Less than a month out from Magic: The Gathering’s Spider-Man set, Wizards of the Coast has given it a full unveiling with reveals of more cards and gameplay mechanics for its crossover with Marvel’s webhead and friends.
Wizards previously revealed a selection of cards at San Diego Comic-Con back in July. Like those, this new selection sports some amazing art from the company’s internal artists and creatives who’ve previously drawn Spider-Man over the character’s decades-long history, which is on full display here, referencing classic events like the Clone Saga and Kraven’s Last Hunt to more recent turns like Venom becoming the King in Black and Peter and Miles as a dynamic duo in Insomniac’s game trilogy.
Gameplay-wise, the Web-slinging ability works as an alternative cost to spellcasting, and lets players play the listed cost instead of mana, and return a tapped creature they control back to their hand. (Can’t web-sling if you don’t have a creature to control!) Villain cards have a similar version of this with Mayhem, which lets players cast a card from their graveyard for an alternative cost if it was discarded that turn, and it doesn’t change when spellcasting.
Additionally, Spider-Man sets will include one of three different Soul Stone cards with its mana ability instantly available. The next ability lets players harness the Stone to trigger its Infinity ability at the start of their upkeeps. The other Infinity Stones aren’t mentioned in Wizards’ writeup, so they may appear in later crossover sets it’s doing with Marvel. But first, we’ve got the Spider-Man set, which is due to hit shelves on September 26.
Want more io9 news? Check out when to expect the latest Marvel, Star Wars, and Star Trek releases, what’s next for the DC Universe on film and TV, and everything you need to know about the future of Doctor Who.
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#Magic #Weaves #Mechanics #Cards #SpiderMan #Set
Samsung’s press release didn’t mention which titles will have support initially, or how many there are, other than including a press image showing off Amazon’s series Ride or Die. The news also comes just after Disney Plus in Europe briefly lost Dolby Vision support due to a patent dispute.
It has similar features to Dolby Vision 2, but without Samsung paying Dolby’s fee for the stamp, and also promises to add “Intelligent Motion Smoothing” that can adjust scene by scene. Hisense, Philips, and TCL have said their new TVs will support Dolby Vision 2, while Peacock and Canal+ are on board for content, but it’s not available for use yet and will likely require a software update for supported TVs when it does start to roll out.
Both formats are promising to make use of motion smoothing when it can benefit the viewing experience on fast-moving action like sports, while also backing off from adding the unsettling “soap opera” effect to film and TV content, but we’ll have to see it in action to know how well it works. The HDR10Plus Advanced FAQ explains more about how its metadata tags can cover both genres (Movie, Sports, Animation, News, or General) and specific details like lighting, motion, or perspective to inform how your TV processes what’s going on.
Samsung’s press release didn’t mention which titles will have support initially, or how many there are, other than including a press image showing off Amazon’s series Ride or Die. The news also comes just after Disney Plus in Europe briefly lost Dolby Vision support due to a patent dispute.
It has similar features to Dolby Vision 2, but without Samsung paying Dolby’s fee for the stamp, and also promises to add “Intelligent Motion Smoothing” that can adjust scene by scene. Hisense, Philips, and TCL have said their new TVs will support Dolby Vision 2, while Peacock and Canal+ are on board for content, but it’s not available for use yet and will likely require a software update for supported TVs when it does start to roll out.
Both formats are promising to make use of motion smoothing when it can benefit the viewing experience on fast-moving action like sports, while also backing off from adding the unsettling “soap opera” effect to film and TV content, but we’ll have to see it in action to know how well it works. The HDR10Plus Advanced FAQ explains more about how its metadata tags can cover both genres (Movie, Sports, Animation, News, or General) and specific details like lighting, motion, or perspective to inform how your TV processes what’s going on.
#Samsungs #HDR10 #Advanced #launching #month #Prime #VideoGadgets,News,Samsung,Streaming,Tech,TVs">Samsung’s HDR10 Plus Advanced is launching this month on Prime Video
After previewing HDR10 Plus Advanced late last year, Samsung’s not-Dolby Vision 2 spec will launch globally on Amazon’s Prime Video this month. The first TVs announced with support are Samsung’s 2026 lineup, which will be able to make use of the extra metadata to deliver more precise HDR that is optimized for what you’re watching, and tone mapping that can adjust for specific areas of the screen instead of applying one setting to the whole frame.
Samsung’s press release didn’t mention which titles will have support initially, or how many there are, other than including a press image showing off Amazon’s series Ride or Die. The news also comes just after Disney Plus in Europe briefly lost Dolby Vision support due to a patent dispute.
It has similar features to Dolby Vision 2, but without Samsung paying Dolby’s fee for the stamp, and also promises to add “Intelligent Motion Smoothing” that can adjust scene by scene. Hisense, Philips, and TCL have said their new TVs will support Dolby Vision 2, while Peacock and Canal+ are on board for content, but it’s not available for use yet and will likely require a software update for supported TVs when it does start to roll out.
