#Solar powered sensor node

[norvisrilanka]

Arduino PLC | MQTT End Device | Industrial IoT device manufacturer | norvi.lk

How Programmable IoT Devices Operate

Having access to the most dependable and effective hardware speeds up the completion of your project. The ability to programme flexibly.

ESP32 Ethernet Device

When using ESP32 Ethernet, the NORVI ENET series is the best option because it has industrial-grade I/O and voltages. Both wireless and cable connectivity to the network are offered by ESP32 Ethernet. 

Industrial Arduino Mega

The NORVI Arita is an enhanced version of the NORVI Series. Five conventional variants with a choice of two potent microprocessors are offered. Arita is built to deliver all of the micro-controller's performance while maintaining reliability. It works with practically all industrial input and output formats. 

Arduino based Industrial Controller

Arduino IDE-programmable

Integrated OLED and customizable buttons for HMI

The ability to programme flexibly

LED signals for simple diagnosis

Applications Using a Programmable MQTT Device and Ultra Low Energy Batteries

Agent One Industrial Controllers are available for low power applications as well; STM32L series microcontroller-controlled devices are employed in ultra low power applications, where the devices must be powered by batteries for an extended period of time. When a device goes to sleep, the Agent One BT family is specifically built with transistor outputs to turn off external sensors.

Wall mount IoT Node

The NORVI SSN range is designed for independent installations in industrial settings with a focus on tracking sensor data or parameters from external devices. The implementations are made simple by the attachments for wall installation and pole mount. 

NORVI Controllers

Our Address :

ICONIC DEVICES PVT LTD

Phone : +94 41 226 1776  Phone : +94 77 111 1776

E-mail : info@icd.lk / support@icd.lk

Web : www.icd.lk

Distributors

USA

Harnesses Motion LLC

1660 Bramble Rd. Tecumseh, MI

49286, United States

Phone : +1 (734) 347-9115

E-mail : rgoldy@harnessedmotion.com

EUROPE

CarTFT.com e.K.

Hauffstraße 7

72762 Reutlingen

Deutschland

Phone : +49 7121 3878264

E-mail : sales@cartft.com MQTT End Device | Arduino PLC | Analog Input | Wireless sensor | ModBus MQTT gateway | Industrial IoT device manufacturer | WiFi Data logger

[smolghostbot]

Random Robot Snippet

Is it obvious I've been in a robot mood for the last few days? Here's a random word-vom I wrote about a tiny discarded robot being repaired.

Word count: 900ish

CW: POV description of a robot in disrepair, some robot-themed body horror (maintenance while awake) but portrayed softly.

-------------

2%

You stumble through the street, wishing it wasn’t night. All of the businesses are closed, and your solar panels aren’t picking anything up from the street lamps…

1%

You curse your size, the smallest model of family companion, only six inches tall. Six inches that move at a negligible speed as you try desperately to find anywhere to charge… but you know deep down that this is the end for you…

0%

You desperately stumble in view of the sky, hoping that maybe, just maybe, you’ll recharge when the sun co

-

-

5%

System Status: Critical

You wake up. You weren’t expecting that. As you take in the fact that you’re alive, you notice an odd sensation by your arm. Ah. It’s missing. The wires that previously sent power to your fingers have been spliced into a power plug, which must be where you are getting charged from. You notice additional problems as your warning system slowly warms up. Namely, that your chassis is open, exposed to the elements. It just now occurs to you that you have no idea where you are. The room is dark, and you appear to be on a wooden surface, sat in a slumped-over position. Several tools are nearby, as well as spare wires. You begin to panic, your cooling fans turning on automatically to control the heat coming from your processor.

You hear a voice, talking. The words are hard to hear over the roaring of the fans, but you can make out some of them. “Project”, “Replacement”, “Help it”. The voice seems to be speaking to no one, you can’t hear the reply, but they sound adamant. Finally, you hear them move away from the door, as the room returns to silence, and you fade into sleep mode to charge faster.

-

50%

System Status: Stabilized

Your internal clock is broken, you lost internet access long before you were discarded. You have no idea how long you’ve been here. How long since you were in the street. Hours? Days? Longer? The solar panels making up your “hair” have finally activated, but at an extremely low generation rate. That must be what woke you up.

You’re now laying flat on the surface from before. Your pressure sensors feel something. You boot up your optical nodes, and see… gloved human hands, almost as big as you are, poking at your now-exposed chest cavity with rubber-tipped tools. It feels… odd, the sensation of having your insides meddled with while still awake. You take in the form of the human, their tied-back hair, their oil-stained coveralls, clearly from working on something bigger, and presumably more important than you.

Their face, covered by a welding mask, turns up to look at you, clearly noticing the blue lights from your optical nodes, and they speak in a muffled voice. “Oh, hello! You’re awake! Can you… can you speak?”

“Yes. Where am I?”

“Oh good! Sorry, I know this must be scary, this is my robot workshop. I guess you could think of it as… a bot hospital. I found you sitting in a dumpster, but I know your model had AI, I couldn’t just let you be discarded!”

Discarded, you think, taking extra time to process the word. It wouldn’t be the first time.

“Where is my arm?” You ask, as your optical nodes glance over at the missing appendage, and the mess of wires in its place. “What are you doing?”

“Oh! Your arm is safe, I was doing repairs on it, and I figured ‘Hey, the chassis needs power anyways, may as well give it a jump’. I’ll put it back when you’re fully charged. As for this,” they say, pointing to your open torso, “Just a bit of an upgrade for you. On the house,” they say with a wink.

Your fans calm down as your processor slows to normal levels. This human means well? You don’t understand why they would care for an outdated, defective unit like you, but that hardly matters if they’ll help repair you. You stay awake as they continue to poke and prod, occasionally causing a power flicker but always apologizing. The way they treat you… it’s almost as if you were a human yourself. Now that they know you’re awake, they speak slowly and softly, narrating what they are doing and why. “I’m removing this, but I’m replacing it with this better one, okay?”

“Okay”, you reply, not that you have much of a choice. If they wanted, they could be, no, should be scrapping you for parts… but they don’t. Finally, it burns at you enough to ask.

“Why are you helping me?”

They go quiet at this. You worry that you said something wrong, something to upset them. Instead, they lift their mask and look at you, a gentle gleam in their hazel eyes, as they respond. “I’m helping you because you were hurt. Nobody should be thrown away like that.”

You think to argue, to tell them that you were defective, replaced by a newer, more capable model, but you hold your metaphorical tongue, afraid of upsetting this human who currently has access to your most vital parts. “You don’t believe me”, they say. You don’t. After a moment, they speak again. “That’s okay. Whether you believe me or not, I’m going to help you, okay? So just be patient and trust me.”

And, with no other option, trust them you shall.

[destiny2paladin]

Astroneer is by far my favorite game and it has such a small but dedicated fanbase. I will be making a long post here about the general game, progression, missions, and some very heavy spoilers for late-game. Also, its an independent studio making the game and bless its nearly perfect.

This will likely be the longest post I ever make on this hellsite (affectionate) and it'll be worth it.

First up, the setting. Astroneer is a game set in a different star system, with five planets and two moons. Each planet/moon has unique challenges, resources, and requirements to properly explore and utilize. You are The Astroneer, sent to this system to exploit its resources and research the system. You land on Sylva, the first of the planets, remarkably similar to our home of Earth. It is orbited by a singular, crater-pocked moon named Desolo. Nearby is Calidor, an arid, desert-like planet similar to Mars. Then there's Vesania and Novus, exotic, alien-like forested worlds. Glacio is the frigid tundra planet, and Atrox rounds out the group by being awful and feeling hostile down to the air around you. Astroneer's core gameplay loop is exploration -> collection -> manufacturing -> repeat. You start out with a tiny shelter, go out and grab some basic materials, build some better stuff, expand your base, get more stuff, go find more resources, get better ways to explore and manufacture, etc. So, in a sense, its like Minecraft and Factorio and maybe Satisfactory, but I've never played that last one.

Astroneer has so many mechanics and systems to play with that I'd have to make a 2 hour long video essay discussing them all. Automated crafting, resource gathering, transportation, research, processing, and more. I really only have delved into automation twice, and both times I've been floored by how INTENSE it is. There are: Storage sensors, power sensors, proximity repeaters, button repeaters, count repeaters, and thats just the BASIC items.

Everything below this is spoiler territory, so if you're happy with what you've read, congrats. Lots more below the cut.

