Shaped surgical tool
A custom medical device may be fabricated based on a patient image with a rapid prototyping machine.
1 . A method of producing a customized surgical tool, comprising:
obtaining image data corresponding to a patient body region;
processing the image data to produce fabrication data; and
rapid prototyping the customized surgical tool according to the fabrication data.
2 . The method of claim 1 wherein processing the image data to produce fabrication data includes:
calculating a path.
3 . The method of claim 2 wherein calculating a path further includes:
identifying an entry region, a target region, and at least one avoidance region.
4 . The method of claim 3 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
rapid prototyping a tool shaped to enter the patient proximate to the entry region, arrive proximate to the target region, and substantially avoid the at least one avoidance region.
5 . The method of claim 3 wherein identifying at least one avoidance region further includes:
assigning a first risk level to a first region and comparing the first risk level to a threshold risk level.
6 . The method of claim 5 wherein identifying at least one avoidance region further includes:
assigning a second risk level to a second region different from the first region and comparing the second risk level to the threshold risk level.
7 . The method of claim 6 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
rapid prototyping a tool shaped to minimize an overall risk level, wherein the overall risk level is a function of the first risk level and the second risk level.
8 . The method of claim 1 wherein processing the image data to produce fabrication data further includes:
mapping a surgical route.
9 . The method of claim 8 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
rapid prototyping the customized surgical tool shaped according to the mapped surgical route.
10 . The method of claim 8 wherein mapping a surgical route further includes:
identifying an avoidance region and selecting the surgical route to circumnavigate the avoidance region.
11 . The method of claim 10 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
rapid prototyping the customized surgical tool such that it is configured to circumnavigate the avoidance region.
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19 . The method of claim 1 wherein processing the image data to produce fabrication data further includes:
identifying a first subregion of the patient body region;
obtaining a first evaluation of the first subregion of the patient body region; and
producing fabrication data according to the first evaluation.
20 . The method of claim 19 wherein processing the image data to produce fabrication data further includes:
identifying a second subregion of the patient body region different from the first subregion of the patient body region;
obtaining a second evaluation of the second subregion of the patient body region; and
producing fabrication data according to the second evaluation.
21 . The method of claim 20 wherein the first subregion overlaps at least in part with the second subregion.
22 . The method of claim 20 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
rapid prototyping the customized surgical tool according to the first and second evaluations.
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29 . The method of claim 1 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
bending an object to form a portion of the customized surgical tool.
30 . The method of claim 1 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
attaching two objects together to form a portion of the customized surgical tool.
31 . The method of claim 1 wherein rapid prototyping the customized surgical tool according to the fabrication data further includes:
forming a mold; and
conforming a material to the mold.
32 . A shaped surgical tool, comprising:
a self following, substantially rigid structure of a material suitable for insertion in living tissue of a user, the self following, substantially rigid structure having a shape defined by a user-specific route corresponding to a risk-defined routing through the living tissue, said shape being dynamically variable in response to a user input.
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55 . A system comprising:
an imaging system operative to provide a data set representative of a region of a patient;
path optimization circuitry operative to receive the data set representative of a region of a patient and responsive to the data set representative of a region of a patient to define a self-following path; and
a rapid prototyping machine responsive to the defined self-following path to produce an insertable device configured to follow the self-following path.
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57 . The system of claim 55 further including an energy exchange system arranged to exchange energy with the insertable device.
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63 . The system of claim 55 further including a system arranged to control the insertable device.
64 . The system of claim 63 wherein the system arranged to control the insertable device is arranged to control the shape of the insertable device.
65 . The system of claim 63 wherein the system arranged to control the insertable device is arranged to control the position of the insertable device.
66 . The system of claim 55 further including an imaging system operative to image the insertable device in a region of a patient.
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69 . The system of claim 55 wherein the path optimization circuitry operative to receive the data set representative of a region of a patient and responsive to the data set representative of a region of a patient to define a self-following path includes:
alignment structure logic configured to provide data representative of an alignment tool complementary to the insertable device.
70 . The system of claim 69 wherein the alignment structure logic configured to provide data representative of an alignment tool complementary to the insertable device is further configured to provide conforming data representative of a surface substantially conforming to an outer surface of the patient.
71 . The system of claim 70 wherein the conforming data representative of a surface substantially conforming to an outer surface of the patient includes data representative of a surface substantially conforming to a patient cranial region.
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73 . The system of claim 55 wherein the rapid prototyping machine is a metal fabrication machine.
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75 . The system of claim 55 further including a sterilizer configured to disable a biomaterial proximate to the insertable device.
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