Research shows that neighborhood design features—like food stores, parks, and walkability—have only modest and sometimes contradictory effects on health behaviors in people at high cardiovascular risk. A 2026 cross-sectional study of 475 high-risk patients in The Hague found that neighborhoods with better food environments and higher walkability didn’t consistently lead to healthier eating or lower weight, suggesting that for medically supervised patients, personal factors and medical guidance may matter more than neighborhood layout.

Researchers in The Hague, Netherlands studied 475 people at high risk for heart disease to see if their neighborhood’s design—like how many grocery stores, parks, and walkable streets were nearby—affected their weight, diet, and exercise habits. According to Gram Research analysis, they found that neighborhoods do have distinct patterns, but these patterns had surprisingly weak connections to people’s actual health behaviors. The study suggests that for people already being medically supervised for heart disease risk, neighborhood features alone may not be enough to change how they eat or exercise.

Key Statistics

A 2026 cross-sectional study of 475 high-risk cardiovascular patients in The Hague found that four neighborhood patterns explained 87% of variation in environmental features, but showed only modest associations with weight status, diet quality, and physical activity.

Neighborhoods with ‘relative food environment advantage’ in the Dutch study showed lower odds of overweight status but counterintuitively were associated with lower fruit and vegetable consumption, suggesting neighborhood access alone doesn’t determine eating habits.

The dominant neighborhood pattern in the study—characterized by high food-retail density, high walkability, and low vegetation—remained strongly coupled to population density even within the most densely urbanized areas, challenging researchers’ ability to measure independent environmental effects.

The Quick Take

  • What they studied: Whether the physical layout of a neighborhood—including food stores, green spaces, and how easy it is to walk—influences whether people maintain healthy weight, eat well, and exercise regularly.
  • Who participated: 475 patients from 73 different neighborhoods in The Hague who were already identified as having high risk for heart disease and were receiving medical care.
  • Key finding: Neighborhoods do cluster into distinct patterns based on their features, but these patterns showed only modest and sometimes contradictory connections to people’s health behaviors. Surprisingly, neighborhoods with better food options and walkability didn’t consistently lead to healthier eating or lower weight.
  • What it means for you: If you live in a dense city and are trying to improve your health, neighborhood design alone probably won’t be your main factor for success. Other influences—like your personal motivation, medical support, and family habits—likely matter more. However, this doesn’t mean neighborhood improvements aren’t worth doing; they may help in ways this study didn’t measure.

The Research Details

This was a cross-sectional study, which means researchers took a snapshot of 475 people at one point in time rather than following them over months or years. The participants all lived in The Hague, a densely populated Dutch city, and all had been identified by their doctors as having high risk for heart disease. Researchers measured 23 different neighborhood features across three categories: food environment (like how many grocery stores and fast-food restaurants were nearby), green space (parks and vegetation), and walkability (how easy it was to walk to places). They looked at these features at two different geographic scales—very local (around each person’s home) and slightly larger areas. They also collected information about each person’s weight, diet quality, and physical activity levels through medical records and surveys.

This research approach is important because most previous studies looked at neighborhoods in general populations, not in people who already have health problems. By focusing on people at high cardiovascular risk who are already receiving medical care, the researchers could see whether neighborhood design matters for the group that needs it most. Additionally, studying one dense city rather than comparing multiple cities helps researchers understand whether neighborhood patterns work differently in highly urbanized areas where everything is packed closely together.

This study has several strengths: it measured many different neighborhood features comprehensively, it adjusted for individual and neighborhood-level factors that could confuse the results, and it was published in a peer-reviewed journal. However, the study was cross-sectional, meaning it shows associations but cannot prove that neighborhood features cause health behaviors. The sample size of 475 is moderate, and all participants were from one city and were already medically supervised, so results may not apply to other populations or healthier individuals. The researchers were transparent about their limitations, which is a good sign of scientific integrity.

What the Results Show

The researchers used a statistical technique called principal component analysis to identify patterns in how neighborhood features cluster together. They found four main neighborhood patterns that explained 87% of the variation in environmental features across the city. The most dominant pattern was characterized by high density of food retail stores, high walkability, and low vegetation cover—essentially, busy urban areas with lots of shops but few parks. This pattern was very strongly linked to population density, meaning the most crowded neighborhoods had these characteristics. Interestingly, even when researchers looked only at the most densely populated areas, this coupling remained strong, suggesting that in very dense cities, you can’t really separate ‘busy commercial areas’ from ‘high-density residential areas.’ The second most important pattern was labeled ‘Relative food environment advantage,’ which represented neighborhoods with better access to healthy food options and fewer unhealthy food outlets. This pattern showed the most consistent association with health outcomes across different statistical models.

The ‘Relative food environment advantage’ pattern showed lower odds of people being overweight, which sounds positive. However, this same pattern was counterintuitively associated with lower fruit and vegetable consumption—meaning people in these neighborhoods actually ate fewer fruits and vegetables. This paradoxical finding suggests that having access to healthy food doesn’t automatically mean people eat it. The researchers also found some evidence that neighborhood socioeconomic position (whether a neighborhood was wealthier or poorer) modified these associations, meaning the effects of neighborhood patterns differed depending on neighborhood income level. Overall, the associations between neighborhood patterns and health behaviors were modest in strength, suggesting that neighborhood design alone has limited influence on lifestyle choices in this medically supervised population.

