DOCSLIB.ORG

Product Catalog 2019 — Vol

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Product Catalog 2019 — Vol PRODUCT CATALOG 2019 — VOL. 1 TEST & MEASUREMENT SOLUTIONS For Engineers by Engineers CONTENTS CONTENTS APPLICATION SOLUTIONS 2 SPECTRUM ANALYZERS 45 POWER SUPPLIES, CONTINUED SERVICE SOLUTIONS 5 Selection Guide 45 2220/2230 Programmable Multiple Channel OSCILLOSCOPES 7 RSA306B USB Spectrum Analyzer 46 DC Power Supplies with Remote Sensing 71 RSA500A Series 47 2230G Series High Power, 3-Channel Selection Guide 9 Programmable DC Power Supplies 71 RSA600A Series 47 Mixed Signal and Mixed Domain 2260B Series Programmable DC MDO3000 Series 17 RSA5000B Real-Time Spectrum Analyzer 48 Power Supply (360 W, 720 W, 1080 W) 72 MDO4000C Series 17 RSA7100A 48 2280S Series Precision Measurement MSO/DPO2000B Series 18 SignalVu-PC 49 DC Power Supply 72 Advanced Signal Analysis DataVu-PC 49 2281S Series Precision DC Power Supply Spectrum Analyzer Software 50 with Battery Test and MSO/DPO5000B Series 18 Battery Simulation Functions 73 5 Series MSO 19 SOURCEMETER® SMU INSTRUMENTS 52 2290 High Voltage Power Supply 73 6 Series MSO 19 Selection Guide 52 2300 Series Portable Device Battery/ 5 Series MSO Low Profile 20 Charger Simulator 74 2450/2460/2461 Graphical Touchscreen 53 DPO7000C Series 20 2303 High Speed Power Supply 74 2450/2460/2461 SourceMeter® SMU MSO/DPO70000 and DX Series 21 Instruments 53 DC ELECTRONIC LOADS 75 DPO70000SX Series 21 Series 2400 SourceMeter® SMU Instruments 54 Selection Guide 75 Sampling Oscilloscopes 2450-EC, 2460-EC, and 2461-EC 2380 Series 76 DSA8300 Series 22 Graphical Potentionstats 54 Basic Oscilloscopes Series 2600B System SourceMeter® FREQUENCY COUNTER/TIMERS 77 SMU Instruments 55 TBS1000B Series 23 2606B High Density SourceMeter® Selection Guide 77 TBS1000B-EDU Series 23 SMU Instrument 55 FCA3100/3000 Series 78 TBS1000 Series 24 Series 2650A High Power System MCA3000 Series 78 TBS2000 Series 24 SourceMeter® SMU Instruments 56 POWER ANALYZER 79 Battery Powered and Handheld DIGITAL MULTIMETERS 57 THS3000 Series 25 Selection Guide 79 Selection Guide 57 TPS2000B Series 25 PA1000 Power Analyzer 80 2000, 2100, 2110 58 TDS Oscilloscopes PA3000 Power Analyzer 80 2001, 2002, 2010 58 TDS2000C Series 26 DMM7510 7½-Digit Graphical LOGIC ANALYZERS 81 TDS3000C Series 26 Sampling Multimeter 59 Selection Guide 81 Oscilloscope Application Software 27 DMM4020 59 TLA6400 Series 82 Oscilloscope Probes and Accessories 31 DMM4040/4050 60 TLA7000 Series 82 IsoVu™ Technology 32 DMM6500 6½-Digit Bench/System Digital Multimeter 60 BIT ERROR RATE TESTERS 83 SIGNAL GENERATORS 33 DMM7512 Dual Channel 7½-Digit Selection Guide 83 Selection Guide 33 Sampling Multimeter 61 BA/BSA Bit Error Rate Tester 84 AFG1000 Series 35 ULTRA-SENSITIVE MEASUREMENT 62 BSX Series Bit Error Rate Tester 84 AFG2000 35 Selection Guide 62 AFG3000C Series 36 COHERENT OPTICAL SOLUTIONS 85 2182A Nanovoltmeter 63 AFG31000 Series 36 Selection Guide 85 6220 / 6221 Current Sources 63 AWG5000 Series 37 OM2210 Coherent Receiver 6485 Picoammeter, Calibration Source 86 AWG70000 Series 37 6487/6482 Picoammeter & Voltage Sources 64 AWG5200 Series 38 6514/6517B/6430 Electrometers 64 SWITCH SYSTEMS 87 AWGSYNC01 AWG Synchronization Hub 38 DATA ACQUISITION SYSTEMS 65 Selection Guide 87 SourceXpress™ 39 System 46 RF Microwave Switch System 88 Signal Generator Software 39 Selection Guide 65 Semiconductor Switch Matrix Mainframes 88 EDUCATION SOLUTIONS 41 2700 Series 66 3700A Series 66 SEMICONDUCTOR TEST SYSTEM 89 TekSmartLab™ - Education Solution 42 DAQ6510 Data Acquisition Selection Guide 89 TekBench™ Control Software 42 and Logging Multimeter System 67 4200A-SCS Parameter Analyzer 90 VECTOR NETWORK ANALYZERS 43 POWER SUPPLIES 68 Parametric Curve Tracer (PCT) Configurations 90 Selection Guide 43 Selection Guide 68 