System Integration & Designing

Legacy system integration
Goal: integration of modern applications into existing outdated systems
Many organizations use outdated software to perform their core business functions. It cannot be removed and replaced with more modern technology as it is critical to a company’s day-to-day workflow. Instead, legacy systems can be modernized by establishing a communication channel with newer information systems and technology solutions.

Example: connecting a legacy CRM system to a data warehouse or a transportation management system (TMS).

Enterprise application integration (EAI)
Goal: unification of different subsystems inside one business environment

While growing, companies incorporate more and more enterprise applications to streamline their front- and back-office processes. These applications often share no points of convergence and accumulate huge volumes of data separately. Enterprise application integration (EAI) brings all functions into one business chain and automates real-time data exchange between different applications.

Example: creating one ecosystem for accounting, human resources information, inventory management, enterprise resource planning (ERP), and CRM systems of a company.
Third-party system integration
Goal: expanding functionality of the existing system

Integration of third-party tools is a great option when your business needs new functionality but can’t afford custom software development or just has no time to wait for features to be built from scratch.

Example: integrating an existing application with online payment systems (PayPal, WebMoney), social media (Facebook, LinkedIn), online video streaming services (YouTube), etc.
Business-to-business integration
Goal: connecting systems of two or more organizations

Business-to-business or B2B integration automates transactions and document exchange across companies. It leads to more efficient cooperation and trade with suppliers, customers, and partners.
Example: connecting a retailer’s purchasing system to a supplier’s ERP system.

Whatever the situation, the main objective of system integration is always the same — to put the fragmented and divided pieces together by means of building a coherent network. Let’s look at existing technologies and architecture models that make the integration magic happen.

Ways to connect systems
There are different ways to achieve connectivity between separate systems. We’ll review the most common “connectors” in a nutshell.

Application programming interfaces (APIs) provide the most common and straightforward way to connect two systems. Sitting between applications and web services, they enable the transmission of data and functionality in a standardized format. Most online service providers — from social media to travel platforms — build external APIs so that clients can easily link to their products.
Middleware is the hidden software layer that glues together distributed systems, applications, services, and devices. It handles different tasks such as data management, messaging, API management, or authentication. Cloud middleware can be accessed via APIs. In turn, an API gateway can be considered a type of middleware between a collection of services and systems using them.

Webhooks, also known as HTTP callbacks are real-time messages, sent by one system to another when a certain event happens. Say, accounting software may receive webhook notifications about transactions from payment gateways or online banking systems.

EDI — the abbreviation for electronic data interchange — is the exchange of business information in a standard electronic format, that replaces paper documents. EDI generally happens in two ways: via a value-added network (VAN), in which a third-party network is in charge of data transmission, or direct connections through the Internet.

All these connectors can be mixed and leveraged when building complex system integrations. If companies have unique needs and requirements for system integration, it’s better to opt for custom built solutions whether they are APIs, webhooks, or middleware.

How to approach system integration

System integration is multifaceted and can be approached through different architectural models, depending on the number and nature of components that need to be connected.

Point-to-point model

Point-to-point integration (P2P) is the architectural pattern in which every system is directly connected to all other systems and apps it needs to work in tandem and share information with. This model can be realized via APIs, webhooks, or custom code.
With a point-to-point connection, data is extracted from one system, modified or formatted, and then sent to another system. Each application implements all the logic for data translation, transformation, and routing, taking into account the protocols and supported data models of other integrated components.

Pros and cons: Among the main advantages of point-to-point integration is the ability of an IT team to build a small-scale integrated system quite quickly. On the flip side, the model is hard to scale and the management of all the integrations gets very demanding when the number of applications grows. Say, to interconnect six modules you need to perform 15 integrations. This results in the so-called star/spaghetti integration.

When to use it: This approach suits companies that don’t have complex business logic and run their operations on just a few software modules. It is also a perfect option for businesses aiming at connecting to SaaS applications.

