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Working From Home Now Means Letting Corporate Surveillance Into Your Daily Life

Working From Home Now Means Letting Corporate Surveillance Into Your Daily Life

The covid pandemic event has inspired a generation of workers…

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Working From Home Now Means Letting Corporate Surveillance Into Your Daily Life

The covid pandemic event has inspired a generation of workers with false notions about labor, production and work ethics, to the point that it may be a decade or more before people finally return to reality and stop living in fantasy.  

One prominent issue, of course, is the anti-work movement, which essentially believes that no-skill work should be paid a living wage or that such workers should be supplemented by government welfare.  This is the beginning of Universal Basic Income (UBI), which means millions of people dependent on government fiat and maintaining this relationship would become a matter of survival.  You can't rebel against a corrupt government when you depend on them to feed you and your family.  

The covid stimulus checks acclimated the public to the taste of UBI (not to mention the rent moratoriums) and many of them now have an addiction to living for free.  Large numbers of Americans and Europeans think that this is the way it should be forever, but nothing is for free, kids.  There's always a cost and a consequence.  

Another issue is the rise of the “work from home movement.” Certainly, there are many technology jobs, media jobs and data analysis jobs that can be accomplished from home and are perhaps better done outside of an office than inside of one.  The advantages are substantial, with reduced traffic in major population centers, psychological relief from the often stifling office environment and potentially improved work output.  Businesses pay for less office space and less supplies also.  It seems like a win-win.

However, there is an agenda afoot which seeks to exploit the work-from-home dynamic and pervert it into something ugly.  And, it is rooted in a growing trend of corporate surveillance of employees in their own houses

Eight out of ten the largest employers in the US already track productivity metrics at the workplace.  This means monitoring software on work computers, surveillance cameras, facial recognition, mood recognition, keystroke records, and even cell phone tracking apps with GPS records.  The argument in favor of this kind of Orwellian all-seeing eye is: “You don't have to work here if you don't want to – you can always quit.”  

This is a cop-out response that is designed to circumvent any discussion on the unethical nature of employee monitoring to such an extreme level.  People are being paid, but at the same time they are being treated like property – they are being treated like slaves with no privacy.   And what if every single employer uses employee surveillance?  What if there are no options?  You can quit, but will you be able to find a work environment that doesn't treat you like this?

This kind of pervasive intrusion is exactly what the work-from-home movement is inviting into their daily lives, as more and more companies are now demanding that employees allow technological surveillance onto the home computers, cell phones and even allow corporations to insert video surveillance into worker houses.

A research paper recently published by the SAGE Journal of Management suggests that employee monitoring does not lead to more productivity; rather, it leads to the opposite.  Participants in worker experiments were found to be less productive and more likely to break the rules if they knew they were being watched.  The paper asserts that surveillance takes away the sense of personal responsibility that workers require to be involved in their jobs.    

One could argue that the drop in productivity in the experiments is because the threat of real consequences was not present.  There is some legitimacy to this.

In a world where anyone can now be fired from their job and lose their livelihood for an offhand remark on social media, what would happen if the same kind of consequences extended to discussions in our homes?  What if work surveillance wasn't just about “productivity,” but also about controlling behavior and ideals of employees?  This is exactly where we are heading; a future where what you say in the comfort of your own living room is dissected and examined for “wrong thinking.”  And what is “wrong thinking?”  It's whatever the people in power say it is.  A person criticizing the very nature of corporate surveillance could one day be fired for “wrong think.”     

There are choices, the more obvious being self-employment and starting your own business.  But as the economy continues to decline starting your own business will be increasingly difficult.  One could simply go off-grid completely and try to produce necessities for themselves, and this is really what we need rather than a work-from-home movement, but it will take large communities of people all going off grid to make much of a difference.  

Ultimately, the entire basis for worker surveillance is built on a fallacy.  Most jobs that can be accomplished at home are not paid by the hour.  Busywork is not the same as productivity.  If an employee is doing their work the boss will know it because that employee will turn in finished work.  Companies don't need to monitor employees, they only need to monitor RESULTS.  If a worker is solid, they'll have great results and an extensive catalog of finished projects.  If a worker is lazy, then they'll have no results to show.  It's really that simple.  

