Iyakar Quantum Suna Matsawa: Hatsarin Shor na 10,000-Qubit

TL;DR. Shor's algorithm yanzu yana iya gudana akan qubits 10,000 kawai. RSA, ECC da jadawalin ƙaura na post-quantum duk suna matsawa gaba. Ga dalilin.

Points clés

Iyakar Quantum Suna Sake Motsi. Sabuwar takarda tana ba da shawarar cewa Shor's algorithm na iya gudana akan qubits 10,000 kawai.
Zato da Aka Saba da Shi, Yanzu Yana Fuskantar Matsi. A cikin shekaru goma da suka gabata, tattaunawa game da quantum computing da cryptography sun bi tsarin da aka saba da shi.
Haɗuwar da ke Kore Canjin: Error Correction, Architecture, da Parallelism. Sakamakon bai fito daga gano abu guda ɗaya ba.
Daga Miliyoyi zuwa Dubun-dubatar: Menene Lambobin Suke Nufi na Zahiri. Shekaru da dama, ƙididdigar da aka yi daidaituwa akai don gudanar da Shor's algorithm a sikelin cryptographic tana buƙatar miliyoyin physical qubits.

Iyakar Quantum Suna Sake Motsi

Sabuwar takarda tana ba da shawarar cewa Shor's algorithm na iya gudana akan qubits 10,000 kawai. Iyakar quantum computing mai dacewa da cryptography tana raguwa da sauri fiye da yadda yawancin mutane suka zata.

Muhimman Abubuwan da Aka Koya

Sabuwar takarda tana ba da shawarar cewa Shor's algorithm na iya aiki akan ƙananan physical qubits har 10,000. Kusan sau ɗari ƙasa da ƙididdigar da aka yi daidaituwa akai a baya.

Raguwar tana faruwa ne saboda ci gaba guda uku da suka haɗu: high-rate quantum error-correcting codes, reconfigurable neutral atom arrays, da kuma increased parallelism.

Barazanar ba ɗaya take ba. Elliptic Curve Cryptography (ECC) ya fi kasancewa cikin haɗari a ƙananan adadin qubits; RSA-2048 yana buƙatar runtimes masu tsayi sosai a sikelin da za a iya kwatanta su.

Wannan hasashe ne na ka'ida (theoretical projection), ba nuni na aiki na zahiri ba. Har yanzu akwai babban engineering gap tsakanin hardware na yanzu da fault-tolerant operation a wannan sikelin.

An riga an kammala post-quantum cryptographic standards. Abin da ke da muhimmanci yanzu shi ne haɓaka migration. Ba wai jiran sai an ƙirƙiri tsarin quantum (quantum system) ba.

Zato da Aka Saba da Shi, Yanzu Yana Fuskantar Matsi

A cikin shekaru goma da suka gabata, tattaunawa game da quantum computing da cryptography sun bi tsarin da aka saba da shi. An yarda cewa na'urorin quantum suna da ƙarfi a ka'ida, duk da haka ana ɗaukarsu marasa amfani a zahiri a babban sikeli. Rushe tsarin cryptography na zamani zai buƙaci miliyoyin physical qubits, kuma jadawalin lokacin ya kasance mai nisa. Wannan zaton yanzu yana fuskantar matsi mai tsanani.

Wata takarda ta kwanan nan, Shor's algorithm yana yiwuwa tare da qubits na atomic reconfigurable 10,000 kawai ⧉, tana ba da shawarar wani abu mafi tasiri fiye da gano wani abu guda ɗaya kawai. Tana nuna cewa iyaka (threshold) don quantum computation mai dacewa da cryptography na iya kasancewa ƙasa da abin da aka yi imani da shi a baya da kusan ninki goma. Ba miliyoyin qubits ba, amma dubun-dubatar kawai. Wannan bambanci yana da mahimmanci, kuma alkiblar da yake nunawa yana da wuyar watsi da ita.

