Hemodynamic responses to simulated weightlessness of 24-h head-down bed rest and KAATSU blood flow restriction

The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated...

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Published inEuropean journal of applied physiology Vol. 104; no. 4; pp. 727 - 737
Main Authors Nakajima, Toshiaki, Iida, Haruko, Kurano, Miwa, Takano, Haruhito, Morita, Toshihiro, Meguro, Kentaro, Sato, Yoshiaki, Yamazaki, Yoshihisa, Kawashima, Sino, Ohshima, Hiroshi, Tachibana, Shouichi, Ishii, Naokata, Abe, Takashi
Format Journal Article
LanguageEnglish
Published Berlin/Heidelberg Springer-Verlag 01.11.2008
Springer Nature B.V
Subjects
Online AccessGet full text
ISSN1439-6319
1439-6327
DOI10.1007/s00421-008-0834-3

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Abstract The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6° head-down tilt for 24 h, n  = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150–200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HF RR ) decreased during KAATSU and standing, while low-frequency/high-frequency power (LF RR /HF RR ) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.
AbstractList The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6° head-down tilt for 24 h, n  = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150–200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HF RR ) decreased during KAATSU and standing, while low-frequency/high-frequency power (LF RR /HF RR ) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.
The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6 degrees head-down tilt for 24 h, n = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150-200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HF(RR)) decreased during KAATSU and standing, while low-frequency/high-frequency power (LF(RR)/HF(RR)) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6 degrees head-down tilt for 24 h, n = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150-200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HF(RR)) decreased during KAATSU and standing, while low-frequency/high-frequency power (LF(RR)/HF(RR)) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.
The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6 degrees head-down tilt for 24 h, n = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150-200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HF(RR)) decreased during KAATSU and standing, while low-frequency/high-frequency power (LF(RR)/HF(RR)) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.
The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space flight, but the effects of KAATSU in microgravity remain unknown. We investigated the hemodynamic responses to KAATSU during actually simulated weightlessness (6° head-down tilt for 24 h, n = 8), and compared those to KAATSU in the seated position before bed rest. KAATSU was applied to the proximal ends of both the thighs. In the seated position before bed rest, sequential incrementing of KAATSU cuff pressure and altering the level of blood flow restriction resulted in a decrease in stroke volume (SV) with an increase in heart rate (HR). KAATSU (150-200 mmHg) decreased SV comparable to standing. Following 24-h bed rest, body mass, blood volume (BV), plasma volume (PV), and diameter of the inferior vena cava (IVC) were significantly reduced. Norepinephrine (NOR), vasopressin (ADH), and plasma renin activity (PRA) tend to be reduced. A decrease in SV and CO induced by KAATSU during the simulated weightlessness was larger than that in the seated position before bed rest, and one of eight subjects developed presyncope due to hypotension during 100 mmHg KAATSU. High-frequency power (HFRR) decreased during KAATSU and standing, while low-frequency/high-frequency power (LFRR/HFRR) increased significantly. NOR, ADH and PRA also increased during KAATSU. These results indicate that KAATSU blood flow restriction reproduces the effects of standing on HR, SV, NOR, ADH, PRA, etc., thus stimulating a gravity-like stress during simulated weightlessness. However, syncope due to lower extremity blood pooling and subsequent reduction of venous return may be induced during KAATSU in microgravity as reported in cases of lower-body negative pressure.
Author Nakajima, Toshiaki
Yamazaki, Yoshihisa
Iida, Haruko
Takano, Haruhito
Kurano, Miwa
Abe, Takashi
Meguro, Kentaro
Ohshima, Hiroshi
Ishii, Naokata
Sato, Yoshiaki
Kawashima, Sino
Morita, Toshihiro
Tachibana, Shouichi
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  surname: Nakajima
  fullname: Nakajima, Toshiaki
  email: masamasa@pb4.so-net.ne.jp
  organization: Department of Ischemic Circulatory Physiology, KAATSU Training, University of Tokyo
– sequence: 2
  givenname: Haruko
  surname: Iida
  fullname: Iida, Haruko
  organization: Department of Ischemic Circulatory Physiology, KAATSU Training, University of Tokyo
– sequence: 3
  givenname: Miwa
  surname: Kurano
  fullname: Kurano, Miwa
  organization: Department of Ischemic Circulatory Physiology, KAATSU Training, University of Tokyo
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  givenname: Haruhito
  surname: Takano
  fullname: Takano, Haruhito
  organization: Department of Ischemic Circulatory Physiology, KAATSU Training, University of Tokyo
– sequence: 5
  givenname: Toshihiro
  surname: Morita
  fullname: Morita, Toshihiro
  organization: Department of Cardiovascular Medicine, University of Tokyo
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  givenname: Kentaro
  surname: Meguro
  fullname: Meguro, Kentaro
  organization: Department of Cardiovascular Medicine, University of Tokyo
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  givenname: Yoshiaki
  surname: Sato
  fullname: Sato, Yoshiaki
  organization: Department of Ischemic Circulatory Physiology, KAATSU Training, University of Tokyo
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  surname: Yamazaki
  fullname: Yamazaki, Yoshihisa
  organization: Japan Manned Space Systems Corporation
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  organization: Japan Aerospace Explosion Agency
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  givenname: Hiroshi
  surname: Ohshima
  fullname: Ohshima, Hiroshi
  organization: Japan Aerospace Explosion Agency
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  givenname: Shouichi
  surname: Tachibana
  fullname: Tachibana, Shouichi
  organization: Japan Aerospace Explosion Agency
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  givenname: Naokata
  surname: Ishii
  fullname: Ishii, Naokata
  organization: Department of Life Sciences, Graduate School of Arts and Sciences, University of Tokyo
– sequence: 13
  givenname: Takashi
  surname: Abe
  fullname: Abe, Takashi
  organization: Department of Human and Engineered Environmental Studies, Graduate School of Frontier Science, The University of Tokyo
BackLink https://www.ncbi.nlm.nih.gov/pubmed/18651162$$D View this record in MEDLINE/PubMed
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Issue 4
Keywords Autonomic function
KAATSU training
Sympathetic activity
Space flight
6° head-down tilt bed rest
Cardiovascular deconditioning
Language English
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Snippet The KAATSU training is a unique method of muscle training with restricting venous blood flow, which might be applied to prevent muscle atrophy during space...
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SubjectTerms Adult
Atrophy
Bed Rest
Biomedical and Life Sciences
Biomedicine
Blood
Blood Pressure - physiology
Cardiac Output - physiology
Echocardiography
Edema
Fitness equipment
Gravity
Head-Down Tilt - physiology
Heart Rate - physiology
Hemodynamics
Hemodynamics - physiology
Human Physiology
Humans
Investigations
Male
Muscle strength
Muscle, Skeletal - blood supply
Norepinephrine - blood
Occupational Medicine/Industrial Medicine
Original Article
Regional Blood Flow - physiology
Renin - blood
Resistance Training - methods
Sports Medicine
Stroke Volume - physiology
Vasopressins - blood
Weightlessness Simulation
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Title Hemodynamic responses to simulated weightlessness of 24-h head-down bed rest and KAATSU blood flow restriction
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https://www.ncbi.nlm.nih.gov/pubmed/18651162
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