---
title: "Intel H87: Complete Specifications to Build a High-Performance PC - Cibersistemas.pt"
description: "Discover the ultimate guide to the Intel H87. We analyze specs, architecture, and hardware features to optimize your PC setup."
url: "https://cibersistemas.pt/en/technology/intel-h87-complete-specifications-to-build-a-high-performance-pc/"
language: "en-US"
published: "2026-11-15T20:21:48+00:00"
modified: "2026-11-15T20:25:52+00:00"
image: "https://cibersistemas.pt/en/wp-content/uploads/2026/11/intel-h87-051651.webp"
content_signal: "search=yes, ai-input=yes, ai-train=yes"
---

# Intel H87: Complete Specifications to Build a High-Performance PC - Cibersistemas.pt

Read this article in: [Portuguese (Português)](https://cibersistemas.pt/hardware/intel-h87-especificacoes-completas-guia-definitivo-e-analise-de-desempenho-para-sua-build/) · [Spanish (Español)](https://cibersistemas.pt/es/tecnologia/intel-h87-especificaciones-completas-para-montar-un-pc-de-alto-rendimiento/)

If you want to know the complete specifications of the  **Intel H87** , it is essential to understand that this chipset is a Platform Chipset Component (PCH) that connects through a specialized bus system, identified by the codes SR139(C1) and SR175(C2). The H87 represents a crucial point in the architecture of high-performance platforms, designed to support a wide range of modern peripherals and functionalities, such as support for various connection interfaces and optimized power consumption. Essentially, it centralizes data management, ensuring efficient communication between the processor and the system’s other components.

The technical relevance of the H87 is understood by tracing the evolution of Intel chipsets. The technological trajectory shows significant leaps, such as the transition from previous platforms, for example, the 845 (Brookdale) and 875P (Canterwood) chipsets, to more advanced architectures. This evolution is marked by improved connections, such as the advancement of PCIe lines, which, in earlier series like the LGA 1155, operated at 5 GT/s, demonstrating the constant increase in bandwidth and data processing capacity that the H87 seeks to optimize.

To fully master the H87 universe, this article has been structured into detailed sections. We will cover everything from the  **Intel H87 Overview: Family and Positioning** , moving through the  **Architecture and the Role of the PCH in the H87**  and a  **Detailed Analysis of Connection Interfaces** . Furthermore, we will analyze  **Performance in Use and Productivity Scenarios** , a  **Comparison with More Recent Chipset Generations** , and conclude with a look at  **Compatibility and the Future of H87 Hardware** , ensuring a complete and technical guide.

**Key Points**

- The H87 is a highly specialized PCH, acting as the communication and peripheral management center of the motherboard.
- It assumed the vital role of the Southbridge, replacing the Northbridge in modern Intel system architectures.
- The chipset supports PCIe M.2, allowing direct connection of NVMe SSDs, ensuring high data speeds.
- Its technical nature is attested by codes such as SR139(C1) and SR175(C2), indicating an advanced engineering component.
- The H87 is a data orchestrator that manages multiple buses (PCI, SATA, USB), maintaining system stability.

## Intel H87 Overview: Family and Positioning

![Intel H87: Intel H87](https://cibersistemas.pt/wp-content/uploads/2026/11/intel-h87-visao-geral-do-intel-h87-familia-e-posic-051651.webp)

*Intel H87. Photo: Cole L / CC BY-SA 2.0, via [Wikimedia Commons](https://commons.wikimedia.org/wiki/File:Intel_i3_540_CPU_and_IGPU_Dies_(50212178048).jpg)*

The Intel H87 is not a mass-market chipset, but rather a highly specialized component operating in the niche market of high-performance motherboards and complex architectures. To understand the H87, it is crucial to grasp its structural function: it acts as a  **Platform Controller Hub (PCH)** . Essentially, the PCH is the motherboard’s connection brain, responsible for managing and interconnecting a vast range of peripherals and functionalities that go beyond central data processing, such as audio, USB control, SATA, and expansion slots.

### The Evolution of the PCH in Intel Architecture

To place the H87 in its technological context, it is necessary to trace the evolution of Intel’s system architecture. Historically, integrated graphics and peripheral control were managed by the  *northbridge* . With the arrival of the Nehalem microarchitecture, and in subsequent generations, there was a radical change: the  *northbridge*  was gradually eliminated. This transition moved graphic processing to the Central Processing Unit (CPU) itself. The PCH, therefore, assumed the vital role of the  *southbridge* , ensuring that the system remained functional and robust even with the simplification of communication buses.

