Singapore’s M1 aims narrowband deployment at the sea

By | August 27, 2016

Singapore telco M1 is getting Nokia to install an NB-IoT network atop its 4G one, interestingly with an eye not just to land but to sea. 

NB-IoT stands for Narrowband Internet of Things, and is the GSM world’s answer to narrowband technologies such as LoRa and Sigifox that threaten to take away a chunk of their business when the Internet of things does eventually take off. Why use expensive modems and services when you’re just trying to connect devices which want to tell you whether they’re on or off, full or empty, fixed or broken?  

Techgoondu reports: “While that network caters to heavy users who stream videos or songs on the go, a separate network that M1 is setting up at the same time is aimed at the smart cars, sensors and even wearables.

They said pricing will likely vary with each solution or package, with some companies saving costs from deploying large amounts of connected sensors. However, others that require the bandwidth, say, to deliver surveillance videos over the air, would likely stick with existing 4G networks.

And while many NB-IoT devices are still on the drawing board – standards for the network were only finalised in June – M1 executives were upbeat about jumping on the bandwagon early.

Alex Tan, the telco’s chief innovation officer, said the technology would open up new business opportunities in the years ahead.”

A press release from M1 says it’s working with the ports authority — Singapore is one of the biggest ports in the world — to  “explore the deployment of a network of offshore sensors to augment the situational awareness of our port waters,” according to Andrew Tan, Chief Executive of the Maritime and Port Authority, MPA.

This follows Sigfox’s deployment in the city state last month. It also pips to the post rival Singtel who have been talking since February about running a trial of NB-IoT with Ericsson.  (Update: “Our preparation to trial NB-IoT is well underway. We are working with our vendors and industry partners to conduct lab trials in December, with a view to launch an NB-IoT network by mid-2017.”)

Here’s my earlier piece on LoRa

LoRa offers a cheaper link to the Internet of Things | Reuters

By | September 7, 2016

My piece on the rise of narrowband networks: LoRa offers a cheaper link to the Internet of Things | Reuters:

Remote control : LoRa offers a cheaper link to the Internet of Things

By Jeremy Wagstaff

LAUNCESTON, Australia, Reuters – The future of communications may be 5G, where mobile networks push bandwidth-heavy video to phones and pull data from self-driving cars, but some firms see an alternative: farm irrigation equipment, donation boxes and oysters, connected by a technology called LoRa.

LoRa (for Long Range) is among a clutch of narrow band technologies that connect devices cheaply over unlicensed spectrum and vast distances, needing very little power.

The catch: they can only send small parcels of data rather than the gigabytes most wired and mobile standards aspire to.

But, advocates say, that may be more than enough.

‘It turns out you don’t need that huge an infrastructure, and it can be driven by small devices that are very smart and not very expensive,’ says Mike Cruse, CEO of Definium Technologies, which is building LoRa-based devices for farmers, universities and mines.

The so-called Internet of Things (IoT) has long promised to hook up devices, from aircraft to hair dryers, enabling owners to monitor, control and collect data from them remotely. Spending on the IoT will hit $6 trillion between 2015 and 2020, according to PricewaterhouseCoopers.

But the reality has been slow catching up. Ericsson this year almost halved the number of connected devices – including smartphones – it sees by 2020 to 28 billion.

Part of what’s holding things back, critics say, is that solutions are too expensive and elaborate for what is needed. Most involve cellular connections, which are either impractical in rural areas or beyond a user’s budget.

Take Richard Gardner, who runs a 2,500 hectare (6,178 acre) farm in Tasmania and pays A$1,200 per sensor for a cellular-based soil moisture measuring system. He’s working with Definium to design one costing a tenth of that.

‘There’s a lot of technology out there that works now, it’s just very expensive. We’ve got something now that we think has better attributes and is cheaper,’ says Gardner, who has invested in Definium and says he already has other farmers keen to buy the company’s products.

 

Making all this possible is LoRa, a narrow band standard adopted by the likes of Cisco and IBM, where the thumbnail-sized radios that send and receive data sell for a dollar or less.

