Long Range Thermal Camera manufacturer - Soar
Hangzhou Soar Security Technology Co., Ltd. (Soar) stands at the forefront of innovation as a premier manufacturer and exporter of long-range thermal cameras. Specializing in the design, production, and sales of advanced PTZ and zoom cameras, Soar is committed to delivering high-quality surveillance solutions across the globe. Our comprehensive portfolio includes cutting-edge pan cameras, tilt cameras, zoom camera modules, infrared (IR) speed domes, mobile surveillance cameras, and sophisticated multi-sensor PTZ systems.
Our flagship products, such as the Long Range Heavy Duty Thermal PTZ, embody the pinnacle of engineering and design. This dual-spectrum intelligent system integrates a 5T computing power hardware processor, seamlessly optimizing performance across various application scenarios. Among our distinguished offerings, the 150mm Thermal Dual Sensor and the 225mm Thermal Dual Sensor are particularly noteworthy. These models boast exceptional thermal imaging capabilities with resolutions of 640*512, alongside impressive optical zoom functionality that sets new benchmarks in the industry.
At Soar, our strength lies in an innovative R&D ecosystem powered by a skilled team focused on PCB design, optics, and AI algorithms. Trusted by over 150 clients in more than 30 countries, we continue to redefine surveillance capabilities, supporting markets including public security, law enforcement, and homeland security.
Our flagship products, such as the Long Range Heavy Duty Thermal PTZ, embody the pinnacle of engineering and design. This dual-spectrum intelligent system integrates a 5T computing power hardware processor, seamlessly optimizing performance across various application scenarios. Among our distinguished offerings, the 150mm Thermal Dual Sensor and the 225mm Thermal Dual Sensor are particularly noteworthy. These models boast exceptional thermal imaging capabilities with resolutions of 640*512, alongside impressive optical zoom functionality that sets new benchmarks in the industry.
At Soar, our strength lies in an innovative R&D ecosystem powered by a skilled team focused on PCB design, optics, and AI algorithms. Trusted by over 150 clients in more than 30 countries, we continue to redefine surveillance capabilities, supporting markets including public security, law enforcement, and homeland security.
SOAR1050 series
Long Range Heavy Duty Thermal PTZ
SOAR1050-TH6150A92
150mm Thermal Dual Sensor Long Range Heavy Duty PTZ
SOAR1050-TH6225B86
225mm Thermal Dual Sensor Long Range Heavy Duty PTZ
SOAR1050-TH6225R10
10KM LRF Long Range Heavy Duty Thermal PTZ
SOAR1050 series
Long Range Forest Fire Detection PTZ
SOAR1040
Outdoor Motorized Heavy Duty Pan Tilt Mount
What Is Long Range Thermal Camera
Long-range thermal cameras represent a remarkable advancement in imaging technology, leveraging the principles of infrared detection to provide visibility in scenarios where traditional optical devices fail. Unlike conventional cameras that rely on visible light, thermal cameras excel in detecting heat radiation emitted by objects, which allows them to operate effectively in complete darkness or adverse weather conditions. This capability is particularly valuable in applications such as military surveillance, border security, and critical infrastructure protection.
At the core of long-range thermal cameras is the use of specialized sensors that detect mid-wave infrared (MWIR) and long-wave infrared (LWIR) radiation. These sensors, known as Focal Plane Arrays (FPAs), come in two primary types: cooled and uncooled. Cooled thermal cameras utilize a cryogenic cooling system to minimize noise from the camera's own heat, providing an exceptional thermal sensitivity that can detect minute temperature differences as fine as 0.025°C. This heightened sensitivity is crucial for applications requiring precision, such as detecting threats from great distances.
Uncooled thermal cameras, on the other hand, offer a more compact and cost-effective solution. They use vanadium oxide (VOx) detectors and are equipped with wide aperture lenses to enhance their performance. While uncooled systems are inherently less sensitive than their cooled counterparts, they remain effective for various security and surveillance operations.
The effectiveness of thermal imaging also depends heavily on the lenses used. Standard glass lenses are not suitable for thermal cameras as they are opaque to infrared radiation. Instead, lenses made from germanium, a rare and costly metal, are utilized. These lenses are capable of focusing infrared radiation onto the camera's sensor, allowing the device to capture detailed thermal images. For long-range applications, continuous zoom lenses are employed, offering the flexibility to switch between wide-angle and zoomed views seamlessly, enabling detection ranges that can exceed 50 kilometers.
