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indiaenergystoragealliance · 2 years

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Advanced Energy Storage Manufacturing Masterclass

About the Event

The world is experiencing an unprecedented disruption in the energy sector. Global market trends irrefutably define energy storage and e-mobility as the future growth areas. India is anticipated to emerge among the top three markets globally in the next five years due to the faster adoption of e-mobility led by 2Ws and 3Ws as well as the need for energy storage systems (ESS) to support the renewable integration of the electricity grid.

To aid this transition and to capture the economic benefits at hand, the Indian government launched Production Link Incentive (PLI) for Advanced Chemistry Cell (ACC) Battery Manufacturing in 2021. The ACC PLI proposed an integrated program to facilitate and advance battery storage manufacturing in the country with an outlay of INR 18,100 crore earmarked towards the scheme. The intention is to establish an ACC manufacturing capacity of 50 GWh and a niche ACC capacity of 5 GWh. The program also set a target of a minimum of 60% domestic value addition to be achieved by the giga factories by 2027. This has generated a tremendous opportunity for additional companies to get involved in the supply chain for the giga factories, and explore export opportunities from Europe, the USA, and Southeast Asia.

The Request for Proposal (RFP) released by the Ministry of Heavy Industries (MHI in October 2021 has attracted bids from 10 companies to set up manufacturing facilities with over 100 GWh capacity. This scheme is expected to help India cater to the demand for advanced batteries by 2024-25. In addition, the niche ACC PLI is expected to attract additional 5-10 smaller facilities with 500 MWh to 1 GWh capacity for next-generation advanced chemistry batteries. With this initiative, India intends to become Aatmanirbhar (self-reliant) by emphasizing building a domestic battery manufacturing ecosystem.

The Advanced Energy Storage Manufacturing Masterclass is a program designed to understand the policy framework, practical details of the giga factory set-up, the supply chain opportunities and challenges in the Indian context, safety, international collaborations, and current and future market trends in the sector. This masterclass is also an opportunity to understand the areas of research and innovation emphasizing the need for focused skill development for a competitive workforce.

This Program is Good for

Business Decision Makers

Business Executives

Department Heads

Energy Storage Investors

Objectives

Get an overview of the energy storage technologies, technical parameters

Understand central and state government policies and schemes

Understand demand generation & applications in the energy storage sector

Know the current and future trends in the Indian energy storage & e-mobility market

Understand the manufacturing process of giga factories

Know the supply chain aspects, equipment, components, and raw material

Learn active material processing and other manufacturing technologies

Learn the cell-module-pack manufacturing process

Understand safety & standards requirements

Learn about recycling, disposal, and second life options

Get familiar with export, import, and shipping procedures

Understand R&D initiatives, skills development, innovations, and organizations involved

Topics Covered

Click here to view the complete brochure.

Fees

Early Bird Discounts Till June 30, 2022

IESA Leadership Circle Members: 50%

IESA Platinum Members and IITM Personnel: 25%

IESA Gold Members: 20%

IESA Silver & Bronze Members: 10%

Non-members:

Single person: INR 45,000 + 18% GST

Group discount for 3 or more registrations: 15%

(Please get in touch with IESA to get the appropriate coupon code.)

After June 30, 2022: INR 50,000 + 18% GST

Includes online prerequisite course and three days of the training program.

Contact Information

Aditi Pathak [email protected]

Join the leading alliance focused on the development of advanced energy storage, green hydrogen, and e-Mobility technologies in India. Be a member of the India Energy Storage Alliance today!

#Global market trends #Advanced Chemistry Cell #Advanced Energy Storage Manufacturing Masterclass #Advanced Energy Storage Manufacturing #Advanced Energy Storage

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maridiayachtclub · 2 months

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let's try documenting a big Satisfactory project!

so i have this facility called SPINE. it's a multi-function structure with a stupid (but cool) name. pics under the cut because they're big:

it's bad and it could stand to be renovated.

it was one of the first large facilities i built. it was conceived as a centrally located factory that would gather in resources from the surrounding area, use them to manufacture various fundamental parts like iron plates and screws and whatnot, and then funnel them outward to specialized factories. where possible, additional functions could be built within what felt at the time like a roomy interior, and the structure could be extended upward to make more factory space within.

in addition, it was built on legs, making space underneath for three purposes:

allowing tractors and other vehicles to pass through (at the time, i had an automated tractor running stuff back and forth between a few buildings, and anticipated having a fleet of little wheely friends going to and fro)

making space for ceiling-mounted conveyor belts that would not just move materials through the building but provide the means to deliver them up into the building's interior for processing

room for aminals to wander through :)

so, seeing as this was going to be the center of a general stream of many different products needed throughout my growing factory-city, it seemed analogous to a a spinal column. hence, SPINE, or rather, S.P.I.N.E. what do the letters stand for? i figured i'd think of an appropriate combination of words eventually, but i never did. the name nevertheless stuck

SPINE has been doing what i have asked of it for a while now. the inside chambers mostly look like this

anyway, as mentioned, this was made early on, and while i think the concept is sound, the implementation has ultimately proven insufficient. the space underneath ended up being too small for the variety of materials i require to move through, as well as all the necessary branches needed to move things back and forth between the transport space on the bottom and the factory spaces inside. here's what the underside looks like:

seriously it fuckin sucks down here bro

i can't just keep extending the conveyor lines further down from the ceiling; making enough space to move all these materials and move them up into the factory requires all sorts of stupid twisty turny conveyor belt tricks. the backside, where everything funnels in, is absolutely embarrassing. wizard-of-oz-man-behind-the-curtain bullshit. glasgow willy wonka experience-ass levels of fulfillment. slapdash mickey mouse duct tape effort. real "I didn't do my homework and now i gotta make up this presentation live in front of the class and they can see me sweating" energy embodied.

the horrid tangle running through SPINE is complicated by its output, set up so that it delivers things to my central storage barn. things need to leave the facility in a very specific way, like so:

this part, at least, works fine. this massive vein of conveyor belts is a bit ugly but it works very well. i put a lot of time into designing my central storage barn (there were spreadsheets involved) and it paid off. look at this shit, look at how neatly everything gets sorted into easily accessed bins

i love it. the power fantasy of living in an organized environment, realized here in digital form!

unfortunately the clean functionality of this building just draws into stark relief how bad SPINE is. even if I spruced up its exterior, fully finishing the walls and adding fripperies such as signage and doors and lights, its core functionality is insufficient for my needs. SPINE was conceptualized and built far in advance of my understanding of what i would actually need it to do and i can't stand it any longer! no more!

