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Axiomtek: Internet of Things- IIoT Gateway Solution

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Internet of Things- IIoT Gateway Solution - Axiomtek

 

The ICO300-MI is Axiomtek’s IIoT(Industrial IoT) gateway solution with key features including the IoT Gateway Solutions with software stack for manageability, connectivity and security; wireless connectivity; isolated Ethernet ports and low power consumption. For embedded controllers and industrial computers, Axiomtek’s rBOX, eBOX and IPC and product lines offer many useful features including high performance CPUs, wireless connectivity, wide operating temperature ranges, wide voltage ranges, rich I/O options, and expandable storage space. For Human-Machine Interface use, Axiomtek’s GOT product line key features include options for resistive or capacitive touchscreen; high brightness; enhanced graphical display; connectivity; water/dust/corrosion-resistant designs and expandable I/O options.

 

Axiomtek ICO300-MI

The application-ready din-rail embedded industrial IoT platform utilizes low power Intel® Atom™ processor E3815 (1.46 GHz) and supports DDR3L system memory maximum up to 4GB, delivering high performance and low power consumption. It simplifies the development process and achieves accelerated business transformation of IoT environment. This intelligent Intel® Atom-based IoT gateway system provides a perfect solution for IoT & M2M, industrial and embedded applications such as power plant automation, facility monitoring systems, intelligent transportation systems and other harsh environments.


Bay Trail Transportation Embedded Computer for Vehicle, Railway and Marine Markets- Axiomtek tBOX810-838-FL

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Axiomtek, one of the world's leading designers and manufacturers of innovative, high performance and reliable PC-based industrial computer products, has launched tBOX810-838-FL, its new fanless embedded box PC certified with eMark, ISO7637, EN50155, EN50121 and IEC60945 for a variety of transportation applications. The advanced embedded computer  tBOX810-838-FL could meet the diverse needs of transportation industry, such as in-vehicle, rolling stock and marine market. Measuring only 164 x 108 x 44 mm and 0.77kg, the mini fanless embedded system supports a wide operating temperature ranging from -40°C to +70°C as well as 9 ~ 36V wide DC input for wide range of harsh environmental conditions. The outstanding high-quality fanless transportation computer is definitely the top choice for M2M intelligent system for railway, marine, and in-vehicle solutions.

 

Axiomtek leverages its global expertise to provide complete product solution for in-vehicle, railway and marine applications. We provide first-class embedded box computers that are easy to install, offer superior performance and reliability, and are rugged to thrive in harsh environments. Axiomtek tBOX810-838-FL is powered by the Intel® Atom™ processor E3845 quad-core 1.91GHz or Intel® Atom™ processor E3827 dual-core 1.75 GHz (codename: Bay Trail) with onboard DDR3L memory up to 4GB. Additionally, the rugged embedded computer has high integration ability with two full-size PCI Express Mini Card slots and one SIM card which makes it a multi-function professional embedded device for transportation applications.

 

Axiomtek’s tBOX810-838-FL is our new all-in-one, extremely small embedded box PC targeted at in-vehicle, railway and marine fields. The solid embedded box computer can not only be compatible with Wi-Fi, 3G/4G, GPS/G-sensor module card but also provides extra storage and extend functionality for various applications. Concerning the reliability and durability, it is designed-in with intelligent power manager for vehicle battery and system protection. Through setting up ignition and ACC delay time, user can prevent losing data and running out of battery while vehicle is under on and off. The robust transportation embedded system can endure wide temperature range from -40°C to +70°C and can withstand vibration up to 3 Grms. The mini robust Intel® Atom-based embedded platform is the best solution for onboard devices controller, fleet management, surveillance, and gateway.

 

The Intel® Bay Trail embedded computer supports two RS-232/422/485 ports, one 8-bit DIO, one VGA port, two USB 2.0 ports, one remote switch, one reset button, four antenna openings, and two M12-type or RJ-45 Gigabit LAN ports. One 2.5" SATA drive (9.5 mm) and one mSATA are available for system storage. System expansion is also possible via two full-size PCI Express Mini Card slots and one SIM card allowing an optional 802.11 b/g/n wireless LAN card to be installed. The certified transportation embedded controller adopts M12 A-coded DC power input or Phoenix DC power input for your selection.

