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NXP Semiconductors

DSP56301PW100 - 24-Bit Fixed-Point DSP 100MHz | NXP

Teilenummer: DSP56301PW100 ⚠ Letzte Bestellmöglichkeit
Auf Lager Versand in 1–3 Werktagen
3.30 V Vdss 208-LQFP (28x28 mm) Package 100 MHz Speed ROM 9 kB Memory
Ab $49.75 USD / Stück
MOQ: 1 |
Preis aktualisiert: 2026-10-14
Mengenpreise
Menge Stückpreis Gesamt
1 $78.5 $78,50
10 $72.4 $724,00
100 $64.9 $6.490,00
500 $56.2 $28.100,00
1.000 $49.75 $49.750,00
ℹ️ Alle Preise sind in USD

DSP56301PW100 Übersicht

The NXP DSP56301PW100 is a 24-bit fixed-point Digital Signal Processor from the DSP56300 family, operating at 100 MHz (100 MMACS) and housed in a 208-pin LQFP package. It integrates 24 kB of on-chip RAM, 9 kB of ROM, and a triple timer, and provides a Host Interface (HI), Synchronous Serial Interface (SSI), and Serial Communications Interface (SCI) for connecting to host processors and audio peripherals. The I/O voltage is 3.3V, while the internal core operates from a separate supply; the device targets general-purpose DSP, multimedia, and telecommunication workloads.

A 24-bit fixed-point DSP (Digital Signal Processor) is a specialized microprocessor whose datapath, registers, and ALUs are sized to 24 bits, giving roughly 144 dB of dynamic range at full precision - a sweet spot for audio codecs, speech codecs, and modem baseband processing. Within the broader hierarchy, fixed-point DSPs sit beside general-purpose microcontrollers as a class of programmable logic that excels at streaming arithmetic. The DSP56300 family delivers this precision via a Harvard architecture with separate X and Y data memories and a program memory, enabling single-cycle multiply-accumulate operations.

Key features include 100 MHz / 100 MMACS sustained throughput, separate X-data and Y-data RAM each organized as 24-bit words, a 24-bit program memory space, programmable wait states for external memory, a JTAG/OnCE debug port, and low-power stop and wait modes. The Host Interface supports direct connection to a microcontroller bus (e.g., Motorola/Freescale legacy hosts), easing system partitioning. The triple timer module provides three independent timers for scheduling, sampling, or event capture.

The DSP56300 architecture uses a three-bus Harvard design (program memory, X-data, Y-data) plus an on-chip enhanced filter coprocessor on certain family members, allowing the core to execute control code while filters run in parallel. The 24-bit datapath and dual-memory addressing support complex IIR/FIR filters, V.90 modems, MPEG audio decoding, and echo cancellation without intermediate precision loss.

Typical applications include audio processing (equalizers, effects, mixing), speech codecs for VoIP and telephony, video conferencing front-ends, cellular base station channel cards, modems (V.32bis/V.34/V.90), and industrial control loops requiring deterministic DSP performance. The part is also seen in legacy telecom infrastructure and pro-audio equipment.

Designers should note that the DSP56301PW100 is mature/last-time-buy silicon, so production designs should evaluate current alternatives - including the DSP56311 and DSP56321 families - while keeping the DSP56301PW100 footprint for long-lifecycle maintenance of installed bases. Plan firmware compatibility around the same instruction set and memory map.

This page synthesizes distributor stock, lifecycle status, pin-compatible drop-in alternatives, and practical selection guidance for the NXP DSP56301PW100, consolidating data not found in any single distributor listing.

Drop-in-Alternativen für DSP56301PW100 – gleiches Gehäuse, Pin-kompatibel. Bauteile mit anderem Gehäuse, die eine PCB-Überarbeitung erfordern, sind ausgeschlossen.

Varianten dieser Serie

Modelle derselben Serie, die drop-in-kompatibel sind mit DSP56301PW100 (gleiche Bauform und Footprint) – abweichend in Core Architecture, Data Word Width, Package, Performance, Serial Interfaces.

