A comparator with two inputs A and B subtracts A from B and inspects the sign of the result: Y(A, B) := sign(A-B)
set the < , =, > as "010" and connect the lower bit that you want to compare to the first comparators and connects its output to the input of second comparator like this; connect the P<Q to < , and P=Q to = and P>Q = > (cascading input is checked for when P and Q are equal; the input from cascading input is set to the output "010"
No, a sinusoidal input to the comparators would not produce the same transfer curve as a triangle waveform. A triangle waveform has linear rising and falling edges, which results in a symmetrical and predictable output when compared to a threshold. In contrast, a sinusoidal input varies continuously and smoothly, leading to a different output behavior as it crosses the comparator thresholds. Therefore, the resulting transfer curves will exhibit distinct characteristics based on the shape of the input waveform.
Rhinos.
High input impedance implements the operation of the external feedback circuitry (e.g. diff. amplifiers vs. comparators).
If the same inputs are given to a comparator, the output will typically indicate that the inputs are equal. For digital comparators, this means the output signal will reflect a logical state that signifies equality, while for analog comparators, the output will show no difference between the input values. This behavior is essential for applications requiring precise comparisons, such as sorting or decision-making processes.
A nil voltage across the output typically occurs when the input value is at a specific threshold that causes the output to be zero. For example, in a simple linear circuit, if the input is equal to the reference voltage or ground level, the output may be zero. Additionally, in operational amplifiers configured as comparators, a nil output voltage is achieved when the non-inverting input equals the inverting input. Thus, the exact input value for a nil output depends on the specific circuit configuration.
Basic comparators are best used in applications that require simple on-off control based on a specific reference voltage. They are commonly utilized in systems for level detection, zero-crossing detection, and pulse width modulation. Additionally, comparators are effective in signal conditioning and in creating window detectors for monitoring input signals against predefined thresholds. Their simplicity and speed make them ideal for these tasks.
No, thank you, I have enough comparators.
A comparator is a device or circuit that compares two input signals and determines their relative magnitudes. It outputs a signal indicating which input is higher, lower, or if they are equal. Comparators are commonly used in various applications, such as analog-to-digital converters and zero-crossing detectors. They can be implemented using operational amplifiers or dedicated comparator ICs.
advantages of sigma comparators
advantages and disadvantages of pneumatic comparators
Not necessarily, you need to look at the context of the percentage you are finding. For example, in machines, when finding percent efficiency, the output can be greater or less than the input, the output is divided by the input so sometimes the number may be greater or smaller. However, in the case of merchandise sales, you do not find sales that are greater than 100% off so it would actually be the smaller number divided by the bigger number.