William Rowland invest in £10m expansion programme and relocation to Enterprise 36, Barnsley

Posted March 13th 2019

William Rowland 3d visual new plant


William Rowland has signed an agreement with Barmston Developments, a joint venture between Wilton Developments and Clugston Estates to acquire land and build a state of the art new manufacturing facility at Enterprise 36 in Barnsley.  This will involve relocation from the company’s current Meadow Street, Sheffield premises to a new 6.5-acre site close to Junction 36 of the M1 within the Sheffield City Region.

The company has operated from their current site since 1870 and are deemed to be one of the oldest metal trading businesses in the UK.

In line with their strategic direction and overall growth strategy, it was important to address the infrastructure to continue the current growth trajectory.  The company has added several new product lines in the last two years which sees them morphing into a manufacturing business, with the addition of several new processes across its refined metals, metal powders and speciality alloys segments.

The site selection, close to the AMRC corridor is strategic in nature and the 6.5-acre site being nine times larger than current ensures a strong element of future proofing.

“It was critical we removed the obstacles to our continued growth and put ourselves in a position to help our customers and suppliers grow their businesses.

‘’In selecting the site, we had to consider our strongest asset (employees) first as without them we cannot provide the outstanding levels of expertise and service our customers are accustomed to.  Additionally, we wish to become an employer of choice, and whilst we are renowned for service and stability, a modern place of work will help with that.’’ said Richard Lowe, MD for William Rowland.

William Rowland is owned by Amalgamated Metals Crop (AMC) who operate a variety of non- ferrous metals businesses globally and also offer a range of risk management services to the metals sector.

‘’Our parent company has a stable and balanced portfolio, and long term perspective which enables significant investments of this type, even when the economic climate is uncertain.

‘’The site will be fully operational in the first half of 2020, with the No.1 objective of no disruption to our valued customers.  I am really confident we can achieve a move with little disruption, we are in control of the disposal of the current site and have duplicate facilities in the West Midlands from where we can build buffer inventory.’’

“This move has been discussed with our customers and suppliers who have been really supportive”, said Lowe.

The company is being supported by Barnsley Council’s Enterprising Barnsley investment team, who has provided help and advice alongside specialist business coaching.

Cllr Roy Miller, Barnsley Council Cabinet Spokesperson for Place, said: “We’re delighted that the company has chosen to expand to Barnsley and look forward to supporting their future growth. Their decision to move to the borough is great news, and we welcome the new opportunities this will bring to our local jobs market and Barnsley’s economy.”

The expansion has also been supported through the Sheffield City Region, Business Investment Fund.

James Muir, Chair of the Sheffield City Region Local Enterprise Partnership, said: “We are delighted to support this development with a grant of £250,000 to enable Willian Rowland to expand its business.

“This is one of the oldest trading metal companies in the world and we are proud that William Rowland has selected the Sheffield City Region to base and grow its business, capitalising on its home-grown expertise and local supply chain.

“The Local Growth Fund is transformative and a great example of how the Mayoral Combined Authority and the Local Enterprise Partnership are working together to create growth and sustainability in the Region.”

By 2021 Government will have invested over £12bn through the Local Growth Fund. There are 38 LEPs covering the whole of England, which are investing LGF money in a wide range of projects including transport, skills, business support, broadband, innovation and flood defences.

Barmston Developments will also be delivering 77,000 sq ft and 41,500 sq ft industrial units in this phase at Enterprise 36, due for completion at the end of the year, whilst in addition fully preparing the ground for a 105,000 sq ft unit which could be started promptly.

The units are being built to a high specification and are being supported by Barnsley Council’s Property Investment Fund. The units are available To Let or For Sale and are being marketed by CPP Sheffield and the Leeds office of CBRE.

wr 2
Photo left to right: Nick Child, Barmston Developments; Bob Clark, Operations Manager William Rowland; Louise Brown, Management Accountant William Rowland; Simon Robinson, GM, Speciality Alloys; Neil Berry, Financial Director William Rowland; Paul Clifford, Head of Economic Development Barnsley Council; Richard Lowe, MD, William Rowland; Karen Tazzyman, Director William Rowland.

Did You Know You Can Now Buy Our Alloys and High Purity Metals Online?

