ESP-01s 1 MB WiFi Microcontroller ESP8266 ESP01s Replace ESP-01 ESP01

 






ESP-01s 1 MB WiFi Microcontroller ESP8266 ESP01s Replace ESP-01 ESP01 - Here comes ESP-01s, the new version of the well-known ESP-01.

ESP-01s vs ESP-01 differences:
1. Red power LED is removed (saving a couple mA and good for battery operated project)
2. Blue LED is now on pin 2
3. Has silkscreen with pin labeling on the back
4. Has far more chip capacitors for better working stability
5. The WiFi range has been slightly increased
6. Has a pull-up resistor connected between CH_PD and Vcc, so only need to connect Vcc & Gnd for booting and running

Specifications:
+ 32-bit RISC CPU: Tensilica Xtensa LX106 running at 80 MHz
+ 64 KiB of instruction RAM, 96 KiB of data RAM
+ 8 Mb (1 MB) External QSPI flash
+ IEEE 802.11 b/g/n Wi-Fi
+ Integrated TR switch, balun, LNA, power amplifier and matching network
+ WEP or WPA/WPA2 authentication, or open networks
+ SPI, I²C, I²S interfaces with DMA (sharing pins with GPIO)
+ UART on dedicated pins, plus a transmit-only UART can be enabled on GPIO2
+ 1 10-bit ADC

NodeMCU v2 Amica ESP8266 CP2102 4MB WiFi Microcontroller ESP-12E ESP12








NodeMCU v2 Amica ESP8266 CP2102 4MB WiFi Microcontroller ESP-12E ESP12 - This module is an ideal version, still using the yellow Tantalum Capacitor (vs the black color which is inferior) and more premium components. 
It will be more stable when used in the Lab or in the field. (See picture no.3)
It's not the CHEAPER NodeMCU v3 as it's bigger and uses the inferior USB Chip, the CH340.
Facts about v3:
1. Not a continuation of NodeMCU v2 and produced by a different manufacturer
2. Bigger size (58 x 31mm) than v2 (48 x 26mm)
3. Not breadboard-friendly, v3 will fill the entire breadboard pin, so it can't be used to connect other peripherals.
(See picture no.5)

Features:
+ MCU: Xtensa Single-core 32-bit L106
+ Typical Frequency: 80 MHz
+ Memory:
32 KiB instruction RAM
32 KiB instruction cache RAM
80 KiB user-data RAM
16 KiB ETS system-data RAM
+ External QSPI flash: 4 MB
+ Wireless 802.11 b/g/n standards
+ Support STA / AP / STA + AP three operating modes
+ Built-in TCP / IP protocol stack to support multiple TCP Client connections (5 max)
+ D0 ~ D8, SD1 ~ SD3: used as GPIO, PWM, IIC, etc. Drive Port 15mA
+ 10-bit ADC
+ Power input: 4.5~9V (10V Max), USB-powered, providing USB debugging interface
+ USB interface chip: CP2102
+ Current job: keep sending: 70mA (200mA Max), Standby: <200uA
+ Transfer rate: 110 - 460800bps
+ Support UART / GPIO data communication interface
+ Remote firmware upgrade (OTA)
+ Smart Link supports intelligent networking capabilities
+ Operating temperature: -40 ~ 125°C
+ Size: 48.5 x 25mm
+ Weight: about 7g

ESP-07S WiFi Microcontroller ESP8266 ESP07S Replace ESP-12F ESP-07

 





ESP-07S WiFi Microcontroller ESP8266 ESP07S Replace ESP-12F ESP-07 - 

Smallest ESP8266 so far with uFL/iPex socket for more powerful external antenna. The PCB footprint, pinout, coding, and performance is fully compatible 
with ESP-12E, ESP-12F, ESP-12s, and ESP07.

Features
+ The smallest 802.11b/g/n Wi-Fi SOC module
+ Low power 32-bit CPU, can also serve as the application processor
+ Up to 160MHz clock speed
+ Built-in 10 bit high precision ADC
+ Supports UART/GPIO/IIC/PWM/ADC
+ SMD-16 package for easy welding
+ Integrated Wi-Fi MAC/BB/RF/PA/LNA
+ Support multiple sleep patterns. Deep sleep current as low as 20uA
+ UART baud rate up to 4Mbps
+ Embedded LWIP protocol stack
+ Supports STA/AP/STA + AP operation mode
+ Support Smart Config/AirKiss technology
+ Supports remote firmware upgrade (FOTA)
+ General AT commands can be used quickly
+ Support for the two development, integration of windows, Linux development environment

Module Model
ESP-07S
Packages
SMD16
Size
17 x 16 x 3mm (±0.2mm)
SPI Flash
32Mbit (8MB)
Interface
UART/GPIO/ADC/PWM
IO Port
9
UART Baud rate
Support 300 ~ 4608000 bps ??Default 115200 bps
Frequency Range
2412~2484MHz
Antenna
uFL/iPEX socket (for external antenna)
Transmit Power
802.11b: 16±2 dBm (@11Mbps)
802.11g: 14±2 dBm (@54Mbps)
802.11n: 13±2 dBm (@HT20, MCS7)
Receiving Sensitivity
CCK, 1 Mbps : -90dBm
CCK, 11 Mbps: -85dBm
6 Mbps (1/2 BPSK): -88dBm
54 Mbps (3/4 64-QAM): -70dBm
HT20, MCS7 (65 Mbps, 72.2 Mbps): -67dBm
Power
Continuous Transmission: 71mA (average); 500mA (peak)
Modem Sleep: 20mA
Light Sleep: 2mA
Deep Sleep: 0.02mA
Security
WEP/WPA-PSK/WPA2-PSK
Power Supply
3.0V~3.6V
Operating Temperature
-20 to 85°C

Best ATMEGA16-PU Microcontroller ATMEGA 16 AVR ATMEGA16


ATMEGA16-PU Microcontroller ATMEGA 16 AVR ATMEGA16Included in the 8-bit MEGA AVR family.

Number of IO: 32
Program Memory Capacity: 16 KB
EEPROM Memory Capacity: 512 Bytes
RAM Memory Capacity: 1 KB
Maximum Processor Speed: 16 MHz
Oscillator Type: Internal and External
Number of Timers: 3
Available peripherals: Timer, RTC, PWM, ADC, Watchdog and Comparator.
Communication Module: SPI, I2C and USART
Physical form: 40-pin DIP
Power Supply Range: 2.7 - 5.5 V
Working Temperature Range: -40 to 85 C

IC CPU Z80 ZILOG

 



Zilog, Inc., formerly known as Zilog (which stands for "Z (last word in) unified logic"), is an American manufacturer of 8-bit and 16-bit microcontrollers, and is best known for the Intel 8080-compatible Z80 series.
Zilog was founded in California in 1974 by Federico Faggin, who left Intel after working on the 4004 and 8080 microprocessors. The company became a subsidiary of Exxon in 1980, but management and employees bought it back in 1989 led by Dr Edgar Sack.
Z80(i) is an enhanced implementation of the Intel 8080 architecture, which is faster, more capable, and significantly cheaper; along with the 6502 it is one of the most popular 8-bit processors for general purpose microcomputers and other applications. It was used in the Nintendo Game Boy, Sinclair ZX80, ZX81, ZX Spectrum and Amstrad CPC home computers as well as the MSX architecture and the Microbee and Tandy TRS-80 series—among many others. More than just sparking improvements in the budding fields of home computing and gaming, the Z-80 also sparked a revolution in electronic music, as the first truly polyphonic programmable synthesizers (as well as their peripherals) relied heavily on the implementation of these CPUs. (source : wikipedia.com)