This blog post comprehensively covers the thermal imaging technologies that are revolutionizing industrial applications. It covers a wide range of topics, from the fundamental principles of thermal imaging to its various applications, from device selection criteria to increased productivity. It also examines its role in security applications, essential equipment, and tips for achieving successful results. It also assesses the future potential of thermal imaging and offers application recommendations. It highlights how this technology can improve business efficiency and safety, highlighting the importance of thermal imaging in industrial processes.

A Brief Introduction to Thermal Imaging Technologies

Thermal imagingThermal imaging is the process of creating visible images by detecting the heat emitted by objects. This technology plays a critical role in various industrial and security applications by revealing temperature differences invisible to the naked eye. Essentially, every object emits infrared radiation depending on its temperature, and thermal cameras capture this radiation to create a thermogram showing the temperature distribution.

Thermal imaging technology has undergone significant advancements in recent years. Initially developed for military purposes, this technology is now widely used in many areas, including industrial maintenance, energy auditing, medical diagnostics, and security. Its advantages, particularly in early detection of faults and the detection of energy losses, help businesses increase efficiency and reduce costs.

Advantages of Thermal Imaging Technologies
• It provides a safe examination by offering non-contact measurement.
• It offers the ability to measure over a wide temperature range.
• It provides fast and accurate results and saves time.
• It enables early diagnosis of hidden faults and problems.
• It plays an important role in the detection and optimization of energy losses.
• It improves the quality of production processes and minimizes errors.

In the table below, you can compare the main features and areas of use of different thermal imaging technologies:

Technology	Working Principle	Advantages	Disadvantages
Cooled Thermal Cameras	Sensitivity increase by cooling infrared detectors	High sensitivity, clear images	Higher cost, more complex structure
Uncooled Thermal Cameras	Infrared detectors operating at ambient temperature	Lower cost, simpler use	Lower sensitivity, less clarity
Radiometric Cameras	Ability to measure temperature for each pixel	Accurate temperature values, detailed analysis possibilities	Higher processing power requirement
Thermal Drones	Integrating thermal cameras onto drones	Fast scanning of large areas, access to hard-to-reach places	Can be affected by weather conditions, battery life limitation

The future of thermal imaging looks even brighter thanks to its integration with artificial intelligence and machine learning. This will allow thermal cameras to not only measure temperature but also automatically detect faults and even predict future problems. These advancements will Thermal Imaging technology will further increase its importance in industrial applications.

Basic Principles of Thermal Imaging

Thermal imagingThermal imaging is a technology that visualizes heat distributions without the presence of visible light by detecting infrared radiation emitted by objects. This technology plays a critical role in identifying potential problems or anomalies by detecting temperature differences. Thermal imaging has a wide range of applications, from energy audits and medical diagnostics to search and rescue operations and industrial maintenance. Understanding its fundamental principles is crucial for ensuring effective use of this technology.

Thermal cameras work by collecting infrared radiation and converting it into electrical signals. These signals are then processed to create a thermogram representing the surface temperature of an object. Thermograms display different temperatures in different colors, allowing users to quickly visualize temperature distributions. This process can be used for a variety of purposes, including improving energy efficiency, preventing equipment failures, and ensuring safety.

Working Principle of Thermal Cameras

Thermal cameras operate by detecting light in the infrared spectrum. Every object emits infrared radiation based on its temperature. Thermal cameras detect this radiation, determine the surface temperature of objects, and convert it into a viewable format. The sensors used in this process can generally be cooled or uncooled. Cooled sensors offer higher sensitivity, while uncooled sensors require less maintenance and are more economical.

The basic components of thermal cameras include lenses, sensors, and image processing units. Lenses focus infrared radiation onto the sensor. Sensors convert this radiation into electrical signals. Image processing units process these signals to create the thermal image. The table below summarizes the basic components and functions of thermal cameras:

Component	Function	Features
Lens	Focuses infrared radiation	Germanium, silicon or special optical materials
Sensor	Converts radiation into electrical signals	Can be chilled or non-chilled
Image Processing Unit	Processes signals and creates thermal image	High-speed processors, specialized software
Screen	Presents thermal image visually	LCD, LED or OLED technologies

The sensitivity of thermal cameras, NETD (Noise Equivalent Temperature Difference) A lower NETD value means the camera can detect smaller temperature differences. This is especially critical in applications where fine detail is important.

