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Tag: House Construction

5 Marla House Construction:. Stages & Materials

Sand: High-grade Ravi sand is utilized to deliver appropriate fineness and bonding capacity for masonry mortars and interior preparation. Overseas Client Coordination and Quality OversightA frequent challenge for property owners—especially overseas clients who cannot visit job sites in person—is maintaining transparency and quality assurance throughout the construction lifecycle.

To overcome this, formal communication channels are established immediately upon signing the building contract. A dedicated digital group connects the property owner directly with site supervisors and project managers.

Daily progress logs, photographic evidence of delivered materials, and structural milestone reports are shared continuously. This operational model ensures that owners verify compliance with agreed specifications without requiring physical presence on site.

Plumbing Rough-Ins and Plaster PreparationParallel workflows help maintain construction momentum. Approximately ten days after pouring a slab, the lower-level formwork and shuttering can be safely dismantled.

Once the ground floor is cleared, workers immediately initiate preparations for interior wall plastering. Simultaneously, mechanical, electrical, and plumbing rough-ins commence.

Concealed water supply lines using polypropylene random copolymer (PPRC) pipes and wastewater drainage networks using unplasticized polyvinyl chloride (UPVC) pipes are chased and embedded into the masonry walls before plaster application. By plastering the ground floor while upper-level brickwork and the second-floor roof slab are being raised, site operations proceed simultaneously on both levels.

Target Timelines and Flexible Acquisition OptionsWhile standard construction agreements typically allot three months for the complete delivery of a five-marla grey structure, efficient site management can close the structure in approximately seventy-five days. This phased coordination reduces site idle time while preserving structural curing requirements.

Beyond self-managed custom home builds on owned plots, residential opportunities also include turnkey developments and townhouse configurations. In select master-planned sectors, five-marla double-story homes are made accessible through installment schedules spanning one, two, or three years, providing structured pathways for prospective homeowners and real estate investors alike.

Constructing a residential property requires meticulous planning, compliance with established standard operating procedures, and strict quality control at every phase of execution. For a double-story house built on a five-marla plot, the journey from empty ground to a fully realized grey structure involves systematic civil engineering steps, careful material selection, and rigorous on-site supervision.

Initial Site Preparation and Foundational WorkBefore any excavation takes place on a residential site, official demarcation must be completed in line with the regulatory authority’s designated protocols. Obtaining exact boundary marks ensures that structural dimensions comply strictly with approved town planning regulations.

Once the official boundary demarcation is secured, earthwork and excavation commence. The excavated trenches undergo an intensive anti-termite chemical spray to safeguard the foundation against subterranean pest damage.

Following termite prevention, Plain Cement Concrete (PCC) is laid across the trenches to form a flat, stable bedding surface. Upon this cured concrete bed, masonry foundation footings are raised, laying a reliable base for the entire structure.

Project Progression and the First Slab PourIn standard residential timelines, rapid yet controlled progress is essential. On a representative five-marla site, the milestone of completing the ground-floor walls and pouring the first-floor roof slab can be reached within approximately twenty-five days.

Concrete pouring requires a coordinated team operating mixers and mechanical hoists to ensure uniform aggregate distribution and consistent curing strength across the lintel and slab framework. After the ground-floor roof slab is poured, the structure requires an initial resting period of approximately two days.

Once the concrete has achieved sufficient initial set, structural masonry for the first floor begins above it. Rigorous Material SpecificationsThe structural integrity of a grey structure depends entirely on the grade and source of raw materials incorporated into the build.

To prevent future structural defects, materials must strictly follow contractual standards: Cement: Premium-brand formulations, such as Bestway cement, are utilized consistently across structural joints, mortar, and concrete casting. Reinforcement Steel: High-tensile Grade 60 rebar is standard practice for residential reinforcement.

Trusted brands including Mughal, Moiz, and Koh-e-Noor ensure optimal tensile capacity for seismic and structural loads. Aggregate (Crush): Clean, machine-crushed aggregate sourced from A-grade Sargodha plants provides maximum interlocking strength within concrete mixes.

Bricks: Only first-class (Awwal) clay bricks are used consistently from the foundation footings all the way up to the rooftop mumty. Second-class or defective bricks are strictly excluded from load-bearing and partition walls.