Posted February 5th 2019


At William Rowland, we have been providing our customers around the world with the very best in high purity metal, alloys, powders, foundry additives and more for over 180 years, making us one of the oldest metal trading companies in the world today.

We have an extensive selection of metals and related products, suitable for various industries. Here are just a few of them:

High Purity Metals

If you’re looking for quality metal, then you need look no further. All of our stock of tin, bismuth and zinc is of the highest grade and available in a number of forms for your convenience, including granules, pellets and sticks.

Foundry Additives

We provide a number of foundry additives to our industrial clients, including inoculants, various carbon products, and minerals and compounds such as molybdic oxide and molybdenum trioxide.

tin pellets


As the world’s leading metal powder suppliers, we provide metal powders from some of the world’s most respected manufacturers. These include Vale, whose nickel powder is renowned across the industry, and Praxair’s thermal spray powders. We also produce our own metal powders – suitable for cosmetics, thermite, paints, pyrotechnics, and so much more – on site. These include aluminium, tungsten carbide, tin, brass, titanium, magnesium, ferro phosphorous, silicon metal, zinc, copper, cobalt, and many others.


We stock a huge variety of WR alloys, suitable for a range of applications. These include some excellent lead- and cadmium-free low melting point alloys for casting all manner of end products.

The William Rowland Online Shop

With our online store it has never been easier to buy the highest quality alloys and high purity metals on the market. With an intuitive interface and all items categorised in a logical manner, finding the right type of alloy for your current project could not be simpler. Sometimes you might need a specific quantity for a bespoke project, so if that is the case, get in touch with us as we can often be flexible on order size.

Many of our items are kept in stock and are ready for immediate dispatch following an order. This is why we can provide such a fast turnaround for our most popular lines. Knowing that we keep an item stocked means that you don’t need to worry about ordering in advance, and don’t have to waste space stocking in your own premises.

We ship worldwide and for orders over 100kg to Europe, we offer free delivery. The timeline for delivery will vary depending on the final destination. While UK orders can mostly be fulfilled between 2 – 5 days after order confirmation, European delivery will take longer. If your destination is outside of Europe, please get in touch with us for a quotation which will give you information on cost and lead time.

When you’re ready to place your order, we have a secure payment gateway in place, meaning your account details (including credit and debit card information) are as safe as they can be when ordering from us.

For more information about the products and services we provide, get in touch with William Rowland today on 0121 559 3031, where a member of our team will be glad to answer any of your queries. Alternatively, visit our online shop now and see for yourself the wide selection of products we have available for fast delivery across the globe.

Using Low Melting Point Alloys for Casting

Posted November 27th 2018

Low melting point alloys

Low melting point alloys (sometimes referred to as fusible alloys) fulfil a number of functions throughout the manufacturing industry. Boasting a number of interesting properties unique to them, they have numerous applications for tools and components.

What are low melting point alloys?

The name pretty much gives it away: these are alloys that can be melted at a low temperature (by which we mean 300° or under). However, this is the least interesting thing about them. Many are eutectic, meaning that their melting point as an alloy is lower than either of the melting points of their constituent metals. Other low melting point alloys have a variable melting point, resulting in an unusual composition as its temperature fluctuates between the alloy’s solid and liquid states.

Low melting point alloys for casting

Why use low melting point alloys for casting?

Traditional casting involves pouring a metal into a mould and creating a solid cast from it. However, creating the mould in the first place is a difficult job, since the material used must be able to withstand the heat of the metal being poured into them, and can often be difficult and expensive to manufacture in the first place. Advances in 3D printing have sought to remedy this with intricate moulds made from plastic, but these would liquefy under the extreme temperatures of most molten metals. By using low melting point alloys for casting, you can sidestep this issue and produce clean, detailed casts for components and tools every time.

Here at William Rowland, we provide an extensive range of low melting point alloys for casting and other applications. Most of our alloys are produced in-house at our own foundry in the heart of Birmingham and are tailored to meet our clients’ unique specifications. Contact William Rowland today on 0114 276 9421 to discuss your requirements with one of our specialist team members, who will be able to advise on the right low melting point alloys to meet your specific needs.

What is ferrous metal?