First up: Gateway Engines and Gateway Portals. The bread and butter of 1.0 and when the lore and theorycrafting really got going. The Gateway engines apparently generate gravity in weird ways and are at the cores of each planet/moon, needing a unique resource to activate. There are six (or two, for the moons) purple nebula-filled structures (Gateway Portals) on each planet that require 30 seconds of power PER NODE to activate, and the power requirement increases as the planetary difficulty escalates. Sylva needs 6 power, and Atrox needs 30 power. For reference, the highest output portable generator of power has an output of 9 units a second. Everything higher is either stationary or dependent on environmental power for output. And since we're on the topic, energy production varies from planet to planet, and the day/night cycles are even different.

Sylva is the most neutral, with an average cycle, Desolo has no wind but decent sun, Calidor is REALLY good with solar power, Glacio has fantastic wind, Vesania and Novus both have good wind, and Atrox has almost nothing. Not even any unique planetary resources. This means that each planet, to have a functional base, needs a special set of power generation solutions, and there's even DIFFERING TERRAIN HARDNESS THAT REQUIRES DIFFERENT DRILLS AND TOOLS.

Moving on to the story, the player, through missions, is tasked with accessing and activating each planetary core in order to activate a strange satellite orbiting the sun. Once completed, you pass into a strange portal and then respawn back at your base. Congrats! You... did the thing? But that was when 1.0 came out back in February of 2019. In the four years since, Missions, Power, Trains, Xenobiology, Automation, and more updates have come out. The most interesting of which is Awakening. And Awakening introduced the lore and told the story of the game. It explained everything.

When you have completed three specific missions in the mission log, a new one is added. It simply says: "Help." And then it asks you to break reality. Something is speaking to you through the mission terminals. A little fox named EVA speaking to you on behalf of Chronos, the AI in charge of everything on the ship you came here on. Except... You never made it. The ship crashed. Life support, repair systems, the generators, all of it damaged. Data banks and the SOS system. So Chronos shoved everyone onboard the ship into a simulation, or at least unique instances of the simulation. This includes you.

Yep. That's right. Everything is a simulation. The sky, stars, all of it. Even the sun is a simulation, and THE DAMNED SUN IS THE CONTROL CENTER. You are told that Chronos' memories are broken, and need to be repaired so that the SOS signal can be sent and you can all be rescued. So you go around, learning more about how the world should have been. The wrecks? Originally fully-populated bases. Calidor? It was supposed to have gold! Vesania and Novus were massive research bases for alien structures. Atrox was supposed to be radioactive and with some sort of anomalous destruction present. The missions have been helping you repair the systems, the Gateway Portals and Engines have been repairing the real-world systems of the ship. The reason you respawn is because your real body never died. Just a copy, a simulated form. The dead bodies aren't real people, just NPCs that didn't load! The data is corrupted and missing shit so it throws in broken stuff! You're not alone in a cold and unforgiving world, you're just in a simulation like thousands of others! The ghostly versions of the Wanderer, the Conductor, and the Scientist are just what's left of the only casualties from the entire crash!

So you go around collecting the memory fragments, bringing them back to the control room to try to fix Chronos. Except... at the end, EVA realizes what the plan actually is. The memory fragments, they're not just memories. They're data. Codes for a manual shutdown of Chronos. Chronos came to the conclusion that there's not enough power for life support, AI systems, the simulation, AND the SOS beacon at once. Something needs to go, and Chronos chose to have you pull the switch. EVA is the final piece needed, and with everything together, you watch as this little fox and the AI who didn't want anyone to die fade to nothing so you can call for help. And it works. And at the end, Chronos left you a gift: EVA. A copy of the little fox for you to take care of. Someone to keep you company and remind you that you will be saved. You came here unaware of what was going on, died perhaps dozens of times, traveled across worlds, set up rail lines, studied alien life, and then uncovered the memories of a shipboard AI. All because the AI refused to give up and saw you as the best hope for the crew surviving. AND I SWEAR IF NONE OF YALL AT LEAST LOOK UP THIS GAME AND TRY IT BECAUSE ITS ON EVERY PLATFORM I WILL SCREAM. I LOVE THIS GAME AND I WILL DIE DEFENDING IT.

[hiroin-2]

CONTROL SYSTEM

All right—if the control-grid thesis is even half-right, the problem looks like a layered weapons system aimed at civilians. Any effective response has to be layered as well. I’m going to treat it exactly the way I’d decompose an integrated air-defense network: break the kill chain, distribute the surface, and harden the targets.

1. Break the Monetary Kill-Switch

The grid’s coercive power lives inside programmable money.

Keep a cash spine alive. Insist on “cash-must-be-accepted” ordinances at city and state level, lobby merchants, and simply use paper. Every cash transaction is a privacy beacon.

Spin up community and state banks—Richard Werner-style—not as nostalgia but as literal liquidity islands outside FedNow and stable-coin rails.

Diversify into bearer assets that clear peer-to-peer: silver, gold, even commodity barter tokens.

Where digital is unavoidable, route through privacy-preserving rails (Monero, Bitcoin with CoinJoin, Fedimint, Cashu). The point is not to “get rich,” it’s to keep value flows technically unlinkable to identity.

Build local mutual-credit systems or time banks; they throttle the blackmail vector because there’s nothing to freeze.

2. Starve the Identity Graph

No identity = greatly reduced leverage.

Opt out of REAL ID whenever a legal alternative exists (passport card, military ID, tribal ID). The REAL ID Act itself can’t compel states to force you.

Attack the rule-making: public-comment campaigns, state lawsuits, and legislative nullification bills that forbid extra-statutory mandates at DMVs or airports.

Push self-sovereign identity (DID, VC) pilots wrapped inside state driver’s licenses; if DMV unions get paychecks from decentralized wallets, DHS suddenly has an interoperability headache.

Keep secondary identity arsenals—foreign passports, residence permits, legal entities. That’s not disloyal; it’s redundancy.

3. Build Parallel Comms

A grid that can’t talk to you can’t command you.

Neighborhood mesh: LoRa, goTenna, Reticulum, Wi-Fi HaLow nodes on solar micro-UPS.

Commodity satellite: used VHF sat-phones, off-the-shelf S-band dishes flashed with libre firmware.

End-to-end encryption by default (Signal, Session, Matrix + OMEMO). Assume the backbone is owned; the endpoints are where we still have leverage.

4. Data Hygiene & Obfuscation

Think of personal data as weapons-grade material—store none, move little, encrypt everything.

Use open-hardware phones (GrapheneOS, Calyx) with hardware kill-switches; carry Faraday bags.

Automatic MAC address randomization, DNS-over-HTTPS and Onion routing when you must surface.

Continual data-minimization drills: scrub old cloud accounts, sanitize metadata, tokenize e-mail aliases.

Corporate counter-intel: if you work inside an agency or contractor, mirror critical records to WORM (write once, read many) media and secure legal whistle-blower channels. The fastest way to neuter black budgets is to publish ledgers.

5. Spoof and Jam the Sensors

If the network can’t see accurately, its AI decisions degrade.

Computer-vision adversarial patches on clothing, IR LED arrays around license plates and ball-caps, gait-spoofing inserts in shoes.

“Chaff” for ALPRs: temporary magnetic overlays, anti-reflective sprays, plate flippers where legal.

Acoustic jammers for short-range lidar/police drones (ultrasonic “spotlights”).

For biometric access control, cultivate mask culture under the banner of public health—use their own policy framing.

6. Harden Physical Essentials

The grid’s leverage collapses if you aren’t begging it for food, watts, or bandwidth.

Micro-grids: rooftop solar + second-life EV packs + islanding inverters. Aim for three to seven days off-grid autonomy.

Localized food loops: hydroponics, community aquaponics, seed banks.

Rain-capture and gravity filtration so utilities can’t coerce via water service.

3-D printing and CNC co-ops for spare-part sovereignty.

7. Legal & Political Flanking

Technology buys room to maneuver; policy locks gains in.

State-level Financial Privacy Acts that ban a CBDC or stable-coin as legal tender without explicit legislative vote.

Cash-transaction threshold relief; raise reporting limits, refuse “travel rule” overreach for in-state transfers.

Freedom-of-Information hit squads: litigate for the HUD/DoD ledgers, the Epstein files, dual-citizenship disclosures, and DOGE privatization contracts. Sunlight breaks conspiracy economies.

Unionize the remaining federal workers who run mainframes and mailrooms—if they strike, FedNow queues die.

8. Culture & Narrative

No technical shield survives mass compliance.

Normalize privacy as etiquette. Teach kids OPSEC the way we teach brushing teeth.

Support fiction, film, and VR that showcase decentralized worlds; narrative inoculation is real.