S530 Parametric Test System, S535 Multi-Site Test System and TTR500 Series 44 PWS2000 Series Single-Channel S500 Integrated Test System 91 Power Supply 69 S540 Power Semiconductor Test System 91 PWS4000 Series USB Programmable, Single-Channel Power Supply 69 Automated Characterization Suite (ACS) Software, ACS Basic, ACS Wafer Level 2200 Programmable Single-Channel Reliability Option 92 DC Power Supplies with Remote Sensing 70 2231A-30-3 Triple-Channel DC Power Supply 70 010719AH TEK.COM | 1 DRIVE INNOVATION FASTER We celebrate this Age of the Engineer. Our experts will help you frame the future. With regular updates on applications and technology trends to achieve measurement insight, Tektronix will boost your productivity and accelerate your time to market. Wired Next Gen Power Communication Media ENERGIZE >> CONNECT >> SEE >> The desire for smaller and more powerful As data rates increase, get the measurement Simplify your 4K HDR Video test and batteries is increasing complexity within power insight to get ahead. Accelerate PCIe, SAS, monitoring. Get true visibility into your cloud management and measurement. Congruently, SATA Compliance Testing with a single test video delivery network for more efficient power efficiency and density are becoming solution including automation and debug quality control and compliance. Close the increasingly critical to design considerations. capabilities. Speed up your 400G product knowledge gap between SDI and IP worlds Engineers from fab to end-product are development with PAM4 testing to efficiently and foster collaboration between broadcast thinking about safe, precise and fast lab and validate your technology advances. Get to engineers and IT experts. Accelerate your wafer test environments; testing challenges compliance faster with your Type-C devices. video delivery or creation evolution with the resulting from the adoption of SiC and GaN most robust test and monitoring tool sets in into designs and how to solve them; and how the industry. to minimize power draw and maximize battery life for end-products. Learn how to address Connected Car the complexities within power management Military and MOBILIZE >> and measurement. Government Get the insight and tools to test confidently ADVANCE >> in today’s world of advanced automotive 3D Sensing electronics. Speed through validation, Accurately simulate threat radar in operational debugging and compliance testing your environments while measuring ECM DISCOVER >> Automotive Ethernet PHY design. Reduce Techniques. Utilize powerful DSP technology ECU validation and debug time with to characterize spectrum and identify signals Many depth sensing technologies use automated protocol analysis of important of interest. Integrate, scale and deploy low structured light or Time of Flight (ToF). standards like CAN and CAN FD. Swap, high fidelity RF sensors to characterize Learn more about Laser Diode Array Test spectrum. Ensure complex modulation for 3D Sensing and also about enhancing techniques used in Satcom systems are low Trigger Synchronization for High Volume in bit error rate and provide secure, reliable Production Testing of VCSELs. communications. TOGETHER WE CAN DEFINE THE NEXT GENERATION OF DESIGNS We are the measurement insight company committed to performance, and compelled by possibilities. Together we empower engineers to create and realize technological advances with ever greater ease, speed and accuracy. Tektronix solutions have supported many of humankind’s greatest advances of the past 70 years. Health. Communication. Mobility. Space. We are committed to the scientists, engineers and technicians around the world who will define the future. LEARN MORE 2 | TEK.COM/DRIVE-INNOVATION-FASTER APPLICATION & INNOVATION POWER EFFICIENCY • Safe, Precise, Fast MOSFET • Fully-automated HV • Determine