Overview
The MC14094BDR2G, produced by onsemi, is an integrated circuit that combines an 8-stage shift register with a data latch for each stage and features three-state outputs. This device is designed to handle serial-to-parallel data conversion efficiently. Data is shifted on the positive clock transition, and the QS output data is available for high-speed cascaded systems, while the Q'S output data is shifted on the following negative clock transition for low-speed cascaded systems. The data from each stage of the shift register is latched on the negative transition of the strobe input, and the outputs are controlled by three-state buffers that can be placed in a high-impedance state by a logic Low on the Output Enable input.
Key Specifications
Parameter | Value | Unit |
---|---|---|
DC Supply Voltage Range (VDD) | -0.5 to +18.0 | V |
Input or Output Voltage Range (Vin, Vout) | -0.5 to VDD + 0.5 | V |
Input or Output Current (Iin, Iout) per Pin | ±10 | mA |
Power Dissipation, per Package | 500 | mW |
Ambient Temperature Range (TA) | -55 to +125 | °C |
Storage Temperature Range (Tstg) | -65 to +150 | °C |
Lead Temperature (TL) | 260 (8-second soldering) | °C |
Propagation Delay Time (Clock to Serial out QS) | 305 ns (at VDD = 5V), 107 ns (at VDD = 10V), 82 ns (at VDD = 15V) | ns |
Output Rise and Fall Time | 100 ns (at VDD = 5V), 50 ns (at VDD = 10V), 40 ns (at VDD = 15V) | ns |
Package Type | SOIC-16 |
Key Features
- Three-state outputs capable of driving two low-power TTL loads or one low-power Schottky TTL load over the rated temperature range.
- Input diode protection.
- Data latch for each stage of the shift register.
- Dual outputs for data out on both positive and negative clock transitions.
- Useful for serial-to-parallel data conversion.
- Pin-for-pin compatible with CD4094B.
- NLV prefix for automotive and other applications requiring unique site and control change requirements; AEC-Q100 qualified and PPAP capable.
- Pb-free packages are available and RoHS compliant.
Applications
The MC14094BDR2G is versatile and can be used in various applications, including:
- Serial-to-parallel data conversion systems.
- High-speed and low-speed cascaded systems.
- Automotive and industrial control systems due to its AEC-Q100 qualification.
- General-purpose digital logic circuits requiring shift registers and latches.
Q & A
- What is the primary function of the MC14094BDR2G?
The MC14094BDR2G combines an 8-stage shift register with a data latch for each stage and features three-state outputs, making it suitable for serial-to-parallel data conversion.
- What is the voltage range for the DC supply (VDD) of the MC14094BDR2G?
The DC supply voltage range (VDD) is from -0.5 to +18.0 volts.
- What types of outputs does the MC14094BDR2G provide?
The device provides three-state outputs that can be placed in a high-impedance state by a logic Low on the Output Enable input.
- How is data shifted in the MC14094BDR2G?
Data is shifted on the positive clock transition, and the QS output data is available for high-speed cascaded systems, while the Q'S output data is shifted on the following negative clock transition for low-speed cascaded systems.
- What is the significance of the NLV prefix in some versions of the MC14094B?
The NLV prefix indicates that the device is AEC-Q100 qualified and PPAP capable, making it suitable for automotive and other applications requiring unique site and control change requirements.
- What is the package type of the MC14094BDR2G?
The MC14094BDR2G is available in a SOIC-16 package.
- Is the MC14094BDR2G RoHS compliant?
- What is the maximum power dissipation for the MC14094BDR2G?
The maximum power dissipation for the MC14094BDR2G is 500 mW per package.
- What is the ambient temperature range for the MC14094BDR2G?
The ambient temperature range is from -55 to +125 degrees Celsius.
- How does the strobe input affect the data latch in the MC14094BDR2G?
Data from each stage of the shift register is latched on the negative transition of the strobe input, and data propagates through the latch while the strobe is high.