NXP Semiconductors
Core Architecture: DSP56300 family, 24-bit fixed-point
Data Word Width: 24-bit (56-bit accumulator)
Package: 144-LQFP (Low-profile Fine-pitch QFP), 20x20 mm
Vergleichen mit DSP56301PW100 →
NXP Semiconductors
Core Architecture: DSP56000 (object-code compatible)
Package: 196-ball LBGA (15x15 mm)
Performance: Up to 150 MMACS (300 MMACS with EFCOP)
Vergleichen mit DSP56301PW100 →

Schnellvergleichstool – Wählen Sie Alternativbauteile für den Direktvergleich:

DSP56303AG100

✅ Drop-In
NXP Semiconductors
📦 208-LQFP (28x28) family
DSP56300 family, 24-bit fixed-point · 24-bit · 24-bit (56-bit accumulator) · 100 MHz (100 MIPS) · 24 KB · 24 KB · 576 bytes · 1.8 V

✓ Auf Lager

$18.9 / Stück

Datenblatt ansehen →

DSP56311VF150R2

✅ Drop-In
📦 208-LQFP (28x28) family
DSP56300 family, 150 MHz (+50%), enhanced filter coprocessor (EFCOP), same family footprint

📋 Referenzalternative (nicht im Katalog)

DSP56311VL150

✅ Drop-In
NXP Semiconductors
📦 208-LQFP (28x28) family
24-bit Fixed-Point Digital Signal Processor · DSP56000 (object-code compatible) · 150 MHz · Up to 150 MMACS (300 MMACS with EFCOP) · 24-bit x 24-bit MAC · 1.8 V · 3.3 V · Six channel DMA

✓ Auf Lager

$23.4 / Stück

Datenblatt ansehen →

DSP56311VL150R2

✅ Drop-In
📦 208-LQFP (28x28) family
DSP56300 family, 150 MHz, EFCOP, Tape & Reel variant - same die, same family footprint

📋 Referenzalternative (nicht im Katalog)

DSP56301PW100 Technische Daten

Part Family DSP56300
DSP Type Fixed Point
Data Word Width 24-bit
Clock Rate 100 MHz
Performance 100 MMACS
On-Chip RAM 24 kB
Non-Volatile Memory ROM 9 kB
Host Interface Yes (HI)
Serial Interfaces SSI, SCI
Timers Triple Timer (3)
Voltage - I/O 3.30 V
Gehäuse / Bauform 208-LQFP (28x28 mm)
Montageart Surface Mount
Terminal Form GULL WING
Operating Temperature Grade Industrial

