Altera

5M80ZM64C5N - 64-Macrocell CPLD, 7.5 ns, 64-MBGA | Altera

Name: 5M80ZM64C5N - 64-Macrocell CPLD, 7.5 ns, 64-MBGA | Altera
Brand: Altera
SKU: 5M80ZM64C5N
Price: 1.6108 USD
Availability: InStock

Référence : 5M80ZM64C5N ✓ Actif

En stock Expédié sous 1 à 3 jours ouvrés

64-MBGA Package 118.3 MHz Speed

À partir de $1.6108 USD / unité

MOQ : 1 |

Prix mis à jour : 2026-09-06

Tarifs dégressifs

Qté	Prix unitaire	Total
1	$2.0122	$2,01
10	$1.9116	$19,12
100	$1.8109	$181,09
500	$1.7104	$855,20
1 000	$1.6108	$1 610,80

ℹ️ Tous les prix sont en USD

Voir la fiche technique (PDF) Voir les alternatives

Quantité

5M80ZM64C5N Présentation

Altera 5M80ZM64C5N is a non-volatile MAX V complex programmable logic device containing 64 macrocells, offering a 7.5 ns propagation-delay grade and up to 30 user I/Os in a 64-ball MBGA package. The verified listing identifies the device as IC CPLD 64MC 7.5NS 64MBGA and reports a maximum internal clock frequency of 118.3 MHz. These headline values position the part as a compact, non-volatile platform for glue logic, bus decoding, interface bridging, and control sequencing.

A CPLD, or complex programmable logic device, is a digitally configured semiconductor that combines programmable logic blocks, a switch matrix, and non-volatile configuration memory. Within the programmable-logic hierarchy, a CPLD sits between small discrete logic devices and larger FPGAs. It generally provides predictable timing and instant-on configuration, making it useful where board-level logic must be available immediately after power-up without an external configuration memory.

The 5M80ZM64C5N provides 64 macrocells and 30 user I/Os, with 7.5 ns logic timing and a listed 118.3 MHz internal frequency. Its non-volatile MAX V architecture retains programmed logic when power is removed. The 64-MBGA package conserves board area, but the fine-pitch BGA land pattern requires exact footprint, stencil, assembly, and inspection control. Device density and package resources should be validated against the target I/O count, logic utilization, and timing constraints.

For engineering analysis, the key trade-off is architecture capacity versus deterministic deployment. Unlike a configuration-memory-based FPGA flow, a CPLD typically powers up with its programmed interconnect active and does not need a separate boot flash. This simplifies control and interface circuits, although the 64-macrocell capacity is much smaller than that of a modern FPGA. Designers should reserve pins for required power, configuration, clock, and JTAG functions rather than assuming every package terminal is a general-purpose user I/O.

Typical applications include industrial control, point-of-sale equipment, communications infrastructure, instrumentation, and legacy digital-system refreshes. The device can implement decode, qualification, state-machine, and bus-interface logic. Its non-volatile operation is especially useful in systems that require immediate logic availability after reset or controlled deterministic startup behavior.

Before layout, verify the complete 64-ball pin assignment, supported I/O standards, supply requirements, and timing specifications in the manufacturer datasheet. A successful design also requires conservative state-machine timing, clean clock distribution, and review of unused-ball connections. This page consolidates verified sourcing details, package and pinout limits, and cross-reference constraints to support procurement and engineering review.

Alternatives de remplacement direct pour 5M80ZM64C5N — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Variantes de cette série

Modèles de la même série directement compatibles avec 5M80ZM64C5N (même facteur de forme et même empreinte) — différant par Package, Configuration Memory, Operating Temperature, Programming Interface, RoHS Status.

5M40ZM64C5N

Altera

Package: 64-ball MBGA, 5 mm × 5 mm

Programming Interface: JTAG (IEEE 1149.1) ISP

RoHS Status: Compliant

Comparer avec 5M80ZM64C5N →

5M40ZM64I5N

Intel

Package: MBGA-64, 4.50 x 4.50 mm, 0.50 mm pitch

Operating Temperature: -40C to +100C (industrial)

Programming Interface: JTAG IEEE 1149.1 (in-system programmable)

Comparer avec 5M80ZM64C5N →

5M80ZM64A5N

Intel

Package: 64-ball Micro FBGA (MBGA)

Operating Temperature: -40 C to +105 C

RoHS Status: Compliant

Comparer avec 5M80ZM64C5N →

5M80ZM64C4N

Intel

Package: 64-ball MBGA (Micro FBGA), 4.5 mm × 4.5 mm, 0.5 mm pitch

Configuration Memory: Non-volatile on-chip flash

Programming Interface: JTAG (IEEE 1149.1) / ISP

Comparer avec 5M80ZM64C5N →

5M80ZM64I5N

Intel

Configuration Memory: On-chip non-volatile Flash (8 Kbit user flash)

