Making Wine from Apples, Pears, Mangoes, and More

Wine doesn’t have to come from grapes. Around the world, fruits like apples, pears, mangoes, jamun, and custard apples are being fermented into flavourful wines – each with its own distinct character. Fruit wine is an alcoholic beverage produced by fermenting fruits other than grapes, and flowers or herbs are sometimes added to the mix. The basic process – crushing, juicing, fermenting with yeast, clarifying, and aging – mirrors grape winemaking in its broad strokes. But each fruit brings a unique set of challenges related to sugar levels, acidity, juice extraction, and flavour development. Let’s break down how different fruits are turned into wine and what makes each one special.

How fruit wine production works 🔗

At its core, fruit wine follows the same biochemical pathway as grape wine. Saccharomyces cerevisiae is the yeast species responsible for converting sugars in fruit juice into ethanol, organic acids, and secondary compounds like aldehydes and esters that contribute to flavour and preservation. The general steps include selecting ripe fruit, crushing and pressing to extract juice (called must), adjusting sugar and acidity if needed, inoculating with yeast for fermentation, and then clarifying and aging the wine before bottling.

However, most fruits differ significantly from grapes in their chemical makeup. Grapes are often preferred because their natural balance of sugars, acids, and enzymes supports fermentation without much adjustment. Other fruits typically need supplemental sugar (a process called chaptalization), acid adjustments, or added nutrients for the yeast. According to European regulations, the permitted alcohol strength of fruit wines ranges between 1.2% and 14% by volume, and they can be fortified up to 22% by volume with distilled alcohol.

Apple wine (cider): the most popular fruit wine 🔗

Apple wine is the most widely produced and consumed fruit wine globally. Over 4,800 people are directly employed in the cider and fruit wine industries, with many additional jobs in the agricultural sector linked to apple and fruit production. The terminology can be a bit confusing: in Great Britain and France, “cider” refers to fermented apple juice, but in the United States, the term can mean either fermented or unfermented apple juice. Generally, hard cider has about 5-8% alcohol, while apple wine can reach up to 14%.

Key processing steps for apple wine 🔗

The process starts with selecting the right blend of apple varieties. Since it is difficult to find a single apple variety with the ideal balance of sugars, acids, and phenolics, a combination of varieties is typically used to achieve the desired juice composition. For instance, aromatic varieties like McIntosh or Golden Delicious may be blended with more astringent crabapple types.

Once selected, the apples are washed, crushed, and pressed to extract juice. Pectinase is commonly added to the mash to clarify the juice and increase juice yield. The juice often needs chaptalization because most apples are not as sweet as grapes. Since the natural sugar content of apple juice is usually insufficient for adequate alcohol production, adding sugar at the beginning of fermentation is a common practice.

Research on Golden Delicious apple wine production found that optimum fermentation conditions – about 20°C, with an inoculum size of around 7% and supplementation with diammonium hydrogen phosphate – produced ethanol levels of approximately 10.7%. After primary fermentation, apple wine often undergoes malolactic fermentation (MLF), where malic acid is converted into the softer lactic acid, reducing sharpness and improving mouthfeel.

In traditional French cider-making, fermentation relies mostly on indigenous microorganisms found on the apples and production equipment, and the entire process – from main fermentation to maturation – can take anywhere from one to six months.

Pear wine (perry): the delicate cousin of cider 🔗

Perry is to pears what cider is to apples. Perry is produced from pear juice, sometimes with a limited amount of apple juice blended in, and is made by fermenting without the addition of distilled alcohol. The process closely mirrors cider-making – crushing, pressing, fermenting, and aging – but pear wine has its own distinctive qualities.

Pears tend to be more astringent than apples due to higher tannin levels, and this quality carries over into the finished wine. Because pears are more astringent than apples, the same characteristic is imparted to perry. The flavour profile of pear wine often includes floral notes, hints of vanilla, and subtle spice. Juice extraction from pears can also be slightly trickier, as pear pulp tends to be grittier. Winemakers typically use pectolytic enzymes to break down the pulp and improve juice yield.