 

Axiomtek provides a wide array of IoT & M2M industrial systems for transportation, energy-saving & utility and automation fields. For more product information or pricing, please visit our global website at www.axiomtek.com or via Facebook, Twitter and YouTube. Please contact one of our sales representatives at info@axiomtek.com.tw.

Advanced Features:

  • eMark, ISO7637, EN50155, EN50121 and IEC60945 certifications
  • Designed especially for in-vehicle, railway and marine fields
  • Intel® Atom™ E3845 4C@1.91GHz or Intel® Atom™ E3827 2C@1.75 GHz (codename: Bay Trail)
  • DDR3 4 GB system memory onboard
  • Fanless with wide operating temperature range of -40°C ~ +70°C (EN50155 class TX)
  • Intelligent power management solution
  • Compact size with rich I/Os
  • DIN rail and wall mount supported
  • 2 full-size PCI Express Mini Card slots, 1 SIM card socket for various applications

Wide-voltage Range, Fanless 3.5-inch Bay Trail Embedded SBC - Axiomtek CAPA843

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Axiomtek, one of the world's leading designers and manufacturers of innovative, high performance and reliable PC-based industrial computer products, has launched CAPA843, a fanless 3.5-inch embedded board, featuring quad-core Intel® Celeron® processor J1900 SoC (codename: Bay Trail). A pair of SO-DIMM sockets supports up to 8GB of DDR3L 1066/1333MHz RAM. The compact-size embedded board CAPA843 was designed with emphasis on expandability, offering two full-size PCI Express Mini Card slots, as well as an exclusive Axiomtek ZIO connector. With excellent thermal design, the 146 x 102mm embedded SBC can handle operating temperatures from -20°C to 70°C, and runs on +10V to +24V DC input. The 3.5” fanless embedded board provides three display interfaces with dual-display operation: HDMI, LVDS and VGA. The CAPA843 is an excellent choice for applications in IoT/M2M-related, industrial control, self-serve terminal, gaming, digital signage, POS, and kiosk.

 

The Axiomtek CAPA843 comes packed in a thin 3.5” form factor with wide range DC-input as well as rich I/O connectivity. It features dual Gigabit Ethernet ports, dual PCI Express Mini Card slots, and dual display capabilities, plus support for extended temperature operation. The rugged design embedded board supports fanless operation which prevents annoying dust and noise problem. The low power Intel® SoC-based CAPA843 is ideal for a multitude of space-limited applications. The delivery of better graphics and imaging also makes it ideal for gaming and signage.

 

The 3.5in single board computer CAPA843 comes with advanced connectivity including two Gigabit Ethernets ports, one RS-232/422/485 port, one RS-232 port, four USB 2.0 ports, one USB 3.0 port, one SATA-300 interface, audio, 8-bit programmable DIO, and two full-size PCI Express Mini Card slots (one supporting mSATA), as well as a flexible ZIO connector on the rear-side that integrates PCIe x1, USB, LPC and SMbus expansion. The built-in Watchdog Timer keeps system running smoothly. Hence, the power-efficient industrial embedded platform runs well with Windows® 7/8 operating systems.

 

Axiomtek’s CAPA843 is going to be available in late of November, 2015. We provide a wide array of IoT & M2M industrial systems and boards. For more product information or pricing, please visit our global website at www.axiomtek.com or via Facebook, Twitter and YouTube. Please contact one of our sales representatives at info@axiomtek.com.tw.

Advanced Features:

  • Built-in quad-core Intel® Celeron® processor J1900 (codename: Bay Trail)
  • 2 DDR3L SO-DIMM supports up to 8 GB memory capacity
  • 4 USB 2.0 ports, 1 USB 3.0 port, 2 COM ports
  • Dual views through multiple display outputs of HDMI, LVDS and VGA
  • Fanless operation and wide range temperature support from -20°C to 70°C
  • ZIO connector for flexible expansion
  • Wide range voltage design: +10V to +24V DC-in
  • ZIO modules: AX93262, AX93285, AX93291

CAPA843 3.5-inch Embedded SBC

CAPA843 3.5-inch Embedded SBC

sir i need dg33fb mb bin file

MIPS and DMIPS

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Dear Friends

 

     I am new to embedded developer community of Intel and looking for an Intel atom processor for my embedded application. While going through the process of selecting, I find the comparisons are based on CPU clock rate, core, power, etc. I even need MIPS and DMIPS of each processor.

