Does Milk Change Tea? Taste, Astringency, Temperature, and Expectation
Author: Ukrainian Psychological Hub · Published: September 28, 2026 · Editorial Policy
Yes. Adding milk can change tea in several physically real ways at the same time: it dilutes the brewed tea, changes color and opacity, adds its own taste and texture, can reduce perceived astringency, can change the release of some aroma compounds, and usually lowers the drink’s temperature if the milk is cooler than the tea. Those changes then interact with expectation, habit, and learned preference. A cup can therefore taste softer, creamier, less drying, less aromatic, or simply more familiar after milk is added.
The strongest scientific explanation is not that milk somehow “cancels” tea. Milk creates a new beverage matrix. Tea polyphenols, milk proteins, fat, water, volatile aroma compounds, temperature, and oral sensations now interact. Research on phenolic astringency shows that drying and puckering sensations arise from several oral mechanisms, including interactions between phenolics and salivary proteins; research on milk components shows that milk proteins can suppress the astringency of catechin solutions. Huang and Xu’s review of phenolic astringency and Miura and Akuzawa’s sensory study of milk components are useful foundations for understanding why.
Milk can also change what reaches the nose. A 2026 black-tea study found that adding milk protein suppressed the release of multiple volatile compounds from the infusion, with especially strong effects for some aroma molecules. That finding supports the everyday observation that milk may soften or mute part of a tea’s aromatic profile, while also showing why the effect depends on the chemistry of the particular tea and milk system. Li and colleagues’ Food & Function study is direct evidence for this aroma mechanism.
The psychological layer matters too, but it does not replace the chemistry. Milk immediately changes the appearance of tea, and visual cues can shape flavor expectations under some conditions. Familiarity with a particular shade, texture, vessel, or milk-to-tea ratio can become part of what a person recognizes as a “right” cup. The best account of tea with milk therefore keeps two levels together: the beverage changes, and the drinker’s interpretation of the beverage can change with it.
Does Milk Change Tea? The Short Answer
Taste: milk adds its own mild sweetness, dairy flavor, and dilution, so the balance of bitterness, sweetness, roast, malt, floral notes, and other tea flavors can shift.
Astringency: dairy proteins, especially caseins, can interact with tea polyphenols and can reduce the drying or puckering sensation in model systems and milk–tea matrices.
Bitterness: milk can make a strongly brewed tea seem less harsh, although bitterness and astringency are different sensations and should not be treated as the same mechanism.
Aroma: milk proteins can bind or alter the release of some volatile aroma compounds, so part of a tea’s aromatic intensity may be reduced.
Mouthfeel: milk adds body, smoothness, opacity, and sometimes a creamy coating sensation, changing the way the liquid feels as well as the way it tastes.
Temperature: cool milk lowers the temperature of hot tea. Temperature itself can alter taste processing and the sensory experience of a beverage.
Appearance and expectation: the lighter color and familiar “tea shade” can change expectations before the first sip; visual expectation effects are real in some studies but vary by context.
Caffeine and polyphenols: milk does not chemically remove caffeine from tea. Polyphenol–protein interactions occur, but human studies do not support the simple claim that milk makes tea’s polyphenols unavailable.
What Does “Change Tea” Actually Mean?
The question sounds simple because “taste” is usually used as a catch-all word. In sensory science, the cup is more complicated. What people call taste can include gustation, aroma, retronasal smell, oral temperature, viscosity, drying sensations, irritation, visual expectation, and learned associations. Milk can affect several of these channels at once.
It helps to separate four kinds of change. First, there is composition: the cup now contains tea plus milk. Second, there is physical chemistry: proteins, polyphenols, aroma compounds, water, and fat interact. Third, there is sensory input: the beverage is cooler, paler, less transparent, and often thicker. Fourth, there is perception: the brain interprets those inputs in light of previous experience and expectation.