Contact information
Name: Choudry Mujahid Yasin ( CMY )
Phone: +923224929992 Whatsapp Available

November 12, 2026
5 Marla House Construction:. Stages & Materials

Aggregate (Crush): Clean, machine-crushed aggregate sourced from A-grade Sargodha plants provides maximum interlocking strength within concrete mixes.

Bricks: Only first-class (Awwal) clay bricks are used consistently from the foundation footings all the way up to the rooftop mumty.

Second-class or defective bricks are strictly excluded from load-bearing and partition walls.

Sand: High-grade Ravi sand is utilized to deliver appropriate fineness and bonding capacity for masonry mortars and interior preparation.

Overseas Client Coordination and Quality OversightA frequent challenge for property owners—especially overseas clients who cannot visit job sites in person—is maintaining transparency and quality assurance throughout the construction lifecycle.

To overcome this, formal communication channels are established immediately upon signing the building contract.

A dedicated digital group connects the property owner directly with site supervisors and project managers.

Daily progress logs, photographic evidence of delivered materials, and structural milestone reports are shared continuously.

This operational model ensures that owners verify compliance with agreed specifications without requiring physical presence on site.

Plumbing Rough-Ins and Plaster PreparationParallel workflows help maintain construction momentum.

Approximately ten days after pouring a slab, the lower-level formwork and shuttering can be safely dismantled.

Once the ground floor is cleared, workers immediately initiate preparations for interior wall plastering.

Simultaneously, mechanical, electrical, and plumbing rough-ins commence.

Concealed water supply lines using polypropylene random copolymer (PPRC) pipes and wastewater drainage networks using unplasticized polyvinyl chloride (UPVC) pipes are chased and embedded into the masonry walls before plaster application.

By plastering the ground floor while upper-level brickwork and the second-floor roof slab are being raised, site operations proceed simultaneously on both levels.

Target Timelines and Flexible Acquisition OptionsWhile standard construction agreements typically allot three months for the complete delivery of a five-marla grey structure, efficient site management can close the structure in approximately seventy-five days.

This phased coordination reduces site idle time while preserving structural curing requirements.

Beyond self-managed custom home builds on owned plots, residential opportunities also include turnkey developments and townhouse configurations.

In select master-planned sectors, five-marla double-story homes are made accessible through installment schedules spanning one, two, or three years, providing structured pathways for prospective homeowners and real estate investors alike.

Constructing a residential property requires meticulous planning, compliance with established standard operating procedures, and strict quality control at every phase of execution.

For a double-story house built on a five-marla plot, the journey from empty ground to a fully realized grey structure involves systematic civil engineering steps, careful material selection, and rigorous on-site supervision.

Initial Site Preparation and Foundational WorkBefore any excavation takes place on a residential site, official demarcation must be completed in line with the regulatory authority’s designated protocols.

Obtaining exact boundary marks ensures that structural dimensions comply strictly with approved town planning regulations.

Once the official boundary demarcation is secured, earthwork and excavation commence.

The excavated trenches undergo an intensive anti-termite chemical spray to safeguard the foundation against subterranean pest damage.

Following termite prevention, Plain Cement Concrete (PCC) is laid across the trenches to form a flat, stable bedding surface.

Upon this cured concrete bed, masonry foundation footings are raised, laying a reliable base for the entire structure.

Project Progression and the First Slab PourIn standard residential timelines, rapid yet controlled progress is essential.

On a representative five-marla site, the milestone of completing the ground-floor walls and pouring the first-floor roof slab can be reached within approximately twenty-five days.

Concrete pouring requires a coordinated team operating mixers and mechanical hoists to ensure uniform aggregate distribution and consistent curing strength across the lintel and slab framework.

After the ground-floor roof slab is poured, the structure requires an initial resting period of approximately two days.

Once the concrete has achieved sufficient initial set, structural masonry for the first floor begins above it.

Rigorous Material SpecificationsThe structural integrity of a grey structure depends entirely on the grade and source of raw materials incorporated into the build.

To prevent future structural defects, materials must strictly follow contractual standards: Cement: Premium-brand formulations, such as Bestway cement, are utilized consistently across structural joints, mortar, and concrete casting.

Reinforcement Steel: High-tensile Grade 60 rebar is standard practice for residential reinforcement.

Trusted brands including Mughal, Moiz, and Koh-e-Noor ensure optimal tensile capacity for seismic and structural loads.