Long-range thermal cameras offer numerous advantages over traditional imaging systems. They do not require any light source to function, making them an invaluable tool for covert operations and 24/7 monitoring. The passive nature of thermal imaging allows for consistent performance regardless of lighting conditions, providing reliable day and night coverage. Furthermore, thermal cameras can see through smoke, light fog, and dust, which is particularly beneficial in situations such as firefighting and search and rescue operations.
These cameras are adept at detecting temperature contrasts, making them highly effective for identifying humans, animals, and vehicles even from vast distances. This capability allows for quick and efficient threat detection, often at ranges that are unattainable with optical imaging systems.
However, like any technology, thermal imaging has its limitations. It cannot see through glass since glass surfaces reflect thermal energy, and it struggles with scenes where temperature differences are minimal, such as identifying individuals or reading printed text. Additionally, thermal cameras typically offer lower spatial resolution than visible light cameras, which might limit the detailed identification of objects.
Despite these challenges, long-range thermal cameras remain an essential component of modern surveillance, offering unparalleled capabilities that complement other imaging technologies. By integrating thermal systems with visible imaging, users can exploit the strengths of both to achieve comprehensive situational awareness across a variety of demanding environments.
Understanding the Technology
At the core of long-range thermal cameras is the use of specialized sensors that detect mid-wave infrared (MWIR) and long-wave infrared (LWIR) radiation. These sensors, known as Focal Plane Arrays (FPAs), come in two primary types: cooled and uncooled. Cooled thermal cameras utilize a cryogenic cooling system to minimize noise from the camera's own heat, providing an exceptional thermal sensitivity that can detect minute temperature differences as fine as 0.025°C. This heightened sensitivity is crucial for applications requiring precision, such as detecting threats from great distances.
Uncooled thermal cameras, on the other hand, offer a more compact and cost-effective solution. They use vanadium oxide (VOx) detectors and are equipped with wide aperture lenses to enhance their performance. While uncooled systems are inherently less sensitive than their cooled counterparts, they remain effective for various security and surveillance operations.
The Role of Lenses
The effectiveness of thermal imaging also depends heavily on the lenses used. Standard glass lenses are not suitable for thermal cameras as they are opaque to infrared radiation. Instead, lenses made from germanium, a rare and costly metal, are utilized. These lenses are capable of focusing infrared radiation onto the camera's sensor, allowing the device to capture detailed thermal images. For long-range applications, continuous zoom lenses are employed, offering the flexibility to switch between wide-angle and zoomed views seamlessly, enabling detection ranges that can exceed 50 kilometers.
Applications and Advantages
Long-range thermal cameras offer numerous advantages over traditional imaging systems. They do not require any light source to function, making them an invaluable tool for covert operations and 24/7 monitoring. The passive nature of thermal imaging allows for consistent performance regardless of lighting conditions, providing reliable day and night coverage. Furthermore, thermal cameras can see through smoke, light fog, and dust, which is particularly beneficial in situations such as firefighting and search and rescue operations.
These cameras are adept at detecting temperature contrasts, making them highly effective for identifying humans, animals, and vehicles even from vast distances. This capability allows for quick and efficient threat detection, often at ranges that are unattainable with optical imaging systems.
Limitations and Considerations
However, like any technology, thermal imaging has its limitations. It cannot see through glass since glass surfaces reflect thermal energy, and it struggles with scenes where temperature differences are minimal, such as identifying individuals or reading printed text. Additionally, thermal cameras typically offer lower spatial resolution than visible light cameras, which might limit the detailed identification of objects.
Despite these challenges, long-range thermal cameras remain an essential component of modern surveillance, offering unparalleled capabilities that complement other imaging technologies. By integrating thermal systems with visible imaging, users can exploit the strengths of both to achieve comprehensive situational awareness across a variety of demanding environments.
FAQ about Long Range Thermal Camera
How far can you see with a thermal camera??
●Understanding Thermal Camera Technology
Thermal cameras, an integral tool in various industries, transform the heat emitted by objects into visible images, allowing users to "see" temperature differences that are invisible to the naked eye. Unlike conventional cameras that capture light, thermal cameras detect infrared radiation, which is emitted by all objects based on their temperatures. This capability has made them invaluable in fields ranging from security and surveillance to search and rescue operations. One crucial aspect of utilizing thermal cameras effectively is understanding the distance over which they can function optimally.
