Inos Process Solutions

03/04/2026

29/03/2026

With Electrical Engineering & Technology – We just made it onto their weekly engagement list by being one of their top engagers!

29/03/2026

Power your projects with precision! This essential reference chart simplifies electrical planning by aligning motor power in kilowatts with the required current and optimal cable cross-section, ensuring your three-phase systems run safely and efficiently every time.

22/03/2026

Powering industry with precision and safety ⚡
This control circuit ensures smooth operation of a three-phase motor using contactors, protection devices, and emergency controls—delivering reliability, efficiency, and smart automation in every electrical system.

22/03/2026

Three-phase motor control wiring with MCCB, contactor, overload relay, timer, and auto/manual selector switch. The circuit uses start and stop push buttons for safe motor operation, providing both automatic and manual control in industrial electrical systems. ⚡🔧

22/03/2026

Powering industry with precision and protection ⚡ This 3-phase motor control system ensures safe startup, overload protection, and real-time monitoring. Reliable, efficient, and engineered for performance—keeping machines running smoothly and operations unstoppable.

22/03/2026

Delay Stop Control

22/03/2026

“Electrical wiring diagram of a refrigerator compressor showing the power plug, thermostat, overload protector (OLP), PTC starter relay, running capacitor, starting capacitor, and compressor terminals (Common, Run, Start). The circuit uses both start and run capacitors to start and operate the compressor motor safely.”

22/03/2026

Reliable motor control with built-in protection ⚡
This system combines MCCB, transformer, contactor, push buttons, and overload relay to ensure safe starting, stopping, and protection of a three-phase induction motor—delivering efficiency, durability, and industrial-grade performance.

22/03/2026

22/03/2026

Norway is actively developing large-scale offshore seaweed farms, particularly along its rugged coastline and in nutrient-rich northern waters like off Trøndelag, to tackle climate change through dual-purpose marine innovation.

These cultivation efforts focus on fast-growing kelp species that excel at photosynthesis, drawing substantial amounts of carbon dioxide from seawater—and indirectly from the atmosphere—far more rapidly than terrestrial plants, sometimes up to 50 times faster.

Projects such as the Seaweed Carbon Solutions pilot, involving research organizations like SINTEF alongside industry partners, have established demonstration farms spanning hectares with thousands of meters of cultivation lines.

These initiatives test scalable techniques for growing, harvesting, and utilizing biomass in ways that support both carbon removal and sustainable energy production.

The harvested seaweed serves as versatile feedstock for renewable biofuels, including biogas, bioethanol, and other bio-based fuels, helping displace fossil alternatives while fostering a circular blue bioeconomy.

Additional products like bioplastics, fertilizers, animal feed, and even biochar emerge from the process, enhancing economic viability.

Although current pilots capture modest quantities—such as around 15 tonnes of CO₂ from 150 tonnes of biomass—the emphasis lies on proving cost-effective methods, refining technologies, and preparing for future upscaling.

Norway's cold, productive ocean environment positions it as a leader in ocean-based climate solutions that simultaneously sequester carbon and generate clean energy resources.