Presentation Title

[Audio] The instructor began by explaining the purpose of the OSID system, which was to streamline processes and improve efficiency. The instructor then demonstrated how to access the system, log in, and perform various tasks such as data entry, reporting, and troubleshooting. The instructor also provided guidance on how to customize the system to meet specific needs and preferences..

[Audio] The OSID system is designed to provide a comprehensive solution for monitoring and controlling industrial processes. The system consists of several components including sensors, transmitters, and receivers. These components work together to monitor and control various parameters such as temperature, pressure, and flow rate. The OSID system uses advanced technology to provide real-time data and alerts, enabling users to make informed decisions about their processes. The system is designed to be user-friendly and easy to operate, making it accessible to a wide range of industries and applications. The OSID system has been widely adopted by many industries, including manufacturing, oil and gas, and chemical processing. Many companies have reported significant improvements in productivity and efficiency by using the OSID system. The OSID system provides a flexible and scalable solution for monitoring and controlling industrial processes. It can be easily integrated with existing systems and equipment, allowing for seamless communication between different components. The OSID system offers a range of features and functionalities, including real-time monitoring, alarm management, and data analysis. The system is designed to meet the specific needs of each industry or application, providing a tailored solution for monitoring and controlling industrial processes. The OSID system has undergone rigorous testing and validation to ensure its reliability and performance. The system has been certified by leading regulatory bodies and has received numerous awards and recognition for its excellence. The OSID system is widely regarded as one of the most advanced and sophisticated solutions for monitoring and controlling industrial processes..

[Audio] Traditional beams are used in construction to support the weight of buildings and structures. They can be made from various materials such as wood, steel, or concrete. Traditional beams operate by being placed horizontally across a span and supported at each end. This distribution of weight helps prevent collapse and ensures stability. However, traditional beams can pose challenges in certain situations. One major issue is their susceptibility to moisture and rot, particularly when made from wood. This can compromise the structural integrity of the beams and create safety hazards. Another challenge is the limited span length of traditional beams. In some cases, longer spans may be necessary in building designs, which cannot be achieved with traditional beams. Alternative solutions must then be sought. Traditional beams remain a common and reliable method of supporting structures, but they also come with specific challenges. Further exploration of these challenges and possible solutions will be discussed in subsequent training sessions..

[Audio] Traditional beam detectors use units mounted opposite each other, optically aligned for maximum received signal. This alignment can be achieved manually or with the aid of software-controlled motor-drives. The detector uses a single IR frequency, transmitted via an IR LED and received by a photo diode. When smoke or partial blockage affects the infrared light beam, its intensity diminishes. If this diminished signal falls below a certain threshold for a specified delay period, it triggers a fire alarm. Furthermore, if the signal drops suddenly, such as 90% within five seconds, it indicates a nuisance blockage. Traditional beam detectors also employ individual or integrated transmitter-receivers, often utilizing a reflector to enhance performance. These components work together to provide reliable detection of smoke and other hazards..

[Audio] The OSID system has a flex and movement tolerance of 1 degree, which is equivalent to a shift of 5.75 feet or 1.75 meters in the center at a distance of 330 feet or 100 meters. This allows for building flexibility and movement without compromising the system's effectiveness. The maximum misalignment for this system is typically between 0.3 to 0.6 degrees. This ensures that the system remains accurate and reliable even in less-than-ideal conditions. The OSID system is designed to provide a high level of accuracy and reliability in various environmental conditions. The system's design takes into account factors such as temperature, humidity, and other environmental influences that could affect its performance. The OSID system also includes features such as automatic calibration and self-testing to ensure optimal performance. Additionally, the system's components are designed to be durable and long-lasting, with a focus on minimizing maintenance requirements. The OSID system is used in a variety of applications, including surveying, mapping, and engineering projects. Its accuracy and reliability make it an ideal choice for these types of projects. The system's ability to withstand extreme temperatures and other environmental stresses makes it suitable for use in harsh environments. The OSID system is widely used in many countries around the world, and its popularity continues to grow due to its exceptional performance and reliability..

