52 Bit-Slice Micro Processors 4

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Part	Manufacturer	Peripheral IC Type	Temperature Grade	Terminal Form	No. of Terminals	Package Code	Package Shape	Package Body Material	Surface Mount	Maximum Supply Voltage	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Minimum Supply Voltage	Maximum Operating Temperature	Terminal Finish	Terminal Position	Maximum Seated Height	Width	External Data Bus Width	Maximum Clock Frequency	Length	Technology	Maximum Supply Current	Nominal Supply Voltage	Sub-Category	Terminal Pitch	JESD-30 Code	Qualification	JESD-609 Code
ADSP-1401KP	Analog Devices	BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER	COMMERCIAL	J BEND	52	QCCJ	SQUARE	PLASTIC/EPOXY	YES	5.25 V	5	CHIP CARRIER	LDCC52,.8SQ	4.75 V	70 Cel	TIN LEAD	QUAD	4.57 mm	19.1262 mm	16		19.1262 mm	CMOS	90 mA	5 V	Bit-Slice Processors	1.27 mm	S-PQCC-J52	Not Qualified	e0
ADSP-1410JP	Analog Devices	BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER	COMMERCIAL	J BEND	52	QCCJ	SQUARE	PLASTIC/EPOXY	YES	5.25 V	5	CHIP CARRIER	LDCC52,.8SQ	4.75 V	70 Cel	TIN LEAD	QUAD	4.57 mm	19.1262 mm	16	10 MHz	19.1262 mm	CMOS	75 mA	5 V	Other Microprocessor ICs	1.27 mm	S-PQCC-J52	Not Qualified	e0
ADSP-1401JP	Analog Devices	BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER	COMMERCIAL	J BEND	52	QCCJ	SQUARE	PLASTIC/EPOXY	YES	5.25 V	5	CHIP CARRIER	LDCC52,.8SQ	4.75 V	70 Cel	TIN LEAD	QUAD	4.57 mm	19.1262 mm	16		19.1262 mm	CMOS	90 mA	5 V	Bit-Slice Processors	1.27 mm	S-PQCC-J52	Not Qualified	e0
ADSP-1410KP	Analog Devices	BIT-SLICE PROCESSOR, MICROPROGRAM SEQUENCER	COMMERCIAL	J BEND	52	QCCJ	SQUARE	PLASTIC/EPOXY	YES	5.25 V	5	CHIP CARRIER	LDCC52,.8SQ	4.75 V	70 Cel	TIN LEAD	QUAD	4.57 mm	19.1262 mm	16	11.11 MHz	19.1262 mm	CMOS	75 mA	5 V	Other Microprocessor ICs	1.27 mm	S-PQCC-J52	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.