Vol. 14. Núm. 23.
Páginas 1364-1384 (Diciembre 2024)

Actualización
Cronobiología y aplicaciones médicas (II). Ritmos ultradianos e infradianos. Cronomedicina

Chronobiology and medical applications (II). Ultradian and infradian rhythms. Chronomedicine

C. García-MonteroabO. Fraile-MartínezabL. RíosabM.A. SáezabcM. Álvarez de Mon-SotoabdM.A. Ortegaab
Doi : https://10.1016/j.med.2024.11.021
Opciones
Resumen

La cronobiología es la disciplina que investiga cómo los procesos biológicos se estructuran en ciclos temporales en respuesta a variaciones ambientales, como los ritmos circadianos, ultradianos e infradianos. A pesar de que la investigación ha dado mayor atención a los ritmos circadianos, los ritmos ultradianos e infradianos también son clave para una comprensión integral de la cronobiología. Los ritmos ultradianos, con ciclos de menos de 24 horas, suelen ser mecanismos anticipatorios que responden ante perturbaciones impredecibles, entre las que destacan los ritmos circahorales (ciclos de entre 20 minutos y 2 horas) y circatidales (de aproximadamente 12 horas). Los ritmos infradianos abarcan ciclos mayores a un día, destacando los ritmos circaseptales (de aproximadamente 7 días), circalunares (28-32 días) y estacionales o circanuales (regulados por procesos temporales asociados a las estaciones del año). La implicación de estos ritmos en diversos procesos fisiológicos y patológicos ha sido también demostrada, apoyando, por tanto, la relevancia de considerar a ambos como un elemento de estudio en el área de la cronobiología. Por otro lado, la cronomedicina es un área traslacional en expansión que trata de aplicar el conocimiento básico de la cronobiología a la práctica clínica, influyendo en el manejo del sueño y en el abordaje farmacológico y no farmacológico de diversas patologías. En esta segunda parte, se detallará la relevancia de los ritmos ultradianos e infradianos en la salud y la enfermedad, describiendo igualmente los mecanismos subyacentes a estos ritmos biológicos. Además, se discutirá cómo el conocimiento de estos ritmos y de los ritmos circadianos puede ser aplicado en el ámbito médico, explorando posibles enfoques traslacionales basados en la cronobiología para el tratamiento y el manejo de enfermedades, destacando también las intervenciones basadas en el estilo de vida o especificidades asociadas al ciclo menstrual de la mujer.

Palabras clave
Eventos ultradianos episódicos
Ritmos infradianos
Cronomedicina
Medicina del estilo de vida
Abstract

Chronobiology is a discipline that investigates how biological processes are structured in time cycles in response to environmental variations, including circadian, ultradian, and infradian rhythms. Despite the fact that research has paid more attention to circadian rhythms, ultradian and infradian rhythms are also key to a comprehensive understanding of chronobiology. Ultradian rhythms, with cycles of less than 24hours, tend to be anticipatory mechanisms that respond to unpredictable disturbances, notable among which are circahoral rhythms (cycles between 20minutes and 2hours) and circatidal rhythms (approximately 12hours). Infradian rhythms include cycles greater than one day, notable among which are circaseptal rhythms (approximately 7 days), circalunar rhythms (28 – 32 days), and seasonal or circannual rhythms (regulated by temporal processes associated with the seasons of the year). The involvement of these rhythms in different physiological and pathological processes has also been demonstrated, thus supporting the relevance of considering both as an element of study in the area of chronobiology. On the other hand, chronomedicine is a translational area that is in expansion. It attempts to apply a basic knowledge of chronobiology to clinical practice, influencing sleep management and the pharmacological and non-pharmacological approach to different diseases. This second part will describe the relevance of ultradian and infradian rhythms in health and disease. It will also describe the underlying mechanisms of these biological rhythms. In addition, it will discuss how the knowledge of these rhythms and of circadian rhythms can be applied in the medical setting, exploring possible translational focuses based on chronobiology for the treatment and management of diseases. It will also highlight lifestyle-based interventions or specific aspects associated with women's menstrual cycles.

Keywords
Episodic ultradian events
Infradian rhythms
Chronomedicine
Lifestyle medicine

Identifíquese

¿Aún no es suscriptor de la revista?

Comprar el acceso al artículo

Comprando el artículo el pdf del mismo podrá ser descargado

Teléfono para incidencias

De lunes a viernes de 9h a 18h (GMT+1) excepto los meses de julio y agosto que será de 9 a 15h

Llamadas desde España 932 415 960
Llamadas desde fuera de España +34 932 415 960
Bibliografía
[1]
A. Coskun
202412120520344818
202412120520344819
, A. Zarepour, A. Zarrabi.
