Browsing by Author "Caro Pinto, Iván"
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- ItemDiseño e implementación de un modelo de enseñanza en ambiente simulado de paracentesis abdominal(2017) Uslar, Thomas; Pizarro Rojas, Margarita Alicia; Villagrán Gutiérrez, Ignacio Andrés; Chahuan, Javier; Caro Pinto, Iván; Marziano, Gianpiero; Irribarra, María Ignacia; Uribe, Javier; Ruz Ruz, Cristian Daniel; Villafranca, Carlos; Godoy, Camila; Ordenes, María Jesús; Orus,Cristian; Rodríguez, Sebastián; Roble, Javier
- ItemDISPOSITIVO DE MONTAJE PARA ADAPTACIÓN DE UNA SONDA URINARIA FOLEY COMO SONDA DE GASTROSTOMÍA ENDOSCÓPICA PERCUTÁNEA (PEG) PARA ALIMENTACIÓN ENTERAL (Chile, concesión n° 62189)Caro Pinto, Iván; Pattillo Silva, Juan Carlos; Vuletín, José; Zavala Busquets, Alejandro Luis; Campos, Mariel; Márquez Villablanca, Valentina; Romagnoli, Fernanda
- ItemDispositivo protésico implantable dentro del cuerpo cavernoso de un pene y su procedimiento de producción (Chile, concesión n° 69174)Marconi Toro Marcelo Carlos; González Ramos, Alberto; Caro Pinto, Iván
- ItemElaboración de un simulador de trauma torácico a partir de un torso cadavérico utilizando tecnología de imágenes digitales e impresión 3d(Sociedad de Cirujanos de Chile, 2021) Spoerer Ruiz-tagle Sebastian; Caro Pinto, Iván; Vela Ulloa, Javier Ignacio; Contreras Bertolo, Caterina; Ortiz Durán, Constanza Catalina; Achurra Tirado, Pablo Andrés; Varas Cohen, Julián Emanuel; Ramos Perkis, Juan Pablo; Jarufe Cassis, Nicolás Patricio; Riquelme Pizarro, Carlos Rodrigo; Garrido Cisterna, Francisco Javier; Inzunza Hernández, Oscar AlejandroTo describe the design and creation of a high-fidelity thoracic trauma surgery simulation model incorporating 3D printing technology using a cadaveric human torso as a model. Materials and Method: This is a descriptive study that aims to illustrate the creation process of a thoracic trauma surgery simulation model throughout the incorporation of prototypes and dynamic iteration tech-nologies. Results: A high-fidelity reusable thoracic trauma surgery simulation model was created from the digitalization of a cadaveric torso using a computed tomography scan. Throughout digital reconstruction tools, the subcutaneous, muscular, and skeletal structures were modeled from images obtained before and after an anterolateral thoracotomy. Using 3D printing and synthetic materials, a high-fidelity thoracic cavity was built so that perfused and ventilated porcine heart and lungs could be placed. A thoracotomy patch for the anterolateral thoracotomy was designed in a reusable and low-cost fashion. This simulation model is suitable for high fidelity training in the surgical management of cardiopulmonary traumatic injuries. Conclusion: The described methodology allowed the creation of a simulation model for training and assessment of surgical skills in thoracic trauma. The main compo-nents of the simulation model are made from reusable materials, broadening access to low-cost, high fidelity training.