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Laboratory Collection (#75)

In the realm of scientific discovery, laboratories have served as the birthplace of countless breakthroughs and innovations

Background imageLaboratory Collection: SEM specimen drying equipment

SEM specimen drying equipment. Critical-point dryer and freeze-dryer for scanning electron microscope (SEM) specimen preparation

Background imageLaboratory Collection: Scientist in a laboratory

Scientist in a laboratory
MODEL RELEASED. Scientist with a microscope (lower left), in a laboratory

Background imageLaboratory Collection: Simple electrical circuit

Simple electrical circuit. This circuit consists of a bulb (centre right) connected to a power supply (top left). A voltmeter (bottom left)

Background imageLaboratory Collection: Antoine Lavoisier, French chemist

Antoine Lavoisier, French chemist
Antoine Laurent Lavoisier (1743-1794), French chemist. Lavoisier is considered to be the founder of modern chemistry. He was instrumental in the use of accurate measurement in chemistry for the study

Background imageLaboratory Collection: Refraction in water waves

Refraction in water waves. Waves of water travel more slowly in shallower areas. Therefore when waves move into a shallower area they bend (refract) at the boundary

Background imageLaboratory Collection: Jan Baptiste van Helmont and an alchemist

Jan Baptiste van Helmont and an alchemist. Artwork showing the Belgian doctor and chemist Jan Baptiste van Helmont (1579-1644, right), being given a piece of the Philosphers Stone by an alchemist

Background imageLaboratory Collection: Denis Papin and Robert Boyle, engraving

Denis Papin and Robert Boyle, engraving
Denis Papin and Robert Boyle. Engraving of the French scientist Denis Papin (1647- 1712), and Irish chemist Robert Boyle (1627- 91), discussing their experiments using air pumps in 1675

Background imageLaboratory Collection: Reflection of straight waves

Reflection of straight waves on a ripple tank

Background imageLaboratory Collection: Blood centrifuge

Blood centrifuge. A centrifuge is a machine that spins its contents around a central axis at very high speeds. The force created by the spinning separates groups of particles according to their

Background imageLaboratory Collection: Circular waves

Circular waves in a ripple tank

Background imageLaboratory Collection: Radioactive sources and storage

Radioactive sources and storage. Wooden box containing radioactive materials in front of a lockable metal storage box

Background imageLaboratory Collection: 17th century lecture by Nicolas Lemery

17th century lecture by Nicolas Lemery
17th century chemistry lecture. Artwork showing local people attending a chemistry lecture by the French chemist Nicolas Lemery (1645-1715)

Background imageLaboratory Collection: Nanotechnology research, artwork

Nanotechnology research, artwork
Nanotechnology research, conceptual computer artwork. Spectacles containing buckyball molecules. This might represent investigative research into nanotechnological products such as buckyballs

Background imageLaboratory Collection: William Harvey lecturing on circulation

William Harvey lecturing on circulation
William Harvey (1578-1657), English physician, dissecting an animal during a lecture on the circulation of blood. By 1616 Harvey had dissected 80 species of animals

Background imageLaboratory Collection: Neanderthal DNA extraction

Neanderthal DNA extraction. Close up view of a technician drilling a sample of fossilised Neanderthal (Homo neanderthalensis) bone

Background imageLaboratory Collection: 15th century chemistry equipment, artwork

15th century chemistry equipment, artwork. At left is a furnace used for distillation and sublimation. It has bellows on each side and contains two vessels

Background imageLaboratory Collection: Chloroform analysis, 19th century artwork

Chloroform analysis, 19th century artwork. Apparatus for the detection of chloroform in forensic investigations. This artwork is from Text-book of forensic medicine and toxicology (London)

Background imageLaboratory Collection: Arsenic detection, 19th century artwork

Arsenic detection, 19th century artwork. Apparatus for the detection of arsenic in forensic investigations. This artwork is from Text-book of forensic medicine and toxicology (London)