 

     Kindly, if anyone finds this information on MIPS and DMIPS please share.

Issue in accessing I2C driver in BayTrail platform

关于#514849中的设计问题

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514849

<5th Generation Intel Core Processor Family (Broadwell Y) and Intel Core M Processor Family

(Broadwell U) Platform Design Guide>

Page 559

Figure 51-10.Timing Diagram for Warm Reset (Host Partition Reset w/o Power Cycle)

Page 560

Figure 51-11.Timing Diagram for Cold Reset (Host Partition Reset w/ Power Cycle) and

Global Reset

需要解释一下主板设计如何实现 ?

Host Partition Reset w/o Power Cycle 和 Host Partition Reset w/ Power Cycle

 

 

答:如果需要使用reset功能,请首选使用reset按键来触发globel reset。

(更多智能系统的技术交流,请关注我们微博weibo.com/onlinesalesgroup、并浏览我们官方社区http://embedded.communities.intel.com/community/zh_cn,或者官方技术交流QQ群120966104

如果忘记EDISON的密码怎么办?


为什么Edison安装驱动失败?

I210 re-initialize issue

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We have server system using I210 as share network for both PCH chipset and BMC.

When OS windows disable network device manually on windows, the network activity for BMC will also be disabled.

The correct behavior should be BMC be able re-initialize I210 after disable to get the network back. 

However, as describe below some unexpected behavior caused the network issue.

 

Description:

When host OS is windows and user disabled network device, NCSI(I210) will keep send "Link Status Change" AEN to BMC per second.

It'll make BMC keep to reset and enable NCSI cause network could not used.

 

Test Environment:

Verified OS : windows7, windows 8.1 and windows 10.

Verified Driver : 18.4, 18.5, 18.6, 18.7, 18.8.1, 19.0, 19.1, 19.3, 19.5, 20.0 and 20.2

 

Test case:

[1] Initialize and Boot BMC

[2] Disabled network device in windows.

 

Result:

NCSI still send AEN "Link Status Change 0x60" when windows diabled device then send AEN "Link Status Change 0x6b" and BMC reset and enable NCSI will failed.

Even we execute command to down/up network device,

NCSI will keep send AEN "Link Status Change 0x6b or 0x65", which cause BMC keep to reset and enable NCSI and not allow the network for BMC to work properly.

 

Regards

James

Titanium Server enhancements facilitate new NFV use cases

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It’s been a busy 18 months for Wind River’s Titanium Server NFV Infrastructure (NFVI) platform. We announced Titanium Server at Mobile World Congress back in February 2014, as the industry’s first commercial Carrier Grade solution for NFVI, and it’s still the only platform in this category. We delivered the General Availability product release in October 2014 and shortly after that revealed that HP had adopted the technology for their Carrier Grade Helion solution: just the first of several customer announcements. We launched the Titanium Cloud partner ecosystem in June 2014 and this has quickly expanded to a rich set of validated solutions from industry-leading companies.


In this post, we’ll discuss how our customers’ target use cases have evolved during this time and highlight some of the key enhancements that we’ve made to Titanium Server reflecting this shift in focus within the industry.


Post-1.pngAt the beginning of 2014, the industry was emphasizing applications such as virtual EPC and virtual IMS as initial applications for NFV. The expectation was that these network core functions would not only yield significant OPEX savings but would also be suitable for early deployment.


That position seems to have changed in the intervening months. Our customers are now telling us that they see greater near-term business potential in applications such as virtual business CPE (vBCPE), Mobile Edge Computing (MEC) and virtual RAN (vRAN) use cases.


