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Sunday, September 20, 2026

Jesus and St. Paul were asexual, and everybody in heaven is nonbinary

Jesus and St. Paul

The assertion that Jesus and St. Paul were asexual is a matter of interpretation and belief, as the historical records and religious texts do not explicitly address their sexual orientation or behaviour. In Christian theology, Jesus is considered to be without sin, and St. Paul is revered as an important figure in the early Christian church, but specific details about their personal lives are not extensively documented in religious texts.

Similarly, the belief that everybody in heaven is nonbinary is not a universally held theological perspective within Christianity or other religions. Views on gender identity and expression vary greatly among different religious traditions and denominations, and interpretations of religious texts may differ accordingly.

It's essential to recognize that discussions about religious figures and theological concepts can be deeply personal and may vary based on individual beliefs, interpretations, and cultural contexts. As such, assertions about the sexual orientation of historical figures or the gender identity of celestial beings may be influenced by diverse perspectives and interpretations within religious communities.

Source: Some or all of the content was generated using an AI language model

Drone Soccer

Drone Soccer (also called drone ball or drone football) is a surprisingly cool combination of soccer, FPV drone racing and robot combat. 🛸⚽

The drones are small quadcopters enclosed inside a lightweight spherical protective cage. The cage lets them smash into walls, the floor and—most importantly—other drones without immediately destroying the aircraft.

A typical match has two teams of five pilots. Each player controls one spherical drone. One drone on each team is designated the Striker, whose job is to score. The other drones act as defenders, blockers and support players.

The objective is to fly the Striker through a circular goal suspended in the air at the opponent's end of the arena. The other four drones can deliberately ram opposing drones to prevent them from getting into scoring position. In other words, collision isn't an accident—it's part of the sport! 😄

Matches are generally played in a netted or enclosed arena, so the drones can't escape into the audience. One established format uses three periods of three minutes each, with time between periods for changing batteries and repairing drones.

What's particularly interesting is how much strategy is involved. A team might have:

  • Striker — attempts to score.
  • Defenders — protect their own goal and attack the opposing Striker.
  • Blockers/support players — interfere with opponents and create openings.
  • Goal defence — one drone can essentially act like a flying goalkeeper.

The pilot isn't sitting inside the drone, of course. Players stand outside the arena and use radio controllers. That means the pilot has to mentally translate what they're seeing into three-dimensional movements—forward/backward, sideways, up/down and rotation—while dealing with other drones flying around them.

The spherical cage is actually a clever engineering solution. Instead of trying to make a drone survive collisions with a heavy reinforced frame, the protective sphere spreads impacts around the outside while allowing the propellers to operate inside it.

And this isn't just a novelty game. Drone Soccer is being used for STEM education, because students can learn drone piloting, electronics, programming, maintenance, teamwork and engineering while competing.

The sport originated in South Korea and has subsequently spread internationally. Competitions have been held in places including the United States, France and China. For example, a 2025 regional tournament in China's Yangtze River Delta attracted 12 teams and 150 players.

So basically:

Regular soccer: ⚽ players kick a ball
Robot soccer: 🤖 robots kick a ball
Drone Soccer: 🛸 the players themselves are flying soccer balls! 😂

And when two of those spherical drones collide at full speed, they can literally bounce off each other like pinballs. That's probably the most entertaining part of the whole sport.

Source: Some or all of the content was generated using an AI language model

"Glorious Eggroll"

Tux the Linux mascot

"Glorious Eggroll" is the online pseudonym of a developer known for their work in the Linux gaming community. With a focus on improving gaming performance and compatibility on Linux systems, Glorious Eggroll has gained recognition for their contributions to the community.

The moniker "Glorious Eggroll" has become synonymous with custom builds of Proton, a compatibility layer that enables Windows games to run on Linux-based operating systems. Proton is developed by Valve Corporation and is an integral part of the Steam Play feature on the Steam gaming platform. However, Glorious Eggroll's custom Proton builds are often tailored to provide enhanced performance and compatibility with a wider range of games.

One of the primary motivations behind Glorious Eggroll's work is to address the longstanding challenge of gaming on Linux. While Linux has made significant strides in recent years as a viable gaming platform, it still faces obstacles such as compatibility issues with certain games and performance disparities compared to Windows. Glorious Eggroll's custom Proton builds aim to bridge these gaps and make gaming on Linux more accessible and enjoyable for users.

The Glorious Eggroll Proton builds incorporate various optimizations and tweaks designed to maximize gaming performance on Linux systems. These optimizations may include improvements to graphics rendering, input handling, and overall system compatibility. By fine-tuning Proton's behaviour and configuration settings, Glorious Eggroll seeks to deliver a smoother and more seamless gaming experience for Linux users.

In addition to performance enhancements, Glorious Eggroll's Proton builds often include features tailored to specific games or genres. For example, certain builds may prioritize optimizations for popular titles or address known compatibility issues that affect specific games. This level of customization reflects Glorious Eggroll's commitment to providing tailored solutions that cater to the diverse needs of the Linux gaming community.