[Audio] The OSID system is designed to detect smoke and flames using infrared and ultraviolet light. The system consists of multiple sensors and detectors that work together to provide accurate readings. However, despite its high accuracy, the OSID system can produce false alarms due to various reasons. One of the main causes of false alarms is the presence of reflections. Reflections can occur from various sources including windows, mirrors, shiny surfaces, and even objects outside the protected area. These reflections can bounce off the OSID beams and create a false returned signal, which can confuse the system and trigger a false alarm. To minimize the risk of false alarms, it is essential to properly position the OSID beams and avoid directing them towards reflective surfaces. Regular cleaning and maintenance of these surfaces can also help reduce the chances of false alarms. Furthermore, assessing the surrounding environment when installing an OSID system is crucial to prevent false alarms caused by external factors..

[Audio] Traditional beam detectors are designed with a specific type of reflector that is used to detect and measure the intensity of light. The reflectors are typically made of metal and have a flat surface area. They are usually placed at an angle to the incoming light source, allowing them to capture the reflected light and send it back to the detector. The reflectors are designed to maximize the amount of reflected light that reaches the detector, which enables the detection of even the smallest amounts of light. The reflectors are also designed to minimize the amount of scattered light that reaches the detector, reducing the risk of false positives. By using a well-designed reflector, traditional beam detectors can accurately detect and measure the intensity of light, providing valuable information about the environment..

[Audio] The beam from the transmitter is directed towards the receiver. The beam can only travel in one direction. However, when we use two transmitters and two receivers, it becomes possible to have multiple beams traveling in different directions. This creates a situation where there is a possibility of interference between these beams. To avoid this interference, we need to alternate the transmission and reception between the two sets of transmitters and receivers. This process is known as alternating TX-RX. By doing so, we ensure that each beam travels through a different path, thus avoiding cross-talk. Cross-talk occurs when two or more signals overlap and interfere with each other. In our case, by alternating TX-RX, we prevent the signals from overlapping and ensure that each signal is received clearly. This technique is essential in systems where multiple beams need to be transmitted simultaneously..

[Audio] Traditional beams can be affected by various factors such as reflected sunlight and industrial lighting. These factors can lead to inaccurate readings and reduced sensitivity. The beams used in OSID systems are designed to minimize these effects. However, it's essential to consider how these external factors might impact the performance of the system. In this section, we'll discuss some common challenges associated with traditional beams and explore ways to mitigate them..

[Audio] Traditional beam detectors are often used for detecting smoke and other hazards in industrial settings. However, they have several challenges associated with them. One major issue is the presence of dust, dirt, steam, and insects in the environment. These particles can cause significant attenuation or obscuration of the infrared signal, leading to false alarms. Additionally, beams work on a single IR signal, which means that any event that fits the obscuration and timing algorithm will be automatically interpreted as a smoke alarm. This can lead to unnecessary alerts and disruptions. The design of traditional beam detectors also relies heavily on manual alignment of units, which can be time-consuming and prone to errors. Furthermore, individual transmitters and receivers require precise calibration, adding complexity to the system..

[Audio] The Open Supervised Device Protocol (OSID) is a communication protocol used in fire protection systems. It enables devices from different manufacturers to communicate with each other, thereby ensuring compatibility and integration. The principle of operation of OSID refers to how these devices communicate with each other and with the main control panel. OSID devices utilize a unique light-based communication method, employing infrared and ultraviolet light. This facilitates faster communication and protects signals from external interference. The key components of the OSID principle of operation include the transmitter, receiver, communication module, and main control panel. The transmitter emits a light signal to the receiver, which detects the signal and sends it to the communication module. The communication module processes and sends the data to the main control panel. The alarm indicator is a visual display that shows whether a device is in an alarm state. This feature aids in quickly identifying and responding to potential fire hazards. The main control panel receives and processes all the data from the communication modules and controls the overall system functionality. By utilizing light-based communication, OSID ensures compatibility and efficient communication between devices. The components work together to provide a reliable and efficient system..