Physiological rhythms and biological variation of biomolecules: The road to personalized laboratory medicine.
Int J Mol Sci., (2023), 24 pp. 6275
[2]
W. Blessing
2024121205203448110
, Y. Ootsuka.
Timing of activities of daily life is jaggy: How episodic ultradian changes in body and brain temperature are integrated into this process.
Temperature., (2016), 3 pp. 371-383
[3]
R.P. Najjar
2024121205203448111
2024121205203448112
, J.M. Zeitzer.
Anatomy and physiology of the circadian system. Sleep and Neurologic Disease.
Academic Press, (2017), pp. 29-53
[4]
Y. Lee
2024121205203448113
, J.M. Field, A. Sehgal.
Circadian rhythms, disease and chronotherapy.
J Biol Rhythms., (2021), 36 pp. 503
[5]
D. Ono
2024121205203448114
, K.I. Honma, S. Honma.
Circadian and ultradian rhythms of clock gene expression in the suprachiasmatic nucleus of freely moving mice.
Scientific Reports, (2015), 5 pp. 1-10
[6]
G.H. Goh
2024121205203448115
2024121205203448116
, S.K. Maloney, P.J. Mark, D. Blache.
Episodic ultradian events—ultradian rhythms.
[7]
C.G. Griffis, J. Mistry, K. Islam, T. Cutler, C.S. Colwell, A. Garfinkel.
Circadian and ultradian rhythms in normal mice and in a mouse model of Huntington's disease.
Chronobiol Int., (2022), 39 pp. 513-524
[8]
B. Zhu, S. Liu, N.L. David, W. Dion, N.K. Doshi, L.B. Siegel, et al.
Evidence for ∼12-h ultradian gene programs in humans.
NPJ Biol Timing Sleep., (2024), 1 pp. 4
[9]
Y. Ootsuka
2024121205203448117
, R.C. de Menezes, D.V. Zaretsky, A. Alimoradian, J. Hunt, A. Stefanidis, et al.
Brown adipose tissue thermogenesis heats brain and body as part of the brain-coordinated ultradian basic rest-activity cycle.
Neuroscience., (2009), 164 pp. 849-861
[10]
Y.E. Wu
2024121205203448118
, R. Enoki, Y. Oda, Z.L. Huang, K.I. Honma, S. Honma.
Ultradian calcium rhythms in the paraventricular nucleus and subparaventricular zone in the hypothalamus.
Proc Natl Acad Sci U S A., (2018), 115 pp. E9469-E9478
[11]
D. Kim
2024121205203448119
2024121205203448120
, H.K. Choe, K. Kim.
Ultradian rhythms in the hypothalamic arcuate nucleus kisspeptin neurons and developmental processes.
Mol Cells., (2020), 43 pp. 600-606
[12]
A. Isomura
2024121205203448121
2024121205203448122
, R. Kageyama.
Ultradian oscillations and pulses: coordinating cellular responses and cell fate decisions.
Development., (2014), 141 pp. 3627-3636
[13]
A. Oeckinghaus
2024121205203448123
2024121205203448124
, M.S. Hayden, S. Ghosh.
Crosstalk in NF-κB signaling pathways.
Nat Immunol., (2011), 12 pp. 695-708
[14]
V.Y. Brodsky
2024121205203448125
2024121205203448126
.
Circahoralian (ultradian) metabolic rhythms.
Biochemistry (Mosc)., (2014), 79 pp. 483-495
[15]
D. Lloyd
2024121205203448127
, D.B. Murray.
Ultradian metronome: timekeeper for orchestration of cellular coherence.
Trends Biochem Sci., (2005), 30 pp. 373-377
[16]
S. Tabibzadeh
2024121205203448128
2024121205203448129
.
CircadiOmic medicine and aging.
Ageing Res Rev., (2021), 71 pp. 101424
[17]
A. Moreno-Irusta
2024121205203448130
, J.M. Kembro, E.M. Domínguez, A. Matamoros-Volante, M.N. Gallea, R. Molina, et al.
Sperm physiology varies according to ultradian and infradian rhythms.
[18]
B.J. Prendergast, A.K. Beery, M.J. Paul, I. Zucker.
Enhancement and suppression of ultradian and circadian rhythms across the female hamster reproductive cycle.
J Biol Rhythms., (2012), 27 pp. 246-256
[19]
H.N. Mayrovitz
2024121205203448131
2024121205203448132
, T. Berthin.
Assessing potential circadian, diurnal, and ultradian variations in skin biophysical properties.
