stupid question. if work computer logs everything, can ppl going thru it tell if youve been not doing things? (like logging in but then just leaving the computer running without actually performing actions on it). Asking for. Reasons.
If there are any kinds of programs you log into for work there's pretty much going to be a record of the actions you've taken in those programs and the person who admins those programs is likely to have some level of access to those records.
If it's a work computer and it belongs to them and they suspect that you are not actually working they can install programs that will track a tremendously high level of information (for instance, they can install a keylogger to track everything you've typed).
Or, hell, one of the programs we install on client computers takes a screenshot of each user's device every half hour. The screenshot is completely secret from the user's perspective.
Some of this is very easy to access info, some is very difficult to access info, but if you're supposed to be using, like, Quickbooks or Excel or something like that - ESPECIALLY if it's a cloud version - then yeah the program has a timestamp of every action you take.
If you're not sure whether your work has programs like this on your computer, it's better to assume that they do than to assume that they do not.
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Could we get a tier 2, Feminine Mentally ill headmate with NPD BPD and HPD + other disorders of ur choice they associate with KANGEL! With speech patterns & quirks, likes and dislikes, disorders, transids, associations, triggers, and front signs??:3
Names𓈒 ⑅
𓏏𓏏 Violet 𓏏𓏏 Lydia 𓏏𓏏 Thea 𓏏𓏏 Talia 𓏏𓏏 Naomi 𓏏𓏏 Azalea 𓏏𓏏 Valerie 𓏏𓏏 Vanessa 𓏏𓏏 Veronica 𓏏𓏏 Jade 𓏏𓏏 Dahlia 𓏏𓏏 Scarlet 𓏏𓏏 Bianca 𓏏𓏏 Agatha 𓏏𓏏 Adeline 𓏏𓏏 Eleanor 𓏏𓏏 Caroline 𓏏𓏏 Simone 𓏏𓏏 Harley 𓏏𓏏 Nova 𓏏𓏏 Lavender 𓏏𓏏
Pronouns𓈒 ⑅
𓏏𓏏 She ; Her 𓏏𓏏 Shy ; Hyr 𓏏𓏏 Shx ; Hxr 𓏏𓏏 Shi ; Hir 𓏏𓏏 They ; Them 𓏏𓏏 Thxy ; Thxm 𓏏𓏏 Pill ; Pills 𓏏𓏏 Digi ; Digital 𓏏𓏏 An ; Angel 𓏏𓏏 Cute ; Cutes 𓏏𓏏 Rib ; Ribbon 𓏏𓏏 Ha ; Halo 𓏏𓏏 Virtue ; Virtual 𓏏𓏏 Div ; Divine 𓏏𓏏 Love ; Loves 𓏏𓏏 God ; Gods 𓏏𓏏 Id ; Idol 𓏏𓏏 Inter ; Internet 𓏏𓏏 Doll ; Dolls 𓏏𓏏 Wor ; Worship 𓏏𓏏 Sweet ; Sweets 𓏏𓏏 Ador ; Adores 𓏏𓏏 Amor ; Amors 𓏏𓏏
Genders𓈒 ⑅
𓏏𓏏 Angeldigital/AngelVirtual 𓏏𓏏 AdoredDigital 𓏏𓏏 Digiluvsic 𓏏𓏏 Angelgender 𓏏𓏏 Lacefem 𓏏𓏏 Magicalgirlic 𓏏𓏏
Orientation𓈒 ⑅
𓏏𓏏 AroAce 𓏏𓏏 Omnisexual 𓏏𓏏 Divine4Worshipper 𓏏𓏏 MentallyIll4MentallyIll 𓏏𓏏
Age𓈒 ⑅
𓏏𓏏 21 𓏏𓏏 18 𓏏𓏏 19 𓏏𓏏
Species𓈒 ⑅
𓏏𓏏 Human 𓏏𓏏 Digital Angel 𓏏𓏏 Digital 𓏏𓏏 Angel 𓏏𓏏 God 𓏏𓏏
Roles𓈒 ⑅
𓏏𓏏 Cloud Chaser 𓏏𓏏 Performer 𓏏𓏏 Internet Protector 𓏏𓏏 Social Media Protector 𓏏𓏏 Influencer 𓏏𓏏 BPD Holder 𓏏𓏏 NPD Holder 𓏏𓏏 HPD Holder 𓏏𓏏 Fashionista 𓏏𓏏 Obsession Holder 𓏏𓏏 Persecutor 𓏏𓏏 Landmine Alter 𓏏𓏏
Faceclaims𓈒 ⑅
Sign Offs𓈒 ⑅
𓏏𓏏 🪽 𓏏𓏏 🦢 𓏏𓏏 🕊️ 𓏏𓏏 🌸 𓏏𓏏 🌷 𓏏𓏏 🍥 𓏏𓏏 🍧 𓏏𓏏 🍡 𓏏𓏏 🎀 𓏏𓏏
Personality𓈒 ⑅
