P. Jonsson

发表

Formation of Blood Foam in the Air Trap During Hemodialysis Due to Insufficient Automatic Priming of Dialyzers

J. Axelsson, P. Jonsson, Lorentz Lindmark, 2018, Artificial organs.

A high blood level in the venous chamber and a wet‐stored dialyzer help to reduce exposure for microemboli during hemodialysis

B. Nilsson, P. Jonsson, B. Stegmayr, 2013, Hemodialysis international. International Symposium on Home Hemodialysis.

Microemboli, developed during haemodialysis, pass the lung barrier and may cause ischaemic lesions in organs such as the brain.

P. Jonsson, B. Stegmayr, U. Forsberg, 2010, Nephrology, dialysis, transplantation : official publication of the European Dialysis and Transplant Association - European Renal Association.

Current leakage in hemodialysis machines may be a safety risk for patients.

P. Jonsson, B. Stegmayr, 2000, Artificial organs.

Air contamination during medical treatment results in deposits of microemboli in the lungs: An autopsy study

P. Jonsson, B. Stegmayr, U. Forsberg, 2019, The International journal of artificial organs.

A high blood level in the air trap reduces microemboli during hemodialysis.

Ulf Forsberg, P. Jonsson, B. Stegmayr, 2012, Artificial organs.

Hemodialysis Dialyzers Contribute to Contamination of Air Microemboli that Bypass the Alarm System in the Air Trap

P. Jonsson, B. Stegmayr, U. Forsberg, 2008, The International journal of artificial organs.

Development of air micro bubbles in the venous outlet line: an in vitro analysis of various air traps used for hemodialysis.

Ulf Forsberg, P. Jonsson, B. Stegmayr, 2007, Artificial organs.

The sensor in the venous chamber does not prevent passage of air bubbles during hemodialysis.

P. Jonsson, B. Stegmayr, U. Forsberg, 2007, Artificial organs.

A Microscopic View of Gaseous Microbubbles Passing a Filter Screen

P. Svenmarker, P. Jonsson, S. Svenmarker, 2017, The International journal of artificial organs.

embolism absorption dynamics Theoretical and experimental intravascular gas

D. Eckmann, Z. Dujic, M. Ljubković, 2015 .

Air bubbles pass the security system of the dialysis device without alarming.

Ulf Forsberg, P. Jonsson, L. Karlsson, 2007, Artificial organs.

A Significant Proportion of Patients Treated with Citrate Containing Dialysate Need Additional Anticoagulation

Dana Mahmood, P. Jonsson, B. Stegmayr, 2013, The International journal of artificial organs.

Electrical Current Leakage during Hemodialysis May Increase Blood-Membrane Interaction

P. Jonsson, B. Stegmayr, J. Niklasson, 2001, The International journal of artificial organs.

Blood lines conduct leakage current during haemodialysis: a potential safety risk during first failure, especially for patients with central dialysis catheter as access

P. Jonsson, G. Eliasson, B. G. Stegmayr, 2005, Medical and Biological Engineering and Computing.

Interdialytic weight gain of less than 2.5% seems to limit cardiac damage during hemodialysis

B. Nilsson, M. Henein, J. Goto, 2020, The International journal of artificial organs.

Impact of the rate of change on adaptation: Response of Mnemiopsis Leidyi to low salinity through multiple generations

S. Dupont, T. Reusch, P. Jonsson, 2015 .

Microemboli induced by air bubbles may be deposited in organs as a consequence of contamination during medical care

P. Jonsson, B. Stegmayr, U. Forsberg, 2022, Clinical kidney journal.

Venous chambers in clinical use for hemodialysis have limited capacity to eliminate microbubbles from entering the return bloodline. An in vitro study.

P. Jonsson, B. Stegmayr, U. Forsberg, 2023, Artificial organs.

A high blood level in the air trap reduces microemboli during hemodialysis.

P. Jonsson, B. Stegmayr, U. Forsberg, 2012, Artificial organs.