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The Story of Voisey’s Bay: The Discovery (1 of 3)

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Part 1: The DiscoveryPart 2: The AuctionPart 3: Voisey's Today

The Story of Voisey's Bay: The Discovery (Part 1 of 3)
Part 1: The DiscoveryPart 2: The AuctionPart 3: Voisey's Today

The Story of Voisey’s Bay: The Discovery (Part 1 of 3)

Presented by: Equitas Resources, “Nickel exploration in Labrador”

Preface

The legendary story of one of Canada’s most significant base metal discoveries happened just before the dawn of the internet era. While some investors recall the sequence of events and the value that was created by Diamond Fields, there are many investors today, both new and old, who are not familiar with the story of Voisey’s Bay.

For this infographic, we have turned to Jacquie McNish’s fabulous book The Big Score, which documents the history of the discovery, biographical elements of Robert Friedland’s life, and the ensuing bidding war between Inco and Falconbridge that led to one of the most spectacular takeovers in mining history. If you like these infographics, then look into buying Jacquie’s book. It was gripping and full of information.

The Origins

By its very definition, a discovery is the breakthrough action of finding something of value that no one knew existed. Discoveries come in all shapes and sizes – but it turns out many of the very best discoveries happen in the most unsuspecting of conditions.

Labrador is located on the Northeast tip of Quebec in Canada, and it’s in this remote area that the Voisey’s Bay discovery takes place. Labrador is bigger than Great Britain and has over 8,000km of coastline, yet only a population of just 26,700. For context, caribou outnumber people in Labrador by a ratio of 13:1.

In 1985, geologists of the Newfoundland Department of Mines and Energy conducted a survey of one of the most remote parts of Labrador. Voisey’s Bay is 35km from Nain, a small town of 1,000 people.

The team, in a helicopter-supported survey, tested samples in the area, but were not encouraged by the low metal content of the weathered rocks exposed at surface. They left and didn’t look back.

In early 1993, Michael McMurrough of a fledgling company called Diamond Fields Resources was looking for untapped diamond properties to add to the company’s property portfolio. He had heard that a place called “Labrador” had ancient Archean rock formations – one of the earth’s oldest rock groups – where diamonds can form in kimberlite pipes. While Labrador’s wealth in iron ore is well-documented, no diamonds have ever been discovered in the region.

Diamond Fields’ geologist, Rod Baker, was sent to Newfoundland in April 1993 but found that the best diamond prospects had just been staked by two Newfoundlanders. Al Chislett and Chris Verbiski, and their prospecting outfit named Archean Resources, eventually convinced Diamond Fields to pay $372,000 in annual instalments over four years to acquire their claims. Diamond Fields also agreed to pay $500,000 to start an exploration program.

The two prospectors sampled throughout the summer of 1993 without much luck, but they did chip some samples of chalcopyrite, a copper-bearing mineral, from an outcrop. The samples came back with 2% copper, and they pushed for Diamond Fields to put more money into the exploration program.

Diamond Fields

At this time, Diamond Fields was a fledgling company. Running under Robert Friedland’s umbrella of Ivanhoe Capital, the company had its share of issues. Legal problems were mounting, and the company had finally just raised cash in a desperation move: the company impressed investors with its idea of “vacuuming” diamonds off the seafloor near Namibia.

It was company geologist Richard Garnett that convinced the board of Diamond Fields to pursue the Labrador findings, which he had been tracking. The company eventually was able to allocate $220,000 to Labrador – or 40% of what Chislett and Verbiski recommended for follow-up spending.

The Discovery

In August 1994, the prospectors received more detailed assays from the samples they collected – assays that confirmed a multi-element deposit with cobaltite, copper, magnetite, and exceptionally high amounts of nickel. In fall, the team tried to beat winter by executing the next phase of exploration.

On drill hole number two: they hit. The drill core was yellow – not from gold, but from high-grade massive sulphides. The hole was 33 metres long, and signified that Diamond Fields was finally onto something.

At this point, Robert Friedland reigned in control of the company with one mission: to auction off the discovery for the highest price.

View Part 2: The Auction

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Base Metals

Prove Your Metal: Top 10 Strongest Metals on Earth

There are 91 elements that are defined as metals but not all are the same. Here is a breakdown of the top 10 strongest metals and their applications.

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Prove Your Metal: Top 10 Strongest Metals on Earth

The use of metals and the advancement of human civilization have gone hand in hand — and throughout the ages, each metal has proved its worth based on its properties and applications.

Today’s visualization from Viking Steel Structures outlines the 10 strongest metals on Earth and their applications.

What are Metals?

Metals are solid materials that are typically hard, shiny, malleable, and ductile, with good electrical and thermal conductivity. But not all metal is equal, which makes their uses as varied as their individual properties and benefits.

The periodic table below presents a simple view of the relationship between metals, nonmetals, and metalloids, which you can easily identify by color.

The Periodic Table

While 91 of the 118 elements of the periodic table are considered to be metals, only a few of them stand out as the strongest.