These levels can reinforce one another. A lighter-looking tea may create an expectation of mildness; the milk can simultaneously reduce astringency and aroma release; and the cooler temperature may alter taste intensity. If the drinker grew up with milky breakfast tea, the same sensory profile may also carry strong familiarity. Calling all of this “milk makes tea smoother” is convenient, but the underlying mechanisms are different.
Astringency: Why Milk Can Make Tea Feel Less Dry
Astringency is a mouthfeel sensation, not simply bitterness
Astringency is commonly experienced as drying, puckering, roughness, or loss of lubrication in the mouth. It is especially associated with phenolic-rich foods and drinks. The traditional explanation emphasizes binding between phenolic compounds and salivary proteins, but current reviews describe a more complex picture that can also involve oral epithelial surfaces and trigeminal or mechanical pathways. Huang and Xu therefore describe salivary-protein interactions as important without treating them as a complete theory of astringency.
This distinction matters because a tea can be bitter without being strongly astringent, strongly astringent without being extremely bitter, or both. Bitterness is a taste quality detected through bitter taste receptors. Astringency is primarily a tactile and chemesthetic oral sensation. When milk makes a tea feel gentler, part of the change may be a reduction in drying grip even if some bitter compounds remain present.
Milk proteins can interact with tea polyphenols
Casein and other milk proteins can bind phenolic compounds through noncovalent interactions. In a controlled study using catechin solutions, Miura and Akuzawa found that milk components, especially protein-containing components, suppressed perceived catechin astringency. The original Milk Science paper used sensory comparison methods, which makes it relevant to perception rather than only to test-tube chemistry.
Broader reviews of milk–tea chemistry likewise describe protein–polyphenol interactions as one route by which astringency can be moderated. The practical translation should remain modest: the magnitude depends on tea composition, milk composition, ratio, temperature, and preparation. Evidence from isolated catechin solutions cannot tell you exactly how much a splash of milk will change every black, green, oolong, or white tea.
Milk does not “remove tannins” in the ordinary sense
Tea advice often uses “tannins” as a loose label for the phenolic compounds associated with bitterness and astringency. Adding milk does not make those compounds vanish from the cup. Some milk proteins can bind some tea polyphenols and alter how the mixture behaves and feels in the mouth. Dilution also lowers the concentration of tea liquor per unit volume. The useful wording is therefore that milk can change polyphenol interactions and reduce perceived astringency, not that it removes all tannins.
Aroma: Milk Can Mute Part of Tea’s Volatile Profile
A large part of flavor arrives through smell. Tea contains volatile compounds that leave the liquid, travel through the headspace or retronasal pathway, and contribute floral, fruity, malty, honeyed, roasted, woody, citrus, smoky, or other aromatic notes. When milk changes the liquid matrix, it can also change how readily some of those molecules are released.
The most directly relevant recent evidence comes from a 2026 Food & Function study of black tea. Li and colleagues examined interactions between milk proteins and black-tea aroma compounds and reported a significant suppression of volatile release after milk addition, with selective binding across different aroma molecules. The researchers also found that theaflavins affected some of these interactions. Read the primary study.
This does not mean that milk makes tea “flavorless.” Flavor is a multisensory result, and milk contributes its own aroma, taste, texture, and temperature effects. It means that the aromatic balance can shift. A strong, malty tea may remain expressive after milk, while a tea valued for delicate high notes may lose some of the qualities that made it distinctive. The degree of change is a property of the specific combination, not a universal rule.
The 2026 study is especially useful because it measures a mechanism directly relevant to ordinary sensory experience, but its scope also matters: it focuses on black-tea aroma compounds and milk protein systems. It should not be generalized automatically to every tea, every dairy product, or every plant-based milk.
Temperature: A Splash of Milk Changes More Than Heat
Cool milk lowers the temperature of hot tea
If milk is cooler than the tea, mixing them transfers heat until the drink approaches a new equilibrium. The amount of cooling depends mainly on how much milk is added and the starting temperatures of both liquids. This is ordinary heat transfer, but it has sensory consequences because temperature is part of flavor perception.
