Laser-assisted vascular anastomosis (LAVA) is a technique to fuse blood vessels by using laser energy with possible applications in almost all medical fields. This technique is based on the energy absorption by a chromophore with subsequent heating of the underlying tissue. The focus of this thesis was the development of an electrospun solder patch and the exploration of the applicability of the patch for LAVA using medium-sized arteries. Current challenges in the development of a new biomaterial and soldering technique for sutureless LAVA are discussed and can guide future research
Background and Objective: The addition of poly(lactic-co-glycolic) acid (PLGA) scaffolds to liquid s...
BACKGROUND AND OBJECTIVES: Laser-based repairing techniques offer several advantages respect to sta...
Laser welding of microvessels provides several advantages over conventional suturing techniques: sur...
Laser-assisted vascular anastomosis (LAVA) is a technique to fuse blood vessels by using laser energ...
BACKGROUND AND OBJECTIVE Electrospun meshes have been extensively investigated for tissue enginee...
Microvascular surgery is time consuming and requires high expertise. Laser-assisted vascular anastom...
Objective The low welding strength of laser-assisted vascular anastomosis (LAVA) has hampered the cl...
The laser welding of biological tissues is a particular use of lasers in surgery. The technique has ...
Laser assisted vascular anastomosis has been reported to have potential advantages over sutured anas...
The common limitation of surgical revascularization procedures for severe tissue ischemia due to car...
Poor welding strength constitutes an obstacle in the clinical employment of laser-assisted vascular ...
AbstractObjectives. Laser assisted vascular anastomosis (LAVA) has been developed to a stage where c...
Laser assisted vascular repair is a new optimized technique based on the use of ICG-infused chitosan...
The ideal anastomosis is one that reproduces the continuity of the vessel, causing the least disrupt...
Laser-based approach for suturing biological tissues is emerging as a valid alternative to conventio...
Background and Objective: The addition of poly(lactic-co-glycolic) acid (PLGA) scaffolds to liquid s...
BACKGROUND AND OBJECTIVES: Laser-based repairing techniques offer several advantages respect to sta...
Laser welding of microvessels provides several advantages over conventional suturing techniques: sur...
Laser-assisted vascular anastomosis (LAVA) is a technique to fuse blood vessels by using laser energ...
BACKGROUND AND OBJECTIVE Electrospun meshes have been extensively investigated for tissue enginee...
Microvascular surgery is time consuming and requires high expertise. Laser-assisted vascular anastom...
Objective The low welding strength of laser-assisted vascular anastomosis (LAVA) has hampered the cl...
The laser welding of biological tissues is a particular use of lasers in surgery. The technique has ...
Laser assisted vascular anastomosis has been reported to have potential advantages over sutured anas...
The common limitation of surgical revascularization procedures for severe tissue ischemia due to car...
Poor welding strength constitutes an obstacle in the clinical employment of laser-assisted vascular ...
AbstractObjectives. Laser assisted vascular anastomosis (LAVA) has been developed to a stage where c...
Laser assisted vascular repair is a new optimized technique based on the use of ICG-infused chitosan...
The ideal anastomosis is one that reproduces the continuity of the vessel, causing the least disrupt...
Laser-based approach for suturing biological tissues is emerging as a valid alternative to conventio...
Background and Objective: The addition of poly(lactic-co-glycolic) acid (PLGA) scaffolds to liquid s...
BACKGROUND AND OBJECTIVES: Laser-based repairing techniques offer several advantages respect to sta...
Laser welding of microvessels provides several advantages over conventional suturing techniques: sur...