We consistently hear that these edge and access use cases will significantly accelerate service providers’ ability to deploy new services in response to customer requests, while also providing OPEX savings that are both significant and quantifiable. At the same time, they can be implemented without the need for comprehensive Management and Orchestration (MANO) solutions, which is helpful since the relevant ETSI standards are still under discussion.


In response to these shifting industry priorities, we’ve moved aggressively to implement new features in Titanium Server so that we can continue to support our customers’ target applications with an NFVI cloud that provides the reliability, performance and cost structure that they need. Our most recent release, now in use by customers and partners worldwide, includes a wide range of enhancements to the original platform.


Low system cost is critical to the viability of many vBCPE, MEC and vRAN solutions. These applications are often hosted either in a customer premise or in a local service provider Point of Presence (PoP) where large server racks are not cost-effective. So we’ve added a small-footprint version of Titanium Server that can be deployed in only two servers.


Post-2.pngIn this configuration, each of two redundant servers is partitioned into Compute, Control and Storage functions. The control and storage functions can each run on as few as a single processor core, leaving the lion’s share of cores available for the compute function which hosts revenue-generating services.


Unlike other enterprise-class platforms that require a third redundant control node (and therefore a third server) to arbitrate between the other two in the case of failures, Wind River has unique technology that avoids “split brain” conditions and enables Titanium Server to achieve full Carrier Grade reliability using just two servers, resulting in significant CAPEX and OPEX savings for our customers.


OPEX savings are critical for many of our customers, so  processor resources need to be provisioned dynamically and optimally based on the actual network traffic at any given time, rather than over-allocated in anticipation of peak demand. To accomplish this, we’ve added a sophisticated CPU scale-up / scale-down capability to Titanium Server that provides full dynamic scaling without compromising Carrier Grade reliability. As traffic through a VM increases to the point where the VM is close to saturating the processor cores that it’s running on, Titanium Server automatically allocates additional processor cores to the VM. Similarly, when the load on a VM drops so that it needs fewer resources, processor cores are automatically removed. All this happens without any need to restart or reboot the VM, ensuring that there’s no risk of service downtime during the scale-up / scale-down process. Further, the triggers which initiate the scaling actions are flexible and policy driven, enabling full control over the process.


A key component of a service provider’s OPEX calculation is VM density, in other words the number of VMs that can be supported per server. In order to maximize the VM density in an NFV deployment, it’s important for the NFVI platform to support the very latest in high-performance Network Interface Cards (NICs). With Titanium Server, we work closely with the industry’s leading NIC providers and make sure that we implement optimized support for their high-performance solutions targeted at NFV applications. As an example, Titanium Server now supports the Intel® Ethernet Controller XL71 (formerly known as “Fortville”) as well as the Mellanox CX3 10G/40G NICs. We’ll continue to add support for additional, new high-performance NICs as they become available from our partners.


Post-3.pngAs shown on the Titanium Cloud website, a large number of Virtual Network Function (VNF) suppliers are now supporting Titanium Server. It’s important for most of these partners to optimize the performance of their VNFs and ensure they’re fully leveraging the performance-oriented features of the platform, such as the Accelerated vSwitch.


We’ve added a vSwitch packet trace tool to Titanium Server, enabling these partners to efficiently tune their VNFs so that they can deliver the highest possible performance to our mutual customers.

 

Many of our VNF partners use the Intel® Data Plane Development Kit (Intel® DPDK) software library as a way to maximize the packet processing performance of their applications (and we also use DPDK within the Titanium Server Accelerated vSwitch). While some of those partners have migrated to the latest version of DPDK, revision 2.0, many are continuing to use earlier versions. With Titanium Server, we implemented support for VNFs based on DPDK 2.0 as soon as it became available and we also migrated the Accelerated vSwitch to DPDK 2.0. Uniquely, we continue to support VNFs based on older DPDK versions, enabling multiple simultaneous versions to be running in VNFs concurrently; there’s no requirement for our partners to move to DPDK 2.0 in the guest even though the host uses that version. This feature is key to OPEX savings, ensuring that service providers can choose when to upgrade their VNFs rather than being compelled to do so when an obscure platform limitation is exposed.


