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Figure 2TE0706-02 Carrier Board.

  1. Samtec Razor Beam™ LSHM-150 B2B connector, JB1
  2. Samtec Razor Beam™ LSHM-150 B2B connector, JB3
  3. Samtec Razor Beam™ LSHM-130 B2B connector, JB2
  4. 6-pin header J26, for selecting PL I/O-bank voltage
  5. 6-pin header J27, for selecting PL I/O-bank voltage
  6. Micro USB2.0 Type B Connector J12 (Device or OTG mode)
  7. JTAG/UART header, JX1 ('XMOD FTDI JTAG Adapter'-compatible pin-assignment)
  8. User LED D1 (green)
  9. User LED D2 (red)
  10. SFP+ Connector, J1
  11. 50-pin header soldering-pads J17, for access to PL I/O-bank pins (LVDS-pairs possible)
  12. 50-pin header soldering-pads J20, for access to PL I/O-bank pins (LVDS-pairs possible)
  13. 16-pin header soldering-pads J3, JTAG/UART header ('XMOD FTDI JTAG Adapter'-compatible pin-assignment)
  14. 10-pin header soldering-pads J4, for access to SoM's SDIO-port, if available

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On-board Pin Header
Control Signals and InterfacesCount of I/O'sNotes
J17User I/O42 single ended or 21 differential-
J20

User I/O

42 single ended or 21 differential-
J3JTAG4-
SoM control signals2'RESIN', 'BOOTMODE'
MGT reference input clock1 differential pairAC decoupled on-board (100 nF capacitatorcapacitor)
MIO2user IO (configurable as UART for example)
J4SD IO63.3V and 1.8V voltage level available on header

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On the TEBA0841 carrier board is a SFP+ connector J1 (board-rev. 01: Molex 74441-0001). The connector is embedded into a SFP cage J2 (board-rev. 01: Molex 74737-0009).

The differential RX-/TX - data - lanes are connected to B2B - connector JB2, the control-lines are connected to module's IO-pins on B2B-connector JB1 (MIO0-bank-pins in standard TE module's pin-assignment).

On this SFP+ connector, at both 4 x 5 SoMs TE0741 and TE0841 MGT-lane 3 is accessible.

to B2B connector JB1 and are assigned to MIO-bank pins of the mounted SoM.

The pin-assignment of the SFP connector is in detail as fellows:


SFP+ pinPin Schematic NameB2BFPGA DirectionDescriptionNote
Transmit Data + (pin 18)MGT_TX3_PJB2-26OutputSFP+ transmit data differential pair

-
Transmit Data - (pin 19)MGT_TX3_NJB2-28Output-
Receive Data + (pin 13)MGT_RX3_PJB2-25InputSFP+ receive data differential pair

-
Receive Data - (pin 12)MGT_RX3_NJB2-27Input-
Receive Fault (pin 2)MIO10JB1-96InputFault / Normal Operation
-
High active logic
Receive disable (pin 3)
-
1)SFP0_TX_DISnot connected
-
OutputSFP Enabled / Disabled
connected to GND
Low active logic
MOD-DEF2 (pin 4)MIO13JB1-98InputModule present / not present
3.3V pull-up, (usable I²C SDA/SCL-line)
Low active logic
MOD-DEF1 (pin 5)MIO12JB1-100Output2-wire Serial Interface clock3.3V pull-up
, (usable I²C SDA/SCL-line)
on-board
MOD-DEF0 (pin 6)MIO11JB1-94BiDir2-wire Serial Interface data3.3V pull-up on-board
RS0 (pin 7)SFP0_RS0
-
not connectedOutputFull RX bandwidth
-
Low active logic
LOS (pin 8)MIO0JB1-88InputLoss of receiver signal
-
High active logic
RS1 (pin 9)SFP0_RS1
-
not connectedOutputReduced RX bandwidth
-
Low active logic

Table 1: SFP+ connector pin-assignment.

1) Important: For proper operation, a wire patch to GND is done at recently delivered boards. Connect to GND, if not done. See PCB drawing below:

Image Added


Figure 3: PCB wire patch for SFP+ connector.

