Ashley A. Stanfield
Ashley A. Stanfield
I love to cook, write, and eat. And I really love to share this information with the world. I started when I realized the amount of misinformation out there in regard to cooking and food. So I decided to start gathering up everything I could, from recipes to cooking tips to restaurant reviews, to create a resource that people would actually use and enjoy. I think it's important to be passionate about food and enjoy cooking it and eating it. This is my way of sharing all that knowledge with you.

Nothing says warm summer season days like a scoop of one of our favorite frozen cakes: ice cream. If you want to indulge in your self-made recipes, chemist Matt Hartings lets you play with your delicious chilled masterpieces. “I recognize that we were all told as children to no longer play with our meals. But, messing around as we cook dinner is an extraordinary way to make our meals a little better and an outstanding way to do and study a bit of chemistry,” says Hastings, a partner professor of chemistry at American University and creator of Chemistry in Your Kitchen. Concocting the creamiest, smoothest batch of ice cream comes down to the interactions between the tiny, little particles—the chemical substances—that make up all our meals, Hartings explains to Science Friday.

Homemade Ice Cream Recipe

“They wiggle; they wobble; they interact with all of the other molecules they arrive into contact with,” says Hastings. “Exploiting those molecular hookups is important to make any meal better. And we’ll look at how that’s carried out with ice cream.”

Begin With The Basics

Masses of ice cream recipes accessible, and some of them are probably quite perfect the way they’re. But we’ll dive into one formula to look at all the critical components and speak about how we can trade the recipe up a little bit. It’s a good way to recognize how every ingredient desires to be treated when we make ice cream. It’s also a good way to know how to approach a recipe when we have a nutritional restriction, food hypersensitive reaction, or want to try something new.

Basic Ice Cream Recipe

three cups of 1/2-and-1/2
five big egg yolks
¾ cup of sugar
One teaspoon of vanilla


Mix the egg yolks and sugar with a whisk or mixer until mixed and pale in color.
Pour 1 cup of the 1/2-and-1/2 into the egg/sugar mixture at the same time as stirring.
Add the half-and-half of/egg/sugar aggregate to a pan and heat, constantly stirring, till a custard bureaucracy and the liquid leaves a thick film at the return of a wooden spoon.
Pour this aggregate into a bowl containing the opposite 2 cups of half of-and-half of.
Add the vanilla to the combination.

Cool in a refrigerator.

Freeze in an ice cream maker in keeping with the manufacturer’s specs.
Think Like A Chemical
Before we start playing with our ice cream, we need to shrink down and notice what chemicals we’re operating with. We’ll destroy these into the varieties of molecules indexed on a dietary label for simplicity. These include carbohydrates (a mixture of starches, dietary fiber, and sugars), fat, and protein.

Three cups of half-and-half (726 grams total) include 31.2 grams of carbohydrates, eighty-three .4 grams of fats, 21.6 grams of protein, and around 590 grams of water.
Five big egg yolks (eighty-five grams total) include 5 grams of carbohydrates, 25 grams of fat, 15 grams of protein, and forty grams of water.
¾ cup of sugar (150 grams overall) contains hundred and fifty grams of carbohydrates (they are all sweet, delicious sugar, obviously).

A proper ice cream (a wonderful creamy ice cream) goes to have small ice crystals. Imagine a solid bite of half-and-1/2 pulverized into a zillion (very technical term) microscopically-tiny pieces. That’s what we’re going for. To make this happen, we must preserve the one’s water molecules from doing what they want: hang out with other water molecules.

Water molecules have a lot of energy at room temperature that they zip beyond one another, twirling and swirling around, slowing down simply sufficient to offer each other a water-molecule version of a high-5. As the temperature drops, the water molecules stop for a bit longer to bounce with each other. Even lower (freezing temperatures), and they’ll all huddle together and make an ice crystal.

Before we begin to freeze our ice cream, the water molecules are, to a volume, separated from every different by all of the other substances. We’ve got options for making small ice crystals in our ice cream:

Option 1: Freeze our ice cream surely fast, so the one’s water molecules don’t have the threat to move around and find other water molecule pals to freeze with. This option is exceptional… if you have been given one, get entry to a restaurant-grade ice cream maker or a few liquid nitrogens.

Option 2: Use an additive to slow the water molecules down to get to each other. This is what most people use once they make them.

- A word from our sposor -


Change Up Your Homemade Ice Cream Recipe