Air-Gen-Ku by James Penha

tension from thin air
moisture poring dynamo
teensy as thin hair

by James Penha

Scientists have invented a tiny (I mean tiny!) generator that processes our air’s humidity through nanopores so as to create, in effect, a perfectly clean battery that continuously produces electricity. The news knocked me out; I had to knock out a sciku.

Further reading
‘Scientists find way to make energy from air using nearly any material’, 2023, Dan Rosenzweig-Ziff, The Washington Post: https://www.washingtonpost.com/science/2023/05/26/harvest-energy-thin-air/

‘Generic Air-Gen Effect in Nanoporous Materials for Sustainable Energy Harvesting from Air Humidity’, 2023, X. Liu,  H. Gao,  L. Sun &  J. Yao, Advanced Materials, https://doi.org/10.1002/adma.202300748

Author Bio
Expat New Yorker James Penha (he/him🌈) has lived for the past three decades in Indonesia. Nominated for Pushcart Prizes in fiction and poetry, his work is widely published in journals and anthologies. His newest chapbook of poems, American Daguerreotypes, is available for Kindle. Penha edits TheNewVerse.News, an online journal of current-events poetry. You can find out more about James’ poetry on his website https://jamespenha.com and catch up with him on Twitter @JamesPenha

Enjoyed James’ sciku? Check out more of his sciku here: ‘Quantumku, ‘DNAncient’ and ‘If a Tree Talks in a Forest’.

Moonwalk by R. Suresh Babu

AI tinkering lab
all the young student scientists
perform a moonwalking jig

by R. Suresh Babu

My haiku are centered on my experiences as a teacher where I observe children’s behaviour in the classroom situations, science labs and the school campus.

Science is fun. Children do funny acts. This sciku is based on moonwalking in an AI Tinkering Lab when children try to match their dance steps with a steering robot.

Further reading:

What is Tinkering Lab and Why Do We Need It? https://tinker.ly/tinkering-lab-what-is-it-and-why-do-we-need-it/

Artificial Intelligence (Wikipedia) https://en.wikipedia.org/wiki/Artificial_intelligence

Author bio:

R. Suresh Babu is a graduate teacher of English and a teacher counsellor in a Government Residential School in India. He is an alumnus of the Regional Institute of Education, Mysuru in India. His works have been published in Cattails, Failed Haiku, Wales Haiku Journal, Akitsu, Presence, Under the Basho, Poetry Pea Journal and Podcast, The Asahi Shimbun, World Haiku Series, The Mamba, Kontinuum, Haikuniverse, Cold Moon Journal, Chrysanthemum, tsuri-dōrō and The Mainichi. He is a contributing writer to the anthology, We Will Not Be Silenced of the Indie Blu(e) Publishing. He has done the art works for the Haiku anthology Bull-Headed, edited by Corine Timmer. You can follow him on Twitter @sureshniranam

Read more sciku by R. Suresh Babu: ‘Climate Change’ and ‘Language’.

Not just a game

passing as human
the arrogance of AI
undoing itself

Artificial intelligence (AI) is becoming more prominent and powerful in modern life. Yet AI isn’t always infallible, sometimes in surprising ways.

The board game Go has long been regarded as the hardest strategy board game to solve for artificial intelligence programmes. Indeed, where AIs were able to beat human players at checkers and chess in the mid-nineties, human Go players held out for another two decades.

Eventually, however, even this hurdle was overcome. In 2016 the AI AlphaGo defeated 9 dan rank professional Go player Lee Se-dol and subsequently in 2017 the world no. 1 Ke Jie. Today, publicly available Go AI programmes are capable of playing at the highest human levels of the game.

The world of professional Go was changed irrevocably. Some professional players have chosen to leave the game, others seek to learn from AIs (leading to less interesting, homogenous styles of professional play), and Go teaching professionals have often found themselves supplanted by AIs. Lee Se-dol himself retired from professional play shortly afterwards saying “Even if I become the number one, there is an entity that cannot be defeated”.

Yet AIs are far from perfect, as recent findings suggest.

Wang et al. (2022) created a Go-playing programme to take on KataGo, the most powerful publicly available Go-playing system currently available. But rather than trying to develop an AI that plays Go better than KataGo, the researchers trained their AI to behave in unexpected ways. Adopting an ‘adversarial policy’, the programme tricks KataGo into thinking that its victory in the game is secure.

The result?

KataGo passes prematurely (believing it has already won) and loses when the scores are compared. It has a bigger territory but unlike its adversarial opponent its territory isn’t secured and so it doesn’t score. KataGo’s weakness is something any amateur player of Go would spot (indeed human players can easily defeat the adversarial programme).

The research demonstrates that the human-level behaviours displayed by AIs are frequently far from human in their reasoning. They may reach the same conclusions but their methods are very different. Ironically, despite this illustration of how bizarre AIs really are, the arrogance of feeling secure and coming undone as a result is all too human.