Perry is especially popular in parts of England, France, and Spain, where dedicated perry pear orchards have been maintained for centuries. The fruit’s moderate sugar content means that, like apple wine, chaptalization is often necessary to reach desirable alcohol levels.

Mango wine: a tropical powerhouse 🔗

Mangoes – often called the king of fruits – are an excellent candidate for wine production, particularly in tropical countries like India where annual production is enormous. The large scale of mango production allows for the application of technologies to minimize post-harvest losses and add value to the fruit chain. Mango wine offers rich, aromatic flavours with tropical, citrus, and slightly spicy notes.

Challenges in mango winemaking 🔗

Mango wine production presents some unique challenges. Unlike apples, mangoes have a thick, fibrous pulp rather than free-flowing juice. The pulp must be blended and often diluted with water before juice extraction is possible. In one study, 2.5 kg of mango pulp was blended and then mixed with sterile distilled water in a 1:1 weight-to-volume ratio to prepare the must.

Mangoes have a naturally high sugar content, which is favourable for alcohol production, but careful control of fermentation temperature and yeast concentration is critical. Research found that at a lower temperature of 25°C, ethanol yield from mango juice was highest at approximately 9.4%, compared to just 6.9% at the higher temperature of 35°C. This happens because excessive heat can stress the yeast and lead to incomplete sugar utilisation.

Optimised fermentation conditions for mango wine – around 22.5°C, pH 3.8, and an inoculum size of about 12% – can achieve ethanol content up to 10% and minimise volatile acidity. The finished wine is typically aged for several months before bottling to smooth out the flavours.

Jamun wine: India’s anthocyanin-rich red wine 🔗

Jamun (Syzygium cumini), also known as Indian blackberry or java plum, produces a strikingly deep-coloured wine that is rich in anthocyanins – the same antioxidant pigments found in grape red wines. Jamun is nutritionally rich, containing fermentable sugars like glucose and fructose, vitamins A and C, and bioactive compounds with antioxidant, antimicrobial, and antidiabetic properties.

Why jamun wine requires special attention 🔗

One of the biggest challenges with jamun is its extremely short shelf life – the fresh fruit lasts only about 1-2 days due to its perishable nature, making fermentative processing into wine a viable preservation strategy. This urgency makes winemaking not just a value-addition exercise but a way to prevent massive post-harvest losses. India produces approximately 13.5 million tonnes of jamun, with significant wastage due to perishability.

The fruit’s naturally high tannin content gives jamun wine a sharp, astringent quality. Sensory evaluations have shown that while jamun wine is quite acceptable as an alcoholic beverage, it differs notably from grape wine in taste, flavour, and aftertaste – primarily because of its higher tannin content. To manage this, some producers blend jamun juice with grape juice in different ratios. Studies have found that a 75:25 grape-to-jamun ratio produces the most acceptable blended wine.

Fermentation of jamun wine is typically carried out at 25°C using Saccharomyces cerevisiae, with a higher inoculum level (around 7.5%) producing faster and more complete fermentation. Research determined that S. cerevisiae strain 4787, at 7.5% inoculum and 25°C fermentation temperature, provided the optimum conditions for jamun wine production. The wine is then clarified – often using bentonite at about 0.04% – racked, and aged for several months.

Custard apple wine: turning a creamy fruit into alcohol 🔗

Custard apple (Annona squamosa), known as sitaphal in India, is one of the more unusual choices for winemaking. Its creamy, pulpy texture is very different from the juicy flesh of grapes or apples, which makes juice extraction one of the primary processing hurdles.

High sugar, tricky texture 🔗

On the positive side, custard apple has remarkably high natural sugar content. The fruit contains approximately 24% sugars, making it a suitable substrate for alcoholic fermentation. This high sugar level means less or no chaptalization is needed, and it can produce sweet and dessert-style wines naturally.

However, because of the fruit’s thick, paste-like pulp, it must be diluted before fermentation. Research on custard apple wine explored the effect of different pulp dilution ratios and found that a 1:2 or 1:3 dilution with the addition of diammonium hydrogen phosphate as a nitrogen source completed fermentation by around the 12th day. During fermentation, total soluble solids and sugars decrease while alcohol and acidity rise.