Haɗuwar da ke Kore Canjin: Error Correction, Architecture, da Parallelism

Sakamakon bai fito daga gano abu guda ɗaya ba. Yana nuna haɗuwar ci gaba a fannoni da yawa na quantum computing stack waɗanda, idan aka haɗa su wuri ɗaya, suna canza iyakokin abin da ake gani zai yiwu.

Ci gaba na farko ya shafi error correction. Hanyoyin gargajiya suna buƙatar babban overhead, galibi ɗaruruwan physical qubits don wakiltar kwayar logical qubit guda ɗaya. Ita kuwa wannan takarda ta dogara ne akan high-rate quantum error-correcting codes, waɗanda ke rage wannan overhead ɗin sosai. (Emergent Mind ⧉) Na biyu kuma ya shafi architecture. An gina tsarin ne akan reconfigurable arrays of neutral atoms, waɗanda za a iya sake tsara su yayin gudanar da lissafi don ba da damar ƙarin haɗin gwiwa mai sauƙi da ingantaccen aiki. (The Quantum Insider ⧉) Na uku shi ne parallelism: haɓaka adadin qubits yana ba da damar gudanar da ƙarin ayyuka a lokaci guda, wanda ke rage jimillar lokacin gudanarwa.

Babu ɗayan waɗannan ra'ayoyin da yake sabo idan aka ɗauke shi shi kaɗai. Koyaya, idan aka haɗa su, suna sake tsara abin da a baya aka ɗauka a matsayin iyaka mai wuyar ketarewa.

Daga Miliyoyi zuwa Dubun-dubatar: Menene Lambobin Suke Nufi na Zahiri

Shekaru da dama, ƙididdigar da aka yi daidaituwa akai don gudanar da Shor's algorithm a sikelin cryptographic tana buƙatar miliyoyin physical qubits. Sabon binciken ya nuna cewa, a ƙarƙashin wasu zato, wannan adadin na iya raguwa zuwa kusan 10,000. (arXiv ⧉) Wannan adadin, duk da haka, ba shi ne cikakken hoton ba.

A mafi ƙanƙancin sashi na wannan kewayon, runtimes suna kasancewa da tsayi. Warware RSA-2048 a ƙananan qubits na iya ɗaukar shekaru na aiki ba tare da tsayawa ba. Gudanarwa cikin sauri yana buƙatar ƙarin qubits, wataƙila a cikin dubun-dubatar. Alaƙar da ke tsakanin adadin qubit da runtime ba ta tafiya layi ɗaya (not linear) ba ce, kuma takardar tana da hankali wajen gabatar da wannan azaman spectrum maimakon tsayayyen iyaka. Abin da ke canzawa shi ne alkibla: shingen ba na ka'ida ba ne kawai yanzu. Yanzu ya zama batun injiniya (engineering).

Tsoffin Zato vs. Sabbin Gaskiya

Sashi	Tsohon Zato	Sabuwar Gaskiya
Physical qubits da ake buƙata (Shor's algorithm)	~1,000,000+	~10,000–26,000
Lokacin wargaza RSA-2048 (a mafi ƙanƙancin qubits)	Ba zai yiwu ba a wannan shekaru goman	Shekaru (a qubits 10K); da sauri idan aka ƙara
Lokacin wargaza ECC-256	Ba zai yiwu ba a wannan shekaru goman	Kwanaki (an kiyasta a kusan qubits 26K)
Babban tsarin hardware	Superconducting qubits	Reconfigurable neutral atom arrays
Error correction overhead	Ɗaruruwan physical qubits ga kowane logical qubit	An rage shi sosai ta hanyar high-rate codes
Yanayin shingen	Na ka'ida (Theoretical)	Na injiniya (Engineering)
Gaggawar migration	Shirye-shiryen dogon lokaci	Ana buƙatar active deployment yanzu

Tushe: Bincike bisa ga arXiv:2603.28627 ⧉ da wallafe-wallafen baya.

