Mercury
®
Programmable Logic
Device Family
Data Sheet
March 2002, ver. 2.0
Features…
■
■
High-performance programmable logic device (PLD) family (see
Table 1)
–
Integrated high-speed transceivers with support for clock data
recovery (CDR) at up to 1.25 gigabits per second (Gbps)
–
Look-up table (LUT)-based architecture optimized for high
speed
–
Advanced interconnect structure for fast routing of critical paths
–
Enhanced I/O structure for versatile standards and interface
support
–
Up to 14,400 logic elements (LEs)
System-level features
–
Up to four general-purpose phase-locked loops (PLLs) with
programmable multiplication and delay shifting
–
Up to 12 PLL output ports
–
Dedicated multiplier circuitry for high-speed implementation of
signed or unsigned multiplication up to 16
×
16
–
Embedded system blocks (ESBs) used to implement memory
functions including quad-port RAM, true dual-port RAM, first-
in first-out (FIFO) buffers, and content-addressable memory
(CAM)
–
Each ESB contains 4,096 bits and can be split and used as two
2,048-bit unidirectional dual-port RAM blocks
13
Tools
Table 1. Mercury Device Features
Feature
Typical gates
HSDI channels
LEs
ESBs
(1)
Maximum RAM bits
Maximum user I/O pins
Note to
Table 1:
(1)
Each ESB can be used for two dual- or single-port RAM blocks.
EP1M120
120,000
8
4,800
12
49,152
303
EP1M350
350,000
18
14,400
28
114,688
486
Altera Corporation
DS-MERCURY-2.0
1
Mercury Programmable Logic Device Family Data Sheet
...and More
Features
■
■
■
Advanced high-speed I/O features
–
Robust I/O standard support, including LVTTL, PCI up to
66 MHz, 3.3-V AGP in 1× and 2× modes, 3.3-V SSTL-3 and 2.5-V
SSTL-2, GTL+, HSTL, CTT, LVDS, LVPECL, and 3.3-V PCML
–
High-speed differential interface (HSDI) with dedicated
circuitry for CDR at up to 1.25 Gbps for LVDS, LVPECL, and
3.3-V PCML
–
Support for source-synchronous True-LVDS
TM
circuitry up to
840 megabits per second (Mbps) for LVDS, LVPECL, and 3.3-V
PCML
–
Up to 18 input and 18 output dedicated differential channels of
high-speed LVDS, LVPECL, or 3.3-V PCML
–
Built-in 100-Ω termination resistor on HSDI data and clock
differential pairs
–
Flexible-LVDS
TM
circuitry provides 624-Mbps support on up to
100 channels with the EP1M350 device
–
Versatile three-register I/O element (IOE) supporting double
data rate I/O (DDRIO), double data-rate (DDR) SDRAM, zero
bus turnaround (ZBT) SRAM, and quad data rate (QDR) SRAM
Designed for low-power operation
–
1.8-V internal supply voltage (V
CCINT
)
–
MultiVolt
TM
I/O interface voltage levels (V
CCIO
) compatible
with 1.5-V, 1.8-V, 2.5-V, and 3.3-V devices
–
5.0-V tolerant with external resistor
Advanced interconnect structure
–
Multi-level FastTrack
®
Interconnect structure providing fast,
predictable interconnect delays
–
Optimized high-speed Priority FastTrack Interconnect for
routing critical paths in a design
–
Dedicated carry chain that implements arithmetic functions such
as fast adders, counters, and comparators (automatically used by
software tools and megafunctions)
–
FastLUT
TM
connection allowing high speed direct connection
between LEs in the same logic array block (LAB)
–
Leap lines allowing a single LAB to directly drive LEs in adjacent
rows
–
The RapidLAB interconnect providing a high-speed connection
to a 10-LAB-wide region
–
Dedicated clock and control signal resources, including four
dedicated clocks, six dedicated fast global signals, and additional
row-global signals
2
Altera Corporation
Mercury Programmable Logic Device Family Data Sheet
Tables 2
and
3
show the Mercury
TM
FineLine BGA
TM
device package sizes,
options, and I/O pin counts.
Table 2. Mercury Package Sizes
Feature
Pitch (mm)
Area (mm )
Length
×
width (mm
×
mm)
2
484-Pin
FineLine BGA
1.00
529
23
×
23
780-Pin
FineLine BGA
1.00
841
29
×
29
Table 3. Mercury Package Options & I/O Count
Device
EP1M120
EP1M350
484-Pin
FineLine BGA
303
780-Pin
FineLine BGA
486
13
Tools
General
Description
Mercury devices integrate high-speed differential transceivers and
support for CDR with a speed-optimized PLD architecture. These
transceivers are implemented through the dedicated serializer,
deserializer, and clock recovery circuitry in the HSDI and incorporate
support for the LVDS, LVPECL, and 3.3-V PCML I/O standards. This
circuitry, together with enhanced I/O elements (IOEs) and support for
numerous I/O standards, allows Mercury devices to meet high-speed
interface requirements.
