Department of Chemical and Materials Engineering, School of Engineering and Digital Sciences, Nazarbayev University, Astana 010000, Kazakhstan.
Department of Computer Science and Engineering, Chalmers University of Technology and University of Gothenburg, SE-41296 Gothenburg, Sweden.
Nutrients. 2024 Oct 17;16(20):3525. doi: 10.3390/nu16203525.
The inhalation of cooking-generated aerosols could lead to translocation to the brain and impact its function; therefore, the effects of cooking-generated aerosols on healthy adults were investigated using an electroencephalograph (EEG) during the 2 h period post-exposure. To explore any changes from the impact of exposure to cooking-generated aerosols on the human brain due to the absence of food intake during exposure, we divided the study participants into three groups: (A) no food intake for 2 h (2 h-zero calorie intake), (B) non-zero calorie intake, and (C) control group (simulated cooking). The ultrafine particle concentrations increased from 9.0 × 10 particles/cm at the background level to approximately 8.74 × 10 particles/cm during cooking. EEGs were recorded before cooking (step 1), 60 min after cooking (step 2), 90 min after cooking (step 3), and 120 min after cooking (step 4). Comparing the non-zero calorie group with the control group, it was concluded that exposure to cooking-generated aerosols resulted in a 12.82% increase in the alpha band two hours post-exposure, compared to pre-exposure. The results revealed that zero calorie intake after exposure mitigated the impacts of cooking-generated aerosols for the alpha, beta3, theta, and delta bands, while it exacerbated effects on the whole brain for the beta1 and beta2 bands. While these are short-term studies, long-term exposure to cooking-generated ultrafine particles can be established through successive short-term exposures. These results underscore the need for further research into the health impacts of cooking-generated aerosols and the importance of implementing strategies to mitigate exposure.
吸入烹饪产生的气溶胶可能导致向大脑转移并影响其功能;因此,使用脑电图(EEG)在暴露后 2 小时内研究了烹饪产生的气溶胶对健康成年人的影响。为了探索由于暴露期间没有食物摄入而对人体大脑造成的任何变化,我们将研究参与者分为三组:(A)2 小时内不摄入食物(2 小时零卡路里摄入),(B)非零卡路里摄入,和(C)对照组(模拟烹饪)。超细颗粒浓度从背景水平的 9.0×10 个颗粒/cm 增加到烹饪过程中的约 8.74×10 个颗粒/cm。在烹饪前(步骤 1)、烹饪后 60 分钟(步骤 2)、烹饪后 90 分钟(步骤 3)和烹饪后 120 分钟(步骤 4)记录脑电图。将非零卡路里组与对照组进行比较,结果表明,与暴露前相比,暴露于烹饪产生的气溶胶后,阿尔法频段在暴露后两小时增加了 12.82%。结果表明,暴露后零卡路里摄入减轻了烹饪产生的气溶胶对阿尔法、贝塔 3、西塔和德尔塔频段的影响,而对大脑的整体影响则加剧了对贝塔 1 和贝塔 2 频段的影响。虽然这些是短期研究,但可以通过连续的短期暴露来建立长期暴露于烹饪产生的超细颗粒的情况。这些结果强调了需要进一步研究烹饪产生的气溶胶对健康的影响,以及实施减轻暴露策略的重要性。