end of volume - PMC

Result Filters

You searched 8+ million full text articles

Try this search in 34+ million citations and abstracts

PMC Full-Text Search Results

Items: 1 to 20 of 1383814

<< First< Prev

Page of 69191

Next >Last >>

Select item 55407401.

Optimal esophageal balloon volume for accurate estimation of pleural pressure at end-expiration and end-inspiration: an in vitro bench experiment

Yan-Lin Yang, Xuan He, Xiu-Mei Sun, Han Chen, Zhong-Hua Shi, Ming Xu, Guang-Qiang Chen, Jian-Xin Zhou

Intensive Care Med Exp. 2017 Dec; 5: 35. Published online 2017 Aug 2. doi: 10.1186/s40635-017-0148-z

PMCID:: PMC5540740

Article PDF–1001K

Select item 100829882.

The increase in cardiac output induced by a decrease in positive end-expiratory pressure reliably detects volume responsiveness: the PEEP-test study

Christopher Lai, Rui Shi, Alexandra Beurton, Francesca Moretto, Soufia Ayed, Nicolas Fage, Francesco Gavelli, Arthur Pavot, Martin Dres, Jean-Louis Teboul, Xavier Monnet

Crit Care. 2023; 27: 136. Published online 2023 Apr 9. doi: 10.1186/s13054-023-04424-7

PMCID:: PMC10082988

Article PDF–1.3M

Select item 108843093.

Left ventricular to left arial volume ratio in the assessment of filling pressure in patients with dyspnoea and preserved ejection fraction

Przemysław Palka, Roland Hilling-Smith, Rohan Swann, Sean Allwood, Alexander Moore, Chris Bian, Aleksandra Lange

Front Cardiovasc Med. 2024; 11: 1357006. Published online 2024 Feb 9. doi: 10.3389/fcvm.2024.1357006

PMCID:: PMC10884309

Article PDF–4.0M

Select item 105121814.

Computational modeling of ventricular-ventricular interactions suggest a role in clinical conditions involving heart failure

Salla M. Kim, E. Benjamin Randall, Filip Jezek, Daniel A. Beard, Naomi C. Chesler

Front Physiol. 2023; 14: 1231688. Published online 2023 Sep 6. doi: 10.3389/fphys.2023.1231688

PMCID:: PMC10512181

Article PDF–3.2M

Select item 52063845.

Regional tidal lung strain in mechanically ventilated normal lungs

Luis Felipe Paula, Tyler J. Wellman, Tilo Winkler, Peter M. Spieth, Andreas Güldner, Jose G. Venegas, Marcelo Gama de Abreu, Alysson R. Carvalho, Marcos F. Vidal Melo

J Appl Physiol (1985) 2016 Dec 1; 121(6): 1335–1347. Published online 2016 Jul 21. doi: 10.1152/japplphysiol.00861.2015

PMCID:: PMC5206384

Article

Select item 88974116.

On the existence of isoperimetric regions in manifolds with nonnegative Ricci curvature and Euclidean volume growth

Gioacchino Antonelli, Elia Bruè, Mattia Fogagnolo, Marco Pozzetta

Calc Var Partial Differ Equ. 2022; 61(2): 77. Published online 2022 Mar 4. doi: 10.1007/s00526-022-02193-9

PMCID:: PMC8897411

Article PDF–672K

Select item 95818817.

Well-balanced methods for computational astrophysics

Roger Käppeli

Living Rev Comput Astrophys. 2022; 8(1): 2. Published online 2022 Oct 19. doi: 10.1007/s41115-022-00014-6

PMCID:: PMC9581881

Article PDF–1.9M

Select item 98417278.

Dynamic pressure–volume loop analysis by simultaneous real-time cardiovascular magnetic resonance and left heart catheterization

Felicia Seemann, Christopher G. Bruce, Jaffar M. Khan, Rajiv Ramasawmy, Amanda G. Potersnak, Daniel A. Herzka, John W. Kakareka, Andrea E. Jaimes, William H. Schenke, Kendall J. O’Brien, Robert J. Lederman, Adrienne E. Campbell-Washburn

J Cardiovasc Magn Reson. 2023; 25: 1. Published online 2023 Jan 16. doi: 10.1186/s12968-023-00913-4

PMCID:: PMC9841727

Article PDF–2.5M

Select item 106567409.