RoHS Status: Compliant

Comparer avec 5M80ZM64C5N →

✅ Remplacement direct

📦 64-MBGA

larger 160-macrocell resource class; capacity is 96 macrocells above the target

📋 Alternative de référence (hors catalogue)

5M80ZM64C5N Valeurs maximales et caractéristiques électriques

Device Type	CPLD (Complex Programmable Logic Device)
Architecture Family	MAX V
Macrocell Count	64 macrocells
Propagation Delay	7.5 ns
Maximum Internal Frequency	118.3 MHz
User I/O Count	30 I/Os
Programmable Logic Type	FLASH
Technology	CMOS
Boîtier	64-MBGA
Package Pin Count	64 pins
Statut RoHS	unknown
REACH Status	unknown
AEC-Q100 Qualification	unknown
Lead-Free Status	unknown
Halogen-Free Status	unknown

Configuration des broches de 5M80ZM64C5N

Broche 1	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 2	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 3	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 4	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 5	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 6	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 7	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 8	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 9	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 10	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 11	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 12	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 13	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 14	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 15	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 16	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 17	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 18	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 19	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 20	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 21	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 22	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 23	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 24	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 25	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 26	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 27	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 28	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 29	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 30	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 31	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 32	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 33	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 34	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 35	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 36	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 37	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 38	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 39	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 40	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 41	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 42	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 43	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 44	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 45	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 46	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 47	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 48	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 49	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 50	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 51	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 52	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 53	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 54	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 55	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 56	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 57	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 58	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 59	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 60	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 61	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 62	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 63	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data
Broche 64	[DATA_NEEDED: ball name] — Pin name not provided in the verified web data

Applications typiques

5M80ZM64C5N convient pour 6 applications: Industrial Control Logic, Address Decoding and Bus Interface, Communications Equipment Control, Instrumentation and Data Acquisition, Point-of-Sale and Embedded Controllers, Legacy Digital-System Replacement.

🏭

Industrial Control Logic

The 5M80ZM64C5N fits industrial control designs requiring compact non-volatile glue logic rather than a high-density programmable fabric. Its 64 macrocells can implement sensor qualification, sequencing, alarm handling, and deterministic state-machine functions, while 30 user I/Os provide a practical interface boundary for control boards. A 7.5 ns propagation-delay grade and 118.3 MHz listed internal frequency support carefully constrained synchronous logic. The MAX V architecture avoids an external configuration flash in many control applications, simplifying reset behavior. Designers must confirm voltage, temperature, and I/O-standard requirements because those values are not present in the supplied data.

Recommandé

🔧

Address Decoding and Bus Interface

The 5M80ZM64C5N is well suited to address decoding, chip-select generation, wait-state insertion, and bus-interface glue logic. Its 64 macrocells provide enough programmable capacity for moderately complex decode trees and control equations, and the 30 user I/Os support multiple peripheral or memory-control signals. The listed 7.5 ns delay grade can be used in timing budgets after adding routing, setup, and I/O constraints. Because the device uses flash-based non-volatile configuration, programmed decode behavior can be available immediately after power-up. Validate the 64-MBGA ball map and electrical levels against the bus implementation before layout.

Recommandé

5M80ZE64C5N · Intel 5M40ZM64C5N · Altera

🌐

Communications Equipment Control

The 5M80ZM64C5N can serve as control and interface glue in communications equipment where moderate logic density and non-volatile behavior are valuable. The 64-macrocell device can implement status aggregation, protocol qualifiers, reset sequencing, and line-card control functions, while 30 user I/Os accommodate supervisory and management signals. Its 118.3 MHz listed internal frequency is relevant to fast synchronous control paths, but actual performance depends on routing and implementation. The 64-MBGA format minimizes package area but increases assembly and inspection demands. Confirm supported I/O standards, supply limits, and timing derating in the manufacturer datasheet before production release.

Recommandé

5M80ZM64C4N · Intel 5M160ZM68C5N · Altera

📏

Instrumentation and Data Acquisition

The 5M80ZM64C5N can provide deterministic control, trigger qualification, range selection, and data-path management in compact instrumentation. Its 64 macrocells support state machines and logic around converters, sensors, or measurement interfaces, while the 30 user I/Os allow multiple supervisory signals to be consolidated. The 7.5 ns speed grade and 118.3 MHz listed internal frequency help with tightly constrained control logic, although analog noise and grounding remain board-level concerns. The non-volatile MAX V architecture can simplify repeatable startup behavior. Since the supplied data does not verify voltage, I/O standards, or temperature range, use the official datasheet for electrical and environmental sign-off.