Cureus., (2021), 13 pp. e17665
[20]
L.R. Iwasaki, L.M. Gallo, M. Markova, S. Erni, H. Liu, J.C. Nickel.
Night-time autonomic nervous system ultradian cycling and masticatory muscle activity.
Orthod Craniofac Res., (2019), 22Suppl1 pp. 107-112
[21]
D. Lloyd
2024121205203448133
2024121205203448134
, V. Nanjundiah, W. Engelmann, A. Johnsson.
Ultradian rhythms: Life's dance to the music of time.
J Biosci., (2023), 48 pp. 34
[22]
E.W. Lamont
2024121205203448135
2024121205203448136
, S. Amir.
Circadian and ultradian clocks/rhythms.
Encyclopedia of Behavioral Neuroscience, Three-Volume Set., (2010), 1 pp. 257-261
[23]
Lavie
2024121205203448137
P. Ultradian cycles in sleep propensity: Or, Kleitman's BRAC revisited. Capítulo 13. En: Lloyd, D., Ross, E.L., editors. Ultradian rhythms in life processes. 1992. p. 283-302.
[24]
C. Cajochen
2024121205203448138
, C.F. Reichert, M. Münch, V. Gabel, O. Stefani, S.L. Chellappa, et al.
Ultradian sleep cycles: Frequency, duration, and associations with individual and environmental factors-A retrospective study.
Sleep Health., (2024), 10 pp. S52-S62
[25]
A.E. Herbison
2024121205203448139
.
The gonadotropin-releasing hormone pulse generator.
Endocrinology., (2018), 159
[26]
M. Zeman
2024121205203448140
2024121205203448141
, M. Okuliarova, V.S. Rumanova.
Disturbances of hormonal circadian rhythms by light pollution.
Int J Mol Sci., (2023), 24 pp. 7255
[27]
A.D. Grant
2024121205203448142
2024121205203448143
, K. Wilsterman, B.L. Smarr, L.J. Kriegsfeld.
Evidence for a coupled oscillator model of endocrine ultradian rhythms.
J Biol Rhythms., (2018), 33 pp. 475-496
[28]
J.J. Walker
2024121205203448144
, F. Spiga, E. Waite, Z. Zhao, Y. Kershaw, J.R. Terry, et al.
The origin of glucocorticoid hormone oscillations.
PLoS Biol., (2012), 10 pp. e1001341
[29]
X. Qian
2024121205203448145
, S.K. Droste, S.L. Lightman, J.M. Reul, A.C. Linthorst.
Circadian and ultradian rhythms of free glucocorticoid hormone are highly synchronized between the blood, the subcutaneous tissue, and the brain.
Endocrinology., (2012), 153 pp. 4346-4353
[30]
K. Kalafatakis
2024121205203448146
2024121205203448147
, G.M. Russell, S.G. Ferguson, M. Grabski, C.J. Harmer, M.R. Munafò, et al.
Glucocorticoid ultradian rhythmicity differentially regulates mood and resting state networks in the human brain: A randomised controlled clinical trial.
Psychoneuroendocrinology., (2021), 124 pp. 105096
[31]
R.M. Salomon
2024121205203448148
2024121205203448149
, R.L. Cowan.
Oscillatory serotonin function in depression.
Synapse, (2013), 67 pp. 801-820
[32]
I.D. Blum
2024121205203448150
, L. Zhu, L. Moquin, M.V. Kokoeva, A. Gratton, B. Giros, et al.
A highly tunable dopaminergic oscillator generates ultradian rhythms of behavioral arousal.
Elife., (2014), 3 pp. e05105
[33]
A. Philippu
2024121205203448151
2024121205203448152
.
Neurotransmitters are released in brain areas according to ultradian rhythms: Coincidence with ultradian oscillations of EEG waves.
J Chem Neuroanat., (2019), 96 pp. 66-72
[34]
J. Zhang
2024121205203448153
, C.J. Little, D.M. Tremmel, J.C. Yin, C.S. Wesley.
Notch-inducible hyperphosphorylated CREB and its ultradian oscillation in long-term memory formation.
J Neurosci., (2013), 33 pp. 12825-12834
[35]
J.J. Walker
2024121205203448154
, J.R. Terry, S.L. Lightman.
Origin of ultradian pulsatility in the hypothalamic-pituitary-adrenal axis.
Proc Biol Sci., (2010), 277 pp. 1627-1633
[36]
I. Vargas
2024121205203448155
2024121205203448156
, A.N. Vgontzas, J.L. Abelson, R.T. Faghih, K.H. Morales, M.L. Perlis.
Altered ultradian cortisol rhythmicity as a potential neurobiologic substrate for chronic insomnia.
