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PCI1410RFP
Electronics Part Number
PCI1410RFP-WXManufacturer
onsemi
PCI1410RFP
Description
PC Card Controller IC, 144-Pin QFP PackageInventory
485 Pcs New Original In Stock
Interface controller in 144-LQFP (20x20); provides high-speed buffering, low propagation delay, for board-to-board data communication.
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Minimum 1
Minimum 1
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Freight
Basic cost: USD 70.00
Actual cost may vary depending on weight and destination
Shipping method
Shipped from Hong Kong via FedEx/DHL/UPS/TNT
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In-stock items: Ready to ship in 1-2 days
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Technical Specifications
Category
Logic, Parity Generators and Checkers
Manufacturer
onsemi
Packaging
-
Operating Temperature
0°C ~ 75°C
Mounting Type
Surface Mount
Package / Case
20-LCC (J-Lead)
Series
10H
Base Product Number
MC10H160
Product Status
Obsolete
Voltage - Supply
4.94 V ~ 5.46 V
Supplier Device Package
20-PLCC (9x9)
Number of Circuits
12-Bit
Current - Output High, Low
-
Logic Type
Parity Generator/Checker
Data Sheet Document (D)
Datasheets
Download MC10H160FN Product Specification (PDF)
HTML Datasheet
MC10H160FN-DG
Environmental & Export Classification
RoHS Status
RoHS non-compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
REACH Status
REACH Unaffected
ECCN
EAR99
HTSUS
8542.39.0001
Additional Information
Other Names
2156-MC10H160FN-ON ONSONSMC10H160FN
Standard Package
46
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Frequently Asked Questions (FAQ)
Can the MC10H160FN be used in new designs given its obsolete status, and what are the long-term supp
The MC10H160FN is marked as obsolete by onsemi, which means it is no longer recommended for new designs due to limited long-term availability. While current inventory shows 1,092 units in stock, future sourcing will become increasingly unreliable. For new designs, consider redesigning with active-parity logic devices such as the MC100H160FN (if available and pin-compatible) or evaluating functionally equivalent ECL parity checkers with lifecycle support. If using MC10H160FN, secure lifetime buys and validate second-source options to mitigate supply chain disruption risks in production and field repairs.
How does the MC10H160FN handle voltage tolerance in systems where the 5V supply may drift near the l
The MC10H160FN requires a supply voltage between 4.94V and 5.46V, making it sensitive to even minor drops below 4.94V. In real-world systems with load transients or aging regulators, a nominal 5V rail may dip below 4.94V, risking incorrect logic levels or latch-up. To ensure reliable operation, use a tightly regulated low-noise LDO with ±1% tolerance and monitor voltage droop during peak switching. Alternatively, consider level-translation interfaces or more modern parity ICs with wider supply ranges (e.g., 3.3V or 5V tolerant CMOS variants) to reduce design fragility.
Is the MC10H160FN directly replaceable with the Fairchild F100H160PC in a legacy design upgrade?
While the Fairchild F100H160PC is functionally similar as a 12-bit ECL parity generator/checker, direct replacement with the MC10H160FN requires verification of pin-to-pin compatibility, timing performance, and drive strength. Differences in propagation delay (e.g., F100H160PC: typically 2.5ns vs. MC10H160FN: ~3.5ns) and power dissipation may impact system timing margins in high-speed backplanes. Always validate signal integrity, termination schemes, and thermal performance when swapping. Confirm both parts share the same 20-PLCC (9x9) footprint and J-lead pitch before PCB integration.
What are the reliability concerns when using the MC10H160FN in industrial environments near its 75°C
Operating the MC10H160FN at or near its maximum 75°C ambient temperature increases long-term failure risks due to ECL's inherent high power dissipation and thermal sensitivity. In enclosed or high-ambient environments (e.g., industrial control cabinets), localized PCB heating can push junction temperatures beyond safe limits, accelerating electromigration and reducing MTBF. Mitigate by ensuring adequate PCB copper for heat spreading, monitoring board temperature under load, and maintaining derated operating conditions (e.g., <65°C ambient). Consider forced airflow or transitioning to lower-power CMOS-based parity solutions for improved thermal resilience.
