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192
results.
Updated on
28/07/2026 [07:43:00]
Results 150 to 175 of 192
Absstract of: JP2026118421A
【課題】実施形態に係るシステムは、バーチャル店舗においてユーザの購買履歴や行動データを解析し、最適な商品やサービスをレコメンドすることを目的とする。【解決手段】実施形態に係るシステムは、収集部と、分析部と、レコメンド部と、フィードバック収集部と、改善部と、コミュニティ提供部とを備える。収集部は、ユーザの購買履歴や行動データを収集する。分析部は、収集部によって収集されたデータを分析する。レコメンド部は、分析部によって得られた分析結果に基づいて商品やサービスをレコメンドする。フィードバック収集部は、ユーザのレビューやフィードバックを収集する。改善部は、フィードバック収集部によって収集されたレビューやフィードバックを分析して新商品の開発や既存商品の改善を行う。コミュニティ提供部は、特定のコミュニティでしか手に入らない特別な商品やサービスを提供する。【選択図】図１
Absstract of: JP2026117540A
【課題】実施形態に係るシステムは、ＡＩエージェントの認定資格制度を運営するためのセキュリティサービスを提供することを目的とする。【解決手段】実施形態に係るシステムは、組織部と、担当部と、検証部とを備える。組織部は、ＡＩエージェントの集合体を組織する。担当部は、組織部によって組織された各ＡＩエージェントが申請受理、試験、審査、認定、監査などのタスクを担当する。検証部は、自律型審査官ＡＩエージェントが物理ロボットとの連携を通じてＡＩエージェントの行動能力や対話能力を検証する。【選択図】図１
Absstract of: JP2026117710A
【課題】実施形態に係るシステムは、工場ロボットの認知能力を拡張し、作業効率と柔軟性を向上させることを目的とする。【解決手段】実施形態に係るシステムは、キャプチャ部と、統合部と、検索部と、復元部と、保護部とを備える。キャプチャ部は、音声、テキスト、画像データをリアルタイムでキャプチャする。統合部は、キャプチャ部によってキャプチャされたデータを統合し、作業文脈を理解する。検索部は、統合部によって理解された作業文脈に基づいて、自然言語で指示を受け必要な情報を検索する。復元部は、検索部によって検索された情報に基づいて中断した作業を復元する。保護部は、エッジＡＩによるプライバシー保護を行う。【選択図】図１
Absstract of: US20260204338A1
A computing system for fragment-based quantum mechanical calculation of protein properties is provided. A processor implements a protein fragmentation module that separates a computer-readable polypeptide sequence into a plurality of data units. For each subsequence of three adjacent amino acids in the polypeptide sequence, a first amino acid, a second amino acid, and a third amino acid are identified, each amino acid having a respective main chain including an amino group, a carbon, and a carboxyl group, and a side chain attached to the alpha carbon. The protein fragmentation module generates a data unit representing a first alpha carbon, a first carboxyl group, a second amino group, a second alpha carbon, a second carboxyl group, a second side chain, a third amino group, and a third alpha carbon, and stores the generated data unit in the memory.
Absstract of: US20260203628A1
0000 Methods and apparatus for communicating information among client devices involve encoding information in photon states at client devices, sending the photon states to a hub device, loading the photon states into quantum systems of the hub device and comparing the loaded photon states, e.g. by a parity measurement. The hub may provide quantum entanglement that may be consumed in making parity measurements. Applications include quantum key distribution.
Absstract of: US20260203638A1
0000 A decoder apparatus for use in a radio communications system comprises a quantum circuit (540) configured to receive an output from a communications channel that comprises a radio channel, and to decode the output into output information symbols. The quantum circuit comprises a quantum neural network, QNN, (542) with a plurality of trainable QNN weights, where the QNN comprises at least a first embedding layer, configured to receive the output from the communications channel and to encode the output into first qubits, and a first transforming layer, configured to transform the qubits using a plurality of quantum gates, the first embedding layer implementing weighted rotation angle embedding of the output from the communications channel using at least a first trainable weight.
Absstract of: US20260206638A1
The invention relates to a packaging structure for a superconducting quantum processing unit. The packaging structure comprises a ceramic support portion for supporting a quantum processing unit, the support portion including a plurality of electrical connections for connecting the quantum processing unit to a plurality of electrical contacts on an exterior surface of the ceramic packing structure. The invention also relates to a packaged quantum processing unit and method for packaging a quantum processing unit using the above packaging structure.
