Hands on control and monitoring
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The Acoustic Imaging Camera converts the ultrasound emitted by a partial discharge into an acoustic field localization and superimposes it on the visible light picture captured in real time. With its ability to cover long distances and a wide field of view, the Acoustic Imaging Camera can quickly identify partial discharges
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Acoustic imaging technology, as a non-contact detection means, can ensure the life safety of the staff in the working environment with dense high-voltage facilities. In different power system scenarios, the handheld acoustic imager can accurately analyze partial discharge defects in many different types of key equipment.
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The natural environment has many sound sources in the ultrasonic frequency band, and this situation is especially common in power plants. In order to distinguish the interfering sound sources more effectively, we apply the PRPD map recognition function, which helps us to distinguish the discharge types in the complex environment. Also, our equipment is equipped with an ultrasonic listening function, which can convert audio models in the ultrasonic frequency band into audible sound through a series of processing.
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Other PD detection solutions require specialized training to interpret images, distinguish between true PD and false positives, and navigate complex industrial environments. With sophisticated acoustic camera technology, users can quickly learn how to operate the device, saving time and improving work efficiency.
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Acoustic imaging cameras use advanced algorithms to quantify partial discharge by analyzing factors such as sound pressure levels, partial discharge types, and other characteristics. By considering variables such as component value, risk of outage, and more, acoustic imaging cameras can help customers make more informed decisions.
The Acoustic Imaging Camera converts the ultrasound emitted by a partial discharge into an acoustic field localization and superimposes it on the visible light picture captured in real time. With its ability to cover long distances and a wide field of view, the Acoustic Imaging Camera can quickly identify partial discharges
The Acoustic Imaging Camera converts the ultrasound emitted by a partial discharge into an acoustic field localization and superimposes it on the visible light picture captured in real time. With its ability to cover long distances and a wide field of view, the Acoustic Imaging Camera can quickly identify partial discharges
The Acoustic Imaging Camera converts the ultrasound emitted by a partial discharge into an acoustic field localization and superimposes it on the visible light picture captured in real time. With its ability to cover long distances and a wide field of view, the Acoustic Imaging Camera can quickly identify partial discharges
Acoustic imaging technology, as a non-contact detection means, can ensure the life safety of the staff in the working environment with dense high-voltage facilities. In different power system scenarios, the handheld acoustic imager can accurately analyze partial discharge defects in many different types of key equipment.
Acoustic imaging technology, as a non-contact detection means, can ensure the life safety of the staff in the working environment with dense high-voltage facilities. In different power system scenarios, the handheld acoustic imager can accurately analyze partial discharge defects in many different types of key equipment.
Acoustic imaging technology, as a non-contact detection means, can ensure the life safety of the staff in the working environment with dense high-voltage facilities. In different power system scenarios, the handheld acoustic imager can accurately analyze partial discharge defects in many different types of key equipment.
The natural environment has many sound sources in the ultrasonic frequency band, and this situation is especially common in power plants. In order to distinguish the interfering sound sources more effectively, we apply the PRPD map recognition function, which helps us to distinguish the discharge types in the complex environment. Also, our equipment is equipped with an ultrasonic listening function, which can convert audio models in the ultrasonic frequency band into audible sound through a series of processing.
The natural environment has many sound sources in the ultrasonic frequency band, and this situation is especially common in power plants. In order to distinguish the interfering sound sources more effectively, we apply the PRPD map recognition function, which helps us to distinguish the discharge types in the complex environment. Also, our equipment is equipped with an ultrasonic listening function, which can convert audio models in the ultrasonic frequency band into audible sound through a series of processing.
The natural environment has many sound sources in the ultrasonic frequency band, and this situation is especially common in power plants. In order to distinguish the interfering sound sources more effectively, we apply the PRPD map recognition function, which helps us to distinguish the discharge types in the complex environment. Also, our equipment is equipped with an ultrasonic listening function, which can convert audio models in the ultrasonic frequency band into audible sound through a series of processing.
