Linked from

The 17 pages that link to Aspartame, each with the reason it gives.

• PhenylalanineRelated: Its digestion releases phenylalanine, requiring labeling for people with phenylketonuria.

• Sugar substituteBroader topic: Its intense sweetness comes from receptor activation at quantities far below those of sugar.

• IsomerizationRelated: Isomeric forms differ in sweetness and illustrate why stereochemical control matters in synthesis.

• Soft drinkRelated: It sweetens diet soft drinks without the sugar content of conventional recipes.

• XylitolCompared with: Aspartame provides sweetness through a different chemical structure and is used at much lower quantities.

• SucraloseCompared with: It is another high-intensity sweetener, but its chemistry and heat stability differ from sucralose.

• Diet sodaRelated: It sweetens many diet sodas without the sugar used in conventional soft drinks.

• E numberBroader topic: The code E951 labels this sweetener in ingredient lists.

• Steviol glycosideCompared with: It offers intense sweetness through different chemistry and is not derived from Stevia.

• Aspartic acidBroader topic: Aspartic acid is one of the two amino-acid components of this sweetener.

• Chewing gumRelated: It provides sweetness in many sugar-free chewing gums.

• SaccharinCompared with: It is less heat-stable than saccharin and has a different chemical structure and metabolic fate.

• Acesulfame potassiumRelated: It is often blended with acesulfame K to improve sweetness and reduce lingering aftertaste.

• CyclamateCompared with: It is a chemically distinct alternative with different stability and use characteristics.

• LactitolCompared with: Aspartame is used in tiny amounts for sweetness, unlike lactitol’s bulk-sweetener role.

• AlluloseCompared with: Aspartame is far sweeter than sugar and contributes no sugar-like bulk or browning.

• Glutamate flavoringCompared with: It is a flavor-active food additive, but it enhances sweetness rather than umami.