so, i'm planning to tear it all down and replace it with a bigger, better-organized SPINE. in addition to making it look nicer, it could actually be expandable without adding another strand into its already tangled guts. it would give me an opportunity to incorporate the functions of numerous smaller satellite facilities, cleaning up the surrounding landscape a bit and making room for other factories i know i will have to build in time. it would, potentially, allow me to incorporate a train station or two, so products could be picked up or delivered as needed... not something i need at this time, but even if i never do, having the capability of entertaining visiting trains is a worthy goal in itself.

anyway i haven't started on that yet. SPINE 2.0 is still in the planning stages, and i'm leaving on a trip in a day or so so i'm not gonna be able to start on this project in earnest for at least a week.

i might keep documenting the project here for funsies. i love Satisfactory; it's a perfect vehicle for one of my favorite things to do in a game: turning nothing into places. if you're in a video game and you see a bunch of hills and trees and rivers and piles of iron ore and other natural features, it doesn't really mean much on its own, but spend enough time there and you grow accustomed to it. you put together a mental map, figure out whatever routes you're going to be taking through it, learn how to navigate it quickly and efficiently, and soon that random bit of wilderness is a place. the rocks you have to navigate around and the rivers you have to jump over become familiar sights. and if it's a building kinda game, and you're populating this unsullied wilderness with the mortal profanity of civilization, that place is even more place-y than before. i very much like the places i have built in Satisfactory, so regardless of how this is received, it's fun to talk about it, get some of my internal thoughts on this project down in a format that can last. at least until tumblr shutters its doors and gets sold to some venture capitalist vultures in 2026

#satisfactory #spinny plays satisfactory

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andromeda1023 · 10 months

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ESO’s Extremely Large Telescope is now half completed

The European Southern Observatory’s Extremely Large Telescope (ESO’s ELT) is a revolutionary ground-based telescope that will have a 39-metre main mirror and will be the largest telescope in the world for visible and infrared light: the world’s biggest eye on the sky. Construction of this technically complex project is advancing at a good pace, with the ELT now surpassing the 50% complete milestone.

The telescope is located atop Cerro Armazones in Chile's Atacama Desert, where engineers and construction workers are currently assembling the structure of the telescope dome at a staggering pace. Visibly changing each day, the steel structure will soon acquire the familiar round shape typical of telescope domes.

The telescope mirrors and other components are being built by companies in Europe, where work is also progressing well. ESO’s ELT will have a pioneering five-mirror optical design, which includes a giant main mirror (M1) made up of 798 hexagonal segments. More than 70% of the blanks and supports for these segments have now been manufactured, while M2 and M3 are cast and in the process of being polished. Progress on M4, an adaptive, flexible mirror that will adjust its shape a thousand times a second to correct for distortions caused by air turbulence, is particularly impressive: all six of its thin petals are fully finalised and being integrated into their structural unit. Further, all six laser sources, another key component of the ELT’s adaptive optics system, have been produced and delivered to ESO for testing.

All other systems needed to complete the ELT, including the control system and the equipment needed to assemble and commission the telescope, are also progressing well in their development or production. Moreover, all four of the first scientific instruments the ELT will be equipped with are in their final design phase with some about to start manufacturing. In addition, most of the support infrastructure for the ELT is now in place at or near Cerro Armazones. For example, the technical building that, among other things, will be used for storage and coating of different ELT mirrors is fully erected and fitted out, while a photovoltaic plant that supplies renewable energy to the ELT site started operating last year.

Construction of ESO’s ELT was kickstarted nine years ago with a groundbreaking ceremony. The top of Cerro Armazones was flattened in 2014 to allow for space for the giant telescope.

Continue reading/pictures/videos: https://elt.eso.org/public/news/eso2310/

#eso #large telescope #chile #telescope

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jcmarchi · 23 days

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Two MIT teams selected for NSF sustainable materials grants

New Post has been published on https://thedigitalinsider.com/two-mit-teams-selected-for-nsf-sustainable-materials-grants/

Two MIT teams selected for NSF sustainable materials grants

Two teams led by MIT researchers were selected in December 2023 by the U.S. National Science Foundation (NSF) Convergence Accelerator, a part of the TIP Directorate, to receive awards of $5 million each over three years, to pursue research aimed at helping to bring cutting-edge new sustainable materials and processes from the lab into practical, full-scale industrial production. The selection was made after 16 teams from around the country were chosen last year for one-year grants to develop detailed plans for further research aimed at solving problems of sustainability and scalability for advanced electronic products.

Of the two MIT-led teams chosen for this current round of funding, one team, Topological Electric, is led by Mingda Li, an associate professor in the Department of Nuclear Science and Engineering. This team will be finding pathways to scale up sustainable topological materials, which have the potential to revolutionize next-generation microelectronics by showing superior electronic performance, such as dissipationless states or high-frequency response. The other team, led by Anuradha Agarwal, a principal research scientist at MIT’s Materials Research Laboratory, will be focusing on developing new materials, devices, and manufacturing processes for microchips that minimize energy consumption using electronic-photonic integration, and that detect and avoid the toxic or scarce materials used in today’s production methods.

Scaling the use of topological materials

Li explains that some materials based on quantum effects have achieved successful transitions from lab curiosities to successful mass production, such as blue-light LEDs, and giant magnetorestance (GMR) devices used for magnetic data storage. But he says there are a variety of equally promising materials that have shown promise but have yet to make it into real-world applications.

“What we really wanted to achieve is to bring newer-generation quantum materials into technology and mass production, for the benefit of broader society,” he says. In particular, he says, “topological materials are really promising to do many different things.”

Topological materials are ones whose electronic properties are fundamentally protected against disturbance. For example, Li points to the fact that just in the last two years, it has been shown that some topological materials are even better electrical conductors than copper, which are typically used for the wires interconnecting electronic components. But unlike the blue-light LEDs or the GMR devices, which have been widely produced and deployed, when it comes to topological materials, “there’s no company, no startup, there’s really no business out there,” adds Tomas Palacios, the Clarence J. Lebel Professor in Electrical Engineering at MIT and co-principal investigator on Li’s team. Part of the reason is that many versions of such materials are studied “with a focus on fundamental exotic physical properties with little or no consideration on the sustainability aspects,” says Liang Fu, an MIT professor of physics and also a co-PI. Their team will be looking for alternative formulations that are more amenable to mass production.

One possible application of these topological materials is for detecting terahertz radiation, explains Keith Nelson, an MIT professor of chemistry and co-PI. This extremely high-frequency electronics can carry far more information than conventional radio or microwaves, but at present there are no mature electronic devices available that are scalable at this frequency range. “There’s a whole range of possibilities for topological materials” that could work at these frequencies, he says. In addition, he says, “we hope to demonstrate an entire prototype system like this in a single, very compact solid-state platform.”