Contact information
Name: Choudry Mujahid Yasin ( CMY )
Phone: +923224929992 Whatsapp Available

November 12, 2026
Plinth Beam Construction: Purpose,. Specs, and Costs

### Concrete Mixing and Pouring Operations The durability of a plinth beam depends heavily on concrete quality and placement practices. On site, concrete is prepared using a mechanical mixer to maintain consistent homogeneity throughout the entire pour.

The mix ratio used for the plinth beam matches the standard specification applied to structural roof slabs, which is a 1:2:4 ratio—one part cement, two parts sand, and four parts crushed stone aggregate. To manage a large-scale pour effectively, a coordinated workforce of approximately 20 to 25 laborers is deployed.

As the mixer prepares the concrete at the front of the site, batches are transferred into metal pans (taslas) and transported manually to every corner of the plot. This controlled manual pouring ensures that the mix is distributed evenly into the shuttered trenches without dropping from excessive heights, minimizing segregation and material waste.

The gradual, careful placement also allows workers to achieve a smooth, well-consolidated finish along the beam's upper edge. ### Post-Pour Procedures and Backfilling Once the concrete pouring is complete, the plinth beam is left to set.

The steel shuttering plates are struck the following day to reveal the cured concrete faces. De-shuttering provides an immediate visual check of the beam's surface quality, alignment, and compaction.

Following the removal of formwork, the site progresses to the backfilling stage. Earth or granular fill material, commonly known as ghasu, is deposited inside the foundation bays up to a depth of approximately one foot.

This backfill material is compacted thoroughly to create a stable, consolidated sub-base for the ground floor slab. Once the filling process is finalized, masons begin laying the super-structure brickwork directly on top of the cured plinth beam.

### Budgeting and Cost Considerations A critical aspect for property owners to recognize is that plinth beam construction is typically an auxiliary requirement and is not included within baseline construction quotations. Because it represents a substantial structural upgrade tailored to specific site topography, it carries separate financial estimates.

The cost of installing a plinth beam includes multiple distinct budget items, such as reinforcing steel, lumber or steel shuttering hire, skilled steel-fixing and pouring labor, crushed aggregate, sand, and cement. Depending on market material rates and the exact dimensions of the layout, approximate costs for incorporating a plinth beam scale according to plot size: – **5 Marla Plot:** Approximately 500,000 to 600,000 PKR.

– **10 Marla Plot:** Approximately 700,000 to 800,000 PKR. – **1 Kanal Plot:** Approximately 1,000,000 to 1,300,000 PKR.

While this represents a noticeable addition to the initial construction budget, investing in a continuous reinforced beam is essential on low-lying ground. The long-term protection it provides to the structural integrity of the home far outweighs the initial expense, ensuring a sturdy foundation that endures for decades.

Building a solid residential foundation requires careful planning and structural adaptability to site conditions. In standard home construction, the transition from foundation masonry to above-ground brickwork is one of the most critical structural milestones.

One essential structural element frequently employed at this stage is the reinforced concrete plinth beam. Understanding the purpose of a plinth beam, its structural specifications, and its budget impact enables homeowners and builders to make sound structural decisions.

### When and Why a Plinth Beam Is Necessary A plinth beam is not universally required on every construction site, but specific plot conditions make it an indispensable structural addition. The primary factor dictating the need for a plinth beam is the elevation difference between the natural ground level of the plot and the finished road level.

On sites where adjacent plots or existing terrain sit significantly below the road—such as five to six feet deep—foundations must be built considerably higher to reach the road level. When foundation walls are constructed deep into the earth and backfilled, the underlying soil may be soft or prone to settlement.

Under such conditions, standard masonry footings can experience lateral soil pressure or uneven ground movement. Pouring a continuous reinforced plinth beam across the entire foundation provides a rigid tie that binds all foundation walls together.

This structural tie significantly reinforces the base of the home, prevents differential settlement, and protects the super-structure against structural cracks. ### Plinth Beam vs.

Damp Proof Course (DPC) A common technical question during the foundation phase involves the relationship between a plinth beam and a standard damp proof course (DPC). Under ordinary construction conditions where plots are level with the road, a simple concrete DPC strip is cast over brick foundations to block moisture rising from the subsoil.

However, when a plinth beam is integrated into the design, it is cast at plinth height directly over all boundary and internal foundation walls. Because the plinth beam is an extensive, dense, one-foot-thick layer of reinforced concrete running continuously across every wall line, a separate traditional DPC is not required.