the load Testing for Si, SiC and GaN Wafer-level testing • Overcome high common current profile devices • Move from high voltage mode voltages • Simulate any battery • Wide power envelope to low voltage without • Simultaneously measure • Model any type of battery • Safely set up your test changing test setup multiple control and timing signals • 2X Faster Device • Measure capacitance Characterization for improved without manual • Faster automated power time to market reconfiguration Fast measurements automation • Avoid expensive overdesigning • Don't fail compliance of your wide bandgap device LEARN MORE WIRED COMMUNICATIONS • No more trial and error • Accelerate 400G product development • Automate to reduce calibration • Automate calibration • Get to compliance faster times and measure accurately • Close the loop on for next gen USB, • Validate faster and loopback debug DisplayPort, HDMI increase yield • Superior signal integrity • Build confidence on the and debug margin of devices • Avoid expensive overdesigning NEXT GEN MEDIA LEARN MORE • Meet Challenges of 4K HDR • Automated Live Stream Monitoring • Solutions for Live IP Video Production Production & Delivery • Maintaining quality in OTT • Capturing in UHD environments • Diagnosing faults in an IP environment • Adapting to new color gamuts • Proactive automated monitoring • Bridging the gap from SDI to IP • Simplifying quality and • Encryption and DRM • An invisible transition compliance checks LEARN MORE TEK.COM/DRIVE-INNOVATION-FASTER | 3 APPLICATION & INNOVATION CONNECTED CAR • Reduce EMI/EMC compliance • Debugging ECUs with • Achieving Reliability design and test costs Automated Decode & Trigger and Interoperability • Overcome high common • Accelerate debug time • Debug the decoded protocol • Validate your designs mode voltages with automated test set-ups • Troubleshoot signal faults • Speed through debugging • Simultaneously measure and reporting generation multiple control and timing • Visualize multiple channels/ and troubleshooting
Load more

Recommended publications
  • Understanding Technology Options for Deploying Wi-Fi
    Understanding Technology Options for Deploying Wi-Fi How Wi-Fi Standards Influence Objectives A Technical Paper prepared for the Society of Cable Telecommunications Engineers By Derek Ferro VP Advanced Systems Engineering Ubee Interactive 8085 S. Chester Street Suite 200 Englewood, CO 80112 [email protected] Bill Rink Senior Director Product Management Ubee Interactive 8085 S. Chester Street Suite 200 Englewood, CO 80112 [email protected] www.ubeeinteractive.com Introduction As Wi-Fi technology evolves at an exponential pace, Operators must understand available Wi-Fi standards in order to make the best business decisions when purchasing and deploying new wireless gateways (i.e. performance versus cost). This paper will discuss the migration from 802.11b, 802.11g, 802.11a, 802.11n and most recently the push to 802.11ac. It will also discuss the advancement of MIMO antenna technology from 1x1, 2x2, 3x3 and even 4x4. Many questions will be addressed: • What are the complexities of advanced MIMO? • When to implement which MIMO configuration? • What are alternative options for improving performance (power amplification, improved receive amplifiers, etc.)? • When should single band, dual-band selectable or dual-band concurrent gateways be deployed? • When examining the US residential market, what is the penetration of 2.4GHz, 5GHz, and dual-band homes, and what are the emerging trends in the marketplace? We hope to demystify the complexity surrounding Wi-Fi and look at the trade-offs in performance and cost presented by each option. www.ubeeinteractive.com Alphabet Soup: Understanding Wi-Fi Standards The Evolution of 802.11 Standards 802.11 technology has its origins in a 1985 ruling by the U.S.
