इम्पैक्ट-प्रूफ ग्लास बाजार में क्रांति लाने के लिए तैयार

Impact-proof glass could be the next big step in safety, electronics, construction, and more. A team of researchers led by engineers from Tohoku University has introduced a study demonstrating a method to make impact-proof glass. This super durable material functions on a molecular level, enabling more resistance to shatter. Here’s everything you need to know about impact-proof glass and how it could revolutionize multiple industries moving forward.

कांच कैसे टूटता है

To fully grasp the monumental nature of this research, you need to understand how traditional glass breaks. When most people think of glass shattering it’s impact force. A hard or fast-moving object hits the glass and causes it to break apart in weaker areas of the material. This is the most common type of break and is also among the most dangerous because it can result in shards of sharp glass shooting all over an area.

थर्मल दबाव

Another reason for glass breakage is thermal discrepancies. Glass needs to be created in a specific manner to handle thermal dynamics properly. If not, the material can heat up and even melt under the right conditions, like spacecraft reentering the atmosphere.
Another cause of thermal breaking occurs due to the surface building up residual coverage, resulting in uneven heating of the glass. When only a select area of a piece of glass gets heated or frozen, it can result in warping and eventual shattering under the right conditions.

लचीलापन

Flexing and twisting breaks are more common in construction scenarios. Builders have to take into account the way their structures move in the wind under different atmospheric conditions and temperatures. An incorrectly installed or engineered window can suddenly shatter under the twisting force of a building in a strong windstorm or earthquake.

आंतरिक निर्माण प्रक्रिया

The last way that glass shattered is due to a faulty internal manufacturing process. There are many different types of glass, each with a special mixture required to ensure its quality. If a glass pain is incorrectly mixed during its manufacturing process, it can result in internal stress. This stress will lead to the weakening of materials under certain scenarios.
This type of break has become more common due to the creation of more complex laminated and tempered glass materials. In some instances, the mixture will result in the glass becoming weak in a particular section due to its chemical makeup rather than the external forces. This is common when thermal forces are applied.

विभिन्न कांच अलग-अलग टूटते हैं

Researchers have long understood the importance of engineering glass which can withstand the environment it was designed to work within. As such, there are now a lot of different types of glass available to handle the many roles it plays.

एनील्ड ग्लास

एनील्ड ग्लास आज सबसे अधिक उपयोग किया जाने वाला प्रकार है। इसका डिज़ाइन सबसे पुराना है और यह अपेक्षित रूप से टूटता है, बड़े तेज़ और खुरदुरे टुकड़े बनाता है। एनील्ड ग्लास का उपयोग आज सुरक्षित विकल्पों के कारण कम हो गया है। फिर भी, यह अभी भी सबसे आसान, सबसे सस्ता और सबसे व्यापक रूप से उत्पादित ग्लास है।

टेम्पर्ड ग्लास

टेम्पर्ड ग्लास एक विशेष मिश्रण है जो सुनिश्चित करता है कि ग्लास छोटे टुकड़ों में टूटेगा। इस प्रकार का ग्लास पारंपरिक ग्लास की तुलना में अधिक सुरक्षित माना जाता है क्योंकि टूटे हुए टुकड़े तेज़ चाकू की तरह उड़ते हुए चोटें पहुंचा सकते हैं। टूटे हुए छोटे ग्लास के टुकड़े बड़े कटाव की संभावना को कम करते हैं।

लैमिनेटेड ग्लास

लैमिनेटेड ग्लास टेम्पर्ड ग्लास की अवधारणा को आगे बढ़ाता है। इस प्रकार का ग्लास कई परतों पर निर्भर करता है, जिनके बीच में एक पतली पारदर्शी प्लास्टिक की परत होती है। यह व्यवस्था ग्लास को शटर-प्रूफ बनाती है। प्लास्टिक टूटे हुए ग्लास को एक साथ रखता है, जिससे बड़े टुकड़े वाहन या कमरे में फेंके नहीं जाते।

कांच की नई समझ

For centuries, researchers have delved into ways to improve glass durability and reduce shatter damage. Until recently, most of these studies were regulated to chemical and material science experiments and advancements. However, this latest study is the first to delve into glass breakage on a deep molecular level.
Researchers wanted to gain a new understanding of what happens when glass molecules separate. Until recently, the optics and equipment to conduct a study on this level were non-existent. Specifically, researchers would need to be able to monitor the glass molecules as they moved in nanosecond time frames.

