혁신적인 3D 프린팅 전기 모터 설계와 도전 과제

오픈소스 소프트웨어가 다중 재료 3D 프린팅을 이용한 획기적인 전기 모터 디자인을 공개하며 미래의 모터로서의 잠재력에 대한 의문을 제기합니다.

### 전기 모터의 미래: 다중 재료 3D 프린팅의 혁신
* 🔌 전기 모터는 **전기 에너지를 기계 에너지로 변환**하거나 그 반대로 변환하는 다양한 애플리케이션에 필수적입니다.
* 🌀 모터는 **고정자, 회전자, 정류자, 전원**과 같은 공통 구성 요소로 구성되며, 유형에 따라 다양한 효율과 전력 밀도 수준을 제공합니다.
* 🌐 3D 프린팅 기술의 등장으로 모터 설계에 혁명을 일으켜 **맞춤형 구리 코일과 같은 복잡한 구조**를 구현하고 기존의 라미네이션 공정을 대체할 수 있게 되었습니다.
* 🎛 오픈 소스 소프트웨어인 Pico GK는 **고정자와 코일 어셈블리가 서로 얽혀 있는 다중 재료 3D 프린팅**을 특징으로 하는 획기적인 모터 설계를 공개했습니다.
* 📊 효율성과 전력 밀도는 모터 성능의 중요한 척도이며, 일반적으로 **영구 자석 모터는 높은 비용에도 불구하고 최적의 균형**을 위해 선호됩니다.
* 🔮 이 혁신적인 모터 설계의 미래는 아직 불확실하며, **경제성과 확장성이 광범위한 채택을 위한 주요 고려 사항**입니다.
* 💡 새로운 모터 설계는 효율성과 맞춤화 측면에서 가능성을 보여주지만, **3D 프린팅 구리 코일의 전도도 손실**과 같은 문제는 여전히 해결해야 할 과제입니다.
* 💰 투자자들은 이러한 혁신에 흥미를 느끼면서도 신중한 태도를 유지하며 **잠재적 보상과 새로운 기술과 관련된 위험 및 과제 사이의 균형**을 맞추고 있습니다.

[Music] An open-source software has unveiled a groundbreaking electric motor design that incorporates multimaterial 3D printing. This innovative motor features an intertwined stator and coil assembly, raising questions about its potential as the motor of the future. Furthermore, the advent of artificial intelligence has prompted a comparison between its efficiency and human engineering capabilities. We explore the modern motor components, electric motor, its various components, and the significance of efficiency and power density measurements. Additionally, we delve into the challenges and advancements in material science, as well as the merits and drawbacks of different motor designs. Electric motors, such as the modern motor components electric motor, consist of multiple components, including a fixed stator and a movable rotor. The interaction between these components generates a magnetic flux, enabling rotational movement of the motor shaft. While motors can be made with different materials, their efficiency and power density are crucial factors. Efficiency refers to the ratio between power input and output, while power density represents the amount of power output per unit volume. Power density and motor types. Various motor types exhibit different Power

density characteristics synchronous motors, for instance, can achieve high efficiency levels, with some models reaching up to 97%. However, power density varies significantly between induction and permanent magnet motors. For optimal performance in terms of both efficiency and power density, permanent magnet motors are preferred despite their higher cost. On the other hand, induction motors are more cost-effective, but they present limitations such as speed control issues, lower efficiencies at low loads, and inadequate starting torque. While magnet-free designs, such as the ones introduced by Tesla, ZF, and Moly, aim to overcome these challenges, they require modifications to be suitable for electric vehicles. Advancements in 3D printing and material science: The emergence of 3D printing technology has paved the way for exciting developments in motor design. The ability to 3D print copper coils, for instance, offers intriguing possibilities. Laser powder bed 3D printing enables the creation of complex shapes, resulting in fascinating magnetic fields. Algorithmic engineering now allows for custom-made copper coil designs, which can be fabricated using additive manufacturing.

techniques. However, the motor core remains a challenge. Traditional assembly of metal steel laminations can potentially be replaced by additive manufacturing, allowing for greater design freedom and the development of transversal flux, multi-axle, and even sterical Motors. Notably, companies like con have showcased unconventional motor designs that deviate from the traditional lamination steel process. The Pico GK prototype, Pico GK, an open-source software, recently released a prototype motor design that demonstrates the capabilities of computational engineering. Utilizing the SLM Solutions machine, the motor's various parts are printed using a multimaterial powder deposition solution, while the rotor and housing are printed from steel. The coils are made from 3D printed copper. This achievement marks the first instance of customized data coil assemblies. Future iterations may incorporate soft magnetic Composite Materials, leveraging multiple laser scanners and drums. Soft magnetic composites offer advantages as they are electrically non-conductive and facilitate the inclusion of cooling channels. However, conductivity loss within the 3D printed copper coil remains a challenge that can potentially