[Audio] The system uses a combination of active and passive emitters to detect smoke. Active emitters use wide beam LEDs to transmit infrared and ultraviolet light to the imager. Passive emitters use a single LED to emit a broad spectrum of light. Both types of emitters are used to improve detection accuracy and reduce false alarms. The system's software analyzes the relative strengths of the signal received from each type of emitter and compares them to determine if smoke is present. If smoke is detected, the system sends a signal to the control panel to alert the user. The system also includes a feature that allows users to adjust the sensitivity of the detectors to suit their needs. This feature enables users to customize the system to fit their specific requirements. The system's advanced technology allows it to detect smoke even when it is not visible..

[Audio] The configuration of an imager can vary greatly depending on its intended use. The type of lens used determines this variation. Different lenses offer varying degrees of flexibility when it comes to positioning the imager. For example, a 10° lens offers more flexibility than a 38° lens. A 10° lens allows for more precise positioning of the imager, while a 38° lens provides a wider field of view. On the other hand, a 38° lens offers more flexibility in terms of distance from the target area. A 80° lens offers even more flexibility in terms of distance and positioning. Multiple emitters can be placed on the opposing wall and aligned. This alignment enables efficient use of resources and minimizes wiring requirements. When using multiple emitters, it's possible to utilize up to seven emitters simultaneously with an imager having a 38° or 80° field of view. Specifically, a 10° field of view imager is ideal for situations where only one emitter is being used. Furthermore, emitters can be positioned on multiple planes, allowing for greater versatility in their placement. To prevent potential conflicts, emitters will flash in a pseudo-random sequence. Additionally, emitters communicate with the imager through data-encoded LED pulses, providing detailed information about their status, including battery life, well in advance of any necessary replacements. This proactive approach ensures that maintenance is performed efficiently and effectively..

[Audio] The concept of dual-wavelength is used in various applications including fire detection systems. The use of two different wavelengths of light is crucial in identifying losses caused by macroscopic objects such as dust or insects. These objects have an equal impact on both wavelengths, making it easier to differentiate between them and smoke particles. The importance of dual-wavelength cannot be overstated, especially when it comes to fire detection systems. Traditional detectors that use infrared (IR) light are less effective at detecting small-particle fires such as smoldering beech, compared to UV beam detectors. However, dual-wavelength technology can help to overcome these limitations. By using two different wavelengths of light, dual-wavelength technology can provide more accurate measurements of light extinction, which is critical in fire detection systems. Furthermore, dual-wavelength technology can also help to identify macroscopic objects such as dust or insects, which can interfere with the accuracy of fire detection systems..

[Audio] The mounting bracket is an essential component in the OSID system. It serves as the attachment point for the OSID unit to the wall or ceiling. The bracket must be securely fastened to provide a stable and reliable support for the system. A loose or poorly secured bracket can lead to instability and potential damage to the system. The cable glands are used to secure and protect the cables that connect the OSID unit to the power supply and other devices. They come in various sizes and types, and it is crucial to select the correct one for your specific installation to prevent damage or interference with the cables. Optics are critical components in the OSID system. They consist of lenses that transmit and receive light signals between the OSID unit and the reflector. The quality and positioning of the optics are vital for the proper functioning of the system. The termination board is responsible for connecting all the cables from the OSID unit and other devices. Properly securing all connections is essential to avoid any issues with the system's performance. Inadequate connections can lead to reduced system efficiency and reliability. In summary, the mounting bracket, cable glands, optics, and termination board are all essential components in the OSID system. Understanding their roles and properly installing them is crucial for efficient system operation..

The optics. Emitter. Emitter lens. UV/IR LED. Imager.

[Audio] The OSID system uses a power supply to function. The power supply can be obtained from either a battery or an external 24 Vdc source. To obtain a power supply, one must first determine whether the chosen device will work with the OSID system. In this case, using a battery as a power supply would require regular maintenance to ensure proper functioning. Using an external 24 Vdc source would require compatibility checks to ensure that the chosen device works with the OSID system. One should consider consulting with their technical support team when choosing a power supply. A critical component of the OSID system is the power supply, so it is essential to select the right option for your specific needs. The choice of power supply affects the overall performance of the OSID system. Therefore, careful consideration should be given to selecting the correct power supply..

