Scientific deep-dive

Is Honey Good For Weight Loss? Honest Evidence Review

Honey is ~64 kcal and ~17 g sugar per tablespoon (USDA FDC 169640), ~82% sugar by weight. Yaghoobi 2008 found no body-weight difference vs sucrose at calorie-matched intake; Te Morenga 2012 BMJ showed isocaloric sugar swaps cause no weight change. Honey is not a weight-loss food.

By Eli Marsden · Founding Editor
Editorially reviewed (not clinically reviewed) · How we verify contentLast reviewed
8 min read·10 citations

The honest answer: no, not meaningfully. Honey is ~64 kcal per tablespoon and ~82% sugar by weight (roughly 38% fructose, 31% glucose, plus maltose and trace minerals/polyphenols). Swapping refined sugar for honey at the same volume is a marginal upgrade — slightly lower glycemic index, modestly better lipid markers in small RCTs — but it does not produce weight loss. The reliably effective intervention is reducing total added-sugar intake, not choosing the “healthier” sweetener. Per USDA FoodData Central (FDC 169640[10]), 1 tablespoon (21 g) of honey delivers ~64 kcal, ~17 g of sugar, ~0.06 g of protein, and zero fat. The macronutrient profile is essentially identical to other liquid sweeteners on a per-calorie basis. The Yaghoobi 2008 RCT[1] (n=55 overweight/obese adults, 30-day natural-honey vs sucrose comparison) showed modest improvements in total cholesterol, LDL, and CRP with honey vs sucrose at calorie-matched intakes — but body weight was essentially unchanged in both arms. The Te Morenga 2012 BMJ meta-analysis[7] of randomised controlled trials and cohort studies found that higher vs lower free-sugar intake in free-living adults was associated with +0.75 kg of body weight (95% CI 0.30-1.19) — and that isocaloric exchange of sugars for other carbohydrates produced no body-weight change. The load-bearing mechanism is calories, not sugar-specific metabolism. The Mozaffarian 2011 NEJM Harvard-cohort analysis[6] (n=120,877 across three cohorts) identified sugar-sweetened beverages as +1.00 lb of 4-year weight change per daily-serving increase. Honey is not a beverage, but it is an added sugar with the same caloric density signature. Magnitude check: STEP-1 semaglutide[8] produced −14.9% body weight at 68 weeks; SURMOUNT-1 tirzepatide[9] produced −20.9% at 72 weeks. Sweetener choice is not in that magnitude tier — no sweetener swap is.

At a glance

  • Honey, per 1 tablespoon (21 g, USDA FDC 169640[10]): ~64 kcal, ~17.3 g sugar (~7-8 g fructose, ~6-7 g glucose, ~1-2 g maltose, <0.5 g sucrose), 0 g fat, ~0.06 g protein, ~0.04 g fiber, ~11 mg potassium. The trace-mineral and polyphenol load is real but small in absolute terms.
  • Honey vs cane sugar at the same calorie target: honey is denser per tablespoon (64 kcal vs ~49 kcal for 1 tbsp granulated sugar) because it's heavier by volume. To match the sweetness of 1 tsp sugar, recipes typically use 3/4 tsp honey — at which the calorie difference narrows but does not reverse.
  • Yaghoobi 2008 honey-vs-sucrose RCT[1]: n=55 overweight/obese adults, 30 days. At calorie-matched intakes, honey produced modest improvements in total cholesterol, LDL, and CRP vs sucrose. Body weight unchanged in both arms. The trial does not support honey-driven weight loss; it supports honey as a slightly less metabolically harmful sugar substitute.
  • Te Morenga 2012 BMJ meta-analysis[7]: higher vs lower free-sugar intake in free-living adults: +0.75 kg body weight (95% CI 0.30-1.19). Isocaloric exchange of sugars for other carbohydrates: no body-weight effect. The active variable is calories, not the fructose:glucose ratio.
  • Atkinson 2021 glycemic-index tables[5]: honey GI mean ~58 (range 35-87 depending on floral source). Sucrose ~65, glucose 100, fructose ~15, agave ~13, maple syrup ~54. Honey's GI advantage over sucrose is real but modest, and is dwarfed by total carbohydrate dose.
  • “Honey-cinnamon diet” and Manuka weight-loss claims: no peer-reviewed randomised weight-loss trial supports either. The dietary-supplement and wellness literature on Manuka honey focuses on wound healing and antibacterial activity (UMF/MGO ratings), not body weight.

