Skip to content
Science Info
  • Home
  • All Study Notes
  • Astronomy
  • Physics
  • Chemistry
    • Periodic Table
    • Analytical Chemistry
    • Basic Chemistry
    • Biochemistry
    • Computational Chemistry
    • Environmental Chemistry
    • Inorganic Chemistry
    • Nanochemistry
    • Organic Chemistry
    • Pharmaceutical Chemistry
    • Physical Chemistry
  • Plants
  • Animals
  • Syllabus
  • Science Facts
  • Top 10 in Science

Analytical Chemistry

Analytical chemistry is the branch of science that develops and applies methods, instruments, and strategies for obtaining information on the composition and nature of matter.

  • It develops, optimizes, and applies methods of measurement to produce quality (bio)chemical information of various natural and artificial objects and systems to solve analytical challenges derived from information.
  • Analytical chemistry is not limited to any certain kind of chemical substance or reaction, in contrast to other important subfields of chemistry like inorganic chemistry and organic chemistry.
  • Geometric aspects like molecular morphologies and species distributions are examined in analytical chemistry, along with characteristics like composition and species identity.
  • The goal of analytical chemistry is to identify the qualitative and quantitative composition of substances.
  • Quantitative analysis determines the amount of various chemical components contained in a given sample.  It is concerned with determining the amount or percentage of one or more elements in a sample.
  • The qualitative analysis offers information on the chemical compound’s quality. The qualitative analysis investigates a material’s chemical composition. It demonstrates the presence of distinct elements or sets of elements in the sample, such as functional groupings.
  • A chemical analysis (wet) technique can be classed as either a classical method or an instrumental method. As a result, both qualitative and quantitative analysis is split into two categories: Classical (“wet”) analysis and instrumental analysis.
  • The classical analysis is carried out using chemical processes. It involves volumetric analysis and gravimetric analysis processes.
  • The volumetric analysis determines the volume of the known concentration solution needed to completely react with the analyte. The volumetric analysis is also known as the titrimetric analysis.
  • Gravimetric analysis is an analytical technique used for the quantitative determination of an analyte based on the mass of a solid. Using this method of analysis, the element to be detected is precipitated from a solution by the addition of a suitable precipitating agent.
  • The instrumental analysis employs instruments and relies on the physical and physicochemical properties of the substance being analyzed such as absorption or emission of electromagnetic radiation or electrical properties. So instrumental method can be further subdivided into chromatographic method, electroanalytical method, and spectroscopic method.
  • Chromatography is a process for separating a mixture of chemical substances into their components so that the individual components can be thoroughly analyzed. It is a method of separating the constituents, or solutes, of a mixture based on the relative amounts of each solute distributed between a flowing fluid stream, known as the mobile phase, and a  stationary phase. The mobile phase might be a liquid or a gas, whereas the stationary phase can be solid or liquid.
  • Electrochemical methods of analysis are based on the measurement of electrical information such as current, potential, and charge and their correlation with the chemical properties of a sample. An electrical response is produced by electrochemical reactions that take occur at the electrode-solution interface, where a tiny number of molecules in the bulk solution play a role to generate an electrical response.
  • Optical methods of analysis are often known as spectroscopic methods. All spectroscopic techniques rely on electromagnetic radiation’s interaction with the quantized energy levels of the substance. These methods examine the quantitative and quantitative properties based on emission, absorption, scattering, or a change in some property of electromagnetic radiation dependent on the kind or amount of the constituent on the sample using various approaches. These techniques are categorized according to the type of effect (emission, absorption, or scattering) or the type of electromagnetic radiation (IR, visible, x-ray).