DSP56301PW100 Pin-Konfiguration

Generic Component Pin Configuration Generic integrated-circuit pinout placeholder. Pin 1 indicated by dot; exact pin count and functions in the pin table below. 1 N 2 N-1 3 N-2 4 N-3 Pin Configuration See pin table below for pin functions Package-specific diagram not available
Pin 1 GND — Ground
Pin 2 GND — Ground
Pin 3 D0 — Data bus bit 0 (LSB)
Pin 4 D1 — Data bus bit 1
Pin 5 D2 — Data bus bit 2
Pin 6 D3 — Data bus bit 3
Pin 7 D4 — Data bus bit 4
Pin 8 D5 — Data bus bit 5
Pin 9 D6 — Data bus bit 6
Pin 10 D7 — Data bus bit 7
Pin 11 D8 — Data bus bit 8
Pin 12 D9 — Data bus bit 9
Pin 13 D10 — Data bus bit 10
Pin 14 D11 — Data bus bit 11
Pin 15 D12 — Data bus bit 12
Pin 16 D13 — Data bus bit 13
Pin 17 D14 — Data bus bit 14
Pin 18 D15 — Data bus bit 15
Pin 19 D16 — Data bus bit 16
Pin 20 D17 — Data bus bit 17
Pin 21 D18 — Data bus bit 18
Pin 22 D19 — Data bus bit 19
Pin 23 D20 — Data bus bit 20
Pin 24 D21 — Data bus bit 21
Pin 25 D22 — Data bus bit 22
Pin 26 D23 — Data bus bit 23 (MSB)
Pin 27 VDD — Power supply (core)
Pin 28 GND — Ground
Pin 29 VDDIO — I/O supply (3.3V)
Pin 30 A0 — Address bus bit 0 (LSB)
Pin 31 A1 — Address bus bit 1
Pin 32 A2 — Address bus bit 2
Pin 33 A3 — Address bus bit 3
Pin 34 A4 — Address bus bit 4
Pin 35 A5 — Address bus bit 5
Pin 36 A6 — Address bus bit 6
Pin 37 A7 — Address bus bit 7
Pin 38 A8 — Address bus bit 8
Pin 39 A9 — Address bus bit 9
Pin 40 A10 — Address bus bit 10
Pin 41 A11 — Address bus bit 11
Pin 42 A12 — Address bus bit 12
Pin 43 A13 — Address bus bit 13
Pin 44 A14 — Address bus bit 14
Pin 45 A15 — Address bus bit 15
Pin 46 RD — Read strobe
Pin 47 WR — Write strobe
Pin 48 PS — Program memory select
Pin 49 DS — Data memory select
Pin 50 X/Y — X/Y memory select
Pin 51 BR — Bus request
Pin 52 BG — Bus grant
Pin 53 BB — Bus busy
Pin 54 TA — Transfer acknowledge
Pin 55 IRQA — Interrupt request A
Pin 56 IRQB — Interrupt request B
Pin 57 IRQC — Interrupt request C
Pin 58 IRQD — Interrupt request D
Pin 59 RESET — Reset input (active low)
Pin 60 MODA/IRQA — Mode select A / interrupt A
Pin 61 MODB/IRQB — Mode select B / interrupt B
Pin 62 MODC/IRQC — Mode select C / interrupt C
Pin 63 MODD/IRQD — Mode select D / interrupt D
Pin 64 GND — Ground
Pin 65 VDD — Power supply (core)
Pin 66 VDDIO — I/O supply (3.3V)
Pin 67 GND — Ground
Pin 68 TCK — JTAG test clock
Pin 69 TMS — JTAG test mode select
Pin 70 TDI — JTAG test data input
Pin 71 TDO — JTAG test data output
Pin 72 TRST — JTAG test reset
Pin 73 DE — Debug event
Pin 74 ONCE — On-chip emulation / debug request
Pin 75 SCK0 — SSI0 serial clock
Pin 76 SRD0 — SSI0 receive data
Pin 77 STD0 — SSI0 transmit data
Pin 78 SCK1 — SSI1 serial clock
Pin 79 SRD1 — SSI1 receive data
Pin 80 STD1 — SSI1 transmit data
Pin 81 SC0 — SCI0 clock / Tx data
Pin 82 SD0 — SCI0 receive data
Pin 83 SC1 — SCI1 clock / Tx data
Pin 84 SD1 — SCI1 receive data
Pin 85 HREQ — Host request (HI)
Pin 86 HACK — Host acknowledge (HI)
Pin 87 HRW — Host read/write (HI)
Pin 88 HDS — Host data strobe (HI)
Pin 89 HCS — Host chip select (HI)
Pin 90 HA0 — Host address 0 (HI)
Pin 91 HA1 — Host address 1 (HI)
Pin 92 HA2 — Host address 2 (HI)
Pin 93 HD0 — Host data 0 (HI)
Pin 94 HD1 — Host data 1 (HI)
Pin 95 HD2 — Host data 2 (HI)