Both formats are promising to make use of motion smoothing when it can benefit the viewing experience on fast-moving action like sports, while also backing off from adding the unsettling “soap opera” effect to film and TV content, but we’ll have to see it in action to know how well it works. The HDR10Plus Advanced FAQ explains more about how its metadata tags can cover both genres (Movie, Sports, Animation, News, or General) and specific details like lighting, motion, or perspective to inform how your TV processes what’s going on.
Those cables are tricky to access and repair, much less install. But alternatives aren’t easy to find: Radio transmissions don’t have the bandwidth, which rules out most wireless approaches on the ground or in orbit. But now, maybe lasers could do the job.
Endeavor Optical Networks, a start-up founded in May and emerging from stealth today with $10.75 million in seed funding from General Catalyst and Andreessen Horowitz, is betting on that plan. The co-founders, CEO Charlie Horowitz and CTO Tyler Presser, aim to launch a network of laser-equipped spacecraft to link data centers from orbit.
Most satellite communications networks, even those that provide broadband internet service, aren’t robust enough to carry data at 200 terabits a second or more, the speed of undersea fiber.
However, more powerful satellites and advances in optical technology are making space-to-ground communications with lasers more feasible. NASA used laser comms to beam back data from its most recent Moon mission, while a handful of private space companies, including York, Kepler, and Cailabs, have demonstrated links between Earth orbit and the ground.
Those connections, however, aimed for a throughput of 2.5 Gbps, and EON has a bigger starting goal, Horowitz says: Throughput of 2.4 terabits a second. That will require some secret sauce to deal with one of the biggest problems with laser comms—how the signal is distorted by the atmosphere as it passes through it, particularly when clouds are blocking the way.
EON intends to build a network of about 20 satellites, each able to provide a dedicated link between two continents, with the initial fleet providing 24 hour coverage for early customers. The company will carefully choose ground stations in different regions to serve local data centers and CDNs, using redundant sites and leveraging weather data to ensure a reliable link.
The startup is talking to hyperscalers and AI labs as customers, since they move more data than anyone else, with the focus on underserved or expensive routes: Lengthy ones, like France to Australia, or those without extensive existing infrastructure, like crossing between Africa and South America. They plan to sell dedicated capacity to entice customers interested in full control of their data transit.
First, though, EON will use its seed round to build out an optics lab, hire more engineers, and perform ground tests ahead of a demo satellite they hope to launch around the end of 2027. Horowitz expects that spacecraft to offer the highest optical downlink throughput yet seen—at least 800 gigs and perhaps a terabit.
Doing that will require careful engineering. EON will focus on producing the optical communications terminal, carefully allocating spending to the components that must be exquisite, like the gimbals that will point the laser. The company plans to buy powerful off-the-shelf satellite busses, like those made by Apex Space, Horowitz’s previous employer.
Horowitz served as Apex CEO Ian Cinnamon’s chief of staff and then as the company’s director of special projects. “Charlie is a force of nature—he can move seamlessly from strategy to the details required to make something real,” Cinnamon told TechCrunch. “Charlie is the ideal founder, and I invested personally because I believe deeply in Charlie and what he’s building at EON with Tyler.”
In addition to Pressler, a PhD astronautical engineer who has planned frontier missions for NASA, the company’s technical bench includes Michael David Francois, a long-time Google executive focused on global network infrastructure, and Wesley Baxter, an optics engineer who most recently worked on Amazon’s LEO satellite network.
Jeannette zu Fürstenburg, the General Catalyst partner who led the investment, said she sees it uniting the fund’s two key themes—AI and resilience.
“I don’t worry about demand,” she told TechCrunch. “I think all of that will solve for itself. It’s really all about can you actually get this thing into space in the time that we discussed? We really think about founder-product fit, [Horowitz] is just the right caliber of guy to go after a problem like this.”
They aren’t the only one chasing this problem—Blue Origin, Jeff Bezos’ space company, has announced plans for TeraWave, a 5,048 satellite network that aims to provide speeds of up to 6 Tbps to large-scale users. Blue’s plan is more ambitious, but will also require more time to launch and deploy. EON’s smaller fleet of satellites should be easier to get into space quickly, but they will need to solve many of the same technical challenges.
“Data centers have high standards for quality and redundancy,” points out Caleb Henry, the director of research at Quilty Space. “Satellite internet is just now progressing from a technology of last resort to dependable, high-bandwidth infrastructure. That’s not to say it will be impossible to make satellites optimized for data center connectivity, just that it will be harder and take longer than most entrepreneurs suggest.”
Still, a project like may be more practical compared to the popular idea of building the data centers themselves in space.
