on the GPU as well. If you fold a lot, you’ll see an increase in your electricity bill, so keep an eye on it.

    Folding on Arm?

    Could we also see [email protected] running on Arm machines, such as Raspberry Pi? ‘Oh I would love to have [email protected] running on Arm,’ says Bowman. ‘I mean they’re used in Raspberry Pis and lots of phones, so I think this would be a great future direction. We’re actually in contact with some folks to explore getting [email protected] running on Arm in the near future.’

    In the meantime, you can still recruit your Raspberry Pi for the cause by participating in [email protected], a similar project also working to help the fight against COVID-19. For more information, visit the [email protected] website.

    You’ll also find a full feature about [email protected] and its COVID-19 research in Issue 202 of Custom PC, available from the Raspberry Pi Press online store.

    Website: LINK

  • Citizen science traffic monitoring with Raspberry Pi

    Citizen science traffic monitoring with Raspberry Pi

    Reading Time: 2 minutes

    Homes in Madrid, Dublin, Cardiff, Ljubljana, and Leuven are participating in the Citizens Observing UrbaN Transport (WeCount) project, a European Commission–funded research project investigating sustainable economic growth.

    1,500 Raspberry Pi traffic sensors will be distributed to homes in the five cities to gather data on traffic conditions. Every hour, the devices will upload information to publically accessible cloud storage. The team behind WeCount says:

    Following this approach, we will be able to quantify local road transport (cars, heavy goods vehicles, active travel modes, and speed), produce scientific knowledge in the field of mobility and environmental pollution, and co-design informed solutions to tackle a variety of road transport challenges.

    “With air pollution being blamed for 500,000 premature deaths across the continent in 2018,” states a BBC News article about the project, “the experts running the survey hope their results can be used to make cities healthier places to live.” Says the WeCount team:

    [T]he project will provide cost-effective data for local authorities, at a far greater temporal and spatial scale than what would be possible in classic traffic counting campaigns, thereby opening up new opportunities for transportation policy making and research.

    Find more information about the WeCount project on the BBC News website and on the the CORDIS website.

    Raspberry Pi makes the ideal brain

    The small form factor and low cost of Raspberry Pi mean it’s the ideal brain for citizen science projects across the globe, including our own Raspberry Pi Oracle Weather Station.

    Build Your Own weather station kit assembled

    While the original Oracle Weather Station programme involved only school groups from across the world, we’ve published freely accessible online guides to building your own Raspberry Pi weather station, and to uploading weather data to the Initial State platform.

    Penguin Watch

    Another wonderful Raspberry Pi–powered citizen science project is Penguin Watch, which asks the public to, you guessed it, watch penguins. Time-lapse footage — obtained in the Antarctic by Raspberry Pi Camera Modules connected to Raspberry Pi Zeros — is uploaded to the Penguin Watch website, and anyone in the world can go online to highlight penguins in the footage, helping the research team to monitor the penguin population in these locations.

    Setting up. Credit: Alasdair Davies, ZSL

    Penguin Watch is highly addictive and it’s for a great cause, so be sure to check it out.

    Website: LINK

  • Exploring the interface of ecology, mathematics, and digital making | Hello World #11

    Exploring the interface of ecology, mathematics, and digital making | Hello World #11

    Reading Time: 5 minutes

    In Hello World issue 11, Pen Holland and Sarah Wyse discuss how educators and students can get closer to the natural world while honing maths and computing skills. Using a Raspberry Pi, you too can join this citizen science collaboration.

    Connectedness to nature as measured by the Nature Connection Index is currently the lowest in young people aged 16-24, with everyone aged 8-34 reporting lower connectedness, compared to the 35+ age groups.

    Although there is some positive correlation between individuals living in the same households, parents are now less likely to raise their children where they grew up themselves, and as such they may be less knowledgeable about local species. Connecting with nature does not have to mean a trip out into the wilds: urban ecology is increasingly popular in research, and even the most determined of city dwellers is likely to pass a municipal tree or two during their day.

    The positive association between connectedness to nature and wellbeing should encourage us all to appreciate and explore our local environments. However, being at one with the natural world doesn’t preclude an abundance of enjoyable science and technology. For example, the authors’ overriding memory of GCSE maths involves triangles – a lot of triangles – combined with frequent musings over how this could possibly ever be useful in the real world. Fast forward 20 years, and we’ve spent more time than we’d like to count surrounded by triangles, chanting ‘SOH CAH TOA’ in the name of ecology.

