Horizontal Cabling for Video Surveillance Guide

Horizontal Cabling for Video Surveillance Guide 

Horizontal cabling for video surveillance connects individual security cameras from their wall outlets or mounting locations back to a main control room or telecommunications enclosure.

Complicated and particular cabling is required in video networks, especially in commercials or academic environments. The cables used in network cabling must be created from specific materials. Horizontal cabling is one of the primary cabling methods used in today’s structured cabling system.

Horizontal cabling expands from a video storage room (NVR/DVR) to the individual IP Camera outlets. It is typically installed in a star topology that connects each IP Camera to the video storage room. It consists of the I/O outlet, a consolidation point (optional), a horizontal cable, mechanical terminations, and patch cords, or jumpers, stationed in the Video storage room.

 Typically, 100 meters is about the limit for the length of a cable. And bear in mind that this standard also applies to patch leads. Of course, every kind of cabling has its own limits, but it’s important that you understand what the standards are and make sure you are properly using cables.

The environment you run your cables through can make a distance. Areas that are too hot can lead to your network to fail, which is also true of excessive moisture. The best environments for cabling are areas that are cool and dry, so if your cables are run through an area that’s excessively hot or humid, you may need to set up equipment to help adjust those conditions.  A burst steam pipe can wreak havoc on your system (yes, we’ve repaired that, too).

There are a few options when it comes to professionally installing horizontal cabling for video surveillance networks. The three options examined here are:

·       'Direct Attached', where the first terminates the field cabling with an RJ45 modular plug, and connects it directly to the camera.

·       'Jack & Patch', where the cables are first terminated to a jack or patch panel, and then connected to security devices by patch cord.

·       'MPTL', Modular Plug Terminated Link is a hybrid of the two methods above with a female jack / patch panel at the head end and an RJ45 modular plug on the far end connecting directly to the camera.

Inside this report, we explain the options, tradeoffs, and elaborate on the pros and cons of each method.

The Three Methods

Direct Attach Method: The most common method of attaching devices to a network is simply plugging each terminated end into a device. Cables are run directly to a switch and to a camera or controller in the field, using an RJ45 modular plug at both ends of the cable. Testing is performed from these plugs across the length of the single cable.

However, many cite a second more permanent method is better despite being more complex:

Jack and Patch Approach: According to the 12th Edition of BICSI's TDMM and prior, all horizontal cabling should be terminated in the closet end on a patch panel, and in the field, on a jack. Starting in later editions, this requirement was relaxed for security equipment and other installations where accessibility may be difficult or tampering may be a risk.

Connections are made from the patch panel to switch, and from the jack to device with patch cords. The resulting section of cable from patch panel to jack is called the 'permanent link'. Typically jacks are installed in a wallplate for interior cameras, and patch from the plate to the camera. In exterior applications, jacks are commonly mounted in junction boxes.

Most recently ANSI/TIA has added a hybrid approach.

MPTL (Modular Plug Terminated Link): The standard ANSI/TIA-568.2-D, published in 2018, includes a specification for horizontal cabling which is is a hybrid of both 'Jack and Patch' and 'Direct Attach' cabling methods. The standard specifies a female jack on one end and a male plug on the other end. In surveillance networks this is typically a patch panel port at the head end patched to an NVR or switch, and the far end terminated with an RJ45 modular plug connected directly to the camera. This method offers the benefit of using patch panels for organized termination at the head end with the ease of installation at the far end.

The Heart Of The Debate

Historically, the major issue driving this debate is the 'modified permanent link' which modular plugs create. Since cables are specified by standards to be terminated in the typical link fashion, testers were created to test the normal permanent link, resulting in not-quite-accurate tests when testing through a modular plug.

In 2020 this is no longer a practical concern as certifiers are equipped to test, the permanent link, full channel, and most recently MPTL.

Building automation systems have used the direct attach method for years, as it was recognized by TIA standards that in some cases a jack and patch cable are impractical or unserviceable. Current Editions of BICSI's Electronic Safety and Security design reference have come to the same conclusion.

However, it should be noted that security applications break other fundamental rules of BISCI standards, such as each outlet being mounted 18" above finished floor with two cables run to it. Security devices, just like BAS devices, are application-specific, and different standards apply while respecting original intent where possible.