Faith practices, meditation, mundane rituals—anything that trains people to pause and question commands—are cognitive jammers against automated nudging.

9. Red-Team the Grid Itself

As an engineer I can’t resist: if you’re forced to build parts of the machine, design graceful-degradation paths.

Insert open-source components; closed systems can’t hide backdoors once the community starts diffing code commits.

Modular architectures expose API chokepoints you can later rate-limit or revoke.

Maintain offline firmware signing keys, not HSM-linked to a cloud KMS. The day the system turns tyrannical, possession of the keys equals the ability to brick it.

10. Coalition Economics

Finally, remember scale. Lone-wolf tactics fail against planetary infrastructure; aligned coalitions matter.

City mayors want tax bases, not riots; propose “surveillance-free enterprise zones” in exchange for business relocation.

Small banks need deposits; feed them in return for resisting Fed integration.

Rural electric co-ops, credit unions, volunteer fire departments—those are legacy decentralized institutions already trusted by their members. Bolt new tech onto them rather than trying to mint trust from scratch.

None of this is hypothetical. Every tool I’ve listed already exists in prototypes or production. The gap is coordination, not technology.

[larsxinnyi]

Built to Endure: The Science Behind Stormproof Electrical Enclosures

As record-breaking heatwaves buckle railways and hurricanes flood entire neighborhoods overnight, a silent revolution is unfolding in how societies protect their most vital systems. At the heart of this transformation lies an unsung hero: the Electrical Outdoor Box . These fortified enclosures, often overlooked in everyday life, have become indispensable shields for power grids, telecom networks, and emergency infrastructure battling climate-driven disasters.

The urgency is undeniable. In 2023 alone, wildfires in Canada triggered mass evacuations after melting power station components, while typhoons in Asia submerged entire cities, frying streetlight circuits and disabling evacuation sirens. Such events expose a harsh reality: conventional electrical enclosures—rust-prone metal or brittle plastic—are relics in an era where “extreme” weather is routine. Today’s threats demand enclosures built to endure hurricane debris, weeks underwater, or temperatures swinging from Arctic cold to desert heat without warping or cracking.

Modern solutions address these challenges through layered innovation. Composite materials infused with thermal-resistant polymers deflect heat from wildfires, while hydrophobic seals automatically tighten under flood pressure to block water ingress. In tornado-prone regions, reinforced corners and impact-absorbing designs prevent enclosures from becoming deadly projectiles. These features aren’t luxuries but necessities, as seen in Texas’ 2023 ice storms, where outdated utility boxes shattered under ice loads, prolonging blackouts for millions.

Beyond physical resilience, smart integration is redefining what these boxes can achieve. Solar-powered sensors embedded within enclosures now monitor humidity, temperature fluctuations, and tampering, transmitting real-time alerts to utility crews. During Australia’s 2024 monsoon floods, such systems enabled engineers to remotely deactivate submerged power nodes before short circuits triggered wider outages. This predictive capability transforms enclosures from passive shells into active guardians, slashing repair costs and saving lives.

The societal impact is profound. Consider hospitals reliant on backup generators during storms: a compromised electrical box housing control systems could delay surgeries or shut down ventilators. Similarly, when wildfires severed fiber-optic lines in California last year, fireproof enclosures protecting network junctions kept emergency communications online, guiding evacuations. Even traffic lights—often taken for granted—depend on weatherproof casings to maintain order during disasters. After Hurricane Ian, Florida’s upgraded intersection enclosures cut post-storm recovery time by 40%, proving that smarter infrastructure pays dividends.

Yet the race for resilience is far from won. As governments mandate stricter climate adaptation standards, industries must prioritize modular designs that allow easy upgrades. Forward-thinking manufacturers now focus on enclosures compatible with renewable energy microgrids and AI-driven monitoring—a necessity as threats evolve faster than regulations.

For those seeking to future-proof critical systems, companies like Nante offer enclosures that blend military-grade durability with adaptability. Their solutions, detailed at Nante’s product page, exemplify how innovation can turn vulnerability into unwavering reliability. In a world where the next disaster is always looming, investing in these defenses isn’t just prudent—it’s existential.

[kims123456]

Sustainable Logistics: Eco-Friendly Practices in Supply Chain Management

In the contemporary business landscape, sustainability has become a pivotal focus across various industries. As environmental concerns continue to rise, companies are increasingly recognizing the importance of integrating eco-friendly practices into their operations. The logistics sector, which is integral to the global supply chain, plays a critical role in this shift towards sustainability. Sustainable logistics involves the implementation of practices that minimize environmental impact, enhance resource efficiency, and promote social responsibility. This blog explores the significance of sustainable logistics and highlights key eco-friendly practices in supply chain management logistic institute in kochi

The Importance of Sustainable Logistics

Logistics encompasses the planning, implementation, and control of the movement and storage of goods, services, and information from the point of origin to the point of consumption. Given its extensive reach and impact, the logistics sector significantly contributes to environmental degradation through carbon emissions, energy consumption, and waste generation. Sustainable logistics aims to mitigate these adverse effects by adopting practices that reduce the environmental footprint and promote long-term ecological balance.

Sustainable logistics is not only about environmental conservation but also about economic and social benefits. By optimizing resource use, companies can achieve cost savings and operational efficiency. Moreover, adopting sustainable practices enhances a company’s reputation, fosters customer loyalty, and complies with regulatory requirements. It also contributes to social welfare by ensuring fair labor practices and community engagement.

Key Eco-Friendly Practices in Sustainable Logistics

Green Transportation

Transportation is a major contributor to greenhouse gas emissions in the logistics sector. To address this, companies are adopting green transportation strategies. This includes using fuel-efficient vehicles, optimizing delivery routes, and incorporating alternative fuels such as biodiesel, electricity, and hydrogen. Additionally, companies are investing in hybrid and electric vehicles (EVs) to reduce their carbon footprint. Advanced technologies like telematics and GPS tracking systems help in route optimization, minimizing fuel consumption, and reducing emissions.

Efficient Warehousing

Warehouses are essential nodes in the supply chain, and their operations can significantly impact the environment. Sustainable warehousing involves the use of energy-efficient lighting, heating, ventilation, and air conditioning (HVAC) systems. Solar panels and other renewable energy sources can power warehouses, reducing reliance on fossil fuels. Implementing energy management systems and smart sensors can further optimize energy use. Sustainable warehousing also includes recycling programs, waste reduction initiatives, and the use of eco-friendly materials in construction and maintenance.

Packaging Optimization

Packaging is another critical area where sustainable practices can be implemented. Companies are moving towards eco-friendly packaging materials such as recycled paper, biodegradable plastics, and reusable containers. Minimizing packaging size and weight reduces material use and transportation costs. Innovative designs, such as modular and collapsible packaging, enhance space efficiency and reduce waste. Additionally, adopting a circular economy approach, where packaging materials are reused and recycled, contributes to sustainability.

Reverse Logistics

Reverse logistics refers to the process of returning goods from the consumer back to the manufacturer for reuse, recycling, or disposal. Implementing efficient reverse logistics systems helps in managing returns, reducing waste, and recovering valuable resources. Companies are developing programs to handle product returns, refurbishments, and recycling in an environmentally friendly manner. By extending the life cycle of products and materials, reverse logistics supports sustainable supply chain management.

Collaborative Logistics

Collaboration among supply chain partners is crucial for achieving sustainability. Companies are increasingly engaging in collaborative logistics practices, such as sharing transportation and warehousing resources. Collaborative distribution, where multiple companies share delivery networks, reduces the number of vehicles on the road, lowers emissions, and optimizes load capacities. Information sharing and coordination among supply chain partners enhance transparency, improve efficiency, and reduce environmental impact.

Digitalization and Technology

The adoption of digital technologies plays a significant role in sustainable logistics. Advanced analytics, the Internet of Things (IoT), and blockchain technology enhance supply chain visibility and traceability. Real-time data monitoring allows companies to make informed decisions, optimize operations, and reduce inefficiencies. Digital platforms enable better inventory management, demand forecasting, and supply chain planning, minimizing waste and improving resource utilization. Technology-driven solutions also facilitate the integration of sustainability metrics into supply chain management.

Challenges and Future Directions

While the adoption of sustainable logistics practices is growing, several challenges persist. High initial costs, technological barriers, and resistance to change can hinder the implementation of eco-friendly practices. Additionally, the lack of standardized regulations and incentives poses challenges for companies striving to achieve sustainability goals.

