Suspension - Definition, Examples, Types, Properties, FAQs

Suspension - Definition, Examples, Types, Properties, FAQs

Edited By Team Careers360 | Updated on Jul 02, 2025 04:43 PM IST

Shake well before use, You may have noticed this line many times on juice or medicine bottles. It was written because they are suspensions. It is a mixture where small particles are mixed in a liquid, but they remain undissolved. If the mixture is set aside for some time, the particles settle at the bottom of the container. We notice the phenomenon of suspension every day around us, like your favourite chocolate milk where chocolate settles at the bottom of the container after some time, orange juice with pulp, muddy water, and lemonade with lemon pulp. It is a heterogeneous mixture in which solute particles don't dissolve but rather remain suspended in the medium's bulk. The size of particles in the suspension solution is at least 100 times that of the solution particles.

This Story also Contains
  1. Example of Suspension
  2. Types of suspension
  3. Difference between a colloid and a suspension
  4. Pharmaceutical Suspension
  5. Properties of suspension
  6. True solution (definition)
  7. Colloid(definition)
  8. Tyndall effect
Suspension - Definition, Examples, Types, Properties, FAQs
Suspension - Definition, Examples, Types, Properties, FAQs

Example of Suspension

Suspension is commonly used in:

  1. Flour and water mixture
  2. Chalk and water mixture
  3. Muddy water mixture
  4. Sand and water mixture
  5. Water-based paints
  6. Slaked lime (calcium hydroxide) mixed in water
  7. Magnesium hydroxide and water mixture (Milk of Magnesia) .

Also read -

Types of suspension

Oral suspension

The oral suspension means suspension for oral delivery, made up of undissolved particles of one or more medicinal substances combined with a liquid carrier

Difference between a colloid and a suspension

Colloids
Suspension
Type
It is homogeneous.It is heterogeneous.
Particle size of suspensionThe size of the particle is between 2 nm to 1000 nm.The size of the particle is larger than 1000 nm.
VisibilityThe particle can’t be seen by a low microscopeThe particle can be seen with a low microscope
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Flocculated suspension

A flocculated suspension is one in which the suspension's particles have been flocculated. A flocculated suspension is made up of big particles (flocks) that cause fast sedimentation. Sedimentation is the process of aggregates or suspended particles settling to the bottom of a liquid. Particles clump together to form massive aggregates that can act as large individual particles. A significant number of particles settle down when these aggregates settle down. Then the sedimentation rate is high. Floccules are the name for these aggregates. Under the influence of gravity, floccules can settle faster than smaller particles.

Deflocculated suspension

A deflocculated suspension is one in which there has been no flocculation. Single particles take on the role of individual particles in this scenario. These tiny particles sink when sedimentation occurs. Dispersed particles exist as distinct entities in a deflocculated suspension. The sedimentation rate is slow because tiny particles settle more slowly than huge floccules. In comparison to a flocculated suspension, the resulting sediment has a modest volume. The supernatant of this suspension will remain cloudy even after the sediment has formed. Caking is a term used to describe the sediment development in this area.

Difference between flocculated and deflocculated suspension

Flocculated suspension
Deflocculated suspension
Pleasant appearance due to particle dispersion that is homogenous.Sediment that is a little unattractive.
The supernatant is still hazy.The supernatant is visible.
Particles are self-contained entities.Particles clump together to form loose aggregates.
Since the particles are tiny, the rate of sedimentation is sluggish.Since flocs are a cluster of tiny particles with a larger size, the rate is high.
Particles settle separately and independently.Particles form flocs as they settle.
The sedimentation is densely packed, resulting in a firm cake.Sediment is a loosely packed network that cannot form a firm cake.
It is impossible to re-disperse the hard cake.The sediment is easily redistributed.
Due to the increased specific surface area, bioavailability is higher.Due to the tiny specific surface area, bioavailability is low.

Pharmaceutical Suspension

A pharmaceutical suspension is a finely split insoluble substance suspended in a liquid medium in a coarse dispersion of biphasic liquid dose form.