Which Method Should I Use?

While, practically speaking, there is nothing wrong with any of these methods, and much is left up to preference, directly attaching plugs is generally preferred by the majority of integrators. There are two main drawbacks which may be a problem when using this method:

·       Cable flexibility: In UTP cable used for horizontal runs, each of the eight conductors (four pairs) is made from a solid copper conductor. In patch cables, each conductor is made up of multiple thin copper strands. This makes the conductor, and in turn, the entire cable, more flexible. For this reason, patch cables may be able to fit into tight domes where sharp bends are without straining or pinching the cable where solid conductor cable would have issues. Strictly speaking, however, according to standards, bend radius is four times the diameter of the cable, regardless of solid or stranded construction.

·       Modular plug construction: While Cat 5e cable is almost always 24 AWG, some manufacturers of Cat 6 and higher cables have sized conductors up to 23 AWG. Care should be taken when selecting cable/modular plug combinations, to make sure the plug is rated for the category cable being installed and will handle larger-gauge wire, or it may not work properly, or simply not at all.

Users should be aware of challenges in specific applications, as well:

Interior cameras: When installing interior cameras, the key consideration is where the camera will be mounted. If the cameras are to be wall-mounted, or in the case of warehouse or other open-ceiling environments, installing jacks is simple, either in a surface-mount or recessed box with wallplate. When using ceiling-mounted domes, however, installation is trickier. As discussed in our installation issues update, exposed connections are not allowed by code above drop ceilings. This means that, unless the dome has room enough to install a jack inside it (which is unlikely), a junction box must be provided to house the connections, making the direct attach method much simpler.

Exterior cameras: Using jacks in exterior locations can be much trickier than their interior counterparts. If using box cameras, a jack may be located in the housing. However, exterior domes are as unlikely as their interior counterparts to have enough space to locate a jack and patch cable. If an enclosure is provided, for surge protection, wireless equipment, or other needs, the jack may be located there. In most cases, however, the direct attach method will be simpler.

No matter which method is used, care must be taken during installation. Maximum cable pulling tension and not exceeding bend radii should be observed. All components should be matching category rated, including mod plug and patch cables. If all of these are followed, connections should experience few issues.

Best Practices for Installation

Outdoor Protection: Use UV-resistant or shielded (STP) cables if any portion of the horizontal run is exposed to outdoor elements or electrical interference.

Avoid CCA: Do not buy copper-clad aluminum (CCA) wire because it breaks easily and fails standard resistance tests

 REF: IPVM, John.

Drones and Data Privacy

Drones and Data Privacy 

Drones raise data privacy concerns due to their ability to collect vast amounts of personal data, including images, video, and geolocation, through advanced sensors and cameras. These concerns are amplified by potential for surveillance, the collection of data without consent, and security risks like hacking. Mitigation requires clear guidelines, responsible use, and the implementation of data protection principles like data minimization and secure storage.

 

For Indian business owners, a drone is no longer just an aerial tool; it is a mobile data harvester. Operating commercially means navigating the strict intersection of aviation mandates from the Directorate General of Civil Aviation (DGCA) and the stringent privacy liabilities of India’s Digital Personal Data Protection (DPDP) Act.

As drone adoption accelerates across Europe, privacy has become the new regulatory frontier. Enterprises must now prove not just safety, but also data sovereignty — where and how aerial data is stored, processed, and shared.

What is personal data? The term “personal data” is a very broad concept that covers any type of information relating to an identified or identifiable person. As a result, any use of a drone that captures images which identify an individual (such as a facial image) will fall within the scope of data protection legislations. But the same also applies if the drone collects any type of data (such as location, house fronts, phone number, vehicle registration plate, IR image, etc) that can be linked to an individual and therefore, this one becomes identifiable/identified.

Hidden Privacy Risks of Aerial Data

·       Surveillance: 

Drones can be used by governments, law enforcement, or private entities to monitor individuals, infringing on their right to privacy. 

·       Data collection: 

High-resolution cameras and sensors can capture images, video, audio, and location data that identify individuals, even without direct intention. 

