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Ital J Gender-Specific Med 2015;1(2):58-65

Gender differences in lipoprotein metabolism

Giuseppina T Russo1, Annalisa Giandalia1, Elisabetta L Romeo1, Domenico Cucinotta1

1. Department of Clinical and Experimental Medicine, University of Messina, Messina, Italy.

Received 28 September 2015; accepted 10 December 2015.

Summary. Gender-differences have been reported in lipid metabolism. Physiologically, lipid profile is similar in the two genders until childhood, but starting from puberty lipoprotein levels tend to diverge. Lipid profile changes more dramatically in women than in men, due to complex hormonal modifications throughout their lifetime, especially those related to pregnancy and menopause. Menopause is therefore associated with a more atherogenic lipid pattern, which is thought to influence increased cardiovascular (CVD) risk in postmenopausal women. The drop in oestrogens during this period is responsible, both directly or indirectly through the modulation of adiposity, for most of these lipid modifications. Genetic background may influence lipid and lipoprotein plasma concentrations and significant gene-gender interactions in several genetic loci involved in lipid metabolism, such as apolipoprotein E (APOE), APOC3 and cholesteryl ester transfer protein (CETP), have been reported to modulate plasma lipids and their response to diet or drugs. Also metabolic derangement associated with diabetes differentially affects lipid levels in men and women, having particularly adverse effects in women, with serious consequences in terms of CVD risk. Another important issue to consider is whether the relative CVD risk associated with lipoprotein abnormalities may vary according to gender, as data in the literature seem to indicate. All these findings point to the urgent need of diagnosing and treating lipid disorders differentially in men and women, in order to reduce the impact of CVD, which is still the first cause of mortality in women as well.

Key words. Gender, lipoproteins, metabolism.

Lipoproteine e loro metabolismo: differenze di genere

Riassunto. Esistono differenze legate al genere nel metabolismo lipidico. Fisiologicamente, durante l’infanzia il profilo lipidico è simile nei due sessi, ma già a partire dall’adolescenza i livelli di lipoproteine iniziano a discostarsi. Nell’arco della vita, il profilo lipidico mostra cambiamenti più radicali nelle donne rispetto agli uomini, a causa delle complesse modifiche ormonali che si verificano nelle donne, soprattutto legate alla gravidanza e alla menopausa. Infatti, la menopausa si associa a un pattern lipidico più aterogeno e questo si pensa abbia una importante influenza sull’aumentato rischio cardiovascolare (CV) che caratterizza le donne nel periodo post-menopausale. La caduta del tasso estrogenico in questo periodo è responsabile di larga parte delle modifiche nel profilo lipidico, sia direttamente che indirettamente, attraverso la modulazione del grado di adiposità. Il background genetico può influenzare le concentrazioni di lipidi e di lipoproteine e sono state identificate interazioni significative tra il sesso e diversi loci genici coinvolti nel metabolismo lipidico, come quelli dell’apolipoproteina E (APOE), dell’APOC3 e della proteina di trasferimento del colesterolo esterificato (CETP), in grado di modulare i livelli lipidici e la loro risposta a dieta o farmaci.

Anche le alterazioni metaboliche associate al diabete sembrano avere effetti diversi negli uomini e soprattutto nelle donne, con gravi conseguenze in termini di rischio CV. Un altro importante aspetto da considerare è se il rischio relativo CV associato alle singole frazioni lipidiche sia diverso nei due sessi, così come sembrano suggerire i dati disponibili in letteratura. Tutte queste evidenze indicano come sia ormai necessario diagnosticare e trattare le dislipidemie in modo diverso negli uomini e nelle donne, al fine di ridurre l’impatto delle malattie cardiovascolari, che sono ancora la prima causa di morte anche nel sesso femminile.

Parole chiave. Genere, lipoproteine, metabolismo.

Lipid profile according to gender and age

Cardiovascular disease (CVD) is one of the most important causes of morbidity and mortality in the industrialized world and it is the primary cause of death in women as well.

As compared to men, women tend to develop coronary heart disease (CHD) 10 to 20 years later, and the risk of developing a major CVD event rises up to 25% after the age of 40 years1,2.

CVD has a multifactorial aetiology, and cigarette smoking, hypertension, diabetes mellitus, low high-density lipoprotein cholesterol (HDL-C) and elevated low- density lipoprotein cholesterol (LDL-C) levels have all been recognized as independent risk factors3.