Types of Pharmaceutical Suspension

  1. The different types of pharmaceutical suspension preparations are suspensions, mixes, magmas, gels, and lotions. The insoluble material scattered in a liquid is referred to as a simple suspension. As stability is considered, dry medication manufacturing appears to be the best option. Before being administered, they are reconstituted as suspensions in an appropriate vehicle. Ex- Antibiotic amoxicillin dispersible pills, Procaine penicillin G powder.
  2. Gel: Small inorganic particles floating in a liquid medium make up gels, which are semisolid systems. It's made up of a web of microscopic,c discrete particles. It's a two-phase process. Ex-Aluminum hydroxide gel.
  3. Lotions: Lotions are liquid solutions designed to be applied to undamaged skin without causing friction. Ex- Calamine lotion, hydrocortisone lotion.
  4. Milks and Magmas: Magmas and milk are aqueous suspensions of insoluble, inorganic medicines that differ mostly from gels in the size of the suspended particles. As they are thick and viscous when produced, they do not require the addition of a suspending agent. Ex-Bentonite magma, milk of magnesia.
  5. Mixture: Oral liquids having one or more active substances that have been dissolved, suspended, or dispersed in a suitable vehicle are known as mixtures. Standing causes suspended particles to separate slowly, whereas shaking easily redisperses them. Ex- kaolin-pectin mixture.

Properties of suspension

Suspension features and general characteristics are described below -

  1. The mixture is heterogeneous.
  2. Suspension mixture of constituent particles can be seen with the naked eye.
  3. The particle size in suspension is greater than 100nm.
  4. Suspension demonstrates the Tyndall effect. It means that particles in a suspension scatter a light beam travelling through it, revealing its route.
  5. If the particles in a suspension are not disturbed, they settle down. It demonstrates that suspension of the mixture is unstable. The suspension has no Tyndall effect in this situation. Filtration can separate the constituent particles of a suspension.

True solution (definition)

The solvent is the component of the solution that dissolves the other component, whereas the solute is the component that is dissolved in the solvent. In general, the amount of solute in a solution is smaller than the amount of solvent.

Solution examples

  1. Sugar and water mixture
  2. Iodine tincture (solution of iodine in alcohol)
  3. A glass of soda water
  4. Oxygen (a homogeneous solution of various gases)
  5. Alloys (Combination of two or more metals, or a metal and a non-metal that can't be separated by physical means.) Ex-Stainless Steel, Brass etc.

Properties of true solution

The following properties are:

  1. The mixture is homogeneous.
  2. The particles in the solution have a diameter of less than 1 nm.
  3. Simple physical separation methods, such as filtration, cannot separate solution particles.

Types of true solutions

Depending upon the amount of solute present in a solution, it can be classified as dilute, concentrated, or a saturated solution. A solution that contains a relatively larger amount of solute is a concentrated solution, while a solution that contains a relatively smaller amount of solute is a dilute solution.

Colloid(definition)

A colloid is a heterogeneous mixture in which particles are evenly distributed throughout the fluid. It is also known as a colloidal solution. The term colloid is occasionally used to refer to the dispersed component in a colloidal solution alone, but colloidal suspension clearly refers to the entire mixture. Despite the fact that suspension and colloidal suspension (solution) are both forms of mixtures. Because of the smaller particle size than the suspension, it seems to be homogeneous, and the Tyndall effect is also demonstrated.

Colloidal properties

A colloid is a heterogeneous mixture with colloidal particles that are invisible to the human eye.

Dispersed phase particles in colloids have a diameter of 1–100 nm (approximately).

They demonstrate Tyndall's effect.

When dispersed particles in colloids are left undisturbed, they do not settle down.

Colloids are mixes that are stable.

The dispersed phase and the dispersion medium in colloids cannot be separated by filtration.

Brownian movement is shown by the dispersed particles.

Also read :

Components of a colloidal solution

A colloidal solution comprises two components: the dispersed phase and the dispersing medium. The dispersed phase of a colloidal solution is the solute-like component, while the dispersing medium is the solvent-like component. Solid, liquid, or gas can be used as the dispersed phase and dispersing medium.

Forms of colloidal solution

Colloids are divided into two categories based on their constituents: dispersed phase and dispersing medium.