“We have one rule at the company: no physics problems,” Horowitz says. “There’s a market that exists today that we can go serve. Down the road, we’ll go and take on more as it comes, but we know that this is a problem that exists today, that’s only getting worse. That’s our bet—more data is moving terrestrially than ever.”
When you purchase through links in our articles, we may earn a small commission. This doesn’t affect our editorial independence.
Those cables are tricky to access and repair, much less install. But alternatives aren’t easy to find: Radio transmissions don’t have the bandwidth, which rules out most wireless approaches on the ground or in orbit. But now, maybe lasers could do the job.
Endeavor Optical Networks, a start-up founded in May and emerging from stealth today with $10.75 million in seed funding from General Catalyst and Andreessen Horowitz, is betting on that plan. The co-founders, CEO Charlie Horowitz and CTO Tyler Presser, aim to launch a network of laser-equipped spacecraft to link data centers from orbit.
Most satellite communications networks, even those that provide broadband internet service, aren’t robust enough to carry data at 200 terabits a second or more, the speed of undersea fiber.
However, more powerful satellites and advances in optical technology are making space-to-ground communications with lasers more feasible. NASA used laser comms to beam back data from its most recent Moon mission, while a handful of private space companies, including York, Kepler, and Cailabs, have demonstrated links between Earth orbit and the ground.
Those connections, however, aimed for a throughput of 2.5 Gbps, and EON has a bigger starting goal, Horowitz says: Throughput of 2.4 terabits a second. That will require some secret sauce to deal with one of the biggest problems with laser comms—how the signal is distorted by the atmosphere as it passes through it, particularly when clouds are blocking the way.
EON intends to build a network of about 20 satellites, each able to provide a dedicated link between two continents, with the initial fleet providing 24 hour coverage for early customers. The company will carefully choose ground stations in different regions to serve local data centers and CDNs, using redundant sites and leveraging weather data to ensure a reliable link.
The startup is talking to hyperscalers and AI labs as customers, since they move more data than anyone else, with the focus on underserved or expensive routes: Lengthy ones, like France to Australia, or those without extensive existing infrastructure, like crossing between Africa and South America. They plan to sell dedicated capacity to entice customers interested in full control of their data transit.
First, though, EON will use its seed round to build out an optics lab, hire more engineers, and perform ground tests ahead of a demo satellite they hope to launch around the end of 2027. Horowitz expects that spacecraft to offer the highest optical downlink throughput yet seen—at least 800 gigs and perhaps a terabit.
Doing that will require careful engineering. EON will focus on producing the optical communications terminal, carefully allocating spending to the components that must be exquisite, like the gimbals that will point the laser. The company plans to buy powerful off-the-shelf satellite busses, like those made by Apex Space, Horowitz’s previous employer.
Horowitz served as Apex CEO Ian Cinnamon’s chief of staff and then as the company’s director of special projects. “Charlie is a force of nature—he can move seamlessly from strategy to the details required to make something real,” Cinnamon told TechCrunch. “Charlie is the ideal founder, and I invested personally because I believe deeply in Charlie and what he’s building at EON with Tyler.”
In addition to Pressler, a PhD astronautical engineer who has planned frontier missions for NASA, the company’s technical bench includes Michael David Francois, a long-time Google executive focused on global network infrastructure, and Wesley Baxter, an optics engineer who most recently worked on Amazon’s LEO satellite network.
Jeannette zu Fürstenburg, the General Catalyst partner who led the investment, said she sees it uniting the fund’s two key themes—AI and resilience.
“I don’t worry about demand,” she told TechCrunch. “I think all of that will solve for itself. It’s really all about can you actually get this thing into space in the time that we discussed? We really think about founder-product fit, [Horowitz] is just the right caliber of guy to go after a problem like this.”
They aren’t the only one chasing this problem—Blue Origin, Jeff Bezos’ space company, has announced plans for TeraWave, a 5,048 satellite network that aims to provide speeds of up to 6 Tbps to large-scale users. Blue’s plan is more ambitious, but will also require more time to launch and deploy. EON’s smaller fleet of satellites should be easier to get into space quickly, but they will need to solve many of the same technical challenges.
“Data centers have high standards for quality and redundancy,” points out Caleb Henry, the director of research at Quilty Space. “Satellite internet is just now progressing from a technology of last resort to dependable, high-bandwidth infrastructure. That’s not to say it will be impossible to make satellites optimized for data center connectivity, just that it will be harder and take longer than most entrepreneurs suggest.”
Still, a project like may be more practical compared to the popular idea of building the data centers themselves in space.
“We have one rule at the company: no physics problems,” Horowitz says. “There’s a market that exists today that we can go serve. Down the road, we’ll go and take on more as it comes, but we know that this is a problem that exists today, that’s only getting worse. That’s our bet—more data is moving terrestrially than ever.”
When you purchase through links in our articles, we may earn a small commission. This doesn’t affect our editorial independence.