    Calculating the terminal velocity of winged seeds

    The Seed Eater project arose from research into how fast winged seeds (samaras) fall, in order to predict how far they might travel across a landscape, and hence understand how quickly populations of invasive trees might spread. In the past, ecologists have measured the terminal velocity of seeds using stopwatches and lasers, but stopwatches are inaccurate, and lasers are expensive.

    Timestamped images in which the seed appears tell us the time taken for it to fall through the field of view (A). The distance at which the seed lands from the wall (B) and the viewing angle of the camera (C) are used to calculate distance travelled by the seed while in view. Finally, the speed at which the seed is travelling can be calculated as distance/time.

    Enter stage left, Pieter the Seed Eater; a low-cost device fitted with a Raspberry Pi computer and camera that captures a sequence of images, assesses which timestamped images contain a falling seed, and then calculates how far the seed fell, and hence how fast it was travelling.

    Pieter the Seed Eater was introduced in issue 10 of Hello World, and if you missed that, you can download a free PDF copy of the magazine from the website.

    Pieter the Seed Eater was designed to measure the terminal velocity of pine (Pinus species) seeds from invasive trees in New Zealand, with a particular interest in the variation in falling speeds among seeds from the same cones, between different cones on the same tree, between trees in the same population, and between populations across the landscape. His diet is now expanding to take in a whole range of pine species, but there are many other species of tree around the world that also have winged seeds, in a variety of fascinating shapes.

    Introducing teaching resources

    To help emphasise the connections between nature and STEM, and because Pieter doesn’t have time to eat all the seeds, we are making cross-curricular resources available to support teaching activities. These range from tree identification and seed collection, through seed dispersal experiments and Seed Eater engineering, to terminal velocity measurements and understanding population spread.

    There are several ways to measure tree height, which can be a stimulating discussion and activity. Fire arrows attached to string over high branches, go exploring on Google street view, or use trigonometry, making measurements in a variety of simple or sophisticated ways. Are they all equally accurate? Would they all work on isolated trees and in a dense forest?

    These draw on links from elsewhere (for example, the tree identification keys provided by the Natural History Museum, and helicopter seed templates hosted by STEM Learning UK), as well as new material designed specifically for Pieter the Seed Eater, and more general cross-curricular activities related to ecology. In addition, participants can contribute their data to an online database and explore questions about their data using visualisation tools for dispersal equations and population spread.

    The teaching resources fall into four main categories:

    • Neighbourhood trees
    • Dispersal
    • Terminal velocity
    • Population spread

    Each section contains background information, suggested activities for groups and individuals, data recording sheets, and stretch activities for students to carry out in class or at home. The resources are provided as Google slides under a Creative Commons license so that you can edit and adapt them for your own educational needs, with links to the National Curriculum highlighted throughout (thanks to Mary Howell, professional development leader at STEM Learning UK) and interactive graphics hosted online to help understand some of the concepts and equations more easily. Python code for the Seed Eater can be downloaded or written from scratch (or in Scratch!), so that you can set up the device or let students engineer it from first principles. It will need some calibration, but that is all part of the learning experience, and the resources come with some troubleshooting ideas to get started.

    How can you join in?

    Relevant resources are available here. These are currently aimed at Key Stage 3 (age 11-14) and 4 (14-16), but will be developed and extended as time passes, feedback is incorporated, and new requests are made.

    Ultimately, we would like to reach Key Stage 1 to sixth form and beyond, and develop the project into a citizen science collaboration in which people around the world share information about their local trees and seeds with the global community.

    We welcome feedback and engagement with the project from anyone who is interested in taking part – get in touch via Twitter or email [email protected]

    Get your FREE copy of Hello World today

    Hello World is available now as a FREE PDF download. UK-based educators can also subscribe to receive Hello World directly to their door in all its shiny printed goodness. Visit the Hello World website for more information.

    Website: LINK

  • From HackSpace mag issue 14: DIY Geiger counters

    From HackSpace mag issue 14: DIY Geiger counters

    Reading Time: 4 minutes

    In HackSpace magazine issue 14, out today, Cameron Norris writes about how citizen scientists at Tokyo Hackerspace took on the Fukushima nuclear disaster.