  1. Aerosol
  2. Liquid Aerosol
  3. Solid Aerosol
  4. Foam
  5. Emulsion
  6. Sol
  7. Solid foam
  8. Gel
  9. Solid sol

Gas as a dispersing medium

Aerosol: Aerosol is a mixture that is formed when solid or liquid particles are dispersed in a gaseous medium. For instance, cloud, smog, and smoke.

Liquid and solid aerosols are the two forms of aerosols.

  1. Liquid Aerosol: This mixture is termed as Fog, mist, hair spray, and other similar effects are examples.
  2. Solid Aerosol: Solid Aerosol is a mixture in which solid particles are in the dispersed phase and gas is in the dispersing phase. Smoke, air particles, vehicular exhaust, and so forth.

Liquid as a dispersing medium

  1. Foam: When a liquid acts as a dispersion medium and a gas acts as a dispersing medium, the mixture is termed foam. For instance, shaving cream, soap bubbles, and so forth.
  2. Emulsion: Emulsion is a colloidal solution in which the dispersing medium and the dispersed phase are both liquids. Ex-Milk, butter, face cream.
  3. Sol: When liquid is the dispersion medium and solid is the dispersed phase, the colloidal solution is called sol. For instance, blood, ink, paint, and so on.

Solid as a dispersing medium

  1. Solid foam: Solid foam is created by combining solid as the dispersing medium and gas as the dispersed phase. Ex- Styrofoam, pumice stone, bread, and so on.
  2. Gel: Gel is created by combining a solid as a dispersing medium with a liquid as the dispersed phase. Ex-Gelatin, jelly, hair gel, and so on.
  3. Solid sol: Solid sol is created by combining a solid as a dispersing medium with a solid as a dispersed phase.

Dispersed medium

Dispersed phase

Type

Phase

Gas
LiquidAerosolFog
LiquidGasAerosolSmoke
LiquidGasFoamShaving cream
LiquidLiquidEmulsionMilk
LiquidSolidSolMud
SolidGasFoamSponge, cake
SolidLiquidGelCheese
SolidSolidSolid solColored gemstone, glasses

(Self-created)

Tyndall effect

It can be used to determine if the solution is a colloid. When a beam of light is passed through a colloid, it is not allowed to completely pass through the colloidal particles present in the solution. When compared to red light, blue light is scattered to a greater extent. This is due to the fact that blue light has a shorter wavelength than red light. This is why the smoke emitted by motorcycles might appear blue at times.

Examples of the Tyndall Effect

The Tyndall Effect can be seen in milk, which is a colloid that contains fat and protein globules. In a foggy environment, when a torch is turned on, the light's path becomes visible.

Difference between Solution Suspension and Colloids

Property
Suspension
Colloids
Solution
Particle size
> 100 nmBetween 1 to 100 nm< 100 nm
Homogeneous/ HeterogeneousHomogeneousHomogeneousHomogeneous
Tyndall EffectShows effectShowsDoes not show
Brownian movementMay showShowsDo not show (mostly)
AppearanceOpaqueTransparentTransparent
Settling of particlesSettles on their ownSettle on centrifugationDo not settle
Method of separationCan be separated by physical methods such as filtrationCannot be separated by physical methodsCannot be separated by a physical method
StabilityUnstableStableStable
ExamplesFlour and water mixtureSmoke, cheeseSugar and water solution

(Self-created)

Also check-

NCERT Chemistry Notes:

Frequently Asked Questions (FAQs)

1. What is a suspension?

A suspension is a heterogeneous mixture in which solid particles are dispersed throughout a liquid or gas but are not dissolved. Over time, the solid particles tend to settle at the bottom, resulting in a separation of the mixture. Common examples include muddy water and salad dressings that separate when left standing.

2. What is the difference between suspension and solution?

The main difference between them is the size of solute particles. In solutions, there are micro particles that dissolve completely in the solvent, forming a homogeneous solution, while in suspension, the size of solute particles is very large and the particles do not dissolve in the solution, making the heterogeneous mixture.  

3. Give some examples of suspensions?

Some examples of suspensions are: 

  • Pulp of lemon in lemonade 
  • Muddy water 
  • Orange pulp in orange juice 
  • Some medicinal syrups 
  • Paints 
4. Give some methods of separation of suspensions?