Thermal imaging These principles, which form the basis of thermal imaging technology, are critical to a variety of industrial applications. Proper understanding and application of these principles will ensure optimal utilization of the benefits thermal imaging offers.

Analysis and Interpretation of Images

Correctly analyzing and interpreting thermal images enhances the value of the data obtained. Thermograms display temperature distributions using different colors or tones. Generally, hot areas correspond to brighter or warmer colors (red, yellow), while cold areas correspond to darker or cooler colors (blue, purple). However, correctly adjusting and scaling the color palette is crucial for accurate interpretation.

Some factors to consider when analyzing thermal images are:

1. Emissivity: The ability of objects' surfaces to emit infrared radiation. Different materials have different emissivity values, and these values must be adjusted accurately.
2. Reflection: Shiny or metallic surfaces can reflect the temperature of surrounding objects, which can lead to inaccurate temperature readings.
3. Ambient Temperature: It can affect thermal camera measurements. Taking ambient temperature into account will yield more accurate results.
4. Angle of View: Looking at the surface being measured at a right angle minimizes reflections and inaccurate measurements.

The following steps can be followed for correct analysis and interpretation:

1. Examine the overall appearance of the thermal image and identify significant temperature differences.
2. Check the color palette and scale to ensure the temperature range is set correctly.
3. Correct the measurements by taking into account factors such as emissivity, reflectance, and ambient temperature.
4. If necessary, take additional thermal images from different viewing angles.

A professional Thermal Imaging By considering these factors, a thermal imaging specialist can achieve more accurate and reliable results. Furthermore, thermal imaging software simplifies image analysis and reporting processes and allows for more detailed analysis.

Areas of Use of Thermal Imaging Technologies

Thermal imaging These technologies are now finding their place in a wide variety of sectors and applications. Used across a wide range of industries, from energy production and healthcare to security and construction, these technologies detect the heat emitted by objects and living things and convert it into visible images. This allows us to easily identify problems and situations that are difficult or impossible to detect using traditional methods.

Sector	Application Area	Benefits
Energy	Inspection of electrical panels and transformer centers	Detection of overheated components, prevention of malfunctions
Building	Determination of heat losses in buildings	Increasing energy efficiency, eliminating insulation problems
Health	Detection of body temperature abnormalities	Early diagnosis and disease monitoring
Security	Border security and search and rescue efforts	Detection of people and animals at night or in bad weather conditions

The Importance of Thermal Imaging in Industrial Applications

• Troubleshooting and Prevention: Preventing unplanned downtime by early detection of potential equipment failures.
• Quality control: Increasing product quality by identifying errors and inconsistencies in production processes.
• Energy Efficiency: Optimizing energy consumption by detecting heat losses and energy leaks.
• Process Monitoring: Ensuring efficiency and safety by monitoring industrial processes in real time.
• Security Applications: Increasing occupational safety by remotely detecting hazardous materials and overheating equipment.

Another common use of this technology is in the automotive industry. It is used in many areas, such as examining vehicle engine and exhaust systems, evaluating brake system performance, and detecting faults in air conditioning systems. Thermal Imaging These technologies also play a significant role in critical applications such as inspecting aircraft engines and airframe structures in the aviation industry and evaluating the performance of military vehicles and equipment in the defense industry.

Thermal Imaging It's worth noting that technologies are increasingly being used in the agricultural sector. Applications such as monitoring plant health, assessing the efficiency of irrigation systems, and controlling crop storage conditions contribute to increased agricultural productivity and more sustainable resource use. This versatile technology will continue to make a name for itself with new applications in various sectors in the future.

Selection Criteria for Thermal Imaging Devices

Thermal imaging Device selection is critical for determining the right device for the application's needs and expectations. This process requires consideration of many factors, including resolution, thermal sensitivity, measurement range, lens options, and software features. Choosing the right device directly impacts the accuracy and reliability of the data obtained, resulting in more effective results in a variety of areas, from fault detection to energy efficiency analysis.

Thermal cameras offered by different brands and models on the market offer a variety of features and price ranges. This diversity allows users to find the device that best suits their needs, but it can also complicate the decision-making process. Therefore, when choosing a thermal camera, it's important to first determine the specific requirements of the application and then evaluate devices with the technical specifications to meet those requirements.