What honey actually is

Honey is concentrated nectar processed by bees into a supersaturated sugar solution that is shelf-stable for years. Per USDA FoodData Central (FDC 169640[10]), 100 g of honey is ~304 kcal, 82.4 g carbohydrate of which 82.1 g is sugars (~38 g fructose, ~31 g glucose, ~7 g maltose, ~1 g sucrose, plus small amounts of higher oligosaccharides), 0.2 g fiber, 0.3 g protein, 0 g fat, 4 mg sodium, 52 mg potassium, and trace amounts of B vitamins, calcium, iron, magnesium, phosphorus, zinc, and copper. The defining macronutrient story is that honey is ~82% sugar by weight.

(1) Fructose:glucose ratio is roughly 1.2:1. Average honey is about 38% fructose, 31% glucose, with the ratio varying by floral source (clover honey is closer to 1:1; tupelo and acacia honeys run higher fructose). For comparison, cane sugar (sucrose) is a disaccharide that splits into 50% fructose + 50% glucose in the gut, and high-fructose corn syrup HFCS-55 is ~55% fructose / ~42% glucose. Honey's monosaccharide profile is metabolically very similar to HFCS-55 and to digested sucrose.

(2) Polyphenols and trace minerals are real but small. Honey contains flavonoids (pinocembrin, chrysin, galangin), phenolic acids, and trace minerals at levels that vary with floral source and processing. Erejuwa 2012[3] reviewed the in-vitro antioxidant assays: the polyphenol load is genuine, but at typical consumption levels (1-2 tablespoons/day) the absolute mineral and polyphenol intake is small compared with whole-food sources (a single cup of berries delivers more polyphenols than most people's annual honey intake combined).

(3) Calorie density is the load-bearing number. At 304 kcal per 100 g, honey is more calorie-dense per gram than maple syrup (260 kcal/100 g) and corn syrup (281 kcal/ 100 g), but less than agave (310 kcal/100 g) and cane sugar (387 kcal/100 g). Per volume — the way most people actually sweeten — 1 tbsp honey (21 g, ~64 kcal) is meaningfully heavier than 1 tbsp granulated sugar (12.5 g, ~49 kcal) because honey is a denser liquid. The “swap sugar for honey” advice rarely accounts for this volumetric density difference.

(4) Raw vs processed: the “raw is healthier” framing is overstated. Raw honey retains more pollen, enzymes (diastase, invertase), and heat-sensitive polyphenols than commercially heated and filtered honey. For weight loss specifically, the difference is negligible: both are ~82% sugar and ~64 kcal per tablespoon. Raw honey carries an infant botulism risk (do not give to children under 12 months); the food-safety difference matters more than the weight-loss difference.

Sweetener comparison: honey vs cane sugar vs maple vs agave vs HFCS vs stevia

Magnitude comparison

Calories per 1-tablespoon serving for common sweeteners. Honey, cane sugar, maple syrup, agave, and high-fructose corn syrup are all within ~15 kcal of each other per tablespoon — none is a meaningful weight-loss choice on calorie grounds. The honest weight-loss intervention is reducing total added sugar, not switching brands. Sources: USDA FoodData Central.[10]

  • Honey (1 tbsp, 21 g — USDA FDC 169640)64 kcal
    17 g sugar; ~38% fructose, ~31% glucose, GI ~58
  • Cane sugar, granulated (1 tbsp, 12.5 g)49 kcal
    12.5 g sucrose; GI ~65
  • Maple syrup (1 tbsp, 20 g)52 kcal
    12 g sugar (88% sucrose); GI ~54
  • Agave syrup (1 tbsp, 21 g)60 kcal
    14 g sugar (~85% fructose); GI ~13
  • HFCS-55 corn syrup (1 tbsp, 19 g)53 kcal
    14 g sugar (~55% fructose); GI ~58
  • Stevia extract (1 packet)0 kcal
    Non-nutritive sweetener; GI 0
Calories per 1-tablespoon serving for common sweeteners. Honey, cane sugar, maple syrup, agave, and high-fructose corn syrup are all within ~15 kcal of each other per tablespoon — none is a meaningful weight-loss choice on calorie grounds. The honest weight-loss intervention is reducing total added sugar, not switching brands. Sources: USDA FoodData Central.