Hydrodynamic Chromatography: Definition, Principle, and Applications

March 9, 2024 by Kabita Sharma
Hydrodynamic Chromatography

Hydrodynamic chromatography (HDC) is a technique used for separating particles based on their size, enabling the measurement of particle size distributions within the 20 – 1,000 nm range. This method … Read more

Adsorption Chromatography: Definition, Principle, Procedure, Types, Applications

March 8, 2024 by Kabita Sharma
Adsorption Chromatography Definition, Principle, Procedure, Types, and Applications

Adsorption chromatography is a form of chromatography in which the constituents of a mixture are separated via adsorption. The process by which molecules or particles of material adhere to the … Read more

Homogenizer: Definition, Principle, Types, Application, Advantages

March 8, 2024 by Kabita Sharma
Homogenizer

Homogenizers are a kind of mixers that combine, emulsify, disperse, and dissolve liquid-liquid and solid-liquid systems by the use of mechanical forces. Homogenizers are industrial, benchtop, and laboratory instruments that … Read more

Nobelium (No) Element: Important Properties, Discovery, Uses, Effects

February 26, 2024 by Jyoti Bashyal
Nobelium (No) Element

Nobelium is a synthetic chemical element with an atomic number of 102 and is represented by the symbol ‘No’ in the periodic table. It is silvery in appearance and belongs to … Read more

ELISA plate reader- Definition, Principle, Procedure, Uses

August 23, 2024February 14, 2024 by Kabita Sharma
ELISA plate reader Definition, Principle, Procedure, Application, Advantages

An ELISA plate reader is a specialized equipment that measures the fluorescence, chemiluminescence, or chromogenic response in an ELISA experiment performed on a 96-well plate. The ELISA reader is designed … Read more

Magnetic Stirrer: Definition, Principle, Features, Advantages, Applications

February 16, 2024February 12, 2024 by Kabita Sharma
Magnetic Stirrer Definition, Principle, Features, Advantages, Applications

A laboratory apparatus known as a magnetic stirrer is utilized to generate a rotating magnetic field, commonly employed for stirring and mixing solutions in a range of scientific contexts including … Read more

Hot Air Oven: Definition, Principle, Instrumentation and Application

February 16, 2024February 10, 2024 by Kabita Sharma
Hot Air Oven Definition, Principle, Instrumentation and Application

In many laboratories, a hot air oven is one kind of heat sterilizing apparatus. Hot air ovens eliminate bacteria and bacterial spores by heating food to extremely high levels for … Read more

Gas Chromatography: Principle, Parts, Types, Advantages, Disadvantages

February 20, 2024February 9, 2024 by Jyoti Bashyal
Gas Chromatography Principle, Parts, Types, Advantages, Disadvantages

Gas chromatography (GC) is a separation technique in which volatile, thermally stable solutes migrate through a column containing a stationary phase at rates determined by their distribution ratios. In a … Read more

Centrifuge: Principle, Types, Application, Limitation

February 16, 2024February 8, 2024 by Jyoti Bashyal
Centrifuge: Principle, Types, Application, Limitation

A centrifuge is a scientific instrument that uses high-speed rotation to separate different components in fluids, gases, or liquids based on their density. By spinning a container at a rapid … Read more

Older posts
Newer posts
← Previous Page1 … Page5 Page6 Page7 … Page19 Next →

Topics

  • Analytical Chemistry (164)
  • Animals (1)
  • Astronomy (4)
  • Basic Chemistry (144)
  • Biochemistry (38)
  • Book Reviews (1)
  • Botany (2)
  • Computational Chemistry (4)
  • Differences Between (70)
  • Environmental Chemistry (31)
  • Events (2)
  • Inorganic Chemistry (183)
  • Journals (1)
  • Nanochemistry (17)
  • Organic Chemistry (177)
  • Periodic Table (130)
  • Pharmaceutical Chemistry (15)
  • Physical Chemistry (199)
  • Physics (74)
  • Plants (13)
  • Science Facts (12)
  • Syllabus (5)
  • Top 10 in Science (14)
  • Universities (4)
  • Zoology (1)
  • Transformers: History, Basic Principle, Construction, Working Mechanism, Types and Applications
  • AC Generator: History, Basic Principle, Main Parts, Working Mechanism, Types and Applications
  • Dynamo: Introduction, History, Principle, Types and Applications
  • Electromagnetic Induction: Faraday’s Law, Types, Direction of the Quantities and Applications
  • Motor Effect: History, Principle, Direction of Force, Types, Applications and Limitations
  • About (Our Team)
  • Contact Us
  • Disclaimer (Terms and Conditions)
  • Privacy Policy
  • Cookie Policy
© 2025 Science Info. Made with ♡ by Sagar Aryal.