#EON #move #data #superhighway #ocean #fiber #space #lasers #TechCrunchExclusive">EON wants to move the data superhighway from ocean fiber to space lasers | TechCrunch
As hyperscalers build out data centers around the world, they need to move the bits back and forth, and that often relies on a somewhat brittle network of undersea fiberoptic cables crisscrossing the oceans.
Those cables are tricky to access and repair, much less install. But alternatives aren’t easy to find: Radio transmissions don’t have the bandwidth, which rules out most wireless approaches on the ground or in orbit. But now, maybe lasers could do the job.
Endeavor Optical Networks, a start-up founded in May and emerging from stealth today with $10.75 million in seed funding from General Catalyst and Andreessen Horowitz, is betting on that plan. The co-founders, CEO Charlie Horowitz and CTO Tyler Presser, aim to launch a network of laser-equipped spacecraft to link data centers from orbit.
Most satellite communications networks, even those that provide broadband internet service, aren’t robust enough to carry data at 200 terabits a second or more, the speed of undersea fiber.
However, more powerful satellites and advances in optical technology are making space-to-ground communications with lasers more feasible. NASA used laser comms to beam back data from its most recent Moon mission, while a handful of private space companies, including York, Kepler, and Cailabs, have demonstrated links between Earth orbit and the ground.
Those connections, however, aimed for a throughput of 2.5 Gbps, and EON has a bigger starting goal, Horowitz says: Throughput of 2.4 terabits a second. That will require some secret sauce to deal with one of the biggest problems with laser comms—how the signal is distorted by the atmosphere as it passes through it, particularly when clouds are blocking the way.
EON intends to build a network of about 20 satellites, each able to provide a dedicated link between two continents, with the initial fleet providing 24 hour coverage for early customers. The company will carefully choose ground stations in different regions to serve local data centers and CDNs, using redundant sites and leveraging weather data to ensure a reliable link.
The startup is talking to hyperscalers and AI labs as customers, since they move more data than anyone else, with the focus on underserved or expensive routes: Lengthy ones, like France to Australia, or those without extensive existing infrastructure, like crossing between Africa and South America. They plan to sell dedicated capacity to entice customers interested in full control of their data transit.
First, though, EON will use its seed round to build out an optics lab, hire more engineers, and perform ground tests ahead of a demo satellite they hope to launch around the end of 2027. Horowitz expects that spacecraft to offer the highest optical downlink throughput yet seen—at least 800 gigs and perhaps a terabit.
Doing that will require careful engineering. EON will focus on producing the optical communications terminal, carefully allocating spending to the components that must be exquisite, like the gimbals that will point the laser. The company plans to buy powerful off-the-shelf satellite busses, like those made by Apex Space, Horowitz’s previous employer.
Horowitz served as Apex CEO Ian Cinnamon’s chief of staff and then as the company’s director of special projects. “Charlie is a force of nature—he can move seamlessly from strategy to the details required to make something real,” Cinnamon told TechCrunch. “Charlie is the ideal founder, and I invested personally because I believe deeply in Charlie and what he’s building at EON with Tyler.”
In addition to Pressler, a PhD astronautical engineer who has planned frontier missions for NASA, the company’s technical bench includes Michael David Francois, a long-time Google executive focused on global network infrastructure, and Wesley Baxter, an optics engineer who most recently worked on Amazon’s LEO satellite network.
Jeannette zu Fürstenburg, the General Catalyst partner who led the investment, said she sees it uniting the fund’s two key themes—AI and resilience.
“I don’t worry about demand,” she told TechCrunch. “I think all of that will solve for itself. It’s really all about can you actually get this thing into space in the time that we discussed? We really think about founder-product fit, [Horowitz] is just the right caliber of guy to go after a problem like this.”
They aren’t the only one chasing this problem—Blue Origin, Jeff Bezos’ space company, has announced plans for TeraWave, a 5,048 satellite network that aims to provide speeds of up to 6 Tbps to large-scale users. Blue’s plan is more ambitious, but will also require more time to launch and deploy. EON’s smaller fleet of satellites should be easier to get into space quickly, but they will need to solve many of the same technical challenges.
“Data centers have high standards for quality and redundancy,” points out Caleb Henry, the director of research at Quilty Space. “Satellite internet is just now progressing from a technology of last resort to dependable, high-bandwidth infrastructure. That’s not to say it will be impossible to make satellites optimized for data center connectivity, just that it will be harder and take longer than most entrepreneurs suggest.”
Still, a project like may be more practical compared to the popular idea of building the data centers themselves in space.
“We have one rule at the company: no physics problems,” Horowitz says. “There’s a market that exists today that we can go serve. Down the road, we’ll go and take on more as it comes, but we know that this is a problem that exists today, that’s only getting worse. That’s our bet—more data is moving terrestrially than ever.”
When you purchase through links in our articles, we may earn a small commission. This doesn’t affect our editorial independence.