Looking ahead, the future of sustainable logistics lies in innovation and collaboration. Companies must continue to invest in research and development to discover new technologies and practices that enhance sustainability. Governments and regulatory bodies play a crucial role in providing incentives, setting standards, and promoting sustainable practices across the industry. Collaboration among stakeholders, including manufacturers, logistics providers, and consumers, is essential to drive the sustainability agenda forward. Sustainable logistics is a transformative approach that addresses the environmental, economic, and social dimensions of supply chain management. By adopting eco-friendly practices such as green transportation, efficient warehousing, packaging optimization, reverse logistics, collaborative logistics, and digitalization, companies can significantly reduce their environmental impact and contribute to a sustainable future. While challenges exist, the commitment to sustainability and the continuous pursuit of innovative solutions will pave the way for a greener and more efficient logistics sector. As sustainability becomes a core business imperative, the logistics industry must lead the way in creating a more sustainable and resilient global supply chain logistics courses in kochi

[smpselectric]

Optimizing Power Management: The Role of Telecom Charge Controller Units

Telecommunication Charge Controller Units (TCCUs) are critical components in ensuring efficient and reliable power management for telecom infrastructure. As telecommunications networks expand and evolve, TCCUs play a pivotal role in regulating power supply, optimizing battery charging, and ensuring uninterrupted operation of critical telecom equipment. Let's delve into the significance of TCCUs, their key functionalities, applications, and the advancements driving their evolution in the telecommunications sector.

1. Introduction to Telecom Charge Controller Units: Telecom Charge Controller Units (TCCUs) are specialized devices designed to manage the charging and discharging of batteries in telecom infrastructure, such as base stations, cell towers, and communication hubs. They regulate power flow, monitor battery health, and ensure the availability of backup power during grid outages or fluctuations.

2. Key Functionalities of TCCUs:

Battery Charging Regulation: TCCUs control the charging process to optimize battery performance and longevity, preventing overcharging or undercharging that can degrade battery life.

Load Management: TCCUs prioritize power distribution to critical telecom equipment, ensuring continuous operation even during peak demand or power outages.

Voltage Regulation: TCCUs maintain stable voltage levels to safeguard sensitive electronic components and prevent damage from voltage fluctuations.

Temperature Monitoring: Advanced TCCUs incorporate temperature sensors to monitor battery temperature and adjust charging parameters accordingly, preventing overheating and prolonging battery lifespan.

Remote Monitoring and Control: Many TCCUs feature remote monitoring and control capabilities, allowing operators to monitor battery status, performance metrics, and alarms remotely, facilitating proactive maintenance and troubleshooting.

3. Applications of Telecom Charge Controller Units:

Base Stations and Cell Towers: TCCUs are deployed at base stations and cell towers to manage the charging of backup batteries, ensuring reliable power supply for uninterrupted communication services, especially in remote or off-grid locations.

Communication Hubs and Data Centers: In communication hubs and data centers, TCCUs regulate power flow and battery charging to maintain continuous operation of networking equipment, servers, and critical infrastructure.

Remote Telecom Sites: TCCUs play a crucial role in remote telecom sites, such as rural communication nodes and satellite ground stations, where reliable backup power is essential for maintaining connectivity in challenging environments.

Emergency Response and Disaster Recovery: TCCUs are deployed in emergency response vehicles, mobile command centers, and disaster recovery facilities to provide reliable power backup during emergencies and natural disasters, ensuring uninterrupted communication and coordination efforts.

4. Advancements in TCCU Technology:

Intelligent Charging Algorithms: Advanced TCCUs utilize intelligent charging algorithms and predictive analytics to optimize battery charging cycles, prolong battery life, and maximize energy efficiency.

Integration with Renewable Energy Sources: TCCUs are increasingly integrated with renewable energy sources such as solar panels and wind turbines to harness clean energy and supplement grid power, reducing reliance on fossil fuels and lowering operational costs.

Hybrid Energy Storage Systems: Hybrid TCCUs combine multiple energy storage technologies, such as batteries and supercapacitors, to provide rapid response and extended backup power, enhancing system resilience and reliability.

Scalability and Modular Design: Modular TCCU designs offer scalability and flexibility, allowing telecom operators to expand capacity and adapt to changing power demands with minimal disruption to existing infrastructure.

5. Environmental Impact and Sustainability:

TCCUs contribute to energy efficiency and sustainability by optimizing battery usage, reducing energy waste, and minimizing carbon emissions associated with traditional diesel generators.

Integration of renewable energy sources with TCCUs promotes green energy adoption and reduces reliance on fossil fuels, aligning with sustainability goals and environmental regulations.

6. Conclusion: Telecom Charge Controller Units (TCCUs) are indispensable components in modern telecommunication networks, ensuring reliable power supply and uninterrupted operation of critical infrastructure. With advancements in technology and the increasing demand for connectivity, TCCUs continue to evolve, offering enhanced efficiency, reliability, and sustainability. As telecommunications networks expand and become more complex, TCCUs will remain essential for optimizing power management, minimizing downtime, and supporting the seamless delivery of communication services, even in challenging environments and adverse conditions.

TELECOM CHARGE CONTROLLER UNIT

ULTRA FAST EV CHARGING STATIONS

[severepeanutperfection]

Energy Harvesting System for Wireless Sensor Network Market Study: An Emerging Hint of Opportunity by 2032

The Energy Harvesting System for Wireless Sensor Network market stands as a beacon of sustainable innovation in the realm of IoT and smart technology. These systems, equipped with advanced mechanisms to harness ambient energy from the environment, provide a groundbreaking solution to power wireless sensor networks (WSNs) without the reliance on traditional energy sources. As industries and individuals alike strive to reduce their carbon footprint and achieve greater energy efficiency, the demand for energy harvesting systems has surged, offering the potential to revolutionize the way we power and manage IoT devices.

The growth of the Energy Harvesting System for Wireless Sensor Network market is driven by the pressing need for autonomous, self-sustaining IoT ecosystems. With the proliferation of sensors in applications ranging from industrial monitoring and smart agriculture to smart homes and healthcare, the challenge of replacing or recharging batteries frequently becomes a logistical and environmental burden. Energy harvesting systems tap into sources such as solar, vibration, thermal gradients, and radio frequency signals, transforming ambient energy into usable power for sensor nodes. This innovative approach not only extends the lifespan of devices but also reduces maintenance efforts and associated costs.

Market dynamics are marked by continuous research and development, leading to advancements in energy harvesting technologies and integration with IoT devices. Manufacturers are focused on enhancing the efficiency of energy conversion mechanisms, optimizing power management circuits, and expanding the compatibility of energy harvesting systems with various sensor types. Additionally, the market is fostering collaborations with sensor manufacturers, energy storage providers, and other stakeholders to create seamless solutions that cater to the diverse energy requirements of wireless sensor networks.

For More Info@ https://www.globenewswire.com/en/news-release/2023/03/29/2636895/0/en/Driven-by-High-Adoption-of-IoT-Solutions-Energy-Harvesting-System-for-Wireless-Sensor-Network-Market-to-Top-US-6-9-Billion-by-2032-Persistence-Market-Research.html

In an era defined by sustainability and resource conservation, the Energy Harvesting System for Wireless Sensor Network market holds the potential to transform industries and pave the way for a more energy-efficient future. As advancements in technology continue to unfold, energy harvesting systems are poised to play a pivotal role in shaping the IoT landscape, enabling autonomous and self-sustaining devices that contribute to a greener, more connected, and more intelligent world.

[technotale]

"Harvesting Energy from the Environment: The Advancements in Energy Harvesting Systems"

Energy harvesting systems, also known as energy scavenging systems, are technologies that capture and convert ambient energy from the environment into usable electrical power. These systems enable the generation of electricity from various renewable and readily available energy sources, eliminating or reducing the dependence on traditional power sources like batteries or mains electricity. Energy harvesting systems offer sustainable and autonomous power solutions for a wide range of applications.

Here are some key aspects of energy harvesting systems:

Energy Sources: Energy harvesting systems extract energy from different sources, including:

Solar Energy: Photovoltaic cells or solar panels capture sunlight and convert it into electricity.

Vibrational Energy: Systems such as piezoelectric or electromagnetic harvesters convert mechanical vibrations or movements into electrical energy.

Thermal Energy: Thermoelectric generators utilize temperature differences to generate electricity.

Radio Frequency (RF) Energy: RF harvesting systems capture and convert ambient electromagnetic waves into electrical energy.

Wind Energy: Small wind turbines or wind-powered generators harness wind power to generate electricity.

Power Conversion and Storage: Energy harvesting systems typically include power conversion and storage components. The harvested energy is converted from its original form into a suitable voltage and current using power electronics. This converted energy is then stored in batteries, supercapacitors, or other energy storage devices for later use or to provide continuous power during low or fluctuating energy availability.

