Feb 2007WSN Training: XMesh Enabled Sensor App1 Lab 5 Objectives  Use XMesh multi-hop networking service to send sensing data to a base station  Using.

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Presentation transcript:

Feb 2007WSN Training: XMesh Enabled Sensor App1 Lab 5 Objectives  Use XMesh multi-hop networking service to send sensing data to a base station  Using XServe to display the sensor data message on a PC

WSN Training: XMesh Enabled Sensor App2 Feb 2007 Required Hardware and PC Setup 1.Two MICA Motes: MICA2 (MPR4x0) or MICAz (MPR2600) 2.One sensor or data acquisition board: MTS300 or MTS310, MDA100 is OK too 3.One gateway board: MIB510, MIB520, or MIB600 and the associated hardware (cables, power supply) for each 4.A Windows PC with MoteWorks installed The steps that you’ll take to build the application will be as follows:  Build (compile) and download the application  Take a closer look at the code and auxiliary files

WSN Training: XMesh Enabled Sensor App3 Feb 2007 About MyApp Source code  Under directory /MoteWorks/apps/tutorials/lesson_4 What does MyApp do?  In terms of sensing it is exactly same as MyApp in Lab 4  But how it sends the data back to the base station is different  Uses the XMesh multi-hop networking service What am I expected to learn?  Learn multihop routing service in MoteWorks

WSN Training: XMesh Enabled Sensor App4 Feb 2007 MyApp – The App Folder Files What’s new?  The sensorboardsApp.h file What is it used for?  Define packet structure  Defines the XSensor header  Defines the sensor data payload  So you can understand what the bytes mean in a serial data stream  Defines the default values for critical fields  SENSOR_BOARD_ID  “Tags” the packet so XServe can identify what application sent it.  Sensor data packets are put into the proper database table or flat file by XServe

Feb 2007WSN Training: XMesh Enabled Sensor App5 Review: MyApp Steps  Review the Makefile  Review the Makefile.component  Review the Top-level application configuration  Review the Top-level module  Compile app and flash Motes  View data via XServe

WSN Training: XMesh Enabled Sensor App6 Feb 2007 MyApp – Makefile include Makefile.component include $(TOSROOT)/apps/MakeXbowlocal GOALS += basic freq route include $(MAKERULES) Notes 1.The GOALS statement lists three services -- basic, freq, and route  RF channel and the routing power mode not specified. Default values in Makexbowlocal will be used.  Of course, the freq and route power can be set later during compile time 2.The basic service  Will provide the standard Crossbow routing services  Common practice to have basic in all XMesh applications  Unlike freq and route there are no additional parameters with this service.

WSN Training: XMesh Enabled Sensor App7 Feb 2007 MyApp – Makefile.component COMPONENT=MyApp SENSORBOARD=mts310 Notes: 1.No changes over MyApp in lesson_3

Feb 2007WSN Training: XMesh Enabled Sensor App8 Review: MyApp Steps  Makefile  Makefile.component  Top-level application configuration  Top-level module  Compile app and flash Motes  View data via XServe

WSN Training: XMesh Enabled Sensor App9 Feb 2007 /MoteWorks/apps/tutorials/lesson_4/MyApp.nc Configuration /* * MyApp.nc */ #include "appFeatures.h" includes sensorboardApp; /** * This configuration shows how to use the Timer, LED, ADC and XMesh components. * Sensor messages are sent multi-hop over the RF radio * Crossbow Technology Inc. **/ configuration MyApp { } implementation { components Main, GenericCommPromiscuous as Comm, MULTIHOPROUTER, MyAppM, TimerC, LedsC, Photo; Main.StdControl -> TimerC.StdControl; Main.StdControl -> MyAppM.StdControl; Main.StdControl -> Comm.Control; Main.StdControl -> MULTIHOPROUTER.StdControl; MyAppM.Timer -> TimerC.Timer[unique("Timer")]; MyAppM.Leds -> LedsC.Leds; MyAppM.PhotoControl -> Photo.PhotoStdControl; MyAppM.Light -> Photo.ExternalPhotoADC; MyAppM.RouteControl -> MULTIHOPROUTER; MyAppM.Send -> MULTIHOPROUTER.MhopSend[AM_XMULTIHOP_MSG]; MULTIHOPROUTER.ReceiveMsg[AM_XMULTIHOP_MSG] ->Comm.ReceiveMsg[AM_XMULTIHOP_MSG]; }

WSN Training: XMesh Enabled Sensor App10 Feb 2007 MyApp Lesson_3 and MyApp Lession_4 Configurations New!