Sony designs Bravia TVs with premium features and high-quality displays, but many buyers are still unaware of where they are made. Sony uses a global manufacturing network that includes countries such as China, Japan, Malaysia, India, and Mexico. The company also depends on outside suppliers for important components like OLED and QD-OLED panels. Over time, Sony has reduced its own factory operations and started relying more on manufacturing partners, which has changed how and where Bravia TVs are produced today.
Sony Bravia
Sony Bravia became Sony’s main television brand in 2008 and is now sold in many countries worldwide. These TVs are popular for their premium display quality, color accuracy, and smart image-processing features. Sony develops the software, features, and designs for its TVs, while manufacturing partners produce and assemble the products. The company also depends on outside suppliers for important TV components like display panels.
Where Are Sony TVs Manufactured?
Sony Bravia TVs are manufactured across different countries as part of Sony’s global production network. Major manufacturing locations include China, Japan, India, Malaysia, Mexico, Slovakia, and Thailand. China handles a large share of TV assembly and display-related production, while India produces many TVs for regional buyers through Sony’s partnership with Foxconn. Japan and Malaysia still support several electronics manufacturing operations for the company. Different factories are used to serve nearby international markets and reduce supply costs.
Over time, Sony has been able to cut down on the number of factories that it has. This is because it used to manufacture TVs in factories that were in other countries like Brazil, Spain, Vietnam, Mexico, and Slovakia. In 2010, Sony sold the Spain facility, later closed the Brazil factory in 2021, and had previously shut down the Vietnam plant in 2008. It also sold the Mexican and Slovakian plants to Foxconn in its attempt to minimize costs.
Now, Sony emphasizes technology and product development more and relies on other firms in manufacturing. The firm Foxconn is responsible for making Sony TVs that support various markets. Outsourcing production will help Sony cut costs, become more efficient, and manufacture effectively from all corners of the globe.
Who Supplies Sony TV Panels?
Currently, Sony uses TV panels manufactured by other producers rather than creating them through its plants. The OLED panels used by Sony for its products come mostly from LG, while Samsung produces QD-OLED panels. There are a limited number of producers of TV panels; therefore, most TV makers use similar TV panels. Most of Sony’s development efforts focus on software and image processing.
Sony uses its own picture-processing systems and display tuning to improve the quality of Bravia TVs. These technologies help deliver better colors, sharper details, and smoother motion performance. Because of this, Sony delivers excellent image quality in its TVs even when other manufacturers supply the display panels.
TCL’s Role in Sony Bravia TVs
After acquiring the majority stake in Bravia Inc., TCL is a significant player in determining the future of Sony Bravia television sets. However, Sony will continue to use its imaging technologies and displays in order to create the perfect experience of using Bravia televisions. Given that TCL has a wide manufacturing base in China, there is an expectation that Bravia television manufacturing will increasingly shift to China post 2027.
Today, Sony Bravia TVs are produced using parts and factories from different countries across Sony’s global supply chain. Even so, Sony continues to handle the software and image-processing systems that shape the overall viewing experience. For most customers, Sony’s strong reputation for display quality matters more than the exact factory location of the TV.
Sony designs Bravia TVs with premium features and high-quality displays, but many buyers are still unaware of where they are made. Sony uses a global manufacturing network that includes countries such as China, Japan, Malaysia, India, and Mexico. The company also depends on outside suppliers for important components like OLED and QD-OLED panels. Over time, Sony has reduced its own factory operations and started relying more on manufacturing partners, which has changed how and where Bravia TVs are produced today.
Sony Bravia
Sony Bravia became Sony’s main television brand in 2008 and is now sold in many countries worldwide. These TVs are popular for their premium display quality, color accuracy, and smart image-processing features. Sony develops the software, features, and designs for its TVs, while manufacturing partners produce and assemble the products. The company also depends on outside suppliers for important TV components like display panels.
Where Are Sony TVs Manufactured?
Sony Bravia TVs are manufactured across different countries as part of Sony’s global production network. Major manufacturing locations include China, Japan, India, Malaysia, Mexico, Slovakia, and Thailand. China handles a large share of TV assembly and display-related production, while India produces many TVs for regional buyers through Sony’s partnership with Foxconn. Japan and Malaysia still support several electronics manufacturing operations for the company. Different factories are used to serve nearby international markets and reduce supply costs.
Over time, Sony has been able to cut down on the number of factories that it has. This is because it used to manufacture TVs in factories that were in other countries like Brazil, Spain, Vietnam, Mexico, and Slovakia. In 2010, Sony sold the Spain facility, later closed the Brazil factory in 2021, and had previously shut down the Vietnam plant in 2008. It also sold the Mexican and Slovakian plants to Foxconn in its attempt to minimize costs.
Now, Sony emphasizes technology and product development more and relies on other firms in manufacturing. The firm Foxconn is responsible for making Sony TVs that support various markets. Outsourcing production will help Sony cut costs, become more efficient, and manufacture effectively from all corners of the globe.