𓏏𓏏 Violet highly believes she's K-Angel, and a god/angel.. As well as a magical girl. Shi loves attention and goes out hir way to get it. Shy depends on attention but still believes she doesn't. She's dramatic, and has mood swings often. When she doesn't get a single compliment when she expects, her mood drops, and so does her motivation and self esteem. 𓏏𓏏
Speech Patterns & Quirks𓈒 ⑅
𓏏𓏏 High Pitched Voice 𓏏𓏏 Eccentric 𓏏𓏏 Obsessive 𓏏𓏏 Emotionful 𓏏𓏏 Lots of 'Like' 𓏏𓏏
Likes𓈒 ⑅
𓏏𓏏 Expensive & Cute Computer Setups 𓏏𓏏 High Quality Videos 𓏏𓏏 Long Youtube Videos 𓏏𓏏 Highly Controversial Content 𓏏𓏏 Hyperfeminine Things 𓏏𓏏 Cheap Clothes 𓏏𓏏 Painting Nails 𓏏𓏏 Magical Girls (Fully Believes She Is One 𓏏𓏏 Singing 𓏏𓏏 K/J-Pop 𓏏𓏏 Staying Up Late 𓏏𓏏 Shopping 𓏏𓏏 Streaming 𓏏𓏏 Posting 𓏏𓏏 The Internet 𓏏𓏏 Walks 𓏏𓏏 Park Swings 𓏏𓏏 Dressing Up 𓏏𓏏 Attention 𓏏𓏏 Jirai Kei 𓏏𓏏 Impulsiveness 𓏏𓏏 Being Worshipped 𓏏𓏏
Dislikes𓈒 ⑅
𓏏𓏏 Waking Up 𓏏𓏏 Normal People 𓏏𓏏 Sane People 𓏏𓏏 Colorless Things 𓏏𓏏 Biege Moms 𓏏𓏏 Cleaning 𓏏𓏏 Religion 𓏏𓏏 Work 𓏏𓏏 Working 𓏏𓏏 Cooking 𓏏𓏏 Being Basic 𓏏𓏏 Being Offline 𓏏𓏏 Repitition 𓏏𓏏 Being Seen As Mortal 𓏏𓏏 Not Getting Hir Way 𓏏𓏏 Copcats 𓏏𓏏 K-Angel Fictives (Fully Believes She's K-Angel)
Disorders𓈒 ⑅
𓏏𓏏 NPD 𓏏𓏏 BPD 𓏏𓏏 HPD 𓏏𓏏 Fictional Obsessive Love Disorder (F-OLD) 𓏏𓏏 Internet Addiction Disorder (IAD) 𓏏𓏏
TransIDs𓈒 ⑅
𓏏𓏏 PermaOnline 𓏏𓏏 PermaPosting 𓏏𓏏 PermaStreamer 𓏏𓏏 CisKawaii 𓏏𓏏 CisJiraiKei 𓏏𓏏 CisLandmine 𓏏𓏏 TransCute 𓏏𓏏 TrisAdored 𓏏𓏏 TransPinkBlood 𓏏𓏏 PermaHeartCensor 𓏏𓏏 PermaFamous 𓏏𓏏 TransDigital 𓏏𓏏 TrisJapanese 𓏏𓏏 CisMentallyIll 𓏏𓏏 PermaLoved 𓏏𓏏 PermaCuteText 𓏏𓏏
Associations𓈒 ⑅
𓏏𓏏 K-Angel 𓏏𓏏 Mental Illness 𓏏𓏏 Religion 𓏏𓏏 Online / Internet 𓏏𓏏 Angels 𓏏𓏏 Cats 𓏏𓏏 Pink 𓏏𓏏 Kaomojis 𓏏𓏏 Lipgloss 𓏏𓏏 Obsession 𓏏𓏏
Front Triggers𓈒 ⑅
𓏏𓏏 Online 𓏏𓏏 The Internet 𓏏𓏏 K-Angel 𓏏𓏏 Fans 𓏏𓏏 Failing 𓏏𓏏 Feeling Worthless 𓏏𓏏 Godkins 𓏏𓏏 Dark Fictions 𓏏𓏏 No Attention 𓏏𓏏
Front Signs𓈒 ⑅
𓏏𓏏 More K-Angel Like 𓏏𓏏 Obsessive 𓏏𓏏 More Feminine 𓏏𓏏 God Complex 𓏏𓏏 Compliment Fishing 𓏏𓏏 Doing Things For Attention 𓏏𓏏
SB Infowaves Commands Centre Stage at CMPL Expo 2026, Drawing Record Footfall & Investor Buzz - Mumbai (Maharashtra) [India], May 6: In CMPL
Be it AI-enabled automation or performance marketing with a high return on investment (ROI), SB Infowaves, headed by MD Shreya Parasrampuria, created a stir at CMPL Expo 2026 with exceptional visitor engagement and investors' attention. Booth E-57 was the hot spot where SB Infowaves made a name discussing scalable AI agents, digital transformation, cloud computing, blockchain workflow, and enterprise software innovation. With more than 10 years of experience, over 800+ project deliveries, and operations in 4 continents, SB Infowaves is shaping up as the next-gen tech transformation leader.
