Identifying Query CPU Core Utilization in SQL Server 2022

Diving into the world of database management, especially when it comes to enhancing performance, can sometimes feel like you’re solving a complex puzzle. With SQL Server 2022, this journey gets a bit more intriguing thanks to its new features designed to help us peek under the hood and see how our queries interact with the system’s resources. For those of you who’ve been wondering if there’s a…

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What is the kernel of an operating system ?

You can think of the kernel as the core component of an operating system, just like the CPU is the core component of a computer. The kernel of an operating system, such as the Linux kernel, is responsible for managing system resources ( such as the CPU, memory, and devices ) . The kernel of an operating system is not a physical entity that can be seen. It is a computer program that resides in memory.

Key points to understand the relationship between the kernel and the OS:

The kernel acts as the intermediary between the hardware and the software layers of the system. It provides a layer of abstraction that allows software applications to interact with the hardware without needing to understand the low-level details of the hardware

The kernel controls and manages system resources such as the CPU, memory, devices, and file systems. It ensures that these resources are allocated and utilized efficiently by different processes and applications running on the system.

The kernel handles tasks like process scheduling, memory management, device drivers, file system access, and handling interrupts from hardware devices.

The kernel can be extended through the use of loadable kernel modules (LKM). LKMs allow for the addition of new functionality or device drivers without modifying the kernel itself.

What Future Trends in Software Engineering Can Be Shaped by C++

The direction of innovation and advancement in the broad field of software engineering is greatly impacted by programming languages. C++ is a well-known programming language that is very efficient, versatile, and has excellent performance. In terms of the future, C++ will have a significant influence on software engineering, setting trends and encouraging innovation in a variety of fields. 

In this blog, we'll look at three key areas where the shift to a dynamic future could be led by C++ developers.

1. High-Performance Computing (HPC) & Parallel Processing

Driving Scalability with Multithreading

Within high-performance computing (HPC), where managing large datasets and executing intricate algorithms in real time are critical tasks, C++ is still an essential tool. The fact that C++ supports multithreading and parallelism is becoming more and more important as parallel processing-oriented designs, like multicore CPUs and GPUs, become more commonplace.

Multithreading with C++

At the core of C++ lies robust support for multithreading, empowering developers to harness the full potential of modern hardware architectures. C++ developers adept in crafting multithreaded applications can architect scalable systems capable of efficiently tackling computationally intensive tasks.

C++ Empowering HPC Solutions

Developers may redefine efficiency and performance benchmarks in a variety of disciplines, from AI inference to financial modeling, by forging HPC solutions with C++ as their toolkit. Through the exploitation of C++'s low-level control and optimization tools, engineers are able to optimize hardware consumption and algorithmic efficiency while pushing the limits of processing capacity.

2. Embedded Systems & IoT

Real-Time Responsiveness Enabled

An ability to evaluate data and perform operations with low latency is required due to the widespread use of embedded systems, particularly in the quickly developing Internet of Things (IoT). With its special combination of system-level control, portability, and performance, C++ becomes the language of choice.

C++ for Embedded Development

C++ is well known for its near-to-hardware capabilities and effective memory management, which enable developers to create firmware and software that meet the demanding requirements of environments with limited resources and real-time responsiveness. C++ guarantees efficiency and dependability at all levels, whether powering autonomous cars or smart devices.

Securing IoT with C++

In the intricate web of IoT ecosystems, security is paramount. C++ emerges as a robust option, boasting strong type checking and emphasis on memory protection. By leveraging C++'s features, developers can fortify IoT devices against potential vulnerabilities, ensuring the integrity and safety of connected systems.

3. Gaming & VR Development

Pushing Immersive Experience Boundaries

In the dynamic domains of game development and virtual reality (VR), where performance and realism reign supreme, C++ remains the cornerstone. With its unparalleled speed and efficiency, C++ empowers developers to craft immersive worlds and captivating experiences that redefine the boundaries of reality.

Redefining VR Realities with C++

When it comes to virtual reality, where user immersion is crucial, C++ is essential for producing smooth experiences that take users to other worlds. The effectiveness of C++ is crucial for preserving high frame rates and preventing motion sickness, guaranteeing users a fluid and engaging VR experience across a range of applications.

C++ in Gaming Engines

C++ is used by top game engines like Unreal Engine and Unity because of its speed and versatility, which lets programmers build visually amazing graphics and seamless gameplay. Game developers can achieve previously unattainable levels of inventiveness and produce gaming experiences that are unmatched by utilizing C++'s capabilities.

Conclusion

In conclusion, there is no denying C++'s ongoing significance as we go forward in the field of software engineering. C++ is the trend-setter and innovator in a variety of fields, including embedded devices, game development, and high-performance computing. C++ engineers emerge as the vanguards of technological growth, creating a world where possibilities are endless and invention has no boundaries because of its unmatched combination of performance, versatility, and control.

FAQs about Future Trends in Software Engineering Shaped by C++

How does C++ contribute to future trends in software engineering?

C++ remains foundational in software development, influencing trends like high-performance computing, game development, and system programming due to its efficiency and versatility.

Is C++ still relevant in modern software engineering practices?

Absolutely! C++ continues to be a cornerstone language, powering critical systems, frameworks, and applications across various industries, ensuring robustness and performance.

What advancements can we expect in C++ to shape future software engineering trends?

Future C++ developments may focus on enhancing parallel computing capabilities, improving interoperability with other languages, and optimizing for emerging hardware architectures, paving the way for cutting-edge software innovations.

Digital Measurements vs Quantum Measurements

1 Hertz is the equivalent of 2 bits per second calculation. We measure the speed and throughput of your average processor today in gigahertz with a theoretical speedlimit of 4 GigaHertz.

That speed limit is why we have decided to expand the number of cores in a processor, and why we don't typically see processors above that outside of a liquid-cooled environment.

Your average standard processor has between 4 and 8 cores, with the capability to run twice as many simultaneously occuring threads. Or two simultaneously occuring processes per individual core.

Your average piece of software, for comparison usually runs single-threaded. While your 3D software (and chrome), by necessity required to be run multi-threaded in order to output the video portion. Typically, that software relies on GPUs which are geared to as many threads as possible, in order to produce at least 60 images per second. But can utilize your core CPU instead if your device doesn't have one.

When you have many multiple cores and/processors in an individual system, you're now relying on a different value; FLOPs (floating-point operations per second) which is so much higher in scale than your average CPU calculation, and requires measuring the output of many simultaneously operating parts. This means it may be lower than what you'd expect simply by adding them together.

Flops calculate simultaneously occurring floating-point operations.

Now Quantum mechanics is already the next step of technological evolution, but we haven't figured out how to measure it in a way that is useful yet. 1 qHertz for example; would this be the quantum processor's ability to do binary calculations? That would overall limit the quantum processor's ability since it's having to emulate a binary state.

Theoretically; one Quantum particle should be capable of doing 2 FLOP simultaneously. And the algorithms and computing we use at the quantum level are so far divorce from a Binary/Digital representation it would be hard to compare the two directly.

Even in the binary/digital world there is no direct observable correlation between Hertz and FLOPs. Despite the fact that we know approximately more Hertz can do approximately more FLOPs.

<aside>I keep asking myself; are we sure we don't already have quantum computing already? What if proprietary chips and corporate secrecy means we already use qBits at the hardware level and everybody else just doesn't know it yet.</aside>

At the base state; a qBit is capable of storing the equivalent of many bits of data, and will be able to perform the equivalent of a terra-flop of calculations on that one qBit per second.

But it's a single variable in contrast to our current average memory storage of 8Gigabytes that can be sub-divided into millions of separate variables.

72 qBits would allow for 144 variable declarations, every two variables being part of the same qBit and used in special ways that we can't do with regular bits.

Or to put it another way; a single floating point number takes 32bits of information, a double floating point number takes 64 bits of information.

At the minimum, one qBit can store at least 2 double precision floating point numbers (and each one of those numbers could theoretically be the equivalent of a triple or quadruple floating point in overall limitation.)

Therefore a single qBit can store between 128 bits and 512 bits (this is a conservative estimate). However, they're limited to how small they can be sub-divided into individual variables. By the time we get to MegaQBits, we'll be able to do so much more than we can currently do with bits it'll be absolutely no-contest.

However; there will be growing pains in Quantum Computing where we can't define as many variables as we can in Digital.

What's your biggest hyperfocus and how did you discover it?