Hub-and-spoke model

The hub-and-spoke model is a more advanced type of integration architecture that addresses the issues of point-to-point and helps to avoid the star/spaghetti mess. The connections between all subsystems are handled by a central hub (message broker), so they don’t communicate with each other directly.

The hub serves as a message-oriented middleware with a centralized integration engine to translate operations into a single canonical language and route messages to the right destinations. The spokes (adapters) connecting the hub to the subsystems are managed individually.

Pros and cons: As opposed to P2P, the model brings quite a few benefits to the table including
higher scalability. Since every system has only one connection to the central hub, things get better in terms of security and architecture simplicity. However, the centralization of the hub can be a weakness in such a model. The whole infrastructure is dependent on the single integration engine which can become the key bottleneck as the workload increases.

When to use it: The hub-and-spoke model is widely-used in e-commerce, financial operations, and payment processing. Besides, it’s a preferable architecture for highly regulated industries that face significant security risks.

Enterprise Service Bus (ESB) model

The ESB architecture involves the creation of a separate specialized subsystem — an enterprise service bus — that serves as a common user interface layer connecting other subsystems.
The ESB can be described as a set of middleware services that glue multiple systems, serving as a messaging backbone. In contrast to hub-and-spoke with a single centralized integration engine, in ESB, each system is supplied with a separate integration engine and an adapter that translates a message into the canonical format and back into the destination supported format. Initially designed to bridge complex internal systems of large enterprises, ESBs can work with cloud services too.

Pros and cons: One of the best things about ESBs is that each subsystem is decoupled by a “messaging bus,” so it can be replaced or changed without affecting the functionality of other subsystems. This plays in favor of high scalability. Also, such projects are reliable and quite easy to design. As far as the cons, maintenance and troubleshooting get more complex with the spreading of integration tasks across the systems.

When to use it: An ESB model is an optimal way to implement large projects such as enterprise application integration (EAI), allowing them to scale when needed. It’s a good fit if a company needs to bring it together on-premises.

Deployment options for integrated systems
Though we’ve described the three most common architectures, the reality is more complicated than that. A single integration approach may not be sufficient anymore — especially when speaking of enterprises leveraging a wide range of technologies. Often, companies have to combine all three patterns within one ecosystem, using various types of middleware and API layers between IT components. Luckily, the growing number of cloud platforms offer their services to handle complex integrations. Below are two popular deployment options to consider.

Integration platform as a Service (iPaaS)

Integration Platform as a Service is a set of cloud-based integration solutions mostly used for building and deploying integrations in the cloud.

As an all-inclusive service, iPaaS couples systems, processes, and data, making them accessible via a single user interface. It presents a library of pre-built connectors that enable disjointed applications to communicate with one another despite where they are hosted. iPaaS handles data transformation and shipping from and to applications.

Pros and cons: iPaaS is advantageous in tons of ways. It’s flexible, multi-functional, and scalable. With iPaaS, integration activities are automated, facilitating the connection of systems and databases deployed in any environment and enabling faster project delivery. As far as the shortcomings, there might be security concerns as with any public cloud.

When to use it: iPaaS is great for real-time applications and it enables a variety of integration scenarios including enterprise application integration (EAI), data integration, cloud integration, B2B integration, API management, Internet of Things integration, and many more.

Hybrid integration platform (HIP)
A hybrid integration platform or HIP is a more universal version of what iPaaS offers. It is an array of integration software providing built-in capabilities to make on-premises and cloud-based solutions work as a single unit.
Integration platforms act as the middleware between legacy systems that run on physical hardware, applications and databases in a private cloud and systems running in a public cloud. Such platforms require minimum configuration. They interface and integrate with any systems by using two main components — protocol connectors to handle communication protocols such as HTTP, TCP, JMS, etc., and message formatter to handle various data formats such as JSON, XML, etc.

Pros and cons: HIPs provide different perks from managed APIs and cloud offerings to reusable integration templates for common use cases. With this model, companies can count on high security and the reduction of integration costs and time as well as maintenance efforts. At the same time, integration platforms haven’t reached the maturity phase, which is why it may be difficult to pick a suitable out-of-the-box solution.