This historical transition is illustrated by a long lineage of chipsets. During the Pentium 4 processor era, we see chipsets like the 845 (Brookdale) and the 875P (Canterwood), which introduced crucial functionalities such as Serial ATA support and Performance Acceleration Technology (PAT), demonstrating Intel’s continuous effort to increase the complexity and I/O (Input/Output) capacity of systems. The H87 is a representative of this evolution, a technical convergence point that supports multiple motherboard functionalities.

### H87 Context and Purpose

The primary purpose of a chipset like the H87 is to be a multifunctional communication hub. It is the intermediary that allows the CPU to communicate with various peripheral devices, from PCI slots to memory and storage controllers. The H87’s technical table, with codes such as `SR139(C1)` and `SR175(C2)`, attests to its highly technical and niche nature. It does not merely list ports, but rather the capacity to support specific protocols, such as the bus interface and various link speeds, ensuring that the system is stable and capable of processing data from multiple sources simultaneously.

In summary, the H87 positions itself as an advanced engineering component, a robust PCH that inherited and adapted the complexity of previous generations of chipsets, maintaining compatibility and support for multiple motherboard functionalities. It is a milestone in the history of high-performance connectivity from Intel, and to learn more about the development of these components, check out our guide on complete Intel chipset specifications.

## Architecture and the Role of the PCH in the H87

The computer system architecture underwent a radical transformation with the evolution of Intel chipsets. Historically, graphics processing and peripheral communication control were managed by a component called  *northbridge* . However, this structure was gradually dismantled. A crucial milestone in this process was the elimination of the  *northbridge* , and graphics processing was transferred directly to the Central Processing Unit (CPU), as evidenced by the advent of Intel HD Graphics.

In this new paradigm, the  *Platform Controller Hub*  (PCH) assumed a central and vital role. In Nehalem architectures, for example, this change was clear: for mainstream or lower-level Nehalem processors, the Integrated Memory Controller (IMC) functioned as the  *northbridge* . Consequently, the PCH assumed the function of the  *southbridge* . It is not merely a connector; it is the true center for communication and management of all the low-speed, high-complexity buses on the motherboard.

### The PCH’s Communication Bridge Role

The PCH essentially acts as a bridge system ( *bridge* ) that connects the high-speed processor to various lower-speed peripherals and buses. Practically speaking, it is the motherboard’s communication brain, responsible for routing data between the processor and connected devices. This function is crucial because it allows the system to maintain data integrity and speed, even when multiple communications are occurring simultaneously, such as those involving PCI, SATA, and USB.

In the context of the Intel H87, the chipset component (PCH) is identified by the code `DH82H87`. This code designates the PCH that must manage the flow of information between the processor and the peripheral ecosystem. The PCH does not only provide physical ports; it manages communication logic through an advanced bridge architecture. This bridge is what allows the system to communicate with devices in an organized and scalable manner, something demonstrated in previous models, such as the 875P (Canterwood), which added support for Serial ATA and Performance Acceleration Technology (PAT).

This bridge architecture is what gives the H87 its highly specialized nature. It ensures that various buses, such as the SATA data power and USB channels, operate together with maximum efficiency, without overloading the main processor bus. Thus, the PCH is not just a set of ports, but rather a data orchestrator that maintains fluidity and high performance in complex architecture systems. To better understand how this stability is achieved across different generations, it is crucial to analyze the specifications of high-performance platforms, as this component is a fundamental pillar for the overall system performance.

## Detailed Analysis of Connection Interfaces

![Intel H87: Intel B360 Cannon Point chipset die shot](https://cibersistemas.pt/wp-content/uploads/2026/11/intel-h87-analise-detalhada-das-interfaces-de-cone-051651.webp)

*Intel B360 Cannon Point chipset die shot. Photo: cole8888 / CC BY-SA 2.0, via [Wikimedia Commons](https://commons.wikimedia.org/wiki/File:Intel_B360_Cannon_Point_Chipset_Die_Shot.png)*

| Chipset | H87 |
| --- | --- |
| Code Name | SR139(C1) SR175(C2) |
| Spec Number | DH82H87 (PCH) |
| Part Numbers | No |

Analyzing connection interfaces is the technical core of any high-performance chipset like the Intel H87. If, in previous sections, we understood that the Platform Controller Hub (PCH) acts as a multifunctional communication center, it is at this point that this function manifests in engineering details. The PCH, identified by the code DH82H87, manages the data flow between the processor and all peripherals, using a combination of high-speed buses and connections. It is essential to understand the meaning of the  **Bus interface**  and  **Link speed**  parameters, as they define the system’s raw communication capacity.

