144 results about "Hybrid approach" patented technology

The present disclosure generally relates to a two-stage system for detecting malicious nodes in Wireless Sensor Networks (WSNs), enhancing network security and resilience. The system employs a distributed approach, leveraging Cluster Heads (CHs) and a central server for efficient and accurate detection. Initially, sensor nodes are monitored for comprehensive node and network metrics, statistically ranked by significance in identifying malicious behavior. CHs perform a resource-aware first-stage detection based on their resource weight, filtering potential threats locally. Results are then aggregated at a server for a second-stage analysis using a hybrid Machine Learning (ML) and Deep Learning (DL) approach. This advanced analysis, combined with statistically relevant metrics, significantly improves detection accuracy. By integrating resource-conscious CH operation with powerful server-side ML / DL, this system offers a scalable, energy-efficient, and highly effective solution for securing WSNs against malicious node attacks, surpassing traditional detection methods in both speed and precision.

A hybrid approach involving the mix of communication patterns and passive fingerprinting is used to identify unknown device types, manufacturers, and models of devices of digital control systems. ANDVI implementation maps the identified devices to their known vulnerabilities. According to one example, to identify how interdependence among existing atomic vulnerabilities may be exploited by an adversary to stitch together an attack that can compromise the system, model-checking based A2G2V is employed. According to another example, an A2G2V algorithm uses existing model-checking tools, an architecture description tool, and code to generate an attack-graph that enumerates the set of all possible sequences in which atomic-level vulnerabilities can be exploited to compromise system security. In yet another example, identification of label-cuts within an attack-graph automatically identifies a set of critical-attacks that, when blocked, renders the system secure. A linear complexity approximation utilizing SCCs helps identify the minimum label-cut representing a critical-attacks set.

A system and method for automatically extracting data from tables and graphs in scientific literature, particularly in life sciences and healthcare, is presented. The invention employs a hybrid approach combining computer vision, natural language processing (NLP), and a large language model (LLM)-based data extraction module. A neural network enhances accuracy by providing contextual information. The system performs table structure detection, optical character recognition (OCR), Vision Transformers (ViTs) for text recognition, and graph-to- table conversion. An LLM refines the extracted data using advanced prompt engineering. A user interface enables data review, validation, and iterative refinement. The system employs a novel two-stage approach: de-rendering tables and graphs into a machine-readable format, followed by interpretation and user-defined mapping. A knowledge graph enhances extraction by resolving ambiguities and inferring relationships. Designed for scalability and continuous improvement, the invention significantly enhances data extraction efficiency and accuracy, accelerating research and knowledge discovery.

The invention discloses a document layout analysis method based on a hybrid method, and belongs to the technical field of digital image processing. Named body recognition and relation extraction are carried out on each text node. The invention provides a novel channel shuffling dynamic range convolution algorithm to ensure that global channel features can learn features of similar pixels rather than adjacent pixels, and an adapter is used to learn text features with less parameter quantity. And finally, taking the predicted text block category and relationship as a result. Finally, a challenging document data set is used as a verification index (FUNSD), and the result shows that the performance of the method can be obviously improved.

The invention discloses a large language model adaptive multi-preference alignment method and system based on a hybrid expert architecture, and relates to the field of artificial intelligence. The problem that in the prior art, a multi-preference mixing method with self-adaptive capacity is needed to promote multi-preference research is solved. The method comprises the following steps: adding a designed preference mixing module based on a mixed expert architecture on a large language model; freezing backbone network parameters in the large language model, and adjusting a preference mixing module to obtain synthesized preference data; determining a preference alignment algorithm, and based on the synthesized preference data, combining the grouping soft loss with a loss function in the preference alignment algorithm to obtain a target loss function; and training the big language model based on the obtained target loss function by using a collected data set containing multiple preferences to obtain a big language model with balanced preferences. The method is also suitable for the fields of hardware computing power enhancement and algorithm improvement.

The invention discloses a motion track construction method based on a visual large model, and relates to the technical field of computer vision, and the method comprises the steps: employing a target tracking algorithm based on Kalman filtering, and generating a smooth time sequence synchronization track from an original laser radar point cloud and an original video stream; dividing the trajectory into a series of candidate kinematic segments which are complete in kinematics and semantics by applying a hybrid method combining a minimum description length principle and visual language model semantic verification; performing preliminary semantic annotation on the segments by utilizing a visual language model to generate an initial annotation track; performing logic consistency refining on the initial labeling track until the initial labeling track is converged into a refined labeling track; and formatting the refined trajectory into a standard structured semantic trajectory representation character string. According to the method, a semantic gap between low-dimensional physical observation and high-dimensional driving intention is bridged, and ideal input is provided for understanding and prediction tasks of downstream complex scenes.

