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Key features
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Unified, industry standard, well debugged and documented
ultra-high performance platforms minimizing
total
design time and final cost for end user
PICMG®
MicroTCA®, AdvancedTCA®
and stand-alone/embedded
applications
-
Xilinx Zynq
UltraScale+ MPSoC EG
FPGA
(XCZU11EG,
XCZU17EG, XCZU19EG) with six
ARM®
cores (FPGA/PS),
high density logic
(FPGA/PL) and pools of 28Gbps/32Gbps (GTY) and 16Gbps (GTH) transceivers
-
VITA
57.4-2018 FMC+
site
for user adopted
I/O
via FMC/FMC+
HSPC/HPC/LPC
submodule
(160
I/O, 24x 16Gbps GBTs)
upon user application
requirements (AD/DA,
SFP+,
QSFP+,
RF,
etc.)
-
384Gbps
maximum aggregated bandwidth for real-time data I/O via FMC+
GBT ports
-
AMC Fabric-DEFG ports 4-7/8-11 for in-chassis AMC-to-AMC
real-time data transfer using AMC.2
10GbE,
40GbE,
100GbE;
AMC.4
Serial RapidIO
(20Gbps, 50Gbps,
100Gbps);
AMC.1
PCIe
(32Gbps, 64Gbps,
128Gbps) protocols
-
Optional
support for AMC ports
12-15/17-20 (4x
28Gbps, "free"
protocol)
for high-speed
in-chassis AMC-to-AMC
real-time
data transfer
-
AMC
Fabric-B ports
2-3
(AMC.3
6Gbps
SATA/SAS
)
for communication with
adjacent
HDD/SSD
AdvancedMC (AMC) modules
-
544Gbps
maximum aggregated bandwidth for AMC-to-AMC real-time data
transfer
-
AMC Fabric-A 1GbE
ports 0-1 from PS for remote device control and in-chassis
AMC-to-AMC control communication
-
64-bit DDR4
(up to 8GB)
for FPGA/PS
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64-bit
DDR4 (up to 8GB) and 32-bit DDR4
(up to
4GB)
banks for FPGA/PL
-
2Gb
NOR FLASH for
FPGA/PS-PL
applications and
data
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4Mb NVRAM memory
for
critical applications
and
data
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Removable
M.2 2280 SATA3 SSD module (up to 2TB) for large data arrays and
FPGA/PS-PL
applications
-
Front panel
MicroSD card slot
(up to 2TB) for FPGA/PS-PL
applications, large data arrays and
data transfer
-
Front-panel
LEDs for FPGA/PS
and
FPGA/PL
applications
-
FPGA/PL
8-bit FPGA
XGPIO port for optional
connection to external devices
-
High-performance MMC
controller with proprietary
TAMMC®
Gen2
high-speed
MMC-kernel, power/temperature monitoring, status indication
and more, all for reliable
and safe device operation and protection
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USB UART ports from FPGA/PS and MMC
for remote device management
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Stand-alone operation from +12V power supply
for embedded applications
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Commercial
and industrial operating temperature ranges
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Complies PICMG® 3.0 Rev.3.0, MicroTCA.0 R1.0, AMC.0 R2.0,
IPMI 1.5, VITA® 57.1-2008 (R2010) specifications
Development tools
- Embedded
high-speed USB FPGA JTAG emulator (equivalent to
MIRAGE-UXF
USB
JTAG emulator for Xilinx FPGA) with external JTAG
emulator option
- Unified
TASDK®
tools for TORNADO AMC modules with high-level API for
development of
ARM applications, PL bitstreams and host
PC
Windows/Linux and Android® remote control applications
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Linux, FreeRTOS and "bare-metal" API for
ARM
applications
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TASDK/ThreadX
toolkit
with pre-certified
Microsoft Azure ThreadX®
RTOS
for
high-performance demanding applications
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Demo
projects
for device tests and user projects startup
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Xilinx
SDK and
Vivado tools
for development of FPGA/PS and
FPGA/PL
applications
Applications
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Telecommunication and telephony
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RF and digital radio
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Stand-alone and
distributed DSP systems
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Image processing
-
Radars and astrophysics
-
Industrial, instrumentation and
medical
** Notes
1. MicroLAB Systems can modify
its products to meet special customer requirements. MOQ may apply.
