Sustainable Technology: Transforming Your Company for the Future

As awareness of climate change and the need to preserve the environment continue to grow, sustainable technology emerges as a transformative force toward a greener future.

According to Gartner, it is expected that by 2025, 50% of IT directors will have sustainability metrics linked to IT organization sustainability, highlighting the increasing importance of this agenda in business strategies.

This article explores the vast field of sustainable technology, its definition, importance, environmental impact, and the role of the Internet of Things (IoT) in monitoring and optimizing resource consumption with real-world cases.

What is Sustainable Technology?

Sustainable technology is an innovation aimed at minimizing negative environmental impacts, promoting energy efficiency, and reducing the consumption of natural resources. It responds to growing concerns about climate change, pollution, resource depletion, and biodiversity loss.

According to Gartner, this perspective goes beyond mere sustainability in IT’s internal operations, defining sustainable technology as a “model of digital solutions that can empower environmental, social, and governance (ESG) outcomes for the company and its customers.”

This holistic approach recognizes the broader impact technology can have on the world, moving beyond operational efficiency to promote a more sustainable and equitable future.

The Importance of Sustainable Technology and Its Impact on the Environment

The acceleration of sustainable technology is an urgent demand to protect our planet. It plays a crucial role in reducing ecological footprint, conserving natural resources, combating pollution, and minimizing greenhouse gas emissions. Without it, achieving the global sustainability goals set in the Paris Agreement and the United Nations Sustainable Development Goals would be challenging.

Significant environmental impacts include:

• Reducing air and water pollution.
• Decreasing energy consumption.
• Minimizing soil degradation.
• Conserving water and forest resources.
• Increasing recycling and material reuse.

Types of Sustainable Technology

Various types of sustainable technology can be applied in different aspects of a company’s operations to promote sustainability. Examples include:

Renewable Energies:

Adopting clean energy sources such as solar, wind, hydro, and geothermal to reduce carbon emissions and dependence on fossil fuels.

Energy Efficiency:

Technologies reducing energy consumption, like LED lighting, energy management systems, and thermal insulation, are essential for cost and environmental impact reduction.

Sustainable Mobility:

Electric vehicles, electric bikes, and car-sharing solutions contribute to reducing carbon emissions in transportation.

Waste Management:

Advanced recycling and composting technologies, along with waste management process automation, help minimize waste.

Sustainable Construction Technologies:

Involves using eco-friendly construction materials, efficient heating and cooling systems, and waste-minimizing construction techniques.

Sustainable Agricultural Technology:

Includes automation in farming, sensor use for crop monitoring, and low-impact cultivation techniques.

Blockchain for Traceability:

Utilizing blockchain technology to trace the origin of products, ensuring their authenticity and sustainability.

According to Amlurb (Municipal Authority of Urban Cleaning of the City of São Paulo), 18 thousand tons of waste are produced daily in São Paulo. The materials and waste management platform, GreenPlat, based on Blockchain-as-a-Service, provides real-time data and transparency to the materials supply chain, the production process, and the disposal chain.

The use of the platform has brought transparency to the waste path, empowering public authorities to monitor, audit, and penalize those who violate environmental laws. Through the platform, it has already been possible to register more than 690 thousand waste-generating companies and 742 companies transporting them.

Artificial Intelligence (AI) Technology:

AI can be used to optimize processes, identify resource-saving opportunities, and assist in making sustainable decisions.

For instance, an efficient irrigation management platform, Kilimo, relies on the use of artificial intelligence and data analytics to analyze and provide yield and quality results with fewer resources.

In just the year 2022, the platform reduced 72 billion liters of water, equivalent to 2 months of the entire population’s consumption in the city of Santiago, Chile.

Real-life Example of Sustainable Technology Application

To illustrate more concretely, an example of a company utilizing Artificial Intelligence (AI) to promote sustainability is Google.

Google leverages AI to optimize the operation of its data centers and reduce energy consumption. The company employs machine learning algorithms to analyze a substantial amount of real-time operational data. This enables data centers to automatically adjust their operations based on environmental conditions, energy demand, and various other factors.

Furthermore, Google also utilizes AI to forecast and plan the energy demand of its data centers in advance. This not only helps reduce operational costs but also allows the company to harness renewable energy sources, such as wind and solar power, when they are more abundant.

As a result of these efforts, Google has significantly diminished its carbon footprint and made its data center operations more sustainable. The company is committed to achieving 100% renewable energy for its data center operations and is on track to accomplish this goal, largely due to the implementation of AI.

Utilizing Internet of Things (IoT) to Monitor and Optimize Resource Consumption

The Internet of Things (IoT) has become a powerful ally in the quest for intelligent solutions. It plays a central role in this revolution, empowering the monitoring and optimization of resource consumption in an innovative and effective manner.

IoT transforms everyday objects into connected entities equipped with sensors and smart devices that collect real-time data. This data, in turn, feeds into control systems that enable adjustments, optimizations, and ultimately, the reduction of essential resource consumption, such as energy, water, waste, and more.

Below, we outline some contexts of how companies can employ IoT to embrace sustainable technology:

Energy Management:

Connected sensors on devices like lighting, heating, ventilation, air conditioning (HVAC), and industrial equipment enable real-time data collection of energy consumption. This allows for energy use optimization by identifying consumption patterns and automatically adjusting settings to reduce energy waste.

Smart Agriculture:

In agriculture, IoT sensors are used to monitor soil, weather conditions, and plants. This enables precise irrigation and efficient use of fertilizers, minimizing the consumption of water and chemicals.