Who Supplies Sony TV Panels?
Currently, Sony uses TV panels manufactured by other producers rather than creating them through its plants. The OLED panels used by Sony for its products come mostly from LG, while Samsung produces QD-OLED panels. There are a limited number of producers of TV panels; therefore, most TV makers use similar TV panels. Most of Sony’s development efforts focus on software and image processing.
Sony uses its own picture-processing systems and display tuning to improve the quality of Bravia TVs. These technologies help deliver better colors, sharper details, and smoother motion performance. Because of this, Sony delivers excellent image quality in its TVs even when other manufacturers supply the display panels.
TCL’s Role in Sony Bravia TVs
After acquiring the majority stake in Bravia Inc., TCL is a significant player in determining the future of Sony Bravia television sets. However, Sony will continue to use its imaging technologies and displays in order to create the perfect experience of using Bravia televisions. Given that TCL has a wide manufacturing base in China, there is an expectation that Bravia television manufacturing will increasingly shift to China post 2027.
Today, Sony Bravia TVs are produced using parts and factories from different countries across Sony’s global supply chain. Even so, Sony continues to handle the software and image-processing systems that shape the overall viewing experience. For most customers, Sony’s strong reputation for display quality matters more than the exact factory location of the TV.
#Sony #TVs #Manufacturedsony">Who Makes Sony TVs and Where Are They Manufactured?
Sony designs Bravia TVs with premium features and high-quality displays, but many buyers are still unaware of where they are made. Sony uses a global manufacturing network that includes countries such as China, Japan, Malaysia, India, and Mexico. The company also depends on outside suppliers for important components like OLED and QD-OLED panels. Over time, Sony has reduced its own factory operations and started relying more on manufacturing partners, which has changed how and where Bravia TVs are produced today.
Sony Bravia
Sony Bravia became Sony’s main television brand in 2008 and is now sold in many countries worldwide. These TVs are popular for their premium display quality, color accuracy, and smart image-processing features. Sony develops the software, features, and designs for its TVs, while manufacturing partners produce and assemble the products. The company also depends on outside suppliers for important TV components like display panels.
Where Are Sony TVs Manufactured?
Sony Bravia TVs are manufactured across different countries as part of Sony’s global production network. Major manufacturing locations include China, Japan, India, Malaysia, Mexico, Slovakia, and Thailand. China handles a large share of TV assembly and display-related production, while India produces many TVs for regional buyers through Sony’s partnership with Foxconn. Japan and Malaysia still support several electronics manufacturing operations for the company. Different factories are used to serve nearby international markets and reduce supply costs.
Over time, Sony has been able to cut down on the number of factories that it has. This is because it used to manufacture TVs in factories that were in other countries like Brazil, Spain, Vietnam, Mexico, and Slovakia. In 2010, Sony sold the Spain facility, later closed the Brazil factory in 2021, and had previously shut down the Vietnam plant in 2008. It also sold the Mexican and Slovakian plants to Foxconn in its attempt to minimize costs.
Now, Sony emphasizes technology and product development more and relies on other firms in manufacturing. The firm Foxconn is responsible for making Sony TVs that support various markets. Outsourcing production will help Sony cut costs, become more efficient, and manufacture effectively from all corners of the globe.
Who Supplies Sony TV Panels?
Currently, Sony uses TV panels manufactured by other producers rather than creating them through its plants. The OLED panels used by Sony for its products come mostly from LG, while Samsung produces QD-OLED panels. There are a limited number of producers of TV panels; therefore, most TV makers use similar TV panels. Most of Sony’s development efforts focus on software and image processing.
Sony uses its own picture-processing systems and display tuning to improve the quality of Bravia TVs. These technologies help deliver better colors, sharper details, and smoother motion performance. Because of this, Sony delivers excellent image quality in its TVs even when other manufacturers supply the display panels.
TCL’s Role in Sony Bravia TVs
After acquiring the majority stake in Bravia Inc., TCL is a significant player in determining the future of Sony Bravia television sets. However, Sony will continue to use its imaging technologies and displays in order to create the perfect experience of using Bravia televisions. Given that TCL has a wide manufacturing base in China, there is an expectation that Bravia television manufacturing will increasingly shift to China post 2027.
Today, Sony Bravia TVs are produced using parts and factories from different countries across Sony’s global supply chain. Even so, Sony continues to handle the software and image-processing systems that shape the overall viewing experience. For most customers, Sony’s strong reputation for display quality matters more than the exact factory location of the TV.
![EON wants to move the data superhighway from ocean fiber to space lasers | TechCrunch
As hyperscalers build out data centers around the world, they need to move the bits back and forth, and that often relies on a somewhat brittle network of undersea fiberoptic cables crisscrossing the oceans.
