scholarly journals Surgical configurations of the pectoralis major flap for reconstruction of sternoclavicular defects: a systematic review and new classification of described techniques

BMC Surgery ◽  
2019 ◽  
Vol 19 (1) ◽  
Author(s):  
Jude Opoku-Agyeman ◽  
David Matera ◽  
Jamee Simone

Abstract Objectives The pectoralis major flap has been considered the workhorse flap for chest and sternoclavicular defect reconstruction. There have been many configurations of the pectoralis major flap reported in the literature for use in reconstruction sternoclavicular defects either involving bone, soft tissue elements, or both. This study reviews the different configurations of the pectoralis major flap for sternoclavicular defect reconstruction and provides the first ever classification for these techniques. We also provide an algorithm for the selection of these flap variants for sternoclavicular defect reconstruction. Methods EMBASE, Cochrane library, Ovid medicine and PubMed databases were searched from its inception to August of 2019. We included all studies describing surgical management of sternoclavicular defects. The studies were reviewed, and the different configurations of the pectoralis major flap used for sternoclavicular defect reconstruction were cataloged. We then proposed a new classification system for these procedures. Results The study included 6 articles published in the English language that provided a descriptive procedure for the use of pectoralis major flap in the reconstruction of sternoclavicular defects. The procedures were classified into three broad categories. In Type 1, the whole pectoris muscle is used. In Type 2, the pectoralis muscle is split and either advanced medially (type 2a) or rotated (type 2b) to fill the defect. In type 3, the clavicular portion of the pectoralis is islandized on a pedicle, either the thoracoacromial artery (type 3a) or the deltoid branch of the thoracoacromial artery (type 3b). Conclusion There are multiple configurations of the pectoralis flap reported in the English language literature for the reconstruction of sternoclavicular defects. Our classification system, the Opoku Classification will help surgeons select the appropriate configuration of the pectoralis major flap for sternoclavicular joint defect reconstruction based on size of defect, the status of the vascular anatomy, and acceptability of upper extremity disability. It will also help facilitate communication when describing the different configurations of the pectoralis major flap for reconstruction of sternoclavicular joint defects.

2019 ◽  
Author(s):  
Jude Opoku-Agyeman ◽  
David Matera ◽  
Jamee Simone

Abstract Objectives : The pectoralis major flap has been considered the workhorse flap for chest and sternoclavicular defect reconstruction. There have been many configurations of the pectoralis major flap reported in the literature for use in reconstruction sternoclavicular defects either involving bone, soft tissue elements, or both. This study reviews the different configurations of the pectoralis major flap for sternoclavicular defect reconstruction and provides the first ever classification for these techniques. We also provide an algorithm for the selection of these flap variants for sternoclavicular defect reconstruction Methods : EMBASE, Cochrane library, Ovid medicine and PubMed databases were searched from its inception to August of 2019. We included all studies describing surgical management of sternoclavicular defects. The studies were reviewed, and the different configurations of the pectoralis major flap used for sternoclavicular defect reconstruction were cataloged. We then proposed a new classification system for these procedures. Results : The study included 6 articles published in the English language that provided a descriptive procedure for the use of pectoralis major flap in the reconstruction of sternoclavicular defects. The procedures were classified into three broad categories. In Type 1, the whole pectoris muscle is used. In Type 2, the pectoralis muscle is split and either advanced medially (type 2a) or rotated (type 2b) to fill the defect. In type 3, the clavicular portion of the pectoralis is islandized on a pedicle, either the thoracoacromial artery (type 3a) or the deltoid branch of the thoracoacromial artery (type 3b). Conclusion: There are multiple configurations of the pectoralis flap reported in the English language literature for the reconstruction of sternoclavicular defects . Our classification system, The Opoku Classification will help surgeons select the appropriate configuration of the pectoralis major flap for sternoclavicular joint defect reconstruction based on size of defect, the status of the vascular anatomy, and acceptability of upper extremity disability. It will also help facilitate communication when describing the different configurations of the pectoralis major flap for reconstruction of sternoclavicular joint defects.