Recommandé

5M570ZM100C5N · Altera 5M40ZM64C5N · Altera

🖥️

Point-of-Sale and Embedded Controllers

The 5M80ZM64C5N is appropriate for embedded controllers that need reliable non-volatile glue logic in a small package. It can coordinate keypad scanning, peripheral chip selects, transaction-state sequencing, power-up control, and legacy interface adaptation. The 64-macrocell capacity and 30 user I/Os are suitable for moderate control workloads without the power and complexity of a larger FPGA. The 7.5 ns delay grade supports constrained timing paths, while 118.3 MHz listed internal frequency provides a speed indicator for synchronous design. Check the device's exact supply, temperature, and supported I/O requirements before using it in a commercial embedded product.

Recommandé

5M80ZM64A5N · Intel 5M40ZE64C5N · Altera

🔄

Legacy Digital-System Replacement

The 5M80ZM64C5N can replace or consolidate discrete logic in legacy digital systems when the required logic fits 64 macrocells and 30 user I/Os. Its flash-based programmable architecture allows fixed control functions to be implemented without recurring discrete-component changes, while the non-volatile configuration helps preserve behavior through power cycles. The 7.5 ns propagation-delay grade and 118.3 MHz listed internal frequency should be compared with the original timing margins. The 64-MBGA package may be advantageous for area reduction but can require a new PCB footprint if the legacy design used a different package. Review the complete pinout and configuration requirements before replacement.

Recommandé

5M80ZM64C4N · Intel 5M160ZM64C5N (Higher-density Altera logic option when design growth is expected)

Récapitulatif des produits recommandés

5M80ZM64C4N Intel Utilisé dans : Industrial Control Logic, Communications Equipment Control, Legacy Digital-System Replacement 5M570ZT144C5N Altera Utilisé dans : Industrial Control Logic 5M80ZE64C5N Intel Utilisé dans : Address Decoding and Bus Interface 5M40ZM64C5N Altera Utilisé dans : Address Decoding and Bus Interface, Instrumentation and Data Acquisition 5M160ZM68C5N Altera Utilisé dans : Communications Equipment Control 5M570ZM100C5N Altera Utilisé dans : Instrumentation and Data Acquisition 5M80ZM64A5N Intel Utilisé dans : Point-of-Sale and Embedded Controllers 5M40ZE64C5N Altera Utilisé dans : Point-of-Sale and Embedded Controllers 5M160ZM64C5N Higher-density Altera logic option when design growth is expected Utilisé dans : Legacy Digital-System Replacement

What are the key specifications of 5M80ZM64C5N that engineers should know?

The 5M80ZM64C5N is a 64-macrocell MAX V CPLD with a 7.5 ns propagation-delay grade, up to 30 user I/Os, and a listed maximum internal frequency of 118.3 MHz. It is supplied in a 64-ball MBGA package. According to the manufacturer datasheet, these parameters define the core density, logic timing, interface capacity, and board footprint. Engineers should also verify supply voltage, supported I/O standards, and the complete ball map before beginning schematic capture.

What is 5M80ZM64C5N?

The 5M80ZM64C5N is a non-volatile Altera MAX V complex programmable logic device with 64 macrocells. It combines programmable logic with flash-based configuration storage, allowing programmed logic to remain available after power is removed. According to the manufacturer datasheet, the device is offered in a 64-MBGA package and is suitable for compact control, decode, and interface functions requiring 30 user I/Os or fewer.

How many macrocells and user I/Os does 5M80ZM64C5N have?

The 5M80ZM64C5N contains 64 macrocells and provides 30 user I/Os. The macrocell count represents the device's programmable logic capacity, while the I/O count limits the number of package balls that can be assigned to external signals after power, clock, configuration, and dedicated functions are reserved. According to the manufacturer datasheet, the listed resource total should be checked against synthesized utilization and pin assignment.

What is the propagation delay and internal frequency of 5M80ZM64C5N?

The 5M80ZM64C5N has a listed propagation delay of 7.5 ns and a maximum internal frequency of 118.3 MHz. These values indicate the speed grade available to the logic designer, but system timing must still be calculated from the selected design, clock constraints, interconnect, and I/O timing. According to the manufacturer datasheet, the speed grade is a key criterion when implementing state machines, decoders, or synchronous control logic.

Where can I download the 5M80ZM64C5N datasheet PDF?

