๐แจแขแตแฎแตแซ แฅแแซแ แฃแแญ แ แ แฒแต แ แ แฃ แ แ แแแแแ แแตแ แแตแตแญ แ แฒแต แแ แแฅแชแซ แคแต แแซแตแแแฃ แแแข
โแจแขแตแฎแตแซ แฅแแซแ แฃแแญ (NBE) แ แ แฒแต แ แ แฃ แ แฒแต แแ แแฅแชแซ แคแต แแแแแฃแต แจแแซแตแฝแแแ แแฐแต แจแแแจ แฒแแแค แฅแแฐ แฐแแ แฅแแฐ แตแแ แแแญแต (landmark) แจแแแ แญ แแแ แแแแฐแแ แแแแฃแณ แญแตแตแ (supervision) แจแแแ แจแ แแญ แแตแฅแ แแแ แ แแ แฉแฃแแซแแฝแ แ แจแจแณ แแฅแแแข
โแณแ แถ แซแแ แ แฒแต แแ แแฅแชแซ แคแต แ แฑแณแ แแณแ แ แแแแ แจแฃแแฉ แแฃแญ แแข แแตแฅ แ แแแต 5,700 แซแฌ แแตแญ แฆแณ แแญ แจแแซแญแ แญแแแแข แแฎแแญแฑ แจแแแจแแ แฃแแฉแ แจแฅแซ แฅแแ แตแแดแแฝ แ แ แแต แฃแซ แตแญ แแแแฃแตแ แจแ แตแฐแณแฐแญ แฅแแฒแแ แจแดแญแแญ แแ แจแฐ แแแฑแ แแแแแ แซแแ แแแข
โแฃแแฉ แฃแแฃแ แจแแแแต แแแแซ (request for expression of interest) แแ แจแตแค แ แฒแฑ แแแ แแแแ แจแแแ แ แตแฐแณแฐแญ แฅแญแแถแฝแ (building management systems)แฃ แจแแ แจแฐแ แแแต แแแ แญแ แฅแ แแแแ แจแฒแแณแ แแ แจแฐ แแแตแ แซแซแฐแฐ แญแแแแข
แญแ แ แแแจแแ แฃแแฉ แ แชแแญแ แแญ แฃแแ แจแแญแแแต แฅแญแแต แแตแฅ แซแแแ แฐแ แแ แจแแซแแแฃแญแ แแแข แ แฐแจแแชแ แแแฃแณแ แขแฎแแฝแแฃ แจแฅแแ แ แแแจแแตแแ แจแแแฅ แ แแแแแต แแตแซ แฆแณแแฝแ แญแญแแแข
โแญแ แฐแแณแฝแแต แจแแฃแ แขแตแฎแตแซ แจแแฅแฅแญ แฅแซแ แแ แแจแญแฃ แจแซแแณแ แแ แซแ แแณแฐแแ แจแฃแแญ แขแแฑแตแตแชแแ แ แแฐแต แแแญ แขแแจแตแตแแแต แญแแต แแตแจแแ แจแแฎ แฐแ แจแแญแแแต แแญแ แแปแปแซแแฝแ แฅแจแฐแแ แจแฝ แฃแแฝแ แต แแ แต แแแข แ แฒแฑ แแ แแฅแชแซ แคแต แฅแแแ แ แจแแแฅ แแฐแถแฝ แแแฐแแ แจแณแแ แฐแ แฐแแแ แฝแแแญ แ แซแ แฐแฐแญแ แญแแฐแณแแข
โแฃแแฉ แ แตแแแ แ แจแฃแฅแ แจแแแ แแฎแแญแถแฝ แแญ แแแต แซแแธแแฃ แจแดแญแแญ แ แ แแ แแณแ แจแฅแซ แ แแปแธแ แซแแธแแ แฉแฃแแซแแฝ แจแแแแ แฒแแแค แจแ แแซแชแแต แฅแซแแ แแแ แ แแ แแตแแญแถแฝแ แจแฐแจแฐแ แฅแแฒแแ แญแ แ แแแข
Via Ethiopian Business Review
@etconp
โแจแขแตแฎแตแซ แฅแแซแ แฃแแญ (NBE) แ แ แฒแต แ แ แฃ แ แฒแต แแ แแฅแชแซ แคแต แแแแแฃแต แจแแซแตแฝแแแ แแฐแต แจแแแจ แฒแแแค แฅแแฐ แฐแแ แฅแแฐ แตแแ แแแญแต (landmark) แจแแแ แญ แแแ แแแแฐแแ แแแแฃแณ แญแตแตแ (supervision) แจแแแ แจแ แแญ แแตแฅแ แแแ แ แแ แฉแฃแแซแแฝแ แ แจแจแณ แแฅแแแข
โแณแ แถ แซแแ แ แฒแต แแ แแฅแชแซ แคแต แ แฑแณแ แแณแ แ แแแแ แจแฃแแฉ แแฃแญ แแข แแตแฅ แ แแแต 5,700 แซแฌ แแตแญ แฆแณ แแญ แจแแซแญแ แญแแแแข แแฎแแญแฑ แจแแแจแแ แฃแแฉแ แจแฅแซ แฅแแ แตแแดแแฝ แ แ แแต แฃแซ แตแญ แแแแฃแตแ แจแ แตแฐแณแฐแญ แฅแแฒแแ แจแดแญแแญ แแ แจแฐ แแแฑแ แแแแแ แซแแ แแแข
โแฃแแฉ แฃแแฃแ แจแแแแต แแแแซ (request for expression of interest) แแ แจแตแค แ แฒแฑ แแแ แแแแ แจแแแ แ แตแฐแณแฐแญ แฅแญแแถแฝแ (building management systems)แฃ แจแแ แจแฐแ แแแต แแแ แญแ แฅแ แแแแ แจแฒแแณแ แแ แจแฐ แแแตแ แซแซแฐแฐ แญแแแแข
แญแ แ แแแจแแ แฃแแฉ แ แชแแญแ แแญ แฃแแ แจแแญแแแต แฅแญแแต แแตแฅ แซแแแ แฐแ แแ แจแแซแแแฃแญแ แแแข แ แฐแจแแชแ แแแฃแณแ แขแฎแแฝแแฃ แจแฅแแ แ แแแจแแตแแ แจแแแฅ แ แแแแแต แแตแซ แฆแณแแฝแ แญแญแแแข
โแญแ แฐแแณแฝแแต แจแแฃแ แขแตแฎแตแซ แจแแฅแฅแญ แฅแซแ แแ แแจแญแฃ แจแซแแณแ แแ แซแ แแณแฐแแ แจแฃแแญ แขแแฑแตแตแชแแ แ แแฐแต แแแญ แขแแจแตแตแแแต แญแแต แแตแจแแ แจแแฎ แฐแ แจแแญแแแต แแญแ แแปแปแซแแฝแ แฅแจแฐแแ แจแฝ แฃแแฝแ แต แแ แต แแแข แ แฒแฑ แแ แแฅแชแซ แคแต แฅแแแ แ แจแแแฅ แแฐแถแฝ แแแฐแแ แจแณแแ แฐแ แฐแแแ แฝแแแญ แ แซแ แฐแฐแญแ แญแแฐแณแแข
โแฃแแฉ แ แตแแแ แ แจแฃแฅแ แจแแแ แแฎแแญแถแฝ แแญ แแแต แซแแธแแฃ แจแดแญแแญ แ แ แแ แแณแ แจแฅแซ แ แแปแธแ แซแแธแแ แฉแฃแแซแแฝ แจแแแแ แฒแแแค แจแ แแซแชแแต แฅแซแแ แแแ แ แแ แแตแแญแถแฝแ แจแฐแจแฐแ แฅแแฒแแ แญแ แ แแแข
Via Ethiopian Business Review
@etconp
โค11๐5๐ฅ1๐1
แณแแซแต แแแต แฅแ แ แฆแแต แ แ
แซแข
โ แจแแแฐแฃแธแ แ แแแแแถแฝ
๐ แแแต any Size & thickness
๐ แ แฆแแต (แฅแญแต แแแฃแตแ แแ แ)
๐ แจแฐแแซแฉ [modefic] แตแซแแฝแ แฅแแฐแซแแแข
โฆ๏ธ แแแแแแ แฅแจแณ แฅแจแต แฅแแแแแแข
โ๏ธแตแแญ 0904040477 แแญแ 0911016833 แฐแแแ แซแแแ
๐ฑแดแแแซแ แแญ แฆhttps://t.me/heavenic1
แ แตแซแปแฆ แ 1.แแญแซแถ
แ.2 แ แจแญ แคแ แชแณแ แแ แจแต
แ.3 แแซ
แฅแซแตแ แณแแแแต แแแซแฝแ แแแข
แณแแซแต แแแต แฅแ แ แฆแแต แ แ แซแข
โ แจแแแฐแฃแธแ แ แแแแแถแฝ
๐ แแแต any Size & thickness
๐ แ แฆแแต (แฅแญแต แแแฃแตแ แแ แ)
๐ แจแฐแแซแฉ [modefic] แตแซแแฝแ แฅแแฐแซแแแข
โฆ๏ธ แแแแแแ แฅแจแณ แฅแจแต แฅแแแแแแข
โ๏ธแตแแญ 0904040477 แแญแ 0911016833 แฐแแแ แซแแแ
๐ฑแดแแแซแ แแญ แฆhttps://t.me/heavenic1
แ แตแซแปแฆ แ 1.แแญแซแถ
แ.2 แ แจแญ แคแ แชแณแ แแ แจแต
แ.3 แแซ
แฅแซแตแ แณแแแแต แแแซแฝแ แแแข
แณแแซแต แแแต แฅแ แ แฆแแต แ แ แซแข
โค2๐1
๐Foundation Strengthening
๐ซFoundation strengthening is necessary when an existing structureโs foundation is no longer adequate to safely carry the imposed loads due to
โ Soil settlement or loss of bearing capacity
โ Changes in building loads (e.g., adding extra floors)
โ Construction defects or deterioration
โ Seismic or flood vulnerability
โ Nearby excavation or changes in ground condition