Looped-Looped-backed MGT-Lanes on B2B Connector JB1 and JB2

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The MGT lane pins are bridged on-board as fellows, if 4 x 5 SoM TE0741 is mounted on carrier board:


MGT LaneB2B TX Differential PairB2B RX Differential PairB2B Pins Bridged
MGT-lane 0

JB2-8 (MGT_TX0_N)

JB2-10 (MGT_TX0_P)

JB2-7 (MGT_RX0_N)

JB2-9 (MGT_RX0_P)

JB2-7 to JB2-8

JB2-9 to JB2-10

MGT-lane 1

JB2-14 (MGT_TX1_N)

JB2-16 (MGT_TX1_P)

JB2-13 (MGT_RX1_N)

JB2-15 (MGT_RX1_P)

JB2-13 to JB2-14

JB2-15 to JB2-16

MGT-lane 2

JB2-20 (MGT_TX2_N)

JB2-22 (MGT_TX2_P)

JB2-19 (MGT_RX2_N)

JB2-21 (MGT_RX2_P)

JB2-19 to JB2-20

JB2-21 to JB2-22

MGT-lane 7

JB1-3 (MGT_TX7_P)

JB1-5 (MGT_TX7_N)

JB1-9 (MGT_RX7_P)

JB1-11 (MGT_RX7_N)

JB1-3 to JB1-9

JB1-5 to JB1-11

MGT-lane 6

JB1-15 (MGT_TX6_P)

JB1-17 (MGT_TX6_N)

JB1-21 (MGT_RX6_P)

JB1-23 (MGT_RX6_N)

JB1-15 to JB1-21

JB1-17 to JB1-23

Table 2: Looped-backed MGT-lanes for mounted 4 x 5 SoM TE0741.

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Following table describes the signals and interfaces of the XMOD header JX1 and pin header J3:

Pin Schematic NameXMOD Header JX1 PinHeader J3 PinB2BNote
TCKC (pin 4)4JB3-100-
TDOD (pin 8)8JB3-98-
TDIF (pin 10)10JB3-96-
TMSH (pin 12)12JB3-94-
MIO15A (pin 3)3JB1-86UART-TX (transmit line)
MIO14B (pin 7)7JB1-91UART-RX (receive line)
BOOTMODEE (pin 9)9JB1-90usually
JTAG select pin
'JTAGSEL' on TE 4 x 5 SoMs
RESING (pin 11)11JB3-17SoM Reset pin
CLK0_N-15JB2-32AC decoupled on-board (100 nF
capacitator
capacitor)
CLK0_P-16JB2-34AC decoupled on-board (100 nF
capacitator
capacitor)

Table 10: JTAG/UART header signals and connections.

When using XMOD FTDI JTAG Adapter TE0790, the adapter-board's VCC and VCCIO will be sourced by the mounted SoM's 'VCCJTAG' (pin JB2-92).on-boards 3.3V supply voltage. Set the DIP-switch with the setting:

XMOD DIP-switchesPosition
Switch 1ON
Switch 2OFF
Switch 3OFF
Switch 4ONOFF

Table 11: XMOD adapter board DIP-switch positions for voltage configuration.

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Components on the Module, like Flash, PLL, PHY...
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4-bit DIP-switch

Table below describes DIP-switch S1 settings for configuration of the mounted SoM:

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Boot mode configuration, if supported by SoM. (Depends also on SoM's SC-CPLD firmware).

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Usually used to enable/disable FPGA core-voltage supply. (Depends also on SoM's SC CPLD firmware).

Note: Power-on sequence will be intermitted if S1-4 is set to OFF and if functionality is supported by SoM.

On-board LEDs

The on-board LEDs are available to the user and can be used to indicate system status and activities:

LED ColorPin Schematic NameB2B ConnectorDescription and Notes
D1GreenMIO9JB1-92available to user
D2RedRLEDJB3-90available to user

Figure 3: On-board LEDs

VCCIO Selection Jumper

On the TEBA0841 carrier board different VCCIO configurations can be selected by the jumper J26 and J27.