Sleep Med Rev., (2018), 41 pp. 234-243
[37]
E.E. Otukonyong
2024121205203448157
, M.G. Dube, R. Torto, P.S. Kalra, S.P. Kalra.
Central leptin differentially modulates ultradian secretory patterns of insulin, leptin and ghrelin independent of effects on food intake and body weight.
Peptides., (2005), 26 pp. 2559-2566
[38]
C. Saner
2024121205203448158
, G.D. Simonetti, E. Wühl, P.E. Mullis, M. Janner.
Circadian and ultradian cardiovascular rhythmicity in obese children.
Eur J Pediatr., (2016), 175 pp. 1031-1038
[39]
E. Wühl
2024121205203448159
2024121205203448160
, C. Hadtstein, O. Mehls, F. Schaefer.
Ultradian but not circadian blood pressure rhythms correlate with renal dysfunction in children with chronic renal failure.
J Am Soc Nephrol., (2005), 16 pp. 746-754
[40]
A. Accardo
2024121205203448161
, M. Cusenza, A. De Felice, E. Fornasa, G. D’Addio.
Ultradian rhythms during day and night in normal and COPD subjects.
Stud Health Technol Inform., (2012), 180 pp. 1120-1122
[41]
R. Armitage
2024121205203448162
, G.J. Emslie, R.F. Hoffmann, W.A. Weinberg, R.A. Kowatch, J. Rintelmann, et al.
Ultradian rhythms and temporal coherence in sleep EEG in depressed children and adolescents.
Biol Psychiatry, (2000), 47 pp. 338-350
[42]
I. Rosenzweig
2024121205203448163
, D. Mitrecic, Z. Petanjek, B. Duffy, A.H. Young, A.D. Nesbitt, et al.
Does damage to hypothalamic paraventricular nucleus underlie symptoms of ultradian rhythm disorder and an increased anxiety in coronavirus disease 2019?.
Croat Med J., (2020), 61 pp. 377-380
[43]
J. Schaufler, M. Ronovsky, G. Savalli, M. Cabatic, S.B. Sartori, N. Singewald, et al.
Fluoxetine normalizes disrupted light-induced entrainment, fragmented ultradian rhythms and altered hippocampal clock gene expression in an animal model of high trait anxiety-and depression-related behavior.
[44]
S. Vieluf
2024121205203448164
, S. Cantley, V. Krishnan, T. Loddenkemper.
Ultradian rhythms in accelerometric and autonomic data vary based on seizure occurrence in paediatric epilepsy patients.
Brain Commun., (2024), 6 pp. fcae034
[45]
S. Ventre, A. Indrieri, C. Fracassi, B. Franco, I. Conte, L. Cardone, et al.
Metabolic regulation of the ultradian oscillator Hes1 by reactive oxygen species.
J Mol Biol., (2015), 427 pp. 1887-1902
[46]
A. Petrovic
2024121205203448165
, C. Oudet, J. Stutzmann.
Ultradian mitotic rhythms in culture of human sarcomatous bone cells originating from the patient before and after chemotherapy.
Chronobiol Int., (1989), 6 pp. 173-183
[47]
X.C. Dopico, M. Evangelou, R.C. Ferreira, H. Guo, M.L. Pekalski, D.J. Smyth, et al.
Widespread seasonal gene expression reveals annual differences in human immunity and physiology.
Nat Commun., (2015), 6 pp. 7000
[48]
H. Mao
2024121205203448166
, L. Feng, W.X. Yang.
Environmental factors contributed to circannual rhythm of semen quality.
Chronobiol Int., (2017), 34 pp. 411-425
[49]
K. Honma
2024121205203448167
, S. Honma, M. Kohsaka, N. Fukuda.
Seasonal variation in the human circadian rhythm: dissociation between sleep and temperature rhythm.
Am J Physiol., (1992), 262 pp. R885-R891
[50]
S. Yoneyama
2024121205203448168
, S. Hashimoto, K. Honma.
Seasonal changes of human circadian rhythms in Antarctica.
Am J Physiol., (1999), 277 pp. R1091-R1097
[51]
M. Stelmach-Mardas
2024121205203448169
2024121205203448170
, C. Kleiser, I. Uzhova, J.L. Peñalvo, G. La Torre, W. Palys, et al.
Seasonality of food groups and total energy intake: a systematic review and meta-analysis.
Eur J Clin Nutr., (2016), 70 pp. 700-708
[52]
E.Y. Hsiang, Y.R. Semenov, C. Aguh, S.G. Kwatra.
Seasonality of hair loss: a time series analysis of Google Trends data 2004-2016.
Br J Dermatol., (2018), 178 pp. 978-979
[53]
V.A. Randall
2024121205203448171
, F.J. Ebling.
