At ZEROCEM, we use analysis based on scientific research and international standards, aligning ourselves with tools such as WELL, FITWEL and RESET to ensure optimal conditions for healthy living and working. We combine advanced simulation, real-time monitoring and digital twins to obtain accurate and up-to-date data on the environment. We work to achieve a more positive balance between:
We monitor air quality to ensure a healthy and safe environment. At ZEROCEM, we understand the importance of clean air for the well-being of occupants and construction personnel. Our air quality monitoring technology measures in real time the presence of polluting particles, volatile organic compounds (VOCs), carbon dioxide (CO₂), carbon monoxide (CO), and other key contaminants that can affect health and comfort. This constant monitoring allows us to identify potential sources of contamination and make informed decisions to improve ventilation and reduce exposure to harmful agents. In addition, we generate detailed reports that help comply with environmental regulations and air quality standards, ensuring that each project offers a safe, healthy indoor space aligned with the best sustainability practices.
We ensure optimal levels of thermal comfort for occupant well-being and productivity. We know that thermal comfort is key both in the construction processes and in the final use of the space. Our monitoring system evaluates and controls parameters such as temperature, relative humidity and air speed, factors that directly affect people’s comfort and performance. With real-time data, we can adjust HVAC systems to maintain optimal temperature and humidity, avoiding excessive energy consumption and minimizing the project’s carbon footprint. At the end of the process, our detailed reports help the building meet high standards of comfort, efficiency and sustainability, providing its occupants with a pleasant and environmentally friendly space.
We measure and optimize energy consumption for a more efficient and ecological construction. Energy efficiency is fundamental in any sustainable construction project. We carry out continuous monitoring of energy consumption, providing detailed data on the use of electricity, gas and other energy resources at each stage of the project. With this information, we can identify areas of excessive consumption, propose adjustments in real time and optimize the performance of electrical and HVAC systems. In addition, our energy consumption analyses allow for significant improvements that translate into long-term savings and a reduction in the carbon footprint of the construction site. By implementing comprehensive consumption control, we support your project in its transition towards an energy-efficient operation aligned with sustainability objectives.
We monitor emissions to reduce the environmental impact of each project. Our goal is to minimize greenhouse gas and pollutant emissions generated in construction projects. Through advanced monitoring systems, we measure in real time the emissions of CO₂, nitrogen oxides (NO) and other compounds that contribute to climate change and air pollution. Our emissions control systems allow us to assess the environmental impact and develop strategies to reduce the release of harmful gases. In addition, we provide detailed reports that support transparency and compliance with environmental regulations, and offer recommendations to reduce emissions in future phases of the project or in similar operations.
Did you know that in a cost analysis of a service company, 90% corresponds to labor, 7% to real estate, and 3% to operating consumption?
Indoor monitoring is a key process to help create healthy and comfortable spaces, where air quality is a priority. Through tools designed for this purpose and advanced technologies, we measure several key parameters that can impact well-being and productivity in buildings. We can thus ensure the health and performance of occupants by comprehensively controlling air quality by monitoring up to 10 different parameters, including:
Particulate matter can be either solid or liquid, floating in the air and so small that it can be inhaled. It can be of natural origin, such as dust or pollen, or related to human activities, such as vehicle emissions and industrial processes.
In indoor air quality monitoring, we primarily measure the finest fractions:
PM10: Particles smaller than 10 microns, capable of entering the upper respiratory system.
PM2.5: Particles smaller than 2.5 microns, which can penetrate deep into the lungs and reach the bloodstream.
Prolonged exposure to high levels of PM2.5 is associated with respiratory and cardiovascular diseases, while high levels of PM10 can aggravate problems in people with asthma or allergies. Our monitoring system detects variations in particle levels in real time, allowing informed decisions to be made to improve air quality and reduce health risks.
Formaldehyde is a chemical compound widely used in the manufacture of building materials and consumer products such as furniture, particle board, resins, adhesives, and cleaning products. It is a colorless gas with a strong odor, and prolonged or intense exposure can cause irritation to the eyes, nose, and throat, as well as possible chronic effects.
To prevent these risks, we monitor formaldehyde levels indoors. Using high-precision sensors, we detect even the smallest concentrations, since formaldehyde tends to accumulate in closed environments. Our monitoring allows us to keep formaldehyde levels within safe ranges and to take ventilation and cleaning measures to prevent the accumulation of this pollutant.