Li says that among the many possible applications of topological devices for microelectronics devices of various kinds, “we don’t know which, exactly, will end up as a product, or will reach real industrial scaleup. That’s why this opportunity from NSF is like a bridge, which is precious, to allow us to dig deeper to unleash the true potential.”

In addition to Li, Palacios, Fu, and Nelson, the Topological Electric team includes Qiong Ma, assistant professor of physics in Boston College; Farnaz Niroui, assistant professor of electrical engineering and computer science at MIT; Susanne Stemmer, professor of materials at the University of California at Santa Barbara; Judy Cha, professor of materials science and engineering at Cornell University; industrial partners including IBM, Analog Devices, and Raytheon; and professional consultants. “We are taking this opportunity seriously,” Li says. “We really want to see if the topological materials are as good as we show in the lab when being scaled up, and how far we can push to broadly industrialize them.”

Toward sustainable microchip production and use

The microchips behind everything from smartphones to medical imaging are associated with a significant percentage of greenhouse gas emissions today, and every year the world produces more than 50 million metric tons of electronic waste, the equivalent of about 5,000 Eiffel Towers. Further, the data centers necessary for complex computations and huge amount of data transfer — think AI and on-demand video — are growing and will require 10 percent of the world’s electricity by 2030.

“The current microchip manufacturing supply chain, which includes production, distribution, and use, is neither scalable nor sustainable, and cannot continue. We must innovate our way out of this crisis,” says Agarwal.

The name of Agarwal’s team, FUTUR-IC, is a reference to the future of the integrated circuits, or chips, through a global alliance for sustainable microchip manufacturing. Says Agarwal, “We bring together stakeholders from industry, academia, and government to co-optimize across three dimensions: technology, ecology, and workforce. These were identified as key interrelated areas by some 140 stakeholders. With FUTUR-IC we aim to cut waste and CO2-equivalent emissions associated with electronics by 50 percent every 10 years.”

The market for microelectronics in the next decade is predicted to be on the order of a trillion dollars, but most of the manufacturing for the industry occurs only in limited geographical pockets around the world. FUTUR-IC aims to diversify and strengthen the supply chain for manufacturing and packaging of electronics. The alliance has 26 collaborators and is growing. Current external collaborators include the International Electronics Manufacturing Initiative (iNEMI), Tyndall National Institute, SEMI, Hewlett Packard Enterprise, Intel, and the Rochester Institute of Technology.

Agarwal leads FUTUR-IC in close collaboration with others, including, from MIT, Lionel Kimerling, the Thomas Lord Professor of Materials Science and Engineering; Elsa Olivetti, the Jerry McAfee Professor in Engineering; Randolph Kirchain, principal research scientist in the Materials Research Laboratory; and Greg Norris, director of MIT’s Sustainability and Health Initiative for NetPositive Enterprise (SHINE). All are affiliated with the Materials Research Laboratory. They are joined by Samuel Serna, an MIT visiting professor and assistant professor of physics at Bridgewater State University. Other key personnel include Sajan Saini, education director for the Initiative for Knowledge and Innovation in Manufacturing in MIT’s Department of Materials Science and Engineering; Peter O’Brien, a professor from Tyndall National Institute; and Shekhar Chandrashekhar, CEO of iNEMI.

“We expect the integration of electronics and photonics to revolutionize microchip manufacturing, enhancing efficiency, reducing energy consumption, and paving the way for unprecedented advancements in computing speed and data-processing capabilities,” says Serna, who is the co-lead on the project’s technology “vector.”

Common metrics for these efforts are needed, says Norris, co-lead for the ecology vector, adding, “The microchip industry must have transparent and open Life Cycle Assessment (LCA) models and data, which are being developed by FUTUR-IC.” This is especially important given that microelectronics production transcends industries. “Given the scale and scope of microelectronics, it is critical for the industry to lead in the transition to sustainable manufacture and use,” says Kirchain, another co-lead and the co-director of the Concrete Sustainability Hub at MIT. To bring about this cross-fertilization, co-lead Olivetti, also co-director of the MIT Climate and Sustainability Consortium (MCSC), will collaborate with FUTUR-IC to enhance the benefits from microchip recycling, leveraging the learning across industries.

Saini, the co-lead for the workforce vector, stresses the need for agility. “With a workforce that adapts to a practice of continuous upskilling, we can help increase the robustness of the chip-manufacturing supply chain, and validate a new design for a sustainability curriculum,” he says.

“We have become accustomed to the benefits forged by the exponential growth of microelectronic technology performance and market size,” says Kimerling, who is also director of MIT’s Materials Research Laboratory and co-director of the MIT Microphotonics Center. “The ecological impact of this growth in terms of materials use, energy consumption and end-of-life disposal has begun to push back against this progress. We believe that concurrently engineered solutions for these three dimensions will build a common learning curve to power the next 40 years of progress in the semiconductor industry.”

The MIT teams are two of six that received awards addressing sustainable materials for global challenges through phase two of the NSF Convergence Accelerator program. Launched in 2019, the program targets solutions to especially compelling challenges at an accelerated pace by incorporating a multidisciplinary research approach.

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materialsscienceandengineering · 1 year

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Beyond Moore's Law: Innovations in solid-state physics include ultra-thin 2D materials and more

In the ceaseless pursuit of energy-efficient computing, new devices designed at UC Santa Barbara show promise for enhancements in information processing and data storage.

Researchers in the lab of Kaustav Banerjee, a professor of electrical and computer engineering, have published a new paper describing several of these devices, "Quantum-engineered devices based on 2D materials for next-generation information processing and storage," in the journal Advanced Materials. Arnab Pal, who recently received his doctorate, is the lead author.

Each device is intended to address challenges associated with conventional computing in a new way. All four operate at very low voltages and are characterized as being low leakage, as opposed to the conventional metal-oxide semiconductor field-effect transistors (MOSFETs) found in smartphones that drain power even when turned off. But because they are based on processing steps similar to those used to make MOSFETs, the new devices could be produced at scale using existing industry-standard manufacturing processes for semiconductors.

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bizzopp2024 · 6 months

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How are startups disrupting traditional industries?

Startups are often at the forefront of disrupting traditional industries by introducing innovative technologies, business models, and approaches. Here are several ways in which startups are causing disruption:

1. Technology Integration

- Startups leverage emerging technologies such as artificial intelligence, blockchain, and the Internet of Things to create more efficient and streamlined processes in industries like finance, healthcare, and manufacturing.