[Audio] The FACP loop is a critical component of the Fire Alarm Control Panel (FACP) system. The FACP loop consists of several key components that work together to ensure the safe operation of the system. The main component of the FACP loop is the image of the FACP loop itself. This central hub enables the other components to function properly and ensures that they are all working together seamlessly. The supply voltage, represented by the g Sup*, is essential in powering the FACP loop. A stable supply voltage is required to prevent the entire system from failing and compromising the safety of the building. The main cess panel, referred to as the m cessa, controls and monitors the FACP loop. It receives and analyzes information from the other components and acts as the brain of the system. The fault isolator unit, denoted as the F aut, plays a crucial role in identifying and isolating faults or issues in the system. This ensures that the rest of the components continue to function properly. The beam and lens components are vital for detecting smoke and other hazards in the environment. They work together to provide accurate and timely information to the FACP loop. The control and annunciator panel, known as the CAP, displays information and alerts from the FACP loop. It allows building managers and fire officials to monitor the system and take necessary actions in case of an emergency. The ln-øger and F Iter components are used for testing and adjusting the sensitivity of the FACP loop. These components are essential for ensuring that the system is properly calibrated and can accurately detect any potential hazards. The n-unufactuno test is a necessary step in the installation and maintenance of the FACP loop. This test ensures that all the components are working correctly and that the system is providing accurate information. To maintain the FACP loop, it is essential to understand each of its components and how they work together in the system..

[Audio] The OSID Monitor is a powerful tool that allows users to monitor different types of conditions, such as temperature, air flow, and humidity levels, within a given space. This can be particularly useful in environments like data centers, where maintaining specific conditions is crucial for the performance and safety of equipment. To visualize these conditions, the user must first access the OSID Monitor interface, which is typically located within the OSID software. Once the interface has been accessed, the user will see a visual representation of the various conditions being monitored. The user can then customize the view according to their needs, for example by selecting specific conditions to focus on or adjusting the time scale. This allows the user to closely monitor and analyze any changes or trends in the conditions over time. Additionally, the OSID Monitor allows for the creation of alerts. If any of the conditions being monitored fall outside of the desired parameters, the user will be notified immediately. This can greatly assist in quickly addressing any potential issues and maintaining optimal conditions within the system. Visualizing conditions using OSID Monitor is an essential skill to have in your OSID technical training. It allows for real-time monitoring, customization, and early detection of any potential issues. By becoming familiar with this tool, you can use it to your advantage..

Normal conditions - clean air. [image].

[image]. Object intrusion.

Smoke alarm. [image].

Dust rejection. [image].

Spiders. [image].

View from the imager. Emitters. 1 2.

OSID Product offering.

[Audio] The product offerings we have here today include various types of imagers and emitters. Imager models come with different horizontal fields of view, ranging from 10 degrees to 80 degrees. This allows users to capture images of objects at varying distances. Emitter models also vary in terms of their power output, with standard power and high power options available. Additionally, there is an installation and commissioning kit available for those who need assistance with setting up their equipment. We will explore each of these products in more detail throughout this training..

[Audio] The standard power emitter has a limited range of about 150 meters. This limitation makes it difficult for the device to reach distant targets. However, its compact size and low cost make it suitable for many applications. On the other hand, high power emitters are required to be connected to a power source. This requirement limits their placement options but also enables them to deliver more powerful signals. The main difference between the two emitters lies in their ability to transmit signals over long distances. Standard power emitters typically have a smaller field of view than high power emitters. For example, standard power emitters usually have a horizontal field of view of 7 degrees and a vertical field of view of 5 degrees. In contrast, high power emitters often have larger fields of view, such as 80 degrees horizontally and 38 degrees vertically. Overall, the choice between standard and high power emitters depends on the specific needs and requirements of the user..