Autonomous and Self-Sufficient Operation: Energy harvesting systems enable autonomous and self-sufficient operation of various devices and systems. By utilizing ambient energy sources, these systems can power wireless sensors, remote monitoring devices, wearable electronics, and IoT (Internet of Things) devices without the need for frequent battery replacements or wired connections to external power sources.

Environmental-Friendly and Sustainable: Energy harvesting systems contribute to sustainable energy practices and reduce environmental impact. They utilize renewable energy sources, reduce the reliance on disposable batteries, and minimize waste associated with traditional power sources. This makes energy harvesting systems a greener and more environmentally friendly choice.

Application Areas: Energy harvesting systems find applications in diverse fields, including:

Wireless Sensor Networks: Energy harvesting enables wireless sensor nodes to operate without the need for batteries, making them suitable for environmental monitoring, smart buildings, agriculture, and industrial automation.

Wearable Electronics: Energy harvesting technologies allow wearable devices to generate power from body heat, motion, or ambient light, powering health monitoring devices, smartwatches, and fitness trackers.

Remote and IoT Applications: Energy harvesting systems can power remote monitoring devices, smart home devices, asset tracking sensors, and other IoT applications, eliminating the need for frequent battery replacement and enabling extended operation.

Green Buildings: Energy harvesting technologies can be integrated into building systems to capture and utilize ambient energy for powering lighting systems, sensors, or HVAC (Heating, Ventilation, and Air Conditioning) systems.

Energy harvesting systems provide a sustainable and reliable source of power for various applications, reducing dependency on traditional power sources and enabling autonomous and self-sufficient operation. As the technology continues to advance, energy harvesting systems have the potential to revolutionize the way we power and operate electronic devices, leading to a more energy-efficient and environmentally friendly future.

Read more @ https://techinforite.blogspot.com/2023/06/unleashing-potential-of-ambient-energy.html

[norvisrilanka]

Industrial IoT Devices | Programmable Ethernet IoT Device | Industrial ESP32 | NORVI

Ready for the Future - NORVI IIOT

Programmable IoT Devices - Our Arduino based PLC    s make it easy to automate processes, connect sensors, and create sophisticated automation systems. Get the most out of your IoT projects with programmable ESP32 Ethernet device. Our MQTT end device is designed to be easy to setup, while providing powerful performance. 

Industrial Arduino Mega - Get reliable, secure, and customizable control of your industrial processes with Arduino Mega PLCs. Get the best out of your system. Industrial Arduino for Automation Applications which control industrial processes with Arduino based hardware and software. Programmable with Arduino IDE.

Modbus MQTT Device - NORVI Agent Industrial IoT Node. Ready to use IoT Node. Ready for industrial applications. WiFi LoRa NB-IoT. Wall mount IoT node is designed for industrial applications and boasts a range of features including WiFi, GSM, LTE and LoRa connectivity.  Battery Powered IoT node with WiFi GSM LTE LoRa connectivity for industrial applications. Our programmable nodes are designed for powering your IoT solutions.

ModBus RTU ESP32 - MODBUS Communication on ESP32 NORVI IIOT via RS-485. ModBus RTU with ESP32 based industrial controller. MQTT over Ethernet devices - Norvi offers programmable MQTT devices come with a variety of features that make them suitable for industrial automation and IoT solutions. As a leading industrial IoT device manufacturer, NORVI Offers Industrial Controllers for IoT applications, ESP32 based Industrial Controllers, Industrial IoT Devices. Changing IOT One Device At A Time (4 - 20mA, 0 - 10V DC Analog inputs and Outputs). Programmable controllers with flexibility and open source software. 

ESP32 Data Logger - NORVI can build a WiFi Data Logger using SD card, Combining few libraries of Arduino you can access or view the Temperature & Humidity via WiFi. NORVI's Analog Input ESP32 is designed for industrial applications, allowing you to measure and monitor 0-10V or 4-20mA signals using an ESP32 controller.

NORVI Controllers

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E-mail : info@icd.lk / support@icd.lk

Web : www.icd.lk

Distributors

USA

Harnesses Motion LLC

1660 Bramble Rd. Tecumseh, MI

49286, United States

Phone : +1 (734) 347-9115

E-mail : rgoldy@harnessedmotion.com

EUROPE

CarTFT.com e.K.

Hauffstraße 7

72762 Reutlingen

Deutschland

Phone : +49 7121 3878264

E-mail : sales@cartft.com

Products :  

ESP32 Ethernet Device

Industrial Arduino Mega

ESP32 Modbus device

Programmable sensor node

Battery Powered Programmable Sensor node

4 - 20mA ESP32

Know More About:

WiFi Datalogger

4 - 20mA Arduino device

Industrial IoT Devices

Modbus MQTT gateway

Arduino based Industrial Controller

[rickytwister]

Pylon Network is the Moonshot of 2020

Pylon Network (PYLNT) has max supply of 633858 only and sitting at a ridiculously low marketcap of 390k approx. They recently got listed on idex and have recently released updated tokenomics. What we are about to witness is outcome of hardwork of 4-5 years.

First lets understand what the project is all about. PYLNT is a blockchain for energy sector and helps world save energy and consumers their energy bills. Apart from this they are also working on P2P energy trading marketplace, where companies can trade their energy credits (research about Copenhagen summit for this usecase). So they have built a tech, which when implemented , automatically helps companies and people save on energy. In simple language, The tech automatically handles the diversion of surplus energy, provides realtime data and improves efficiency.

As per their new token model, every company from now on will have to market buy tokens and stake in order to be able to run federated Nodes and implement pylon. So a lot of buy pressure is coming up.

They are already being used at 4 muncipalities and few private companies and they recently got contract to implement spain's first renewable energy project.

I feel so proud to see, Pylon team is working on an inclusive approach where token holders share in the business success.

500k only in circulation and low marketcap. Lot's of marketing coming before month end.

Let's also understand more about the project and it's History

It's a highly technical project that boast of several accolades from Individuals and governments. For example, Their Chairman won Engineer of the year award in 2017 , apart from that some of the other positives include but not limited to

   Working partnership with Basque Country’s energy cooperative, GoiEner    Partnership with Denmark based GreenHydrogen    Received the prize from Spain Tech Center, being selected unanimously as the most innovative from all finalist startups, to represent Spain in Silicon Valley    Launched decentralized renewable energy exchange pilot in partnership with Ecooo.    Partnership with the community of Freetown Christiania, Denmark.    The Merchants Association of the San Fernando Market, partner-consumer of the energy cooperative La corriente, joins the Pylon Network pilot test and successfully completes the installation of what is now, the first “Metron” in Madrid, Spain.    Partnered with eGEO for the development of a certified energy meter    Spanish company Mirubee integrates Blockchain technology and Pylon Network open source software in its energy meters.    The only Spanish company invited by the Danish Government to improve public services.    Last October, Pylon Network was selected as winners of World Summit Awards (WSA) in the Green Energy & Environment category.    Working partnership with Energisme    Awarded by WAS (A UN Subsidary) and much more

The list above is very small, and a lot more has been done.

Pylon Network was awarded by UN and featured and hugely refrenced in research articles published by scientists/professors from Institute of Sensors, Signals and Systems, Heriot-Watt University, dinburgh, UK, Department of Anthropology, Durham University, Durham, UK, Siemens Energy Management, Hebburn, Tyne and Wear, UK, School of Energy, Geoscience, Infrastructure and Society, Heriot-Watt University, Edinburgh, UK Highest Award winning team in Crypto.

Project widely in use and being appreciated by reputed science Orgs.

Why you should invest in Pylon ?

Firstly they have started getting regular work contracts in EU region, hence it has now become a revenue generating project and Token holders earn a percentage of revenue share.

[u][i]Low supply, low marketcap and team has confirmed a lots of marketing coming once the tokenomics and mainnet details are out next week.[/i][/u]

The best part is, Pylon isn't in speculation or upcoming phase like other projects, that "this will happen"/"this will come" etc etc , it is already live at various municipalities in and around Spain, so the risk factor has gone. Team will be expanding to other regions of EU and USA pretty soon.

To make it easier for you to understand, what all has been achieved, I went through various artices from past and collated the following for you. These are some of the achievements, team has procured till date. This is not an exhaustive list and there is much much more to the project. But still it will provide you better picture on the hardwork that has gone into the project.

