11 results about "Surgical simulator" patented technology

A surgical simulator includes a haptic arm capable of simulating forces generated during a surgery from an interaction between a surgical tool and operated tissue. The simulator also includes a visual display capable of displaying a three-dimensional image simulating a physics-based computer model of the surgical tool and tissue. The haptic arm controls the movement and orientation of the simulation tool in the three-dimensional image and provides haptic feedback forces to simulate forces experienced during surgery. Methods for simulating surgery and training a user of the simulator are also described.

The invention provides a mitral valve clip operation simulator which comprises a bottom plate, and a first side of the bottom plate is provided with a first storage groove and a second storage groove; the first module is provided with an atrial septum simulation part and a mitral valve simulation part, and the first module is arranged on the bottom plate in the mode that the first module can be switched between an unfolded state and a folded state; the second module is provided with a lower cavity tube used for simulating the inferior vena cava, and the second module is arranged on the bottom plate in a mode of being capable of being switched between an unfolded state and a folded state; when the first module is in an unfolded state, the atrial septum simulation part and the mitral valve simulation part protrude out of the bottom plate, and the positions of the atrial septum simulation part and the mitral valve simulation part form an analogue simulation position; when the second module is in an unfolded state, the lower cavity tube protrudes out of the bottom plate to form a surgical instrument access path; when the first module is in the folded state, the first module is integrally contained in the first containing groove, and when the second module is in the folded state, the second module is integrally contained in the second containing groove.

1. Name of the product in this design: Neurointerventional surgery simulator. 2. Application of this design: for use in medical teaching, training, and scientific research in neurointerventional surgery. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

The invention provides a tricuspid valve clip operation simulator which comprises a bottom plate, and a first side of the bottom plate is provided with a first storage groove and a second storage groove; the first module is provided with a tricuspid valve simulation part, and the first module is arranged on the bottom plate in a mode that the first module can be switched between an unfolded state and a folded state; the second module is provided with a lower cavity tube used for simulating the inferior vena cava, and the second module is arranged on the bottom plate in the mode that the second module can be switched between the unfolded state and the folded state; when the first module is in an unfolded state, the tricuspid valve simulation part protrudes out of the bottom plate, and the tricuspid valve simulation part and the bottom plate form an analogue simulation position; when the second module is in an unfolded state, the lower cavity tube protrudes out of the bottom plate to form a surgical instrument access path; when the first module is in the folded state, the first module is integrally contained in the first containing groove, and when the second module is in the folded state, the second module is integrally contained in the second containing groove.

A surgical simulator comprising a haptic arm capable of simulating forces generated during surgery from interactions between a surgical tool and tissue operated upon. The simulator further comprises a visual display capable of depicting a three-dimensional image of the simulated surgical tool and a physics-based computer model of the tissue. The haptic arm controls the movement and orientation of the simulated tool in the three-dimensional image, and provides haptic feedback forces to simulate forces experienced during surgery. Methods for simulating surgery and training users of the simulator are also described.

A surgical simulator and a simulation method are disclosed. The surgical simulator includes a blood vessel model. The blood vessel model includes an aorta model simulating a case of replacing a part of the thoracic aorta of a human body with an artificial blood vessel. The aorta model includes a simulated vessel and an artificial blood vessel, or a medical device, connected to the simulated vessel.

FIELD: medicine.SUBSTANCE: invention relates to simulators for practicing skills of applying surgical sutures to the skin and techniques of tying surgical knots. The simulator includes a multi-layer cushion simulating human tissues, a simulation of vessels in the tissues, and has a rectangular shape with rounded edges measuring 20 by 15 cm and a height of 1.8 cm. The simulator is made of hypoallergenic polymers and contains four layers simulating human tissues - epidermis, dermis, subcutaneous fat, muscles. Vessels of various diameters, filled with a liquid imitating blood, run in the subcutaneous layer. A flap of PVC artificial leather having a skin texture, treated with liquid release wax IZHWAX SP, is placed on a platform with legs measuring 25 by 20 cm. A part in the form of a side 1.75 mm high, printed on a 3D printer, is placed on the flap. A nylon stretch mesh with a density of 110 g / m2 is stretched over the part. The stretch mesh is fixed to the platform with clamps. A part in the form of an outer side with 'ears' 17 mm high, printed on a 3D printer, is installed on the mesh. The entire structure is completely pressed against the base using clamps so that the nylon mesh remains stretched. Platinum silicone rubber of appropriate parameters is poured into a separate container. The components are mixed and coloured with a dye for epoxy resin, and after the last layer hardens, all the existing 3D-printed sides and other parts are separated. The excess stretch mesh is cut off.EFFECT: possibility of performing training of intramuscular injection, layer-by-layer dissection of the simulator layers with a scalpel down to the underlying layers and applying sutures in hard-to-reach places, in particular on the muscle layer, fascia, aponeurosis.1 cl, 1 dwg

1. Name of the product in this design: Surgical Simulator (Cerebral Vascular Intervention). 2. Purpose of this design: This design is used for cerebrovascular intervention simulation. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. If the left and right views are symmetrical, the right view is omitted; if the front and rear views are symmetrical, the rear view is omitted.

A dental procedure simulator (1) is disclosed comprising a computer (80) configured to simulate a dental treatment, a parallel robot (40) providing haptic force feedback, and a handpiece (30) coupled to the robot by a mechanism offering multiple rotational degrees of freedom. A display screen (9) presents a virtual environment, the images of which are reflected to the user by a partially transparent reflective element (7) while simultaneously allowing direct viewing of a real workspace (W). This mixed-reality arrangement enables the user to see both virtual objects, including a virtual handpiece co-located with the real handpiece (30), and physical components such as phantom jaws (13, 14) or a phantom head (10). Sensors may detect movement and orientation of the handpiece and phantom jaws, allowing the virtual environment to be updated accordingly. The system supports realistic simulation through combined visual and haptic feedback and may additionally provide training using physical phantom teeth (22).

24 20936646_1 (GHMatters) P107159.AU.2 Abstract A surgical simulator for surgical training is provided. The simulator includes a frame defining an enclosure and a simulated tissue model located inside an enclosure. The simulated tissue model is adapted for practicing hysterectomies and includes at least a simulated uterus and a simulated vagina. The simulated tissue model is suspending inside the enclosure with two planar sheets of silicone such that the tissue model is located between the two sheets each of which form a fold and are in turn connected to the frame. The frame may be shaped like a cylinder and located inside a cavity of a larger laparoscopic trainer having a penetrable simulated abdominal wall. The tissue model is interchangeable and accessible laterally through an aperture provided in a support leg of the trainer. Abstract A surgical simulator for surgical training is provided. The simulator includes a frame defining an enclosure and a simulated tissue model located inside an enclosure. The simulated tissue model is adapted for practicing hysterectomies and includes at least a simulated uterus and a simulated vagina. The simulated tissue model is suspending inside the enclosure with two planar sheets of silicone such that the tissue model is located between the two sheets each of which form a fold and are in turn connected to the frame. The frame may be shaped like a cylinder and located inside a cavity of a larger laparoscopic trainer having a penetrable simulated abdominal wall. The tissue model is interchangeable and accessible laterally through an aperture provided in a support leg of the trainer. 24 20936646_1 (GHMatters) P107159.AU.2 20 24 20 42 39 20 J un 2 02 4 A b s t r a c t 2 0 2 4 2 0 4 2 3 9 2 0 J u n 2 0 2 4 m o d e l i s l o c a t e d b e t w e e n t h e t w o s h e e t s e a c h o f w h i c h f o r m a f o l d a n d a r e i n t u r n