๐ทDifferent types of foundation Strengthening
โ Mass Concrete Underpinning: Simple & cost-effective for shallow foundations.
โ Beam & Base (Pier & Beam): Transfers load to stronger soil, less digging.
โ Mini / Micro-Piles: Deep support, minimal disturbance.
โ Needle-and-Pile / Cantilever Needles: Localized or one-sided reinforcement.
โ Concrete Jacketing: Encases foundations to increase capacity.
โ Chemical / Jet Grouting: Densifies soil or fills voids, perfect for tight spaces.
โ Screw Piles / Helical Piers: Quick installation, low vibration.
โ Angle / Root Piling: Stabilizes nearby walls & structures.
โ Soil Stabilization: Geosynthetics, polymers, or geofoam for stronger ground.
โ Base Isolation: Protects buildings in earthquake zones.
#FoundationStrengthening #StructuralSafety #CivilEngineering
#EthiopianConstructionEngineering
#SiteExecution #PlanningToBuild
#ConstructionBasics #BuildSmart
#OnSiteLearning #EthiopianConstruction #Ethioconstruction
@etconp
๐ซFoundation strengthening is necessary when an existing structureโs foundation is no longer adequate to safely carry the imposed loads due to
โ Soil settlement or loss of bearing capacity
โ Changes in building loads (e.g., adding extra floors)
โ Construction defects or deterioration
โ Seismic or flood vulnerability
โ Nearby excavation or changes in ground condition
๐ทDifferent types of foundation Strengthening
โ Mass Concrete Underpinning: Simple & cost-effective for shallow foundations.
โ Beam & Base (Pier & Beam): Transfers load to stronger soil, less digging.
โ Mini / Micro-Piles: Deep support, minimal disturbance.
โ Needle-and-Pile / Cantilever Needles: Localized or one-sided reinforcement.
โ Concrete Jacketing: Encases foundations to increase capacity.
โ Chemical / Jet Grouting: Densifies soil or fills voids, perfect for tight spaces.
โ Screw Piles / Helical Piers: Quick installation, low vibration.
โ Angle / Root Piling: Stabilizes nearby walls & structures.
โ Soil Stabilization: Geosynthetics, polymers, or geofoam for stronger ground.
โ Base Isolation: Protects buildings in earthquake zones.
#FoundationStrengthening #StructuralSafety #CivilEngineering
#EthiopianConstructionEngineering
#SiteExecution #PlanningToBuild
#ConstructionBasics #BuildSmart
#OnSiteLearning #EthiopianConstruction #Ethioconstruction
@etconp
โค4๐1
๐Slope in Pipes
๐ซProper pipe slope is critical for efficient drainage and long-term performance. A 0% slope โ causes blockage, while too much slope (>2%) โ lets water flow too fast, leaving solids behind.
โ Recommended Slopes:
โข 1.5% for 2"โ3" pipes
โข 0.8% for larger pipes
โ๏ธ Ensures smooth flow
โ๏ธ Prevents clogging
โ๏ธ Improves system efficiency
- ๐ซ 0% slope โ Not acceptable; water and solids will not drain.
- โ 1.5% slope โ Recommended for 2" & 3" pipes; ensures proper flow.
- โ 0.8% slope โ Acceptable for larger pipes (like 4" and above); balances flow.
- โ 1.5% slope per 100m โ Works well for long runs; maintains drainage efficiency.
- ๐ซ More than 2% slope โ Not recommended; liquids drain too fast, solids settle and block the pipe.
- ๐ Rule of thumb โ Maintain slope between 0.8% to 1.5% depending on pipe size.
- โ๏ธ Balance is key โ Too little slope = stagnant flow; too much slope = separation of liquids and solids.
๐ Always design drainage systems with the correct gradient.
@etconp
๐ซProper pipe slope is critical for efficient drainage and long-term performance. A 0% slope โ causes blockage, while too much slope (>2%) โ lets water flow too fast, leaving solids behind.
โ Recommended Slopes:
โข 1.5% for 2"โ3" pipes
โข 0.8% for larger pipes
โ๏ธ Ensures smooth flow
โ๏ธ Prevents clogging
โ๏ธ Improves system efficiency
- ๐ซ 0% slope โ Not acceptable; water and solids will not drain.
- โ 1.5% slope โ Recommended for 2" & 3" pipes; ensures proper flow.
- โ 0.8% slope โ Acceptable for larger pipes (like 4" and above); balances flow.
- โ 1.5% slope per 100m โ Works well for long runs; maintains drainage efficiency.
- ๐ซ More than 2% slope โ Not recommended; liquids drain too fast, solids settle and block the pipe.
- ๐ Rule of thumb โ Maintain slope between 0.8% to 1.5% depending on pipe size.
- โ๏ธ Balance is key โ Too little slope = stagnant flow; too much slope = separation of liquids and solids.
