Green Education

Building a Sustainable Future

Today, environmental challenges such as climate change, the depletion of natural resources, and increasing pressure on freshwater supplies are driving the building sector to adopt more sustainable solutions. Buildings account for approximately 40% of global energy consumption and nearly 30% of water consumption. Considering that people spend around 90% of their time indoors, the environmental performance of buildings and the quality of indoor environments have become critical factors for both planetary and human well-being.

Green buildings represent a holistic approach to design, construction, and operation that enhances energy and water efficiency, minimizes waste, conserves natural resources, and provides healthier, more comfortable spaces for occupants. Compared to conventional buildings, green buildings typically consume around 30% less energy and can achieve water savings of up to 50% through efficient systems and smart design strategies. They also improve indoor environmental quality by promoting better air quality, natural daylight, and thermal comfort, ultimately supporting occupant health, well-being, and productivity.

LEED Certification

LEED (Leadership in Energy and Environmental Design) is the world`s most widely recognized green building certification system, developed by the U.S. Green Building Council (USGBC) in 1998. Continuously updated to reflect the latest sustainability standards, LEED encourages environmentally responsible, resource-efficient, and innovative building practices throughout the entire building lifecycle.

Today, more than 100,000 LEED-certified projects have been completed worldwide, with hundreds of certified buildings located throughout Türkiye.

The LEED certification process is a comprehensive evaluation system that begins during the design phase and continues through construction and building operation. It integrates multiple disciplines to ensure sustainable performance throughout the project`s lifecycle.

Under the LEED v4 rating system, projects are evaluated in the following categories:

  • Integrative Process

  • Location and Transportation

  • Sustainable Sites

  • Water Efficiency

  • Energy and Atmosphere

  • Materials and Resources

  • Indoor Environmental Quality

  • Innovation

  • Regional Priority

After meeting all mandatory prerequisites, projects earn points through optional credits and achieve one of four certification levels: Certified, Silver, Gold, or Platinum.

Sümer Plastik Center Project GEBZE

Designed in accordance with the latest LEED v4 requirements, the Sümer Plastik Center Project GEBZE embraces a comprehensive sustainability approach aimed at minimizing environmental impacts, reducing energy and water consumption, lowering operational costs, and enhancing occupant comfort. The sustainable strategies implemented throughout the project are outlined below.

Integrative Process

  • Preliminary energy and water performance analyses were conducted during the early design phase, enabling the project team to make informed design decisions that maximize building performance.

Location and Transportation

  • The project is located within a fully serviced organized industrial zone, providing efficient infrastructure and accessibility. Shuttle transportation services are available for employees and visitors, encouraging the use of shared transportation and reducing dependence on private vehicles.

  • Electric vehicle charging stations have been installed to support the transition toward low-emission transportation.

Sustainable Sites

  • Rainwater is collected and reused as an alternative water source. This strategy supports effective stormwater management, reduces demand on municipal infrastructure, and helps mitigate flood risks.

  • High Solar Reflectance Index (SRI) roofing and paving materials have been selected to reduce the urban heat island effect. Landscaped green areas further contribute to lowering ambient temperatures.

Water Efficiency

  • High-efficiency plumbing fixtures that comply with U.S. Environmental Protection Agency (EPA) standards have been installed, reducing indoor potable water consumption by more than 30% compared with baseline values while maintaining user comfort.

  • Harvested rainwater is utilized for landscape irrigation, significantly reducing potable water demand.

Energy and Atmosphere

  • A rooftop photovoltaic (PV) solar energy system will generate renewable electricity, supplying a substantial portion of the building`s energy demand.

  • The building`s mechanical and lighting systems have been designed in accordance with the energy efficiency requirements of ASHRAE Standard 90.1-2010.

  • Energy modeling and performance analyses were carried out during the design stage to optimize building envelope performance, mechanical equipment efficiency, and overall energy consumption.

  • A Building Energy Management System (BEMS) will continuously monitor energy use during operation, enabling rapid identification of inefficiencies and supporting ongoing performance optimization.

Materials and Resources

  • Construction waste was segregated by material type and diverted to recycling facilities, minimizing landfill disposal.

  • Priority was given to environmentally preferable construction materials, including products with Environmental Product Declarations (EPDs), recycled content, and locally sourced materials with reduced environmental impacts.

