Fluffy white cloud in a clear blue sky.

CEMENT-FREE BUILDING MATERIALs

CEMENT-FREE BUILDING MATERIALs

Give Up the Carbon.
Give Up Nothing Else.

Same strength. Same price. Same workflows. Faster schedule. Independently verified carbon-negative masonry and zero-cement concrete — powered by BINDR™.

Same strength. Same price. Same workflows. Faster schedule. Independently verified carbon-negative masonry and zero-cement concrete — powered by BINDR™.

Trusted By 50+ clients

Trusted By 50+ clients

  • Godrej Properties logo
  • CoEvolve Estates logo
  • Vianaar Homes logo
  • Svamitva Group logo
  • Dhun Jaipur logo
  • Chinmaya Vidyalaya logo
  • Design2Occupancy logo
  • BuildAHome logo
  • Kun Studio logo
  • Studio Samskara logo
  • Svasara Resorts logo
  • VMRDA logo
  • Good Earth logo
  • Feature Construction logo
  • Godrej Properties logo
  • CoEvolve Estates logo
  • Vianaar Homes logo
  • Svamitva Group logo
  • Dhun Jaipur logo
  • Chinmaya Vidyalaya logo
  • Design2Occupancy logo
  • BuildAHome logo
  • Kun Studio logo
  • Studio Samskara logo
  • Svasara Resorts logo
  • VMRDA logo
  • Good Earth logo
  • Feature Construction logo
  • Godrej Properties logo
  • CoEvolve Estates logo
  • Vianaar Homes logo
  • Svamitva Group logo
  • Dhun Jaipur logo
  • Chinmaya Vidyalaya logo
  • Design2Occupancy logo
  • BuildAHome logo
  • Kun Studio logo
  • Studio Samskara logo
  • Svasara Resorts logo
  • VMRDA logo
  • Good Earth logo
  • Feature Construction logo

ZERO CEMENT. THREE PRODUCT FAMILIES.

ZERO CEMENT. THREE PRODUCT FAMILIES.

Everything we build is powered by BINDR™

Everything we build is powered by BINDR™

From carbon-negative masonry to zero-cement concrete to a direct OPC replacement — BINDR™ is the platform behind every product we make.

From carbon-negative masonry to zero-cement concrete to a direct OPC replacement — BINDR™ is the platform behind every product we make.

Agrocrete®

–0.14 kgCO₂/kg

The world's first EPD-certified carbon-negative building block. Made from paddy straw, fly ash, and BINDR™

Novastone™

0.03 kgCO₂/kg

High-strength, cost-competitive blocks, bricks, and pavers for every concrete application.

BINDR™

0.18 kgCO₂/kg

An alkali-activated drop-in replacement for OPC — for mortar, plaster, and block manufacturing.

CLEANER. GREENER. SUSTAINABLE.

CLEANER. GREENER. SUSTAINABLE.

The Better Alternative to Cement

The Better Alternative to Cement

Blocks, bricks, mortar, pavers, and more — all powered by BINDR™, all cement-free.

Blocks, bricks, mortar, pavers, and more — all powered by BINDR™, all cement-free.

Imapct Calculator

Imapct Calculator

See the difference BINDR™-powered products can make on your project.

See the difference Agrocrete® can make on your Project’s Footprint.

See the difference BINDR™-powered
products can make on your project.

Estimates based on replacing OPC with BINDR™ across your project's built-up area.

See the difference Agrocrete® can make on your Project’s Footprint.

1000 sq.ft

1500 sq.ft

3000 sq.ft

6000 sq.ft

9000 sq.ft

12,000 sq.ft

20,000 sq.ft

36,000 sq.ft

50,000 sq.ft

CO₂ captured.

4.4 tons

In 1000 sq.ft compared to traditional clay bricks.

Time saved per project.

20 days

In 1000 sq.ft compared to traditional clay bricks.

Water saved.

18,500 L

In 1000 sq.ft compared to traditional clay bricks.

Select the area (in sq.ft)

1000

1500

3000

6000

9000

12,000

20,000

36,000

50,000

CO₂ saved.

4.4 tons

In 1000 sq.ft compared to traditional clay bricks.

Time saved per Project.

20 days

In 1000 sq.ft compared to traditional clay bricks

Water saved.

18,500 L

In 1000 sq.ft compared to traditional clay bricks.

80% Lower Embodied Carbon

80% Lower Embodied Carbon

80% Lower Embodied Carbon

Minimal Water Curing Required

Minimal Water Curing Required

100% Faster Masonry

Zero OPC in Every Product

Zero OPC in Every Product

Zero OPC in Every Product

Select the area (in sq.ft)

1000

1500

3000

6000

9000

12,000

20,000

36,000

50,000

CO₂ saved.

4.4 tons

In 1000 sq.ft compared to traditional clay bricks.

Time saved per Project.

20 days

In 1000 sq.ft compared to traditional clay bricks

Water saved.

18,500 L

In 1000 sq.ft compared to traditional clay bricks.

THREE WAYS TO WORK WITH US

How It Works

Whether you need a plant on your site, blocks from our network, or your own waste turned into certified material — we have a model that fits.