Seasonal changes in human hair growth.
Br J Dermatol., (1991), 124 pp. 146-151
[54]
M.G. Buontempo, J.P. Ingrassia, J. Shapiro, K. Lo Sicco.
Seasonal trends in hair loss: A big data analysis of Google search patterns and their association with seasonal factors.
J Eur Acad Dermatol Venereol., (2023), 37 pp. e1458-e1460
[55]
D. Khodasevich
2024121205203448172
, S. Tsui, D. Keung, D.J. Skene, V. Revell, M.E. Martinez.
Characterizing the modern light environment and its influence on circadian rhythms.
Proc Biol Sci., (2021), 288 pp. 20210721
[56]
J.E. Gangwisch
2024121205203448173
.
Seasonal variation in metabolism: Evidence for the role of circannual rhythms in metabolism?.
Hypertension Research., (2013), 36 pp. 392-393
[57]
N. Imai
2024121205203448174
2024121205203448175
.
Molecular and cellular neurobiology of circadian and circannual rhythms in migraine: A narrative review.
Int J Mol Sci., (2023), 24 pp. 10092
[58]
C.M. Ciarleglio
2024121205203448176
2024121205203448177
, H.E.S. Resuehr, D.G. McMahon.
interactions of the serotonin and circadian systems: Nature and nurture in rhythms and blues.
[59]
F.C. Baker
2024121205203448178
2024121205203448179
, H.S. Driver.
Circadian rhythms, sleep, and the menstrual cycle.
Sleep Med., (2007), 8 pp. 613-622
[60]
R. Ecochard
2024121205203448180
, R. Leiva, T.P. Bouchard, A. Van Lamsweerde, J.T. Pearson, J.B. Stanford, et al.
The menstrual cycle is influenced by weekly and lunar rhythms.
Fertil Steril., (2024), 121 pp. 651-659
[61]
G. Beroukhim
2024121205203448181
2024121205203448182
, E. Esencan, D.B. Seifer.
Impact of sleep patterns upon female neuroendocrinology and reproductive outcomes: a comprehensive review.
Reprod Biol Endocrinol., (2022), 20 pp. 16
[62]
N. Chidi-Ogbolu
2024121205203448183
2024121205203448184
, K. Baar.
Effect of estrogen on musculoskeletal performance and injury risk.
Front Physiol., (2019), 9 pp. 1834
[63]
C.Z. Turányi
2024121205203448185
, K.Z. Rónai, R. Zoller, O. Véber, M.E. Czira, Á. Újszászi, et al.
Association between lunar phase and sleep characteristics.
Sleep Med., (2014), 15 pp. 1411-1416
[64]
K.A. Michels
2024121205203448186
, P. Mendola, K.C. Schliep, E.H. Yeung, A. Ye, G.L. Dunietz, et al.
The influences of sleep duration, chronotype, and nightwork on the ovarian cycle.
Chronobiol Int., (2020), 37 pp. 260-271
[65]
W. Chu
2024121205203448187
, S. Li, X. Geng, D. Wang, J. Zhai, G. Lu, et al.
Long-term environmental exposure of darkness induces hyperandrogenism in PCOS via melatonin receptor 1A and aromatase reduction.
Front Cell Dev Biol., (2022), 10 pp. 954186
[66]
Y. El Dahr
2024121205203448188
, T. de Azevedo Cardoso, S.K. Syan, L. Caropreso, L. Minuzzi, M. Smith, et al.
Investigating biological rhythms disruptions across the menstrual cycle in women with comorbid bipolar disorder and premenstrual dysphoric disorder.
Arch Womens Ment Health., (2022), 25 pp. 345-353
[67]
A.E. Reinberg
2024121205203448189
2024121205203448190
, L. Dejardin, M.H. Smolensky, Y. Touitou.
Seven-day human biological rhythms: An expedition in search of their origin, synchronization, functional advantage, adaptive value and clinical relevance.
Chronobiol Int., (2017), 34 pp. 162-191
[68]
K.G. Greenaway
2024121205203448191
2024121205203448192
.
Does the universal seven-day rhythm in the function of the pineal gland, have a biblical origin?. A review and a hypothesis.
Sci J Biol, (2022), 5 pp. 27-032
[69]
G. Cornélissen
2024121205203448193
2024121205203448194
, D. Watson, G. Mitsutake, B. Fišer, J. Siegelová, J. Dušek, et al.
Mapping of circaseptan and circadian changes in mood.
Scr Med (Brno)., (2005), 78 pp. 89-98
[70]
C. Maschke
2024121205203448195
, J. Harder, G. Cornélissen, K. Hecht, K. Otsuka, F. Halberg.