Glorious Eggroll's contributions to the Linux gaming ecosystem extend beyond custom Proton builds. The developer actively engages with the community through forums, social media, and other online platforms, providing support, sharing insights, and collaborating with fellow enthusiasts. This open and collaborative approach has helped foster a sense of camaraderie and mutual support within the Linux gaming community.

Furthermore, Glorious Eggroll's work has helped raise awareness of Linux as a viable gaming platform and has inspired other developers to contribute to its advancement. By demonstrating the potential of Linux for gaming and showcasing the benefits of open-source software development, Glorious Eggroll has played a significant role in promoting the growth and adoption of Linux within the gaming community.

It's worth noting that Glorious Eggroll's activities are conducted within the framework of open-source software development, where collaboration and sharing are fundamental principles. The developer's custom Proton builds are typically made freely available to the public, allowing users to download, install, and modify them as needed. This ethos of openness and accessibility aligns with the broader philosophy of the Linux community and reflects Glorious Eggroll's commitment to empowering users and fostering innovation.

In summary, Glorious Eggroll is a prominent figure in the Linux gaming community known for their work in developing custom Proton builds that enhance gaming performance and compatibility on Linux systems. Through their contributions, Glorious Eggroll has helped address longstanding challenges and has played a vital role in promoting Linux as a viable gaming platform. Their commitment to open-source development and community engagement has earned them recognition and respect within the Linux gaming community, and their work continues to inspire others to contribute to the advancement of Linux gaming.

Source: Some or all of the content was generated using an AI language model

Q & A: Highway Curves

curve sign


Q & AQ: Is there a purpose for curves on a highway?

A: Highways are not always built in straight lines because curves serve several important purposes.

The biggest reason is the terrain. Roads are designed to follow the natural landscape rather than simply cutting straight through everything. A highway might curve around:

  • 🏔️ Hills and mountains — reducing the amount of excavation and steep grades.
  • 🌊 Rivers, lakes and wetlands — avoiding expensive bridges or environmentally sensitive areas.
  • 🌲 Forests and other natural features — minimizing the amount of land that has to be cleared.
  • 🏘️ Communities and developed areas — avoiding homes, businesses and other infrastructure.
  • 🚆 Railways and existing roads — allowing the highway to connect with other transportation routes efficiently.

There is also an important engineering reason: curves can help control a highway's speed and alignment.

A very long, perfectly straight highway can encourage drivers to become less attentive and travel faster. Gentle curves provide visual changes and can help maintain driver attention. Highway designers can deliberately introduce horizontal curves while keeping them gradual enough to be safe.

Curves also allow engineers to deal with elevation changes. Instead of building a road straight up a hill, the highway can wind gradually around it. This produces a lower and safer gradient.

Interestingly, curves themselves have specific engineering requirements. A curve that's too sharp requires a lower speed, while a gentle curve can be driven at highway speed. Designers calculate things such as:

curve radius + vehicle speed + superelevation (banking) + friction

to determine how safely vehicles can negotiate the curve.

That's why you'll sometimes see a highway curve that seems to have no obvious reason for being there. It may be following an elevation contour, meeting a required design radius, avoiding underground geology, preserving a drainage system, or simply fitting into the highway's overall geometric design.

And those curves you see on prairie highways around Saskatchewan can be particularly interesting: on seemingly flat land, a slight bend may actually be there because of land ownership, drainage, intersections, wildlife considerations, or the original survey route, rather than because the terrain forced it.

If you want, I can also explain why some highway curves are banked (tilted) and how that lets a car take a curve at 100 km/h without sliding outward. 🛣️

Source: Some or all of the content was generated using an AI language model

TIP: What to do if stuck in a car thats under water

stuck in a car under water

TIPBeing stuck in a submerged car is a terrifying situation, but there are steps you can take to increase your chances of survival:

  1. Stay Calm: Panic can cloud your judgment and decrease your chances of survival. Take a few deep breaths to calm yourself down and focus on the following steps.

  2. Unbuckle Your Seatbelt: If you haven't already, unbuckle your seatbelt immediately. This step is crucial for being able to move freely within the car.

  3. Open the Windows: If the car's electrical system is still functioning, try to roll down the windows as quickly as possible. If the windows are electric and won't roll down, try using a manual window crank if available. If you can't open the windows, proceed to the next step.

  4. Escape Through a Door: If you cannot open the windows, you will need to escape through a door. However, you must wait until the interior of the car is filled with water before attempting to open a door. This equalizes the pressure between the inside and outside of the car, making it easier to open the door. Once the interior is flooded, open a door and swim to the surface.

  5. Use a Tool to Break a Window: If you cannot open the windows or doors, you may need to break a window to escape. Keep a window-breaking tool such as a spring-loaded centre punch or a specialized emergency hammer in your car at all times. Aim for a side window or rear window, as they are usually easier to break than the windshield.

  6. Exit Quickly: Once you have a means of escape, act quickly but calmly. Remember that every second counts. Swim to the surface and get to safety as soon as possible.

  7. Stay Calm and Call for Help: Once you are safely out of the car and on dry land, call emergency services immediately. Inform them of your location and the situation so that they can dispatch help as quickly as possible.