When to use it: The main focus of HIPs is placed on the digital transformation of legacy systems. This is a great framework for organizations needing to enable connectivity between on-premise and cloud solutions.

Key steps of system integration

Companies can automate and gain full transparency of their business operations by joining enterprise data and systems together. If you want to conduct effective integration and return your investments in no time, there are a few crucial steps to take.

Planning and feasibility analysis

Every integration process starts with the assessment of systems to be integrated and mapping out a realistic strategy. Draw an accurate picture of your current software and its tech specifications and define all integration requirements. Also, determine the scope of your integration project, its schedule, and cost. It’s a good idea to include all possible risks in your plan and ways to handle them.

Architecture modeling
This step involves choosing one of the common models we mentioned above or designing a custom architecture to meet your specific needs. You also need detailed blueprints of how systems will communicate with other comprehensive systems. The most labor-intensive, this phase is of great importance as it outlines the integration model, methods, and process in general. Preliminary and physical designs are created at this stage.

Implementation
The new integrated system is thoroughly tested to make sure that all modules seamlessly interact with one another without losing any data during transmission. After that, it can be implemented and presented to users. It is recommended to keep the implementation stage short to avoid challenges relating to possible changes in the integration process. Agile project management can be applied during and after this phase to help a company adjust to the changing landscape of integration systems.

Maintenance

You shouldn’t neglect routine maintenance on the system. Scheduling performance diagnostics to make sure that all modules function flawlessly and no errors occur is advised.

Cost savings

Remote infrastructure management helps businesses reduce operational costs significantly. By eliminating the need for on-site staff and physical infrastructure, organizations can save on expenses related to office space, equipment and utilities.
Additionally, outsourcing IT infrastructure management to specialized service providers lets companies access top-notch expertise without investing in extensive in house training or the costs of highly skilled IT professionals, which are also in short supply.

However, organizations need to pay close attention to the managed service contract terms to ensure the cost metrics are easily understood and they’re not paying more than expected. Negotiating longer-term contracts can help lock in optimal pricing.

Improves focus on core competencies

Delegating IT infrastructure management to remote service providers lets organizations focus on their core competencies. With RIM providers taking care of technical support, troubleshooting and maintenance tasks, businesses can redirect their internal resources toward innovation, product development and higher-value customer service.

Efficient handling of remote locations

For companies operating in multiple locations or with a remote workforce, RIM becomes even more critical. Managing IT infrastructure across various geographical locations can be complex and challenging. Remote infrastructure management offers a centralized approach to handle distributed systems, ensuring uniformity, security and seamless access to IT services for all employees.
Make sure any RIM provider can handle certain geographic requirements. Some smaller providers are mostly regional.

Reduce downtime and enhanced productivity

Swift detection and resolution of IT issues is important for minimizing downtime and maintaining business productivity. RIM employs proactive monitoring and automated alerts to identify potential problems, enabling timely interventions before they escalate into disruptions that could affect business operations.

The difference between remote and on-site infrastructure management

While on-site infrastructure management has been the traditional approach, remote infrastructure management has several advantages that set it apart:
Accessibility and flexibility. With RIM, IT administrators can access and manage systems from anywhere with an internet connection. This flexibility enables quick response times, even during off-hours or emergencies, without requiring a physical presence. As workforces become more distributed, anywhere and anytime access is essential.
Scalability. Remote infrastructure management offers scalable services that can adapt to an organization’s changing needs. As businesses grow, RIM can accommodate increased demands without the need for substantial infrastructure investments. Just make sure pricing metrics for management are accounted for, as rapidly growing infrastructure can increase your RIM costs.
Data center management. RIM extends its benefits to data centers, where managing a vast array of servers and complex systems remotely can enhance efficiency and reduce the risk of human error. Although enterprises often manage local systems internally, having all systems managed from a central location or provider should deliver better overall visibility and management.
More efficient collaboration with service providers. Partnering with specialized RIM service providers lets businesses access a diverse pool of technical expertise. Collaboration becomes more manageable, and the service providers can tailor their offerings to suit the organization’s requirements. This helps smaller companies that might not have the money to hire all the staff needed for effective management. Even for larger companies, the concern over finances is replaced with the inability to hire all the necessary skillsets

The benefits of remote infrastructure management

When implementing RIM, organizations can achieve several other benefits:

• 24/7 monitoring and support.
• Enhanced security and compliance.
• Proactive issue resolution.
• Support for remote work.