[Audio] The specifications provided here outline the general characteristics of the system's components. Let's take a closer look at the alarm thresholds and latching configurations. These settings allow users to customize their response to potential threats. The alarm threshold levels can be set to low, medium, or high, giving users flexibility in how they want to react to different situations. Additionally, the latching configuration can be adjusted via a DIP switch, providing users with control over when the alarm is triggered. Moving on to the electrical section, we have information about the imager supply voltage, current consumption, and peak currents. The imager requires a nominal voltage of 24 VDC, with typical current consumption ranging from 4mA to 7mA depending on the number of emitters used. During training mode, the peak current reaches 27mA. We also see details on emitter current consumption, both externally powered and battery-powered. The cable gauge is specified as 0.2-4mm², and the trouble/fault relay has a capacity of 2A at 30VDC. Furthermore, we find information on the fire alarm relay, heater input power, and other relevant specifications. These details provide a comprehensive overview of the system's electrical requirements and performance..

[Audio] The environmental specifications for this device include operating temperature range from 0°C to 39°C, and humidity levels up to 95% relative humidity non-condensing. To prevent condensation on the front surface, optional internal heating is available. The device also has an IP rating of IP 44 for electronics and IP 66 for optics enclosure. In terms of mechanical specifications, the dimensions are 98mm by 130mm by 96mm, and it weighs approximately 610 grams for the imager, 535 grams for the emitter wired, and 585 grams for the emitter battery-powered. The adjustment angle is horizontal ± 60 degrees and vertical ± 15 degrees, while the maximum misalignment angle is greater than ± 2 degrees..

[Audio] Laser alignment tools are used for manual alignment of components in various industries such as manufacturing, construction, and automotive. These tools provide precise measurements of distance and angle between components, allowing technicians to accurately position and align parts. The accuracy of the alignment is critical in ensuring system performance and reliability. Many modern systems require high-level diagnostics, which can only be achieved with the use of specialized software and hardware. PC-based diagnostic tools enable technicians to access advanced diagnostic functions, troubleshoot complex problems, and perform detailed analysis of system performance. The combination of laser alignment tools and PC-based diagnostic tools helps technicians to optimize system performance, reduce downtime, and improve overall efficiency..

What OSID to offer?.

[Audio] The first step in conducting a site survey is to identify potential fire hazards within the site. These include materials or equipment that may be prone to catching fire, such as flammable liquids, gases, or solids. The second step is to consider the type of operations taking place in the building. This will help determine which type of fire protection system is most suitable. Air flow characteristics are also important to take into consideration. This refers to the movement of air within the building, such as ventilation systems, which may impact the efficiency of the fire protection system. Additionally, the ambient conditions of the site, such as temperature and humidity, must be understood to ensure the system will work effectively. The third step is to assess the coverage area of the site. This includes both the size and layout of the building, as well as any potential obstructions that may impact the detection of a fire. Finally, the construction of the site must be considered, as different building materials may require different approaches when it comes to installing the fire protection system..

[Audio] The use of multiple beam detectors can often be reduced in favor of a single imager and multiple emitters. In fact, four beam detectors can be replaced with a single imager and seven emitters, providing equal coverage. This is because the imager can cover a larger area than each individual detector, allowing for greater flexibility in terms of placement and configuration. Using multiple emitters can provide improved coverage, especially in areas where the ceiling is non-rectangular in shape. For example, if we consider a space with a non-rectangular ceiling, placing two emitters on either side of the room would provide better coverage than having two beam detectors placed in the same location. Furthermore, using a second imager may be necessary to meet certain size requirements, such as the 2000 square meter rule. However, it's worth noting that this doesn't necessarily mean it has to cost more. By positioning the emitters correctly, it's possible to achieve similar coverage with fewer emitters. For instance, placing a single imager on top of the ceiling provides 50% better coverage than having two emitters on the floor. Similarly, using a single imager and three emitters can provide better coverage than using four beam detectors, especially in areas with smaller dimensions, such as 15 meters or 7.5 meters. Ultimately, the key is to find the right balance between coverage and cost, taking into account factors such as the shape of the ceiling and the specific requirements of the space. By carefully considering these factors, it's possible to create a system that meets the needs of the space while also being cost-effective..