On-Site Manufacturing Unit

A block plant inside your project. For large projects and townships, we set up and operate a dedicated unit producing Novastone or Agrocrete® right where you build.

Hyperlocal Toll Manufacturing

Our 15-node manufacturing network across Bangalore produces your order within ~30 km of your site. Every batch QC-tested, every order shipped with carbon reporting and IS-code referenced data.

Circular Manufacturing

We obtain C&D waste and reclaimed excavated soil from your active sites, process them, and manufacture finished Novastone products — delivered with EPR certificates and recycled-content documentation.

Need help with installation?

We provide trained mason deployment for exposed-grade masonry and turnkey EPC for low-rise structures.

1095 Tons CO₂

Removed and prevented across all projects (2022–2025).

₹13.5 Cr Money

Saved across all projects compared to conventional bricks.

3,213 MWh

Embodied energy avoided via low-energy manufacturing.

1 Cr+ Litres

Water saved through zero-curing construction.

Built with Trust.

Backed by Proof.

From high-rise walls to small-scale projects, Agrocrete® comes in versatile forms for every construction need.

Built with Trust. Backed by Proof.

Built with Trust. Backed by Proof.

Every claim is independently verified — EPD-certified carbon data, CBRI test reports, and IS-code compliance across the product range.

1095 Tons CO₂

1095 Tons CO₂

Carbon removed and emissions avoided across Agrocrete® projects.

Carbon removed and emissions avoided across Agrocrete® projects.

₹13.5 Cr Money

₹13.5 Cr Money

Financial value created through low-carbon material adoption.

Saved across all projects compared to conventional brickwork.

3,213 MWh

3,213 MWh

Embodied energy avoided via low-energy material manufacturing.

Embodied energy avoided via low-energy material manufacturing.

1 Cr+ Litres

1 Cr+ Litres

Water saved through zero-curing and efficient construction methods.

Water saved through zero-curing and efficient construction methods.

Here’s What People Say

Insights, stories, and ideas at the intersection of construction, climate, and community.

Two-storey home in Gudivada with terracotta and ochre walls and white balconies, built with Agrocrete® blocks

2.1 tons

of CO2 captured

Individual Residence, Gudivada, Andhra Pradesh

Mr. Rishi Cherukuri, a Visakhapatnam-based sustainability champion, built his 2,000 sq ft family home in Gudivada with 1,100 Agrocrete® blocks. He chose them for their climate impact. The house was completed in July 2024, and the family now lives in it without air conditioning, describing it as peaceful and tranquil. The walls of the home store 2.1 tons of CO₂, and the build used a regular construction team throughout.

Masons laying grey Agrocrete® blocks on ITC's 1.8 km perimeter wall in Kapurthala, Punjab

38.5 tons

of CO2 captured

Industrial Perimeter Wall, Kapurthala, Punjab

ITC Ltd, GreenJams' first industrial customer, needed a secure boundary around newly acquired land in Kapurthala, Punjab. In April 2022 it started a pilot with Agrocrete®. By December 2022, contractor Tricon had built a 1.8 km perimeter wall from 28,000 blocks, about 350 m³ of blockwork. Tricon reported the wall went up 2.5x faster than with the materials it normally uses. The finished wall stores 38.5 tons of CO₂ and came through its first monsoon without damage.

Five-storey white mixed-use building in Vizianagaram, its lower floors built with Agrocrete® Hollow Blocks

4 tons

of CO2 captured

Mixed-Use Building, Vizianagaram, Andhra Pradesh

This five-storey mixed-use building in Vizianagaram spans more than 10,000 sq ft of shops, offices and homes. Its ground and first floors are built with more than 3,000 Agrocrete® Hollow Blocks. One of the tenants on those floors is an IT company running 20-hour shifts in a 2,500 sq ft office. It has seen electricity bills 60% lower, thanks to the thermal insulation of the walls. The blockwork stores about 4 tons of CO₂.

Left and right: two street views of Mr. Raveendra Kumar's three-storey Rajahmundry home with grey and white facade panels

3 tons

of CO2 captured

Individual Residence, Rajahmundry, Andhra Pradesh

Mr. Raveendra Kumar, a retired Deputy Chief Engineer of Indian Railways, built his 1,800 sq ft home in Rajahmundry with about 2,000 Agrocrete® blocks. He compared the options before choosing. The result: the entire blockwork was finished in 15 days, the walls used more than 50% less cement and sand, and the home stores about 3 tons of CO₂. His house has since persuaded a second family in the city to build with Agrocrete®.

Single-storey GreenJams workshop in Roorkee with exposed Agrocrete® solid block walls and a green steel door

3.1 tons

of CO2 captured

Industrial Workshop, Roorkee, Uttarakhand

Before we asked anyone else to build with Agrocrete®, we built with it ourselves. In February 2021, GreenJams completed a 1,100 sq ft load-bearing workshop in Roorkee, Uttarakhand, using Agrocrete® Solid Blocks and no steel. The walls went up in 4 days. More than five years later, the building has been through 2 earthquakes and 3 cyclones, is still in daily use, and stores 3.1 tons of CO₂ in its walls.