    Safecast is an independent citizen science project that emerged in the wake of the Fukushima nuclear disaster to provide accurate, unbiased, and credible data on radiation exposure in Japan.

    On 11 March 2011, an undersea earthquake off the Pacific coast of Thoku, Japan, caused the second-worst nuclear accident in the history of nuclear power generation, releasing almost 30% more radiation than the Chernobyl disaster in 1986.

    The magnitude 9.0–9.1 earthquake resulted in a series of devastating tsunami waves that damaged the backup generator of Fukushima Daiichi Nuclear Power Plant. Without functioning cooling systems, the temperature of the plant’s many nuclear reactors steadily began to rise, eventually leading to a partial meltdown and several hydrogen gas explosions, launching nuclear fallout into the air and sea. Due to concerns over possible radiation exposure, the Japanese government established an 18-mile no-fly zone around the Fukushima plant, and approximately 232 square miles of land was evacuated.

    However, citizens of Fukushima Prefecture living outside of the exclusion zone were faced with a serious problem: radiation exposure data wasn’t available to the public until almost two months after the meltdown occurred. Many residents felt they had been left to guess if dangerous levels of ionising radiation had contaminated their communities or not.

    Alarmed by the situation, Dutch electrical engineer and computer scientist Pieter Franken, who was living in Tokyo with his family at the time, felt compelled to act. “After the massive wall of water, we had this invisible wall of radiation that was between myself and my family-in-law in the north of Japan, so that kind of triggered the start of Safecast,” says Pieter.

    Pieter Franken, a Dutchman living in Japan, who helped start Safecast
    Image credit: Joi Ito – CC BY 2.0

    Pieter picked up an idea from Ray Ozzie, the former CTO of Microsoft, who suggested quickly gathering data by attaching Geiger counters – used for measuring radioactivity – to the outside of cars before driving around Fukushima. The only problem was that Geiger counters sold out almost globally in a matter of hours after the tsunami hit, making it even more difficult for Pieter and others on the ground to figure out exactly what was going on. The discussion between Pieter and his friends quickly changed from buying devices to instead building and distributing them to the people of Fukushima.

    At Tokyo Hackerspace, Pieter – along with several others, including Joi Ito, the director of the MIT Media Lab, and Sean Bonner, an activist and journalist from Los Angeles – built a series of open-source tools for radiation mapping, to enable anyone to build their own pocket Geiger counter and easily share the data they collect. “Six days after having the idea, we had a working system. The next day we were off to Fukushima,” recalls Sean.

    A bGeigie Nano removed from its Pelican hardshell
    Safecast CC-BY-NC 4.0

    A successful Kickstarter campaign raised $36,900 to provide the funding necessary to distribute hundreds of Geiger counters to the people of Japan, while training volunteers on how to use them. Today, Safecast has collected over 100 million data points and is home to the largest open dataset about environmental radiation in the world. All of the data is collected via the Safecast API and published free of charge in the public domain to an interactive map developed by Safecast and MIT Media Lab.

    You can read the rest of this feature in HackSpace magazine issue 14, out today in Tesco, WHSmith, and all good independent UK newsagents.

    Or you can buy HackSpace mag directly from us — worldwide delivery is available. And if you’d like to own a handy digital version of the magazine, you can also download a free PDF.

    Website: LINK

  • I feel the earth move under my feet (in Michigan)

    I feel the earth move under my feet (in Michigan)

    Reading Time: 2 minutes

    The University of Michigan is home to the largest stadium in the USA (the second-largest in the world!). So what better place to test for spectator-induced seismic activity than The Big House?

    The Big House stadium in Michigan

    The Michigan Shake

    University of Michigan geology professor Ben van der Pluijm decided to make waves by measuring the seismic activity produced during games at the university’s 107601 person-capacity stadium. Because earthquakes are (thankfully) very rare in the Midwest, and therefore very rarely experienced by van der Pluijm’s introductory geology class, he hoped this approach would make the movement of the Earth more accessible to his students.

    “The bottom line was, I wanted something to show people that the Earth just shakes from all kinds of interactions,” explained van der Pluijm in his interview with The Michigan Daily. “All kinds of activity makes the Earth shake.”