### Detailing H87 Connectivity

The H87 data reveals a complex matrix of connections. The  **PCI Express lanes**  parameter is crucial, as it determines the number of dedicated data paths for connecting high-demand peripheral devices. The higher the number of lanes, the greater the available bandwidth. Furthermore, the chipset specifies data transfer rates such as  **6 Gbit/s**  and  **3 Gbit/s** . These metrics represent the maximum data transfer capacity per second and are fundamental for determining the performance of modern components.

One of the most notable advancements is support for  **PCIe M.2** . This support is not just a physical port; it is the channel that allows NVMe Solid State Drives (SSDs)—which use the NVMe protocol—to connect directly to the PCIe bus. This direct coupling is what guarantees extremely high read and write speeds, far surpassing the capabilities of older interfaces, such as SATA. By supporting this technology, the H87 positions itself to power cutting-edge storage systems.

Other technical specifications deepen the system’s functionality. Support for  **VT-d**  (Virtualization Technology for Directed I/O) is a vital feature for advanced virtualization environments, allowing virtual machines direct and secure access to physical hardware resources. The specification table also details support for both legacy and modern interfaces, such as  **PCI** ,  **SATA** , and  **USB** , ensuring compatibility with a wide range of peripherals. In summary, the H87 does not merely list connections, but rather an entire communication ecosystem that balances the need for compatibility with the top-tier performance required by NVMe devices and virtualized environments.

## Performance in Use and Productivity Scenarios

The performance of a system built around the Intel H87 is defined not only by raw speed but by its ability to manage complex workloads across multiple streams. Historically, graphics processing was managed by the motherboard’s  *northbridge* , a system that has been progressively eliminated. This architectural transition was crucial: graphics processing was moved to the Central Processing Unit (CPU) and, by extension, to the multifunctional communication center that the H87 represents. For the professional user, this means the chipset is responsible for maintaining fluid communication between the CPU and high-demand peripherals, ensuring stability in heavy multitasking scenarios.

### Graphics Performance and Multitasking

Analyzing graphics performance illustrates the complexity of the PCH. In previous generations, such as Ivy Bridge, support for multiple monitors was a key concern. Although the HD2500 and HD4000 chips were announced with support for three active monitors, several users found operational limitations because the chipset relied on a reduced number of PLLs (Phase-Locked Loops). This technical restriction forced the development of specific configurations to achieve three simultaneous monitors, such as using DisplayPort connections (which require only a single pixel clock) or combining two non-DisplayPort outputs of the same frequency and resolution, allowing the sharing of a single pixel clock.

This need for complex signal management is a reflection of the continuous evolution that the H87 must support. The trajectory of improvements is marked by important milestones: the Clarkdale and Arrandale processors were released in January 2010 with Ironlake HD Graphics; in January 2011, Sandy Bridge arrived, introducing the “second generation” of HD Graphics. The advancement was constant, reaching the third generation with Ivy Bridge on April 24, 2012, and subsequently, Haswell, announced on September 12, 2012. It is notable that the system already incorporated advances like the 128 MB L4-cache, which, although manufactured on a separate die and connected via a new Serial Bus, was an integral part of the CPU package and chipset ecosystem.

### Efficiency and Peripheral Support

In terms of productivity and professional workflow, the H87 acts as a robust bridge system. Its role is to connect the high-speed processor to various lower-speed buses, maintaining data integrity. The complex connection matrix of the H87, which includes support for PCIe M.2, ensures that even in high-demand scenarios—such as 3D rendering or video editing—the data flow is optimized. Although system architecture has advanced drastically since the first integrated graphics solutions, the H87 positions itself as an advanced engineering PCH, designed to maintain compatibility and support a vast range of peripherals, ensuring the system operates with maximum energy efficiency and stability.