Single-storey services building in Chennai with grey Agrocrete® block walls and a metal roof

2.1 tons

of CO2 captured

Services Building, Chennai, Tamil Nadu

Our first sale outside North India was to CBRE, for a services building at a site it manages in Chennai. In 2021 our only production was in Roorkee, 2,400 km away. We shipped 1,100 Agrocrete® blocks across the country and none were lost on the way. The building was completed in October 2021. Even after counting shipping emissions, it remains carbon-negative, storing 2.1 tons of CO₂ in its walls.

73 tons

of CO2 captured

Industrial Perimeter Wall, Sandila, Uttar Pradesh

A pilot shows a material works. A repeat order shows it is worth buying again. Within months of finishing its 1.8 km Kapurthala wall, ITC Ltd came back to GreenJams for a 2.6 km perimeter wall at its site in Sandila, Uttar Pradesh. The project used 44,200 Agrocrete® blocks, ran from December 2022 to July 2023, and stores 73 tons of CO₂ in its walls.

Design2Occupancy team outside the D2O Sustainable Development Centre headquarters in Jaipur

5.6 tons

of CO2 captured

Office Headquarters Wall, Jaipur, Rajasthan

Design2Occupancy's headquarters in Jaipur, also known as the D2O Sustainable Development Centre, was built to show what a net-zero building in Rajasthan can look like. To cut the carbon in its materials as well as its operations, one of its walls was built with 3,300 Agrocrete® blocks. That wall stores 5.6 tons of CO₂ and avoided 16.6 tons of emissions compared with conventional masonry.

Three views of the finished Agrocrete® ticket counter among palms and pathways at VMRDA Central Park, Visakhapatnam

0.47 tons

of CO2 captured

Park Ticket Counter, Visakhapatnam, Andhra Pradesh

The Visakhapatnam Metropolitan Region Development Authority (VMRDA) chose Agrocrete® for the ticket counter at Central Park, one of the city's public green spaces. The compact 43 sq ft counter was completed in 2025, with the blocks left exposed so every visitor can see what it is made of. It stores about 0.47 tons of CO₂ and avoided about 1.2 tons of emissions compared with conventional construction.

Left: the Khanijo store in New Delhi with Agrocrete® plaster walls; right: a hand-embroidered jacket against the same wall

0.3 tons

of CO2 captured

Retail Store Interior, New Delhi, Delhi

Khanijo, a slow-fashion label, wanted its New Delhi store to say what its clothes say: natural, handmade and made to last. Instead of cement plaster, the key interior walls of the 800 sq ft store are finished in Agrocrete® plaster, made with our cement-free binder BINDR™. The plaster breathes, resists cracks, and stores an estimated 0.3 tons of CO₂ in the walls.

Notes from the Journey

Insights, stories, and ideas at the intersection of construction, climate, and community.

Cement plant with a rotary kiln and preheater tower in India at sunset, a source of cement carbon emissions.

How Cement Contributes to Global Warming: The Construction Industry's Carbon Challenge

Cement is the glue of modern India. It holds together our homes, highways, metro lines and factories. It also carries a heavy climate cost. Cement carbon emissions account for around 8% of annual global CO₂ emissions, according to Chatham House. That makes cement one of the largest single sources of industrial carbon on the planet.

For builders, this is no longer an abstract issue. Clients, lenders and regulators increasingly ask what a building's materials emit before it is ever occupied. This guide explains where cement carbon emissions come from, why clinker is the core of the problem, what the numbers look like for India, and which practical routes, from using less cement to switching binders, can cut the carbon in your next project.

Concrete frame building under construction in India with block and brick infill, cement bags and rebar on site

What Is Embodied Carbon in Buildings? A Practical Guide for India

Every building in India carries two carbon bills. One arrives slowly, as electricity for fans, lights and air-conditioning over 50 years or more. The other is paid in full before anyone moves in: the emissions from making, moving and assembling the cement, steel, bricks and glass. That second bill is embodied carbon in buildings, and it is the part most projects never measure.

This guide is for architects and specifiers who want a working understanding, not a lecture. It explains embodied versus operational carbon using materials you specify every week, shows why upfront emissions behave like a climate debt, and sets out how material selection can lower a building's upfront emissions without redesigning the whole project.

Close-up of a wall of grey-green textured blocks, some with fibrous cores, in front of a white apartment building

Stone to Carbon-Negative: A History of Building Materials

Every era of civilisation is written in its buildings. Stone defined permanence. Timber defined craft. Concrete defined modernity. Each material revolution expanded what humanity could build, and quietly reshaped our relationship with the planet. This short history of building materials traces that journey, from earth and lime to the sustainable construction materials now emerging in India.

Illustration of city buildings, wind turbines, solar panels and pine trees on a floating island of green land

Climate-Positive vs Net Zero: What’s the Difference?

Net zero, carbon neutral and climate-positive are often used as if they mean the same thing. They do not. Net zero is about balance, carbon neutral is usually about compensation, and climate-positive is about removing more carbon than you emit. For anyone specifying materials or setting a climate target for a building, the difference decides what you actually have to do.