The beam itself fulfills the role of leveling the building line while offering superior structural binding that a conventional DPC cannot provide. ### Reinforcement and Structural Specifications Proper structural detailing ensures the plinth beam achieves its intended load-bearing performance.

For typical residential construction, the reinforcement cage is assembled according to precise specifications: – **Longitudinal Steel Bars:** The main reinforcement framework commonly utilizes four longitudinal steel bars of 4-soota thickness (equivalent to 1/2-inch or 12 mm diameter). – **Stirrups (Rings):** The longitudinal bars are bound together using lateral ties or rings made of 3-soota steel (3/8-inch or 10 mm diameter) placed at designated intervals to prevent bar displacement during concrete placement.

– **Beam Dimensions:** The depth of the concrete pour typically measures one foot in vertical thickness, matching the underlying foundation masonry width. Before concrete is cast, steel fixers assemble the rebar cages directly within the foundation layout.

Steel formwork (shuttering) is then installed and securely braced along both interior and perimeter walls to ensure dimensional accuracy and prevent slurry leakage.

Contact information
Name: Choudry Mujahid Yasin ( CMY )
Phone: +923224929992 Whatsapp Available

November 12, 2026
Plinth Beam Construction: Purpose, — specs, and Costs

– **Stirrups (Rings):** The longitudinal bars are bound together using lateral ties or rings made of 3-soota steel (3/8-inch or 10 mm diameter) placed at designated intervals to prevent bar displacement during concrete placement. – **Beam Dimensions:** The depth of the concrete pour typically measures one foot in vertical thickness, matching the underlying foundation masonry width.

Before concrete is cast, steel fixers assemble the rebar cages directly within the foundation layout. Steel formwork (shuttering) is then installed and securely braced along both interior and perimeter walls to ensure dimensional accuracy and prevent slurry leakage.

### Concrete Mixing and Pouring Operations The durability of a plinth beam depends heavily on concrete quality and placement practices. On site, concrete is prepared using a mechanical mixer to maintain consistent homogeneity throughout the entire pour.

The mix ratio used for the plinth beam matches the standard specification applied to structural roof slabs, which is a 1:2:4 ratio—one part cement, two parts sand, and four parts crushed stone aggregate. To manage a large-scale pour effectively, a coordinated workforce of approximately 20 to 25 laborers is deployed.

As the mixer prepares the concrete at the front of the site, batches are transferred into metal pans (taslas) and transported manually to every corner of the plot. This controlled manual pouring ensures that the mix is distributed evenly into the shuttered trenches without dropping from excessive heights, minimizing segregation and material waste.

The gradual, careful placement also allows workers to achieve a smooth, well-consolidated finish along the beam's upper edge. ### Post-Pour Procedures and Backfilling Once the concrete pouring is complete, the plinth beam is left to set.

The steel shuttering plates are struck the following day to reveal the cured concrete faces. De-shuttering provides an immediate visual check of the beam's surface quality, alignment, and compaction.

Following the removal of formwork, the site progresses to the backfilling stage. Earth or granular fill material, commonly known as ghasu, is deposited inside the foundation bays up to a depth of approximately one foot.

This backfill material is compacted thoroughly to create a stable, consolidated sub-base for the ground floor slab. Once the filling process is finalized, masons begin laying the super-structure brickwork directly on top of the cured plinth beam.

### Budgeting and Cost Considerations A critical aspect for property owners to recognize is that plinth beam construction is typically an auxiliary requirement and is not included within baseline construction quotations. Because it represents a substantial structural upgrade tailored to specific site topography, it carries separate financial estimates.

The cost of installing a plinth beam includes multiple distinct budget items, such as reinforcing steel, lumber or steel shuttering hire, skilled steel-fixing and pouring labor, crushed aggregate, sand, and cement. Depending on market material rates and the exact dimensions of the layout, approximate costs for incorporating a plinth beam scale according to plot size: – **5 Marla Plot:** Approximately 500,000 to 600,000 PKR.

– **10 Marla Plot:** Approximately 700,000 to 800,000 PKR. – **1 Kanal Plot:** Approximately 1,000,000 to 1,300,000 PKR.

While this represents a noticeable addition to the initial construction budget, investing in a continuous reinforced beam is essential on low-lying ground. The long-term protection it provides to the structural integrity of the home far outweighs the initial expense, ensuring a sturdy foundation that endures for decades.

Building a solid residential foundation requires careful planning and structural adaptability to site conditions. In standard home construction, the transition from foundation masonry to above-ground brickwork is one of the most critical structural milestones.