In vinegar studies using custard apple as a substrate, primary fermentation at room temperature (25°C) produced a wine with approximately 11.5% alcohol content. For wine production specifically, the must is typically adjusted to about 24°Brix total soluble solids, fermented for 3-4 weeks, and then matured for six months or more to improve sensory qualities. Maturation for six months was shown to considerably improve the quality of custard apple wine, with improvements in most sensory characteristics except astringency.

Other fruits used in winemaking 🔗

The world of fruit wine extends well beyond these five fruits. Fruits used for winemaking across different geographical regions include apricots, bananas, blackberries, blueberries, cherries, dates, hawthorns, kiwifruits, lemons, mulberries, and oranges. Each fruit presents its own set of considerations around sugar, acid, tannin, and juice content.

Stone fruits like plums, cherries, and apricots, tropical fruits like bananas and coconuts, and citrus fruits such as oranges, lemons, and grapefruits are all being used to produce wines of varying alcohol content globally. Even cactus pear has been studied as a fermentation substrate, with optimised conditions yielding quality wine using response surface methodology.

Pomegranate wine is also gaining popularity for its vibrant colour and tart, bold flavour. Meanwhile, banana wine is common in parts of Africa and Asia, where the fruit’s high sugar content makes it naturally amenable to fermentation.

Key factors that influence fruit wine quality 🔗

Regardless of the fruit, several common factors determine the quality of the final wine:

Sugar content directly affects potential alcohol yield. Fruits with lower natural sugars (like apples) need chaptalization, while sugar-rich fruits (like custard apple and mango) may not. Acidity affects the taste, microbial stability, and fermentation dynamics of the wine. For apple wine, a pH lower than 3.5 is considered appropriate for safe fermentation. Juice yield determines how much wine can be produced per kilogram of fruit – juicy fruits like grapes and apples are more efficient than pulpy ones like custard apple and mango.

Yeast strain selection is also critical. The phenolic content, volatile compound profile, and overall sensory quality of fruit wine depend on the fruit type, species, harvest conditions, and the microorganisms involved in fermentation. Different strains of S. cerevisiae can produce markedly different flavour profiles from the same fruit juice. Fermentation temperature needs careful control – too high and the yeast produces off-flavours or leaves residual sugar; too low and fermentation stalls.

Finally, aging and clarification play a major role. Unlike grape wine, wooden barrel aging is not always necessary for fruit wines; however, chips, sticks, or powders can be used to enhance sensory properties and facilitate rapid aging.

Why fruit wines matter 🔗

Fruit wines serve a dual purpose: they add economic value to perishable and underutilised fruits, and they offer consumers an exciting range of flavours beyond traditional grape wines. Fermentation of fruit juice enhances the protein, amino acid, and antioxidant content, improving flavour, aroma, nutritional quality, and shelf life of the product. For countries like India, where tropical and subtropical fruits are abundant but post-harvest losses are high, fruit winemaking presents a practical solution for both waste reduction and rural income generation.

Establishing wineries for underutilised fruits like jamun could enhance livelihoods and employment in tribal areas, contributing to local economic development. The growing global interest in craft beverages and natural, artisanal products has also created new market opportunities for fruit wines made from diverse, region-specific ingredients.

What do you think? With such a wide range of fruits available for winemaking, which fruit wine would you be most curious to taste – and do you think fruit wines could eventually rival traditional grape wines in popularity?

References

1. https://link.springer.com/article/10.1007/s00253-024-13084-8
2. https://pmc.ncbi.nlm.nih.gov/articles/PMC6542869/
3. https://pmc.ncbi.nlm.nih.gov/articles/PMC5620630/
4. https://microbiologyjournal.org/study-of-fermentation-variables-for-the-preparation-of-wine-from-jamun-fruit/
5. https://niftem-t.ac.in/pmfme/dpr-jwine.pdf
6. https://www.researchgate.net/publication/271904001_Preparation_and_evaluation_of_custard_apple_wine_Effect_of_dilution_of_pulp_on_physico-chemical_and_sensory_quality_characteristics
7. https://pmc.ncbi.nlm.nih.gov/articles/PMC6111886/