Why weight management gets harder and what women want
Our survey of 1,030 adults reveals why weight becomes so much harder to manage with age and a clear appetite for natural, evidence-based support over medication.
What are you looking for?
Recent searches
Quick Action
Recommended Products
(kg/m2)

Our survey of 1,030 adults reveals why weight becomes so much harder to manage with age and a clear appetite for natural, evidence-based support over medication.
Reduced calorie burn
Reduced calorie burn
Hormone changes plus loss of lean mass contribute to a drop in how many calories the body burns at rest. If diet and physical activity stay the same, this energy gap leads to weight gain.<sup>1</sup>
Increased abdominal fat
Increased abdominal fat
Perimenopausal women show measurable increases in waist size (central adiposity) even over relatively short periods.<sup>2</sup>
Changes in fat distribution
Changes in fat distribution
Oestrogen helps regulate fat distribution (favouring more peripheral / subcutaneous fat), promotes insulin sensitivity, and helps with energy balance. Once oestrogen declines, there is a shift toward visceral fat accumulation and less insulin sensitivity.<sup>1</sup>
Lifestyle & sleep changes
Lifestyle & sleep changes
Changes in physical activity (often decreasing), dietary habits, sleep disturbances, stress, etc. tend to exacerbate the tendency to gain weight.<sup>3</sup>
Altered appetite regulation
Altered appetite regulation
Hormones that regulate appetite / energy expenditure (e.g. leptin, adiponectin) are affected. Some studies show changes in leptin and adiponectin levels during menopausal transition.<sup>4</sup>
Increased insulin resistance
Increased insulin resistance
Insulin resistance tends to increase, making it easier for the body to store fat and harder to lose fat.<sup>5</sup>
Menopause-associated weight gain is driven by ovarian oestrogen loss, which alters adipose distribution and function, reduces muscle mass and energy expenditure, worsens insulin sensitivity, and interacts with sleep and vasomotor symptoms and behaviour, together promoting increased visceral adiposity and metabolic risk.6
Mechanism: Circulating 17β-oestradiol acts via ERα/ERβ in adipose tissue to regulate preadipocyte differentiation, lipolysis, lipogenesis and local inflammation. With menopause, systemic oestradiol falls and adipose aromatisation becomes more important; the balance of signalling shifts and promotes adipocyte hypertrophy, reduced subcutaneous (gluteofemoral) fat storage capacity and preferential accumulation of visceral adipose tissue.
Consequences: Increased visceral adipose tissue is metabolically active (proinflammatory cytokines, free fatty acid flux), raising cardiometabolic risk even if overall BMI change is modest.<sup>6</sup>
Mechanism: Oestradiol supports muscle mass and mitochondrial function. Menopausal ovarian failure accelerates loss of type II fibres and promotes sarcopaenic changes (reduced muscle protein synthesis, increased proteolysis), lowering resting energy expenditure and total daily energy expenditure. Even small declines in lean mass progressively reduce caloric needs and predispose to positive energy balance if intake / activity don’t adjust.<sup>7</sup>
Mechanism: Oestrogen improves insulin signalling (PI3K/Akt pathway effects, GLUT4 expression) and hepatic lipid handling. Declining oestrogen is associated with increased peripheral and hepatic insulin resistance, higher fasting insulin and increased de novo lipogenesis in the liver. This promotes visceral fat accrual and non-alcoholic fatty liver disease (NAFLD/MASLD) risk.<sup>8</sup>
Mechanism: Menopause may alter appetite regulation (hypothalamic leptin / ghrelin sensitivity, reward circuitry), and increased protein catabolism or altered satiety signalling can change food choices and portion sizes. Some recent work suggests altered protein turnover during the transition may drive increased energy intake to meet protein needs (the ‘protein leverage’ hypothesis), contributing to weight gain.<sup>9</sup>
Mechanism: Hot flashes and night sweats and the resultant broken sleep increase sympathetic tone and cortisol, impair glucose regulation, increase appetite and cravings, and reduce daytime activity. Over time, these factors favour weight gain and central fat deposition. Studies show that vasomotor symptom frequency and persistence correlate with later weight gain.<sup>10</sup>
Mechanism: Postmenopausal subcutaneous adipose tissue and visceral adipose tissue show increased immune cell infiltration, hypoxia, fibrosis and proinflammatory cytokine expression; this adipose dysfunction amplifies insulin resistance and metabolic risk beyond what body weight alone would predict.<sup>11</sup>
Mechanism: Don’t assume BMI alone. Measure and record waist circumference and consider a body composition scan if available to detect visceral fat gain and lean mass loss. Screen for metabolic syndrome (fasting glucose/HbA1c, lipids, LFTs).<sup>11</sup>

VAT releases free fatty acids directly into the portal circulation, leading to hepatic insulin resistance, impaired glucose metabolism and increased risk of type 2 diabetes.
Increased risk of postmenopausal breast cancer, colorectal cancer and endometrial cancer, partly via oestrogen production from VAT aromatase and chronic inflammation.
Weight Management Support is built around Metabolaid®, a patented extract of lemon verbena leaf and hibiscus flower backed by eight clinical trials over 20 years. We use 500mg, the dose tested in those trials. Paired with green tea extract standardised to 95% polyphenols (equivalent to 3,000mg green tea, supplying EGCG) and chromium, clinically proven to support normal blood glucose and macronutrient metabolism.
Plant-based weight management support with patented Metabolaid®. Backed by eight clinical trials.
Practitioner papers, supplement considerations and client handouts to read online or download as PDF.
A holistic view on weight management and metabolic health support.
Diet and lifestyle recommendations.