Fiber optics, being a signal transmission technology, utilizes a transmission media. The transmission media in fiber optics technology is fiber optic cables. Typically, fiber optic cable networks are made of several fiber optic cables. These fiber optics are integrated into a network using specific fiber optic connectors. Since cables and connectors are essential elements of a fiber-optic network, it is important to select the right types of cables and connectors for specific applications. However, the selection of these two elements is a complex process due to the availability of a varying range of types, features, and specifications. With the advancement in technology, the fiber optic cables and connectors have evolved with several beneficial parameters, therefore, the selection becomes a little complex.
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Although there are no strict criteria for the selection of fiber optic cables and connectors, the industry experts recommend certain factors of consideration and guidelines during the selection. This whitepaper literates the readers about fiber optic cables, fiber optic connectors, and their selection guidelines.
SECTION IFiber optic cables are a bundle of glass fibers that carry optical signals. The glass strands in the fiber optic cables are known as optical strands. The light waves or photon streams are transmitted via the core of these optical strands by the phenomenon of optical refraction. Complete or partial refraction takes place inside the glass strands and the signal transmits forward through the fiber optic cable. The fiber optic cable is manufactured by wrapping a large number of glass strands inside the cladding and protective jacket. These fiber optic cables are also known as optical-fiber-cables.
The fiber optic cables consist of building elements like core, cladding, jacket, etc, which further collectively enable single-mode or multi-mode transmission of optical signals. The fiber optic cables are used for several industrial applications like telecommunication, video signal transmission, computer data transmission, and storage, etc. Each application demands different specifications, therefore, the application-centric selection of optical fiber cables is essential. Also, the function of fiber optic transmission is dependent on factors that are the type of cable construction, fiber core diameter, bandwidth, and attenuation. The operation-centric and result-oriented selection of fiber optic cables takes consideration of all these factors.
The following is the list of selected parameters of fiber optic cables for specific applications.
All these types of constructions are available in two construction standards or configurations. The following cable configurations are available in fiber optic cables.
Above mentioned fiber optic cable construction and configuration criteria are further tested for compatibility with application requirements and operational environments during optical fiber cable selection. For specific application and environment, one or more types of cable constructions and configurations can be suited, however, the best fit is advised to be selected. The following are industrial environment-based constructions available in fiber optic cables.
Along with the mentioned selection factors, the fiber optic cable has to be compatible with the fiber optic connectors. There is a vast range of fiber optic connectors available, therefore, the selection itself is a complex procedure. Similar to fiber optic cables, the selection of fiber optics connectors takes consideration of several section parameters.
Along with the above-mentioned selection factors, the operator has to consider color codes of the connectors which are stated under TIA 568 standards. Consideration of color codes makes the selection of fiber optic connectors convenient for indoor, commercial, and industrial applications.
Despite the availability of more than 100 types of fiber optic connectors in the market, however, a few specific types are preferred by the industry experts. Experts’ choice types of connectors are listed below in a tabular format along with the general specifications, from which the operator can find a suitable one for specific applications.
Conclusion
Fiber-optic networking being an extensively used yet complex technology, it relies on cables and connectors to establish and expand the networks. The performance efficiency of a fiber-optic network depends upon the type of cables and connectors used, their quality, specifications, and inter-compatibility. Therefore, to guide the readers for the selection of appropriate fiber optic connectors and cables for specific applications, the criteria have been discussed in this White Paper. To obtain more information about VERSITRON’s collection of fiber optic cables and connectors, please contact us.
Perimeter security is the outermost layer of physical protection that uses barriers, sensors, alarms and surveillance systems to detect and deter unauthorized access to property. Its goal is to protect people, buildings and assets from external threats.
These systems play a key role in defending buildings, campuses, critical infrastructure and surrounding facilities against intrusion, vandalism and other physical threats. While fixed barriers like fences and gates provide the physical backbone, they must be supported by active technologies that enable security teams to detect, analyze and respond to incidents in real time.
A comprehensive perimeter security solution should include security video cameras, perimeter lighting, motion sensors, an alarm system, intrusion detection systems and access control systems. Businesses should consider both indoor and outdoor perimeter security systems to build a layered defense strategy.
When integrated with a broader commercial security system, perimeter defenses enhance situational awareness and help teams respond faster and more effectively to potential threats.
To create strong perimeter protection systems, security teams need multi-layered solutions that deter intruders and provide the highest levels of situational awareness.
Strategically-positioned video surveillance cameras such as IP cameras enable security teams to monitor vulnerable areas, analyze and record video footage and detect suspicious activity. The cameras should be positioned to provide the widest possible coverage of vulnerable areas with the fewest cameras. Businesses can also invest in panoramic security cameras that provide 360-degree coverage of their perimeter.
