Utilizing additive manufacturing and gamified virtual simulation in the design of neuroprosthetics to improve pediatric outcomes

Manero, Albert; Smith, Peter A.; Sparkman, John; Dombrowski, Matt; Courbin, Dominique; Barclay, Paul; Chi, Albert

doi:10.1557/mrc.2019.99

Cited by 10 publications

(5 citation statements)

References 17 publications

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“…The allocation is difficult to maximize, and the scale effect of cultural and creative industries is difficult to play, and the overall competitive advantage is lost. Therefore, it is necessary to correctly handle the relationship between the government and cultural and creative enterprises, clarify the division of rights, responsibilities, and benefits between the two, and give full play to the resource allocation role of the "invisible hand" of the market, so that the enterprise becomes the real main body of the market [4].…”

Section: Overview Of the Development Of Cultural Andmentioning

confidence: 99%

[Retracted] Interactive Innovation Research on Film Animation Based on Maya‐Unity Animation Simulation of Visual Sensor

Sang

2021

Journal of Sensors

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At present, enhancing the understanding of the importance of the development of cultural and creative industries and grasping the future development trends of the whole society has become the primary issue for the development of this industry in our country. The main work of this paper is based on the interactive innovation research of visual sensor Maya-Unity animation simulation in film and television animation. Maya Unity puts the required lights on the model, adds texture materials, etc., selects all objects, and uses the “Mesh- > Combine” command. Then, open “Create UV->Automatic Mapping” for these objects to perform the UV operation. Open “Window-> UV Texture Editor” and check the new UV for baking. First, the article introduces an overview of the development of cultural and creative industries and the application status of virtual simulation technology in film and television animation. Then, the article introduces the characteristics of visual sensors and interactive design ideas. The scene view displays the document from a graphical perspective, while the code view displays the text content of the document. Both views must be displayed in the split window Dreamer, and only one view can be displayed at the same time; so, it is necessary to establish a button for scene and code switching. The animation scene will change with the passage of time following the development of the story. Therefore, in the lighting design, the animation changes of light intensity and color temperature should be produced. The time to complete a frame of image matching is 135 ms, and to complete a feature measurement, 8 frames of images are used for template matching, and then the average coordinate value is calculated, which takes about 135 × 8 = 1080 ms , which meets the system requirements. The main effect of the text effect is very significant, F = 13.780 , P < 0.001 . Comparison of effect between development and middle to two sides, P = 0.02 , P < 0.05 . The results show that the use of Maya-Unity software for animation simulation can make the rendering of the animation more beautiful.

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Section: Overview Of the Development Of Cultural Andmentioning

confidence: 99%

[Retracted] Interactive Innovation Research on Film Animation Based on Maya‐Unity Animation Simulation of Visual Sensor

Sang

2021

Journal of Sensors

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“…Firstly, it can reduce the use of threshold. Compared with the traditional methods, the use of 3D garment CAD system needs to be simpler and more applicable to a wider range of people [5]. Secondly, the simulation effect is real and clear at a glance.…”

Section: Introductionmentioning

confidence: 99%

Virtual Garment Piece Design and Stitching Algorithm Based on Virtual Simulation Technology