Mercury devices are the first PLDs optimized for core performance. These
LUT-based, enhanced memory devices use a network of fast routing
resources to achieve optimal performance. These resources are ideal for
data-path, register-intensive, mathematical, digital signal processing
(DSP), or communications designs.
Altera Corporation
3
Mercury Programmable Logic Device Family Data Sheet
Mercury devices include other features for performance such as quad-
port RAM, CAM, general purpose PLLs, and dedicated circuitry for
implementing multiplier circuits.
Table 4
shows Mercury performance.
Table 4. Mercury Performance
Application
Resources Used
LEs
16-bit loadable counter
(1)
32-bit loadable counter
(1)
32-bit accumulator
(1)
32-to-1 multiplexer
32
×
64 asynchronous FIFO
8-bit, 37-tap FIR filter
Note to
Table 4:
(1)
The clock tree supports up to 400 MHz. Although the registered performance for these designs exceed 400 MHz,
they are limited by the clock tree limit.
Performance
-5 Speed
Grade
400
400
400
1.864
290
290
ESBs
0
0
0
0
2
1
-6 Speed
Grade
400
400
400
2.466
258
240
-7 Speed
Grade
400
400
400
2.723
242
205
Units
MHz
MHz
MHz
ns
MHz
MSPS
16
32
32
27
103
251
Configuration
The logic, circuitry, and interconnects in the Mercury architecture are
configured with CMOS SRAM elements. Mercury devices are
reconfigurable and are 100% tested prior to shipment. As a result, test
vectors do not have to be generated for fault coverage purposes. Instead,
the designer can focus on simulation and design verification. In addition,
the designer does not need to manage inventories of different ASIC
designs; Mercury devices can be configured on the board for the specific
functionality required.
Mercury devices are configured at system power-up with data stored in
an Altera
®
serial configuration device or provided by a system controller.
Altera offers in-system programmability (ISP)-capable configuration
devices, which configure Mercury devices via a serial data stream.
Mercury devices can be configured in under 70 ms. Moreover, Mercury
devices contain an optimized interface that permits microprocessors to
configure Mercury devices serially or in parallel, synchronously or
asynchronously. This interface also enables microprocessors to treat
Mercury devices as memory and to configure the device by writing to a
virtual memory location, simplifying reconfiguration.
4
Altera Corporation
Mercury Programmable Logic Device Family Data Sheet
After a Mercury device has been configured, it can be reconfigured
in-circuit by resetting the device and loading new data. Real-time changes
can be made during system operation, enabling innovative reconfigurable
computing applications.
Software
Mercury devices are supported by the Altera Quartus
TM
II development
system, a single, integrated package that offers HDL and schematic design
entry, compilation and logic synthesis, full simulation and worst-case
timing analysis, SignalTap
TM
logic analysis, and device configuration. The
Quartus II software also ships with Altera-specific HDL synthesis tools
from Exemplar Logic and Synopsys, and Altera-specific Register Transfer
Level (RTL) and timing simulation tools from Model Technology. The
Quartus II software supports PCs running Windows 98, Windows NT 4.0,
and Windows 2000; UNIX workstations running Solaris 2.6, 7, or 8, or
HP-UX 10.2 or 11.0; and PCs running Red Hat Linux 7.1.
The Quartus II software provides NativeLink
TM
interfaces to other
industry-standard PC- and UNIX-workstation-based EDA tools. For
example, designers can invoke the Quartus II software from within the
Mentor Graphics LeonardoSpectrum software, Synplicity’s Synplify
software, and the Synopsys FPGA
Express
software. The Quartus II
software also contains built-in optimized synthesis libraries; synthesis
tools can use these libraries to optimize designs for Mercury devices. For
example, the Synopsys Design Compiler library, supplied with the
Quartus II development system, includes DesignWare functions
optimized for the Mercury architecture.
For more information on the Quartus II development system, see the
Quartus II Programmable Logic Development System & Software Data Sheet.
13
Tools
Functional
Description
The Mercury architecture contains a row-based logic array to implement
general logic and a row-based embedded system array to implement
memory and specialized logic functions. Signal interconnections within
Mercury devices are provided by a series of row and column
interconnects with varying lengths and speeds. The priority FastTrack
Interconnect structure is faster than other interconnects; the Quartus II
Compiler places design-critical paths on these faster lines to improve
design performance.
Altera Corporation
5
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