Those cables are tricky to access and repair, much less install. But alternatives aren’t easy to find: Radio transmissions don’t have the bandwidth, which rules out most wireless approaches on the ground or in orbit. But now, maybe lasers could do the job.
Endeavor Optical Networks, a start-up founded in May and emerging from stealth today with .75 million in seed funding from General Catalyst and Andreessen Horowitz, is betting on that plan. The co-founders, CEO Charlie Horowitz and CTO Tyler Presser, aim to launch a network of laser-equipped spacecraft to link data centers from orbit.
Most satellite communications networks, even those that provide broadband internet service, aren’t robust enough to carry data at 200 terabits a second or more, the speed of undersea fiber.
However, more powerful satellites and advances in optical technology are making space-to-ground communications with lasers more feasible. NASA used laser comms to beam back data from its most recent Moon mission, while a handful of private space companies, including York, Kepler, and Cailabs, have demonstrated links between Earth orbit and the ground.
Those connections, however, aimed for a throughput of 2.5 Gbps, and EON has a bigger starting goal, Horowitz says: Throughput of 2.4 terabits a second. That will require some secret sauce to deal with one of the biggest problems with laser comms—how the signal is distorted by the atmosphere as it passes through it, particularly when clouds are blocking the way.
EON intends to build a network of about 20 satellites, each able to provide a dedicated link between two continents, with the initial fleet providing 24 hour coverage for early customers. The company will carefully choose ground stations in different regions to serve local data centers and CDNs, using redundant sites and leveraging weather data to ensure a reliable link.
The startup is talking to hyperscalers and AI labs as customers, since they move more data than anyone else, with the focus on underserved or expensive routes: Lengthy ones, like France to Australia, or those without extensive existing infrastructure, like crossing between Africa and South America. They plan to sell dedicated capacity to entice customers interested in full control of their data transit.
First, though, EON will use its seed round to build out an optics lab, hire more engineers, and perform ground tests ahead of a demo satellite they hope to launch around the end of 2027. Horowitz expects that spacecraft to offer the highest optical downlink throughput yet seen—at least 800 gigs and perhaps a terabit.
Doing that will require careful engineering. EON will focus on producing the optical communications terminal, carefully allocating spending to the components that must be exquisite, like the gimbals that will point the laser. The company plans to buy powerful off-the-shelf satellite busses, like those made by Apex Space, Horowitz’s previous employer.
Horowitz served as Apex CEO Ian Cinnamon’s chief of staff and then as the company’s director of special projects. “Charlie is a force of nature—he can move seamlessly from strategy to the details required to make something real,” Cinnamon told TechCrunch. “Charlie is the ideal founder, and I invested personally because I believe deeply in Charlie and what he’s building at EON with Tyler.”
In addition to Pressler, a PhD astronautical engineer who has planned frontier missions for NASA, the company’s technical bench includes Michael David Francois, a long-time Google executive focused on global network infrastructure, and Wesley Baxter, an optics engineer who most recently worked on Amazon’s LEO satellite network.
Jeannette zu Fürstenburg, the General Catalyst partner who led the investment, said she sees it uniting the fund’s two key themes—AI and resilience.
“I don’t worry about demand,” she told TechCrunch. “I think all of that will solve for itself. It’s really all about can you actually get this thing into space in the time that we discussed? We really think about founder-product fit, [Horowitz] is just the right caliber of guy to go after a problem like this.”
They aren’t the only one chasing this problem—Blue Origin, Jeff Bezos’ space company, has announced plans for TeraWave, a 5,048 satellite network that aims to provide speeds of up to 6 Tbps to large-scale users. Blue’s plan is more ambitious, but will also require more time to launch and deploy. EON’s smaller fleet of satellites should be easier to get into space quickly, but they will need to solve many of the same technical challenges.
“Data centers have high standards for quality and redundancy,” points out Caleb Henry, the director of research at Quilty Space. “Satellite internet is just now progressing from a technology of last resort to dependable, high-bandwidth infrastructure. That’s not to say it will be impossible to make satellites optimized for data center connectivity, just that it will be harder and take longer than most entrepreneurs suggest.”Still, a project like may be more practical compared to the popular idea of building the data centers themselves in space.
“We have one rule at the company: no physics problems,” Horowitz says. “There’s a market that exists today that we can go serve. Down the road, we’ll go and take on more as it comes, but we know that this is a problem that exists today, that’s only getting worse. That’s our bet—more data is moving terrestrially than ever.”
When you purchase through links in our articles, we may earn a small commission. This doesn’t affect our editorial independence.#EON #move #data #superhighway #ocean #fiber #space #lasers #TechCrunchExclusive](https://i3.wp.com/techcrunch.com/wp-content/uploads/2026/08/EON-Co-Founders_Horizontal_Philip-Cheung.jpg?resize=1200%2C898&ssl=1 "EON wants to move the data superhighway from ocean fiber to space lasers | TechCrunch
As hyperscalers build out data centers around the world, they need to move the bits back and forth, and that often relies on a somewhat brittle network of undersea fiberoptic cables crisscrossing the oceans.