2022

Security and Communication Networks

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Modern computer-aided design (CAD) technology is widely used in the field of fashion design. Designers do not have to draw again every time they carry out template design, but can draw and change graphic design drawings directly on the computer using CAD technology. In this way, the designer can see the fitting effect of two-dimensional clothing on the three-dimensional human body in real time in the process of garment graphic design, and the three-dimensional fitting results can change in real time according to the change in two-dimensional clothing pieces. Then, the efficiency of garment design will be greatly improved, and the labor cost and resource time cost will be greatly reduced, and if the cloth of fitting can be highly simulated, the virtual fitting will have more real effect and higher value. Virtual clothing design has always played an important role in the clothing manufacturing industry. In recent years, there are more and more application scenarios of computer-aided design of clothing, and it has good engineering application value to study and realize a reasonable and efficient virtual sewing algorithm for clothing pieces. At home and abroad, the research on 3D clothing fitting technology has gradually deepened, and a series of research results have been achieved in the aspects of clothing piece modeling, clothing piece stitching, and collision detection. However, the traditional collision detection algorithm has an infinite loop in the establishment of the bounding box. At the same time, the time complexity of the collision detection algorithm is high. Based on the “personalized virtual clothing design system platform” independently developed by the research group, this study realizes the interactive design function of clothing pieces and researches and realizes the sewing and folding algorithm of clothing pieces. The clothing piece is triangulated, the generated triangular mesh is used to simulate clothing, finite element analysis is used to simulate the physical movement of clothing, and distance field technology is used to simulate the collision effect between the 3D human model and the clothing piece. To achieve the realistic folding effect of 3D virtual clothes, a seam folding algorithm is suggested, which puts extra bending force limits on patches near the seam, and it works well in the test environment. The stress state of the garment is recreated by assessing the internal and exterior pressures on the fabric. Second, using three-dimensional virtual stitching technology, the two-dimensional clothing is turned into a three-dimensional garment. Finally, the bounding box tree for the clothing and the human body is built. Finally, the bounding box detection algorithm detects and handles the collision between the fabric and the human body during sewing. Finally, texture mapping between fabric and bitmap is used to approximate the garment’s true texture effect. Finally, by investigating the application process of wind force on the fabric, the dynamic impact of cloth under wind is simulated. At present, this technology can simulate the dressing effect of conventional clothing categories, and it can obtain ideal dynamic simulation effect of cloth under the condition of wind blowing.

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“…The response to this unique challenge surrounding the COVID-19 surge response is built on lessons learned from establishing 3D printed prosthetic networks and their integration with medical institutions [18][19][20]. Similar challenges regarding adequate regulation, sustaining coalition efforts, production methods, quality control, and design sharing are present.…”

Section: Discussionmentioning

confidence: 99%

Leveraging 3D Printing Capacity in Times of Crisis: Recommendations for COVID-19 Distributed Manufacturing for Medical Equipment Rapid Response

Manero

Smith

Koontz

et al. 2020

IJERPH

Self Cite

101

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The SARS-CoV-2 (COVID-19) pandemic has provided a unique set of global supply chain limitations with an exponentially growing surge of patients requiring care. The needs for Personal Protective Equipment (PPE) for hospital staff and doctors have been overwhelming, even just to rule out patients not infected. High demand for traditionally manufactured devices, challenged by global demand and limited production, has resulted in a call for additive manufactured (3D printed) equipment to fill the gap between traditional manufacturing cycles. This method has the unique ability to pivot in real time, while traditional manufacturing may take months to change production runs. 3D printing has been used to produce a variety of equipment for hospitals including face shields, masks, and even ventilator components to handle the surge. This type of rapid, crowd sourced, design and production resulted in new challenges for regulation, liability, and distribution. This manuscript reviews these challenges and successes of additive manufacturing and provides a forward plan for hospitals to consider for future surge events. Recommendations: To accommodate future surges, hospitals and municipalities should develop capacity for short-run custom production, enabling them to validate new designs. This will rapidly increase access to vetted equipment and critical network sharing with community distributed manufacturers and partners. Clear guidance and reviewed design repositories by regulatory authorities will streamline efforts to combat future pandemic waives or other surge events.

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Utilizing additive manufacturing and gamified virtual simulation in the design of neuroprosthetics to improve pediatric outcomes

Abstract: Abstract

Cited by 10 publications

References 17 publications

[Retracted] Interactive Innovation Research on Film Animation Based on Maya‐Unity Animation Simulation of Visual Sensor

[Retracted] Interactive Innovation Research on Film Animation Based on Maya‐Unity Animation Simulation of Visual Sensor

Virtual Garment Piece Design and Stitching Algorithm Based on Virtual Simulation Technology

Leveraging 3D Printing Capacity in Times of Crisis: Recommendations for COVID-19 Distributed Manufacturing for Medical Equipment Rapid Response

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