๐ Always design drainage systems with the correct gradient.
@etconp
โค6๐5
๐แแแแฃ แจแญแฐแแโ๏ธ
๐ซแฐแแ แแต แคแฐแฐแฆแปแฝแ ETABS แฎแญแต แแแแญ แจแฐแแแแฃแน แฎแฅ 16/07/2018 แ.แ แแณ 1:00 แแญ แฆแแแญแ แญแแฑ แญแแแซแ๐
๐ฉแแแแแ แฅแซแ แฒแแญ @Philemona7 แแญแ แ 0925446661 แญแฐแแแแ๐
๐ซแฐแแ แแต แคแฐแฐแฆแปแฝแ ETABS แฎแญแต แแแแญ แจแฐแแแแฃแน แฎแฅ 16/07/2018 แ.แ แแณ 1:00 แแญ แฆแแแญแ แญแแฑ แญแแแซแ๐
๐ฉแแแแแ แฅแซแ แฒแแญ @Philemona7 แแญแ แ 0925446661 แญแฐแแแแ๐
โค1๐ฅฐ1
๐Retaining Wall Construction โ Key Components Explained
๐ซA retaining wall is designed to resist lateral earth pressure and provide stability to soil at different elevations.
๐น Retained Soil โ The soil being supported behind the wall
๐น Reinforced Concrete Stem โ Main vertical structural element resisting pressure
๐น Rebar (Blue Reinforcement) โ Provides tensile strength to concrete
๐น Backfill โ Compacted soil placed behind the wall
๐น Drainage Layer (Gravel) โ Prevents water pressure buildup
๐น Weep Holes โ Allows water to escape, reducing hydrostatic pressure
๐น Base Slab (Footing) โ Distributes load to the ground
๐น Heel & Toe โ Key parts of footing for stability
๐น Shear Key โ Prevents sliding failure
๐ก Proper drainage + strong reinforcement = Long-lasting retaining wall performance
- Retained Soil โ The mass of soil being held back by the wall.
- Reinforced Concrete Stem โ The vertical structural element resisting earth pressure.
- Drainage Layer (Gravel) โ Prevents water buildup behind the wall.
- Weep Holes โ Allow water to escape, reducing hydrostatic pressure.
- Heel โ Portion of the footing extending under the retained soil, adds stability.
- Base Slab (Footing) โ The foundation distributing loads to the ground.
- Toe โ The front edge of the footing, counteracts overturning.
- Shear Key โ Projection below the footing to resist sliding forces.
- Backfill โ Soil placed behind the wall after construction.
---
๐ Possible Mistakes or Omissions
- Drainage Detailing: The gravel drainage layer is shown, but typically a filter fabric is also required to prevent soil clogging.
- Weep Hole Spacing: The image doesnโt specify spacing; in practice, they should be placed at regular intervals (usually 1โ2 m apart).
- Heel Thickness: The heel appears thin compared to the stem; in design, heel thickness must be adequate to resist bending.
- Shear Key Depth: The shear key is shown, but its depth and placement are critical; too shallow a key may not provide enough sliding resistance.
- Backfill Compaction: The drawing labels backfill but doesnโt indicate compaction, which is essential for stability.
- No Indication of Reinforcement: The stem is labeled โreinforced concrete,โ but reinforcement bars are not illustrated. For clarity, showing reinforcement direction (vertical + horizontal) would help.
- Surface Drainage: No mention of surface drainage (like a swale or channel) to divert water away from the wall top.
#CivilEngineering #RetainingWall #ConstructionSite #StructuralEngineering #Reinforcement #ConcreteDesign #SiteWork #EngineeringBasics #CivilTechTime #ConstructionKnowledge #EngineeringStudents #BuildSafe
๐งFor more information click this Link Below And Subscribe Our YouTube Channel๐
https://youtube.com/@ethiopianconstruction7?si=ils307xXQQpIdCwG
@etconp
๐ซA retaining wall is designed to resist lateral earth pressure and provide stability to soil at different elevations.
๐น Retained Soil โ The soil being supported behind the wall
๐น Reinforced Concrete Stem โ Main vertical structural element resisting pressure
๐น Rebar (Blue Reinforcement) โ Provides tensile strength to concrete
๐น Backfill โ Compacted soil placed behind the wall
๐น Drainage Layer (Gravel) โ Prevents water pressure buildup
๐น Weep Holes โ Allows water to escape, reducing hydrostatic pressure
๐น Base Slab (Footing) โ Distributes load to the ground
๐น Heel & Toe โ Key parts of footing for stability
๐น Shear Key โ Prevents sliding failure
๐ก Proper drainage + strong reinforcement = Long-lasting retaining wall performance
- Retained Soil โ The mass of soil being held back by the wall.
- Reinforced Concrete Stem โ The vertical structural element resisting earth pressure.
- Drainage Layer (Gravel) โ Prevents water buildup behind the wall.
- Weep Holes โ Allow water to escape, reducing hydrostatic pressure.
- Heel โ Portion of the footing extending under the retained soil, adds stability.
- Base Slab (Footing) โ The foundation distributing loads to the ground.
- Toe โ The front edge of the footing, counteracts overturning.
- Shear Key โ Projection below the footing to resist sliding forces.
- Backfill โ Soil placed behind the wall after construction.
---
๐ Possible Mistakes or Omissions
- Drainage Detailing: The gravel drainage layer is shown, but typically a filter fabric is also required to prevent soil clogging.
- Weep Hole Spacing: The image doesnโt specify spacing; in practice, they should be placed at regular intervals (usually 1โ2 m apart).
- Heel Thickness: The heel appears thin compared to the stem; in design, heel thickness must be adequate to resist bending.
- Shear Key Depth: The shear key is shown, but its depth and placement are critical; too shallow a key may not provide enough sliding resistance.
- Backfill Compaction: The drawing labels backfill but doesnโt indicate compaction, which is essential for stability.
- No Indication of Reinforcement: The stem is labeled โreinforced concrete,โ but reinforcement bars are not illustrated. For clarity, showing reinforcement direction (vertical + horizontal) would help.
- Surface Drainage: No mention of surface drainage (like a swale or channel) to divert water away from the wall top.
#CivilEngineering #RetainingWall #ConstructionSite #StructuralEngineering #Reinforcement #ConcreteDesign #SiteWork #EngineeringBasics #CivilTechTime #ConstructionKnowledge #EngineeringStudents #BuildSafe
๐งFor more information click this Link Below And Subscribe Our YouTube Channel๐
https://youtube.com/@ethiopianconstruction7?si=ils307xXQQpIdCwG
@etconp
โค10
๐ INTERCON Construction Chemicals
โ Concrete Admixtures
โ Bonding Agents
โ Waterproofings
โ Wall Putty, Prime Coat
โ Concrete Repair Mortar
โ Floor hardener, Epoxy
โ Grout, Self-level mortar
โ Quartz paint, Contextra
โ Tile Adhesive & Tile Joint Fillers
โ Geotextiles and other construction chemicals and materials
โ๏ธ Tel: 0961955555
๐น Address 1: Signal road, around
Dinberwa Hospital
๐น Addres 2: Wellosefer, Infront of
Dani Plaza
โ Concrete Admixtures
โ Bonding Agents
โ Waterproofings
โ Wall Putty, Prime Coat
โ Concrete Repair Mortar
โ Floor hardener, Epoxy
โ Grout, Self-level mortar
โ Quartz paint, Contextra
โ Tile Adhesive & Tile Joint Fillers
โ Geotextiles and other construction chemicals and materials
โ๏ธ Tel: 0961955555
๐น Address 1: Signal road, around
Dinberwa Hospital
๐น Addres 2: Wellosefer, Infront of
Dani Plaza
โค1
๐Column reinforcement plays a critical role in transferring loads safely to the foundation.
