James Webb Telescope Launch is Successful

The James Webb space telescope successfully launched into the vastness of space Christmas day this year. This journey was long in the making, beginning back in 1996 when the telescope was first conceived by NASA. The shuttle transporting Webb took off at 12:20am UTC in French Ghana and the telescope is now on its way to becoming the successor to the Hubble. The initial live stream on YouTube ran for 2 hours and 17 minutes, allowing people around the globe to watch the journey unfold in real time. Webb will travel 100 million miles into orbit, taking approximately 29 days to reach its intended target, but will not be officially declared fully operational until approximately 180 days after the launch. Multiple attempts to launch have happened in the last few years, but with equipment delays, storms, and the ongoing pandemic, it was postponed several times. But all that waiting has finally paid off and the telescope is now on its way into orbit. The next step, which will take over six months, will be gradually unfolding the telescope’s massive mirrors, which are each the size of several football fields. Following that is aligning the mirrors and cooling them to an immensely cold -380°F.

Lenox Laser was directly involved in manufacturing components for the Webb, providing precise alignment targets for the infrared imaging system to assist with the readings it takes while scanning for the innermost secrets of our universe. You can read about other NASA projects we have been involved in on our blog. It has been an immense honor for us to be part of such an important scientific endeavor. The telescope is 100 times more powerful than Hubble and is expected to take on the task of filling in missing pieces of the Big Bang mystery that have eluded scientists for many years.

Webb marks the largest telescope ever put in space, being roughly the size of a large truck at 43.5 feet long and 14.2 feet in diameter, and cost of over $10 billion to construct. Scientists are looking at the 344 mechanisms on board the telescope as potentially 344 points of failure, meaning that each of them must strike the right balance in the first attempt, with no chance at sending repair crews to the telescope if a fault occurs. Everyone on the team at NASA are optimistic that deployment will be successful however, and with any hope the James Webb Space Telescope will revolutionize our understanding of the universe, giving us viewpoints never before possible.

Visit NASA’s website for more information and to keep up with all the latest updates on this monumental journey.

NASA Chief discusses the James Webb Telescope after launch

Curiosity Rover Discovers Organic Molecules on Mars

The Mars Perseverance Rover has made great progress in exploring the mysterious red planet since its launch on July 30, 2020. The full audio recordings Perseverance collected while traversing the Martian surface, as well as the rustling of the planet’s solar winds had scientists and astronomy enthusiasts excited. The mission’s goal began last year by drilling for Martian rock samples in the Jezero crater. Analysis of data provided by Perseverance indicates that Mars may have had ancient flash floods in the area. The clarity of the images showing massive lake and river formations have scientists undoubtedly excited. The evidence gives insight into how Mars was formed, the planet’s hydrology, its layers and composition, among others. By the time studies from future launches in 2030 are complete, researchers hope to have collected approximately 30 samples for analysis. 

Initial attempts to collect Martian samples were conducted by the Curiosity Rover in 2016, but the larger drill bit shattered during its attempt on Mount Sharp, sidelining the mission for several years after. However, in the wake of this setback, NASA shifted gears to analyzing organic molecules present in loose samples the rover had previously collected. The ‘wet chemistry lab’ aboard Curiosity has only 9 cups of solvent and each one is single use, so samples must be chosen carefully and with great intention. The most difficult part of the experiment is collecting organic molecule samples without them breaking down into smaller molecules due to heat. The solvent avoids this problem by reacting with the compounds first to ensure they can be collected for analysis with the least risk of them breaking down. From the sand Curiosity had collected from Ogunquit Beach, researchers found ammonia, benzoic acid, among others, including several compounds that had not been found on Mars before. As of yet, no amino-acid like molecules have been discovered, so we still cannot conclusively say if there was life on Mars or not. 

Even if scientists are unable to discover proof of organic life on our red sister planet, the success of this new experiment paves the way for further research into not just extraterrestrial bodies, but our own planet.  

For more information, click here.  

Click here, to read some of Lenox Laser’s past blog posts covering NASA missions. 