Posted May 3rd 2018

A ferrous metal is made up of iron and other metals to give the ferrous properties required. Although iron on its own is often referred to as a ferrous metal, the term really relates to any metal compounds that have iron in them. To test if a metal is ferrous or not, the valance is measured. A valence of +2 means that the metal is ferrous.
Ferrous metals have some well-known properties. One is that they are magnetic and another is that they are very durable. Ferrous metals are also usually very strong and rust resistant. As iron is the main factor found in all ferrous metal, the use of this sort of metal dates back to the start of the Iron Age. This was roughly around 1,200 B.C. when iron production really took off.

Types of ferrous metal

Ferrous metal is the name given to a group of different metal compounds that have the above properties. The most common type of ferrous metals around now are:
• Steel
• Carbon steel
• Engineering steel
• Cast iron
• Wrought iron
There are other forms of ferrous metal around such as tungsten carbide but the above are the most widely used in the modern age.

What can it be used for?

Due to the particular properties it has, ferrous metal has a wide range of uses. It is used extensively in the construction sector for example, where super-tough engineering steel is used to build with. Cast iron is used a lot in things like water pipes where its hard-wearing properties are valuable. Wrought iron is used for fencing and railings where its resistance to oxidisation is vital. The engineering sector also makes extensive use of ferrous metal for building machines and tools.

Let us help with your ferroalloy needs

Another use of iron within the engineering industry, in particular, is in producing ferroalloys. These alloys use iron as the base metal to which other elements, such as manganese, are added to give certain properties. If you are looking for ferroalloy suppliers then let us help.
As one of the leading ferroalloys suppliers around, we have a wide range to choose from to help meet all your engineering needs. Our ferroalloys come in a selection of forms, packages and sizes so you can get the one that is best suited to your needs.

Antimony Metal – What you need to know

Posted February 15th 2018

Antimony metal - what you need to know

Antimony metal

Antimony metal – what is it?

Antimony is a semimetallic chemical element which can exist in two forms: the metallic form is bright, silvery, hard and brittle; the non metallic form is a grey powder.

Antimony is a poor conductor of heat and electricity, it is stable in dry air and is not attacked by dilute acids or alkalis. Antimony and some of its alloys expand on cooling.

Antimony has been known since ancient times. It is sometimes found free in nature, but is usually obtained from the ores stibnite (Sb2S3) and valentinite (Sb2O3).

Nicolas Lémery, a French chemist, was the first person to scientifically study antimony and its compounds. He published his findings in 1707.

Antimony makes up about 0.00002% of the earth’s crust.


Antimony and its compounds were known to the ancients and there is a 5,000-year old antimony vase in the Louvre in Paris. Antimony sulfide (Sb2S3) is mentioned in an Egyptian papyrus of the 16th century BC.

The black form of this pigment, which occurs naturally as the mineral stibnite, was used as mascara and known as khol. The most famous user was the temptress Jezebel whose exploits are recorded in the Bible.

Another pigment known to the Chaldean civilization, which flourished in what is now southern Iraq in the 6th and 7th centuries BC, was yellow lead antimonite. This was found in the glaze of ornamental bricks at Babylon and date from the time of Nebuchadnezzar (604–561 BC).

Antimony became widely used in Medieval times, mainly to harden lead for type, although some was taken medicinally as a laxative pill which could be reclaimed and re-used!


Antimony is used in the electronics industry to make some semiconductor devices, such as infrared detectors and diodes.

It is alloyed with lead or other metals to improve their hardness and strength. A lead-antimony alloy is used in batteries. Other uses of antimony alloys include type metal (in printing presses), bullets and cable sheathing.

Antimony compounds are used to make flame-retardant materials, paints, enamels, glass and pottery.

What are Christmas baubles made of?

Posted December 20th 2017

Although modern day baubles are typically made of blown glass, they have a long history and in the past have been made of glass, wood, metal and various other materials.

Hans Greiner, who made glass beads and tin figures to hang on trees in addition to the traditional apples and candy canes, first manufactured Glass baubles in Lauscha, Germany. Glass tubes were heated over fire, and then inserted into a clay mold where they could be blown so that the glass expanded to fill the shape of the mold. Although the molds used today vary wildly in shape and size, the original ones tended to be fruits or nuts. In the 1850s, a silvering technique developed by Justus von Liebig was also incorporated which involved swirling a silver nitrate solution into the cooled glass after which the bauble could be painted.