Resolving an inconsistency in the estimation of the energy for excitation of cardiac muscle contraction

June-Chiew Han, Toan Pham, Andrew J. Taberner, Denis S. Loiselle, Kenneth Tran

Front Physiol. 2023; 14: 1269900. Published online 2023 Oct 3. doi: 10.3389/fphys.2023.1269900

Correction in:: Front Physiol. 2023; 14: 1328389.

PMCID:: PMC10656740

Article PDF–3.0M

Select item 621235310.

Can we estimate transpulmonary pressure without an esophageal balloon?—yes

Ola Stenqvist, Per Persson, Stefan Lundin

Ann Transl Med. 2018 Oct; 6(19): 392. doi: 10.21037/atm.2018.06.05

PMCID:: PMC6212353

Article PDF–1.2M

Select item 1069808111.

First experience with real-time magnetic resonance imaging-based investigation of respiratory influence on cardiac function in pediatric congenital heart disease patients with chronic right ventricular volume overload

Lena Maria Röwer, Karl Ludger Radke, Janina Hußmann, Halima Malik, Monika Eichinger, Dirk Voit, Mark Oliver Wielpütz, Jens Frahm, Dirk Klee, Frank Pillekamp

Pediatr Radiol. 2023; 53(13): 2608–2621. Published online 2023 Oct 5. doi: 10.1007/s00247-023-05765-9

PMCID:: PMC10698081

Article PDF–4.1M

Select item 835289312.

Subclinical cardiac impairment relates to traditional pulmonary function test parameters and lung volume as derived from whole-body MRI in a population-based cohort study

Ricarda von Krüchten, Roberto Lorbeer, Christopher Schuppert, Corinna Storz, Blerim Mujaj, Holger Schulz, Hans-Ulrich Kauczor, Annette Peters, Fabian Bamberg, Stefan Karrasch, Christopher L. Schlett

Sci Rep. 2021; 11: 16173. Published online 2021 Aug 9. doi: 10.1038/s41598-021-95655-7

PMCID:: PMC8352893

Article PDF–1.0M

Select item 558840613.

Review of lattice results concerning low-energy particle physics: Flavour Lattice Averaging Group (FLAG)

S. Aoki, Y. Aoki, D. Bečirević, C. Bernard, T. Blum, G. Colangelo, M. Della Morte, P. Dimopoulos, S. Dürr, H. Fukaya, M. Golterman, Steven Gottlieb, S. Hashimoto, U. M. Heller, R. Horsley, A. Jüttner, T. Kaneko, L. Lellouch, H. Leutwyler, C.-J. D. Lin, V. Lubicz, E. Lunghi, R. Mawhinney, T. Onogi, C. Pena, C. T. Sachrajda, S. R. Sharpe, S. Simula, R. Sommer, A. Vladikas, U. Wenger, H. Wittig

Eur Phys J C Part Fields. 2017; 77(2): 112. Published online 2017 Feb 17. doi: 10.1140/epjc/s10052-016-4509-7

PMCID:: PMC5588406

Article PDF–7.3M

Select item 502837114.

Transpulmonary and pleural pressure in a respiratory system model with an elastic recoiling lung and an expanding chest wall

Per Persson, Stefan Lundin, Ola Stenqvist

Intensive Care Med Exp. 2016 Dec; 4: 26. Published online 2016 Sep 20. doi: 10.1186/s40635-016-0103-4

PMCID:: PMC5028371

Article PDF–1.1M

Select item 959659615.

The (human) respiratory rate at rest

Wolfgang Schramm

J Math Biol. 2022; 85(5): 60. Published online 2022 Oct 25. doi: 10.1007/s00285-022-01790-8

PMCID:: PMC9596596

Article PDF–992K

Select item 879804016.