  • Dedicated waste collection areas have been incorporated into the building design to facilitate the separation and recycling of operational waste streams.

Indoor Environmental Quality

  • Low-emitting construction and finishing materials were selected to ensure that volatile organic compound (VOC) emissions comply with internationally recognized standards, contributing to a healthier indoor environment.

  • Interior lighting has been carefully designed to meet functional requirements while maximizing visual comfort and energy efficiency. Zoned lighting controls allow unnecessary lighting to be dimmed or switched off when not required, while high-efficiency LED luminaires with excellent color rendering provide lighting conditions that closely resemble natural daylight.

A Commitment to Sustainable Development

The Sümer Plastik Center Project GEBZE is more than a modern industrial facility—it reflects our long-term commitment to environmental responsibility, resource efficiency, and the well-being of our employees.

Through the implementation of internationally recognized sustainability principles, the project aims to:

  • Reduce energy consumption and greenhouse gas emissions.

  • Improve water efficiency and promote responsible water management.

  • Minimize waste generation and maximize recycling.

  • Create a healthier, safer, and more comfortable workplace.

  • Reduce operational costs through sustainable building performance.

  • Contribute to Sümer Plastik`s long-term sustainability objectives.

By integrating sustainability into every stage of the building lifecycle, Sümer Plastik continues to invest in innovative solutions that create lasting value for both society and the environment, while contributing to a more sustainable future for generations to come.

 

Sümer Plastik 2020 © All Rights Reserved.

Green Education

Building a Sustainable Future

Today, environmental challenges such as climate change, the depletion of natural resources, and increasing pressure on freshwater supplies are driving the building sector to adopt more sustainable solutions. Buildings account for approximately 40% of global energy consumption and nearly 30% of water consumption. Considering that people spend around 90% of their time indoors, the environmental performance of buildings and the quality of indoor environments have become critical factors for both planetary and human well-being.

Green buildings represent a holistic approach to design, construction, and operation that enhances energy and water efficiency, minimizes waste, conserves natural resources, and provides healthier, more comfortable spaces for occupants. Compared to conventional buildings, green buildings typically consume around 30% less energy and can achieve water savings of up to 50% through efficient systems and smart design strategies. They also improve indoor environmental quality by promoting better air quality, natural daylight, and thermal comfort, ultimately supporting occupant health, well-being, and productivity.

LEED Certification

LEED (Leadership in Energy and Environmental Design) is the world`s most widely recognized green building certification system, developed by the U.S. Green Building Council (USGBC) in 1998. Continuously updated to reflect the latest sustainability standards, LEED encourages environmentally responsible, resource-efficient, and innovative building practices throughout the entire building lifecycle.

Today, more than 100,000 LEED-certified projects have been completed worldwide, with hundreds of certified buildings located throughout Türkiye.

The LEED certification process is a comprehensive evaluation system that begins during the design phase and continues through construction and building operation. It integrates multiple disciplines to ensure sustainable performance throughout the project`s lifecycle.

Under the LEED v4 rating system, projects are evaluated in the following categories:

  • Integrative Process

  • Location and Transportation

  • Sustainable Sites

  • Water Efficiency

  • Energy and Atmosphere

  • Materials and Resources

  • Indoor Environmental Quality

  • Innovation

  • Regional Priority

After meeting all mandatory prerequisites, projects earn points through optional credits and achieve one of four certification levels: Certified, Silver, Gold, or Platinum.

Sümer Plastik Center Project GEBZE

Designed in accordance with the latest LEED v4 requirements, the Sümer Plastik Center Project GEBZE embraces a comprehensive sustainability approach aimed at minimizing environmental impacts, reducing energy and water consumption, lowering operational costs, and enhancing occupant comfort. The sustainable strategies implemented throughout the project are outlined below.

Integrative Process

  • Preliminary energy and water performance analyses were conducted during the early design phase, enabling the project team to make informed design decisions that maximize building performance.

Location and Transportation

  • The project is located within a fully serviced organized industrial zone, providing efficient infrastructure and accessibility. Shuttle transportation services are available for employees and visitors, encouraging the use of shared transportation and reducing dependence on private vehicles.

  • Electric vehicle charging stations have been installed to support the transition toward low-emission transportation.

Sustainable Sites

  • Rainwater is collected and reused as an alternative water source. This strategy supports effective stormwater management, reduces demand on municipal infrastructure, and helps mitigate flood risks.