What design-in challenges arise from the MC10H160FN's lack of output drive current specs in the data
The absence of defined output high/low current specs for the MC10H160FN complicates load interfacing and termination planning in high-speed ECL bus designs. Without clear drive strength, designers risk unterminated stubs, reflections, or excessive loading on daisy-chained lines. Assume conservative current sourcing based on typical ECL output stages (≈20–30mA into 50Ω termination) and simulate signal integrity with IBIS models if available. Use controlled impedance traces, proper AC-coupled termination, and verify waveform integrity with oscilloscope probing at system edges to prevent timing errors or crosstalk in high-density layouts.
Can the MC10H160FN be used in new designs given its obsolete status, and what are the long-term supp
The MC10H160FN is marked as obsolete by onsemi, which means it is no longer recommended for new designs due to limited long-term availability. While current inventory shows 1,092 units in stock, future sourcing will become increasingly unreliable. For new designs, consider redesigning with active-parity logic devices such as the MC100H160FN (if available and pin-compatible) or evaluating functionally equivalent ECL parity checkers with lifecycle support. If using MC10H160FN, secure lifetime buys and validate second-source options to mitigate supply chain disruption risks in production and field repairs.
How does the MC10H160FN handle voltage tolerance in systems where the 5V supply may drift near the l
The MC10H160FN requires a supply voltage between 4.94V and 5.46V, making it sensitive to even minor drops below 4.94V. In real-world systems with load transients or aging regulators, a nominal 5V rail may dip below 4.94V, risking incorrect logic levels or latch-up. To ensure reliable operation, use a tightly regulated low-noise LDO with ±1% tolerance and monitor voltage droop during peak switching. Alternatively, consider level-translation interfaces or more modern parity ICs with wider supply ranges (e.g., 3.3V or 5V tolerant CMOS variants) to reduce design fragility.
Is the MC10H160FN directly replaceable with the Fairchild F100H160PC in a legacy design upgrade?
While the Fairchild F100H160PC is functionally similar as a 12-bit ECL parity generator/checker, direct replacement with the MC10H160FN requires verification of pin-to-pin compatibility, timing performance, and drive strength. Differences in propagation delay (e.g., F100H160PC: typically 2.5ns vs. MC10H160FN: ~3.5ns) and power dissipation may impact system timing margins in high-speed backplanes. Always validate signal integrity, termination schemes, and thermal performance when swapping. Confirm both parts share the same 20-PLCC (9x9) footprint and J-lead pitch before PCB integration.
What are the reliability concerns when using the MC10H160FN in industrial environments near its 75°C
Operating the MC10H160FN at or near its maximum 75°C ambient temperature increases long-term failure risks due to ECL's inherent high power dissipation and thermal sensitivity. In enclosed or high-ambient environments (e.g., industrial control cabinets), localized PCB heating can push junction temperatures beyond safe limits, accelerating electromigration and reducing MTBF. Mitigate by ensuring adequate PCB copper for heat spreading, monitoring board temperature under load, and maintaining derated operating conditions (e.g., <65°C ambient). Consider forced airflow or transitioning to lower-power CMOS-based parity solutions for improved thermal resilience.
What design-in challenges arise from the MC10H160FN's lack of output drive current specs in the data
The absence of defined output high/low current specs for the MC10H160FN complicates load interfacing and termination planning in high-speed ECL bus designs. Without clear drive strength, designers risk unterminated stubs, reflections, or excessive loading on daisy-chained lines. Assume conservative current sourcing based on typical ECL output stages (≈20–30mA into 50Ω termination) and simulate signal integrity with IBIS models if available. Use controlled impedance traces, proper AC-coupled termination, and verify waveform integrity with oscilloscope probing at system edges to prevent timing errors or crosstalk in high-density layouts.
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Sep 15 2026