इम्पैक्ट-प्रूफ ग्लास अध्ययन

The research paper¹, published in the journal Acta Materialia, delves deep into the Johari–Goldstein (JG) on an atomic level. The Johari–Goldstein (JG) process was created in 1969 to describe the molecular behavior of glassy materials under certain conditions. Originally, it was used to explain the melting of glass, but over the decades, it has been used to describe many glass state changes.

The researchers used this theory alongside a purpose-built computer model and molecular-level monitoring of atoms to determine what exactly happens at the point of glass breakage. What they found was that the atoms within the glass will jump to new locations under the pressure of an impact or stress.

The surrounding atoms will then pour into the newly opened space, filling the void and helping to relieve some of the stress of the unbroken pieces. Specifically, the team was able to detect atomic motions in the quasi-spherical model ionic-glass-former Ca0.4K0.6(NO3).

परमाणु गति का मॉडलिंग

The Computer simulation allowed the team to expand their experimentation across a wide range of factors. They could adjust different parameters such as flexing, temperature, and impact force. The models produced reliable results that furthered the team’s insight into why glass breaks in the way it does.

इम्पैक्ट-प्रूफ ग्लास परीक्षण

Testing the theory involved monitoring the atomic motion using X-ray time-domain interferometry. This approach allowed atomic monitoring on a nanosecond time frame, enabling the team to conduct, monitor, and record data from various synchrotron radiation experiments.

इम्पैक्ट-प्रूफ ग्लास कंप्यूटर सिमुलेशन

One of the most unique aspects of this research was the use of computer simulations. The team recorded the data they captured during the radiation experiments and used that info to create a computer simulation. The molecular dynamics (MD) simulation allowed the team to enhance their testing to new levels while keeping the cost of the research down.

इम्पैक्ट-प्रूफ ग्लास परिणाम

The results of the team’s study were eye-opening. They discovered that the majority of glass particles were subject to angstrom-scale motions on the nano-time scale. This info allowed them to determine that they could improve the atomic jumps and collective motion of atoms in a way that results in far more resilient materials. In the future, they could use this data to create glass that has added molecular strength in flex points, preventing catastrophic failure.

इम्पैक्ट-प्रूफ ग्लास लाभ

There are a lot of benefits that this study brings to the glass industry. For one, it will improve safety across the board. Safety glass, vehicle windows, monitoring stations, and even tools and electronics will benefit from more durable and safer glass alternatives.

Impact-proof glass could allow researchers to make glass that breaks in particular patterns as well. This style of purposeful break will allow them to reduce dangerous shatters in scenarios where there needs to be some form of stress release at a certain pressure. Think of how saltine crackers break on the dotted lines.

This technology is already in use in other building materials. For example, your sidewalk has specific lines designed to crack when the pressure of the ground moving versus the concrete hits its critical point. This approach allows engineers to pre-predict breaks and place them in a way that remains orderly. The same approach could be used for glass structures, improving safety further.

इम्पैक्ट-प्रूफ ग्लास नई मानक

Another benefit that shouldn’t be overlooked is the team’s goal to create new safety standards for the industry. Already, tempered and laminated glass has made life safer for millions. Creating universal guidelines for designing glass with superior impact resistance could open the door for a new level of safety across thousands of industries. It would also allow manufacturers to create better products that could be held to higher safety standards.

इम्पैक्ट-प्रूफ ग्लास शोधकर्ता

This study was led by Professor Makina Saito and a team of researchers at Tohoku University. Kyoto University, Shimane University, the National Institute for Materials Science, and the Japan Synchrotron Radiation Research Institute also participated in this groundbreaking study. Now, these teams seek to further their research into creating the most durable glass ever.

अनुप्रयोग

There are lots of ways in which impact-proof glass could be applied to current sciences. For one, it could help make your electronics more durable. If you have ever dropped your phone and cracked the screen, you understand how helpful impact-proof glass would be to millions of people on a personal level.