·       Unauthorized access: 

The use of drones in public spaces can intrude on areas where people have a reasonable expectation of privacy, such as private properties. 

·       Function creep: 

The sophisticated technology on drones can lead to "function creep," where data is collected for one purpose and then used for other, more intrusive purposes later. 

·       Security vulnerabilities: 

Drones and their data can be vulnerable to hacking, which can lead to unauthorized access or the compromise of sensitive information.

Mitigation and best practices

·       Establish clear guidelines: 

Regulations are needed to define when and how drones can be used for data collection, particularly in residential or sensitive areas. 

·       Adopt data minimization: 

Data collection should be limited to what is necessary for a specific, stated purpose, and irrelevant data should not be retained or collected. 

·       Implement security measures: 

Manufacturers and users should implement robust data handling and storage mechanisms to protect collected data. 

·       Use privacy-by-design: 

Drones should be designed with privacy in mind, and hardware capabilities that pose risks should be carefully considered. 

·       Educate users: 

Recreational and commercial users need to be aware of privacy risks and practice responsible use, which may include following codes of conduct. 

Drone hardware (payloads and capabilities) and privacy

Drone payloads which include sensors and allow capturing data could give rise to privacy concerns among individuals on the ground. By capturing data, such as images, sound, geolocation and others, a drone could interfere with the privacy of individuals on the ground, especially if the captured data allows the identification of people (which in such case qualifies as the collection of personal data in terms of the GDPR). Blurring of faces of people is not always a guaranteed way to prevent such identification in contexts which contain other details, such as house or car numbers. Therefore, it is recommended that you, as a manufacturer, consider what kind of hardware features and capabilities a drone should be equipped with.

The question has shifted from “Can drones fly here?” to “Can this data legally live here?”

Why compliance is now a boardroom issue

For companies like UAVONIC, operating across the EU, every mission involves strict GDPR and local data protection checks. Each flight generates high-resolution video and telemetry that can include private property, people, or restricted infrastructure.

‍Traditional cloud workflows created friction: uploading footage to international servers risked compliance breaches. On-premise data handling, however, is limited in scalability. Enterprises needed both control and automation, a balance that most systems couldn’t offer.

How autonomy enables compliance

The solution came through FlytBase’s on-prem deployment model. UAVONIC adopted docked drones integrated with FlytBase’s local processing nodes, allowing missions to execute autonomously while keeping all captured data within sovereign infrastructure.

This approach provides:

·       Complete local data ownership — video and telemetry never leave the enterprise network

·       Automated audit trails for flight records and data access

·       Policy-based storage controls, aligning operations with GDPR and national regulations

By removing manual data handling and external transfers, UAVONIC reduced audit preparation time by 70% and achieved full compliance across multiple EU territories.

Beyond regulation toward accountability

Privacy compliance is evolving from a checkbox to a competitive advantage. Clients and partners now ask how enterprises manage drone data before granting access to sensitive sites.

By using FlytBase’s secure automation framework, organizations can demonstrate verifiable control over every mission, proving not only where data is stored, but how it’s governed.

The global shift to data sovereignty

Across industries, from utilities to logistics, more enterprises are adopting localized autonomy frameworks. Each FlytBase deployment ensures that sensitive operational data stays within defined boundaries while maintaining real-time collaboration for authorized teams.

The result is a new kind of compliance readiness — one that’s proactive, automated, and fully auditable.

Securing autonomy for the future

‍Data privacy is no longer an IT concern; it’s a business requirement. By combining autonomy with data governance, FlytBase enables organizations like UAVONIC to operate confidently in regulated environments while staying ready for future policy shifts.