But even small detailing mistakes can lead to serious structural issues over time.
Take a close look at this site condition ๐
Are the bar anchorage, hooks, and stirrups placed as per proper standards?
โ ๏ธ Poor detailing = Weak structure
โ๏ธ Proper detailing = Long-lasting safety
Drop your opinion below โฌ๏ธ
What do you think โ Correct or Wrong?
โ Mistakes in Column Reinforcement
- Improper anchorage of vertical bars at the footing base
- Hooks and bends not following standard codes (IS 456 / ACI)
- Uneven stirrup spacing, reducing confinement efficiency
- Poor alignment of reinforcement cage, affecting load transfer
- Weak connection between column bars and footing, risking structural failure
โ Correct Detailing Practices
- Provide straight, properly anchored bars with development length into footing
- Use standard 90ยฐ or 135ยฐ hooks as per code
- Maintain uniform stirrup spacing (closer near footing for confinement)
- Ensure vertical alignment of bars with plumb checking
- Guarantee adequate overlap/lap length when splicing bars
#CivilEngineering #ConstructionSite #StructuralEngineering #RebarDetailing #ColumnDesign #SiteInspection #ConstructionErrors #EngineeringBasics #BuildingSafety #ConcreteStructure #SiteEngineer #ConstructionLife #EngineeringKnowledge #QualityControl
@etconp
But even small detailing mistakes can lead to serious structural issues over time.
Take a close look at this site condition ๐
Are the bar anchorage, hooks, and stirrups placed as per proper standards?
โ ๏ธ Poor detailing = Weak structure
โ๏ธ Proper detailing = Long-lasting safety
Drop your opinion below โฌ๏ธ
What do you think โ Correct or Wrong?
โ Mistakes in Column Reinforcement
- Improper anchorage of vertical bars at the footing base
- Hooks and bends not following standard codes (IS 456 / ACI)
- Uneven stirrup spacing, reducing confinement efficiency
- Poor alignment of reinforcement cage, affecting load transfer
- Weak connection between column bars and footing, risking structural failure
โ Correct Detailing Practices
- Provide straight, properly anchored bars with development length into footing
- Use standard 90ยฐ or 135ยฐ hooks as per code
- Maintain uniform stirrup spacing (closer near footing for confinement)
- Ensure vertical alignment of bars with plumb checking
- Guarantee adequate overlap/lap length when splicing bars
#CivilEngineering #ConstructionSite #StructuralEngineering #RebarDetailing #ColumnDesign #SiteInspection #ConstructionErrors #EngineeringBasics #BuildingSafety #ConcreteStructure #SiteEngineer #ConstructionLife #EngineeringKnowledge #QualityControl
@etconp
โค7
๐ETABS แฆแแแญแ แฎแญแต แแแแฃ แฅแแฐแจแจแฐแ แญแณแแแ แแแญ แแ แฅแแแฝ แญแซแแแแ แฃแแน แแฐแจแต แฅแตแจ 10:00 แฅแแณแจแแแแแน แฅแแณแแแแ๐
๐ฉแแแแแ แฅแซแ แฒแแญ @Philemona7 แแญแ แ 0925446661 แญแฐแแแแ๐
๐ฉแแแแแ แฅแซแ แฒแแญ @Philemona7 แแญแ แ 0925446661 แญแฐแแแแ๐
๐2
๐What is Surveying?
- Process of measuring distances, angles, and elevations
- Determines relative positions of points on, above, or beneath the earthโs surface
๐ Types of Surveying
- Plane Surveying โ assumes earth is flat for small areas
- Geodetic Surveying โ accounts for earthโs curvature, used for large areas
- Topographic Surveying โ maps natural & man-made features
- Construction Surveying โ guides building layout and infrastructure works
๐ Surveying Instruments
- Total Station โ electronic/optical instrument for angles & distances
- Level โ measures elevation differences
- GPS โ satellite-based positioning system
๐ Survey Methods
- Triangulation โ uses triangles to determine positions
- Traversing โ series of connected survey lines
- Levelling โ determines height differences
- GPS Survey โ uses satellite signals for accuracy
- Training โ practical field learning for surveyors
Surveying is one of the most important processes in civil engineering. It helps engineers measure distances, angles, and elevations to determine the exact position of points on the earthโs surface.
Accurate surveying is essential for planning, designing, and constructing roads, buildings, bridges, and other infrastructure.
Different types of surveying such as Plane Surveying, Geodetic Surveying, Topographic Surveying, and Construction Surveying are used depending on the project requirements. Modern instruments like Total Station, Level, and GPS make surveying faster and more precise.
Common survey methods include Triangulation, Traversing, Levelling, and GPS Survey, which help engineers collect accurate data for successful construction projects.
#CivilEngineering
#Surveying
#SurveyEngineer
#TotalStation
#GPSsurvey
#Levelling
#ConstructionEngineering
#EngineeringKnowledge
#EngineeringStudents
#SiteEngineering
#EngineeringEducation
#Infrastructure
#ConstructionTechnology
#LearnCivilEngineering
@etconp
- Process of measuring distances, angles, and elevations
- Determines relative positions of points on, above, or beneath the earthโs surface
๐ Types of Surveying
- Plane Surveying โ assumes earth is flat for small areas
- Geodetic Surveying โ accounts for earthโs curvature, used for large areas
- Topographic Surveying โ maps natural & man-made features
- Construction Surveying โ guides building layout and infrastructure works
๐ Surveying Instruments
- Total Station โ electronic/optical instrument for angles & distances
- Level โ measures elevation differences
- GPS โ satellite-based positioning system
๐ Survey Methods
- Triangulation โ uses triangles to determine positions
- Traversing โ series of connected survey lines
- Levelling โ determines height differences
- GPS Survey โ uses satellite signals for accuracy
- Training โ practical field learning for surveyors
Surveying is one of the most important processes in civil engineering. It helps engineers measure distances, angles, and elevations to determine the exact position of points on the earthโs surface.
Accurate surveying is essential for planning, designing, and constructing roads, buildings, bridges, and other infrastructure.
Different types of surveying such as Plane Surveying, Geodetic Surveying, Topographic Surveying, and Construction Surveying are used depending on the project requirements. Modern instruments like Total Station, Level, and GPS make surveying faster and more precise.
Common survey methods include Triangulation, Traversing, Levelling, and GPS Survey, which help engineers collect accurate data for successful construction projects.
#CivilEngineering
#Surveying
#SurveyEngineer
#TotalStation
#GPSsurvey
#Levelling
#ConstructionEngineering
#EngineeringKnowledge
#EngineeringStudents
#SiteEngineering
#EngineeringEducation
#Infrastructure
#ConstructionTechnology
#LearnCivilEngineering
@etconp
โค7๐6๐1
ADVERTISMENT
แณแแซแต แแแต แฅแ แ แฆแแต แ แ แซแข
โ แจแแแฐแฃแธแ แ แแแแแถแฝ
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โ๏ธแตแแญ 0904040477 แแญแ 0911016833 แฐแแแ แซแแแ
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แณแแซแต แแแต แฅแ แ แฆแแต แ แ แซแข
โ แจแแแฐแฃแธแ แ แแแแแถแฝ
๐ แแแต any Size & thickness
๐ แ แฆแแต (แฅแญแต แแแฃแตแ แแ แ)
๐ แจแฐแแซแฉ [modefic] แตแซแแฝแ แฅแแฐแซแแแข
โฆ๏ธ แแแแแแ แฅแจแณ แฅแจแต แฅแแแแแแข
โ๏ธแตแแญ 0904040477 แแญแ 0911016833 แฐแแแ แซแแแ
๐ฑแดแแแซแ แแญ แฆhttps://t.me/heavenic1
แ แตแซแปแฆ แ 1.แแญแซแถ
แ.2 แ แจแญ แคแ แชแณแ แแ แจแต
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โค5
๐WHAT ARE THE TOP SKILLS FOR CIVIL ENGINEERS ?