●Factors Influencing Detection Range
The range at which a thermal camera can effectively detect and identify objects depends on several factors. Key among these is the resolution of the camera. A higher resolution camera can provide more detail and clearer images, allowing users to distinguish between objects at greater distances. Additionally, lens quality and focal length play significant roles in determining the operational range. A lens with a longer focal length can capture images from farther away, making it possible to monitor vast areas or detect distant heat sources.
Environmental conditions also significantly influence the performance of thermal cameras. Humidity, fog, rain, and temperature variations can all affect the infrared signals and, consequently, the clarity and range of thermal imaging. For instance, high humidity or fog can scatter infrared radiation, reducing image quality and detection range. Therefore, understanding the specific environmental conditions in which a thermal camera will be used is crucial for optimal performance.
●Utilizing Tilt Camera Technology
Incorporating tilt camera technology into thermal cameras enhances their functionality, particularly in dynamic environments. Tilt cameras allow users to adjust the angle and direction of the camera remotely, providing flexibility and a broader field of view without needing to reposition the entire device physically. This adaptability is especially valuable in surveillance and monitoring tasks, where continuous scanning of large or complex areas is required.
By employing tilt camera features, operators can quickly shift focus from one area to another, efficiently covering more ground and identifying potential issues or targets at extended ranges. This not only saves time but also enhances the accuracy of threat detection and response in security applications.
●Practical Applications and Limitations
In practice, thermal cameras with integrated tilt technology are widely used for perimeter security, where they can detect intruders from significant distances, even in complete darkness. In maritime settings, these cameras help in navigation and obstacle detection, while in the energy sector, they assist in monitoring infrastructure like pipelines and power lines for hotspots indicating potential faults.
However, despite their advantages, thermal cameras have limitations. They cannot see through walls or glass, and their effectiveness can be compromised by extreme weather conditions. Additionally, while tilt functionality provides greater flexibility, it requires skilled operation to interpret the images accurately and make informed decisions.
●Conclusion
Overall, the distance a thermal camera can see is a function of its resolution, lens specifications, environmental conditions, and advanced features like tilt technology. By understanding these factors and how to leverage them, users can maximize the effectiveness of thermal cameras in various applications, ensuring accurate, efficient, and reliable thermal imaging across diverse operational landscapes.
Thermal cameras, an integral tool in various industries, transform the heat emitted by objects into visible images, allowing users to "see" temperature differences that are invisible to the naked eye. Unlike conventional cameras that capture light, thermal cameras detect infrared radiation, which is emitted by all objects based on their temperatures. This capability has made them invaluable in fields ranging from security and surveillance to search and rescue operations. One crucial aspect of utilizing thermal cameras effectively is understanding the distance over which they can function optimally.
●Factors Influencing Detection Range
The range at which a thermal camera can effectively detect and identify objects depends on several factors. Key among these is the resolution of the camera. A higher resolution camera can provide more detail and clearer images, allowing users to distinguish between objects at greater distances. Additionally, lens quality and focal length play significant roles in determining the operational range. A lens with a longer focal length can capture images from farther away, making it possible to monitor vast areas or detect distant heat sources.
Environmental conditions also significantly influence the performance of thermal cameras. Humidity, fog, rain, and temperature variations can all affect the infrared signals and, consequently, the clarity and range of thermal imaging. For instance, high humidity or fog can scatter infrared radiation, reducing image quality and detection range. Therefore, understanding the specific environmental conditions in which a thermal camera will be used is crucial for optimal performance.
●Utilizing Tilt Camera Technology
Incorporating tilt camera technology into thermal cameras enhances their functionality, particularly in dynamic environments. Tilt cameras allow users to adjust the angle and direction of the camera remotely, providing flexibility and a broader field of view without needing to reposition the entire device physically. This adaptability is especially valuable in surveillance and monitoring tasks, where continuous scanning of large or complex areas is required.
By employing tilt camera features, operators can quickly shift focus from one area to another, efficiently covering more ground and identifying potential issues or targets at extended ranges. This not only saves time but also enhances the accuracy of threat detection and response in security applications.