Lokaci, Sikeli, da Rashin Daidaiton Haɗarin Tsarin Cryptographic

Ɗaya daga cikin mahimman gudunmawar wannan takarda ita ce cikakken bayani da ta gabatar game da lokaci. Quantum advantage ba ya zuwa lokaci ɗaya gaba ɗaya. Yana wanzuwa ne tare da wani spectrum wanda aka ƙaddara ta sikelin tsarin da kuma yanayin cryptographic target ɗin.

Tare da kusan qubits 26,000, marubuta sun kiyasta cewa wargaza elliptic curve cryptography na iya ɗaukar kwanaki a ƙarƙashin yanayi mai kyau. (arXiv ⧉) Ga RSA-2048, lokutan sun fi tsayi sosai. Wannan rashin daidaito (asymmetry) yana da mahimmanci. Yana nuna cewa tsarin cryptographic daban-daban na iya kasancewa cikin haɗari a lokuta daban-daban, maimakon a lokaci guda, kuma canji zuwa post-quantum standards ba zai zama abu ɗaya mai ƙayyadadden lokaci ɗaya ba.

Wannan tsarin ya yi daidai da sauran rahotanni masu faɗi. Bincike na watannin baya-bayan nan ya nuna cewa quantum systems masu iya ƙalubalantar ɓoyayyen sirri (encryption) da aka fi amfani da shi na iya bayyana kafin ƙarshen shekaru goman nan. (Nature ⧉) Gwamnati da hukumomin kafa ƙa'idoji sun riga sun tsara sauye-sauye zuwa post-quantum cryptography, tare da jadawalin aiwatarwa da ya kai har zuwa shekarun 2030. (The Quantum Insider ⧉) Tattaunawar ta canza daga tambayar ko zai yiwu zuwa yaushe zai faru.

Gibin Injiniya (Engineering Gap) Da Ya Rage

Yana da mahimmanci a bayyana ainihin abin da wannan takarda ke wakilta. Wannan hasashe (projection) ne, ba nuni (demonstration) ba ne. Tsarin da aka ba da shawarar ya dogara ne akan zato game da adadin kuskure (error rates), kwanciyar hankali na hardware, da halayen sikeli (scaling behaviour) waɗanda ba a riga an tabbatar da su a sikelin da ake buƙata ba. Gwaje-gwaje na yanzu suna aiki ne a matakin ɗaruruwa zuwa ƙananan dubbai na qubits, ba dubun-dubatar da ke aiki cikin yanayin fault-tolerantly na tsawon lokaci ba. (Phys.org ⧉)

Babban engineering gap ya rage. Hanyar daga kyakkyawan tsarin ka'ida zuwa ingantaccen tsarin da zai iya gudanar da aikin fault-tolerant a wannan sikelin ya ƙunshi ƙalubalen da har yanzu ba a gama fahimtar su sosai ba, balle a warware su. Abin da ya canza ba kusa da samun inji mai aiki ba ne, a'a, amincin makasudin (target) ne. Gibin yana raguwa, kuma alkiblar ci gaba tana tafiya akai-akai.

Dalilin da Ya Sa Matsatson Jadawalin Lokaci Ke Buƙatar Hankali Yanzu

Muhimmancin wannan aikin ba wai za a wargaza cryptography nan ba da jimawa ba ne. A'a, shi ne cewa jadawalin lokacin yana matsewa ta hanyoyin da ke shafar shawarwarin da aka yanke a yau. An tsara tsarin tsaro tare da la'akari da tsawon rayuwarsu (lifecycles). Bayanai da aka ɓoye (encrypted) yanzu na iya buƙatar kasancewa a asirce na tsawon shekaru da yawa. Shawarwarin samar da ababen more rayuwa (infrastructure) da aka yanke a wannan shekara zai yi wuya a sauya su a cikin shekaru biyar. Idan ƙarfin quantum ya zo da wuri fiye da yadda ake tsammani, waɗancan zato za su zama masu rauni.

