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Thermodynamics Collection (#2)

Thermodynamics, a fascinating branch of physics, owes its foundations to the brilliant minds of James Clerk Maxwell and Josiah Willard Gibbs

Background imageThermodynamics Collection: Combined gas law, artwork C013 / 4731

Combined gas law, artwork C013 / 4731
Combined gas law. Computer artwork explaining the gas laws as described by the combined gas law equation: PV=kT, which shows the relationship between the pressure (P), volume (V)

Background imageThermodynamics Collection: Pressure-temperature gas law, artwork C013 / 4730

Pressure-temperature gas law, artwork C013 / 4730
Pressure-temperature gas law. Computer artwork explaining the gas laws as described by the combined gas law equation: PV=kT, which shows the relationship between the pressure (P), volume (V)

Background imageThermodynamics Collection: Pressure-temperature gas law, artwork C013 / 4729

Pressure-temperature gas law, artwork C013 / 4729
Pressure-temperature gas law. Computer artwork explaining the gas laws as described by the combined gas law equation: PV=kT, which shows the relationship between the pressure (P), volume (V)

Background imageThermodynamics Collection: Equipment for measuring gas properties

Equipment for measuring gas properties. This apparatus is used to determine the temperature, volume and pressure of gases and gas mixtures

Background imageThermodynamics Collection: Solar parabolic mirrors, Cologne, Germany

Solar parabolic mirrors, Cologne, Germany
Solar parabolic mirrors at the German Aerospace Centre (DLR) in Cologne, Germany. These mirrors at DLR are part of Germanys largest research group on solar concentrating technologies

Background imageThermodynamics Collection: Hermann Helmholtz, German physicist

Hermann Helmholtz, German physicist
Hermann Ludwig Ferdinand von Helmholtz (1821- 1894), German physiologist and physicist. Helmholtz studied medicine and graduated in 1842 at the Royal Medicochirurgical Institute of Berlin

Background imageThermodynamics Collection: Rumfords thermodynamics experiment

Rumfords thermodynamics experiment. Count Rumford (1753-1814, centre), born Benjamin Thompson, was an Anglo-American physicist and reformer

Background imageThermodynamics Collection: James Joule, British physicist

James Joule, British physicist
James Joule (1818-1889), British physicist, measuring the heating in wires resulting from the passage of an electric current

Background imageThermodynamics Collection: James Prescott Joule, British physicist

James Prescott Joule, British physicist
James Prescott Joule (1818-1889), British physicist. Joule showed that different forms of energy are interchangeable, and that energy cannot be created or destroyed

Background imageThermodynamics Collection: Count Rumford, English-American physicist

Count Rumford, English-American physicist
Count Rumford (1753-1814), born Benjamin Thompson, English-American physicist and reformer. Born in Massachusetts, he joined the army at 18, acting as a secret agent for the British

Background imageThermodynamics Collection: Irregular heart beat, conceptual image

Irregular heart beat, conceptual image
Restriction enzyme cutting DNA. Computer model showing an EcoRI endonuclease enzyme (ribbons) cutting a DNA (deoxyribonucleic acid) strand (blue and pink)

Background imageThermodynamics Collection: Honeybee heat experiment

Honeybee heat experiment
Honeybee research. Researcher conducting an experiment to quantify the heat generated by a honeybee. Heat created by adult bees in a hive aids the development of pupae by keeping them warm

Background imageThermodynamics Collection: Bomb calorimeter, 19th century

Bomb calorimeter, 19th century
Bomb calorimeter. This diagram shows the bomb calorimeter designed by the French chemist Pierre Eugene Marcellin Berthelot (1827-1907). It is used to measure the heat of chemical reactions

Background imageThermodynamics Collection: Entropy shown by dissipation

Entropy shown by dissipation. Entropy is a measure of the amount of order or disorder in a system, as well as how reversible a change is

Background imageThermodynamics Collection: Entropy shown by heat loss

Entropy shown by heat loss. Entropy is a measure of the amount of order or disorder in a system, as well as how reversible a change is

Background imageThermodynamics Collection: Entropy shown by broken cup

Entropy shown by broken cup. Entropy is a measure of the amount of order or disorder in a system, as well as how reversible a change is

Background imageThermodynamics Collection: Perpetual motion machine of von Kranach

Perpetual motion machine of von Kranach
Perpetual motion machine. Engraving showing a design for a perpetual motion machine designed by Ulrich von Kranach in 1664

Background imageThermodynamics Collection: Water raising engine, 18th century

Water raising engine, 18th century
Illustration showing an engine used to raise water. The weight of water in the lower bucket (A) pulls on the axle of the wheel at the top