Research on thermogustation shows that oral temperature can modulate gustatory neural and perceptual responses, and that the direction and size of the effect vary by taste quality, stimulus, concentration, and oral conditions. Lemon’s review of temperature and taste processing is particularly useful here because it rejects a single simplistic rule such as “warmer always tastes stronger.”
For tea, the practical result is straightforward: adding cold milk can make the same brew taste different partly because you are now drinking it at a different temperature. Aroma release can also change as a beverage cools. That temperature effect is separate from protein–polyphenol chemistry, although the drinker experiences both at once.
Temperature can alter comfort and drinkability
A very hot, strongly brewed tea can feel sharp or difficult to evaluate. Cooling it may make sipping easier and can shift attention toward different flavor details. Milk often accelerates that transition. This is one reason a cup can seem immediately “rounder” after milk even before considering specific molecular binding.
The brewing stage still matters first. Milk cannot undo every consequence of over-extraction or an unsuitable brew temperature. For the underlying variables, see How to Make Tea: Water, Temperature, Steep Time, Tea-to-Water Ratio, and Taste and the dedicated Tea Water Temperature guide.
Color and Opacity: The Cup Looks Different Before It Tastes Different
Milk rapidly changes the visual appearance of tea. The liquid becomes lighter and more opaque because the tea is diluted and because milk dispersions scatter light. That physical change can become a sensory cue in its own right. People often judge strength by color, even though color is not a perfect measure of extraction or flavor.
Visual cues can influence flavor perception under some conditions. A 2023 systematic review by Motoki, Spence, and Velasco found that color and shape cues affected taste or flavor perception in some studies, while other studies produced limited or null effects. The systematic review is important because it supports expectation effects without turning them into a universal law.
A broader review by Piqueras-Fiszman and Spence describes how labels, images, packaging, and other product-extrinsic cues can create sensory expectations that sometimes assimilate subsequent judgments toward what people expected. Their interdisciplinary review provides the general framework for why appearance and context can matter before and during tasting.
Milk-tea research shows expectation can shift before the sip
There is also direct milk-tea evidence. Lin, Liu, and Huang manipulated packaging color and music in experiments on milk tea and found changes in sweetness expectation, with some conditions also changing sweetness perception. The 2024 Appetite study does not show that milk itself causes an expectation effect; it shows that milk tea, like other beverages, can be perceptually shaped by crossmodal contextual cues.
In an ordinary mug, the relevant cue may be much simpler: the shade of the tea. A drinker can learn that a certain color predicts the milk-to-tea balance they prefer. That learned visual target becomes a control signal during preparation. Two people can therefore add different amounts of milk to the same brewed tea because each is aiming at a different familiar appearance and sensory profile.
Mouthfeel, Body, and Perceived Sweetness
Milk changes the mechanical character of the beverage. Even a small addition can increase perceived body, smoothness, coating, and creaminess. Those sensations are not identical to sweetness, but they can change the overall impression of softness and richness. Whole milk, lower-fat milk, and different plant-based drinks will not behave identically because their protein, fat, carbohydrate, particle, and stabilizer profiles differ.
Milk also contributes lactose unless it is lactose-free, so dairy milk adds some intrinsic sugar even when no table sugar is used. The amount of perceived sweetness depends on the quantity of milk and the rest of the sensory matrix. It is therefore reasonable for unsweetened tea with milk to taste slightly sweeter or less harsh, but it is inaccurate to assume that every perceived increase in sweetness comes from lactose alone. Reduced bitterness or astringency, added creaminess, aroma changes, and expectation can all affect the final judgment.
This is another place where “taste” compresses several channels into one word. A smoother mouthfeel can be interpreted as milder flavor. Lower astringency can make existing sweetness easier to notice. A lighter color can make the drinker expect softness. The experience is integrated even when the mechanisms are separable.
Does Milk Make Tea Less Bitter?
Often it can make tea seem less bitter or less harsh, but the evidence is clearer for changes in astringency and matrix interactions than for a universal suppression of bitter taste. Tea bitterness can arise from caffeine, catechins, and other compounds; astringency is a different oral sensation. Milk dilutes the tea liquor, contributes its own sensory signals, and allows proteins to interact with polyphenols. Those changes can reduce the overall harshness of a strong cup.