As glass baubles became popular, other local glassblowers saw an opportunity and began to produce them in a wider range of designs and finishes. In 1832, a young queen Victoria was delighted to have a Christmas tree adorned with baubles, lights and other ornaments and when a picture of her tree was featured in a London newspaper, from her husbands native Germany, Lauscha began to export products through Europe, leading to the rise in the decorated Christmas tree that we know today.

Although round, glass baubles are the most well known, and typically seen Christmas tree decoration, they are available in all shapes and sizes, as well as different finishes now. Plastic can often be used to make cheaper and more affordable baubles, and metal may be used to make more intricate figures and decorations such as reindeers, angels and stars. Older Christmas decorations tend to be made of more expensive materials, such as silver bells or tinsel made of shredded silver – although this is rarely seen anymore. The decision to use cheaper materials, as we see today, is to make them more accessible and affordable, as well as cheaper and easier to mass produce.

metal christmas baubles

Surgical Metals

Posted December 12th 2017

The most commonly used metals in surgery are surgical stainless steel and titanium. Surgical stainless steel is a term used to label particular grades of stainless steel that are commonly used in biomedical appliances. The most common forms are austenitic 316 stainless steel and martensitic 440 and 420 stainless steels and whilst there is no certain definition of what constitutes surgical stainless steel, manufacturers generally recognise this to be any grade of corrosion resistant steel.

316 stainless steel is an alloy of chromium, nickel and molybdenum that is highly resistance to corrosion and relatively strong. 316 stainless steel can be cheaper to produce than the commonly used titanium alloy, Ti6AI4V, and as such is commonly used in the production of biomedical implants. Its drawback, however, is the nickel content which can induce a reaction with the immune system and cause complications. For any implants which may be subject to pressure once in place, such as body piercings, bone fixation screws and prostheses, austenitic steel is more commonly used.

Titanium has been commonly used for biomedical purposes since the 1950s, after already having been used in dentistry prior to this. It is commonly used to make prosthetics and can be used as the material for biomedical implants all over the body from false eye implants and spinal fusion cages, to pacemakers and hip replacements. In addition to thus, several surgical instruments are coated with titanium nitrade, an extremely hard ceramic material that hardens and protects surfaces. Titanium is commonly considered to be the most biocompatible metal due to its high level of corrosion resistance and high fatigue limit. A protective oxide film forms naturally in the presence of oxygen, which protects it from bodily fluids and prevents reactions between the metal and hosting environment.

Although both materials are useful, there are several differences between them that make them suitable for different things. Titanium is stronger and more lightweight than stainless steel, and less rigid which can limit the amount of stress placed on bones. It also lasts longer and generally has superior strength to stainless steel, although stainless steel is still commonly used in implants which will be placed under heavy strain. Another plus point for titanium is the fact that it does not contain nickel, making it by far the better option for those with proven or suspected nickel allergies. It is estimated that 10-20 percent of the population is allergic to nickel, which is a massive figure, and it is one of the main causes of contact dermatitis.

surgical metals

What does being a scrap metal dealer entail?

Posted December 5th 2017

Scrap metal is made up of recycled materials that have been left over from manufacturing and consumptions of products that use metals. This could be anything from parts of old vehicles, to surplus materials that have been discarded during the manufacturing process. It does not, however, include gold and silver, or any other alloy that is comprised of more than 2% of either gold or silver.

A scrap metal dealer is someone who deals with the sale of scrap metals and must have a licence in order to do so. Anyone who is a motor salvage dealer, or conducts business, which deals in any part of the buying and selling of scrap metals, may be deemed a scrap metal dealer. There are two types of licence that can be obtained – a site licence, which licenses the holder to buy and sell scrap metal from one or more sites in the local authority area, as well as transporting the material between multiple registered sites, and a collectors licence, which authorises someone to collect scrap metal in the local authority area. A separate licence must be obtained from each council the collector will be operating in and only one of each type of licence may be held in an individual local authority area.

The price of scrap metal may vary widely depending on location and these are often negotiated directly between sellers and buyers, although sometimes you may see scrap metal prices posted online or in publications. In the US, for example, scrap prices can be found in several publication such as American Metal Market.