I had to think on this for a minute because I wasn't sure if it was true anymore. If it wasn't this then it would be something like MLP or motorcycles (it was tempting to say motorcycles!).

I think it's fair to still say personal computers, though. I'm not sure about when my first contact with them was, but I know a major development was when my dad bought our first PC, an IBM AT clone. (I think I still have most of the parts for it!) I would have been like, 7-9 years old at the time and I was fascinated with it. I ended up breaking it as a kid, because I was trying to figure out what all the DOS 4.0 commands did by running them... when I got to FDISK I rendered it unbootable by pressing buttons. A friend of my father's recovered the situation (I think he used Norton Utilities to recreate the partition table).

I can name pretty much every PC that we had as a family or I had personally:

-Aforementioned IBM AT clone (8088 with a Tatung Hercules monitor, DOS 4.0) -386SX that came from who knows where (Went straight from orange Hercules to VGA colour!!! Windows 3.1) -Tandy 1000HX (long term loan from a friend) -Cyrix 586 (dogshit computer - had fake onboard cache, a common scam at the time, crashed constantly. Windows 95) -468DX4 (think I built this from scrounged parts. Win95, slower than the other PC but way more stable) -Pentium II 233 (also built from scrounged parts. First PC I overclocked, gaining 33 mHz! So fast!!! Windows 2000... but later got repurposed as a Linux-based router) -AMD Duron 800 (built with NEW parts - parents gave me a budget to built a family computer. Windows ... 98? XP? Probably changed multiple times) -AMD Athlon XP 1600 (built with NEW parts - I truly don't remember where I got the money in highschool to put it together, but it was probably every penny I had) -AMD Athlon 64 X2 4400+ (admittedly I didn't remember this offhand... but I did have the physical CPU lying around to check. bought off the shelf very cheap as old stock for my parents to use. Windows Vista. Later upgraded to an Phenom X4, also for very cheap. This PC still lives running Windows 10 today!) -Intel Core 2 Duo Q6700 (built in a cute Shuttle XPC chassis. Eventually burned out a RAM slot because apparently it wasn't rated for 2.0V DIMMs. Windows 7) -Intel Core i5-2500K (I used this computer for YEARS. Like almost a decade, while being overclocked to 4.4 gHz from nearly the first day I had it. Windows 7/10) -AMD 5800X (Currently daily driver. Windows 10)

Not mentioning laptops because the list is already long and you get the point.

I actually did attempt to have a computer related career - in the mid 2000s I went to a community college to get a programming diploma, but I dropped out halfway. There was a moment, in a class teaching the Windows GDI API, where I realized that I had no desire to do that professionally. I did learn things about SQL and OS/400 that randomly came in handy a few times in my life. I did go back and successfully get a diploma in networking/tech support but I've never worked a day in that field.

Unprofessionally though, I was "that guy" for most of my life - friend of a friend or family would have a problem with their PC, and I would show up and help them out. I never got to the point where I would attempt to like, re-cap somebody's motherboard, but I could identify blown caps (and there was a time when there was a lot of those). As the role of PCs has changed, and the hardware has gotten better, I barely ever get to do this kind of thing these days. My parent's PC gathers dust in the corner because they can do pretty much do everything they need on their tablets, which they greatly prefer.

Today though... I used to spend a lot of time reading about developments in PC hardware, architectural improvements, but it doesn't matter as much to me anymore. I couldn't tell you what the current generation of Intel desktop CPUs use for a socket without looking it up. A lot of my interest used to be gaming related, and to this day the GPU industry hasn't fully recovered from the crypto boom. Nearly all of the games I'm interested in play well on console so I just play them there. I still fiddle with what I have now and then.

It is fun to think back on various challenges/experiences with it I've had over the years (figuring out IRQ/DMA management when that was still manual, Matsushita CD-ROM interfaces, trying to exorcise the polymorphic Natas virus from my shit). Who knows, maybe I'll get to curate a PC museum of all this shit someday haha.

AORUS AI Gaming Laptops and 14th Raptor Lake Graphics

GIGABYTE Announced the AORUS AI Gaming Laptops Model and its 14th Model Raptor Lake Graphics Refresh

At the US Consumer Electronics Show in 2024, GIGABYTE Technology a world leader in high-end computing made its debut in the AI gaming laptop market. The firm made its debut into the new AI PC battleground with the release of the AORUS and GIGABYTE Gaming AI gaming laptops.

The initial batch, which includes NVIDIA RTX 40 laptop GPUs and the newest 14th generation Intel Core HX series CPUs, is now on sale. The AORUS 17X and AORUS 16X, which provide unparalleled professional AI generative content processing capacity, are at the top of the list.

The industry-leading Intel Core i9-14900HX CPU and NVIDIA RTX 40 series graphics cards that come with both variants provide unmatched computing power for AI-generated content. Specifically, the AORUS 17X is compatible with the powerful NVIDIA GeForce RTX 4090, which has a maximum graphic power of 175W.

By using TensorRT, it achieves a fourfold gain in performance on Windows PCs with RTX discrete GPUs by speeding up the processing of next-generation language models, such Llama 2 and Code Llama. This will transform how individuals utilize computers and organize their workflows, particularly when processing huge batches of complicated language models (LLM).

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The laptops also have the integration of GIGABYTE AI Nexus, a revolutionary control program that enhances gaming performance, power management, and generative-AI software to new heights. In addition, Copilot, the integrated AI assistant from Microsoft, boosts your productivity, creativity, and competitive advantage. The gaming experience is further enhanced by the integration of Dolby Vision and Dolby Atmos technologies, which provide professional-grade AI generative content and the most immersive gameplay possible.

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AORUS 16X Reveals the AI Generation’s Future

Gaming conventions are upended by the new AORUS 16X AI Gaming Laptops, which redefines the relationship between AI and gaming! With 24 cores (eight performance and sixteen efficiency) and a clock speed of up to 5.8 GHz, the most recent 14th generation Intel Core i9-14900HX CPU powers this system, providing top-notch desktop-class performance that easily handles multitasking and demanding applications. With a maximum graphic power of up to 140W, it supports the NVIDIA RTX 4070 Laptop GPU and offers Advanced Optimus technology (DDS) for discrete graphics.

With the help of NVIDIA’s Deep Learning Super Sampling (DLSS 3) technology, this unlocks powerful AI computational power, improving gaming experiences via autonomous frame rate generation, ray tracing, and the restoration of native high-resolution images for the best possible fast-paced gaming experience.

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With its strong twin 12V fans, effective five heat pipes, ultra-thin 0.1mm fins, and 3D VortX air-channeling design, GIGABYTE’s proprietary WINDFORCE Infinity cooling system is the engine driving this incredible processing capabilities. By increasing the air intake space, this technology greatly raises the efficiency of heat dissipation. During low loads, the immersive noise-free experience is guaranteed by the Icy Touch design, while steady performance is guaranteed during heavy loads. Moreover, GIGABYTE unveils the unique Copilot hotkey, which instantaneously launches the Windows Copilot AI assistant function, lending a helpful hand with everyday tasks, creative processes, and productivity.

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This year, the AORUS Beacon is the device that gamers are most interested in. Its cover has two distinct styles, Aurora Gray and Midnight Gray, which together create a fashionable ambiance. Beneath its elegant and refined exterior, which makes use of Nanoimprint Lithography (NIL) technology and an iridescent design, is a monstrous performance. With its 4-sided, ultra-slim bezel design, which features GIGABYTE’s trademark 3mm bezels and a high refresh rate of up to 165Hz, the display section guarantees success from the outset with an amazing 91% screen-to-body ratio. It is very comfortable and confident for prolonged usage thanks to its TÜV Rheinland Eye Comfort Certification and Pantone Validated color accuracy certification.

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AORUS 17X: Unlocking Expert AI Processing Capabilities

The AORUS 17X AI Gaming Laptops, the flagship model from GIGABYTE, was recognized with a Red Dot Product Design Award and got a traditional makeover using a CNC metal cutting method. The updated version is designed for the performance king who enjoys AAA games and AI-generated content. Equipped with the Intel Core i9-14900HX CPU, it offers exceptional multitasking performance.

It supports the NVIDIA RTX 4090 Laptop GPU in the discrete graphics section, which has a maximum graphic power of 175W, Advanced Optimus technology (DDS), and a VRAM of up to 16GB GDDR6. In addition to successfully playing games in native 4K resolution, it has strong AI processing capabilities that can handle intricate generative AI models and texturing effects. It makes it possible to quickly create a mobile workstation locally and ensure data security and privacy without depending on the cloud thanks to open-source software technologies.

