Introduction to SimpliciTI. Low-power RF protocol from Texas Instruments

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Transcription:

Introduction to SimpliciTI Low-power RF protocol from Texas Instruments

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 2

What is SimpliciTI? SimpliciTI is: Low Power: a TI proprietary low-power RF network protocol Low Cost: uses < 8K FLASH, 1K RAM depending on configuration Flexible: simple star w/ extendor and/or p2p communication Simple: Utilizes a very basic core API Versatile: MSP430+CC110x/2500, CC1110/2510, CC1111/CC2511, CC2430, CC2520 Low Power: Supports sleeping devices 3

Application Areas SimpliciTI supports: - alarm & security: occupancy sensors, light sensors, carbon monoxide sensors, glass-breakage detectors - smoke detectors - remote controls - AMR: gas meters, water meters, e-meters - home automation: garage door openers, appliances, environmental devices 4

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 5

SimpliciTI Network topology wireless sensing application Range can be extended through repeaters. Thecircles represent range of gateway and extended range of repeaters. 6

SimpliciTI Network topology Active RF tags Active RF tags typically enter and exit the network ad-hoc. Tags must be able to quickly associate to the network while maintaining low power consumption. 7

SimpliciTI Network topology Smoke Detector System Optional Access point Sensor / Extender Alarm Triggered Device Smoke Alarm Smoke Alarm Smoke Alarm Smoke Alarm Smoke Alarm Smoke Alarm Smoke Alarm C Gateway Smoke Alarm Examples message flows Smoke Alarm Smoke Alarm Flooded Alarm Message 8

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 9

Architectural Overview Layers MRFI ( minimal RF interface ) NWK nwk applications (modules) customer applications Network Support init ping link / linklisten nwk mgmt send / receive I/O 10

Application Programming Interface (API) initialization SMPL_Init(uint8_t (*callback)(linkid_t)); //Initialize the SimpliciTI stack. linking (bi-directional by default) SMPL_Link(linkID_t *linkid); // Link to a peer. SMPL_LinkListen(linkID_t *linkid); // Listen for a link frame from a 'client' device peer-to-peer messaging SMPL_Send(lid, *msg, len); // Send a message to a peer application SMPL_Receive(lid, *msg, *len); //Receive a message from a peer application. SMPL_Ping(linkID_t lid); // Ping a peer. Synchronous call. configuration SMPL_Ioctl(object, action, *val); // This routine supplies the // SimpliciTI IOCTL support. 11 All return smplstatus_t

smplstatus_t values NAME SMPL_SUCCESS SMPL_TIMEOUT SMPL_BAD_PARAM SMPL_NOMEM SMPL_NO_FRAME SMPL_NO_LINK SMPL_NO_JOIN SMPL_NO_CHANNEL SMPL_NO_PEER_UNLINK SMPL_TX_CCA_FAIL SMPL_NO_PAYLOAD SMPL_NO_AP_ADDRESS DESCRIPTION Operation successful. A synchronous invocation timed out. Bad parameter value in call. No memory available. Object depends on API. No frame available in input frame queue. No reply received to Link frame sent. No reply received to Join frame sent. Channel scan did not result in response on at least 1 channel. Peer could not delete connection. Returned in reply message to unlink request. (Not officially supported yet.) Frame transmit failed because of CCA failure. Frame received but with no application payload. Should have previously gleaned an Access Point address but we have none

Simple Configuration operational mode (type) power mode (sleep support) topology addressing / identification RAM allocation packetsize buffer sizes # supported links (connections) security tokens messaging (hop ct, repeaters) radio (freq, crypto key, modulation, CCA parameters) /* FROM smpl_config.dat */ // Number of connections supported -DNUM_CONNECTIONS=4 // Maximum size of application payload -DMAX_APP_PAYLOAD=20 // size of low level queues for sent and received frames. -DSIZE_INFRAME_Q=2 -DSIZE_OUTFRAME_Q=2 // default Link token -DDEFAULT_LINK_TOKEN=0x01020304 // default Join token -DDEFAULT_JOIN_TOKEN=0x05060708 // this device's address. -DTHIS_DEVICE_ADDRESS="{0x79, 0x56, 0x34, 0x12}" // device type -DEND_DEVICE // for End Devices specify the Rx type. //-DRX_LISTENS //-DRX_POLLS //-DRX_NEVER -DRX_ALWAYS 12

