Blufi™ BLE – Wifi Gateways Bluetooth Smart to Wifi Gateways for Beacon Management

Total Page:16

File Type:pdf, Size:1020Kb

Blufi™ BLE – Wifi Gateways Bluetooth Smart to Wifi Gateways for Beacon Management BluFi™ BLE – WiFi Gateways Bluetooth Smart to WiFi Gateways for Beacon Management HID Global Location Services, is an efficient real-time asset location and item management platform leveraging BEEKs beacons to effectively pin down the locations of KEY BENEIFTS assets inside a warehouse, campus • Cloud Enabled – Bi-directional BLE to or manufacturing hall. WiFi gateway for remote management The calculation of the BEEKs location • Smart – Accurately measures is based on received signal strength distance to BLE Beacons for RTLS BluFi™ are Bluetooth Low-Energy and other factors measured by BluFi • Rapid Implementation – Simply install (BLE) to Wifi gateways that relay devices. at any conventional power plug signals between BEEKs Beacons BluFi AC devices are available in TECHNOLOGY HIGHLIGHTS: and the cloud of HID Global’s end- four major international power plug to-end IoT Services ecosystem. In • Bluetooth Smart 4.2 and WiFi versions and can be installed in any combination with the corresponding compliant standard power outlet on a wall or Bluzone™ cloud services, BluFi ceiling. BluFi DC are powered with • iBeacon (Apple), Eddystone (Google) enable BEEKs™ beacons to be a rechargeable battery and ideal for and sBeacon (HID) supported centrally managed through the cloud, temporary or mobile setups. BluFi to transfer new messages, firmware • Models for any standard A/C, DC or DC Plenum is a flame resistant, updates, sensor data and battery USB power outlet low-voltage DC powered version status checks remotely. Their unique without battery. Both BluFi DC types design allows BluFi devices and • Battery backed BluFi DC for are designed to be installed with temporary installations BEEKs beacons to broadcast reliably an optional mounting kit on walls, even in densely populated WiFi ceilings or in the plenum. DC power • Central management possible environments. connection can be done via USB or • BLE enabled Aruba access points BEEKs and BluFi are not limited to direct wires. may reduce the number of BluFi standard beacon applications. HID devices needed to implement BluFi devices make it easy and Condition Monitoring Services, Location Services cost efficient to cover an area include a range of sensor beacons with BLE to internet connectivity for motion, temperature and vibration. to take advantage of centralized This sensor data is sent via BluFi management, real-time condition gateways to the Bluzone Cloud to monitoring or location services with perform operational analysis for a fraction of the effort required by motorized equipment. alternative technologies. -DATASHEET BluFi™ BLE – BluFi™ AC BluFi™ DC BluFi™ DC Plenum WiFi Gateways Model Number BluFi-AC00 BluFi-DC00 BluFi-ACAU BluFi-DCPL BluFi-ACUS BluFi-ACEU BluFi-ACUK BluFI-DC00 Configuration Types AU Plug (Type (Plenum US Plug (Type A) EU Plug (Type C) UK Plug (Type G) (battery ) A) environment) BVBFBUS (US), BVBFBEU (EU), Part Number BVBFUS (US) BVBFEU (EU) BVBFUK (UK) BVBFAU (AU) BVBFLVPW BVBFBUK (UK), BVBFBAU (AU) BluFi DC Plenum with optional mounting kit ELECTRICAL Operating Voltage 100-240V AC, 50/60 Hz N/A APPLICATION AREAS: Micro USB or PoE with external NEMA 1-15 CEE 7/16 AS/NZS 3112 Condition Monitoring AC Plugs / Charge adapter. Optional ungrounded "Europlug" BS 1363 (Type G) (Type I USB Type A Plug USB charger for US, • (Type A) (Type C) ungrounded) Wireless status info on UK, EU, AU provided motorized equipment according to P/N. (on/off) Power Supply Output: 5V DC, 2.0A • Fault detection based on Characteristics max. vibration or temperature RF SPECIFICATIONS trends Standard Protocol Bluetooth Low Energy (BLE) 4.2 / WiFi: 802.11 b/g/n Frequency Band (No. • Reporting of equipment 2400-2483.5 MHz (40 