Next-Generation CO₂ Capture System

• System composition
Description
Details
Circulating fluid 
driven type
(Venturi Injection)

· Gas induction suction using the kinetic energy of circulating fluid without a blower or compressor.

· Operates without separate gas compression power. (utilizes energy from the circulation pump)

· Max’ energy efficiency if it applied to marine OCCS.

High-dispersion reaction + Accelerated reaction module

· Mass transfer coefficient increased by at least 20 times (compared to conventional tower types).

· Device volume reduced to 1/5 at the same specification.

· Compact structure suitable for shipboard installation.

Storage of carbonate slurry of captured CO2

· Storage/unloading of CO2 carbonate slurry using a pump.

· Avoids dedicated refrigerated LCO2 tanks in the mineral-carbonation route.


• Process & features


·1st Reaction >  Max’ gas-liquid contact area with multiple orifices.

·Accelerated 2nd reaction > Fluid dilution and mass transfer under optimal conditions.

·Combined Synergy  >  Increased contact area (a) in the 1st module and increased mass transfer coefficient (kL) in the 2nd module max’ reaction rate. => Targets at least 20 times higher volumetric mass-transfer performance under matched.


operating conditions.

=> Capable of processing a large amount of CO2 relative to the same capacity.


·Reaction time is reduced by combining the 1st reaction module and the accelerated 2nd reaction module.

·Conventional systems generally require large contact towers and   energy-intensive downstream regeneration or CO2 conditioning, but EASY module system does not require operation under high-pressure or high-temperature conditions.

·Therefore, equipment volume and operating energy can potentially be reduced.


• Advantage

• Technical comparison

Low-Energy High-Efficeiency
 
Compact Modular

Carbon Capture System

for ship & industry


 Next-Generation CO2 Capture System


• System composition

 

Circulating fluid driven type (Venturi Injection)

· Gas induction suction using the kinetic energy of circulating fluid without a blower or compressor.

· Operates without separate gas compression power. 

       (utilizes energy from the circulation pump)

·  Max’ energy efficiency if it applied to marine OCCS.

High-dispersion reaction 
+
 Accelerated reaction module

· Mass transfer coefficient increased by at least 20 times.

   (compared to conventional tower types)

· Device volume reduced to 1/5 at the same specification.

· Compact structure suitable for shipboard installation.

Storage of carbonate slurry of captured CO2

· Storage/unloading of CO2 carbonate slurry using a pump.

· Avoids dedicated refrigerated LCO2 tanks in the mineral-carbonation route.




• Process & features

 

·1st Reaction >  Max’ gas-liquid contact area with multiple orifices.

·Accelerated 2nd reaction > Fluid dilution and mass transfer under optimal conditions.

·Combined Synergy  >  Increased contact area (a) in the 1st module and increased mass transfer coefficient (kL) in the 2nd module max’ reaction rate. => Targets at least 20 times higher volumetric mass-transfer performance under matched.


operating conditions.

=> Capable of processing a large amount of CO2 relative to the same capacity.


·Reaction time is reduced by combining the 1st reaction module and the accelerated 2nd reaction module.

·Conventional systems generally require large contact towers and   energy-intensive downstream regeneration or CO2 conditioning, but EASY module system does not require operation under high-pressure or high-temperature conditions.

·Therefore, equipment volume and operating energy can potentially be reduced.

본사.                  전라남도 목포시 신항로 294번길 22 2층 

Head Office.  22, Sinhang-ro 294beon-gil, Mokpo-si, Jeollanam-do, Republic of Korea (58762)


연구소 .             부산시 강서구 과학산단1로 60번길 30, 4동 3층 308호 

R&D Office.    #308, 3-floor, 4-dong, 30, Gwahaksandan 1-ro 60beon- gil, Gangseo-gu, Busan,                                     Republic of Korea (46742) 


Email.               bibber1@naver.com / easysys2018@gmail.com

Tel.                     +82 51 935 9340

Fax.                    +82 51 935 9341