Runtime Configuration radio frequency encryption key app access to frame header Object IOCTL_OBJ_FREQ IOCTL_OBJ_CRYPTKEY Description Get/Set radio frequency Set encryption key app access to radio controls AP nwk mgmt control Comments Frequency agility. May be used by APP or NWK. Customer may provide external means for user to set a non-default key. Requires reset to take effect. IOCTL_OBJ_RAW_IO IOCTL_OBJ_RADIO IOCTL_OBJ_AP_JOIN Application layer access to the frame header to directly send or receive a frame. Application layer access to some radio controls. Access Point join-allow context This object is used for example to ping another device where the network address of the target device is supplied directly and not done through the connection table. Limited access to radio directly. For example, sleeping and awakening the radio and getting signal strength information. Interface to control whether Access Point will allow devices to join or not. 13

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 14

Example How to configure Access Point star hub in the network ( 1 / net ) always-on (acts as range extender) store and fwd for sleeping devices linking and token (link and join) mgmt AP can implement end device functionality (link listen, receive) // Initialize the HW/Radio BSP_Init(); // initialize the BSP (API subject to change) SMPL_Init(0); // Handle Linking SMPL_LinkListen(&linkID1); // Receive Messages While (1) { while((smpl_success == SMPL_Receive(linkID1, msg, &len) { // do something }} 15

Example How to configure Range Extender always-on device repeats received frames (with limitations) limited to 4 / net (although flexible in design) // Initialize the HW/Radio BSP_Init(); // Configure board (buttons, SPI, LEDS, etc) SMPL_Init(0); // No Linking or application level functionality while(1) ; 16

Example How to configure End Device poll for data polling is Port specific nodataresults in blank (empty) response API e.g. Sequence Init (and Join) Link (assumes listen) SampleTemp Send option to sleep void main() { linkid_t linkid; uint32_t temp; // Initialize the board s HW BSP_Init(); SMPL_Init(0); // link. SMPL_Link(&linkID); while (TRUE) { // sleep until timer. read temp sensor MCU_Sleep(); HW_ReadTempSensor(&temp); if (temp > TOO_HIGH) { SMPL_Send(linkID, Hot!, 4); } if (temp < TOO_LOW) { SMPL_Send(linkID, Cold!, 5); }}} 17

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 18

Packet Format preamble: hw sync sync: hw sync length: bytes non-phy dstaddr tractid: transaction nonce or seq num app pyld: 0 <= n <= 52 byte/113 byte (radio dependent) crc:mustbevalid srcaddr port: app port number dev info: capabilities 19

Addressing and Communication net address = hw addr (4 byte) + app port statically assigned hw addr no address resolution mechanism byte 1: 0x00, 0xFF reserved for broadcast communication topologies: ED 1 RE ED 2 ED 1 direct peer-2-peer direct p2p through RE ED 2 store and fwd p2p through AP store and fwd p2p through RE and AP 20

Additional Details CCS development environment minimal hw abstraction no driver support (UART, SPI, LCD, Timers) no heap utilization no runtime (nwk) context storage single thread (app), no tasks or scheduling nwk api is synchronous (does not return until operation is complete) retries and acks must be managed by app 21

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 22

Hardware Support MSP-EXP430FG4618 Experimenters Board (MSP430FG4618) w/ Socket Interface for CC110x / CC2500 CC2510-CC2511DK and CC1110 CC1111DK ez430rf-2500 MSP430F2274 + CC2500 DSSS (MSP430 +CC2420, CC2430) CC2520 23

Outline Overview What is SimpliciTI? Device types and network topologies SimpliciTI software architecture Example: How to configure SimpliciTI devices Insight on packet format and addressing Supported hardware platforms Demonstration: Temp sensor network 24

Example Hardware configuration 25

Development Tools Packet sniffer two end devices are reading their internal temperature sensor 1/sec they report their value to the access point the access point feeds the data to a terminal window on the PC via a virtual COM port all RF traffic can be monitored with the TI SimpliciTI packet sniffer Packet sniffer screenshot 26

Current Consumption How to estimate and measure? Guideline to SimpliciTI current consumption as application note: presented in Wireless Sensor Monitor Using the ez430-rf2500. http://www.ti.com/litv/pdf/slaa378a 27

Available examples Where SimpliciTI distribution What SimpliciTI examples: - 2 ED with bi-di - AP as data hub - CascadingED - Simple polling with AP Notes ez430-rf2500 - Temp.Sens network with PC gui - Distributed with ez430- RF2500. - Comes with app.note www.ti.com/simpliciti 28