Although dyslipidaemia is a common CVD risk factor in both sexes, gender-differences have been reported in the pathophysiology, diagnosis and treatment of lipid disorders4,5. Lipid profile is similar in the two genders until childhood, but starting from puberty lipoprotein levels tend to diverge physiologically. LDL-C levels usually rise from young adulthood to the age of 60 years in men and 70 years in women, and then the curves decrease, probably for the selective survival of subjects with lower LDL-C levels6.

Overall, through middle age, women have lower LDL-C, non-HDL-C and total cholesterol (T-C) levels than men, whereas by the time of menopause, LDL-C levels rise more in women than in men, inverting the curves of LDL-C6,7. Consequently in older age groups, women show higher LDL-C levels than men.

This age-dependent increase of LDL-C levels has been related to reduced catabolism due to the reduction of the activity of the LDL receptors in the liver, as indicated by kinetic studies of LDL-apoB in a group of subjects with a broad age range8.

In addition to age and sex-related quantitative modification in LDL-plasma levels, qualitative variances in lipoproteins have also been noted between sexes. In the Bogalusa Heart Study that evaluated lipid profile in a large cohort of teenagers, boys had a smaller mean LDL and larger very low-density lipoprotein (VLDL) particle size as compared with girls9. This smaller LDL particle size has been persistently shown in men, irrespective of age10,11.

Sex-related differences in lipid profile have been clearly reported in the Framingham Offspring Study that evaluated lipid profile in over 3,000 middle-aged subjects, taking into account menopausal status. Mean plasma levels of LDL-C and apoB were higher in men than in women, but the age-related increment in LDL-C was more evident in women than in men. LDL-C and apoB levels were significantly higher in postmenopausal than in premenopausal women, even after age- and BMI-adjustment, indicating a hormonal effect on LDL metabolism6.

Differences are reported also in lipoprotein(a) (Lp[a]) concentration, which tends to remain constant in men and increases with age in women5.

Also triglycerides are usually higher in men than in women at every age6, whereas HDL-C concentrations tend to decrease with ageing in men, but not in women6,12, leading to a ~10 mg/dl difference in HDL-C levels3,6,12. Gender-related differences in HDL subclasses have also been reported between male and female adolescents. In the Bogalusa Heart Study, young males showed smaller mean HDL particle size as compared with females and this difference was evident even after correction for HDL-C13.

Lipid profile in pregnancy and menopause: role of oestrogen

Lipid profile changes more dramatically in women than in men, due to complex hormonal modifications throughout their lifetime, especially those related to pregnancy and menopause.

During pregnancy, T-C, triglycerides and LDL-C levels increase due to the effects of a number of hormones, including human chorionic gonadotropin hormone, beta-estradiol, insulin, and progesterone5,14-16. Total HDL-C, HDL2-C and apolipoprotein A1 concentrations increase in pregnancy15, then going back to baseline values in the post- partum17,18. Due to the effects of androgens or insulin-resistance, HDL-C levels remain lower after post-partum so that parous women tend to have lower HDL-C levels than nulliparous ones17,18.

Lipid modifications typically occur after menopause. Epidemiological studies have consistently shown higher T-C and LDL-C, and lower HDL-C levels in postmenopausal compared to premenopausal women. A decrease in LDL-particle size has also been documented after menopause19, though with controversial reports10,20.

Adverse lipoprotein patterns found in postmenopausal women are thought to be partly responsible for their high CVD risk.

The fall of oestrogen levels after menopause is certainly responsible for most of these modifications, either through direct effects on lipid metabolism or through the regulation of body composition and energy balance21,22. After menopause, women begin to show a redistribution of body visceral fat and a typical abdominal localization.

Oestrogen may also directly influence lipid metabolism through the suppression of gene expression and activity of lipoprotein lipase (LPL), the rate limiting enzyme in triglycerides metabolism23,24, or through the modulation of lipolysis by the up-regulation of α2-adrenergic receptors25.

Moreover, it has been shown that oestrogen replacement therapy in postmenopausal women decreases the expression of several lipogenesis genes, such as sterol regulatory element binding protein 1c, fatty acid synthase, acetyl-CoA carboxylate, LPL and peroxisome proliferator-activated receptor-γ24,26. This treatment may also impact cholesterol metabolism through the increase in hepatic cell surface LDL receptors and faster clearance of LDL particles27. Furthermore, it has been shown to increase cholesterol excretion in humans and to decrease the conversion of VLDL into LDL in rabbits28,29.

