Scientists create DNA robots that eat and EVOLVE ‘blurring line’ between life and machine


Scientists create DNA robots that eat and EVOLVE ‘blurring line’ between life and machine

SCIENTISTS are blurring the line between life and machine by creating new DNA-based robots with astonishing lifelike capabilities, a specialist academic has warned.

By Liam Deacon / Published 4th May 2019

The new human-engineered organic machines can move, consume "food" for energy, grow, decay, and even evolve, scientists and engineers at Cornell University in the US said last month.

And now, an expert has told Daily Star Online robots with “self-sustaining and regenerative systems” could present huge opportunities but also pose unexpected dangers in the future.

Described as the first "lifelike robots with artificial metabolism” by the scientists involved, the "DNA-based Assembly and Synthesis of Hierarchical Material" project has been dubbed DASH.

DNA is the unique biological code that all living things use to reproduce and grow, and metabolism is the chemical process we all use to turn food into energy.

“Metabolism is a key process that makes life alive”, a paper by the Cornell team, revealing the project's findings, claims in the Science Robotics journal.

Mike Ryder, an Associate Lecturer at Lancaster University, told Daily Star Online the statement prompts serious questions about what life is, “where life begins” and if DASH is a robotics or biological engineering project.

Mr Ryder’s research specialises in the philosophy of human-machine relations, with a particular focus on military ethics, and the way we distinguish between humans and machines.

He stressed that manmade machines “have emulated the behaviour of cells” and other lifeforms for a long time – bionic limbs and artificial hearts, for example – but said this project seems to “blur the line between human and machine in a new way” with a “new type of behaviour” which could herald new advances.

“We are not making something that’s alive, but we are creating materials that are much more life-like than have ever been seen before”
Dan Luo, professor of biological and environmental engineering

Mr Ryder said “the development in itself is not perhaps ‘complex’ as we might understand it.

"However, in the future, it may well underpin a whole host of different processes and ‘cells’ (or whatever you choose to call them) that will, in turn, make up far more complex machines.”

The scientists involved appear to recognise the philosophical lines being blurred, but instead: “We are not making something that’s alive, but we are creating materials that are much more life-like than have ever been seen before.”

Speaking to The Stanford Chronicle, Dan Luo, professor of biological and environmental engineering in the College of Agriculture and Life Sciences at Cornell, added: “We are introducing a brand-new, lifelike material concept powered by its very own artificial metabolism.”

However, Mr Ryder adds that as the lifelike machines become more advanced, some complex questions will be raised, like the “debates around abortion and the point at which ‘life’ begins and ends”.

“Don’t forget – as human beings, we’re not really a ‘single’ form of life: much rather, we are made up of millions upon millions of individual cells working together for a (mostly) unified purpose,” he adds.

He says life-like robots such as DASH could arguably one day become as complex as simpler lifeforms.

If so, they might need rights in the future – in the way animals are given animal right today, so we don’t mistreat them or throw them away like some machines?

“At present, I’d imagine the living robot technology would most likely be considered in a similar way to any other lab-grown organism, however… one day these organisms may deserve rights," he said.

“The question is really, at what point do we draw the line?” Mr Ryder added.

“If we’re going to think of these living robots as ‘alive’ in human, or even animal terms, then we will soon have to start thinking about these technologies in at least a similar way to the way we think about lab animals, such as mice and rabbits."

Continuing: “In particular, I think, comes the question of just how and when we consider the DASH creations as being ‘alive’ and/or ‘dead’, and how we dispose of them.

“There is also then the question, as I’ve hinted at already, of just when the DASH creations become ‘alive’, and who should be given the power to grant life and death.”

When asked about the opportunities DASH and similar advances could represent, he says “there are a whole host of ‘simple’ gains we could make by replacing existing technologies with biological ones".

Adding that, in “the long term, these may well be cheaper to produce, and easier to maintain” without the same need for expensive material and metals that can damage the environment.

“However,” he adds, “the most significant I think, may well be the new avenues opened up for self-sustaining and regenerative systems.

“If systems can become self-sustaining, then they will need fewer external inputs, and they may not even need an external energy source at all.

“If we can cut down on our traditional energy consumption, and instead rely on metabolism-based process, hybrid, or wholly-DASH systems may well be able to draw their power from the world around them.”

But, he warns, there “any invention or technology can always be used to cause harm, and there will always be people out there who are able to manipulate the system for their own ends.

“Of course, it’s also very hard to predict where the technology may take us, and I imagine most of the major technologies will be driven by corporations and not governments”.

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