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The heat dissipation efficiency is increased by 35% with the WINDFORCE Infinity cooling system, which includes a Vapor Chamber full-cover heat dissipation plate. With four sets of 12V fans and a 3D Vort cooling channel design, it effectively eliminates waste heat and floods the thin 2.18cm body with cold air, maximizing the processing capability of the CPU and GPU.

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In addition to having a 99Wh maximum battery capacity for on-the-go use with PD charging support, the new AORUS AI Gaming Laptops series from 2024 has a wide range of I/O ports for simple external expansion. The addition of GIGABYTE’s unique AI Nexus program, such as “AI Boost,” which is powered by Microsoft Azure AI and automatically modifies system power consumption and fan settings for an overclocked gaming experience, to all models further advances innovation.

The “AI Generator” gives users access to creative AI graphics creation via the use of stable diffusion and edge AI computing capabilities. In addition, “AI Power Gear” optimizes power use to prolong product life and improve battery life. consumers of the Windows 11 operating system may ask questions of the “Copilot” AI chatbot, demonstrating GIGABYTE’s extensive usage of AI from the cloud to the local, offering consumers the ease and limitless possibilities that come with the AI era. To experience the golden age of generative AI, pre-orders for the AORUS 16X / AORUS 17X (2024) AI gaming laptops are now available.

Read more on Govindhtech.com

Skytech Gaming Prism II Gaming PC: Unleashing Power

I use the Skytech Gaming Prism II Gaming PC, equipped with the mighty INTEL Core i9 12900K processor clocked at 3.2 GHz, an RTX 3090 graphics card, a spacious 1TB NVME Gen4 SSD, and a robust 32GB DDR5 RGB RAM. The package also includes an 850W GOLD PSU, a 360mm AIO cooler, AC Wi-Fi, and comes pre-installed with Windows 10 Home 64-bit. Let me share my experience with this powerhouse.

Performance Beyond Expectations

The Intel Core i9 12900K is an absolute beast, effortlessly handling resource-intensive tasks and demanding games. The synergy with the RTX 3090 is evident in the seamless gaming experience with ultra-settings. Whether it's rendering, gaming, or multitasking, this PC delivers exceptional performance, surpassing my expectations.

Graphics Prowess and Immersive Experience

The RTX 3090 is a graphics powerhouse, providing stunning visuals and real-time ray tracing. Gaming on this machine is an immersive experience, with smooth frame rates and jaw-dropping graphics. The 32GB DDR5 RGB RAM complements the GPU, ensuring seamless transitions between applications and minimizing lag.

Storage Speed and Capacity

The 1TB NVME Gen4 SSD significantly enhances system responsiveness and speeds up data transfer. Games load swiftly, and the overall system boot time is impressive. The ample storage space caters to a vast game library, eliminating concerns about running out of space.

Robust Cooling System

The inclusion of a 360mm AIO cooler ensures that the system remains cool even during prolonged gaming sessions. It effectively dissipates heat, maintaining optimal temperatures for both the CPU and GPU. This attention to cooling enhances the system's longevity and ensures consistent performance.

Powerful and Efficient PSU

The 850W GOLD PSU is more than capable of handling the power demands of the Core i9 12900K and RTX 3090. It provides a stable power supply, contributing to the overall efficiency and reliability of the system. The gold-rated efficiency ensures energy is utilized optimally, reflecting a commitment to sustainability.

Aesthetically Pleasing Design

Apart from the raw power, the Skytech Gaming Prism II stands out with its visually striking design. The RGB lighting on the DDR5 RAM adds a touch of flair, creating a visually pleasing gaming setup. The attention to aesthetics extends to the cable management, contributing to a clean and organized look.

User-Friendly Setup and Windows 10 Integration

The pre-installed Windows 10 Home 64-bit operating system streamlines the setup process, allowing users to dive into their gaming or productivity tasks swiftly. The inclusion of AC Wi-Fi ensures a reliable and fast internet connection, further enhancing the overall user experience.

Conclusion: A Premium Gaming Powerhouse

In conclusion, the Skytech Gaming Prism II Gaming PC is a premium gaming powerhouse that exceeds expectations in performance, design, and efficiency. The combination of the Intel Core i9 12900K and RTX 3090, coupled with ample storage and robust cooling, makes it a top-tier choice for gamers and content creators alike. The attention to detail in design and the user-friendly setup further solidify its position as a stellar gaming desktop. If you're in the market for a high-end gaming PC, the Skytech Gaming Prism II is a compelling choice that delivers on both power and aesthetics.

while actually undervolting laptop CPU's seems to be basically impossible now there are some cool utilities for setting power limits, namely RyzenAdj

By tuning processor power down to 8W average I was able to keep it completely passively cooled while running a small Dwarf Fortress base with six hours of battery life reported, two hours improvement. neat!

That limits your frequencies obviously but six cores at 1.4GHz is still pretty fast.

PLC 101: How This Technology Has Transformed Industrial Automation

Programmable Logic Controllers (PLCs) have completely transformed the field of industrial automation, bringing about a revolution in efficiency and productivity.

These powerful devices have become the backbone of modern industrial processes, enabling seamless automation and control.

PLCs are specialized computers designed to monitor and control machinery and processes in industrial settings.

They consist of a central processing unit (CPU), input and output modules, memory, and a programming interface. By utilizing a combination of hardware and software, PLCs can efficiently manage complex tasks and streamline operations.

One of the key benefits of PLCs in industrial automation is their ability to enhance reliability, flexibility, and scalability. With their robust design and advanced programming capabilities, PLCs offer improved overall performance and cost savings. They can handle a wide range of tasks, from simple control functions to complex automation processes, making them highly adaptable to various industrial applications.

Moreover, PLCs have significantly improved efficiency and productivity in industrial settings.

By optimizing processes, reducing downtime, and enabling real-time monitoring and control, PLCs have revolutionized the way industries operate.

They allow for precise and accurate control of machinery, ensuring smooth and uninterrupted production.

Furthermore, PLCs have simplified maintenance and troubleshooting tasks. With their advanced diagnostic capabilities, they can quickly identify and resolve issues, minimizing production disruptions.

This streamlined approach to maintenance not only saves time and resources but also ensures the smooth running of industrial processes.

Another crucial aspect where PLCs have made a significant impact is safety. PLCs enable the implementation of safety protocols, risk assessment, and emergency shutdown systems, enhancing safety standards in industrial automation.

They provide a reliable and efficient means of safeguarding workers and equipment, reducing the risk of accidents and ensuring a secure working environment.

Looking ahead, the future of PLC technology holds exciting possibilities. Advancements such as cloud connectivity, edge computing, and artificial intelligence are expected to further revolutionize industrial automation.

These developments will enable enhanced data analysis, predictive maintenance, and autonomous decision-making, taking efficiency and productivity to new heights.

Introduction to PLCs

Programmable Logic Controllers (PLCs) have revolutionized the field of industrial automation, transforming the way industrial processes are controlled and monitored. PLCs are specialized computer systems designed to automate and streamline various tasks in industries, such as manufacturing, energy, and transportation.

At their core, PLCs consist of three main components: the central processing unit (CPU), the input/output (I/O) modules, and the programming interface.

The CPU acts as the brain of the PLC, executing the programmed instructions and coordinating the communication between different modules.

The I/O modules serve as the interface between the PLC and the physical world, receiving input signals from sensors and sending output signals to actuators. The programming interface allows engineers and technicians to create and modify the logic that controls the PLC's behavior.

PLCs are programmed using specialized software that utilizes ladder logic, a graphical programming language that resembles electrical circuit diagrams.

This makes it easier for technicians to understand and modify the logic, even without extensive programming knowledge. The programming capabilities of PLCs enable them to perform a wide range of automation tasks, such as controlling motors, monitoring temperature and pressure, regulating flow rates, and executing complex sequences of operations.

Overall, PLCs play a crucial role in automating industrial processes by providing a reliable and flexible control system.

They have become an integral part of modern industrial automation, offering improved efficiency, increased productivity, and enhanced safety. As technology continues to advance, PLCs are expected to evolve further, incorporating features such as cloud connectivity, edge computing, and artificial intelligence, further revolutionizing the field of industrial automation.

