ADSP-1410KD - 16-Bit Bit-Slice Processor | Analog Devices
Référence : ADSP-1410KD ✓ Actif| Qté | Prix unitaire | Total |
|---|---|---|
| 1 | $0 | $0,00 |
| 10 | $0 | $0,00 |
| 100 | $0 | $0,00 |
| 500 | $0 | $0,00 |
| 1 000 | $0 | $0,00 |
ADSP-1410KD Présentation
A bit-slice processor is a specialized microprocessor architecture in which functional units operate on selected portions of a wider machine word. The ADSP-1410KD belongs to the broader processor hierarchy that includes microprogram sequencers, digital signal processors, and general-purpose microprocessors. Its primary role is to sequence operations and generate addresses rather than provide the general-purpose compute throughput of a modern CPU.
The ADSP-1410KD uses a 5 V power supply and is specified for a maximum supply current of 75 mA. Its 16-bit external data bus provides the principal data path for the surrounding system, while the 48-terminal package supports the address, control, data, and programming signals required by this legacy processor architecture. The KD suffix identifies the ceramic side-brazed DIP package option described by the verified distributor data.
The device is particularly suited to applications requiring deterministic microprogrammed sequencing, including FFT and DSP address sequencing, communications control, and specialized instrumentation. Because it is a legacy bit-slice processor, new designs should confirm availability, software support, and system-level interoperability before committing to it.
Design work should preserve the required clocking, address sequencing, and bus timing conventions of the original architecture. Power and signal-integrity planning should also account for the 5 V supply requirement and the through-hole ceramic package. The original manufacturer documentation should be consulted for complete timing, pin-level, and programming details.
This product page combines the verified ADSP-1410KD specifications, package information, sourcing links, and practical selection guidance for engineers evaluating this specialized processor in legacy or maintenance-oriented systems.
Alternatives de remplacement direct pour ADSP-1410KD — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.
Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :
Aucune alternative de remplacement direct disponible pour ce produit.
Demander des alternativesADSP-1410KD Valeurs maximales et caractéristiques électriques
| Processor Type | Bit-Slice Processor / Microprogram Sequencer |
| External Data Bus Width | 16 bit |
| Fréquence d'horloge maximale | 11.11 MHz |
| Tension d'alimentation | 5 V |
| Maximum Supply Current | 75 mA |
| Address Generation | Word-Slice Address Generator |
| Package Type | 48-pin CDIP, side-brazed ceramic DIP |
| Number of Terminals | 48 |
| Type de montage | Through-Hole |
| Package Shape | Rectangular |
| Temperature Grade | Commercial |
| Terminal Form | Through-Hole |
| Primary Application | FFT and DSP Address Sequencing |
| Statut RoHS | unknown |
| REACH Status | unknown |
| AEC-Q100 Qualification | not_applicable |
Guide de configuration des broches du ADSP-1410KD rectangular
Configuration des broches du ADSP-1410KD (boîtier rectangular). Ce circuit intégré numérique comprend des GPIO, des interfaces de communication (UART, SPI, I2C) et des broches d'alimentation. Consultez la fiche technique du fabricant pour les fonctions alternatives des broches et les options de configuration. Indispensable pour la conception de systèmes embarqués et la conception de circuits imprimés.
Aucune donnée de brochage détaillée disponible pour ADSP-1410KD.
Consultez la fiche technique pour la configuration complète des broches.
Applications typiques
ADSP-1410KD convient pour 6 applications: FFT Address Sequencing, Digital Signal Processor Control, Communications Address Control, Specialized Instrumentation Control, Legacy Signal-Processing Module, Industrial Data Acquisition and Control.
FFT Address Sequencing
The ADSP-1410KD fits legacy FFT systems that require deterministic word-address sequencing alongside a dedicated digital processing engine. Its verified 16-bit external data bus and 11.11 MHz maximum clock provide a defined data path and sequencing cadence, while its microprogram sequencer role supports repeatable control of address generation. The 5 V supply matches the verified operating requirement, but the original timing and microcode must be preserved. A modern DSP can offer greater throughput, yet replacing the ADSP-1410KD would require a different package and a redesign of the bus, address sequence, and software-control architecture.