What Makes a Metal Strong?

The strength of a metal depends on four properties:

  1. Tensile Strength: How well a metal resists being pulled apart
  2. Compressive Strength: How well a material resists being squashed together
  3. Yield Strength: How well a rod or beam of a particular metal resists bending and permanent damage
  4. Impact Strength: The ability to resist shattering upon impact with another object or surface

Here are the top 10 metals based on these properties.

The Top 10 Strongest Metals

RankType of MetalExample UseAtomic WeightMelting Point
#1TungstenMaking bullets and missiles183.84 u3422°C / 6192 °F
#2 SteelConstruction of railroads, roads, other infrastructure and appliancesn/a1371°C / 2500°F
#3ChromiumManufacturing stainless steel51.96 u1907°C / 3465°F,
#4TitaniumIn the aerospace Industry, as a lightweight material with strength47.87 u1668°C / 3032°F
#5IronUsed to make bridges, electricity, pylons, bicycle chains, cutting tools and rifle barrels55.85 u1536°C / 2800°F
#6Vanadium80% of vanadium is alloyed with iron to make steel shock and corrosion resistance50.942 u1910°C / 3470°F
#7LutetiumUsed as catalysts in petroleum production.174.96 u1663 °C / 3025°F
#8ZirconiumUsed in nuclear power stations.91.22 u1850°C / 3.362°F
#9OsmiumAdded to platinum or indium to make them harder.190.2 u3000°C / 5,400°F
#10TantalumUsed as an alloy due to its high melting point and anti-corrosion.180.94 u3,017°C / 5462°F

Out of the Forge and into Tech: Metals for the Future

While these metals help to forge the modern world, there is a new class of metals that are set to create a new future.

Rare Earth elements (REEs) are a group of metals do not rely on their strength, but instead their importance in applications in new technologies, including those used for green energy.

MetalUses
NeodymiumMagnets containing neodymium are used in green technologies such as the manufacture of wind turbines and hybrid cars.
LanthanumUsed in catalytic converters in cars, enabling them to run at high temperatures
CeriumThis element is used in camera and telescope lenses.
PraseodymiumUsed to create strong metals for use in aircraft engines.
GadoliniumUsed in X-ray and MRI scanning systems, and also in television screens.
Yttrium, terbium, europiumMaking televisions and computer screens and other devices that have visual displays.

If the world is going to move towards a more sustainable and efficient future, metals—both tough and smart—are going to be critical. Each one will serve a particular purpose to build the infrastructure and technology for the next generation.

Our ability to deploy technology with the right materials will test the world’s mettle to meet the challenges of tomorrow—so choose wisely.

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Base Metals

20 Common Metal Alloys and What They’re Made Of

You can’t find stainless steel, brass, sterling silver, or white gold on the periodic table. Learn about 20 common metal alloys, and what they are made from.

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Every day, you’re likely to encounter metals that cannot be found anywhere on the periodic table.

You may play a brass instrument while wearing a white gold necklace – or maybe you cook with a cast iron skillet and store your leftovers in a stainless steel refrigerator.

It’s likely that you know these common metal alloys by name, and you can probably even imagine what they look and feel like. But do you know what base metals these alloys are made of, exactly?

Common Metal Alloys

Today’s infographic comes to us from Alan’s Factory Outlet, and it breaks down metal and non-metal components that go into popular metal alloys.

In total, 20 alloys are highlighted, and they range from household names (i.e. bronze, sterling silver) to lesser-known metals that are crucial for industrial purposes (i.e. solder, gunmetal, magnox).

20 Common Metal Alloys and What They

Humans make metal alloys for various reasons.

Some alloys have long-standing historical significance. For example, electrum is a naturally-occurring alloy of gold and silver (with trace amounts of copper) that was used to make the very first metal coins in ancient history.

However, most of the common metal alloys on the above list are actually human inventions that are used to achieve practical purposes. Some were innovated by brilliant metallurgists, while others were discovered by fluke, but they’ve all had an ongoing impact on our species over time.

Alloys with an Impact

The Bronze Age (3,000 BC – 1,200 BC) is an important historical period that is rightfully named after one game-changing development: the ability to use bronze. This alloy, made from copper and tin, was extremely useful to our ancestors because it is much stronger and harder than its component metals.

Steel is another great example of an alloy that has changed the world. It is one of the most important and widely-used metals today. Without steel, modern civilization (skyscrapers, bridges, etc.) simply wouldn’t be possible.

While nobody knows exactly who invented steel, the alloy has a widely-known cousin that was likely invented in somewhat accidental circumstances.

In 1912, English metallurgist Harry Brearley had been tasked with finding a more erosion-resistant steel for a small arms manufacturer, trying many variations of alloys with none seeming to be suitable. However, in his scrap metal heap – where almost all of the metals he tried were rusting – there was one gun barrel that remained astonishingly untouched.

The metal alloy – now known to the world as stainless steel – was a step forward in creating a corrosion-resistant steel that is now used in many applications ranging from medical uses to heavy industry.

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