TE 4 x 5 Modules have a standard assignment of PL-bank I/O voltages on their B2B connectors, which will be fed with I/O voltage from base-board.

Base-board PL-bank I/O Voltages

B2B PinsStandard Assignment of PL-bank I/O Voltages on TE 4x5 Modules
VCCIOAJB1-10, JB1-12VCCIOA (JM1-9, JM1-11)
VCCIODJB2-8, JB2-10VCCIOD (JM2-7, JM2-9)

Table 5: Base-board PL-bank I/O voltages VCCIOA and VCCIOD

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Figure 3: User DIP-switch S1

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Note

Note: The corresponding PL-bank I/O -bank supply- voltages of the 4 x 5 SoM to the selectable base-board voltages VCCIOA , VCCIOB and VCCIOC VCCIOD are depending on the mounted 4 x 5 SoM and varying in order of the used model.

Refer to the SoM's schematic for information about the specific pin assignments on module's B2B-connectors regarding the PL-bank I/O -bank supply- voltages and to the 4 x 5 Module integration Guide for VCCIO voltage options.

The Carrier Board VCCIO for the PL I/O-banks of the mounted SoM are selectable by the jumpers J10, J11 and J12.

Following table describes how to configure the VCCIO of the SoM's PL I/O-banks with jumpers:

...

Following table describes how to configure the base-board supply-voltages by jumpers:

Base-board PL-bank I/O Voltages
vs Voltage Levels

VCCIOAVCCIOD
1.8VJ26:1-2J27:1-2
2.5VJ26:3-4J27:3-4
3.3VJ26:5-6J27:5-6

Table 6: Configuration of base-board supply-voltages via jumpers. Jumper-Notification: 'Jx: 1-2' means pins 1 and 2 are connected, 'Jx: 3-4' means pins 3 and 4 are connected, and so on.

Note

Take care of the VCCO voltage ranges of the  particular PL IO-banks (HR, HP) of the mounted SoM, otherwise damages may occur to the FPGA. Therefore, refer to the TRM of the mounted SoM to get the specific information of the voltage ranges.

It is recommended to set and measure the PL IO-bank supply-voltages before mounting of TE 4 x 5 module to avoid failures and damages to the functionality of the mounted SoM.

Power and Power-On Sequence

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If power sequencing and distribution is not so much, you can join both sub sections together
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Power Consumption

The maximum power consumption of the Carrier Board depends mainly on the mounted SoM's FPGA design running on the Zynq device.

Xilinx provide a power estimator excel sheets to calculate power consumption. It's also possible to evaluate the power consumption of the developed design with Vivado. See also Trenz Electronic Wiki FAQ.

Power InputTypical Current
3.3VTBD*

Table 14: Typical power consumption.

 * TBD - To Be Determined soon with reference design setup.

Power supply with minimum current capability of 3A for system startup is recommended.

Warning
To avoid any damage to the module, check for stabilized on-board voltages and VCCIO's before put voltages on PL I/O-banks and interfaces. All I/Os should be tri-stated during power-on sequence.

Power Supply

Power supply with minimum current capability of 3A at 3.3V for system startup is recommended.

The on-board voltages of the carrier board will be powered up with an external power-supply with nominal voltage of 3.3V.

The external power-supply can be connected to the board by the following pins:

Connector3.3V pinGND pin
JX1

JX1-5, JX1-6,

JX1-1, JX1-2
J3J3-5, J3-6J3-1, J3-2
J4J4-5J4-1, J4-2
J20J20-5, J20-46J20-1 , J20-2 , J20-49 , J20-50
J17J17-5, J17-46J17-1 , J17-2 , J17-49 , J17-50

Table 4: Connector pins capable for external 3.3V power supply

Power Distribution Dependencies

The PL-bank I/O voltages 1.8V, 2.5V and 3.3V will be available after the mounted SoM's 3.3V voltage level has reached stable state on B2B-connector pins JM2-10 and JM2-12, meaning that all on-module voltages have become stable and module is properly powered up.

