25

 

 

DAC_D0

 

H16

 

Data 0 [LSB]

 

O

 

LV_TTL 3.3V

 

 

 

 

 

 

 

 

DAC_D1

 

K13

 

Data 1

 

O

 

LV_TTL 3.3V

 

 

DAC_D2

 

G11

 

Data 2

 

O

 

LV_TTL 3.3V

 

 

DAC_D3

 

J14

 

Data 3

 

O

 

LV_TTL 3.3V

 

 

DAC_D4

 

E10

 

Data 4

 

O

 

LV_TTL 3.3V

 

 

DAC_D5

 

H12

 

Data 5

 

O

 

LV_TTL 3.3V

 

 

DAC_D6

 

H13

 

Data 6

 

O

 

LV_TTL 3.3V

 

 

DAC_D7

 

C11

 

Data 7

 

O

 

LV_TTL 3.3V

 

 

DAC_D8

 

H14

 

Data 8

 

O

 

LV_TTL 3.3V

 

 

DAC_D9

 

G15

 

Data 9

 

O

 

LV_TTL 3.3V

 

 

DAC_D10

 

G14

 

Data 10

 

O

 

LV_TTL 3.3V

 

 

DAC_D11

 

J15

 

Data 11

 

O

 

LV_TTL 3.3V

 

 

DAC_D12

 

J16

 

Data 12

 

O

 

LV_TTL 3.3V

 

 

DAC_D13

 

G16

 

Data 13 [MSB]

 

O

 

LV_TTL 3.3V

 

 

DAC_MODE

 

K10

 

Input Data Format

 

O

 

LV_TTL 3.3V

 

 

DAC_SLEEP

 

E11

 

Power Down D/A Controller

 

O

 

LV_TTL 3.3V

 

 

ETHER_25MHZ

 

AA15

 

25 MHz Clock

 

O

 

LV_CMOS 2.5V

 

 

ETHER_125MHZ

 

P24

 

125 MHz Clock

 

I

 

LV_CMOS 2.5V

 

 

ETHER_COL

 

AD19

 

Collision Detect

 

I

 

LV_CMOS 2.5V

 

 

ETHER_COMA

 

AC19

 

Power Save Mode

 

O

 

LV_CMOS 2.5V

 

 

ETHER_CRS

 

AA19

 

Carrier Sense

 

I

 

LV_CMOS 2.5V

 

 

ETHER_IRQ

 

AB15

 

IRQ

 

I

 

LV_CMOS 2.5V

 

 

ETHER_MDC

 

AD24

 

Media Independent Interface Clock

 

O

 

LV_CMOS 2.5V

 

 

ETHER_MDIO

 

AC16

 

Media Independent Interface Data

 

I/O

 

LV_CMOS 2.5V

 

 

ETHER_RESET

 

AC24

 

Reset

 

O

 

LV_CMOS 2.5V

 

 

ETHER_RX0

 

U24

 

MII/GMII Data In 0

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX1

 

AD20

 

MII/GMII Data In 1

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX2

 

AD21

 

MII/GMII Data In 2

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX3

 

AD16

 

MII/GMII Data In 3

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX4

 

U21

 

MII/GMII Data In 4

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX5

 

T23

 

MII/GMII Data In 5

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX6

 

AD18

 

MII/GMII Data In 6

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX7

 

T22

 

MII/GMII Data In 7

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX_CLK

 

V24

 

MII/GMII RX Clock

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX_CTL

 

AB16

 

MII/GMII RX Enable

 

I

 

LV_CMOS 2.5V

 

 

ETHER_RX_ER

 

Y23

 

MII/GMII RX Error

 

I

 

LV_CMOS 2.5V

 

 

ETHER_TX0

 

AA22

 

MII/GMII Data Out 0

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX1

 

AC18

 

MII/GMII Data Out 1

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX2

 

AB24

 

MII/GMII Data Out 2

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX3

 

AB19

 

MII/GMII Data Out 3

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX4

 

AB17

 

MII/GMII Data Out 4

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX5

 

AA23

 

MII/GMII Data Out 5

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX6

 

AC17

 

MII/GMII Data Out 6

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX7

 

AC23

 

MII/GMII Data Out 7

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX_CLK

 

W24

 

MII/GMII TX Clock

 

O

 

LV_CMOS 2.5V

 

 

ETHER_TX_CTL

 

AA24

 

MII/GMII TX Enable

 

O

 

LV_CMOS 2.5V

 

 

E‐14 Hardware Reference Manual

 

www.picocomputing.com

 

 

 

Pico Computing, Inc.

Page 25
Image 25
Pico Communications E-14 manual DACD0

E-14 specifications

Pico Communications E-14 is an advanced wireless communication device designed to meet the demands of modern connectivity. As a versatile solution, it serves various applications in sectors such as telecommunications, IoT, and smart cities. The E-14 stands out for its compact design, exceptional performance, and robust feature set that cater to both individual users and enterprises.

One of the primary features of the Pico E-14 is its support for multiple communication protocols, including LTE, NB-IoT, and LoRaWAN. This multi-protocol capability ensures that users can select the most suitable option for their specific use case, whether it be high-speed data transfer or low-power wide-area networking. With seamless integration into existing infrastructure, the E-14 facilitates hassle-free deployments.

Power efficiency is another hallmark of the Pico E-14. Designed for longevity, the device includes intelligent power management features that drastically reduce energy consumption, making it an ideal choice for battery-operated devices and remote monitoring applications. This capability is particularly valuable in settings where maintenance access is limited, and downtime must be minimized.

The E-14’s built-in security features provide enhanced data protection, making it suitable for applications that require confidentiality and integrity. With end-to-end encryption, secure boot, and trusted platform modules, users can rest assured that their data remains protected against unauthorized access and cyber threats.

Moreover, the Pico E-14 boasts a user-friendly interface, which simplifies setup and operation. Its intuitive configuration tools allow users to quickly adjust settings and monitor performance metrics, reducing the need for specialized technical knowledge. This ease of use is a significant advantage in environments where teams may vary in technical expertise.

The device is also rugged and built to withstand harsh environmental conditions. Its robust casing protects against dust, moisture, and extreme temperatures, allowing it to function reliably in a variety of settings, from urban installations to remote field deployments.

With its array of features, the Pico Communications E-14 is well-positioned to play a pivotal role in the evolution of connectivity solutions. By offering flexible communication methods, energy efficiency, enhanced security, and user-friendly functionality, it addresses the complexities of modern communication needs while paving the way for innovative applications in the future.