Absstract of: US20260204452A1
0000 There is presented a method for outputting at least first and second electromagnetic, EM, signals for respectively interacting with spatially separated first and second matter particles in an interaction region. The matter particles act as qubits for use with a quantum computation. The interaction of the EM signals with the qubits is associated with a Hamiltonian operator comprising at least a first and a second element. EM radiation is generated using an EM source. The EM radiation is modulated by the with a first modulator configured to temporally modulate the EM radiation within a computation time period. The first modulator is associated with the first element of the Hamiltonian operator. The EM radiation is modulated with a second modulator configured to modulate the EM radiation such that the first EM signal is spatially separate to the second EM signal in the interaction region. The second modulator is associated with the second element of the Hamiltonian operator. The one or more EM signals are output based on the modulated EM radiation, to the plurality of matter particles.
Absstract of: US20260203629A1
A driver circuit for a qubit comprises a first Josephson junction or first array of Josephson junctions, having a first critical current, and a second Josephson junction or second array of Josephson junctions, having a second critical current. An inductive path connects a first side of the first junction to a first side of the second junction, and ground connections connect respective second sides of the first junction and the second junction to a fixed reference potential. The data input and pulse output are at an intermediate point of said inductive path. The driver circuit comprises a differential clock input comprising two connections through respective inductors, one to said first half of said first junction and the other to said first half of said second junction. Said first and second critical currents differ from each other by a predefined offset.
Absstract of: US20260204451A1
0000 The invention relates to an ion surface trap (10) with an electrode pair (12) that comprises a first trap electrode (14.1) and a second trap electrode (14.2) and is configured to form a trap volume for at least one ion when an electrical AC voltage is applied, and a sensor element (18) for detecting photons (20) emitted by at least one ion, wherein the sensor element (18) comprises a superconductor layer and forms the second trap electrode (14.2) and does not have a superconductor layer-separating layer-superconductor layer structure.
Absstract of: US20260203637A1
0000 A quantum processing system configured to implement a transversal action of a logical gate on a triply even quantum code or a triply even quantum polar code encoding K logical qubits into N physical qubits, wherein the logical gate is a tensor product of K elementary logical gates acting on the corresponding K logical qubits.
Absstract of: US20260203627A1
0000 Electronic apparatus for storing quantum information. The apparatus includes: a cat qubit electromagnetic resonator having a resonance frequency ω; a buffer electromagnetic resonator having a resonance frequency ω; a non-linear coupling element; coupler for coupling an electromagnetic wave at frequency ωand for coupling an electromagnetic wave at frequency 2ω−ω; and a dissipation device coupled to the cat qubit resonator and to the buffer resonator through the non-linear coupling element. A four-wave mixing involving two photons at frequency ω, one photon at frequency ωand a photon of the electromagnetic wave at frequency 2ω−ωis performed. The coupler is further configured for coupling a third electromagnetic wave at a frequency (2n+1)ω+ω−ω
Absstract of: EP4776189A1
0001 An information processing apparatus acquires measurement data indicating measurement values of quantum states of qubits measured after a quantum computer has repeatedly executed, a plurality of times, a quantum gate sequence including a plurality of quantum gates for the qubits. The information processing apparatus divides a space to which a matrix indicating a quantum operation by the quantum gate sequence belongs into a first subspace including a singular point at which eigenvalues satisfying predetermined conditions are calculated, and a second subspace that does not include the singular point, and generates, within a range of the second subspace, a function that linearly approximates an influence of an error of a quantum gate included in the plurality of quantum gates on the measurement value. The information processing apparatus estimates, by using the function and the measurement data, the error of the quantum gate when the quantum computer executes the quantum gate.
Absstract of: WO2025230561A2
Example embodiments provide methods, systems, apparatuses, products and/or the like for reflecting, collecting, entangling, and/or detecting photons generated by quantum objects. In various embodiments a quantum entanglement apparatus is provided. The quantum entanglement apparatus comprising a first reflecting component on a first surface of a first quantum object confinement component, the first reflecting component configured to reflect a first emitted photon emitted by a first quantum object, a first photonic integrated circuit on a first side of the first quantum object confinement component, a first collection component optically coupled to the first photonic integrated circuit, wherein the first collection component is configured to collect the first emitted photon reflected by the first reflecting component, a first detector configured to detect photons traversing a first optical path of the first photonic integrated circuit, and a first filter along the first optical path.