2. E-Commerce and Direct-to-Consumer Models

- E-commerce startups have revolutionized retail by providing direct-to-consumer sales channels, cutting out intermediaries and reducing costs. Companies like Amazon and Alibaba have transformed the way people shop.

3. Sharing Economy

- Startups in the sharing economy, like Uber and Airbnb, have disrupted transportation and hospitality industries by connecting service providers directly with consumers through online platforms.

4. Fintech Innovation

- Fintech startups have transformed the financial services sector by introducing digital payments, robo-advisors, crowdfunding platforms, and blockchain-based solutions, challenging traditional banking models.

5. HealthTech Advancements

- Health technology startups are disrupting healthcare by introducing telemedicine, personalized medicine, wearable devices, and digital health platforms, making healthcare more accessible and efficient.

6. Renewable Energy and CleanTech

- Startups in the clean energy sector are disrupting traditional energy industries by developing innovative solutions for renewable energy, energy storage, and sustainable practices.

7. EdTech Revolution

- Education technology startups are changing the way people learn by offering online courses, interactive platforms, and personalized learning experiences, challenging traditional educational institutions.

8. AgTech and FoodTech

- Agricultural technology startups are improving efficiency and sustainability in farming, while food technology startups are introducing alternative proteins, lab-grown meat, and sustainable food production methods.

9. InsurTech Transformation

- InsurTech startups are leveraging technology to streamline and personalize insurance processes, making insurance more accessible, affordable, and customer-centric.

10. Space Exploration and Aerospace Innovation

- Startups in the space industry are disrupting aerospace by developing cost-effective satellite technologies, commercial space travel, and new approaches to space exploration.

11. Smart Manufacturing

- Startups in the manufacturing sector are implementing Industry 4.0 technologies, such as automation, IoT, and data analytics, to create more agile and efficient production processes.

12. Telecommunications Disruption

- Telecom startups are challenging traditional telecommunications companies by providing innovative solutions for connectivity, communication, and data transfer.

These examples showcase how startups are challenging the status quo across various industries, prompting established companies to adapt, innovate, or risk becoming obsolete. The agility, creativity, and willingness to take risks inherent in many startups enable them to drive significant changes in traditional business landscapes.

#startup #entrepreneur #marketing #delhi #expo #startup funding #accounting #business expo #startup company

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thinkeco-friendly · 10 months

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The Issues Surrounding Lithium-Ion Battery Production and Disposal

The increasing demand and production of electric vehicle batteries have become unsustainable for the Earth's ecological welfare and human populations because of their extraction process and afterlife disposal. As the auto industry continuously advances with electric cars, the market for rechargeable batteries increases, with Lithium-ion batteries (LiB) becoming the most commonly used rechargeable batteries. LiB features a secondary cell construction allowing their lifespan to provide the highest energy density and hefty charge/discharge cycles, making them widely used for electrical devices requiring a long battery lifespan. However, for multiple reasons, lithium-ion battery production and its inefficient afterlife disposal have become environmentally and socially unsustainable.

With lithium production, mining sites worldwide threaten the ecosystems and communities outside the areas because of greenhouse gas emissions, excessive water use, and the destruction of livable land. Mining sites use approximately 500,000 liters of water to extract one ton of lithium during the extraction process while spreading heavy metals and chemicals to the surrounding environment, which contributes to air and water pollution. Using livable land as a mining site loses the biodiversity and culture of those areas by compromising wildlife with battery chemicals, infiltrating rivers and streams with dangerous metals, and releasing toxic chemicals into the air.

Alongside the environmental repercussions, people working in these mining sites are underpaid, overworked, and in unsafe working conditions since they are usually located in areas without government regulation. As working conditions remain hazardous, water and air pollution also affect communities by creating health risks, such as burns, neurological damage, and cancerous disabilities.

After its production, manufactured lithium-ion batteries risk deteriorating below functional levels after numerous uses, prompting consumers to dispose of them improperly. Researchers say only 5% of used Li-ion batteries are recycled in the United States. As people toss batteries into the trash, they end up in landfills, making the area prone to fires and explosions years after. The Li-ion batteries can also release toxic components into the soil and surrounding bodies of water, making it difficult for all living organisms to sustain themselves.

These batteries' end-of-life disposal should not end up in household recycling or garbage bins because they can be a possible fire hazard but instead discarded at a local battery recycling location. Even with recycling, there is a danger for recycling trucks transporting, handling, and discharging battery waste since they can ignite other materials because of their explosive properties in high temperatures.

However, despite the hazards associated with every part of a lithium-ion battery's life cycle, actively trying to recycle them at a separate recycling or hazardous waste collection point. This way, there can be preventative measures in place to eliminate harming the environment while scientists and researchers look for more ways to be more sustainable with battery production and consumption.

Sources

Zhao, E., Walker, P. D., Surawski, N. C., & Bennett, N. S. (2021). Assessing the life cycle cumulative energy demand and greenhouse gas emissions of lithium-ion batteries. Journal of Energy Storage, 43, 103193. https://doi.org/10.1016/j.est.2021.103193

#climate change #climate justice #earth #environment #environmentalism #epa #batteries #renewableenergy #reusedmaterials #lithium #environmetalists

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steelbuildingss · 1 year

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Structural Steel Buildings: A Durable and Versatile Solution

Structural steel buildings have emerged as a popular choice for various construction projects due to their exceptional strength, durability, and versatility. Steel, known for its remarkable properties, offers numerous advantages over other building materials, making it an ideal choice for a wide range of applications, from commercial and industrial buildings to residential structures. In this article, we will explore the benefits and applications of structural steel buildings.

Strength and Durability: One of the most prominent advantages of structural steel is its unparalleled strength and durability. Steel is an alloy of iron and carbon, which provides it with exceptional load-bearing capacity. Steel structures can withstand extreme weather conditions, including strong winds, earthquakes, and heavy snow loads, making them highly resistant to damage. Moreover, steel does not warp, rot, or corrode like wood or concrete, ensuring the longevity of the building.

Versatility in Design: Structural steel offers immense flexibility in design, allowing architects and engineers to create innovative and aesthetically pleasing structures. The high strength-to-weight ratio of steel enables the construction of long-span structures with large open floor areas, eliminating the need for interior columns and enhancing the usable space. Additionally, steel can be easily modified, expanded, or adapted to accommodate future changes or expansions in the building.

Sustainable and Eco-Friendly: In an era where sustainability is paramount, structural steel buildings are an environmentally friendly choice. Steel is a recyclable material, and most steel used in construction today contains a significant percentage of recycled content. At the end of its life cycle, steel can be recycled indefinitely without losing its properties, reducing the demand for new steel production and minimizing waste. Furthermore, steel buildings can be designed to optimize energy efficiency, using advanced insulation systems and incorporating renewable energy sources.