The effects of oestrogens on lipid metabolism may also be mediated by their action on adipose tissue. Oestrogens are potent regulators of adipogenesis and adipose metabolism and oestrogen receptors (ERs), ER-α and ER-β are expressed both in human and rodent adipocytes, with a pattern that varies according to the stage of adipocyte differentiation and adipose tissue localization30,31.

The key role played by oestrogen in lipid metabolism is corroborated by the common observation that many of the menopause-related modifications in lipid profile are reversible with hormonal replacement therapy (HRT). However, the effects of HRT on lipid metabolism depend on the type of oestrogen and progestin combination, the route of administration and dosage32. Many of the beneficial effects on lipid fractions seem to be mediated by the oestrogenic component, whereas they are usually counterbalanced by the progestin component. Exogenous oestrogen has been shown to markedly decrease both LDL-C and ApoB levels in dyslipidaemic postmenopausal women33,34, and to increase HDL-C, HDL2-C, and triglyceride levels35. Data are also available in pre-menopausal women from the Bogalusa study36, where oral contraceptive use was associated with significant modifications in T-C, triglycerides, VLDL-C, and LDL-C, but no changes were reported in HDL-C levels.

Gene-gender interaction affecting lipid profile

Both environmental and genetic factors play a role in determining lipid and lipoprotein plasma concentrations. The heritability of the most common forms of dyslipidemias is polygenic, and specific mutations at several candidate genes have been associated with altered lipid levels, although these mutations usually account for a small proportion of the variability observed in the general population37,38.

Although men and women share most genetic information, significant gene-gender interactions affecting plasma lipids have been reported.

Apolipoprotein E (APOE) offers a significant example of the possible interactions between genes, gender and environmental factors that ultimately modulate circulating plasma lipids.

APOE serves as a ligand for the LDL receptor (LDLR) and the LDL receptor-related protein (LDLRP). The most commonly studied genetic variation at the APOE locus results from 3 common alleles: E4, E3 (the most frequent form in Caucasian populations) and E237, 38. Population studies have shown that APOE alleles affect T-C, LDL-C, ApoB and triglycerides plasma levels, accounting for up to 7% of the variation in T-C and LDL-C concentrations in the general population, with a greater effect in women than in men37,38. Significant APOE-gender interactions have been reported in several studies testing the genetic susceptibility to CHD and the response to diet, and to hypolipidemic drugs37,38. Interactions of APOE gene with diet and alcohol consumption has been observed in men but not in women, and population studies showed significant APOE gene-gender association with CVD risk37-39.

An APOE-gender interaction modulating the lipid response to statins has also been observed40. Furthermore, Tsuda et al. showed that the APOE genotype may modulate total and LDL-C response to HRT, with a reduction in T-C and LDL-C levels that was the greatest in women E2 carriers, intermediate in E3/E3 carriers and the lowest in carriers of APOE4 allele41.

Another example of the modulating effect of sex on the relationship between genetic background and plasma lipids is related to the apolipoprotein C3 (APOC3) gene, which is clustered with the APOA1, APOA4, and APOA5 genes on the long arm of human chromosome 11, a highly polymorphic region that has been extensively studied. The common SstI polymorphism on APOC3 gene has been associated with increased triglycerides and ApoCIII plasma levels42. In the Framingham Offspring Study the minor S2 allele was found to be associated with lower concentrations of HDL-C and HDL2-C and higher APOC3 non-HDL and triglyceride levels in men; conversely, in women, the S2 allele was associated with increased T-C, LDL-C and ApoB levels. Lipoprotein subfractions were also examined using nuclear magnetic resonance (NMR) spectroscopy. S2 male carriers had significantly lower concentrations of large LDL and a significant reduction in LDL particle size, while in female participants there was a significant increase in intermediate LDL particles with no significant effect on lipoprotein diameters43 (Table 1).

The importance of the genetic effect on different lipid fractions is extremely variable, with more than 50% of circulating HDL-C that is genetically determined44. Besides APOA1 genetic variants38, a common TaqIB variant in gene coding for cholesteryl ester transfer protein (CETP), a key enzyme in reverse cholesterol transport (RCT), has been associated with lower CETP activity, higher HDL-C levels and a greater atheroprotective HDL subpopulations profile45-47.