●Practical Applications and Limitations
In practice, thermal cameras with integrated tilt technology are widely used for perimeter security, where they can detect intruders from significant distances, even in complete darkness. In maritime settings, these cameras help in navigation and obstacle detection, while in the energy sector, they assist in monitoring infrastructure like pipelines and power lines for hotspots indicating potential faults.
However, despite their advantages, thermal cameras have limitations. They cannot see through walls or glass, and their effectiveness can be compromised by extreme weather conditions. Additionally, while tilt functionality provides greater flexibility, it requires skilled operation to interpret the images accurately and make informed decisions.
●Conclusion
Overall, the distance a thermal camera can see is a function of its resolution, lens specifications, environmental conditions, and advanced features like tilt technology. By understanding these factors and how to leverage them, users can maximize the effectiveness of thermal cameras in various applications, ensuring accurate, efficient, and reliable thermal imaging across diverse operational landscapes.
What is the best thermal camera for distance??
When it comes to identifying the best thermal camera for distance applications, there are several key factors to consider to ensure accurate and effective temperature measurement from afar. Thermal cameras, equipped with advanced resolution and field of view (FOV) capabilities, can turn intricate tasks into streamlined processes by providing precise imaging even at significant distances. As a professional in the field, understanding these nuances is crucial when selecting the right tool for your needs. Among these precision instruments, the Pan Camera stands out as a premier choice, offering unparalleled features for long-range thermal imaging.
●High Resolution and Field of View
To achieve accurate measurements from a distance, a thermal camera must have a high resolution. This allows for more pixels to be placed on the target, improving the detail and accuracy of the thermal image. A narrow FOV is also essential, as it enhances the camera's ability to magnify distant objects, increasing the number of pixels on the target. The Pan Camera excels in this regard, offering top-tier resolution and a customizable FOV to suit various applications. This flexibility ensures that users can obtain precise readings in scenarios where targets are not easily accessible.
●Essential Pixel Coverage
When measuring temperature from a distance, it is vital to ensure that the target is covered by at least a 3 × 3 pixel area on the camera. This ensures the accuracy of the thermal measurement, preventing distortions or inaccuracies. The Pan Camera is designed with this requirement in mind, featuring advanced technology that guarantees sufficient pixel coverage even at extended ranges. Its sophisticated spot measurement tool aids in verifying that the targeted area is adequately covered, making it an excellent choice for precision-demanding applications.
●Applicability for Various Distance Scenarios
Different applications require varying approaches to thermal imaging. For long-distance tasks such as inspecting high structures from the ground, monitoring power lines, or conducting drone inspections of solar farms, a camera with robust distance capabilities is essential. The Pan Camera is ideally suited for these environments, equipped with telephoto lens options and intuitive software that facilitates long-range measurements. Conversely, for indoor applications or scenarios where proximity to the target is feasible, a less advanced model might suffice, but the Pan Camera's versatility makes it a superior option across all use cases.
●Distance to Size Ratio Considerations
The Distance to Size Ratio (DSR) is a critical factor when performing long-range thermal imaging. It determines how far you can be from a target and still achieve an accurate temperature measurement. The Pan Camera simplifies this calculation with its user-friendly interface, allowing users to easily assess whether their target's size and distance meet the necessary criteria for precise imaging. This feature is particularly useful in environments where safety or practicality limits the ability to approach the target closely.
●Innovative Connectivity and Reporting
In addition to its powerful imaging capabilities, the Pan Camera offers seamless connectivity options for easy data transfer and reporting. With integrated cloud services, users can store, organize, and share thermal images effortlessly. This connectivity is complemented by advanced analysis software that facilitates comprehensive reporting and historical data comparison. The Pan Camera's integration of these cutting-edge technologies ensures that professionals can conduct thorough inspections and produce detailed reports with ease.
In conclusion, the Pan Camera represents the pinnacle of thermal imaging technology for distance applications. Its high resolution, adaptable field of view, and advanced connectivity features make it the ideal choice for professionals seeking precision and reliability in their thermal imaging equipment. By selecting the Pan Camera, users can confidently undertake a wide range of distance measurement tasks, assured of the accuracy and efficiency this sophisticated tool provides.
