TOKYO, Mar 6, 2024 – (JCN Newswire) – Mitsubishi Motors Corporation (hereafter, Mitsubishi Motors) announced that the all-new Triton(1) – a one-ton pickup truck – and the all-new Xforce compact SUV have won the iF DESIGN AWARD 2024 in the product design discipline(2).

Mitsubishi Motors offers fulfilling mobility lifestyles that awaken the adventurous spirit of drivers and provide excitement for everyone on board. The company is committed to providing customers with reliability and excitement by pursuing its core values of dynamic strength, robustness and authenticity backed by function, and thereby creating design that evolve with the times.

Identifying outstanding design for 70 years, the iF DESIGN AWARD is one of the world’s most prestigious design awards organized by iF International Forum Design GmbH based in Hannover, Germany. For the iF DESIGN AWARD 2024, around 11,000 entries submitted from 72 countries were judged by a jury of 132 international design experts based on five criteria – idea, form, function, differentiation and impact.

“We are truly honored to receive one of the most distinguished design awards in the world for the two all-new models we launched this fiscal year,” said Seiji Watanabe, division general manager of design, Mitsubishi Motors. “I believe each model was recognized for expressing its own character in a unique form – the Triton shows a daring expression, and the Xforce adopts an agile look – while also combining robustness, which is typical of Mitsubishi Motors’ design. This award will become our driving force in introducing the Triton and the Xforce to even more customers.”

All-new Triton

The all-new Triton is a one-ton pickup truck which traces its roots to the Forte introduced in 1978. Since then, about 5.7 million units have been produced over five generations and sold in approximately 150 countries around the world, making it Mitsubishi Motors’ global strategic model.

Based on the Beast Mode design concept, the all-new Triton expresses toughness and strength expected of a pickup truck, while at the same time demonstrating an imposing look with ruggedness and agility. The interior features a robust, horizontally themed instrument panel that allows drivers to easily see changes in the position of the vehicle while driving. The dials and switches can be operated with ease even when wearing gloves, and the steering wheel, grips and door handles are designed with a focus on grip comfort and sturdiness.

iF DESIGN AWARD website https://ifdesign.com/en/winner-ranking/project/mitsubishi-triton/643331
Special website https://www.mitsubishi-motors.com/en/products/triton

All-new Xforce

The all-new Xforce is a compact SUV that provides comfort and practicality including a spacious cabin and versatile storage spaces well-balanced in a maneuverable, compact body size, as well as offering road handling that allows safe, secure ride in various weather or road conditions.

Based on the design concept of Silky & Solid, the upper part of the body expresses an airy silkiness, while the lower part of the body adopts solid and powerful proportions, creating a stylish yet robust, authentic SUV styling. Inside, a sophisticated interior with a cutting-edge feel is created by integrating a 12.3-inch Smartphone-link Display Audio and a digital driver display into a large monolithic display panel.

iF DESIGN AWARD website https://ifdesign.com/en/winner-ranking/project/mitsubishi-xforce/643198
Special website https://www.mitsubishi-motors.com/en/products/xforce/

(1) The Triton is sold as the L200 in some markets.
(2) The winners of the iF DESIGN AWARD are selected in nine disciplines which include product design, packaging design, communication design, interior architecture, professional concept, service design, architecture, user experience (UX) and user interface (UI).

About Mitsubishi Motors

Mitsubishi Motors Corporation (TSE:7211) —a member of the Alliance with Renault and Nissan—, is a global automobile company based in Tokyo, Japan, which has about 30,000 employees and a global footprint with production facilities around the world. Mitsubishi Motors has a competitive edge in SUVs, pickup trucks and plug-in hybrid electric vehicles, and appeals to ambitious drivers willing to challenge convention and embrace innovation. Since the production of our first vehicle more than a century ago, Mitsubishi Motors has been a leader in electrification—launched the i-MiEV –the world’s first mass-produced electric vehicle in 2009, followed by the Outlander PHEV –the world’s first plug-in hybrid electric SUV in 2013.For more information on Mitsubishi Motors, please visit the company’s website at https://www.mitsubishi-motors.com/en/

News URL: https://www.acnnewswire.com/press-release/english/89381/

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Toyota accelerates mass production of diverse EV batteries by making PEVE a wholly owned subsidiary

Toyota City, Japan, Mar 6, 2024 – (JCN Newswire) – Toyota Motor Corporation (TMC) has agreed with Panasonic Holdings Corporation (Panasonic HD) to make Primearth EV Energy Co., Ltd. (PEVE) a wholly owned subsidiary in order to strengthen its capabilities in mass-producing automotive batteries. The acquisition is scheduled to take place in late March.