The safest practical statement is that milk frequently softens the perceived intensity of strong tea, especially robust black tea, but it does not neutralize every bitter compound. If a tea is unpleasant because it was severely over-brewed, adding more milk may mask part of the problem without restoring the aromatic balance that a better infusion would have produced.
Does Milk Reduce Caffeine in Tea?
Milk does not chemically remove caffeine from tea. If you brew a cup and then add milk, the caffeine already extracted into the tea remains in the beverage. What changes is concentration per unit volume because the drink is now larger and diluted. If you replace part of the brewed tea with milk rather than adding milk on top, the final serving contains less tea and therefore may contain less caffeine simply because less brewed tea is present.
This distinction prevents a common category error. “Less caffeine per ounce after dilution” is not the same as “milk destroys caffeine.” Milk is not a decaffeination method. The larger determinants of tea caffeine are the tea itself, dry tea mass, particle size, brewing conditions, and how much brewed tea you actually drink.
Does Milk Block Tea Antioxidants or Polyphenols?
The popular claim that milk “kills the antioxidants in tea” is much stronger than the evidence. Milk proteins can bind tea polyphenols, and laboratory antioxidant assays can change when milk or casein is added. But an assay in a test tube is not the same as absorption in humans, and absorption is not the same as a demonstrated long-term health outcome.
A critical review by Rashidinejad and colleagues found conflicting in vitro and in vivo evidence and emphasized that results vary with tea type, milk composition, milk amount, preparation method, assay, and study design. Their review is a good reason to avoid one-line claims about milk either preserving or destroying tea’s “antioxidants.”
Human bioavailability studies do not support a simple blocking claim
Several small human studies are especially relevant. Van het Hof and colleagues gave 12 volunteers black tea with and without semi-skimmed milk and found that milk did not significantly reduce blood catechin exposure. The European Journal of Clinical Nutrition trial directly tested catechin bioavailability.
Hollman and colleagues studied 18 volunteers and reported that adding milk did not alter the measured absorption of the flavonols quercetin and kaempferol from black tea. The Free Radical Research study supports the same general caution against assuming that protein binding in the cup automatically means poor human absorption.
Leenen and colleagues used a crossover design in 21 healthy volunteers and found that a single dose of black or green tea increased measured plasma antioxidant activity, and that adding milk did not abolish the increase. The authors also explicitly noted that this did not establish prevention of oxidative damage in the body. The clinical trial therefore supports a narrow biomarker statement, not a broad health promise.
Kyle and colleagues likewise reported that adding milk did not materially alter their measured polyphenol content and short-term absorption outcomes after black tea, while infusion time affected extraction. The Journal of Agricultural and Food Chemistry paper reinforces the importance of brewing variables.
Taken together, the evidence supports three distinctions. Protein–polyphenol interactions are real. Some laboratory antioxidant measurements change when milk is present. Human bioavailability studies do not justify the blanket claim that ordinary milk makes tea polyphenols unavailable. None of those findings alone proves that milk improves or worsens long-term clinical outcomes.
Dairy Milk and Plant-Based Milk Are Not Interchangeable in the Science
Most classic tea-and-milk research uses bovine dairy milk, milk proteins such as casein, or dairy components. Soy, oat, almond, coconut, pea, and other plant-based products have different proteins, fats, carbohydrates, particle structures, acidity, and stabilizers. Their effects on tea flavor, astringency, aroma, curdling, and texture can therefore differ.
The review by Rashidinejad and colleagues notes that some antioxidant-assay effects have also been observed with soy milk, but that does not establish identical sensory behavior across all milk alternatives. Review the evidence. A result for casein should not be silently transferred to oat drink, just as a result for isolated catechins should not be treated as a direct description of every brewed tea.