Waste Management

IoT-connected waste containers can indicate when they are full, optimizing waste collection operations and reducing fuel consumption and carbon emissions. Data shows that 77% of companies in Latin America are already using data analytics to increase transparency in their carbon footprint.

Sustainable Mobility:

Vehicles connected to IoT can be used to optimize traffic, reduce congestion, and improve public transportation flow, saving fuel and reducing pollutant emissions.

Smart Buildings:

Buildings connected to IoT can automatically adjust lighting, heating, and cooling systems based on occupancy and environmental conditions, saving energy.

Industrial Asset Management:

IoT is used to monitor the performance of machines and industrial equipment, identifying issues before failures occur, reducing resource waste, and saving maintenance costs.

Enel Success Case: IoT for Energy Efficiency

Enel, an electric power company, aims for innovation and sustainability to ensure maximum efficiency in plant performance and the overall well-being of the involved communities. To achieve this, Enel Green Power has implemented an IoT sensor network in its electric power distribution infrastructure across various countries, including Italy and Spain. These sensors are connected to a real-time data analytics platform, enabling the company to monitor and optimize energy distribution more efficiently.

Some of the real benefits that have already been realized include:

1. Energy Leak Detection: IoT is used to detect energy leaks in distribution networks. When a leak occurs, sensors send real-time alerts, allowing Enel to act promptly to correct the problem. This reduces energy loss and saves resources.
2. Improved Network Reliability: Enel uses sensors to monitor the state of the electrical network. This helps predict faults and interruptions, enabling proactive maintenance and thereby improving the reliability of energy supply to consumers.
3. Renewable Energy Integration: With IoT, Enel can easily integrate energy from renewable sources, such as solar and wind, into its network. This enables the optimization of clean energy use, reducing carbon emissions.
4. Cost Savings: The company reports significant cost savings as a result of network optimization and more efficient issue detection.
5. Environmental Sustainability: By optimizing energy distribution and incorporating clean energy sources, Enel contributes to reducing carbon emissions and promotes sustainable practices in the energy sector.

According to Enel’s CEO, Francesco Starace, the goal is aggressive and sustainability-focused: “We aim to achieve carbon neutrality by 2050 and contribute to containing the global temperature increase to 2 degrees. Enel will continue to leverage the most advanced technologies to accelerate the decarbonization process, improve infrastructure, and promote efficiency because being sustainable today means being competitive tomorrow.

Innovations in Sustainable Industrial Processes

One of the pillars of the transition to a more sustainable economy is the continuous innovation in industrial processes. Companies worldwide are exploring new approaches and technologies to reduce the environmental impact of their operations. This includes the implementation of advanced recycling systems, where discarded products are transformed into valuable resources, minimizing the need for virgin raw materials.

Furthermore, additive manufacturing and 3D printing are revolutionizing how parts are produced, reducing material waste. Real-time monitoring of industrial processes through sensors and IoT allows for immediate adjustments to optimize efficiency and minimize waste.

These innovations not only contribute to more environmentally responsible practices but also drive efficiency, saving resources and costs, making them an essential component on the path toward a truly sustainable industrial future.

Sustainable Technology Driving ESG

Sustainable technology is a crucial component of ESG (Environmental, Social, and Governance) strategies, assisting companies in achieving their environmental responsibility goals. Many practices and innovations in sustainable technologies align with ESG expectations.

Studies indicate that companies giving equal attention to technology and sustainability are more likely to emerge as industry leaders. For leadership, the recommendation is to focus on technological solutions as ESG principles. Sustainable technology not only helps companies fulfill their ESG commitments but also drives innovation and competitiveness as businesses strive to meet the growing demands for environmental, social, and governance responsibility. It plays a fundamental role in transforming companies into more sustainable and ethical organizations.

Outlook for Sustainable Technology

The forecast is that sustainable technologies will encompass both established ones and cutting-edge technologies on the horizon. Based on everything covered in this text, we can conclude that some trends are crucial for your business:

Cloud Services

Cloud services present an opportunity to achieve sustainability benefits across economic, environmental, and social systems. The elasticity of cloud service models empowers organizations to adopt a more efficient approach, enabling them to use resources according to their specific needs.

This, in turn, promotes greater use of shared resources and contributes to the reduction of environmental impacts. By adopting this technology, companies can optimize their operations, minimizing resource waste while meeting the increasing demands for more sustainable business practices.

Artificial Intelligence:

The application of artificial intelligence offers the ability to optimize complex operations and processes, resulting in a reduction in environmental footprint and carbon emissions, as well as mitigating material risks.

AI can be a force in environmental sustainability, with the adoption of techniques prioritizing the creation and execution of models with the lowest carbon footprint without compromising accuracy. This enables a crucial balance between efficiency and environmental responsibility, demonstrating how AI can play a fundamental role in pursuing more sustainable practices.

Greenhouse Gas Management Software: (h3)

Greenhouse gas management software represents an essential tool for facilitating the collection, analysis, and reporting of data related to past, present, and future emissions across all three scopes (direct, indirect, and unspecified emissions). These solutions play a fundamental role in fulfilling environmental accountability obligations, providing valuable insights to drive actions aimed at improving emission performance.

Moreover, they play a critical role in planning, forecasting, and optimizing the portfolio of initiatives, allowing companies to more effectively manage their greenhouse gas emissions.

If you need support in identifying opportunities and even developing sustainable technological solutions that boost your company’s ESG, count on Objective to be your partner in this journey. Talk to our experts.