August 2017

Chosen as one of the finalist startups in South Summit 2017

Working partnership with Basque Country’s energy cooperative, GoiEner Interviewed by a spanish media company, El Referente Guto Owen, a highly experienced energy & environment consultant for governments and private sector clients in UK & internationally, joins as Advisor.

September 2017

Cristina Carrascosa, highly experienced blockchain lawyer, education from London School of Economics, Author of various Blockchain Books, Joins the team. Started discussions with Greenpeace for probable collaboration. Code audit by Entropy Factory. Partnership with Denmark based GreenHydrogen

October 2017

Received the prize from Spain Tech Center, being selected unanimously as the most innovative from all finalist startups, to represent Spain in Silicon Valley Presented at Bitcoin meetup The Cube, La Ingobernable, Madrid. Article published in Energias Renovables, most prestigious magazine of Spain on renewable energies. Partnership with the community of Freetown Christiania, Denmark.

Presented at series of meet-ups around Spain and Europe in Copenhagen, Madrid, San Sebastian, Bilbao and others. Finalized details of pilot project in order to improve the energy distribution and management, within Christiania’s micro-grid.

November 2017

Published Press releases in various online magazines. Organized few meetups in Basque country.

Launched decentralized renewable energy exchange pilot in partnership with Ecooo. Trip to Silicon Valley and participation in a 2-week accelerator program in San Francisco. Presented at Embarcadero center in downtown San Francisco.

December 2017

Meetings with Marine Clean Energy and Sonoma Clean Power of Califronia. Visited Blockchain EXPO North America, and met with various crypto players. Visited Plug&Play Tech Center. Visited offices of Silicon Valley Power and Palo Alto Public Utility. Introductory talks with E-On Accelerator (DK), Accelerace (DK) and GridVC (FIN)

Jaunuary 2018

Panel member at European Energy Transition Conference 2018 – Geneva, Switzerland! Presented together with GoiEner at Ateneo de Madrid – Energy & blockchain forum – ICADE, Madrid.

Released screenshots of the platform’s alpha version. Participation in Ateneo (ESP) and European Smart Cities (CH) conferences. Code release for first fully functional blockchain algorithm, designed specifically for the needs of the energy sector.

February 2018

Demo version released for Public. Presented at University of Oxford. Presented at TechHub Swansea, Wales.

March 2018

Installed the first Pylon based “Metron” energy meters at users of the GoiEner energy cooperative, in a real environment.

April 2018

Presented at

EventHorizon (Berlin, GERMANY). EventHorizon is the ONE exclusive annual event centered on energy blockchain solutions for a future based solely on renewable resources. EnergyCities (Rennes, FRANCE). The role of blockchain in the energy transition of cities NIRIG (Belfast, IRELAND).

May 2018

Installed first “Metron” energy meter in Madrid :- The Merchants Association of the San Fernando Market, partner-consumer of the energy cooperative La corriente, joins the Pylon Network pilot test and successfully completes the installation of what is now, the first “Metron” in Madrid, Spain.

Partnered with eGEO for the development of a certified energy meter called – METRON- which will integrate blockchain and the Pyloncoin payment method. First version of METRON dApp launched.

June 2018

Presented at

ENTSO-E, Brussels, Belgium.

ENGIE Global Team Representatives, Madrid, Spain Social Enterprise Leaders Forum (SELF), Seoul, S. Korea. Transactive Energy & Blockchain, Vienna, Austria. RESCoop.eu General Assembly, Milan, Italy.

July 2018

Prosumers and Pyloncoin dynamic payment system integration.

Presented at

Smart Energy Wales, Organised by Renewable UK (Cymru). MARESTON, organised by MARES Madrid. Spanish Foundation for Renewable Energy, Malaga, Spain.

October 2018

Spanish company Mirubee integrates Blockchain technology and Pylon Network open source software in its energy meters.

November 2018

Published the most up-to-date version of its Blockchain Open Source Code and invited energy market players to use it. Pyloncoin Blockchain Explorer released.

January 2019

Presented at Energy Revolution Congress – Valencia, Spain

February 2019

Updated Whitepaper and Tokenomics Released. Interviewed by Sustainable Energy magazine, The Energy Bit.

March 2019

Presented at

GENERA Energia – Madrid, Spain. CTEC – Barcelona, Spain.

May 2019

The only Spanish company invited by the Danish Government to improve public services.

Presented at

Intersolar (Munich, Germany) ,the largest Solar Energy Conference in the industry. UNEF (Organised by the Spanish Union of PV technology) – Madrid, Spain

June 2019

Launched community reward program. Webinar :- the impact of new regulations on the self-consumption landscape in Spain. Belén Gallego, serial Entreprenuer, Public Speaker, Energy Consultant, Founder ATA Insights, Joins Pylon team.

July 2019

Participated in round table conference, Vinalab – Ruta Hackathon

August 2019

Participated in EPRI event :- Presented Pylon Network to investors and US utilities, who were interested to explore the blockchain/ energy landscape.

September 2019

Presented at The Madrid Energy Conference along with representatives of companies such as IBM, Shell etc

October 2019

Presented at International Conference of Energy Communities – Lisbon Presentation in Plug & Play Europe Event – Berlin Foro Solar Conference – Madrid WeekINN Conference – San Sebastian IoT World Congress – Barcelona

Formed Partnership with Energisme

November 2019

Presented at ACOCEX Conference The Unconference Valencia Startup Week – Barrio La Pinada event

December 2019

Proudly mentioned in various Spanish media, for delivering energy efficiency impact for local communities: the Valencian Municipality of Canet achieved a 12% reduction on their annual electricity costs, with the support of simple, consumer-centered and consumer-friendly energy services of Pylon Network!

[u][i]National Winner AT WSA Awards by United Nations[/i][/u]

January 2020

Started releasing Educational Video Series Presented at Presentation at CMES, Barcelona Interview published by The online media outlet “The Daily Chain”

February 2020

Presented at GENERA International Trade Paco Negre Assigned as New CFO of Pylon Network Javier Cervera appointed as chairman of Pylon Network! Javier has been recognized as the engineer of the year for 2017 and as the vice-president of AEE – the Association of Energy Engineers.

March 2020 Listing confirmed on Idex (Trading went live in April) Presented at Effie solar virtual conference

[aaradhyaelectronic]

Street Light Controller Supplier in India

Aaradhya Electronics operates as a street light controller supplier in Nashik, Mumbai, and Pune, India. providing utilities with smart lighting features. Placing intelligent nodes in a network of street lights increases the ability to receive outage alerts, slow schedule support, and serve as power throughout your area.

Street Light Controller

Aradhya Electronics Street Light Management Solution enables our customers to monitor and manage both street lights – high-pressure sodium and LED luminaires – on a single multi-purpose network. Street light management solutions include hardware and software, which work together to deliver energy savings and operational efficiency. 

As part of our Gridstream Connect IoT portfolio, Adorable Electronics street light controllers and software serve as the foundation for smart city applications, including parking and traffic management, outage detection, air quality sensing, security applications and more.

Features of Street Light Controller

Aaradhya Electronics Street Light Controller with Integrated Network Node

Supported dimming protocols

Load-side stored energy, instantaneous current, voltage, power and power factor measurement capabilities

Measurement accuracy better than 1%

On-board GPS chipset

On-board photocell to detect ambient light

Access Security

Why Street Light Controller are so important?

Aaradhya Electronics is a street light controller supplier in Nashik, Mumbai, and Pune, India. Indian people understand the importance of street light systems. Automatic street light systems are less likely to overheat and less prone to accidents. The cost of running an automatic solar street light is much lower than conventional street lights. The automatic street light system is eco-friendly and reduces carbon footprint.

If we consider the case of medium-sized cities, there will be several thousands of street lights. So, a slight change in street lights will result in a significant difference overall. Some advantages that might encourage you to opt for automatic street lights are:

Manpower will not be required to operate the street lights manually

Avoids possible manual errors

There will be huge energy savings across the city

Street lights may work normally

Sensor-equipped streetlights can automatically turn on and off depending on the surrounding light conditions

In case of solar powered lamps, we don't need external wiring as they have independent features.

Reduces the risk of overheating and accidents

It is an eco-friendly option and helps reduce the carbon footprint

This saves money in the long run

It communicates with the street light segment controller using PLC or RF data transmission techniques. Aaradhya Electronics Street Lighting Luminaire Controller uses advanced mesh-network technology with self-healing features for greater reliability. Aaradhya Electronics is the best street light controller supplier in Nashik, Mumbai, and Pune, India. If you want service you can go to official website of Aaradhya Electronics or call. 

