The gas line :- To increase or decrease the orifice (run the orifice) you need to do the following
1/ open the equalizer and open the gate then adjust from the carrier to make it in the upper chamber or down chamber finally open the upper chamber valve then close all previous valves inverse gate valve and equalizer. Gas line can go to the production line and go for burner line by a diverter in the gas line in the Separator
The oil line:- I can adjust the level from the lcv box to make the level stable and control form the pcv only
The Separator can be three phases (water, oil and water) or two phases (liquid and gas)

Temperature in Rankine= Temperature in Fahernheit+460
Temperature in Fahrenheit= 32+ (1.8*Temperature in Celsius)

Critical flow for oil is when the downstream pressure is 60% of the upstream pressure.

while for gas it is that the downstream pressure is 50% of the upstream pressure.

The relation between temperature and gas rate is inversely proportional.
Also the relation between gas specific gravity and gas rate is inversely proportional.

As the h2s percentage increases the specific gravity increase.

• For 2 inch 170-1700 bbl/day
• For 3 inch 1300-13000 bbly/day

Lower explosive limit (L.E.L)= 4.3% and Higher explosive limit (H.E.L)= 46%

Full Discription	Abbriviation	unit
dimensionless pressure	pD	psi
dimensionless time	pD	psi
dimensionless distance	pD	psi
dimensionless rate	pD	psi
permeability	k	md
thickness	h	feet
initial reservoir pressure	pi	psi
well flowing pressure	pwf	psi
initial reservoir pressure	pi	psi
production rate	q	STB/d
formation volume factor	B	res vol/ std vol
viscosity	u	cp
Time	t	hours
total system compressibility	ct	/psi
wellbore radius	rw	ft
porosity	Ⴔ	pore volume/bulk volume
...	A	...
...	S	...

In the context of well testing and reservoir engineering, the term "dimensionless" refers to a quantity that does not have units. It is a dimensionless parameter because it represents a ratio, a fraction, or a correlation that is independent of specific units of measurement. This is often done to express relationships that are independent of scale, making them applicable across different systems.

Several important parameters in well testing are dimensionless, and they play a crucial role in understanding and analyzing reservoir behavior. Here are a few examples:

1. Dimensionless Pressure:

The pressure used in well testing is often normalized by the initial reservoir pressure. This dimensionless pressure, often denoted as P/P_i provides a non-dimensional representation of pressure changes in the reservoir.

2. Dimensionless Time:

Time in well testing is often made dimensionless by dividing it by a characteristic time, such as the drainage time or the time at which the well reaches a certain fraction of its ultimate recovery.

3. Dimensionless Distance:

Similar to time, distance can be made dimensionless by dividing it by a characteristic length, often the effective drainage radius of the well.

4. Dimensionless Rate:

Production rates are often made dimensionless by dividing them by a characteristic flow rate, such as the initial flow rate.

These dimensionless parameters are crucial for creating type curves and normalized plots that are applicable across different reservoirs and wells. They help in identifying common behavior patterns and trends that can be used for reservoir characterization and performance prediction.
When you see the term "dimensionless" in well testing, it is an indication that the parameter being discussed has been normalized to eliminate the influence of specific units of measurement, allowing for more general and widely applicable analysis.

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