Features: ` 0.25 micron drawn (0.20 micron effective channel length process), six layers of metal connected by fully stackable vias and contacts, Shallow Trench Isolation, low resistance, salicided active areas and gates. Deep UV lithography.` 2.5 V optimized transistor with 3.3 V I/O and supply...
CB55000: Features: ` 0.25 micron drawn (0.20 micron effective channel length process), six layers of metal connected by fully stackable vias and contacts, Shallow Trench Isolation, low resistance, salicided...
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Symbol |
Parameters |
Value |
Unit |
Vdd |
2.5 V Power Supply Voltage |
-0.5 to 3.3 |
V |
2.5 V Input or Output Voltage |
-0.5 to (Vdd + 0.5) |
V | |
Vdd |
3.3 V Power Supply Voltage |
-0.5 to 4 |
V |
3.3 V Input or Output Voltage |
-0.5 to (Vdd3 + 0.5) |
V |
The CB55000 standard cell series uses a high performance, low-voltage, 0.25 m drawn (0.20 m effective), six metal levels CMOS process HCMOS7 to a 90 pico-second internal delay while offering very low power dissipation and high noise immunity.
With an average routed gate density of 30,000 gates/mm2, the CB55000 family allows the integration of up to 15 million equivalent gates and is ideal for high-complexity or high-performance devices for computer, telecommunication and consumer products.
CB55000 With a typical gate delay of 70 ps (for a 2-input NAND gate at fan-out 1), the library meets the most demanding speed requirements in telecommunication and computer application designs today.
CB55000 Optimized for 2.5 V operation, the library features a power consumption of less than 70 nW/Gate/MHz (fanout= 1) and 30 nW/Gate/MHz (fan-out=1) at 1.8 V.
CB55000 I/O buffers can be fully configured for both 2.5 V and 3.3 V interface options, with several high speed buffer types available. These include: low voltage differential (LVDS) I/Os, PCI/AGP, PECLs, and HSTL.
CB55000 pad pitch down to 50 m, in a staggered arrangement, meets the requirements of high pin-count devices which tend to become pad-limited at such library densities. For very high pin-count ICs, advanced packaging solutions such as Chip Scale Packaging in fine pitch BGA are available.
New packaging solutions using a flip-chip approach are currently being developed.