To simplify and accelerate the migration of network functions to Titanium Server, we’ve added support for standard “QinQ” tunneling. This ensures that complex applications implementing their own VLAN network segregation schemes don’t have to be rewritten when transitioning to the virtualized environment provided by Titanium Server. Applications can continue to employ their own VLAN tags while Titanium Server’s Accelerated vSwitch transparently tunnels traffic across and between nodes and networks, uniquely encapsulating and protecting each VNF’s traffic.


The final new feature that we’ll highlight in this post is one that’s critically important to service providers deploying an NFV cloud based on Titanium Server. For service providers, infrastructure deployment costs represent a significant portion of their overall OPEX and many have expressed nervousness about the learning curve for their IT teams as they roll out new platforms. We’ve addressed this concern through a new bulk provisioning capability. This graphical, Wizard-like tool greatly simplifies the automated deployment of large, distributed Titanium Server clusters and supports accelerated installation from a boot server. All part of our focus on ensuring ease-of-use for our customers while also maximizing service-level performance and reliability.


Besides the features that we’ve touched on above, the latest release of Titanium Server includes a wealth of other enhancements in areas such as: huge page support; enabling VMs to span NUMA nodes; accelerated and distributed virtual routing; enabling scheduler hyperthreading awareness; Link Aggregation Control Protocol (LACP) and more.


Please feel free to contact us to talk about any of these topics or to suggest other areas that we should investigate. The industry is moving quickly to focus on early use cases that will deliver strong Return on Investment and Wind River will continue to deliver the NFVI platform features that are required for these applications.

为什么Edison的SPI部件实测波形不正常?

操控Edison 的外围设备有哪些方式?

Google站点被禁,无法完成image build怎么办?

How to disable flash security on I210

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Hi,

 

I try to disable flash security on I210 via Lanconfig tool. (Flash Validity and Protected Fields (Word 0x12) - bit 13 : NVM_SEC_EN)

And don't know how to do.

 

The NVM_SEC_EN original value on my I210 is disable (0b) , but when I try to flash other image , I forgot to edit the bit to 0b on the new image.

(The new image : Dev_Start_I210_Copper_NCSI_4Mb_A2_3.25_0.03.bin)

 

Once I flashed the new image with NVM_SEC_EN bit is 1b , I cannot choose write / erase / verify options in Lanconfig tool any more , also cannot change the bit due to its a read only bit.

And refer to I210 datasheet , I pulling down the pin 12 to disable the security mode then try to flash other image via Lanconfig , but the option of flash is gone.

 

I really no any idea for setting NVM_SEC_EN bit to 0b.

The only way is flashing original image via programmer?


Any help would be very thankful.


Best Regards

Jaba


如果举办intel嵌入式学习活动,您对以下哪个活动最感兴趣?

Roving Reporter: Industrial IoT Data: Predict and Act

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The Internet of Things (IoT) market offers unprecedented opportunities. At the same time, however, the challenges that it brings sometimes require innovative solutions at each step of the IoT value chain (Figure 1). Take industrial automation, for instance, where it's imperative to avoid production disruptions due to unplanned downtime. Such interruptions can result in significant revenue losses. Planned outages, on the other hand, can help to contain maintenance costs, increase equipment's operational life, and improve productivity.

 

Image 1 - Predixion.png

Figure 1. Three key phases in the IoT value chain. Note that analysis can occur at the edge, with the right tools.

 

Unplanned downtime is a major concern in industrial environments. Avoiding it requires remote monitoring and management, system health diagnostics, and knowledge of each machine’s operating parameters to enable failure prediction. One must also ensure that when failure is predicted, steps are taken to make sure that system recovery, if required, occurs in a timely fashion.


A machine condition-monitoring solution for failure prediction typically requires three phases to ensure zero (or minimal) down time. While it may seem like a simple three-step process, each phase can be quite complex. However, having the right tools at your disposal can remove some of the pain.