Volume growth in animal cells is cell cycle dependent and shows additive fluctuations

Clotilde Cadart, Larisa Venkova, Matthieu Piel, Marco Cosentino Lagomarsino

eLife. 2022; 11: e70816. Published online 2022 Jan 28. doi: 10.7554/eLife.70816

PMCID:: PMC8798040

Article PDF–3.0M

Select item 1051027017.

Small volume bone marrow aspirates with high progenitor cell concentrations maximize cell therapy dose manufacture and substantially reduce donor hemoglobin loss

Jeremy Epah, Gabriele Spohn, Kathrin Preiß, Markus M. Müller, Johanna Dörr, Rainer Bauer, Shabnam Daqiq-Mirdad, Joachim Schwäble, Stefanie N. Bernas, Alexander H. Schmidt, Erhard Seifried, Richard Schäfer

BMC Med. 2023; 21: 360. Published online 2023 Sep 19. doi: 10.1186/s12916-023-03059-3

PMCID:: PMC10510270

Article PDF–1.5M

Select item 641678718.

Cell Volume Control in Healthy Brain and Neuropathologies

Corinne S. Wilson, Alexander A. Mongin

Curr Top Membr. Author manuscript; available in PMC 2019 Aug 27.

Published in final edited form as: Curr Top Membr. 2018; 81: 385–455. Published online 2018 Aug 27. doi: 10.1016/bs.ctm.2018.07.006

PMCID:: PMC6416787

Article PDF–2.1M

Select item 1096164119.

Acute Effect in Mechanical Efficiency by Pressure-Volume Loop Analysis after Transcatheter Aortic Valve Implantation

Shen-Che Lin, Chih-Yao Chiang, Jung-Cheng Hsu, Jih-Hsin Huang, Jer-Shen Chen, Kuan-Ming Chiu

Acta Cardiol Sin. 2024 Mar; 40(2): 242–252. doi: 10.6515/ACS.202403_40(2).20231230A

PMCID:: PMC10961641

Article PDF–1.1M

Select item 1066008020.

Echocardiographic Measurements in Normal Healthy Adult Population of North India

Aamir Rashid, Aejaz A Shah, Hilal Rather, Vamiq Rasool, Imran Hafeez, Shahood Ajaz, Sameer Purra, Ajaz A Lone

Cureus. 2023 Oct; 15(10): e47449. Published online 2023 Oct 22. doi: 10.7759/cureus.47449

PMCID:: PMC10660080

Article PDF–211K

<< First< Prev

Page of 69191

Next >Last >>

Supplemental Content

Filter your results:

Manage Filters

PMC Images search for end of volume

Figure S2.3-mo-old B6N mice have dilated ventricles and larger ventricular volumes than both B6J substrains.

(A) Representative echocardiogram traces from three 3-mo-old mice at each genotype. (B) LVID;d, left ventricular internal diameter at the end of diastole. (C) LVID;s, left ventricular internal diameter at the end of systole. (D) Left ventricular volume at the end of diastole. (E) Left ventricular volume at the end of systole. (F) LVAW;d, left ventricular anterior wall thickness at the end of diastole. (G) LVAW;s, left ventricular anterior wall thickness at the end of systole. (H) LVPW;d, left ventricular posterior wall thickness at the end of diastole. (I) LVPW;s, left ventricular posterior wall thickness at the end of systole. (J) Cardiac output = stroke volume × heart rate. (K) Ejection fraction = stroke volume/end diastolic volume (L) Fractional shortening = (LVID;d − LVID;s)/LVID;d. (M) Stroke volume = volume at end of diastole − volume at end of systole. (N) Heart rate. (O) Heart weights of 3-mo-old mice at cull. Kruskal–Wallis, n = 10, mean ± SD, * < 0.05, ** < 0.01, *** < 0.001, **** < 0.0001.

Mylk3 null C57BL/6N mice develop cardiomyopathy, whereas Nnt null C57BL/6J mice do not

Life Sci Alliance. 2020 Apr;3(4):e201900593.
Figure 1.B6N mice exhibit dilated CM.

