Smartphone Application Monitoring of Acceleration Forces During Pneumatic Tube System Transport of Emergency Department Patient Samples

被引:3
作者
Heireman, Laura [1 ]
Stroobants, Jan [3 ]
Uyttenbroeck, Wim [2 ]
Goossens, Yvonne [3 ]
Dreezen, Christa [4 ]
Luyts, Dave [2 ]
Van Den Broeck, Lutgarde [3 ]
Delanghe, Joris [1 ]
Heylen, Evelien [2 ]
Mahieu, Boris [2 ]
机构
[1] Univ Ghent, Dept Clin Chem, Comeel Heymanslaan 10, B-9000 Ghent, Belgium
[2] Ziekenhuis Netwerk Antwerpen, Dept Lab Med, Antwerp, Belgium
[3] Ziekenhuis Netwerk Antwerpen, Emergency Dept, Antwerp, Belgium
[4] Ziekenhuis Netwerk Antwerpen, Business Intelligence Dept, Antwerp, Belgium
关键词
hemolysis; emergency department; sample transport; pneumatic tube system; acceleration forces; smartphone; hematocrit; mean corpuscular volume; erythrocyte sedimentation rate; cholesterol concentration; INTRAVENOUS CATHETERS; HEMOLYSIS; REDUCE; PLASMA;
D O I
10.7754/Clin.Lab.2018.180325
中图分类号
R446 [实验室诊断]; R-33 [实验医学、医学实验];
学科分类号
1001 ;
摘要
Background: The use of pneumatic tube system (PTS) transport has gained considerable popularity in modern hospitals but is also associated with sample hemolysis. The potential contribution of PTS-associated acceleration forces to high hemolysis rates observed in the emergency department (ED) has not been investigated before and can be easily examined nowadays using smartphone applications. The first aim of our study was to investigate whether our PTS induces hemolysis of patient samples obtained from our ED. We also explored a potential correlation between hemolysis index (HI) on the one hand and acceleration forces during PTS transport or other potential causes of hemolysis related to patient characteristics on the other for two different blood sampling techniques. Methods: Blood samples from 100 ED patients were collected in one Sarstedt S-Monovette (R) serum tube (PTStransported to laboratory) and two BD Vacutainer (R) serum tubes (one PTS-transported and one hand-carried). For all serum samples HI was measured. A smartphone was sent along with the samples in order to register accelerations during transport. Patient's erythrocyte sedimentation rate (ESR), mean corpuscular volume (MCV), hematocrit, total cholesterol, low density lipoprotein (LDL), and high-density lipoprotein (HDL) concentration were determined as well. Results: Hemolysis rate was only 1 - 4% and 5% for PTS and hand-carried transport, respectively. Calculated acceleration vector sums for PTS transport from the ED to laboratory reached up to 131.49 m/second(2) (13.40 g). No correlation could be demonstrated between HI on the one hand and acceleration forces acting on the samples during PTS transport or ESR, MCV, hematocrit, and HDL concentration on the other. However, an inverse correlation was noted between HI and cholesterol (total and LDL) concentration in serum tubes transported via PTS, though not in those carried by hand. Conclusions: We demonstrated that our PTS does not induce or contribute to hemolysis of ED patient samples, even at high acceleration vector sums up to 13 g. Technological advancements such as the development of smartphone applications offer the ability to regularly monitor acceleration forces during PTS transport of patient samples. Low total cholesterol and LDL concentrations may affect the erythrocyte membrane fluidity, making erythrocytes more prone to hemolysis.
引用
收藏
页码:1297 / 1304
页数:8
相关论文
共 18 条
[1]   Erythrocyte aggregation: Basic aspects and clinical importance [J].
Baskurt, Oguz K. ;
Meiselman, Herbert J. .
CLINICAL HEMORHEOLOGY AND MICROCIRCULATION, 2013, 53 (1-2) :23-37
[2]   Piezo1 links mechanical forces to red blood cell volume [J].
Cahalan, Stuart M. ;
Lukacs, Viktor ;
Ranade, Sanjeev S. ;
Chien, Shu ;
Bandell, Michael ;
Patapoutian, Ardem .
ELIFE, 2015, 4
[3]   An episode of increased hemolysis due to a defective pneumatic air tube delivery system [J].
Ellis, Graham .
CLINICAL BIOCHEMISTRY, 2009, 42 (12) :1265-1269
[4]   PLASMA AND ERYTHROCYTE LIPIDS IN 2 FAMILIES WITH HETEROZYGOUS HYPOBETALIPOPROTEINEMIA [J].
GHEERAERT, P ;
DEBUYZERE, M ;
DELANGHE, J ;
DESCHEERDER, I ;
BURY, J ;
ROSSENEU, M .
CLINICAL BIOCHEMISTRY, 1988, 21 (06) :371-377
[5]   Interindividual variability of hemolysis in plasma samples during pneumatic tube system transport [J].
Gomez-Rioja, Ruben ;
Fernandez-Calle, Pilar ;
Alcaide, Maria J. ;
Madero, Rosario ;
Oliver, Paloma ;
Iturzaeta, Jose M. ;
Buno, Antonio .
CLINICAL CHEMISTRY AND LABORATORY MEDICINE, 2013, 51 (10) :E231-E233
[6]   Low vacuum and discard tubes reduce hemolysis in samples drawn from intravenous catheters [J].
Heiligers-Duckers, Connie ;
Peters, Nathalie A. L. R. ;
van Dijck, Jose J. P. ;
Hoeijmakers, Jan M. J. ;
Janssen, Marcel J. W. .
CLINICAL BIOCHEMISTRY, 2013, 46 (12) :1142-1144
[7]   Effectiveness of practices to reduce blood sample hemolysis in EDs: A laboratory medicine best practices systematic review and meta-analysis [J].
Heyer, Nicholas J. ;
Derzon, James H. ;
Winges, Linda ;
Shaw, Colleen ;
Mass, Diana ;
Snyder, Susan R. ;
Epner, Paul ;
Nichols, James H. ;
Gayken, Julie A. ;
Ernst, Dennis ;
Liebow, Edward B. .
CLINICAL BIOCHEMISTRY, 2012, 45 (13-14) :1012-1032
[8]   Why shouldn't we determine the erythrocyte sedimentation rate? [J].
Jurado, RL .
CLINICAL INFECTIOUS DISEASES, 2001, 33 (04) :548-549
[9]   The impact of pneumatic tube system on routine laboratory parameters: a systematic review and meta-analysis [J].
Kapoula, Georgia V. ;
Kontou, Panagiota I. ;
Bagos, Pantelis G. .
CLINICAL CHEMISTRY AND LABORATORY MEDICINE, 2017, 55 (12) :1834-1844
[10]   Assessing Pneumatic Tube Systems with Patient-Specific Populations and Laboratory-Derived Criteria [J].
Kavsak, Peter A. ;
Mansour, Maged ;
Wang, Li ;
Campeau, Sara ;
Clark, Lorna ;
Brooks, Dan ;
Trus, Mike .
CLINICAL CHEMISTRY, 2012, 58 (04) :792-795