channels) duty cycles of Channels) Max Output Power Bluetooth Low Energy (BLE): <10 dBm (e.i.r.p.) / WIFI: <20 dBm • Cold chain applications Bluetooth Low Energy (BLE): GFSK Modulation WIFI: 802.11 B: DSSS, 802.11 G/N: OFDM Real-time location Antenna / Gain integral pcb, 0 dBi • Indoor position tracking Mode of Operation half-duplex of assets (Tools, portable Data Rates 1 Mbit/s equipment, vehicles) BATTERY • Position based alerting, 5V / 10.5 Ah - Lithium Type N/A N/A heat-maps etc. Ion Rechargeable • Workplace optimization Life N/A up to 24h N/A • Emergency mustering FEATURES Processor Type ARM Cortex M4 and ARM Cortex M3 Retail advertisement Memory 256 KB Flash (100 KB free for custom applications) • 9 mA when TX; 1.2 BEEKs beacons may be Power Consumption 200 mA when TX; 20mA on sleep used in iBeacon and/ μA on sleep or Eddystone mode for PHYSICAL advertising messages or Length × Width 2 × 1.5 x 1.5 in (50 × 38 x 38 mm) 3.4 x 3.2 x 1.2 in (86.1 x 82.2 x 31.8 mm) location based services Housing Material Polycarbonate • Central provisioning or Color White Gray White monitoring via BluFi and Weight 1.3 oz (37 g) 1.6 oz (46 g) 1.7 oz (48 g) 1.6 oz (46 g) 9.3 oz (264 g) 4.13 oz (117 g) Bluzone possible THERMAL • Optional counting phones Storage -13° to +149° F (-25° to +65° C) -4° to +158° F (-20° to +70° C) in vicinity Operating -13° to +149° F (-25° to +65° C) -4° to +158° F (-20° to +70° C) Temperature OTHER Standards FCC/CE/UL/FRE; BLE; Wifi 2.4 GHz FCC/CE; BLE; Wifi 2.4 GHz UL-2043 (in Flame Resistance progress) Wall or ceiling / plenum mounting kit (P/N: Options Software configurable BVBFB2) Box Size 1 pcs. Warranty 1 year hidglobal.com North America: +1 512 776 9000 | Toll Free: 1 800 237 7769 Europe, Middle East, Africa: +44 1440 714 850 Asia Pacific: +852 3160 9800 | Latin America: +52 (55) 9171-1108 For more global phone numbers click here © 2021 HID Global Corporation/ASSA ABLOY AB. All rights reserved. 2021-08-27-idt-iots-blufi-ds-en PLT-03334 Part of ASSA ABLOY.
Recommended publications
  • 25 Years of Bluetooth Technology
    future internet Article 25 Years of Bluetooth Technology Sherali Zeadally 1,*, Farhan Siddiqui 2 and Zubair Baig 3 1 College of Communication and Information, University of Kentucky, Lexington, KY, 40506, USA 2 Department of Mathematics and Computer Science, Dickinson College, Carlisle, PA 17013, USA 3 School of Information Technology, Deakin University, Geelong 3216, Victoria, Australia * Correspondence: [email protected] Received: 12 August 2019; Accepted: 2 September 2019; Published: 9 September 2019 Abstract: Bluetooth technology started off as a wireless, short-range cable replacement technology but it has undergone significant developments over the last two decades. Bluetooth radios are currently embedded in almost all computing devices including personal computers, smart phones, smart watches, and even micro-controllers. For many of us, Bluetooth is an essential technology that we use every day. We provide an insight into the history of Bluetooth and its significant design developments over the last 25 years. We also discuss related issues (including security) and Bluetooth as a driving technology for the Internet of Things (IoT). Finally, we also present recent research results obtained with Bluetooth technology in various application areas. Keywords: bluetooth; internet of things; low-energy; mesh; networking; protocol; security 1. Introduction The Bluetooth radio technology was developed by L. M. Ericsson in 1994. The standard is named after the King of Denmark, Harald Blaatand (“Bluetooth”). Major mobile phone manufacturers and technology providers comprising IBM, Nokia, Intel, Ericsson, and Toshiba created the Bluetooth Special Interest Group (SIG). The aim of the group was to invent an open specification for wireless technologies of short range. Bluetooth SIG continues to oversee the Bluetooth technology today.