Cost-Effective: While the initial cost of constructing a steel building may be slightly higher compared to traditional materials, the long-term cost savings outweigh the initial investment. Steel structures require minimal maintenance and have a longer lifespan than other building materials, reducing repair and replacement costs over time. Moreover, steel construction is faster and more efficient, saving on labor costs and minimizing construction delays.

Applications: Structural steel buildings find extensive applications in various sectors. In the commercial sector, steel structures are commonly used for office buildings, shopping malls, and warehouses due to their large spans and versatile design options. In the industrial sector, steel buildings are utilized for manufacturing plants, power plants, and storage facilities, providing the necessary strength and durability for heavy machinery and equipment. Steel is also a popular choice for residential construction, offering modern, open-plan living spaces and customizable designs.

In conclusion, structural steel buildings have revolutionized the construction industry with their exceptional strength, durability, and versatility. From their ability to withstand adverse weather conditions to their design flexibility and sustainability, steel structures offer numerous advantages over traditional building materials. Whether for commercial, industrial, or residential purposes, structural steel buildings provide a cost-effective and reliable solution that meets the demands of modern construction.

#steel building #metal building #steel buildings in Tamilnadu

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spacetimewithstuartgary · 10 months

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ESO’s Extremely Large Telescope is now half completed

Construction of ESO’s ELT was kickstarted nine years ago with a groundbreaking ceremony. The top of Cerro Armazones was flattened in 2014 to allow for space for the giant telescope.

Completing the remaining 50% of the project, however, is anticipated to be significantly quicker than building the first half of the ELT. The first half of the project included the lengthy and meticulous process of finalising the design of the vast majority of components to be manufactured for the ELT. In addition, some of the elements, such as mirror segments and its supporting components and sensors, required detailed prototyping and significant testing before being produced en masse. Furthermore, construction was affected by the COVID-19 pandemic, with the site closing for several months and production of many of the telescope components suffering delays. With production processes now fully resumed and streamlined, finalising the remaining half of the ELT is anticipated to take only five years. Nonetheless building such a large and complex telescope like the ELT is not free of risks until it's finished and working.

ESO Director General Xavier Barcons says: “The ELT is the largest of the next generation of ground-based optical and near-infrared telescopes and the one that is most advanced in its construction. Reaching 50% completion is no small feat, given the challenges inherent to large, complex projects, and it was only possible thanks to the commitment of everyone at ESO, the continued support of the ESO Member States and the engagement of our partners in industry and instrument consortia. I am extremely proud that the ELT has reached this milestone.”

Planned to start scientific observations in 2028, ESO’s ELT will tackle astronomical questions such as: Are we alone in the Universe? Are the laws of physics Universal? How did the first stars and galaxies form? It will dramatically change what we know about our Universe and will make us rethink our place in the cosmos.

Notes

The percentage completion of the ELT is estimated based on its ‘earned value’, a project management metric used to evaluate progress on a project that accounts for schedule and cost. At present the ELT is 50% through the project plan.

This image, taken in late June 2023, shows a webcam image of the construction site of ESO’s Extremely Large Telescope at Cerro Armazones, in Chile's Atacama Desert. There, engineers and construction workers are currently assembling the structure of the telescope dome at a staggering pace. Visibly changing each day, the steel structure will soon acquire the familiar round shape typical of telescope domes.

The starry background is dominated by the core of the Milky Way, our home galaxy, and the Large and Small Magellanic clouds, two dwarf galaxies that orbit our own.Credit:

ESO

#science #space #astronomy #physics #news #spacetimewithstuartgary #starstuff #spacetime #eso #Youtube

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justadumbasskid · 9 months

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Right back on the saddle, I'm too addicted to RimWorld to ever stop for more than a week. This time, for a unique spin on the challenge that I had not explored yet; I went with an all-android colony using the 'Android Tiers Reforged' modpack. The cool thing about androids is that they have no feelings, and will never be dissatisfied so long as they have energy to consume. Started myself off with wayyyy too much pemmican than was necessary, but to balance out the challenge I stuck myself on a tundra planet. Where it's consistently 11 to -50 degrees Fahrenheit. Even robots find such temperatures inhospitable. Dug into a mountain, I'm going with a tunnel base. To stick with the robot theme, I named the faction "Ai Union" and the base "Facility 01". Might even make more facilities as I go along.

The first few days went well. Robots work quick, that's for sure, and since they all had the same stats I didn't have to worry about who goes where. Using the starting charge weaponry, I took down a couple Thrumbos that wandered into the area and traded their hides for a robotic dog unit from an android merchant. I want to start manufacturing my own soon.

Also traded for some advanced robotic legs, which went onto 104, who I intend to make the leader of this little outfit. No matter the race, I gotta have one fully borged-out colonist.

Progress Report 1: With some research, we became fully energy independent from wind energy, and have switched over to chemfuel power generation as our primary source, with the wind as a backup. Soon enough, I want to tap into geothermal power for infinite power. Set up a few airlock entrances to maintain the indoors temperature, and the large meat storage is for chemfuel manufacturing and animal training.

Lucky me, an android fell from the sky. We rescued it, and it decided to join us. I might've forced it to anyways, but this saves me the trouble.

Major expansion is underway, I want to have a dedicated laboratory, hospital, and charging barracks before we get another robotic colonist, or make our own. We also got a raid from the local Junker faction, and lucky lucky me, they were all equipped with picomachinery armor, the best material in the game with Archotechs Expanded. Hopefully I can get more raids from them.

#rimworld

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indiaenergystoragealliance · 1 year

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INDUSTRY ACADEMIC PARTNERSHIP

IESA works with top research universities, educational institutions, and government organizations like DST, MEITY, and other R&D national labs to address the need for training and skill development for the energy storage and e-mobility sectors.

IESA organizes masterclasses, workshops, webinars, and hands-on training sessions, along with providing joint fellowship & scholarships to promote research in India.

Need: The Indian Energy Storage sector is entering a fast-growing phase. With the Governments’ vision on Energy Security deployment of storage technologies will only increase in days to come. As such it becomes crucial to recognize the need to capability building and skill development from this stage to enable the storage industry grow in a sustainable manner.

Objective: To address the need for skill development in the energy storage sector, IESA launched IESA Academy in 2016. The objective of the Academy is to organize training courses, workshops, and master-classes through fostering Industry and Academia collaborations. These programs aim to empower companies to enter the energy storage market as well as help existing manufacturers expand their business in energy storage manufacturing by imparting their current/potential employees with the right skillset.