One essential structural element frequently employed at this stage is the reinforced concrete plinth beam. Understanding the purpose of a plinth beam, its structural specifications, and its budget impact enables homeowners and builders to make sound structural decisions.

### When and Why a Plinth Beam Is Necessary A plinth beam is not universally required on every construction site, but specific plot conditions make it an indispensable structural addition. The primary factor dictating the need for a plinth beam is the elevation difference between the natural ground level of the plot and the finished road level.

On sites where adjacent plots or existing terrain sit significantly below the road—such as five to six feet deep—foundations must be built considerably higher to reach the road level. When foundation walls are constructed deep into the earth and backfilled, the underlying soil may be soft or prone to settlement.

Under such conditions, standard masonry footings can experience lateral soil pressure or uneven ground movement. Pouring a continuous reinforced plinth beam across the entire foundation provides a rigid tie that binds all foundation walls together.

This structural tie significantly reinforces the base of the home, prevents differential settlement, and protects the super-structure against structural cracks. ### Plinth Beam vs.

Damp Proof Course (DPC) A common technical question during the foundation phase involves the relationship between a plinth beam and a standard damp proof course (DPC). Under ordinary construction conditions where plots are level with the road, a simple concrete DPC strip is cast over brick foundations to block moisture rising from the subsoil.

However, when a plinth beam is integrated into the design, it is cast at plinth height directly over all boundary and internal foundation walls. Because the plinth beam is an extensive, dense, one-foot-thick layer of reinforced concrete running continuously across every wall line, a separate traditional DPC is not required.

The beam itself fulfills the role of leveling the building line while offering superior structural binding that a conventional DPC cannot provide. ### Reinforcement and Structural Specifications Proper structural detailing ensures the plinth beam achieves its intended load-bearing performance.

For typical residential construction, the reinforcement cage is assembled according to precise specifications: – **Longitudinal Steel Bars:** The main reinforcement framework commonly utilizes four longitudinal steel bars of 4-soota thickness (equivalent to 1/2-inch or 12 mm diameter).

Contact information
Name: Choudry Mujahid Yasin ( CMY )
Phone: +923224929992 Whatsapp Available

November 12, 2026
5 Marla House — construction Cost Guide

For residential plots in developed housing societies, a standard double-story 5 Marla house typically encompasses a covered area between 2,000 and 2,200 square feet, depending on specific society bylaws and architectural layouts.

Achieving a durable structure demands high-grade materials and careful execution across both the grey structure phase and the finishing stages.

### Grey Structure Specifications and Material Quality A resilient grey structure relies on strict material standards from the foundation to the roof slab.

For foundational brickwork and walls, first-class, fully baked clay bricks (Awal bricks) provide structural stability, while substandard or over-burnt bricks are avoided entirely.

Aggregates for concrete pouring are sourced from Sargodha crush, and premium Ravi sand alongside selected filling soil (Ghassu) provides the baseline for ground preparation.

For structural reinforcement, Grade 60 deformed steel bars, primarily in 3-sutar (3/8-inch) and 4-sutar (1/2-inch) diameters, ensure tensile strength throughout columns, beams, and slabs.

Renowned cement brands such as Maple Leaf, Bestway, or Pioneer are utilized for consistent mortar and concrete strength.

When pouring the 6-inch-thick concrete roof slab, chemical waterproofing additives are incorporated into the mix to guard against future moisture ingress.

Additionally, a damp-proof course (DPC) paired with a specialized waterproofing membrane sheet stops groundwater seepage from ascending into masonry walls.

### Brick Requirements and Market Rates For a double-story 5 Marla house featuring a ground floor, first floor, and rooftop stair tower (mumty), total brick consumption generally ranges from 50,000 to 55,000 bricks on standard level plots.

However, if a plot has extra foundation depth—reaching 6 to 7 feet below road level—brick consumption can increase to between 60,000 and 65,000 bricks.

Current rates for first-class bricks range around PKR 27,000 to PKR 27,500 per thousand bricks.

Consequently, the total brick expense for a typical 5 Marla construction project is estimated between PKR 1,500,000 and PKR 1,700,000, depending on plot excavation requirements.

### Cement and Steel Estimations Cement is one of the largest single material expenditures.

Constructing the grey structure requires approximately 800 to 900 bags of cement.