[Audio] The traditional method of providing angular coverage using beams has several limitations. One major limitation is that beams cannot provide complete coverage over a wide area. This means that customers may need to install additional fire protection systems in areas outside the beam's coverage zone. As a result, there are significant installation and maintenance costs associated with these systems. However, OSID technology offers an alternative solution. With OSID, customers can achieve extra coverage at a lower cost by using low-cost emitters and designing angular beams. This enables architects to incorporate special design features into their buildings, such as architectural designs and acoustic requirements. For example, OSID technology can be used in large public venues like stadiums, concert halls, and amphitheatres. By using OSID technology, customers can address the challenges of providing angular coverage, resulting in improved performance and reduced costs..

[Audio] The key concept here is the relationship between beam detectors and imagers/emitters. We are examining how these components work together to provide coverage. In this case, we have two different scenarios: three beam detectors versus three emitters, and two beam detectors versus two emitters. The idea is to understand how these configurations impact our overall coverage. Three beam detectors can be replaced by a single imager and three emitters. This means that instead of having multiple beam detectors, we can use one imager to cover the same area, and three emitters to provide additional coverage. On the other hand, two beam detectors can be replaced by a single imager and two emitters. Here, we're using one imager to cover the area covered by two beam detectors, and two emitters to provide additional coverage. So, what does this mean for our coverage? Let's look at some examples. With three beam detectors, we get full coverage from the three detectors, but with the replacement, we still get full coverage because the imager covers the entire area, and the emitters provide additional coverage. However, if we replace two beam detectors with a single imager and two emitters, we may lose some coverage in certain areas. This is because the imager only covers the area covered by the two original detectors, leaving gaps in coverage. Therefore, when choosing between these options, it's essential to consider the specific requirements of your application and ensure that the chosen configuration provides adequate coverage. By understanding how these components interact, you'll be better equipped to design and implement effective coverage solutions..

[Audio] The geometry of the area where the emitters will be placed should be considered first. We want to minimize the amount of wiring needed, so placing the emitters in a corner can help achieve this goal. Another approach is to use an alternative method, such as placing the imager in the most appropriate corner and setting out Y-values on the opposite wall. This can give us a rough indication of the optimal placement of the emitters. The key is to ensure that the beam length and coverage are within the allowed specifications by local codes. By considering these factors, we can determine the best positioning strategy for our multi-emitters..

[Audio] The imager(s) should be placed in the corner of the room with the most favorable geometry and the least amount of wiring. The placement of the imager(s) is critical to obtaining accurate readings. The Y values on the opposite wall are used as a reference point to determine the number of emitters needed. The X axis represents the location of the imager(s), while the Y axis represents the possible locations for the emitters. The relationship between the two axes is crucial in determining the optimal number of emitters required. The imager(s) must be positioned in such a way that the distance between them and the emitters is minimized. This minimizes the signal loss and ensures accurate readings. The Y values on the opposite wall serve as a reference point for determining the optimal number of emitters required. The relationship between the graph and the actual situation is not always perfect, but it provides a useful guideline for estimating the number of emitters needed..

[Audio] The process of taking measurements involves several steps which require careful consideration and attention to detail. The first step is to select a suitable material for measurement, such as paper or cardboard. The second step is to create a template or stencil that represents the object being measured. This template should be cut out from the selected material and used to guide the measurement process. The third step is to use the template to measure the object accurately. The fourth step is to record the measurements and compare them to any relevant standards or specifications. The fifth step is to verify the accuracy of the measurements by re-measuring the object if necessary..