Wannan ne ya sa aka riga aka fara tura (deployed) post-quantum cryptography a cikin muhimman sassa. Ba wai saboda barazanar tana nan take ba, amma saboda canjin yana ɗaukar lokaci kuma asarar jinkiri ba ta da daidaito (asymmetric). Akwai wani tsari da ke sake faruwa a tarihin na'urorin kwamfuta: ci gaba yana bayyana a hankali har sai ya zama da sauri ba zato ba tsammani. Abin da ya fara azaman ingantaccen ka'ida ya zama tabbataccen shinge a aikace, kuma abin da aka yi watsi da shi a baya a matsayin mai nisa ya zama abin da dole ne a tsara shi. Quantum computing na iya bin daidai wannan tafarkin, ba ta hanyar gano wani abu mai ban mamaki guda ɗaya ba, amma ta hanyar raguwar farashi, sarƙaƙiya, da sikeli akai-akai.

Menene Wannan Ke Nufi ga Masana'antu: Jagora na Aikace-aikace

Tasirin wannan binciken ba ɗaya yake ba a duk sassan. Amsar da ta dace ta dogara ne akan nau'ikan cryptographic assets da ke cikin haɗari, ƙwarewa da tsawon rayuwar bayanan da abin ya shafa, da kuma saurin da tsammanin hukumomin tsara dokoki (regulatory expectations) ke tafiya.

Ayyukan Kuɗi da FinTech

Cibiyoyin kuɗi suna fuskantar haɗari mai yawa: suna riƙe da bayanai masu mahimmanci na dogon lokaci, suna aiki akan infrastructure mai saurin canji a hankali, kuma suna ƙarƙashin ƙarin binciken hukumomin tsara dokoki game da juriya ta cryptographic (cryptographic resilience). Ana amfani da ECC sosai a haɗin TLS, tabbatar da wayar salula (mobile authentication), da sa hannu na dijital (digital signatures) a cikin hanyoyin biyan kuɗi (payment rails). Rukunin cryptographic da takardar ta bayyana a matsayin mafi sauƙin kai wa hari a ƙananan adadin qubits. Cibiyoyin da ba su riga sun fara binciken cryptographic na cikin gida ba ko ƙaddamar da hanyar ƙaura zuwa post-quantum (post-quantum migration roadmap) ya kamata su ɗauki wannan takarda azaman faɗakarwa don hanzarta aiki, ba dalilin firgita ba. CRYSTALS-Kyber da CRYSTALS-Dilithium, waɗanda NIST ta daidaita su yanzu, su ne makasudin migration da suka dace don key encapsulation da digital signatures bi da bi.

Gwamnati da Tsaro

Hukumomin matakin jiha suna da ƙwaƙƙwaran ƙwarin gwiwa. Kuma a yawancin lokuta suna da albarkatu don haɓaka haɓakar quantum hardware fiye da abin da aka sani a bainar jama'a. Gwamnatocin da ke riƙe da sadarwa mai mahimmanci, bayanan sirri (intelligence), ko makullan muhimman ababen more rayuwa (critical infrastructure keys) dole ne su ɗauka cewa abokan gaba sun riga sun tattara bayanan da aka ɓoye (encrypted data) don ɓoyewa a nan gaba, dabarar da aka sani da "harvest now, decrypt later." Ga ƙungiyoyin jama'a, bin umarnin ƙasa na shirye-shiryen quantum (national quantum-readiness mandates) yana ƙara zama dole, kuma damar yin migration kafin lokaci tana raguwa.

Kiwon Lafiya da Muhimman Ababen More Rayuwa

Bayanan kiwon lafiya, tsarin kula da kayan aiki (utility control systems), da hanyoyin sadarwa na masana'antu (industrial networks) suna da matsala ɗaya ta haɗari: bayanai da tsarin da ke da tsawon rayuwar aiki (operational lifespans), waɗanda aka kiyaye su ta hanyar ƙa'idodin cryptographic waɗanda aka tsara don tsarin barazanar pre-quantum (pre-quantum threat model). Bayanin likita da aka ɓoye a yau na iya buƙatar kasancewa na sirri na tsawon shekaru hamsin. Tsarin kula da aka amince da shi a wannan shekarar na iya kasancewa cikin aiki na tsawon shekaru guda ashirin. Ga waɗannan sassan, matsatson jadawalin lokaci ba abin damuwa ba ne na shaci-faɗi. Yana da kalubale kai tsaye ga ginshikin zato na tsarin tsaro (security architectures) na yanzu.