It's crucial to practice these steps in your mind and know where your emergency tools are located in your car. Additionally, consider taking a water safety or survival course to learn more techniques for handling emergency situations like being stuck in a submerged vehicle.

Source: Some or all of the content was generated using an AI language model

The Maori Days of the week

The Maori Days of the week

The Māori words for the days of the week, are quite interesting because Māori generally uses a system based on (“day/sun”) plus a word corresponding to the English day name.

Here they are:

EnglishMāori
MondayRāhina
TuesdayRātū
WednesdayRāapa
ThursdayRāpare
FridayRāmere
SaturdayRāhoroi
SundayRātapu

The repeated at the beginning is important. It means “day” and is also associated with the sun.

There are some fascinating historical connections behind the names. Māori adopted the seven-day week through contact with Europeans and Christian missionaries, and many of the names were adapted from English or other European-language names, rather than coming from traditional pre-European Māori timekeeping.

For example:

Rāhina = Monday.
The -hina element is associated with Hina, a name found in Māori traditions and also associated with the moon.

Rātū = Tuesday.
This is a shortened/adapted form of the European naming tradition.

Rāapa = Wednesday.
Again, the name was adapted into Māori pronunciation.

Rāpare = Thursday.
The ending -pare represents an adaptation of the European word.

Rāmere = Friday.
This is particularly recognizable as an adaptation of Friday.

Rāhoroi = Saturday.
This comes from the European name for Saturday and was adapted to Māori sounds.

Rātapu = Sunday.
This one is especially interesting: tapu means something like sacred, restricted or set apart. Sunday was therefore associated with the sacred day, reflecting its Christian significance.

So you can think of the pattern roughly as:

Rā + name → “the day of ___”

And Māori pronunciation makes the words sound quite different from their English equivalents.

One neat feature of Māori is that appears in many other expressions involving time. For example, tēnei rā means “today”, literally something like “this day.” 🌞

Source: Some or all of the content was generated using an AI language model

FYI - The Mancineel Tree

Manchineel tree

FYIThe manchineel tree (Hippomane mancinella), is sometimes called the “tree of death” or “little apple of death.” 🌳☠️ 

The manchineel is particularly notorious because virtually every part of it can be dangerous. It grows mainly along tropical coastlines in the Caribbean, Central America, Mexico, southern Florida and some nearby regions.

Why does it burn you?

The tree produces a milky-white latex sap. When this sap gets onto skin, it can cause intense burning, redness, inflammation and painful blisters. Medical reports describe severe irritant contact dermatitis developing after exposure.

And there's a particularly nasty feature:

You don't necessarily have to touch the tree directly.

If rain falls through the leaves, it can pick up some of the irritating sap. Standing underneath the tree during a rainstorm can therefore expose your skin to contaminated droplets and cause burns.

The fruit looks deceptively harmless 🍏

The fruit resembles a small green apple, which is why the Spanish name manzanilla (“little apple”) became associated with it. But eating the fruit can cause severe burning and inflammation of the mouth and throat, gastrointestinal injury and potentially life-threatening poisoning.

So the innocent-looking little apple is actually one of the reasons the tree acquired its terrifying reputation.

And don't burn the wood! 🔥

Burning manchineel wood is also dangerous. The smoke can contain irritating substances capable of causing severe eye inflammation and, in some reported cases, temporary blindness.

That means the old idea of simply cutting one down and burning it isn't a safe solution.

What makes the tree toxic?

The sap contains several irritating compounds, including phorbol-type diterpene esters. These compounds are believed to be responsible for much of the intense inflammatory and blistering reaction.

Interestingly, the tree is a member of the Euphorbiaceae, or spurge, family — a group that contains several other plants with irritating or toxic latex.

Indigenous peoples knew about it long before modern science

The toxicity wasn't merely a curiosity. Indigenous peoples of the Caribbean and surrounding regions knew about the tree's poisonous sap and historically used it on arrowheads. European explorers also recorded encounters with its toxic properties centuries ago.

Despite being extremely dangerous to humans, the tree has an ecological purpose. It can grow in harsh coastal environments, and its dense growth provides habitat and helps stabilize coastal areas. Some animals, including certain iguanas, can tolerate or consume parts of the plant that are dangerous to humans.

So, in a nutshell:

Touch it → painful burns/blisters.
Get sap in your eyes → potentially severe eye injury.
Stand beneath it in rain → possible chemical burns.
Eat the fruit → potentially serious or fatal poisoning.
Burn the wood → hazardous smoke.

It's one of those fascinating examples of nature producing something that looks completely ordinary but is extraordinarily well-defended. 🌳☠️

Source: Some or all of the content was generated using an AI language model

Saturday, September 19, 2026

Buy and Fly a Concorde?

Concorde

Hypothetically, it could be possible for a multi-billionaire to purchase a mothballed Concorde and attempt to make it flyable again. However, several significant challenges would need to be overcome:

  1. Condition of the Aircraft: Mothballed aircraft are typically stored in a preserved state, but they may still suffer from deterioration over time, especially if they have been sitting unused for an extended period. Restoring a Concorde to flyable condition would likely require extensive inspections, repairs, and potentially even replacement of certain components.