Spectrometer Analysis of Exoplanets Revolutionizes Extraterrestrial Study

NASA has explored planets a variety of ways in the past, from rockets to astronauts to satellites and probes.  Now, they have a new tool to aid in their passion for discovery, an instrument called NEID, a massive spectrometer that will do deep dive studies of exoplanets in and around our solar system. Exoplanets are planets that orbit around other existing stars, and over the summer, the new instrument brought back data from our sun. The spectrometer’s main purpose is to locate, categorize, and define new planets and their locations within the solar system, and it does so by detecting
small shifts in light from nearby stars. Kitt Peak National Observatory in Arizona is currently where NEID resides. Pointing at the sky, the spectrometer will bring back data that shows the mass, size, and environmental makeup of these exoplanets, giving scientists a better overall understanding of their habitability and even potential evidence of life
within them. Presently exoplanets are found by detecting light fluctuations within surrounding stars. The spectrometer will provide scientists more exact analysis of these planets as they are discovered, which until now had only been hypothesized. 

The spectrometer operates by splitting light into its various color wavelengths, which allows scientists to identify the molecular makeup of the exoplanets orbiting the star it is analyzing. It is not yet known when the findings of this study will be completed but the hope that it will give us further insight into our evolving understanding of the solar system around us and planets in general. 

Space is an ever-growing challenge to understand, but with today’s technology, solving its mysteries has never been more possible and whatever is found out there is sure to be treated with the utmost respect and will be one for the history books.

Click here, for more info on the NEID.

To see past Lenox Laser posts covering NASA milestones, click here.

New Advancements in Brain Mapping Efforts

Understanding the inner workings of the human brain eluded scientists for many years, how and why it functions the way that it does. The movements and reactions in our day-to-day life may seem minuscule, but it is the key to unlocking answers in a new study being conducted in part by UC Berkeley. The recent study was conducted over five years, and its findings were accumulated into 17 different studies covering the mapping of brain cells and their pathways. To achieve this, scientists studied neurological signals from the central cortex of the brain to help them understand things like muscle movement, reaction time and vital motor function. Getting proper mapping was of the utmost importance so the cells were grouped by things like gene type, size, particle structure and gene marker. This study was done with hopes that therapies could be developed to assist with things like disabilities, brain disorders, and other illnesses. This presented a challenge because they had to find ways to merge the data in the clusters as it was found quickly as data was discovered. 

While a full atlas of the human brain will not be completed in the near future, it is hoped that eventually diagnosing a person’s ailment or disease in the brain will be a matter of reference to this massive guide and be able to select the appropriate treatment. To help further understanding, groups of mice were used with certain gene therapies to understand cell growth, neurological movement and more. What this breakthrough could mean for the future of science and medicine, no one knows at this point, but it is hoped that better understanding of the human body and its inner workings is achieved. The evolution of medicine through the use of medical technology has broadened our knowledge exponentially in recent years, here’s hoping that similar breakthroughs continue to be discovered.  

To read more about these efforts by UC Berkley, click here, here, and here.

Click here, to read through past Lenox Laser blog posts.

SpaceX Hopeful for the Future of Consumer Spaceflight after Inspiration4 Mission Concluded Successfully

The recent Inspiration4 mission by SpaceX, the first ever space flight with a private citizen crew, was a complete success. The crew consisted of four people who participated in astronaut training, never having been in space before. The crew members were in great spirits when they returned last week on Saturday, September 25. The idea of the mission began as a charter flight fundraiser benefiting St. Jude’s Children’s Hospital and raised over 200 million dollars. One of the crewmembers, Haley Arceneaux was a patient at St. Jude and is a cancer survivor. The mission lasted three days; intending to provide everyday civilians a chance to experience real spaceflight by floating within Earth’s orbit, giving them views from space that previously only seasoned astronauts could witness. The splashdown happened around 7:07 PM on September 25, with the flight capsule being retrieved from the Atlantic Ocean with medical personnel another other aid standing by to attend to the crewmembers and make sure that they acclimate to the rapid environmental changes upon return. All involved in the mission are thrilled at how the it turned out. 