Remote monitoring tools enable continuous surveillance of IT systems, ensuring prompt detection of anomalies and immediate support. RIM service providers employ security measures to protect sensitive data and ensure compliance with industry regulations. Automated systems in RIM can address potential problems before they affect end users, leading to a more reliable IT infrastructure.

As remote work becomes prevalent, RIM provides the necessary technical support and ensures employees can access critical resources from anywhere.

Pertinent examples of RIM include large enterprises that rely on external service providers to manage their data centers and IT infrastructure remotely. Additionally, small and medium-sized businesses often benefit from outsourcing their IT services to specialized RIM providers, reducing costs and ensuring efficient operations.

While long-term benefits of RIM can accrue, companies should recognize the costs of migrating from internal management to RIM, including the temporary cost of duplicate management. Typically, large enterprises run managed operations in parallel for around three months.

Remote infrastructure management has redefined how organizations manage their IT infrastructure, providing a cost-effective, scalable and flexible service. As businesses continue to embrace remote work and distributed teams, RIM’s importance is likely to grow, ensuring seamless operations, enhanced security and reduced downtime for enterprises of all sizes.

Remote infrastructure management lets businesses offload their IT management tasks to external service providers, who remotely handle critical aspects of the organization’s technological operations. By using advanced tools and technical expertise, these service providers can efficiently monitor and address issues without the need for an on-site presence, making it an attractive option for companies seeking streamlined IT management services.

Why is remote infrastructure management important?

In today’s highly digitized world, where businesses rely heavily on their IT infrastructure to drive operations — often involving systems they do not directly control — remote infrastructure management has emerged as a crucial aspect of maintaining a competitive edge. Remote infrastructure management has gained significant importance for the following reasons.

Cost savings

Remote infrastructure management helps businesses reduce operational costs significantly. By eliminating the need for on-site staff and physical infrastructure, organizations can save on expenses related to office space, equipment and utilities. Additionally, outsourcing IT infrastructure management to specialized service providers lets companies access top-notch expertise without investing in extensive in-house training or the costs of highly skilled IT professionals, which are also in short supply.

However, organizations need to pay close attention to the managed service contract terms to ensure the cost metrics are easily understood and they’re not paying more than expected. Negotiating longer-term contracts can help lock in optimal pricing.

Improves focus on core competencies

Delegating IT infrastructure management to remote service providers lets organizations focus on their core competencies. With RIM providers taking care of technical support, troubleshooting and maintenance tasks, businesses can redirect their internal resources toward innovation, product development and higher-value customer service.

Efficient handling of remote locations

For companies operating in multiple locations or with a remote workforce, RIM becomes even more critical. Managing IT infrastructure across various geographical locations can be complex and challenging. Remote infrastructure management offers a centralized approach to handle distributed systems, ensuring uniformity, security and seamless access to IT services for all employees.

Make sure any RIM provider can handle certain geographic requirements. Some smaller providers are mostly regional.

Reduce downtime and enhanced productivity

Swift detection and resolution of IT issues is important for minimizing downtime and maintaining business productivity. RIM employs proactive monitoring and automated alerts to identify potential problems, enabling timely interventions before they escalate into disruptions that could affect business operations.