The implications for this extend far beyond the game Go. AI is increasingly found in many areas of modern life, from speech recognition to self-driving cars. As the researchers say: “These failures in Go AI systems are entertaining, but a similar failure in safety-critical systems such as automated financial trading or autonomous vehicles could have dire consequences.” The researchers call for improved AI training to create AI systems with “the high levels of reliability needed for safety-critical systems.”

Original research: https://doi.org/10.48550/arXiv.2211.00241

Dr Andrew Holmes is a former researcher in animal welfare and the founder and editor of The Sciku Project. You can follow him on Twitter here: @AndrewMHolmes.

Only our minds by Nishant Mehrotra

lab reunion –
we play Chinese whispers with
only our minds

by Nishant Mehrotra

The idea of communicating with our thoughts alone is the stuff of science fiction that, thanks to a team at the University of Washington (Seattle) and Carnegie Mellon University (Pittsburgh), may soon become a reality. In their work (Jiang et. al., 2019), the researchers demonstrate the feasibility of multi-person brain-to-brain communication for the first time. Their system, BrainNet, is an exciting first step towards the future where the Internet might have human brains directly linked to it.

Original research: http://dx.doi.org/10.1038/s41598-019-41895-7

Nishant Mehrotra (@NMehrotratweets) is an  electrical engineer by profession, but a poet by (his) admission. He  blogs at nm30.blogs.rice.edu about RF and wireless research.

Carbon negative

Save planet and lives –
carbon negative power.
Economic too.

Whilst parts of the world move slowly towards carbon-neutral energy sources, others lag behind, heavily reliant on coal power stations and other power sources that release greenhouse gasses into the atmosphere and have negative impacts upon air quality. Yet increasingly it seems that carbon-neutral isn’t enough: in order to limit global temperature increases carbon-negative technologies are required.

One route for carbon-negative power generation is to convert biomass into energy and then capture and store the waste carbon dioxide. By removing the carbon in the biomass from the environment this is a carbon-negative process. Yet currently this isn’t efficient and requires too much land to grow the plants, land that is then unavailable for much needed food production.

Research by Lu et al (2019) has used China as a case study to address this issue since China is heavily dependent on coal power stations. Instead of relying exclusively on biomass, the researchers propose using a combination of biomass and coal to develop a pure source of hydrogen fuel. They found that a minimum of 35% biomass could result in carbon-negative power generation. Not only that but the biomass used in the process could be plant material leftover after harvesting, plant material which is currently burnt in the fields and is a major source of air pollution. What’s more the researchers suggest that the process would be as cost effective, and thus competitive, with the current coal fired power stations.

Original research: https://doi.org/10.1073/pnas.1812239116

A body projects by Prof Tania Douglas

A body projects

to a model of others

and finds its own shape

by Tania Douglas

Reyneke et al (2018) review the state of the art in 3D reconstruction of bone from 2D images, based on deformable models. Such reconstructions are useful in a variety of clinical applications such as surgery planning and postoperative evaluation, and implant and prosthesis design.

Original research: https://doi.org/10.1109/RBME.2018.2876450

Prof Tania Douglas is the South African Research Chair in Biomedical Engineering & Innovation at the University of Cape Town, South Africa. You can follow her on Twitter under the handle @tania_douglas

Oh ketchup packet!

Oh ketchup packet!

How to get the last sauce out?

Hydrocarbon films!

 

Waste from packaging where food products can’t be completely extracted builds up. Now research by Mukherjee et al (2018) suggests a solution might be at hand. The researchers found that hydrocarbon-based polymer films can be stably impregnated with vegetable oils. The resulting material is slippery and durable, ideal for the inside of packaging to reduce food sticking and waste.

Whilst this sounds high-tech the researchers were actually inspired by the pitcher plant which uses a slippery coating on its leaves to capture visiting insects.

Original research: http://dx.doi.org/10.1038/s41598-018-29823-7

Dynamic toll

Dynamic toll roads.

Prices fluctuate with load,

save time, money, health.

 

Traffic congestion damages health, the environment and the economy. Whilst more roads might seem like the answer, history shows that additional roads don’t reduce traffic jams. Now Cramton et al (2018) suggest that smart toll roads – roads that track usage and charge accordingly – could be the solution.

By increasing prices in real time on roads that are busy, the authors suggest that road users would look to alternative routes and modes of transport or choose to travel at a different time. It would also reduce the financial burden on those individuals that rarely use road travel but still pay taxes to maintain road links.

Original source: http://dx.doi.org/10.1038/d41586-018-05836-0

 

Snakeskin secrets

Learning from nature:

Snakeskin secrets revealing

lessons in friction.