●High Resolution and Field of View
To achieve accurate measurements from a distance, a thermal camera must have a high resolution. This allows for more pixels to be placed on the target, improving the detail and accuracy of the thermal image. A narrow FOV is also essential, as it enhances the camera's ability to magnify distant objects, increasing the number of pixels on the target. The Pan Camera excels in this regard, offering top-tier resolution and a customizable FOV to suit various applications. This flexibility ensures that users can obtain precise readings in scenarios where targets are not easily accessible.
●Essential Pixel Coverage
When measuring temperature from a distance, it is vital to ensure that the target is covered by at least a 3 × 3 pixel area on the camera. This ensures the accuracy of the thermal measurement, preventing distortions or inaccuracies. The Pan Camera is designed with this requirement in mind, featuring advanced technology that guarantees sufficient pixel coverage even at extended ranges. Its sophisticated spot measurement tool aids in verifying that the targeted area is adequately covered, making it an excellent choice for precision-demanding applications.
●Applicability for Various Distance Scenarios
Different applications require varying approaches to thermal imaging. For long-distance tasks such as inspecting high structures from the ground, monitoring power lines, or conducting drone inspections of solar farms, a camera with robust distance capabilities is essential. The Pan Camera is ideally suited for these environments, equipped with telephoto lens options and intuitive software that facilitates long-range measurements. Conversely, for indoor applications or scenarios where proximity to the target is feasible, a less advanced model might suffice, but the Pan Camera's versatility makes it a superior option across all use cases.
●Distance to Size Ratio Considerations
The Distance to Size Ratio (DSR) is a critical factor when performing long-range thermal imaging. It determines how far you can be from a target and still achieve an accurate temperature measurement. The Pan Camera simplifies this calculation with its user-friendly interface, allowing users to easily assess whether their target's size and distance meet the necessary criteria for precise imaging. This feature is particularly useful in environments where safety or practicality limits the ability to approach the target closely.
●Innovative Connectivity and Reporting
In addition to its powerful imaging capabilities, the Pan Camera offers seamless connectivity options for easy data transfer and reporting. With integrated cloud services, users can store, organize, and share thermal images effortlessly. This connectivity is complemented by advanced analysis software that facilitates comprehensive reporting and historical data comparison. The Pan Camera's integration of these cutting-edge technologies ensures that professionals can conduct thorough inspections and produce detailed reports with ease.
In conclusion, the Pan Camera represents the pinnacle of thermal imaging technology for distance applications. Its high resolution, adaptable field of view, and advanced connectivity features make it the ideal choice for professionals seeking precision and reliability in their thermal imaging equipment. By selecting the Pan Camera, users can confidently undertake a wide range of distance measurement tasks, assured of the accuracy and efficiency this sophisticated tool provides.
Can thermal camera measure distance??
●Understanding the Potential of Thermal Cameras in Distance Measurement
Thermal cameras have long been recognized for their ability to capture heat signatures and provide critical temperature data. However, a less commonly discussed application is their potential to measure distance. This capability, while not inherent to the primary design of thermal cameras, can be explored through a keen understanding of their operational parameters and technological enhancements.
●Key Factors Influencing Thermal Camera Measurements
To comprehend how a thermal camera might measure distance, it's essential to first understand the factors that influence its performance. The resolution of the camera, the instantaneous field of view (IFOV), and the size of the object being measured all play critical roles. Much like an eye test, where the clarity of vision determines the smallest letters one can read from afar, the resolution of a thermal camera dictates the smallest details it can discern at a distance. High-resolution cameras, analogous to having 20/20 vision, provide sharper and more precise images over longer distances.
The spot-size ratio is another vital concept, defined as the distance at which a camera can accurately measure a target of a specific size. This ratio helps determine the effective range of the camera, ensuring accurate temperature readings. For a thermal camera to deliver precise measurements, it must capture a sufficient number of pixels of the target object. As distance increases, the camera's ability to accurately discern temperature diminishes unless the resolution or field of view is optimized.
●Leveraging Technology for Enhanced Distance Measurement
Modern thermal cameras have been equipped with advanced features to enhance their capabilities. One such development is the integration of digital zoom and enhanced optics. While digital zoom itself does not improve the accuracy of measurements, it provides a clearer image for analysis. A more effective approach is to use cameras with narrower fields of view or higher resolutions, ensuring more pixels are focused on the target, even from afar.