	Potential risk	Pontential safeguards
Overall information and IT security assurance	Malicious hardware or software could be used to attack both the drone and the ground control systems. Such vulnerabilities could lead to loss of sensitive data or to loss of control over drones while operational, both of which could raise potential privacy and security concerns.	The security of the entire supply chain of software and components you use to manufacture a drone should be ensured. Ensure that the update or patching of software does not interfere with the operation of the drone, especially while in flight. Using firewalls, antivirus systems and intrusion detection systems could be a fundamental step towards security the drone.
Drone navigation, both when operating autonomously and manually	Information and IT security vulnerabilities in the ground control system for the drone or in the transmission of information and commands between the drone and its controlling point could allow unauthorised persons to take over control of the drone or disrupt its normal functioning. This could raise concerns about the privacy of people on the ground since this unauthorised controller would be unknown to them but could also raise security issues due to the physical damage and harm which drones could cause.	Installing authorisation controls on the ground control system could help limit unauthorised access and control of the drone or unauthorised interference with drone features and settings.
	Since Global Navigation Satellite Systems (GNSS) like Galileo, GPS or GLONASS broadcasts are freely accessible, unencrypted and unauthorised signals, a drone could be fed misleading GNSS signals to alter its calculations of geographical coordinates. This could lead to a drone changing its flight path and could raise privacy and security concerns, particularly when the drone is operating autonomously.	Software features which are able to detect fake GNSS signals should be incorporated into the product. A interface feature whereby manual control can easily be restored and override autonomous operation is recommended.
	GNSS signals could also be jammed. This would disrupt the connection between the drone and external navigation, leading to the drone becoming disoriented and potentially crashing.	Alternative means of navigation could be considered, such as reliance on visual and inertia ques and requiring the attention of pilots and operators to begin manual operation. The use of GNSS receivers for more than one system can also mitigate the risk of GNSS jamming.
Data collection and processing	The operation and functioning of drones could be attacked by injecting false sensor data into the flight controller. This type of attack can impact all types of drone sensors, including radar, infrared and electrooptical sensors.	A drone could utilise alternative operational procedures to compare data received through different sensors and crosscheck readings. This could allow the drone to tolerate malfunctioning components or infected information.
Data transmission between the drone and other devices (e.g. control system)	Real time data streams can be hacked and intercepted, especially if they are not encrypted or equally protected. This can jeopardise the privacy of people captured in the data, as well as the security of the drone operation itself by failing to control access to key data.	Incorporating continuous mutual authentication between the operator and the drone can help authenticate communication. Encryption could help protect such data. Utilising security keys to authenticate the connection and transmissions can ensure its security.
Data stored on drone	By exploiting information and IT security vulnerabilities, unauthorised personnel could gain access to data stored on a drone. This could take place in the event of a drone accident or drone crash, as well as by exploiting vulnerabilities in the hardware and software of the drone. This could raise privacy concerns for individuals whose data is captured.	Use encryption to ensure the data stored on a drone is protected. Implement access controls to the drone itself requiring authorisation for accessing data. Build in capabilities to detect data breaches and alarm users to them.

The Dual Regulatory Burden on Indian Businesses

1. DGCA Airspace Compliance

All commercial drones operating above the Nano category (under 250 grams) must strictly follow the DGCA framework.

·       UIN Registration: Every drone must be registered on the eGCA Portal to receive a Unique Identification Number.

·       NPNT Mandate: India enforces No Permission, No Takeoff (NPNT). Drones must connect to the DigitalSky system; firmware locks will physically prevent the drone from taking off unless digital flight clearance is granted.

·       The Civil Drone Bill: Businesses should prepare for the stringent updates outlined in the Civil Drone Bill, which significantly escalates penalties for deviations—including steep fines up to ₹1 Lakh and authority powers to detain aerial hardware on mere suspicion.

2. The DPDP Act: Your Data Fiduciary Status

Under the Digital Personal Data Protection Act, commercial operators are legally classified as Data Fiduciaries. Aerial video files, LiDAR maps, or thermal scans that capture identifiable faces, residential interiors, or vehicle license plates are classified as digital personal data. If your drone inadvertently records individuals without explicit authorization, your business faces substantial financial liabilities.

Operational Blueprint for Privacy and Compliance

To protect your business from operational bans or multi-crore privacy penalties, integrate these localized practices into your standard operating procedures (SOPs):

Deploy Privacy Masking at the Source

·       Firmware Controls: Work with your tech teams to configure built-in "privacy masking" protocols.

·       AI Blurring: Use localized post-processing software to automatically blur faces and registration plates before sharing mapping data with third-party clients.

Establish Verifiable Consent & Notice Architecture

·       Public Advisories: When surveying non-public zones or semi-residential sites, provide clear, advanced notification to local communities.

