在髋关节镜检查过程中收获和应用骨髓抽吸物浓缩物,以解决髋臼软骨损伤问题。

IF 16.4 1区 化学 Q1 CHEMISTRY, MULTIDISCIPLINARY Accounts of Chemical Research Pub Date : 2023-05-24 eCollection Date: 2023-04-01 DOI:10.2106/JBJS.ST.22.00010
Scott D Martin, Christopher T Eberlin, Michael P Kucharik, Nathan J Cherian
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Thus, as the incorporation of orthobiologics continues to advance, there is a clinical demand for an efficient and reliable BMAC-harvesting technique that utilizes an anatomical location with a substantial concentration of connective tissue progenitor (CTP) cells, while avoiding donor-site morbidity and minimizing additional operative time. Thus, we present a safe and technically feasible approach for harvesting bone marrow aspirate from the body of the ilium, followed by centrifugation and application during hip arthroscopy.</p><p><strong>Description: </strong>After induction of anesthesia and appropriate patient positioning, a quadrilateral arrangement of arthroscopic portals is established to perform puncture capsulotomy<sup>9</sup>. Upon arthroscopic visualization of cartilage/chondrolabral junction injury, 52 mL of whole venous blood is promptly obtained from an intravenous access site and combined with 8 mL of anticoagulant citrate dextrose solution A (ACD-A). The mixture is centrifuged to yield approximately 2 to 3 mL of platelet-rich plasma (PRP) and 17 to 18 mL of platelet-poor plasma (PPP). Then, approaching along the coronal plane and aiming toward the anterior-superior iliac spine under fluoroscopic guidance, a heparin-rinsed Jamshidi bone marrow biopsy needle is driven through the lateral cortex of the ilium just proximal to the sourcil. Under a relative negative-pressure vacuum, bone marrow is aspirated into 3 separate heparin-rinsed 50 mL syringes, each containing 5 mL of ACD-A. Slow and steady negative pressure should be used to pull back on the syringe plunger to aspirate a total volume of 40 mL into each syringe. To avoid pelvic cavity compromise and minimize the risk of mobilizing marrow-space contents, care should be taken to ensure that no forward force or positive pressure is applied during the aspiration process. A total combined bone marrow aspirate/ACD-A mixture of approximately 120 mL is consistently harvested and subsequently centrifuged to yield roughly 4 to 6 mL of BMAC. The final mixture containing BMAC, PRP, and PPP is combined with thrombin to generate a megaclot, which is then applied to the central compartment of the hip.</p><p><strong>Alternatives: </strong>Currently, strategies to address acetabular cartilage lesions may include microfracture, autologous chondrocyte implantation, matrix-induced autologous chondrocyte implantation, autologous matrix-induced chondrogenesis, osteochondral allografts, and orthobiologics<sup>10</sup>. Orthobiologics have shown mixed yet promising results for addressing musculoskeletal injuries and may include bone-marrow-derived mesenchymal stromal cells, adipose tissue derivatives, and PRP<sup>7,8,11,12</sup>. Specifically, bone marrow aspirate can be harvested from numerous locations, such as the iliac crest, the proximal aspect of the humerus, the vertebral body, and the distal aspect of the femur. Moreover, alternative approaches have utilized multiple-site and/or needle-redirection techniques to optimize cellular yield<sup>16,17</sup>, while also appreciating the potentially variable cellular characteristics of aspirated and/or processed samples<sup>18</sup>. However, previous literature has demonstrated that the body of the ilium contains a CTP cell concentration that is similar to or greater than other harvest locations when utilizing this outlined single-site and unidirectional aspirating technique<sup>13,14</sup>.</p><p><strong>Rationale: </strong>This versatile and updated technique is a safe and reproducible method for BMAC harvesting, processing, and application that avoids donor-site morbidity, obtains a substantial concentration of CTP cells, minimizes additional operative time, and limits the hip arthroscopy and aspiration to a single procedure<sup>15</sup>. Specifically, this technique details an evidence-supported approach to addressing chondral injury in patients undergoing acetabular labral repairs<sup>7,8</sup>.</p><p><strong>Expected outcomes: </strong>Patients with moderate cartilage damage treated with BMAC at the time of labral repair experienced significantly greater improvements in functional outcomes at 12 and 24 months postoperatively compared with similar patients without BMAC augmentation<sup>7</sup>. Furthermore, patients with full-thickness chondral flaps treated with BMAC at the time of arthroscopic labral repair demonstrated significantly greater improvements in functional outcomes at 12 months compared with microfracture. Moreover, 77.6% of the BMAC cohort reached the minimal clinically important difference threshold for the International Hip Outcome Tool-33 (iHOT-33) compared with 50.0% in the microfracture group<sup>8</sup>.</p><p><strong>Important tips: </strong>Utilize the previously established Dienst arthroscopic portal for the bone marrow aspiration in order to avoid secondary donor site morbidity.Under fluoroscopic guidance, approach the ilium along the coronal plane, aiming toward the anterior superior iliac spine.With a heparin-rinsed Jamshidi bone marrow biopsy needle, penetrate the lateral cortex of the ilium just proximal to the sourcil in order to consistently harvest a total combined bone marrow aspirate/ACD-A volume of approximately 120 mL.Simultaneously perform the bone marrow aspirate and whole venous blood centrifugation during the hip arthroscopy procedure in order to minimize additional operative time.Bone marrow aspiration should be performed without applied traction in order to minimize the risk of neurovascular complications associated with extended traction time.