Core Viewpoint - Anjie Technology is actively expanding its business in consumer electronics, new energy vehicles, and information storage, while also planning to adapt its product offerings based on market and customer demands [2] Group 1: Business Operations - The company's main business segments include consumer electronics, new energy vehicles, and information storage [2] - Anjie Technology is considering timely adjustments to its product or solution offerings in response to market and customer needs [2] Group 2: Corporate Actions - The company is in the process of acquiring a portion of equity from Anjieli Meiwai through its wholly-owned subsidiary, with the work progressing as planned [2] - The equity transfer has not yet been completed, and it is currently not expected to have a significant impact on the company's overall performance [2]

Core Viewpoint - The article discusses the recent advancements in Metal-Organic Frameworks (MOFs) and their application in creating ultra-miniature fluid chips, highlighting their potential to revolutionize computing by mimicking brain-like memory functions [1][20]. Group 1: MOF Technology and Applications - MOFs, once deemed "useless," have gained recognition after winning the Nobel Prize in Chemistry, leading to innovative applications such as fluid chips [1][20]. - The newly developed fluid chips can perform conventional calculations while also retaining previous voltage changes, resembling short-term memory similar to that of brain neurons [2][3]. - The creation of advanced fluid chips using MOF materials addresses the challenges of high-precision nano-channel devices, enabling adjustable non-linear ion transport [4][5]. Group 2: Device Structure and Functionality - Researchers constructed a layered nano-fluid transistor device (h-MOFNT) using Zr-MOF-SO₃H crystals, which features heterogeneous junctions for enhanced performance [7][8]. - The device exhibits non-linear proton transport characteristics, differing from typical diode behavior, indicating a threshold-controlled transport mechanism [12][13]. - The h-MOFNT demonstrated a memory effect, capable of retaining past voltage states, which could lead to applications in liquid-based information storage and brain-like computing [18][19]. Group 3: Historical Context and Future Potential - Historically, MOFs have been viewed as having significant theoretical potential but lacking practical applications, with over 100,000 related papers published but few achieving industrial application [25][26]. - The challenges faced by MOFs include structural stability issues and complex synthesis processes, which have hindered their widespread use [27][28]. - The emergence of MOF-based chips suggests that the material may not be "useless" but rather that suitable applications have yet to be fully explored [29].

Core Viewpoint - The article highlights the recent breakthrough in using Metal-Organic Frameworks (MOFs) to create ultra-miniature fluid chips, which can perform computations and exhibit short-term memory similar to brain neurons, challenging the previous notion that MOFs were "useless" [1][20]. Group 1: MOF Technology and Applications - MOFs, once considered theoretical with limited practical applications, have now been recognized for their potential in advanced computing technologies following their Nobel Prize acknowledgment [1][21]. - The newly developed fluid chip, made from MOF materials, can overcome limitations of traditional electronic chips by enabling advanced functionalities [3][5]. - The h-MOFNT device constructed from layered Zr-MOF-SO₃H crystals demonstrates unique ion transport properties, allowing for precise control over ionic movement [7][12]. Group 2: Device Characteristics and Performance - The h-MOFNT device exhibits non-linear proton transport characteristics, which differ from typical diode behavior, indicating a threshold-controlled transport mechanism [12][13]. - Experimental results show that the device can remember past voltage states, demonstrating fluid memory and learning capabilities, akin to electronic devices [16][18]. - The ability to create a small fluid circuit using multiple h-MOFNTs showcases the potential for complex computations and memory functions in liquid systems [16][19]. Group 3: Historical Context and Future Prospects - Historically, despite extensive research (over 100,000 related papers), the practical industrial application of MOFs has been limited due to issues like structural stability and production costs [25][27]. - The emergence of MOF-based chips suggests that the material may not be "useless," but rather that suitable applications were not previously identified [29]. - Future developments may lead to the realization of liquid-based information storage and brain-like computing systems through innovative design of heterogeneous constraint systems [19].