For sensory purposes, the most useful approach is empirical: use the specific product you actually drink and compare small controlled changes. A high-protein soy drink may interact differently from a low-protein almond drink; a barista-style oat product may add more body than a thin version of the same category. The label “plant milk” hides a great deal of formulation diversity.
Which Teas Change Most Noticeably When Milk Is Added?
Strong black tea often produces the most familiar transformation because it can begin with substantial body, bitterness, astringency, and dark color, leaving room for milk to soften and rebalance the cup. The English Hub’s Black Tea guide covers black tea’s taste, caffeine, benefits, and brewing without turning milk into the defining feature of the category.
Delicate or highly aromatic teas can also change dramatically, but in a different direction: milk may obscure the volatile details that the drinker wanted to notice. That does not make adding milk “wrong.” It means the sensory tradeoff is larger. The more a tea’s appeal depends on fine floral, fruity, vegetal, roasted, or mineral distinctions, the more obvious any matrix-driven aroma suppression may become.
The question of which teas are traditionally or practically suited to milk belongs to the dedicated Tea with Milk page in this cluster. This article stays with the mechanism: what milk changes after it enters the cup.
How Much Milk Changes Tea? There Is No Universal Ratio
A teaspoon of milk and a one-to-one tea-and-milk mixture are different beverages. As milk proportion rises, dilution increases, temperature can fall further, color becomes lighter, milk flavor and mouthfeel become more prominent, and the relative intensity of tea aroma can decline. Because tea strength also varies, a fixed volume of milk cannot guarantee the same sensory result across cups.
The most reliable home method is incremental dosing. Brew the tea first under controlled conditions, taste it plain, add a small measured amount of milk, stir, taste again, and repeat only if needed. Recording tea mass, water volume, steep time, and milk volume turns preference into something reproducible. This also separates “I like more milk” from “I brewed the tea too strong and used milk to rescue it.”
For sensory comparison, keep the milk product and tea constant. If you change tea, milk type, sugar, cup size, temperature, and steep time simultaneously, you cannot tell which variable produced the difference. A simple paired tasting is more informative than a strong rule copied from someone else’s recipe.
Milk First or Tea First: Does the Order Change Taste?
The famous milk-first versus tea-first argument contains several different questions that are often bundled together. There is a thermal question, a mixing question, a brewing-control question, and a cultural ritual question. The practical importance also depends on whether tea was brewed separately in a pot or whether a tea bag is still extracting in the mug.
If tea is brewed separately, adding milk first or second changes the path by which the liquids reach the final mixture, but both routes can arrive at similar final proportions and temperature. Claims that one order universally “scalds” milk proteins enough to create a reliably superior cup are stronger than the modern evidence available for everyday tea. Controlled blind tasting is the right standard for any claimed sensory advantage.
If a tea bag is brewing in the mug, adding cool milk early can lower the extraction temperature while the tea is still infusing. That introduces a genuine brewing difference rather than merely a pouring-order difference. Tea-first also gives the drinker a visual baseline for judging brew strength before deciding how much milk to add. Milk-first, by contrast, can be part of a stable personal ritual and may produce the preferred result for that drinker.
The useful conclusion is not to turn pouring order into a rule of status or correctness. Control the variables that actually matter: tea dose, water, steep time, temperature, milk amount, and whether extraction is complete before milk changes the environment.
Expectation, Habit, and Acquired Preference
A person who regularly drinks tea with milk does not encounter each cup as a new sensory object. Repeated experience builds associations among color, aroma, temperature, mouthfeel, time of day, vessel, social context, and expected taste. A particular beige-brown shade can become a learned signal that the cup is “ready.” A darker shade can predict excessive strength; a very pale one can predict weakness.
Expectation effects in food and drink are well documented, although they are context-dependent rather than automatic. Piqueras-Fiszman and Spence review how prior information can influence sensory and hedonic judgments, while Motoki, Spence, and Velasco show why visual effects should be described with their mixed evidence rather than as an inevitability.
Habit also gives milk a control function. Because the color change is immediate, the drinker can dose by eye. That visual feedback may make the ritual feel precise even when no measuring spoon is used. In that sense, milk changes not only the final sensory profile but also the act of making tea: it creates a visible adjustment step through which the drinker tunes the cup.