    The Big House stadium in Michigan

    To measure the seismic activity, van der Pluijm used a Raspberry Pi, placing it on a flat concrete surface within the stadium.

    Van der Pluijm installed a small machine called a Raspberry Pi computer in the stadium. He said his only requirements were that it needed to be able to plug into the internet and set up on a concrete floor. “Then it sits there and does its thing,” he said. “In fact, it probably does its thing right now.”

    He then sent freshman student Sahil Tolia to some games to record the moments of spectator movement and celebration, so that these could be compared with the seismic activity that the Pi registers.

    We’re not sure whether Professor van der Pluijm plans on releasing his findings to the outside world, or whether he’ll keep them a close secret with his introductory students, but we hope for the former!

    Build your own Raspberry Pi seismic activity reader

    We’re not sure what other technology van der Pluijm uses in conjunction with the Raspberry Pi, but it’s fairly easy to create your own seismic activity reader using our board. You can purchase the Raspberry Shake, an add-on board for the Pi that has vertical and horizontal geophones, MEMs accelerometers, and omnidirectional differential pressure transducers. Or you can fashion something at home, for example by taking hints from this project by Carlo Cristini, which uses household items to register movement.

    Website: LINK

  • HackSpace magazine 10: build a drone

    HackSpace magazine 10: build a drone

    Reading Time: 3 minutes

    If you’re a subscriber to HackSpace magazine you’ll already know all about issue 10. For the rest of you who’ve yet to subscribe, issue 10 is out today!

    HackSpace magazine 10 Raspberry Pi Press

    Build a drone

    Ever since Icarus flew too close to the sun, man has dreamed of flight. Thanks to brushless motors, cheaper batteries than ever before, and smaller, more powerful microcontrollers, pretty much anyone with the right know-how can build their own drone. Discover the crucial steps you need to get right; find the right motors, propellers, and chassis; then get out there while the weather is still good and soar like a PCB eagle.

    Rocket-launching robot

    If you prefer to keep your remote-controlled vehicles on the ground, we have an inspiring tale of how one maker combined a miniature strandbeest with our other great obsession (fire, obviously) to create a unique firework launcher. Guy Fawkes would surely be pleased.

    HackSpace magazine 10 Raspberry Pi Press

    Hardware hacking for the environment

    In less frivolous project news, we’re reporting from the Okavango Delta in Botswana, where open hardware, open data, and the hard work of volunteers are giving ecologists more information about this essential wetland region. Makers are bringing science out of labs and classrooms, and putting it into the hands of citizen scientists who want to understand and protect their local environment – that’s something we should be proud of.

    HackSpace magazine 10 Raspberry Pi Press

    PCBs win prizes

    The Hackaday Prize: the Academy Awards of open hardware. Enter your project today and you stand a chance of winning $50,000. The competition is fierce, so before you do, read our interview with Stephen Tranovich. Stephen is the Technical Community Lead at the Hackaday Prize and decides who gets the chance to win the glittering prizes. Learn from their words!

    HackSpace magazine 10 Raspberry Pi Press

    Food

    Our editor Ben loves to eat, so this month he’s been eating lamb kebabs cooked in his home-made tandoor. This ancient cooking method is used all over the Indian subcontinent, and imparts a unique flavour with its combination of heat and steam. Best of all, you can make your own tandoor oven with a Dremel and a few plant pots.

    HackSpace magazine 10 Raspberry Pi Press

    Tutorials

    Add push notifications to your letterbox (so your dog doesn’t eat your new passport), write a game for an Arduino, add a recharging pocket to a bag so you can Instagram on the go, and learn everything there is to know about capacitors. All this and more, in HackSpace magazine issue 10!

    Get your copy of HackSpace magazine

    If you like the sound of this month’s content, you can find HackSpace magazine in WHSmith, Tesco, Sainsbury’s, and independent newsagents in the UK. If you live in the US, check out your local Barnes & Noble, Fry’s, or Micro Center next week. We’re also shipping to stores in Australia, Hong Kong, Canada, Singapore, Belgium, and Brazil, so be sure to ask your local newsagent whether they’ll be getting HackSpace magazine. And if you’d rather try before you buy, you can always download the free PDF.