Dutch enthusiasts are building a global community of open-source LoRa gateways, called the Things Network. Nodes send and receive messages – about a tenth of the size of an SMS – every couple of minutes to once every few hours. Followers have rolled out their own experimental networks using the community’s software in cities from Colombia to Russia.

Founder Wienke Giezeman says a $300 gateway – the router connecting the LoRa nodes to the Internet – will be available next month. Half a dozen would be enough to cover an average-sized city. ‘This,’ he says, ‘is going to push the next phase of growth.’

And LoRa isn’t the only narrow band technology in town.

Weightless, a British-based alliance, is one. Another is a proprietary U.S. technology run by a company called Ingenu, as is Sigfox, a French firm, which has raised $150 million from companies including Samsung Electronics.

The biggest potential losers are the telecoms companies, the traditional gatekeepers to the coverage these networks now claim. Ericsson says only 1.5 billion of the 16 billion IoT devices it reckons will be connected in 2021 will rely on cellular networks.

Some telecoms firms are counting on NB-IOT, a narrow band standard adopted by the industry that would use their existing cellular networks. Others are hedging their bets by building LoRa and other narrow band networks.

SK Telecom, for example, has rolled out a network across South Korea which it said would cost users a tenth of what they would pay to attach devices to its 4G network.

RELATED COVERAGE

Likely winners from LoRa networks in IoT Lagging, however, is how best to use these networks.

Charles Anderson, an analyst at IDC, says governments and companies are still pondering what might work, and what end users might want.

In the meantime, smaller players are feeling their way. One visitor to a booth at a recent IoT show in Singapore suggested connecting donation collection boxes so she’d know when they need emptying.

Rishabh Chauhan of The Things Network says the community is still experimenting – from remotely monitoring mouse traps to whether moored rowboats have filled with water. ‘It seems people have a use case, but want to see it on a small level. They’re still prototyping,’ he said.

Much of the pioneering work is outside cities, where existing networks are poor.

Gardner, the farmer, for example, sees the potential for monitoring water flow and levels, the voltage in his electric fences, or his crop sprinklers. Knowing whether they’re working properly would save two trips a day and cut fuel bills, he says.

In a back-room lab, Definium’s Cruse shows some of the sensors he’s designing for clients, all of which could easily connect to a LoRa network.

They include one for measuring salt levels for shrimp farmers in Bangladesh; an LED street lamp for a mining company that could be controlled remotely; a squirrel trap which would alert a catch, and a biosensor attached to an oyster to gauge its health.

Pocket-sized Smartphone Breathalyzer

By | August 1, 2016

Further to my piece on smell sensing tech, it seems that breathalyzers, which use gas sensors like this one: Alcohol Gas Sensor, are getting smaller. This one attaches to a smartphone, fits in a pocket and costs $35. (Via Interesting Engineering)

That’s not the cheapest one out there — this BACtrack Ultra-Portable Personal Keychain Breathalyzer probably is — but I think it’s probably the cheapest that connects to a phone. 

Some more links on the matter: 

Drinkmate | Specifications

 Blood alcohol content – Wikipedia, the free encyclopedia

 

BBC World Service – Smell tech

By | July 28, 2020

At the end of this program is my piece on smell technology, if you like that kind of thing. BBC World Service – Business Daily, UK FinTech Mulls a Post-Brexit Future (with everything else going on it might seem a bit flippant, or maybe light relief. 

Can the UK’s financial technology or FinTech sector maintain its global lead after Brexit? We speak to Lawrence Wintermeyer, the chairman of the industry’s trade body Innovate Finance, about what he hopes the British government will negotiate in a new deal with the EU. Also, Michael Pettis, professor of finance at Peking University, tells us what Brexit looks like from China and why financial markets have been resilient to the initial shock of the referendum’s result. Plus, what’s the point of a smart phone that can smell? Jeremy Wagstaff, Thomson Reuters’ chief technology correspondent for Asia, says you may be surprise. 

Nose job: smells are smart sensors’ last frontier | Reuters

By | September 7, 2016

My piece for Reuters about the technology of smell: Nose job: smells are smart sensors’ last frontier | Reuters. A video version is here.