·       Explicit Disclosures: State exactly why data is being collected, who will have access to it, and how long the video logs will be archived.

Localise Data Storage

·       Turn Off Auto-Sync: Many commercial drone suites default to overseas cloud servers. Restrict your hardware to Local Data Mode (LDM) to force the data to remain entirely within localized, offline servers.

·       On-Soil Infrastructure: Under the DPDP Act guidelines, any data transferred across borders must clear negative-country checklists. Keeping processing pipelines on Indian cloud infrastructure lowers compliance risks.

Encrypt and Log All Assets

·       Secure the Storage: Encrypt the physical SD cards inside your drone payloads. If a drone crashes or is retrieved by an unauthorized party, the raw surveillance footage must remain completely unreadable.

·       Maintain Flight Logs: Keep precise flight telemetry logs for at least one year to protect your business against data breach accusations or airspace violations.

Comparison of Liability: Recreational vs. Commercial In India

Compliance Vector	Recreational / Nano Drones (<250g)	Commercial Enterprise Drones (Micro to Large)
DGCA Registration	Not mandatory for most standard Nano models.	Mandatory via eGCA portal; must display physical UIN.
Pilot Licensing	No remote certificate needed for basic hobby flights.	Mandatory Remote Pilot Certificate via approved RPTO pathways.
Airspace Clearing	Restricted to basic green zones up to 50 feet.	Strict NPNT integration required before every single flight.
DPDP Accountability	Mostly exempt unless processing systemic data.	Full Data Fiduciary Liability with mandatory breach notifications.

The Outlook for Enterprise Aviation

The Indian commercial drone market is backed heavily by government growth models like the Production Linked Incentive (PLI) Scheme. However, this fast-tracked scaling requires operational maturity. Drone data security is no longer just a technical checkbox—it is a critical pillar of corporate compliance. Business leaders who proactively blend aviation safety with DPDP data privacy standards will gain a strong competitive advantage in India's expanding digital ecosystem.

AI, Cloud and Cybersecurity Open New Opportunities for Integrators

AI, Cloud and Cybersecurity Open New Opportunities for Integrators 

I was recently asked which technologies are going to have the most significant impact on the physical security industry in the next few years. With the rapid pace of change in technology today, there is no simple answer to this question.

One thing that is certain is that companies are under pressure to become more efficient, secure and operationally aware. That, in turn, is driving the need for real-time data capturing and processing from every part of their business, including security.

We are just beginning to see how emerging technologies and concepts such as artificial intelligence (AI), Cloud computing and cybersecurity are impacting our industry. As companies plan for the future, budgets are increasingly focused on innovative solutions that can help to process the growing amount of data being captured and consumed.

Manufacturers and systems integrators that understand this shift have been quick to identify opportunities to win new business through the introduction of value-added applications or new services capable of generating recurring monthly revenue.

We explore some of those technologies and opportunities below.

Artificial intelligence and analytics

AI analytics is the product of automating data analysis—a traditionally time-consuming and people-intensive task—using the power of today's artificial intelligence and machine learning technologies.

AI analytics refers to a subset of business intelligence that uses machine learning techniques to discover insights, find new patterns and discover relationships in the data. In practice, AI analytics is the process of automating much of the work that a data analyst would normally perform.

Customers are looking to AI and data analytics to gain better insight into their operations. These offerings can enable security-related intelligence or operational and customer insights. The key to AI is self-learning algorithms that, over time, get better at identifying certain targeted behaviors or transactions and reducing false positives.

We have also begun to see several chip manufacturers introduce next generation processors with AI built into the core firmware. As a result, systems integrators can expect to see many product innovations in 2018 focused on advanced video analytics, data integrations and application software.

The challenge for their customers will be clearly defining which data is most valuable to them, who will have access to it, and how to best manage it. Systems integrators can play a key role in this process by having those discussions with customers up front and encouraging a proof-of-concept phase before fully rollouts are undertaken.

 

Cloud-based services

Cloud based services provide information technology (IT) as a service over the Internet or dedicated network, with delivery on demand, and payment based on usage. Cloud based services range from full applications and development platforms, to servers, storage, and virtual desktops.