Background imageLaboratory Collection: Distillery filtering room

Distillery filtering room. Worker walking past tanks in the filtering area of a vodka and brandy distillery. This is the Yuzhnaya Stolitsa vodka and brandy distillery, in Rostov-on-Don, Russia

Background imageLaboratory Collection: Tobacco processing quality control

Tobacco processing quality control. Testing being carried out in a tobacco processing plant quality control laboratory. This laboratory is operated by the Russian company Donskoi Tabak

Background imageLaboratory Collection: Animal testing, conceptual image

Animal testing, conceptual image. Computer artwork of a silhouette of a rabbit superimposed on that of a microscope, representing the use of animals in scientific experiments

Background imageLaboratory Collection: Stem cell research

Stem cell research
MODEL RELEASED. Stem cell research. Scientist examining stem cell cultures

Background imageLaboratory Collection: Biological research

Biological research
MODEL RELEASED. Biological research. Scientist using a pipette to fill eppendorf vials. These are used in a wide range of biological experiments, ranging from genetic analysis to medical research

Background imageLaboratory Collection: Microbiological research

Microbiological research
MODEL RELEASED. Microbiological research. Scientist examining microbiological cultures in a petri dish

Background imageLaboratory Collection: Bacterial antibiotic production

Bacterial antibiotic production. Colony of Streptomyces coelicolor bacteria growing on an agar medium (not seen) in a petri dish

Background imageLaboratory Collection: Light microscope

Light microscope, computer artwork

Background imageLaboratory Collection: Chloride chemistry

Chloride chemistry

Background imageLaboratory Collection: Chemical explosion

Chemical explosion. Cork exploding out of a bottle of sparkling wine. There is no wine. The cork has exploded out due to an increase in pressure due to the production of gas in a chemical reaction

Background imageLaboratory Collection: Sulphuric acid added to water

Sulphuric acid added to water
Concentrated sulphuric acid (H2SO4) being added to water. The hydration reaction of sulphuric acid is highly exothermic and can cause the water to boil

Background imageLaboratory Collection: Litmus solution added to alkali

Litmus solution added to alkali
Litmus solution being added to an alkali. Litmus is an indicator, a chemical that has a different colour depending on whether it is in an acidic or alkaline environment. In alkalis it is purple/blue

Background imageLaboratory Collection: Calcium flame test

Calcium flame test. Calcium burning in air, producing an orange flame. The colour of the flame is caused by electrons that have been excited to a higher energy state

Background imageLaboratory Collection: Litmus solution added to acid

Litmus solution added to acid
Litmus solution being added to an acid. Litmus is an indicator, a chemical that has a different colour depending on whether it is in an acidic or alkaline environment. In acids it is red

Background imageLaboratory Collection: Sooty flame

Sooty flame. Alkene (oct-1-ene) burning in a crucible with a sooty (smoky) flame. Alkenes are unsaturated (double bonded) organic molecules. The sooty flame is characteristic of alkenes

Background imageLaboratory Collection: pH measurement of oxide solutions

pH measurement of oxide solutions
pHs of oxide solutions. Aqueous solutions of the oxides of some elements with universal indicator (UI) added to show their pH (acidity). The element forming each oxide is labelled

Background imageLaboratory Collection: Sulphuric and ethanoic acid

Sulphuric and ethanoic acid. Comparison of a strong and a weak acid. Sulphuric acid (H2SO4) is an important industrial chemical. It is used in petroleum refining and paint and fertiliser production

Background imageLaboratory Collection: Burning sugar

Burning sugar on a spoon

Background imageLaboratory Collection: Iron filings in pure oxygen

Iron filings in pure oxygen
Iron filings on a combustion spoon in a jar of pure oxygen. No reaction is occurring here as iron is not a very reactive metal