Absstract of: WO2025058895A2
A controller of a quantum system causes performance of a single qubit gate on a target qubit. The controller causes a dressing field circuit to generate a dressing field at a target location where the target qubit is located. The dressing field modifies a set of initial states into a set of superposition states. A first (second) dressed state of the set of superposition states includes a non-zero contribution from a first (second) qubit state of the set of initial states. A dressed frequency difference between the first and second dressed states and a qubit frequency difference between the first and second qubit states are different. The controller causes a gate microwave signal characterized by the dressed frequency difference plus the qubit frequency difference to be incident on the target location. After a gate time, the controller controls operation of the dressing field circuit to stop generating the dressing field.
Absstract of: WO2025011913A1
The invention relates to a method (100) for determining a ground state (1001) of a quantum system, comprising the steps: providing (101) a hybrid variational quantum algorithm and executing (102) the hybrid variational quantum algorithm (1010) on a hybrid computer platform, comprising a non-quantum computer and a quantum computer for executing the quantum circuit (1011), the execution of the hybrid variational quantum algorithm (1010) comprising the following: determining (1025) the gate parameters (1020) by solving the differential equation, comprising the equation matrix and the equation vector, on the non-quantum computer, and determining (1026) the imaginary development over time of the gate parameters (1020), determined by solving the differential equation, for a time step by applying the Runge-Kutta method. The invention also relates to a hybrid computer platform, to a hybrid variational quantum algorithm, and to a use of the method for material simulation.
Absstract of: GB2703138A
An interactive generative music system trains a Large Music Model (analogous to a Large Language Model like ChatGPT) and uses quantum reservoir computing to generate polyphonic (16a-c) output compositions in real time based on input notes (15) played by a user. Input signals are mapped into high dimensional spaces via fixed non-linear quantum circuit made of quantum gates. Further input means may interactively adjust weights in the output layer to control the ‘creativity/abstractness’ of the system ‘on the fly’(20). Reservoir computing increases the effective number of qubits from Noisy Intermediate Scale Quantum (NISQ) device level (tens or hundreds) towards Fault Tolerant Quantum Computing (FTQT) level. Figure 1
Absstract of: WO2025052199A1
The present invention relates to a Quantum computing module including: an input (2) comprising a mode separator (15), configured to separate an electrical transverse mode TE and a magnetic transverse mode TM of an input quantum in two parallel paths, a first and a second path (5, 10 ), parallel to each other, respectively for the said magnetic transverse mode TM and for the said electric transverse mode TE, located downstream of said mode separator (15), each path being characterized by: a single-mode waveguide (4), mode handling media (20), including at least first phase change media (22); an output 3 comprising means of combining modes (25), arranged to join the two parallel paths (5, 10); where : a) the two parallel paths (5, 10) are distinguished from each other at least because the first path (5) includes : the first means of transformation (30) of the magnetic transverse mode TM in the transverse electric mode TE located upstream of these means of manipulation (20), second means of transformation (32) of the transverse electric mode TE into transverse magnetic mode TM located downstream of these means of manipulation (20); or b) the two parallel paths (5, 10) are distinguished f rom each other at least because the second path (5) includes : the first means of transformation of the electric transverse mode TM into a magnetic transverse mode TM located upstream of these means of manipulation (20), second means of transformation of the magnetic transverse mode TM into an e
Absstract of: US2025086490A1
0000 A controller of a quantum system causes a dressing field circuit to generate a dressing field at a target location where one or more target qubits are located. The dressing field modifies a set of initial states into a set of superposition states. A first (second) dressed state of the set of superposition states includes a non-zero contribution from a first (second) qubit state of the set of initial states. A dressed frequency difference between the first and second dressed states and a qubit frequency difference between the first and second qubit states are different. The dressing field is configured to generate first and second dressed states having a desired level of sensitivity (e.g., energy/frequency dependence) on the component of the external magnetic field that is in the quantization direction of the quantum system.