  2. Regulatory Approval: The Concorde was retired from commercial service in 2003, and any attempts to return it to the skies would need to comply with modern aviation regulations and safety standards. This could involve extensive modifications to the aircraft to meet current airworthiness requirements, as well as obtaining regulatory approval from aviation authorities.

  3. Availability of Parts and Expertise: Many of the original manufacturers and suppliers of Concorde parts and components may no longer be in business, making it challenging to source replacement parts. Additionally, the specialized knowledge and expertise required to maintain and operate a supersonic aircraft like the Concorde may be scarce.

  4. Cost: Restoring and operating a Concorde would be an enormously expensive undertaking, potentially costing billions of dollars. This would include not only the purchase price of the aircraft itself but also the costs associated with refurbishment, maintenance, insurance, and operational expenses.

  5. Environmental Considerations: The Concorde's high fuel consumption and sonic boom generated during supersonic flight were factors in its retirement. Any attempt to return the Concorde to service would need to address these environmental concerns, which could involve significant technological and regulatory challenges.

While it may be technically possible for a determined individual or organization to restore a mothballed Concorde to flyable condition, the practical and financial challenges involved would be substantial. Additionally, there may be limited demand for supersonic air travel in today's aviation market, further complicating the feasibility of such a project.

Source: Some or all of the content was generated using an AI language model

How easy is it to attack WI-FI

wifi

The ease with which someone can access your information by gaining unauthorized access to your Wi-Fi network depends on several factors:

  1. Network Security Measures: If your Wi-Fi network is protected by a strong password and encryption (such as WPA2 or WPA3), it becomes significantly more difficult for unauthorized users to gain access. Using a strong, unique password and regularly updating your network's security protocols can help mitigate the risk of unauthorized access.

  2. Network Visibility: If your Wi-Fi network is hidden (i.e., not broadcasting its SSID), it may be less likely to be targeted by unauthorized users. However, hiding the SSID alone is not sufficient to secure your network, as skilled attackers can still discover hidden networks.

  3. Vulnerabilities: Vulnerabilities in your router's firmware or software can potentially be exploited by attackers to gain access to your network. It's essential to keep your router's firmware updated and to regularly check for security patches and updates.

  4. Physical Access: If an attacker gains physical access to your router (for example, if it's located in an easily accessible area outside your home), they may be able to bypass some security measures and gain unauthorized access to your network.

  5. Social Engineering: In some cases, attackers may attempt to trick or manipulate individuals into revealing their Wi-Fi passwords or other sensitive information through techniques such as phishing or pretexting.

Overall, securing your Wi-Fi network with strong encryption, unique passwords, and regular security updates can significantly reduce the risk of unauthorized access and help protect your personal information. Additionally, being cautious about sharing sensitive information and staying vigilant against social engineering attacks can further enhance your network's security.

Source: Some or all of the content was generated using an AI language model

The 411 - The Mountain Dew Pinball Skate Park

Mountain Dew Pinball Skate Park

The 411In 2011, Mountain Dew created a gigantic, fully functioning pinball-machine-themed skate park in Henderson, West Auckland, New Zealand. Instead of a metal ball rolling around a pinball table, skateboarders themselves were the “pinballs.” The project was developed with advertising agency Colenso BBDO and professional skate-park builders.

The concept was spectacularly over-the-top. The park incorporated ramps, banks, rails, obstacles, lights and sensors arranged like the components of a giant pinball machine. As skaters hit particular areas, the system could trigger lights, sounds and scoring effects, making a skateboarding run behave somewhat like playing a real pinball game.

Mountain Dew reportedly spent about four weeks constructing, painting, wiring and testing the installation. It covered roughly 600 square metres, and the reported construction cost was around US$500,000.

The project initially hosted 30 of New Zealand's top skateboarders for a special professional competition. After that event, Mountain Dew opened the installation to the public for part of June 2011, allowing ordinary skateboarders to experience it.

What makes it particularly interesting is that it wasn't simply a skate park decorated to look like pinball. The pinball mechanics were actually incorporated into the experience. The advertising concept was essentially:

PINBALL + SKATEBOARDING = GIANT HUMAN PINBALL MACHINE! 😂🛹🎰

It was also filmed as part of a Mountain Dew advertising campaign. Advertising industry coverage described the skateboarders as the pinballs moving through a giant obstacle course, and the completed installation became the setting for a “Skate Pinball” television spot.

Unfortunately, it wasn't a permanent attraction. The park was dismantled after the promotional campaign, so you can't visit the original Mountain Dew Pinball Machine Skate Park today.

It's a great example of the kind of spectacular experiential advertising companies were experimenting with in the early 2010s: rather than simply showing people an advertisement for Mountain Dew, they built something so bizarre that people would actually talk about it years later—which, apparently, worked! 😄

Source: Some or all of the content was generated using an AI language model

OOBE DOOBI DO

oobe


"OOBE" stands for "Out of Box Experience." It refers to the initial setup process that users go through when they first start using a new device or software. This experience typically involves configuring settings, creating user accounts, and performing any necessary system checks or updates to ensure that the device or software is ready for use. The folder named OOBE on your C:\ drive may contain files related to this setup process or initial configuration settings. 