  • High Solar Reflectance Index (SRI) roofing and paving materials have been selected to reduce the urban heat island effect. Landscaped green areas further contribute to lowering ambient temperatures.

Water Efficiency

  • High-efficiency plumbing fixtures that comply with U.S. Environmental Protection Agency (EPA) standards have been installed, reducing indoor potable water consumption by more than 30% compared with baseline values while maintaining user comfort.

  • Harvested rainwater is utilized for landscape irrigation, significantly reducing potable water demand.

Energy and Atmosphere

  • A rooftop photovoltaic (PV) solar energy system will generate renewable electricity, supplying a substantial portion of the building`s energy demand.

  • The building`s mechanical and lighting systems have been designed in accordance with the energy efficiency requirements of ASHRAE Standard 90.1-2010.

  • Energy modeling and performance analyses were carried out during the design stage to optimize building envelope performance, mechanical equipment efficiency, and overall energy consumption.

  • A Building Energy Management System (BEMS) will continuously monitor energy use during operation, enabling rapid identification of inefficiencies and supporting ongoing performance optimization.

Materials and Resources

  • Construction waste was segregated by material type and diverted to recycling facilities, minimizing landfill disposal.

  • Priority was given to environmentally preferable construction materials, including products with Environmental Product Declarations (EPDs), recycled content, and locally sourced materials with reduced environmental impacts.

  • Dedicated waste collection areas have been incorporated into the building design to facilitate the separation and recycling of operational waste streams.

Indoor Environmental Quality

  • Low-emitting construction and finishing materials were selected to ensure that volatile organic compound (VOC) emissions comply with internationally recognized standards, contributing to a healthier indoor environment.

  • Interior lighting has been carefully designed to meet functional requirements while maximizing visual comfort and energy efficiency. Zoned lighting controls allow unnecessary lighting to be dimmed or switched off when not required, while high-efficiency LED luminaires with excellent color rendering provide lighting conditions that closely resemble natural daylight.

A Commitment to Sustainable Development

The Sümer Plastik Center Project GEBZE is more than a modern industrial facility—it reflects our long-term commitment to environmental responsibility, resource efficiency, and the well-being of our employees.

Through the implementation of internationally recognized sustainability principles, the project aims to:

  • Reduce energy consumption and greenhouse gas emissions.

  • Improve water efficiency and promote responsible water management.

  • Minimize waste generation and maximize recycling.

  • Create a healthier, safer, and more comfortable workplace.

  • Reduce operational costs through sustainable building performance.

  • Contribute to Sümer Plastik`s long-term sustainability objectives.

By integrating sustainability into every stage of the building lifecycle, Sümer Plastik continues to invest in innovative solutions that create lasting value for both society and the environment, while contributing to a more sustainable future for generations to come.

 

Sümer Plastik 2020 © All Rights Reserved.

Green Education

Building a Sustainable Future

Today, environmental challenges such as climate change, the depletion of natural resources, and increasing pressure on freshwater supplies are driving the building sector to adopt more sustainable solutions. Buildings account for approximately 40% of global energy consumption and nearly 30% of water consumption. Considering that people spend around 90% of their time indoors, the environmental performance of buildings and the quality of indoor environments have become critical factors for both planetary and human well-being.

Green buildings represent a holistic approach to design, construction, and operation that enhances energy and water efficiency, minimizes waste, conserves natural resources, and provides healthier, more comfortable spaces for occupants. Compared to conventional buildings, green buildings typically consume around 30% less energy and can achieve water savings of up to 50% through efficient systems and smart design strategies. They also improve indoor environmental quality by promoting better air quality, natural daylight, and thermal comfort, ultimately supporting occupant health, well-being, and productivity.

LEED Certification

LEED (Leadership in Energy and Environmental Design) is the world`s most widely recognized green building certification system, developed by the U.S. Green Building Council (USGBC) in 1998. Continuously updated to reflect the latest sustainability standards, LEED encourages environmentally responsible, resource-efficient, and innovative building practices throughout the entire building lifecycle.

Today, more than 100,000 LEED-certified projects have been completed worldwide, with hundreds of certified buildings located throughout Türkiye.

The LEED certification process is a comprehensive evaluation system that begins during the design phase and continues through construction and building operation. It integrates multiple disciplines to ensure sustainable performance throughout the project`s lifecycle.