## Comparison with More Recent Chipset Generations

![Comparison with more recent chipset generations — Intel H87](https://cibersistemas.pt/wp-content/uploads/2026/11/intel-h87-comparacao-com-geracoes-de-chipsets-mais-051651.webp)

To understand the value of the Intel H87, it is crucial to place it within a panorama of technological evolution that demonstrates the rapid pace of computer system architecture. The H87, a robust PCH identified by the code DH82H87, represents a point of excellence in its time, but comparing it to subsequent generations reveals quantum leaps in terms of bandwidth and functionality.

### The Evolution of Data Bandwidth and PCIe

The main comparison metric is the speed and number of communication lanes. Older generations, such as those based on the LGA 1155 socket (which supported Sandy Bridge and Ivy Bridge processors), already showed significant advances compared to previous models. For example, while LGA 1155 chipsets used PCIe 2.0 lanes operating at 5 GT/s, Ivy Bridge CPUs raised the standard by offering 16 PCIe 3.0 lanes for direct GPU connectivity, in addition to 4 more PCIe 2.0 lanes. This generational transition was not just an increase in speed, but a redefinition of what was possible in terms of high-demand workflow.

This bandwidth progression is what defines the modern “standard.” We observe that in more advanced enthusiast platforms, such as those supporting Sandy Bridge or Haswell, GPU support could reach up to 40 PCIe 3.0 lanes, plus 4 more PCIe 2.0 lanes. This ability to orchestrate dozens of lanes in parallel is a monumental leap compared to previous standards and demonstrates how connectivity requirements in professional scenarios have become exponentially more demanding.

### New Paradigms of Connectivity and Functionality

Evolution isn’t just about speed. The history of Intel chipsets is marked by the incorporation of new functionalities. For example, the Z68 series, which supports the LGA 1155 socket, introduced Smart Response Technology, allowing for transparent caching of hard drive data onto solid-state drives (SSD) up to 64 GB. More recently, the advancement to the LGA 1151 socket consolidated this pace of innovation. Intel introduced the 100 Series (Sunrise Point) for Skylake processors in mid-third quarter of 2015, and later the 200 Series (Union Point) for Kaby Lake processors in mid-first quarter of 2017. Each release not only maintained compatibility but added layers of support and performance.

In summary, the Intel H87, with its PCH DH82H87, is an advanced engineering component that consolidated many of the complexities of previous generations. However, when drawing parallels with the capacity for multiple PCIe 3.0 lanes and support for more recent cache technologies, it is clear that chipset evolution is a continuous process of increasing bandwidth and functional sophistication. These comparisons do not diminish the value of the H87, but rather context it historically, showing that the hardware market is in a constant state of exceeding limits.

## Compatibility and the Future of H87 Hardware

The compatibility of a high-performance system, such as one built around the Intel H87, is not limited merely to the physical connection between the CPU and the motherboard. It involves a complex balance of bandwidth and electrical signal management. When evaluating a system, it is crucial for the enthusiast or restoration technician to be aware of potential performance bottlenecks, or  *bottlenecks* , which can arise in different hardware layers. Historically, we can observe how the evolution of standards defines these limitations. To better understand this evolution, it is useful to consult detailed guides on motherboard specifications. For example, in earlier series, such as those supporting the LGA 1155 (Sandy Bridge and Ivy Bridge), the PCH’s PCIe 2.0 lanes operated at 5 GT/s. This reference shows that performance is intrinsically linked to the specifications of speed and number of communication vias, and not just the processor’s power.

### Considerations on Bottlenecks and Performance Limits

Bottlenecks are not always visible just in the processor. They can be in how the chipset manages peripherals. A notable example is the history of integrated graphics: even on advanced platforms, like those using the chipset in Ivy Bridge systems, the capacity for multiple active monitors was limited by internal components, such as PLLs (Phase-Locked Loops), which determined the number of pixel clocks the system could synchronize. This warns that, even with a robust PCH like the DH82H87, maximum performance is dictated by signal management capability and the specific connection architecture.

For those considering upgrades or restoration projects, the viability of the H87 chipset must be analyzed through the lens of continuous evolution. The fact that the architecture eliminated the Northbridge and transferred graphics processing to the PCH was a gigantic leap, but it requires the user to understand that every generation brings with it a set of limitations and advancements. For example, the evolution of processor generations, such as the transition from Clarkdale/Arrandale (January 2010) to Sandy Bridge (January 2011) and, subsequently, Ivy Bridge (April 2012), demonstrates that resource support and bandwidth speed are progressive.