be mitigated through further heat treatment. It is important to note that while laser-based powder fusion shows promise in producing complex motor components, the economic feasibility of applying this production technique universally is still uncertain. But how does this motor compare to other electric motors on the market, and what are the advantages and disadvantages of this invention? Let's find out. Electric motors are devices that convert electrical energy into mechanical energy and vice versa. They are widely used in various applications such as industrial machines, household appliances, and transportation. There are many types of electric motors, but they all have some common components such as a stator, a rotor, a commutator, and a power source. The stator is the stationary part of the motor that contains coils of wire that create a magnetic field. The rotor is the rotating part of the motor that contains magnets or coils that interact with the magnetic field. The commutator is the part of the motor that switches the direction of the current in the coils, creating a rotating motion. The power

source is the part of the motor that provides the electricity, such as a battery, a generator, or a grid. Alex says, My motor is different from other electric motors because it doesn't have a commutator, and it doesn't need a separate power source. It uses a special arrangement of magnets and coils to create a magnetic field that rotates the motor. It also uses a feedback mechanism to increase the voltage and frequency of the electricity, creating a resonance effect that boosts the power and efficiency of the motor. It can run on any source of electricity, including solar, wind, or water, and it can generate more electricity than it consumes, creating a surplus of energy that can be used for other purposes. Experts say Alex's motor is very impressive, and it has some advantages over other electric motors. For example, it has a simple and compact design, which makes it easy to build and maintain. It has a high power-to-weight ratio, which means it can deliver a lot of torque and speed with a small and light motor. It has a low noise

and vibration level, which makes it smooth and quiet. It has a high efficiency and reliability, which means it can save energy and last longer. Experts also indicate that, however, Alex's motor also has some disadvantages and challenges. For example, it has a high voltage and frequency, which means it can be dangerous and harmful to humans and animals. It has a high electromagnetic interference, which means it can affect other electronic devices and signals. And it has a low scalability and compatibility, which means it can be difficult to integrate with existing systems and standards. But what do the investors think of Alex's invention? Will they support him or reject him? Will they invest in him or sue him? Alex has been invited to pitch his motor to a group of investors who are interested in funding new and promising projects in the field of clean energy. They have seen his videos and heard his claims, and they want to see his motor in action and ask him some questions. The investors are impressed by Alex's invention, but they are also skeptical about his claims.

plans. They have to decide whether to invest in him or not, and how much to offer him. They have to weigh the risks and rewards, and the pros and cons of backing him up.

NEW 80KW A.I. DESIGN ELECTRIC MOTOR - FREE ENERGY FOREVER 100% REAL!?

Future Galaxy

전기 모터의 미래: 3D 프린팅과 효율성

오픈소스 소프트웨어가 다중 재료 3D 프린팅을 사용한 새로운 전기 모터 디자인을 공개하면서 미래 모터로서의 잠재력에 대한 의문이 제기되고 있습니다.

동기 모터와 유도 모터 등 다양한 모터 유형의 효율과 전력 밀도는 크게 다르며, 최적의 성능을 위해 영구 자석 모터가 선호되고 있습니다.

3D 프린팅 기술과 재료 과학의 발전은 구리 코일을 3D 프린팅하고 자기장을 강화할 수 있는 복잡한 모양을 만드는 등 모터 설계에 흥미로운 가능성을 제시하고 있습니다.

적층 제조는 전기 모터에 더 큰 설계 자유도를 제공하며, 콘과 같은 회사에서는 파격적인 모터 설계를 선보이고 있습니다.

Pico GK 프로토타입은 다중 재료 분말 증착 솔루션을 사용하여 전산 엔지니어링 및 3D 프린팅의 기능을 보여줍니다.

부드러운 자성 복합 재료를 사용하고 냉각 채널을 포함하면 이점이 있지만 이 생산 기술의 경제적 타당성은 아직 불확실합니다.

알렉스는 정류자가 필요 없고 어떤 전기 공급원에서도 작동할 수 있는 독특한 전기 모터를 개발했습니다.

이 모터는 특수 자석과 코일 배열, 피드백 메커니즘을 사용하여 전력과 효율을 높이고 잉여 에너지를 생성합니다.

이 모터는 단순한 디자인과 높은 신뢰성 등 인상적인 장점에도 불구하고 고전압 및 전자기 간섭과 같은 과제를 안고 있습니다.

투자자 그룹은 Alex의 발명품에 깊은 인상을 받았지만 그의 주장에 회의적인 태도를 보여 잠재적 지원에 대한 불확실성을 남깁니다.

새로운 인재에 대한 투자를 위한 의사 결정

투자자는 새로운 인재에게 투자할지, 얼마를 투자할지 결정해야 하는 상황에 직면해 있습니다.

투자자는 위험과 보상은 물론 해당 개인에 대한 지원의 장단점을 신중하게 고려해야 합니다.