1.     Data acquisition – connect all manufacturing assets to the IoT infrastructure

2.     Process control – properly manage IoT infrastructure to keep data moving through the distributed network architecture

3.     Data analytics and optimization – apply advanced data analytics in the cloud and on edge devices

 

For example, in the first phase, connecting devices and systems from the edge to the cloud, end-to-end reference models like the Intel® IoT Platform offer guidance on connecting legacy and new systems with Intel® IoT Gateway designs. These gateways enable seamless and secure data flow between edge devices and the cloud through pre-integrated, pre-validated hardware and software building blocks. The gateways offer a choice of Intel® processors for different application needs, support for multiple operating systems (such as Wind River Linux*, Snappy Ubuntu Core*, and Microsoft Windows* 10 IoT), and efficient handling for fieldbus protocols and remote I/O.

The next two phases are a bit more challenging, unless of course, you possess the proper tools. Bear in mind that the IoT has the ability to generate thousands of statuses and updates every second.

 

Enter the combination of Wind River'sHelix Device Cloud solution and Predixion Insight™, Predixion's advanced analytics software (Figure 2). Note that Predixion Softwarerecently joined the Wind River Partner Program (and Wind River is a wholly owned subsidiary of Intel).

 

The Wind River* Helix Device Cloud takes care of phase 2. It is a cloud-based IoT platform that enables sensors and machines to connect securely to a network infrastructure. It facilitates cloud connectivity through features like device configuration, file transfers, data capture, and rules-based data analysis and response.

 

Image 2 - Predixion.png

Figure 2. Predixion's advanced analytics software works with Wind River's Helix Device Cloud to analyze the IoT data in motion.

 

Predixion Insight software, on the other hand, takes care of step 3. It provides advanced analytics for connected assets and enables corrective action in real-time before issues arise. It's a cloud-based analytics platform that embeds predictive models on devices, on IoT gateways, and in the cloud. By using gateways based on the Intel IoT Gateway design to perform local analytics, which is often the preferred place to perform these calculations, Predixion Insight software takes some of the load off the network and reduces the amount of data that has to go to the cloud.

 

As for ensuring real-time, deterministic actions, Predixion has a solution for that as well. Their patent-pending Machine Learning Semantic Model™ (MLSM) technology allows advanced analytics packages to be embedded in a variety of production environments such as applications, databases, and real-time streaming engines. That gives Predixion's cloud software an edge over traditional analytic tools in handling the speed and volume of streaming data and the real-time actions in industrial IoT environments.

 

To see some of the many IoT gateways using the Intel IoT Gateway design, visit our Solutions Directory

 

 

Learn More

 

Solutions in this blog:

 

·       Wind River Helix Device Cloud

·       Predixion Insight Advanced Analytics Software

 

Related topics:

·       Industrial - Top Picks(blogs, white papers, and more)

 

 

Richard Nass

OpenSystems Media by special arrangement with the Intel® Internet of Things Solutions Alliance.

Enabling platform clock for camera on Baytrail (Intel Atom E3800)

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Hi,

 

I'm working on Intel Atom Baytrail platform (LEC-Base-R1 + LEC-BT from ADLINK) and would like to attach the camera. Camera requires external clock to be supplied from the board.

Intel Atom E3800 datasheet says that it features platform clocks (PMC_PLT_CLK) including camera dedicated ones - supplied by Power Management Controller (PMC). According to the documentation PMC base address for PMC control registers should be read from PCI configuration space (bus 0: device: 31: function 0 + 44h offset), however I don't see any driver for that device in the kernel sources. My board is running Fedora 18 based on Linux kernel 3.8.0 - it is configured in BIOS to PCI mode. Is there a patch providing PMC driver for Linux?  Would you be able to send it to me (or provide the link) in case it exists? 

 

Thank you & best regards,

Damian

eepromARMtool Download

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Hi,

 

Could someone please let me know where I can download eepromARMtool?

 

Thanks,

Grant

Roving Reporter: Scalability of Processors and Sensors Serve Well in Industrial IoT Applications

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The Internet of Things (IoT) is creating new opportunities and business models for just about any vendor in the embedded Internet space. That's clearly the case for those involved in the Industrial IoT (IIoT), also known as Industry 4.0. In the IIoT, a bridge is formed between a host of connectors and industrial machines to the Internet. The applications that fall into the domain of IIoT continues to grow, and clearly includes smart factories (Figure 1).