Background imageLaboratory Collection: Mass-spring system

Mass-spring system. This system consists of a loaded trolley tethered between two clamp stands by identical springs. Displacing the trolley to one side causes it to oscillate back and forth

Background imageLaboratory Collection: Quantum physics experiment

Quantum physics experiment. Physicists conducting an experiment with laser equipment in a quantum radio physics laboratory

Background imageLaboratory Collection: Crystalline structure

Crystalline structure demonstrated using a bubble raft. The bubble raft (or Bragg Raft) consists of a 2-dimensional array of bubbles of uniform size

Background imageLaboratory Collection: Filtration

Filtration
Filtering a liquid. Filtration is the process whereby a solid is separated from a liquid or gas using a membrane which will allow the passage of the fluid but not the solid

Background imageLaboratory Collection: Evaporation residues

Evaporation residues from distilled water (left) and hard water (right). Distilled water has had all its ions removed. Hard water contains dissolved mineral salts

Background imageLaboratory Collection: Cobalt chloride paper with drop of water

Cobalt chloride paper with drop of water
Cobalt chloride (CoCl2) paper with a drop of water. Cobalt chloride paper is used to indicate the presence of water - changing from blue to pink in a hydration reaction

Background imageLaboratory Collection: Brass analysis

Brass analysis. Image 6 of 7. Performing a titration to determine the percentage of copper in brass. This requires titration of iodine with sodium thiosulphate as the reagent

Background imageLaboratory Collection: Copper powder in pure oxygen

Copper powder in pure oxygen
Copper powder on a combustion spoon in a jar of pure oxygen. No reaction is occurring here as copper is not a very reactive metal

Background imageLaboratory Collection: Manganese and copper voltaic cell

Manganese and copper voltaic cell. Copper (right) and manganese (left) half cells joined by a salt bridge. When a stick of copper (Cu)

Background imageLaboratory Collection: Copper half cell

Copper half cell. When a stick of copper (Cu) is inserted in a copper salt solution it loses electrons according to the reaction CuCu2+ + 2e

Background imageLaboratory Collection: Copper sulphate reaction

Copper sulphate reactions. Image 3 of 3. This show the product of a reaction between copper sulphate solution with first ammonia and then hydrochloric acid




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In the realm of scientific discovery, laboratories have served as the birthplace of countless breakthroughs and innovations. From the pioneering work of Rosalind Franklin in unraveling DNA's structure to Nikola Tesla's electrifying experiments, these hallowed spaces have witnessed some of history's most remarkable scientific feats. Back in 1899, Nikola Tesla's laboratory crackled with bolts of electricity discharging through the air. This visionary inventor pushed boundaries and revolutionized our understanding of electricity, paving the way for modern power systems. His laboratory became a playground for his mind-bending experiments that would shape the world we live in today. Meanwhile, Marie Curie (1867-1934) tirelessly worked in her laboratory on groundbreaking research into radioactivity. Her tireless efforts led to numerous discoveries and earned her two Nobel Prizes – one in physics and another in chemistry. Her legacy continues to inspire generations of scientists who follow in her footsteps. The laboratory is not just a place for individual brilliance; it also serves as a hub for collaborative endeavors. At CERN, home to cutting-edge particle physics research, teams working on projects like the ATLAS detector and CMS detector come together to unlock secrets about our universe’s fundamental building blocks. Science has always relied on precise measurements, which brings us to tools like mass spectrometers and tungsten carbide slip gauge blocks C016 / 2042 used within laboratories worldwide. These instruments ensure accuracy when analyzing samples or calibrating equipment—a testament to meticulousness required by scientists across disciplines. A photograph enlarger stands as an emblematic symbol within any photography lab—an essential tool that allows photographers to bring their images from small negatives into larger prints while preserving intricate details captured through lenses. Laboratory clamps serve as unsung heroes holding apparatuses firmly together during experiments—often overlooked but indispensable components ensuring safety and stability throughout various procedures conducted within these sacred spaces dedicated solely to science.