    [Show full text]
  • 802.11 Alternate Phys February 2018
    CWNP 802.11 Alternate PHYs February 2018 802.11 Alternate PHYs A whitepaper by Ayman Mukaddam ©2018 CWNP, LLC CWNP Page 1 of 12 1005 Slater Road, Suite 101 • Durham, NC 27703 866-438-2963 • www.cwnp.com CWNP 802.11 Alternate PHYs February 2018 Contents Modern 802.11 Amendments ....................................................................................................................... 3 Traditional PHYs Review (2.4 GHz and 5 GHz PHYs) ..................................................................................... 3 802.11ad Directional Multi-Gigabit - DMG PHY ............................................................................................ 4 Frequency Band Used ............................................................................................................................... 4 Channel Plans ............................................................................................................................................ 5 Modulation Methods and Data Rates ....................................................................................................... 5 Use Cases .................................................................................................................................................. 6 802.11af TV High Throughput (TVHT) PHY ................................................................................................... 8 Frequency Band Used ..............................................................................................................................
    [Show full text]
  • W110 Wigig® Chipset Overview Features Application Diagram
    W110 WiGig Chipset Product Brief 2015‐12‐23 Overview The Peraso W110 chipset is targeted for WiGig applications and employs the PRS1125 and PRS4001 integrated circuits to implement the necessary IEEE 802.11ad functionality. The W110 chipset implements a complete SuperSpeed USB 3.0 to WiGig solution. The PRS4001 Low Power WiGig Baseband incorporates the Analog Front End, BB PHY/MAC, and two RISC CPU cores. The PRS1125 is a single chip direct conversion RF transceiver providing 60 GHz single‐ended receiver and transmit antenna interfaces. The chipset is ideal for wireless storage, wireless display, and multi‐gigabit mobile wireless applications. Features PRS4001 Low Power Baseband PRS1125 High Performance WiGig Radio IEEE 802.11ad compliant Tx output power: Up to +14 dBm Fully integrated AFE, PHY and MAC Better than ‐21 dB transmit EVM (16‐QAM) Highly flexible, dual CPU soft MAC integrates WiGig Receiver noise figure: < 5 dB MAC functions Receiver conversion gain > 70 dB PHY supports MCS0 to MCS12 (4.62 Gb/s) Integrated single‐ended 60 GHz antenna interfaces 2 Gb/s link at 10m (MCS8) PLL tunes to all channels of IEEE 802.11ad 1 Gb/s at 20m (MCS4) specifications using integrated XO 0.8 mm thick, 7mm × 7mm BGA 6mm × 6mm BGA Package Application Diagram Status LED Serial Flash Tx Antenna 2.5V 1.8V CPF 1.2V PWM SPI PRS4001 REFCLK 3.3V (USB) PRS1125 Bias 2.5V (IO) Peripherals MAC PHY AFE 1.1V (Core) SPI, I2C, PWM, UART, GPIO, LSADC, Upper MAC Memory DAC TX_I XREF1 JTAG (640K) WiGig PHY Tx Path Tx Data Path PLL USB 3.0 Upper MAC CPU DAC TX_Q XREF2 45 MHz USB 3 USB 3.0 Packet Buffer MAC/PHY IF PHY and Device/ PLL Digital AGC VCO XO Host Shared Memory GCMP (AES) (592K) USB 2 Encryption USB 2.0 PHY ADC RX_Q Lower MAC CPU Configuration WiGig PHY Rx Data Path and GPIO Lower MAC Memory Rx Path Control ADC RX_I GPIO (optional), SPI 256K SPI Radio Control SPI Rx Antenna Revision 0.15.12 © 2015 Peraso Technologies.