The difference between remote and on-site infrastructure management

While on-site infrastructure management has been the traditional approach, remote infrastructure management has several advantages that set it apart:

• Accessibility and flexibility. With RIM, IT administrators can access and manage systems from anywhere with an internet connection. This flexibility enables quick response times, even during off-hours or emergencies, without requiring a physical presence. As workforces become more distributed, anywhere and anytime access is essential.
• Scalability. Remote infrastructure management offers scalable services that can adapt to an organization’s changing needs. As businesses grow, RIM can accommodate increased demands without the need for substantial infrastructure investments. Just make sure pricing metrics for management are accounted for, as rapidly growing infrastructure can increase your RIM costs.
  Data center management. RIM extends its benefits to data centers, where managing a vast array of servers and complex systems remotely can enhance efficiency and reduce the risk of human error. Although enterprises often manage local systems internally, having all systems managed from a central location or provider should deliver better overall visibility and management.
• More efficient collaboration with service providers. Partnering with specialized RIM service providers lets businesses access a diverse pool of technical expertise. Collaboration becomes more manageable, and the service providers can tailor their offerings to suit the organization’s requirements. This helps smaller companies that might not have the money to hire all the staff needed for effective management. Even for larger companies, the concern over finances is replaced with the inability to hire all the necessary skillsets.

The benefits of remote infrastructure management

When implementing RIM, organizations can achieve several other benefits:

• 24/7 monitoring and support.
• Enhanced security and compliance.
• Proactive issue resolution.
• Support for remote work.

Remote monitoring tools enable continuous surveillance of IT systems, ensuring prompt detection of anomalies and immediate support. RIM service providers employ security measures to protect sensitive data and ensure compliance with industry regulations. Automated systems in RIM can address potential problems before they affect end users, leading to a more reliable IT infrastructure.

As remote work becomes prevalent, RIM provides the necessary technical support and ensures employees can access critical resources from anywhere.

Pertinent examples of RIM include large enterprises that rely on external service providers to manage their data centers and IT infrastructure remotely. Additionally, small and medium-sized businesses often benefit from outsourcing their IT services to specialized RIM providers, reducing costs and ensuring efficient operations.

While long-term benefits of RIM can accrue, companies should recognize the costs of migrating from internal management to RIM, including the temporary cost of duplicate management. Typically, large enterprises run managed operations in parallel for around three months.

Remote infrastructure management has redefined how organizations manage their IT infrastructure, providing a cost-effective, scalable and flexible service. As businesses continue to embrace remote work and distributed teams, RIM’s importance is likely to grow, ensuring seamless operations, enhanced security and reduced downtime for enterprises of all sizes.

Network Infrastructure

Network hardware and physical appliances, such as routers, switches, gateways, hubs and bridges, serve as the vital foundation of network infrastructure. Common network protocols and more emergent network software also play major roles in any architecture. While networking has shifted to software-centric principles, see how traditional network infrastructure keeps pace.

Network infrastructure can be a mix of hardware devices, software applications, and network services, including: Hardware infrastructure typically includes routers, switches, hubs, repeaters, gateways, bridges, and modems. Software infrastructure includes monitoring and management tools and operating systems.

Network Infrastructure Role is responsible for designing, deploying, maintaining, upgrading, and securing networks with all their software and hardware components. The ultimate goal of such a specialist is to design highly available and safe networks with disaster recovery options.

1. Assess the project needs. Be the first to add your personalexperience.
2. Design the logical network.
3. Design the physical network
4. Implement the network
5. Monitor and maintain the network
6. Evaluate and improve the network

IT infrastructure can be deployed within a cloud computing system, or within an organization’s own facilities. These components include hardware, software, networking components, an operating system (OS), and data storage, all of which are used to deliver IT services and solutions.I am text block. Click edit button to change this text. Lorem ipsum dolor sit amet, consectetur adipiscing elit. Ut elit tellus, luctus nec ullamcorper mattis, pulvinar dapibus leo.

Network Security

With the growth of malware and data breaches, enterprises must ensure their networks — and the applications and traffic on those networks — are secure. Learn about important network security strategies and technologies, such as VPNs, Secure Access Service Edge (SASE), zero trust and software-defined perimeter (SDP).