Methodology: IESA works with top research universities such as VJTI, Karpagam Academy of Higher Education and Savitribai Phule Pune university to address the need for training and skill development for the sector. We also work closely with Skill Council of India for bridging the skill gap in India. Through such collaborations we organize masterclasses, workshops, webinars and hands-on training sessions.

Activities:

Since its initiation in 2016, IESA has conducted many capacity building workshops, Masterclasses on storage and component manufacturing, Hands-on training on Lead Acid and Li-Ion battery O&M. project finance, modelling, electric vehicle manufacturing, microgrid monitoring and design across India at strategic locations including Guwahati, Pune, Delhi, Hyderabad and Mumbai.

Partnered and is working with VJTI- TBI for the incubators.

Specific Benefits to all academicians as an IESA member as here under

Support to develop research labs & implement projects in the institute campus- IESA faculty member can approach to a large number of member industries to carry out research, also for setting-up of various research labs or centre for excellence at the institutes.

Joint industry proposal to carry out testing and product development- IESA member industry can help institutes to bring its lab scale development to pilot scale or prototyping. This way university and the research group will get maximum visibility and recognition.

Internship & research position for students at IESA & IESA member companies- Students can secure their internship IESA member universities/industries, also they will get a chance to work with the IESA member industry after completing their degree.

Access to IESA/CES in-house labs and technology experts- Member faculty or student can access IESA battery lab facilities, also they can interact with in-house storage technology experts.

Technology incubator- IESA incubator would help faculty/student members to bring their technological innovations to a most meaningful way.

Closely works with National labs & DST, MEITY on research & development- IESA has very close association with various national labs and also takes part in different technical discussion in govt initiatives as a part of govt committee members. Member faculty or institute can reach to IESA for any kind of details about the storage related activities.

Capacity building training programs on energy storage, EV & microgrids under IESA Academy- Under the IESA academy, member faculty or student can participate in capacity building training in a most interactive ways which covers current market trend on different technologies, policies, and guidelines.

Participation in IESA events- Faculty members or students can participate in different IESA events, workshops, and conferences.

Complimentary copy of IESA Publications (Emerging Technology News- ETN Magazine) & Knowledge Papers

Roles and Opportunities for Graduates in Supporting India’s Energy Transition Towards EVs and RE- Click to know more

#iesa #India Stationary Energy Storage Market Overview Report #india energy storage alliance #storage association #Advance Chemistry Cells #battery storage #energy storage technology #energy storage alliance in india #energy storage companies #advanced energy storage #energy storage projects in india #energy storage #energy storage manufacturing

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tubetrading · 9 months

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ERW Pipes in Oil and Gas Industry: Key Roles and Market Trends

A stable and efficient infrastructure is crucial for the transportation of hydrocarbons in the oil and gas industry. Electric Resistance Welded (ERW) pipes are a critical component that assumes a central role in this system. The pipes in question are renowned for their multifunctionality, resilience, and economical nature, rendering them a widely favoured option for diverse applications within the oil and gas industry. The strength of seamless connectivity - Choose ERW Pipes offered by Tube Trading Co. – an excellent ERW Pipe Supplier in Gujarat for your critical applications.

This blog examines the significant functions of ERW pipes within the industry and investigates the most recent market trends pertaining to these important components.

What are ERW Pipes?

ERW pipes are a variant of steel pipes that are manufactured through the application of a high-frequency electrical current along the edges of the steel strip or coil. The flow of electrical current produces thermal energy, resulting in the fusion of the adjacent edges and the creation of a connection without any visible seams. ERW pipes are extensively utilised in the oil and gas sector owing to their exceptional mechanical characteristics, rendering them appropriate for many applications in both onshore and offshore environments.

Key Roles of ERW Pipes in the Oil and Gas Industry:

Exploration and Production:

ERW pipes are widely employed in drilling activities within the upstream portion of the oil and gas industry. The primary function of these pipes is to act as protective casings for the wellbore, thereby preserving its structural integrity and mitigating the risk of collapse during the drilling process. ERW pipes are utilised in well-completion operations to enhance the effective extraction of hydrocarbons.

Transportation:

Transportation plays a crucial role in the hydrocarbon industry as it facilitates the movement of extracted hydrocarbons from wells to processing units or refineries. ERW pipes, known for their exceptional strength and weldability, serve as the fundamental component of pipelines utilised for the extensive transit of oil and gas. They facilitate the uninterrupted transportation of hydrocarbons from the point of extraction to the ultimate consumers.

Distribution and Storage:

Electric resistance welded (ERW) pipes are of significant importance in the midstream sector, since they are utilised for the purpose of distributing and storing refined fuels, including petrol, diesel and natural gas. The utilisation of these pipes is crucial to the establishment of distribution networks and terminals, facilitating the effective transportation of energy products to end-users.

Offshore Applications:

ERW pipes are commonly utilised in offshore drilling and production due to their notable resilience in challenging marine environments. These components find application in the construction of platforms, risers, and subsea pipelines, offering enhanced stability and dependability in demanding offshore environments.

Experience efficiency in every weld. Order precision-engineered ERW Pipes offered by Tube Trading Co. – a renowned ERW Pipe Provider in Gujarat!

Market Trends of ERW Pipes in the Oil and Gas Industry:

Increasing Demand:

The increasing global demand for electric resistance welded (ERW) pipes within the oil and gas sector is driven by the ongoing growth of exploration and production operations, with a particular emphasis on emerging economies. The consistent expansion in energy consumption and the imperative for novel infrastructure are significant factors that contribute to the heightened adoption of Electric Resistance Welded (ERW) pipes.

Technological Advancements:

Technological advancements in the field of ERW pipes are being pursued by manufacturers through ongoing investments in research and development, with the aim of improving their inherent qualities. The utilisation of advanced welding methodologies and enhanced steel compositions has resulted in the development of pipes exhibiting elevated levels of strength, corrosion resistance, and durability. Consequently, these pipes have emerged as highly suitable for deployment in demanding oil and gas applications.

Environmental Considerations:

The increasing focus of the industry on sustainability and environmental preservation has led to a transition towards more environmentally friendly practices. ERW pipes, due to their environmentally friendly nature and recyclability, are very compatible with these objectives, hence establishing themselves as a favoured option for enterprises that prioritise environmental consciousness.

Focus on Pipeline Safety:

The issue of pipeline safety has garnered significant attention due to worries surrounding leaks and ruptures, resulting in the implementation of more stringent regulations and standards. The superior weld quality and consistency of ERW pipes result in a decreased likelihood of failures, hence enhancing the safety of pipelines.

