의료법인 유투의료재단 신축공사

  • Location

    열분해

  • Client

    의료법인 유투의료재단

  • 용도

    1종 근린생활시설1종

  • 규모

    지하3층~지상7층 / 7,917.81㎡

  • 공사기간

    2025.02 ~ 2026.12

Overview

We provide innovative, eco-friendly wastewater solutions based on global licenses, diverse treatment methods, sludge reduction, and biogas recovery, supporting ESG goals.

  • Global License-Based Solutions

    Global License-Based Solutions

    Providing Proprietary Environmental Solutions Under Official PAQUES Licensing

  • Wide Range of Wastewater Treatment Technologies

    Wide Range of Wastewater Treatment Technologies

    Including Anaerobic, Aerobic, Membrane Filtration, Adsorption, Oxidation, and More

  • Sludge Reduction & Biogas Resource Recovery

    Sludge Reduction & Biogas Resource Recovery

    Achieving Sludge Volume Reduction and Biogas Production for Energy Resource Utilization

  • ESG-Based Environmental Solutions

    ESG-Based Environmental Solutions

    Providing Sustainable ESG-Based Environmental Solutions

APPLICABLE INDUSTRIES

  • Industrial wastewater treatment Facility

    Applicable Industries

    • High-concentration wastewater
    • High-salinity petrochemical wastewater
    • Wastewater from cathode materials, precursors, and secondary battery recycling
    • High-load nitrogen wastewater
    • Waste (sludge) treatment
DRAG

Supply Type

  • Anaerobic Wastewater Treatment
  • Aerobic Wastewater Treatment
  • Wastewater Reuse System
  • Dehydrator

    Reactor Type

    Reactor Type
    Equipment

    IC Reactor

    Economical wastewater treatment equipment that removes COD by using anaerobic microorganism, and can recover methane generated in this process to use it as an energy source

    ICX

    It is the latest technology developed based on the experience of UASB and IC Reactor, and it is possible to convert not only new wastewater treatment equipment but also anaerobic wastewater treatment equipment, which has operational problems such as microbial loss, to ICX

    UASB Plus

    It is the technology that improved the disadvantages of UASB, and it is possible to convert existing tanks that are not in use and to improve wastewater treatment facilities with small initial cost

    Advantage
    • Low installation space due to high volume load
    • No malodors due to closed structure
    • No special maintenance necessary inside tghe reator
    • Minimizing the loss of granule sludge
    • Stable operation possible even if the change in the concentration of raw wastewater is large
    • Lower initial investment cost by remodeling unused tanks into reactors
    • Low installation space due to high volume load
    • No malodors due to closed structure
    • Minimizing the loss of granule sludge
    • Stable operation even in inflow water withhigh flowage
    • Water quality of treated water is stable
    • Production of useful biogas
    • Lower initial investment cost by remodeling unused tanks into reactors
    • Installation space is less due to high volume load compared to UASB
    Applicable range

    (COD concentration x flow rate) : 20~30kg COD/㎥day

    (COD concentration x flow rate) : 30~60kg COD/㎥day

    (COD concentration x flow rate) : 15~20kg COD/㎥day

    Applicable Industry
    • Food and beverage production wastewate
    • Starch production wastewater
    • Beer production wastewater
    • Alcohol production wastewater
    • Pharmaceutical wastewater
    • Paper production wastewater
    • Petrochemical wastewater

    THIOPAQ (Biogas Desulfurization Equipment)

    THIOPAQ (Biogas Desulfurization Equipment)
    Equipment

    THIOPAQ(Biogas Desulfurization Equipment)

    It is a system that removes hydrogen sulfide contained in biogas by combining a scrubber and a bioreactor.
    It absorbs hydrogen sulfilde in the scrubber and discharges it in the form of elemental sulfur (S0)by using microorganisms (thiobacillus) in the bioreactor equipment.

