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Contact Name
Riki Ruli A. Siregar
Contact Email
riki.ruli@sttpln.ac.id
Phone
-
Journal Mail Official
riki.ruli@sttpln.ac.id
Editorial Address
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Location
Kota adm. jakarta barat,
Dki jakarta
INDONESIA
Power Plant
ISSN : 23561513     EISSN : 2656372X     DOI : -
The Scientific Journal of "Power Plant" is a collection of scientific works by lecturers, researchers, and practitioners in the field of Mechanical Engineering that have been published since September 2012. This journal is the result of scientific work, research in the fields of Energy, Materials and Energy Conversion to contribute in writing scientific which will be useful for the application of science and technology, especially in the field of Mechanical Engineering.
Arjuna Subject : -
Articles 102 Documents
Analisa Gangguan Failure To Ignite Pada GTG 1.3 Tambak Lorok Dengan Metode RCFA Roswati Nurhasanah; Gita Puspa Artiani; Gaguk Sujadmiko
JURNAL POWERPLANT Vol 2 No 2 (2014): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v2i2.818

Abstract

PLTGU designed for continuous running, but because of the condition of the network then UP Semarang is conditioned only operate during peak hours or when required by the Dispatcher because other units are holding maintenance or because of something that can not operate. This condition makes the gas turbine units at UP.Semarang often operate with a pattern start / stop, so that the equipment plays an important role in the process of start / stop required for work excellence. The method used to analyze the root cause failure disorders to Ignite Gas Turbine is the method of Root Cause Failure Analysis (RCFA). Based on the results of analysis by method RCFA, disruptions caused by failure to Ignite Liquid Fuel Nozzle Check Valve Failure to obtain Task that is in addition to the regular maintenance schedule after GTG operated by MFO also implement new PM replacement check valve for no.1 to 14 every 6 months , manufacture PM Visual check every 1 week and the addition of a new Prime Minister for a replacement check valve No. 4,5,10,11,13 and 14 every 3 months because often damaged.
Modifikasi Sistem Backup Udara Instrument Boiler, Turbin Dan Generator Dari Udara Service Untuk Meningkatkan Kehandalan Operasi Pada PLTU Suralaya Unit 1-4 Andika Widya Pramono; Indah Handayasari; Asep Tresna Lh
JURNAL POWERPLANT Vol 3 No 2 (2015): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v3i2.819

Abstract

The operation of a power plant, reliability is one of the factors that is maintained. One of the factors that have a very important role in the operation system reliability PLTU air instrument is a system where the system is working to provide air supply pressured performing for the operation instrument controls Honda pneumatic. Suralaya Power Plant In unit 1-4 this system is equipped with three for each unit and this in complete system backup system of air service to anticipate if there was a problem in the air instrument. Current, if there is any drop pressure because bermasalahnya air conditioning system instrument backup air instrument from the air opened by manual service by the operators because isoting valve is still a valve manual work so that they will have a response inadequate. To improve response safety backup from the air service can be done by using valve control that worked independently automatically without the control of operator. Planning process valve control is done in implementing the aspects the choice of valve, determining the values settings, reliability operation, and security operations valve control.
Peningkatan Daya Mampu Dan Efisiensi PLTG Tipe ABB 13E2 Melalui Optimalisasi Sudut VIGV Sahlan Sahlan; Erlina Erlina; Ronny Koeshartarto
JURNAL POWERPLANT Vol 2 No 2 (2014): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v2i2.820

Abstract

Gilimanuk power plant (ABB 13E2) with an installed capacity of 133.8 MW generating units that have a strategic role in the Bali Sub Systems (± 25 % when the Peak Load) . A decrease in power capable , increased heat rate , especially when approaching the maintenance period , becomes a problem that impact on the efficiency of the unit . Departing from the problem arose the idea that by optimizing the angle openings VIGV (Variable Inlet Guide Vane) but remains within safe limits with the aim of improving the performance and efficiency of the generating units. After optimization of the opening angle of VIGV gained increased power capable of 2-3 MW units , an increase of 0.2 % efficiency units and no adverse effect on the material and exhaust emissions after the NDT test in 2012 Major Inspection and monitoring of emissions via CEMS .
Efisiensi Boiler Berbahan Bakar Ampas Tebu PLTU PT Indolampung Perkasa Setelah Overhaul Rosmawati Nurhasanah; Evan Satria
JURNAL POWERPLANT Vol 3 No 2 (2015): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v3i2.821

