Separation of Penaeus vannamei haemocyte subpopulations by iodixanol density gradient centrifugation

Methodologies for separation of immune cell subpopulations are essential tools in immunology studies. Up to date, only one methodology for separating crustacean haemocyte subpopulations using Percoll density gradient centrifugation has been described. In the present work, a new methodology to separa...

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Veröffentlicht in:Aquaculture 2013-09, Vol.408-409, p.128-135
Hauptverfasser: Dantas-Lima, J.J., Tuan, V.V., Corteel, M., Grauwet, K., An, N.T.T., Sorgeloos, P., Nauwynck, H.J.
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container_start_page 128
container_title Aquaculture
container_volume 408-409
creator Dantas-Lima, J.J.
Tuan, V.V.
Corteel, M.
Grauwet, K.
An, N.T.T.
Sorgeloos, P.
Nauwynck, H.J.
description Methodologies for separation of immune cell subpopulations are essential tools in immunology studies. Up to date, only one methodology for separating crustacean haemocyte subpopulations using Percoll density gradient centrifugation has been described. In the present work, a new methodology to separate Penaeus vannamei haemocyte subpopulations was developed, using a two-step iodixanol density gradient centrifugation. P. vannamei haemolymph was collected with anticoagulant and centrifuged through a first gradient (densities from 1.063 to 1.109g/ml) for 10min at 2000g. Three bands were formed: two bands with lower density close together, and a third band with higher density. The first two were collected together whilst the third band was collected separately. The volume fraction in-between these bands contained dispersed cells and was also collected. The suspension containing the mixture of the first two bands was centrifuged through a second gradient (densities from 1.047 to1.087g/ml) for 15min at 2000g. Two bands were formed and collected individually. All the cell suspensions were used for in vitro culture (cell survival evaluation) and for evaluation of cell morphology by flow cytometry and light microscopy. Each of the three bands contained a major cell type with distinct morphology and behaviour. The dispersed cell fraction contained a mixture of two different cell types, which were distinct from the cell types in the bands. By order of appearance from the top of the gradient, the cell types were named: subpopulations (Sub) 1 (band 1), Sub 2 (band 2), Sub 3+4 (dispersed cells) and Sub 5 (band 3). The purity level (percentage of the major cell type) of Sub 1, 2 and 5 was 95.0±1.0%, 97.7±1.2% and 99.4±0.8%, respectively. Cells of Sub 2 showed the best survival time in vitro (up to 96h) followed by cells from Sub 1, Sub 3+4 and Sub 5. Phagocytic activity was detected in Sub 1 and 4. This methodology allowed the separation and characterization of five morphologically distinct and physiologically active P. vannamei haemocyte subpopulations, from which three were isolated with a very high degree of purity. Therefore, we consider this methodology a valuable alternative for the traditional crustacean haemocyte separation procedure in Percoll. •For the first time, shrimp haemocyte subpopulations were separated using iodixanol.•The procedure included 2 distinct continuous iodixanol density gradients.•After centrifugation, 3 sharp bands and 1 dispersed cell fracti
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Up to date, only one methodology for separating crustacean haemocyte subpopulations using Percoll density gradient centrifugation has been described. In the present work, a new methodology to separate Penaeus vannamei haemocyte subpopulations was developed, using a two-step iodixanol density gradient centrifugation. P. vannamei haemolymph was collected with anticoagulant and centrifuged through a first gradient (densities from 1.063 to 1.109g/ml) for 10min at 2000g. Three bands were formed: two bands with lower density close together, and a third band with higher density. The first two were collected together whilst the third band was collected separately. The volume fraction in-between these bands contained