The chart makes the honest comparison visible. Per tablespoon, honey is the most calorie-dense liquid sweetener and is within ~15 kcal of every other “natural” sweetener on the shelf. Per gram, all the caloric sweeteners cluster between ~260 and ~390 kcal per 100 g — the differences are real but small relative to total daily added-sugar intake. The only sweeteners that meaningfully change the calorie math are non-nutritive sweeteners (stevia, sucralose, allulose), which deliver near-zero calories at use-level. See our coverage of sparkling water as a soda substitute for the broader added-sugar-replacement context.

Honey vs refined sugar: the modest metabolic case

The strongest piece of clinical evidence comparing honey directly to refined sugar is the Yaghoobi 2008 RCT[1] in TheScientificWorldJournal. n=55 overweight/obese subjects were randomised to natural honey or sucrose intake over 30 days at calorie-matched levels. Results:

  • Body weight: not significantly different between arms. The trial does not demonstrate honey-driven weight loss.
  • Total cholesterol and LDL: modestly reduced with honey vs sucrose.
  • C-reactive protein (CRP): reduced with honey vs sucrose.
  • Fasting blood glucose: slightly higher with honey vs sucrose acutely; HbA1c not significantly different.

The Münstedt 2009 honey-and-lipids RCT[4] (n=38 healthy adults, 14-day honey intake) showed a similar signal: modest total-cholesterol reduction with honey intake, no body-weight effect. The Bobiş 2018 review[2] in Oxidative Medicine and Cellular Longevity synthesised the honey-and-glycemia literature and explicitly cautioned that honey's polyphenol-and-mineral differentiation does not make it a “free” food — it is still ~82% sugar and still contributes to total caloric intake.

The honest read: substituting honey for refined sugar at the same calorie level produces small, statistically detectable improvements in lipid markers and inflammation in short-term RCTs. The effect is real but modest, and it is a substitution-only effect — adding honey on top of an existing diet produces calorie addition, not metabolic improvement.

Glycemic index: a real but modest advantage

The Atkinson 2021 international glycemic-index tables[5] in The American Journal of Clinical Nutrition compile the published GI values for common foods. The relevant entries for the honey-vs-sugar question:

  • Glucose: 100 (reference)
  • Sucrose (cane sugar): ~65
  • Honey: mean ~58, range 35-87 depending on floral source (acacia and tupelo honeys run lowest; some wildflower honeys run highest)
  • Maple syrup: ~54
  • HFCS-55: ~58
  • Fructose: ~15
  • Agave syrup: ~13 (the low GI reflects the ~85% fructose content)

Two caveats are load-bearing. First, GI describes the postprandial glucose response per unit of available carbohydrate — not the metabolic impact of fructose, which is processed via the liver and does not produce a glucose spike but does drive hepatic de novo lipogenesis at high intakes. Agave's extremely low GI is precisely because it is mostly fructose; this is not the metabolic win the wellness marketing implies. Second, glycemic load (GI × carbohydrate per serving) is the actually relevant number for blood-sugar control: 1 tbsp of honey at GI 58 with 17 g of available carbohydrate delivers a glycemic load of ~10 — comparable to 1 tbsp of cane sugar. The GI difference exists but does not change the downstream calorie or weight-management math.

Honey-cinnamon diet and Manuka magic: no RCT support

Wellness folklore has produced two persistent honey-and- weight-loss claims that warrant explicit calibration:

The “honey and cinnamon diet” — typically 1-2 tablespoons of honey mixed with cinnamon in warm water before meals or first thing in the morning, claimed to “boost metabolism” or “cleanse” the body. There is no peer-reviewed randomised controlled trial demonstrating weight loss from honey-cinnamon combinations beyond what would be expected from caloric intake alone. The cinnamon literature on glycemic control is mixed and modest; the honey side adds ~64-128 kcal/day of sugar. Combined, the protocol is a net-positive-calorie addition with no demonstrated weight benefit.