The 5M80ZM64C5N datasheet PDF is available from the manufacturer datasheet listing at https://www.alldatasheet.net/datasheet-pdf/pdf/1970049/ALTERA/5M80ZM64C5N.html. The verified source identifies it as MAX V device documentation and reports 72 pages, although the page count belongs to the retrieved source listing and should not be treated as a substitute for current manufacturer revision control. Use the official device handbook for design sign-off.

Where is the 5M80ZM64C5N pinout located?

The 5M80ZM64C5N pinout is contained in the package diagrams and device documentation for its 64-MBGA package. The package uses BGA ball numbering rather than the perimeter numbering commonly seen on leaded packages, so every ball must be assigned from the official diagram. According to the manufacturer datasheet, confirm power, clock, configuration, JTAG, user I/O, and NC balls before schematic and PCB implementation.

Can 5M80ZE64C5N replace 5M80ZM64C5N directly?

The 5M80ZE64C5N is not confirmed as a drop-in replacement for the 5M80ZM64C5N. The available cross-reference search identifies 5M80ZE64C5N separately as a 14 ns, 64-cell flash PLD in a 64-pin PQFP package, whereas the target is listed as a 7.5 ns, 64-macrocell device in a 64-MBGA package. The package and timing differences require PCB and timing validation; no replacement is recommended without complete ball-map and design-rule verification.

Is 5M80ZM64C5N the same as 5M80ZM64C4N?

No. 5M80ZM64C5N and 5M80ZM64C4N are different ordering grades, with the target identified as the 7.5 ns version and 5M80ZM64C4N indicating an alternate speed grade. The supplied data does not provide a verified pinout, timing table, or package comparison for the C4N variant. Treat it as a candidate for engineering review, not as an automatic drop-in replacement, until the manufacturer ordering information and full specifications are confirmed.

When should I choose 5M80ZM64C5N over a larger FPGA?

Choose 5M80ZM64C5N when the design needs moderate programmable glue logic, non-volatile configuration, compact board area, and a limited number of I/Os. Its 64 macrocells and 30 user I/Os are appropriate for decode, qualification, state-machine, and interface-control functions, but a larger FPGA is preferable for high logic density, large memory blocks, high-speed transceivers, or complex processing. According to the manufacturer datasheet, the CPLD architecture emphasizes compact, non-volatile logic integration.

Is 5M80ZM64C5N suitable for industrial control and automation?

Yes, 5M80ZM64C5N can be suitable for industrial control and automation functions that fit within 64 macrocells and 30 user I/Os. Typical uses include sensor qualification, machine-state sequencing, address decoding, protocol glue logic, and deterministic control interlocks. The available data does not state an operating temperature range, voltage, or industrial qualification, so those requirements must be verified from the current manufacturer documentation before deployment.

How should 5M80ZM64C5N be powered and decoupled?

Power 5M80ZM64C5N only after confirming the exact supply-voltage requirements in the manufacturer datasheet; the supplied web data does not provide a verified voltage value. Follow the datasheet's recommended decoupling scheme, place capacitors close to the relevant power balls, and provide a low-impedance ground return. The 64-MBGA package requires careful plane and via placement, so decoupling and power integrity should be reviewed as part of the PCB layout.

What is the best Intel or Altera equivalent for 5M80ZM64C5N?

The supplied cross-reference data does not identify a verified Intel or Altera drop-in equivalent for 5M80ZM64C5N. 5M80ZE64C5N appears in the search results, but it is listed as a 14 ns, 64-cell flash PLD in a 64-pin PQFP package, not the target's 7.5 ns 64-macrocell 64-MBGA device. Because footprint, speed, and device resources are not confirmed identical, it must not be used as a drop-in substitute without manufacturer validation.

Where can I buy 5M80ZM64C5N and what is the unit price?

5M80ZM64C5N is listed for order through DigiKey and other distributor channels, with a verified unit price of $2.0122 from the supplied Heisener result as of 2026-09-06. The same result reports in stock, but distributor inventory can change rapidly. Check the current quantity, authorized-channel status, and quotation before placing a purchase order. The price shown is a market listing, not a guaranteed future price.

What is the lead time for 5M80ZM64C5N?

The supplied Heisener listing reports a lead time to be confirmed and an estimated delivery window of August 11 through August 16, with expedited shipping available. Because the search data was retrieved on 2026-09-06, that historical delivery window should not be used as a current promise. Request a live quotation and confirm the shipment date with the selected distributor before committing to a production schedule.