Absstract of: WO2025051377A1
The present disclosure relates to trapping and manipulating of neutral atoms in optical trapping potentials. In one aspect, an apparatus comprises a trapping laser system and optics for generating an optical trapping lattice at a trapping volume inside a vacuum chamber, wherein the optics for generating the optical trapping lattice are configured to generate, based on the output of the trapping laser system, a single elliptical trapping laser beam that is retroreflected and focused, using a bow-tie configuration, to the trapping volume to generate the optical trapping lattice.
Absstract of: NL2035759B1
0001 The invention is about a method of creating a pair of Maj orana bound states in a quantum-dot chain of N alternating first-type and second-type quantum dots, each second-type quantum dot being configured to host a respective Andreev bound state, ABS, wherein N is an integer greater than or equal to two. The method comprises: tuning the quantum-dot chain to a Majorana sweet-spot for creating the pair of Majorana bound states on two outer quantum dots of the quantum-dot chain, the quantum-dot chain being configured to implement a Kitaev chain, and controlling at least one of the respective ABS as a fermion in the implementing of the Kitaev chain by the quantum-dot chain. The invention can have applications in quantum- lO computing methods and/or quantum-computing devices/chips that are implementing topological quantum computing based on Maj orana bound states. Fig. 7a
Absstract of: US2025076579A1
0000 Embodiments of the disclosure provide apparatuses, systems, and methods related to controlling film thickness in photonic-integrated apparatus. In some embodiments, a bottom cladding layer is deposited on a substrate, a thickness map of the bottom cladding layer is generated, thickness trimming is performed on the bottom cladding layer based on the thickness map for the bottom cladding layer; a waveguide core layer is deposited on the bottom cladding layer, a thickness map of the waveguide core layer is generated, thickness trimming is performed on the waveguide core layer based on the thickness map for the bottom waveguide core layer; a top cladding layer is deposited on the waveguide core layer, a thickness map of the top cladding layer is generated; and thickness trimming is performed on the top cladding layer based on the thickness map for the top cladding layer.
Absstract of: CN122390103A
本申请涉及一种量子比特映射方法，包括：获取量子芯片中多个量子比特之间的耦合关系；对量子芯片的量子线路进行划分，得到依次排列的多个子线路；确定量子线路对应的第一子线路集和第二子线路集；第二子线路集的第二子线路组，包含第一子线路集的至少两个相邻的第一子线路组，第一子线路组包括至少一个子线路；对各第二子线路组所属的线路段，基于耦合关系，确定线路段的第一量子比特映射结果和第二量子比特映射结果；从第一量子比特映射结果和第二量子比特映射结果中，确定比特门添加数量较少的第一目标量子比特映射结果；按照各线路段在量子线路中的排列顺序，依次拼接各线路段的第一目标量子比特映射结果，得到量子线路的量子比特映射结果。
Absstract of: CN122390105A
本公开提供了一种用于量子芯片的参数校准方法及系统，方法包括获取校准的原始数据；对原始数据进行第一层级评估，若数据质量不满足标准则执行第一重试策略，调整硬件参数重新获取数据；若满足标准则对中间分析结果进行第二层级评估，若结果不满足标准则判定失效类型；若为实验参数失配则执行第一重试策略，若为算法失配则执行第二重试策略调整算法；当双重评估均通过时输出最终校准参数，校准方法将输出参数应用于量子芯片。本公开通过双重评估与两级重试，提升校准成功率与准确性。
Nº publicación: CN122394037A 14/07/2026
Applicant:
东南大学
Absstract of: CN122394037A
本发明公开了基于量子增强SARIMA的乡村微电网多元储能配置方法及系统，方法包括：采集乡村微电网运行数据，构建包含新能源消纳指标和季节性农机具作业强度指标的多变量特征集；修正SARIMA预测模型的候选参数空间和预测残差；采用量子增强优化算法对预测模型的非季节参数和季节参数进行联合寻优，得到目标周期内负荷需求和新能源出力预测结果；建立多元储能配置优化模型，确定电化学储能、热储能、氢储能、农机具移动储能和可调农业负荷中的容量、功率及运行调度策略。本发明将乡村新能源消纳特征、农业季节性用能特征、量子增强时间序列预测和多元储能联合配置相结合，有助于降低储能冗余配置并提高新能源就地消纳能力。
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