The Periodic Table API is a powerful tool for anyone working with or researching chemistry, materials science, or related fields. This API provides a simple and easy-to-use interface for accessing information about chemical elements. The API includes basic information about each element, such as its name, symbol, and atomic number. Additionally, the API provides the melting point and boiling point for each element, making it easy to compare and contrast different elements.
In addition to basic information, the Periodic Table API also offers a more detailed endpoint for each element. This endpoint allows users to retrieve more in-depth information about a specific element by entering its name. This detailed information includes an image of the element, a description, and specific melting and boiling points.
Overall, the Periodic Table API is a valuable resource for anyone working in the field of chemistry or materials science. The API provides a convenient and user-friendly way to access information about the properties of various chemical elements. This can be particularly useful for researchers, educators, or anyone who needs to quickly and easily access information about chemical elements.
It may receive a parameter and provide you with a JSON.
Educational purposes: Students and educators can use the API to learn more about chemical elements and their properties.
Research: Researchers can use the API to study the properties of different chemical elements and compare their melting and boiling points.
Material science: Engineers and material scientists can use the API to better understand the properties of materials and how they behave at different temperatures.
Chemical manufacturing: Chemical manufacturers can use the API to identify and compare the properties of different chemical elements used in their products.
Science communication: Science communicators and journalists can use the API to provide accurate and up-to-date information about chemical elements and their properties to the public.
Gaming: Game developers can use the API to create educational games and quizzes that teach players about chemical elements.
Chemistry software: Developers of chemistry software can use the API to integrate information about chemical elements and their properties into their applications.
Personal projects: Hobbyists and DIY enthusiasts can use the API to learn more about chemical elements and their properties for personal projects.
Industrial processes: Chemical engineers and industrial chemists can use the API to optimize industrial processes that involve chemical elements with specific melting and boiling points.
Data analysis: Data analysts and scientists can use the API to gather information about chemical elements for research and data analysis purposes.
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To use this endpoint, just run it and you will get all the available elements.
[
{
"alloys": "",
"atomicMass": "1.00794(4)",
"atomicNumber": "1",
"atomicRadius": "37",
"block": "s",
"boilingPoint": "20",
"bondingType": "diatomic",
"cpkHexColor": "FFFFFF",
"crystalStructure": "hexagonal close-packed",
"density": "8.99E-5",
"electronAffinity": "-73",
"electronegativity": "2.2",
"electronicConfiguration": "1s1",
"facts": "Element containing no neutron, Lightest element, Lightest gas in the atmosphere, Lowest b.p., Lightest radio-isotope (Tritium - <sup>3</sup><sub>1</sub>H), Element with minimum no. of isotopes",
"group": "1",
"groupBlock": "nonmetal",
"ionRadius": "",
"ionizationEnergy": "1312",
"isotopes": "<sup>1</sup>H (99.98%) , <sup>2</sup>H (0.02%), <sup>3</sup>H (trace)",
"magneticOrdering": "dimagnetic",
"meltingPoint": "14",
"molarHeatCapacity": "28.836",
"name": "Hydrogen",
"oxidationStates": "-1, 1",
"period": "1",
"speedOfSound": "1310",
"standardState": "gas",
"symbol": "H",
"vanDelWaalsRadius": "120",
"yearDiscovered": "1766",
"minerals": "",
"history": "The name derives from the Greek word hydro for water and genes for forming because it burned in air to form water. Hydrogen was discovered by the English physicist Henry Cavendish in 1766.<br/>Scientists had been producing hydrogen for years before it was recognized as an element. Written records indicate that Robert Boyle produced hydrogen gas as early as 1671 while experimenting with iron and acids. Hydrogen was first recognized as a distinct element by Henry Cavendish in 1766.Composed of a single proton and a single electron, hydrogen is the simplest and most abundant element in the universe. It is estimated that 90% of the visible universe is composed of hydrogen."