Features to Consider When Choosing a Thermal Camera

• Resolution: Higher resolution provides more detailed and clear thermal images.
• Thermal Sensitivity (NETD): A lower NETD value means the ability to detect smaller temperature differences.
• Temperature Measurement Range: A device that covers the temperature range required by the application should be selected.
• Lens Options: Different lenses provide different viewing angles and focal lengths. Choosing the right lens for your application is important.
• Software Features: Software that includes features such as image analysis, reporting and data transfer increases ease of use and efficiency.
• IP Rating: Devices with appropriate IP ratings should be preferred for resistance to harsh working conditions (water, dust, etc.).

TRUE Thermal Imaging Choosing a device isn't just about meeting technical specifications; factors like ease of use, durability, and service support should also be considered. A device with a user-friendly interface, robust construction, and a reliable service network will be a better investment in the long run. Furthermore, the frequency and cost of calibration are also important factors to consider.

Thermal Camera Selection Criteria and Effects

Criterion	Importance	Possible Effects
Resolution	High-detail imaging	Clearer fault detection, accurate temperature measurements
Thermal Sensitivity (NETD)	Detecting small temperature differences	Identifying potential problems at an early stage
Temperature Measurement Range	Meeting application requirements	Accurate and reliable data collection
Lens Options	Different viewing angles and focal lengths	Effectively display objects near or far

Increased Productivity with Thermal Imaging

Thermal imaging Thermal imaging technology has become a critical tool for improving efficiency in industrial processes. By detecting invisible temperature differences, it allows for early detection of potential problems. This can prevent unplanned downtime, reduce energy losses, and significantly increase overall operational efficiency. Thermal cameras are used in a wide range of applications, from production lines to energy distribution systems, helping businesses gain a competitive advantage.

Ways to Increase Productivity

1. Early Fault Detection: Preventing major problems by detecting equipment failures before they begin.
2. Detection of Energy Leaks: Increasing energy efficiency by identifying insulation problems and heat losses.
3. Optimization of Production Processes: Making production processes more efficient by analyzing heat distribution.
4. Quality control: To increase quality standards by detecting temperature differences in products.
5. Reducing Maintenance Costs: Optimizing maintenance processes and reducing costs through regular thermal inspections.

Thermal imaging helps businesses not only in fault detection but also proactive care It also helps develop strategies. Regular thermal inspections provide detailed information about equipment status and allow for optimization of maintenance schedules. This approach minimizes losses from unplanned downtime and extends equipment lifespan, providing long-term cost advantages. It also contributes to environmental sustainability by improving energy efficiency.

Industry	Application Area	Increased Productivity
Energy Production	Transformer and switchyard inspection	%15 – %20 enerji tasarrufu
Production	Engine and equipment maintenance	%25 – %30 arıza önleme
Building	Insulation inspection	%10 – %15 ısı kaybı azaltma
Food	Cold chain monitoring	%5 – %10 ürün kaybı azaltma

Thermal Imaging Thermal imaging technology is an indispensable tool for industrial businesses. It significantly increases productivity with benefits in many areas, such as early fault detection, energy efficiency, production optimization, and reduced maintenance costs. Investing in thermal imaging technologies is crucial for businesses to maintain their competitiveness and achieve sustainable growth. Thermal cameras are not only a fault detection tool, they are also a strategic investment should be evaluated as.

Thermal Imaging and Security Applications

Thermal imaging Technology has revolutionized the security industry. Where traditional security systems fall short, thermal cameras can identify potential threats early. This technology is particularly advantageous in environments where night vision is poor or nonexistent. For example, thermal imaging systems play a vital role in border security, industrial facilities, and the protection of critical infrastructure.

Thermal cameras create images by detecting the heat emitted by objects. In this way, in the dark or in foggy weather It's possible to see people, vehicles, and other objects clearly, even in the dark. Thermal imaging systems are also used in fire detection systems. By detecting fires in their early stages, they help prevent major disasters.

Comparison of Thermal Imaging Systems in Security Applications

Application Area	Traditional Methods	Thermal Imaging
Border Security	Patrol, Wire Fences	Thermal Cameras, Remote Monitoring
Industrial Facility Security	Security Guards, CCTV	Perimeter Security Systems, Anomaly Detection
Fire Detection	Smoke Detectors	Heat Detection, Early Warning Systems
Search and Rescue	Image Search	Heat Signature Detection, Missing Person Finding

Thermal imaging Security applications of technology aren't limited to detection and prevention. They also play a crucial role in post-incident analysis. For example, using thermal cameras at a crime scene can identify heat signatures, and this information can be used during the investigation process.