</p><p><strong>Acronyms and abbreviations: </strong>ACD-A = anticoagulant citrate dextrose solution AADSCs = adipose-derived stem cellsASIS = anterior superior iliac spineBMAC = bone marrow aspirate concentrateCI = confidence intervalCTP = connective tissue progenitorDVT = deep vein thrombosisHOS-ADL = Hip Outcome Score, Activities of Daily LivingiHOT-33 = International Hip Outcome Tool-33MCID = minimal clinically important differenceMRA = magnetic resonance arthrogramMSCs = mesenchymal stromal cellsPPP = platelet-poor plasmaPRP = platelet-rich plasmaRBCs = red blood cellsSD = standard deviationT1 = longitudinal relaxation timeT2 = transverse relaxation timeWBCs = white blood cells.</p>","PeriodicalId":1,"journal":{"name":"Accounts of Chemical Research","volume":null,"pages":null},"PeriodicalIF":16.4000,"publicationDate":"2023-05-24","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10807885/pdf/","citationCount":"0","resultStr":"{\"title\":\"Harvest and Application of Bone Marrow Aspirate Concentrate to Address Acetabular Chondral Damage During Hip Arthroscopy.\",\"authors\":\"Scott D Martin, Christopher T Eberlin, Michael P Kucharik, Nathan J Cherian\",\"doi\":\"10.2106/JBJS.ST.22.00010\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><strong>Background: </strong>During hip arthroscopy, managing concomitant cartilage damage and chondrolabral junction breakdown remains an ongoing challenge for orthopaedic surgeons, as previous studies have associated such lesions with inferior postoperative outcomes<sup>1-7</sup>. Although higher-level studies are needed to fully elucidate the benefits, recent literature has provided supporting preliminary evidence for the utilization of bone marrow aspirate concentrate (BMAC) in patients with moderate cartilage damage and full-thickness chondral flaps undergoing acetabular labral repair<sup>7,8</sup>. Thus, as the incorporation of orthobiologics continues to advance, there is a clinical demand for an efficient and reliable BMAC-harvesting technique that utilizes an anatomical location with a substantial concentration of connective tissue progenitor (CTP) cells, while avoiding donor-site morbidity and minimizing additional operative time. Thus, we present a safe and technically feasible approach for harvesting bone marrow aspirate from the body of the ilium, followed by centrifugation and application during hip arthroscopy.</p><p><strong>Description: </strong>After induction of anesthesia and appropriate patient positioning, a quadrilateral arrangement of arthroscopic portals is established to perform puncture capsulotomy<sup>9</sup>. Upon arthroscopic visualization of cartilage/chondrolabral junction injury, 52 mL of whole venous blood is promptly obtained from an intravenous access site and combined with 8 mL of anticoagulant citrate dextrose solution A (ACD-A). The mixture is centrifuged to yield approximately 2 to 3 mL of platelet-rich plasma (PRP) and 17 to 18 mL of platelet-poor plasma (PPP). Then, approaching along the coronal plane and aiming toward the anterior-superior iliac spine under fluoroscopic guidance, a heparin-rinsed Jamshidi bone marrow biopsy needle is driven through the lateral cortex of the ilium just proximal to the sourcil. Under a relative negative-pressure vacuum, bone marrow is aspirated into 3 separate heparin-rinsed 50 mL syringes, each containing 5 mL of ACD-A. Slow and steady negative pressure should be used to pull back on the syringe plunger to aspirate a total volume of 40 mL into each syringe. To avoid pelvic cavity compromise and minimize the risk of mobilizing marrow-space contents, care should be taken to ensure that no forward force or positive pressure is applied during the aspiration process. A total combined bone marrow aspirate/ACD-A mixture of approximately 120 mL is consistently harvested and subsequently centrifuged to yield roughly 4 to 6 mL of BMAC. The final mixture containing BMAC, PRP, and PPP is combined with thrombin to generate a megaclot, which is then applied to the central compartment of the hip.</p><p><strong>Alternatives: </strong>Currently, strategies to address acetabular cartilage lesions may include microfracture, autologous chondrocyte implantation, matrix-induced autologous chondrocyte implantation, autologous matrix-induced chondrogenesis, osteochondral allografts, and orthobiologics<sup>10</sup>. Orthobiologics have shown mixed yet promising results for addressing musculoskeletal injuries and may include bone-marrow-derived mesenchymal stromal cells, adipose tissue derivatives, and PRP<sup>7,8,11,12</sup>. Specifically, bone marrow aspirate can be harvested from numerous locations, such as the iliac crest, the proximal aspect of the humerus, the vertebral body, and the distal aspect of the femur. 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Specifically, this technique details an evidence-supported approach to addressing chondral injury in patients undergoing acetabular labral repairs<sup>7,8</sup>.</p><p><strong>Expected outcomes: </strong>Patients with moderate cartilage damage treated with BMAC at the time of labral repair experienced significantly greater improvements in functional outcomes at 12 and 24 months postoperatively compared with similar patients without BMAC augmentation<sup>7</sup>. Furthermore, patients with full-thickness chondral flaps treated with BMAC at the time of arthroscopic labral repair demonstrated significantly greater improvements in functional outcomes at 12 months compared with microfracture. 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引用次数: 0