Civil engineering is a broad field, so the best engineers combine strong technical ability with practical site skills and good people management. Here are the top skills every civil engineer should develop:
๐๏ธ 1. Technical & Design Skills
Structural analysis and design (beams, slabs, foundations)
Knowledge of codes and standards (e.g., BS, Eurocode)
Understanding of materials like concrete, steel, and soil behavior
Drafting and modeling using tools like AutoCAD, Revit, and STAAD.Pro
๐ 2. Problem-Solving Skills
Ability to analyze site challenges (e.g., weak soil, drainage issues)
Finding cost-effective and safe solutions
Applying engineering principles to real-life situations
๐ง 3. Project Management
Planning, scheduling, and execution of projects
Budgeting and cost control
Risk management and decision-making
Familiarity with tools like Microsoft Project
๐ท 4. Site & Practical Knowledge
Understanding construction methods and sequences
Reading drawings and supervising work on-site
Quality control and inspection
Health & safety practices
๐ฌ 5. Communication Skills
Explaining technical ideas to non-engineers
Writing reports and documentation
Coordinating with architects, contractors, and clients
๐งฎ 6. Mathematical & Analytical Skills
Strong foundation in mathematics and physics
Load calculations, measurements, and estimations
Data interpretation and analysis
๐ฅ๏ธ 7. Digital & Technology Skills
Building Information Modeling (BIM)
Use of civil engineering software and simulations
Basic knowledge of tools like Microsoft Excel for calculations and BOQ
โ๏ธ 8. Attention to Detail
Accuracy in drawings and measurements
Ensuring compliance with design and safety standards
Detecting small errors before they become costly problems
๐ค 9. Teamwork & Leadership
Working with multidisciplinary teams
Leading site workers and junior engineers
Conflict resolution and coordination
๐ 10. Adaptability & Continuous Learning
Keeping up with new technologies and materials
Learning sustainable construction practices
Adapting to different site conditions and project types
๐ Final Tip:
The most successful civil engineers combine technical knowledge + site experience + good communication. If you focus on these three, youโll stand out quickly.
@etconp
Civil engineering is a broad field, so the best engineers combine strong technical ability with practical site skills and good people management. Here are the top skills every civil engineer should develop:
๐๏ธ 1. Technical & Design Skills
Structural analysis and design (beams, slabs, foundations)
Knowledge of codes and standards (e.g., BS, Eurocode)
Understanding of materials like concrete, steel, and soil behavior
Drafting and modeling using tools like AutoCAD, Revit, and STAAD.Pro
๐ 2. Problem-Solving Skills
Ability to analyze site challenges (e.g., weak soil, drainage issues)
Finding cost-effective and safe solutions
Applying engineering principles to real-life situations
๐ง 3. Project Management
Planning, scheduling, and execution of projects
Budgeting and cost control
Risk management and decision-making
Familiarity with tools like Microsoft Project
๐ท 4. Site & Practical Knowledge
Understanding construction methods and sequences
Reading drawings and supervising work on-site
Quality control and inspection
Health & safety practices
๐ฌ 5. Communication Skills
Explaining technical ideas to non-engineers
Writing reports and documentation
Coordinating with architects, contractors, and clients
๐งฎ 6. Mathematical & Analytical Skills
Strong foundation in mathematics and physics
Load calculations, measurements, and estimations
Data interpretation and analysis
๐ฅ๏ธ 7. Digital & Technology Skills
Building Information Modeling (BIM)
Use of civil engineering software and simulations
Basic knowledge of tools like Microsoft Excel for calculations and BOQ
โ๏ธ 8. Attention to Detail
Accuracy in drawings and measurements
Ensuring compliance with design and safety standards
Detecting small errors before they become costly problems
๐ค 9. Teamwork & Leadership
Working with multidisciplinary teams
Leading site workers and junior engineers
Conflict resolution and coordination
๐ 10. Adaptability & Continuous Learning
Keeping up with new technologies and materials
Learning sustainable construction practices
Adapting to different site conditions and project types
๐ Final Tip:
The most successful civil engineers combine technical knowledge + site experience + good communication. If you focus on these three, youโll stand out quickly.
@etconp
โค10๐2
๐Types of Staircases in Building Construction
- Straight Staircase
- Simple linear design
- Steps, handrail, supporting wall
- L-Shaped Staircase
- Turns at 90ยฐ
- Steps, railing, structural support
- U-Shaped Staircase
- Two flights with landing
- Steps, landing, railing
- Helical Staircase
- Curved, elegant form
- Curved steps, central void, metal structure, wooden handrail
- Spiral Staircase
- Compact circular design
- Fan-shaped steps, central column, handrail, upper loft access
- Floating Staircase
- Modern aesthetic
- Floating steps, hidden anchors, glass railing, exposed concrete wall, integrated lighting
๐ท6 Types of Staircases Used in Building Construction ๐๏ธ
Staircases are important structural and architectural elements in buildings. Different designs are used depending on space availability, aesthetics, and functionality.
In this infographic, you can see common staircase types used in construction:
1๏ธโฃ Straight Staircase
2๏ธโฃ L-Shaped Staircase
3๏ธโฃ U-Shaped Staircase
4๏ธโฃ Helical Staircase
5๏ธโฃ Spiral Staircase
6๏ธโฃ Floating Staircase
Each type has its own structural design, support system, and application in buildings.
๐ Save this post to learn staircase designs used in civil engineering.
#CivilEngineering
#StaircaseDesign
#BuildingConstruction
#StructuralEngineering
#ConstructionDetails
#CivilEngineeringStudents
#EngineeringKnowledge
#ArchitectureDesign
#ConstructionLearning
@etconp
- Straight Staircase
- Simple linear design
- Steps, handrail, supporting wall
- L-Shaped Staircase
- Turns at 90ยฐ
- Steps, railing, structural support
- U-Shaped Staircase
- Two flights with landing
- Steps, landing, railing
- Helical Staircase
- Curved, elegant form
- Curved steps, central void, metal structure, wooden handrail
- Spiral Staircase
- Compact circular design
- Fan-shaped steps, central column, handrail, upper loft access
- Floating Staircase
- Modern aesthetic
- Floating steps, hidden anchors, glass railing, exposed concrete wall, integrated lighting
๐ท6 Types of Staircases Used in Building Construction ๐๏ธ
Staircases are important structural and architectural elements in buildings. Different designs are used depending on space availability, aesthetics, and functionality.
In this infographic, you can see common staircase types used in construction:
1๏ธโฃ Straight Staircase
2๏ธโฃ L-Shaped Staircase
3๏ธโฃ U-Shaped Staircase
4๏ธโฃ Helical Staircase
5๏ธโฃ Spiral Staircase
6๏ธโฃ Floating Staircase
Each type has its own structural design, support system, and application in buildings.