Applications in the Field of Security
• Border security and combating smuggling
• Protection of industrial facilities and power plants
• Airport and port security
• Prison security
• Search and rescue operations
• Fire detection and prevention

The effectiveness of thermal imaging in security depends on the correct equipment selection and proper installation. Regular system maintenance and updates are also critical to maintaining performance.

Security System Recommendations

In security systems Thermal Imaging To optimize its use, a risk analysis should be conducted first. The most appropriate approach is to identify areas at highest risk and then place thermal cameras in these areas. Furthermore, integrating thermal cameras with other security systems provides a more comprehensive security solution.

Thermal imaging technology has become an essential part of modern security systems. When implemented correctly, it offers unparalleled capabilities for early detection and prevention of potential threats.

The staff Thermal Imaging Training on thermal imaging systems is also important. Proper use and maintenance knowledge extends system life and improves performance. This allows the full potential of thermal imaging in security applications to be utilized.

Equipment Required for Thermal Imaging

Thermal imaging Having the right equipment is crucial for the effective use of thermal imaging technology. This equipment covers a wide range of areas, from thermal cameras to analysis software, and selecting the right one is crucial to the success of the application. In this section, we will examine in detail the basic equipment used in thermal imaging applications and the factors to consider when selecting this equipment.

Thermal cameras form the basis of thermal imaging systems. These cameras detect infrared radiation emitted from objects to display temperature differences. Camera specifications, such as resolution, sensitivity, lens options, and temperature range, should be carefully selected based on the application's requirements. For example, a high-resolution camera will be more effective at detecting small temperature differences.

Equipment Name	Explanation	Areas of Use
Thermal Camera	It creates temperature maps by detecting infrared radiation.	Industrial maintenance, building inspection, medical diagnostics.
Calibration Devices	Used to ensure the accuracy of thermal cameras.	Laboratories, quality control processes.
Analysis Software	Creates reports by analyzing thermal images.	Energy audit, fault detection, research and development.
Protective Equipment	Protects cameras and operators from harsh conditions.	Outdoor applications, hazardous environments.

After selecting the right thermal camera, appropriate analysis software is needed to accurately interpret the data obtained. This software processes thermal images to generate temperature profiles, analyze heat distributions, and generate reports. Furthermore, regular calibration of thermal cameras is crucial to ensure accuracy. Calibration devices verify the camera's response at specific temperatures and correct for any deviations.

Essential Equipment and Tools
1. Thermal Camera (Resolution and Sensitivity Selection is Important)
2. Analysis Software (Reporting and Data Processing Capabilities)
3. Calibration Device (For Accurate Measurements)
4. Carrying Bag and Protective Case (For Equipment Safety)
5. Tripods and Stabilizers (For Balanced Images)
6. Extra Battery and Charger (For Uninterrupted Use)

Transporting and protecting thermal imaging equipment is also important. Especially in field applications, appropriate carrying cases and protective cases should be used to safely transport cameras and other devices. Additionally, waterproof or shock-resistant housings may be necessary to protect cameras when operating in harsh weather conditions. All of this equipment combined: Thermal Imaging technology's potential can be utilized to the fullest.

Successful Thermal Imaging Tips for

Thermal imaging There are some important points to consider in order to fully benefit from the advantages offered by technology and to obtain accurate results. Thermal Imaging The process is closely related to the selection of the correct equipment, as well as application techniques and analysis methods. In this section, Thermal Imaging We will touch on practical tips that will increase the success of your applications.

Choosing the right equipment, Thermal Imaging It's one of the most critical steps in the process. Choosing a thermal camera suitable for your application and the temperature range you want to measure directly impacts the accuracy of the data you obtain. A high-resolution camera provides more detailed images, while a device with a wide temperature range offers flexibility of use in different scenarios. Furthermore, the camera's features (e.g., autofocus, different lens options) are also important for ease of use and the quality of the results.