When it comes to the Apollo Project, Apollo 11 and Apollo 13 kinda take up all the attention. So I thought I'd do a quick rundown of Apollo 1-17, as well as the other missions that used Apollo hardware, including the test flights, just for the sake of it.
This is going to be a long one, so the actual content begins after the cut.
Mission: SA-1 (Saturn-Apollo 1)
Date: October 27th, 1961
Rocket: Saturn I
Objectives: Test the first stage of the Saturn I rocket, designed to put an Apollo Command-Service Module in Low Earth Orbit. The upper stages were replaced with dummy parts filled with water to simulate weight.
Mission: SA-2
Date: April 25th, 1962
Rocket: Saturn I
Objectives: Second test of the Saturn I first stage, and part of Project Highwater, released its ballast water into the upper atmosphere to study the ionosphere, noctilucent clouds, and the behaviour of ice in space.
Mission: SA-3
Date: November 16th, 1962
Rocket: Saturn I
Objectives: Repeat of SA-2 mission.
Mission: SA-4
Date: March 28th, 1963
Rocket: Saturn I
Objectives: Test how the rocket handled the loss of a single engine, and if it could successfully reroute power to the remaining engines and power them up to achieve the same results.
Mission: QTV (Qualification Test Vehicle)
Date: August 28th, 1963
Rocket: Little Joe II
Objectives: First flight of the Little Joe II rocket, used for in-flight testing of the Launch Escape System.
Mission: Pad Abort Test 1
Date: November 7th, 1963
Rocket: N/A
Objectives: First test of the Launch Escape System, simulating its use on the launchpad.
Mission: SA-5
Date: January 29th, 1964
Rocket: Saturn I
Objectives: First flight of a live second stage, and the first orbital flight of the Saturn I.
Mission: A-001
Date: May 13th, 1964
Rocket: Little Joe II
Objectives: First test of the LES at transonic speeds, during the period of high dynamic pressure.
Mission: AS-101 (Apollo-Saturn 101)
Date: May 28th, 1964
Rocket: Saturn I
Objectives: Test the first boilerplate (mass simulator) Command-Service Module for structural integrity.
Mission: AS-102
Date: September 18th, 1964
Rocket: Saturn I
Objectives: Fly the first programmable-in-flight computer on a Saturn rocket, boilerplate CSM flight.
Mission: A-002
Date: December 8th, 1964
Rocket: Little Joe II
Objectives: LES test at Max-Q, the point of maximum dynamic pressure during launch.
Mission: AS-103
Date: February 16th, 1965
Rocket: Saturn I
Objectives: Fly a boilerplate CSM, and launch the Pegasus A satellite from the Service Module.
Mission: A-003
Date: May 19th, 1965
Rocket: Little Joe II
Objectives: Test of LES at maximum canard altitude. The rocket broke up before reaching that point, but the LES still performed a successful low-altitude abort from a rapidly rolling launch vehicle.
Mission: AS-104
Date: May 25th, 1965
Rocket: Saturn I
Objectives: Fly a boilerplate CSM, and launch the Pegasus B satellite from the Service Module.