๐ Save this post to learn staircase designs used in civil engineering.
#CivilEngineering
#StaircaseDesign
#BuildingConstruction
#StructuralEngineering
#ConstructionDetails
#CivilEngineeringStudents
#EngineeringKnowledge
#ArchitectureDesign
#ConstructionLearning
@etconp
โค6๐ฅฐ2
๐Reason for Delay (Delay Classification)
l. Delay Handing Over Site.
2.Unforeseen ground Condition
3. Conflict between the owner and other parties,
4. Improper planning of contractor during bidding stage.
5. Inaccurate specification of site condition
6. Unrealistic time schedule given in contract.
7. Faulty soil investigation Report.
8, Slow decision from owner.
9. Bureaucracy in client's organization.
10. Ambiguity in specification and conflicting interpretation by parties.
11. Unrealistic inspection and testing method proposed in contract.
12. Delay in approval of completed works.
13. Delay approval of shop drawing and samples
14. Non availabilities of drawings/ design on time
15. Consultant or architect's reluctance for change
16. Obtaining permission from local authorities
17. Poor organization structure for client and contractor.
18. Financial constraints of contractor
19. Delay in running bill payment to the contractor w
20. Inadequate experience of contractor
21. Poor labor productivities
22. Lack of control over sub-contractor
23. Frequent change of sub-contractor
24. Poor site management and supervision
25. Use of improper and absolute construction methed
26. Increase scope of work
27. Rework due to error in execution
28. Rework due to change in design or deviation order
29. Delay in finalization of rates for extra items
30. Poor coordination among parties
31. Delay in material delivery by vendors
32. Delay in material to supplied by the owner
33. Delay in material procurement ( action by the contractor)
34. Change in material prices/ price escalation/ payment fluctuation
35. Improper storage of materials leading to damaged material when necessary
36. Insufficient use of equipment
37. Lack of skilled operator for specialized equipment
38. Extreme weather condition
39. Local political condition
40. Restricted access at site
41. Site accident due to lack of safety measure
42. Site accident due to negligence
43. Lack of motivation for contractor
โญ๏ธFor more information click this Link Below And Subscribe Our YouTube Channel๐
https://youtube.com/@ethiopianconstruction7?si=ils307xXQQpIdCwG
@etconp
l. Delay Handing Over Site.
2.Unforeseen ground Condition
3. Conflict between the owner and other parties,
4. Improper planning of contractor during bidding stage.
5. Inaccurate specification of site condition
6. Unrealistic time schedule given in contract.
7. Faulty soil investigation Report.
8, Slow decision from owner.
9. Bureaucracy in client's organization.
10. Ambiguity in specification and conflicting interpretation by parties.
11. Unrealistic inspection and testing method proposed in contract.
12. Delay in approval of completed works.
13. Delay approval of shop drawing and samples
14. Non availabilities of drawings/ design on time
15. Consultant or architect's reluctance for change
16. Obtaining permission from local authorities
17. Poor organization structure for client and contractor.
18. Financial constraints of contractor
19. Delay in running bill payment to the contractor w
20. Inadequate experience of contractor
21. Poor labor productivities
22. Lack of control over sub-contractor
23. Frequent change of sub-contractor
24. Poor site management and supervision
25. Use of improper and absolute construction methed
26. Increase scope of work
27. Rework due to error in execution
28. Rework due to change in design or deviation order
29. Delay in finalization of rates for extra items
30. Poor coordination among parties
31. Delay in material delivery by vendors
32. Delay in material to supplied by the owner
33. Delay in material procurement ( action by the contractor)
34. Change in material prices/ price escalation/ payment fluctuation
35. Improper storage of materials leading to damaged material when necessary
36. Insufficient use of equipment
37. Lack of skilled operator for specialized equipment
38. Extreme weather condition
39. Local political condition
40. Restricted access at site
41. Site accident due to lack of safety measure
42. Site accident due to negligence
43. Lack of motivation for contractor
โญ๏ธFor more information click this Link Below And Subscribe Our YouTube Channel๐
https://youtube.com/@ethiopianconstruction7?si=ils307xXQQpIdCwG
@etconp
โค15
๐โแจแ แแ แ แแ แฅแซแต แแณแซโแจแแแญ แ แแ แฅแแแต! ๐ช๐น
โแซแแ แปแแ แ แญแญแดแญแต แฅแป แ แญแฐแแฝแแค แแแฐแแฑ แจแ แแชแซ แฒแแญแ แตแแ แ แญแ แซ แฅแ แแแแต แ แซแ แญแแญ แฅแแแข
โแ แขแตแฎแตแซ แ แแญแแฑ แฅแธแ แจแแแแแ แ แดแต แจแแแซแแ RAAS Architects แจแฐแฐแแแ แตแแ แจแฒแแญแ แตแฑแฒแฎ แ แ แแญแแต แจแแตแแซแ แซแแแค แ แแญแ แแดแถแฝ แจแแญแปแแแ แ แแตแซแต แตแแ แณแชแญ แจแแแฝ แฃแแแซ แแตแข แฅแแแฝ แแญแฅแญ แฅแ แแณแแแแต แแฐ แแแซแก แแแ แณแแ แฉแแจแญแฒแฒแแฝ แขแแแจแฑแแฃ แซแแ แแ แ แ แแชแซแ แตแแ แญแต แฅแป แจแแ แฅแ แฅ แฅแ แฐแฐแฅแฆ แตแแ แญ แฅแแฐแแซแแ แ แฐแแฃแญ แซแตแแฐแจแจแฝ แฉแซแณแฝแ แแตแข
โแจ50 แ แแญ แ แแ แ แแ แฐแจแแธแแ แจแ แ แ แแฎแแญแถแฝแ แจแแแฃแฝ แฒแแแฃ แตแซแแฟ แ แแจแฐแแต แแฉ แแแแซแแฝ แญแณแแแแฆ
โ๐ แจแแแญ แ แแ แฅแ แฅแก แแแแญ แแตแฅ แฅแฌ แฅแแแฝ แฅแ แแขแตแฎแตแซ แฐแแฅแฏแ แแฝแณ แซแแต แแฉ แแ แญ แฅแ แตแฉแจแตแข
๐ แแฐแ แแ แจแแฐแฅ แญแฅแญแก แแตแซแ แฅแซแต แฅแป แณแญแแ แ แตแฑแฒแฎแ แแตแฅ แแแฐแฉ แฃแแแซแแฝ แฐแ แแแต แฅแ แฅแตแแต แซแแต แแฉ แแญแ แแแตแข