    Subscribe now

    Subscribe now” may not be subtle as a marketing message, but we really think you should. You’ll get the magazine early, plus a lovely physical paper copy, which has really good battery life.

    HackSpace magazine 10 Raspberry Pi Press

    Oh, and twelve-month print subscribers get an Adafruit Circuit Playground Express loaded with inputs and sensors and ready for your next project. Tempted?

    Website: LINK

  • Continued: the answers to your questions for Eben Upton

    Continued: the answers to your questions for Eben Upton

    Reading Time: 8 minutes

    Last week, we shared the first half of our Q&A with Raspberry Pi Trading CEO and Raspberry Pi creator Eben Upton. Today we follow up with all your other questions, including your expectations for a Raspberry Pi 4, Eben’s dream add-ons, and whether we really could go smaller than the Zero.

    Live Q&A with Eben Upton, creator of the Raspberry Pi

    Get your questions to us now using #AskRaspberryPi on Twitter

    With internet security becoming more necessary, will there be automated versions of VPN on an SD card?

    There are already third-party tools which turn your Raspberry Pi into a VPN endpoint. Would we do it ourselves? Like the power button, it’s one of those cases where there are a million things we could do and so it’s more efficient to let the community get on with it.

    Just to give a counterexample, while we don’t generally invest in optimising for particular use cases, we did invest a bunch of money into optimising Kodi to run well on Raspberry Pi, because we found that very large numbers of people were using it. So, if we find that we get half a million people a year using a Raspberry Pi as a VPN endpoint, then we’ll probably invest money into optimising it and feature it on the website as we’ve done with Kodi. But I don’t think we’re there today.

    Have you ever seen any Pis running and doing important jobs in the wild, and if so, how does it feel?

    It’s amazing how often you see them driving displays, for example in radio and TV studios. Of course, it feels great. There’s something wonderful about the geographic spread as well. The Raspberry Pi desktop is quite distinctive, both in its previous incarnation with the grey background and logo, and the current one where we have Greg Annandale’s road picture.

    The PIXEL desktop on Raspberry Pi

    And so it’s funny when you see it in places. Somebody sent me a video of them teaching in a classroom in rural Pakistan and in the background was Greg’s picture.

    Raspberry Pi 4!?!

    There will be a Raspberry Pi 4, obviously. We get asked about it a lot. I’m sticking to the guidance that I gave people that they shouldn’t expect to see a Raspberry Pi 4 this year. To some extent, the opportunity to do the 3B+ was a surprise: we were surprised that we’ve been able to get 200MHz more clock speed, triple the wireless and wired throughput, and better thermals, and still stick to the $35 price point.

    We’re up against the wall from a silicon perspective; we’re at the end of what you can do with the 40nm process. It’s not that you couldn’t clock the processor faster, or put a larger processor which can execute more instructions per clock in there, it’s simply about the energy consumption and the fact that you can’t dissipate the heat. So we’ve got to go to a smaller process node and that’s an order of magnitude more challenging from an engineering perspective. There’s more effort, more risk, more cost, and all of those things are challenging.

    With 3B+ out of the way, we’re going to start looking at this now. For the first six months or so we’re going to be figuring out exactly what people want from a Raspberry Pi 4. We’re listening to people’s comments about what they’d like to see in a new Raspberry Pi, and I’m hoping by early autumn we should have an idea of what we want to put in it and a strategy for how we might achieve that.

    Could you go smaller than the Zero?

    The challenge with Zero as that we’re periphery-limited. If you run your hand around the unit, there is no edge of that board that doesn’t have something there. So the question is: “If you want to go smaller than Zero, what feature are you willing to throw out?”

    It’s a single-sided board, so you could certainly halve the PCB area if you fold the circuitry and use both sides, though you’d have to lose something. You could give up some GPIO and go back to 26 pins like the first Raspberry Pi. You could give up the camera connector, you could go to micro HDMI from mini HDMI. You could remove the SD card and just do USB boot. I’m inventing a product live on air! But really, you could get down to two thirds and lose a bunch of GPIO – it’s hard to imagine you could get to half the size.

    What’s the one feature that you wish you could outfit on the Raspberry Pi that isn’t cost effective at this time? Your dream feature.