In addition to AI and data analytics capabilities, we are seeing demand from customers for Security-as-a-Service (SaaS) offerings. The combination of low, upfront capital costs and outsourced services has made Cloud-based video and access control popular, especially in the hospitality and small-to-medium enterprise markets. Examples of SaaS cloud service providers include Dropbox, G Suite, Microsoft Office 365, and Slack. In each of these applications, users can access, share, store, and secure information in “the cloud.”

As technology providers add more sophisticated applications and services to further drive customer insight and efficiencies, expect enterprise retail customers to begin moving to this model as well in 2018. For systems integrators, SaaS solutions can represent a recurring revenue stream and a great opportunity to generate new business.

 

Cybersecurity impacts

Cyber attacks can cause electrical blackouts, failure of military equipment, and breaches of national security secrets. They can result in the theft of valuable, sensitive data like medical records. They can disrupt phone and computer networks or paralyze systems, making data unavailable.

Cybersecurity is crucial because it safeguards all types of data against theft and loss. Sensitive data, protected health information (PHI), personally identifiable information (PII), intellectual property, personal information, data, and government and business information systems are all included.

The sheer scope and size of the data breaches we saw in 2017 – Equifax being one of the most notable – has heightened concerns over cyber-preparedness. Increasingly, customers are evaluating their own level of cybersecurity preparedness, as well as that of their suppliers.

There’s no doubt that our industry is taking cybersecurity seriously, however there is still work to be done, and both systems integrators and their manufacturer partners need to be prepared. Information technology (IT) departments will continue to play an expanded role in approving products for deployment on corporate networks. The use of third-party cybersecurity audits will also become more commonplace, which will significantly impact how products are developed and deployed.

In addition to ensuring that their products are secure, manufacturers and system integrators will also need to improve their own organizational security. For video solution providers, that could mean demonstrating how they protect their software code and architect their software, and how compliant their solutions are with data privacy standards in North America and globally.

The need to bolster cyber defenses will also create demand for new equipment and software upgrades as the vulnerabilities of customers’ legacy equipment are exposed.

Cybersecurity will be a challenge for some systems integrators, but a great business opportunity for others. Customers will increasingly look for integrators that can meet their cybersecurity standards and possibly pass a cyber audit. If there’s a weak link in the chain – from product design to installation or service – then everyone loses. System Integrators know major China manufacturers like Dahua, Hikvision, Uniview are not impacted, from everything we have seen. We executed the proof of concept code from the disclosure on multiple devices and were unable to gain access using the backdoor. The backdoor primarily impacts devices using HiSilicon SOC with Xiongmai software, which is dozens of small OEM manufacturers, using minimally modified OEM firmware, Open Source OS and drivers, and enabling telnet on port 9530.

So it’s important that integrators and manufacturers work closely together and ensure that they share the same high cybersecurity standards. Integrators should also demand that their manufacturer partners be diligent about educating them on products and keeping software up to date to reduce potential vulnerabilities.

 

Knowing your market

Many of today’s leading system integrators have begun investing in the additional resources needed to educate staff and align their organizations so they can successfully adopt and provide these new capabilities to their customers.

It’s important that your organization have conversations with both your end user customers and your technology providers so you can take advantage of new opportunities while also helping to clarify what’s possible today and what’s still on the horizon.

As integrators move from equipment sales to consultative solution sales, it is important to understand the unique business problems of the customers in your target market. While this concept is not new, a growing number of integrators are putting vertical market initiatives in place to concentrate their expertise.

The top five business challenges of yesterday may no longer be the top five challenges of tomorrow. Integrators need to understand what those unique challenges are for each vertical they play in, and work with manufacturers that can provide proven solutions for specific markets.

Internet of Things and the Cloud Ecosystem

Internet of Things and the Cloud Ecosystem

Internet of Things or IoT refers to an ecosystem of devices/things that are connected to each other over a network enabling communication among them. These connected devices are equipped with UIDs (Unique Identifiers). Once a device or gadget is represented digitally, it can be controlled or managed from anywhere. This helps to capture and transfer data from different places with minimal human intervention, increasing efficiency and improving decision making.