The mission was so successful that SpaceX is considering expanding crewmember size by dealing with several different contracts for future missions. With these contracts, they hope to resolve the issue of the capsules’ quantity and short lifespan, with each capsule only having the capacity of five flights, and one of them having already completed two launches. One of the contracts will allow for a space tourism company called Space Adventures. A much larger spaceship simply called Starship, a vessel larger than SpaceX’s Dragon, is in the works but has not had a first trip yet. It would explore space in much the same way as Dragon, just with greater capacity for personnel aboard. With the Success of Inspiration4 combined with future visions of innovation, ingenuity seems endless.

To read more about the Inspiration4 splashdown, click here

For more about SpaceX’s future plans, click here

Click here, to read some of Lenox Laser’s previous coverage of the SpaceX missions. 

Visit us at PACK Expo 2021 in Las Vegas

The annual PACK expo is making a triumphant return to Las Vegas live and in person September 27th to the 29th at the Las Vegas Convention Center and Lenox Laser could not be more excited to attend this event. There are so many amazing highlights this year including a dedicated packaging robot which is the first of its kind by Schubert Group, industry first early 1900s liquid filling machines, and the innovative gluing machine that was sold to Abbott Labs in 1937. A variety of manufacturers will be on hand from all areas of the packaging industry. From Coca-Cola, to pharmaceutical, to candy companies, they will all be there showing those in attendance the latest and greatest innovations in packaging and product innovation. Learn about maximizing profits to get the best out of the product and audience that they sell to. In person workshops and live demonstrations will be happening to give a first-hand account of what goes on behind the scenes to give consumers the products they hold tried-and-true in their everyday lives. While there, you can learn about cost-effective digital printing solutions for any packaging business.  

For our part of the expo, Lenox Laser will be excited to show guests our Container Closure Integrity Testing (CCIT) methods in a live talk and demonstration session taking you through the various stages of packaging testing that we do on a weekly basis. Our CCIT methods allow us to laser drill calibrated microleaks to test the durability of critical packaging and containers. We drill a wide variety of metals, alloys, plastics, glass, and composites. We test under many different conditions, whether open or closed, sealed or not. The utmost care and safety standards are delivered to our customers every time. 

Look for us at booth number 6817 as we proudly show you just one of our company’s many services held in high esteem for over 40 years now. We are excited to be a part of this massively popular show within the packaging industry and we sincerely thank all involved at PACK for having us as a guest speaker, we will be thrilled to see you there. 

Click here to visit the PACK Expo site for more information.

To join Lenox Laser at the event, register to attend, here.

Researchers Discover Unexpected Interaction Between Electrons in New Metal

Scientific discoveries continually improve and shape the foundations of our daily lives.  This has again proven true with the discovery of a new metal that allows electrons to flow like liquid filtered through a pipe. Atoms typically move in metal by loose electrons also known as free electrons that group together to form negative charges near the positive charges. In a new study, done by experimental physicists at Boston College, the goal was to find out how electrons can move like liquid inside of a new superconductor called Ditetrelide (NbGe2). It was found that interactions with phonons, small “particles” of heat or vibrational energy, can cause drastic shifts. The new metal is a combination of Germanium and Niobium. It was also noted that with this liquid metal combination, the laws of hydrodynamics could still be obeyed. By interacting with these phonons, the electron-phonon liquid can be created. 

Three different methods were used to study the metal to give it a more scientific breakdown. Electrical resistance testing was able to display high mass electrons. Raman scattering showed different levels of vibration in the Ditetrelide (NbGe2) due to the differential flow in the electrons. The final method was x-ray diffraction showing in detail the structure of the metal. With further experimentation, the electron mass was found to be three times larger than initially predicted. Sometime soon, it is hoped that Ditetrelide (NbGe2) can be used in new medical devices, including portable patches.

Click here, to read more about the study.  

To read past blog entries from Lenox Laser, click here.