This guide explains climate-positive vs net zero in plain terms, compares all three side by side, and shows how carbon-negative materials already make climate-positive buildings possible in India.

Three grey hollow concrete blocks with rectangular cavities standing upright on a white background

The Circular Mandate: Circular Construction Future

Construction is one of the world’s most extractive industries. It consumes vast quantities of virgin raw materials while generating enormous volumes of waste. In a resource-limited world, the linear “take, make, discard” model no longer works. This article explains why circular construction, which turns industrial and agricultural waste into building materials, is fast becoming a necessity in India and beyond.

Illustration of workers laying Agrocrete® blocks beside straw bales and farm fields, with solar panels and wind turbines

Climate-Positive Construction: The Carbon Counter-Attack

The climate crisis is no longer a distant threat. Heatwaves, floods and erratic monsoons are already reshaping how India lives and builds. Yet construction, one of the largest sources of emissions on the planet, still behaves like a passive bystander. At this scale of disruption, neutrality is not enough. The moment demands infrastructure that fights back, not infrastructure that fuels the fire.

This is where climate-positive construction becomes essential: infrastructure designed not just to reduce emissions, but to actively counter them.

Agrocrete® hollow block beside the Solar Impulse label badge and text announcing the Efficient Solution label

Agrocrete® Earns the Solar Impulse Efficient Solution Label

FOR IMMEDIATE RELEASE

3D render of Mivan aluminium wall formwork panels with steel reinforcement, set out for one floor of a building

Mivan Construction: Pros, Cons, Cost and Heat

Mivan construction is the name most Indian homebuyers and builders use for aluminium formwork: a system of reusable aluminium panels into which the walls and floor slabs of a building are cast in concrete, together, in a single pour. It has become one of the most common ways to build high-rise apartment towers in India because it is fast, repeatable and produces a strong, monolithic structure.

It also has trade-offs that rarely appear in a sales brochure, and the biggest of them is heat. This guide explains what Mivan technology is, how Mivan shuttering works on site, where it is used in India, its advantages and disadvantages, and what drives its cost and speed.

We then look at why Mivan flats can feel so hot in summer, and end with practical fixes and an honest account of where low-carbon walling such as Agrocrete® can, and cannot, fit in a Mivan project.

Here’s What People Say

Insights, stories, and ideas at the intersection of construction, climate, and community.

Two-storey home in Gudivada with terracotta and ochre walls and white balconies, built with Agrocrete® blocks

2.1 tons

of CO2 captured

Individual Residence, Gudivada, Andhra Pradesh

Mr. Rishi Cherukuri, a Visakhapatnam-based sustainability champion, built his 2,000 sq ft family home in Gudivada with 1,100 Agrocrete® blocks. He chose them for their climate impact. The house was completed in July 2024, and the family now lives in it without air conditioning, describing it as peaceful and tranquil. The walls of the home store 2.1 tons of CO₂, and the build used a regular construction team throughout.

Masons laying grey Agrocrete® blocks on ITC's 1.8 km perimeter wall in Kapurthala, Punjab

38.5 tons

of CO2 captured

Industrial Perimeter Wall, Kapurthala, Punjab

ITC Ltd, GreenJams' first industrial customer, needed a secure boundary around newly acquired land in Kapurthala, Punjab. In April 2022 it started a pilot with Agrocrete®. By December 2022, contractor Tricon had built a 1.8 km perimeter wall from 28,000 blocks, about 350 m³ of blockwork. Tricon reported the wall went up 2.5x faster than with the materials it normally uses. The finished wall stores 38.5 tons of CO₂ and came through its first monsoon without damage.

Five-storey white mixed-use building in Vizianagaram, its lower floors built with Agrocrete® Hollow Blocks

4 tons

of CO2 captured

Mixed-Use Building, Vizianagaram, Andhra Pradesh

This five-storey mixed-use building in Vizianagaram spans more than 10,000 sq ft of shops, offices and homes. Its ground and first floors are built with more than 3,000 Agrocrete® Hollow Blocks. One of the tenants on those floors is an IT company running 20-hour shifts in a 2,500 sq ft office. It has seen electricity bills 60% lower, thanks to the thermal insulation of the walls. The blockwork stores about 4 tons of CO₂.

Left and right: two street views of Mr. Raveendra Kumar's three-storey Rajahmundry home with grey and white facade panels

3 tons

of CO2 captured

Individual Residence, Rajahmundry, Andhra Pradesh

Mr. Raveendra Kumar, a retired Deputy Chief Engineer of Indian Railways, built his 1,800 sq ft home in Rajahmundry with about 2,000 Agrocrete® blocks. He compared the options before choosing. The result: the entire blockwork was finished in 15 days, the walls used more than 50% less cement and sand, and the home stores about 3 tons of CO₂. His house has since persuaded a second family in the city to build with Agrocrete®.

Single-storey GreenJams workshop in Roorkee with exposed Agrocrete® solid block walls and a green steel door

3.1 tons

of CO2 captured

Industrial Workshop, Roorkee, Uttarakhand

Before we asked anyone else to build with Agrocrete®, we built with it ourselves. In February 2021, GreenJams completed a 1,100 sq ft load-bearing workshop in Roorkee, Uttarakhand, using Agrocrete® Solid Blocks and no steel. The walls went up in 4 days. More than five years later, the building has been through 2 earthquakes and 3 cyclones, is still in daily use, and stores 3.1 tons of CO₂ in its walls.