Market Consolidation:

The ERW pipe market is currently through a process of consolidation, wherein prominent industry participants are actively engaging in mergers and acquisitions to enhance their range of products and increase their market reach. The objective of this trend is to address the increasing demand and sustain a competitive advantage within the sector.

Final Thoughts:

ERW pipes are of significant importance within the oil and gas sector, as they fulfil crucial functions throughout a range of activities spanning from exploration to distribution. The indispensability of these components in the industry's infrastructure can be attributed to their versatility, durability, and cost-effectiveness.

The anticipated increase in the utilisation of ERW pipes is attributed to the escalating demand for energy and the heightened significance of environmental considerations. The continuous endeavours of manufacturers to innovate and enhance these pipes will inevitably result in the development of more effective and environmentally friendly solutions, thereby strengthening their significance as a crucial element within the ever-evolving realm of oil and gas transportation and distribution. Seamless solutions for your piping needs – Partner with Tube Trading Co. – the most reliable ERW Pipe Supplier in Gujarat today!

#ERW Pipe Supplier in Gujarat #ERW Pipe Provider in Gujarat #Business #Manufacturer #Steel industry #Steel company #Oil and gas industry #Oil companies #Agriculture industry

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ecopowerpack · 11 months

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Lithium Ion Battery Products of Eco Power

Eco Power Group is more than a lithium battery company. We design, manufactures, and sell advanced lithium-ion energy storage electrification solutions for different types of lithium ion battery.

Our expertise of custom lithium ion battery is based on its know-how in electrochemistry and battery management system to provide safe, efficient and sustainable solutions to various industries such as automotive, commercial transportation, off-highway vehicles/equipment, rail, air, marine, energy storage, solar energy systems, communication equipement, and more.

We are your experienced partner of lithium ion battery wholesale, from the feasibility study to the conception and the final installation with our complete product portfolio.

If you are considering to buy lithium ion battery, we are highly welcome you to consult and cooperate with us.

Different Types of Lithium Ion Battery Products

On-board energy solution at Eco Power Group with complete reference from cell to system to be the best fitting solution for your lithium ion battery types.

Battery Cell

This type of custom lithium ion battery cell is the very basic energy storage unit. Based on many years experience from cell design, battery materials and simulation, we are always at the cutting edge of technology. Our li ion batteries for sale comply with the strict safety standards UN 38.3, which guarantees our customers high quality and safety even after years of operation of charging lithium ion batteries.

Battery Module

In terms of battery modules for different types of lithium ion battery, there we offer standard modules with metal sheet plate for electric vehicle applications, Custom lithium ion battery module with binding tape for energy storage, and VDA size modules for passenger vehicles.

Battery Pack

Standard battery packs for commercial vehicles. Standard battery packs of charging lithium ion batteries in series with DNV certification for marine propulsion. Customized power li ion charging voltage systems for forklift applications ,etc.

Battery Energy Storage System

With a team of experienced engineers, we provide end to end custom lithium ion battery services starting from customer requirement analysis going through battery pack design, testing, prototype production and serial production. During the design phase we focus on the application area requirements as much as the li ion charging voltage battery design itself.

Why Choose The Lithium Ion Battery From Eco Power?

Quality

Our established quality management system of lithium ion battery wholesale, certified according to the international standard DIN EN ISO 9001: 2008, guarantees compliance with our high quality standards.

Customised Solution

Customised solutions for lithium ion battery replacement energy storage or mobile applications of electromobility.

Experience

As one of the leading lithium ion battery companies, we have more than 10years experience in lithium li ion voltage battery industry with hundreds of different application scenario. With our high quality lithium ion batteries for sale, you can trust us with your project .

Technical Support

From customer request input all the way to delivery final different types of lithium ion battery product, we will assign project technical consultant to accompany our customer to solve all of li ion charging voltage questions or problems during the whole process.

What Does A Lithium Ion Battery Module Do?

Battery module of li ion batteries for sale contains the energy storing battery cells by laser-welded technology, the mechanically stable against shock demonstrates high productivity and flexibility to make sure the long term performance of li ion charging voltage battery system.

How A Lithium Ion Battery System Works?

A battery system of li ion charging voltage consists of lithium battery cell connected in series to reach the system voltage and parallel to achieve greater capacity.

The li ion battery voltage and capacity can be verified by different combination of packs. The pack contains a fuse and a slave BMS. High security and provide lithium ion cell voltage and temperature to master BMS.

The Lithium-Ion battery system with charging lithium ion batteries in parallel is a composite set of battery electronics, high voltage circuits, overcurrent protection devices, battery boxes and interfaces with other external systems such as cooling, high voltage, auxiliary low voltage and communications.

What Is The Difference Between Lithium Ion Battery Pack And Power Bank?

This kind of battery pack of lithium ion battery types cannot be a power bank, but a power bank can be a li ion battery charging voltage pack with added electronic circuitry to prevent over charging, over discharge, etc to protect the batteries.

A lithium ion battery pack in series is merely a bunch of batteries connected in Series/Parallel configuration with one positive and one negative terminal.

A power bank contains one or more batteries in mostly parallel but could also be a Series/Parallel configuration. These types of li ion batteries for sale are connected to a battery management circuit (module) which controls the charging of the batteries. All this is housed in a compact enclosure.

#different #types #of #lithium #ion #battery

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theapexpower · 1 year

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"Why Renewable Energies Are No Longer Just an Option - They're a Necessity"

In today's world, the demand for energy is ever-increasing, with the world population set to reach 9 billion by 2050. However, traditional energy sources such as oil, coal, and natural gas are finite, and their use has serious implications for the environment. This is where renewable energies come in. Renewable energy is derived from sources that are replenished naturally and quickly, such as sunlight, wind, water, and geothermal heat. Renewable energies are no longer just an option but a necessity, and this article will explore why.

The Environmental Impact of Fossil Fuels

Fossil fuels have long been the primary energy source for the world. However, their extraction, transportation, and use have significant environmental impacts. The burning of fossil fuels releases greenhouse gases, including carbon dioxide, which contributes to global warming and climate change. Furthermore, the extraction of fossil fuels can lead to habitat destruction, soil degradation, and water pollution. These environmental impacts have made the need for alternative sources of energy more pressing.

Renewable Energy: A Cleaner Alternative

Renewable energy offers a cleaner and more sustainable alternative to fossil fuels. Unlike fossil fuels, renewable energy sources do not emit harmful pollutants that contribute to climate change. Furthermore, renewable energy technologies are becoming more efficient, with solar panels and wind turbines becoming more affordable and accessible to the general public. The use of renewable energy also reduces the reliance on non-renewable resources, which are finite and expensive.

