Lymphocyte activation after a high-intensity street dance class.
Leandro BorgesRenata GorjãoStuart R GrayThaís Reis MartinsVinicius Coneglian SantosCesar Miguel Momesso Dos SantosTania Cristina Pithon-CuriElaine HatanakaPublished in: PloS one (2020)
Intense dance training leads to inflammation, which may impair the health and performance of the practitioners. Herein, we evaluate the effect of a single street dancing class on the profile of muscle enzymes, lymphocyte activation, and cell surface CD62L expression. We also investigated the correlation between muscle enzymes, adhesion molecules, and lymphocyte activation in dancers. Fifteen male participants (mean ± standard error: age 22.4 ± 1.08 years, body mass index 24.8 ± 0.69 kg/m2, body fat 12.3 ± 1.52%), who were amateur dancers, had blood samples collected previously and subsequent to a high-intensity street dance class. After the class, dancers showed an increase in total lymphocyte count (2.0-fold), creatine kinase (CK)-NAC (4.87%), and CK-MB (3.36%). We also observed a decrease (2.5-fold) in reactive oxygen species (ROS) produced by lymphocytes, under phorbol myristate acetate-stimulated environments. Following the dance class, CD62L expression in lymphocytes decreased (51.42%), while there was a negative correlation between the intensity of the exercise and CD62L expression (r = -0.73; p = 0.01). Lymphocytes were less responsive to stimuli after a single bout of street dancing, indicating transient immunosuppression.
Keyphrases
- high intensity
- peripheral blood
- poor prognosis
- resistance training
- reactive oxygen species
- body mass index
- cell surface
- skeletal muscle
- protein kinase
- binding protein
- public health
- healthcare
- cell death
- primary care
- transcription factor
- oxidative stress
- physical activity
- long non coding rna
- dna damage
- mental health
- weight gain
- risk assessment
- pseudomonas aeruginosa
- body composition
- health information
- brain injury
- mass spectrometry
- atomic force microscopy
- social media
- blood brain barrier