Volatile organic compounds, known as VOCs, are a wide variety of chemicals that can easily evaporate and be released into the air at normal temperatures. VOCs come from common indoor products such as paints, varnishes, cleaning products, and certain building and decorating materials. Among the most well-known VOCs are benzene, toluene, xylene, and formaldehyde itself.
The presence of VOCs in closed environments can cause irritation and negative effects on the respiratory system and general health, especially when concentrations are high or exposure is prolonged. In addition, VOCs can also contribute to the formation of ground-level ozone, which is harmful to health.
By monitoring VOCs, we can help identify sources of contamination and recommend corrective measures, such as improvements in ventilation or materials used in spaces.
Radon is a radioactive gas belonging to the group of noble gases. It is naturally occurring and comes from the decomposition of uranium in soil and rocks. This gas is colorless, odorless and tasteless, making it undetectable without specialized equipment. When radon seeps from the ground and accumulates in closed spaces, it represents a considerable risk to health, as prolonged exposure is one of the main causes of lung cancer in non-smokers.
In addition to radon, there are other harmful gases that can be found in indoor environments, such as ammonia and ozone. These gases, in high concentrations, can affect the respiratory system and cause long-term health problems. Through our monitoring technology, we detect the presence of radon and other dangerous gases, allowing preventive or corrective measures to be taken to protect building occupants.
Carbon monoxide (CO) is a toxic, colorless, odorless gas produced by the incomplete combustion of materials such as natural gas, coal, and wood. In closed spaces, CO levels can increase due to faulty heating equipment, stoves, furnaces, or poor ventilation systems. Inhaling CO prevents proper oxygen transport in the body, which can cause symptoms such as dizziness, nausea, and even death in high concentrations.
Carbon dioxide (CO₂), on the other hand, is a less dangerous gas in small quantities, but can also affect health and comfort in high concentrations. In poorly ventilated spaces, CO₂ builds up quickly due to human breathing, which can lead to fatigue, headaches, and a reduced ability to concentrate. CO₂ monitoring is especially important in places with high density of people, such as offices and classrooms, to maintain adequate ventilation to ensure a healthy environment.
Our monitoring systems continuously measure CO and CO₂ levels, providing immediate alerts in the event of dangerous or health-impairing concentrations, helping to maintain a safe and healthy environment.
The temperature inside a building directly influences people’s comfort and performance. However, temperature also interacts with air quality, as temperature changes can influence the concentration of certain airborne pollutants and the circulation of air in the space.
Along with temperature, we measure relative humidity and other factors that affect “thermal comfort.” An inappropriate temperature or an environment that is too dry or humid can make a space uncomfortable and even unhealthy. Monitoring these parameters allows heating, ventilation, and air conditioning (HVAC) systems to be adjusted to optimize comfort, improve air circulation, and minimize the buildup of indoor pollutants.
Radiant temperature is the measurement of thermal radiation emitted by surfaces within a space, such as walls, ceilings, windows and floors. Unlike air temperature, which measures the heat of the air itself, radiant temperature reflects the heat emitted by objects or surfaces, which can significantly influence people’s perception of comfort.
In spaces with cold surfaces, such as large windows in winter or poorly insulated exterior walls, radiant temperature can make occupants feel cold, even if the air temperature is adequate. Our radiant temperature monitoring helps identify these variations so that HVAC systems, furniture orientation, or insulation solutions can be adjusted, ensuring uniform and adequate thermal comfort in the space.
Air speed is another crucial factor for indoor thermal comfort. Adequate airflow is essential for ventilation, helping to disperse pollutants and maintain a homogeneous temperature throughout the space. However, too much or too little airflow can affect comfort:
Too much airflow can make people feel cold, even in warm environments.
Too low airflow can cause a feeling of heaviness in the air, reducing effective ventilation and overall comfort.
Thermal sensation is the combination of factors such as air temperature, radiant temperature, humidity and air velocity, which determine how a person perceives the thermal environment in an indoor space. Although two people may experience the same air temperature, the thermal sensation varies depending on the radiant heat of surfaces and the airflow.
Our systems monitor both the thermal sensation and the air speed in real time, allowing ventilation rates and HVAC systems to be adjusted to maintain a constant and adequate flow, adapted to the specific conditions of the space and the needs of the occupants.
At ZEROCEM, we want to help you take care of the health of occupants and reverse the harmful impacts of some building components to maximize the performance of your company, and remember: Sustainable buildings for healthy people.