2019 ◽  
Author(s):  
Jude Opoku-Agyeman ◽  
David Matera ◽  
Jamee Simone

Abstract Objectives : The pectoralis major flap has been considered the workhorse flap for chest and sternoclavicular defect reconstruction. There have been many configurations of the pectoralis major flap reported in the literature for use in reconstruction sternoclavicular defects either involving bone, soft tissue elements, or both. This study reviews the different configurations of the pectoralis major flap for sternoclavicular defect reconstruction and provides the first ever classification for these techniques. We also provide an algorithm for the selection of these flap variants for sternoclavicular defect reconstruction Methods : EMBASE, Cochrane library, Ovid medicine and PubMed databases were searched from its inception to August of 2019. We included all studies describing surgical management of sternoclavicular defects. The studies were reviewed, and the different configurations of the pectoralis major flap used for sternoclavicular defect reconstruction were cataloged. We then proposed a new classification system for these procedures. Results : The study included 6 articles published in the English language that provided a descriptive procedure for the use of pectoralis major flap in the reconstruction of sternoclavicular defects. The procedures were classified into three broad categories. In Type 1, the whole pectoris muscle is used. In Type 2, the pectoralis muscle is split and either advanced medially (type 2a) or rotated (type 2b) to fill the defect. In type 3, the clavicular portion of the pectoralis is islandized on a pedicle, either the thoracoacromial artery (type 3a) or the deltoid branch of the thoracoacromial artery (type 3b). Conclusion: There are multiple configurations of the pectoralis flap reported in the English language literature for the reconstruction of sternoclavicular defects . Our classification system, The Opoku Classification will help surgeons select the appropriate configuration of the pectoralis major flap for sternoclavicular joint defect reconstruction based on size of defect, the status of the vascular anatomy, and acceptability of upper extremity disability. It will also help facilitate communication when describing the different configurations of the pectoralis major flap for reconstruction of sternoclavicular joint defects.


2019 ◽  
Author(s):  
Jude Opoku-Agyeman ◽  
David Matera ◽  
Jamee Simone

Abstract Objectives The pectoralis major flap has been considered the workhorse flap for chest and sternoclavicular defect reconstruction. There have been many configurations of the pectoralis major flap reported in the literature for use in reconstruction sternoclavicular defects either involving bone, soft tissue elements, or both. This study reviews the different configurations of the pectoralis major flap for sternoclavicular defect reconstruction and provides the first ever classification for these techniques. Methods EMBASE, Cochrane library, Ovid medicine and PubMed databases were searched from its inception to November of 2018. We included all studies describing surgical management of sternoclavicular defects. The studies were reviewed, and the different configurations of the pectoralis major flap used for sternoclavicular defect reconstruction were cataloged. We then proposed a new classification system for these procedures. Results The study included 5 articles published in the English language that provided a descriptive procedure for the use of pectoralis major flap in the reconstruction of sternoclavicular defects. The procedures were classified into three broad categories. In Type 1, the whole pectoris muscle is used. In Type 2, the pectoralis muscle is split and either advanced medially (type 2a) or rotated (type 2b) to fill the defect. In type 3, the clavicular portion of the pectoralis is islandized on a pedicle, either the TAA (type 3a) or the deltoid branch of the TAA (type 3b). Conclusion There are multiple configurations of the pectoralis flap reported in the English language literature for the reconstruction of sternoclavicular defects. Our classification system will help facilitate communication when describing the different configurations of the pectoralis major flap for reconstruction of sternoclavicular joint defects.


2020 ◽  
Vol 37 (3) ◽  
pp. 131-137
Author(s):  
Jude L. Opoku-Agyeman ◽  
Jamee E. Simone