},
{
"alloys": "",
"atomicMass": "4.002602(2)",
"atomicNumber": "2",
"atomicRadius": "32",
"block": "s",
"boilingPoint": "4",
"bondingType": "atomic",
"cpkHexColor": "D9FFFF",
"crystalStructure": "hexagonal close-packed",
"density": "1.785E-4",
"electronAffinity": "0",
"electronegativity": "",
"electronicConfiguration": "1s2",
"facts": "Highest ionisation potential",
"group": "18",
"groupBlock": "noble gas",
"ionRadius": "",
"ionizationEnergy": "2372",
"isotopes": "<sup>3</sup>He (0.0002%) , <sup>4</sup>He (99.9998%)",
"magneticOrdering": "dimagnetic",
"meltingPoint": "",
"molarHeatCapacity": "20.78",
"name": "Helium",
"oxidationStates": "",
"period": "1",
"speedOfSound": "972",
"standardState": "gas",
"symbol": "He",
"vanDelWaalsRadius": "140",
"yearDiscovered": "1868",
"minerals": "",
"history": "The name derives from the Greek helios for sun. The element was discovered by spectroscopy during a solar eclipse in the sun's chromosphere by the French astronomer Pierre-Jules-Cesar Janssen in 1868. It was independently discovered and named helium by the English astronomer Joseph Norman Lockyer.<br/>Helium was thought to be only a solar constituent until it was later found to be identical to the helium in the uranium ore cleveite by the Scottish chemist William Ramsay in 1895. The Swedish chemists Per Theodore Cleve and Nils Abraham Langet independently found helium in cleveite at about the same time.<br/>Helium, the second most abundant element in the universe, was discovered on the sun before it was found on the earth. Pierre-Jules-César Janssen, a French astronomer, noticed a yellow line in the sun's spectrum while studying a total solar eclipse in 1868. Sir Norman Lockyer, an English astronomer, realized that this line, with a wavelength of 587.49 nanometers, could not be produced by any element known at the time. It was hypothesized that a new element on the sun was responsible for this mysterious yellow emission. This element was named helium by Lockyer.The hunt to find helium on earth ended in 1895. Sir William Ramsay, a Scottish chemist, conducted an experiment with a mineral containing uranium called clevite. He exposed the clevite to mineral acids and collected the gases that were produced. He then sent a sample of these gases to two scientists, Lockyer and Sir William Crookes, who were able to identify the helium within it. Two Swedish chemists, Nils Langlet and Per Theodor Cleve, independently found helium in clevite at about the same time as Ramsay.<br/>Helium makes up about 0.0005% of the earth's atmosphere. This trace amount of helium is not gravitationally bound to the earth and is constantly lost to space. The earth's atmospheric helium is replaced by the decay of radioactive elements in the earth's crust. Alpha decay, one type of radioactive decay, produces particles called alpha particles. An alpha particle can become a helium atom once it captures two electrons from its surroundings. This newly formed helium can eventually work its way to the atmosphere through cracks in the crust."
},
{
"alloys": "",
"atomicMass": "6.941(2)",
"atomicNumber": "3",
"atomicRadius": "134",
"block": "s",
"boilingPoint": "1615",
"bondingType": "metallic",
"cpkHexColor": "CC80FF",
"crystalStructure": "body-centered cubic",
"density": "0.535",
"electronAffinity": "-60",
"electronegativity": "0.98",
"electronicConfiguration": "[He] 2s1",
"facts": "Most reactive solid element, Lightest solid metal, It behaves as superconductor below T<sub>C</sub> 4 X 10<sup>-4</sup>.",
"group": "1",
"groupBlock": "alkali metal",
"ionRadius": "76 (+1)",
"ionizationEnergy": "520",
"isotopes": "<sup>6</sup>Li (7.59%) , <sup>7</sup>Li (92.41%)",
"magneticOrdering": "paramagnetic",
"meltingPoint": "454",
"molarHeatCapacity": "24.860",
"name": "Lithium",
"oxidationStates": "1",
"period": "2",
"speedOfSound": "6000",
"standardState": "solid",
"symbol": "Li",
"vanDelWaalsRadius": "182",
"yearDiscovered": "1817",
"minerals": "",
"history": "The name derives from the Latin lithos for stone because lithium was thought to exist only in minerals at that time. It was discovered by the Swedish mineralogist Johan August Arfwedson in 1818 in the mineral petalite LiAl(Si2O5)2. Lithium was isolated in 1855 by the German chemists Robert Wilhelm Bunsen and Augustus Matthiessen.<br/>Lithium was discovered in the mineral petalite (LiAl(Si2O5)2) by Johann August Arfvedson in 1817. It was first isolated by William Thomas Brande and Sir Humphrey Davy through the electrolysis of lithium oxide (Li2O). Today, larger amounts of the metal are obtained through the electrolysis of lithium chloride (LiCl). Lithium is not found free in nature and makes up only 0.0007% of the earth's crust.<br/>Lithium is the lightest of all metals, with a density only about half that of water."