Benefits of PLCs in Industrial Automation

When it comes to industrial automation, Programmable Logic Controllers (PLCs) have emerged as a game-changer. These advanced devices have revolutionized the way industrial processes are automated, offering a wide range of benefits that enhance reliability, flexibility, and scalability, ultimately leading to significant cost savings and improved overall performance.

One of the key advantages of using PLCs in industrial automation is their enhanced reliability. PLCs are designed to withstand harsh industrial environments, ensuring continuous operation without any significant downtime. They are built with robust components that can withstand extreme temperatures, vibrations, and electrical noise, making them highly reliable in demanding industrial settings.

Furthermore, PLCs offer unparalleled flexibility, allowing for easy modification and reconfiguration of processes. With their programmable capabilities, PLCs can adapt to changing production needs and requirements, making it easier to introduce new products or make adjustments to existing ones. This flexibility enables manufacturers to respond quickly to market demands and stay competitive in a rapidly evolving industry.

Scalability is another key benefit of using PLCs in industrial automation. These devices can easily accommodate the growth and expansion of production facilities. Whether it's adding new equipment or increasing production capacity, PLCs can be seamlessly integrated into the existing system, minimizing disruptions and ensuring smooth operations.

Overall, the use of PLCs in industrial automation offers numerous advantages, including enhanced reliability, flexibility, and scalability. By leveraging the power of PLC technology, businesses can achieve cost savings, optimize processes, and improve overall performance, ultimately gaining a competitive edge in the industry.

Improved Efficiency and Productivity

Improved Efficiency and Productivity

Programmable Logic Controllers (PLCs) have revolutionized the field of industrial automation by significantly improving efficiency and productivity in various industrial settings. These advanced devices have the capability to optimize processes, reduce downtime, and enable real-time monitoring and control, leading to enhanced overall performance.

One of the key advantages of PLCs in industrial automation is their ability to optimize processes. By automating repetitive tasks and streamlining workflows, PLCs eliminate human errors and ensure consistent and accurate operations. This not only increases efficiency but also minimizes the risk of costly mistakes that can impact productivity.

Furthermore, PLCs play a crucial role in reducing downtime in industrial settings. With their advanced programming capabilities, these devices can detect and address issues in real-time, allowing for immediate troubleshooting and minimizing production disruptions. This proactive approach to maintenance ensures that any potential problems are identified and resolved swiftly, keeping operations running smoothly.

In addition to optimizing processes and reducing downtime, PLCs enable real-time monitoring and control of industrial systems. By collecting and analyzing data from various sensors and devices, PLCs provide valuable insights into the performance and status of equipment. This allows operators to make informed decisions, implement timely adjustments, and ensure optimal productivity.

In summary, PLCs have significantly improved efficiency and productivity in industrial settings by optimizing processes, reducing downtime, and enabling real-time monitoring and control. These advanced devices have revolutionized the field of industrial automation, providing a reliable and scalable solution for enhancing overall performance.

Streamlined Maintenance and Troubleshooting

Programmable Logic Controllers (PLCs) have revolutionized maintenance and troubleshooting tasks in industrial automation, streamlining the process and minimizing production disruptions. With their advanced capabilities, PLCs have simplified the identification and resolution of issues, ensuring efficient operations.

One of the key advantages of PLCs is their ability to provide real-time monitoring and control. This means that any potential problems can be detected immediately, allowing for quick action to be taken. PLCs enable operators to easily identify the root cause of an issue, minimizing the time spent on troubleshooting. With traditional systems, troubleshooting could take hours or even days, causing significant downtime and impacting productivity. However, with PLCs, this process is greatly expedited, reducing production disruptions and saving valuable time and resources.

Moreover, PLCs offer a user-friendly interface that simplifies maintenance tasks. Operators can easily access and modify the programming of the PLC, making it easier to troubleshoot and resolve issues. Additionally, PLCs allow for remote access, enabling technicians to diagnose and fix problems without being physically present at the site. This remote troubleshooting capability further enhances efficiency and reduces the need for on-site visits.

In summary, PLCs have significantly streamlined maintenance and troubleshooting tasks in industrial automation. Their real-time monitoring, quick issue identification, and user-friendly interface contribute to minimizing production disruptions and maximizing efficiency.

Enhanced Safety and Risk Mitigation

Enhanced Safety and Risk Mitigation

PLCs have played a crucial role in enhancing safety standards in industrial automation. By enabling the implementation of safety protocols, risk assessment, and emergency shutdown systems, PLCs have significantly reduced the potential risks and hazards associated with industrial processes.

One of the key benefits of using PLCs in terms of safety is their ability to monitor and control operations in real-time. With PLCs, operators can constantly monitor the status of various components and processes, ensuring that they are operating within safe parameters. In the event of any abnormality or deviation from the set parameters, PLCs can trigger immediate emergency shutdowns, preventing accidents and minimizing the potential for damage.

Furthermore, PLCs allow for the implementation of safety protocols that can be tailored to specific industrial environments. These protocols can include measures such as interlocks, which ensure that certain actions can only be performed when specific conditions are met, and fail-safe systems, which activate backup mechanisms in the event of a failure. This level of customization and control greatly reduces the likelihood of accidents and promotes a safer working environment.

In addition to safety protocols, PLCs also enable risk assessment and analysis. By collecting and analyzing data from various sensors and devices, PLCs can identify potential risks and vulnerabilities in the industrial processes. This allows for proactive measures to be taken to mitigate these risks, such as implementing additional safety measures or modifying the process parameters to eliminate potential hazards.

In summary, PLCs have revolutionized safety standards in industrial automation by enabling the implementation of safety protocols, risk assessment, and emergency shutdown systems. With their real-time monitoring capabilities and customizable safety measures, PLCs have significantly reduced the occurrence of accidents and created a safer working environment for industrial operators.

Flexibility and Adaptability

Flexibility and adaptability are key characteristics of Programmable Logic Controllers (PLCs) that have revolutionized industrial automation. PLCs offer the ability to easily modify and reconfigure processes, allowing industries to adapt to changing production needs and requirements.

One of the main advantages of PLCs is their programmability, which enables engineers to customize and adjust the functionality of the controllers according to specific industrial applications. This flexibility allows for seamless integration with different equipment and systems, making it easier to implement changes and improvements in the production process.

Moreover, PLCs offer the capability to create and store multiple programs, allowing for quick and efficient switching between different production tasks. This means that industries can easily adapt their processes to accommodate varying product specifications or production demands without the need for extensive manual reconfiguration.

In addition to process modification, PLCs also provide adaptability in terms of connectivity and communication. They can be easily integrated with other devices and systems, such as sensors, actuators, and human-machine interfaces (HMIs), enabling real-time data exchange and control. This seamless integration enhances the overall efficiency and effectiveness of industrial automation systems.

In conclusion, the flexibility and adaptability offered by PLCs play a crucial role in industrial automation. They allow for easy modification and reconfiguration of processes, accommodating changing production needs and requirements. With their programmability and connectivity capabilities, PLCs enable industries to optimize their operations and stay competitive in a rapidly evolving market.

Future Trends in PLC Technology

Looking into the future of PLC technology, we can expect exciting advancements that will further revolutionize industrial automation. One of the key trends is the integration of cloud connectivity, which allows for seamless data sharing and remote monitoring of industrial processes. With cloud connectivity, manufacturers can access real-time information from their PLC systems, enabling them to make informed decisions and optimize their operations.

Another trend to watch out for is the adoption of edge computing in PLC technology. Edge computing involves processing data at the edge of the network, closer to where it is generated. This approach reduces latency and enables faster decision-making, making it ideal for time-sensitive industrial applications. By leveraging edge computing, PLCs can analyze data locally, minimizing the need for constant communication with a central server.

Artificial intelligence (AI) is also set to play a significant role in the future of PLC technology. AI algorithms can analyze vast amounts of data and identify patterns, enabling predictive maintenance and proactive decision-making. PLCs integrated with AI capabilities can detect anomalies, predict equipment failures, and optimize processes in real-time, leading to increased efficiency and reduced downtime.

These advancements in PLC technology have the potential to transform industrial automation even further. Manufacturers can expect improved efficiency, reduced costs, and enhanced overall performance. As PLCs continue to evolve, it is crucial for businesses to stay updated with the latest trends and leverage these technologies to stay competitive in the rapidly changing landscape of industrial automation.