For example, if one needs to measure a 20-millimeter object from a significant distance, it is crucial to consider the camera's field of view and pixel resolution. By calculating the IFOV, users can determine the smallest area that the camera can accurately measure from a given distance. By ensuring the target area appears in at least a 3x3 pixel grid, rather than a mere single pixel, users can achieve more reliable temperature readings, mitigating potential inaccuracies caused by pixelation or optical distortions.
●Considerations for Accurate Thermal Measurements
Incorporating a Pan Camera feature can significantly enhance a thermal camera's utility in measuring distances. This feature allows for broader scene surveillance while maintaining focus on specific targets, ensuring that comprehensive thermal data is collected and analyzed efficiently. By dynamically adjusting the field of view, the Pan Camera ensures that no critical details are overlooked, even as the distance from the target fluctuates.
Ultimately, while thermal cameras are not inherently designed to measure distances like specialized rangefinders, they can provide approximate distance-related data when used with an understanding of their specifications and limitations. These insights enable professionals to leverage thermal imaging for a broader range of applications, ensuring effective and accurate data collection in diverse scenarios. As technology continues to advance, the potential uses for thermal cameras, including distance measurement, will undoubtedly expand, offering new possibilities for innovation and application across various fields.
Thermal cameras have long been recognized for their ability to capture heat signatures and provide critical temperature data. However, a less commonly discussed application is their potential to measure distance. This capability, while not inherent to the primary design of thermal cameras, can be explored through a keen understanding of their operational parameters and technological enhancements.
●Key Factors Influencing Thermal Camera Measurements
To comprehend how a thermal camera might measure distance, it's essential to first understand the factors that influence its performance. The resolution of the camera, the instantaneous field of view (IFOV), and the size of the object being measured all play critical roles. Much like an eye test, where the clarity of vision determines the smallest letters one can read from afar, the resolution of a thermal camera dictates the smallest details it can discern at a distance. High-resolution cameras, analogous to having 20/20 vision, provide sharper and more precise images over longer distances.
The spot-size ratio is another vital concept, defined as the distance at which a camera can accurately measure a target of a specific size. This ratio helps determine the effective range of the camera, ensuring accurate temperature readings. For a thermal camera to deliver precise measurements, it must capture a sufficient number of pixels of the target object. As distance increases, the camera's ability to accurately discern temperature diminishes unless the resolution or field of view is optimized.
●Leveraging Technology for Enhanced Distance Measurement
Modern thermal cameras have been equipped with advanced features to enhance their capabilities. One such development is the integration of digital zoom and enhanced optics. While digital zoom itself does not improve the accuracy of measurements, it provides a clearer image for analysis. A more effective approach is to use cameras with narrower fields of view or higher resolutions, ensuring more pixels are focused on the target, even from afar.
For example, if one needs to measure a 20-millimeter object from a significant distance, it is crucial to consider the camera's field of view and pixel resolution. By calculating the IFOV, users can determine the smallest area that the camera can accurately measure from a given distance. By ensuring the target area appears in at least a 3x3 pixel grid, rather than a mere single pixel, users can achieve more reliable temperature readings, mitigating potential inaccuracies caused by pixelation or optical distortions.
●Considerations for Accurate Thermal Measurements
Incorporating a Pan Camera feature can significantly enhance a thermal camera's utility in measuring distances. This feature allows for broader scene surveillance while maintaining focus on specific targets, ensuring that comprehensive thermal data is collected and analyzed efficiently. By dynamically adjusting the field of view, the Pan Camera ensures that no critical details are overlooked, even as the distance from the target fluctuates.
Ultimately, while thermal cameras are not inherently designed to measure distances like specialized rangefinders, they can provide approximate distance-related data when used with an understanding of their specifications and limitations. These insights enable professionals to leverage thermal imaging for a broader range of applications, ensuring effective and accurate data collection in diverse scenarios. As technology continues to advance, the potential uses for thermal cameras, including distance measurement, will undoubtedly expand, offering new possibilities for innovation and application across various fields.
Knowledges From Long Range Thermal Camera
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The total area of CPSE 2021covers 110,000 square meters, accommodating 5736 standard booths. The exhibitors involved in the smart city, intelligent security, 5G, big data, artificial intelligence, unmanned systems and other fields, including security moni
Meet Soar Security at ISC WEST 2024, April 10~12, Las Vegas, USA
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