SlideShare une entreprise Scribd logo
1  sur  34
Two-day Course  : Self-Organizing Wireless Networks (SOWN) 813.205.2661  World Bridge innovations, LLC Wbi@mac.com  Low-power, wireless node networks Chapter III:  Hardware 20-21  July 2009 JHU/APL  Laurel, Maryland Timothy D. Cole   World Bridge innovations (WBi)  LLC
AGENDA ,[object Object],[object Object],[object Object],[object Object],[object Object]
MOTE DESIGN (HW):  Agenda ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object]
MOTE DESIGN (HW): Objectives ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],© Timothy  D. Cole, 2009
MOTE DESIGN (HW): Design goals ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object]
MOTE DESIGN (HW): Design results – Myriad of small sensors, for WSN apps
MOTE DESIGN (HW) :  System Overview RF/Processing Board Sensor Board Interface  Board The  RF/Processor Board  (MPR300CB) which contains the micro controller that will provide all of the necessary control, processing, and communication signals to the sensors as well as the transmission of data over the wireless link station. The  Sensor Board  (MTS310CA), which contains the sensors and connects on top of the RF/Processor Board via a 51 pin connector. This board contains anywhere from 2-5 sensors and is responsible for gathering data. The  Interface Board  (MIB300CA), which acts as a Base Station and is used for programming the RF/Processor Board, or transferring data collected by the sensors to a PC via the serial port, or communication port.
MOTE DESIGN (HW): Microprocessor system ,[object Object],Sensor  board Interface board Processing board
INTRODUCTION: Concepts involved  (moteiv Tmote Sky)
MOTE DESIGN (HW):  Concepts involved  (Tmote Sky diagram) Mote core RF  Antenna Sensors Radio stack Microcomputer (w/ADC) Memory I/O I/O
MOTE DESIGN (HW):  Mote evolution, 1999-2003
MOTE DESIGN (HW):  NEST  Hardware, mote + relay -- XSM, TXSM, XSS (Stargate relays) Extreme Scale Mote (XSM) MICA II (listener & basemote) XSM & Tactical XSM (TXSM) Low Level Node – Extreme Scaling Mote (XSM) ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],Relay Node – Extreme Scaling Stargate (XSS) ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],TIER 1 TIER 2
MOTE DESIGN (HW):  XSM  Mote, 2004 passive  infrared acoustic magnetic Mote
MOTE EVOLUTION  -- 2007 25.4mm 18.0mm 16-bit Microcontroller 8MHz, 10kB RAM, 48kB Flash Serial bus connectivity 1MB EEPROM Storage with write-protected segments IEEE 802.15.4 Radio 0dBm and +20dBm output FCC/IC certified Multiple Antenna Options External U.Fl connector or Soldered PCB antennas Dual-functionality Device Soldered OEM mote miniSD PDA connectivity
MOTE DESIGN (HW): RF design and considerations ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object],[object Object]
MOTE DESIGN (HW): RF Link Metrics
MOTE DESIGN (HW): Common RF Link Problems
MOTE DESIGN (HW): Radio Signal Propagation
MOTE DESIGN (HW): MultiPath
MOTE DESIGN (HW): Indoor Propagation
MOTE DESIGN (HW): RF Solutions -  Signal Power & Wavelength
MOTE DESIGN (HW): RF Solutions -  Distortion fvom local environs
MOTE DESIGN (HW): RF Solutions -  RF & data comms
MOTE DESIGN (HW): RF Issues
MOTE DESIGN (HW): Debugging Hints
MOTE DESIGN (HW): RF Frequencies & Channels
MOTE DESIGN (HW): RF Signal Measure,  RSS
MOTE DESIGN (HW): RF Solutions -  Next-Gen RF Technology ,[object Object],[object Object],[object Object],[object Object]
TXSM (433 MHz) Tier 1  MEASURED RANGE PERFORMANCE
MOTE DESIGN (HW): RF Solutions -  Standard Was CC1OOO
MOTE DESIGN (HW): Comparison of Radiostacks
MOTE DESIGN (HW): MICA2 TOS Wireless Packet
MOTE DESIGN (HW): RF CONCLUSION
MOTE DESIGN (HW): Finally, I/O design and considerations ,[object Object],[object Object],[object Object],[object Object],[object Object],[object Object]