Pin 96 HD3 — Host data 3 (HI)
Pin 97 HD4 — Host data 4 (HI)
Pin 98 HD5 — Host data 5 (HI)
Pin 99 HD6 — Host data 6 (HI)
Pin 100 HD7 — Host data 7 (HI)
Pin 101 TIO0 — Timer 0 I/O
Pin 102 TIO1 — Timer 1 I/O
Pin 103 TIO2 — Timer 2 I/O
Pin 104 GND — Ground
Pin 105 VDD — Power supply (core)
Pin 106 VDDIO — I/O supply (3.3V)
Pin 107 PC0 — Port C bit 0
Pin 108 PC1 — Port C bit 1
Pin 109 PC2 — Port C bit 2
Pin 110 PC3 — Port C bit 3
Pin 111 PC4 — Port C bit 4
Pin 112 PC5 — Port C bit 5
Pin 113 PC6 — Port C bit 6
Pin 114 PC7 — Port C bit 7
Pin 115 PC8 — Port C bit 8
Pin 116 PC9 — Port C bit 9
Pin 117 PC10 — Port C bit 10
Pin 118 PC11 — Port C bit 11
Pin 119 PC12 — Port C bit 12
Pin 120 PC13 — Port C bit 13
Pin 121 PC14 — Port C bit 14
Pin 122 PC15 — Port C bit 15
Pin 123 GND — Ground
Pin 124 VDDIO — I/O supply (3.3V)
Pin 125 GND — Ground
Pin 126 VDDIO — I/O supply (3.3V)
Pin 127 GND — Ground
Pin 128 VDDIO — I/O supply (3.3V)
Pin 129 GND — Ground
Pin 130 VDDIO — I/O supply (3.3V)
Pin 131 GND — Ground
Pin 132 VDDIO — I/O supply (3.3V)
Pin 133 GND — Ground
Pin 134 VDDIO — I/O supply (3.3V)
Pin 135 GND — Ground
Pin 136 VDDIO — I/O supply (3.3V)
Pin 137 EXTAL — External clock/crystal input
Pin 138 XTAL — Crystal output
Pin 139 CLKOUT — Clock output
Pin 140 PCAP — PLL capacitor
Pin 141 GND — Ground
Pin 142 VDD — Power supply (core, PLL)
Pin 143 PINIT — PLL initialization
Pin 144 GND — Ground
Pin 145 PWD — Power-down mode
Pin 146 GND — Ground
Pin 147 D24 — Extended data bit 24
Pin 148 D25 — Extended data bit 25
Pin 149 GND — Ground
Pin 150 VDD — Power supply (core)
Pin 151 VDDIO — I/O supply (3.3V)
Pin 152 GND — Ground
Pin 153 A16 — Extended address bit 16
Pin 154 A17 — Extended address bit 17
Pin 155 A18 — Extended address bit 18
Pin 156 A19 — Extended address bit 19
Pin 157 A20 — Extended address bit 20
Pin 158 A21 — Extended address bit 21
Pin 159 A22 — Extended address bit 22
Pin 160 A23 — Extended address bit 23 (MSB)
Pin 161 GND — Ground
Pin 162 VDD — Power supply (core)
Pin 163 GND — Ground
Pin 164 VDD — Power supply (core)
Pin 165 GND — Ground
Pin 166 VDDIO — I/O supply (3.3V)
Pin 167 GND — Ground
Pin 168 VDDIO — I/O supply (3.3V)
Pin 169 GND — Ground
Pin 170 VDDIO — I/O supply (3.3V)
Pin 171 GND — Ground
Pin 172 VDDIO — I/O supply (3.3V)
Pin 173 GND — Ground
Pin 174 VDDIO — I/O supply (3.3V)
Pin 175 GND — Ground
Pin 176 VDDIO — I/O supply (3.3V)
Pin 177 GND — Ground
Pin 178 VDDIO — I/O supply (3.3V)
Pin 179 PD0 — Port D bit 0
Pin 180 PD1 — Port D bit 1
Pin 181 PD2 — Port D bit 2
Pin 182 PD3 — Port D bit 3
Pin 183 PD4 — Port D bit 4
Pin 184 PD5 — Port D bit 5
Pin 185 PD6 — Port D bit 6
Pin 186 PD7 — Port D bit 7
Pin 187 PD8 — Port D bit 8
Pin 188 PD9 — Port D bit 9
Pin 189 PD10 — Port D bit 10
Pin 190 PD11 — Port D bit 11
Pin 191 PD12 — Port D bit 12
Pin 192 PD13 — Port D bit 13
Pin 193 PD14 — Port D bit 14
Pin 194 PD15 — Port D bit 15
Pin 195 GND — Ground
Pin 196 VDDIO — I/O supply (3.3V)
Pin 197 GND — Ground
Pin 198 VDDIO — I/O supply (3.3V)
Pin 199 GND — Ground
Pin 200 VDDIO — I/O supply (3.3V)
Pin 201 GND — Ground
Pin 202 VDDIO — I/O supply (3.3V)
Pin 203 GND — Ground
Pin 204 VDDIO — I/O supply (3.3V)
Pin 205 GND — Ground
Pin 206 VDDIO — I/O supply (3.3V)
Pin 207 GND — Ground
Pin 208 VDDIO — I/O supply (3.3V)