“Manuka magic” — claims that Manuka honey (a New Zealand monofloral honey rich in methylglyoxal/MGO, with UMF ratings 5+ to 24+) has weight-loss or metabolic properties beyond regular honey. The Manuka clinical literature focuses on wound healing, antibacterial activity (against H. pylori and oral pathogens), and gut-flora modulation — none of which has produced a published randomised weight-loss trial. Manuka honey is ~64 kcal per tablespoon, same as regular honey. Paying 5-10× the price of regular honey for a weight-loss benefit that does not exist in the peer- reviewed literature is a marketing-driven decision, not an evidence-based one.

The pattern matches the broader “wellness food magic” literature we cover in our TikTok weight-loss myths review: substitution and total-intake reduction are the evidence-supported interventions; specific-ingredient magic is not.

Total added sugar is the lever that actually matters

The most relevant body of evidence for the honey question is not about honey at all — it is about total added sugar and body weight. The findings converge across study designs.

Te Morenga 2012 BMJ meta-analysis[7] pooled randomised controlled trials and prospective cohort studies of dietary sugars and body weight. The headline findings:

  • Higher vs lower free-sugar intake in free-living adults (ad-libitum diet): +0.75 kg body weight (95% CI 0.30- 1.19) — sugar-driven weight gain operates through additional calories.
  • Isocaloric exchange of sugars for other carbohydrates: no body-weight effect — sugar is not metabolically special on a calorie-matched basis.
  • Reducing added-sugar intake in free-living adults: -0.80 kg body weight (95% CI 0.39-1.21) — the substitution works in both directions.

Mozaffarian 2011 NEJM Harvard cohort[6] analysed three Harvard cohorts (n=120,877) at 4-year intervals over 20 years. Sugar-sweetened beverages were associated with +1.00 lb of 4-year weight change per daily-serving increase — among the foods most positively associated with long-term weight gain alongside potato chips, potatoes, and processed meats. Honey is not a beverage, but it is a liquid added sugar with similar caloric density.

The clinical implication: the lever that produces weight change is total daily added-sugar reduction, not the choice between honey and cane sugar. Replacing 2 tablespoons of daily honey with non-nutritive sweetener (saving ~128 kcal/day) compounds to roughly −5.5 kg/year of avoided caloric intake before any partial compensation — small but real, and the same math applies to any added sugar.

Honey on a GLP-1: tolerance, sugar load, satiety

For patients on semaglutide (Wegovy, Ozempic) or tirzepatide (Zepbound, Mounjaro), honey has practical attributes worth flagging:

  • Liquid sugar bolus and nausea. A tablespoon of honey is ~17 g of mostly monosaccharide sugar in a small volume. On a GLP-1, the delayed gastric emptying that produces appetite suppression can also produce postprandial nausea after concentrated sugar bolus intake. Honey in tea or on yogurt is typically better tolerated than honey on an empty stomach. Patients in the nausea-dominant titration phase should test individual tolerance with small portions (1 tsp) before scaling.
  • Calorie density at reduced total intake. On a typical GLP-1 reduced intake of 1,200-1,500 kcal/day, 1 tbsp of honey is ~64 kcal — about 4-5% of daily calories from a non-protein, non-fiber, non-satiating source. A nightly “honey in chamomile tea” habit is harmless; a daily 3-4 tbsp honey-and-cinnamon ritual on top of meals can compound to ~200-250 kcal/day of pure added sugar that the drug-suppressed appetite may not compensate against.
  • Drizzle-on-Greek-yogurt is the cleanest pattern. 1 tsp of honey (~21 kcal, ~5.5 g sugar) on 1 cup of non-fat Greek yogurt + 1/2 cup berries is a ~180 kcal, ~18 g protein, ~5 g fiber snack — the honey is the flavor-and-palatability layer on top of an otherwise protein-anchored, fiber-containing food. This is the substitution-context use case the published literature supports, not the honey-on-its-own-as-a-weight-loss-food pattern.
  • Diabetic patients. Patients with type 2 diabetes or prediabetes using a GLP-1 (semaglutide, tirzepatide, liraglutide) for glycemic control should treat honey the same as any other added sugar in the carbohydrate count — not as a “diabetic-friendly” alternative. Honey's slightly lower GI does not change this. The Bobiş 2018 review[2] explicitly notes honey is not a free food for diabetics.