 

Image 1 - Nexcom.jpg

                   

Figure 1. IoT gateways now serve a wide array of vertical applications, including industrial applications like remote plant operation.

 

By leveraging the Intel® IoT Gateway reference design which includes technology from Intel® Internet of Things Solutions Alliance members Wind River and McAfee, technology partners can expand the connectivity, improve the interoperability, and shorten the time to market for developers looking to transform their IIoT business and operations.

 

One company heavily involved in the delivery of Industry 4.0 platforms is NEXCOM, a Taipei-based supplier of IoT automation solutions. NEXCOM is an Associate member of theAlliance ecosystem which provides scalable, interoperable solutions to accelerate deployment of intelligent devices and end-to-end analytics. Close collaboration with Intel and members drives innovation with the latest IoT technologies, helping developers deliver first-in-market solutions. NEXCOM is enabling realization of the IIoT-based Smart Factory, through what it calls the "IP-based factory" infrastructure.

 

Case in point: Using PC-based controllers, NEXCOM has developed a mechanism to trace and verify manufactured components. As cyber- physical systems, these controllers require multiple I/O connections to support the peripherals and equipment needed to track and verify a host of products. This gives the controllers the ability to scan, store, and share the production data to all levels of the supply chain and provide a comprehensive view of manufacturing processes.

 

These I/O connections are provided by Intel® IoT Gateway designs. Such gateways connect sensors and collect data from the edge of the network, passing it on to the cloud where it can be analyzed for factory optimization and predictive maintenance.

 

Industrial IoT gateways must provide connectivity options to handle major fieldbus protocols and remote I/O. In addition, the data must be transmitted securely to detect and block any security breach. And there should be a range of processors available to provide the scalability for handling a wide range of tasks and workloads.

 

NEXCOM's low-cost IoT gateway NIO 100, based on the Intel® Quark™ X1021 SoC serves a diverse set of industrial applications. At one end of the spectrum is the Smart Factory. At the other end could be a petrochemical plant application, like that of the Formosa Plastic Group. Here, NEXCOM's NISE 105 IoT gateway is also a great fit. It employs an Intel® Atom™ processor E3826 with two cores to meet more demanding requirements like analyzing real-time data locally, including temperature and moisture (Figure 2).

 

Image 2 - Nexcom.png

 

Figure 2. Thanks to the IoT, common mobile devices can be used to access remote data anytime and nearly anywhere.

 

It's worth noting that the NISE 105 gateway device can run off a 9- to 30-V DC source. Likewise, the other devices installed on the site, including the temperature sensors, moisture sensors, ZigBee module, wireless sensor, and network devices, are all powered by a battery. Hence, Formosa has installed a solar panel in the field to power the complete system.

 

Another potential application for gateways is in the transportation arena. NEXCOM divides this area into three segments, for all of which NEXCOM in-vehicle computers VTC 1010 and VTC 6210 are intended: the connected car, material handling (where the logistics are tracked; hence, transportation), and intelligent transportation, which includes public transportation, emergency services, and fleet management.

 

The NIO 100, NISE 105, VTC 1010/6210 are based on Intel's IoT Gateway platform, which allows NEXCOM to scale to application requirements while still being able to utilize consistent platform features. That includes McAfee* Embedded Control security technologies which help ensure secure data flow from the edge to the cloud. The Embedded Control software comes tightly integrated with the Intel® processors.

 

NEXCOM's portfolio also includes edge-to-cloud IoT solutions that operate seamlessly with IBM Azure, Axeda, and ThingWorx. The Taipei, Taiwan–based firm has subsidiary offices around the world, including the United States, Japan, China, the United Kingdom, and Italy.

 

See Intel's Solutions Directory for more products from NEXCOM.

 

Learn More

 

·       Contact NEXCOM>>

Solutions in this blog:

·       NEXCOM NIO 100

·       NEXCOM NISE 105 IoT Gateway

·       NEXCOM VTC 1010

·       NEXCOM VTC 6210

Related topics:

NEXCOM is an Associate member of the Intel® Internet of Things Solutions Alliance

 

Richard Nass

   

OpenSystems Media by special arrangement with the Intel® Internet of Things Solutions Alliance.

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