Methods of separation of suspensions are: 

  • Filtration: The mixture is passed through a filter that captures the solute particles.
  • Sedimentation: Allows particles to settle at the bottom, after which liquid can be poured off. 
5. Explain the role of viscosity in maintaining a suspension.

Viscosity helps in maintaining suspension by influencing how the solid particles interact with the liquid. Greater viscosity helps in preventing sedimentation by providing more resistance against the motion of particles, allowing them to remain suspended for a long time.

6. How do suspensions behave differently from aerosols?
While both are dispersions, suspensions typically refer to solid particles in a liquid medium, whereas aerosols are fine solid particles or liquid droplets dispersed in a gas, usually air. Aerosols can remain suspended for longer due to the lower density of the gas medium.
7. What is Brownian motion, and how does it impact suspensions?
Brownian motion is the random movement of particles in a fluid due to collisions with other particles. In suspensions, Brownian motion helps keep smaller particles suspended by counteracting the effects of gravity, thus contributing to the suspension's stability.
8. How do electrostatic forces influence the stability of suspensions?
Electrostatic forces can help stabilize suspensions by creating repulsion between similarly charged particles. This repulsion prevents particles from coming close enough to aggregate, thus maintaining the suspension's stability.
9. How do electrolytes affect the stability of suspensions?
Electrolytes can significantly impact suspension stability by altering the electrical double layer around particles. Depending on concentration and type, electrolytes can either stabilize suspensions by increasing repulsion between particles or destabilize them by promoting flocculation.
10. What is meant by the "zeta potential" of a suspension?
Zeta potential is a measure of the electrical charge difference between the bulk of the liquid and the stationary layer of fluid attached to the dispersed particles. It indicates the degree of repulsion between adjacent, similarly charged particles and is used to predict suspension stability.
11. How do suspensions differ from colloids?
While both are heterogeneous mixtures, suspensions have larger particles (>1 micrometer) that will eventually settle out, whereas colloids have smaller particles (1-1000 nanometers) that remain dispersed indefinitely. Colloids also exhibit the Tyndall effect more prominently.
12. How do suspensions behave differently from emulsions?
While both are heterogeneous mixtures, suspensions contain solid particles in a liquid medium, whereas emulsions consist of tiny droplets of one liquid dispersed in another immiscible liquid. Emulsions are generally more stable than suspensions.
13. What is the importance of particle size distribution in suspensions?
Particle size distribution affects the suspension's stability, appearance, and behavior. A narrow size distribution often leads to more stable suspensions, while a wide distribution can result in faster settling of larger particles.
14. How do suspensions behave under different gravitational conditions?
In reduced gravity environments, suspensions can remain stable for much longer periods as the settling effect of gravity is diminished. This property is important in various space-based experiments and applications.
15. How does pH affect the stability of suspensions?
pH can significantly impact suspension stability by altering the surface charge of particles. Changes in pH can cause particles to attract or repel each other, potentially leading to flocculation or improved stability.
16. What is meant by "shaking well before use" on suspension medications?
This instruction ensures that the suspended particles are evenly distributed throughout the liquid medium before use. Shaking redistributes any particles that may have settled, ensuring the correct dose of medication is administered.
17. What is flocculation, and how does it affect suspensions?
Flocculation is the process where suspended particles clump together to form larger aggregates. This can destabilize a suspension by causing the particles to settle more quickly, as larger particles are more affected by gravity.
18. What is sedimentation, and why is it important in the study of suspensions?
Sedimentation is the process by which suspended particles settle to the bottom of a container due to gravity. It's important in studying suspensions because it helps determine the stability of the mixture and can be used as a separation technique in various applications.
19. How can you increase the stability of a suspension?
Stability of a suspension can be increased by reducing particle size, adding stabilizers or surfactants, increasing the viscosity of the medium, or creating electrostatic repulsion between particles.
20. What is the role of viscosity in suspensions?
Viscosity, the resistance of a fluid to flow, plays a crucial role in suspensions. Higher viscosity mediums can keep particles suspended for longer periods by slowing down their settling rate.
21. Why do particles in a suspension eventually settle?
