Metalloid Collection

Silicon crystal, light micrograph
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a specimen of pure 99.999999 Silicon

Boron, atomic model. Boron has six neutrons (white) and five protons (pink) in its nucleus (centre). The atom also has five electron (blue) orbiting the nucleus

Silicon crystal, macrophotograph F005 / 6928
Macrophotograph of a specimen of pure 99.999999 Silicon. This is the poly-crystal Silicon that is left at the bottom of the crucible after the single crystal is grown and removed

Surface of microchip, light micrograph C018 / 6398
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 1.2mm

Surface of microchip, light micrograph C018 / 6399
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 2.4mm

Surface of microchip, light micrograph C018 / 6390
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 2.4mm

Surface of microchip, light micrograph C018 / 6381
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 2.4mm

Surface of microchip, light micrograph C018 / 6389
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 1.2mm

Surface of microchip, light micrograph C018 / 6382
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 5mm

Surface of microchip, light micrograph C018 / 6394
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 1.2mm

Surface of microchip, light micrograph C018 / 6403
Light micrograph taken with episcopic lighting and Normarski Interference Contrast (DIC) of a detail of a microchip on a silicon wafer. Horizontal object size: approximately 5mm

Silicon crystal, macrophotograph
Macrophotograph of a specimen of pure 99.999999 Silicon.This is the poly-crystal Silicon that is left at the bottom of the crucible after the single crystal is grown

Solar cells. Close-up of the surface of solar (photovoltaic) cells, which convert light into electrical energy. Cells are made from a semi-conductor such as silicon (as here)

Silicon, macrophotograph
Silicon. Close-up of the metalloid element silicon (Si). Silicon has a vast variety of uses, including in electronic components, cosmetic breast implants, waterproofing products

Germanium

Tellurium. Sample of the metalloid element Tellurium (Te). Tellurium is used in alloys to make the metal more machinable, as a semiconductor and in solar panels

Boron. Sample of the metalloid element boron (B). Major industrial-scale uses of boron compounds are in sodium perborate bleaches, and the borax component of fibreglass insulation

Chlorine. Vial containing a sample of chlorine (Cl) gas. Chlorine has many applications including as a constituent of bleach and in water as a disinfectant. It is toxic

Polonium crystal structure, computer model. This is the alpha (cubic) form of solid polonium. Polonium is a rare radioactive element. It is most often found in nature in uranium ores

Silicon. Lump of silicon, a chemical element with the symbol Si. It is a semi-metallic element, and belongs to group 14 of the periodic table

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"Unveiling the Enigmatic World of Metalloids: A Journey through Silicon and Boron" In the realm of materials science, metalloids stand as fascinating entities that blur the line between metals and non-metals. Let's embark on a captivating exploration into their intricate nature. Firstly, we encounter a mesmerizing sight - a magnified view of a Silicon crystal. Its intricate lattice structure reveals its unique properties, making it an essential component in countless electronic devices that shape our modern world. Moving forward, we delve deeper into the atomic realm with an atomic model of Boron. This metalloid showcases exceptional strength while maintaining its ability to conduct electricity – qualities highly sought after in various industries. As we zoom out from the microscopic world, we are greeted by a breathtaking macrophotograph capturing another Silicon crystal. The sheer beauty lies within its delicate patterns and symmetrical arrangement—a testament to the elegance hidden within these enigmatic elements. Shifting gears towards technology's heart, we shift our focus onto microchips' surfaces. Through light micrographs, we witness their intricacy up close—each image revealing different facets of this technological marvel. The first glimpse shows us surface C018/6398—an awe-inspiring network resembling an interconnected cityscape where information flows ceaselessly like rivers through streets lined with transistors and circuits. Surface C018/6399 invites us further into this digital metropolis—the vibrant colors painting a picture of precision and complexity as electrons dance across meticulously etched pathways. Next comes surface C018/6390—a snapshot showcasing how every minuscule detail plays a crucial role in shaping our interconnected world. Each tiny feature contributes to seamless communication between devices that have become indispensable parts of our lives. Surface C018/6381 beckons us closer still—the interplay between light and shadow highlighting minute imperfections that engineers tirelessly strive to overcome for enhanced performance and efficiency.