Kammalawa

Mafi mahimmancin sashi na wannan takarda ba takamaiman adadin qubit da ta gabatar ba ne. Shi ne alkiblar da wannan adadin yake nunawa. Tambayar ba wai ko quantum computers za su iya ƙalubalantar cryptography na zamani ba ne. Ita ce yaya sauri za a iya gina tsarin da ake buƙata, kuma ko ƙungiyoyin da suka dogara da ƙa'idodin yanzu suna tafiya da sauri don mayar da martani.

A halin yanzu, amsoshin sun kasance marasa tabbas. Amma damar jinkirta tambayar tana raguwa, kuma asarar jiran tana ƙaruwa tare da kowane raguwa na gaskiya a cikin iyakar ka'ida (theoretical threshold). Al'ummar cryptographic, masu tsara tsaro, da masana'antun da suka dogara da su za su yi daidai su ɗauki wannan takarda ba a matsayin dalilin firgita ba, amma a matsayin kira mai tsanani na hanzarta sauye-sauye da aka riga aka fara gudanarwa.

Tambayoyi da Ake Yawan Yi

Shin qubits 10,000 za su iya wargaza RSA encryption da gaske?

A ka'ida, kwarai kuwa. Amma tare da muhimman caveats (kariya). Yayin da ƙididdigar da aka yi a baya suka ba da shawarar cewa ana buƙatar miliyoyin physical qubits, sabon bincike kan high-rate error correction codes da reconfigurable neutral atom arrays yana nuna cewa iyakar tana da matuƙar ƙasa. Koyaya, a qubits 10,000, kiyasin runtime don warware RSA-2048 ya kasance mai tsayi sosai. Wataƙila shekaru na aiki ba tare da tsayawa ba. Hare-hare mafi sauri suna buƙatar ƙarin qubits, wataƙila a cikin dubun-dubatar. Takardar tana wakiltar hasashe ne (projection) bisa ga tsammanin da aka kwatanta, ba nuni ba ne akan tsarin da ke aiki na zahiri.

Wanne encryption ne ya fi fuskantar haɗari daga quantum computing?

Elliptic Curve Cryptography (ECC) ya fi kasancewa cikin haɗari a ƙananan qubits fiye da RSA-2048. Takardar ta kiyasta cewa wargaza ECC na iya ɗaukar kwanaki ta amfani da kusan qubits 26,000 reconfigurable a ƙarƙashin kyawawan yanayi. RSA-2048 yana buƙatar tsawon runtime mai yawa a sikelin qubit makamancin haka. Wannan rashin daidaito (asymmetry) yana nufin tsarin da ke dogara da ECC. Waɗanda aka saba amfani da su a TLS, mobile authentication, da blockchain. Suna iya fuskantar haɗari a cikin ɗan gajeren lokaci fiye da infrastructure da ke dogara da RSA.

Menene reconfigurable neutral atom qubit?

Neutral atom qubits atoms ne guda ɗaya. Yawanci rubidium ko caesium. Waɗanda aka kama kuma aka sarrafa su ta amfani da hasken laser a cikin vacuum chamber. "Reconfigurable" yana nufin tsarin atom ɗin ana iya canza shi ta hanyar da ta dace (dynamically) yayin lissafi, wanda ke ba da damar ingantaccen aiki na hadaddun da'irori na quantum. Wannan sassauci yana rage adadin physical qubits da ake buƙata don aiwatar da fault-tolerant logical operations, kuma wannan babban dalili ne da ya sa sabuwar takardar ta sami ƙananan kiyasin qubit fiye da ayyukan baya waɗanda suka dogara akan tsarin superconducting qubit architectures.