摘要

背景:在髋关节镜手术过程中,处理同时存在的软骨损伤和软骨髋臼交界处破坏仍是骨科医生面临的一项持续挑战,因为之前的研究表明,此类病变与较差的术后效果有关1-7。虽然还需要更高级别的研究来充分阐明其益处,但最近的文献提供了初步支持证据,证明在中度软骨损伤和全厚软骨瓣患者中进行髋臼唇修复术时可以使用骨髓抽吸物浓缩物(BMAC)7,8。因此,随着骨生物制品的不断发展,临床上需要一种高效可靠的骨髓采集技术,既能利用结缔组织祖细胞(CTP)高度集中的解剖位置,又能避免供体部位的发病率,并最大限度地减少额外的手术时间。因此,我们提出了一种安全且技术上可行的方法,从髂骨体抽取骨髓,然后离心并在髋关节镜手术中应用:麻醉诱导和适当的患者体位后,建立一个四边形的关节镜切口,以进行穿刺囊切开术9。在关节镜下观察到软骨/椎髋关节交界处损伤后,立即从静脉通路获取 52 毫升全静脉血,并与 8 毫升抗凝剂枸橼酸葡萄糖溶液 A(ACD-A)混合。将混合物离心,得到约 2 至 3 毫升富血小板血浆 (PRP) 和 17 至 18 毫升贫血小板血浆 (PPP)。然后,在透视引导下,沿冠状面朝髂前上棘靠近,将肝素冲洗过的Jamshidi骨髓活检针穿过髂骨外侧皮质,刚好到达髂嵴近端。在相对负压真空状态下,将骨髓分别抽吸到 3 个肝素漂洗过的 50 毫升注射器中,每个注射器中含有 5 毫升 ACD-A。应使用缓慢而稳定的负压向后拉注射器活塞,以向每个注射器中抽吸总体积为 40 毫升的骨髓。为避免盆腔受损并将骨髓腔内容物移动的风险降至最低,应注意确保在抽吸过程中不施加前向力或正压。抽取的骨髓吸出物/ACD-A 混合液总量约为 120 毫升,随后离心以获得约 4 到 6 毫升的 BMAC。含有 BMAC、PRP 和 PPP 的最终混合物与凝血酶结合生成巨凝块,然后将其应用于髋关节中央区:目前,治疗髋臼软骨损伤的方法包括微骨折、自体软骨细胞植入、基质诱导自体软骨细胞植入、自体基质诱导软骨生成、骨软骨异体移植和骨生物制品10。骨生物制剂在治疗肌肉骨骼损伤方面的效果不一,但前景看好,其中包括骨髓间充质基质细胞、脂肪组织衍生物和 PRP7,8,11,12。具体来说,骨髓抽吸可从多个部位采集,如髂嵴、肱骨近端、椎体和股骨远端。此外,其他方法还利用多部位和/或针刺定向技术来优化细胞产量16,17,同时也考虑到抽吸和/或处理样本中可能存在的不同细胞特性18。理由:这一多功能的最新技术是一种安全、可重复的 BMAC 采集、处理和应用方法,可避免供体部位的发病率,获得高浓度的 CTP 细胞,最大限度地减少额外的手术时间,并将髋关节镜检查和抽吸限制在单次手术中15。具体而言,该技术详细介绍了一种有证据支持的方法,用于处理接受髋臼唇修复术患者的软骨损伤7,8:预期结果:在进行髋臼唇修补术时使用 BMAC 治疗中度软骨损伤的患者,术后 12 个月和 24 个月的功能改善明显优于未使用 BMAC 扩增术的同类患者7。此外,与微骨折相比,在关节镜下进行唇瓣修复时使用 BMAC 治疗的全厚软骨瓣患者在术后 12 个月的功能改善程度明显更高。此外,77.
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Harvest and Application of Bone Marrow Aspirate Concentrate to Address Acetabular Chondral Damage During Hip Arthroscopy.