Broadly, Internet of Things can be classified into Consumer IoT (CIOT)) and Industrial or Enterprise IoT (IIoT). The key difference between CIoT and IIoT mainly lies in the type of devices, application and the technologies that power them.

Consumer IoT

Home Security and Smart Homes is one of the major areas where Consumer IoT is becoming very important.  Monitoring intrusions, authorizing entries, controlling appliances remotely, all these are examples of Consumer IoT applications.  Personal Healthcare is another area, which has benefitted extensively from Consumer Internet of Things. Personal wearable healthcare devices like fitness bands, track and monitor performance over time, providing information on progress and improvement. Blood pressure and heart rate bands powered by IoT can connect us directly to the healthcare system and provide timely assistance and alerts when needed. Other areas in the healthcare industry wherein IoT can play a crucial role include patient surveillance, care of the elderly and the disabled.

Industrial IoT

Enterprise and Industrial IoT applications can automate business processes that depend on contextual information provided by embedded devices such as machines, vehicles and other equipment. In recent years, Internet of Things has been gaining wide applicability, notably in Industrial and Enterprise environment as it provides a convenient mechanism to connect devices, people and processes. Organizations are looking at upgrading their existing resources to bring all their legacy systems under the IoT ecosystem. The key here is to ensure seamless interoperability, connectivity, scalability, and stability among various components in the ecosystem.  Some of the areas where organizations can bring in easy, yet beneficial changes with IoT are,

o   Asset tracking

o   Resource Management

o   Inventory management

o   Job/Task distribution

Cloud Ecosystem

The cloud ecosystem offers a platform to connect, collaborate and innovate. While IoT generates data from various physical systems in the ecosystem, cloud enables a seamless data flow and quick communication among these devices. It’s a complex system of connected devices that work together to create an efficient platform. The resources that can be delivered through cloud ecosystem include computing power, computing infrastructure (servers and storage), applications, business processes and more. Cloud infrastructure has the following characteristics, which differentiate it from similar distributed computing technologies:

o   Scalability

o   Automatic provisioning and de-provisioning of resources

o   Cloud services accessible through APIs

o   Billing and metering in a pay-per-use model

o   Performance monitoring and measuring

o   Security to safeguard critical data

How do IoT and the Cloud go hand in hand?

Internet of Things and cloud computing are complementary in nature. IoT benefits from the scalability, performance and pay-per-use model of cloud infrastructure. The cloud reduces the computational power needed by organizations and makes data processing less energy-intensive. These facilitate business analytics and collaborative capabilities which help organizations in rapid development of new products and services. The benefits of combining IoT and the cloud are:

o   Quicker deployment of data and thus, quicker decision making

o   Easy navigation through data

o   Flexible payment options

o   Decreased costs on hardware and software

o   High degree of scalability

Conclusion

According to SoftBank, by 2025 about 1.0 trillion devices are expected to be connected over Internet of Things. The rapid development in the field of IoT technology and the fast-paced business environment has made IoT an inevitable choice for organizations. IoT is bridging the gap between physical systems and digital world, hence increasing productivity in both consumer and industrial environment.

IoT service providers assist organizations to transform their infrastructure by providing IoT sensor nodes and IoT Gateway Devices, integrating the communication Frameworks and protocols and providing the Applications [Web/Cloud Applications and Client Applications], to bridge the legacy systems to the IoT infrastructure. IoT Service Providers identify congestions in the enterprise functioning and help the organization to achieve increased efficiency by enabling systematic and intelligent tracking, monitoring, communication and decision-making system. Mistral, as a technology service provider can help you realize your IoT strategy by providing IoT Device Designs and IoT Gateway Designs based on powerful processors from Intel, Texas Instruments, Qualcomm, NXP/Freescale and open source platforms. We can help you through IoT Protocol Development, Web/Cloud/PC Applications integrating with the legacy system to provide a seamless IoT enabled solution for enterprise and industrial automation.

Ref:

1.    1.   https://venturebeat.com/business/
2.      https://www.mistralsolutions.com/blog/internet-things-cloud-ecosystem/
3.      https://community.arm.com/arm-community-blogs/b/
4.      https://www.thefreelibrary.com/