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The Future of Metaverse Theater: Trends to Watch in 2026 and Beyond

The metaverse theater is no longer a distant concept—it’s a thriving ecosystem that’s evolving at a rapid pace. In 2026 and beyond, new technologies, changing audience expectations, and innovative use cases will shape the future of metaverse theater, making it more immersive, interactive, and accessible than ever before. Here are the key trends to watch as metaverse theater continues to redefine live entertainment.

1. AI-Powered Personalization: Artificial intelligence will play an increasingly important role in metaverse theater, enabling personalized experiences for every audience member. AI will analyze user preferences (such as favorite genres, past performances, and interaction habits) to recommend shows, customize avatar experiences, and even adjust the performance in real time. For example, an AI-powered metaverse theater could tailor the plot of a play to match the audience’s mood, or recommend virtual seats based on how you prefer to experience the performance. This level of personalization will make metaverse theater more engaging and relevant to individual users.

2. Integration of Web3 and NFTs: Web3 technology and non-fungible tokens (NFTs) will transform how metaverse theater is monetized and experienced. NFTs can be used to represent virtual tickets, exclusive access to performances, or even digital merchandise (such as avatar clothing or virtual souvenirs). For performers, NFTs offer a new way to monetize their work—selling limited-edition virtual tickets or NFTs that grant access to behind-the-scenes content. Web3 also enables decentralized ownership of virtual venues, allowing communities to co-create and manage metaverse theater spaces. This trend will empower creators and audiences alike, creating a more democratic and transparent entertainment ecosystem.

3. Hyper-Immersive Technologies: Advances in VR, AR, and haptic technology will take metaverse theater immersion to the next level. Haptic suits and gloves will allow users to feel physical sensations—such as the warmth of a spotlight or the touch of a virtual character—adding a new dimension to the experience. AR glasses will overlay virtual performances onto the real world, allowing users to experience metaverse theater in their own homes or public spaces. Additionally, spatial audio technology will create 3D soundscapes that make users feel as if they’re truly in the middle of the performance, with sounds coming from all directions.

4. Cross-Platform Experiences: Metaverse theater will become more interoperable, allowing users to access performances across multiple metaverse platforms. For example, you could start a performance on one platform, switch to another device (such as a VR headset or smartphone), and continue the experience seamlessly. This cross-platform integration will make metaverse theater more accessible, as users won’t be limited to a single platform or device. It will also enable collaboration between creators and platforms, leading to more diverse and innovative performances.

5. Educational and Cultural Applications: Metaverse theater will expand beyond entertainment, becoming a powerful tool for education and cultural preservation. Schools and universities will use metaverse theaters to host virtual workshops, plays, and cultural events, allowing students to experience performances from around the world. Museums and cultural organizations will use metaverse theaters to preserve historical performances and make them accessible to global audiences. For example, a metaverse theater could recreate a traditional play from an ancient civilization, allowing users to experience it as it was performed centuries ago.

6. Virtual-Physical Hybrid Performances: The line between metaverse theater and traditional theater will continue to blur, with more hybrid performances that combine virtual and physical elements. For example, a play could be performed live on a physical stage, with virtual elements (such as digital sets or avatars) added in real time. Audience members could attend in person or virtually, interacting with each other and the performers across both spaces. This hybrid model will combine the best of both worlds, offering the physical connection of traditional theater with the accessibility and interactivity of metaverse theater.

The future of metaverse theater is bright, with endless possibilities for innovation and growth. As technology advances and audience expectations evolve, metaverse theater will become an integral part of our digital lives—offering immersive, inclusive, and interactive experiences that redefine what live entertainment can be. To stay ahead of these trends and experience the cutting-edge of metaverse theater, visit Metapano, where we’re building the future of virtual entertainment one venue at a time.

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Outdoor Power Station opens up a new high-growth track

1. Performance advantages of outdoor power supplies

Outdoor power supply, also known as portable energy storage power supply, full name is Portable Energy Storage (PES), usually refers to backup power supply or emergency power supply that weighs no more than 18kg.

Outdoor power supplies generally have built-in high-energy-density lithium-ion batteries, with long cycle life, light weight and easy portability, and their overall performance is more stable and reliable, and they have the characteristics of easy operation, low noise, and good maintenance, which can better meet outdoor power consumption. Demand.

In addition, the outdoor power supply has a multi-function output interface, AC output, USB output, car charger interface output, users can use in different scenarios, the use experience is more convenient.

2. Application scenarios of outdoor power supply

The downstream application layer of outdoor power supply is very extensive. In addition to outdoor camping, it also involves flood prevention, medical rescue, outdoor construction, field exploration, offshore operations, mobile booths, outdoor live broadcast, film and television production and other fields. It is used in mountainous areas, pastoral areas, and caravans.

3. Composition and materials of outdoor power supply

The outdoor power supply is an outdoor emergency power supply that is composed of chargers, inverters, storage batteries, isolation transformers, switch switches and other devices to invert DC power into AC power.

Most of the outer shell materials of outdoor power supplies use high-strength engineering plastics, which are not only anti-fall and anti-vibration, but also have strong fire and rain resistance. The internal material is a large-capacity ternary lithium battery pack, which is small in size, light in weight and high in power.

The outer shell of the outdoor power supply is generally made of PC or PC+ABS fire-retardant materials, which are characterized by safety, lightness, high temperature resistance, and effectively avoid electric shock and leakage risks. But compared with metal materials, its hardness is insufficient, so it is easy to scratch.