    [Show full text]
  • Medium Access Control for 60 Ghz Wireless Networks: a Comparative Review
    International Journal of Control and Automation Vol. 8, No. 4 (2015), pp. 421-434 http://dx.doi.org/10.14257/ijca.2015.8.4.39 Medium Access Control for 60 GHz Wireless Networks: A Comparative Review Rabin Bhusal1 and Sangman Moh2 1I&M Team, Telstra Corporation, Perth, Australia 2Dept. of Computer Eng., Chosun Univ., Gwangju, Korea [email protected], [email protected] Abstract The 60 GHz wireless networks enable multi-Gbps local communications. With opportunities, however, there are many challenges because the physical wave characteristics of the 60 GHz band are quite different from those of the currently used 2.4 GHz and 5 GHz ISM bands. Moreover, there are many hot issues associated with the MAC (Medium Access Control) layer as the directional MAC protocols proposed for 2.4 GHz and 5 GHz cannot be directly implemented on the 60 GHz frequency because of different characteristics of the millimeter waves. However, no review on MAC for 60 GHz wireless networks has been reported in the literature. In this paper, we comparatively review standards and protocols of MAC in 60 GHz wireless networks for multi-Gbps communications. Opportunities and challenges are also discussed. Keywords: 60 GHz, millimeter wave, multi-Gbps, medium access control, directional antenna, ISM band. 1. Introduction Wireless local area networks (WLANs) based on IEEE 802.11 standards, also commercially known as Wi-Fi, have become an integral part of our daily living, and this technology is being integrated into many devices like smart phones, laptops, and other consumer electronics. The rapid increase of throughput from 2 Mbps in 802.11 to as much as 600 Mbps in 802.11n has provided many opportunities and led to a new goal to achieve speeds in the Gbps range.
    [Show full text]
  • Toward a Reliable Network Management Framework
    TOWARD A RELIABLE NETWORK MANAGEMENT FRAMEWORK A DISSERTATION IN Computer Networking and Communications Systems and Economics Presented to the Faculty of the University of Missouri–Kansas City in partial fulfillment of the requirements for the degree DOCTOR OF PHILOSOPHY by HAYMANOT GEBRE-AMLAK University of Missouri - Kansas City Kansas City, Missouri 2018 © 2018 HAYMANOT GEBRE-AMLAK ALL RIGHTS RESERVED TOWARD A RELIABLE NETWORK MANAGEMENT FRAMEWORK Haymanot Gebre-Amlak, Candidate for the Doctor of Philosophy Degree University of Missouri–Kansas City, 2018 ABSTRACT As our modern life is very much dependent on the Internet, measurement and management of network reliability is critical. Understanding the health of a network via outage and failure analysis is especially essential to assess the reliability of a network, identify problem areas for network reliability improvement, and characterize the network behavior accurately. However, little has been known on characteristics of node outages and link failures in access networks. In this dissertation, we carry out an in-depth outage and failure analysis of a university campus network using a rich set of node outage and link failure data and topology information over multiple years. We investigated the diverse statistical characteristics of both wired and wireless networks using big data analytic tools for network management. Furthermore, we classify the different types of network failures and management issues and their strategic resolution. iii While the recent adoption of Software-Defined Networking (SDN) and softwariza- tion of network functions and controls ease network reliability, management, and vari- ous network-level service deployments, the task of monitoring network reliability is still very challenging.