 

The natural world has inspired engineering and design in countless ways. Now researchers are looking at snakeskins in an attempt to better understand an understudied engineering area: friction.

Abdel-Aal (2018) summarises findings from 40 species of snake to understand how the textural traits of snake skin compare to the standard features of textured industrial surfaces. This exploratory framework could subsequently lead to new, nature-inspired smart surfaces.

Original paper: https://doi.org/10.1016/j.jmbbm.2017.11.008

Knuckle cracking maths

Knuckle cracking maths:

Synovial bubbles pop

in partial collapse.

 

The debate over how knuckles cause a popping sound when cracked has lasted for decades. Now, Chandran Suja and Barakat (2018) have created three equations to mathematically model how the sound is produced. The first equation describes variations in pressure inside the joint, the second describes how pressure variations results in bubble size variations, whilst the third equation links the size variation of bubbles with the production of acoustic pressure waves.

When cracking your fingers the joints are pulled apart, the pressure goes down and bubbles appear in the synovial fluid which lubricates the joint. During knuckle cracking the pressure changes within the joint causing the size of the bubbles to fluctuate quickly resulting in the popping sound. The new model reveals that the bubbles don’t need to completely collapse in order to produce the sound, explaining why bubbles are observed following knuckle cracking.

Original research: http://dx.doi.org/10.1038/s41598-018-22664-4

Rivers cut corners by John Norwood

Rivers cut corners

Reducing the meander

Over centuries

This poem is one of several that were inspired looking out of an airplane window. I was looking at an oxbow lake and thinking about how the river took a short cut. It is a simple reflection on what may seem static is decidedly not so with a shift of time frame. Incidentally, someone called me on this, claiming that rivers actually meander more over time. Turns out both cases can be true, but the meaning of the poem is the same either way.

Oxbow lakes are formed from curves in rivers as the water erodes the banks of bends, pinching off a loop of river that becomes an oxbow lake as it’s isolated from the main body of the river. Many rivers were channelized during the 19th century to be used as water ways, forming artificial oxbow lakes which may since have silted up or dried out. A study by Seidel et al (2017) suggests that reconnecting such oxbow lakes to the main channels might be an important measure for native species conservation and river restoration.

The name oxbow comes from the U-shaped collar that used to be used as a harness around the neck of oxen as they pulled ploughs. Other terms for oxbow lakes are loop lakes, cutoff lakes and horseshoe lakes.

Original Research: http://dx.doi.org/10.1002/clen.201600211

John Norwood is a Mechanical Engineer working with Carbon, Inc. to revolutionize how things are made. His interests include old houses, yoga, baking, cryptography, and bluegrass music. You can follow him on Twitter under the handle @pryoga

Enjoyed this sciku? Check out some of John’s other work: Universal truth, The answer is none, God may be defined, With enough data, and Squeamish ossifrage.

Foibles of research

Manipulation?

Coercion? Unwanted guests?

Foibles of research.

 

Academia prides itself on being fair, rational-minded and logical. Yet the practice behind these noble aims is sometimes far from that. A study by Fong & Wilhite (2017) reveals the various manipulations that can take place: from scholars gaining guest authorships on research papers despite contributing nothing to unnecessary reference list padding in an effort to boost citation rate. These instances of misconduct are likely a response to the pressures of an academic career – the demand for high numbers of publications and citation rates.

The survey of approximately 12,000 scholars across 18 disciplines revealed that over 35% of scholars have added an author to a manuscript despite little contribution (with female researchers more likely to add honorary authors than male researchers). 20% of scholars felt someone had been added to one of their grant proposal for no reason. 14% of academics reported being coerced into adding citations to their papers by journals, whilst 40% said they’d padded their reference list to pre-empt any coercion. Whilst changes to aspects of the academic system might help alleviate these issues, it’s likely to be a slow process.

Original research: https://doi.org/10.1371/journal.pone.0187394

 

Closing the trap by Dr Hortense Le Ferrand

A feather falling –

hungry inert soul wakes up,

snaps, closing the trap.

The Venus flytrap, Dionaea muscipula, is a carnivorous plant that performs one of the fastest movements in the flora: when an insects touches the hairs inside the leaves of the trap, it closes in a few milliseconds.

Inspired by the plants and its internal microstructure, a team of researchers from ETH Zürich and Purdue University have developed a composite material mimicking the Venus leaf and able to change shape as fast as the plant (Schmied & Le Ferrand et al, 2017).

Thanks to the good match between the theoretical simulations and the experimental results, their method opens new avenues for the creation of autonomous and fast robotic devices.

Original research: https://doi.org/10.1088/1748-3190/aa5efd

Dr Hortense Le Ferrand is a postdoctoral fellow at Nanyang Technical University, Singapore. Hortense’s interests are on the fabrication and design of novel materials and systems inspired by nature. Check out her other scku ‘Shrimp molting’ here.