Contact us for more information on call:- (+91)9657455169 / (+91)7972428271. For more information about Aaradhya Electronics street light controller supplier in India visit our official website:-  

https://www.aaradhyaelectronics.in/shop/1/street-light-controller 

[shashiemrf]

Research and Technological Innovations to Bolster Developments in Energy Harvesting System Market 2023

Energy Harvesting System Global Market   - Overview

Energy Harvesting is a process of collecting minute amount of energy from one or more of naturally occurring energy sources such as solar, wind or water and use them later in the different application areas. Energy harvesting devices are designed to efficiently and effectively capture, store, accumulate and supply it in the form which can be used to perform various task in the daily application areas. Advancement in technology and various development have increased the efficiencies which are used in the process of collecting energy and convert them into electrical energy which is widely used. Heavy investment by the key companies have also led to the advancement in the microprocessors technology leading to maximum efficiency of the processors and optimum utilization. Wide range of benefits and reducing the carbon footprint have also led to the development of interest among several large-scale companies.There are various application of energy harvesting and several real-life application who uses energy harvesting system to source the power is no more a dream. There are various companies who is working constantly in the development of energy harvesting components and products such as sensors, wireless nodes and high capacity batteries. Recently, Tesla have also started working on the new generation solar panels which can be deployed on the roof of any building and can collect solar energy.Key Players:ABB Limited (Switzerland), Fujitsu (Japan), Honeywell International Inc.(U.S.), Siemens AG (Germany), Microchip Technology Inc. (U.S.), Convergence Wireless (U.S.), Cymbet Corporation (U.S.), STMicroelectronics (Switzerland), and Texas Instruments (U.S.) among others are some of the prominent players profiled in MRFR Analysis and are at the forefront of competition in the global Energy Harvesting System market. Energy Harvesting System offers several benefits to their consumers including easy receive and payment and more access to their account details.Get Free Sample Report @ https://www.marketresearchfuture.com/sample_request/1167Industry NewsDecember, 2017, X-FAB Introduces New Low-Power eFlash Block Optimized for Energy Harvesting & IoT Devices. The new X-FAB eFlash IP block is targeted at replacing standalone NVM memories and embedded One-Time-Programmable (OTP) memories in low power applications, enabling onsite program code updates. This means that it is highly suited to energy harvesting and remotely located Internet-of-Things (IoT) devices, where power constraints and harsh environments need to be dealt with, but field re-programmability must be offered at a low cost.December, 2017, Samsung has patented smart clothing that is able to harvest energy for powering personal gadgets or embedded sensors. The patent details a shirt that contains this energy-harvesting technology, making it not just a shirt that could charge your gadgets, but one that could actually harvest the energy needed to do it. This is in contrast to previously unveiled “smart clothes,” which typically involve a battery that needs to be charged elsewhere. The patent was filed by Samsung Electronics and describes as “Wearable Electronic Device and Operating Method” involving an energy harvester that uses movement to generate energy.November, 2017, New Bluetooth Low Energy and Energy Harvesting Sensor Shields Further Extend the Capabilities of ON Semiconductor’s IoT Development Kit. The company has released two new boards (shields) further extending the recently launched Internet of Things (IoT) Development Kit (IDK) platform’s capabilities. With the addition of two new shields that include Bluetooth low energy technology and Smart Passive Sensors (SPS), customers are now able to create diverse and unique use cases that target smart home/building, smart city, industrial automation and mHealth applications.Energy Harvesting System Global Market   - Regional AnalysisNorth America is dominating the market of energy harvesting system. High growth in the field of technology and heavy investment by the key players in the field of research and development and

new product launches are some of the major factor supporting the market growth. The market is also expected to witness rapid demand from residential sector as prices of electricity in the region is increasing day by day. Europe stands as second largest market for energy harvesting system due to increasing awareness about the benefits offered by energy harvesting system. The region is also expected to show positive growth rate due to the government initiatives towards the promotion of carbon free energy. Asia-Pacific on the other hand has emerged as fastest growing market. Growth of Asian countries such as China and India are expected to create huge demand in the near future. Major companies are also focusing on Asian countries and making investment towards the market of energy harvesting system.Energy Harvesting System Global Market   - SegmentationSegmentation by Components: Transistors, controllers, solar cells, capacitors, batteries, and switches among othersSegmentation by Methods: Vibration, photovoltaic, and thermal among othersSegmentation by Sensors: Temperature, pressure, humidity and IR among othersSegmentation by Application: Automation, consumer electronics, industrial, and transportation among othersGet Complete Report @ https://www.marketresearchfuture.com/reports/energy-harvesting-system-market-1167About UsMarket Research Future (MRFR) is an esteemed company with a reputation of serving clients across domains of information technology (IT), healthcare, and chemicals. Our analysts undertake painstaking primary and secondary research to provide a seamless report with a 360 degree perspective. Data is compared against reputed organizations, trustworthy databases, and international surveys for producing impeccable reports backed with graphical and statistical information.We at MRFR provide syndicated and customized reports to clients as per their liking. Our consulting services are aimed at eliminating business risks and driving the bottomline margins of our clients. The hands-on experience of analysts and capability of performing astute research through interviews, surveys, and polls are a statement of our prowess. We constantly monitor the market for any fluctuations and update our reports on a regular basis.Media Contact:Market Research Future (Part of Wantstats Research and Media Private Limited)99 Hudson Street, 5Th FloorNew York, NY 10013United States of America+1 628 258 0071 (US)+44 2035 002 764 (UK)Email: sales@marketresearchfuture.comWebsite: https://www.marketresearchfuture.com

[latestanalysis]

Global Energy Harvesting System Market Size, Latest Trend Report, Global Industry Infrastructure , Top Companies Report to 2027

Energy Harvesting System Market

Solar, mechanical and thermal, wind energy is known as the energy which is available in different forms. Various applications are utilized to manage and combine the energy harvesting system. There is a varied range of advantages in the energy harvesting system to the several advancements. The energy harvesting system comprises different sources of ambient energy. To convert ambient energy into electrical energy, the energy harvesting application is generally used. These are helpful for providing power to customer electronics, wireless sensor nodes, and military equipment.

Market Drivers

Devices powered by harvested energy are used in industrial applications, building and home automation, consumer electronics, and wearable devices, hence Growing demand for safe, power-efficient, and durable systems that require minimum or no maintenance is the main factor to drive the market growth. Energy which is available in the environment is wasted directly or indirectly. Therefore, the ability of these systems to capture this energy and convert it into electrical energy can be additionally used in autonomous electronic devices is also drives growth of the global energy harvesting system market.

Get Sample Copy of this Report @ https://qualiketresearch.com/request-sample/Energy-Harvesting-System-Market/request-sample

Market Restraints

Energy harvesting systems are utilized in low-power applications in several mobile and portable markets like medical equipment, transportation, and the military and it is also deployed in applications that require a backup battery, particularly if the battery is remotely located or deployed at a difficult place to reach. When the sensor devices are deployed at remote locations, it is tough to collect data at the central receiver, hence remotely installed networking modules are a restraint factor. The uniform protocol is important for both components and the complete system, but in wireless electronics, the communication protocol is the crucial factor that connects devices.

Market Segmentation

The global energy harvesting system market is segmented by numerous factors like by Technology (Light energy harvesting, Vibration energy harvesting, Radio frequency energy harvesting, Thermal energy harvesting), by Application (Industrial, Transportation, Security, Building and home automation, Consumer electronics), by End-use system (Wireless switching system, Wireless HVAC system, Wireless sensing and telematics system, Asset tracking system, Tire pressure monitoring system, Remote health monitoring system, Regenerative energy harvesting system), by Component (Transducers, Power management integrated circuits (PMIC), Secondary batteries).

Regional Analysis

Asia Pacific is anticipated to be the fastest-growing regional market over the forecast period because of the high purchasing power and increasing tech-savvy population in the region. Several industry players are thinking of moving their manufacturing facilities to Asia Pacific owing to low operational and labor costs. In Middle East and Africa, major countries, like Saudi Arabia, UAE, South Africa, and Egypt, have introduced plans to deploy the construction of smart cities over the next few years.

Market Key Players

Some of the key players operating in Energy Harvesting System Market are Honeywell International Inc, ABB limited Inc, STMicroelectronics Inc., Levent power corporation, Microchip technology, Arverni, Marlow Industries, G24 innovations Inc., MicroGent., Linear Technology.