Frequently Asked Questions

What is a Programmable Logic Controller (PLC)?A Programmable Logic Controller (PLC) is a digital computer used in industrial automation to control and monitor various processes. It is designed to withstand harsh industrial environments and is programmed to perform specific tasks, such as controlling machinery, monitoring sensors, and executing logic functions.

How do PLCs improve efficiency in industrial automation?PLCs improve efficiency in industrial automation by optimizing processes, reducing downtime, and enabling real-time monitoring and control. They can perform tasks faster and more accurately than manual operations, resulting in increased productivity and reduced waste.

What are the benefits of using PLCs in industrial automation?Using PLCs in industrial automation offers several benefits. They provide enhanced reliability, flexibility, and scalability, leading to cost savings and improved overall performance. PLCs also streamline maintenance and troubleshooting tasks, enhance safety standards, and allow for easy modification and reconfiguration of processes.

Can PLCs be integrated with advanced technologies like cloud computing and artificial intelligence?

Yes, PLC technology is evolving, and integration with advanced technologies like cloud computing and artificial intelligence is becoming more common. This integration can enable remote monitoring and control, predictive maintenance, and advanced analytics, leading to further optimization and efficiency in industrial automation.

Are PLCs suitable for small-scale industries?

Yes, PLCs are suitable for both large-scale and small-scale industries. They offer flexibility and adaptability, allowing for customization based on specific production needs and requirements. PLCs can be scaled up or down depending on the size of the operation, making them a versatile solution for industrial automation.

Mech Construction Showcase: Nine-Ball

Greetings, Dan here!

Armored Core is one of the primary inspirations behind Beneath Twisted Earth. I played it back during Gen 1, and would occasionally return to replay it to get that same feeling. When YouTuber, Josh Strife Hayes did a longform video revisiting Armored Core 1 for the PS1 last year, it sparked the inspiration that would become BTE. From the megacorp-ruled, war-torn dystopia, to the mission-downtime story progression for pilots AC is in BTE's DNA. That is not to discount the influences from other properties (Battletech, Front Mission, Gundam, Nausica, etc), just that it provided the initial spark to this project. So when the announcement for AC6 came out over the summer I was very excited. I'll be picking up my copy this Friday to keep the mech juices flowing through the final development steps. To commemorate the occasion, this Mech Construction Showcase will be showing off the main antagonist from Gen 1, (26 year old spoiler warning), Nine-Ball.

For those not familiar, Nine-Ball is a high end AC constructed by the AI that runs all of what remains of the human world. This AI played all factions against each other, and Nine-Ball was its avatar amongst them, using it to pose as the mercenary pilot, Hustler One. When the time came Nine-Ball, directly piloted by the AI as an assault unit against key targets that threatened its primary programming (maintaining human population and advancement through endless war). Because of this, Nine-Ball comes equipped with the same equipment that other pilots might come across, but the build has been optimized for speed and frequency of attacks.

(Nine-Ball art property of From Software)

Nine-Ball is designed with a medium amount of armor so as not to sacrifice speed, to reflect this, we will equip it with an Anodyne Frame, giving it 36 AP. The Boosters will likewise come from Anodyne, giving it a Movement Rating of 3. In order to reflect its high end optimization from skill and attacks, we will install a Sakura CPU, giving Nine-Ball four Utilities, and a Sakura Radiator to provide a Heat Rating of 14.

For the four Utilities, we will go with the AI Assistant to give Nine-Ball a one stat/skill reroll per round; an Aerial Frame allowing for flight capabilities; a Sensor Suite to allow it to scan the field in a variety of ways; and a Neural Interface granting a +5 to Mech Piloting. While the names for a couple of these utilities may imply a biological component or another AI involved, we will consider these both expressions of Hustler One's full capabilities as an AI itself.

As for Weapon Systems, Nine-Ball is known for carrying missile launchers, a laser blade, a pulse rifle, and grenade launchers. While we could have used the 14 HR to build four weapons, we will instead create two weapons, and simulate the remaining weapons through mods and disposables allowing for stronger weapons. For this build, Nine-Ball's primary weapon will be it's Pulse Rifle, with a Weapon Skill of 60, and 9 HR. We will set the damage for this weapon at the relatively low d6 dmg for two heat, while we will increase the Rate of Fire to 2 for two heat. We will also give the Rate of Fire an optimization to raise it up to a total of 3 attacks per round. For ammunition, we'll spend four heat to give the rifle 12 Ammo. Then for Range we will make it effective at Medium range. Since Nine-Ball is high end, we will fill all three mod slots. The first, to reflect Nine-Balls usual grenade launcher loadout, we'll attach a grenade launcher mod to the pulse rifle. This will be limited to three shots, but should be enough to approximate. Next we'll install a Targeting AI that will add +5 to the associated Weapon Skill, again accounting for Hustler One's processing capabilities. Finally, we shall install Incendiary Ammo increasing damage dealt by +2.

Next, for targets that are up close, the Laser Blade. Now the version that Nine-Ball uses is equivalent to what starting pilots equip, so we will only spend one heat, giving it d4 in damage. With a Weapons Skill of 49, even if this is a low amount of damage any hit would deal a minimum of 5 dmg. Nine-Ball is known for attacking quickly in melee, so while we will only spend one heat on the Rate of Fire, giving it 1, we will optimize this feature to raise it to 2 attacks in a round. We will spend two heat to have 6 Ammo, and one heat to give the blade Melee range. For mods, we will install the Targeting AI and Incendiary ammo again.

Even though Nine-Ball's RoF is high across both of its weapons, we let the ammo be relatively low, meaning the AC has 3-4 rounds of consecutive attacks depending on the weapon before running out. Fortunately, any consecutive hits will stack damage on targets quickly thanks to high Weapon Skills. Still in order to compensate for any battles that it can't finish quickly, we will equip an Ammo Hopper for a refill on the Pulse Rifle. Then to account for Nine-Ball's normal load out of missiles, we will equip two disposable missile decks which will cover medium through far ranges. 

While Nine-Ball does have some gaps in its effective ranges, Close, Sniping, and Artillery, its MR of 3 will allow it to close any gaps with its opponents quickly. Ultimately, just like the boss of Armored Core Gen 1, this build would present a challenge for most opponents. Of course there were multiple ways this mech could have been built in the system to reflect the desired feel. This is just how I decided to go about it. It was a fun, slightly more in-depth build to help get ready for AC6's release on Friday. Next time though, I'd like to make a "mid tier" mech as well as visit another of BTE's core inspiration franchises. While we could go real robot, I think I'll use this chance to instead, build something more akin to a super robot. Next time, let's build the Shining Gundam from Mobile Fighter G Gundam.

Thank you once again for your interest in Beneath Twisted Earth, and I look forward to seeing you all at the launch of the full version soon!

Dan

Tecno has launched the Camon 20 Series in the Kenyan market

Tecno has launched the Camon 20 Series in the Kenyan market, the series includes Camon 20 Premier 5G, Camon 20 Pro 5G, Camon 20 Pro and Camon 20. The device is powered by a MediaTek Dimensity 8050 Chip which has an advanced 6nm octa-core architecture. With up to 3GHz CPU frequency, performance smooth and lag-free, whether running day-to-day apps or large-scale games. It utilizes, a Triathlon…

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The Technical Side of Hosting a Minecraft Server: A Comprehensive Overview

