Anterior Capsular Tear
Anterior Capsular Tear - Related Videos
04:27
Anterior Capsular Reconstruction with Human Dermal Allograft for Irreparable Subscapularis Tears
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2025
This article details an open anterior capsular reconstruction technique using human dermal allograft for irreparable subscapularis tears, providing structural support and enhancing functional outcomes through precise graft fixation and rehabilitation.
07:10
Modified Long Head of Biceps Tendon Rerouting and Fixation as Partial Capsular Reconstruction for Massive Irreparable Rotator Cuff Tears
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2026
We propose a technical modification for capsular reconstruction that utilizes arthroscopic rerouting and fixation of the long head of the biceps tendon to enhance the repair of massive irreparable rotator cuff tears.
08:25
Circumscribed Capsular Infarct Modeling Using a Photothrombotic Technique
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Cited by 8 •
2016
This manuscript describes a modeling technique of capsular infarct. Here we utilized a modified photothrombotic technique with low intensity of light after pre-surgery target mapping. Using this technique, we created a circumscribed capsular infarct model with persistent motor impairment.
04:25
Capsular Serotyping of Streptococcus pneumoniae Using the Quellung Reaction
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Cited by 86 •
2014
The Quellung reaction is the gold standard technique for serotyping Streptococcus pneumoniae. This technique utilizes a microscope and specific pneumococcal antisera and is commonly used in reference and research laboratories worldwide.
04:36
Implantation Protocol of the Foldable Capsular Vitreous Body for Complex Vitreoretinal Surgery
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2026
The Foldable Capsular Vitreous Body (FCVB) is an intraocular implant that encapsulates silicone oil within a flexible capsule to reduce silicone oil-related complications. This protocol describes the surgical implantation of the FCVB via scleral incision for the treatment of complex retinal detachment and ocular trauma.
FAQs
The direction of a tear is clinically important because an anterior capsular defect may remain localized or continue posteriorly. A tear that progresses can alter the integrity of the capsular bag and change the options for placing the intraocular lens. Monitoring its course therefore links the observed capsule geometry directly to surgical planning and the expected stability of the repair strategy.
Three features guide interpretation: size, location, and direction. Size indicates the extent of the defect, location shows how close it is to the capsule’s edge, and direction helps indicate whether posterior extension is possible. Considering these features together is more informative than labeling every tear alike, because they determine stability and the subsequent approach to lens removal and support.
Extension can begin through different stress pathways. A continuous curvilinear capsulorhexis may run toward the capsule’s edge, while instruments or lens fragments can transmit force to the capsule and supporting zonules. Distinguishing these circumstances matters because the clinician must account not only for the visible opening but also for the structures experiencing stress during cataract surgery.
Assessment should focus on the tear’s size, location, and direction, along with whether it is extending posteriorly. Clinicians also consider the condition of the capsule and supporting zonules because both influence lens-removal choices, capsule support, and intraocular lens placement. This structured review helps convert recognition of the complication into a tailored surgical plan rather than a uniform response.
The defect can affect whether the capsular bag remains a suitable site for lens placement. If the tear is stable, planning may differ from a tear that progresses posteriorly or compromises capsule support. Consequently, the surgeon must integrate tear geometry with lens-removal and support decisions, then select an intraocular lens strategy consistent with the remaining capsule.
Monitoring matters because the tear can change from a localized anterior problem into posterior progression, with consequences for capsule stability and surgical planning. Observing its size, location, and direction provides the information needed to reassess lens removal, capsule support, and intraocular lens placement. The same process also informs postoperative care planning after the operative decisions are made.