{"success":true,"data":{"pressRelease":{"id":"162881","rtpr_id":"nNFC5zbcxY-20261007","ticker":"QNCR","exchange":"","all_tickers":["QNCR"],"title":"QuantumCore Begins Development of Third Critical Technology for Scalable Quantum Computing","author":"Newsfile Corp","published_at":"2026-10-07T11:00:20.379Z","article_body":"Multiplexing microchips target a quantum computing scaling challenge: reducing\ncryogenic wiring as qubit counts increase\n\nWaterloo, Ontario--(Newsfile Corp. - October 7, 2026) - QuantumCore Ltd. (CSE:\nQNCR) (OTCQB: QNCRF) (FSE: K1Y) (\"QuantumCore\" or the \"Company\") is pleased to\nannounce that it has begun development of a third critical technology for its\nquantum computing infrastructure platform: multiplexing microchips, designed\nto significantly reduce the number of physical interconnects required between\nroom-temperature control electronics and quantum processing units (\"QPUs\").\n\nThe development program expands QuantumCore's strategy of building critical\nhardware within the infrastructure layer between the quantum controller and\nthe QPU. Alongside the Company's superconducting quantum amplifier technology\nand single-photon detector platform, QuantumCore believes cryogenic\nmultiplexing represents another potentially essential enabling technology as\nquantum computers scale from hundreds and thousands of physical qubits toward\nsystems containing hundreds of thousands and ultimately one million physical\nqubits.\n\nQuantumCore recently entered into a Sponsored Research Agreement with the\nUniversity of Waterloo covering Cryogenic Multiplexing for Quantum Computer\nApplications. The program is led by Professor Raafat Mansour of Waterloo's\nDepartment of Electrical and Computer Engineering.\n\nAddressing the Million-Qubit Wiring Problem\n\nToday, superconducting quantum computers generally require microwave, DC\ncontrol and readout connections extending from room-temperature electronics\nthrough multiple temperature stages of a dilution refrigerator to the\nmillikelvin environment surrounding the QPU.\n\nAs processors become larger, this architecture creates an increasingly\ndifficult physical and thermal bottleneck. Dense wiring consumes valuable\nspace, adds heat to the extremely limited cooling capacity of the mixing\nchamber, and can introduce signal latency, attenuation and crosstalk. The\nresearch program identifies the cryogenic wiring interconnect bottleneck as\none of the primary obstacles to scaling quantum hardware and notes that\nconventional one-wire-per-qubit approaches are expected to become impractical\nfor million-qubit systems because of thermal, physical and bandwidth\nconstraints.\n\nQuantumCore believes cryogenic multiplexing could fundamentally change this\narchitecture.\n\nInstead of maintaining a dedicated physical signal path for every individual\nqubit, multiplexing switch matrices could allow control and readout\ninfrastructure to be shared and intelligently routed among multiple qubits.\nThe objective is to dramatically reduce the number of cables, connectors and\nfeedthroughs that would otherwise be required as superconducting quantum\nprocessors scale.\n\n\"The industry is working diligently toward quantum computers containing\nhundreds of thousands and eventually one million qubits, but you cannot simply\nscale today's wiring architecture one million times,\" said Eugene Profis,\nChief Executive Officer of QuantumCore. \"The interconnect problem becomes a\nfundamental engineering constraint. We believe cryogenic multiplexing can\nbecome an important part of the solution by allowing signals to be routed at\ncryogenic temperatures and potentially significantly reducing the number of\nphysical connections that have to travel through the refrigerator.\"\n\nWhy Phase-Change Material/Superconducting Switches\n\nQuantumCore's development program will focus on Phase Change Material (PCM)\nswitches and superconducting switch matrices for next-generation cryogenic\ncontrol and readout architectures.\n\nPCM technology is particularly attractive for quantum computing because the\nswitches can provide non-volatile, latching operation. Power is required\nprincipally when changing the state of the switch, with virtually no static\npower required to maintain that state, an important characteristic in a\ncryogenic environment where every additional source of heat can affect system\nperformance.\n\nThe research plan states that PCM switches offer a figure of merit that\nsignificantly surpasses state-of-the-art RF CMOS and RF MEMS technologies,\nmaking them an outstanding candidate for large-scale cryogenic switch matrices\nin future quantum computing platforms.\n\nQuantumCore ultimately intends to develop the technology alongside large\ninterconnect, connector and cabling companies as the quantum computing\nindustry works to develop scalable approaches to reducing the number and\ncomplexity of physical connections entering dilution refrigerators.