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To decaffeinate green coffee only fresh spring water and natural Ethyl Acetate extracted from sugar cane are applied.

Sugar cane Decaffeinated

Dramatic landscapes in Huila, accounting for more than

18% of the country’s coffee

The residuals of Ethyl Acetate in decaffeinated coffee are below 5 ppm.

A ripe Banana contains about 20 times more Ethyl Acetate.

Magdalena River Valley

Huila, Colombia

Amokka Decaf

Sale price112,00 kr

We choose speciality decaffeinated Arabica coffee beans each season to create a decaf that tastes just as rich and satisfying as its caffeinated counterpart. Our medium roast ensures a smooth, sweet flavour with a long, lingering aftertaste.

"Decaffeinated coffee often gets a bad rap, and undeservingly so!
Technology and the coffee industry has come very far in the last couple of years and today we are able to source decaffeinated coffee beans with flavours just as good as any other speciality coffee. We dare you to try it!

We like to buy smaller quantities of decaf beans to always keep it as fresh as possible, therefore the varietals and origins change. Recently we have found a soft spot for Colombian Sugarcane decaffeinated beans from Huila. 

Sugarcane decaffeination utilizes a naturally occurring compound, ethyl acetate to decaffeinate coffee. The ethyl acetate used in this process is derived from molasses, a byproduct of sugar production."

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Amokka Decaf
Amokka Decaf Sale price112,00 kr

Cauca, Colombia

Popayán

The Sugar Cane Decaffeination Process


The Sugar Cane Process, which originates in Colombia where sugar cane grows abundantly, removes caffeine while preserving the coffee’s cellular structure and even enhancing its natural sweetness.

The process begins with fermented molasses from sugar cane, which is used to produce ethanol. This ethanol is then combined with natural acetic acid to create ethyl acetate (E.A.), a solvent also found in wine, beer, fruits, and vegetables.

Green coffee beans are first soaked in water to increase their moisture content, allowing caffeine to be released from the bean’s structure. The beans are then washed with E.A., which binds to the caffeine and removes it. Afterward, the beans are rinsed with water, briefly exposed to steam to remove any remaining traces of E.A., and then dried to their original moisture level.

This method removes approximately 97% of the caffeine while maintaining the coffee’s natural flavors. Due to the influence of the sugar cane-derived molasses, this decaffeination process results in a clean, sweet, and well-balanced cup.

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