Single-storey services building in Chennai with grey Agrocrete® block walls and a metal roof

2.1 tons

of CO2 captured

Services Building, Chennai, Tamil Nadu

Our first sale outside North India was to CBRE, for a services building at a site it manages in Chennai. In 2021 our only production was in Roorkee, 2,400 km away. We shipped 1,100 Agrocrete® blocks across the country and none were lost on the way. The building was completed in October 2021. Even after counting shipping emissions, it remains carbon-negative, storing 2.1 tons of CO₂ in its walls.

73 tons

of CO2 captured

Industrial Perimeter Wall, Sandila, Uttar Pradesh

A pilot shows a material works. A repeat order shows it is worth buying again. Within months of finishing its 1.8 km Kapurthala wall, ITC Ltd came back to GreenJams for a 2.6 km perimeter wall at its site in Sandila, Uttar Pradesh. The project used 44,200 Agrocrete® blocks, ran from December 2022 to July 2023, and stores 73 tons of CO₂ in its walls.

Design2Occupancy team outside the D2O Sustainable Development Centre headquarters in Jaipur

5.6 tons

of CO2 captured

Office Headquarters Wall, Jaipur, Rajasthan

Design2Occupancy's headquarters in Jaipur, also known as the D2O Sustainable Development Centre, was built to show what a net-zero building in Rajasthan can look like. To cut the carbon in its materials as well as its operations, one of its walls was built with 3,300 Agrocrete® blocks. That wall stores 5.6 tons of CO₂ and avoided 16.6 tons of emissions compared with conventional masonry.

Three views of the finished Agrocrete® ticket counter among palms and pathways at VMRDA Central Park, Visakhapatnam

0.47 tons

of CO2 captured

Park Ticket Counter, Visakhapatnam, Andhra Pradesh

The Visakhapatnam Metropolitan Region Development Authority (VMRDA) chose Agrocrete® for the ticket counter at Central Park, one of the city's public green spaces. The compact 43 sq ft counter was completed in 2025, with the blocks left exposed so every visitor can see what it is made of. It stores about 0.47 tons of CO₂ and avoided about 1.2 tons of emissions compared with conventional construction.

Left: the Khanijo store in New Delhi with Agrocrete® plaster walls; right: a hand-embroidered jacket against the same wall

0.3 tons

of CO2 captured

Retail Store Interior, New Delhi, Delhi

Khanijo, a slow-fashion label, wanted its New Delhi store to say what its clothes say: natural, handmade and made to last. Instead of cement plaster, the key interior walls of the 800 sq ft store are finished in Agrocrete® plaster, made with our cement-free binder BINDR™. The plaster breathes, resists cracks, and stores an estimated 0.3 tons of CO₂ in the walls.

Notes from the Journey

Insights, stories, and ideas at the intersection of construction, climate, and community.

Cement plant with a rotary kiln and preheater tower in India at sunset, a source of cement carbon emissions.

How Cement Contributes to Global Warming: The Construction Industry's Carbon Challenge

Cement is the glue of modern India. It holds together our homes, highways, metro lines and factories. It also carries a heavy climate cost. Cement carbon emissions account for around 8% of annual global CO₂ emissions, according to Chatham House. That makes cement one of the largest single sources of industrial carbon on the planet.

For builders, this is no longer an abstract issue. Clients, lenders and regulators increasingly ask what a building's materials emit before it is ever occupied. This guide explains where cement carbon emissions come from, why clinker is the core of the problem, what the numbers look like for India, and which practical routes, from using less cement to switching binders, can cut the carbon in your next project.

Concrete frame building under construction in India with block and brick infill, cement bags and rebar on site

What Is Embodied Carbon in Buildings? A Practical Guide for India

Every building in India carries two carbon bills. One arrives slowly, as electricity for fans, lights and air-conditioning over 50 years or more. The other is paid in full before anyone moves in: the emissions from making, moving and assembling the cement, steel, bricks and glass. That second bill is embodied carbon in buildings, and it is the part most projects never measure.

This guide is for architects and specifiers who want a working understanding, not a lecture. It explains embodied versus operational carbon using materials you specify every week, shows why upfront emissions behave like a climate debt, and sets out how material selection can lower a building's upfront emissions without redesigning the whole project.

Close-up of a wall of grey-green textured blocks, some with fibrous cores, in front of a white apartment building

Stone to Carbon-Negative: A History of Building Materials

Every era of civilisation is written in its buildings. Stone defined permanence. Timber defined craft. Concrete defined modernity. Each material revolution expanded what humanity could build, and quietly reshaped our relationship with the planet. This short history of building materials traces that journey, from earth and lime to the sustainable construction materials now emerging in India.

Illustration of city buildings, wind turbines, solar panels and pine trees on a floating island of green land

Climate-Positive vs Net Zero: What’s the Difference?