    [Show full text]
  • Iot Systems Overview
    IoT systems overview CoE Training on Traffic engineering and advanced wireless network planning Sami TABBANE 30 September -03 October 2019 Bangkok, Thailand 1 Objectives •Present the different IoT systems and their classifications 2 Summary I. Introduction II. IoT Technologies A. Fixed & Short Range B. Long Range technologies 1. Non 3GPP Standards (LPWAN) 2. 3GPP Standards IoT Specificities versus Cellular IoT communications are or should be: Low cost , Low power , Long battery duration , High number of connections , Low bitrate , Long range , Low processing capacity , Low storage capacity , Small size devices , Relaxed latency , Simple network architecture and protocols . IoT Main Characteristics Low power , Low cost (network and end devices), Short range (first type of technologies) or Long range (second type of technologies), Low bit rate (≠ broadband!), Long battery duration (years), Located in any area (deep indoor, desert, urban areas, moving vehicles …) Low cost 3GPP Rel.8 Cost 75% 3GPP Rel.8 CAT-4 20% 3GPP Rel.13 CAT-1 10% 3GPP Rel.13 CAT-M1 NB IoT Complexity Extended coverage +20dB +15 dB GPRS CAT-M1 NB-IoT IoT Specificities IoT Specificities and Impacts on Network planning and design Characteristics Impact • High sensitivity (Gateways and end-devices with a typical sensitivity around -150 dBm/-125 dBm with Bluetooth/-95 dBm in 2G/3G/4G) Low power and • Low frequencies strong signal penetration Wide Range • Narrow band carriers far greater range of reception • +14 dBm (ETSI in Europe) with the exception of the G3 band with +27 dBm, +30 dBm but for most devices +20 dBm is sufficient (USA) • Low gateways cost Low deployment • Wide range Extended coverage + strong signal penetration and Operational (deep indoor, Rural) Costs • Low numbers of gateways Link budget: UL: 155 dB (or better), DL: Link budget: 153 dB (or better) • Low Power Long Battery life • Idle mode most of the time.
    [Show full text]
  • Bluetooth® Low Energy Tree Structure Network
    Application Report SWRA648–May 2019 Bluetooth® Low Energy Tree Structure Network Stanford Li, Yan Zhang, and Marie Hernes ABSTRACT This application report presents the concept of the wireless tree structure using Bluetooth Low Energy technology. The important steps when designing a Bluetooth Low Energy tree structure are elaborated on a detailed level throughout the document. With the use of the TI SimpleLink™ Bluetooth low energy software Stack, the tree structure can be done in a simple and intuitive way. The accompanying software example can be found on github. Contents 1 Introduction ................................................................................................................... 2 2 Bluetooth Low Energy Basic Knowledge ................................................................................. 2 3 Three Kinds of Bluetooth Low Energy Network Structure.............................................................. 2 4 Bluetooth Low Energy Tree Structure Network Analysis ............................................................... 4 5 Bluetooth Low Energy Tree Structure Network Realization............................................................ 6 6 Bluetooth Low Energy tree Structure Network Test ................................................................... 10 7 References .................................................................................................................. 11 List of Figures 1 Star Network.................................................................................................................
    [Show full text]
  • Car Access Bluetooth®+ CAN Satellite Module Reference Design
    Design Guide: TIDA-020032 Car Access Bluetooth®+ CAN Satellite Module Reference Design Description Features This satellite module reference design is intended for • CAN, CAN-FD communications Bluetooth® Low Energy passive entry passive start • CAN auto-addressing (PEPS) and phone as a key (PaaK) Digital key car • 25-µA system sleep state (typical) access systems. The design demonstrates how control area network flexible data rate (CAN-FD) • Capable of measuring Bluetooth AoA and RSSI communication capabilities can be implemented with • Small 47.625-mm × 76.2-mm (1.875 in × 3 in) PCB our Bluetooth wireless MCUs for systems that require • Improved system performance with Bluetooth higher bandwidth in-vehicle network communications. connection monitoring capabilities Further benefits include reduced power consumption in the sleep state, CAN auto-addressing method for Applications improved manufacturing, connection monitor capabilities for improved Bluetooth localization • Phone as a key (PaaK), Digital key accuracy, and a compact printed-circuit board (PCB) • Passive entry passive start (PEPS) capable of measuring Bluetooth angle of arrival (AoA) and received signal strength index (RSSI). Resources TIDA-020032 Design Folder CC2642R-Q1 Product Folder TCAN4550-Q1 Product Folder TLV713P-Q1 Product Folder Search Our E2E™ support forums Phone as a key Module Rest of the Vehicle (may be integrated in BLE Satellite Modules Outside of the Vehicle the BCM) TLV713-Q1 Car Battery 5 V Power Supply TCAN4550-Q1 3.3 V Phone as a key 2 x 2.4 GHz (SBC) Communication Antennas Interface + Wide Input Voltage LDO Body Control CAN PaaK Module Module (BCM) CAN CC2642R-Q1 Back-up key MCU An IMPORTANT NOTICE at the end of this TI reference design addresses authorized use, intellectual property matters and other important disclaimers and information.