Cheek dimpleplasty has become a popular request amongst patients requesting cosmetic surgery. Since the first reported dimpleplasty in 1962, there have been many reported procedures in the literature for cheek dimple creation. Some of the procedures described by various authors as “novel” are actually similar if not identical to existing procedures. This study reviews the different procedures of cheek dimple creation and provides the first ever systematic classification for these techniques. EMBASE, Cochrane library, Ovid medicine, and PubMed databases were searched from its inception to June of 2019. We included all studies describing the surgical creation of cheek dimples. The studies were reviewed, and the different procedures were cataloged. We then proposed a new classification system for these procedures based on their common characteristics. The study included 12 articles published in the English language that provided a descriptive procedure for cheek dimple creation. We classified the procedures into 3 broad categories and subcategories. Type 1 procedures are nonexcisional myocutaneous dimpleplasties. In these procedures, the buccinator muscle is not excised. In type 1A, the suture used to create the adhesion traverses the epidermis. In type 1B, the suture does not traverse the epidermis, rather, the suture travels up into the dermis and returned back to the mucosa. Type 2 procedures are excisional dimpleplasties. In these procedures, the buccinator muscle is excised with (open) or without (closed) the excision of the mucosa. Type 3 procedures are incisional dimpleplasty. In these procedures, the muscle is incised and fixed to the dermis. Each of these groups of procedures has potential unique advantages and disadvantages. There are multiple procedures reported in the English language literature for the creation of cheek dimples. Most of the procedures are based on similar concept with minor variations. Our classification system, the Opoku-Simone Classification, will help facilitate communication when describing the different configurations of these procedures. Procedure within each group has similar potential advantages and disadvantages.


Author(s):  
Victor Mashamba ◽  
◽  
Shaban Mawala ◽  
Emmerenceana Mahulu ◽  
Ashfaq Abdulshakoor ◽  
...  

Skin cancers are common in head and neck region particularly Basal cell carcinoma and Squamous cell carcinoma. Treatment options includes wide local excision with neck dissection followed by adjuvant radiation/chemo/chemoradiation. We report a case of a huge skin cancer of the neck about 8.5 cm in its greatest dimensions and reconstructive techniques of the defect using pectoralis major flap in a 61-years old Albino patient, what’s important is good understanding of anatomy and surgical land marks to identify the thoracoacromial artery which is the main feeder to the flap. Reconstruction was successful with acceptable morbidity and the patient was sent for chemoradiation with no reported recurrence. Presentation from this case demonstrates that the pectoralis major flap still remains the ‘workhorse’ of reconstruction in Tanzania. It is advocated to be used in resource limited countries, effectively with acceptable morbidity and results.


2019 ◽  
Vol 98 (7) ◽  
pp. 431-434
Author(s):  
Susanne Trainotti ◽  
Thomas K. Hoffmann ◽  
Nicole Rotter ◽  
Jens Greve ◽  
Johannes A. Veit ◽  
...  

Large and deep defects resulting from lateral skull base surgery represent a challenge to the head and neck surgeon. Different microvascular free flaps have specific advantages and disadvantages. While the pedicled pectoralis major flap is considered a “work horse,” it comes with a rather short pedicle. The aim of this study was to analyze the vascular anatomy of the pectoralis major flap and assess its suitability for microvascular transfer. Anatomical studies have been performed on 6 Thiel-fixed cadavers allowing a harvest of 12 flaps by the same surgeon. Measurements of the pedicle’s length and vessel diameters have been taken with a ruler and caliper. The mean pedicle length and mean diameters (Ø) of the thoracoacromial artery and concomitant vein were found to be 9.8 cm, Ø 4.2 mm, and Ø 4.9 mm, respectively. These results suggest the potential utility of a free pectoralis major flap with microvascular anastomosis.


2020 ◽  
Author(s):  
Peter Baláž ◽  
Jennifer Hanko ◽  
Hannah Magowan ◽  
Agnes Masengu ◽  
Katarina Lawrie ◽  
...  

Abstract Background Key anatomical factors mean that individuals needing arteriovenous access are unique and have different possibilities for fistula creation. The aim of this article is to describe a new classification system for all patients needing haemodialysis vascular access in the upper extremity with the purpose to simplify sharing the information about suitability for surgical access creation depending on vascular anatomy. Methods According to the patient’s vascular anatomy in right and left superior extremities, patients were separated into three arteriovenous access stages (AVAS). The AVAS was validated by three blinded observers using a sample of 70 upper limb arteriovenous maps that were performed using ultrasound on patients referred for vascular access assessment. A sample size calculation was performed and calculated that for three observers, a minimum of 67 maps were required to confirm significant agreement at a Kappa value of 0.9 (95% confidence interval 0.75–0.99). Results The Kappa value for inter-rater reliability using Fleiss’ Kappa coefficient was 0.94 and all patients fitted into the AVAS classification system. Conclusion The AVAS classification system is a simplified way to share information about vascular access options based on a patient’s vascular anatomy with high inter-rater reliability.


Sign in / Sign up

Export Citation Format

Share Document