Significant gene-gender interactions have been reported also for this genetic variant: in male participants of the Framingham Offspring Study, B2 uncommon allele was associated with increased particle size for HDL and LDL, but a similar effect was demonstrated only for HDL particle size in females. Furthermore, the protective association of this genetic variant on CHD risk was reported in men but not in women47.

The effect of CETP TaqIB polymorphism on lipid and lipoprotein profile, as well as on the distribution of the HDL LpA-I and LpA-I:A-II subclasses, as determined by two-dimensional gel electrophoresis, was also explored in a group of women with and without type 2 diabetes48. The effect of CETP polymorphism was limited to diabetic women among whom it showed significant interactions with HOMA(IR), BMI and triglycerides concentrations (Table 2).

Diabetes, gender and lipid profile

CVD is the primary cause of morbidity and mortality in diabetic patients. Relative CHD risk is higher in both type 2 and type 1 diabetic women than in diabetic men49,50.

Among the various and not fully elucidated reasons for this excessive CVD risk associated with diabetes in the female gender51-53, several lines of evidence indicate that lipoprotein profile plays an important role.

Diabetic women usually have substantially higher triglyceride concentrations and significantly lower HDL-C levels than non-diabetic ones, even after adjustment by age and body weight48,54. Low levels of HDL-C seem to have a peculiar role on CVD risk in this population. Low HDL-C levels are a well-recognized CVD risk factor: data from a 6-year follow-up of the PROCAM study showed that the incidence of CHD decreased with higher levels of HDL-C55. The Framingham study showed that high levels of HDL-C reduce the risk of CHD at all levels of LDL-C56. Based on these and other epidemiological studies, current Adult Treatment Panel III- ATP III Guidelines3 identify HDL-C ≥60 mg/dL as a “negative” risk factor since it removes 1 risk factor from the total count.

However, recent findings suggest that the atheroprotective role of HDL-C is not limited solely to its circulating concentration, but depends on qualitative properties of HDL particles, which may be dysfunctional despite normal levels. Therefore, HDL is a heterogeneous class of lipoproteins differing in size, density, charge, and composition. HDL particles can be divided into sub-fractions by different methods, and some authors have demonstrated that HDL qualitative properties may strongly modulate CHD risk57.

The metabolic derangement associated with diabetes may strongly impact HDL composition and function. In a selected group of women with and without type 2 diabetes (T2DM), not taking hypolipidemic medications, we compared apoA-I-containing HDL subclass distribution, as determined by two-dimensional gel electrophoresis, taking also menopause into account. Diabetic women showed lower levels of the large α-١, α-٢, and pre-α-1 HDL particles, and a higher concentration of the small α-٣ HDL particles when compared to non-diabetic subjects, and this less atheroprotective HDL pattern was evident also in pre-menopausal groups, independently from HDL-C and triglyceride concentrations48. Notably, these modifications in HDL subclass profile in diabetic women without CHD were comparable both quantitatively and qualitatively with those found in men with CHD58.

Besides their role in RCT, several lines of evidence indicate that HDL particles may affect the atherosclerotic process also through the modulation of subclinical inflammation59 and the differences in HDL size and composition reported in diabetic women may also affect their anti-inflammatory properties. This hypothesis was explored in a group of CHD-free women with and without diabetes by measuring inflammatory markers and HDL subpopulations60. Compared to controls, diabetic women showed greater subclinical inflammation with higher hsCRP and IL-6 serum levels (age- and BMI-adjusted P < 0.001). Notably, HDL subclasses significantly correlated with inflammatory markers: hsCRP inversely correlated with α-1 and pre-α-1 HDL, while IL-6 inversely correlated with α-1, α-2, and pre-α-1 HDL particles and positively with α-3 HDL, indicating that more atheroprotective HDL subclasses are associated with lower levels of inflammatory markers, especially in diabetic women. These data suggest that different HDL subclasses may influence CHD risk also through the modulation of inflammation60.