    [Show full text]
  • Advantages and Limitations of Li- Fi Over Wi-Fi and Ibeacon Technologies By
    ISSN (Online) 2321 – 2004 IJIREEICE ISSN (Print) 2321 – 5526 International Journal of Innovative Research in Electrical, Electronics, Instrumentation and Control Engineering ISO 3297:2007 Certified Vol. 4, Issue 11, November 2016 Review Paper: Advantages and Limitations of Li- Fi over Wi-Fi and iBeacon Technologies By Deepika D Pai Asst. Professor, (Sel Grade), Department of Electronics and Communication Engineering. Vemana Institute of Technology Abstract: Li-Fi can be thought of as a light-based Wi-Fi. That is, it uses light instead of radio waves to transmit information. And instead of Wi-Fi modems, Li-Fi would use transceiver-fitted LED lamps that can light a room as well as transmit and receive information. Light is inherently safe and can be used in places where radio frequency communication is often deemed problematic, such as in aircraft cabins or hospitals. So visible light communication not only has the potential to solve the problem of lack of spectrum space, but can also enable novel application. The visible light spectrum is unused; it's not regulated, and can be used for communication at very high speeds. This paper compares the Li-Fi technology with Wi-Fi and iBeacon technologies. Keywords: Li-fi, Wi-Fi, iBeacon, visible light communication, BLE communication I. INTRODUCTION In recent trends, wireless communication Wi-Fi is gaining government licence. This new Ethernet standard was tremendous importance. CISCO reported that the compatible with devices and technology working on radio compound annual growth rate (CAGR) of mobile data waves and came to be known as ―Wi-Fi‖ only in 1999. usage per month is around 80% which has led to the saturation of the network spectrum consequently bringing iBeacon: The technology was first introduced by Apple at down its efficiency.
    [Show full text]
  • Bluetooth Low Energy Beacons (Rev. A)
    Application Report SWRA475A–January 2015–Revised October 2016 Bluetooth® low energy Beacons Joakim Lindh ABSTRACT This application report presents the concept of beacons by using Bluetooth low energy technology. The important parameters when designing beacon solutions are elaborated on a detailed level throughout the document. With the use of the TI Bluetooth low energy-Stack, beacons can be done in a simple and intuitive way. Contents 1 What is a Beacon? .......................................................................................................... 2 2 Bluetooth low energy and Bluetooth Smart .............................................................................. 2 3 Designing a Bluetooth low energy Beacon ............................................................................... 9 4 iBeacon Implementation................................................................................................... 11 5 Proprietary Implementation ............................................................................................... 13 6 References .................................................................................................................. 14 List of Figures 1 Bluetooth low energy Data Packet ........................................................................................ 3 2 Bluetooth low energy Broadcast Data .................................................................................... 4 3 Beacon Address Types ....................................................................................................
    [Show full text]
  • Performance Evaluation of Bluetooth Low Energy for High Data Rate Body Area Networks
    Performance Evaluation of Bluetooth Low Energy for High Data Rate Body Area Networks José A. Afonso 1, António F. Maio 1, Ricardo Simoes 2,3 1 Centre for Microelectromechanical Systems (CMEMS-UMinho), University of Minho, Guimarães, 4800-058, Portugal 2 Institute for Polymers and Composites (IPC/I3N), University of Minho, Guimarães, Portugal 3 School of Technology, Polytechnic Institute of Cávado and Ave, Barcelos, Portugal 1 E-mail: [email protected], Phone: +351-253510190, Fax: +351-253510189 Abstract. Bluetooth Low Energy (BLE) is a promising wireless network technology, in the context of body area network (BAN) applications, to provide the required quality of service (QoS) support concerning the communication between sensor nodes placed on a user’s body and a personal device, such as a smartphone. Most previous BLE performance studies in the literature have focused primarily in networks with a single slave (point-to-point link) or traffic scenarios with relatively low data rate. However, many BAN sensors generate high data rate traffic, and several sensor nodes (slaves) may be actively sending data in the same BAN. Therefore, this work focuses on the evaluation of the suitability of BLE mainly under these conditions. Results show that, for the same traffic, the BLE protocol presents lower energy consumption and supports more sensor nodes than an alternative IEEE 802.15.4-based protocol. This study also identifies and characterizes some implementation constraints on the tested platforms that impose limits on the achievable performance. Universidade do Minho: RepositoriUM Keywords: Bluetooth Low Energy, Performanceprovided by Evaluation, Body Area View metadata, citation and similar papers at core.ac.uk CORE brought to you by Networks, Quality of Service.
