84 Bit-Slice Micro Processors 8

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Part RoHS Manufacturer Peripheral IC Type Temperature Grade Terminal Form No. of Terminals Package Code Package Shape Package Body Material Surface Mount Maximum Supply Voltage Screening Level Address Bus Width DAC Channels Bit Size Power Supplies (V) Package Style (Meter) Package Equivalence Code Minimum Supply Voltage Maximum Operating Temperature Minimum Operating Temperature Terminal Finish ADC Channels Terminal Position DMA Channels Maximum Seated Height Width Additional Features External Data Bus Width Maximum Clock Frequency Maximum Time At Peak Reflow Temperature (s) Peak Reflow Temperature (C) Length Technology Maximum Supply Current Nominal Supply Voltage PWM Channels Sub-Category Terminal Pitch JESD-30 Code Moisture Sensitivity Level (MSL) Qualification Speed JESD-609 Code

SN74ACT8818AFN

Texas Instruments

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

COMMERCIAL

J BEND

84

QCCJ

SQUARE

PLASTIC/EPOXY

YES

5

CHIP CARRIER

LDCC84,1.2SQ

70 Cel

0 Cel

QUAD

CMOS

.2 mA

5 V

Bit-Slice Processors

1.27 mm

S-PQCC-J84

Not Qualified

SN74ACT8818FN

Texas Instruments

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

COMMERCIAL

J BEND

84

QCCJ

SQUARE

PLASTIC/EPOXY

YES

5

CHIP CARRIER

LDCC84,1.2SQ

70 Cel

0 Cel

QUAD

CMOS

.2 mA

5 V

Bit-Slice Processors

1.27 mm

S-PQCC-J84

Not Qualified

ADSP-1402TG/883B

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

MILITARY

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

38535Q/M;38534H;883B

GRID ARRAY

PGA84M,11X11

125 Cel

-55 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

ADSP-1402KG

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

COMMERCIAL

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

GRID ARRAY

PGA84M,11X11

70 Cel

0 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

ADSP-1402SG

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

MILITARY

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

GRID ARRAY

PGA84M,11X11

125 Cel

-55 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

ADSP-1402SG/883B

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

MILITARY

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

38535Q/M;38534H;883B

GRID ARRAY

PGA84M,11X11

125 Cel

-55 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

ADSP-1402TG

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

MILITARY

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

GRID ARRAY

PGA84M,11X11

125 Cel

-55 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

ADSP-1402JG

Analog Devices

BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER

COMMERCIAL

PIN/PEG

84

PGA

SQUARE

CERAMIC

NO

GRID ARRAY

PGA84M,11X11

70 Cel

0 Cel

Tin/Lead (Sn/Pb)

PERPENDICULAR

CMOS

Bit-Slice Processors

2.54 mm

S-XPGA-P84

Not Qualified

e0

Bit-Slice Micro Processors

A bit-slice microprocessor is a type of microprocessor that is designed to perform operations on a small group of bits, known as a "slice". Each slice typically contains a few bits of data and control logic, which can be combined to perform various operations.

Bit-slice microprocessors were first developed in the 1970s as a way to create powerful microprocessors using simple building blocks. Each slice typically contained a few gates or flip-flops, and these slices could be combined to create a more complex microprocessor. The advantage of this approach was that designers could create custom microprocessors for specific applications by selecting the appropriate slices.

One of the key benefits of bit-slice microprocessors is their flexibility. By combining different types of slices, designers can create microprocessors that are tailored to specific applications. For example, a bit-slice microprocessor designed for a control system might contain slices for digital input/output, analog-to-digital conversion, and control logic.

Another advantage of bit-slice microprocessors is their scalability. Because they are built from small, simple building blocks, designers can easily add or remove slices to increase or decrease the processing power of the microprocessor. This makes them well-suited for applications where the processing requirements may change over time.