Smallest reading(Xmin) Calculator

✖Largest Reading is the max reading of the instrumentation.ⓘ Largest Reading [X_max]			+10% -10%
✖Instrumentation Span is the life of the appliance.ⓘ Instrumentation Span [span]			+10% -10%

✖Smallest Reading is the smallest reading of the meter.ⓘ Smallest reading(Xmin) [X_min]

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Formula

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Smallest reading(Xmin)

Formula

`"X"_{"min"} = "X"_{"max"}-"span"`

Example

`"2"="12"-"10"`

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Smallest reading(Xmin) Solution

STEP 0: Pre-Calculation Summary

Formula Used

Smallest Reading = Largest Reading-Instrumentation Span
X_min = X_max-span
This formula uses 3 Variables

Variables Used

Smallest Reading - Smallest Reading is the smallest reading of the meter.
Largest Reading - Largest Reading is the max reading of the instrumentation.
Instrumentation Span - Instrumentation Span is the life of the appliance.

STEP 1: Convert Input(s) to Base Unit

Largest Reading: 12 --> No Conversion Required
Instrumentation Span: 10 --> No Conversion Required

STEP 2: Evaluate Formula

Substituting Input Values in Formula

X_min = X_max-span --> 12-10

Evaluating ... ...

X_min = 2

STEP 3: Convert Result to Output's Unit

2 --> No Conversion Required

FINAL ANSWER

2 <-- Smallest Reading

(Calculation completed in 00.004 seconds)

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Bipin Tripathi Kumaon Institute of Technology (BTKIT), Dwarahat

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< 25 Fundamental Parameters Calculators

Length of Pipe

Go Length = Diameter of Pipe*(2*Head Loss due to Friction*Earth’s Geocentric Gravitational Constant)/(Friction Factor*(Average Velocity^2))

Head Loss

Go Head Loss due to Friction = (Friction Factor*Length*(Average Velocity^2))/(2*Diameter of Pipe*Earth’s Geocentric Gravitational Constant)

Height of plates

Go Height = Difference in Liquid Level*(Capacitance with No Liquid*Magnetic Permeability)/(Capacitance-Capacitance with No Liquid)

Thickness of Spring

Go Thickness of Spring = (Flat Spiral Spring Controlling Torque*(12*Length)/(Youngs Modulus*Width of Spring)^-1/3)

Flat Spiral Spring Controlling Torque

Go Flat Spiral Spring Controlling Torque = (Youngs Modulus*Width of Spring*(Thickness of Spring^3))/(12*Length)

Youngs Modulus of Flat Spring

Go Youngs Modulus = Flat Spiral Spring Controlling Torque*(12*Length)/(Width of Spring*(Thickness of Spring^3))

Width of Spring

Go Width of Spring = (Flat Spiral Spring Controlling Torque*(12*Length)/(Youngs Modulus*Thickness of Spring^3))

Length of Spring

Go Length = Youngs Modulus*(Width of Spring*(Thickness of Spring^3))/Flat Spiral Spring Controlling Torque*12

Distance between boundaries

Go Distance = (Coefficient of Velocity*Area of Cross-Section*Speed of Body)/Resisting Motion in fluid

Boundary area being moved

Go Area of Cross-Section = Resisting Motion in fluid*Distance/(Coefficient of Velocity*Speed of Body)

Torque of moving Coil

Go Torque on Coil = Flux Density*Current*Number of Turns in Coil*Area of Cross-Section*0.001

Weight of Air

Go Weight of Air = (Immersed Depth*Specific Weight*Area of Cross-Section)+Weight of Material

Heat Transfer Coefficient

Go Heat Transfer Coefficient = (Specific Heat*Mass)/(Area of Cross-Section*Time Constant)

Area of thermal contact

Go Area of Cross-Section = (Specific Heat*Mass)/(Heat Transfer Coefficient*Time Constant)

Thermal time constant

Go Time Constant = (Specific Heat*Mass)/(Area of Cross-Section*Heat Transfer Coefficient)

Head Loss Due to Fitting

Go Head Loss due to Friction = (Eddy Loss Coefficient*Average Velocity)/(2*Earth’s Geocentric Gravitational Constant)

Maximum Fiber Stress in Flat Spring

Go Maximum Fiber Stress = (6*Flat Spiral Spring Controlling Torque)/(Width of Spring*Thickness of Spring^2)

Controlling Torque

Go Flat Spiral Spring Controlling Torque = Deflection of Pointer/Angle of Deflection of Galvanometer

Length of weighing platform

Go Length = (Weight of Material*Speed of Body)/Flow Rate

Angular Speed of Former

Go Angular Speed of Former = Linear Velocity of Former/(Breadth Of Former/2)

Angular Speed of Disc

Go Angular Speed of Disc = Damping Constant/Damping Torque

Average Velocity of System

Go Average Velocity = Flow Rate/Area of Cross-Section

Couple

Go Couple Moment = Force*Dynamic Viscosity of a Fluid

Weight on Force Sensor

Go Weight on Force Sensor = Weight of Material-Force

Weight of Displacer

Go Weight of Material = Weight on Force Sensor+Force

Smallest reading(Xmin) Formula

Smallest Reading = Largest Reading-Instrumentation Span
X_min = X_max-span

What is span measurement?

A span is a distance measured by a human hand, from the tip of the thumb to the tip of the little finger. In ancient times, a span was considered to be half a cubit.

How to Calculate Smallest reading(Xmin)?

Smallest reading(Xmin) calculator uses Smallest Reading = Largest Reading-Instrumentation Span to calculate the Smallest Reading, The Smallest reading(Xmin) formula is defined as the minimum reading of the instrument at lowest output. Smallest Reading is denoted by X_min symbol.

How to calculate Smallest reading(Xmin) using this online calculator? To use this online calculator for Smallest reading(Xmin), enter Largest Reading (X_max) & Instrumentation Span (span) and hit the calculate button. Here is how the Smallest reading(Xmin) calculation can be explained with given input values -> 2 = 12-10.

FAQ

What is Smallest reading(Xmin)?

The Smallest reading(Xmin) formula is defined as the minimum reading of the instrument at lowest output and is represented as X_min = X_max-span or Smallest Reading = Largest Reading-Instrumentation Span. Largest Reading is the max reading of the instrumentation & Instrumentation Span is the life of the appliance.

How to calculate Smallest reading(Xmin)?

The Smallest reading(Xmin) formula is defined as the minimum reading of the instrument at lowest output is calculated using Smallest Reading = Largest Reading-Instrumentation Span. To calculate Smallest reading(Xmin), you need Largest Reading (X_max) & Instrumentation Span (span). With our tool, you need to enter the respective value for Largest Reading & Instrumentation Span and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.

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