Want to know how much website downtime costs, and the impact it can have on your business?
Find out everything you need to know in our new uptime monitoring whitepaper 2021



A hamster exercise balls has proved the inspiration for a team of researchers at The Robotics and Cybernetic Research group at the University of Madrid.
The team, whose area of interest is developing robots which are able to navigate rough and uneven terrain, realised that in such landscapes a conventional robot – with legs, wheels or tracks, would frequently get stuck when coming up against ruts, shifting surfaces (such as sand dunes) or debris.
The four strong team realised that using a sphere, very much like a hamster’s exercise ball, which houses the motor and robotics, would prove far more stable and better at navigating this terrain.
Inside the Rosphere robot a weight and control systems hang from a spindle. As the weight swings on the spindle this propels the Rosphere backwards or forwards, with a drive wheel to help steer the sphere.
The trick used by hamsters to get an exercise ball rolling is helping to power a spherical robot.
In time the Rosphere robots will be fitted with camera and monitoring sensors. An early use of the robots, with research funding having come from the European Union, is to use the robots to help farmers detect changes to crop conditions.
The Rosphere robots, with sensors to detect temperature, soil moisture levels and so on, could be used on farms to wander up and down crop fields checking for when crops need watering and for instance assisting agronomists in making decisions when to provide nutrients to crops.
James Barnes, StatusCake.com
Share this
5 min read AI Has Made Building Monitoring Easy. It Hasn’t Made Owning It Any Easier. A few months ago, I spoke to an engineering manager who proudly told me they had rebuilt their monitoring stack over a long weekend. They’d used AI to scaffold synthetic checks. They’d generated alert logic with dynamic thresholds. They’d then wired everything
3 min read In the previous posts, we’ve looked at how alert noise emerges from design decisions, why notification lists fail to create accountability, and why alerts only work when they’re designed around a clear outcome. Taken together, these ideas point to a broader conclusion. That alerting is not just a technical system, it’s a socio-technical one. Alerting
3 min read In the first two posts of this series, we explored how alert noise emerges from design decisions, and why notification lists fail to create accountability when responsibility is unclear. There’s a deeper issue underneath both of those problems. Many alerting systems are designed without being clear about the outcome they’re meant to produce. When teams
3 min read In the previous post, we looked at how alert noise is rarely accidental. It’s usually the result of sensible decisions layered over time, until responsibility becomes diffuse and response slows. One of the most persistent assumptions behind this pattern is simple. If enough people are notified, someone will take responsibility. After more than fourteen years
3 min read In a previous post, The Incident Checklist: Reducing Cognitive Load When It Matters Most, we explored how incidents stop being purely technical problems and become human ones. These are moments where decision-making under pressure and cognitive load matter more than perfect root cause analysis. When systems don’t support people clearly in those moments, teams compensate.
4 min read In the previous post, we looked at what happens after detection; when incidents stop being purely technical problems and become human ones, with cognitive load as the real constraint. This post assumes that context. The question here is simpler and more practical. What actually helps teams think clearly and act well once things are already
Find out everything you need to know in our new uptime monitoring whitepaper 2021