    [Show full text]
  • PRS4000/PRS1025 60 Ghz Wigig Chipset
    PRS4000/PRS1025 60 GHz WiGig Chipset Product Brief 2015‐03‐01 Overview The PRS4000 and PRS1025 comprise a highly integrated 60 GHz chipset compliant with the IEEE 802.11ad specifications. The two integrated circuits implement a complete SuperSpeed USB 3.0 to WiGig solution. The PRS4000 Low Power WiGig Baseband incorporates the Analog Front End, BB PHY/MAC, and two RISC CPU cores. The PRS1025 is a single chip RF IC incorporating an integrated antenna of 8.5 dBi peak gain. The chipset is ideal for wireless display, wireless docking, and multi‐gigabit mobile wireless applications. Features PRS4000 Low Power Baseband PRS1025 High Performance WiGig Radio IEEE 802.11ad compliant Tx output power: Up to +22.5 dBm EIRP Fully integrated AFE, PHY and MAC Better than ‐21 dB transmit EVM (16‐QAM) Highly flexible, dual CPU soft MAC integrates WiGig Receiver noise figure: < 5 dB MAC functions Receiver conversion gain > 70 dB PHY supports MCS0 to MCS12 (4.62 Gb/s) Integrated 8.5dBi Tx and Rx antennas 2 Gb/s link at 10m (MCS8) PLL tunes to all channels of IEEE 802.11ad 1 Gb/s at 20m (MCS4) specifications using integrated XO 0.8 mm thick, 7mm × 7mm BGA 0.7 mm thick, 7mm × 7mm BGA Package Application Diagram Status LED Serial Flash 2.5V 1.8V CPF 1.2V PWM SPI PRS4000 REFCLK PRS1025 3.3V (USB) Tx Antenna Bias 2.5V (IO) Peripherals MAC PHY AFE 1.1V (Core) SPI, I2C, PWM, UART, GPIO, LSADC, Upper MAC Memory DAC TX_I XREF1 JTAG (640K) WiGig PHY Tx Path Tx Data Path PLL USB 3.0 Upper MAC CPU DAC TX_Q XREF2 45 MHz USB 3 USB 3.0 Packet Buffer MAC/PHY IF PHY and Device/ PLL Digital AGC VCO XO Host Shared Memory GCMP (AES) (416K) USB 2 Encryption USB 2.0 PHY ADC RX_Q Lower MAC CPU Configuration WiGig PHY Rx Data Path and GPIO Lower MAC Memory Rx Path Control ADC RX_I GPIO (optional), SPI 192K SPI Radio Control Rx Antenna SPI Revision 0.15.03 © 2015 Peraso Technologies.
    [Show full text]
  • On IEEE 802.11: Wireless LAN Technology
    Preprint: http://arxiv.org/abs/1307.2661 Original Publication: International Journal of Mobile Network Communications & Telematics (IJMNCT) Vol. 3, Issue. 4, 2013. [DOI: 10.5121/ijmnct.2013.3405] On IEEE 802.11: Wireless LAN Technology Sourangsu Banerji1, Rahul Singha Chowdhury2 1, 2 Department of Electronics & Communication Engineering, RCC-Institute of Information Technology, India ABSTRACT: Network technologies are WMAN: Wireless Metropolitan Area Network; traditionally based on wireline solutions. But generally cover wider areas as large as entire cities. the introduction of the IEEE 802.11 standards WWAN: Wireless Wide Area Network with a cell have made a huge impact on the market such radius about 50 km, cover areas larger than a city. that laptops, PCs, printers, cellphones, and However out of all of these standards, WLAN VoIP phones, MP3 players in our homes, in and recent developments in WLAN technology offices and even in public areas have would be our main area of study in this paper. The incorporated the wireless LAN technology. IEEE 802.11 is the most widely deployed WLAN Wireless broadband technologies nowadays technology as of today. Another well known is the provide unlimited broadband access to users HiperLAN standard by ETSI. Both these which were previously offered only to wireline technologies are united under the Wireless Fidelity users. In this paper, we review and summarize (Wi-fi) alliance. In literature though, IEEE802.11 one of the emerging wireless broadband and Wi-fi is used interchangeably and we will also technology i.e. IEEE 802.11,which is a set of follow the same convention in this paper.