Renewable Energy Creates Jobs

The adoption of renewable energy creates jobs, from the manufacturing of solar panels and wind turbines to the installation and maintenance of renewable energy systems. In the United States alone, the solar industry employs over 240,000 workers, and the wind industry employs over 100,000 workers. This job creation has a positive impact on the economy and provides employment opportunities for people in a range of industries.

Renewable Energy Is Cost-Effective

The cost of renewable energy technologies has decreased significantly in recent years, making them more affordable for individuals and businesses. The installation of solar panels and wind turbines has become increasingly cost-effective, with the return on investment improving. Additionally, the use of renewable energy reduces the reliance on non-renewable energy sources, which are becoming more expensive due to their scarcity.

Renewable Energy Is Reliable

One of the criticisms of renewable energy is its reliability. However, advances in renewable energy technologies have made them more reliable than ever before. For example, the use of battery storage technology has made it possible to store excess energy generated by solar panels and wind turbines, making it available when needed. Furthermore, the use of smart grids and other technologies has made it easier to manage and distribute renewable energy.

Renewable Energy Is the Future

Renewable energy is the future of energy production, and the adoption of renewable energy technologies is crucial for the sustainability of the planet. Governments around the world are recognizing the importance of renewable energy and are setting targets for the adoption of renewable energy. For example, the European Union has set a target to generate 32% of its energy from renewable sources by 2030, while China aims to generate 20% of its energy from renewable sources by 2025.

Renewable Energy Can Improve Energy Security

Renewable energy can improve energy security by reducing our reliance on imported fossil fuels, which are subject to price fluctuations and supply disruptions. Many countries, such as the United States and European Union, have implemented policies to increase their energy independence by developing their renewable energy resources. By doing so, they can reduce their exposure to volatile energy prices and minimize the risk of supply disruptions due to geopolitical tensions.

Renewable Energy Can Help Combat Climate Change

Climate change is one of the most significant challenges facing our planet. The burning of fossil fuels is the primary contributor to greenhouse gas emissions, which are responsible for global warming and climate change. Renewable energy sources, such as solar and wind power, generate electricity without emitting any greenhouse gases. By transitioning to renewable energy, we can significantly reduce our carbon footprint and help combat climate change.

Renewable Energy Can Increase Energy Access

Around the world, over 1 billion people lack access to electricity. Renewable energy technologies can provide a reliable and cost-effective source of electricity to these communities, improving their standard of living and promoting economic development. Solar panels and wind turbines can be installed in remote locations, providing access to electricity where it was previously unavailable.

Renewable Energy Can Improve Public Health

The burning of fossil fuels releases a range of air pollutants, including sulfur dioxide, nitrogen oxides, and particulate matter, which can have severe impacts on public health. These pollutants can cause respiratory illnesses, heart disease, and premature death. By transitioning to renewable energy, we can significantly reduce air pollution and improve public health.

Conclusion

Renewable energies are no longer just an option but a necessity. The environmental impacts of fossil fuels, coupled with the increasing demand for energy, make the adoption of renewable energy technologies crucial for the sustainability of the planet. Renewable energy offers a cleaner, more sustainable, and cost-effective alternative to fossil fuels, and the adoption of renewable energy creates jobs and has a positive impact on the economy. Renewable energy is the future of energy production, and its adoption is essential for a sustainable and prosperous future. Renewable energy is no longer just an option but a necessity. Its adoption is crucial for the sustainability of our planet, and it offers numerous benefits, including improving energy security, combatting climate change, increasing energy access, and improving public health. As renewable energy technologies continue to improve and become more cost-effective, we must continue to invest in their development and deployment to ensure a sustainable and prosperous future for all.

#crypto #investment #renewable energy #solar panels #succession

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sumiranmasterbatch · 2 years

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What is a bulk milk cooler and its importance?

In this dairy industry-centric blog, we will highlight an important product, a bulk milk cooler, its importance, unique features, etc. This blog is going to help industry people, at the same time, it is going to help readers with an interest in the dairy industry in expanding their knowledge. Over the years, technological advancements have influenced the manufacturing of dairy machinery. Most of the leading bulk milk cooler manufacturers in Ahmedabad, India are keeping themselves in sync with the changing dynamics of the dairy industry. Redundant machinery is like a piece of baggage, which increases operation costs. Therefore, it makes sense to use the latest machinery that too from a reputed bulk milk cooler manufacturer.

Before, we move forward and take a deep dive into the subject, the definition of bulk milk cooler assumes significance.

Learning about bulk milk cooler

So, what is this product all about? The sturdy and bulky container is generally a cylindrical tank designed to store milk at a cold (set) temperature. Why? Milking activity is carried out twice a day, early in the morning and evening. This milk is full of nutrients and should be consumed at the earliest. It can’t be stored for too long as bacteria and microbes germinate, leading to spoilage. Imagine transportation from one collection center to end-users in cities.

Backed by modern technology, a bulk milk cooler is designed to store milk in bulk quantity at a low temperature of 4°C. As a result, freshness and nutritional value remain intact. At the same time, this milk can be transported to far-off areas.

The machine is an ideal solution for bacteria-free milk storage for dairy/ milk collection centers.

Unique features of a quality-driven machine

A quality-driven machine is identified by unique features, including:

Faster cooling owing to direct expansion

Robust design

Durable tank made of AISI 304 SS

Hermetically sealed compressor

Digital temperature controller

Occupies minimum space

Energy conscious

Furthermore, the product is user-friendly. Means? The quality-driven product is easy to use. Your workforce doesn’t require any kind of training or orientation support. A high-end control panel provides various information about the machine. Sounds great!

Advantages

Dairy owners and milk collection centers are getting benefitted from the brilliant innovation, the bulk milk cooler. Bulk Milk Chiller is the perfect solution for bacteria-free milk storage for Dairy/Milk Collection Centers.

Range and capacity

Let’s now shift our focus to the range and capacity of the machine. Many standard sizes are available to choose from for the dairy industry. According to your requirements, you can choose the capacity. Generally, the range varies between 250 liters to 10, 000 liters. Furthermore, if you are looking for any specific capacity, you can connect with a leading bulk milk cooler manufacturer.

How do you measure the quantity of milk? This is an important query many of you might be thinking to raise. Prominent bulk milk cooler manufacturers are using the latest technology to measure the quantity of milk inside the container. By using the dip-stick with a dip-stick chart, your staff can measure the quantity of milk in the tank.

Conclusion

The bulk milk cooler is an amazing container designed to store milk safely at a low temperature. Yet, the quality of the container makes the difference. We recommend, only buying the product from an established dairy machinery manufacturer.

#mulching #Green House #Geo-Textiles #Shade

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