Ingenuity Performing Far Beyond Expectations

NASA’s Mars Ingenuity helicopter has been giving us some of the most breathtaking views of the planet. Two flights were successfully completed recently, flight number 12 on August 15 and number 13 this past Labor Day weekend. Fight 12 astounded scientists because of how far the simple prototype had come. The helicopter only weighs 1.8 kg and was initially designed to show what a simple vehicle could achieve exploring the planet. The original plan for the flight was to go to South Séítah, flying at a 10m altitude and traveling about 235m to get side-by-side detailed images of surface terrain clear enough to make a full 3-D image. During this time over 10 images would be captured, and then given to the Perseverance rover to determine further areas of the planet for study. Ingenuity has dealt with Mars’s harsh winds, dusty, rocky surfaces, craters, and volcanic activity.  The helicopter had been through an extremely rough flight from Earth when it was launched back in April of this year for its first trip. The goal of each flight is to learn as much as we can about Mars. With the atmosphere being only 1% of the density of Earth’s, ingenuity is navigating the planet with a high degree of difficulty, making exploration a bigger obstacle. 

Flight 13 was able to fly closer to the planet than any previous attempt, 13 also covered a shorter distance than its predecessor traveling 690 feet compared to 1476 feet on flight 12. The helicopter was never designed to be flying cameras when in prototype stage, so the fact it is accomplishing such feats and lasting long enough is astonishing to scientists. The photos from different directions may help uncover more angles and reveal hidden points of interest.  Overall, the team is excited by the results. We are excited to see what answers these discoveries will unlock about the red planet. 

To read the original article by NASA, click here

For past coverage Lenox Laser has written about Perseverance and Ingenuity, click here

Recent Advancements in Semiconductor Manufacturing

Semiconductors have been a part of the manufacturing world for many decades now. They continue to evolve by the day with varying capabilities. The idea of cultivating electric components for semiconductors has caught the imagination of a team at the University of South Wales. With assistance from Cambridge University, they hope to make components smaller and faster and avoid oxidation or other damaging effects. These can be built by manufacturing an ultra-small and wafer-thin metal gate within the semiconducting crystal. The electric flow needs to be in close quarters with the switch to turn the transistor on and off at any time, this also needs to be done while maintaining a steady frequency response.  

A frequent problem the new process will try to solve is the issue of oxidation. Making the devices smaller and with more singular circuitry, surface oxidation unfortunately is an unavoidable factor. While oxidation is an issue with this process currently, there are also many advantages like making them smaller to avoid scattering, when electron pathways fail to communicate. It will also increase conductivity by two and a half times. 

With this innovative design, the team hopes to eliminate excess electrical charge stored in the semiconductor. Even with reduced scattering the team still faces the challenges of scattering preventing high-frequency components from being used inside transistors. Surface charges could cause fluctuations resulting in a short or miscommunication of pathway signals. If the project proves successful, whatever form these new semiconductors may take, they can hopefully be used for a variety of products and applications.  

A Look into the Development of Brain Computer Interfaces

The human brain is a tool, full of mystery, and evolving every day. Imagine for a moment that there was a way to completely unlock and understand the mind in ways that science never imagined possible. This is the goal a team of neuroscientists at Brown University, University of California at San Diego, and Qualcomm is hoping to achieve. The hope is that research into brain-computer interfaces (BCIs) with advanced sensors will one day assist in eliminating or slowing the progress of brain and spinal cord injuries. BCIs are implanted computers with thousands of neural pathway sensors that detect and interpret brain signals and may eventually be given the capacity to produce stimuli where the brain is lacking. The systems being developed at Brown University, which are currently being tested on mice, have proven to surpass currently available technology. The sensors would be packed into a small wearable skin patch about the size of a fingerprint and readings would be sent to a computer or portable device. The goal of the study is to achieve as many signals as possible from living brain tissue. 

The obstacles of testing come from precisely probing of the brain. If successful, this new BCI could not only help with spinal cord injuries but neurological diseases such as Alzheimer’s, motor skill impairments, and even dementia as well as assist in the treatment of brain injuries. Finding a comfortable yet secure prosthetic is the other hurdle teams are facing, with devices needing to produce accurate readings while avoiding a massive hinderance to mobility. 

The scientists involved in the project have an extremely positive outlook for what this study could mean for the future of neuroscience and medicine in general.

For more information on the development of BCIs, click here, or here

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