Background: During hip arthroscopy, managing concomitant cartilage damage and chondrolabral junction breakdown remains an ongoing challenge for orthopaedic surgeons, as previous studies have associated such lesions with inferior postoperative outcomes1-7. Although higher-level studies are needed to fully elucidate the benefits, recent literature has provided supporting preliminary evidence for the utilization of bone marrow aspirate concentrate (BMAC) in patients with moderate cartilage damage and full-thickness chondral flaps undergoing acetabular labral repair7,8. Thus, as the incorporation of orthobiologics continues to advance, there is a clinical demand for an efficient and reliable BMAC-harvesting technique that utilizes an anatomical location with a substantial concentration of connective tissue progenitor (CTP) cells, while avoiding donor-site morbidity and minimizing additional operative time. Thus, we present a safe and technically feasible approach for harvesting bone marrow aspirate from the body of the ilium, followed by centrifugation and application during hip arthroscopy.

Description: After induction of anesthesia and appropriate patient positioning, a quadrilateral arrangement of arthroscopic portals is established to perform puncture capsulotomy9. Upon arthroscopic visualization of cartilage/chondrolabral junction injury, 52 mL of whole venous blood is promptly obtained from an intravenous access site and combined with 8 mL of anticoagulant citrate dextrose solution A (ACD-A). The mixture is centrifuged to yield approximately 2 to 3 mL of platelet-rich plasma (PRP) and 17 to 18 mL of platelet-poor plasma (PPP). Then, approaching along the coronal plane and aiming toward the anterior-superior iliac spine under fluoroscopic guidance, a heparin-rinsed Jamshidi bone marrow biopsy needle is driven through the lateral cortex of the ilium just proximal to the sourcil. Under a relative negative-pressure vacuum, bone marrow is aspirated into 3 separate heparin-rinsed 50 mL syringes, each containing 5 mL of ACD-A. Slow and steady negative pressure should be used to pull back on the syringe plunger to aspirate a total volume of 40 mL into each syringe. To avoid pelvic cavity compromise and minimize the risk of mobilizing marrow-space contents, care should be taken to ensure that no forward force or positive pressure is applied during the aspiration process. A total combined bone marrow aspirate/ACD-A mixture of approximately 120 mL is consistently harvested and subsequently centrifuged to yield roughly 4 to 6 mL of BMAC. The final mixture containing BMAC, PRP, and PPP is combined with thrombin to generate a megaclot, which is then applied to the central compartment of the hip.