निर्माण

निर्माण उद्योग को इम्पैक्ट-प्रूफ ग्लास को एकीकृत करने से बहुत लाभ होगा। यह सामग्री उन्हें अधिक हरिकेन और बवंडर-प्रतिरोधी इमारतें बनाने में मदद कर सकती है। इम्पैक्ट-प्रतिरोधी ग्लास उच्च हवाओं और अत्यधिक तापमान का सामना कर सकता है, जिससे निर्माताओं को अधिक सार्वभौमिक और कुशल विकल्प मिलते हैं।

सैन्य

इस तकनीक का एक और उपयोग अधिक लचीला बुलेटप्रूफ ग्लास बनाना होगा। निरंतर वैश्विक संघर्ष यह दर्शाते हैं कि छोटे और व्यक्तिगत गोला-बारूद कितने स्मार्ट होते जा रहे हैं। इसलिए, सैन्य कर्मियों को आवश्यक सुरक्षा प्रदान करना, जबकि उनकी स्थितिजन्य जागरूकता को सीमित न करना, और अधिक महत्वपूर्ण हो गया है। यह शोध सुपर टिकाऊ बुलेटप्रूफ ग्लास का परिणाम हो सकता है जो आज के घातक हमलों को भी झेल सके।

इम्पैक्ट-प्रूफ ग्लास अध्ययन से लाभान्वित हो सकने वाली कंपनियां

The list of companies that could benefit from more durable shatterproof glass is extensive. From vehicle manufacturers to electronic producers, glass is an essential component of today’s devices. As such, any way to strengthen it, reduce its manufacturing costs, or improve its capabilities is welcome. Here’s one company that could integrate this technology to see gains in the future.

Corning Inc.

Corning Inc. (GLW ) is one of the leading producers of protective glass and glass-related technologies. The company is behind the popular Gorilla Glass protective brand. It specializes in advanced optics, display glass, and other optical communication technologies.

Corning Inc. सुरक्षा ग्लास और ग्लास-संबंधी तकनीकों के प्रमुख निर्माताओं में से एक है। कंपनी लोकप्रिय Gorilla Glass सुरक्षा ब्रांड के पीछे है। यह उन्नत ऑप्टिक्स, डिस्प्ले ग्लास, और अन्य ऑप्टिकल कम्युनिकेशन तकनीकों में विशेषज्ञता रखती है।

Corning Inc. एक उद्योग पायनियर है जिसके वित्तीय स्थिति मजबूत है। कंपनी के पास भागीदारों, निवेशकों और शोधकर्ताओं का एक बड़ा इकोसिस्टम है जो मिलकर कंपनी की प्रमुख स्थिति को बनाए रखते हैं। फर्म ने हाल ही में AT&T (T ) के साथ एक रणनीतिक साझेदारी की घोषणा की, जिससे दोनों समूहों के बीच बहु-वर्षीय खरीद समझौता विस्तारित हुआ।

Corning Inc. उन्नत ऑप्टिक्स में अग्रणी शोधकर्ताओं में से एक है। यह दशकों से उद्योग के नेताओं के साथ काम कर जटिल बाजार समस्याओं के समाधान प्रदान करता आया है। आज, इसे विश्व के शीर्ष प्रदर्शन करने वाले ग्लास निर्माताओं में से एक के रूप में मान्यता प्राप्त है।

GLW कई कारणों से विचार करने योग्य एक समझदार स्टॉक है। सबसे पहले, Corning Inc. ने अतीत में कुछ समझदारी भरे अधिग्रहण किए हैं, जैसे 2017 में SpiderCloud, 2016 में STRAN Technologies, और 2016 में Allied Fiber Optic Products। इन प्रत्येक अधिग्रहणों ने कंपनी की क्षमताओं को बढ़ाया और ग्राहक आधार को सुधारा।

भविष्य

The future of impact-proof glass is bright. These advancements could lead to safer flights, travel, optics, electronics, buildings, and more. You can expect to see researchers delve into using this material to provide a new glimpse into the world. From transparent submarines to spacecraft designed to withstand the heat of the sun, the researchers have lots of options to explore.

इम्पैक्ट-प्रूफ ग्लास एक प्रभाव डालेगा।

It’s easy to see that more durable glass will result in some cool advancements across multiple sectors. You have to commend this research team for introducing new methods and models to help everyone understand exactly what and when glass reaches its breaking point. Eliminating these factors opens the door for a safer and more vibrant future.

आज ही सामग्री विज्ञान में अन्य प्रगति के बारे में जानें।

अध्ययन संदर्भ:

^{1. Saito, M., Araki, T., Onodera, Y., Ohara, K., Seto, M., Yoda, Y., & Wakabayashi, Y. (2024). मॉडल आयनिक ग्लास में तनाव विश्राम की जोहरी–गोल्डस्टीन प्रक्रिया की ओर ले जाने वाली सामूहिक गैर-उछाल गति की खोज. Acta Materialia, 262, 120536. https://doi.org/10.1016/j.actamat.2024.120536}