Clue	Explanation	Importance
Choosing the Right Equipment	Selecting a thermal camera appropriate to the application area.	High
Environmental Factors	Minimizing external factors such as sunlight and wind.	High
Correct Angle and Distance	Taking measurements from the appropriate angle and distance to the target.	Middle
Calibration	Regularly calibrate the thermal camera.	High

Thermal imaging It's also crucial to consider environmental factors when performing measurements. External factors such as sunlight, wind, and humidity can distort measurements and lead to inaccurate results. Especially in outdoor applications, it's important to take precautions to minimize the impact of these factors (e.g., shading and windbreaks). In indoor applications, it's important to ensure stable ambient temperature and humidity.

Things to Consider During Application

1. Equipment Calibration: Make sure your thermal camera is calibrated regularly.
2. Correct Emissivity Setting: Correctly set the emissivity value of the material under investigation.
3. Environmental Factors: Reduce the impact of environmental factors such as sunlight and wind.
4. Suitable Distance: Stand at an appropriate distance from the object to be measured.
5. Angle Adjustment: Take care to measure at a right angle to the surface.
6. Experienced User: If possible, imaging should be done by an experienced operator.

Accurately analyzing the resulting thermal images is critical to obtaining meaningful results. The software that comes with thermal cameras offers a variety of tools for analyzing images, examining temperature distributions, and identifying potential problems. Using these tools effectively, Thermal Imaging It increases the value of the application and helps to make the right decisions.

The Future of Thermal Imaging

Thermal imaging Technology is poised to advance much further than it has reached today. The integration of artificial intelligence (AI) and machine learning (ML) algorithms will enhance the analysis capabilities of thermal cameras, enabling more accurate and faster results. This could lead to revolutionary advances in many areas, from industrial fault diagnosis to medical diagnostics.

Technology	Expected Developments	Possible Application Areas
Artificial Intelligence (AI)	Automatic anomaly detection, advanced analysis	Energy efficiency, smart cities
Machine Learning (ML)	Pattern recognition, prediction	Predictive maintenance, process optimization
Image Processing	High resolution, detailed analysis	Defense industry, security systems
Sensor Technologies	Smaller, more sensitive sensors	Healthcare, wearable technologies

Advances in nanotechnology and materials science will reduce the size of thermal sensors while increasing their sensitivity. This will facilitate the widespread use of portable and wearable thermal imaging devices. In the healthcare sector, in particular, wearable sensors that continuously monitor patients' body temperatures and enable early diagnosis will be of great interest.

Future Trends and Expectations

• High Resolution Sensors: More detailed and clear thermal images.
• Wireless Connectivity and IoT Integration: Sharing and analyzing data in real time.
• Autonomous Systems: Scanning large areas through integration with drones and robots.
• Advanced Analytical Software: Fault diagnosis and risk assessment with artificial intelligence-supported analysis.
• Cloud Based Solutions: Secure storage of data and increasing its accessibility.
• Wearable Thermal Sensors: Health monitoring and personal safety applications.

Thermal imaging The future of technology will not only be limited to technical advancements, but will also bring with it significant discussions on ethics and security. Issues such as protecting personal data, ensuring privacy, and preventing misuse of technology will play a critical role in determining future regulations and standards. In this context, Thermal Imaging It is of great importance that technology is used responsibly and ethically.

Thermal Imaging Supporting technology with training and certification programs will increase the number of professionals specialized in this field and ensure the correct and effective use of technology. In this way, Thermal Imaging Technology will become an integral part of our lives, becoming more widespread in many areas, from industrial applications to healthcare, from security to energy efficiency.

Conclusion and Application Recommendations

In this article, Thermal Imaging We've thoroughly explored the industrial applications and potential of thermal imaging technologies. Thermal imaging offers significant benefits to businesses across a wide range of areas, from energy efficiency and security to manufacturing processes and fault detection. With the right equipment selection, appropriate application strategies, and regular analysis, the benefits of thermal imaging can be maximized. It's crucial for businesses to evaluate thermal imaging technologies to enhance their competitiveness and achieve operational excellence.

Application Area	Recommended Action	Expected Benefit
Energy Audit	Thermal analysis of buildings and equipment	Detection of energy losses and cost savings
Machine Maintenance	Periodic thermal inspections	Early detection of faults and prevention of unplanned downtime
Electrical Systems	Control of panels and connection points	Reducing the risk of fire caused by overheating
Production Processes	Quality control and process optimization	Reducing defective products and increasing efficiency

There are several key points to consider for the successful implementation of thermal imaging technologies. First, select the appropriate thermal camera for the application's purpose. Next, expert personnel should be assigned to take accurate measurements and conduct analyses. Regularly reporting the data obtained and integrating it into improvement efforts will support continuous improvement. Furthermore, adhering to safety protocols and performing regular equipment maintenance are also crucial.