    [Show full text]
  • GISFI 5G Workshop
    GISFI 5G Workshop Sri Chandra Standards Senior Manager, IEEE-SA Evolution of xG systems Standards Next Generation Mobile Telephony released every 10 years 1G: Nordic Mobile Telephone introduced in 1981 2G: released in 1991 (GSM) 3G: 2001 (IMT-2000 and UMTS) – Cdma/IS95 released in 1995 in the US 4G: Fully compliant with IMT Advanced standardized in 2012 – Mobile WiMAX in 2006 – First release LTE in 2009 5G: Approximately 2020 Source: Wikipedia IMT Advanced Requirements IEEE has been engaged in Wireless Mobile Telephony for a very long time; In Connection with next generation standards: Does not support traditional circuit-switched, but all-IP based communication Spread spectrum technology in 3G replaced by frequency domain equalization (OFDMA) Specific data rates specified for high and low mobility users (100 mbps, 1gbs) Smooth handovers across heterogeneous networks IEEE Standards IEEE has been engaged in Wireless Mobile Telephony for a very long time; In Connection with next generation standards: Two 4G candidate systems have been commercially deployed: ITU-R specified set of requirements for 4G standards, named IMT-A (International Mobile Telecommunications Advanced), with peak speed requirements for 4G at 100 megabits-per-second for highly mobile communications and 1Gbits per second for low mobility First release Long Term Evolution (LTE) Standard first released in 2009 Mobile WiMAX (Worldwide Interoperability for Microwave Access): IEEE 802.16e-2005 – WirelessMAN Advanced Evolution Standard based on 802.16m – Enabling
    [Show full text]
  • Wigig White Paper
    White Paper Defining the Future of Multi-Gigabit Wireless Communications July 2010 WiGig | Defining the Future of Multi-Gigabit Wireless Communications 2 Introduction Specification Overview The widespread availability and use of digital The WiGig specification includes key features to multimedia content has created a need for faster maximize performance, minimize implementation wireless connectivity that current commercial standards complexity and cost, enable compatibility with existing cannot support. This has driven demand for a single Wi-Fi and provide advanced security. Key features standard that can support advanced applications include: such as wireless display and docking, as well as more • Support for data transmission rates up to 7 Gbps; established usages such as network access. all devices based on the WiGig specification will be capable of gigabit data transfer rates The Wireless Gigabit (WiGig) Alliance was formed to • Designed from the ground up to support low-power meet this need by establishing a unified specification handheld devices such as cell phones, as well as for wireless communication at multi-gigabit speeds; this high-performance devices such as computers; specification is designed to drive a global ecosystem of includes advanced power management interoperable products. • Based on IEEE 802.11; provides native Wi-Fi The WiGig MAC and PHY Specification enables data support and enables devices to transparently switch rates up to 7 Gbps, more than 10 times the speed of between 802.11 networks operating in any frequency the fastest Wi-Fi networks based on IEEE 802.11n. It band including 2.4 GHz, 5 GHz and 60 GHz operates in the unlicensed 60 GHz frequency band, • Support for beamforming, maximizing signal which has much more spectrum available than the strength and enabling robust communication at 2.4 GHz and 5 GHz bands used by existing Wi-Fi distances beyond 10 meters products.
