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Filtration test ( 18.12.2023)

 

Filtration test (18.12.2023)

In this test, we adhere to the test specification (01 Test Specification of the Filtration System) by inspecting each and every component of the filter system to ensure its functionality.

First, we double-checked the mechanical components, such as the ball valves, ducts, and piping system from the chemical filter and scrubber to the chemical and water supply tanks, to ensure that everything was properly linked.

Second, we used the GUI software to inspect the electrical connections for each item, such as pumps, air supply fans, and exhaust fans. Each device was checked for functionality for 10 seconds

Third, we discovered that the garbage bags had become wet as a result of the rain; therefore, instead of the waste bags, we used bags filled with wood.

Fourth, we examined the manual flame igniter and discovered that it was not working properly due to a malfunction in its electric parts, and the trailer of the powerplant was also not steady and was inclined, preventing the tank from pushing the Dizel to the flame igniter.

Fifth, we used the GUI software to open the exhaust fans and the air supply fans, then we manually started the fire through the main gate, and when the fire started, we closed the main gate.

Sixth, we begin collecting data for the temperature at the incinerator outlet, the temperature between the chemical filter and the scrubber, and finally the temperature in the electro-filter inlet.

Seventh, we collected data on T1, T2, and T3 sensors when P1 and P2 were closed, when P1 and P2 were opened, when P2 was closed, and finally when both P1 and P2 were opened together again.

Eighth, we used the GUI software to close the pumps P1 and P2, the exhaust fans E1 and E2, and the air supply fans AF1 and AF2, while manually closing the ball valves BV1, BV2, BV3, BV4, and BV5. to put out the fire, and we double-checked that all systems were turned off.

 Table of System Test

Step Step description Expected result  result result description                      
Precondition Why?                      
check out the system System is off all system is off                          
Initial Condition                            
check out steps check the mechanical filtration connections: Ducts, BV1, BV2, BV3 ,BV4, BV5, P1, P2, E1 and E2. All Mechanical connections are good                          
check the electrical filtration connections: wires. T1, T2, T3, P1, P2, E1 and E2 (By the Gui Software) for 10 seconds each one. All Electrical connections are good and temperature between 20 and 30 degrees Celcius                          
Check the Air Supply fans AF1 and AF2 for 10 seconds (By the Gui Software). Air fan Supply working good                          
check the flame igniter manually for the incinerator Flame igniter working good   the flame igniter didn't work                      
putting waste bags put the waste bags inside the incinerator  no obstacle   we use wood instead of the wet waste bags                      
add Dizel add Dizel inside the dizel-tank presented above the turbine room no obstacle   the power plant trailer is inclined and the dizel not moving in the pipes                       
Turn on E1 and E2  for 10 Seconds Turn on the Exhaust fans presented Presented above Cyclone #1 and below the chimney (By the Gui Software). the Exhaust fan working                          
Turn on P1 and P2  for 10 Seconds Turn on the liquid pumps for the chemical filter and the Scrubber (By the Gui Software). the Liquid pumps working                          
open BV1, BV2, BV3 ,BV4 and BV5 open the ball valves for the chemical filter, scrubber, cyclone #2, the Water tank, and the chemical tank. Manually no obstacle                          
Starting Test                            
check out T1, T2 and T3 check the temperature at its initial condition before starting (by the GUI Software).  the Temperature must be between 20 and 30 degrees celcius     T₁ 16 T₂ 25  T₃  17          
Turn on E1, E2, AF1 and AF2  Turn on the exhaust fans (E1, E2) and the air supply fans (AF1, AF2) of the incinerator (By the Gui Software). air start flow out of chimney.                            
Start the fire using the Flame igniter to the waste bags (manually). igniter start fire   the fire started manually and igniter doesn't work                       
Close the main incinerator gate  it close well                          
check out T1, T2 and T3 Check out T1 Sensor to get the max Temparature the max temperature above 400 degrees Celcius     T₁ 125 140 200 226            
Check out T2 Sensor to see the Effectiveness of the Chemical filter chamber and the Cyclone #1 no obstacle     T₂ 60 70 95 120            
Check out T3 Sensor to see the effectiveness of the Cyclone #2 no obstacle     T₃ 46 51 67 80            
open P1 and P2 Turn on the liquid pump for the chemical filter to start filtration and the scrubber to start cooling the pumps start working well                          
check out T1, T2 and T3 Check out T1 Sensor to get the max Temparature temperature increasing or stay steady      T₁ 335 350 400 435 456 456 453 478 513 503
Check out T2 Sensor to see the Effectiveness of the Chemical filter  and  Cyclone #1 cooling  temperature decrease      T₂ 131 130 128 133 150 152 161 171 178 185
Check out T3 Sensor to see the effectiveness of the system and especially the scrubber cooling temperature decrease below 60 degrees Celcius   the temperature is between 74 degrees Celcius and 94 degrees Celcius T₃ 79 73 71 74 81 82 85 89 91 94
open the Chemical tanks check out the filtration Cycle  the color of water starts to change                          
close P2 pump close the chemical liquid pump to check the effectiveness of the cooling process by the scrubber  the pump P2 close normally                        
check out T1, T2 and T3 Check out T1 Sensor to get the max Temparature temperature increasing or stay steady      T₁ 497 493 518 528 529 537 550 571 580 584
Check out T2 Sensor  temperature start to raise up     T₂ 200 215 244 267 285 299 305 331 323 329
Check out T3 Sensor to see the effectiveness of the scrubber cooling compared to the initial process without both Pumps difference in the temperature compared to the initial data    the temperature is increasing  T₃ 102 106 115 122 128 133 136 139 144 147
open P2 pump open the chemical liquid pump  the pump P2 open normally                          
check out T1, T2 and T3 Check out T1 Sensor to get the max Temparature temperature increasing or stay steady    the temperature started to decrease because the wood bags are mostly finished T₁ 551 574 574 572 555 495 480 465    
Check out T2 Sensor  temperature start to decrease     T₂ 278 250 237 226 202 193 185 177    
Check out T3 Sensor to see the effectiveness of the filters cooling compared to the condition when P2 was closed difference in the temperature compared to the above condition      T₃ 131 120 118 114 105 101 97 93    
close P1 and P2 disconnect the water and chemical towards the filters system kills the fire                          
close BV1, BV2, BV3 ,BV4 and BV5 close the ball valves to close the filtration system                           
close E1 and E2 close the exhaust fan (E1, E2)                          
Close AF1 and AF2 close the Air supply fan ( AF1, AF2)                          
Postcondition                             
check out the system System is off all system is off                          