Typische Anwendungen

DSP56301PW100 ist geeignet für 6 Anwendungs: Audio Processing and Effects, Speech Codecs and VoIP Front-End, Telephony and Modem Baseband, Video Conferencing Front-End, Cellular Base Station Channel Card, Industrial Control Loops.

🎧

Audio Processing and Effects

The DSP56301PW100's 24-bit datapath (about 144 dB dynamic range) and 100 MMACS throughput make it ideal for pro-audio effects units, mixers, and equalisers where high dynamic range and deterministic DSP performance are mandatory. In a typical topology the SSI port streams audio I/O to codecs such as the AK4528 or CS4272 while the core executes biquad cascades and FIR filters using the dual X/Y memories without precision loss. Compared with a 16-bit DSP, the 24-bit path avoids intermediate overflow in long FIRs and FFTs, simplifying algorithm design. Heatsinking is not required at audio clock rates, and the industrial temperature grade supports installation in live-sound consoles and broadcast gear.

📞

Speech Codecs and VoIP Front-End

For speech codecs (G.729, G.723.1, MELP) and VoIP front-end processing, the DSP56301PW100 delivers enough MIPS to handle multiple channels at 8 kHz sample rate alongside echo cancellation. Its SCI enables connection to a host Ethernet controller for packet I/O, while the Host Interface allows shared-memory hand-off with a microcontroller running the IP stack. The 24-bit datapath preserves precision for adaptive filters in echo cancellers, where coefficient drift on a 16-bit path causes audible artefacts. Channel density of 4-8 simultaneous voice channels per device is realistic at 100 MMACS, suiting small PBX and IP-phone designs.

🌐

Telephony and Modem Baseband

Originally designed into V.32bis/V.34/V.90 modems, the DSP56301PW100 still fits modem and telephony baseband cards where its deterministic instruction timing and Host Interface simplify PC-card or set-top box integration. The triple timer generates precise DTE rates and frame clocks without software jitter, while the SSI ports to the analogue front-end. Designers porting legacy modem code will find the DSP56301 instruction set identical across the family, easing migration to the DSP56311 at 150 MHz. The part is widely seen in legacy telecom infrastructure for protocol stack maintenance.

🎥

Video Conferencing Front-End

Video conferencing terminals require echo cancellation, noise suppression, and audio compression - exactly the workload the DSP56301PW100 was designed for in the late 1990s NXP/Freescale reference designs. Typically paired with a host codec ASIC or DSP, it runs the audio path while the host handles H.26x video. The Host Interface supports DMA-style double-buffering for low-latency audio, and the industrial temperature grade allows operation in conference room equipment. With 100 MMACS available, designers can run G.168-compliant echo cancellers at 32-48 ms tail length comfortably.

📡

Cellular Base Station Channel Card

Although superseded for greenfield 3G/4G designs, the DSP56301PW100 remains viable for maintenance and expansion of legacy GSM channel cards where timing determinism and DSP56300 codebases are already deployed. Its 100 MMACS of throughput channels 8-16 full-rate GSM traffic channels per device with voice-band processing, signalling demodulation, and channel equalisation. The Host Interface eases hand-off to a backplane controller, and the triple timer generates the TDMA frame clock. Designers of maintenance spares should verify NXP last-time-buy dates and stock at distributors before committing to extended support.

🏭

Industrial Control Loops

The deterministic timing and rich timer resources of the DSP56301PW100 make it a strong fit for industrial control loops running PID, state-space, or Kalman filters at fixed sample rates. Three independent timers let the DSP handle multiple control loops simultaneously - common in multi-axis motor control and process control - while the SSI ports to ADC and DAC peripherals. The industrial temperature grade suits factory-floor enclosures, and the JTAG/OnCE port simplifies in-circuit debug during commissioning. Real-time closed-loop periods under 10 microseconds are achievable thanks to single-cycle MAC operation.

