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Decawave products not authorized for use in safety-critical applications.
DW1000 not certified for use in any particular region; user must obtain approval.
Details the DW1000 IC, its features, and compliance with UWB standard.
Describes manual's content and structure, cross-references data sheet.
Details SPI interface, transaction formats, modes, and GPIO/SYNC pins.
Describes various operational states like OFF, WAKEUP, INIT, IDLE, SLEEP, DEEPSLEEP.
Explains the Power On Reset mechanism and its timing profile.
Details state sequences like SNIFF, LOW DUTY CYCLE SNIFF, and LOW POWER LISTENING.
Summarizes default configurations for channel, preamble, and mode 2.
Explains the process of transmitting data frames, including frame format and sequence.
Details how message time-stamping is performed during frame transmission.
Describes programming transmit time and initiating delayed transmission.
Covers the DW1000's non-standard mode for frames up to 1023 bytes.
Explains features supporting maximum transmitter utilization.
Details receiver search for preamble, SFD, PHR, and data reception.
Explains how the DW1000 calculates and provides RX timestamps.
Describes programming turn-on time for receiver to be ready for frame.
Explains the dual buffer system for receiving frames and ancillary registers.
Details a feature for predominantly SLEEP state receiver, sampling air periodically.
Describes a pulsed preamble detection mode where receiver is sequenced on and off.
Lists diagnostic aids like LEDs, accumulator access, and RX frame quality.
Discusses assessing received signal quality and timestamp data.
Describes CRC generation for transmission and checking for reception.
Explains filtering received frames based on type, address, and PAN ID.
Details the DW1000's automatic sending of acknowledgement frames.
Describes enabling receiver after transmission to await a response.
Explains synchronizing DW1000 with external clocks or other DW1000s.
Describes using GPIO lines to control external power amplifiers.
Details the OTP memory for device-specific configuration and calibration.
Explains using SAR A/D converter for sampling temperature and battery voltage.
Lists all top-level register file IDs, lengths, types, mnemonics, and descriptions.
Provides in-depth descriptions of register contents, parameters, and bit fields.
Describes the read-only device identifier register.
Details the 64-bit IEEE device address register.
Contains 16-bit PAN ID and Short Address for network identification.
A bitmapped register for system configuration settings.
Provides the 40-bit system time counter for timestamps.
Configures transmit frame parameters like length, rate, and preamble.
Contains control bits for TX/RX operations and system functions.
Masks system event bits to generate interrupts.
Indicates occurrences of different system events or status changes.
Used for configuration and control of transmitter output power.
Selects transmit/receive channels and configures preamble codes.
Configures receiver gain control block.
Controls DW1000 synchronization hardware.
Large memory bank holding accumulated channel impulse response data.
Concerned with the use of the GPIO pins.
Low-level digital receiver configuration.
Low-level configuration of IC analog blocks.
Ensures optimum configuration of the transmit signal.
Generates carrier frequency for operating channel.
Controls functions that remain on during SLEEP/DEEPSLEEP.
Interface for accessing and programming OTP memory.
Controls LDE function for analyzing accumulator data.
Provides diagnostics information via sub-registers.
Controls DW1000 power management and system functions.
Details trimming capacitors to fine-tune crystal oscillator frequency.
Optimizes transmit power spectral density for regional regulations.
Explains calibrating antenna delay for accurate timestamp calculation.
Discusses factors affecting operational range like data rate and preamble.
Considers regional regulations and bandwidth impact on range and power.
Explains how data rate, preamble, and PRF affect range and accuracy.
Discusses power consumption relation to data rate and message length.
Covers ALOHA mechanism, air utilization limits, and collision probability.
Discusses LDC rules and their impact on transmission time.
Introduces TDOA and TOF based location methods for RTLS.
Discusses design choices for high node density vs. range, and power saving.
Explains the general structure of the UWB frame: Preamble, SFD, PHR, Data.
Describes BPM/BPSK modulation and convolutional encoding for data and PHR.
Details the SHR, preamble sequence, and SFD modulation.
Defines PHR structure, including data rate, frame length, and SECDED code.
Lists DW1000 supported UWB channels and recommended preamble codes.
Refers reader to IEEE 802.15.4 standard for modulation details.
Describes the structure of MAC message: MHR, Payload, MFR.
Identifies frame type, security, pending status, ACK request, etc.
Specifies frame version number compatible with IEEE 802.15.4.
Specifies source address type: short or extended.
Maintains sequence numbers for beacon, data, and MAC command frames.
Describes DW1000's role in MAC processing: FCS validation, frame parsing.
Describes methods for implementing two-way ranging between nodes.
Simple measurement of round trip delay for range estimation.
Extension of SS-TWR using two measurements for reduced error.
Compares asymmetric and symmetric DS-TWR schemes.
Discusses peer-to-peer ranging and message traffic savings.
Lists revisions, dates, and descriptions of document updates.
Details changes made in various revisions of the manual.
General| Brand | decaWave |
|---|---|
| Model | DW1000 |
| Category | Transceiver |
| Language | English |
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