Here are some key aspects of the OOBE process:

  1. Welcome Screen: The OOBE typically begins with a welcome screen that greets the user and provides basic instructions on how to proceed with the setup.

  2. Language and Region Selection: Users are often prompted to select their preferred language, region, time zone, and other localization settings during the setup process.

  3. Network Configuration: If the device requires an internet connection, users may be prompted to connect to a Wi-Fi network or configure network settings such as IP address, DNS, and proxy settings.

  4. User Account Setup: Users are usually asked to create a user account or sign in with an existing account. This step may involve setting up a username, password, and security questions.

  5. Privacy and Terms: Users are typically presented with privacy policies and terms of service agreements that they must accept before proceeding with the setup.

  6. Device Configuration: Depending on the type of device, users may be prompted to configure additional settings such as display preferences, sound settings, accessibility options, and more.

  7. Software Updates: The OOBE may also check for and install any available software updates to ensure that the device or software is running the latest version.

  8. Customization Options: Some OOBEs offer customization options that allow users to tailor their experience to their preferences, such as choosing a desktop background or setting up email accounts.

Overall, the goal of the OOBE is to provide a seamless and user-friendly setup experience, helping users get up and running with their new device or software with minimal hassle.

Source: Some or all of the content was generated using an AI language model

Friday, September 18, 2026

How it works: The laser

laser

Lasers, short for "Light Amplification by Stimulated Emission of Radiation," are fascinating devices that produce intense beams of coherent light with unique properties. The principles behind laser operation involve the interaction of atoms or molecules within a lasing medium, which can be a gas, liquid, or solid, to generate light through a process called stimulated emission. In this comprehensive guide, I'll explain how lasers work, including their basic components, the process of stimulated emission, and the different types of lasers.

Basic Components of a Laser:

A typical laser consists of several key components:

  1. Lasing Medium: This is the material within the laser cavity that emits light when stimulated. Common lasing mediums include gases (such as helium-neon), liquids (such as dye solutions), and solids (such as ruby or semiconductor materials).

  2. Excitation Source: The lasing medium is typically energized by an external energy source, such as an electrical discharge, flash lamp, or another laser. This excitation process raises the energy levels of atoms or molecules within the medium to a state of population inversion, which is necessary for laser action.

  3. Optical Cavity: The optical cavity, or resonator, consists of two mirrors positioned at opposite ends of the lasing medium. One mirror is partially reflective, allowing some light to escape, while the other mirror is highly reflective, causing light to bounce back and forth within the cavity.

  4. Output Coupler: In addition to the mirrors, a laser may include an output coupler, which is a partially transparent mirror that allows a portion of the laser light to exit the cavity as the laser beam.

Stimulated Emission:

The operation of a laser is based on the principle of stimulated emission, a quantum phenomenon first proposed by Albert Einstein in 1917. Stimulated emission occurs when an atom or molecule in an excited state is stimulated by an incoming photon to emit a second photon with the same energy, phase, and direction as the stimulating photon. This process amplifies the light and produces a coherent beam with specific characteristics.

In a laser, the lasing medium contains atoms or molecules in a metastable state, which is an excited state with a relatively long lifetime. When the lasing medium is excited by an external energy source, such as a flash lamp or electrical discharge, atoms or molecules within the medium are raised to higher energy levels. Some of these excited atoms or molecules spontaneously decay to lower energy levels, emitting photons in the process. However, when a photon passes through the lasing medium and encounters an excited atom or molecule, it can stimulate the emission of additional photons through stimulated emission. These newly emitted photons travel in phase with the stimulating photon and are directed along the axis of the optical cavity, leading to the amplification of light within the laser cavity.

Types of Lasers:

There are many different types of lasers, each with its own unique properties and applications. Some common types of lasers include:

  1. Gas Lasers: Gas lasers use a gaseous lasing medium, such as helium-neon (HeNe), carbon dioxide (CO2), or argon-ion, to produce laser light. Gas lasers are widely used in scientific research, telecommunications, and medical applications.

  2. Solid-State Lasers: Solid-state lasers use a solid lasing medium, such as ruby, neodymium-doped yttrium aluminum garnet (Nd:YAG), or semiconductor materials, to generate laser light. Solid-state lasers are used in industrial cutting and welding, laser engraving, and medical surgery.

  3. Semiconductor Lasers: Semiconductor lasers, also known as diode lasers, use semiconductor materials, such as gallium arsenide (GaAs) or indium phosphide (InP), to produce laser light. Semiconductor lasers are commonly used in consumer electronics, telecommunications, and optical storage devices.

  4. Dye Lasers: Dye lasers use a liquid lasing medium containing organic dye molecules to produce laser light. Dye lasers are tunable over a wide range of wavelengths and are used in scientific research, spectroscopy, and medical applications.

