39
Y
Yttrium

Yttrium

Element 39 • Transition Metal
Atomic Mass 88.905840
Electron Config Unknown
Group/Period 3/5

Overview

ANALYZED
Yttrium is the silvery transition metal that powers red phosphors in television screens and creates the strongest magnets on Earth! Named after the Swedish village of Ytterby, which has the remarkable distinction of having four different elements discovered in minerals from its quarry, Yttrium has become absolutely essential for modern high-tech applications despite being relatively unknown to the general public. Discovered in 1794 by Finnish chemist Johan Gadolin while analyzing a heavy black mineral from Ytterby, Sweden, Yttrium was initially called "yttria" (its oxide form). The pure metal wasn't isolated until 1828 by Friedrich Wöhler, and high-purity Yttrium only became available in the 1950s. This delay meant Yttrium's incredible properties weren't fully exploited until the modern electronics age. What makes Yttrium absolutely crucial is its role in creating Yttrium aluminum garnet (YAG), one of the most important synthetic crystals ever developed. YAG crystals doped with rare earth elements create powerful lasers used for everything from industrial cutting to eye surgery. Neodymium-doped YAG (Nd:YAG) lasers can cut through steel or perform delicate retinal surgery with equal precision. Yttrium also revolutionized television technology. Yttrium oxide phosphors create the brilliant red color in cathode ray tube TVs and computer monitors. Before flat screens, every color TV contained Yttrium compounds that glowed red when struck by electrons, making color television possible on a mass scale. Here's something extraordinary: Yttrium barium copper oxide (YBCO) is a high-temperature superconductor that conducts electricity with zero resistance when cooled with liquid nitrogen. This "miracle material" opened up practical applications for superconductivity, from MRI machines to experimental magnetic levitation trains.

Physical Properties

MEASURED
Atomic Mass
88.905840 u
Melting Point
1799.00 °C
Boiling Point
3609.00 °C
Ionization Energy
6.22 kJ/mol

Special Properties

CLASSIFIED
STABLE Generally safe to handle with standard precautions

Applications

CATALOGUED

Yttrium: The Phosphor Enabler

Yttrium enables modern displays and lighting through its exceptional phosphor properties, while its role in superconducting ceramics and advanced alloys makes it essential for cutting-edge technology applications.

Display Technology

Yttrium oxide (Y₂O₃) serves as the host material for red phosphors in LED displays, television screens, and computer monitors. Yttrium aluminum garnet (YAG) phosphors convert blue LED light to white light in energy-efficient lighting systems.

Superconducting Ceramics

Yttrium barium copper oxide (YBCO) represents the first practical high-temperature superconductor, enabling power transmission, magnetic levitation, and medical imaging applications at liquid nitrogen temperatures rather than expensive liquid helium cooling.

Laser Technology

Nd:YAG lasers use Yttrium aluminum garnet crystals doped with neodymium for industrial cutting, medical surgery, and military applications. These solid-state lasers provide reliable, high-power performance for precision manufacturing and medical procedures.

Common Uses

INDEXED

Yttrium: Advanced Technology

  • Display & Lighting
    • LED television and computer displays
    • Energy-efficient LED lighting systems
    • Fluorescent lamp phosphors
    • Projection display systems
  • Medical Applications
    • Laser surgery equipment
    • Medical imaging systems
    • Cancer treatment radioisotopes
    • Dental laser procedures
  • Industrial Lasers
    • Metal cutting and welding systems
    • Precision manufacturing equipment
    • Materials processing lasers
    • Quality control and measurement
  • Advanced Materials
    • Superconducting power cables
    • High-performance ceramics
    • Specialized alloys and composites
    • Research and development applications

Natural Occurrence

SURVEYED

Yttrium: Rare Earth Concentration

Yttrium occurs in rare earth element deposits, particularly in xenotime and monazite minerals. Major sources include ion-absorption clays in southern China and placer deposits in Malaysia and Australia.

Discovery

ARCHIVED
1794

The Quarry Discovery

Johan Gadolin discovered yttrium in 1794 while analyzing gadolinite mineral from a quarry near Ytterby, Sweden. The village of Ytterby ultimately gave its name to four different elements: yttrium, ytterbium, erbium, and terbium.

Safety Information

CRITICAL

Yttrium Safety: Low
Toxicity

Yttrium compounds exhibit relatively low toxicity, though inhalation of fine particles should be avoided.

Standard laboratory safety procedures provide adequate protection for most Yttrium applications.

Safety Measures

Personal protective equipment and dust control measures prevent inhalation exposure. Radioactive Yttrium isotopes require radiation safety protocols and appropriate shielding.

Knowledge Database

Essential information about Yttrium (Y)

Yttrium is unique due to its atomic number of 39 and belongs to the Transition Metal category. With an atomic mass of 88.905840, it exhibits distinctive properties that make it valuable for various applications.

Yttrium has several important physical properties:

Melting Point: 1799.00 K (1526°C)

Boiling Point: 3609.00 K (3336°C)

State at Room Temperature: solid

Atomic Radius: 180 pm

Yttrium has various important applications in modern technology and industry:

Yttrium: The Phosphor Enabler

Yttrium enables modern displays and lighting through its exceptional phosphor properties, while its role in superconducting ceramics and advanced alloys makes it essential for cutting-edge technology applications.

Display Technology

Yttrium oxide (Y₂O₃) serves as the host material for red phosphors in LED displays, television screens, and computer monitors. Yttrium aluminum garnet (YAG) phosphors convert blue LED light to white light in energy-efficient lighting systems.

Superconducting Ceramics

Yttrium barium copper oxide (YBCO) represents the first practical high-temperature superconductor, enabling power transmission, magnetic levitation, and medical imaging applications at liquid nitrogen temperatures rather than expensive liquid helium cooling.

Laser Technology

Nd:YAG lasers use Yttrium aluminum garnet crystals doped with neodymium for industrial cutting, medical surgery, and military applications. These solid-state lasers provide reliable, high-power performance for precision manufacturing and medical procedures.

1794

The Quarry Discovery

Johan Gadolin discovered yttrium in 1794 while analyzing gadolinite mineral from a quarry near Ytterby, Sweden. The village of Ytterby ultimately gave its name to four different elements: yttrium, ytterbium, erbium, and terbium.

Discovered by: <div class="discovery-content"> <h3>The Quarry Discovery</h3> <p><strong>Johan Gadolin</strong> discovered yttrium in 1794 while analyzing gadolinite mineral from a quarry near Ytterby, Sweden. The village of Ytterby ultimately gave its name to four different elements: yttrium, ytterbium, erbium, and terbium.</p> </div>

Year of Discovery: 1794

Yttrium: Rare Earth Concentration

Yttrium occurs in rare earth element deposits, particularly in xenotime and monazite minerals. Major sources include ion-absorption clays in southern China and placer deposits in Malaysia and Australia.

General Safety: Yttrium should be handled with standard laboratory safety precautions including protective equipment and proper ventilation.

Yttrium Safety: Low
Toxicity

Yttrium compounds exhibit relatively low toxicity, though inhalation of fine particles should be avoided.

Standard laboratory safety procedures provide adequate protection for most Yttrium applications.

Safety Measures

Personal protective equipment and dust control measures prevent inhalation exposure. Radioactive Yttrium isotopes require radiation safety protocols and appropriate shielding.

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