Improved Planning of Endoscopic Sinonasal Surgery From 3-Dimensional Images With Osirix® and Stereolithography

Sánchez‐Gómez, Serafín; Herrero-Salado, Tomás; Maza‐Solano, Juan; Ropero-Romero, Francisco; García, J. González; Fernández, Jesús Ambrosiani

doi:10.1016/j.otoeng.2014.10.013

Cited by 7 publications

(6 citation statements)

References 25 publications

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“…printed unique patient-specific models in 7 frontoethmoidal mucoceles. 7 Grau et al. printed a skull base model prior to cerebrospinal fluid leakage repair using transfrontal, radial adipofascial flap.…”

Section: Discussionmentioning

confidence: 99%

“…Sanchez-Gomez et al have found that the ability to manipulate a surgical model preoperatively allows them to perform endoscopic surgery with more confidence and efficiency then they otherwise would in their clinical practice. 7 In addition, it may allow the surgeon to better assess a proposed surgical corridor in 3 dimensions to determine the limitations of exposure for a proposed surgical approach. The reviewed articles included a wide variety of 3D printed models of pathology and anatomic regions of the skull base.…”

Section: Surgical Planningmentioning

confidence: 99%

“…Sanchez-Gomez et al printed unique patient-specific models in 7 frontoethmoidal mucoceles. 7 Grau et al printed a skull base model prior to cerebrospinal fluid leakage repair using transfrontal, radial adipofascial flap. 8 Shinomiya et al utilized 3D printed models prior to resection for endoscopic endonasal transsphenoidal surgery of pituitary adenoma.…”

Section: Surgical Planningmentioning

confidence: 99%

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Three-Dimensional Printing: Current Use in Rhinology and Endoscopic Skull Base Surgery

Low

Morris

Price

et al. 2019

Am J Rhinol�Allergy

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Background In the discipline of rhinology and endoscopic skull base surgery (ESBS), 3-dimensional (3D) printing has found meaningful application in areas including preoperative surgical planning as well as in surgical education. However, its scope of use may be limited due to the perception among surgeons that there exists a prohibitively high initial investment in resources and time to acquire the requisite technical expertise. Nevertheless, given the ever decreasing cost of advancing technology coupled with the need to understand the complex spatial relationships of the paranasal sinuses and skull base, the use of 3D printing in rhinology and ESBS is poised to blossom. Objective Help the reader identify current or potential future uses of 3D printing technology relevant to their rhinologic clinical or educational practice. Methods A review of published literature relating to 3D printing in rhinology and ESBS was performed. Results Results were reviewed and organized into 5 overarching categories including an overview of the 3D printing process as well as applications of 3D printing including (1) surgical planning, (2) custom prosthetics and implants, (3) patient education, and (4) surgical teaching and assessment. Conclusion In the discipline of rhinology and ESBS, 3D printing finds use in the areas of presurgical planning, patient education, prosthesis creation, and trainee education. As this technology moves forward, these products will be more broadly available to providers in the clinical and educational setting. The possible applications are vast and have great potential to positively impact surgical training, patient satisfaction, and most importantly, patient outcomes.

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Section: Discussionmentioning

confidence: 99%

Section: Surgical Planningmentioning

confidence: 99%

Section: Surgical Planningmentioning

confidence: 99%

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Three-Dimensional Printing: Current Use in Rhinology and Endoscopic Skull Base Surgery

Low

Morris

Price

et al. 2019

Am J Rhinol�Allergy

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“…Moreover, also some open source applications have been developed for 3D reconstruction, such as 3D Slicer [1], MITK [30], DeVide [35], Invesalius 3 [25]. Among them, the most important tools are Osirix and 3D Slicer that can be used for diagnosis [14,16,22,44], surgery [7,16,32,41] and 3D reconstruction of organs for 3D printing and medical evaluation [18,31].…”

Section: D Acquisitionmentioning

confidence: 99%

3D interactive environment for the design of medical devices

Colombo

Rizzi

Regazzoni

et al. 2018

Int J Interact Des Manuf

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The effectiveness of custom-made prostheses or orthoses heavily depends on the experience and skills of the personnel involved in their production. For complex devices, such as lower limb prosthesis, a conventional manual approach affects the process at the point that the result is frequently not acceptable at the first trial. The paper presents a computer-aided environment, named socket modelling assistant 2 (i.e., SMA 2 ), to interactively design the socket of lower limb prosthesis by implementing a set of design rules extrapolated from the traditional development process. The new computer-aided environment has been implemented embracing a low-cost philosophy and using open source libraries to provide a solution affordable also by small orthopaedic laboratories. The system permits to modify and interact with the 3D model of residual limb to create the socket geometric model ready to be manufactured by means of additive manufacturing. SMA 2 embeds medical knowledge related to the device functioning, the conventional process and the way orthopaedic technicians work so that it can be much more reliable and repeatable compared to the conventional process, but still enough similar to it to be accepted by the involved personnel. In the paper, the new 3D design procedure is described in detail, from the acquisition of patient's data to preliminary and customized modelling, and new geometric tools to perform context-related operations are shown. A case study is used to clarify the way the system works and to provide an example of the outcome.

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“…The VU we created is not a true simulator in nature, but rather a computer simulation of 3D reconstruction for improving anatomy and stone understanding. Osirix viewer, a popular Dicom data processing software, works in a similar fashion to present 3D reconstruction and navigation in a variety specialties, 12,13 but not yet on the urinary tract.…”

Section: Virtual Endoscopy (Ve) Is a Technique In Which Computer-simulated 3d Viewing Of Hollow Structures Basedmentioning

confidence: 99%

Establishment and Evaluation of Patient-Specific Virtual Ureteroscopy in Assisting Flexible Ureteroscopy for Urolithiasis

Zhang

et al. 2017

Surg Innov

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Improved Planning of Endoscopic Sinonasal Surgery From 3-Dimensional Images With Osirix® and Stereolithography

Cited by 7 publications

References 25 publications

Three-Dimensional Printing: Current Use in Rhinology and Endoscopic Skull Base Surgery

Three-Dimensional Printing: Current Use in Rhinology and Endoscopic Skull Base Surgery

3D interactive environment for the design of medical devices

Establishment and Evaluation of Patient-Specific Virtual Ureteroscopy in Assisting Flexible Ureteroscopy for Urolithiasis

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