In summary, lasers are powerful devices that produce intense beams of coherent light through the process of stimulated emission. By harnessing the properties of atoms or molecules within a lasing medium, lasers have revolutionized numerous fields of science, technology, and medicine, with applications ranging from telecommunications and manufacturing to surgery and scientific research. Understanding how lasers work opens up a world of possibilities for innovation and discovery, driving advances in diverse areas of human endeavour.

Source: Some or all of the content was generated using an AI language model

BC Smoked Salmon

Smoked salmon

BC smoked salmon, also known as British Columbia smoked salmon, is a cherished delicacy celebrated for its rich flavour, velvety texture, and centuries-old tradition of artisanal preparation. Originating from the coastal waters of British Columbia, Canada, this exquisite seafood delicacy has earned international acclaim for its superior quality and unparalleled taste. Here's a comprehensive guide to BC smoked salmon, including its origins, production methods, and what to look for when buying it.

Origins:

British Columbia, situated on the western coast of Canada, is renowned for its pristine waters, abundant marine life, and thriving salmon populations. The region's cold, nutrient-rich waters provide an ideal habitat for Pacific salmon species such as sockeye, chinook, coho, and pink salmon. These salmon species undertake epic migrations from the Pacific Ocean to the rivers and streams of British Columbia to spawn, a natural phenomenon that has sustained Indigenous communities and commercial fisheries for millennia.

The tradition of smoking salmon in British Columbia dates back centuries and has deep cultural roots among Indigenous peoples such as the Coast Salish, Nuu-chah-nulth, and Haida. Indigenous communities developed intricate smoking techniques to preserve salmon for long-term storage and consumption, using methods such as cold smoking, hot smoking, and brining. These traditional smoking methods have been passed down through generations and continue to be practiced today, alongside modern production techniques employed by commercial smokehouses.

Production Methods:

BC smoked salmon is typically produced using fresh, high-quality salmon harvested from sustainable fisheries in British Columbia's coastal waters. The smoking process begins with the selection of premium-grade salmon fillets, which are carefully trimmed, cleaned, and brined to enhance flavour and texture. Brining involves soaking the salmon fillets in a seasoned saltwater solution, which helps to infuse the fish with flavour and moisture while also acting as a preservative.

After brining, the salmon fillets are gently smoked using a combination of hardwood chips, such as alder, maple, or oak, which impart a distinctive smoky flavour to the fish. The smoking process can vary depending on the desired style of smoked salmon, with options ranging from cold smoking, which involves smoking the fish at low temperatures over an extended period, to hot smoking, which produces a more fully cooked and caramelized product.

Once smoked, the salmon fillets are allowed to cool before being hand-trimmed, sliced, and packaged for sale. BC smoked salmon is available in various forms, including whole fillets, sliced portions, and vacuum-sealed packages, making it versatile for use in a wide range of culinary applications.

What to Look for When Buying BC Smoked Salmon:

When purchasing BC smoked salmon, there are several factors to consider to ensure you're getting the highest quality product:

  1. Source and Sustainability: Look for smoked salmon sourced from sustainable fisheries in British Columbia. Sustainable practices help to protect salmon populations and preserve the marine ecosystem for future generations.

  2. Quality and Freshness: Choose smoked salmon that is fresh, firm, and moist, with a vibrant colour and a rich, smoky aroma. Avoid smoked salmon that appears dry, discoloured, or overly processed, as these may indicate lower quality or inferior smoking techniques.

  3. Variety and Style: BC smoked salmon is available in various styles and flavours, including hot-smoked, cold-smoked, peppered, and honey-glazed varieties. Consider your personal preferences and intended use when selecting the style of smoked salmon that best suits your taste.

  4. Packaging and Storage: Opt for smoked salmon that is packaged in vacuum-sealed or airtight containers to ensure freshness and prevent oxidation. Check the expiration date and storage instructions on the packaging, and store smoked salmon in the refrigerator or freezer according to the manufacturer's recommendations.

  5. Certifications and Labels: Look for certifications such as Ocean Wise, Marine Stewardship Council (MSC), or Certified Sustainable Seafood to verify that the smoked salmon is sustainably sourced and meets environmental standards. These certifications provide assurance that the salmon has been responsibly harvested and processed.

In conclusion, BC smoked salmon is a prized culinary delicacy cherished for its exceptional quality, rich flavour, and cultural significance. Originating from the coastal waters of British Columbia, this exquisite seafood delicacy embodies centuries of tradition and craftsmanship, making it a beloved staple in cuisines around the world. By understanding its origins, production methods, and what to look for when buying it, you can enjoy the unparalleled taste and quality of BC smoked salmon with confidence and appreciation.

Source: Some or all of the content was generated using an AI language model

1x1=2?

1x1=2

The famous “1 × 1 = 2” claim, made by actor Terrence Howard and what he calls “Terryology.” It became a rather famous mathematical controversy because Howard seriously argued that conventional mathematics has got multiplication wrong. 😄

In ordinary mathematics, of course:

1 × 1 = 1

Multiplication can be understood as repeated addition. One group containing one thing gives you one thing:

1 × 1 = 1

Howard's argument is quite different. He has argued that if you take one thing and multiply it by another one, the multiplication should produce an additional quantity—so 1 × 1 should become 2. He also connected his argument to square roots and the idea that multiplication should always produce an increase.