dispersed cells and was also collected. The suspension containing the mixture of the first two bands was centrifuged through a second gradient (densities from 1.047 to1.087g/ml) for 15min at 2000g. Two bands were formed and collected individually. All the cell suspensions were used for in vitro culture (cell survival evaluation) and for evaluation of cell morphology by flow cytometry and light microscopy. Each of the three bands contained a major cell type with distinct morphology and behaviour. The dispersed cell fraction contained a mixture of two different cell types, which were distinct from the cell types in the bands. By order of appearance from the top of the gradient, the cell types were named: subpopulations (Sub) 1 (band 1), Sub 2 (band 2), Sub 3+4 (dispersed cells) and Sub 5 (band 3). The purity level (percentage of the major cell type) of Sub 1, 2 and 5 was 95.0±1.0%, 97.7±1.2% and 99.4±0.8%, respectively. Cells of Sub 2 showed the best survival time in vitro (up to 96h) followed by cells from Sub 1, Sub 3+4 and Sub 5. Phagocytic activity was detected in Sub 1 and 4. 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Up to date, only one methodology for separating crustacean haemocyte subpopulations using Percoll density gradient centrifugation has been described. In the present work, a new methodology to separate Penaeus vannamei haemocyte subpopulations was developed, using a two-step iodixanol density gradient centrifugation. P. vannamei haemolymph was collected with anticoagulant and centrifuged through a first gradient (densities from 1.063 to 1.109g/ml) for 10min at 2000g. Three bands were formed: two bands with lower density close together, and a third band with higher density. The first two were collected together whilst the third band was collected separately. The volume fraction in-between these bands contained dispersed cells and was also collected. The suspension containing the mixture of the first two bands was centrifuged through a second gradient (densities from 1.047 to1.087g/ml) for 15min at 2000g. Two bands were formed and collected individually. 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Psychology</subject><subject>General aspects</subject><subject>Haemocyte separation</subject><subject>Haemocyte subpopulations</subject><subject>hemolymph</subject><subject>immunology</subject><subject>Iodixanol</subject><subject>light microscopy</subject><subject>Litopenaeus vannamei</subject><subject>Morphology</subject><subject>new methods</subject><subject>P. vannamei</subject><issn>0044-8486</issn><issn>1873-5622</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2013</creationdate><recordtype>article</recordtype><recordid>eNqNkE1v1DAQhiMEEkvb31AjxDFh_JnkiFYUkCpRqfRsTe3J4lU2Tu2kYv89brdCHLnMXJ5539FTVe85NBy4-bRv8GFFt47LmqgRwGUDqgHJX1Ub3rWy1kaI19UGQKm6U515W73LeQ8Axmi-qfwtzZhwCXFicWA3NCGtmT3iNOGBAvuFdIjuuBDL6_0c53V8ZjO7P7IQffiNUxyZpymH5ch2CX2gaWGujBSGdfdMn1dvBhwzXbzss-ru6svP7bf6-sfX79vP17VTpl_qvvPcDZ3T2ks0nHotWykd9EJIb1pw4AeukSR4b7jHwSkuOqNBUKcASJ5VH065c4oPK-XF7uOaplJpuRJaQ2-0KlR_olyKOSca7JzCAdPRcrBPUu3e_iPVPkm1oGyRWm4_vjRgdjgOCScX8t8A0bYgONeFuzxxA0aLu1SYu9sSVN7krTC8L8T2RFAR8hgo2eyKOkc-JHKL9TH8xz9_ACtKnnY</recordid><startdate>20130915</startdate><enddate>20130915</enddate><creator>Dantas-Lima, J.J.</creator><creator>Tuan, V.V.</creator><creator>Corteel, M.</creator><creator>Grauwet, K.</creator><creator>An, N.T.T.</creator><creator>Sorgeloos, P.</creator><creator>Nauwynck, H.J.</creator><general>Elsevier B.V</general><general>Elsevier</general><general>Elsevier Sequoia S.A</general><scope>FBQ</scope><scope>IQODW</scope><scope>AAYXX</scope><scope>CITATION</scope><scope>7QL</scope><scope>7QR</scope><scope>7ST</scope><scope>7TN</scope><scope>7U7</scope><scope>7U9</scope><scope>8FD</scope><scope>C1K</scope><scope>F1W</scope><scope>FR3</scope><scope>H94</scope><scope>H95</scope><scope>H98</scope><scope>H99</scope><scope>L.F</scope><scope>L.G</scope><scope>M7N</scope><scope>P64</scope><scope>SOI</scope></search><sort><creationdate>20130915</creationdate><title>Separation of Penaeus vannamei haemocyte subpopulations by iodixanol density gradient centrifugation</title><author>Dantas-Lima, J.J. ; Tuan, V.V. ; Corteel, M. ; Grauwet, K. ; An, N.T.T. ; Sorgeloos, P. ; Nauwynck, H.J.