Therefore, to keep an H87-based system relevant for enthusiast or restoration projects, it is crucial to focus on high-bandwidth features. Support for PCIe M.2 and multiple communication lanes are indicators that the chipset still has the capacity to support complex workloads. Good upgrade planning must always prioritize increasing bandwidth and modernizing interfaces, ensuring that the PCH continues to act as a robust bridge system, capable of managing the complex connection matrix required by the most modern components.

## Frequently Asked Questions

### Is the Intel H87 still good for building a gaming PC today?

The H87 is an advanced engineering component, designed to manage complex workloads and multiple data streams. It positions itself as a robust PCH, maintaining stability and high performance in complex architecture systems. Its ability to support NVMe and multiple interfaces makes it ideal for high-demand environments.

### What is the difference between the PCH and the processor on an H87 motherboard?

The processor (CPU) is responsible for central data processing. The PCH (H87), on the other hand, acts as the ‘connection brain’ or bridge system. It is the vital intermediary that manages and routes the flow of information between the CPU and all various peripherals, such as SATA, USB, and expansion slots.

### Does the H87 support modern NVMe SSDs?

Yes, the H87 has support for PCIe M.2, which is the essential channel for connecting Solid State Drives (SSDs) NVMe. This support allows the system to achieve extremely high read and write speeds, surpassing the capabilities of older interfaces, such as SATA.

### Do I need to update the BIOS to use the H87 with newer processors?

The text emphasizes that the H87 is a component that inherited and adapted the complexity of previous generations, maintaining compatibility. Although the article details the historical evolution of chipsets, it does not provide specific instructions regarding the need for a BIOS update for use with more recent processors.

### What are the main performance bottlenecks when using an H87 chipset?

The H87 is designed to mitigate bottlenecks by acting as a data orchestrator. Its main differential is the ability to maintain data integrity and speed while managing multiple simultaneous communications. It ensures that the data flow between the CPU and peripherals is optimized, even in high-demand scenarios.

## Conclusion

The Intel H87 transcends the definition of a simple port set; it is an advanced engineering component that represents the heart of communication in high-performance systems. Its function as a Platform Controller Hub (PCH) is to orchestrate the data flow, acting as the essential bridge connecting the Central Processing Unit (CPU) to various peripherals—something vital since the elimination of the northbridge. The H87, therefore, is a pillar of stability, ensuring that the system maintains data integrity and speed by managing complex buses like PCI and SATA.

The technical complexity of the H87, evidenced by its management of multiple buses and protocols, is what allows support for cutting-edge functionalities, such as direct mounting of NVMe SSDs via PCIe M.2. By specifying data transfer rates and PCI Express lanes, the chipset not only lists features but attests to the ability to maintain fluidity and performance even in scenarios of multiple simultaneous communications. It is this advanced bridge architecture that solidifies the H87 as a robust and highly specialized component.

Understanding the H87 means understanding how the evolution of Intel chipsets maintained high performance in complex architecture systems. To explore the maximum potential of any machine, the next step is to analyze how this robust I/O infrastructure can be combined with the latest processors on the market.