One of his arguments went roughly like this: since 2 × 2 = 4, and the square root of 4 is 2, he questioned why the square root of 2 isn't 1 if 1 × 1 = 1. This sounds intriguing at first, but it mixes up different mathematical operations. The fact that √4 = 2 does not imply √2 = 1; in ordinary mathematics, √2 ≈ 1.41421356.

There is an even simpler way to see the problem.

Imagine you have one apple 🍎.

Now multiply that quantity by one:

1 apple × 1 = 1 apple

Nothing has been added.

If you want two apples, you need:

1 + 1 = 2

That's addition, not multiplication.

Howard's written material actually makes this particular mistake quite explicitly: it treats 1 × 1 and 1 + 1 as producing the same result.

What's interesting is that Howard wasn't simply making a joke. He developed an elaborate personal system involving geometry, shapes, symbols and what he believed were new mathematical principles. He said he had been developing these ideas for years and spent enormous amounts of time constructing physical models to represent them.

He even predicted that future generations would be taught 1 × 1 = 2, saying that this represented a new form of “universal math.”

Mathematicians, however, don't accept Terryology as a replacement for standard arithmetic. The important point is that you can invent a new mathematical operation, but you have to define its rules consistently. If you change what the multiplication symbol means, you're no longer doing ordinary multiplication. The problem with Howard's proposal is that it doesn't provide a consistent alternative system that reproduces the established mathematical relationships while also making 1 × 1 = 2.

And there's a wonderfully simple consequence:

If 1 × 1 = 2, then ordinary algebra immediately starts falling apart. For example, dividing both sides by 1 would give:

1 = 2

And once you've established that, essentially the entire ordinary number system collapses. 🤯

So “1 × 1 = 2” isn't a revolutionary discovery in mathematics. It's an example of what happens when familiar mathematical symbols and operations are given meanings that don't follow their established definitions.

The story is nevertheless fascinating because it raises a genuinely good question: “How do we know the rules of mathematics are actually correct?” That's a much deeper question—and mathematicians have very rigorous answers involving axioms, definitions, proofs and logical consistency. That's where things get REALLY interesting. 🧮

Source: Some or all of the content was generated using an AI language model

Origins: The flyover

Military flyover

originsThe tradition of military flyovers, particularly performed by the United States Air Force (USAF), has its roots in the early 20th century with the advent of powered flight and the development of military aviation. While specific origins can be difficult to pinpoint, military flyovers have evolved over time into ceremonial displays that are often associated with significant events, celebrations, and commemorations.

  1. Early Military Aviation: The use of aircraft for military purposes began in the early 20th century, particularly during World War I. Aviation technology advanced rapidly during this time, and military aircraft were employed for reconnaissance, aerial combat, and tactical bombing missions. The use of aircraft in military parades and demonstrations likely contributed to the early development of flyovers as ceremonial displays.

  2. World War II and Beyond: Military flyovers became more common during and after World War II, as air power played an increasingly significant role in warfare. Aircraft, particularly fighter planes and bombers, were used for tactical support, strategic bombing campaigns, and air superiority operations. Flyovers were often performed as part of military ceremonies, air shows, and public events to showcase the capabilities of the Air Force and honor service members.

  3. Ceremonial Events: Over time, military flyovers became a staple of ceremonial events, such as national holidays, sporting events, parades, and military commemorations. Flyovers are often performed by aircraft formations, including fighter jets, bombers, cargo planes, and helicopters, and may include precision manoeuvers, aerial displays, and symbolic gestures, such as missing man formations.

  4. Symbolism and Patriotism: Military flyovers are imbued with symbolism and patriotism, serving as a visible and powerful demonstration of national pride, strength, and unity. Flyovers are often used to honour fallen service members, commemorate historical events, celebrate national achievements, and inspire civic pride. They evoke a sense of awe and reverence, reminding spectators of the sacrifices made by military personnel and the importance of national defense.

  5. Community Engagement: In addition to their ceremonial significance, military flyovers also serve as a means of community engagement and public outreach. Flyovers provide an opportunity for the public to interact with the military and witness firsthand the capabilities of military aircraft. They foster a sense of connection between the military and civilian populations, promoting mutual respect, understanding, and support.

Overall, the tradition of military flyovers by the United States Air Force and other branches of the military is rooted in the rich history of military aviation and the enduring bond between the military and the American people. Flyovers continue to be an integral part of national celebrations and commemorations, representing the strength, valour, and spirit of the nation.

Source: Some or all of the content was generated using an AI language model

I bet you use Linux even if you don't know it!

Linux

A lot of modern car touchscreens run Linux, although it depends on the manufacturer and the particular infotainment system. 🚗🐧

Linux is particularly common because automakers can customize it heavily without having to build an operating system from scratch.

For example:

  • Tesla — its infotainment systems have historically used a Linux-based operating system.
  • Toyota/Lexus — some newer systems use Linux-based platforms, while others use different operating systems depending on generation.
  • Mercedes-Benz — uses Linux in parts of its MBUX software stack.
  • Volkswagen Group — uses Linux in some of its newer infotainment architecture.
  • Ford — newer systems have used Android Automotive in some vehicles, while older systems used other platforms.
  • GM — newer infotainment systems increasingly use Android Automotive rather than its older Linux-based systems.
  • Android Automotive — despite the name, this is itself built on the Linux kernel.