So why the massive invasion of privacy?  Maybe it's not about productivity at all.  Maybe it's about acclimating the public through their jobs to being watched 24/7, and accepting that this is the new normal. 

Tyler Durden Wed, 08/24/2022 - 22:40

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Elon Musk’s says the Boring Company to reach $1 trillion market cap by 2030

Musk said there’s really only one roadblock to this company achieving this mega-cap value.

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Elon Musk wants to create and control an artificial superintelligence and guide humanity in an effort to colonize Mars. But before we get there, he wants to solve the problem of traffic right here on Earth. 

In 2016, the tech billionaire tweeted himself into a new company: "Traffic is driving me nuts. I am going to build a tunnel boring machine and just start digging..." he wrote. A series of tweets followed this proclamation as the idea germinated and cemented in Musk's head: "It shall be called 'The Boring Company.' I am actually going to do this."

Related: Elon Musk is frustrated about a major SpaceX roadblock

The firm's goal is to "solve the problem of soul-destroying traffic," by creating a series of underground transportation tunnels. Taking transportation underground, the company says, should additionally "allows us to repurpose roads into community-enhancing spaces, and beautify our cities."

The tunneling company broke ground on its first project in Feb. 2017 and has since completed three projects: the Las Vegas Convention Center (LVCC), the Hyperloop Test Track and the R&D Tunnel. It is currently working on a 68-mile Las Vegas Loop station that will eventually connect 93 stations between Las Vegas and Los Angeles. Once in operation, the Vegas Loop will transport 90,000 passengers every hour, according to the company. 

More Elon Musk News:

Part of Musk's proposition is that, with the right technology, he can make tunneling a quick and relatively inexpensive process. The company's Prufrock machine allows Boring to "construct mega-infrastructure projects in a matter of weeks instead of years." The machine can mine one mile/week, with new iterations expected to further increase that output. 

Elon Musk is looking to transform traffic and transportation with one of his many ventures. 

Bloomberg/Getty Images

By 2030, Youtuber and investor Warren Redlich wrote in a post on X, Boring will have more than 10,000 miles of tunnel. By 2035, he said, that number will rise to 100,000. With that increase in tunnel space, Redlich thinks that Boring will IPO by 2028 and hit a $1 trillion market valuation by 2030. 

Musk said that this bullish prediction might actually be possible. 

"This is actually possible from a technology standpoint," he wrote in response. "By far the biggest impediment is getting permits. Construction is becoming practically illegal in North America and Europe!"

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NULISA: Ultra-Sensitive Immunoassay Platform for Profiling Fluid-Based Neurodegenerative Protein Biomarkers

Efforts to identify biomarkers for neurodegenerative disease have been hampered by the lack of a proteomic tool with the required sensitivity to detect…

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Broadcast Date: October 11, 2023
Time: 8:00 am PT, 11:00 am ET, 17:00 CET

Efforts to identify biomarkers for neurodegenerative disease have been hampered by the lack of a proteomic tool with the required sensitivity to detect very low concentrations of brain-derived proteins in plasma or serum and the ability to multiplex many analytes in a single assay.

In this webinar, we will describe the NULISA Platform, a novel immunoassay with attomolar level sensitivity and high multiplex capability. The performance of the NULISA assay was benchmarked to existing immunoassay platforms and Dr. Zetterberg will present data from his evaluation of the NULISA system’s ability to detect serum biomarkers associated with Alzheimer’s disease. Dr. Henrik Zetterberg is a leading researcher in the field of Alzheimer’s disease who has spent the past 10 years focused on the discovery and validation of blood-based biomarkers for CNS disorders.

 

During the presentation we will offer a chance to pose questions to our expert panelists. Any questions submitted during the webinar will be answered at a later date.

Doug Hinerfeld, PhD
Senior Director of Application Support
Alamar Biosciences
Henrik Zetterberg
Henrik Zetterberg, MD, PhD
Professor of Neurochemistry
University of Gothenburg

 

The post NULISA: Ultra-Sensitive Immunoassay Platform for Profiling Fluid-Based Neurodegenerative Protein Biomarkers appeared first on GEN - Genetic Engineering and Biotechnology News.