Minecraft, the immensely popular sandbox game, offers players the opportunity to explore, build, and interact in a virtual world of endless possibilities. Whether you're a casual player or a dedicated Minecraft enthusiast, you may have considered hosting your own server to enjoy the game with friends or create a unique gaming experience. However, hosting a Minecraft server comes with its fair share of technical challenges. In this article, we will provide a comprehensive overview of the technical aspects involved in hosting a Minecraft server. Hardware Requirements: To host a Minecraft server, you'll need a computer with sufficient hardware capabilities. The specific requirements depend on various factors, such as the number of players you anticipate, the type of gameplay, and the complexity of the server modifications (mods) you plan to use. Here are some general guidelines: - CPU: Minecraft heavily relies on the CPU for processing player actions, world generation, and other game mechanics. A multi-core processor with a clock speed of at least 3.0 GHz is recommended. - RAM: Minecraft server performance is heavily influenced by the amount of RAM available. Allocate at least 2GB of RAM for a small server with a few players, and increase it for larger servers or when using mods. - Storage: Minecraft servers consume disk space as they generate and store world data. A solid-state drive (SSD) is preferable for faster read/write speeds, especially when dealing with larger player bases and complex worlds. - Internet Connection: A stable and fast internet connection is crucial for smooth gameplay. Consider your upload speed, as it affects the server's ability to send data to players. Aim for at least 10 Mbps upload speed, but higher speeds are recommended for larger servers. Setting up the Server: Once you have the appropriate hardware, the next step is to set up the Minecraft server. Follow these steps: - Obtain the Server Software: Visit the official Minecraft website or reputable third-party sources to download the server software. It's recommended to use the latest stable release. - Port Forwarding: To allow players outside your local network to connect to your server, you'll need to configure port forwarding on your router. Open the router's settings and forward the Minecraft server port (default is 25565) to the local IP address of the computer hosting the server. minecraft server list - Server Configuration: The server software typically provides a configuration file where you can customize various settings, such as game rules, player limits, and world generation parameters. Take your time to adjust these settings to suit your preferences. - Plugins and Mods: Minecraft offers a wide range of plugins and mods that enhance gameplay, add new features, and improve server management. Research and install the desired plugins or mods, ensuring compatibility with your server software version. Server Maintenance and Optimization: Running a Minecraft server requires regular maintenance to ensure optimal performance. Consider the following aspects: - Updates: Stay up to date with the latest server software releases to benefit from bug fixes, performance improvements, and security patches. Keep an eye on plugin and mod updates as well, ensuring compatibility with the server software. - Backups: Regularly backup your server's world data to prevent data loss in case of server crashes or other unforeseen events. Use automated backup tools or manually copy the server files to a secure location. - Monitoring and Management: Utilize server management tools that provide real-time monitoring, player management, and administrative capabilities. These tools can help you track server performance, handle player issues, and enforce rules efficiently. - Server Optimization: Optimize your server's performance by tweaking settings such as view distance, entity limits, and tick rate. Experiment with these settings to find the right balance between performance and gameplay experience. Dealing with Connectivity Issues: Despite your best efforts, connectivity issues may still arise. Here are some common problems and potential solutions: - Latency and Lag: High latency and lag can result in delayed player actions and a poor gaming experience. Opt for a hosting provider with low-latency servers, or consider using a virtual private server (VPS) to ensure better performance. - DDoS Protection: Distributed Denial of Service (DDoS) attacks can disrupt your server's availability. Look for hosting providers or services that offer DDoS protection to safeguard against such attacks. - Firewall and Antivirus: Ensure that your server's firewall and antivirus settings are properly configured to allow Minecraft traffic and prevent any false positives that might interfere with gameplay. Hosting a Minecraft server can be a rewarding experience, allowing you to create a unique gaming environment and share it with others. However, it's essential to understand the technical aspects involved to ensure a smooth and enjoyable experience for all players. By considering the hardware requirements, server setup, maintenance, optimization, and connectivity issues, you'll be well-equipped to navigate the technical challenges of hosting a Minecraft server successfully. So gather your friends, unleash your creativity, and embark on the journey of running your very own Minecraft server. Happy crafting!

Behind the Scenes: Understanding the Hardware of Dedicated Servers

Dedicated servers play a crucial role in powering online applications, websites, and multiplayer gaming experiences. These robust machines are designed to handle heavy workloads and provide reliable performance. Understanding the hardware components that make up a dedicated server is essential for anyone looking to utilize or manage these powerful systems. In this article, we'll delve into the hardware aspects of dedicated servers and explore the key components that contribute to their performance and functionality. Processor (CPU): The processor, or central processing unit (CPU), is often referred to as the brain of the server. It executes instructions and performs calculations, making it a critical component for overall server performance. Dedicated servers typically feature high-performance CPUs with multiple cores and threads to handle simultaneous tasks efficiently. CPUs from leading manufacturers like Intel and AMD are commonly found in dedicated servers, providing excellent processing power for demanding applications. Memory (RAM): Random Access Memory (RAM) is another vital component of dedicated servers. RAM serves as temporary storage for data that is actively being used by the server's applications and processes. More RAM allows the server to handle a larger volume of data, resulting in faster data access and improved overall performance. Dedicated servers often have substantial amounts of RAM, ranging from several gigabytes to terabytes, depending on the specific server requirements. Storage (Hard Drives or Solid-State Drives): Storage is where data is permanently stored on a dedicated server. Traditional hard disk drives (HDDs) and solid-state drives (SSDs) are the two primary storage options. HDDs offer larger storage capacities at a lower cost, making them suitable for storing large amounts of data. On the other hand, SSDs provide faster read and write speeds, resulting in quicker data retrieval and improved application performance. Many dedicated servers now offer a combination of both HDD and SSD storage to strike a balance between capacity and speed. Network Interface Cards (NICs): Network Interface Cards (NICs) enable the server to connect to networks and transfer data. Dedicated servers often feature multiple NICs to facilitate high-speed data transfers and ensure reliable network connectivity. These NICs may support various network technologies such as Ethernet, Fibre Channel, or InfiniBand, depending on the server's requirements and network infrastructure. Power Supply Unit (PSU): The Power Supply Unit (PSU) converts electrical power from the outlet into usable power for the server's components. Dedicated servers typically employ high-quality, efficient PSUs to provide stable power and minimize the risk of power-related issues. Redundant power supplies are often used to ensure uninterrupted server operation, even in the event of a single power supply failure. Cooling Systems: Dedicated servers generate substantial heat due to their high processing power and constant operation. Cooling systems, including fans, heatsinks, and sometimes liquid cooling, are crucial for maintaining optimal operating temperatures and preventing overheating. Efficient cooling mechanisms help prolong the lifespan of server components and ensure reliable performance. Remote Management Tools: Many dedicated servers include remote management tools for efficient server administration. These tools enable remote access to the server's hardware and allow administrators to monitor system health, perform diagnostics, and manage configurations without physical access to the server. Features like IPMI (Intelligent Platform Management Interface) and KVM (Keyboard, Video, Mouse) over IP provide valuable remote management capabilities. It's important to note that the specific hardware configuration of a dedicated server can vary depending on the provider, purpose, and customization options. When considering a dedicated server, it's essential to assess your requirements and choose a configuration that aligns with your needs. Understanding the hardware components of dedicated servers gives us a glimpse into the powerful infrastructure that supports online applications and services. These robust machines, with their high-performance processors, ample memory, reliable storage, and efficient cooling systems, form the backbone of many digital endeavors. Whether it's hosting websites, running resource-intensive applications, or powering multiplayer gaming experiences, dedicated servers offer the reliability, performance, and flexibility required for today's demanding digital landscape. https://ryomail.online/

Opinions on the obvious Larold of Florida Residence

you've made a critical mistake by asking me what i think about larry generally when my power limiters (discord message size limit) are off.

(spoilers for cpuk20 and onward under the cut including the nccts)

Larry as a core cast member of cpu kerfuffle is so perfectly potent for a series that makes multifaceted identity and the foundationally important human obligation of supporting one another central themes, because his entire character is built on masks and forms and titles and facets of the self, utilized as needed or wanted, sometimes lost and sometimes gained, but all a part of a unified whole, excellently portrayed through the character progression of Florida Man > Larry, the erratic shapeshifter > Home MD > Lawrence "Larry the Florida Man" Home, MD, from hapless barely-adult who scoffs at anything less than stardom, doesnt really Understand the danger of risk despite constant risk-taking behavior and doesnt even accept that he likes men yet to Talented and Well-known Medical Researcher Homeowner Pillar of The Community, who is Extremely Loud And Proud about his Beloved Boyfriend and Steady albeit Stressful Work In the Medical Care Profession

already fascinating before the nccts, but fleshed out even more seeing how uncertain of himself he was when he first arrived- not even accepting his attraction to other men yet, thinking it probably a phase, J0hn implies he freaked out a little the first time they really talked about it! their little interaction in the dream about it also leads me to assume their time adjusting to their altered selves after the experiments wasnt the first time J0hn helped Larry to see himself in bold and honest terms. Florida Man sees his future self and bemoans the boring normalcy of getting older and doing something like deciding to go to school and pursue a career in the medical field instead of becoming a big champ star of the tournament or some such other starry-eyed fantasy, as such though the idea of curing death itself as a personal achievement DOES manage to thrill him into reconsidering that a little. he is... understandably skeptical of a lot of the weird shit we tell him comes to happen in his adult life that surrounds all that, despite how cool he thinks parts of what we told him is. his future powers excite him, even if the havoc it wreaks on his body when he watches his future self change does... unsettle him. the idea of the time travel he takes with a grain of salt- joking about 'the simulation,' unaware of the irony of this tongue-in-cheek comment and its truthful element to the nature of his reality. this is a weird dream he's having, it doesn't mean much else to him yet, seeing what his future holds is... meaningful in a way, but it hasnt yet come to pass and he cant yet imagine it realistically because its not real to him yet. a dreamed up hypothetical which sits on the horizon which only we understood fully has already been carved in stone. his feelings are those of a not yet mature perspective of someone that can only barely be considered an adult looking on a future he can barely envision with any real weight because he's got his eyes set on the stars, uninterested and unwilling to make eye contact long with the mundane and painful long enough to worry about them, convinced he won't have to deal with them if he succeeds. "don't need insurance if you never crash!"