A CCTV security system should also capture clear images in all light conditions. Clear images are essential, not just to detect activity but to capture evidence in the event of an incident. Perimeter security cameras are available in a wide range of resolutions, including the latest 7K, 30-megapixel models capable of capturing the highest levels of detail.
To overcome the challenges of poor visibility and low-light conditions, thermal cameras can provide clear images, even in complete darkness. Additionally, perimeter intrusion detection systems can be aided by analytics-enabled cameras that are configured to automatically detect concerning activity and malicious behavior.
An access control system enables security teams to verify the identity of employees and visitors wishing to enter the site via perimeter doors or gates. Visitors might include contractors, service or maintenance staff, delivery drivers or people visiting on official business.
Employees gain access by presenting different credentials at an access control reader fitted to a perimeter door, gate or other type of barrier. The reader transmits credential details to a controller that validates them against a database of authorized users before issuing a door release signal to allow access or restrict entry.
Visitors can present credentials, such as temporary passes, or request access via an intercom security system fitted to the door reader. Microphones and speakers allow visitors to talk to security officers or contacts on the site. Video-enabled systems provide further protection by allowing the contact to see the visitor.
In addition to controlling who can enter a site through perimeter control, security personnel can view details of every access event for audit or investigation in the event of an incident with a perimeter access control system.
Modern access control systems are hosted in the cloud, which enables security teams to handle access requests and open entrances remotely from any Internet-connected device, even if they are not on site.
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Sensors located in key positions on or near entrances and fences detect movement and disturbances, warning security teams of potential intrusions and suspicious activities.
Buried sensors can be installed on walls or fences, buried below ground (ground sensors) or fitted above ground in selected locations. Both indoor and outdoor perimeter security options are necessary. There are six main types of security perimeter sensors:
Fiber optic detection system – This system detects changes or breaches in security walls or fences.
Motion sensors – These sensors detect movements and send notifications when movement ‘breaks’ infrared rays. They can be located in various places between perimeter barriers and buildings.
Vibration sensors – These sensors (spot vibration sensors) are installed on perimeter windows, doors, gates and other entrances. They trigger alarms when vibration is detected.
Microphone sensors – Fitting these sensors to perimeter walls or fences can alert security teams if the microphone detects sounds, such as an intruder climbing or damaging a fence.
Radar systems – Radar systems can be installed in large open spaces that are difficult to monitor. They can detect the presence of intruders or vehicles at distances of up to meters.
Seismic sensors – Similar to vibration sensors, these sensors are installed within specific vulnerable areas and detect vibration caused by an attempted breach.
Perimeter sensors are a key component of perimeter intrusion detection systems, special networks of sensors, cameras and alarms configured to warn teams of attempted break-ins.
While standalone sensors can identify unusual activity, combining them with other security technologies provides a more complete and accurate view of potential threats.
This allows security teams to monitor unauthorized movement across multiple points along the perimeter and respond more effectively to suspicious activity.
Perimeter alarm systems use sensors installed around the property to trigger on-site alarms and send remote security notifications, warning security teams of unauthorized movements.
These alarms can be integrated into wider perimeter detection systems to enhance the overall protection of high-risk sites. Data from cameras, sensors and access control readers can be used to trigger alarms in response to unusual activity, with different sounds and text notifications warning of specific threats like unknown vehicles and forced access attempts.
Walls, fences, gates, doors and barriers, such as bollards, form a physical perimeter protection system that can deter intruders and ensure that only authorized personnel or approved visitors can enter via a perimeter access control system.
Electric fences add further protection by sending notifications if an intruder attempts to scale or cut the fence. As they can also cause shocks, electrified fences may not be permitted in certain regions.
Microwave barriers are perimeter security devices that create an ‘invisible barrier’ using microwave emissions to detect movement.
Perimeter security is essential to protect industrial plants, utilities, data centers, business parks, commercial campuses, retail parks, warehouses and logistics centers and sites housing critical infrastructure.
However, there is no ‘one-size-fits-all’ solution. Sites face different threats depending on the nature of their business, location, the size and layout of the perimeter and the volume of people and vehicles accessing the site. A storage facility security system and a large business complex system will have widely different considerations for perimeter security.
The plan should begin with a physical security risk assessment to identify the type of threats and the areas and elements of the site that represent the greatest vulnerabilities.
A detailed survey of the site, its boundaries, access points and physical features will provide a basis for planning physical barriers such as fences and placement of perimeter security devices and supporting infrastructure.
Equipment selection should be based on performance, reliability and protection against local environmental conditions. Perimeter security cameras should provide the widest coverage with a minimal number of cameras, and perimeter access control systems should combine convenience for employees and visitors with the highest levels of security.
Planning a comprehensive perimeter protection system can be complex. A professional security system specialist can provide expert advice on threat levels and equipment and carry out surveys and detailed planning.
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