10 Reasons For Concrete Crack And 10 Methods To Avoid It

Concrete cracks are a common problem in the construction industry and can lead to structural issues and aesthetic problems. Here are 10 common reasons for concrete cracks and 10 methods to avoid them:

Reasons for concrete cracks:

  1. Shrinkage: Concrete shrinks as it dries and cures, which can lead to cracking.
  2. Temperature changes: Temperature changes can cause concrete to expand and contract, leading to cracking.
  3. Improper curing: Improper curing can lead to uneven drying and curing, which can cause cracking.
  4. Improper mixing: Improper mixing can result in an inconsistent concrete mixture, leading to cracking.
  5. Poor subgrade preparation: Poor subgrade preparation can lead to uneven settling, which can cause cracking.
  6. Improper reinforcing: Improper reinforcing can lead to uneven distribution of stresses and loads, resulting in cracking.
  7. Overloading: Overloading can cause the concrete to fail, resulting in cracking.
  8. Freeze-thaw cycles: Exposure to freeze-thaw cycles can cause concrete to expand and contract, leading to cracking.
  9. Chemical attack: Exposure to certain chemicals can cause concrete to degrade and crack.
  10. Corrosion of reinforcing steel: Corrosion of the reinforcing steel can cause concrete to crack as the steel loses strength.

Load bearing masonry and frame structural walls are two types of construction that are used in building homes and other structures.

Load bearing masonry refers to a type of construction in which the walls of the building are made of masonry materials (such as bricks or concrete blocks) and are responsible for supporting the weight of the building above. These types of walls are typically thicker than non-load bearing walls and have to withstand the weight of the roof, floors and other elements of the building. Load bearing walls are found in traditional construction methods, where the walls are used to transfer loads from the roof, floor and other structure to the foundation.

Frame structural walls, on the other hand, refer to a type of construction in which the walls of the building are made of a frame structure (such as wood or steel) and are used to support the weight of the building above. These walls are typically thinner than load bearing walls and are used in combination with other structural elements such as beams and columns to support the weight of the building. Frame structural walls are found in more modern construction methods and are known to be more flexible and cost-efficient.

Both load bearing and frame structural walls have their own benefits and drawbacks. Load bearing masonry walls are known for being durable, fire resistant and requires less maintenance, but they are less flexible and more time consuming in the construction process. Frame structural walls are known for being more flexible and cost-effective, but they have less fire resistance and could have potential issues with moisture and pests.

It’s important to consult with professionals and experts before deciding on the type of construction that is best for your project, as the choice depends on factors such as the local building codes, zoning regulations, type of soil, and the overall design of the building.

10 Methods Avoid Concrete Crack on constraction

Concrete cracking is a common issue in construction, but there are steps that can be taken to prevent or minimize cracking. Here are 10 methods to avoid concrete cracks:

  1. Properly mix and place the concrete: Ensure that the concrete is mixed and placed correctly, using the right proportions of water, cement, and aggregate, to reduce the likelihood of cracking.
  2. Use adequate reinforcing steel: Reinforcing steel, also known as rebar, provides additional strength to the concrete and helps reduce cracking. Adequate reinforcing steel should be used in areas of the concrete that are under high stress.
  3. Use proper curing techniques: Proper curing techniques, such as keeping the concrete moist, can help the concrete to set properly and reduce cracking.
  4. Control the temperature of the concrete: Excessive temperature differences during the curing process can cause concrete to crack. It is important to control the temperature of the concrete by keeping it cool in hot weather and warm in cold weather.
  5. Avoid vibration: Vibration can cause concrete to crack. Avoid vibration by using proper compaction techniques and using vibration-free methods of placing and finishing the concrete.
  6. Control the shrinkage: Concrete shrinks as it dries, and this shrinkage can lead to cracking. Use shrinkage-reducing admixtures, or include expansion joints in the design, to control shrinkage.
  7. Avoid over-watering the concrete: Over-watering the concrete can lead to excessive shrinkage and cracking. It’s important to use just enough water to make the concrete workable.
  8. Use proper forms and edges: Properly designed forms and edges can help to distribute