Nose job: smells are smart sensors’ last frontier

SINGAPORE | BY JEREMY WAGSTAFF

Phones or watches may be smart enough to detect sound, light, motion, touch, direction, acceleration and even the weather, but they can’t smell.

That’s created a technology bottleneck that companies have spent more than a decade trying to fill. Most have failed.

A powerful portable electronic nose, says Redg Snodgrass, a venture capitalist funding hardware start-ups, would open up new horizons for health, food, personal hygiene and even security.

Imagine, he says, being able to analyze what someone has eaten or drunk based on the chemicals they emit; detect disease early via an app; or smell the fear in a potential terrorist. ‘Smell,’ he says, ‘is an important piece’ of the puzzle.

It’s not through lack of trying. Aborted projects and failed companies litter the aroma-sensing landscape. But that’s not stopping newcomers from trying.

Like Tristan Rousselle’s Grenoble-based Aryballe Technologies, which recently showed off a prototype of NeOse, a hand-held device he says will initially detect up to 50 common odors. ‘It’s a risky project. There are simpler things to do in life,’ he says candidly.

MASS, NOT ENERGY

The problem, says David Edwards, a chemical engineer at Harvard University, is that unlike light and sound, scent is not energy, but mass. ‘It’s a very different kind of signal,’ he says.

That means each smell requires a different kind of sensor, making devices bulky and limited in what they can do. The aroma of coffee, for example, consists of more than 600 components.

France’s Alpha MOS was first to build electronic noses for limited industrial use, but its foray into developing a smaller model that would do more has run aground. Within a year of unveiling a prototype for a device that would allow smartphones to detect and analyze smells, the website of its U.S.-based arm Boyd Sense has gone dark. Neither company responded to emails requesting comment.

The website of Adamant Technologies, which in 2013 promised a device that would wirelessly connect to smartphones and measure a user’s health from their breath, has also gone quiet. Its founder didn’t respond to emails seeking comment.

For now, start-ups focus on narrower goals or on industries that don’t care about portability.

California-based Aromyx, for example, is working with major food companies to help them capture a digital profile for every odor, using its EssenceChip. Wave some food across the device and it captures a digital signature that can be manipulated as if it were a sound or image file.

But, despite its name, this is not being done on silicon, says CEO Chris Hanson. Nor is the device something you could carry or wear. ‘Mobile and wearable are a decade away at least,’ he says.

Partly, the problem is that we still don’t understand well how humans and animals detect and interpret smells. The Nobel prize for understanding the principles of olfaction, or smell, was awarded only 12 years ago.

‘The biology of olfaction is still a frontier of science, very connected to the frontier of neuroscience,’ says Edwards, the Harvard chemical engineer.

MORE PUSH THAN PULL

That leaves start-ups reaching for lower-hanging fruit.

Snodgrass is funding a start-up called Tzoa, a wearable that measures air quality. He says interest in this from polluted China is particularly strong. Another, Nima, raised $9 million last month to build devices that can test food for proteins and substances, including gluten, peanuts and milk. Its first product will be available shortly, the company says. For now, mobile phones are more likely to deliver smells than detect them. Edwards’ Vapor Communications, for example, in April launched Cyrano, a tub-sized cylinder that users can direct to emit scents from a mobile app – in the same way iTunes or Spotify directs a speaker to emit sounds.

Japanese start-up Scentee is revamping its scent-emitting smartphone module, says co-founder Koki Tsubouchi, shifting focus from sending scent messages to controlling the fragrance of a room.

There may be scepticism – history and cinemas are littered with the residue of failed attempts to introduce smell into our lives going back to the 1930s – but companies sniff a revival.

Dutch group Philips filed a recent patent for a device that would influence, or prime, users’ behavior by stimulating their senses, including through smell. Nike filed something similar, pumping scents through a user’s headphones or glasses to improve performance.

The holy grail, though, remains sensing smells.

Samsung Electronics was recently awarded a patent for an olfactory sensor that could be incorporated into any device, from a smartphone to an electronic tattoo.

One day these devices will be commonplace, says Avery Gilbert, an expert on scent and author of a book on the science behind it, gradually embedding specialized applications into our lives.

‘I don’t think you’re going to solve it all at once,’ he says.