Net zero, carbon neutral and climate-positive are often used as if they mean the same thing. They do not. Net zero is about balance, carbon neutral is usually about compensation, and climate-positive is about removing more carbon than you emit. For anyone specifying materials or setting a climate target for a building, the difference decides what you actually have to do.

This guide explains climate-positive vs net zero in plain terms, compares all three side by side, and shows how carbon-negative materials already make climate-positive buildings possible in India.

Three grey hollow concrete blocks with rectangular cavities standing upright on a white background

The Circular Mandate: Circular Construction Future

Construction is one of the world’s most extractive industries. It consumes vast quantities of virgin raw materials while generating enormous volumes of waste. In a resource-limited world, the linear “take, make, discard” model no longer works. This article explains why circular construction, which turns industrial and agricultural waste into building materials, is fast becoming a necessity in India and beyond.

Illustration of workers laying Agrocrete® blocks beside straw bales and farm fields, with solar panels and wind turbines

Climate-Positive Construction: The Carbon Counter-Attack

The climate crisis is no longer a distant threat. Heatwaves, floods and erratic monsoons are already reshaping how India lives and builds. Yet construction, one of the largest sources of emissions on the planet, still behaves like a passive bystander. At this scale of disruption, neutrality is not enough. The moment demands infrastructure that fights back, not infrastructure that fuels the fire.

This is where climate-positive construction becomes essential: infrastructure designed not just to reduce emissions, but to actively counter them.

Agrocrete® hollow block beside the Solar Impulse label badge and text announcing the Efficient Solution label

Agrocrete® Earns the Solar Impulse Efficient Solution Label

FOR IMMEDIATE RELEASE

3D render of Mivan aluminium wall formwork panels with steel reinforcement, set out for one floor of a building

Mivan Construction: Pros, Cons, Cost and Heat

Mivan construction is the name most Indian homebuyers and builders use for aluminium formwork: a system of reusable aluminium panels into which the walls and floor slabs of a building are cast in concrete, together, in a single pour. It has become one of the most common ways to build high-rise apartment towers in India because it is fast, repeatable and produces a strong, monolithic structure.

It also has trade-offs that rarely appear in a sales brochure, and the biggest of them is heat. This guide explains what Mivan technology is, how Mivan shuttering works on site, where it is used in India, its advantages and disadvantages, and what drives its cost and speed.

We then look at why Mivan flats can feel so hot in summer, and end with practical fixes and an honest account of where low-carbon walling such as Agrocrete® can, and cannot, fit in a Mivan project.

Here’s What People Say

Insights, stories, and ideas at the intersection of construction, climate, and community.

Two-storey home in Gudivada with terracotta and ochre walls and white balconies, built with Agrocrete® blocks

2.1 tons

of CO2 captured

Individual Residence, Gudivada, Andhra Pradesh

Mr. Rishi Cherukuri, a Visakhapatnam-based sustainability champion, built his 2,000 sq ft family home in Gudivada with 1,100 Agrocrete® blocks. He chose them for their climate impact. The house was completed in July 2024, and the family now lives in it without air conditioning, describing it as peaceful and tranquil. The walls of the home store 2.1 tons of CO₂, and the build used a regular construction team throughout.

Masons laying grey Agrocrete® blocks on ITC's 1.8 km perimeter wall in Kapurthala, Punjab

38.5 tons

of CO2 captured

Industrial Perimeter Wall, Kapurthala, Punjab

ITC Ltd, GreenJams' first industrial customer, needed a secure boundary around newly acquired land in Kapurthala, Punjab. In April 2022 it started a pilot with Agrocrete®. By December 2022, contractor Tricon had built a 1.8 km perimeter wall from 28,000 blocks, about 350 m³ of blockwork. Tricon reported the wall went up 2.5x faster than with the materials it normally uses. The finished wall stores 38.5 tons of CO₂ and came through its first monsoon without damage.

Five-storey white mixed-use building in Vizianagaram, its lower floors built with Agrocrete® Hollow Blocks

4 tons

of CO2 captured

Mixed-Use Building, Vizianagaram, Andhra Pradesh

This five-storey mixed-use building in Vizianagaram spans more than 10,000 sq ft of shops, offices and homes. Its ground and first floors are built with more than 3,000 Agrocrete® Hollow Blocks. One of the tenants on those floors is an IT company running 20-hour shifts in a 2,500 sq ft office. It has seen electricity bills 60% lower, thanks to the thermal insulation of the walls. The blockwork stores about 4 tons of CO₂.

Left and right: two street views of Mr. Raveendra Kumar's three-storey Rajahmundry home with grey and white facade panels

3 tons

of CO2 captured

Individual Residence, Rajahmundry, Andhra Pradesh

Mr. Raveendra Kumar, a retired Deputy Chief Engineer of Indian Railways, built his 1,800 sq ft home in Rajahmundry with about 2,000 Agrocrete® blocks. He compared the options before choosing. The result: the entire blockwork was finished in 15 days, the walls used more than 50% less cement and sand, and the home stores about 3 tons of CO₂. His house has since persuaded a second family in the city to build with Agrocrete®.