With retail prices hovering between PKR 1,600 and PKR 1,650 per bag, total cement expenditure amounts to roughly PKR 1,450,000 to PKR 1,500,000.

Steel rebar requirements for a standard double-story structural frame stand at roughly 2.5 tons (2,500 kg).

Prevailing steel prices range from PKR 270 to PKR 285 per kilogram (or roughly PKR 275,000 to PKR 280,000 per ton).

This places the estimated budget for structural steel between PKR 675,000 and PKR 715,000.

### Aggregates, Sand, and Soil Filling Concrete production for foundations, columns, lintels, and roof slabs requires crushed stone aggregate.

Approximately 12 to 13 hundred cubic feet (saikra) of Sargodha bajri is necessary, with rates varying between PKR 195 and PKR 200 per cubic foot.

This results in a crush expense of PKR 200,000 to PKR 225,000.

Masonry mortar and plaster work demand approximately 20 to 22 hundred cubic feet (saikra) of Ravi sand, totaling between PKR 275,000 and PKR 300,000.

Soil filling inside the plinth walls (Ghassu) generally costs between PKR 175,000 and PKR 185,000 for standard depths.

If the plot is significantly depressed or material must be hauled from distant quarries, filling expenses can rise to PKR 200,000 or PKR 250,000.

### Plumbing, Electrical Conduits, and Labor The preliminary plumbing and electrical installation during the grey structure phase includes embedded PVC piping, electrical conduits, drain networks, and back boxes using trusted manufacturers such as Popular or Dura.

The allocation for these rough-in installations ranges between PKR 600,000 and PKR 700,000.

Labor charges represent another major portion of the construction budget.

Dedicated labor for earthwork, bricklaying, steel fixing, concrete casting, and wall plastering typically costs between PKR 1,350,000 and PKR 1,500,000, and can extend up to PKR 1,800,000 depending on contractual terms and structural complexity.

### Scope of Work Included in Grey Structure A full premium grey structure contract incorporates end-to-end basic construction tasks executed strictly according to vetted engineering drawings: 1.

Plot layout and foundation excavation.

2.

Compaction, anti-termite chemical soil treatment, and Ghassu backfilling.

3.

Plinth beam placement and damp-proof membrane installation.

4.

Masonry work using A-quality bricks.

5.

Structural steel framework and 6-inch reinforced roof slabs with integrated waterproofing chemicals.

6.

Steel door frames (choukaths) installed in masonry openings.

7.

Rough-in electrical piping and plumbing drainage lines.

8.

Construction of underground water storage, overhead concrete tanks, and septic pits.

9.

Exterior boundary walls and front elevation structural framing.

10.

Complete interior and exterior cement plastering.

11.

On-site logistics, including temporary water pumping systems and dedicated security personnel.

### Total Grey Structure Budget Summary When calculating expenses on a per-square-foot basis, premium grey structure construction costs roughly PKR 3,250 per square foot.

For a 5 Marla house with an average covered area of 2,000 square feet, the complete grey structure expenditure totals approximately PKR 6,500,000 (PKR 65 Lacs).

For broader perspective, grey structure benchmarks for other residential plot sizes include: – 8 Marla (approx.

3,200 sq.

ft.): PKR 10,400,000 to PKR 10,500,000 – 10 Marla (approx.

3,500 sq.

ft.): PKR 11,375,000 to PKR 11,500,000 – 1 Kanal (approx.

6,500 sq.

ft.): PKR 21,125,000 to PKR 22,500,000 ### Complete Turnkey Finishing Expenses Once the grey frame is finalized, the finishing stage encompasses flooring tiles, woodwork, paint, electrical fixtures, sanitary ware, kitchen cabinets, false ceilings, and facade treatments.

Turnkey finishing rates currently range from PKR 6,000 to PKR 6,500 per square foot for A-class quality.

Applying this rate to a 2,000 square foot 5 Marla residence brings the total turnkey cost—covering both grey structure and premium finishing—to approximately PKR 12,000,000 to PKR 13,000,000 (PKR 1.20 to 1.30 Crore).

Working with qualified engineering teams and strictly monitoring material grades ensures that the finished property remains durable, moisture-free, and structurally secure for decades.

Planning the construction of a 5 Marla home requires a clear understanding of current market rates, required material quantities, and overall project expenses.

Contact information
Name: Choudry Mujahid Yasin ( CMY )
Phone: +923224929992 Whatsapp Available

November 11, 2026