Fx Copy
LaTeX Copy
Mass Density of Steel varies based on the alloying constituents but usually ranges between 7,750 and 8,050 kg/m3. Check FAQs
ρs=(Te[g]As(LWell-z)+ρm)
ρs - Mass Density of Steel?Te - Effective Tension?As - Cross Section Area of Steel in Pipe?LWell - Length of Pipe Hanging in Well?z - Coordinate measured Downward from Top?ρm - Density of Drilling Mud?[g] - Gravitational acceleration on Earth?

Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force Example

With values
With units
Only example

Here is how the Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force equation looks like with Values.

Here is how the Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force equation looks like with Units.

Here is how the Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force equation looks like.

7750.0039Edit=(402.22Edit9.80660.65Edit(16Edit-6Edit)+1440Edit)
You are here -
HomeIcon Home » Category Engineering » Category Civil » Category Coastal and Ocean Engineering » fx Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force

Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force Solution

Follow our step by step solution on how to calculate Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force?

FIRST Step Consider the formula
ρs=(Te[g]As(LWell-z)+ρm)
Next Step Substitute values of Variables
ρs=(402.22kN[g]0.65(16m-6)+1440kg/m³)
Next Step Substitute values of Constants
ρs=(402.22kN9.8066m/s²0.65(16m-6)+1440kg/m³)
Next Step Convert Units
ρs=(402220N9.8066m/s²0.65(16m-6)+1440kg/m³)
Next Step Prepare to Evaluate
ρs=(4022209.80660.65(16-6)+1440)
Next Step Evaluate
ρs=7750.00392590742kg/m³
LAST Step Rounding Answer
ρs=7750.0039kg/m³

Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force Formula Elements

Variables
Constants
Mass Density of Steel
Mass Density of Steel varies based on the alloying constituents but usually ranges between 7,750 and 8,050 kg/m3.
Symbol: ρs
Measurement: Mass ConcentrationUnit: kg/m³
Note: Value can be positive or negative.
Effective Tension
Effective Tension when buoyant force acts in a direction opposite to the gravity force.
Symbol: Te
Measurement: ForceUnit: kN
Note: Value can be positive or negative.
Cross Section Area of Steel in Pipe
Cross Section Area of Steel in Pipe is the extent of a surface or plane figure as measured in square units.
Symbol: As
Measurement: AreaUnit:
Note: Value can be positive or negative.
Length of Pipe Hanging in Well
Length of Pipe Hanging in Well is essential in calculating all other values required in drilling.
Symbol: LWell
Measurement: LengthUnit: m
Note: Value can be positive or negative.
Coordinate measured Downward from Top
Coordinate measured Downward from Top depends on tension on a Vertical Drill String.
Symbol: z
Measurement: NAUnit: Unitless
Note: Value can be positive or negative.
Density of Drilling Mud
Density of Drilling Mud considering a steel drilling pipe hanging in an oil well.
Symbol: ρm
Measurement: DensityUnit: kg/m³
Note: Value can be positive or negative.
Gravitational acceleration on Earth
Gravitational acceleration on Earth means that the velocity of an object in free fall will increase by 9.8 m/s2 every second.
Symbol: [g]
Value: 9.80665 m/s²

Other Formulas to find Mass Density of Steel

​Go Mass Density of Steel for Tension on Vertical Drill String
ρs=T[g]As(LWell-z)
​Go Mass Density of Steel for Lower Section of Drill String Length in Compression
ρs=ρmLWellLc

Other formulas in Hydrostatics category

​Go Tension on Vertical Drill String
T=ρs[g]As(LWell-z)
​Go Coordinate measured Downward from Top given Tension on Vertical Drill String
z=-((Tρs[g]As)-LWell)
​Go Cross Section Area of Steel in Pipe given Tension on Vertical Drill String
As=Tρs[g](LWell-z)
​Go Length of Pipe Hanging in Well given Tension on Vertical Drill String
LWell=(Tρs[g]As)+z

How to Evaluate Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force?

Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force evaluator uses Mass Density of Steel = (Effective Tension/([g]*Cross Section Area of Steel in Pipe*(Length of Pipe Hanging in Well-Coordinate measured Downward from Top))+Density of Drilling Mud) to evaluate the Mass Density of Steel, The Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force for buoyant force considering ever-increasing string slice length. Mass Density of Steel is denoted by ρs symbol.

How to evaluate Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force using this online evaluator? To use this online evaluator for Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force, enter Effective Tension (Te), Cross Section Area of Steel in Pipe (As), Length of Pipe Hanging in Well (LWell), Coordinate measured Downward from Top (z) & Density of Drilling Mud m) and hit the calculate button.

FAQs on Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force

What is the formula to find Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force?
The formula of Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force is expressed as Mass Density of Steel = (Effective Tension/([g]*Cross Section Area of Steel in Pipe*(Length of Pipe Hanging in Well-Coordinate measured Downward from Top))+Density of Drilling Mud). Here is an example- 7750.004 = (402220/([g]*0.65*(16-6))+1440).
How to calculate Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force?
With Effective Tension (Te), Cross Section Area of Steel in Pipe (As), Length of Pipe Hanging in Well (LWell), Coordinate measured Downward from Top (z) & Density of Drilling Mud m) we can find Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force using the formula - Mass Density of Steel = (Effective Tension/([g]*Cross Section Area of Steel in Pipe*(Length of Pipe Hanging in Well-Coordinate measured Downward from Top))+Density of Drilling Mud). This formula also uses Gravitational acceleration on Earth constant(s).
What are the other ways to Calculate Mass Density of Steel?
Here are the different ways to Calculate Mass Density of Steel-
  • Mass Density of Steel=Tension on Vertical Drill String/([g]*Cross Section Area of Steel in Pipe*(Length of Pipe Hanging in Well-Coordinate measured Downward from Top))OpenImg
  • Mass Density of Steel=(Density of Drilling Mud*Length of Pipe Hanging in Well)/Lower Section of Drill String LengthOpenImg
Can the Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force be negative?
Yes, the Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force, measured in Mass Concentration can be negative.
Which unit is used to measure Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force?
Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force is usually measured using the Kilogram per Cubic Meter[kg/m³] for Mass Concentration. Kilogram per Liter[kg/m³], Gram per Liter[kg/m³], Milligram per Liter[kg/m³] are the few other units in which Mass Density of Steel when Buoyant Force acts in Direction opposite to Gravity Force can be measured.
Copied!