An API gateway receives, from an application, a callback-related request and a registration token including a callback URL usable by an API server to call the callback server and security data for the callback URL. If that token's signature is valid: the callback URL, the security data for the callback URL, and an identifier identifying the API and callback servers are stored; a replacement URL is generated using the identifier; and the replacement URL is registered with the API server. When the API server emits an event regarding a registered request: the security data is retrieved for the associated request; a secure token is generated using that data and event-related content; the callback URL is retrieved for the associated request; and the retrieved callback URL, the secure token, and event-related content are sent to the callback server. The callback server determines whether event-related content is trustworthy using the secure token.

A computing platform provides code vulnerability detection and evaluation. The computing platform may use a quantum graph categorizer along with quantum polymorphism execution channels to reduce false positives and provide optimized real-time vulnerability evaluation of code and code segments. The computing platform may use a hybrid approach comprising a mix of static and dynamic vulnerability validation and real-time parallel technique execution.

An optimal route can be determined for delivering an item through a logistics system where vehicles have multiple stops when traveling along routes. The optimal route is determined using a hybrid system employing a classical computing device and a quantum annealer. The classical device reduces the search space that allows the quantum annealer to determine a more optimal solution. In an aspect, a routing graph comprising nodes and edges is populated from routes of vehicles, where the nodes identify locations and the edges represent routing data. At least a portion of the nodes and edges is removed to form a refined routing graph. For an origin-destination input, the refined routing graph can be filtered according to a first set of routing constraints to form a reduced route search space. A quantum annealer is invoked according to an objective and a different second set of routing constraints.

A method of determining a repair method for a defect in a bladed rotor can comprise comparing the defect in a three-dimensional model of an inspected integrally bladed rotor (IBR) to a plurality of known defects from a repair database; determining the defect is matching a known defect in the plurality of known defects in the repair database; and generating a repair process associated with the known defect in response to determining the defect is matching the known defect. A method can also comprise determining a potential repair process; performing a structural simulation of a finite element model for the inspected IBR with the potential repair; performing an aerodynamic simulation of an aerodynamic model for the inspected IBR with the potential repair; and generating the potential repair process for the defect in response to determining the inspected IBR with the potential repair meets structural and the aerodynamic criteria.

A hybrid approach is employed to determine an optimal packing arrangement of cargo blocks within containers loaded onto a vehicle. Cargo block data is accessed, where the cargo blocks are to be arranged into containers for transport by the vehicle having a payload area. Each cargo block is assigned to the containers subject to constraints on the cargo and the containers. A quantum annealer is invoked to individually solve an optimization problem for subsections of the payload area, where the quantum annealer determines an optimal packing arrangement of cargo blocks within the containers for each subsection of the payload area.

Methods and systems are presented that can automatically generate resource configuration for applications or network functions in a communications network, such as 5G. Reinforcement learning can be used to select ideal resource configurations. Certain embodiments follow a hybrid approach where an application characteristics simulator interacts with a real cloud environment to extract and estimate key workload and performance-related parameters, such as relative workload distribution, service dependency, and relative service performance metrics per unit resources. These parameters can then be used to initialize an environment simulator. Certain systems and methods embodiments can perform both the learning and the inferencing in a hybrid manner – they can build the environment simulator in a way the reflects the real cloud system.

An API gateway receives, from an application, a callback-related request and a registration token including a callback URL usable by an API server to call the callback server and security data for the callback URL. If that token's signature is valid: the callback URL, the security data for the callback URL, and an identifier identifying the API and callback servers are stored; a replacement URL is generated using the identifier; and the replacement URL is registered with the API server. When the API server emits an event regarding a registered request: the security data is retrieved for the associated request; a secure token is generated using that data and event-related content; the callback URL is retrieved for the associated request; and the retrieved callback URL, the secure token, and event-related content are sent to the callback server. The callback server determines whether event-related content is trustworthy using the secure token.