Chronoecoepidemiology of “strain”: infradian chronomics of urinary cortisol and catecholamines during nightly exposure to noise.
Biomed Pharmacother., (2003), 57Suppl1 pp. 126s-135s
[71]
V.A. Trufakin
2024121205203448196
, A.V. Shurlygina, T.I. Dergacheva, G.I. Litvinenko, L.V. Verbitskaia.
Khronobiologiia immunoi sistemy [Chronobiology of immune system].
Vestn Ross Akad Med Nauk., (1999), pp. 40-43
[72]
E. Haus
2024121205203448197
2024121205203448198
, M.H. Smolensky.
Biologic rhythms in the immune system.
Chronobiol Int., (1999), 16 pp. 581-622
[73]
A. Besarab
2024121205203448199
, L. Wesson, B. Jarrell, J.F. Burke.
Effect of delayed graft function and ALG on the circaseptan (about 7-day) rhythm of human renal allograft rejection.
Transplantation., (1983), 35 pp. 562
[74]
F. Levi
20241212052034481100
, F. Halberg.
Circaseptan (about-7-Day) bioperiodicity--spontaneous and reactive--and the search for pacemakers.
Ric Clin Lab., (1982), 12 pp. 323-370
[75]
M. Gallerani
20241212052034481101
20241212052034481102
, M. Pala, U. Fedeli.
Circaseptan periodicity of cardiovascular diseases.
Heart Fail Clin., (2017), 13 pp. 703-717
[76]
D.P. Cardinali
20241212052034481103
20241212052034481104
, G.M. Brown, S.R. Pandi-Perumal.
Chronotherapy.
Handb Clin Neurol., (2021), 179 pp. 357-370
[77]
Y. Touitou
20241212052034481105
20241212052034481106
, A. Bogdan.
Promoting adjustment of the sleep–wake cycle by chronobiotics.
Physiol Behav., (2007), 90 pp. 294-300
[78]
F. Cruz-Sanabria
20241212052034481107
20241212052034481108
, C. Carmassi, S. Bruno, A. Bazzani, M. Carli, M. Scarselli, et al.
Melatonin as a chronobiotic with sleep-promoting properties.
Curr Neuropharmacol., (2023), 21 pp. 951
[79]
S.M. Faulkner
20241212052034481109
20241212052034481110
, P.E. Bee, N. Meyer, D.J. Dijk, R.J. Drake.
Light therapies to improve sleep in intrinsic circadian rhythm sleep disorders and neuro-psychiatric illness: A systematic review and meta-analysis.
Sleep Med Rev., (2019), 46 pp. 108-123
[80]
A. Barion
20241212052034481111
20241212052034481112
, P.C. Zee.
A clinical approach to circadian rhythm sleep disorders.
[81]
L.M. Swanson
20241212052034481113
20241212052034481114
, G.B. Raglan.
Circadian interventions as adjunctive therapies to cognitive-behavioral therapy for insomnia.
Sleep Med Clin., (2023), 18 pp. 21
[82]
P.P. Dakup
20241212052034481115
, K.I. Porter, A.A. Little, R.P. Gajula, H. Zhang, E. Skornyakov, et al.
The circadian clock regulates cisplatin-induced toxicity and tumor regression in melanoma mouse and human models.
Oncotarget., (2018), 9 pp. 14524-14538
[83]
M. Kobayashi
20241212052034481116
, P.A. Wood, W.J. Hrushesky.
Circadian chemotherapy for gynecological and genitourinary cancers.
Chronobiol Int., (2002), 19 pp. 237-251
[84]
M. Rafiyan
20241212052034481117
20241212052034481118
, A. Davoodvandi, R.J. Reiter, M.A. Mansournia, S.M. Rasooli Manesh, V. Arabshahi, et al.
Melatonin and cisplatin co-treatment against cancer: A mechanistic review of their synergistic effects and melatonin's protective actions.
Pathol Res Pract., (2024), 253 pp. 155031
[85]
R.A. Overman
20241212052034481119
, J.Y. Yeh, C.L. Deal.
Prevalence of Oral Glucocorticoid Usage in the United States: A General Population Perspective.
Arthritis Care Res (Hoboken), (2013), 65 pp. 294-298
[86]
C.M. Spies
20241212052034481120
, R.H. Straub, M. Cutolo, F. Buttgereit.
Circadian rhythms in rheumatology--a glucocorticoid perspective.
Arthritis Res Ther., (2014), 16Suppl2Suppl2 pp. S3
[87]
B.P. Flynn
20241212052034481121
20241212052034481122
.
Glucocorticoid ultradian rhythms.
