Neoway N720 OpenLinux - Label; Pack; Figure 6-2 N720 Openlinux Label

94 pages

Save Page as PDF

To Next Page

To Previous Page

N720 OpenLinux

Hardware User Guide

6.2 Label

The label is made of materials that are deformation-resistant, fade-resistant, and high-temperature-

resistant and it can endure high temperature up to 260 °C.

Figure 6-2 N720 Openlinux label

 The picture above is only for reference.

 The silk-screen printing must be clear. No blur is allowed.

 The material and surface finishing must comply with RoHS directives.

6.3 Pack

N720 OpenLinux modules are packaged in sealed vacuum bags with dryer, humidity card, and tray on

delivery to guarantee a long shelf life. Follow the same package method again in case of opened for

any reasons.

Main Page

Table of Contents3
About N720 Openlinux11
Product Overview11
Table 1-1 Variant and Frequency Bands11
Block Diagram12
Basic Features13
Figure 1-1 Block Diagram13
Module Pins16
Pad Layout16
Figure 2-1 N720 Openlinux Pin Definition (Top View)16
Table 2-1 IO Types and Level Features17
Table 2-2 Pin Description18
Application Interfaces25
Power Interface25
Vbat25
Figure 3-1 Current Peaks and Voltage Drops26
Figure 3-2 Recommended Design 126
Figure 3-3 Recommended Design 227
Figure 3-4 Recommended Design 328
Figure 3-5 Recommended Design 428
Vdd_1P829
Control Interfaces30
Pwrkey_N30
Table 3-1 VDD_1P8 Electrical Features30
Figure 3-6 Reference Design of Startup Controlled by Button31
Figure 3-7 Reference Design of Startup Controlled by MCU31
Figure 3-8 Reference Design of Automatic Start Once Powered up31
Figure 3-9 N720 On/Off Timing32
Reset_N33
Figure 3-10 Reset Controlled by Button33
Figure 3-11 Reset Circuit with Triode Separating33
Figure 3-12 Reset Timing of N720 Openlinux33
Peripheral Interfaces34
Usb34
Table 3-2 Compliant Standards of Peripheral Interfaces34
Figure 3-13 USB Connection35
Figure 3-14 Reference Design of USB OTG Function35
Usim36
Figure 3-15 Reference Design of USIM Card Interface36
Uart37
Figure 3-16 Reference Design of UART Connection (with Flow Control)38
Figure 3-17 Reference Design of UART Connection (Without Flow Control)38
Figure 3-18 Recommended Level Shifting Circuit 139
Figure 3-19 Recommended Level Shifting Circuit 240
Sdc41
Figure 3-20 Recommended Level Shifting Circuit 341
Figure 3-21 SD Connection42
Table 3-3 SD Card Feature Parameters42
Figure 3-22 SDC SDR Timing43
Figure 3-23 SDC DDR Timing44
Table 3-4 Timing Parameters of SDC Interface44
I2S/Pcm45
Figure 3-24 I2S Connection45
Figure 3-25 I2S Timing46
Table 3-5 Timing Parameters of I2S Interface46
Table 3-6 PCM Work Modes46
Figure 3-26 PCM Connection47
Figure 3-27 PCM Sync Signal Timing in Primary Mode47
Figure 3-28 PCM Data Input Timing in Primary Mode47
Figure 3-29 PCM Data Output Timing in Primary Mode47
Figure 3-30 PCM Sync Signal Timing in Auxiliary Mode48
Figure 3-31 PCM Data Input Timing in Auxiliary Mode48
Table 3-7 Parameters of PCM Timing in Primary Mode48
Spi49
Figure 3-32 PCM Data Output Timing in Auxiliary Mode49
Table 3-8 Parameters of PCM Timing in Auxiliary Mode49
Figure 3-33 SPI Connection50
I2C51
Figure 3-34 SPI Timing51
Table 3-9 Timing Parameters of SPI Interface51
Table 3-10 I2C Feature Parameters51
Figure 3-35 I2Cconnection52
Figure 3-36 I2C Data Transmission52
Figure 3-37 I2C Timing53
Table 3-11 I2C Timing Parameters (Standard Mode)53
Table 3-12 I2C Timing Parameters (Fast Mode)54
Table 3-13 I2C Timing Parameters (Fast Mode Plus)54
Network and Connection55
Ethernet55
Figure 3-38 SGMII Connection55
Figure 3-39 Connection between MDIO and PHY57
Figure 3-40 MDIO Input Timing57
Figure 3-41 MDIO Output Timing57
Wlan58
Table 3-14 SDIO/WLAN Feature Parameters58
Figure 3-42 WLAN Connection59
Figure 3-43 SDIO SDR Timing60
Figure 3-44 SDIO DDR Timing60
Table 3-15 Timing Parameters of SDIO/WLAN Interface60
Bluetooth61
RF Interface62
Figure 3-45 Bluetooth Connection62
ANT_MAIN/ANT_DIV Antenna Interface63
Figure 3-46 L Network63
Figure 3-47 Split Capacitor Network63
Figure 3-48 Pi Network64
ANT_GNSS Interface65
Figure 3-49 Recommended RF PCB Design 165
Figure 3-50 Recommended RF PCB Design 265
Figure 3-51 GNSS RF Structure65
Figure 3-52 Reference Design of Passive GNSS Antenna66
Figure 3-53 Reference Design of Active GNSS Antenna67
Antenna Assembling68
Figure 3-54 Reference Layout of GNSS Antenna Traces68
Gpio69
Figure 3-55 Specifications of MM9329-2700RA169
Figure 3-56 RF Connections69
MUX Interfaces70
Table 3-16 MUX Pins70
Other Interfaces73
Gnss_Lna_En73
Adc73
Ring73
Figure 3-57 Pulse Wave for an Incoming Call73
Dtr74
Figure 3-58 RING Indicator for SMS74
Figure 3-59 Process of Entering Sleep Mode74
Figure 3-60 Incoming Call Service Process75
Figure 3-61 Outgoing Call Service Process75
Figure 3-62 Process of Exiting from Sleep Mode75
Usb_Boot76
Figure 3-63 Reference Design of USB_BOOT76
Electric Feature and Reliability77
Electric Features77
Temperature Features77
Table 4-1 Electric Features77
Table 4-2 Temperature Features77
ESD Protection78
Table 4-3 ESD Protection Features78
RF Features79
Operating Bands79
Table 5-1 Operating Bands79
TX Power and RX Sensitivity80
Table 5-2 RF TX Power80
Table 5-3 RF RX Sensitivity81
GNSS Feature82
Mechanical Features84
Dimensions84
Figure 6-1 N720 Dimensions84
Label85
Pack85
Figure 6-2 N720 Openlinux Label85
Tray86
Figure 6-3 N720 Openlinux Packing with Vacuum Bag and Tray86
Figure 6-4 Packaging Process86
Moisture87
Mounting N720 Onto the Application Board88
Bottom Dimensions88
Figure 7-1 Bottom View88
Application Foot Print89
Stencil89
Solder Paste89
Figure 7-2 Recommended Application Foot Print (Top View)89
SMT Furnace Temperature Curve90
Figure 7-3 SMT Furnace Temperature Curve90
Safety Recommendations91
A Conformity and Compliance92
Approvals92
Chinese Notice92
CCC Class a Digital Device Notice92
Environmental Protection Notice92
B Abbreviation93

Related product manuals

Neoway N720 OpenLinux - Label; Pack; Figure 6-2 N720 Openlinux Label

Table of Contents

Related product manuals