WSN Training: XMesh Enabled Sensor App11 Feb 2007 Changes to MyApp in lesson_4 from MyApp in lesson_3 MyApp (lesson_3) GenericComm component  Function: Sends a message either directly through the UART port or over the radio  If by radio: broadcast or to a specific node address. MyApp (lesson_4) GenericComm replaced by GenericCommPromiscuous  Function: Adds special radio “snooping” capabilities required by XMesh. MULTIHOPROUTER component (appears as XMeshBinaryRouter )  Function: XMesh networking service for multi-hopping  GenericComm service is eventually used, but special routing information is added, which this is hidden from the application

Feb 2007WSN Training: XMesh Enabled Sensor App12 Review: MyApp Steps  Makefile  Makefile.component  Top-level application configuration  Top-level module  Compile app and flash Motes  View data via XServe

WSN Training: XMesh Enabled Sensor App13 Feb 2007 Creating the Top Level Module The application’s module is located in the MoteWorks/apps/tutorials/lesson_4/MyAppM.nc file. How does this module differ from MyAppM.nc of lesson_3?  Uses the MhopSend interface instead of the SendMsg interface.  XMesh implements the MhopSend interface which looks a little bit different

WSN Training: XMesh Enabled Sensor App14 Feb 2007 nesC Interface – MhopSend Usage Summary interface MhopSend { command result_t send(uint16_t dest, uint8_t mode, TOS_MsgPtr msg, uint16_t length); command void* getBuffer(TOS_MsgPtr msg, uint16_t* length); event result_t sendDone(TOS_MsgPtr msg, result_t success); } The MhopSend interface specifies two command  Send  Send a message buffer with a data payload of a specific length.  getBuffer  Given a TinyOS message buffer, provide a pointer to the data buffer within it that an application can use as well as its length. and one event  sendDone  Signaled when a packet sent with send() completes.

WSN Training: XMesh Enabled Sensor App15 Feb 2007 MoteWorks/apps/tutorials/lesson_4/MyApp.nc – Specification #include "appFeatures.h" includes MultiHop; includes sensorboard; /** * This module shows how to use the Timer, LED, ADC and XMesh components. * Sensor messages are sent multi-hop over the RF radio * Crossbow Technology Inc. **/ module MyAppM { provides { interface StdControl; } uses { interface Timer; interface Leds; interface StdControl as PhotoControl; interface ADC as Light; interface MhopSend as Send; interface RouteControl; }

WSN Training: XMesh Enabled Sensor App16 Feb 2007 MoteWorks/apps/tutorials/lesson_4/MyAppM.nc – Implementation (1 of 4) implementation { bool sending_packet = FALSE; TOS_Msg msg_buffer; XDataMsg *pack; /** * Initialize the component. Always returns SUCCESS **/ command result_t StdControl.init() { uint16_t len; call Leds.init(); call PhotoControl.init(); // Initialize the message packet with default values atomic { pack = (XDataMsg*)call Send.getBuffer(&msg_buffer, &len); pack->board_id = SENSOR_BOARD_ID; pack->packet_id = 1; pack->packet_id = pack->packet_id | 0x80; } return SUCCESS; } The first change we see is a different message packet being initialized in the StdControl.init function. This module calls the XMesh Send.getBuffer command which returns a pointer to the payload area in the msg_buffer. Initialize the standard MTS310 packet with the default values.

WSN Training: XMesh Enabled Sensor App17 Feb 2007 MoteWorks/apps/tutorials/lesson_4/MyAppM.nc – Implementation (2 of 4) /** * Start things up. This just sets the rate for the clock component. Always returns SUCCESS **/ command result_t StdControl.start() { // Start a repeating timer that fires every 1000ms return call Timer.start(TIMER_REPEAT, 1000); } /** * Halt execution of the application. * This just disables the clock component. Always returns SUCCESS **/ command result_t StdControl.stop() { return call Timer.stop(); } /** * Toggle the red LED in response to the Timer.fired event. * Start the light sensor control and sample the data Always returns SUCCESS **/ event result_t Timer.fired() { call Leds.redToggle(); call PhotoControl.start(); call Light.getData(); return SUCCESS; } This section of the source code was seen before in MyAppM.nc of lesson_3.