Memory can add another layer. Tea with milk may be linked to breakfast, family routines, work breaks, hospitality, childhood, travel, or a particular cultural setting. Those associations can affect comfort and liking without implying that everyone from a culture shares the same psychology. The relevant unit is the individual history of repeated experience.
What Milk Cannot Fix
Milk can soften a harsh cup, but it is not a universal repair tool. If tea is stale, milk cannot restore lost volatile compounds. If brewing water is unsuitable, milk does not correct mineral imbalance. If a delicate tea has been over-extracted, milk may cover some roughness while also masking aroma. If an unsuitable brewing temperature produced an unbalanced cup, adding milk does not reverse the extraction that already occurred.
This is why the brewing branch of the Tea Knowledge cluster treats water, temperature, ratio, and time as primary variables. Milk belongs after those fundamentals in the causal chain unless the beverage itself is designed to be brewed with milk.
Evidence Map: What We Know, What Is Plausible, and What Remains Mixed
Established or well-supported
Adding milk changes composition, color, opacity, volume, and—when the milk is cooler—temperature. Milk proteins can interact with tea polyphenols. Astringency is distinct from bitterness. Temperature can modulate taste processing. Visual and contextual cues can influence flavor judgments under at least some experimental conditions.
Supported in specific tea or model systems
Milk components can suppress catechin astringency in sensory model systems. Milk proteins can suppress the release of selected black-tea aroma volatiles. These findings are mechanistically relevant but should not be converted into a fixed percentage reduction for every household cup.
Mixed or context-dependent
The effect of milk on laboratory antioxidant measurements varies by assay and preparation. Visual expectation effects vary by cue, product, task, and study. The sensory importance of milk-first versus tea-first is small or uncertain compared with larger variables such as extraction and milk amount.
Not supported as a blanket claim
Milk does not simply “destroy tea antioxidants,” chemically remove caffeine, erase all tannins, or make every tea healthier or less healthy. Evidence about isolated compounds, extracts, model solutions, or laboratory antioxidant assays should not be presented as if it directly proves long-term outcomes from ordinary brewed tea.
A Simple Home Test: Find Out What Milk Changes in Your Tea
You can test your own perception without turning the exercise into a laboratory experiment. Brew one batch of tea so both samples begin identically. Divide it between two matching cups. Leave one plain and add a measured amount of your usual milk to the other. Let both reach a comfortable tasting temperature, then compare them in alternating sips.
Pay attention to separate attributes rather than asking only which cup is “better.” Notice aroma before sipping, drying sensation after swallowing, bitterness, sweetness, body, coating, temperature, aftertaste, and how quickly the flavor fades. Then repeat on another day with the cup identities hidden if someone can prepare them for you. A blind comparison helps reduce the influence of your belief about which cup should taste better.
For a second test, keep the milk amount constant and compare a robust black tea with a more aromatic tea. The contrast makes it easier to notice that milk can be beneficial for one sensory goal and costly for another. Preference is the final criterion for your own cup; mechanism explains what changed, not what you are required to like.
Frequently Asked Questions
Does adding milk to tea change the taste?
Yes. It can change taste, aroma release, astringency, mouthfeel, temperature, color, and expectation. The size of the change depends on the tea, milk, ratio, and preparation.
Does milk reduce astringency in tea?
It can. Milk proteins can interact with tea polyphenols, and sensory research with catechin systems shows reduced astringency with protein-containing milk components. The effect is not identical across all teas or milk products.
Does milk make tea less bitter?
It often makes strong tea seem milder, but bitterness and astringency are different. Dilution, added milk flavor, mouthfeel, and protein–polyphenol interactions can all contribute to the softer impression.
Does milk remove tannins from tea?
No. Milk can bind or interact with some tea polyphenols and can reduce perceived astringency, but the compounds do not simply disappear from the cup.
Does milk reduce caffeine in tea?