Particles in a suspension settle due to gravity. The suspended particles are typically denser than the surrounding medium, so over time, they sink to the bottom if left undisturbed.
22. How does particle size affect the stability of a suspension?
Smaller particles tend to stay suspended longer because they have a higher surface area-to-volume ratio, which increases their interaction with the surrounding medium. Larger particles settle more quickly due to gravitational forces.
23. How can you separate the components of a suspension?
Components of a suspension can be separated through various methods, including filtration, centrifugation, and sedimentation. These techniques exploit the difference in particle size or density between the suspended particles and the medium.
24. What role do surfactants play in stabilizing suspensions?
Surfactants help stabilize suspensions by reducing the surface tension between the suspended particles and the medium. They coat the particles, preventing them from clumping together and settling out, thus increasing the suspension's stability.
25. How does temperature affect the stability of a suspension?
Temperature can affect suspension stability in several ways. Higher temperatures generally increase particle movement (Brownian motion), which can help keep particles suspended. However, temperature changes can also affect the medium's viscosity, potentially altering the suspension's stability.
26. Can you give some everyday examples of suspensions?
Common examples of suspensions include muddy water, paint, milk of magnesia, blood, and some salad dressings. In each case, solid particles are suspended in a liquid medium.
27. How do suspensions play a role in environmental science?
Suspensions are crucial in environmental science, particularly in understanding water quality, air pollution (particulate matter), and soil erosion. They affect light penetration in water bodies, transport of pollutants, and sedimentation processes in ecosystems.
28. How do magnetic fields affect magnetic suspensions?
In magnetic suspensions, particles respond to magnetic fields. This property is used in applications like magnetic fluids (ferrofluids) where the suspension's behavior can be controlled by applying external magnetic fields.
29. What is the role of suspensions in the human body?
Suspensions play vital roles in the human body. Blood is a suspension of cells in plasma, and many bodily fluids contain suspended particles. Understanding suspension properties is crucial in medicine, from drug delivery to diagnosing diseases.
30. What is meant by "yield stress" in suspensions?
Yield stress is the minimum stress required to initiate flow in a suspension. Some suspensions behave like solids until enough stress is applied to cause them to flow, which is important in applications like paints and some food products.
31. How does a suspension differ from a solution?
In a suspension, particles are large enough to be seen and will settle over time, while in a solution, particles are dissolved and evenly distributed throughout the mixture. Solutions are homogeneous, while suspensions are heterogeneous.
32. What is the importance of suspensions in the pharmaceutical industry?
Suspensions are widely used in pharmaceuticals for drugs that are insoluble or unstable in solution. They allow for controlled release of medications, mask unpleasant tastes, and can improve the stability and bioavailability of certain drugs.
33. How do suspensions play a role in the food industry?
Suspensions are common in the food industry, found in products like fruit juices, chocolate milk, and some sauces. Understanding suspension properties is crucial for controlling texture, appearance, and stability of food products.
34. What is the Tyndall effect, and how does it relate to suspensions?
The Tyndall effect is the scattering of light by colloidal particles in a suspension. When a beam of light passes through a suspension, the suspended particles scatter the light, making the beam visible. This effect helps distinguish suspensions from solutions.
35. How do suspensions behave differently at the nanoscale?
At the nanoscale, the behavior of suspensions can change dramatically. Nanoparticle suspensions often exhibit unique properties due to increased surface area-to-volume ratios, leading to enhanced reactivity and different settling behaviors compared to larger particle suspensions.
36. How do suspensions affect the optical properties of a mixture?
Suspensions can affect the transparency, opacity, and color of a mixture. The suspended particles scatter and absorb light, which can make the mixture appear cloudy or opaque. This property is used in various applications, from sunscreens to paint.
37. How do suspensions contribute to the study of colloid science?
Suspensions serve as a bridge between solutions and coarse dispersions in colloid science. Studying suspensions helps scientists understand the transition between different types of mixtures and the factors that influence stability, particle interactions, and bulk properties of dispersed systems.
38. How does the shape of suspended particles affect the suspension's properties?
Particle shape influences how particles interact with each other and the medium. Irregularly shaped particles may increase viscosity and stability compared to spherical particles, as they can interlock and resist settling.
