That's one job a robot is welcome to: Luigi the poopbot set to scour sewers and analyse human waste for viruses

  • Underworlds hope robot will help detect virus outbreaks earlier
  • Luigi spends 1-2 hours in sewer, vacuuming samples as they float by
  • Pump sucks up liquid and runs it through a filter, trapping bacteria 
  • MIT plans to make robot autonomous and process samples on its own

It is a thankless task - even for a robot.

Below the bustling streets of Cambridge, Massachusetts, Luigi is sifting through human waste and gathering data on some 107, 000 people.

The smart bot is part of an MIT project to analyse human waste - and could track the health of a city. 

Luigi (pictured) is a robot in MIT's latest project that focuses on bacteria, viruses and chemical compounds found in the human stomach. Called Underworlds , is program entails lowering a smartphone controlled tube-like robot just above the sewage, which in turn sucks up the liquid and runs it through a filter - with the goal of monitoring urban health patterns

Luigi (pictured) is a robot in MIT's latest project that focuses on bacteria, viruses and chemical compounds found in the human stomach. Called Underworlds , is program entails lowering a smartphone controlled tube-like robot just above the sewage, which in turn sucks up the liquid and runs it through a filter - with the goal of monitoring urban health patterns

HOW DOES LUIGI WORK? 

Luigi spends about an hour or two inside each sewer and collects samples as the float by.

The machine is fitted with ultrasonic sensors, which helps the cylindrical robot hover 40 centimeters above its target.

A pump will then suck up liquid, which is sent through a filter that blocks toilet paper and clumps from entering.

Next, the waste passes through another tube to a camping water filter that strainers the liquid and traps the viruses and bacteria.

Once the sewage is gathered, Ratti and his team can monitor the samples to do 'real-time urban epidemiology and understand human health and behavior with a fine spatiotemporal solution. 

Source: Spectrum IEEE

Called Underworlds, the program entails lowering a smartphone controlled tube-like robot over underground sewage, which in turn sucks up the liquid and runs it through a filter - with the goal of monitoring urban health patterns.

Luigi is the creation of Senseable City Lab, which was founded 12 years ago to 'explore the overlap of the digital and the physical within cities'.

'We can reveal the invisible in a city,' explains s Carlo Ratti, Director of the Senseable City Lab.

'For every cell in the human body there are around ten bacterial cells, constituting the human microbiome which has recently been recognized as a key determinant of an individual's health and wellness – how can we measure something like the microbiome at the scale of an entire city, such as Cambridge?'

Laboratory analysis typically finds more than 50,000 different bacteria living inside a human's stomach.

However, by the time the waste reaches a treatment plant, it has been watered down and rendered useless for sampling - this is where Luigi comes in.

MIT's sewage slurping robot is lowered into manholes and fitted with GPS devices that let researchers follow along on the journey.

Luigi spends about an hour or two inside each sewer and collects samples that float by.

The machine is fitted with ultrasonic sensors, which helps the cylindrical robot hover 40 centimeters above its target, reports Spectrum IEEE.

Luigi spends about an hour or two inside each sewer and collects samples as the float by. The machine is fitted with ultrasonic sensors, which helps the cylindrical robot hover 40 centimeters above its target 

Luigi spends about an hour or two inside each sewer and collects samples as the float by. The machine is fitted with ultrasonic sensors, which helps the cylindrical robot hover 40 centimeters above its target 

But by the time the waste reaches a treatment plant, it has been watered down and rendered useless for sampling - this is where Luigi comes in. MIT's sewage slurping robot is lowered into manholes and fitted with GPS devices that let researchers follow along on the journey

But by the time the waste reaches a treatment plant, it has been watered down and rendered useless for sampling - this is where Luigi comes in. MIT's sewage slurping robot is lowered into manholes and fitted with GPS devices that let researchers follow along on the journey

A quiet pump is then activated to sucks up liquid, which is sent through a filter designed to stop toilet paper and clumps from entering the system.

Next, the waste passes through another tube to a camping water filter that strainers the liquid and traps viruses and bacteria.

The first application of smart sewage technology will be infectious disease surveillance, as the team hopes to develop methods for early detection of viral outbreaks

The first application of smart sewage technology will be infectious disease surveillance, as the team hopes to develop methods for early detection of viral outbreaks

Once the sewage is gathered, Ratti and his team can monitor the samples to do 'real-time urban epidemiology and understand human health and behavior with a fine spatiotemporal solution,' researchers explain on the Underworlds website.

The first application of smart sewage technology will be infectious disease surveillance, as the team hopes to develop methods for early detection of viral outbreaks.

Underworlds will also look at how 'smart sewage' could affect the way non-communicable disease such as obesity and diabetes.

'The implications of this platform extend beyond just disease surveillance to the development of a new type of human population census,' explains researchers.

'Analyzed in tandem with demographic data, this platform can study the aggregate health of a city to the particular health of a neighborhood.'

The entire project will study urban geography, network topology and demographic distribution in conjunction with wastewater loads over time, to propose and validate a model that informs wastewater sampling and correlates to target population samples.

'The MIT project is extremely ambitious and pioneering,' said Christian Daughton, a chemist with the U.S. Environmental Protection Agency.

'If this project proves successful in demonstrating some sort of proof of principle, it could represent a significant, seminal advancement in the prospects for quickly and inexpensively monitoring public health in real time.'

Rattiand his team will eventually design their creation to run autonomously, process samples on its own and live-stream data back to scientists.

Although Luigi may be the older brother in the Mario Brothers series, he is the successor to Mario in MIT's project.

The first robot, Mario, was a prototype designed with sewage-sucking syringes that were constantly being clogged with waste.

It also had to be manually and researchers warned its battery packs could possibly catch on fire. 

The first robot, Mario (pictured), was a prototype designed with sewage-sucking syringes that were constantly being clogged with waste. It also had to be manually and researchers warned its battery packs could possibly catch on fire

The first robot, Mario (pictured), was a prototype designed with sewage-sucking syringes that were constantly being clogged with waste. It also had to be manually and researchers warned its battery packs could possibly catch on fire

 

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