\n\nThe Company believes this creates an opportunity to bridge two critical parts\nof the emerging quantum hardware ecosystem: advanced cryogenic switching\ntechnology and the physical interconnect infrastructure required to connect\nincreasingly large quantum processors.\n\nWorld-Class RF and Cryogenic Engineering Expertise\n\nProfessor Raafat Mansour is one of Canada's leading experts in microwave\nengineering and radio-frequency (\"RF\") integrated circuits, with significant\nprevious work focused on advanced switching technologies and the development\nof superconducting and cryogenic RF devices. He is a Professor in the\nDepartment of Electrical and Computer Engineering at the University of\nWaterloo, a former Tier 1 Canada Research Chair in Micro-Nano Integrated RF\nSystems, and served two consecutive terms as the NSERC Industrial Research\nChair in RF Technologies.\n\nProfessor Mansour has an exceptional track record of translating university\nresearch into commercial technologies. Technologies developed in his research\nlaboratory have contributed to the co-founding of successful Canadian\ntechnology companies, including AdHawk Microsystems and Integrated Circuit\nScanning Probe Instruments (ICSPI Corp.). Throughout his distinguished career,\nProfessor Mansour has been awarded 41 Canadian and U.S. patents and authored\nmore than 475 peer-reviewed technical publications. His extensive expertise in\nadvanced RF systems, integrated circuit design, cryogenic superconducting\ntechnologies and technology commercialization is expected to support\nQuantumCore's development of scalable cryogenic multiplexing technologies for\nfuture quantum computing platforms.\n\nThe cryogenic multiplexing development program builds on prior work conducted\nin Professor Mansour's laboratory, which has developed other types of advanced\nPCM switches and a wide range of RF superconducting circuits, providing an\nestablished technology and engineering foundation for the new cryogenic\nprogram. Professor Mansour is also already working on a multiplexing device,\nwhich QuantumCore intends to advance and optimize for scalable quantum\ncomputing applications. Building on this existing work, the Company expects to\ndevelop commercial prototypes of its cryogenic multiplexing technology within\nthe next 12 months.\n\nThe collaboration will combine Professor Mansour's technical expertise with\nQuantumCore's commercialization strategy focused on supplying critical\ninfrastructure technologies to the global quantum computing industry.\nProfessor Mansour is the Principal Investigator responsible for the technical\ncontent of the research program.\n\nBuilding the Superconducting Infrastructure Stack\n\nQuantumCore's strategy is to develop a portfolio of technologies addressing\ncritical bottlenecks surrounding the QPU rather than attempting to build the\nquantum computer itself.\n\nPCM multiplexing would occupy an important position within that\nsuperconducting infrastructure stack. Signals originating in room-temperature\ncontrol systems must be transported, routed, conditioned, amplified and\nisolated before and after interacting with the QPU. As qubit counts increase,\nQuantumCore believes greater functionality will need to migrate deeper into\nthe cryogenic environment.\n\nAbout QuantumCore Ltd.\n\nQuantumCore is a quantum technology company focused on building hardware\ninfrastructure intended to support the scaling of next-generation quantum\ncomputing systems. The Company's strategy is centered on developing, acquiring\nand commercializing technologies that operate between classical quantum\ncontrollers and quantum processing units.\n\nQuantumCore's portfolio includes superconducting cryogenic signal\namplification and advanced photon detection technologies, with the objective\nof becoming a leading independent supplier of enabling infrastructure to the\nglobal quantum computing industry.\n\nCautionary Note Regarding Forward-Looking Information\n\nThis news release contains \"forward-looking information\" within the meaning of\napplicable securities laws including, but not limited to, the development,\npotential performance and benefits of the Company's multiplexing technology,\nthe target timing for prototype development, potential collaborations and\ncommercialization, its technology roadmap and the Company's strategies,\nexpectations, planned operations or future actions. Often, but not always,\nforward-looking information can be identified by the use of words such as\n\"believes\", \"expects\", \"intends\", \"plans\", \"targets\", \"may\", \"could\",\n\"should\", \"will\" and similar expressions, including negative variations.