Mission: Pad Abort Test 2
Date: June 29th, 1965
Rocket: N/A
Objectives: Test of the LES with a near-complete Block 1 Command Module.
Mission: AS-105
Date: July 30th, 1965
Rocket: Saturn I
Objectives: Fly a boilerplate CSM, and launch the Pegasus C satellite from the Service Module. Final flight of the original Saturn I rocket, as it was decided to use the more powerful Uprated Saturn I, later referred to as the Saturn IB, as the Saturn I could not lift a fully-fuelled Command-Service Module into orbit.
Mission: A-004
Date: January 20th, 1966
Rocket: Little Joe II
Objectives: Test the LES in the scenario that the launch vehicle is tumbling, prove that the Command Module can survive the strain and successfully reorient itself. Final flight of the Little Joe II.
Mission: AS-201
Date: February 26th, 1966
Rocket: Saturn IB
Objectives: Suborbital test of the Saturn IB rocket, the Block 1 CSM, and the S-IVB rocket stage that served as the second stage of the Saturn IB and the third stage of the Saturn V. Also demonstrated the heat shield.
Mission: AS-203
Date: July 5th, 1966
Rocket: Saturn IB
Objectives: Test of the behaviour of the S-IVB's fuel in orbit, in preparation for the required reignition of the engine in space for the Moon missions.
Mission: AS-202
Date: August 25th, 1966
Rocket: Saturn IB
Objectives: Suborbital flight to Pacific splashdown. Tested the heat shield to a higher speed.
Mission: AS-204/Apollo 1
Date: February 27th, 1967
Rocket: Saturn IB
Callsign: Apollo One (Unofficially)
Crew: Virgil "Gus" Grissom (Command Pilot), Ed White (Senior Pilot), Roger Chaffee (Pilot)
Objectives: First crewed flight of the Apollo CSM. Never launched due to a fatal accident during a plugs-out (internal power) test, where a spark ignited the pure oxygen atmosphere of the vehicle, exacerbated by multiple flammable materials in the spacecraft's construction. The astronauts were unable to escape the capsule because the door opened inwards and lacked explosive bolt releases, a "safety" feature designed in response to the near-fatal sinking of Grissom's own Liberty Bell 7 Mercury Capsule. The Block 1 CSM was never flown with people again, and heavily redesigned, removing the flammable material and using an oxygen-nitrogen mixture for the atmosphere. Use of the name "Apollo 1" was awarded posthumously, at the behest of the astronauts' families. The names "Apollo 2" and "Apollo 3" were never officially used.
Mission: Apollo 4
Date: November 9th, 1967
Rocket: Saturn V
Objectives: First flight of the Saturn V rocket. Successfully tested S-IVB reignition, and proved the Command Module's heat shield at lunar return speed.
Mission: Apollo 5
Date: January 22nd, 1968
Rocket: Saturn IB
Objectives: First flight of the Lunar Module, tested the Descent and Ascent Stage engines in Earth orbit. Also performed a "fire in the hole" landing abort test, to prove that the LM's Ascent Stage could still launch while physically attached to the Descent Stage, which would be necessary to escape the lunar surface in the event of an aborted landing.
Mission: Apollo 6
Date: April 4th, 1968
Rocket: Saturn V
Objectives: Final uncrewed test of the Saturn V. Despite losing two first stage engines to pogo oscillation and failing to reignite the S-IVB, NASA were able to identify the problems and correct them, declaring the Saturn V man-rated.
Mission: Apollo 7
Date: October 11th, 1968
Rocket: Saturn IB
Callsign: N/A
Crew: Wally Schirra (Commander), Donn F. Eisele (Command Module Pilot), Walter Cunningham (Lunar Module Pilot)
Objectives: Earth orbit test flight of the Block 2 CSM and its redesigned features. First live TV broadcast from an American spacecraft.
Mission: Apollo 8
Date: December 21st, 1968
Rocket: Saturn V
Callsign: N/A
Crew: Frank Borman (Commander), Jim Lovell (Command Module Pilot), William Anders (Lunar Module Pilot)
Objectives: First crewed flight of the Saturn V rocket, first human spaceflight to leave Earth orbit, first human spaceflight to orbit the Moon.