    [Show full text]
  • Wireless LAN IEEE 802.11 Aka Wi-Fi
    WLAN IEEE 802.11 aka Wi-Fi Max Riegel ©Max Riegel, 2019 Lectures overview June 27th – Wi-Fi deployments – Standardization environment – Wi-Fi system architecture – Wi-Fi security July 4th – Medium access functions – MAC layer management frame formats – Quality of Service – Wi-Fi roaming and Hotspot 2.0 – WLAN management July 11th – Wireless channel characteristics – Wi-Fi radio for 2.4 GHz and 5 GHz bands – WiGig extension for 60 GHz bands – HaLow extension for below 1GHz bands SON Self Organizing Networks SS2019 (WLAN) ©Max Riegel, 2019 2019-07-11 2 Standards environments STANDARD REFERENCE SON Self Organizing Networks SS2019 (WLAN) ©Max Riegel, 2019 2019-07-11 3 IEEE Std 802.11™-2016 + amendment 802.11ah • Can be downloaded at no charge by IEEE Get Program – http://standards.ieee.org/getieee802/download/802.11-2016.pdf – http://standards.ieee.org/getieee802/download/802.11ah-2016.pdf • No all the features specified in the standard are available in real Wi-Fi products • Where appropriate presentation adopts behavior of real Wi-Fi products as specified by Wi-Fi Alliance in its certification programs – https://www.wi-fi.org/discover-wi-fi/specifications Part 11: Wireless LAN Medium Access Control (MAC) and Physical Layer (PHY) Specifications • Revision of IEEE Std 802.11-2012 – Previous revisions: IEEE Std 802.11-2007 and IEEE Std 802.11-1999 – Initial IEEE 802.11 standard release in 1997 • Comprises initial IEEE Std 802.11-1999 together with all amendments IEEE 802.11a-1999 … IEEE 802.11af-2013 – i.e.: a, b, d, e, g, h, I, j, k, n, p,
    [Show full text]
  • Improving Spatial Reuse in Future Dense High Efficiency Wireless Local Area Networks
    Improving spatial reuse in future dense high efficiency Wireless Local Area Networks Imad Jamil To cite this version: Imad Jamil. Improving spatial reuse in future dense high efficiency Wireless Local Area Networks. Networking and Internet Architecture [cs.NI]. INSA de Rennes, 2015. English. NNT : 2015ISAR0033. tel-01329810 HAL Id: tel-01329810 https://tel.archives-ouvertes.fr/tel-01329810 Submitted on 9 Jun 2016 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Thèse THESE INSA Rennes présentée par sous le sceau de l’Université européenne de Bretagne pour obtenir le titre de Imad Jamil DOCTEUR DE L’INSA DE RENNES ECOLE DOCTORALE : MATISSE Spécialité : Electronique et Télécommunications LABORATOIRE : IETR Sandrine DESTOUET ROBLOT Improving spatial reuse Docteur-Ingénieur à Orange Labs Rennes / Membre invité in future dense high Thèse soutenue le 17.12.2015 eficiency Wireless Local devant le jury composé de : Hikmet SARI Area Networks Professeur à Centrale-Supelec à Gif sur Yvette / Président André-Luc BEYLOT Professeur à l’ENSEEIHT de Toulouse / Rapporteur
    [Show full text]
  • MIMO Beamforming in Millimeter-Wave Directional Wi-Fi 1
    Ho et al ., MIMO beamforming in millimeter-wave directional Wi-Fi 1 MIMO Beamforming in Millimeter-Wave Directional Wi-Fi Keang-Po Ho, Senior Member, IEEE , Shi Cheng, Member, IEEE and Jianhan Liu, Member, IEEE arrays are used in both transmitter and receiver, as shown in Abstract —Beamforming is indispensable in the operation of Figure 1, the whole array with many antennas are used to 60-GHz millimeter-wave directional multi-gigabit Wi-Fi. Simple transmit one SISO data stream. Analog phase shifters are used power method and its extensions enable the transmitting and to form a single spatial beam, basically pointing the receiving antenna arrays to form a beam for single spatial transmitter and receiver toward each other, providing multi- stream. To further improve the spectral efficiency in future 60- GHz directional Wi-Fi, alternating least square (ALS) algorithm gigabit yet directional transmission. SISO beamforming based can form multiple beams between the transmitter and receiver on the simple power method is well-known and can be very for multi-input-multi-output (MIMO) operations. For both effective for frequency-flat channel. Beamforming in shared and split MIMO architecture, the ALS beamforming frequency-selective channel is less well-known but can be algorithm can be operated in both frequency-flat and frequency- performed using alternating least square (ALS) method that selective channels. In the split architecture, MIMO beamforming finds iteratively the transmitter beamforming vector by fixing approximately maximizes the capacity of the beam-formed MIMO channel. that of the receiver, and then the other way around. Index Terms —Millimeter wave, MIMO, beamforming, SISO operation for 60-GHz millimeter wave is a mature directional multi-gigabit Wi-Fi technology, defined and operated in all 60-GHz standards.
    [Show full text]