Curr Opin Endocr Metab Res, (2022), 25 pp. 100362
[88]
S.L. Lightman
20241212052034481123
20241212052034481124
, M.T. Birnie, B.L. Conway-Campbell.
Dynamics of ACTH and cortisol secretion and implications for disease.
Endocr Rev., (2020), 41 pp. 470-490
[89]
S. Lightman
20241212052034481125
.
Rhythms within rhythms: The importance of oscillations for glucocorticoid hormones. 2016.
A time for metabolism and hormones [Internet], Springer,
[90]
K. Kalafatakis
20241212052034481126
20241212052034481127
, G.M. Russell, C.J. Harmer, M.R. Munafo, N. Marchant, A. Wilson, et al.
Ultradian rhythmicity of plasma cortisol is necessary for normal emotional and cognitive responses in man.
Proc Natl Acad Sci U S A., (2018), 115 pp. E4091-E4100
[91]
G. Russell
20241212052034481128
20241212052034481129
, K. Kalafatakis, C. Durant, N. Marchant, J. Thakrar, R. Thirard, et al.
Ultradian hydrocortisone replacement alters neuronal processing, emotional ambiguity, affect and fatigue in adrenal insufficiency: The PULSES trial.
J Intern Med., (2024), 295 pp. 51-67
[92]
I.S. Mackenzie
20241212052034481130
20241212052034481131
, A. Rogers, N.R. Poulter, B. Williams, M.J. Brown, D.J. Webb, et al.
TIME Study Group. Cardiovascular outcomes in adults with hypertension with evening versus morning dosing of usual antihypertensives in the UK (TIME study): a prospective, randomised, open-label, blinded-endpoint clinical trial.
Lancet., (2022), 400 pp. 1417-1425
[93]
Evening
20241212052034481132
20241212052034481133
vs. morning dosing of blood pressure medication: No differences seen. [Consultado 5 Oct 2024]. Disponible en: https://www.escardio.org/The-ESC/Press-Office/Press-releases/Evening-vs-morning-dosing-of-blood-pressure-medication-no-differences-seen.
[94]
F. Pigazzani
20241212052034481134
20241212052034481135
, K.A. Dyar, S.V. Morant, C. Vetter, A. Rogers, R.W.V. Flynn, et al.
Effect of timed dosing of usual antihypertensives according to patient chronotype on cardiovascular outcomes: the Chronotype sub-study cohort of the Treatment in Morning versus Evening (TIME) study.
EClinicalMedicine., (2024), 72 pp. 102633
[95]
Z. Xie
20241212052034481136
20241212052034481137
, J. Zhang, C. Wang, X. Yan.
Chronotherapy for morning blood pressure surge in hypertensive patients: a systematic review and meta-analysis.
BMC Cardiovasc Disord., (2021), 21 pp. 274
[96]
H. Kawai
20241212052034481138
, R. Iwadate, T. Ishibashi, N. Kudo, Y. Kawashima, A. Mitsumoto.
Antidepressants with different mechanisms of action show different chronopharmacological profiles in the tail suspension test in mice.
Chronobiol Int., (2019), 36 pp. 1194-1207
[97]
K. Nomura
20241212052034481139
, O. Castanon-Cervantes, A. Davidson, C. Fukuhara.
Selective serotonin reuptake inhibitors and raft inhibitors shorten the period of Period1-driven circadian bioluminescence rhythms in rat-1 fibroblasts.
Life Sci., (2008), 82 pp. 1169-1174
[98]
S.X. Li
20241212052034481140
, L.J. Liu, L.Z. Xu, L. Gao, X.F. Wang, J.T. Zhang, L. Lu.
Diurnal alterations in circadian genes and peptides in major depressive disorder before and after escitalopram treatment.
Psychoneuroendocrinology., (2013), 38 pp. 2789-2799
[99]
E.M. McGlashan
20241212052034481141
20241212052034481142
, L.S. Nandam, P. Vidafar, D.R. Mansfield, S.M.W. Rajaratnam, S.W. Cain, S.S.R.I. The.
citalopram increases the sensitivity of the human circadian system to light in an acute dose.
Psychopharmacology (Berl)., (2018), 235 pp. 3201-3209
[100]
S. Silva
20241212052034481143
20241212052034481144
, J. Bicker, A. Falcão, A. Fortuna.
Antidepressants and circadian rhythm: exploring their bidirectional interaction for the treatment of depression.
Pharmaceutics., (2021), 13 pp. 1975
[101]
C. Thompson
20241212052034481145
, G. Mezey, T. Corn, C. Franey, J. English, J. Arendt, et al.
The effect of desipramine upon melatonin and cortisol secretion in depressed and normal subjects.