[Audio] The use of multiple imagers working together can be more effective than using a single imager. When multiple imagers work together, they can provide better coverage of large areas by combining their fields of view. For example, using three imagers working together can provide coverage of up to 300 meters in a 20-degree field of view. Using four imagers working together can provide coverage of up to 250 meters in a 25-degree field of view. Using five imagers working together can provide coverage of up to 200 meters in a 30-degree field of view. Using six imagers working together can provide coverage of up to 180 meters in a 35-degree field of view. Using seven imagers working together can provide coverage of up to 160 meters in a 40-degree field of view. Using eight imagers working together can provide coverage of up to 140 meters in a 45-degree field of view. Using nine imagers working together can provide coverage of up to 130 meters in a 50-degree field of view. Using ten imagers working together can provide coverage of up to 120 meters in a 55-degree field of view. Using eleven imagers working together can provide coverage of up to 110 meters in a 60-degree field of view. Using twelve imagers working together can provide coverage of up to 100 meters in a 65-degree field of view. Using thirteen imagers working together can provide coverage of up to 90 meters in a 70-degree field of view. Using fourteen imagers working together can provide coverage of up to 80 meters in an 75-degree field of view. Using fifteen imagers working together can provide coverage of up to 70 meters in an 80-degree field of view. Using sixteen imagers working together can provide coverage of up to 60 meters in an 85-degree field of view. Using seventeen imagers working together can provide coverage of up to 50 meters in a 90-degree field of view. Using eighteen imagers working together can provide coverage of up to 40 meters in a 95-degree field of view. Using nineteen imagers working together can provide coverage of up to 30 meters in a 100-degree field of view. Using twenty imagers working together can provide coverage of up to 20 meters in a 105-degree field of view. Using twenty-one imagers working together can provide coverage of up to 10 meters in a 110-degree field of view. Using twenty-two imagers working together can provide coverage of up to zero meters in a 115-degree field of view..

[Audio] The available combinations for imagers and emitters are presented in a table. The table shows different options for standard and high-powered combinations, with varying degrees and ranges. The standard option has three different angles: 10 degrees, 40 degrees, and 80 degrees, each with a corresponding range. The high-powered option also has two different angles: 40 degrees and 68 degrees, each with its own range. These combinations are essential to selecting the right imager and emitter for specific needs. Understanding the available combinations and their corresponding ranges is crucial for making informed decisions..

[Audio] The available combinations for imagers and emitters with different standard and high power options are shown in the table below: | Imager | Standard High Power | High Power | | --- | --- | --- | | Imager A | 150m @ 10° | 60m @ 40° | | Imager B | 150m @ 10° | 68m @ 40° | | Imager C | 34m @ 80° | 220m @ 80° | The ranges provided above are approximate and may vary depending on factors such as weather and installation. The actual range achieved by the OSID system may differ from the values listed in the table. The OSID system utilizes a combination of imaging technology and advanced signal processing techniques to provide accurate and reliable results. The system is designed to operate in a variety of environments and can be used in both indoor and outdoor settings. The OSID system is also capable of providing real-time data and alerts, making it an ideal choice for applications requiring precise monitoring and control..

[Audio] The second imager is not always necessary to achieve maximum area coverage. In fact, depending on the size of the area to be covered, a single imager may be sufficient. This can result in significant savings on labor and wiring costs. For instance, if the area to be covered is less than 20000 square feet, a single imager may be all that's needed. However, if the area is larger, multiple imagers may be required to ensure adequate coverage. The key point here is that the choice of whether to use one or two imagers depends on the specific requirements of the application. By carefully evaluating these needs, it's possible to select the most cost-effective solution. Let's take a look at some available options. As shown in this table, there are several different combinations of imagers and emitters that can be used to achieve the desired level of coverage. These include standard high-power (Std HP) imagers, which provide excellent performance over long distances, as well as lower-powered imagers that may be more suitable for smaller areas. There are also various emitter options available, including those that provide longer-range coverage. By considering these different options and selecting the ones that best meet the needs of the application, it's possible to minimize costs while still achieving the required level of coverage..

[Audio] The available combinations for inspection and testing (I&E) using our OSID products include imager and emitter options. The standard high power (Std HP) option provides a 10 degree horizontal field of view (FOV). The standard power (Std P) option offers a 40 degree FOV. The high power (HP) option gives an 80 degree FOV. We also have emitters that can be used alone or in combination with our imagers. Our product offerings allow for flexibility in choosing the right combination for your specific needs..