Other PD detection solutions require specialized training to interpret images, distinguish between true PD and false positives, and navigate complex industrial environments. With sophisticated acoustic camera technology, users can quickly learn how to operate the device, saving time and improving work efficiency.
Other PD detection solutions require specialized training to interpret images, distinguish between true PD and false positives, and navigate complex industrial environments. With sophisticated acoustic camera technology, users can quickly learn how to operate the device, saving time and improving work efficiency.
Other PD detection solutions require specialized training to interpret images, distinguish between true PD and false positives, and navigate complex industrial environments. With sophisticated acoustic camera technology, users can quickly learn how to operate the device, saving time and improving work efficiency.
Acoustic imaging cameras use advanced algorithms to quantify partial discharge by analyzing factors such as sound pressure levels, partial discharge types, and other characteristics. By considering variables such as component value, risk of outage, and more, acoustic imaging cameras can help customers make more informed decisions.
Acoustic imaging cameras use advanced algorithms to quantify partial discharge by analyzing factors such as sound pressure levels, partial discharge types, and other characteristics. By considering variables such as component value, risk of outage, and more, acoustic imaging cameras can help customers make more informed decisions.
Acoustic imaging cameras use advanced algorithms to quantify partial discharge by analyzing factors such as sound pressure levels, partial discharge types, and other characteristics. By considering variables such as component value, risk of outage, and more, acoustic imaging cameras can help customers make more informed decisions.
The Acoustic Imaging Camera converts the ultrasound emitted by a partial discharge into an acoustic field localization and superimposes it on the visible light picture captured in real time. With its ability to cover long distances and a wide field of view, the Acoustic Imaging Camera can quickly identify partial discharges
Acoustic imaging technology, as a non-contact detection means, can ensure the life safety of the staff in the working environment with dense high-voltage facilities. In different power system scenarios, the handheld acoustic imager can accurately analyze partial discharge defects in many different types of key equipment.
The natural environment has many sound sources in the ultrasonic frequency band, and this situation is especially common in power plants. In order to distinguish the interfering sound sources more effectively, we apply the PRPD map recognition function, which helps us to distinguish the discharge types in the complex environment. Also, our equipment is equipped with an ultrasonic listening function, which can convert audio models in the ultrasonic frequency band into audible sound through a series of processing.
Other PD detection solutions require specialized training to interpret images, distinguish between true PD and false positives, and navigate complex industrial environments. With sophisticated acoustic camera technology, users can quickly learn how to operate the device, saving time and improving work efficiency.
Acoustic imaging cameras use advanced algorithms to quantify partial discharge by analyzing factors such as sound pressure levels, partial discharge types, and other characteristics. By considering variables such as component value, risk of outage, and more, acoustic imaging cameras can help customers make more informed decisions.
System Devices
Introducing CRYSOUND’s cutting-edge acoustic imaging camera, revolutionizing industrial inspections with advanced capabilities. The CRY8124 acoustic imaging camera excels at pinpointing leaks, identifying electrical partial discharge, and detecting mechanical deterioration. Setting a new standard for sensitivity and efficiency, the CRY8124 boasts 200 microphones (the most in the industry). The device detects smaller leaks and partial discharges from greater distance than any other handheld acoustic imaging camera on the market.
The CRY8124 reporting software allows offline analysis, editing, and report generation, simplifying regular maintenance routines.
Elevate the effectiveness of your industrial inspections with CRYSOUND’s acoustic cameras.
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The CRY2623 is a 128-mic industrial acoustic imaging camera that is user-friendly and requires minimal training. Its durable aluminum alloy shell is built to withstand complex and variable working conditions. The device offers real-time acoustic imaging, significantly accelerating the detection of pressurized or vacuum leaks compared to traditional methods. It supports both photo and video modes for flexible on-site data recording. With an expandable large-capacity TF storage card, test results can be quickly exported and reported. The CRY2623 helps enterprises reduce safety risks and minimize economic losses associated with gas leaks, partial discharges, and other malfunctions.