๐ แ แแ แ แแ แฐแ แแแก 100 Women: Architects in Practice แ แฐแฐแแ แณแแ แจแ แแ แ แแ แแฝแแ แแญ แแแซแฐแต แจแ แแฝ แตแแ แฃแแแซแข
โแจแฒแแญแ แตแซแแฟ แฃแปแแญแฃ แซแแ แแคแณแ แจแตแซ แแแแ แแแฃแถแฝ แฅแแแต แ แแซแแ แฅแ แ แแแ แ แแ แฐแจแ แ แฐแแซแฉ แณแแ แจแฅแ-แแแป แตแแ แญแต แคแถแฝ แ แฐแแฃแฅ แแฎแแฐแญแแต แ แแตแฐแแญ แแฐแฐแชแแฝ แ แญแ แซ แฅแจแแแฝ แตแแแแฝแข
โแแแถแฝ แ แ แแ แต แ แแ แจแชแ-แแแป แแญแ แแตแฅแฃ แซแแ แ แแแแฝแ แฅแป แณแญแแ แจแแญแจแณ แณแชแญแ แฅแจแแแฃแฝ แซแแฝ แจแฅแ แฅ แฐแ แแตแข
Via ethiopian architecture and urbanism
@etconp
โแซแแ แปแแ แ แญแญแดแญแต แฅแป แ แญแฐแแฝแแค แแแฐแแฑ แจแ แแชแซ แฒแแญแ แตแแ แ แญแ แซ แฅแ แแแแต แ แซแ แญแแญ แฅแแแข
โแ แขแตแฎแตแซ แ แแญแแฑ แฅแธแ แจแแแแแ แ แดแต แจแแแซแแ RAAS Architects แจแฐแฐแแแ แตแแ แจแฒแแญแ แตแฑแฒแฎ แ แ แแญแแต แจแแตแแซแ แซแแแค แ แแญแ แแดแถแฝ แจแแญแปแแแ แ แแตแซแต แตแแ แณแชแญ แจแแแฝ แฃแแแซ แแตแข แฅแแแฝ แแญแฅแญ แฅแ แแณแแแแต แแฐ แแแซแก แแแ แณแแ แฉแแจแญแฒแฒแแฝ แขแแแจแฑแแฃ แซแแ แแ แ แ แแชแซแ แตแแ แญแต แฅแป แจแแ แฅแ แฅ แฅแ แฐแฐแฅแฆ แตแแ แญ แฅแแฐแแซแแ แ แฐแแฃแญ แซแตแแฐแจแจแฝ แฉแซแณแฝแ แแตแข
โแจ50 แ แแญ แ แแ แ แแ แฐแจแแธแแ แจแ แ แ แแฎแแญแถแฝแ แจแแแฃแฝ แฒแแแฃ แตแซแแฟ แ แแจแฐแแต แแฉ แแแแซแแฝ แญแณแแแแฆ
โ๐ แจแแแญ แ แแ แฅแ แฅแก แแแแญ แแตแฅ แฅแฌ แฅแแแฝ แฅแ แแขแตแฎแตแซ แฐแแฅแฏแ แแฝแณ แซแแต แแฉ แแ แญ แฅแ แตแฉแจแตแข
๐ แแฐแ แแ แจแแฐแฅ แญแฅแญแก แแตแซแ แฅแซแต แฅแป แณแญแแ แ แตแฑแฒแฎแ แแตแฅ แแแฐแฉ แฃแแแซแแฝ แฐแ แแแต แฅแ แฅแตแแต แซแแต แแฉ แแญแ แแแตแข
๐ แ แแ แ แแ แฐแ แแแก 100 Women: Architects in Practice แ แฐแฐแแ แณแแ แจแ แแ แ แแ แแฝแแ แแญ แแแซแฐแต แจแ แแฝ แตแแ แฃแแแซแข
โแจแฒแแญแ แตแซแแฟ แฃแปแแญแฃ แซแแ แแคแณแ แจแตแซ แแแแ แแแฃแถแฝ แฅแแแต แ แแซแแ แฅแ แ แแแ แ แแ แฐแจแ แ แฐแแซแฉ แณแแ แจแฅแ-แแแป แตแแ แญแต แคแถแฝ แ แฐแแฃแฅ แแฎแแฐแญแแต แ แแตแฐแแญ แแฐแฐแชแแฝ แ แญแ แซ แฅแจแแแฝ แตแแแแฝแข
โแแแถแฝ แ แ แแ แต แ แแ แจแชแ-แแแป แแญแ แแตแฅแฃ แซแแ แ แแแแฝแ แฅแป แณแญแแ แจแแญแจแณ แณแชแญแ แฅแจแแแฃแฝ แซแแฝ แจแฅแ แฅ แฐแ แแตแข
Via ethiopian architecture and urbanism
@etconp
โค23๐3๐1
๐ INTERCON Construction Chemicals
โ Concrete Admixtures
โ Bonding Agents
โ Waterproofings
โ Wall Putty, Prime Coat
โ Concrete Repair Mortar
โ Floor hardener, Epoxy
โ Grout, Self-level mortar
โ Quartz paint, Contextra
โ Tile Adhesive & Tile Joint Fillers
โ Geotextiles and other construction chemicals and materials
โ๏ธ Tel: 0961955555
๐น Address 1: Signal road, around
Dinberwa Hospital
๐น Addres 2: Wellosefer, Infront of
Dani Plaza
โ Concrete Admixtures
โ Bonding Agents
โ Waterproofings
โ Wall Putty, Prime Coat
โ Concrete Repair Mortar
โ Floor hardener, Epoxy
โ Grout, Self-level mortar
โ Quartz paint, Contextra
โ Tile Adhesive & Tile Joint Fillers
โ Geotextiles and other construction chemicals and materials
โ๏ธ Tel: 0961955555
๐น Address 1: Signal road, around
Dinberwa Hospital
๐น Addres 2: Wellosefer, Infront of
Dani Plaza
โค5๐2
๐ฐ Proper vs Improper Plumbing Installation
๐ซMany buildings face low water pressure and leakage problems because of incorrect pipe sizing and poor plumbing layout. In the left example, a ยฝ inch main line is used directly with multiple T connections, which reduces pressure and affects water flow.
โ In the correct system, a 1 inch main supply line is used and gradually reduced using reducers (1" โ ยพ" โ ยฝ"). This helps maintain proper pressure and smooth water distribution. A valve and pressure gauge are also added for better control and monitoring.
๐ซ Improper Plumbing
- Uses main line ร ยฝ" directly from tank.
- Multiple faucets connected via T connector.
- No pressure control system installed.
- Mismatched pipe sizes cause uneven flow.
- Results in low pressure and inefficient water distribution.
โ Proper Plumbing
- Starts with main supply ร 1" for stronger flow.
- Gradual reduction using reducers (1" โ ยพ", ยพ" โ ยฝ").
- Includes valve ร ยฝ" for control.
- Equipped with pressure gauge (45 PSI) for monitoring.
- Ensures consistent pressure and efficient water delivery.
๐ Key Lesson:
Always use the correct pipe diameter and proper reducers to maintain water pressure and system efficiency.
๐ก Good plumbing design = Better water flow + Less maintenance + Long-lasting system..
#CivilEngineering #PlumbingDesign #PlumbingTips #ConstructionKnowledge #WaterSupplySystem #EngineeringEducation #SiteEngineering #ConstructionTips #PlumbingSystem #BuildingServices
@etconp
๐ซMany buildings face low water pressure and leakage problems because of incorrect pipe sizing and poor plumbing layout. In the left example, a ยฝ inch main line is used directly with multiple T connections, which reduces pressure and affects water flow.
โ In the correct system, a 1 inch main supply line is used and gradually reduced using reducers (1" โ ยพ" โ ยฝ"). This helps maintain proper pressure and smooth water distribution. A valve and pressure gauge are also added for better control and monitoring.
๐ซ Improper Plumbing
- Uses main line ร ยฝ" directly from tank.
- Multiple faucets connected via T connector.
- No pressure control system installed.
- Mismatched pipe sizes cause uneven flow.
- Results in low pressure and inefficient water distribution.
โ Proper Plumbing
- Starts with main supply ร 1" for stronger flow.
- Gradual reduction using reducers (1" โ ยพ", ยพ" โ ยฝ").
- Includes valve ร ยฝ" for control.
- Equipped with pressure gauge (45 PSI) for monitoring.
- Ensures consistent pressure and efficient water delivery.
๐ Key Lesson:
Always use the correct pipe diameter and proper reducers to maintain water pressure and system efficiency.
๐ก Good plumbing design = Better water flow + Less maintenance + Long-lasting system..