(A) Representative echocardiogram traces from three 12-mo-old mice at each genotype. (B) LVID;d, left ventricular internal diameter at the end of diastole. (C) LVID;s, left ventricular internal diameter at the end of systole. (D) Left ventricular volume at the end of diastole. (E) Left ventricular volume at the end of systole. (F) LVAW;d, left ventricular anterior wall thickness at the end of diastole. (G) LVAW;s, left ventricular anterior wall thickness at the end of systole. (H) LVPW;d, left ventricular posterior wall thickness at the end of diastole. (I) LVPW;s, left ventricular posterior wall thickness at the end of systole. (J) Cardiac output = stroke volume × heart rate. (K) Ejection fraction = stroke volume/end diastolic volume. (L) Fractional shortening = (LVID;d − LVID;s)/LVID;d. (M) Stroke volume = volume at the end of diastole − volume at the end of systole. (N) Heart rate. (O) Heart weights of 12-mo-old mice at cull. Kruskal–Wallis, B6N n = 10, B6J n = 8, B6J-Nnt n = 11, mean ± SD, * < 0.05, ** < 0.01, *** < 0.001, **** < 0.0001.

Mylk3 null C57BL/6N mice develop cardiomyopathy, whereas Nnt null C57BL/6J mice do not

Life Sci Alliance. 2020 Apr;3(4):e201900593.
Figure S1.Collated echocardiography results from 3-, 12- and 18-mo-old mice.

Collated echocardiography data across all age-groups. (A) LVID;d, left ventricular internal diameter at the end of diastole. (B) LVID;s, left ventricular internal diameter at the end of systole. (C) Left ventricular volume at the end of diastole. (D) Left ventricular volume at the end of systole. (E) LVAW;d, left ventricular anterior wall thickness at the end of diastole. (F) LVAW;s, left ventricular anterior wall thickness at the end of systole. (G) LVPW;d, left ventricular posterior wall thickness at end of diastole. (H) LVPW;s, left ventricular posterior wall thickness at the end of systole. (I) Cardiac output = stroke volume × heart rate. (J) Ejection fraction = stroke volume/end diastolic volume. (K) Fractional shortening = (LVID;d − LVID;s)/LVID;d. (L) Stroke volume = volume at end of diastole − volume at end of systole. (M) Heart rate. (N) Heart weights of 3-, 12- and 18-mo-old mice. Significance scoring is displayed in for 12-mo-old mice, for 3-mo-old mice, and for 18-mo-old mice.

Mylk3 null C57BL/6N mice develop cardiomyopathy, whereas Nnt null C57BL/6J mice do not

Life Sci Alliance. 2020 Apr;3(4):e201900593.
Figure S3.18-mo-old B6N mice have structurally and functionally different echocardiography profiles compared with both B6J substrains.

(A) Representative echocardiogram traces from three 18-mo-old mice at each genotype. (B) LVID;d, left ventricular internal diameter at the end of diastole. (C) LVID;s, left ventricular internal diameter at the end of systole. (D) Left ventricular volume at the end of diastole. (E) Left ventricular volume at the end of systole. (F) LVAW;d, left ventricular anterior wall thickness at the end of diastole. (G) LVAW;s, left ventricular anterior wall thickness at the end of systole. (H) LVPW;d, left ventricular posterior wall thickness at the end of diastole. (I) LVPW;s, left ventricular posterior wall thickness at the end of systole. (J) Cardiac output = stroke volume × heart rate. (K) Ejection fraction = stroke volume/end diastolic volume. (L) Fractional shortening = (LVID;d − LVID;s)/LVID;d. (M) Stroke volume = volume at end of diastole − volume at end of systole. (N) Heart rate. (O) Heart weights of 18-mo-old mice at cull. Kruskal–Wallis, B6N n = 11, B6J n = 8, B6J-Nnt n = 10, mean ± SD, * < 0.05, ** < 0.01, *** < 0.001, **** < 0.0001.

Mylk3 null C57BL/6N mice develop cardiomyopathy, whereas Nnt null C57BL/6J mice do not

Life Sci Alliance. 2020 Apr;3(4):e201900593.