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How does voltage drive nonmetallic catalysts to perform electrocatalytic reactions?

Understanding how voltage drives nanoscale electrocatalysts to initiate reactions is a fundamental scientific question. This is especially challenging…

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Understanding how voltage drives nanoscale electrocatalysts to initiate reactions is a fundamental scientific question. This is especially challenging when dealing with non-metallic electrocatalysts due to their low inherent carrier concentration, which leads to poor conductivity. When voltage is applied at the non-metal/solution interface, the situation becomes more complex than in the case of metal/solution interfaces. One notable complexity is the significant potential drop within the non-metal, causing the surface potential to often deviate from the back potential. Analyzing the driving force for chemical reactions by applying classical metal models to non-metals can result in substantial inaccuracies. Up until now, distinguishing the potential distribution between the nonmetallic catalyst and the EDL still relies on complex theoretical calculations. The actual potential drop across the semiconductor-electrolyte interface remains unknown, due to the lacks of in in-situ techniques. Moreover, conventional electrochemical characterization only provides the ensemble information for electrode materials, neglecting the spatial heterogeneity in the electronic structures of catalysts. Therefore, a spatially resolved in-situ characterization technique is highly needed.

Credit: ©Science China Press

Understanding how voltage drives nanoscale electrocatalysts to initiate reactions is a fundamental scientific question. This is especially challenging when dealing with non-metallic electrocatalysts due to their low inherent carrier concentration, which leads to poor conductivity. When voltage is applied at the non-metal/solution interface, the situation becomes more complex than in the case of metal/solution interfaces. One notable complexity is the significant potential drop within the non-metal, causing the surface potential to often deviate from the back potential. Analyzing the driving force for chemical reactions by applying classical metal models to non-metals can result in substantial inaccuracies. Up until now, distinguishing the potential distribution between the nonmetallic catalyst and the EDL still relies on complex theoretical calculations. The actual potential drop across the semiconductor-electrolyte interface remains unknown, due to the lacks of in in-situ techniques. Moreover, conventional electrochemical characterization only provides the ensemble information for electrode materials, neglecting the spatial heterogeneity in the electronic structures of catalysts. Therefore, a spatially resolved in-situ characterization technique is highly needed.

In a new research article published in the Beijing-based National Science Review, scientists at Dalian Institute of Chemical Physics, Chinese Academy of Sciences, Xiamen University, University of Chinese Academy of Sciences, Imperial College London autonomously constructed an in-situ surface potential microscope and successfully measured the surface potential of the basal plane of 2H molybdenum disulfide under various voltages. This achievement addresses the experimental challenge of directly measuring the potential distribution at the non-metal/solution interface. The research findings highlight a notable difference in how the surface potential of semiconductors changes with applied voltage compared to metals. When applying voltage from positive to negative, semiconductors shift from maintaining a stable surface potential to displaying variations, gradually resembling the behavior of metals. Scientists further clarified the differences in potential drop values at various applied voltages between the semiconductor (ΔVsem) and the double layer (ΔVedl). They vividly explained how, in a solution environment, the semiconductor’s Fermi level and band structure evolve, demonstrating a transformation of the semiconductor into a highly conductive semimetal.

To further investigate the role of voltage in electrocatalytic reactions, scientists employed atomic force-scanning electrochemical microscopy (AFM-SECM) to study electron transfer (ET) and hydrogen evolution reaction (HER) imaging on molybdenum disulfide. In ET imaging, the semiconductor’s basal plane exhibited strong electron transfer capability, comparable to that of the semimetal edge. However, HER imaging revealed catalytic inertness at the basal plane. Nano-electrochemical imaging results indicated that voltage only affects the ET step. Due to the absence of hydrogen adsorption sites on the basal plane (i.e., chemical sites), voltage cannot drive the electrons on the basal plane to further participate in chemical reactions. This work paves the way for the rational design of efficient nonmetallic electrocatalysts based on the understanding of how voltage acts on nonmetallic catalysts at the nanoscale.

See the article:

Visualizing the role of applied voltage in non-metal electrocatalyst
Natl Sci Rev 2023; doi: 10.1093/nsr/nwad166
https://doi.org/10.1093/nsr/nwad166


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