As the application scenarios of outdoor power supplies become more and more extensive, the requirements for materials are more stringent. The performance tests of materials include salt spray test, double 85 test (1000 hours), low temperature impact test, etc., which require high material performance. .

The general fireproof PC/ABS material sometimes cracks in the outdoor environment, and a weather-resistant material 923X launched by Sabic can solve this problem well. A certain energy storage project done by the world's top 5 solar solution company uses Sabic PC 923X, which is resistant to low temperature, chemical corrosion, fire resistance, and high flow, which can withstand up to 1500 hours of double 85 test and salt spray test At the same time, because it contains siloxane segments, it can better eliminate the internal stress of the product and successfully solve the problem of product shell cracking.

Product unit weight: 4.3kg

Through testing, it is found that Sabic’s PC 923X has better weather resistance and low temperature resistance than standard PCs, and can better meet the long-term outdoor use requirements of the product.

At present, many outdoor power supplies on the market can also be used with solar panels to achieve continuous power supply, so that there is electricity when there is light. In the absence of mains power supply, high-efficiency monocrystalline silicon solar panels can increase the circulating power supply capacity of outdoor power sources, creating a clean, continuous, safe, reliable, and efficient environment-friendly power plan.

4. Market demand and supply of outdoor power supplies

In recent years, the fierce heat of the new energy automobile industry has stimulated the development of lithium batteries, and the production cost of outdoor power sources has been greatly reduced. Energy storage technology represented by lithium batteries has begun to replace bulky fuel generators. With the introduction of the goal of "carbon peak and carbon neutrality" this year, more people are paying attention to low-carbon, environmentally friendly and green travel, and the demand for new outdoor power sources is also rapidly erupting.

In addition, in the context of the tight power supply, power rationing notices have recently been issued in many places across the country, and the topic of "power rationing" and "power outage" has sparked discussion on the Internet. The lighting, heat preservation, and cooking of modern urban life are inseparable from power support. Power outages will directly affect people's daily life. Many families purchase outdoor power supplies for emergency situations, which further drives the market demand for outdoor power supplies.

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Assembly conditions of solar panels

The role of solar panels is to convert sunlight energy into electrical energy, and then output direct current to the battery. Solar panels are one of the most important components in solar power generation systems. Its conversion rate and service life are important factors that determine whether solar cells have use value.

Solar module design: According to the International Electrotechnical Commission GB/T9535-98 and IEC61215 standards, the battery chip is designed in accordance with the requirements of the GBT6495 standard. Connect 36 or 72 polysilicon solar cells in series to form 12V and 24V modules. The solar module can be used in various household photovoltaic systems, independent photovoltaic power stations and grid-connected photovoltaic power stations. Raw material characteristics Cells: High-efficiency (above 15.5) polycrystalline silicon (above 16.5 monocrystalline silicon) solar cell packaging is used to ensure sufficient power generation of solar panels. Glass: Low-iron tempered suede glass, also known as white glass, has a thickness of 3.2mm in the wavelength range of 320-1100nm in the spectral response of the solar cell, a light transmittance of 91 or more, and a high reflectivity of infrared light greater than 1200nm. Glass can also resist the sun's ultraviolet radiation, and the light transmittance will not decrease. EVA: A high-quality EVA film layer with a thickness of 0.78mm is used, and anti-ultraviolet agents, antioxidants and curing agents are added as sealants for solar cells, as well as connecting agents with glass and TPT. It has high light transmittance and anti-aging ability.

TPT: The back cover of the solar cell-the fluoroplastic film is white, reflecting the sunlight, so it slightly improves the efficiency of the module, and because of its high infrared emissivity, it can also reduce the working temperature of the module. It is helpful to improve the efficiency of the module. Of course, this fluoroplastic film firstly meets the basic requirements of aging resistance, corrosion resistance, and air tightness required by solar cell packaging materials. Frame: Aluminum alloy frame with high strength and strong resistance to mechanical impact. Basic requirements such as air tightness. Standard test conditions for basic parameters: (AM1.5) Irradiance 1000W/m2 Battery temperature 25℃ Insulation voltage and voltage: ≥600V (100W or more ≥100V) Frame grounding resistance: ≤10hm Upwind pressure: 2400Pa Filling factor: 73% Short circuit Current temperature coefficient: 0.4mA/℃, open circuit voltage temperature coefficient: -60mV/℃, working temperature: -40℃～85℃, component wiring instructions, installation tools, M4 flat-blade screwdriver, Phillips screwdriver.

Open the junction box cover Insert an M4 flat-blade screwdriver into the mounting hole on the junction box cover according to the label on the junction box, and lift one foot slightly. In this way, first raise the four corners of the side and open the junction box to cover. There is a wiring cover in the box, and you can see three wiring terminals when you lift it up.

In 1849, the term "photovoltaic" appeared, meaning light energy generates electromotive force. In the 1950s, with the gradual understanding of the physical properties of semiconductors, Bell Labs in the United States discovered in 1954 that doping a certain amount of impurities in silicon would make it more sensitive to light, and produced the first solar energy for practical applications. Battery.

There are more positively charged holes, while N-type silicon has more negatively charged electrons. The relative diffusion and recombination of electrons and holes generates a built-in electric field from N-type silicon to P-type silicon at the contact surface of P-type and N-type silicon materials. When the incident sunlight is absorbed, the electrons generated by the built-in electric field will be moved to the N-type silicon by the electric field, and the holes will move to the P-type silicon and accumulate on both sides. If connected by wires, current will be generated.