Get in Touch

Bright Sparks – Michael Faraday

The modern world would look very different without the contributions of those who helped us harness electricity and develop electrical equipment. Here, we focus on some of the pioneers of the electrical world and their remarkable achievements.

NAME: Michael Faraday

DATES: 22 September 1791 (Newington, Surrey, UK) – 25 August 1857 (Richmond Upon Thames, UK)

EARLY LIFE: One of four children, born to a blacksmith father who was often unable to work due to ill health, Faraday suffered an impoverished childhood with little formal education. He became a bookbinder’s apprentice aged 14, which gave him the opportunity to study encyclopaedias and led to his first experiments in electrochemistry.

Following his attendance at lectures by Humphry Davy, a renowned chemist who discovered several elements, including boron, sodium and potassium, Faraday won a post as a Chemical Assistant at the Royal Institution in London in 1813. He travelled with Davy across mainland Europe, meeting other scientists and furthering his studies.

FIRST DISCOVERY: was in 1820, when he successfully produced the first compounds of carbon and chlorine.

MAJOR ACHIEVEMENTS: Faraday’s most significant achievements were in the fields of electromagnetism and electrochemistry. They included work on electromagnetic rotation and electromagnetic induction, which allowed electricity to be harnessed for practical use in motors, generators and transformers.

During his working life, he was involved in helping to name many electrical terms used today, including electrode, cathode and ion. He also gave his name to many inventions, including the Faraday cage and the Faraday cup.

1820s

1821 published the results of work he had carried out on electromagnetic rotation. This later led to the development of the electric motor.

1820s carried out work on steel alloys as a precursor to later scientific developments in metallurgy.

1826 established Friday Evening Discourses and the Christmas Lectures at the Royal Institution, which are still held today.

1830s

1830 became Professor of Chemistry at the Royal Military Academy in Woolwich.

1830 developed a theory on ions – later, the Faraday cup was named after him; this is a metal cup that catches charged particles in a vacuum to work out how many ions or electrons are hitting the cup.

1831 discovered electromagnetic induction, the principle behind the electric transformer and generator.

1836 invented the Faraday cage, also known as the Faraday shield – used to block electrical fields.

1836 appointed Scientific Adviser to Trinity House, where the first and only lighthouse in London was built for him to test his work with optical lenses and electrical generators.

1839 established his new and general theory of electrical action.

1840s

1845 investigated and performed experiments to try and prove the existence of an electrotonic state, which later influenced James Clerk Maxwell’s mathematical theory of electrical and magnetic fields.

1845 furthered work on diamagnetic materials.

3 THINGS YOU MIGHT NOT KNOW:

1.    In his younger years, Faraday was often called as an expert witness in trials where chemical analysis was required.
2.    One of the most important and life-long influences on Faraday was his adherence to the Sandemanian Christian sect.
3.    In recognition of his many scientific achievements, Faraday was given the use of a house at Hampton Court by Queen Victoria – he died there in 1867.

LEGACY:

As a physicist and chemist of great renown, Faraday not only made discoveries that benefited advances in how we harness electricity but also inspired those who followed with their own inventions. Having been born into poverty, he showed what can be achieved when individuals study and apply themselves to the advancement of science.

image description

What a Factory Acceptance Test (FAT) Should Include and Why It Matters

Installing new machinery, production equipment or automated systems into a factory is rarely a small decision. For most manufacturers, it involves significant capital investment, careful planning, disruption to normal operations and a clear expectation that the new equipment will improve output, efficiency, quality or safety. That is why a Factory Acceptance Test, often shortened to […]

Read more
image description

Retrofitting Automation into Older Factories: Where to Begin

As UK manufacturers adapt to the changing demands of production, factory automation is becoming essential, not just for new high-tech facilities, but for older, established sites too. Many mid-sized and large manufacturers operating in legacy buildings are turning to automation to increase productivity, lower costs, and deal with staffing challenges. However, adding automation to an […]

Read more
image description

Battery Energy Storage Systems: Why Safety Planning Matters More Than Ever

Battery energy storage systems are becoming an increasingly visible part of the UK energy landscape. Once seen mainly as large-scale infrastructure supporting renewable generation and grid balancing, they are now moving into the conversation for industrial and commercial sites too. As more businesses explore onsite generation, peak load management, resilience planning and wider decarbonisation strategies, […]

Read more
image description

UK Manufacturing in 2026: Trends Shaping Your Electrical Infrastructure

Introduction: As manufacturers gear up for 2026, the industry faces a wave of change. In our latest white paper, “UK Manufacturing Trends 2026: What They Mean for Your Electrical Infrastructure,” we explore the top trends set to reshape factories across the country. From the rise of smart automation to the pursuit of net-zero, these developments […]

Read more
image description

Why Voltage Optimisation Still Delivers ROI in 2026

Voltage optimisation isn’t a new idea. It’s been part of industrial electrical design for years. Yet in 2026, it’s still one of the most misunderstood energy-reduction measures and often dismissed as “old tech” or oversold as a guaranteed saving for every site. The reality is somewhere inbetween. For the right type of manufacturing plant, especially […]

Read more
image description

Automating for Efficiency: How UK Manufacturers Are Boosting Output

Over the past few years, UK manufacturers have had to do more with less: tighter labour markets, rising input costs, and pressure to shorten lead times without compromising quality. In this environment, automation isn’t a luxury. It’s a practical way to increase output, stabilise quality, and free people from repetitive tasks so they can focus […]

Read more