Menene post-quantum cryptography kuma me yasa ake tura shi yanzu?

Post-quantum cryptography (PQC) yana nufin algorithms na cryptographic waɗanda aka yi imanin suna da aminci daga kwamfyutocin gargajiya da na quantum. NIST ta kammala saitin farko na ka'idojin PQC a cikin 2024, gami da CRYSTALS-Kyber don key encapsulation da CRYSTALS-Dilithium don digital signatures. A halin yanzu ana fara tura (deployment) su yanzu. Tun kafin quantum computers su zama barazana ta gaggawa. Domin canjin cryptographic yana tafiya a hankali. Sauya ƙa'idodin da aka saka a cikin infrastructure na duniya yawanci yana ɗaukar shekaru goma ko fiye, kuma bayanan da aka ɓoye a yau na iya buƙatar kasancewa cikin asiri na dogon lokaci bayan ƙarfin quantum ya girma.

Qubits nawa ne mafi ƙarfin kwamfutar quantum ke da shi a yau?

Ya zuwa farkon shekarar 2026, manyan quantum systems suna aiki a cikin kewayon ɗaruruwa zuwa ƙananan dubbai na physical qubits. Mafi mahimmanci, yawancinsu ba su zama fault-tolerant ba tukuna. Suna aiki a ƙarƙashin ƙimar error-correction da ake buƙata don dorewa, amintaccen logical computation. Gibin da ke tsakanin hardware na yanzu da dubun-dubatar high-fidelity, fault-tolerant logical qubits da aka bayyana a cikin sabuwar takardar ya kasance mai girma, kodayake saurin ci gaba a duk faɗin superconducting, neutral atom, da trapped-ion platforms yana ƙaruwa.

Manazarta

Sebastien Rousseau, (2025). Biyan kuɗi na Quantum-Safe: Dalilin da ya sa Masana'antar Biyan Kuɗi Ke Buƙatar Yin Aiki Yanzu.
Sebastien Rousseau, (2023). Quantum Key Distribution: Sauya Tsaron Banki.
Sebastien Rousseau, (2023). [CRYSTALS-Kyber: Algorithm na Karewa a Lokacin Quantum](https://sebastienrousseau.com/2023-11-19-crystals-kyber-the-safeguarding-algorithm-in-a-quantum-age/index.html "CRYSTALS-Kyber: Algorithm na Karewa a Lokacin Quantum").
Anonymous, (2026). Shor's algorithm yana yiwuwa tare da qubits na atomic reconfigurable 10,000 kawai ⧉. arXiv preprint arXiv:2603.28627.
Castelvecchi, D. (2026). Ci gaban Quantum-computing yana haifar da haɗari ga ɓoyayyen sirri (encryption) ⧉. Nature.
Phys.org, (2026). Ana iya gina kwamfyutocin quantum masu amfani da ƙananan qubits har 10,000 kawai ⧉. Phys.org.

An duba na ƙarshe a 2026-06-23.

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Bita ta ƙarshe 2026-07-06.

Sake buga wannan labari

Iyakar Quantum Suna Matsawa: Hatsarin Shor na 10,000-Qubit — Sebastien Rousseau

Shor's algorithm yanzu yana iya gudana akan qubits 10,000 kawai. RSA, ECC da jadawalin ƙaura na post-quantum duk suna matsawa gaba. Ga dalilin.

An lasisin wannan labari a karkashin Creative Commons Attribution 4.0 International. Sake bugawa na bukatar nuna asalin URL na asali.

Iyakar Quantum Suna Matsawa: Hatsarin Shor na 10,000-Qubit — Sebastien Rousseau

Shor's algorithm yanzu yana iya gudana akan qubits 10,000 kawai. RSA, ECC da jadawalin ƙaura na post-quantum duk suna matsawa gaba. Ga dalilin.

Originally published at https://sebastienrousseau.com/ha/2026-04-11-quantum-thresholds-are-moving-again/ by Sebastien Rousseau.
Licensed under CC-BY-4.0.

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