## Sources and References

- [Intel Graphics Technology — Wikipedia](https://en.wikipedia.org/wiki/Intel_Graphics_Technology)
- [List of Intel chipsets — Wikipedia (in English)](https://en.wikipedia.org/wiki/List_of_Intel_chipsets)

```json
{"@context":"https:\/\/schema.org","@graph":[{"@type":"Article","@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#article","isPartOf":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/"},"author":{"name":"antonio","@id":"https:\/\/cibersistemas.pt\/en\/#\/schema\/person\/ea20c50a8d8bdbbb01ccc60e371a27b8"},"headline":"Intel H87: Complete Specifications to Build a High-Performance PC","datePublished":"2026-11-15T20:21:48+00:00","dateModified":"2026-11-15T20:25:52+00:00","mainEntityOfPage":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/"},"wordCount":3379,"commentCount":0,"publisher":{"@id":"https:\/\/cibersistemas.pt\/en\/#organization"},"image":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#primaryimage"},"thumbnailUrl":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/intel-h87-051651.webp","articleSection":["Technology"],"inLanguage":"en-US","potentialAction":[{"@type":"CommentAction","name":"Comment","target":["https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#respond"]}]},{"@type":"WebPage","@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/","url":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/","name":"Intel H87: Complete Specifications to Build a High-Performance PC - Cibersistemas.pt","isPartOf":{"@id":"https:\/\/cibersistemas.pt\/en\/#website"},"primaryImageOfPage":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#primaryimage"},"image":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#primaryimage"},"thumbnailUrl":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/intel-h87-051651.webp","datePublished":"2026-11-15T20:21:48+00:00","dateModified":"2026-11-15T20:25:52+00:00","description":"Discover the ultimate guide to the Intel H87. We analyze specs, architecture, and hardware features to optimize your PC setup.","breadcrumb":{"@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#breadcrumb"},"inLanguage":"en-US","potentialAction":[{"@type":"ReadAction","target":["https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/"]}]},{"@type":"ImageObject","inLanguage":"en-US","@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#primaryimage","url":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/intel-h87-051651.webp","contentUrl":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/intel-h87-051651.webp","width":1024,"height":576,"caption":"Intel H87 — Intel i945GC northbridge with Pentium Dual-Core microprocessor"},{"@type":"BreadcrumbList","@id":"https:\/\/cibersistemas.pt\/en\/technology\/intel-h87-complete-specifications-to-build-a-high-performance-pc\/#breadcrumb","itemListElement":[{"@type":"ListItem","position":1,"name":"Home","item":"https:\/\/cibersistemas.pt\/en\/"},{"@type":"ListItem","position":2,"name":"Intel H87: Complete Specifications to Build a High-Performance PC"}]},{"@type":"WebSite","@id":"https:\/\/cibersistemas.pt\/en\/#website","url":"https:\/\/cibersistemas.pt\/en\/","name":"Cibersistemas.pt","description":"Cibersistemas.pt is a news portal about gaming and technology, with dozens of quality articles every day, in English.","publisher":{"@id":"https:\/\/cibersistemas.pt\/en\/#organization"},"potentialAction":[{"@type":"SearchAction","target":{"@type":"EntryPoint","urlTemplate":"https:\/\/cibersistemas.pt\/en\/?s={search_term_string}"},"query-input":{"@type":"PropertyValueSpecification","valueRequired":true,"valueName":"search_term_string"}}],"inLanguage":"en-US"},{"@type":"Organization","@id":"https:\/\/cibersistemas.pt\/en\/#organization","name":"Cibersistemas.pt","url":"https:\/\/cibersistemas.pt\/en\/","logo":{"@type":"ImageObject","inLanguage":"en-US","@id":"https:\/\/cibersistemas.pt\/en\/#\/schema\/logo\/image\/","url":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/logo-novo-2.webp","contentUrl":"https:\/\/cibersistemas.pt\/en\/wp-content\/uploads\/2026\/11\/logo-novo-2.webp","width":300,"height":87,"caption":"Cibersistemas.pt"},"image":{"@id":"https:\/\/cibersistemas.pt\/en\/#\/schema\/logo\/image\/"},"sameAs":["https:\/\/www.facebook.com\/cibersistemas.pt","https:\/\/www.youtube.com\/channel\/UCcWHF3Q9kv7IXgdFuy1LB9A"]},{"@type":"Person","@id":"https:\/\/cibersistemas.pt\/en\/#\/schema\/person\/ea20c50a8d8bdbbb01ccc60e371a27b8","name":"antonio","image":{"@type":"ImageObject","inLanguage":"en-US","@id":"https:\/\/secure.gravatar.com\/avatar\/5beb60e3ad49176318e3b1841b1410d50cb3f637bcb34baa8a2e43f3ab050fbd?s=96&d=mm&r=g","url":"https:\/\/secure.gravatar.com\/avatar\/5beb60e3ad49176318e3b1841b1410d50cb3f637bcb34baa8a2e43f3ab050fbd?s=96&d=mm&r=g","contentUrl":"https:\/\/secure.gravatar.com\/avatar\/5beb60e3ad49176318e3b1841b1410d50cb3f637bcb34baa8a2e43f3ab050fbd?s=96&d=mm&r=g","caption":"antonio"},"sameAs":["https:\/\/cibersistemas.pt\/en"],"url":"https:\/\/cibersistemas.pt\/en\/author\/antonio\/"}]}
```