39. What are the main types of suspensions?
The main types of suspensions are solid-in-liquid (e.g., mud in water), liquid-in-liquid (e.g., oil droplets in water), and gas-in-liquid (e.g., whipped cream). Solid-in-gas suspensions, like dust in air, are also possible but less common.
40. What is creaming in the context of suspensions?
Creaming is the opposite of sedimentation, where less dense particles in a suspension rise to the top of the mixture. This phenomenon is common in some food products like non-homogenized milk.
41. How do suspensions behave differently in polar vs. non-polar mediums?
In polar mediums like water, charged particles can form stable suspensions due to electrostatic repulsion. In non-polar mediums, stability often relies more on steric hindrance or the addition of surfactants to prevent particle aggregation.
42. How does the density difference between particles and medium affect a suspension?
The greater the density difference between the suspended particles and the medium, the faster the particles will settle. If the particles are less dense than the medium, they will float to the top instead of settling to the bottom.
43. What is meant by "critical flocculation concentration" in suspensions?
The critical flocculation concentration is the minimum concentration of an electrolyte required to cause rapid flocculation of a suspension. It's an important parameter in understanding and controlling suspension stability.
44. What is a suspension in chemistry?
A suspension is a heterogeneous mixture where solid particles are dispersed in a liquid or gas medium. The particles are large enough to be visible and will eventually settle out if left undisturbed.
45. How do suspensions contribute to the formation of sedimentary rocks?
Suspensions play a crucial role in sedimentary rock formation. Particles suspended in water eventually settle, forming layers of sediment. Over time, these layers compact and cement together, creating sedimentary rocks.
46. What is the role of suspensions in wastewater treatment?
Suspensions are crucial in wastewater treatment. The process often involves creating suspensions of contaminants that can then be removed through sedimentation, filtration, or other separation techniques.
47. What is Stokes' law, and how does it relate to suspensions?
Stokes' law describes the frictional force exerted on spherical objects moving through a viscous fluid. In suspensions, it helps predict the settling velocity of particles based on their size, density, and the medium's properties.
48. What is the difference between a stable and an unstable suspension?
A stable suspension maintains its dispersed state for a long time without significant settling or separation. An unstable suspension quickly separates into its components, with particles settling out or rising to the top.
49. What is meant by "rheology" in the context of suspensions?
Rheology is the study of flow and deformation of matter. In suspensions, it involves understanding how the mixture flows under different conditions, which is crucial for applications in industries like paint manufacturing and food processing.
50. What is meant by "thixotropy" in relation to suspensions?
Thixotropy is a property where certain suspensions become less viscous when subjected to stress (like shaking) and return to a more viscous state when left undisturbed. This property is important in products like non-drip paints and some food items.
51. How do suspensions behave differently in microgravity environments?
In microgravity, the settling of particles in suspensions is greatly reduced. This allows for the study of long-term suspension behavior and the creation of more uniform mixtures, which has applications in materials science and pharmaceutical research in space.
52. How do temperature gradients affect suspensions?
Temperature gradients can cause convection currents in suspensions, potentially leading to non-uniform distribution of particles. This phenomenon is important in various industrial processes and natural systems like ocean currents carrying suspended sediments.
53. What is meant by "caking" in suspensions, and how can it be prevented?
Caking occurs when particles in a suspension form a hard, compact mass that's difficult to re-suspend. It can be prevented by adding stabilizers, controlling particle size, or using proper storage conditions to maintain the suspension's integrity.
54. What is the significance of the "critical particle concentration" in suspensions?
The critical particle concentration is the maximum amount of solid that can be suspended in a given volume of liquid while maintaining the desired properties of the suspension. Exceeding this concentration can lead to instability or changes in the suspension's behavior.
55. What is meant by "hindered settling" in suspensions?
Hindered settling occurs when the concentration of particles in a suspension is high enough that particles interfere with each other's movement. This leads to a slower settling rate compared to what would be expected for individual particles, which is important in many industrial separation processes.

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