Engineer ogunde

27/06/2025

Work progress

14/01/2025

Perfect excavation work 🤩

30/12/2024

08/12/2024

Steps to design a saw ladder..

05/12/2024

Understanding leveling

05/12/2024

Understanding Rainwater Harvesting System.

Here's a breakdown of the components and process:

Core Components:
▪️ Rooftop: The primary collection surface for rainwater.
▪️ Gutter: Channels rainwater from the roof to the downspout.
▪️ Downspout: Directs rainwater from the gutter to the storage tank.
▪️ Filter: Removes debris and impurities from the rainwater.
▪️ Storage Tank: Stores collected rainwater.
▪️ Pump: Pumps water from the storage tank for distribution.
▪️ Distribution System: Delivers water to various points of use, such as toilets, washing machines, and gardens.
▪️ Overflow: Releases excess water when the tank is full.

How it Works:
1. Rainwater Collection: Rainwater falls on the rooftop and is channeled into the gutters.
2. Water Diversion: The gutters direct the rainwater into the downspout.
3. Filtration: The rainwater passes through a filter to remove debris and impurities.
4. Storage: The filtered rainwater is stored in the underground tank.
5. Water Usage: The stored rainwater can be used for various non-potable purposes, such as:
- Toilet flushing
- Laundry
- Garden watering
- Car washing
6. Overflow: If the tank reaches capacity, excess water is released through the overflow pipe.

Benefits of Rainwater Harvesting:
▪️ Water Conservation: Reduces reliance on municipal water supplies.
▪️ Reduced Water Bills: Can significantly lower water bills.
▪️ Environmental Benefits: Reduces stormwater runoff and helps recharge groundwater.
▪️ Improved Water Quality: Filtered rainwater is often cleaner than municipal water.

Key Considerations:
▪️ Water Quality: Regular cleaning and maintenance of the storage tank and filters are essential to ensure water quality.
▪️ Local Regulations: Check local regulations regarding rainwater harvesting and water usage.
▪️ Tank Size: The size of the storage tank should be determined based on your water needs and local rainfall patterns.
▪️ Water Treatment: For potable use, rainwater may require additional

24/11/2024

STEEL ROOF TRUSSES AND COVERING

By virtue of its position a roof is subjected to the elements to a greater degree than the walls, therefore the durability of the covering is of paramount importance.

Roofs can be considered as :
1. Short span : up to 7.00 m.
2. Medium span : 7.00 to 24 m, except where reinforced concrete is used.
3. Long span : over 24 m, these roofs are generally designed by a specialist.

STEEL ROOF TRUSSES
This form of roof structure is used mainly for short and medium span intended for industrial or recreational use.

ASSEMBLING PROCESS OF STEEL ROOF TRUSSES
A steel roof truss is a frame consisting of a series of rigid triangles composed of compression and tension members. The compression members are rafters and struts, whereas the tension members are termed ties. Standard mild steel angles are usually employed as the structural members and these are connected together, converge with flat shaped plates called gussets. They can be rivetted, bolted or welded together to form a rigid triangular truss. The rafter is divided into a number of equal division which locates the intersection point for the center line of the internal strut or tie.
Angle purlins are used longitudinally to connect the trusses together to provide the fixing for the roof covering.

COVERINGS
The basic requirements for covering materials to steel roof trusses are :-
1. Sufficient strength to support imposed wind and snow loadings
2. Resistance to the pe*******on of rain, wind and snow.
3. Low self weight,
4. Reasonable standard of thermal insulation.
5. Acceptable fire resistance.
6. Durable to reduce the maintenance required during the anticipated life of the roof.

20/11/2024

The point where the Pacific and Atlantic Oceans meet is a fascinating natural phenomenon, often characterized by a visible line where the two bodies of water appear to clash but do not fully mix. This unique phenomenon occurs primarily due to differences in the salinity, temperature, and density of each ocean's water. While these differences do not create a solid barrier, they create a gradient that makes it difficult for the waters to fully blend, resulting in a striking contrast that can be seen on the surface.
One of the most notable places where this phenomenon occurs is at Cape Horn, the southern tip of South America, where the Pacific Ocean meets the Atlantic. Here, the waters of the Pacific, typically cooler and less salty, encounter the warmer, saltier waters of the Atlantic. These differences cause each ocean to retain its unique characteristics for a while before they gradually blend through diffusion and currents. This phenomenon is further influenced by powerful ocean currents, like the Antarctic Circumpolar Current, which flows around Antarctica and affects the waters where these oceans converge. Such currents contribute to the distinct separation line that travelers often observe in photos and videos.
Beyond the physical aspects, the meeting of the Pacific and Atlantic Oceans has long held symbolic and cultural significance. It represents a natural boundary between two vast and diverse ecosystems, each home to unique marine life adapted to its environment. This convergence zone also poses challenges for marine navigation, as the differing currents, temperatures, and wave patterns can create unpredictable conditions, making it a notorious area for sailors.
Scientists study these oceanic differences to understand more about climate patterns, marine biodiversity, and the ways in which these two major bodies of water influence global systems. This meeting point between the Pacific and Atlantic Oceans serves as a powerful reminder of the complexities of our

06/11/2024

Steel😕

06/11/2024

Railway 🚂 truck

06/11/2024

Perfect work ❤️