A method and an apparatus for signaling high-level syntax of a hybrid INR approach. One or more syntax elements providing for reconstructing at least one part of an image or a 3D object using at least one hybrid Implicit Neural Representation network are obtained. The at least one hybrid Implicit Neural Representation network comprises at least one mapping transformation that maps input coordinates of the image or 3D object to a group of features and an INR network that takes as input the group of features and outputs values of the image or 3D object at the input coordinates. The obtained one or more syntax elements indicate parameters relating to the at least one mapping transformation and are signaled in a bitstream.

This disclosure enables various technologies that can (1) learn new synonyms for a given concept without manual curation techniques, (2) relate (e.g., map) some, many, most, or all raw named entity recognition outputs (e.g., “United States”, “United States of America”) to ontological concepts (e.g., ISO-3166 country code: “USA”), (3) account for false positives from a prior named entity recognition process, or (4) aggregate some, many, most, or all named entity recognition results from machine learning or rules based approaches to provide a best of breed hybrid approach (e.g., synergistic effect).

A hybrid approach is employed to determine an optimal packing arrangement of cargo blocks within containers loaded onto a vehicle. Cargo block data is accessed, where the cargo blocks are to be arranged into containers for transport by the vehicle having a payload area. Each cargo block is assigned to the containers subject to constraints on the cargo and the containers. A quantum annealer is invoked to individually solve an optimization problem for subsections of the payload area, where the quantum annealer determines an optimal packing arrangement of cargo blocks within the containers for each subsection of the payload area.

In various examples, parking area detection for autonomous and / or semi-autonomous systems and applications is described herein. Systems and methods described herein may use a hybrid method to more accurately determine geometries of the parking areas within environments. For instance, sensor data (e.g., image data, etc.) may be processed using one or more edge detection techniques to determine edge features (e.g., two-dimensional pixels, three-dimensional points, etc.) associated with an environment that includes a parking area. A predicted geometry associated with the parking area, as determined using one or more machine learning models, may then be used to filter the edge features in order to identify a portion of the edge features that represent the parking area. One or more optimization techniques may then be used to determine the final geometry associated with the parking area based at least on the filtered edge features.

A high-position drilling and coal mining face gas extraction-treatment dynamic collaborative prediction method belongs to the technical field of coal mine gas extraction and treatment, and comprises the following steps: firstly, screening out physical parameters influencing a goaf gas extraction effect and an upper corner gas treatment effect according to a porous medium multi-field coupling theory and a field actual working condition; corresponding parameters are collected in real time to form a time sequence data set; and secondly, multivariable input and multivariable collaborative prediction are carried out by adopting a mixed LSTM-Transform method, and an online learning module is adopted, so that the dynamic capture capability of a complex multivariable time sequence mode in an underground coal mine is remarkably improved, and extraction-treatment dynamic collaborative prediction is carried out on high-position drilling and coal mining surface gas. According to the method, the gas extraction effect and the accuracy, stability and real-time performance of upper corner gas result prediction can be effectively improved, meanwhile, optimization of gas extraction pressure parameters can be achieved, and reference is provided for the high-position drilling gas extraction technology.

The invention discloses an elevator fault prediction method based on combination of a proportional risk model and machine learning. The elevator fault prediction method is used for predicting the remaining life of an elevator. The hybrid method comprises the following steps: firstly, analyzing a relationship between life and a covariable by using a proportional risk model to obtain an accumulative risk function, and calculating to obtain a life estimated value; then modeling is carried out on the life estimation value and the fault interval time sequence based on a machine learning algorithm, the remaining life is obtained through prediction, and the method comprises the following steps that a data set is imported, and the data set comprises elevator parameter data and elevator maintenance data; extracting a covariable influencing the life of the elevator, a deletion state and the life of the elevator from the elevator parameter data and the elevator maintenance data; a risk function estimated life is calculated, a sub-model 1-COx proportional risk model (WeibullAFTFitter Weibull accelerated failure model) is used, a covariable which affects the life of the elevator and is extracted from elevator parameter data and elevator maintenance data, a deletion state and the life of the elevator are used as input, and the risk function estimated life is output; extracting a historical maintenance time sequence from the elevator maintenance data; and predicting the remaining life of the elevator, and outputting the predicted remaining life of the elevator by using the output of the sub-model 1 and the historical maintenance time sequence extracted from the elevator maintenance data as input by using a sub-model 2-machine learning model (support vector regression model).

