Skip to main content

Coca-Cola: Life - myth or truth?

"Coca-Cola Life"


Recently the Coca-Cola company released a new beverage: the Coca-Cola Life drink.

It should contain less sugar than the normal Coca-Cola drink; a part of the sugar is replaced with the recently approved sweetener from the Stevia plant (stevioglycosides).

It's being sold as a 'natural' drink, but those stevioglycosides are as natural as the chemical sweetener aspartame found in Light and Zero drinks.

However it is true that the amount of sugar is much lower (being reported as 33%, some say it's around 20%); yet approximately still 3-4 sugar cubes / 33 cl can (5-6 in a normal can).

I bought it myself and found that the flavor has not really changed from the original Coca-Cola, however it does taste more "flat" - but definitely true it yourself.
The outside of the can has the colour green. I personally do not associate this "healthy - natural" colour with Coca-Cola, but it's growing on me.

In summary, it's not a new revolutionary beverage, and mostly is (and maybe will stay) a marketing hype. But the flavour is alright, it's close to Coca-Cola's roots, and most importantly, has effectively less sugar than the original Coca-Cola. Yet keep in mind that if you want to lose weight or reduce your intake of sugar drastically, then do not drink this or the original Coca-Cola, but go for the Light or Zero varieties if you still want to drink this soft drink.


References: media, google, ...



Coca-Cola Company©

Comments

  1. This comment has been removed by a blog administrator.

    ReplyDelete

Post a Comment

Popular posts from this blog

Alkynes: addition of H2 gas and Lindlar catalyst

Alkynes: addition of Hydrogen gas (H2) Performing a catalytic reduction on an alkyn will result in giving an alkane. The alkene intermediate will be formed in the process, but will immediately react into an alkane. The end result is just the formed alkane, without stacking of the alkene intermediate. The Lindlar catalyst In theory this is a "poisoned or defected" catalyst. If you use a normal catalyst you will get the above effect with your alkyne. The Lindlar catalyst contains Palladium combined with Calcium-carbonate and treated with Lead. Palladium is the actual catalyst, the calcium carbonate is the carrier of the substance and the lead is the poisonous compound. Using the Lindlar catalyst instead of another catalyst together with Hydrogen gas, will lead into forming the cis-alkene intermediate instead of the forming of the corresponding alkane. 

Alkylhalides: Substitution reactions 6 (Sn1)

Alkylhalides: Substitution Nucleophile substitution reaction ( Sn1 reaction ) Sn1 side reactions I will now discuss some side reactions that can occur when a Sn1 reaction takes place. Carbocation shift Illustrated in the scheme below: Benzyl- and allylhalides  Benzyl- and allylhalides can undergo Sn1 AND Sn2 reactions. How to distinct them? Sn1 conditions: protic solvent and by adding a weak attacking nucleophile. Note: Benzyl- and allylhalides easily undergo Sn1 reactions, because their carbocations are very stable. Sn2 conditions: aprotic solvent and by adding a strong attacking nucleophile. Note: tertiary benzylhalides and tertiary allylhalides will NOT undergo a Sn2 reaction because of the steric effects (see chapter Sn2 reaction blogposts). Sn2 reaction examples Sn1 reaction examples Sn1 and Sn2 reactions in biology, nature and medicines S-Adenosyl methionine This is a biological methylating agens, also known as SAM . It is a frequen...

The proteasome [1]: a crucial structure of protein degradation

The proteasome Proteins are constantly being synthesized and at the same time being degraded in each cell of our body. One of the most known mechanisms of proteolysis (= protein degradation) is the degradation done by lysosomes. However, an other important mechanism is degradation by the ubiquitin proteasome system (UPS). First of all, it is needed to understand that a cell maintains its protein concentration by a constant turn-over of proteins: when there is a lot of synthesis of a certain protein, this certain protein will also be degraded by a higher level, and vice versa. A protein that has to be degraded will be marked by a polyubiquitin chain which consists of 4 or more ubiquitinmolecules. This protein will be transported to a 26S proteasome. This structure in the cell is built by a 19S part and a 20S part. The 19S part mainly serves as a recognition and binding structure for the polyubiquitinated protein, and the 20S part will destroy the protein. Once attached to the...