Contenu connexe

Tendances (8)

SS7
SS7SS7
SS7
 
Direct Mode - Introduction to TETRA
Direct Mode - Introduction to TETRADirect Mode - Introduction to TETRA
Direct Mode - Introduction to TETRA
 
IRJET- Survey Paper on Performance Evaluation of 5G WiMAX (IEEE 802.16) Syste...
IRJET- Survey Paper on Performance Evaluation of 5G WiMAX (IEEE 802.16) Syste...IRJET- Survey Paper on Performance Evaluation of 5G WiMAX (IEEE 802.16) Syste...
IRJET- Survey Paper on Performance Evaluation of 5G WiMAX (IEEE 802.16) Syste...
 
04 umts traffic managementnew
04 umts traffic managementnew04 umts traffic managementnew
04 umts traffic managementnew
 
lte advanced
lte advancedlte advanced
lte advanced
 
Itc 2012 12-24-03
Itc 2012 12-24-03Itc 2012 12-24-03
Itc 2012 12-24-03
 
LTE introduction part1
LTE introduction part1LTE introduction part1
LTE introduction part1
 
Wireless sensor network
Wireless sensor networkWireless sensor network
Wireless sensor network
 

En vedette

Programming lab 1 lecture
Programming lab 1 lectureProgramming lab 1 lecture
Programming lab 1 lecture
iqbal ahmad
 
Linear differential equation with constant coefficient
Linear differential equation with constant coefficientLinear differential equation with constant coefficient
Linear differential equation with constant coefficient
Sanjay Singh
 
First order linear differential equation
First order linear differential equationFirst order linear differential equation
First order linear differential equation
Nofal Umair
 

En vedette (18)

signal and system Lecture 2
signal and system Lecture 2signal and system Lecture 2
signal and system Lecture 2
 
signal and system Dirac delta functions (1)
signal and system Dirac delta functions (1)signal and system Dirac delta functions (1)
signal and system Dirac delta functions (1)
 
signal and system solution Quiz2
signal and system solution Quiz2signal and system solution Quiz2
signal and system solution Quiz2
 
Programming lab 1 lecture
Programming lab 1 lectureProgramming lab 1 lecture
Programming lab 1 lecture
 
signal and system Hw2 solution
signal and system Hw2 solutionsignal and system Hw2 solution
signal and system Hw2 solution
 
signal and system Lecture 1
signal and system Lecture 1signal and system Lecture 1
signal and system Lecture 1
 
Capacitors and inductors
Capacitors and inductorsCapacitors and inductors
Capacitors and inductors
 
signal and system Lecture 3
signal and system Lecture 3signal and system Lecture 3
signal and system Lecture 3
 
Linear differential equation with constant coefficient
Linear differential equation with constant coefficientLinear differential equation with constant coefficient
Linear differential equation with constant coefficient
 
First order ena notes
First order ena notesFirst order ena notes
First order ena notes
 
microprocessor Lec 01 mic
microprocessor Lec 01 micmicroprocessor Lec 01 mic
microprocessor Lec 01 mic
 
microprocessor Lec 02 mic
microprocessor Lec 02 micmicroprocessor Lec 02 mic
microprocessor Lec 02 mic
 
Probability, random variables and random signal principles 2nd ed. p. peebles
Probability, random variables and random signal principles 2nd ed.   p. peeblesProbability, random variables and random signal principles 2nd ed.   p. peebles
Probability, random variables and random signal principles 2nd ed. p. peebles
 
Second order ena notes
Second order ena notesSecond order ena notes
Second order ena notes
 
Lecture4 Signal and Systems
Lecture4  Signal and SystemsLecture4  Signal and Systems
Lecture4 Signal and Systems
 