An electronic copy of an existing invoice is used to extract text therefrom. The extracted text is processed using a hybrid approach-combining fuzzy matching and natural language processing-to map portions of the extracted text to a computer application's specific standard fields. The initial stage is fuzzy matching to map portions of the extracted text to a dictionary of standard fields. For the unmapped portions of the text, natural language processing models such as a fine-tuned DistilBERT model is invoked to determine a second stage mappings. Mappings from the two stages are combined and duplicates are removed to generate a final mapping. The final mapping and the geometrical information of the extracted text is used to generate an electronic template of the invoice. The electronic template can be used to generate future invoices with the same / similar formatting or look and feel of the existing invoice.

This disclosure enables various technologies that can (1) learn new synonyms for a given concept without manual curation techniques, (2) relate (e.g., map) some, many, most, or all raw named entity recognition outputs (e.g., “United States”, “United States of America”) to ontological concepts (e.g., ISO-3166 country code: “USA”), (3) account for false positives from a prior named entity recognition process, or (4) aggregate some, many, most, or all named entity recognition results from machine learning or rules based approaches to provide a best of breed hybrid approach (e.g., synergistic effect).

In some embodiments, a hybrid approach is provided for discovering devices on a network, assessing if the devices are vulnerable to security threats and malicious attacks, remediating the devices that are vulnerable, detecting security threats and malicious attacks on the network, and responding to such threats and attacks. In some implementations, a hybrid site manager for the network passively scans the network, obtains information about a network device, and actively transmits a probe to the network device based on the obtained information. In some embodiments, the hybrid site manager actively sends a probe over the network to a network device, receives a response to the probe, and modifies how it passively scans the network based on the response to the probe.

There is provided a computer-implemented method for automated gap analysis that performs the steps of: generating a job competencies dataset, generating a course competencies dataset; generating a missing competencies dataset based on the job competencies dataset and the course competencies dataset, and outputting a recommended course dataset. The method identifies job competencies missing in course competencies, and recommends courses in which to include the missing competencies. The approach to competency identification comprises either a hybrid approach composed of rule-based matching and / or similarity matching, or a pre-trained large language model (LLM).

The invention discloses a power load prediction method and device based on a hybrid ELM algorithm, electronic equipment and a storage medium, and the method achieves the prediction of a power load through an ELM prediction model (MT-ELM) mixed with MINRES and hidden layer traversal, can achieve the estimation of the number of optimal hidden layer nodes, and eliminates the overfitting. Therefore, the prediction level of the power load is effectively improved. The invention discloses a power load prediction method based on a hybrid ELM algorithm. The method comprises the following steps: S1, performing variation on input and output training sets to construct a training set suitable for an ELM prediction model; s2, calculating a hidden layer output matrix H of the ELM neural network through a calculation mode of a classic ELM model; and S3, traversing and estimating the number of optimal hidden points by using the input and output test sets, eliminating ELM over-fitting through a mixed MINRES method, learning through data over the years and generating an ELM mixed model, and predicting the future short-term power load condition through the generated model.

The invention discloses a wind power prediction method and system based on deep fusion of physical knowledge, a medium and a terminal, relates to the technical field of wind power generation, and mainly aims to solve the problem of low prediction result accuracy caused by low reliability of a prediction model due to a shallow fusion level in an existing hybrid method. Comprising the steps of obtaining current operation data and current environment data of a target wind power plant; determining current wind field physical data based on the current operation data and the current environment data; performing deep fusion processing on the current operation data, the current environment data and the current wind field physical data to obtain a current fusion feature vector; current wind field state parameters are calculated according to the current wind field physical data, wind power value prediction operation is carried out according to the current fusion feature vector and the current wind field state parameters, and a current predicted wind power value is obtained; and performing operation state monitoring operation and power grid dispatching operation by using the current predicted wind power value, and formulating an operation maintenance strategy.

Methods, systems, and computer-readable media are used in graph-based machine learning of analog integrated circuits (ICs). In a first aspect, functional device pairs in transistor-level circuits are detected and classified using a hybrid approach combining a subgraph isomorphism algorithm, such as VF2, with a trained relational-graph convolutional network (RGCN). The VF2 algorithm identifies candidate pairs and initial categories, while the RGCN filters false positives using link prediction scores, preserving category labels for validated pairs. In a second aspect, a relational GraphSAGE model performs multi-class link prediction on a heterogeneous graph with netlist and functional relation edge types, labeling device pairs into analog primitive categories without technology-dependent features and merging overlapping pairs into larger functional groups. In a third aspect, circuit performance is predicted using a hierarchy-aware graph neural network comprising an edge-conditioned convolution (ECC) layer and multiple Circuit graph isomorphism network layers corresponding to hierarchy levels of device groupings.