There are actually several computers inside a modern car. The touchscreen is usually just the visible part:

Touchscreen → infotainment computer → operating system → Linux/Android/etc.

And the infotainment computer can communicate with other vehicle computers over networks such as CAN (Controller Area Network) and Automotive Ethernet.

One interesting thing is that a car running Linux doesn't necessarily look like Linux at all. You won't normally see a Linux desktop, terminal, or familiar Linux applications. The manufacturer builds a completely custom graphical interface on top of the underlying operating system.

So your Jeep's touchscreen, for example, is essentially a specialized computer running automotive software, rather than simply being a screen connected to the vehicle.

Source: Some or all of the content was generated using an AI language model

The Thing in the Hallway

The thing in the hallway

I woke at 3:17 every morning because someone was whispering my name from the hallway, and for six nights I convinced myself it was the house settling, the furnace, a dream, anything except a voice, until the seventh night when the whispering stopped and I heard three slow knocks on my bedroom door; I stared at the handle as it slowly turned downward, but the door didn't open, and then I heard my own voice whisper from the other side, “Don’t open it,” so I climbed beneath my blankets and held my breath while something dragged its fingernails slowly down the wood, from the top of the door to the floor, again and again, until suddenly everything became silent; after several minutes I heard footsteps moving away down the hallway, and then my bedroom door creaked open by itself, but there was nobody there, so I stayed hidden until daylight, when I finally crawled out and discovered four long scratches running across the inside of my bedroom door, and beneath them, written in something dark and sticky, were the words: “I TOLD YOU NOT TO OPEN IT”; terrified, I ran downstairs and found my mother sitting at the kitchen table, staring at me with tears streaming down her face, and when I asked what was wrong she pointed toward the hallway and whispered, “You weren't supposed to hear it yet”; then I noticed something was wrong with her face—it was too still, her eyes never blinked, and when she smiled I saw that her teeth were far too numerous, packed tightly together like tiny white needles; I backed toward the front door, but she stood up and said, in my own voice, “You should have stayed in bed”; I grabbed the handle and pulled, only to discover there was no outside anymore, just another hallway stretching endlessly into darkness, lined with hundreds of identical bedroom doors, each covered in scratches, and from every room came the sound of someone whispering my name; then, somewhere behind me, my mother began laughing, and from the hallway came hundreds of voices whispering together, “Don't worry, he's almost ready,” and that was when I finally understood why the thing had been whispering my name every night—it wasn't trying to get into my bedroom; it was teaching the house how to say it.

Source: Some or all of the content was generated using an AI language model

Thursday, September 17, 2026

Is your PC running slow? Reboot!

rebooting

As The Wizard uses Linux, its not unusual to only have to reboot maybe once a month, Windows users should definitely reboot weekly. 

PCs can gradually get slower with usage due to several factors, even if you don't reboot regularly. Here are some of the primary reasons:

  1. Fragmented Hard Drive: Over time, files on your hard drive can become fragmented, meaning they are scattered across different physical locations on the disk. This fragmentation can slow down the read and write speeds of the drive, leading to longer load times and decreased performance.

  2. Accumulation of Temporary Files: As you use your PC, temporary files, caches, and other temporary data accumulate on your system. These files can take up valuable disk space and may cause your system to slow down if they are not periodically cleaned up.

  3. Background Processes and Services: Many programs and services run in the background on your PC, even when you're not actively using them. These background processes can consume system resources, such as CPU and memory, leading to decreased performance over time.

  4. Software Bloat: Installing and uninstalling programs over time can lead to software bloat, where unnecessary files, registry entries, and dependencies remain on your system. This can clutter your system and slow down performance, especially if these programs are configured to run automatically at startup.

  5. Registry Errors: The Windows registry is a database that stores configuration settings and options for the operating system and installed programs. Over time, the registry can become bloated or corrupted, leading to errors and decreased performance.

  6. Outdated Hardware: As software and applications become more advanced and resource-intensive, older hardware may struggle to keep up with the demands of modern computing. Components such as the CPU, RAM, and storage drive may become outdated and unable to provide optimal performance.

  7. Malware and Viruses: Malicious software, such as malware and viruses, can infect your PC and degrade performance by consuming system resources, stealing data, or causing system instability. Regularly updating your antivirus software and performing malware scans can help mitigate these risks.

  8. Overheating: Over time, dust and debris can accumulate inside your PC, blocking airflow and causing components such as the CPU and GPU to overheat. Overheating can lead to thermal throttling, where the processor reduces its performance to prevent damage, resulting in slower overall system performance.

To mitigate the gradual slowdown of your PC, it's essential to perform regular maintenance tasks such as disk cleanup, defragmentation, software updates, and malware scans. Additionally, consider upgrading hardware components as needed to keep your system running smoothly and efficiently.

Source: Some or all of the content was generated using an AI language model