Single-storey GreenJams workshop in Roorkee with exposed Agrocrete® solid block walls and a green steel door

3.1 tons

of CO2 captured

Industrial Workshop, Roorkee, Uttarakhand

Before we asked anyone else to build with Agrocrete®, we built with it ourselves. In February 2021, GreenJams completed a 1,100 sq ft load-bearing workshop in Roorkee, Uttarakhand, using Agrocrete® Solid Blocks and no steel. The walls went up in 4 days. More than five years later, the building has been through 2 earthquakes and 3 cyclones, is still in daily use, and stores 3.1 tons of CO₂ in its walls.

Single-storey services building in Chennai with grey Agrocrete® block walls and a metal roof

2.1 tons

of CO2 captured

Services Building, Chennai, Tamil Nadu

Our first sale outside North India was to CBRE, for a services building at a site it manages in Chennai. In 2021 our only production was in Roorkee, 2,400 km away. We shipped 1,100 Agrocrete® blocks across the country and none were lost on the way. The building was completed in October 2021. Even after counting shipping emissions, it remains carbon-negative, storing 2.1 tons of CO₂ in its walls.

73 tons

of CO2 captured

Industrial Perimeter Wall, Sandila, Uttar Pradesh

A pilot shows a material works. A repeat order shows it is worth buying again. Within months of finishing its 1.8 km Kapurthala wall, ITC Ltd came back to GreenJams for a 2.6 km perimeter wall at its site in Sandila, Uttar Pradesh. The project used 44,200 Agrocrete® blocks, ran from December 2022 to July 2023, and stores 73 tons of CO₂ in its walls.

Design2Occupancy team outside the D2O Sustainable Development Centre headquarters in Jaipur

5.6 tons

of CO2 captured

Office Headquarters Wall, Jaipur, Rajasthan

Design2Occupancy's headquarters in Jaipur, also known as the D2O Sustainable Development Centre, was built to show what a net-zero building in Rajasthan can look like. To cut the carbon in its materials as well as its operations, one of its walls was built with 3,300 Agrocrete® blocks. That wall stores 5.6 tons of CO₂ and avoided 16.6 tons of emissions compared with conventional masonry.

Three views of the finished Agrocrete® ticket counter among palms and pathways at VMRDA Central Park, Visakhapatnam

0.47 tons

of CO2 captured

Park Ticket Counter, Visakhapatnam, Andhra Pradesh

The Visakhapatnam Metropolitan Region Development Authority (VMRDA) chose Agrocrete® for the ticket counter at Central Park, one of the city's public green spaces. The compact 43 sq ft counter was completed in 2025, with the blocks left exposed so every visitor can see what it is made of. It stores about 0.47 tons of CO₂ and avoided about 1.2 tons of emissions compared with conventional construction.

Left: the Khanijo store in New Delhi with Agrocrete® plaster walls; right: a hand-embroidered jacket against the same wall

0.3 tons

of CO2 captured

Retail Store Interior, New Delhi, Delhi

Khanijo, a slow-fashion label, wanted its New Delhi store to say what its clothes say: natural, handmade and made to last. Instead of cement plaster, the key interior walls of the 800 sq ft store are finished in Agrocrete® plaster, made with our cement-free binder BINDR™. The plaster breathes, resists cracks, and stores an estimated 0.3 tons of CO₂ in the walls.

Notes from the Journey

Insights, stories, and ideas at the intersection of construction, climate, and community.

Cement plant with a rotary kiln and preheater tower in India at sunset, a source of cement carbon emissions.

How Cement Contributes to Global Warming: The Construction Industry's Carbon Challenge

Cement is the glue of modern India. It holds together our homes, highways, metro lines and factories. It also carries a heavy climate cost. Cement carbon emissions account for around 8% of annual global CO₂ emissions, according to Chatham House. That makes cement one of the largest single sources of industrial carbon on the planet.

For builders, this is no longer an abstract issue. Clients, lenders and regulators increasingly ask what a building's materials emit before it is ever occupied. This guide explains where cement carbon emissions come from, why clinker is the core of the problem, what the numbers look like for India, and which practical routes, from using less cement to switching binders, can cut the carbon in your next project.

Concrete frame building under construction in India with block and brick infill, cement bags and rebar on site

What Is Embodied Carbon in Buildings? A Practical Guide for India

Every building in India carries two carbon bills. One arrives slowly, as electricity for fans, lights and air-conditioning over 50 years or more. The other is paid in full before anyone moves in: the emissions from making, moving and assembling the cement, steel, bricks and glass. That second bill is embodied carbon in buildings, and it is the part most projects never measure.

This guide is for architects and specifiers who want a working understanding, not a lecture. It explains embodied versus operational carbon using materials you specify every week, shows why upfront emissions behave like a climate debt, and sets out how material selection can lower a building's upfront emissions without redesigning the whole project.

Close-up of a wall of grey-green textured blocks, some with fibrous cores, in front of a white apartment building

Stone to Carbon-Negative: A History of Building Materials

Every era of civilisation is written in its buildings. Stone defined permanence. Timber defined craft. Concrete defined modernity. Each material revolution expanded what humanity could build, and quietly reshaped our relationship with the planet. This short history of building materials traces that journey, from earth and lime to the sustainable construction materials now emerging in India.