Among Toyota-affiliated companies, currently PEVE, Toyota Industries Corporation, and Prime Planet Energy & Solutions, Inc. (ownership: Toyota 51%, Panasonic HD 49%) mass produce batteries for hybrid electric vehicles (HEVs), with the latter also making batteries for battery electric (BEV) and plug-in hybrid electric vehicles (PHEVs). Toyota will continue collaborating with these companies in battery mass production and development.

In addition to HEV batteries, PEVE plans to begin producing batteries for BEVs and PHEVs. The company’s shift into mass-producing a wide variety of electric vehicle batteries will enable Toyota to respond flexibly to growing battery demand, while also helping to further boost mass-production competitiveness.

More competitive batteries will enhance the appeal of Toyota’s electric vehicle offerings and contribute to achieving carbon neutrality through a multi-pathway approach.

News URL: https://www.acnnewswire.com/press-release/english/89380/

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Bearings are mechanical components used to reduce friction between moving parts of machinery, facilitating smooth and efficient operation. Essential in various applications, from automotive to industrial machinery, bearings support rotary or linear movement while handling stress and reducing wear.

https://nyzbearing.com/ is a website that gives more information on bearings and their applications. 

Different Types of Bearings

Bearings are machine elements that allow components to move relative to each other with minimal friction. They are crucial in reducing wear between moving parts and can significantly enhance the efficiency and lifespan of machinery. Bearings come in various types, each designed for specific applications and load types. Here’s an overview of the different types of bearings:

1. Ball Bearings: The most common type of bearings, ball bearings, use balls to maintain the separation between the bearing races. They can handle both radial and axial loads and are used in a wide range of applications, from electric motors to skateboards.
2. Roller Bearings: Roller bearings use cylindrical rollers instead of balls, which increases the contact area with the races. This design allows them to carry heavier loads than ball bearings. They are particularly effective for radial loads.
3. Tapered Roller Bearings: These bearings have tapered rollers arranged so that they converge towards a single point on the bearing axis. This design allows them to efficiently handle combined axial and radial loads. They are commonly used in car hubs and gearboxes.
4. Needle Roller Bearings: Similar to roller bearings but with slender and long rollers. Needle roller bearings are used in applications where space is limited and high load capacity is required.
5. Spherical Roller Bearings: These bearings have rollers that are thick in the middle and thinner at the ends; the outer ring has a spherical shape. This design allows for angular misalignment of the shaft. They are used in applications where misalignment might occur, such as in conveyor belt rollers.
6. Self-aligning Ball Bearings: These bearings have two rows of balls and a common sphered raceway in the outer ring, allowing for angular misalignment. They are suitable for applications where misalignment might arise from errors in mounting or from shaft deflection.
7. Thrust Bearings: Designed to accommodate axial loads, thrust bearings come in ball and roller types. They are commonly used in automotive, marine, and aerospace applications where the primary load is parallel to the shaft.
8. Angular Contact Ball Bearings: These bearings are designed so that a contact angle between the races and the balls enables them to support significant axial loads in one direction in addition to radial loads. They are often used in pairs to support loads in both axial directions.
9. Pillow Block Bearings: These are a type of mounted bearing used to provide load support for a rotating shaft. The bearing is housed in a casting that also includes a mounting mechanism, making them easy to install.
10. Sleeve Bearings (Bushings): Sleeve bearings are simple in design and involve a sliding motion between the moving surface and the bearing itself. They can be made from various materials, including metal, plastic, and composite materials. They are used in applications where high loads and low speed are present.