</author></sort><facets><frbrtype>5</frbrtype><frbrgroupid>cdi_FETCH-LOGICAL-c469t-98d1cf8c55d3a61e953733c09223d670c0df15ae30dd61dafc41286502e8400e3</frbrgroupid><rsrctype>articles</rsrctype><prefilter>articles</prefilter><language>eng</language><creationdate>2013</creationdate><topic>Animal aquaculture</topic><topic>Animal productions</topic><topic>Anticoagulants</topic><topic>Aquaculture</topic><topic>Biological and medical sciences</topic><topic>cell biology</topic><topic>cell suspension culture</topic><topic>Cells</topic><topic>centrifugation</topic><topic>Crustaceans</topic><topic>Flow cytometry</topic><topic>Fundamental and applied biological sciences. 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Up to date, only one methodology for separating crustacean haemocyte subpopulations using Percoll density gradient centrifugation has been described. In the present work, a new methodology to separate Penaeus vannamei haemocyte subpopulations was developed, using a two-step iodixanol density gradient centrifugation. P. vannamei haemolymph was collected with anticoagulant and centrifuged through a first gradient (densities from 1.063 to 1.109g/ml) for 10min at 2000g. Three bands were formed: two bands with lower density close together, and a third band with higher density. The first two were collected together whilst the third band was collected separately. The volume fraction in-between these bands contained dispersed cells and was also collected. The suspension containing the mixture of the first two bands was centrifuged through a second gradient (densities from 1.047 to1.087g/ml) for 15min at 2000g. Two bands were formed and collected individually. All the cell suspensions were used for in vitro culture (cell survival evaluation) and for evaluation of cell morphology by flow cytometry and light microscopy. Each of the three bands contained a major cell type with distinct morphology and behaviour. The dispersed cell fraction contained a mixture of two different cell types, which were distinct from the cell types in the bands. By order of appearance from the top of the gradient, the cell types were named: subpopulations (Sub) 1 (band 1), Sub 2 (band 2), Sub 3+4 (dispersed cells) and Sub 5 (band 3). The purity level (percentage of the major cell type) of Sub 1, 2 and 5 was 95.0±1.0%, 97.7±1.2% and 99.4±0.8%, respectively. Cells of Sub 2 showed the best survival time in vitro (up to 96h) followed by cells from Sub 1, Sub 3+4 and Sub 5. Phagocytic activity was detected in Sub 1 and 4. This methodology allowed the separation and characterization of five morphologically distinct and physiologically active P. vannamei haemocyte subpopulations, from which three were isolated with a very high degree of purity. Therefore, we consider this methodology a valuable alternative for the traditional crustacean haemocyte separation procedure in Percoll. •For the first time, shrimp haemocyte subpopulations were separated using iodixanol.•The procedure included 2 distinct continuous iodixanol density gradients.•After centrifugation, 3 sharp bands and 1 dispersed cell fraction were obtained.•After analysis, 5 distinct haemocyte subpopulations were identified.•Cells were kept alive for different times under in vitro culture conditions.</abstract><cop>Amsterdam</cop><pub>Elsevier B.V</pub><doi>10.1016/j.aquaculture.2013.04.031</doi><tpages>8</tpages></addata></record>
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subjects Animal aquaculture
Animal productions
Anticoagulants
Aquaculture
Biological and medical sciences
cell biology
cell suspension culture
Cells
centrifugation
Crustaceans
Flow cytometry
Fundamental and applied biological sciences. Psychology
General aspects
Haemocyte separation
Haemocyte subpopulations
hemolymph
immunology
Iodixanol
light microscopy
Litopenaeus vannamei
Morphology
new methods
P. vannamei
title Separation of Penaeus vannamei haemocyte subpopulations by iodixanol density gradient centrifugation
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