\n\nForward-looking information involves known and unknown risks, uncertainties\nand other factors which may cause the actual results, performance or\nachievements of the Company to be materially different from any results,\nperformance or achievements expressed or implied by the forward-looking\ninformation, including the risks that research and development may not produce\nfunctional prototypes or commercial products within anticipated timelines,\nexpected performance or benefits may not be realized, potential collaborations\nmay not result in agreements, and those factors discussed under \"Risk Factors\"\nin the Listing Statement of the Company dated March 31, 2026, which is\navailable under the Company's issuer profile on SEDAR+ at www.sedarplus.ca.\nForward-looking information is based on a number of assumptions, including\nthat the Company will continue to advance and commercialize its technologies\nas planned, that it will have access to sufficient capital and resources, and\nthat market conditions and demand for quantum computing infrastructure will\ndevelop as anticipated. These factors and assumptions should be considered\ncarefully and readers should not place undue reliance on the forward-looking\ninformation. Although the Company has attempted to identify important factors\nthat could cause actual actions, events or results to differ materially from\nthose described in forward-looking information, there may be other factors\nthat cause actions, events or results to differ from those anticipated,\nestimated or intended. The forward-looking information contained herein is\nmade as of the date hereof and the Company disclaims any obligation to update\nany forward-looking information, whether as a result of new information,\nfuture events or results or otherwise, except where required by law. There can\nbe no assurance that this forward-looking information will prove to be\naccurate, as actual results and future events could differ materially from\nthose anticipated in such information. Accordingly, readers should not place\nundue reliance on forward-looking information.\n\nFor more information, please contact:\n\nEugene Profis\nChief Executive Officer\ne: eprofis@qncor.ca\nt: 416-648-4223\n\nTo view the source version of this press release, please visit\nhttps://www.newsfilecorp.com/release/317804","article_body_html":"","raw_payload":{"data":{"id":"nNFC5zbcxY-20261007","title":"QuantumCore Begins Development of Third Critical Technology for Scalable Quantum Computing","author":"Newsfile Corp","ticker":"QNCR","created":"2026-10-07T11:00:20.379Z","tickers":["QNCR"],"exchange":"","article_body":"Multiplexing microchips target a quantum computing scaling challenge: reducing\ncryogenic wiring as qubit counts increase\n\nWaterloo, Ontario--(Newsfile Corp. - October 7, 2026) - QuantumCore Ltd. (CSE:\nQNCR) (OTCQB: QNCRF) (FSE: K1Y) (\"QuantumCore\" or the \"Company\") is pleased to\nannounce that it has begun development of a third critical technology for its\nquantum computing infrastructure platform: multiplexing microchips, designed\nto significantly reduce the number of physical interconnects required between\nroom-temperature control electronics and quantum processing units (\"QPUs\").\n\nThe development program expands QuantumCore's strategy of building critical\nhardware within the infrastructure layer between the quantum controller and\nthe QPU. Alongside the Company's superconducting quantum amplifier technology\nand single-photon detector platform, QuantumCore believes cryogenic\nmultiplexing represents another potentially essential enabling technology as\nquantum computers scale from hundreds and thousands of physical qubits toward\nsystems containing hundreds of thousands and ultimately one million physical\nqubits.\n\nQuantumCore recently entered into a Sponsored Research Agreement with the\nUniversity of Waterloo covering Cryogenic Multiplexing for Quantum Computer\nApplications. The program is led by Professor Raafat Mansour of Waterloo's\nDepartment of Electrical and Computer Engineering.\n\nAddressing the Million-Qubit Wiring Problem\n\nToday, superconducting quantum computers generally require microwave, DC\ncontrol and readout connections extending from room-temperature electronics\nthrough multiple temperature stages of a dilution refrigerator to the\nmillikelvin environment surrounding the QPU.\n\nAs processors become larger, this architecture creates an increasingly\ndifficult physical and thermal bottleneck. Dense wiring consumes valuable\nspace, adds heat to the extremely limited cooling capacity of the mixing\nchamber, and can introduce signal latency, attenuation and crosstalk. The\nresearch program identifies the cryogenic wiring interconnect bottleneck as\none of the primary obstacles to scaling quantum hardware and notes that\nconventional one-wire-per-qubit approaches are expected to become impractical\nfor million-qubit systems because of thermal, physical and bandwidth\nconstraints.\n\nQuantumCore believes cryogenic multiplexing could fundamentally change this\narchitecture.