Abstract

Boiler is the major component steam power plant in a working produce steam room with high temperature and pressure from a certain boiling water. Power plant in PT indolampung bagasse Exalted in Might be used as fuel. Even when using fuel that is different from such as in general (such as coal), component in boiler on PT indolampung like Mighty accused boiler in general. To keep performance or efficiency of boiler, need to be done Currently. Efficiency is one of the many a parameter that is used to assess whether or not good performance a boiler. Currently on PT indolampung Exalted in Might be done at any time minced ended. However, after done Currently, the recapitulation has never been done for the efficiency boiler. Therefore, the final project is to be calculated the efficiency boiler after Currently. In calculating efficiency, and used the equation boiler according to Japanese Industrial Standard (JIS) B 8222-1973, with the method heat lose. Early boiler efficiency of 75.12 percent, and the efficiency boiler this time of 74.22 percent. There was a decline boiler efficiency of 0.9 percent.
Analisa Pengaruh Cleaning Kondensor Terhadap Vibrasi CWP 2C Vakum Kondensor Dan Temperatur Cooling PLTU Paiton 2 Vendy Antono; Dika Wahyu Wijaya
JURNAL POWERPLANT Vol 2 No 2 (2014): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v2i2.822

Abstract

In the process of production of the power plant cooling water system has a very important role to change the vapor phase from the expansion turbine into water stored in Hotwell. The condenser is equipment which becomes the venue for the process, but keep in mind the level of cleanliness of the condenser becomes an important factor because it can reduce the heat transfer in the condenser and reduces the cooling process. Moreover, it can also result in other equipment eg in CWP (circulating water pump) increased vibration due to flow of pumped water can not flow the maximum because of blockage in the tube-tube condenser can for garbage, excrement of marine life, or the rubber peeled off later cover tube-tube condenser. This will also result in the efficiency of the unit as well as derating occurs during the process of cleaning the condenser. Cleaning the condenser lowers vibration values ​​CWP 2C Motor inboard side Axial from 6754 mm / s to 1080 mm / s and horizontal outboard motor side of 4645 mm / s to 2827 mm / s according to ISO 10816-3 standard vibration value falls within the normal conditions of operation .Kenaikan dry vacuum condenser before becoming 695 mmHg 683 mmHg after cleaning the condenser this is because the maximum heat transfer process. Mass amounts of water cooling which increased from 15133.88 kg / s into 19221.1 kg / s cause the temperature difference cooling water in and out decreased from before cleaning the condenser is 13 0C becomes 8.6 0C.
Modifikasi Penambahan Lube Oil Pump Pada Pulverizer PLTU Suralaya Unit 1-4 Eko Sulistyo; Fahrudin Sinatrya
JURNAL POWERPLANT Vol 3 No 2 (2015): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v3i2.823

Abstract

Suralaya Power Plant unit 1-4 using coal as fuel, before a coal burned in the living room fuel first crushed using pulverizer (mill).part of Mill has a function to alter the current round of torque electric motor is gearbox, in gearbox pulverizer there are gear - accessible teeth and safeguards that require lubrication circulation to minimize wears a so-called system lube oil pulverizer.When pulverizer are currently operating system and disturbance in lubricant oils pressure pulverizer resulting in low, then Mill stopped operating in tibatiba (trip). Mill trip will reduce coal supply toward boiler system, so that it will reduce the ability boiler in producing steam room and not directly affected electricity production.After understand pulverizer operations and system pelumasanya Because of that, in order to prevent pulverizer trip, the solution is menambahan gas reserves pemipaanya (piping) in pairs in parallel with pumps and will be operated if pressure lubricant low when pulverizer operate.pump and electric motor initiators suffers from specification is almost same or identical with valve isolation and valve system in the direction.pengabelan (wiring/cable length according) will also be modified to support pump operation reserves.
Analisis Ketahanan Material Lance Tube Sootblower Tipe 2 IK Superheater Desain Sendiri Dengan Perbandingan Material Desain Perusahaan Di PLTU Suralaya Unit 1-4 Andika Widya p; Gita Puspa Artiani; Reza Alfin
JURNAL POWERPLANT Vol 4 No 1 (2016): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v4i1.824

