It seems that everywhere that you go in the water industry at the current time, somebody is talking about digital transformation…or if we go back five minutes, it was Water 4.0…and 10 minutes ago (it seems), it was “smart water.” These are all very well used buzzwords that the industry is destined to think about for a short-term and then promptly forget about. In reality, though, we as an industry have been hit by a number of different concepts for a number of different technological aspects for a good number of years now. For almost as long we have had a term for all of this — “widgets.”
In the world of industrial automation, the talk is centered around “industrial internet of things” (IIoT). With buzzwords like “Industry 4.0”, “IoT”, “digital twin”, “cloud computing”, “artificial intelligence”, “machine learning”, and “deep learning”, it is difficult for automation engineers and business managers to determine how to implement these new technologies.
A Digital Twin is a virtual replica of a physical asset that is updated in real-time via a two-way data connection and, as such, representative of its live characteristics.
It took some time for computational fluid dynamics (CFD) to find its way to the water industry, but now that it has, a primer is warranted to understand its application.
The journey toward intelligent water can be expedited with eight key steps — a guideline for gliding through the Digital Water Adoption Curve.
Denver Water serves 1.4 million people in the city of Denver and the surrounding suburbs. It is the largest — and oldest — water utility in the state of Colorado and its service area covers more than 335 square miles.
As digitalization continues to grow in the water and wastewater industry, cybersecurity becomes an increasingly important responsibility.
The first SWAN Digital Twin Workshop brought together key voices from around the world representing water utilities, academia, and technology vendors to help build consensus on the foundational definitions and guiding values needed to underpin digital twin concepts and architectural framework.
Water scarcity. Aging infrastructure. Uncertainty due to climate change. Experts from across the water sector agree that water challenges are intensifying, and that action and public awareness is a necessity. Now we have the need — and the opportunity — for those same voices to raise the volume on one of the most powerful ways to address increasing water threats: digital innovation.
Digital transformation of the water sector is continuing to grow in 2019. Climate change, urban population growth, tightening regulations, aging infrastructure, and water scarcity are some of the many global challenges water utilities will be forced to address in creative and cost-effective ways. To meet these needs, utilities are deploying an array of technologies that significantly alter operations and customer engagement.
Siemens offers to our customers the ability to both make process measurements and to remotely monitor the activity and health of that instrumentation without the need for SCADA systems or other expensive process control room products. By utilizing Siemens’ ability to offer unparalleled flow, level, pressure, temperature, and weight measurement as well as valve control, we can provide a broad range of process measurements and offer unequaled monitoring of the health and performance of those products.
As the world becomes increasingly connected, the integration of smart devices and tools, such as sensors, process control devices, security cameras, for example, have increased the need for well-established, secure machine-to-machine (M2M) communication and networking solutions. Many companies depend on effective communication technologies to reduce overhead costs and improve their bottom lines. By Paul Mercier, Regional Manager for OEM, Utility and Energy Markets, FreeWave Technologies, Inc.
VTScada Configuration Course and VTScada Scripting Course.
The simplicity of the compact, battery-powered Telog HPR-31 enables you to put it to work within minutes of unpacking. Once installed, the Telog HPR-31 measures water pressure at user programmable rates up to four samples per second with its internal pressure transducer. You can determine how often such data is summarized for reporting. The recorder computes any combination of minimum, average and maximum pressure measurement at each interval according to your selection of statistics and recording intervals. Recorded data may be gathered via an RS-232 connector using a handheld device or a laptop.
VTScadaLIGHT brings superior monitoring and control capabilities to a vast array of automation projects. Perfect for small industrial and personal applications up to 50 I/O.
Use a sewer network model to test variations in operational strategy, tactics, and emergency protocols in a risk-free way. Identify safe, inexpensive options to improve the resilience and daily management of sewer networks. For example, quickly determine the amount of bypass pumping required in the event of a sewer blockage.
