Patent classifications
G06N5/025
SCALABLE NEUTRAL ATOM BASED QUANTUM COMPUTING
The present disclosure provides methods and systems for performing non-classical computations. The methods and systems generally use a plurality of spatially distinct optical trapping sites to trap a plurality of atoms, one or more electromagnetic delivery units to apply electromagnetic energy to one or more atoms of the plurality to induce the atoms to adopt one or more superposition states of a first atomic state and a second atomic state, one or more entanglement units to quantum mechanically entangle at least a subset of the one or more atoms in the one or more superposition states with at least another atom of the plurality, and one or more readout optical units to perform measurements of the superposition states to obtain the non-classical computation.
INTEGRATED HOSPITAL LOGISTICS MANAGEMENT SYSTEM USING AI TECHNOLOGY, AND INTEGRATED HOSPITAL LOGISTICS MANAGEMENT METHOD USING SAME
An integrated hospital logistics management system and an integrated hospital logistics management method using same is provided. Artificial intelligence analyzes trends and seasonal trends by using big data and predicts actual usage by using an artificial intelligence technology, and an artificial intelligence system automatically processes reorders, replacements, etc., thereby ensuring that an appropriate safety stock level can be maintained at all times according to a stock quantity, stock state, issue quantity, etc. of hospital supplies. The integrated hospital logistics management system includes an order processing module which processes ordering and warehousing of supplies; a logistics management module which requests the order processing module to purchase or replace the supplies according to the states of the supplies; and a system control module including a machine learning unit which generates and learns rules about the operation of the supplies by using metadata.
INTEGRATED HOSPITAL LOGISTICS MANAGEMENT SYSTEM USING AI TECHNOLOGY, AND INTEGRATED HOSPITAL LOGISTICS MANAGEMENT METHOD USING SAME
An integrated hospital logistics management system and an integrated hospital logistics management method using same is provided. Artificial intelligence analyzes trends and seasonal trends by using big data and predicts actual usage by using an artificial intelligence technology, and an artificial intelligence system automatically processes reorders, replacements, etc., thereby ensuring that an appropriate safety stock level can be maintained at all times according to a stock quantity, stock state, issue quantity, etc. of hospital supplies. The integrated hospital logistics management system includes an order processing module which processes ordering and warehousing of supplies; a logistics management module which requests the order processing module to purchase or replace the supplies according to the states of the supplies; and a system control module including a machine learning unit which generates and learns rules about the operation of the supplies by using metadata.
GENERATION OF DIGITAL STANDARDS USING MACHINE-LEARNING MODEL
One embodiment provides a method for generating a digital standard utilizing a trained machine-learning model, the method including: receiving an underlying standard; extracting conceptual units from the underlying standard; classifying, using at least one trained machine-learning model, at least a portion of the extracted conceptual units into one of a plurality of classification groups; storing the classified extracted conceptual units into a data repository as defined by the schema; displaying, within a user interface on a display of an information handling device, a digital standard in a format based upon the schema; and providing, within the user interface, search and filter functions allowing for finding information related to the digital standard. Other aspects are described and claimed.
GENERATION OF DIGITAL STANDARDS USING MACHINE-LEARNING MODEL
One embodiment provides a method for generating a digital standard utilizing a trained machine-learning model, the method including: receiving an underlying standard; extracting conceptual units from the underlying standard; classifying, using at least one trained machine-learning model, at least a portion of the extracted conceptual units into one of a plurality of classification groups; storing the classified extracted conceptual units into a data repository as defined by the schema; displaying, within a user interface on a display of an information handling device, a digital standard in a format based upon the schema; and providing, within the user interface, search and filter functions allowing for finding information related to the digital standard. Other aspects are described and claimed.
Apparatus for Fraud Detection Rule Optimization
An improved method and apparatus for determining if a financial transaction is fraudulent is described. The apparatus in one embodiment collects transactions off of a rail using promiscuous listening techniques. The method uses linear programming algorithms to tune the rules used for making the determination. The tuning first simulates using historical data and then creates a matrix of the rules that are processed through the linear programming algorithm to solve for the variables in the rules. With the updated rules, a second simulation is performed to view the improvement in the performance. The updated rules are then used to evaluate the transactions for fraud.
Augmented knowledge base and reasoning with uncertainties and/or incompleteness
A knowledge-based system under uncertainties and/or incompleteness, referred to as augmented knowledge base (AKB) is provided, including constructing, reasoning, analyzing and applying AKBs by creating objects in the form E.fwdarw.A, where A is a rule in a knowledgebase and E is a set of evidences that supports the rule A. A reasoning scheme under uncertainties and/or incompleteness is provided as augmented reasoning (AR).
Sequential data analysis apparatus and program
A sequential data analysis apparatus extracts a pattern of two or more sets of items based on an appearance frequency of each of different sets of items in first sequential data, selects a pattern of two or more sets of items based on an appearance frequency of a sub-pattern formed of a portion of the extracted pattern, creates a related pattern including the same last set of items as and the other sets of items different from the selected characteristic pattern, calculates an evaluation value of the related pattern, creates a prediction model by organizing data of the characteristic pattern and the related pattern, and applies second sequential data to the prediction model to determine a result which the second sequential data is likely to lead to.
Cloud intelligence data model and framework
A network-accessible service provides an enterprise with a view of all identity and data activity in the enterprise's cloud accounts. The service enables distinct cloud provider management models to be normalized with centralized analytics and views across large numbers of cloud accounts. The service enables an enterprise to model all activity and relationships across cloud vendors, accounts and third party stores. Display views of this information preferably can pivot on cloud provider, country, cloud accounts, application or data store. Using a domain-specific query language, the system enables rapid interrogation of a complete and centralized data model of all data and identity relationships. User reports may be generated showing all privileges and data to which a particular identity has access. Similarly, data reports shown all entities having access to an asset can be generated. Using the display views, a user can pivot all functions across teams, applications and data, geography, provider and compliance mandates, and the like.
Selecting an algorithm for analyzing a data set based on the distribution of the data set
A model analyzer may receive a representative data set as input and select one of a plurality of analytic models to perform the analysis. Before deciding which model to use the model may be trained, and the trained model evaluated for accuracy. However, some models are known to behave poorly when the training data is distributed in a particular way. Thus, the cost of training a model and evaluating the trained model can be avoided by first analyzing the distribution of the representative data. Identifying the representative data distribution allows ruling out use of models for which the distribution of the representative data is unsuitable. Only models that may be compatible with the distribution of the representative data may be trained and evaluated for accuracy. The most accurate trained model whose accuracy meets an accuracy threshold may be selected to analyze subsequently received data related to the representative data.