\n\nInstead of maintaining a dedicated physical signal path for every individual\nqubit, multiplexing switch matrices could allow control and readout\ninfrastructure to be shared and intelligently routed among multiple qubits.\nThe objective is to dramatically reduce the number of cables, connectors and\nfeedthroughs that would otherwise be required as superconducting quantum\nprocessors scale.\n\n\"The industry is working diligently toward quantum computers containing\nhundreds of thousands and eventually one million qubits, but you cannot simply\nscale today's wiring architecture one million times,\" said Eugene Profis,\nChief Executive Officer of QuantumCore. \"The interconnect problem becomes a\nfundamental engineering constraint. We believe cryogenic multiplexing can\nbecome an important part of the solution by allowing signals to be routed at\ncryogenic temperatures and potentially significantly reducing the number of\nphysical connections that have to travel through the refrigerator.\"\n\nWhy Phase-Change Material/Superconducting Switches\n\nQuantumCore's development program will focus on Phase Change Material (PCM)\nswitches and superconducting switch matrices for next-generation cryogenic\ncontrol and readout architectures.\n\nPCM technology is particularly attractive for quantum computing because the\nswitches can provide non-volatile, latching operation. Power is required\nprincipally when changing the state of the switch, with virtually no static\npower required to maintain that state, an important characteristic in a\ncryogenic environment where every additional source of heat can affect system\nperformance.\n\nThe research plan states that PCM switches offer a figure of merit that\nsignificantly surpasses state-of-the-art RF CMOS and RF MEMS technologies,\nmaking them an outstanding candidate for large-scale cryogenic switch matrices\nin future quantum computing platforms.\n\nQuantumCore ultimately intends to develop the technology alongside large\ninterconnect, connector and cabling companies as the quantum computing\nindustry works to develop scalable approaches to reducing the number and\ncomplexity of physical connections entering dilution refrigerators.\n\nThe Company believes this creates an opportunity to bridge two critical parts\nof the emerging quantum hardware ecosystem: advanced cryogenic switching\ntechnology and the physical interconnect infrastructure required to connect\nincreasingly large quantum processors.\n\nWorld-Class RF and Cryogenic Engineering Expertise\n\nProfessor Raafat Mansour is one of Canada's leading experts in microwave\nengineering and radio-frequency (\"RF\") integrated circuits, with significant\nprevious work focused on advanced switching technologies and the development\nof superconducting and cryogenic RF devices. He is a Professor in the\nDepartment of Electrical and Computer Engineering at the University of\nWaterloo, a former Tier 1 Canada Research Chair in Micro-Nano Integrated RF\nSystems, and served two consecutive terms as the NSERC Industrial Research\nChair in RF Technologies.\n\nProfessor Mansour has an exceptional track record of translating university\nresearch into commercial technologies. Technologies developed in his research\nlaboratory have contributed to the co-founding of successful Canadian\ntechnology companies, including AdHawk Microsystems and Integrated Circuit\nScanning Probe Instruments (ICSPI Corp.). Throughout his distinguished career,\nProfessor Mansour has been awarded 41 Canadian and U.S. patents and authored\nmore than 475 peer-reviewed technical publications. His extensive expertise in\nadvanced RF systems, integrated circuit design, cryogenic superconducting\ntechnologies and technology commercialization is expected to support\nQuantumCore's development of scalable cryogenic multiplexing technologies for\nfuture quantum computing platforms.\n\nThe cryogenic multiplexing development program builds on prior work conducted\nin Professor Mansour's laboratory, which has developed other types of advanced\nPCM switches and a wide range of RF superconducting circuits, providing an\nestablished technology and engineering foundation for the new cryogenic\nprogram. Professor Mansour is also already working on a multiplexing device,\nwhich QuantumCore intends to advance and optimize for scalable quantum\ncomputing applications. Building on this existing work, the Company expects to\ndevelop commercial prototypes of its cryogenic multiplexing technology within\nthe next 12 months.\n\nThe collaboration will combine Professor Mansour's technical expertise with\nQuantumCore's commercialization strategy focused on supplying critical\ninfrastructure technologies to the global quantum computing industry.\nProfessor Mansour is the Principal Investigator responsible for the technical\ncontent of the research program.\n\nBuilding the Superconducting Infrastructure Stack\n\nQuantumCore's strategy is to develop a portfolio of technologies addressing\ncritical bottlenecks surrounding the QPU rather than attempting to build the\nquantum computer itself.