First order linear differential equation
First order linear differential equationFirst order linear differential equation
First order linear differential equation
 
Solved problems
Solved problemsSolved problems
Solved problems
 
Engineering formula sheet
Engineering formula sheetEngineering formula sheet
Engineering formula sheet
 

Similaire à Chapter 3 (Hw) E

Daisy_resume_2016_s
Daisy_resume_2016_sDaisy_resume_2016_s
Daisy_resume_2016_s
Daisy Ingram
 
Software defined radio....
Software defined radio....Software defined radio....
Software defined radio....
Bise Mond
 
Testing RF Front-End ICs With STS
Testing RF Front-End ICs With STSTesting RF Front-End ICs With STS
Testing RF Front-End ICs With STS
Hank Lydick
 
Slide fyp ver3
Slide fyp ver3Slide fyp ver3
Slide fyp ver3
yusriyacob
 

Similaire à Chapter 3 (Hw) E (20)

Daisy_resume_2016_s
Daisy_resume_2016_sDaisy_resume_2016_s
Daisy_resume_2016_s
 
Cdma Anjan V1
Cdma  Anjan V1Cdma  Anjan V1
Cdma Anjan V1
 
CDR2(Sajjad Tarahomi)
CDR2(Sajjad Tarahomi)CDR2(Sajjad Tarahomi)
CDR2(Sajjad Tarahomi)
 
How new technologies affect the art of contesting
How new technologies affect the art of contestingHow new technologies affect the art of contesting
How new technologies affect the art of contesting
 
gsm.pdf
gsm.pdfgsm.pdf
gsm.pdf
 
Software defined radio....
Software defined radio....Software defined radio....
Software defined radio....
 
Digital Signal Processors - DSP's
Digital Signal Processors - DSP'sDigital Signal Processors - DSP's
Digital Signal Processors - DSP's
 
Testing RF Front-End ICs With STS
Testing RF Front-End ICs With STSTesting RF Front-End ICs With STS
Testing RF Front-End ICs With STS
 
MCube_slides_20min.pptx
MCube_slides_20min.pptxMCube_slides_20min.pptx
MCube_slides_20min.pptx
 
SCA Next Part 1 - Software Defined Radio (SDR) Webcast Slides
SCA Next Part 1 - Software Defined Radio (SDR) Webcast SlidesSCA Next Part 1 - Software Defined Radio (SDR) Webcast Slides
SCA Next Part 1 - Software Defined Radio (SDR) Webcast Slides
 
Cwna 106 exam_objectives_v6-01_2014_003
Cwna 106 exam_objectives_v6-01_2014_003Cwna 106 exam_objectives_v6-01_2014_003
Cwna 106 exam_objectives_v6-01_2014_003
 
Cwna 106 exam_objectives_v6-01_2014_what_changed
Cwna 106 exam_objectives_v6-01_2014_what_changedCwna 106 exam_objectives_v6-01_2014_what_changed
Cwna 106 exam_objectives_v6-01_2014_what_changed
 
Mini Project- Implementation & Evaluation of Wireless LANs
Mini Project- Implementation & Evaluation of Wireless LANsMini Project- Implementation & Evaluation of Wireless LANs
Mini Project- Implementation & Evaluation of Wireless LANs
 
transforming-wireless-system-design-with-matlab-and-ni.pdf
transforming-wireless-system-design-with-matlab-and-ni.pdftransforming-wireless-system-design-with-matlab-and-ni.pdf
transforming-wireless-system-design-with-matlab-and-ni.pdf
 
Eced
EcedEced
Eced
 
Eced ece department
Eced ece departmentEced ece department
Eced ece department
 
Slide fyp ver3
Slide fyp ver3Slide fyp ver3
Slide fyp ver3
 
Networking Basics
Networking BasicsNetworking Basics
Networking Basics
 
Implementation of Algorithms For Multi-Channel Digital Monitoring Receiver
Implementation of Algorithms For Multi-Channel Digital Monitoring ReceiverImplementation of Algorithms For Multi-Channel Digital Monitoring Receiver
Implementation of Algorithms For Multi-Channel Digital Monitoring Receiver
 