See our full GLP-1 side-effect Q&A for the broader nausea-and-tolerance context where sweetener choices sit.

Magnitude check vs GLP-1 medications

Magnitude comparison

Total body-weight change at trial endpoint — sugar-reduction signal (Te Morenga 2012 BMJ meta-analysis) compared with FDA-approved GLP-1 weight-loss medications. Reducing total added sugar produces small real benefit; sweetener choice within added-sugar intake produces near-zero benefit. Sources: Te Morenga 2012, STEP-1, SURMOUNT-1.[7][8][9]

  • Honey vs sugar substitution (Yaghoobi 2008, 30 d)0 kg
    Body weight unchanged at calorie-matched intake — modest lipid/CRP benefit only
  • Reducing added sugar (Te Morenga 2012, free-living)0.8 kg
    Cutting added sugar from a free-living diet: ~-0.8 kg over the trial period
  • Wegovy — semaglutide 2.4 mg (STEP-1, 68 wk)14.9 % TBWL
  • Zepbound — tirzepatide 15 mg (SURMOUNT-1, 72 wk)20.9 % TBWL
Total body-weight change at trial endpoint — sugar-reduction signal (Te Morenga 2012 BMJ meta-analysis) compared with FDA-approved GLP-1 weight-loss medications. Reducing total added sugar produces small real benefit; sweetener choice within added-sugar intake produces near-zero benefit. Sources: Te Morenga 2012, STEP-1, SURMOUNT-1.

The pharmacologic columns reflect approximately −15 kg and −21 kg of body weight respectively at 100 kg starting weight. The food-side magnitude — replacing refined sugar with honey at calorie-matched intake — is essentially zero for body weight. Reducing total added sugar produces a small real benefit (~0.8 kg in free-living adults per Te Morenga 2012). The honest framing: honey is not a weight-loss tool; reducing total added sugar is the intervention with evidence behind it.

When honey is fine

Honey is not toxic, not dietarily harmful at normal intake levels, and not categorically “bad” for weight- loss-focused eating. The honest pattern: honey is fine in small-volume substitution contexts where it adds flavor and palatability to an otherwise protein-anchored or fiber- anchored food, and is counterproductive as a standalone weight-loss intervention.

  • Drizzle on Greek yogurt or cottage cheese: 1 tsp honey on 1 cup non-fat Greek yogurt + berries = ~180 kcal, ~18 g protein. The protein anchor + small honey serving combine satiety with palatability. This is a substitution-context use of honey (the honey replaces flavored-yogurt added sugar, which is typically 12-20 g/cup), not an addition-context use.
  • Honey in plain tea: 1 tsp honey (~21 kcal) in unsweetened tea is a small, low-calorie addition that does not meaningfully affect daily caloric balance. The substitution use case is honey-in-tea replacing sugar-sweetened beverage intake.
  • Cough and sore-throat relief: small amounts of honey have evidence for nocturnal cough relief in children >1 year and adults — a legitimate, non- weight-loss medical use. WHO guidance recognises this; do not give honey to infants under 12 months due to botulism risk.
  • Cooking and baking substitution: using honey instead of cane sugar in recipes is a marginal metabolic upgrade per Yaghoobi 2008[1] but does not change the total-calorie or weight-management math. Recipes typically require 3/4 the volume of honey to match the sweetness of sugar — accounting for this properly leaves the calorie load essentially unchanged.

For broader low-calorie sweet-flavor strategies, see our strawberries for weight loss and oranges for weight loss reviews — whole-fruit fructose comes packaged with fiber, water, and chewing volume that liquid honey does not provide.