\n\nPCM multiplexing would occupy an important position within that\nsuperconducting infrastructure stack. Signals originating in room-temperature\ncontrol systems must be transported, routed, conditioned, amplified and\nisolated before and after interacting with the QPU. As qubit counts increase,\nQuantumCore believes greater functionality will need to migrate deeper into\nthe cryogenic environment.\n\nAbout QuantumCore Ltd.\n\nQuantumCore is a quantum technology company focused on building hardware\ninfrastructure intended to support the scaling of next-generation quantum\ncomputing systems. The Company's strategy is centered on developing, acquiring\nand commercializing technologies that operate between classical quantum\ncontrollers and quantum processing units.\n\nQuantumCore's portfolio includes superconducting cryogenic signal\namplification and advanced photon detection technologies, with the objective\nof becoming a leading independent supplier of enabling infrastructure to the\nglobal quantum computing industry.\n\nCautionary Note Regarding Forward-Looking Information\n\nThis news release contains \"forward-looking information\" within the meaning of\napplicable securities laws including, but not limited to, the development,\npotential performance and benefits of the Company's multiplexing technology,\nthe target timing for prototype development, potential collaborations and\ncommercialization, its technology roadmap and the Company's strategies,\nexpectations, planned operations or future actions. Often, but not always,\nforward-looking information can be identified by the use of words such as\n\"believes\", \"expects\", \"intends\", \"plans\", \"targets\", \"may\", \"could\",\n\"should\", \"will\" and similar expressions, including negative variations.\n\nForward-looking information involves known and unknown risks, uncertainties\nand other factors which may cause the actual results, performance or\nachievements of the Company to be materially different from any results,\nperformance or achievements expressed or implied by the forward-looking\ninformation, including the risks that research and development may not produce\nfunctional prototypes or commercial products within anticipated timelines,\nexpected performance or benefits may not be realized, potential collaborations\nmay not result in agreements, and those factors discussed under \"Risk Factors\"\nin the Listing Statement of the Company dated March 31, 2026, which is\navailable under the Company's issuer profile on SEDAR+ at www.sedarplus.ca.\nForward-looking information is based on a number of assumptions, including\nthat the Company will continue to advance and commercialize its technologies\nas planned, that it will have access to sufficient capital and resources, and\nthat market conditions and demand for quantum computing infrastructure will\ndevelop as anticipated. These factors and assumptions should be considered\ncarefully and readers should not place undue reliance on the forward-looking\ninformation. Although the Company has attempted to identify important factors\nthat could cause actual actions, events or results to differ materially from\nthose described in forward-looking information, there may be other factors\nthat cause actions, events or results to differ from those anticipated,\nestimated or intended. The forward-looking information contained herein is\nmade as of the date hereof and the Company disclaims any obligation to update\nany forward-looking information, whether as a result of new information,\nfuture events or results or otherwise, except where required by law. There can\nbe no assurance that this forward-looking information will prove to be\naccurate, as actual results and future events could differ materially from\nthose anticipated in such information. Accordingly, readers should not place\nundue reliance on forward-looking information.\n\nFor more information, please contact:\n\nEugene Profis\nChief Executive Officer\ne: eprofis@qncor.ca\nt: 416-648-4223\n\nTo view the source version of this press release, please visit\nhttps://www.newsfilecorp.com/release/317804"},"type":"article","timestamp":"2026-10-07T11:00:20.424444788Z","server_sent_at_ms":1791370820424},"received_at":"2026-10-07T11:00:20.475Z","source_url":"https://www.newsfilecorp.com/release/317804"},"analysis":{"id":"151354","press_release_id":"162881","analysis_json":{"industry":{"label":"Technology Hardware, Storage & Peripherals","sector":"Information Technology"},"redFlags":["early-stage R&D with no disclosed program budget or financial terms","prototype timeline and commercialization targets are forward-looking and not assured"],"eventType":"operations_update","narrative":"QuantumCore has begun development of cryogenic multiplexing microchips, its third core technology, aimed at reducing the wiring bottleneck between control electronics and quantum processing units as qubit counts scale toward one million.