    [Show full text]
  • Interference Simulation of Bluetooth Low Energy
    ATCZ175 INTEROP PROJECT Interference Simulation of Bluetooth Low Energy Version 1.1 Institute of Electrodynamics, Microwave and Circuit Engineering TECHNISCHE UNIVERSITÄT WIEN Advisor: Assoc. Prof. Dipl.-Ing. Dr.techn. Holger ARTHABER by Proj. Ass. Dipl.-Ing. Hamid KAVOUSI GHAFI March 5, 2018 Contents 1 Introduction to Bluetooth Low Energy 1 1.1 BLE Basic Concepts . 1 1.2 Modulation and Demodulation of BLE . 1 1.3 Noise Analysis . 1 1.4 Demodulation Algorithms . 3 1.5 Noise and Frequency Offset Effects on the Demodulator . 4 1.5.1 Simulation Results . 4 2 Interference Analysis 5 2.1 GFSK Signal as Interferer . 5 2.2 Comparison between Noise and GFSK Signal as Interferer . 6 2.3 Conclusion . 9 3 Revision History 11 Abstract Frequency utilization is hugely increasing in the communication systems, particularly in the ISM (Industrial, Scientific, and Medical radio) band. Consequently, interference seems to be a great impeding factor in the next wireless technologies including WiFi, Bluetooth, ZigBee, WiMax, and BLE (Bluetooth Low Energy). In simple words, as these technologies mostly work in the same frequency band, transmitted data signal of each system can be a source of interference for other ones. Moreover, even a same type adjacent system might cause interference with the desired signal. In this report, the interference effects on BLE systems are studied. First, the characteristics of BLE, particularly in the physical layer, are studied. Afterwards, the BLE system performance in the presence of different irritating signals is investigated. In particular, the BLE performance prone to two types of interfer- ing signal, AWGN (Additive White Gaussian Noise) and GFSK (Gaussian Frequency Shift Keying) signals (another BLE system acts as interfering source), is investigated.
    [Show full text]
  • Beyond Beaconing: Emerging Applications and Challenges of BLE
    Beyond Beaconing: Emerging Applications and Challenges of BLE Jian Yanga,∗, Christian Poellabauera, Pramita Mitrab, Cynthia Neubeckerb aDepartment of Computer Science and Engineering, University of Notre Dame, Notre Dame, IN 46556, USA bResearch and Advanced Engineering, Ford Motor Company, Dearborn, MI 48121, USA Abstract As an emerging technology with exceptional low energy consumption and low-latency data transmissions, Bluetooth Low Energy (BLE) has gained significant momentum in various application domains, such as Indoor Positioning, Home Automation, and Wireless Personal Area Network (WPAN) communications. With various novel protocol stack features, BLE is finding use on resource-constrained sensor nodes as well as more powerful gateway devices. Particularly proximity detection using BLE beacons has been a popular usage scenario ever since the release of Bluetooth 4.0, primarily due to the beacons' energy efficiency and ease of deployment. However, with the rapid rise of the Internet of Things (IoT), BLE is likely to be a significant component in many other applications with widely varying performance and Quality-of-Service (QoS) requirements and there is a need for a consolidated view of the role that BLE will play in applications beyond beaconing. This paper comprehensively surveys state-of-the-art applications built with BLE, obstacles to adoption of BLE in new application areas, and current solutions from academia and industry that further expand the capabilities of BLE. Keywords: Bluetooth Low Energy, BLE, Communication, Applications, Low Power, Low Latency. 1. Introduction continuously broadcast an identifier to nearby BLE receivers [3]. This has enabled a multitude of prox- Bluetooth Low Energy (BLE), also known as imity detection solutions, i.e., the beacons allow de- Bluetooth Smart, is an emerging short-range wire- vices such as smartphones and tablets to perform less technology aiming at low-power, low-latency, certain actions when in close proximity to a bea- and low-complexity communications.