Abstract

Power Plant is a type of thermal power plant that is widely used, because of its fuel efficiency is good and easily obtained thus producing electrical energy economically.One Supporting Components Boiler ie Furnace, Steam Drum, Superheater, Water Heater, economizer, Safety Valve, Sootblower. Sootblower a boiler auxiliary equipment which serves to clean the dirt produced from the combustion process that is attached to the tube wall pipes, superheater, reheater, economizer, and water heater. The goal is to keep the heat transfer takes place properly and effectively. Long Retractable type Sootblower placed in superheater, Reheat, and economizer. This type is on stand-by condition is outside, and when the work will go spinning and turning it back out. if on the flue gas temperature is still very high, causing Sootblower bent by heat if it is not pulled out.
Modifikasi Penambahan Line Emergency Back Up GSW Head Tank Pada PLTU Suralaya Unit 1-4 Jasmid Edy; Mu’ridin Mu’ridin
JURNAL POWERPLANT Vol 3 No 2 (2015): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v3i2.825

Abstract

Cooling System teaching aids or GSW (General Service Water) is used for cooling system equipment lubrication aids Suralaya Power Plant in the water use demin (pure water) as its media. Issues that frequently occurred in unit is terkontaminasinya water demin by emergency back up GSW Head tank of water fire fighting that have chemical composition water that is different from water demin. This is because emergency back up normal (by pass valve) from demin supply pump could not be fully back up level low GSW Head tanks that can cause unit Trip if level was not immediately dinormalkan. If this is allowed to be continuously and not anticipated so it can cause corrosion, deposit and water pipes porous in line cooling assist (GSW which became a loss for the company financially cooling process equipment and helping to not optimal. One of offered solutions is to replace emergency supplies back up GSW Head tanks from fire fighting by using supplies from RFW (Reserve are Sent Electronically Water tanks which both of the same using the media water demin so terkontaminasinya water GSW can be minimized.
Analisa Kapasitas Force Draft Fan Dengan Bahan Bakar Batubara Kualitas Rendah Arief Suardi Nur Chairat; Rahmadino Yuda
JURNAL POWERPLANT Vol 4 No 1 (2016): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v4i1.826

Abstract

Coal power plant is designed based on a particular coal quality. Changes in coal quality will affect the quality of combustion and changes in combustion air. This study will describe the analysis of changes in coal quality on the ability of the force draft fan covers theoretical air, the percentage of air, capacity and force draft fan itself, and to analyze whether the capacity of force draft fan that existed at the time the design is adequate to the quality of coal that apply now .Berdasarkan calculation of theoretical air force draft fan air is 306 300 kg / s with the design power of 811 909 kW. Calculation of actual data shows the average air flow in the period from March to May was 307 610 kg of air / s. The capacity is still inadequate because of changes in the quality of the coal used is not too large.
Perancangan Turbin BULB Poros Vertikal Prayudi Prayudi; Fitra Fauzan
JURNAL POWERPLANT Vol 3 No 2 (2015): JURNAL POWER PLANT
Publisher : Sekolah Tinggi Teknik - PLN

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33322/powerplant.v3i2.827

Abstract

PLTMH is power plants, now many in developing good in the village or in isolated areas. One of the type of turbine that potential to PLTMH on the river - river in Indonesia is turbine Bulb. Turbine Bulb is a kind turbine Kaplan who has been developed, turbine was in use on the head with a low efficiency. The "Bulb casing shape" is derived from waterproof upstream that contains a generator inside.turbine Bulb is very suitable for rivers - rivers in Indonesia because the operation turbine was only requires head turbine that low and with water debit. In addition of rivers, is also possible to use of the potential the irrigation drain that has been there. In this final project I'm doing design turbine Bulb with debit (Q) 5m3/s and head 5n.

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