},
{
"alloys": "",
"atomicMass": "9.012182(3)",
"atomicNumber": "4",
"atomicRadius": "90",
"block": "s",
"boilingPoint": "2743",
"bondingType": "metallic",
"cpkHexColor": "C2FF00",
"crystalStructure": "hexagonal close-packed",
"density": "1.848",
"electronAffinity": "0",
"electronegativity": "1.57",
"electronicConfiguration": "[He] 2s2",
"facts": "",
"group": "2",
"groupBlock": "alkaline earth metal",
"ionRadius": "45 (+2)",
"ionizationEnergy": "900",
"isotopes": "<sup>7</sup>Be (trace) , <sup>9</sup>Be (100%) , <sup>10</sup>Be (trace)",
"magneticOrdering": "diamagnetic",
"meltingPoint": "1560",
"molarHeatCapacity": "16.443",
"name": "Beryllium",
"oxidationStates": "2",
"period": "2",
"speedOfSound": "",
"standardState": "solid",
"symbol": "Be",
"vanDelWaalsRadius": "",
"yearDiscovered": "1798",
"minerals": "",
"history": "The name derives from the Greek word beryllos for beryl, a gemstone in which it is found (3BeO×Al2O3×6SiO2).Beryllium was discovered by the French chemist and pharmacist Nicholas-Louis Vauquelin in beryl and emerald in 1797. The element was first separated in 1828 by the French chemist Antoine-Alexandre-Brutus Bussy and independently by the German chemist Friedrich Wöhler. Because the salts of beryllium have a sweet taste, the element was also known as glucinium from the Greek glykys for sweet, until IUPAC selected the name beryllium in 1949.<br/>Although emeralds and beryl were known to ancient civilizations, they were first recognized as the same mineral (Be3Al2(SiO3)6) by Abbé Haüy in 1798. Later that year, Louis-Nicholas Vauquelin, a French chemist, discovered that an element was present in emeralds and beryl. Attempts to isolate the new element finally succeeded in 1828 when two chemists, Friedrich Wölhler of Germany and A. Bussy of France, independently produced beryllium by reducing beryllium chloride (BeCl2) with potassium in a platinum crucible. Today, beryllium is primarily obtained from the minerals beryl (Be3Al2(SiO3)6) and bertrandite (4BeO·2SiO2·H2O) through a chemical process or through the electrolysis of a mixture of molten beryllium chloride (BeCl2) and sodium chloride (NaCl)."
},
{
"alloys": "",
"atomicMass": "10.811(7)",
"atomicNumber": "5",
"atomicRadius": "82",
"block": "p",
"boilingPoint": "4273",
"bondingType": "covalent network",
"cpkHexColor": "FFB5B5",
"crystalStructure": "rhombohedral",
"density": "2.46",
"electronAffinity": "-27",
"electronegativity": "2.04",
"electronicConfiguration": "[He] 2s2 2p1",
"facts": "Element having highest tensile strength, Lightest solid non-metal",
"group": "13",
"groupBlock": "metalloid",
"ionRadius": "27 (+3)",
"ionizationEnergy": "801",
"isotopes": "<sup>10</sup>B (20%) , <sup>11</sup>B (80%)",
"magneticOrdering": "diamagnetic",
"meltingPoint": "2348",
"molarHeatCapacity": "11.087",
"name": "Boron",
"oxidationStates": "1, 2, 3",
"period": "2...
curl --location --request GET 'https://zylalabs.com/api/1494/periodic+table+api/1234/fetch+all+elements' --header 'Authorization: Bearer YOUR_API_KEY'
| Header | Description |
|---|---|
Authorization
|
[Required] Should be Bearer access_key. See "Your API Access Key" above when you are subscribed. |
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The "Fetch All Elements" endpoint returns a list of all chemical elements with basic properties, while the "Fetch Element By Name" endpoint provides detailed information about a specific element, including its name, symbol, atomic number, melting and boiling points, and a description.
Key fields include atomic number, name, symbol, atomic mass, melting point, boiling point, and electron configuration. For detailed responses, additional fields like description and image URL are also included.
The response data is structured in JSON format. The "Fetch All Elements" endpoint returns an array of element objects, each containing multiple properties. The "Fetch Element By Name" endpoint returns a single object with detailed attributes for the specified element.
The "Fetch All Elements" endpoint provides basic properties of all elements, while the "Fetch Element By Name" endpoint offers in-depth details, including physical properties, descriptions, and images for individual elements.
Users can customize requests by specifying the element name in the "Fetch Element By Name" endpoint. For the "Fetch All Elements" endpoint, no parameters are needed, as it retrieves all elements by default.
The data is sourced from reputable scientific literature and databases that compile information on chemical elements, ensuring accuracy and reliability for educational and research purposes.
Typical use cases include educational resources for students, research comparisons of element properties, material science applications, and integration into chemistry software or games for interactive learning.
Users can utilize the data by parsing the JSON response to extract relevant properties for analysis, comparison, or display in educational materials, software applications, or research reports.
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