    [Show full text]
  • Use Case Possibilities with Bluetooth Low Energy in Iot Applications White Paper
    Use case possibilities with Bluetooth low energy in IoT applications White paper Author Mats Andersson Senior Director Technology, Product Center Short Range Radio, u-blox Abstract With yearly shipments of more than 10 billion microcontrollers that all can exchange information locally or through the Internet, a huge variety of so called “intelligent devices” are enabled. All these devices can be accessed over the Internet and this evolution is commonly referred to as Internet of Things (IoT). IoT typically requires a local low power wireless connection along with the Internet connection. For most such applications and solutions, a gateway is required to connect sensor nodes to the Internet via a local infrastructure or using a cellular connection. Gateways are important components of the IoT vision. These gateways can be used to connect Bluetooth low energy devices to the Internet and can also be used as "repeaters" to extend the system range. This whitepaper describes how Bluetooth low energy technology works and how it can be used to connect devices to Internet-based services and applications. A significant feature in Bluetooth low energy compared to other IoT wireless technologies is the support for smartphones and tablets. The whitepaper thus also describes how a smartphone or tablet can be used in IoT. www.u-blox.com UBX-14054580 - R01 Use case possibilities with Bluetooth low energy in IoT applications - White paper Contents Contents .............................................................................................................................
    [Show full text]
  • Bluetooth Low Energy (BLE) 101: a Technology Primer with Example Use Cases
    Bluetooth Low Energy (BLE) 101: A Technology Primer with Example Use Cases A Smart Card Alliance Mobile and NFC Council White Paper Publication Date: June 2014 Publication Number: MNFCC-14001 Smart Card Alliance 191 Clarksville Rd. Princeton Junction, NJ 08550 www.smartcardalliance.org About the Smart Card Alliance The Smart Card Alliance is a not-for-profit, multi-industry association working to stimulate the understanding, adoption, use and widespread application of smart card technology. Through specific projects such as education programs, market research, advocacy, industry relations and open forums, the Alliance keeps its members connected to industry leaders and innovative thought. The Alliance is the single industry voice for smart cards, leading industry discussion on the impact and value of smart cards in the U.S. and Latin America. For more information please visit http://www.smartcardalliance.org. Copyright © 2014 Smart Card Alliance, Inc. All rights reserved. Reproduction or distribution of this publication in any form is forbidden without prior permission from the Smart Card Alliance. The Smart Card Alliance has used best efforts to ensure, but cannot guarantee, that the information described in this report is accurate as of the publication date. The Smart Card Alliance disclaims all warranties as to the accuracy, completeness or adequacy of information in this report. Table of Contents 1 INTRODUCTION .................................................................................................................. 4 2 OVERVIEW
    [Show full text]
  • Smart City Network Solution Guide This
    Smart City solution guide Solution guide Smart City solution guide Table of contents 1 About this document . 4 1 .1 Purpose . 4 1 .2 Scope . 4 1 .3 Acronyms . 4 1 .4 Related documents . 5 2 Introduction and use cases . 6 3 Solution overview . 8 4 Reference architecture . .10 5 City net . 11 5 .1 Introduction . 11 5 .3 L2/L3 VPNs and IoT containers . 13 5 .4 Intelligent Fabric in city nets . 14 5 .5 Solution highlights . 14 5 .6 Why use ALE’s Intelligent Fabric for smart city nets? . 16 6 Municipal cloud . 17 6 .1 Introduction . 17 6 .2 Business drivers and technical requirements . 17 6 .3 The virtualized data center . 18 6 .4 End-to-end virtualized hybrid multi-tenant cloud . 19 6 .5 Solution highlights . 20 6 .6 Why use ALE’s Intelligent Fabric for smart municipal clouds? . 20 7 Municipal Wi-Fi . 21 7 .1 Introduction . 21 7 .2 Business drivers and technical requirements . 21 7 .3 Solution overview . 22 7 .4 Solution highlights . 23 7 .5 . Why ALE’s OmniAccess Stellar for smart municipal Wi-Fi? . 23 Solution guide Smart City Solution Guide 2 8 Smart transit . 24 8 .1 Introduction . 24 8 .2 Business drivers and technical requirements . 24 8 .3 Solution overview . 25 8 .4 Solution highlights . 26 8 .5 Why ALE’s H2-Automotive+ for smart transit . 26 9 Smart civic venue . .27 9 .1 Introduction . 27 9 .2 Business drivers and technical requirements . 27 9 .3 Solution overview . 28 9 .4 Solution highlights . 29 9 .5 Why ALE’s OmniAccess Stellar LBS for smart civic venues .
    [Show full text]