As discussed earlier, labelling techniques that are available for labelling of unlabelled tabular data use some semi supervised models for identification purposes. However, they require sample labeled data for training purposes. Further, the same labelling model / technique cannot be used for all data types. Present disclosure provides method and system for identifying labels of unlabeled column data. The system uses a hybrid approach i.e., it uses language models, regular expressions and known dictionaries for labelling of unlabelled tabular data. For performing labelling, system first classifies received unlabelled tabular data into one or more data buckets. The system then uses appropriate techniques, based on data types, for identification of labels of unlabeled data present in data buckets. Thereafter, system uses feedback mechanism which will impart maturity to system over time. Finally, once system is matured, system can identify labels for all types of data.

An observed network communication event is represented as an edge in a knowledge graph (G) and processed by an anomaly detection component (AD), generating an alert for that event if its likelihood is below a threshold. An interpretation generation component (EG) generates an interpretation for some alerts. A filter component (FFP) removes an alert that no interpretation thereof is generated. A linguistizer (V) linguistizes an interpretation for the generation of the at least one remaining alert. Preferred embodiments employ a hybrid approach by combining symbolic and sub-symbolic algorithms on a knowledge graph in order to improve the interpretability and quality of IDS generated alarms in modern industrial systems, increasing their usefulness to analysts. An interpretable AI (XAI), i.e. The interpretability of the AI algorithm, enables analysts to understand how the system draws their conclusions and may allow them to interact therewith in a cooperative manner. In addition, most false positives can be filtered out through interpretation availability, and therefore the problem of alarm flooding is solved. Combining these two aspects, the reduction of checked cases along with expressive interpretation of remaining alarms, greatly reduces the total time and workload of analysts to assess the output of the intrusion detection system.

A computer-implemented system for predicting financial behavior and adaptive budget optimization based on machine learning, consisting of: a multitude of distributed processing nodes to enable low-latency communication between the nodes; a transaction data ingestion processor configured to establish authenticated connections with a plurality of financial data sources, wherein the ingestion module is further configured to normalize received transaction records into a standardized schema comprising at least a merchant identifier, a transaction category, a timestamp, a transaction amount, and optional geolocation metadata; a preprocessing engine comprising a classification sub-module trained through supervised learning to assign transaction categories based on merchant identifiers and context attributes, and a feature extraction sub-module configured to compute temporal, statistical, and behavioral feature vectors from the normalized transaction data; a prediction control unit comprising a plurality of lightweight neural network architectures, including at least one recurrent neural network (RNN) and at least one attention-based temporal model, the prediction control unit configured to predict short-term and medium-term output trends by sequentially processing the feature vectors; a budget optimization computation unit configured to solve multi-constraint budget allocation problems using a hybrid approach comprising a primary linear programming solver and an additional heuristic optimization technique, wherein the budget optimization computation unit is further configured to dynamically adjust budget allocations based on updated forecasts and user-defined constraints; a security subsystem configured for encryption at rest and in transit, as well as secure key storage in a hardware-based Trusted Platform Module (TPM); and a user interaction interface configured to display budget recommendations and forecasted spending trends through at least one web application, mobile application, or hardware device interface.

A method is provided for operating a transport network, for example a rail freight network including receiving a state report (or “snapshot”) of the transport network including positions of the vehicles and states of the network control apparatuses via the data communications network. A plurality of computer simulations of the transport network are run with reference to the state report. The computer simulations generate a number of feasible timetables and subsequently one of them is selected as an optimal feasible timetable, being a timetable that best satisfies demands for load at terminals of the network. Each of the plurality of computer simulations involves moving vehicle agents corresponding to the vehicles over a graph of the transport network according to a vehicle movement procedure that is configured to avoid gridlocking. The computer simulations are also run according to an optimal destination selection method which is configured to optimise vehicle agent journeys to meet the demand for the loads at locations in the transport network. Each of the plurality of computer simulations is made with varied weightings in respect of optimisation factors in the optimal destination selection method to thereby vary each of the number of feasible timetables. The method includes identifying an optimal timetable from the number of feasible timetables and issuing controls to the vehicles and network control apparatus via the data communications network to control movement of the vehicles across the transport network in accordance with the optimal timetable.