Données de référence d'ingénierie pour 5M80ZM64C5N — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose 5M80ZM64C5N when the design needs a compact, non-volatile CPLD for moderate glue-logic workloads, with 64 macrocells, 30 user I/Os, and a 7.5 ns speed grade. It is a strong fit for address decoding, sequencing, interface qualification, and legacy-logic consolidation where a larger FPGA would be unnecessary. Select 5M40ZM64C5N when the design is smaller and can operate within 40 macrocells; its lower density can reduce unused capacity. Consider 5M160ZM64C5N when future logic growth is expected and the larger 160-macrocell device remains within the 64-MBGA family. Treat 5M80ZM64C4N and 5M80ZM64A5N as ordering-grade candidates only after the complete ordering table and timing data are confirmed. Never select 5M80ZE64C5N as a drop-in replacement because the supplied data describes a 64-pin PQFP package and 14 ns timing, not the target's 64-MBGA package and 7.5 ns grade.

Comparaison avec les alternatives

Paramètre	Ce produit	5M80ZM64C4N	5M80ZM64A5N	5M40ZM64C5N	5M40ZM64I5N	5M160ZM64C5N
Package	64-MBGA	64-MBGA	64-MBGA	64-MBGA	64-MBGA	64-MBGA
Brand	Altera	Altera	Altera	Altera	Altera	Altera
Device Technology	CMOS, flash-based programmable logic	MAX V family	MAX V family	MAX V family	MAX V family	MAX V family
Package Compatibility	64-MBGA	same package family; pin-level data needed	same package family; pin-level data needed	same package family; pin-level data needed	same package family; pin-level data needed	same package family; pin-level data needed

Principaux différenciateurs

64 macrocells in a compact 64-MBGA package (vs 5M40ZM64C5N)
7.5 ns speed grade (vs 5M80ZE64C5N)
30 user I/Os (vs 5M40ZM64I5N)

Notes de conception

The 64-MBGA package requires a controlled BGA footprint and assembly process. Use the manufacturer-recommended land pattern rather than deriving dimensions from the package outline, and verify pad diameter, solder-mask openings, paste reduction, and via-in-pad policy with the assembly house. Route escape traces on the correct layers, maintain via annular rings, and confirm that the selected stencil supports the fine-pitch BGA ball array without solder bridging.

Treat the 7.5 ns propagation-delay grade and 118.3 MHz listed internal frequency as starting constraints, not guaranteed system performance. Add clock-to-output, setup, hold, routing, and I/O timing values from the manufacturer datasheet, then apply timing constraints in the design tool. Keep clock trees short, avoid congested high-speed routes, and simulate worst-case PVT conditions before release. The supplied web data does not include I/O timing tables or electrical limits.

Confirm the exact supply voltage and power-pin assignment in the manufacturer datasheet before schematic capture because those values are absent from the verified web data. Place the required local decoupling capacitors adjacent to the corresponding power balls, use a continuous reference-plane connection, and estimate regulator current from the design's expected toggle rate and I/O loading. Do not populate the board or apply power until the voltage and sequencing requirements are confirmed.

Informations de conformité

RoHS

Unknown

REACH

Unknown

AEC-Q100

Unknown

Sans plomb

Unknown

Sans halogène

Unknown

Minerais de conflit

Unknown

The verified web data does not provide RoHS, REACH, AEC-Q100, lead-free, halogen-free, or conflict-minerals declarations.

Données vérifiées le : 2026-09-06 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Sources : Distributor, Distributor, Distributor, Octopart, Manufacturer Datasheet, Manufacturer Datasheet, Manufacturer Datasheet, Distributor, Distributor, Manufacturer Datasheet

Recherches associées

5M80ZM64C5N datasheet 5M80ZM64C5N price 5M80ZM64C5N pinout 5M80ZM64C5N 64 macrocell CPLD 5M80ZM64C5N 7.5 ns 5M80ZM64C5N 64-MBGA 5M80ZM64C5N vs 5M40ZM64C5N 5M80ZM64C5N vs 5M80ZE64C5N 5M80ZM64C5N drop-in replacement Altera MAX V CPLD for industrial control Where to buy 5M80ZM64C5N Is 5M80ZM64C5N the same as 5M80ZM64C4N

Composants & termes associés

Altera 5M80ZM64C5N 5M80ZM64C4N 5M80ZM64A5N 5M40ZM64C5N 5M40ZM64I5N 5M160ZM64C5N 5M80ZE64C5N CPLD complex programmable logic device MAX V flash-based programmable logic programmable logic macrocell propagation delay internal clock frequency 64-MBGA MBGA package surface-mount BGA industrial control address decoding bus interface instrumentation non-volatile configuration