Background imageThermodynamics Collection: Thermodynamics, conceptual artwork

Thermodynamics, conceptual artwork. Thermodynamics is the study of the macroscopic properties of a system (such as heat and pressure)

Background imageThermodynamics Collection: Red hot wire ball

Red hot wire ball. Ball of metal gauze glowing red hot under the heat of gas flames

Background imageThermodynamics Collection: Expansion of metal, image 2 of 2

Expansion of metal, image 2 of 2. The metal rod at right is seen to not fit into measuring device. The rod is hot here, and has expanded. When it was cool, it fitted the measuring device

Background imageThermodynamics Collection: Expansion of metal, image 1 of 2

Expansion of metal, image 1 of 2. The metal rod at right is seen to fit snugly into the measuring device. The rod is cool here

Background imageThermodynamics Collection: Measuring specific heat capacity

Measuring specific heat capacity. Apparatus set up to measure the specific heat capacity of aluminium. An electrical heater (white cylinder), is sitting on top of a piece of aluminium metal

Background imageThermodynamics Collection: Count Rumford, US-British physicist

Count Rumford, US-British physicist
Count Rumford (1753-1814), US-British physicist, coloured artwork. Born Benjamin Thompson, in Massachusetts, USA, he joined the army at 18, acting as a secret agent for the British

Background imageThermodynamics Collection: William Thomson, 1st Baron Kelvin (Lord Kelvin)

William Thomson, 1st Baron Kelvin (Lord Kelvin)
William Thomson, 1st Baron Kelvin of Largs (1824-1907), British mathematical physicist and engineer

Background imageThermodynamics Collection: Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet

Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: Arctic flowers and Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of

Arctic flowers and Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: The Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet

The Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: An Inuit fishing boat sails through Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains

An Inuit fishing boat sails through Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet

Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: The Russells Glacier draining the Greenland icesheet inland from Kangerlussuaq on Greenlands west

The Russells Glacier draining the Greenland icesheet inland from Kangerlussuaq on Greenlands west coast
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: An arched Iceberg collapsing into the sea from the Jacobshavn glacier or Sermeq Kujalleq which

An arched Iceberg collapsing into the sea from the Jacobshavn glacier or Sermeq Kujalleq which drains 7% of
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: Tourist boat trips sail through Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7%

Tourist boat trips sail through Icebergs from the Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: The Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet

The Jacobshavn glacier or Sermeq Kujalleq drains 7% of the Greenland ice sheet
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: A glacier coming off the Greenland ice sheet near camp Victor north of Ilulissat

A glacier coming off the Greenland ice sheet near camp Victor north of Ilulissat
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: Melt water on the Greenland ice sheet near camp Victor north of Ilulissat

Melt water on the Greenland ice sheet near camp Victor north of Ilulissat
Ashley Cooper / SpecialistStock

Background imageThermodynamics Collection: Burnt toast

Burnt toast. Smoke rising from burnt toast




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Thermodynamics, a fascinating branch of physics, owes its foundations to the brilliant minds of James Clerk Maxwell and Josiah Willard Gibbs. Scottish physicist James Clerk Maxwell is renowned for his groundbreaking work in electromagnetism, but he also made significant contributions to thermodynamics. One of his notable concepts was the "Maxwell's demon, " which challenged the second law of thermodynamics. Speaking of demons, let's not forget about Lord Kelvin and his compass. This Scottish mathematician and physicist played a crucial role in advancing our understanding of thermodynamics. In 1902, artist James Craig Annan captured Lord Kelvin with his trusty compass in an exquisite portrait. When discussing thermodynamics, we cannot overlook the three states of matter: ice, water, and steam. These states exemplify how energy can transform from one form to another while obeying fundamental laws like conservation. Another prominent figure in this field is William Thomson (also known as Lord Kelvin). His oil painting from 1886 showcases him as a distinguished scientist who made substantial contributions to many scientific disciplines. The concept of equilibrium is vital in thermodynamics. A captivating pen & ink drawing titled "Demonstration of the Third Equilibrium" depicts an experiment conducted around 1800 that explored this principle further. Benjamin Thompson deserves recognition too; he was an engraver whose work contributed significantly to early understandings of heat transfer and thermal conductivity. Fast forward to Professor Walther Nernst in 1928 – although unknown creator – Nernst developed important theories related to chemical reactions under specific temperature conditions called absolute zero or zero entropy. Lastly, Sir William Thomson (Lord Kelvin) graces us again with a lithograph from around 1890. This Irish physicist and engineer left an indelible mark on thermodynamic theory during the late nineteenth century.