    Advantages
    • Good removal rate of hydrogen sulfide and re-use of removed sulfur
    • Fast Start-Up
    • Safe operation under normal temperature and normal pressure
    • No use of chelate compounds and little caustic soda consumption
    Applicable rang
    • Gas flow rate : 100 ~ 1,400 ㎥/h
    • Sulfur load : 50 ~ 600kg S/day
    Applicable Industry
    • Biogas of anaerobic digester tank
    • Industrial digestion gas such as landfill gas
    • Pertochemical industry
    • Coal gasification plant of power plant

    ANAMMOX

    ANAMMOX
    Equipemt

    Nitrogen Wastewater Treatment Equipment(ANAMMOX)

    Unlike existing nitrification processes (NH4→NO2→NO3) and denitrification (NO3→N2), this is the technology that uses partial nitrification (NH4→NO2)process where granular ANAMMOX microorganism is removing nitrogen by using only the NH4and NO2

    Advantages
    • Reduced power consumption by up to 60%
    • No need for carbon source(e.g. methanol)
    • Reduced carbon dioxide emissions by up to 90%
    • Very low amount of sludge
    • It is strong against impact load because it uses granular microorgnisms.
    • A highly economical system with a small tank capacity due to high volumetric load
    • Easy operation with automated equipment
    • Stable operation even at relatively high concentration of solids
    Applicable range
    • Organic solid wastewatertreatment plant wastewater
    • Digester tank reject water
    • Food and beverage wastewater
    • Semiconductor wastewater
    • Fertilizer processing and fertilizer wasterwater
    • Petroleum chemical
    • Anima wastewater
  • Activated Sludge Process

    A traditional biological treatment method that uses microorganisms to decompose pollutants and separates the sludge through a sedimentation tank.

    MBR (Membrane Bioreactor)

    An advanced treatment method that combines activated sludge and membrane separation to produce high-quality effluent.

    SBR (Sequencing Batch Reactor)

    A batch process in which all treatment stages are carried out sequentially within a single reactor.

    A2O (Anaerobic-Anoxic-Oxic Process)

    An advanced treatment method that removes nitrogen and phosphorus simultaneously through anaerobic, anoxic, and aerobic stages.

  • Overview

    The water treated through the wastewater treatment system can be reused as industrial water, landscape irrigation water, process water, and more after passing through the reuse facilities.
    By utilizing wastewater reuse facilities, it is possible to reduce wastewater generation and treatment costs, as well as achieve cost savings through decreased water consumption.

    Process Flow

    We deliver reliable and cost-efficient process designs tailored to the characteristics of wastewater and the specific quality requirements of our clients.

    Equipment

    • Pre-treatment Equipment

      : SAND filter, MMF, A/C filter, UF, etc.

      • - Removal of turbidity and suspended solids

      • - Removal of organic substances

    • RO System

      : RO, UV sterilization, etc.

      • - Removal of turbidity, TDS, and TOC

      • - Removal of heavy metals and ions

      • - Removal of organics and sterilization

  • Multi–Disc Wastewater Sludge Dehydrator

    Multi–Disc Wastewater Sludge Dehydrator
    Equipment

    Multi–Disc Wastewater Sludge Dehydrator

    The coagulated sludge is compressed and dehydrated by each of filtering rollers
    which consisting of stainless and resin discs are rotating at different speeds.

    Advantages
    • Eco-friendly Dehydrator(Electric Power & Water saving)
      Multi-Disc Dehydrator(Average electric power usage 0.05kWH/kgD / Average water usage 48 ~ 140L/h)
      Belt Press Dehydrator(Average electric power usage 0.1kWH/kgDS / Average water usage 840L/h)
    • Automatic Operation
    • Self-cleaning Mechanism
    • Compact design
    • Eco-friendly design(low noise and vibrations, no odors)
    • Capable of Treation Oily Sludge (It can cope with a wide sludge concentration range of 0.5 to 5.0%)
    Applicable range
    • Applicable to wastewator
    • Organic solid wastewater treatment plant wastewater
    • Food and beverage wastewater
    • Petroleum chemicla, Animal wastewater etc.