Common bad takes

(1) “Honey is a natural weight-loss food.” No. Honey is ~82% sugar by weight with no fiber, no protein, no fat, and no published RCT demonstrating body-weight reduction at calorie-matched intake. Yaghoobi 2008[1] is the canonical honey-vs-sucrose trial and showed no body-weight difference.

(2) “Raw honey has special weight-loss enzymes.” Raw honey contains diastase and invertase enzymes that are partially degraded by commercial heating; the difference is real for product authenticity but irrelevant for weight loss. Both raw and processed honey are ~64 kcal per tablespoon.

(3) “Manuka honey burns belly fat.” No published RCT supports this. The Manuka clinical literature is on wound healing and antibacterial activity, not body composition. Manuka is the same caloric density as regular honey.

(4) “Honey before bed boosts metabolism overnight.” The “Hibernation Diet” claim (1-2 tbsp honey before bed) has no peer-reviewed randomised trial support and adds ~64-128 kcal/day to the diet. The reliable bedtime calorie-drift mechanism applies.

(5) “Honey is keto/low-carb friendly.” No. 1 tbsp of honey is ~17 g of net carbohydrate — enough to push a person out of nutritional ketosis on its own. Honey is not keto-compatible at any meaningful serving size.

(6) “Agave is healthier than honey because it's lower GI.” Agave's low GI is because it is ~85% fructose, which is metabolised in the liver and does not produce a glucose spike but does drive hepatic de novo lipogenesis at high intakes. Lower GI does not equal healthier here; it equals different metabolic liability.

Cross-reference with whole-food sweet options

For weight-loss-focused eating, whole-food sources of natural sugar consistently out-perform liquid sweeteners because they package the sugar with fiber, water, and chewing resistance:

  • Strawberries — ~32 kcal per 100 g, ~4.9 g sugar, ~2 g fiber. A full cup of strawberries delivers about the same sugar load as 1 tbsp of honey but with ~7× the volume and fiber.
  • Oranges — ~47 kcal per 100 g, ~9 g sugar, ~2.4 g fiber. The orange's sugar comes packaged with fiber, water, and vitamin C; the chewing volume produces satiety the honey tablespoon does not.
  • Peanut butter — for substitution context: a thin layer of natural peanut butter on toast delivers protein and fat satiety that a honey drizzle does not. The cross-reference is honey-as-flavor-only vs protein-and-fat-anchored options.
  • Sparkling water — the canonical sugar-sweetened-beverage substitute. Replacing daily SSB intake with sparkling water is one of the cleanest added-sugar reductions in the literature.
  • TikTok weight-loss myths — the broader pattern of single-ingredient “magic” weight-loss claims that consistently fail RCT scrutiny.

Bottom line

  • Honey is ~64 kcal and ~17 g of sugar per tablespoon (USDA FoodData Central FDC 169640[10]). It is ~82% sugar by weight with no fiber, no protein, and no fat. It is calorically equivalent to other liquid sweeteners on a per-gram basis.
  • The Yaghoobi 2008 RCT[1] (n=55, 30 days) showed no body-weight difference between honey and sucrose at calorie-matched intake — modest improvements in total cholesterol, LDL, and CRP, but no weight loss. This is the most-cited honey-vs-sugar trial in the published literature.
  • The Te Morenga 2012 BMJ meta-analysis[7] of randomised trials and cohort studies established that total added-sugar intake drives weight gain via calories, not via sugar-specific metabolism. Isocaloric exchange of one sugar for another produces no body-weight change.
  • Honey's glycemic-index advantage over sucrose is real (~58 vs ~65 per Atkinson 2021[5]) but modest and is dwarfed by total carbohydrate dose. GI alone does not predict weight-loss outcomes.
  • The honey-cinnamon diet and Manuka weight-loss claims have no peer-reviewed RCT support. The Manuka clinical literature focuses on wound healing and antibacterial activity, not body composition.
  • Raw vs processed honey: the “raw is healthier” framing is overstated for weight loss. Both are ~64 kcal per tablespoon and both are ~82% sugar. Raw honey carries an infant botulism risk (do not give to children under 12 months).
  • For GLP-1 patients, honey is a small-volume sugar bolus that can produce postprandial nausea on its own and that compounds easily on top of a drug-suppressed appetite. The clean pattern is small substitution-context use (drizzle on Greek yogurt, 1 tsp in tea) rather than standalone consumption.
  • Magnitude: STEP-1 semaglutide[8] produced −14.9% body weight at 68 weeks. SURMOUNT-1 tirzepatide[9] −20.9% at 72 weeks. Sweetener-substitution interventions are not in that magnitude tier.
  • The verdict: no, not meaningfully. Honey is sugar with trace minerals. Replacing refined sugar with honey is a marginal upgrade in lipid and inflammation markers, not a weight-loss intervention. The intervention with actual evidence behind it is reducing total added-sugar intake — and honey, like cane sugar, agave, and maple syrup, is an added sugar that counts toward that total.

