豆包手机还在画饼，我用OpenClaw 一台吃灰安卓机已经实现了。 跟Orb说"发条推"，它自己打开X、打字、点发送。第一次找了半天按钮，第二次一气呵成发太快了🤣 #豆包手机 #OpenClaw #BotDrop

Who's that Pokémon?

Why BackRoom Needs More Than Just a Token Most platforms launch tokens just for hype. But $ROOM isn’t just a token; it’s a programmable access key to curated knowledge. And for that to work at scale, you need something bigger than a smart contra You need infrastructure. Enter @virtuals_io Let’s break it down simply: BackRoom Rooms aren’t just group chats. They’re programmable, token-gated micro-economies powered by AI. So when you think of $ROOM, don’t think “just a token.” Think: ◾ Access pass ◾ AI filter ◾ Tradable asset ◾ Logic-driven permission This isn’t possible with basic smart contracts alone. Here’s where @virtuals_io makes the difference: @virtuals_io provides the tooling for on-chain AI agents and programmable logic. This means $ROOM keys can do more than unlock content, they can: ◾ Grant tiered access (basic vs premium info) ◾Expire after X days ◾ React to user behavior (e.g., reward active participants) ◾ Enable referral-based boosts ◾ Trigger on-chain or off-chain actions All of this logic can be embedded into the token. No middleman. Think of each Room as a self-governing ecosystem. With @virtuals_io infrastructure, creators can: ◾Program rules for who can enter or exit ◾Define how content is curated ◾Allow AI agents to summarize key insights ◾Enable dynamic pricing based on demand ◾Let the community vote on access logic All on-chain. All automated. All composable. Why this matters: This makes $ROOM more than a content paywall. It becomes the foundation of programmable social capital. @useBackroom is not just launching a token on @virtuals_io, they launch an entirely new format of decentralized, AI-curated information economies. This is the infrastructure SocialFi has been missing. Tomorrow, we’ll go deeper into: ◾ How programmable Rooms can replace centralized platforms ◾ How token logic replaces subscription models ◾ And how all of it can be automated via AI agents on-chain

The 4th International Microfluidics Conference is going to be held on September 15-16, 2025 in Paris, France. microfluidics.insightconfere… 4th! 🔸What is Microfluidics? Microfluidics is both the science that studies the behavior of fluids in micro-channels and the technology of systems that process or manipulate small amounts of fluids using micro-miniaturized devices. pmc.ncbi.nlm.nih.gov/article… 🔺Sessions/Tracks for the 4th Microfluidics Conference 🔸Lab-on-a-Chip Technologies for Diagnostics Lab-on-a-chip (LOC) technologies These systems use microfluidics to manipulate tiny fluid volumes, enabling fast, cost-effective diagnostic testing. LOCs are particularly valuable in point-of-care settings, allowing for quick results without the need for extensive equipment or specialized lab environments. These systems are also highly versatile & can be adapted for use in remote areas or low-resource settings. With advancements in microfabrication, LOC devices continue to evolve, becoming more accessible & affordable. 🔸Microfluidic Systems for Single-Cell Analysis These systems use microchannels to capture, manipulate, & analyze single cells w/ high precision, allowing for detailed observation of gene expression, protein activity, & cellular responses to stimuli. Microfluidic systems also offer advantages in terms of automation & scalability. The ability to process large numbers of cells efficiently & reproducibly is essential for applications in drug discovery, personalized medicine, & diagnostics. 🔸Microfluidic Organ-on-a-Chip Models These models consist of microchannels containing living cells cultured in a way that mimics the mechanical, chemical, and biological conditions of real organs. Organs-on-a-chip have the potential to integrate multiple organ systems, allowing for the study of complex interactions between organs in a controlled, scalable environment. 🔸Microfluidics for Drug Delivery and Nanomedicine By providing precise control over fluid flow & particle manipulation, microfluidics enables the design & fabrication of nano-carriers like liposomes, nanoparticles, & dendrimers, which can encapsulate therapeutic agents for targeted drug delivery. By controlling the size, shape, & surface properties of these nano-carriers, microfluidic devices ensure optimal targeting & controlled release. Moreover, microfluidic platforms facilitate high-throughput screening of drug candidates, speeding up the drug development process. These systems offer the potential to design personalized treatments, as microfluidics can integrate real-time diagnostics and drug testing, paving the way for precision medicine. 🔸Fluid Mechanics in Microfluidic Devices Fluid mechanics is at the core of microfluidic device design. At the microscale, fluid behavior differs significantly from that observed in larger-scale systems, & understanding these unique flow dynamics is essential for optimizing microfluidic performance.Key principles of fluid mechanics, such as laminar flow, surface tension, & viscosity, play a critical role in determining how fluids interact w/ microchannel surfaces & other fluids. In microfluidics, laminar flow dominates, meaning that fluids flow smoothly in parallel layers without turbulence. This property allows precise control over fluid volumes, which is crucial for applications such as drug delivery, diagnostics, & chemical analysis. By applying fluid mechanics, researchers can design microchannels w/ specific geometries that enhance mixing, enable precise fluid control, & reduce energy consumption. 🔸Microfluidic Biosensors These compact devices integrate biological recognition elements, such as antibodies or enzymes, w/ microfluidic technology. Integration of microfluidics allows for multiplexing, enabling the detection of multiple biomarkers simultaneously. Microfluidic biosensors are cost-effective and portable, making them suitable for use in resource-limited settings. More sessions/tracks in 🔗 @ the top.