Mission: Apollo 9
Date: March 3rd, 1969
Rocket: Saturn V
Callsign: Gumdrop (Command Module) and Spider (Lunar Module)
Crew: James McDivitt (Commander), David Scott (Command Module Pilot), Rusty Schweickart (Lunar Module Pilot)
Objectives: First manned test of the Lunar Module in Earth orbit, testing propulsion, rendezvous, and docking with the CSM. Extravehicular activity tested the Portable Life Support System.
Argonne Team’s ChemGraph Unlocks AI for Chemistry and Materials Science
The framework uses large language models to help nonexperts access computational chemistry expertise
Newswise — Computers have made it easier than ever before to design the perfect material for a given problem: Scientists can create a virtual version and simulate how that material will behave. Building these atomically precise simulations, however, typically requires deep expertise in computational chemistry. At the U.S. Department of Energy’s (DOE) Argonne National Laboratory, researchers have developed a kind of shortcut, streamlining scientific workflows using artificial intelligence (AI).
ChemGraph is an open-source, publicly available framework that automates some of the steps required when performing calculations for materials science and chemistry. This could help accelerate efforts such as boosting engine efficiency, extracting critical materials and making better batteries. The framework was described recently in the journal Communications Chemistry.
The team developed ChemGraph using resources at the Argonne Leadership Computing Facility (ALCF), including the Aurora exascale supercomputer and the ALCF Inference Service, a first-of-its-kind platform that gives researchers cloud-like access to a broad range of large language models (LLMs) on the facility’s high performance computing systems. The ALCF is a DOE Office of Science user facility.
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Gravitational collapse may explain the origin of contact binaries in the Kuiper Belt, MSU simulation finds
Astronomers have long debated why so many icy objects in the outer solar system look like snowmen. Michigan State University researchers now have evidence of the surprisingly simple process that could be responsible for their creation.
Far beyond the violent, chaotic asteroid belt between Mars and Jupiter lies what’s known as the Kuiper Belt. There, past Neptune, you’ll find icy, untouched building blocks from the dawn of the solar system, known as planetesimals. About one in 10 of these objects are contact binaries, planetesimals that are shaped like two connected spheres, much like Frosty the Snowman. But just how these objects came to be without the help of a magic silk hat was an open question.
Jackson Barnes, an MSU graduate student, has created the first simulation that reproduces the two-lobed shape naturally with gravitational collapse. His work is published in the Monthly Notices of the Royal Astronomical Society.
Earlier computational models treated colliding objects as fluid blobs that merged into spheres, making it impossible to form these unique shapes. Thanks to MSU’s Institute for Cyber-Enabled Research, or ICER, and its high-performance computing cluster, Barnes’ simulations produce a more realistic environment that allows objects to retain their strength and rest against one another.
Other formation theories involve special events or exotic phenomena that, while possible, aren’t likely to happen on a regular basis.
“If we think 10 percent of planetesimal objects are contact binaries, the process that forms them can’t be rare,” said Earth and Environmental Science Professor Seth Jacobson, senior author on the paper. “Gravitational collapse fits nicely with what we’ve observed.”
Contact binaries were first imaged up close by NASA’s New Horizons spacecraft in January 2019. These images prompted scientists to take another look at other objects in the Kuiper belt, and it turned out that contact binaries accounted for about 10 percent of all planetesimals. These distant objects float mostly undisturbed and safe from collisions in the sparsely populated Kuiper belt.
In the early days of the Milky Way, the galaxy was a disc of dust and gas. Remnants of the galaxy’s formation are found in the Kuiper Belt, including dwarf planets like Pluto, comets and planetesimals.
Planetesimals are the first large planetary objects to form from the disc of dust and pebbles. Much like individual snowflakes that are packed into a snowball, these first planetesimals are aggregates of pebble-sized objects pulled together by gravity from a cloud of tiny materials.
Occasionally as the cloud rotates, it falls inward on itself, ripping the object apart and forming two separate planetesimals that orbit one another. Astronomers observe many binary planetesimals in the Kuiper belt. In Barnes’ simulation, the orbits of these objects spiral inward until the two gently make contact and fuse together while still maintaining their round shapes.
How do these two objects stay together throughout the history of the solar system? Barnes explains they’re simply unlikely to crash into another object. Without a collision, there’s nothing to break them apart. Most binaries aren’t even pocked with craters.
Scientists long suspected that gravitational collapse was responsible for forming these objects, but they couldn’t fully test the idea. Barnes’ model is the first to include the physics needed to reproduce contact binaries.