Those cables are tricky to access and repair, much less install. But alternatives aren’t easy to find: Radio transmissions don’t have the bandwidth, which rules out most wireless approaches on the ground or in orbit. But now, maybe lasers could do the job.
Endeavor Optical Networks, a start-up founded in May and emerging from stealth today with .75 million in seed funding from General Catalyst and Andreessen Horowitz, is betting on that plan. The co-founders, CEO Charlie Horowitz and CTO Tyler Presser, aim to launch a network of laser-equipped spacecraft to link data centers from orbit.
Most satellite communications networks, even those that provide broadband internet service, aren’t robust enough to carry data at 200 terabits a second or more, the speed of undersea fiber.
However, more powerful satellites and advances in optical technology are making space-to-ground communications with lasers more feasible. NASA used laser comms to beam back data from its most recent Moon mission, while a handful of private space companies, including York, Kepler, and Cailabs, have demonstrated links between Earth orbit and the ground.
Those connections, however, aimed for a throughput of 2.5 Gbps, and EON has a bigger starting goal, Horowitz says: Throughput of 2.4 terabits a second. That will require some secret sauce to deal with one of the biggest problems with laser comms—how the signal is distorted by the atmosphere as it passes through it, particularly when clouds are blocking the way.
EON intends to build a network of about 20 satellites, each able to provide a dedicated link between two continents, with the initial fleet providing 24 hour coverage for early customers. The company will carefully choose ground stations in different regions to serve local data centers and CDNs, using redundant sites and leveraging weather data to ensure a reliable link.
The startup is talking to hyperscalers and AI labs as customers, since they move more data than anyone else, with the focus on underserved or expensive routes: Lengthy ones, like France to Australia, or those without extensive existing infrastructure, like crossing between Africa and South America. They plan to sell dedicated capacity to entice customers interested in full control of their data transit.
First, though, EON will use its seed round to build out an optics lab, hire more engineers, and perform ground tests ahead of a demo satellite they hope to launch around the end of 2027. Horowitz expects that spacecraft to offer the highest optical downlink throughput yet seen—at least 800 gigs and perhaps a terabit.
Doing that will require careful engineering. EON will focus on producing the optical communications terminal, carefully allocating spending to the components that must be exquisite, like the gimbals that will point the laser. The company plans to buy powerful off-the-shelf satellite busses, like those made by Apex Space, Horowitz’s previous employer.
Horowitz served as Apex CEO Ian Cinnamon’s chief of staff and then as the company’s director of special projects. “Charlie is a force of nature—he can move seamlessly from strategy to the details required to make something real,” Cinnamon told TechCrunch. “Charlie is the ideal founder, and I invested personally because I believe deeply in Charlie and what he’s building at EON with Tyler.”
In addition to Pressler, a PhD astronautical engineer who has planned frontier missions for NASA, the company’s technical bench includes Michael David Francois, a long-time Google executive focused on global network infrastructure, and Wesley Baxter, an optics engineer who most recently worked on Amazon’s LEO satellite network.
Jeannette zu Fürstenburg, the General Catalyst partner who led the investment, said she sees it uniting the fund’s two key themes—AI and resilience.
“I don’t worry about demand,” she told TechCrunch. “I think all of that will solve for itself. It’s really all about can you actually get this thing into space in the time that we discussed? We really think about founder-product fit, [Horowitz] is just the right caliber of guy to go after a problem like this.”
They aren’t the only one chasing this problem—Blue Origin, Jeff Bezos’ space company, has announced plans for TeraWave, a 5,048 satellite network that aims to provide speeds of up to 6 Tbps to large-scale users. Blue’s plan is more ambitious, but will also require more time to launch and deploy. EON’s smaller fleet of satellites should be easier to get into space quickly, but they will need to solve many of the same technical challenges.
“Data centers have high standards for quality and redundancy,” points out Caleb Henry, the director of research at Quilty Space. “Satellite internet is just now progressing from a technology of last resort to dependable, high-bandwidth infrastructure. That’s not to say it will be impossible to make satellites optimized for data center connectivity, just that it will be harder and take longer than most entrepreneurs suggest.”Still, a project like may be more practical compared to the popular idea of building the data centers themselves in space.
“We have one rule at the company: no physics problems,” Horowitz says. “There’s a market that exists today that we can go serve. Down the road, we’ll go and take on more as it comes, but we know that this is a problem that exists today, that’s only getting worse. That’s our bet—more data is moving terrestrially than ever.”
When you purchase through links in our articles, we may earn a small commission. This doesn’t affect our editorial independence.#EON #move #data #superhighway #ocean #fiber #space #lasers #TechCrunchExclusive")
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