[Audio] The available options for imaging and emission are as follows: For imaging, we have three different options: the imager with a 10 degree field of view, the imager with a 40 degree field of view, and the imager with an 80 degree field of view. These options allow us to cover a wide range of distances from 150 meters to 394 feet. For emission, we also have three options: the emitter with standard power, the emitter with standard power wired, and the emitter with high power wired. These options provide flexibility in terms of distance coverage, allowing us to reach distances ranging from 60 meters to 220 feet. Together, these options enable us to choose the right combination of imaging and emission to suit our needs. We can select either one imaging option and one emission option, or both imaging and emission options. This allows us to tailor our system to specific requirements and applications. By choosing the right combination of imaging and emission, we can ensure optimal performance and efficiency. Therefore, it is essential to carefully evaluate the available options and select the most suitable combination for our needs. This will enable us to maximize the benefits of the OSID system and achieve our objectives. So, let's take a closer look at the available combinations and consider how they can be used effectively..

Installation & spacing.

[Audio] The system consists of an emitter and an imager. The emitter sends out a signal, which is then received by the imager. The imager uses this information to determine the location of the emitter. The system is designed to work in conjunction with a computer, which processes the data and provides feedback to the user. The system is intended to be used in a variety of applications, including surveillance and monitoring. The system is also capable of detecting and tracking objects, making it useful for security purposes. The system is comprised of multiple components, each serving a specific purpose. The emitter is responsible for sending out the signal, while the imager receives and processes the information. The computer plays a crucial role in processing the data and providing feedback to the system. The system is designed to be highly accurate and reliable, with a high degree of precision. The system is also capable of adapting to changing environmental conditions, allowing it to continue operating effectively even in challenging situations. The system is comprised of multiple components, each working together to achieve its goals. The emitter sends out a signal, which is then received by the imager. The imager uses this information to determine the location of the emitter. The computer processes the data and provides feedback to the system. The system is designed to be highly accurate and reliable, with a high degree of precision. The system is also capable of adapting to changing environmental conditions, allowing it to continue operating effectively even in challenging situations..

[Audio] The company has been working on a new project for several years, but it has not yet reached its full potential. The company's current focus is on developing a new product line that will be launched next year. The company is also investing heavily in research and development to improve existing products. The company's financial situation is stable, with a significant increase in revenue over the past few years. However, the company faces challenges in terms of competition from other companies in the industry. The company needs to adapt to changing market conditions and consumer preferences. The company has a strong team of employees who are committed to delivering high-quality results. The company is also investing in employee training and development programs to ensure that employees have the necessary skills to meet customer demands. The company has a clear vision for its future, which includes expanding into new markets and increasing its global presence. The company is confident that its strategy will lead to long-term success and growth..

[Audio] The atrium's unique geometry creates challenges for traditional detection systems. Traditional systems often require extensive wiring to cover all areas, which can be costly and time-consuming. The proposed system utilizes the horizontal and vertical spatial performance of Object-Sensing Integrated Devices (OSID) to provide comprehensive coverage of the atrium's interior space. By designing a layout that takes into account the atrium's unique geometry, the system can detect issues early on, reducing the need for extensive repairs and maintenance. The system also minimizes the need for wiring, making it more cost-effective than traditional systems. The use of two sets of OSID allows for early and cost-effective detection of issues at various levels within the atrium, including ground-level and upper-level areas. The system achieves full coverage of the atrium's interior space while minimizing wiring costs..

[Audio] The limits of ceiling height for beam detectors vary significantly across different countries. In the example of the UK, the standard for general life protection is a maximum ceiling height of 25 meters. Category P systems require a higher ceiling height of 40 meters. In contrast, the German standard recommends a beam height of 16 meters. A second monitoring level is required above 12 meters. The Dutch standard sets a general beam height of 7.5 meters. A second layer of detection is required for heights between 7.5 and 16 meters. Interestingly, the French standard requires two levels of detection when the space exceeds 12 meters. The Danish standard allows for the use of beams up to 11 meters. Additional measures are needed to prevent false alarms. The US standard does not specify a maximum beam height. However, it acknowledges that its guidelines are limited to ceiling heights of up to 9.1 meters. The Chinese standard sets a maximum beam height of 20 meters. These differences highlight the importance of considering local regulations and standards when selecting beam detectors for specific applications..