 

Graph of the Temperature Sensors 

Guide:

From 0 to 1, the Table system was in rest.

From 1 to 5, Pumps P1 and P2 were closed.

From 5 to 15, Pumps P1 and P2 were opened.

From 15 to 25, pump P2 was closed and P1 was opened.

From 25 to 33, P2 was opened again when P1 was already opened.

 

Test Analysis

  • The flame igniter had difficulty since the trailer became inclined due to rain and sank backward to the ground, preventing the fuel from feeding the flame igniter.
  • Both pumps P1 and P2 assisted the flue gas in lowering the temperature when it reached values between 74 and 94 degrees Celsius; it was not enough, but it did a nice job in comparison to the previous test results.
  • The chemical filter performed well in the filtration process and in cooling the flue gases, but this was not permanent because the drainage of the chemical filter was connected to the main hole of the chemical, so it was fed again, causing its temperature to rise to 60 degrees Celsius, reducing the cooling process of the flue gases.
  • The new sprinklers did a better job of chilling the flue gas with less water and chemical supplies than the old standard method. 
  • The cleaning procedure was improved by the addition of cyclone number one.
  • Adding an extra temperature sensor to the filtering cycle improves data collection accuracy.
  • Connecting the GUI software in the room close to the engine trailer rather than the far-distant center improves data transmission speed.

What should we do next?

  • Repairing the flame igniter and connecting it to the graphical user interface software.
  • Maintain the trailer's stability on the ground.
  • Increase the cooling process with the chemical filter and get a bigger water tank.
  • Re-cool the flue gas with the scrubber drainage water.
  • Including additional methods to get the flue gas to the required temperature.
  • Using fewer trash bags instead of 12 bags to avoid a dramatic spike in temperature.

 

 Pictures related

 

Filter System pic

Filter System Pic

 

Temperature Sensor T1 Pic

Temperature Sensor T2 Pic

Filter System pic

Exhaust fan E1 pic

Exhaust fan E2 pic

water pump P1 pic

chemical pump P2 pic

Air supply fan AF1 pic

Flame igniter chamber pic

Incinerator chamber pic

 

Incinerator chamber main gate pic

chemical filter tank process pic

 

The drainage of the water by the scrubber cooler pic

 

flue gas getting out through chimney pic

Gui software control and the data collected by it pic

 

Video 

verbicon video by Aan Kurniawan @akdesain (Makassar, Indonesia) | Clever  logo design, Creative branding design, Typography logo inspiration  Filtration system of flue gas of the powerplant: NLAP-IPP 18.12.2023