% / Sqrt output mA / Non square output mA 0% / 4 / 4 10% / 9.059644256 / 5.6 20% / 11.15541753 / 7.2 25% / 12 / 8 30% / 12.76356092 / 8.8 40% / 14.11928851 / 10.4 50% / 15.3137085 / 12 60% / 16.39354671 / 13.6 70% / 17.38656042 / 15.2 75% / 17.85640646 / 16 80% / 18.31083506 / 16.8 90% / 19.17893277 / 18.4 100% / 20 / 20
p.begin_fill()p.circle(60)p.end_fill()p.begin_fill()for i in range(4):p.fd(60)p.rt(90)p.end_fill()
No. For example, linear algebra, for example, is about linear equations where the domain and range are matrices, not simple numbers. These matrices may themselves contain numbers that are real or complex so that not only is the range not the real numbers, but it is not based on real numbers either.
you dont.
If a linear model accurately reflects the measured data, then the linear model makes it easy to predict what outcomes will occur given any input within the range for which the model is valid. I chose the word valid, because many physical occurences may only be linear within a certain range. Consider applying force to stretch a spring. Within a certain distance, the spring will move a linear distance proportional to the force applied. Outside that range, the relationship is no longer linear, so we restrict our model to the range where it does work.
In math, this is called the "range."
"A device for which the output is, within a given dynamic range, linearly proportional to the input" e.g. a spring scale is linear device for measuring weight.
When the slope of the output/input is a straight line, before the knee point. The knee point is where the slope dramatically changes from the linear region to saturation.
An inverting amplifier having linear output characteristics is disclosed which includes additional n-channel and p-channel transistors coupled to a classic CMOS inverter circuit. The linear transfer characteristic is achieved with nearly full dynamic Vcc range. The invented amplifier yields a linear transfer characteristic by controlling the dimension ratios between each of the transistors. The wide dynamic range, wide bandwidth and low output impedance make the circuit well-suited for use as an output stage of a CMOS operational amplifier. Source - http://www.freepatentsonline.com/5113150.html
Analytical range refers to the method/procedure used, It can include a non linear response. If you plot the analytical results versus the reference values you will have a linear curve. The linear range could be more precisely given by saying the linear instrument range
To convert a linear range of 0-100 to a 4-20mA signal, you would use a square root function. For example, when the input is 0, the output is 4mA, and when the input is 100, the output is 20mA. The square root function would map the input values to the output values accordingly.
p.begin_fill()p.circle(60)p.end_fill()p.begin_fill()for i in range(4):p.fd(60)p.rt(90)p.end_fill()
it is range
A: Transistor to be effective as an linear amplifier it must be operated in its linear load range. The biasing scheme is to insure that the transistor is put in its linear/load range
The range is the y, while the domain is the x.
analog device characterized by theoretically infinite no. of posiible operating states .
Audio output frequency is that range of frequencies that can be heard. For humans, that is generally considered to be the range of 20Hz to 20kHz.
Collection of all output values is called the range.