How to Select the Right Bearing

Selecting the right bearing for your application is crucial to ensuring optimal performance, durability, and cost-effectiveness. Here’s a comprehensive guide on how to select the appropriate bearing:

1. Understand the Application Requirements

• Load Type and Direction: Identify whether the primary loads are radial, axial (thrust), or a combination of both. This determines the type of bearing you’ll need (e.g., deep groove ball bearings for radial loads, thrust bearings for axial loads).
• Load Magnitude: Consider the weight and forces the bearing will need to support. Heavier loads may require roller bearings, which have higher load capacities than ball bearings.
• Speed Requirements: High-speed applications may benefit from bearings designed for minimal friction and heat generation, such as precision ball bearings.
• Precision and Rigidity: For applications requiring high precision and rigidity, such as machine tool spindles, select bearings that offer tight tolerances and support for axial and radial loads.

2. Consider Environmental Conditions

• Temperature: Bearings operate in a range of temperatures. High temperatures may require bearings made from materials that can withstand thermal expansion and maintain their properties.
• Contamination and Moisture: In environments prone to dust, moisture, or corrosive substances, sealed or shielded bearings can protect against contaminants.
• Vibration and Shock: Applications subject to vibration and shock loads need robust bearings that can maintain performance under such conditions.

3. Evaluate Bearing Life and Reliability

• Service Life: Calculate the expected life of the bearing using the application’s load and speed conditions. Bearing manufacturers often provide life calculation formulas or tools.
• Maintenance and Replacement: Consider the ease of maintenance and replacement. Bearings in hard-to-reach places may benefit from longer-lasting, maintenance-free options.

Conclusion 

Bearings are pivotal in the world of machinery, providing smooth operation and longevity to various applications. From ball bearings to specialty designs like magnetic bearings, understanding the different types and their applications is crucial for optimal performance and durability. Maintenance, technology, and correct selection play significant roles in maximizing the efficiency and lifespan of bearings. For more information on bearings and their applications, visit nyzbearing.com.

The invention of 3D printers has been a game changer for the manufacturing industry. This technology, which has changed the business world, has created a level playing field for all businesses of different scales and sizes. Entrepreneurs, especially in the automotive sector, are taking advantage of this to provide innovative and cost-effective solutions to consumers. Aside from shaping the business ecosystem, additive manufacturing also influences the designs of tomorrow’s cars. Looking around, you will notice the growing number of complex and futuristic car designs. 

This is only possible because of the creative freedom additive manufacturing provides innovators. With this freedom in creativity, additive manufacturing’s influence is set to grow exponentially in the coming years. To understand other aspects of the influential control of 3D printing in the auto sector, continue reading.

Additive Manufacturing Will Continue Influencing These Key Areas

Here are areas in which 3D printing will play a crucial role in the future of the automotive industry.

Logistics Management 

Logistics have always created bottlenecks in the automotive industry. This challenge was extensively felt during the COVID-19 lockdown when major suppliers couldn’t meet growing demands. This disrupted the automobile space due to the lack of in-house production capacity. To achieve future industrial sustainability, the automotive industry must tackle its supply chain problems. To effectively do this, the full adoption of additive manufacturing must be required. Automakers can reduce shipping, tooling, and production costs with additive manufacturing.

Automobile Repair And Maintenance

The growing number of car owners is projected to lead to exponential growth in car maintenance and repairs. If the traditional manufacturing means are not replaced, car maintenance might outpace the cost of buying a car. This can be avoided by implementing 3d printing techniques in the production of car components. With this technique, 3D objects for vintage cars can be produced on demand. Such a production model eliminates the need for a large inventory and promotes business sustainability. When automobile parts are produced using 3d printers, they tend to be accurate, durable, and efficient in their operation.

Material Selection

Materials used in additive manufacturing are usually made from reinforced carbon fiber polymers. These types of polymers are lightweight and, under the right temperature, can be modeled into any shape and size. Using this material in traditional car manufacturing is difficult, expensive, and not always suitable. When lightweight materials are used in 3D production, the car’s efficiency, durability, and cost-effectiveness improve. 

Optimization In Design And Performance

Additive manufacturing is set to play a crucial role in the design of complex futuristic cars. This is because, using this production technique, car makers can produce realistic objects from their imagination. They also have the freedom to optimize the performance of existing cars effectively by eliminating and introducing various parts. This design and performance optimization also helps create a competitive balance between the car’s weight, strength, speed, and endurance.

Conclusion

The influence of 3D printing in the automobile space will continue to grow with the development of technology. This development will lead to improved car material selection and efficient logistics management.