this doesn't last, of course. for reasons and through circumstances left largely undescribed as yet, Larry as well as his boyfriend fall victim to Dr. Order's experiments, experiencing life-changing trauma. they support eachother through learning to cope with their altered selves and deepening the closeness of their bond. Larry develops a... complicated relationship with his new powers, loving them and yet thinking them also a kind of curse. Unsurprising, considering the circumstances that lead to obtaining them and certain drawbacks they have. and in this period too one can find the implication of an internal conflict between a love for performing as part of the tournament, and being more authentically himself by seperating things that pertain to his personal self from it. with his initial re-debut with his powers, as a result of the improv, he uses them as a strange kind of anonymization from his initial stage title, using an unrecognizable neutral form, only going by his normal first name with the descriptive tag of his powers. (until hamhel makes him mad enough to try to beat his ass 'unmasked' in full view of the camera, lol.) larry, the erratic shapeshifter. they talk about how he works like. at the grocery store. Larry makes more appearances in tournaments in this period than any other, revealing more and more of himself while also kind of hiding himself, (again because of the improv often deciding these things after the fact.) Larry and Order are in the same tournament in cpuk14, and Larry's like I Do Not FUCKING See It because we dont learn his transformation is her fault until gaiden 2, which also has j0hn and larry in the same episode with no acknowledgement of a connection between them and their relationship is confirmed in cpuk17 to be 1) 2 years old and 2) the subject of some local rumor/gossip but never previously made public. At the same time, he can't RESIST the bullshit, the performance, the spectacle, the fun of it all. after being the guy who made headlines just to make headlines and ending up a dehumanized human experiment guinea pig, the guy wanted a little privacy to just be respected as himself in peace, even if he loves the show too much to stay away. he's trying to keep his personal life and the show separate, only allowing them to interact on his terms, but his personal life and feelings can't always be kept out of the show. In a way, one can read his shapeshifting and its functionality (controllable but only sort of, and a default self that can definitely be him but also is a malleable molten dripping goop at the same time, forms typically thrown at him like prompts) as part of a metaphor for the improv style of performance the show is based on- its... controlled but it isnt, theres a part of it thats driven by adapting to what you're given, playing your part whatever it might be, but theres a part of it that just comes from the gut, from who you are, and if youre doing it right somewhere amid the hashing of those things to achieve what you're going for you might find something real made of both. And larry can find himself a little lost in both sometimes. Larry's implied to sometimes dissociate and get a little lost in it when he takes a form (see: full rat mode moment), and similarly Larry gets REAL carried away with a bit sometimes, until something knocks some sense into him.

Forged from circumstances, Home MD is a facet of himself like the others, created like diamond by a steady, weight-of-the-world pressure, and Larry hatches from seven long years in the superheated chrysalis of this persona into his most modern self. It was, to continue a metaphor, a part he played so long and so well he came to embody it and it became a part of him. Home MD is all-business, the part of larry that responsibility and obligation summons to the forefront. Grim and straight-laced and patient. Uptight, even. Becoming Home, taking on the responsibility of what has already been set in stone by the loop, was the only way to stop the Doctor, a stain on the profession her title typically implies, without irreparably altering the course of history, possibly for the worse. Home is a doctor, and he's good at what he does, and what he does is what needs to be done, no matter how ugly and unfortunate it might be, even to great personal suffering, death and injury, a thing which... embarrasses him a little, given he once liked to think himself practically invincible, and now is coming to understand that while he can endure just about anything as long as theres a glimmer of light, a punchline, on the other side, it's not gonna be... a clean ordeal. Home MD must stare death and failure and illness and tragic inevitability in the face every day. There is no option to be naive or to look away. That is the nature of his profession. He witnesses himself changed in third person, and witnessed similar change for everyone else. But he's also compassionate, relentlessly so- never succumbing to thoughtlessness about the pain inherent of the grim task set before him, resilient both physically and psychologically. He was made to play a direct bystander as history unfolds, unable to change it's forward march without risking everything falling apart, but he learned to take pride in what he can do for people. Being a good doctor is about caring for others, after all, and he can do his damnedest to be there for everyone, even if his ability to change their fates for the better is... limited, for now.

This compassion is not a newly formed trait of Larry's- he's been known to reach out to people in kindness even before the Home years, Hamhel after his whole demon stunt and Google (mentioned offhandedly in G2, that he spoke with Google offscreen following his defection from Order) come to mind for examples outside his beloved boyfriend- but becoming a care professional turned this self-effacing empathy for others into a second nature, a duty, a willingness to endure anything to help someone. Even the Doctor got an opportunity to apologize, even if Larry was ultimately relieved she didn't take it and he could continue hating her to death and send her to her bitter ironic fate without ever having to consider a world where she chose to be better. (Until susan showed up, at least. We never did get to see his first reaction to her arrival when they thought she was her her, only weeks later, glaring and weary. i can't imagine it was pretty.) The only person he doesnt seem to extend that kind of compassion and understanding to much is himself, Home not really taking all that kindly to Larry until he's 'in on the joke,' so to speak and, after the loops completion, failing to realize (or refusing to acknowledge,) choosing not to seek therapy to give therapuppy a break from her overwork is silly when they're in the same boat of 150+ revolving patients with little professional backup and he hardly expects similar from her. He's happy to be someone others can rely on and not worry about, regardless of whether they like him, and it's... embarrassing for him, to admit when he cannot bear a weight by himself, as grateful as he is for support where he can get it he will not ask for it, beyond perhaps a snarky remark. "Damn, Grunk... how about a 'thank you,' maybe?" "Hey, man, it's alright, I get it. Gotta keep the tough guy look up. Either way, it was my pleasure to bring ya back."

And then there's the truth of their reality. During the loop, Home becomes aware of the nature of their world. A fiction, crafted into existence. improvised into being, becoming intimately aware of the functional implications of this. The world, the story, lives and breathes. It remembers and forgets itself as it pleases. colored dots and schrodingers cat. Many things in the past remain undetermined, only becoming fully true as it is spoken credibly into truth in the Script. Larry's intimate awareness of these 'obscure theories' as he frames them which we understand as just part of the nature of the telling of the story is something which I think informs his worldview and decisions considerably, while he doesn't tell anyone what he knows without these kinds of obfuscations to spare them the dread. I think the sephiroth incident may have been an attempt to determine what the narrative tone of the world would be going forward. not determine in the sense of trying to choose, although i think he did have a preferred outcome, but in trying to find out. Observing a schrodingers cat. Will cpu kerfuffle return to lighthearted low consequence fun, or continue to be a dramatic and consequential affair, even following the end of the story arc he'd brought to a close? The Grunk, a murder victim resurrected, had killed two people just for the bit recently, and either sephiroth's funny resurrection would have consequences because of his inherent dramatic weight, or it wouldn't, because we've become a full comedy again that can freely mock its own flirtation with weight. Larry really wishes that bloody note had been from the tootsie pop owl, but he'll take on the consequences of his little experiment without complaint. This is a dramedy and it will remain one. He recognized the possibility of this outcome. Observing schrodinger's cat does often end with a dead cat. Larry used to be shyer/more private about his relationship, but after years apart and knowing the world may forget or reinterpret that which doesnt remain firmly established, theres a part of me that wonders if the increased amount of public romantic gestures despite j0hn's mild embarrassment with them might be influenced by a degree of insecurity that the world may reinterpret their relationship because of their time apart and damage it somehow, or if he believes that by refusing to acknowledge his trauma as being as serious as it was, he can make it go away by convincing the world to think of it like a joke hes gotten over. Larry likes being the funny guy that isnt taken too seriously, despite the weight of his achievements, his burdens and his mistakes. 'Laughter is the best medicine' patch adams sad clown type bitch

Larry conducts himself nowadays knowing full well the potential for his chosen actions to go terribly, looking that potential for messy consequences dead in the eyes, but knowing as well that a lot of times, a good idea was a bad idea that worked out in the end. Nothing ventured, nothing gained. Home MD was the most batshit looney tunes painful idea he'd ever gone through with, and its transformed his life and others' for the better, ultimately, despite everything. That's life, baby! Love and support eachother, dare to be stupid and earnest and take risks, take the good with the bad, everyone contains multitudes and You are the unique and multifaceted and even sometimes contradictory self you compose from these many parts, we are mask and wearer, every me is me every you is you, We Never Stop Becoming!!!!!!!!