Alternatives: Currently, strategies to address acetabular cartilage lesions may include microfracture, autologous chondrocyte implantation, matrix-induced autologous chondrocyte implantation, autologous matrix-induced chondrogenesis, osteochondral allografts, and orthobiologics10. Orthobiologics have shown mixed yet promising results for addressing musculoskeletal injuries and may include bone-marrow-derived mesenchymal stromal cells, adipose tissue derivatives, and PRP7,8,11,12. Specifically, bone marrow aspirate can be harvested from numerous locations, such as the iliac crest, the proximal aspect of the humerus, the vertebral body, and the distal aspect of the femur. Moreover, alternative approaches have utilized multiple-site and/or needle-redirection techniques to optimize cellular yield16,17, while also appreciating the potentially variable cellular characteristics of aspirated and/or processed samples18. However, previous literature has demonstrated that the body of the ilium contains a CTP cell concentration that is similar to or greater than other harvest locations when utilizing this outlined single-site and unidirectional aspirating technique13,14.

Rationale: This versatile and updated technique is a safe and reproducible method for BMAC harvesting, processing, and application that avoids donor-site morbidity, obtains a substantial concentration of CTP cells, minimizes additional operative time, and limits the hip arthroscopy and aspiration to a single procedure15. Specifically, this technique details an evidence-supported approach to addressing chondral injury in patients undergoing acetabular labral repairs7,8.

Expected outcomes: Patients with moderate cartilage damage treated with BMAC at the time of labral repair experienced significantly greater improvements in functional outcomes at 12 and 24 months postoperatively compared with similar patients without BMAC augmentation7. Furthermore, patients with full-thickness chondral flaps treated with BMAC at the time of arthroscopic labral repair demonstrated significantly greater improvements in functional outcomes at 12 months compared with microfracture. Moreover, 77.6% of the BMAC cohort reached the minimal clinically important difference threshold for the International Hip Outcome Tool-33 (iHOT-33) compared with 50.0% in the microfracture group8.

Important tips: Utilize the previously established Dienst arthroscopic portal for the bone marrow aspiration in order to avoid secondary donor site morbidity.Under fluoroscopic guidance, approach the ilium along the coronal plane, aiming toward the anterior superior iliac spine.With a heparin-rinsed Jamshidi bone marrow biopsy needle, penetrate the lateral cortex of the ilium just proximal to the sourcil in order to consistently harvest a total combined bone marrow aspirate/ACD-A volume of approximately 120 mL.Simultaneously perform the bone marrow aspirate and whole venous blood centrifugation during the hip arthroscopy procedure in order to minimize additional operative time.Bone marrow aspiration should be performed without applied traction in order to minimize the risk of neurovascular complications associated with extended traction time.

Acronyms and abbreviations: ACD-A = anticoagulant citrate dextrose solution AADSCs = adipose-derived stem cellsASIS = anterior superior iliac spineBMAC = bone marrow aspirate concentrateCI = confidence intervalCTP = connective tissue progenitorDVT = deep vein thrombosisHOS-ADL = Hip Outcome Score, Activities of Daily LivingiHOT-33 = International Hip Outcome Tool-33MCID = minimal clinically important differenceMRA = magnetic resonance arthrogramMSCs = mesenchymal stromal cellsPPP = platelet-poor plasmaPRP = platelet-rich plasmaRBCs = red blood cellsSD = standard deviationT1 = longitudinal relaxation timeT2 = transverse relaxation timeWBCs = white blood cells.

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来源期刊
Accounts of Chemical Research
Accounts of Chemical Research 化学-化学综合
CiteScore
31.40
自引率
1.10%
发文量
312
审稿时长
2 months
期刊介绍: Accounts of Chemical Research presents short, concise and critical articles offering easy-to-read overviews of basic research and applications in all areas of chemistry and biochemistry. These short reviews focus on research from the author’s own laboratory and are designed to teach the reader about a research project. In addition, Accounts of Chemical Research publishes commentaries that give an informed opinion on a current research problem. Special Issues online are devoted to a single topic of unusual activity and significance. Accounts of Chemical Research replaces the traditional article abstract with an article "Conspectus." These entries synopsize the research affording the reader a closer look at the content and significance of an article. Through this provision of a more detailed description of the article contents, the Conspectus enhances the article's discoverability by search engines and the exposure for the research.
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