Digital Signal Processor Control
ADSP-1410KD is appropriate for a legacy DSP subsystem in which the processor coordinates word-address movement, sequencing, and control traffic rather than executing the complete arithmetic workload. Its 11.11 MHz maximum clock and 16-bit external data bus are the principal verified constraints for synchronous memory and peripheral interfaces. The commercial-grade, 48-pin ceramic DIP package supports through-hole backplane or industrial-style assemblies. Before reuse, engineers should validate bus timing, address-generation behavior, and any undocumented constraints using the original manufacturer documentation.
Communications Address Control
ADSP-1410KD can support specialized communications equipment where microprogrammed address sequencing is required for buffers, memory regions, or data movement. The 16-bit bus allows it to operate with legacy 16-bit datapaths, and the 11.11 MHz maximum clock defines the upper clock point used for interface design. The part is best suited to maintenance and expansion of existing installations rather than new network infrastructure. A modern communications processor or FPGA could provide more resources, but it would not be a drop-in substitute because the voltage, bus, clocking, package, and control programming would need re-engineering.
Specialized Instrumentation Control
ADSP-1410KD is usable as a sequencing controller in legacy measurement or instrumentation equipment, especially where deterministic access ordering and a 16-bit external data path are already established. Its 5 V operation and 75 mA maximum supply current provide clear power-design targets, while the 48-terminal ceramic DIP is suitable for through-hole assembly. The key design obligation is to reproduce the original address and control timing exactly, including any bus turnaround or sequencing constraints. For new instruments, an MCU or DSP may be more economical, but replacing this IC involves a full interface and firmware migration.
Legacy Signal-Processing Module
ADSP-1410KD fits a legacy signal-processing module that needs a dedicated microprogram sequencer for repeatable data addressing and control. The verified maximum clock of 11.11 MHz and 16-bit external data bus allow engineers to reason about processor-to-memory bandwidth at the module boundary, while the microprogram architecture remains appropriate for deterministic control sequences. Because the device is a legacy bit-slice processor, preservation of the original system is generally safer than a component substitution. Any migration to an FPGA or modern DSP must include full timing, bus, address-map, and microcode equivalence testing.
Industrial Data Acquisition and Control
ADSP-1410KD may be used in an industrial data-acquisition or machine-control subsystem that retains a 16-bit data bus and requires deterministic sequencing of acquisition memory. Its commercial temperature grade and 5 V supply fit many legacy industrial installations, and the through-hole CDIP package is mechanically useful for repair and prototype assembly. The 11.11 MHz maximum clock remains the key timing limit for external memories and control logic. If a modern controller is selected instead, engineers should treat it as a redesign because no validated pin-compatible replacement was identified.
Données de référence d'ingénierie pour ADSP-1410KD — comparaison, recommandations de conception et informations de conformité.
Guide de sélection
Notes de conception
Do not substitute the ADSP-1410KD solely because another ADSP-1410 suffix has a similar description. The supplied evidence identifies KD as a 48-pin commercial-grade side-brazed ceramic DIP but does not establish that ADSP-1410JD is pin-, timing-, or grade-compatible. Confirm the package drawing, electrical limits, temperature grade, and microprogram behavior against the original manufacturer documentation before approving a replacement.
Design the legacy processor rail for a nominal 5 V supply and verify operation against the verified maximum supply current of 75 mA. Place suitable bypass capacitance at the power pins using the values and placement rules in the original reference circuitry. Treat 75 mA as a maximum specification rather than a design target, and include additional margin for input current, supply tolerance, temperature, and nearby legacy logic loads.
Preserve the original bus topology and termination strategy because the ADSP-1410KD provides a 16-bit external data bus and a maximum clock frequency of 11.11 MHz. When rebuilding a board, inspect the original layout for routing symmetry, bus-branch control, clock distribution, and any isolation or series termination. The public snippets do not provide the complete pinout or timing tables, so they cannot establish a safe substitute layout.
Use the confirmed 48-pin through-hole DIP footprint and check ceramic-package lead dimensions and row spacing against the original ADSP-1410KD drawing before fabrication. Account for the component height, socket or solder-joint access, and any heat-sinking requirements in legacy systems. Do not infer footprint compatibility from the general ADSP-1410 family name; the suffix and package drawing govern the mechanical design.
Informations de conformité
The verified web data does not state RoHS, REACH, lead-free, halogen-free, or conflict-minerals status. AEC-Q100 is not applicable because this is a legacy commercial-grade bit-slice processor rather than an automotive-qualified device.