Contact MicroLAB
Systems for more details.
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TORNADO-AZU+/FMC+ (F/S) AdvancedMC (AMC) module
(click to enlarge)
Block diagram of TORNADO-AZU+/FMC+
AdvancedMC (AMC) module
(click to enlarge)
TORNADO-MTCA® modular DSP system including
TORNADO-AZU+/FMC+ AMC-module with
AD/DA FMC-submodule, TORNADO-A6678/FMC
AMC-module with AD/DA FMC-submodule, TORNADO-ARX1 RF AMC-module and
T/AX-DSFPX AMC-module
with 10GbE SFP+ LAN/WAN ports, all installed into MicroTCA® 1U chassis
with 10GbE switching fabric
(click to enlarge)
TORNADO-mMTCA® modular DSP mini-system including
TORNADO-AZU+/FMC+ AMC-module with
AD/DA FMC-submodule and
T/AX-DSFPX
AMC-module with 10GbE SFP+ LAN/WAN ports, all installed into dual-slot
MicroTCA® mini chassis with passive backplane
(click to enlarge)
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Ordering
Information
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TAZUPFMCP1A/XCZU19EG2E/D4/F2/E512/N4/SSD1T/SD/L1D4/L2D2/LI/A12/A17/FC+/FB/SA/FS |
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TORNADO-AZU+/FMC+
rev.1A AdvancedMC (AMC) module (TAZUPFMCP1A),
Xilinx
Zynq UltraScale+ MPSoC EG XCZU19EG-2FFVC1760E (XCZU19EG2E),
Zynq/PS 4GB (512Mx64) DDR4 memory (D4),
Zynq/PS 2Gb (256Mx8) QSPI NOR FLASH memory
(F2),
Zynq/PS 512Kb (64Kx8) I2C
SEEPROM
memory
(E512),
Zynq/PS 4Mb (512Kx8) NVRAM memory
(N4),
M.2
SSD 1TB
memory module
(SSD1T),
MicroSD
card slot
(SD),
Zynq/PL 4GB (512Mx64) DDR4
memory
bank
#1
(L1D4),
Zynq/PL 2GB (512Mx32) DDR4
memory
bank
#2
(L2D2),
Zynq/PL 8-bit XGPIO (LI),
AMC ports
12-15 28Gbps
(A12),
AMC ports 17-20
28Gbps
(A17),
FMC+/HSPC site
for
FMC+
submodule
(FC+),
Zynq/PL
bitstream decryption battery (FB),
stand-alone/embedded operation mode support
(SA),
single-width full-size (F/S)
AdvancedMC (AMC) module
(FS),
standard
10mm
FMC stacking.
0ºC…+55ºC
operating temperature range (derived from FPGA p/n). |
Datasheets and
Application Materials
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Datasheet for
TORNADO-AZU+/FMC+
AdvancedMC (AMC) module |
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Presentation
"New Devices for
TORNADO-MTCA®
MicroTCA Modular DSP Systems"
(Rus) |
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Presentation "RTOS Selection for
TORNADO-MTCA®
MicroTCA DSP Systems,
Controllers and IoT"
(Rus) |
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Presentation "Comparing RTOS
Performance"
(Rus) |
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Presentation
"PICMG® MicroTCA Standard and its Specifics for DSP Applications"
(Rus) |
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Presentation
"TORNADO-MTCA
DSP Systems
in MicroTCA Standard" (Rus) |
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Presentation
"TASDK®
Software Development Tools for
TORNADO-MTCA DSP
Systems" (Rus) |
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Paper in Russian 'Components and Technologies' magazine
(Jan-2015): "TORNADO-A6678
AdvancedMC (AMC) module Applications in MicroTCA
DSP Systems" (Rus) |
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Paper in Russian 'Telecommunications' magazine
(Jan-2015): "TORNADO-A6678
AdvancedMC (AMC) module Applications in MicroTCA
DSP Systems" (Rus) |
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Application note AN-TARxMTCA-1A
(2016-01) (Rus):
O.A.Vasiliev, P.A.Semyonov:
"Distributed Multichannel Radiomonitoring Systems
TORNADO-RxMTCA®" |
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Paper in 'Information Security - Inside' magazine
(Jan-2016) (Rus): "Rubic's Radiocube: Building a Multichannel
Radio Monitoring System" |
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