A core thing i do think larry after everything does still need to learn is a little self-compassion, not just in accepting that regardless of whether or not he can shoulder everything and anything thrown at him as the resilient fucker he is on his own, he shouldn't necessarily have to, (a sort of tardigrade's dilemma- if you know you're uniquely capable of surviving in nightmarish extremes, how obligated are you to do that in the place of others who might not be able to survive as well, if you'll still be suffering all the same?) even if it was self-inflicted by the consequences of his own decisions. After all, it'd be cruel to deny a sick patient treatment just because their habits caused their illness. but... well. being in your twenties is about forgiving all the dumb shit you did while you were growing, the same way being in your thirties and forties is, from what i understand, lol. maybe he needs to forgive his past self's naivety a little too.

In light of recent announcements, can we get a WIF for Keek?

Dedicating this request to mutual @bunnyai, since they enjoy MahoIku. They're braver than any government in the world for such a feat, I must say.

Also, I've been wanting to create a game-inspired Incubator for such a long time, so Keek's arrival was quite well-timed!

Ukato, The Incubator of Games

Physical Form: Inanimate Object (a corrupted CPU);

Core: On its hardware;

Appointed Clara Doll: Ibari/Prideful;

Barrier's Location: Shinagawa, Tokyo, Japan;

Ukato is an Incubator of an intellectual and level-headed nature; in their own twisted way of admiration towards pixelated heroes, they want to test the earthlings' capabilities, to remove any potential bugs that may obstruct the game's performance.

Their Barrier is an arcade center, where the players have their abilities put to test in a variety of video games (Racing, Puzzle, Beat 'Em Up, RPG, Shmups, etc...) so the most skilled player is eventually chosen to beat the Final Boss and win the big prize.

The Soul Gems are converted into points earned for the players' performances and utilized as currencies for the games; the brainwashed victims are forced to have their limits pushed by the challenges. The games are rigged so no one has ever reaches the Final Boss, and the losers are inevitably trapped inside arcade machines.

CES 2023: MediaTek Shows Off Latest in Wi-Fi and IoT Tech

The new year has finally arrived, and we’re getting a load of awesome tech to go along with it. As such, MediaTek has announced several new technologies ahead of the Consumer Electronics Showcase (CES) 2023 in Las Vegas, and they bring some promising new advancements for Wi-Fi and smart home technology. Let’s take a look! Genio 700 Platform To kick things off, the company announced its latest addition to its Genio platform for IoT devices, which aims to bring improvements to smart home and smart retail tech, to name a couple. In particular, the series’ MediaTek Genio 700 is an octa-core chipset designed for just this purpose, featuring two ARM A78 cores running at 2.2GHz and six ARM A55 cores at 2.0GHz while providing 4.0 TOPs AI accelerator. It also comes with support for FHD60+4K60 display, as well as an ISP for better images. According to Richard Lu, Vice President of MediaTek IoT Business Unit: “When we launched the Genio family of IoT products last year, we designed the platform with the scalability and development support that brands need, paving the way for opportunities to continue expanding. With a focus on industrial and smart home products, the Genio 700 is a perfect natural addition to the lineup to ensure we can provide the widest range of support possible to our customers.” The Genio 700 SDK will allow designers to customize products using Yocto Linux, Ubuntu, and Android. With this support, customers can easily develop their own products with a minimal amount of effort, regardless of application type. Additionally, the chipset will have support for high-speed interfaces, including PCIe 2.0, USB 3.2 Gen1 and MIPI-CSI interface for cameras, Dual-Display support including FHD60+4K60 with AV1, VP9, H.265 and H.264 (video decode) support, industrial grade design and wide temp with 10 years longevity, ARM SystemReady certification for providing a standard and easy way to integrate the platform, as well as ARM PSA certification for increased security. The Genio 700 will be commercially available in Q2 2023. Wi-Fi 7 Ecosystem MediaTek also unveiled its new Wi-Fi 7 ecosystem, making it one of the first adopters of the fastest Wi-Fi tech available right now. The company says that this new breakthrough is the result of investing into Wi-Fi 7 technology, aimed at improving always-on connected user experiences for use across smart devices, streaming products, residential gateways, and more. As per Alan Hsu, MediaTek’s corporate vice president and general manager of the Intelligent Connectivity Business unit: “Last year, we gave the world’s first Wi-Fi 7 technology demonstration, and we are honored to now show the significant progress we have made in building a more complete ecosystem of products. This lineup of devices, many of which are powered by the CES 2023 Innovation Award-winning Filogic 880 flagship chipset, illustrates our commitment to providing the best wireless connectivity.” To put it simply, Wi-Fi 7 uses r320MHz channel bandwidth and 4096-QAM modulation to improve overall speeds and user experience. Multi-Link Operation (MLO) also enables Wi-Fi connections to aggregate channel speeds and greatly reduce link interruption in congested environments. MediaTek’s Wi-Fi 7 solution uses a 6nm process, which reduces power consumption by 50%, a 25x reduction in CPU utilization, and 100x lower MLO switch latency. 4T5R and penta-band mesh are also included to address a larger area of coverage and higher number of linked devices. The company also demoed several devices which use its latest Filogic chips, combining Wi-Fi 7 access point technology to broadband operators, retail router channels and enterprise markets. In particular, MediaTek’s Filogic 380 chipset is designed to bring Wi-Fi 7 connectivity to all client devices, including TVs, smart devices, and computers. With that said, MediaTek’s push to innovate and integrate Wi-Fi 7 technology was met with much praise, particularly from its partners including AMD, Lenovo, ASUS, TP-Link, BUFFALO LINK, Korea Telecom, Hisense, Skyworks, Qorvo, Litepoint, and NI. MediaTek x Federated Wireless Additionally, MediaTek has also been working with Federated Wireless in successfully completing interoperability testing for Automated Frequency Coordination (AFC) on MediaTek Filogic Wi-Fi 7 and Wi-Fi 6E chips. For those unfamiliar with the term, AFC systems allow for standard power operation for indoor and outdoor unlicensed devices, including 5G CPEs, fiber gateways, and ethernet gateways, to transmit over 850 MHz of spectrum in the 6 GHz frequency band. This improves range for Wi-Fi products, as well as faster connectivity speeds and improved capacity, which comes into play alongside the arrival of Wi-Fi 7 technology. According to Alan Hsu, MediaTek’s corporate vice president of Connectivity: “Our leadership in Wi-Fi technology would not be complete without ensuring our customers have easy access to AFC solutions. We are very happy to partner with Federated Wireless and to have finished an extensive series of integration testing. Our Filogic Wi-Fi 7 and 6E chips, including the CES 2023 Innovation Award-winning Filogic 880, will soon support Standard Power operation in the 6GHz spectrum for companies producing Wi-Fi devices.”  The aforementioned AFC interoperability testing consisted of a set of positive and negative tests drawn from the Wi-Fi Alliance (WFA) AFC System certification specification.  The positive tests included verifying the proper AFC calculation and response of spectrum availability at several locations, while the negative tests included verifying proper AFC System error handling. Kurt Schaubach, chief technology officer at Federated Wireless states: “We are proud to partner with MediaTek to perform these critical interoperability tests to ensure that the commercial industry is ready for standard power device operations to begin. Federated Wireless prides itself on being a premier collaborator with our partners and customers interested in spectrum sharing solutions.” The completion of these tests will allow customers to use Federated Wireless’ AFC system on MediaTek Filogic Wi-Fi 7 and 6E chips (upon full approval by the FCC). Read the full article