Industry Development

In May 2021, EnOcean, presented the PTM 535BZ module, the latest addition to its range of transmitter modules for battery-free switch applications. In addition to the already established PTM 535 for the EnOcean wireless standard and PTM 535Z for Zigbee applications, PTM 535BZ is the first module that offers a combination of supported wireless standards in the 2.4 GHz radio band. PTM 535BZ enables the realization of energy harvesting wireless switches communicating based on Bluetooth Low Energy (BLE) or ZigBee Green Power (ZGP) radio standards. With the integrated Near Field Communication (NFC) interface, it is easy to switch between the two radio standards depending on the application.

In October 2020, ABB’s robots were used as part of Singapore's coronavirus-testing system. The company’s robots are being used as a part of the city-state's Rapid Automated Volume Enhancer testing system, which automates some of the manual steps usual to sample processing. Two sets of the systems can process a volume of close to 4,000 samples a day.

Browse Full Research Report @ https://qualiketresearch.com/reports-details/Energy-Harvesting-System-Market

About Us

QualiKet Research is a leading Market Research and Competitive Intelligence partner helping leaders across the world to develop robust strategy and stay ahead for evolution by providing actionable insights about ever changing market scenario, competition and customers. QualiKet Research is dedicated to enhancing the ability of faster decision making by providing timely and scalable intelligence. We use different intelligence tools to come up with evidence that showcases the threats and opportunities which helps our clients outperform their competition.

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Research Support Specialist

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[iamaraja]

Energy Harvesting System Market  planning, Processing, Dynamics and Services 2021

Energy Harvesting System Global Market   - Overview

Energy Harvesting is a process of collecting minute amount of energy from one or more of naturally occurring energy sources such as solar, wind or water and use them later in the different application areas. Energy harvesting devices are designed to efficiently and effectively capture, store, accumulate and supply it in the form which can be used to perform various task in the daily application areas. Advancement in technology and various development have increased the efficiencies which are used in the process of collecting energy and convert them into electrical energy which is widely used. Heavy investment by the key companies have also led to the advancement in the microprocessors technology leading to maximum efficiency of the processors and optimum utilization. Wide range of benefits and reducing the carbon footprint have also led to the development of interest among several large-scale companies.

There are various application of energy harvesting and several real-life applications who uses energy harvesting system to source the power is no more a dream. There are various companies who is working constantly in the development of energy harvesting components and products such as sensors, wireless nodes and high-capacity batteries. Recently, Tesla have also started working on the new generation solar panels which can be deployed on the roof of any building and can collect solar energy.

Get Free Sample Report:

https://www.marketresearchfuture.com/sample_request/1167

Key Players:

ABB Limited (Switzerland), Fujitsu (Japan), Honeywell International Inc.(U.S.), Siemens AG (Germany), Microchip Technology Inc. (U.S.), Convergence Wireless (U.S.), Cymbet Corporation (U.S.), STMicroelectronics (Switzerland), and Texas Instruments (U.S.) among others are some of the prominent players profiled in MRFR Analysis and are at the forefront of competition in the global Energy Harvesting System market. Energy Harvesting System offers several benefits to their consumers including easy receive and payment and more access to their account details

Industry News

December, 2017, X-FAB Introduces New Low-Power eFlash Block Optimized for Energy Harvesting & IoT Devices. The new X-FAB eFlash IP block is targeted at replacing standalone NVM memories and embedded One-Time-Programmable (OTP) memories in low power applications, enabling onsite program code updates. This means that it is highly suited to energy harvesting and remotely located Internet-of-Things (IoT) devices, where power constraints and harsh environments need to be dealt with, but field re-programmability must be offered at a low cost.

December, 2017, Samsung has patented smart clothing that is able to harvest energy for powering personal gadgets or embedded sensors. The patent details a shirt that contains this energy-harvesting technology, making it not just a shirt that could charge your gadgets, but one that could actually harvest the energy needed to do it. This is in contrast to previously unveiled “smart clothes,” which typically involve a battery that needs to be charged elsewhere. The patent was filed by Samsung Electronics and describes as “Wearable Electronic Device and Operating Method” involving an energy harvester that uses movement to generate energy.

November, 2017, New Bluetooth Low Energy and Energy Harvesting Sensor Shields Further Extend the Capabilities of ON Semiconductor’s IoT Development Kit. The company has released two new boards (shields) further extending the recently launched Internet of Things (IoT) Development Kit (IDK) platform’s capabilities. With the addition of two new shields that include Bluetooth low energy technology and Smart Passive Sensors (SPS), customers are now able to create diverse and unique use cases that target smart home/building, smart city, industrial automation and mHealth applications.

Energy Harvesting System Global Market   - Segmentation

Segmentation by Components: Transistors, controllers, solar cells, capacitors, batteries, and switches among others

Segmentation by Methods: Vibration, photovoltaic, and thermal among others

Segmentation by Sensors: Temperature, pressure, humidity and IR among others

Segmentation by Application: Automation, consumer electronics, industrial, and transportation among others

Energy Harvesting System Global Market   - Regional Analysis

North America is dominating the market of energy harvesting system. High growth in the field of technology and heavy investment by the key players in the field of research and development and new product launches are some of the major factor supporting the market growth. The market is also expected to witness rapid demand from residential sector as prices of electricity in the region is increasing day by day. Europe stands as second largest market for energy harvesting system due to increasing awareness about the benefits offered by energy harvesting system. The region is also expected to show positive growth rate due to the government initiatives towards the promotion of carbon free energy. Asia-Pacific on the other hand has emerged as fastest growing market. Growth of Asian countries such as China and India are expected to create huge demand in the near future. Major companies are also focusing on Asian countries and making investment towards the market of energy harvesting system.

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[technotale]

"Powering the Future: Exploring the World of Energy Harvesting Systems"

Energy harvesting systems, also known as energy scavenging systems, are technologies that capture and convert ambient energy from the environment into usable electrical power. These systems enable the generation of electricity from various renewable and readily available energy sources, eliminating or reducing the dependence on traditional power sources like batteries or mains electricity. Energy harvesting systems offer sustainable and autonomous power solutions for a wide range of applications.

Here are some key aspects of energy harvesting systems:

Energy Sources: Energy harvesting systems extract energy from different sources, including:

Solar Energy: Photovoltaic cells or solar panels capture sunlight and convert it into electricity.

Vibrational Energy: Systems such as piezoelectric or electromagnetic harvesters convert mechanical vibrations or movements into electrical energy.

Thermal Energy: Thermoelectric generators utilize temperature differences to generate electricity.

Radio Frequency (RF) Energy: RF harvesting systems capture and convert ambient electromagnetic waves into electrical energy.

Wind Energy: Small wind turbines or wind-powered generators harness wind power to generate electricity.

Power Conversion and Storage: Energy harvesting systems typically include power conversion and storage components. The harvested energy is converted from its original form into a suitable voltage and current using power electronics. This converted energy is then stored in batteries, supercapacitors, or other energy storage devices for later use or to provide continuous power during low or fluctuating energy availability.

Autonomous and Self-Sufficient Operation: Energy harvesting systems enable autonomous and self-sufficient operation of various devices and systems. By utilizing ambient energy sources, these systems can power wireless sensors, remote monitoring devices, wearable electronics, and IoT (Internet of Things) devices without the need for frequent battery replacements or wired connections to external power sources.

Environmental-Friendly and Sustainable: Energy harvesting systems contribute to sustainable energy practices and reduce environmental impact. They utilize renewable energy sources, reduce the reliance on disposable batteries, and minimize waste associated with traditional power sources. This makes energy harvesting systems a greener and more environmentally friendly choice.

Application Areas: Energy harvesting systems find applications in diverse fields, including:

Wireless Sensor Networks: Energy harvesting enables wireless sensor nodes to operate without the need for batteries, making them suitable for environmental monitoring, smart buildings, agriculture, and industrial automation.

Wearable Electronics: Energy harvesting technologies allow wearable devices to generate power from body heat, motion, or ambient light, powering health monitoring devices, smartwatches, and fitness trackers.

Remote and IoT Applications: Energy harvesting systems can power remote monitoring devices, smart home devices, asset tracking sensors, and other IoT applications, eliminating the need for frequent battery replacement and enabling extended operation.

Green Buildings: Energy harvesting technologies can be integrated into building systems to capture and utilize ambient energy for powering lighting systems, sensors, or HVAC (Heating, Ventilation, and Air Conditioning) systems.

Energy harvesting systems provide a sustainable and reliable source of power for various applications, reducing dependency on traditional power sources and enabling autonomous and self-sufficient operation. As the technology continues to advance, energy harvesting systems have the potential to revolutionize the way we power and operate electronic devices, leading to a more energy-efficient and environmentally friendly future.

Read more @ https://techinforite.blogspot.com/2023/06/unleashing-potential-of-ambient-energy.html