Under the LEED v4 rating system, projects are evaluated in the following categories:

  • Integrative Process

  • Location and Transportation

  • Sustainable Sites

  • Water Efficiency

  • Energy and Atmosphere

  • Materials and Resources

  • Indoor Environmental Quality

  • Innovation

  • Regional Priority

After meeting all mandatory prerequisites, projects earn points through optional credits and achieve one of four certification levels: Certified, Silver, Gold, or Platinum.

Sümer Plastik Center Project GEBZE

Designed in accordance with the latest LEED v4 requirements, the Sümer Plastik Center Project GEBZE embraces a comprehensive sustainability approach aimed at minimizing environmental impacts, reducing energy and water consumption, lowering operational costs, and enhancing occupant comfort. The sustainable strategies implemented throughout the project are outlined below.

Integrative Process

  • Preliminary energy and water performance analyses were conducted during the early design phase, enabling the project team to make informed design decisions that maximize building performance.

Location and Transportation

  • The project is located within a fully serviced organized industrial zone, providing efficient infrastructure and accessibility. Shuttle transportation services are available for employees and visitors, encouraging the use of shared transportation and reducing dependence on private vehicles.

  • Electric vehicle charging stations have been installed to support the transition toward low-emission transportation.

Sustainable Sites

  • Rainwater is collected and reused as an alternative water source. This strategy supports effective stormwater management, reduces demand on municipal infrastructure, and helps mitigate flood risks.

  • High Solar Reflectance Index (SRI) roofing and paving materials have been selected to reduce the urban heat island effect. Landscaped green areas further contribute to lowering ambient temperatures.

Water Efficiency

  • High-efficiency plumbing fixtures that comply with U.S. Environmental Protection Agency (EPA) standards have been installed, reducing indoor potable water consumption by more than 30% compared with baseline values while maintaining user comfort.

  • Harvested rainwater is utilized for landscape irrigation, significantly reducing potable water demand.

Energy and Atmosphere

  • A rooftop photovoltaic (PV) solar energy system will generate renewable electricity, supplying a substantial portion of the building`s energy demand.

  • The building`s mechanical and lighting systems have been designed in accordance with the energy efficiency requirements of ASHRAE Standard 90.1-2010.

  • Energy modeling and performance analyses were carried out during the design stage to optimize building envelope performance, mechanical equipment efficiency, and overall energy consumption.

  • A Building Energy Management System (BEMS) will continuously monitor energy use during operation, enabling rapid identification of inefficiencies and supporting ongoing performance optimization.

Materials and Resources

  • Construction waste was segregated by material type and diverted to recycling facilities, minimizing landfill disposal.

  • Priority was given to environmentally preferable construction materials, including products with Environmental Product Declarations (EPDs), recycled content, and locally sourced materials with reduced environmental impacts.

  • Dedicated waste collection areas have been incorporated into the building design to facilitate the separation and recycling of operational waste streams.

Indoor Environmental Quality

  • Low-emitting construction and finishing materials were selected to ensure that volatile organic compound (VOC) emissions comply with internationally recognized standards, contributing to a healthier indoor environment.

  • Interior lighting has been carefully designed to meet functional requirements while maximizing visual comfort and energy efficiency. Zoned lighting controls allow unnecessary lighting to be dimmed or switched off when not required, while high-efficiency LED luminaires with excellent color rendering provide lighting conditions that closely resemble natural daylight.

A Commitment to Sustainable Development

The Sümer Plastik Center Project GEBZE is more than a modern industrial facility—it reflects our long-term commitment to environmental responsibility, resource efficiency, and the well-being of our employees.

Through the implementation of internationally recognized sustainability principles, the project aims to:

  • Reduce energy consumption and greenhouse gas emissions.

  • Improve water efficiency and promote responsible water management.

  • Minimize waste generation and maximize recycling.

  • Create a healthier, safer, and more comfortable workplace.

  • Reduce operational costs through sustainable building performance.

  • Contribute to Sümer Plastik`s long-term sustainability objectives.

By integrating sustainability into every stage of the building lifecycle, Sümer Plastik continues to invest in innovative solutions that create lasting value for both society and the environment, while contributing to a more sustainable future for generations to come.

 

Sümer Plastik 2020 © All Rights Reserved.