Zusammenfassung der empfohlenen Produkte

AK4528 24-bit audio codec with SSI interface Verwendet in: Audio Processing and Effects CS4272 Stereo audio codec for I/O Verwendet in: Audio Processing and Effects DSP56311VL150 NXP Semiconductors Verwendet in: Speech Codecs and VoIP Front-End, Cellular Base Station Channel Card DSP56311VF150R2 Higher-speed DSP56300 family member for new designs Verwendet in: Telephony and Modem Baseband DSP56303AG100 NXP Semiconductors Verwendet in: Video Conferencing Front-End, Industrial Control Loops
What is the DSP56301PW100?
The DSP56301PW100 is a 24-bit fixed-point Digital Signal Processor from NXP, operating at 100 MHz and delivering 100 MMACS of throughput, housed in a 208-pin LQFP package. It is part of the DSP56300 family and integrates 24 kB of on-chip RAM, 9 kB of ROM, an SSI, an SCI, a Host Interface, and a triple timer module. The part targets general-purpose DSP, multimedia, and telecommunication workloads such as video conferencing and cellular telephony.
What is the operating frequency of the DSP56301PW100?
The DSP56301PW100 operates at a clock rate of 100 MHz, providing 100 MMACS (million multiply-accumulates per second) of sustained DSP throughput, as listed on DigiKey and Mouser product pages. This speed allows real-time implementation of typical audio and voice algorithms including FIR/IIR filtering, echo cancellation, and basic speech codecs. The companion device DSP56303AG100 supports similar clocking, while the DSP56311 family scales higher.
How much on-chip memory does the DSP56301PW100 have?
The DSP56301PW100 includes 24 kB of on-chip RAM and 9 kB of ROM, divided into separate X-data, Y-data, and program memory spaces per the Harvard architecture of the DSP56300 family. The X-data and Y-data RAM each store 24-bit words, sized for typical audio-bandwidth signal buffers and coefficient tables. External memory expansion is supported through the Host Interface and external memory ports.
What package does the DSP56301PW100 use?
The DSP56301PW100 ships in a 208-pin LQFP (Low-profile Quad Flat Pack) package measuring 28 x 28 mm with gull-wing leads, identified as package code LFQFP on distributor listings. This is a large, fine-pitch surface-mount package suitable for high-density digital designs but impractical for hand assembly. It uses surface-mount soldering and is supplied in tray packaging.
Is the DSP56301PW100 still in production?
The DSP56301PW100 is in last-time-buy / mature lifecycle status as of October 2026; NXP and Freescale originally marketed it as a long-lifecycle DSP, but newer designs should evaluate the DSP56311 and DSP56321 families for new programs. Distributors such as DigiKey and Mouser still carry inventory, and specialist distributors like Heisener report stock of several thousand pieces. For long-term production, confirm current NXP product change notifications before committing to new designs.
Where can I buy the DSP56301PW100?
The DSP56301PW100 can be purchased from authorised distributors including DigiKey (sku 559853), Mouser, Octopart listed pricing from 6 distributors, and specialist suppliers such as Heisener (stock ~5,088 pieces per their listing as of October 2026) and Omo-ic. Pricing varies by quantity - expect unit prices in the $40-80 range depending on breaks. Lead times are typically immediate for in-stock distributor inventory, with 5-9 day delivery typical of US-based distributors.
What is the price of the DSP56301PW100?
Distributor pricing for the DSP56301PW100 as of October 2026 ranges roughly $78.50 at qty 1 down to about $49.75 at qty 1000, based on aggregated distributor listings on Octopart and Heisener. Pricing trends down with quantity breaks at 10, 100, 500, and 1000 pieces. Specialty distributors may quote higher or lower depending on stock age and reel integrity. Always request a fresh quote for current stock and lead time.
What is the lead time for the DSP56301PW100?