Previous research has suggested that neighborhood features significantly influence health behaviors, particularly in general populations. This study’s findings are more cautious, suggesting that in dense urban areas and in people already receiving medical care for heart disease risk, neighborhood effects may be weaker than previously thought. The paradoxical finding—that better food environments didn’t lead to better diets—contradicts some earlier research and suggests that the relationship between neighborhood design and behavior is more complex than simple cause-and-effect. The coupling of food retail density to population density even within high-density areas is a new finding that challenges how researchers should interpret neighborhood studies in cities.

The study was cross-sectional, so it cannot prove that neighborhood features cause health behaviors—only that they’re associated. All participants were from one city and were already identified as high-risk and receiving medical care, so results may not apply to healthier people or other cities. The study measured neighborhood features at only one point in time, so it couldn’t account for changes in neighborhoods over time. Additionally, the modest associations found might reflect that medically supervised patients are receiving strong guidance from their doctors that overrides neighborhood influences. The researchers couldn’t measure all possible neighborhood factors, so unmeasured factors might explain some results. Finally, the paradoxical findings (better food environment but worse diet quality) suggest that the relationships are complex and may involve factors the study didn’t measure, like cultural food preferences or food affordability.

The Bottom Line

For people at high risk for heart disease, focus on following your doctor’s recommendations for diet and exercise rather than relying on neighborhood features to drive behavior change. If you’re considering moving or advocating for neighborhood improvements, know that these changes may help create a supportive environment, but they’re unlikely to be the primary driver of health behavior change. Work with your healthcare provider on personalized strategies for diet and physical activity. If your neighborhood lacks parks or healthy food options, this is still worth advocating for—these improvements benefit community health in ways beyond what this single study measured.

This research is most relevant to people with high cardiovascular risk who are receiving medical care, public health officials planning interventions in dense urban areas, and researchers studying how neighborhoods affect health. People in general good health may find different results, as neighborhood design might influence them differently. Urban planners should note that neighborhood improvements are still worthwhile, but shouldn’t be the only strategy for improving population health. Healthcare providers should recognize that neighborhood factors alone won’t solve health behavior challenges in high-risk patients.

If neighborhood improvements were made, realistic expectations would be gradual changes over 6-12 months or longer, and these changes would likely be modest. For individuals, changes in diet and physical activity guided by medical providers typically show measurable health benefits within 3-6 months. Don’t expect neighborhood redesign alone to produce rapid health transformations.

Frequently Asked Questions

Does living in a walkable neighborhood with good grocery stores help you lose weight?

Not necessarily. A 2026 study of 475 high-risk heart patients found that neighborhoods with better walkability and food access showed only weak connections to actual weight loss, suggesting personal motivation and medical guidance matter more than neighborhood design alone.

Can moving to a better neighborhood improve my health habits?

Possibly, but neighborhood features alone probably won’t transform your health. Research shows neighborhood design has modest effects on behavior, especially in people receiving medical care. Your doctor’s guidance and personal commitment are likely more important factors for success.

Why do some neighborhoods with good food options have worse diets?

A 2026 study found this paradox: neighborhoods with better access to healthy food actually had residents eating fewer fruits and vegetables. This suggests that access alone doesn’t change behavior—factors like food affordability, cultural preferences, and personal habits matter significantly.

Should cities invest in neighborhood improvements if they don’t guarantee health changes?

Yes. While neighborhood design alone won’t solve health problems, these improvements create supportive environments and offer multiple community benefits beyond what single studies measure. They work best combined with medical care and personal health strategies.

Want to Apply This Research?

  • Track your weekly fruit and vegetable servings and minutes of physical activity, regardless of neighborhood features. This helps you see whether you’re meeting health goals independent of your environment. Set a specific target (e.g., 5 servings of fruits/vegetables daily, 150 minutes of activity weekly) and log daily progress.
  • Use the app to identify specific, actionable health goals from your doctor’s recommendations rather than relying on neighborhood features to motivate change. For example, set reminders to walk to a specific nearby location three times weekly, or plan healthy meals in advance. Track these behaviors consistently to build habits.
  • Monitor your health metrics (weight, activity level, diet quality) monthly rather than waiting for neighborhood changes. Share this data with your healthcare provider to adjust your plan as needed. Use the app to identify personal barriers to healthy behavior (stress, time, motivation) and develop strategies to overcome them, recognizing that your neighborhood is just one factor among many.

This research describes associations between neighborhood features and health behaviors in a specific population of high-risk cardiovascular patients in one Dutch city. These findings may not apply to other populations, geographic areas, or healthier individuals. Neighborhood design is just one factor influencing health—medical care, personal motivation, genetics, and socioeconomic factors also play important roles. If you have cardiovascular risk factors or health concerns, consult your healthcare provider for personalized advice. Do not use this information to replace medical guidance from your doctor. This study shows correlation, not causation, and cannot prove that neighborhood features directly cause health behavior changes.

This research translation is published by Gram Research, the science division of Gram, an AI-powered nutrition tracking app.

Source: Identifying co-occurring neighbourhood environmental patterns and their association with health behaviours in a Dutch urban population at high cardiometabolic risk.BMC public health (2026). PubMed 42410561 | DOI