    Well, more memory. There are obviously technical reasons why we don’t have more memory on there, but there are also market reasons. People ask “why doesn’t the Raspberry Pi have more memory?”, and my response is typically “go and Google ‘DRAM price’”. We’re used to the price of memory going down. And currently, we’re going through a phase where this has turned around and memory is getting more expensive again.

    Machine learning would be interesting. There are machine learning accelerators which would be interesting to put on a piece of hardware. But again, they are not going to be used by everyone, so according to our method of pricing what we might add to a board, machine learning gets treated like a $50 chip. But that would be lovely to do.

    Which citizen science projects using the Pi have most caught your attention?

    I like the wildlife camera projects. We live out in the countryside in a little village, and we’re conscious of being surrounded by nature but we don’t see a lot of it on a day-to-day basis. So I like the nature cam projects, though, to my everlasting shame, I haven’t set one up yet. There’s a range of them, from very professional products to people taking a Raspberry Pi and a camera and putting them in a plastic box. So those are good fun.

    Raspberry Shake seismometer

    The Raspberry Shake seismometer

    And there’s Meteor Pi from the Cambridge Science Centre, that’s a lot of fun. And the seismometer Raspberry Shake – that sort of thing is really nice. We missed the recent South Wales earthquake; perhaps we should set one up at our Californian office.

    How does it feel to go to bed every day knowing you’ve changed the world for the better in such a massive way?

    What feels really good is that when we started this in 2006 nobody else was talking about it, but now we’re part of a very broad movement.

    We were in a really bad way: we’d seen a collapse in the number of applicants applying to study Computer Science at Cambridge and elsewhere. In our view, this reflected a move away from seeing technology as ‘a thing you do’ to seeing it as a ‘thing that you have done to you’. It is problematic from the point of view of the economy, industry, and academia, but most importantly it damages the life prospects of individual children, particularly those from disadvantaged backgrounds. The great thing about STEM subjects is that you can’t fake being good at them. There are a lot of industries where your Dad can get you a job based on who he knows and then you can kind of muddle along. But if your dad gets you a job building bridges and you suck at it, after the first or second bridge falls down, then you probably aren’t going to be building bridges anymore. So access to STEM education can be a great driver of social mobility.

    By the time we were launching the Raspberry Pi in 2012, there was this wonderful movement going on. Code Club, for example, and CoderDojo came along. Lots of different ways of trying to solve the same problem. What feels really, really good is that we’ve been able to do this as part of an enormous community. And some parts of that community became part of the Raspberry Pi Foundation – we merged with Code Club, we merged with CoderDojo, and we continue to work alongside a lot of these other organisations. So in the two seconds it takes me to fall asleep after my face hits the pillow, that’s what I think about.

    We’re currently advertising a Programme Manager role in New Delhi, India. Did you ever think that Raspberry Pi would be advertising a role like this when you were bringing together the Foundation?

    No, I didn’t.

    But if you told me we were going to be hiring somewhere, India probably would have been top of my list because there’s a massive IT industry in India. When we think about our interaction with emerging markets, India, in a lot of ways, is the poster child for how we would like it to work. There have already been some wonderful deployments of Raspberry Pi, for example in Kerala, without our direct involvement. And we think we’ve got something that’s useful for the Indian market. We have a product, we have clubs, we have teacher training. And we have a body of experience in how to teach people, so we have a physical commercial product as well as a charitable offering that we think are a good fit.

    It’s going to be massive.

    What is your favourite BBC type-in listing?

    There was a game called Codename: Druid. There is a famous game called Codename: Droid which was the sequel to Stryker’s Run, which was an awesome, awesome game. And there was a type-in game called Codename: Druid, which was at the bottom end of what you would consider a commercial game.

    codename druid

    And I remember typing that in. And what was really cool about it was that the next month, the guy who wrote it did another article that talks about the memory map and which operating system functions used which bits of memory. So if you weren’t going to do disc access, which bits of memory could you trample on and know the operating system would survive.

    babbage versus bugs Raspberry Pi annual

    See the full listing for Babbage versus Bugs in the Raspberry Pi 2018 Annual

    I still like type-in listings. The Raspberry Pi 2018 Annual has a type-in listing that I wrote for a Babbage versus Bugs game. I will say that’s not the last type-in listing you will see from me in the next twelve months. And if you download the PDF, you could probably copy and paste it into your favourite text editor to save yourself some time.

    Website: LINK