“We’re able to test this hypothesis for the first time in a legitimate way,” Barnes said. “That’s what’s so exciting about this paper.”
Barnes expects his model will help scientists understand binary systems of three or more objects. The team is also working to create a new simulation that better models the collapse process.
As more NASA missions explore uncharted realms of the solar system, Jacobson and Barnes suspect Frosty may have more distant cousins yet to be found.
TOP IMAGE: This image was taken by NASA's New Horizons spacecraft on Jan. 1, 2019 during a flyby of Kuiper Belt object 2014 MU69, informally known as Ultima Thule. It is the clearest view yet of this remarkable, ancient object in the far reaches of the solar system – and the first small "KBO" ever explored by a spacecraft. Credit NASA
LOWER IMAGE: Jackson Barnes created this contact binary in a computer simulation showing how the two-lobed shape could be formed by gravitational collapse. Credit Michigan State University Jacobson Lab
QUDORA Technologies Expands Quantum Operations to Japan
Germany-based full-stack quantum computing leader QUDORA Technologies launched Qudora Japan K.K. This May 28, 2026 expansion marks a turning point in the company's global expansion plan, focusing on Asia-Pacific's growth.
An Important Chiyoda-ku Location
New subsidiary headquarters are in Tokyo's Chiyoda-ku business and administrative district. From its central base, Qudora Japan K.K. fosters regional cooperation, client growth, and commercial progress throughout Japan and the Asia-Pacific.
QUDORA has recruited a top leadership team with strong local business contacts to lead this challenging project. As President of Qudora Japan K.K., Ned Cahoon will be joined by Country Manager Mitsuo Harahata and Executive General Manager Yuichi Watanabe. Local Japanese market experience and QUDORA's German engineering heritage are emphasized in this leadership structure.
Using Scientific Magnificence Tradition
QUDORA's technology is based on Germany's cold-atom physics supremacy since the first trapped-ion systems and atomic clocks. Found in 2021 and based in Braunschweig, the company has quickly become a “full-stack” provider, handling everything from quantum processing software to hardware.
Their hardware relies on patented microwave technology NFQC (Near Field Quantum Control). One of the company's founders designed NFQC to address the instability of the quantum state, a longstanding quantum computing concern.
The Coherence Search for “Quantum Utility”
In quantum mechanics, coherence time—the duration of a qubit's quantum state—is significant. Limited algorithm complexity is often caused by short coherence times in present quantum solutions. QUDORA's NFQC technology addresses this with “exceptionally long” coherence times and high-precision qubit management.
By lengthening quantum state life, QUDORA's technology increases algorithmic depth and complexity. Quantum error correction's high overhead is reduced by this technical benefit, enabling more realistic applications. Manufacturing and scalability are prioritized to give high-performance quantum computing to business and industry.
Why Japan? Combining Vision and Industry
QUDORA expanded into Japan because of its “strategic vision and support for quantum computing,” which it sees as a crucial ecosystem for innovation. The corporation considers Japan a “valued ecosystem partner” rather than a market.
QUDORA CEO Dr. Amado Bautista-Salvador praised Japan's quantum roadmap as one of the most comprehensive and collaborative, covering the full value chain, key supply chains, advanced quantum hardware development, and clear pathways to quantum utility.
Japan's industrial strengths meet QUDORA's trapped-ion technologies. The company targets industries with low coherence periods that have limited quantum solutions, such as:
Hi-performance computing
Automobile engineering
Materials engineering
Pharmaceutical research
Finance
Ecosystem Integration and Engagement
QUDORA entered the Japanese market after several strategy changes. The company is already active in the Q-STAR Alliance, Japan's leading quantum industry association. QUDORA also attended the SCA/HPC Asia 2026 conference in Osaka and joined AHK Japan, the official German business representative, to engage with the German-Japanese business community.
For prospective customers, QUDORA offers multiple deployment techniques. Their solutions interface effortlessly with HPC and business infrastructure. This includes on-premises deployments for research institutes and high-performance computing centers that need local hardware and cloud-based access for rapid quantum resources.
Future outlook
Ned Cahoon, Qudora Japan's new president, was optimistic about the local climate. He claimed Japan's technology creates a “unique environment for innovation and collaboration”. Qudora Japan K.K. builds strong, long-lasting quantum community links to bring the industry closer to real quantum use.
With its unique NFQC technology and new mandate in Tokyo, QUDORA is connecting Asia-Pacific industrial powerhouses to European scientific genius.