No chemical decaffeination occurs. Adding milk dilutes caffeine concentration per unit volume, while the total caffeine already present in the brewed tea remains unless milk replaces part of the tea serving.
Does milk destroy tea antioxidants?
The evidence does not support that blanket statement. Laboratory antioxidant assays can change when milk proteins are present, but several small human studies found no meaningful reduction in measured catechin or flavonol absorption after milk was added to tea.
Why does tea taste smoother with milk?
Several effects can combine: lower astringency, dilution, added body and creaminess, changed aroma release, lower serving temperature, and expectation based on appearance and habit.
Does milk change tea aroma?
Yes, at least in studied black-tea systems. A 2026 primary study found that milk proteins suppressed the release of several volatile aroma compounds. The degree of change depends on the tea and milk matrix.
Is milk first or tea first better?
There is no strong universal sensory winner. If tea is brewed separately, pouring order usually matters less than tea strength and milk quantity. If a tea bag is still brewing in the mug, adding cool milk early can lower extraction temperature.
Do plant-based milks change tea the same way as dairy milk?
Do not assume so. Soy, oat, almond, coconut, pea, and other products differ in protein, fat, carbohydrate, acidity, and stabilizers. Dairy casein evidence cannot be transferred wholesale to every plant-based drink.
Related Articles
References
Hollman, P. C., van het Hof, K. H., Tijburg, L. B., & Katan, M. B. (2001). Addition of milk does not affect the absorption of flavonols from tea in man. Free Radical Research, 34(3), 297–300. DOI
Huang, R., & Xu, C. (2021). An overview of the perception and mitigation of astringency associated with phenolic compounds. Comprehensive Reviews in Food Science and Food Safety, 20(1), 1036–1074. DOI
Kyle, J. A. M., Morrice, P. C., McNeill, G., & Duthie, G. G. (2007). Effects of infusion time and addition of milk on content and absorption of polyphenols from black tea. Journal of Agricultural and Food Chemistry, 55(12), 4889–4894. DOI
Leenen, R., Roodenburg, A. J., Tijburg, L. B., & Wiseman, S. A. (2000). A single dose of tea with or without milk increases plasma antioxidant activity in humans. European Journal of Clinical Nutrition, 54(1), 87–92. DOI
Lemon, C. H. (2017). Modulation of taste processing by temperature. American Journal of Physiology-Regulatory, Integrative and Comparative Physiology, 313(4), R305–R321. DOI
Li, W., Wen, M., Li, L., Huang, X., Wang, Z., Ho, C.-T., Long, P., Han, Z., & Zhang, L. (2026). Interaction of milk protein and black tea aroma compounds: selectivity, binding mechanism, and theaflavin effect. Food & Function, 17(8), 3537–3556. DOI
Lin, X., Liu, Y., & Huang, J. (2024). Reducing sweetness expectation in milk tea by crossmodal visuo-auditory interaction. Appetite, 192, 107107. DOI
Miura, T., & Akuzawa, R. (2010). Suppression of catechin astringency by milk components. Milk Science, 59(1), 1–8. DOI
Motoki, K., Spence, C., & Velasco, C. (2023). When visual cues influence taste/flavour perception: A systematic review. Food Quality and Preference, 111, 104996. DOI
Piqueras-Fiszman, B., & Spence, C. (2015). Sensory expectations based on product-extrinsic food cues: An interdisciplinary review of the empirical evidence and theoretical accounts. Food Quality and Preference, 40, 165–179. DOI
Rashidinejad, A., Birch, E. J., Sun-Waterhouse, D., & Everett, D. W. (2017). Addition of milk to tea infusions: Helpful or harmful? Evidence from in vitro and in vivo studies on antioxidant properties. Critical Reviews in Food Science and Nutrition, 57(15), 3188–3196. DOI
van het Hof, K. H., Kivits, G. A., Weststrate, J. A., & Tijburg, L. B. (1998). Bioavailability of catechins from tea: the effect of milk. European Journal of Clinical Nutrition, 52(5), 356–359. DOI