WSN Training: XMesh Enabled Sensor App18 Feb 2007 MoteWorks/apps/tutorials/lesson_4/MyAppM.nc – Implementation (3 of 4) /** * Stop the Light sensor control, build the message packet and send **/ void task SendData() { call PhotoControl.stop(); if (sending_packet) return; atomic sending_packet = TRUE; // send message to XMesh multi-hop networking layer pack->parent = call RouteControl.getParent(); if (call Send.send(BASE_STATION_ADDRESS,MODE_UPSTREAM,&msg_buffer,sizeof(XDataMsg)) != SUCCESS) sending_packet = FALSE; return; } /** * Light ADC data ready * Toggle yellow LED to signal Light sensor data sampled Always returns SUCCESS **/ async event result_t Light.dataReady(uint16_t data) { atomic pack->light = data; atomic pack->vref = 417; // a dummy 3V reference voltage, /3000 = 417call Leds.yellowToggle(); return SUCCESS; } The next difference is that the packet must include the current routing parent This is obtained by making a call to the XMesh command RouteControl.getParent The next difference is that the packet must include the current routing parent This is obtained by making a call to the XMesh command RouteControl.getParent Then send the message using the Send.send command specifying the base station as the destination and the transport mode as MODE_UPSTREAM.

WSN Training: XMesh Enabled Sensor App19 Feb 2007 MoteWorks/apps/tutorials/lesson_4/MyAppM.nc – Implementation (4 of 4) /** * Sensor data has been sucessfully sent through XMesh * Toggle green LED to signal message sent * Always returns SUCCESS **/ event result_t Send.sendDone(TOS_MsgPtr msg, result_t success) { call Leds.greenToggle(); atomic sending_packet = FALSE; return SUCCESS; } As with the MyApp application of lesson 3 we receive the Send.sendDone event that signifies the message has been sent. LED colorIndication Red1 second timer event fired YellowLight sensor has been sampled GreenSensor message has been sent back to base station

Feb 2007WSN Training: XMesh Enabled Sensor App20 Review: MyApp Steps  Makefile  Makefile.component  Top-level application configuration  Top-level module  Compile app and flash Motes  View data via XServe

WSN Training: XMesh Enabled Sensor App21 Feb 2007 MyApp – Compile and Install Program 1.Plug the Mote that will function as the sensor node into the programming board. 2.Click on the lesson_4/MyApp.nc file in Programmer’s Notepad 2 3.Select Tools > shell. The make commands will be one of the following  MIB510: make install, mib510,com where is the COM port your MIB510 is attached  MIB520: make install, mib520,com where is the first COM port your assigned by your PC to the USB port  MIB600: make install, erpb, Note: = 1, 2, 3, etc.

WSN Training: XMesh Enabled Sensor App22 Feb 2007 MyApp – Compile and Install Program 4.Next, plug the Mote that will function as the base station into the programming board.  This Mote will be programmed with a special application named XMeshBase located in the /MoteWorks/apps/xmesh/XMeshBase folder. 5.Select the XMeshBase.nc file in Programmer’s Notepad 6.Select Tools > shell 7.When prompted for parameters, type in the appropriate compile and install command LED colorIndication Red1 second timer event fired YellowLight sensor has been sampled GreenSensor message has been sent back to base station

WSN Training: XMesh Enabled Sensor App23 Feb 2007 Viewing Sensor Data in XServe The next step is to verify that messages are being received at the base station by running the XServe application on your PC to display the packets. 8.Open a Cygwin command prompt by double clicking on the icon located on your desktop. 9.At the command prompt type  MIB510 xserve –s=com where is the serial port to which your MIB510  MIB520 users: xserve –s=com where is the first COM port assigned to the MIB520  MIB600 users: xserve –i= where is the IP address of the MIB600 You should see output similar to the following screen shot

WSN Training: XMesh Enabled Sensor App24 Feb 2007 Sample XServe output

Feb 2007WSN Training: XMesh Enabled Sensor App25 Q & A: XMesh Enabling a Sensor App Objectives  How to enable the sensing application with the XMesh multi-hop networking service  Compare MyApp in lesson_3 to MyApp in lesson_4  Using MoteView to display the sensor data message on a PC Lab  Review the Makefile  Review the Makefile.component  Review the Top-level application configuration  Review the Top-level module  Compile app and flash Motes  View data via XServe