#CivilEngineering #PlumbingDesign #PlumbingTips #ConstructionKnowledge #WaterSupplySystem #EngineeringEducation #SiteEngineering #ConstructionTips #PlumbingSystem #BuildingServices
@etconp
โค6๐1
๐ แจแดแซแแญ แแญแตแ แจแแญ แแตแแฃแต แแ แ แแ แแแ แแ
แขแตแฎแตแซ แฅแตแจ แตแตแตแต แแซแต แ แแฐแจแต แแ แแตแฅ แจแดแซแแญ แแญแตแ แจแแญ แแตแแฃแต แแ แ แแ แฅแแฐแแณแแ แ แ แแญ แแแตแตแญ แแขแญ แ แแแต (แถ/แญ) แ แตแณแแแข
แ แ แแญ แแแตแตแญ แแขแญ (แถ/แญ) แญแ แ แซแแต "แจแฐแแฝ แ แ แฒแต แแแฅ" แ แแ แญแแต แจแแ แดแแชแฅแ แแญ แ แฐแฐแจแ แแญแณ แแญ แแแข
แ แ แแญ แแแตแตแฉ แ แแญแณแธแแค แจแแแชแฑแ แแแแต แจแแธแแ แฃแแ แแแญ แแ แซ แจแแฐแญแ แแแ แจแดแซแแญ แแฅแชแซแแฝ แแแฃแณแธแ แฅแจแฐแ แแแ แแแแ แแแธแแแข
แฅแแแ แแฅแชแซแแฝ แฐแ แแ แแ แแแจแต แฒแแแฉแฃ แดแซแแญแ แจแแญ แจแแตแแฃแต แแแแต แแ แ แแ แฅแแฐแแแจแ แ แตแจแตแฐแแแข
แ แฐแจแแช แจแ แแต แแแต แแญแ แจแ แแต แแแต แฐแฉแ แ แแ แจแแแชแฑแ แแแแต แ แแซแแ แแแฉ แ แแแ แแญแแต แจแแตแณแแต แแญแถแฝ แซแตแ แแแปแ แฅแจแฐแ แซ แแแแ แ แ แแญ แแแตแตแฉ แ แแแแแข
แแตแณแแตแ แ แแแญ แแตแฅ แ แแแจแต แจแแญ แจแแแฃแแ แแญแต แแ แ แแ แแแตแแจแต แแณแแฑแแ แ แฅแซแญแฐแแแข
แ แแซแแญแต แฅแ แ แแญแฅแ แแญแแ แ แญแซแณ แจแฐแแแฉ แฅแซแแฝ แฅแแณแ แจแ แแฑแต แแขแญ (แถ/แญ)แค แฅแซแต แแญ แตแฉแจแต แจแฐแฐแจแ แจแฅแจแต แฅแฌ แแแตแ แ แตแฐแแญ แแฅแซแตแฃ แแชแ แฅแ แจแแณแฐแแตแ แแแฅแซแต แ แแแญ แแตแฅ แจแแฐแ แ แ แ แแแ แฉแ แแแธแแแข
แแฅแจแต แแแตแ แแแแ แแแต แแฐแ แฑแ แ แแแแค แญแ แ แ แฎแแตแตแซแญแฝแ แแญแ แจแแฃแญแแแ แจแแญ แแแแฌ แ แฅแ แ แฅแแฐแแแแต แ แแแญแฐแแแข
Via แแฌแต แแแฃ
แขแตแฎแตแซ แฅแตแจ แตแตแตแต แแซแต แ แแฐแจแต แแ แแตแฅ แจแดแซแแญ แแญแตแ แจแแญ แแตแแฃแต แแ แ แแ แฅแแฐแแณแแ แ แ แแญ แแแตแตแญ แแขแญ แ แแแต (แถ/แญ) แ แตแณแแแข
แ แ แแญ แแแตแตแญ แแขแญ (แถ/แญ) แญแ แ แซแแต "แจแฐแแฝ แ แ แฒแต แแแฅ" แ แแ แญแแต แจแแ แดแแชแฅแ แแญ แ แฐแฐแจแ แแญแณ แแญ แแแข
แ แ แแญ แแแตแตแฉ แ แแญแณแธแแค แจแแแชแฑแ แแแแต แจแแธแแ แฃแแ แแแญ แแ แซ แจแแฐแญแ แแแ แจแดแซแแญ แแฅแชแซแแฝ แแแฃแณแธแ แฅแจแฐแ แแแ แแแแ แแแธแแแข
แฅแแแ แแฅแชแซแแฝ แฐแ แแ แแ แแแจแต แฒแแแฉแฃ แดแซแแญแ แจแแญ แจแแตแแฃแต แแแแต แแ แ แแ แฅแแฐแแแจแ แ แตแจแตแฐแแแข
แ แฐแจแแช แจแ แแต แแแต แแญแ แจแ แแต แแแต แฐแฉแ แ แแ แจแแแชแฑแ แแแแต แ แแซแแ แแแฉ แ แแแ แแญแแต แจแแตแณแแต แแญแถแฝ แซแตแ แแแปแ แฅแจแฐแ แซ แแแแ แ แ แแญ แแแตแตแฉ แ แแแแแข
แแตแณแแตแ แ แแแญ แแตแฅ แ แแแจแต แจแแญ แจแแแฃแแ แแญแต แแ แ แแ แแแตแแจแต แแณแแฑแแ แ แฅแซแญแฐแแแข
แ แแซแแญแต แฅแ แ แแญแฅแ แแญแแ แ แญแซแณ แจแฐแแแฉ แฅแซแแฝ แฅแแณแ แจแ แแฑแต แแขแญ (แถ/แญ)แค แฅแซแต แแญ แตแฉแจแต แจแฐแฐแจแ แจแฅแจแต แฅแฌ แแแตแ แ แตแฐแแญ แแฅแซแตแฃ แแชแ แฅแ แจแแณแฐแแตแ แแแฅแซแต แ แแแญ แแตแฅ แจแแฐแ แ แ แ แแแ แฉแ แแแธแแแข
แแฅแจแต แแแตแ แแแแ แแแต แแฐแ แฑแ แ แแแแค แญแ แ แ แฎแแตแตแซแญแฝแ แแญแ แจแแฃแญแแแ แจแแญ แแแแฌ แ แฅแ แ แฅแแฐแแแแต แ แแแญแฐแแแข
Via แแฌแต แแแฃ
โค12๐7
๐A small missing pipe can quietly reduce your entire plumbing systemโs performance.
๐ซInside a typical home drainage system, water doesnโt just rely on gravity. It also depends on balanced air pressure to move efficiently.
* When air cannot enter the system, water flow becomes restricted. This can lead to slow drainage, noise, and pressure imbalance inside the pipes.
* When proper airflow is introduced, pressure stabilizes. Water flows smoothly, and the system operates as intended.
* The difference comes down to whether the system allows air to move freely alongside water.
๐ซThis concept is often overlooked, but it plays a key role in preventing long-term plumbing issues and maintaining consistent performance.
@etconp
๐ซInside a typical home drainage system, water doesnโt just rely on gravity. It also depends on balanced air pressure to move efficiently.
* When air cannot enter the system, water flow becomes restricted. This can lead to slow drainage, noise, and pressure imbalance inside the pipes.
* When proper airflow is introduced, pressure stabilizes. Water flows smoothly, and the system operates as intended.
* The difference comes down to whether the system allows air to move freely alongside water.
๐ซThis concept is often overlooked, but it plays a key role in preventing long-term plumbing issues and maintaining consistent performance.
@etconp
๐6โค1