One of the key benefits in recycling scrap metals is the impact on the environment. The US Environmental Protection Agency conducted research, which found that using recycled scrap metal instead of iron ore can save up to 75% of energy used in production, as well as giving a 97% reduction in mining wastes and 86% reduction in air pollution. These figures are phenomenal and are just a small insight into the benefits of using scrap metals, which can be just as effective as using virgin materials.

William Rowland is proud to include in its portfolio, the purchasing and sales of specialty revert and scrap metal. Our product range includes nickel based alloys, nickel and cobalt irons, nickel, chrome and molybdenum alloys, nickel copper alloys, cobalt based alloys, nickel cobalt alloys, and many more.

turnings scrap metal


Posted November 6th 2017

Tin is a chemical element, belonging to group 14 of the periodic table. Its symbol is Sn, which comes from the Latin stannum, and it is what we call a post-transition metal. It is commonly used in alloys, including bronze and pewter, as well as in the plating of steel to add a corrosion resistant layer.

Malleable and very ductile, tin is a silvery white coloured metal that has a relatively low melting point of 232 degrees Celsius (the lowest within that group in the periodic table). As it is so soft, it is unusual for tin to be used in its pure form and instead it is most commonly seen in alloys. Bronze is one of the most popular alloys we see tin in, produced since as early as 3000 BC. It is comprised of around 12% tin and the remainder of copper with a small amount of other metals such as aluminium and nickel. Tin is also used heavily in pewter, which can contain as much as 90% tin alongside copper, lead and antimony.

Due to a high level of corrosion resistance, tin is often used as a coating for lead, zinc and steel. Combined with a low level of toxicity this makes tin a perfect material for us in food packaging, such as tin plated steel cans.

Tin is also popularly used with lead as solder, which is used in electric circuits as well as piping systems. Following the European Union Waste Electrical and Electronic Equipment Directive and Restriction of Hazardous Substances Directive, which was introduced on 1 July 2016, the content of lead has decreased which leads to problems when trying to replace it, such as a higher melting point. Tin pest can sometimes occur in lead-free solders, which causes the deterioration of the tin at low temperatures.

Today the London Metal Exchange (LME) is the primary trading place for tin, although other tin markets include the Kuala Lumpur Tin Market (KLTM) and the Indonesia Tin Market (INATIN). Tin has historically had a high price especially during the years of agreements between producer and consumer countries. The International Tin Council have tried to keep this stable by buying stockpiles during periods of low price and selling these again during periods of high price in an effort to keep the price steady. However, the stockpile was never large enough and during the years of 1956 to 1985 tin prices mainly rose. The recession of 1981-82 had a dramatic impact on the tin industry with consumption reducing and the ITC stumbling into debt. This culminated in it reaching its credit limit in 1985 and tin being delisted from trading on the LME for three years. Following this, the ITC was dissolved and the price of tin has become more stable.

Today, William Rowland sells tin in the form of pellets and sticks.


Where is all the gold?

Posted October 25th 2017

The journal Nature recently published an article that argued the gold and silver found on Earth should be much more abundant than they are. Whilst both metals can be found scattered throughout space, they are relatively rare to find on Earth compared to other elements, and the lack of gold in particular has been a growing concern amongst the mining industry. Whilst the metal has always been scarce, it is being found less and less often which will certainly mean an increase in price as time goes on.

Bernard Wood, a geologist from Oxford University, argues that ‘The silicate Earth is strongly depleted in moderately volatile elements (such as lead, zinc, indium and alkali elements) relative to CI chondrites, the meteorites that compositionally most closely resemble the sun’. His paper studies the lack of gold and silver found on the planet, concluding that the way it was formed is the cause of this.

‘Earth’s Volatile Contents Established By Melting And Vapourisation’, as the paper is titled, looks at the formation of the earth and argues that the gold that would have been present at one time turns to gas once it reaches a particular level of temperature. Using a furnace, Wood studies the effects of heat on a model version of an early Earth, using temperatures of up to 1,300 degrees Celsius, as well as adding elements such as carbon dioxide, carbon monoxide, basaltic rock and zinc oxide to the process, to mimic the formation of the planet.

‘Our experiment shows that melting processes explain the pattern [of volatile depletion] perfectly’, concluded the study. ‘We find that the pattern of volatile element depletion in the silicate Earth is consistent with partial melting and vapourisation rather than with simple accretion of a volatile-rich chondrite-like body’.

gold bricks