Important disclaimer. This article is educational and does not constitute medical or nutrition advice. Honey must not be given to infants under 12 months due to the risk of infant botulism (Clostridium botulinum spores). Patients with diabetes should treat honey as an added sugar in their carbohydrate count, not as a “diabetic-friendly” sweetener. Patients on semaglutide, tirzepatide, or other GLP-1 receptor agonists in the nausea-dominant phase of titration should test individual tolerance with small honey portions, as concentrated sugar bolus intake can worsen postprandial nausea. PMIDs were independently verified against the PubMed E-utilities API on 2026-05-19; per-100-g nutrient values are drawn from USDA FoodData Central and carry typical food-database variance.

Last verified: 2026-05-19. Next review: every 12 months, or sooner if major new evidence on honey intake and body weight is published.

References

  1. 1.Yaghoobi N, Al-Waili N, Ghayour-Mobarhan M, Parizadeh SM, Abasalti Z, et al. Natural honey and cardiovascular risk factors; effects on blood glucose, cholesterol, triacylglycerole, CRP, and body weight compared with sucrose. TheScientificWorldJournal. 2008. PMID: 18454257.
  2. 2.Bobiş O, Dezmirean DS, Moise AR. Honey and Diabetes: The Importance of Natural Simple Sugars in Diet for Preventing and Treating Different Type of Diabetes. Oxidative Medicine and Cellular Longevity. 2018. PMID: 29507651.
  3. 3.Erejuwa OO, Sulaiman SA, Ab Wahab MS. Honey: a novel antioxidant. Molecules. 2012. PMID: 22499188.
  4. 4.Münstedt K, Hoffmann S, Hauenschild A, Bülte M, von Georgi R. Effect of honey on serum cholesterol and lipid values. Journal of Medicinal Food. 2009. PMID: 19627212.
  5. 5.Atkinson FS, Brand-Miller JC, Foster-Powell K, Buyken AE, Goletzke J. International tables of glycemic index and glycemic load values 2021: a systematic review. The American Journal of Clinical Nutrition. 2021. PMID: 34258626.
  6. 6.Mozaffarian D, Hao T, Rimm EB, Willett WC, Hu FB. Changes in diet and lifestyle and long-term weight gain in women and men. New England Journal of Medicine. 2011. PMID: 21696306.
  7. 7.Te Morenga L, Mallard S, Mann J. Dietary sugars and body weight: systematic review and meta-analyses of randomised controlled trials and cohort studies. BMJ. 2012. PMID: 23321486.
  8. 8.Wilding JPH, Batterham RL, Calanna S, Davies M, Van Gaal LF, et al.; STEP 1 Study Group. Once-Weekly Semaglutide in Adults with Overweight or Obesity (STEP 1). New England Journal of Medicine. 2021. PMID: 33567185.
  9. 9.Jastreboff AM, Aronne LJ, Ahmad NN, Wharton S, Connery L, et al.; SURMOUNT-1 Investigators. Tirzepatide Once Weekly for the Treatment of Obesity (SURMOUNT-1). New England Journal of Medicine. 2022. PMID: 35658024.
  10. 10.U.S. Department of Agriculture, Agricultural Research Service. FoodData Central — Honey (FDC 169640); Sugar, granulated (FDC 169655); Maple syrup (FDC 169661); Agave syrup (FDC 167773); Corn syrup, high-fructose (FDC 169660). USDA FoodData Central. 2025. https://fdc.nal.usda.gov/