Differences in lipid profile affecting CVD risk in diabetic women are not limited to HDL particles, and LDL-C levels remain the major goal of CHD prevention also in subjects with T2DM61. In a representative sample of Italian T2DM patients, it has been reported that women were 42% more likely to have LDL-C above the recommended target of 130 mg/dL, as compared to men, in spite of lipid-lowering treatment and in the context of an overall lower quality of care62, and this finding has been consistently reported also in other cohorts63,64. In order to better clarify this issue, we explored age- and gender-related differences in LDL-C management in a large sample of 415,294 T2DM patients (45.3% women) from 236 diabetes outpatient centers in Italy65. Women were older and more obese and had a slightly longer diabetes duration, higher T-C, LDL-C and HDL-C serum levels and lower triglyceride levels as compared to men. Lipid profile was monitored in ~75% of subjects, women being monitored less frequently than men, irrespectively of age. More women (+6.2%) did not reach the LDL-C target as compared to men, particularly in the subgroup treated with lipid-lowering medications. Furthermore, this between-genders gap in reaching LDL-C targets increased with age and diabetes duration, favoring men in all groups65.

Nevertheless, the most striking finding of this study was that T2DM women were not able to reach the recommended LDL-C targets as men, in spite of a similar rate in the use of medications and a slightly higher use of statins65.

It has been commonly recognized that drug registration trials are usually sex-unbalanced, often including smaller group of women, and they rarely take into account women in different phases of their hormonal pathway, and this also applies to lipid lowering trials with statins. However, meta-analyses have demonstrated that statin therapy is efficacious in reducing LDL-C and CHD risk also in women with or without T2DM66. While waiting for ad hoc studies that are needed in order to clarify this important issue, to date there is no indication for having a different approach in the prescription of lipid lowering agents in men and women3.

Relative impact of lipid fraction on CVD risk according to gender

Another important issue to consider is whether the relative risk associated with each lipoprotein abnormality may vary according to gender. Several lines of evidence point to a differential role of lipid profile in men and women.

Although LDL-C levels are the primary target for CVD prevention in both men and women, other lipid abnormalities seem to have a stronger impact on CVD risk in the female gender.

The Lipid Research Clinics’ Follow-up Study67 calculated the risk associated with different lipoprotein abnormalities in 1,405 women aged 50-69 years. They noted that low HDL-C (<50 mg/dl) and high triglycerides (>200 mg/dl) were strong predictors of CVD death while LDL-C and T-C were poor predictors.

Furthermore, a meta-analysis evaluating the association between elevated triglycerides and CHD risk showed that elevated triglycerides were associated with an approximately 30% increased risk for men and a 75% increased risk in women54.

To date, only few studies have explored the gender differences in the relation between CVD risk and LDL particle size68-70. A recent report from the Women’s Cardiovascular Health Study, which enrolled young women aged 18 to 44 years, showed up to a 3.5-fold increase in risk of premature myocardial infarction associated with smaller LDL size68.

The role of small dense LDL on CHD risk has also been explored in a cohort of T2DM70.

After taking into account several potential predictors, including metabolic and lipid profile, as well as fasting plasma levels of total homocysteine, folate, vitamin B12, hsCRP, IL-6, and VCAM-1, impaired renal function and sdLDL were the strongest predictors of CHD risk in this population, whereas no significant association was noted with LDL-C70.

All these findings suggest that beyond LDL-C, more subtle alterations of LDL particles, together with other quantitative and qualitative modifications of lipid profile, may be stronger contributors to CHD risk in women as compared with what is observed in men.


Lipid profile differs by sex and age: in men, lipid profile is modified by ageing, in women by ageing and oestrogen status. Menopause has the strongest impact on lipid fractions which shift toward a more atherogenic pattern in terms of both quantity and quality of circulating lipoproteins. While HRT usually reverses lipid abnormalities, this is not translated into a reduction of CHD risk so that health costs/benefits ratio must drive its use. Furthermore, metabolic derangements like those observed in diabetes seem to have a stronger impact on lipid profile in women than in men.

Also genetic background may modulate plasma lipids, their response to diet or drugs, and all these aspects are dependent on multiple genes-gender interactions.

The relative impact of different lipoprotein fractions on CVD risk may also differ by gender: LDL-C appears to be a relatively weaker CHD risk factor, whereas HDL-C/triglycerides have a stronger influence in women as compared to men. Finally, hypolipidemic treatments may be less efficacious in women, at least in diabetic ones, due to lack of adherence or some still unknown biological mechanisms.

It is increasingly clear that it is necessary to consider men and women separately in the CVD risk assessment and prevention, as recently stated by the American Heart Association, which established specific indications for women71.

While awaiting an elucidation of the pathophysiological bases of these gender differences in CVD, correction of all modifiable risk factors, first and foremost lipid abnormalities, is still the only strategy for primary and secondary CVD prevention in both men and women.


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