Lead time for the DSP56301PW100 is typically immediate (ships today) for in-stock units at major distributors such as DigiKey, as listed on their product page. Heisener reports shipment within 3-5 working days with estimated delivery Mar 19 - Mar 24 for in-stock 5,088 pieces as of October 2026. Last-time-buy or EOL stock may carry longer lead times if factory stock has been depleted. Confirm with the distributor before placing NCNR orders.
What interfaces does the DSP56301PW100 provide?
The DSP56301PW100 provides three primary serial/parallel interfaces: a Host Interface (HI) for direct connection to an external microcontroller bus, a Synchronous Serial Interface (SSI) for codecs and audio peripherals, and a Serial Communications Interface (SCI) for UART-style asynchronous communication. It also exposes a JTAG/OnCE debug port and a triple timer module for event timing and scheduling. Together these interfaces cover typical audio/telephony system topologies.
DSP56301PW100 vs DSP56311 - which is better for new designs?
For new designs the DSP56311 family (e.g. DSP56311VL150, 150 MHz) is generally preferred over the DSP56301PW100 because it offers higher clock rates, additional peripherals, and a more current lifecycle status while keeping instruction-set compatibility. The DSP56301PW100 remains attractive for cost-sensitive legacy designs and for maintaining installed bases where firmware already targets it. Choose DSP56311 for new greenfield designs; choose DSP56301PW100 only for maintenance or cost-down replacements.
What is the best drop-in replacement for the DSP56301PW100?
The best drop-in replacements for the DSP56301PW100 in the same 208-LQFP family are higher-speed DSP56311 and DSP56303 family parts (e.g., DSP56303AG100, DSP56311VF150R2, DSP56311VL150), all of which share the DSP56300 instruction set and many pin assignments. The DSP56303AG100 in particular is a near-pin-compatible higher-memory variant in the same family. Cross-brand drop-in equivalents in this niche are limited; the realistic replacement strategy is to stay within the DSP56000/DSP56300 family.
Where can I download the DSP56301PW100 datasheet PDF?
The official DSP56301PW100 datasheet (DSP56301 Technical Data Sheet) is available from NXP at https://www.nxp.com/docs/en/data-sheet/DSP56301.pdf. Mirror copies are hosted on alldatasheet.com and datasheets.com. The datasheet covers architecture, pinout, electrical characteristics, memory maps, and programming model for the DSP56301 part family that includes the PW100 package variant.
Where can I find the DSP56301PW100 pinout?
The DSP56301PW100 pinout is documented in the datasheet at https://www.nxp.com/docs/en/data-sheet/DSP56301.pdf. The part uses a 208-pin LQFP package (28 x 28 mm) with pins grouped by function: data bus (D0-D23), address bus (A0-A15), control signals (RD, WR, PS, DS, X/Y strobes), Host Interface pins, SSI, SCI, JTAG/OnCE, and power/ground. Refer to the device datasheet for the exact pin-by-pin mapping before PCB layout.
Is the DSP56301PW100 RoHS compliant?
RoHS compliance status of the DSP56301PW100 is not explicitly stated in the verified distributor listings and should be confirmed from the latest NXP product change notification or material declaration. Many legacy NXP/Freescale parts ship in leaded (SnPb) finishes while newer shipments are Pb-free. Confirm RoHS and REACH status with NXP or your distributor's compliance documentation before placing orders for RoHS-required applications.
Is the DSP56301PW100 suitable for audio processing?
Yes, the DSP56301PW100 is well suited to audio processing thanks to its 24-bit datapath (about 144 dB dynamic range), 100 MMACS throughput, separate X/Y data memories for efficient FIR/IIR implementation, and SSI port for connecting to codecs like the CS4272 or AK4528. Its 100 MHz clock supports multi-channel audio at 48 kHz with headroom for effects, mixing, and basic parametric EQ. Designers commonly use it in pro-audio gear, mixer consoles, and effects units.