Br J Psychiatry., (1985), 147 pp. 389-393
[102]
J. Tchekalarova
20241212052034481146
, T. Stoynova, K. Ilieva, R. Mitreva, M. Atanasova.
Agomelatine treatment corrects symptoms of depression and anxiety by restoring the disrupted melatonin circadian rhythms of rats exposed to chronic constant light.
Pharmacol Biochem Behav, (2018), 171 pp. 1-9
[103]
S. Kasper
20241212052034481147
20241212052034481148
, G. Hajak, K. Wulff, W.J. Hoogendijk, A.L. Montejo, E. Smeraldi, et al.
Efficacy of the novel antidepressant agomelatine on the circadian rest-activity cycle and depressive and anxiety symptoms in patients with major depressive disorder: a randomized, double-blind comparison with sertraline.
J Clin Psychiatry., (2010), 71 pp. 109-120
[104]
M.M. Bellet
20241212052034481149
, M.P. Vawter, B.G. Bunney, W.E. Bunney, P. Sassone-Corsi.
Ketamine influences CLOCK:BMAL1 function leading to altered circadian gene expression.
PLoS One., (2011), 6 pp. 23982
[105]
W.C. Duncan
20241212052034481150
Jr., E. Slonena, N.S. Hejazi, N. Brutsche, K.C. Yu, L. Park, et al.
Motor-activity markers of circadian timekeeping are related to ketamine's rapid antidepressant properties.
Biol Psychiatry., (2017), 82 pp. 361-369
[106]
E. Oral
20241212052034481151
20241212052034481152
, H. Ozcan, M. Gulec, Y. Selvi, A. Aydin.
psychotropic medications affecting biological rhythm.
J Mood Dis, (2011), 1 pp. 169-177
[107]
K.E. Rohr
20241212052034481153
20241212052034481154
, M.J. McCarthy.
the impact of lithium on circadian rhythms and implications for bipolar disorder pharmacotherapy.
Neurosci Lett., (2022), 786 pp. 136772
[108]
G.E. Guthrie
20241212052034481155
20241212052034481156
.
What is lifestyle medicine?.
Am J Lifestyle Med, (2018), 12 pp. 363
[109]
M.K. Ahluwalia
20241212052034481157
20241212052034481158
.
Chrononutrition-when we eat is of the essence in tackling obesity.
Nutrients., (2022), 14 pp. 5080
[110]
M. Garaulet
20241212052034481159
, C. Sánchez-Moreno, C.E. Smith, Y.C. Lee, F. Nicolás, J.M. Ordovás.
Ghrelin, sleep reduction and evening preference: relationships to CLOCK 3111 T/C SNP and weight loss.
[111]
M. Mentzelou
20241212052034481160
20241212052034481161
, S.K. Papadopoulou, E. Psara, G. Voulgaridou, E. Pavlidou, et al.
Chrononutrition in the prevention and management of metabolic disorders: A literature review.
Nutrients., (2024), 16 pp. 722
[112]
H.K. Kim
20241212052034481162
20241212052034481163
, Z. Radak, M. Takahashi, T. Inami, S. Shibata.
Chrono-exercise: Time-of-day-dependent physiological responses to exercise.
Sports Med Health Sci., (2022), 5 pp. 50-58
[113]
P.J. Arciero
20241212052034481164
, S.J. Ives, A.E. Mohr, N. Robinson, D. Escudero, J. Robinson, et al.
Morning exercise reduces abdominal fat and blood pressure in women; evening exercise increases muscular performance in women and lowers blood pressure in men.
Front Physiol., (2022), 13 pp. 893783
[114]
Y. Tanaka
20241212052034481165
, H. Ogata, M. Kayaba, A. Ando, I. Park, K. Yajima, et al.
Effect of a single bout of exercise on clock gene expression in human leukocyte.
J Appl Physiol (1985)., (2020), 128 pp. 847-854
[115]
M. Takahashi
20241212052034481166
, A. Haraguchi, Y. Tahara, N. Aoki, M. Fukazawa, K. Tanisawa, et al.
Positive association between physical activity and PER3 expression in older adults.
Sci Rep., (2017), 7 pp. 39771
[116]
T. Oosthuyse
20241212052034481167
20241212052034481168
, J.A. Strauss, A.C. Hackney.
Understanding the female athlete: molecular mechanisms underpinning menstrual phase differences in exercise metabolism.
Eur J Appl Physiol., (2023), 123 pp. 423-450
[117]
C.F. Draper
20241212052034481169
, K. Duisters, B. Weger, A. Chakrabarti, A.C. Harms, L. Brennan, et al.
Menstrual cycle rhythmicity: metabolic patterns in healthy women.