Project Portfolio

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Project Name Client Facility Capacity Main Processes Completion Year
New Wastewater Treatment Facility POSCO E&C Busan, Korea Capacity: 375 ㎥/d, TN: 300 mg/L Under Construction ANAMMOX (Denitrification)
New Wastewater Treatment Facility PT.TSPM Indonesia High-conc.: 12 ㎥/d, CODcr: 130,000 mg/L
Low-conc.: 50 ㎥/d, CODcr: 9,000 mg/L
2024 Evaporation (High-conc.) + MBR (Low-conc.)
Anaerobic Wastewater Treatment Installation & Expansion NoodleLovers Inc. Jincheon, Korea 700 ㎥/d, CODcr: 3,500 mg/L 2023 ICX Reactor
Anaerobic Wastewater Treatment Installation & Expansion NoodleLovers Inc. Jincheon, Korea 700 ㎥/d, CODcr: 3,500 mg/L 2023 MBR
New Wastewater Treatment Facility Kolmar BNH Sejong, Korea 80 ㎥/d, CODcr: 1,000 mg/L 2023 Activated Sludge
New Wastewater Treatment Facility Kolmar BNH Sejong, Korea 60 ㎥/d, CODcr: 25,000 mg/L 2022 Activated Sludge
Anaerobic Wastewater Treatment Korea Paper Siheung, Korea 3,000 ㎥/d, CODcr: 7,000 mg/L 2021 IC Reactor
Anaerobic Wastewater Treatment Asia Paper Siheung, Korea 10,000 ㎥/d, CODcr: 5,000 mg/L 2021 ICX Reactor
Biogas Desulfurization System Samyang Corporation Ulsan, Korea 300Nm³/hr 2021 THIOPAQ (Desulfurization)
IWW Wastewater Treatment UNIKEN Ulsan, Korea High-conc.: 205 ㎥/d
MBR: 261 ㎥/d
2020 Evaporation + MBR
High-Efficiency Anaerobic Reactor Hite Hongcheon, Korea 3,000 ㎥/d, CODcr: 7,000 ppm 2019 IC Reactor
Anaerobic Wastewater Treatment (Plant 1) Namyang F&B Hongseong, Korea 350 ㎥/d, CODcr: 5,000 ppm 2019 IC Reactor
Anaerobic Wastewater Expansion Hanwha General Chemical Co., Ltd. Ulsan, Korea 3,800 ㎥/d, CODcr: 8,500 ppm 2019 UASB+ Reactor
Anaerobic Digester OB Beer Gwangju, Korea 6,000 ㎥/d, CODcr: 4,000 ppm 2018 UASB Reactor
High-Efficiency Anaerobic Reactor Haitai HTB Cheonan, Korea 2,000 ㎥/d, CODcr: 3,000 mg/L 2017 IC Reactor
High-Efficiency Anaerobic Reactor Hankook Beverage Namwon, Korea 1,500 ㎥/d, CODcr: 1,500 mg/L 2017 IC Reactor
High-Efficiency Anaerobic Reactor Samyang Corporation Incheon, Korea 3,000 ㎥/d, CODcr: 6,000 mg/L 2015 IC Reactor
High-Efficiency Anaerobic Reactor Lotte Chilsung Beverage Cheongju, Korea 750 ㎥/d, CODcr: 2,200 mg/L 2014 IC Reactor
High-Efficiency Anaerobic Reactor Samyang Corporation Ulsan, Korea 4,000 ㎥/d, CODcr: 5,000 mg/L 2012 IC Reactor
High-Efficiency Anaerobic Reactor SEMPIO Icheon, Korea 500 ㎥/d, CODcr: 3,200 mg/L 2011 IC Reactor
High-Efficiency Anaerobic Reactor Hite Jeonju, Korea 5,000 ㎥/d, CODcr: 11,000 mg/L 2010 IC Reactor
High-Efficiency Anaerobic Reactor Lotte Chilsung Beverage Opo, Korea 2,500 ㎥/d, CODcr: 3,500 mg/L 2008 IC Reactor
High-Efficiency Anaerobic Reactor Hansol Paper Daejeon, Korea 28,000 ㎥/d, CODcr: 20,000 mg/L 2008 IC Reactor
Wastewater Treatment Process Change & Expansion Lotte Chilsung Beverage Daejeon, Korea 1,500 ㎥/d, CODcr: 4,000 mg/L 2006 IC Reactor
High-Efficiency Anaerobic Reactor Daesang Gunsan, Korea 4,300 ㎥/d, CODcr: 4,400 mg/L 2006 IC Reactor
High-Efficiency Anaerobic Reactor Lotte Samkang Cheonan, Korea 3,900 ㎥/d, CODcr: 5,000 mg/L 2006 IC Reactor
Anaerobic Wastewater Expansion SINGSONG Nonsan, Korea 2,000 ㎥/d, CODcr: 9,600 mg/L 2004 IC Reactor
New Wastewater Treatment Facility Kooksoondang Hoengseong, Korea 320 ㎥/d, CODcr: 2,700 mg/L 2003 IC Reactor

Customer Inquiries