INFORMATION PROCESSING DEVICE, THREE-DIMENSIONAL SHAPE DATA GENERATION DEVICE, THREE-DIMENSIONAL SHAPING DEVICE, AND NON-TRANSITORY COMPUTER READABLE MEDIUM
An information processing device includes a processor configured to: when designing a three-dimensional shape made of an anisotropic material that is a material having physical property values in different directions, acquire (i) the physical property values of the anisotropic material in respective directions and (ii) performance information that is information regarding (a) a required performance that the three-dimensional shape is required to have and (b) a required direction in which the three-dimensional shape is required to exhibit the required performance, derive information for arranging the anisotropic material such that the required direction corresponds to a direction of the anisotropic material satisfying the required performance, and output the information for arranging the anisotropic material.
1 . An information processing device comprising:
a processor configured to:
when designing a three-dimensional shape made of an anisotropic material that is a material having physical property values in different directions,
acquire (i) the physical property values of the anisotropic material in respective directions and (ii) performance information that is information regarding (a) a required performance that the three-dimensional shape is required to have and (b) a required direction in which the three-dimensional shape is required to exhibit the required performance,
derive information for arranging the anisotropic material such that the required direction corresponds to a direction of the anisotropic material satisfying the required performance, and
output the information for arranging the anisotropic material.
2 . The information processing device according to claim 1 , wherein
the processor is configured to:
further acquire a plurality of the directions of the anisotropic material and a plurality of the required directions, and
arrange the anisotropic material such that each of the plurality of directions of the anisotropic material corresponds to a respective one of the plurality of required directions.
3 . The information processing device according to claim 2 , wherein
the processor is configured to:
further acquire priorities of the plurality of directions of the anisotropic material, and
output the information for arranging the anisotropic material according to the priorities.
4 . The information processing device according to claim 1 , wherein
the processor is configured to:
further acquire constraint information that is information regarding constraints on a direction in which the anisotropic material can be arranged, and
arrange the anisotropic material according to the constraint information.
5 . The information processing device according to claim 2 , wherein
the processor is configured to:
further acquire constraint information that is information regarding constraints on a direction in which the anisotropic material can be arranged, and
arrange the anisotropic material according to the constraint information.
6 . The information processing device according to claim 3 , wherein
the processor is configured to:
further acquire constraint information that is information regarding constraints on a direction in which the anisotropic material can be arranged, and
arrange the anisotropic material according to the constraint information.
7 . The information processing device according to claim 4 , wherein
the processor is configured to:
when the required direction does not correspond to the direction of the anisotropic material, arrange the anisotropic material in a direction that satisfies the required performance and is closest to the required direction among directions in which the anisotropic material can be arranged in accordance with the constraint information.
8 . The information processing device according to claim 4 , wherein
the processor is configured to:
when the required direction does not correspond to the direction of the anisotropic material, arrange the anisotropic material in a direction in which the anisotropic material has the physical property value closest to the required performance among the directions of the anisotropic material corresponding to the required direction.
9 . The information processing device according to claim 1 , wherein
the processor is configured to:
arrange the anisotropic material such that a direction in which the physical property value of the anisotropic material is maximum corresponds to the required direction.
10 . The information processing device according to claim 4 , wherein
the processor is configured to:
arrange the anisotropic material such that a direction in which the physical property value of the anisotropic material is maximum corresponds to the required direction.
11 . The information processing device according to claim 7 , wherein
the processor is configured to:
arrange the anisotropic material such that a direction in which the physical property value of the anisotropic material is maximum corresponds to the required direction.
12 . The information processing device according to claim 8 , wherein
the processor is configured to:
arrange the anisotropic material such that a direction in which the physical property value of the anisotropic material is maximum corresponds to the required direction.
13 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 1 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the direction of the anisotropic material corresponds to the required direction.
14 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 2 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the directions of the anisotropic material corresponds to the required directions.
15 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 3 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the directions of the anisotropic material corresponds to the required directions.
16 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 4 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the direction of the anisotropic material corresponds to the required direction.
17 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 5 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the directions of the anisotropic material corresponds to the required directions.
18 . A three-dimensional shape data generation device comprising:
the information processing device according to claim 6 ; and
a generator that uses the information derived by the information processing device to generate three-dimensional shape data for shaping the three-dimensional shape such that the directions of the anisotropic material corresponds to the required directions.
19 . A three-dimensional shaping device comprising:
the three-dimensional shape data generation device according to claim 13 ; and
a shaping unit that shapes the three-dimensional shape under shaping conditions according to the three-dimensional shape data generated by the three-dimensional shape data generation device.
20 . A non-transitory computer readable medium storing a program that causes a processor to execute information processing, the information processing comprising:
when designing a three-dimensional shape made of an anisotropic material that is a material having physical property values in different directions,
acquiring (i) the physical property values of the anisotropic material in respective directions and (ii) performance information that is information regarding (a) a required performance that the three-dimensional shape is required to have and (b) a required direction in which the three-dimensional shape is required to exhibit the performance,
deriving information for arranging the anisotropic material such that the required direction corresponds to a direction of the anisotropic material in which the physical property value of the anisotropic material satisfying the required performance is achieved, and
outputting the information for arranging the anisotropic material.