Illustration of city buildings, wind turbines, solar panels and pine trees on a floating island of green land

Climate-Positive vs Net Zero: What’s the Difference?

Net zero, carbon neutral and climate-positive are often used as if they mean the same thing. They do not. Net zero is about balance, carbon neutral is usually about compensation, and climate-positive is about removing more carbon than you emit. For anyone specifying materials or setting a climate target for a building, the difference decides what you actually have to do.

This guide explains climate-positive vs net zero in plain terms, compares all three side by side, and shows how carbon-negative materials already make climate-positive buildings possible in India.

Three grey hollow concrete blocks with rectangular cavities standing upright on a white background

The Circular Mandate: Circular Construction Future

Construction is one of the world’s most extractive industries. It consumes vast quantities of virgin raw materials while generating enormous volumes of waste. In a resource-limited world, the linear “take, make, discard” model no longer works. This article explains why circular construction, which turns industrial and agricultural waste into building materials, is fast becoming a necessity in India and beyond.

Illustration of workers laying Agrocrete® blocks beside straw bales and farm fields, with solar panels and wind turbines

Climate-Positive Construction: The Carbon Counter-Attack

The climate crisis is no longer a distant threat. Heatwaves, floods and erratic monsoons are already reshaping how India lives and builds. Yet construction, one of the largest sources of emissions on the planet, still behaves like a passive bystander. At this scale of disruption, neutrality is not enough. The moment demands infrastructure that fights back, not infrastructure that fuels the fire.

This is where climate-positive construction becomes essential: infrastructure designed not just to reduce emissions, but to actively counter them.

Agrocrete® hollow block beside the Solar Impulse label badge and text announcing the Efficient Solution label

Agrocrete® Earns the Solar Impulse Efficient Solution Label

FOR IMMEDIATE RELEASE

3D render of Mivan aluminium wall formwork panels with steel reinforcement, set out for one floor of a building

Mivan Construction: Pros, Cons, Cost and Heat

Mivan construction is the name most Indian homebuyers and builders use for aluminium formwork: a system of reusable aluminium panels into which the walls and floor slabs of a building are cast in concrete, together, in a single pour. It has become one of the most common ways to build high-rise apartment towers in India because it is fast, repeatable and produces a strong, monolithic structure.

It also has trade-offs that rarely appear in a sales brochure, and the biggest of them is heat. This guide explains what Mivan technology is, how Mivan shuttering works on site, where it is used in India, its advantages and disadvantages, and what drives its cost and speed.

We then look at why Mivan flats can feel so hot in summer, and end with practical fixes and an honest account of where low-carbon walling such as Agrocrete® can, and cannot, fit in a Mivan project.

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  • Vianaar Homes logo
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  • Dhun Jaipur logo
  • Chinmaya Vidyalaya logo
  • Design2Occupancy logo
  • BuildAHome logo
  • Kun Studio logo
  • Studio Samskara logo
  • Svasara Resorts logo
  • VMRDA logo
  • Good Earth logo
  • Feature Construction logo

Trusted By over 200+ Companies

  • Godrej Properties logo
  • CoEvolve Estates logo
  • Vianaar Homes logo
  • Svamitva Group logo
  • Dhun Jaipur logo
  • Chinmaya Vidyalaya logo
  • Design2Occupancy logo
  • BuildAHome logo
  • Kun Studio logo
  • Studio Samskara logo
  • Svasara Resorts logo
  • VMRDA logo
  • Good Earth logo
  • Feature Construction logo

Frequently asked questions

Have Questions?

We’ve Got Answers.

What is Agrocrete®?

Agrocrete® is a carbon-negative building block made from upcycled crop residues and industrial by-products. It’s stronger, lighter, cooler, and more durable than conventional bricks, while also reducing environmental impact.

What does ‘carbon-negative’ mean?

How is Agrocrete® better than regular bricks?

Is Agrocrete® certified?

Where can it be used?

Is it termite-resistant and fire-resistant?

Will it change my construction process?

What’s its environmental impact?

Frequently asked questions

Have Questions?

We’ve Got Answers.

What is Agrocrete®?

Agrocrete® is a carbon-negative building block made from upcycled crop residues and industrial by-products. It’s stronger, lighter, cooler, and more durable than conventional bricks, while also reducing environmental impact.

What does ‘carbon-negative’ mean?

How is Agrocrete® better than regular bricks?

Is Agrocrete® certified?

Where can it be used?

Is it termite-resistant and fire-resistant?

Will it change my construction process?

What’s its environmental impact?

Frequently asked questions

Have Questions?

We’ve Got Answers.

What is Agrocrete®?

Agrocrete® is a carbon-negative building block made from upcycled crop residues and industrial by-products. It’s stronger, lighter, cooler, and more durable than conventional bricks, while also reducing environmental impact.

What does ‘carbon-negative’ mean?

How is Agrocrete® better than regular bricks?

Is Agrocrete® certified?

Where can it be used?

Is it termite-resistant and fire-resistant?

Will it change my construction process?

What’s its environmental impact?