GIS Applied to Mobile Technology
GIS Applied to Mobile TechnologyGIS Applied to Mobile Technology
GIS Applied to Mobile Technology
 

Chapter 3 (Hw) E

  • 1. Two-day Course : Self-Organizing Wireless Networks (SOWN) 813.205.2661 World Bridge innovations, LLC Wbi@mac.com Low-power, wireless node networks Chapter III: Hardware 20-21 July 2009 JHU/APL Laurel, Maryland Timothy D. Cole World Bridge innovations (WBi) LLC
  • 2.
  • 3.
  • 4.
  • 5.
  • 6. MOTE DESIGN (HW): Design results – Myriad of small sensors, for WSN apps
  • 7. MOTE DESIGN (HW) : System Overview RF/Processing Board Sensor Board Interface Board The RF/Processor Board (MPR300CB) which contains the micro controller that will provide all of the necessary control, processing, and communication signals to the sensors as well as the transmission of data over the wireless link station. The Sensor Board (MTS310CA), which contains the sensors and connects on top of the RF/Processor Board via a 51 pin connector. This board contains anywhere from 2-5 sensors and is responsible for gathering data. The Interface Board (MIB300CA), which acts as a Base Station and is used for programming the RF/Processor Board, or transferring data collected by the sensors to a PC via the serial port, or communication port.
  • 8.
  • 9. INTRODUCTION: Concepts involved (moteiv Tmote Sky)
  • 10. MOTE DESIGN (HW): Concepts involved (Tmote Sky diagram) Mote core RF Antenna Sensors Radio stack Microcomputer (w/ADC) Memory I/O I/O
  • 11. MOTE DESIGN (HW): Mote evolution, 1999-2003
  • 12.
  • 13. MOTE DESIGN (HW): XSM Mote, 2004 passive infrared acoustic magnetic Mote
  • 14. MOTE EVOLUTION -- 2007 25.4mm 18.0mm 16-bit Microcontroller 8MHz, 10kB RAM, 48kB Flash Serial bus connectivity 1MB EEPROM Storage with write-protected segments IEEE 802.15.4 Radio 0dBm and +20dBm output FCC/IC certified Multiple Antenna Options External U.Fl connector or Soldered PCB antennas Dual-functionality Device Soldered OEM mote miniSD PDA connectivity
  • 15.
  • 16. MOTE DESIGN (HW): RF Link Metrics
  • 17. MOTE DESIGN (HW): Common RF Link Problems
  • 18. MOTE DESIGN (HW): Radio Signal Propagation
  • 19. MOTE DESIGN (HW): MultiPath
  • 20. MOTE DESIGN (HW): Indoor Propagation
  • 21. MOTE DESIGN (HW): RF Solutions - Signal Power & Wavelength
  • 22. MOTE DESIGN (HW): RF Solutions - Distortion fvom local environs
  • 23. MOTE DESIGN (HW): RF Solutions - RF & data comms
  • 24. MOTE DESIGN (HW): RF Issues
  • 25. MOTE DESIGN (HW): Debugging Hints
  • 26. MOTE DESIGN (HW): RF Frequencies & Channels
  • 27. MOTE DESIGN (HW): RF Signal Measure, RSS
  • 28.
  • 29. TXSM (433 MHz) Tier 1 MEASURED RANGE PERFORMANCE
  • 30. MOTE DESIGN (HW): RF Solutions - Standard Was CC1OOO
  • 31. MOTE DESIGN (HW): Comparison of Radiostacks
  • 32. MOTE DESIGN (HW): MICA2 TOS Wireless Packet
  • 33. MOTE DESIGN (HW): RF CONCLUSION
  • 34.

Notes de l'éditeur

  1. 07/27/10
  2. 07/27/10