Following diagram shows the distribution of the external input voltage of nominal 3.3V to the components:

Image Added

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Only one supply-source is allowed to configure the base-board supply-voltages, either by jumper, by 0-Ohm-resistor or by connector J6. If a supply-voltage is configured by 0-Ohm-resistor or connector J6, then the corresponding configuration-jumper has to be removed. There aren't 0-Ohm-resistors and supply-voltages by connector J6 allowed if the corresponding base-board supply-voltage is configured by jumper. Vice versa jumpers and 0-Ohm-resistors have to be removed if supplying corresponding base-board supply-voltage by connector J6.

Note: If supplying base-board supply-voltages by connector J6, the module's internal 3.3V voltage-level on pins 9 and 11 of B2B-connector JB2 has to be reached stable state.

Note

Take care of the VCCO voltage ranges of the  particular PL IO-banks (HR, HP) of the mounted SoM, otherwise damages may occur to the FPGA. Therefore, refer to the TRM of the mounted SoM to get the specific information of the voltage ranges.

It is recommended to set and measure the PL IO-bank supply-voltages before mounting of TE 4 x 5 module to avoid failures and damages to the functionality of the mounted SoM.

RTC Buffer Voltage Supply Header

The buffer voltage of the SoM's RTC can be supplied through the header J9 (VBAT-pin). Refer to the SoM's TRM for recommended voltage range and absolute maximum ratings.

Push Button

The Carrier Board's push button S2 is connected to the 'RESIN' signal, the function of the button is to trigger a reset of the mounted SoM by driving the reset-signal 'NRST_IN' to ground.

Power and Power-On Sequence

HTML
<!--
If power sequencing and distribution is not so much, you can join both sub sections together
  -->

Power Consumption

The maximum power consumption of the Carrier Board depends mainly on the mounted SoM's FPGA design running on the Zynq device.

Xilinx provide a power estimator excel sheets to calculate power consumption. It's also possible to evaluate the power consumption of the developed design with Vivado. See also Trenz Electronic Wiki FAQ.

...

Table 14: Typical power consumption.

 * TBD - To Be Determined soon with reference design setup.

Power supply with minimum current capability of 3A for system startup is recommended.

Warning
To avoid any damage to the module, check for stabilized on-board voltages and VCCIO's before put voltages on PL I/O-banks and interfaces. All I/Os should be tri-stated during power-on sequence.

Power Distribution Dependencies

The Carrier Board needs one single power supply voltage with a nominal value of 5V. Following diagram shows the distribution of the input voltage '5VIN' to the on-board components on the mounted SoM:

Figure 5: Board power distribution diagram.

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Module Connector (B2B) DesignatorVCC / VCCIODirectionPinsNotes
JB1

3.3V

Out

2, 4, 6, 14, 16

3.3V module supply voltage
VCCIOAOut10, 12PL IO-bank VCCIO
M1.8VOUTIn401.8V module output voltage
VBATOut80RTC buffer voltage
JB2

1.8V

Out

2, 4

1.8V module supply voltage
VCCIOBOut6PL IO-bank VCCIO
VCCIODVCCIOCOut8, 10PL IO-bank VCCIO
M33.3VOUT3V_OUTIn9, 113.3V module output voltageVCCJTAGIn92113.3V JTAG VCCIOmodule output voltage
JB3USB-VBUSOut56USB Host supply voltage

Table 15: Power pin description of B2B module connector.


On-board Connector Pin Header DesignatorVCC / VCCIODirectionPinsNotes
J5

3.3V

Out

6, 45

3.3V module supply voltage
M3.3VOUTIn5, 463.3V module output voltage
J6

VCCIOA

Out

B32

PL IO-bank VCCIO
VCCIOCOutB1PL IO-bank VCCIO
M3.3VOUTInC323.3V module output voltage
3.3VOutC313.3V module supply voltage
5VINInA1, A2Carrier Board supply power

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Include Page
4 x 5 SoMs - LSHM B2B Connectors
4 x 5 SoMs - LSHM B2B Connectors

Variants Currently In Production

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Operating Temperature

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Table 21: Board variants.

Technical Specifications

Absolute Maximum Ratings

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