Step by Step Guide for Implementation

1. Determine your needs and choose the appropriate thermal camera model.
2. Train your staff in thermal imaging or seek expert support.
3. Identify areas of application and create a plan.
4. Conduct regular thermal surveys and record data.
5. Analyze the data obtained and identify opportunities for improvement.
6. Implement improvement efforts and track results.
7. Follow safety protocols and maintain equipment regularly.

Thermal Imaging Thermal imaging technologies are a valuable tool for industrial businesses. When implemented correctly, they can deliver significant benefits such as energy savings, cost reductions, increased safety, and increased productivity. Businesses embracing and effectively utilizing this technology will help them gain a competitive advantage. It's important to remember that thermal imaging is just one tool; the key to success is correctly interpreting the data and taking appropriate action.

Frequently Asked Questions

What exactly is thermal imaging technology and how does it differ from traditional cameras?

Thermal imaging creates heat maps by detecting infrared radiation emitted by objects. While traditional cameras use visible light, thermal cameras reveal temperature differences even in the dark or behind obstructions like smoke. This allows them to detect faults, identify energy losses, and detect security threats.

In which sectors are thermal cameras more widely used and why are they important for these sectors?

Thermal cameras are widely used in various sectors, including construction, electrical, mechanical, medical, automotive, and security. For example, in the construction industry, they are used to detect insulation problems, in the electrical industry to identify overheated connections, and in the medical field to detect body temperature abnormalities. They are important in these sectors because they reduce the risk of malfunctions, increase energy efficiency, and improve safety measures.

What should I consider when choosing a thermal imaging device? What do factors like resolution and temperature range mean?

When choosing a thermal imaging device, it's important to consider factors such as resolution, temperature range, thermal sensitivity, imaging frequency, lens options, and portability. Resolution determines image clarity, while temperature range refers to the temperature range that can be measured. Thermal sensitivity indicates the smallest temperature difference the device can detect. These features should be evaluated based on your application and measurement accuracy requirements.

How can thermal imaging increase productivity in industrial environments? Can you explain with examples?

In industrial environments, thermal imaging reduces unplanned downtime by detecting equipment failures early. For example, early detection of overheating in an electric motor can prevent complete motor failure and production line shutdowns. It also identifies energy losses, improving energy efficiency and optimizing maintenance costs. For example, identifying insulation problems in a pipeline can save energy by reducing heat loss.

How are thermal imaging systems used in security? What advantages do they offer at airports or border security?

Thermal imaging systems are used in security settings to identify people and objects in the dark or in adverse weather conditions. In airports and border security, they are an effective solution for detecting suspicious activity, apprehending fugitives, and preventing unauthorized entry. They can also prevent loss of life and property by detecting fires early.

What additional equipment might be needed to perform thermal imaging? What are the software and hardware requirements?

A thermal camera is generally sufficient for thermal imaging. However, more detailed analysis may require specialized software and reporting tools. Additionally, additional equipment such as tripods, zoom lenses, and calibration devices may be useful for some applications. Software requirements are typically provided by the manufacturer and are used to analyze thermal images, measure temperatures, and generate reports.

What should be considered for successful thermal imaging? Can you provide tips on environmental conditions and measurement techniques?

For successful thermal imaging, it's crucial to pay attention to environmental conditions. A suitable environment should be selected to minimize reflections and other heat sources. In terms of measurement techniques, it's crucial to measure from the correct distance and angle, set emissivity values accurately, and regularly check the instrument's calibration. It's also important to remember that different materials have different emissivity values.

What does the future of thermal imaging technology look like? What innovations and developments are expected?

The future of thermal imaging technology looks bright. Thermal cameras integrated with artificial intelligence and machine learning are expected to make fault detection more automated and accurate. Furthermore, the development of smaller, lighter, and more affordable thermal cameras will enable access to a wider user base. Thermal cameras integrated into drones could be more widely used in areas such as search and rescue and industrial inspection.

More information: FLIR Thermal Imaging Technology