Technische Referenzdaten für DSP56301PW100 – Vergleich, Designhinweise und Compliance-Informationen.

Auswahlhilfe

Choose the DSP56301PW100 only when (a) you are maintaining an installed base of legacy DSP56300 firmware or hardware, (b) you need an exact footprint match for a 208-LQFP 100 MHz DSP56300 design, or (c) you are sourcing maintenance spares for older telecom, audio, or industrial systems. For new designs, prefer the DSP56311VL150 (150 MHz, EFCOP, same family) for higher throughput at the same cost. The DSP56303AG100 is the right choice when you need more on-chip RAM (40 kB) at the same 100 MHz speed. Cross-brand drop-in parts are not commercially realistic in this niche - the practical replacement strategy is staying within the NXP/Freescale DSP56300 family rather than swapping to a different vendor's DSP.

Vergleich mit Alternativen

Parameter Dieses Produkt DSP56303AG100 DSP56311VF150R2 DSP56311VL150 DSP56311VL150R2
Brand NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors
Package 208-LQFP (28x28 mm) 208-LQFP family - same footprint 208-LQFP family - same footprint 208-LQFP family - same footprint 208-LQFP family - same footprint
Part Family DSP56300 DSP56300 DSP56300 / Symphony DSP56K DSP56300 / Symphony DSP56K DSP56300 / Symphony DSP56K
Clock Rate 100 MHz 100 MHz 150 MHz 150 MHz 150 MHz
Performance 100 MMACS 100 MMACS 150 MMACS 150 MMACS 150 MMACS
Data Word Width 24-bit fixed point 24-bit fixed point 24-bit fixed point 24-bit fixed point 24-bit fixed point
Host Interface Yes (HI) Yes (HI) Yes (HI) Yes (HI) Yes (HI)
Enhanced Filter Coprocessor (EFCOP) No No Yes Yes Yes
Lifecycle Status Last-time-buy (mature) Obsolete (per Octopart) Obsolete (per Octopart) Obsolete (per Octopart) Obsolete (per Octopart)

Wichtigste Unterscheidungsmerkmale

  • Mature, drop-in-supported DSP56300 member (vs. DSP320C10)
  • Family-level pin compatibility with higher-speed DSP56311 (vs. DSP56311VL150)
  • Same family as DSP56303AG100 with extra memory (vs. DSP56303AG100)

Designhinweise

Estimated: the DSP56301PW100 requires separate core (VDD) and I/O (VDDIO=3.3V) supplies; place 0.1uF ceramic decoupling capacitors within 5mm of each VDD/VDDIO pin pair, plus a bulk 10-47uF tantalum or polymer capacitor on each rail. The 208-LQFP has approximately 25 VDD pins and 35 GND pins distributed around the perimeter - tie ALL of them to their respective planes with at least 0.5mm-wide traces or vias directly to internal power/ground planes. Power sequencing: bring up the I/O supply before the core supply, or use a supply supervisor to avoid latch-up during hot-plug events.

The 208-LQFP package at 28x28 mm has a 0.5 mm lead pitch. Use 4-layer PCB with continuous ground and power planes beneath the device for low-impedance return paths and SSI/SCI signal integrity. Route the 24-bit external data bus D[23:0] and address bus A[23:0] with matched length matching within approximately 10 mm to preserve bus timing at 100 MHz. Place SSI, SCI, JTAG, and Host Interface signals on inner layers adjacent to the device to avoid stubs. Include a 4-layer impedance-controlled stack-up for reliable 100 MHz operation - estimated: microstrip impedance of 50 ohms requires approximately 0.20 mm trace width on 0.20 mm prepreg over a solid ground plane (verify with your stack-up manufacturer).

The DSP56301PW100 has separate X-data and Y-data memory buses - leaving the Y memory under-utilised wastes up to half the available memory bandwidth. A frequent issue is incorrect JTAG connection: TCK, TMS, TDI, TDO, and TRST must each be tied through a 10-100k pull-up to VDDIO if unused, otherwise the device may enter unknown states on reset. The PLL filter capacitor on PCAP must be a low-leakage NP0/C0G part - using X7R or Y5V will cause PLL jitter and increased cycle-to-cycle timing variation. Always assert RESET for at least 100 ms after both supplies are stable to guarantee proper initialisation.

Estimated: at 100 MHz in a 208-LQFP package, the DSP56301PW100 dissipates approximately 0.5-1.0W depending on peripheral activity. Use the package theta_JA figure of approximately 25-30 C/W (with adequate copper planes and airflow) to estimate junction temperature. Derate by at least 50% for industrial temperature grade designs to ensure margin at the upper end (-40C to +85C). Add thermal vias under the exposed pad area (and within the ground/power plane grid) to spread heat into inner planes. For sealed enclosures, verify worst-case temperature rise with a thermocouple on the package top during characterisation.

Compliance-Informationen

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Bleifrei
Unknown
Halogenfrei
Unknown
Konfliktmineralien
Unknown

RoHS, REACH, lead-free and conflict-mineral status for the DSP56301PW100 were not present in the verified distributor listings. The Vyrian listing identifies the package as LFQFP with gull-wing terminals, suggesting a fine-pitch QFP construction, but does not state a material finish. Confirm RoHS compliance and the lead-free (Pb-free) finish with NXP's product change notification or a current manufacturer material declaration before placing orders for RoHS-required designs. AEC-Q100 does not apply: this is a digital signal processor for industrial/commercial DSP, not an automotive-qualified part. The part is listed as obsolete by Octopart but remains stocked at multiple distributors as of October 2026.

Daten verifiziert am: 2026-10-15 – Daten geprüft und kuratiert vom Bauteil-Engineering-Team von XAIPART

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