\n\nThe program is backed by a Sponsored Research Agreement with the University of Waterloo, led by Professor Raafat Mansour, a leading Canadian RF and cryogenic engineering expert with 41 patents and prior commercialization successes including AdHawk Microsystems and ICSI.\n\nThe company expects to develop commercial prototypes of the multiplexing technology within the next 12 months, positioning QuantumCore as a supplier of enabling infrastructure rather than building a quantum computer itself.\n\nNo financial terms of the research agreement were disclosed, and commercialization depends on future collaborations with interconnect and cabling companies.","sentiment":"bullish","agentHooks":{"shouldPost":true,"suggestedAngle":"Micro-cap quantum hardware player adds third technology pillar via University of Waterloo partnership targeting the million-qubit wiring problem."},"keyFigures":{"customDimensions":{"patents_held_by_pi":41,"prototype_timeline":"commercial prototypes expected within the next 12 months","publications_by_pi":"more than 475 peer-reviewed publications"}},"quotedText":"The industry is working diligently toward quantum computers containing hundreds of thousands and eventually one million qubits, but you cannot simply scale today's wiring architecture one million times","namedEntities":{"people":[{"name":"Eugene Profis","role":"CEO"},{"name":"Raafat Mansour","role":"Professor, University of Waterloo; Principal Investigator"}],"products":["multiplexing microchips","Phase Change Material (PCM) switches","superconducting switch matrices","superconducting quantum amplifier","single-photon detector platform"],"companies":[{"name":"QuantumCore Ltd.","ticker":"QNCR","relationship":"filer"},{"name":"University of Waterloo","relationship":"research partner"},{"name":"AdHawk Microsystems","relationship":"prior spinout from PI's lab (context)"},{"name":"ICSPI Corp.","relationship":"prior spinout from PI's lab (context)"}],"dollarAmounts":[]},"materialImpact":{"score":2,"reasoning":"Early-stage R&D announcement of a new development program with a university research agreement; no revenue, customers, or concrete financials. Meaningful for the long-term roadmap but not near-term market-moving for a micro-cap."},"tickerRelevance":{"others":[],"primary":"QNCR"},"globalImportance":15,"audienceRelevance":20,"eventTypeSecondary":["partnership"],"importanceComponents":{"tickerTier":"micro-cap (CSE/OTCQB)","eventGravity":"early-stage R&D announcement","sectorWeight":"quantum computing theme interest","issuerAuthored":true}},"event_type":"operations_update","event_type_secondary":["partnership"],"sentiment":"bullish","material_impact_score":2,"narrative":"QuantumCore has begun development of cryogenic multiplexing microchips, its third core technology, aimed at reducing the wiring bottleneck between control electronics and quantum processing units as qubit counts scale toward one million.\n\nThe program is backed by a Sponsored Research Agreement with the University of Waterloo, led by Professor Raafat Mansour, a leading Canadian RF and cryogenic engineering expert with 41 patents and prior commercialization successes including AdHawk Microsystems and ICSI.\n\nThe company expects to develop commercial prototypes of the multiplexing technology within the next 12 months, positioning QuantumCore as a supplier of enabling infrastructure rather than building a quantum computer itself.\n\nNo financial terms of the research agreement were disclosed, and commercialization depends on future collaborations with interconnect and cabling companies.","key_figures":{"customDimensions":{"patents_held_by_pi":41,"prototype_timeline":"commercial prototypes expected within the next 12 months","publications_by_pi":"more than 475 peer-reviewed publications"}},"named_entities":{"people":[{"name":"Eugene Profis","role":"CEO"},{"name":"Raafat Mansour","role":"Professor, University of Waterloo; Principal Investigator"}],"products":["multiplexing microchips","Phase Change Material (PCM) switches","superconducting switch matrices","superconducting quantum amplifier","single-photon detector platform"],"companies":[{"name":"QuantumCore Ltd.","ticker":"QNCR","relationship":"filer"},{"name":"University of Waterloo","relationship":"research partner"},{"name":"AdHawk Microsystems","relationship":"prior spinout from PI's lab (context)"},{"name":"ICSPI Corp.","relationship":"prior spinout from PI's lab (context)"}],"dollarAmounts":[]},"model_name":"glm-5.3-flashx","prompt_hash":"sha256:5c812bd9e28b810d","schema_hash":"sha256:05005c02d9cffac9","created_at":"2026-10-07T11:00:26.816Z","global_importance":15,"audience_relevance":20,"importance_components":{"tickerTier":"micro-cap (CSE/OTCQB)","eventGravity":"early-stage R&D announcement","sectorWeight":"quantum computing theme interest","issuerAuthored":true}},"durationMs":6329,"modelName":"glm-5.3-flashx"}}