Use NLP to interpret, understand , and generate human language, transforming data into actionable insights

Crafting AI-powered tools that understand human language and act on it, from search engines that “get” you, to 24/7 chatbots that cater to your every need, and content strategies that make your online presence felt

NLP Technologies Deployment

We process textual data to extract and structure information, making its meaning easily findable.

Our solutions bring intelligence to your language data, enabling more nuanced analysis and understanding of content and context.

Outcome – Better interpretation of text, making your language data simple and accessible

Semantic Search

Semantics refers to the philosophical study of meaning

Semantic search is a data searching technique that uses the intent and contextual meaning behind a search query to deliver more relevant results.

We encode the meaning of your text and match it to the meaning of your query. Semantic Search goes beyond traditional keyword matching in search engines. It understands the intent and context behind a user’s search query, not just the specific words used

User intent understanding

Applying user intent and the meaning, interpreting complex queries beyond keywords, and ensuring results match the searcher’s true intent and context

Semantic Matching

Going beyond keywords to match concepts, utilising vector search and machine learning for deeper query comprehension

Contextual relevance

Employing context and personalization to tailor search results, enhancing relevance and accuracy for each user

Interoperable Formats

Using formal semantics and interoperable formats for universal data understanding, facilitating cross-system exchanges

Information Extraction

Transforming an unstructured text or a collection of texts into sets of facts (formal, machine-readable statements)

Automatically extracting structured information from unstructured and/or semi-structured machine-readable documents and other electronically represented sources to enable finding entities as well as classifying and storing them in a database

Pre-processing of text

Preparing the text for processing with the help of computational linguistics tools such as tokenization, sentence splitting, morphological analysis, etc

Unifying the concepts

Identifying relationships between the extracted concepts, and presenting them into a standard format

Finding and classifying concepts

Detecting and classifying mentions of people, things, locations, events, and other pre-specified types of concepts

Cut through the noise

Eliminating duplicate data and enriching your knowledge base, integrating the extracted knowledge into the database for future use

Automated Document Classification

Applying machine learning or other technologies to automatically classify documents results in faster, scalable, and more objective classification.

Document classification can be achieved through three fundamental techniques:

Context-based document classification

Prioritising the context, such as the creator of the data, the location where the data is created or modified, the application of the data, and other variables that affect data

Content-based document classification

Using deep inspection to examine and interpret data to identify personal, sensitive, and confidential information, before determining the appropriate classification label to apply

User-based document classification

Using the user’s discretion and knowledge for classifying sensitive data, including its creation, editing, reviewing, and dissemination. With this approach to data classification, an individual can assess the sensitivity level of each document

Named Entity Recognition (NER)

Transforming text into structured, actionable insights by identifying key elements

Identifying and classifying important elements in text, like names and places, into specific categories. It highlights key information such as people, locations, organisations, and dates, making text data more structured and understandable.

NER’s versatility supports various sectors, improving processes like information retrieval and content recommendation

Information retrieval - understanding intent and context

Obtaining information, often from large databases, which is relevant to a specific query or need. Aligning results with user intent and situational context, beyond mere keywords

Automated data entry

Replicating human actions to perform routine business tasks. While these programs aren’t related to hardware robots, they function like regular white-collar workers

Content recommendation - categorising key information

Suggesting relevant content to users based on their behaviour, preferences, and interaction history.
Categorizing identified elements into predefined groups such as names, places, and dates, turning text into organised data

Sentiment analysis enhancement

Combining statistics, NLP, and machine learning to detect and extract subjective content from text. This could include a reviewer’s emotions, opinions, or evaluations regarding a specific topic, event, or the actions of a company

Semantic Text Annotation

Tagging documents with relevant concepts

Enriching text documents and unstructured content with metadata that details relevant concepts such as people, places, organisations, and more. This process makes documents machine-readable, allowing them to be easily located, understood, merged, and repurposed

Text identification

Initial cleanup of unstructured content, followed by extraction from various formats like PDFs and videos

Extraction and connection mapping

Classifying and clarifying identified entities against a knowledge base to ensure precise meaning. Mapping the connections between identified entities to weave a network of related concepts

Text Analysis

Utilising NLP techniques to analyse text, identifying key concepts such as people, places, organisations, mentions of dates, amounts, etc

Indexing and storing

Compiling the enriched data into a semantic graph database, making it accessible and analyzable for future queries

Topic Analysis (Modelling & Classification)

Topic Modelling simplifies and organises large volumes of text by uncovering prevalent themes and subjects, aiding in content categorization and summary. This process is especially beneficial for extracting and analysing major ideas or trends from extensive text collections, like news articles or research papers

Advanced topic detection techniques

Utilising complex machine learning models to identify and extract topics from large text corpora.
Recognizing patterns and emerging trends within topics over time

Sentiment and emotion analysis

Analysing the sentiment or emotional tone associated with different topics.
Gaining insights into the emotional responses or attitudes towards certain topics

Contextual topic relevance

Examines the sentiment or emotional tone linked with various topics, offering deep insights into public perceptions or attitudes toward those subjects

Customizable topic models

Develops specialised models for specific industries or fields, ensuring that analysis remains pertinent and adaptable to new information and evolving content landscapes

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Connect with us step-by-step

Give unstructured data meaning, from plan to implementation

Step 1

Discovery

We discover your business goals and product vision, assess essential features, and map out the project timeline

Step 1

Discovery

We discover your business goals and product vision, assess essential features, and map out the project timeline

Step 1

Discovery

We discover your business goals and product vision, assess essential features, and map out the project timeline

Step 1

Discovery

We discover your business goals and product vision, assess essential features, and map out the project timeline

Case Studies

Enterprise Knowledge Graphs (EKGs) Unify Data Silos and Connect Fragmented Systems.

Enterprise Knowledge Graphs (EKGs) help organizations fix data blockages, connect information across systems, and make better decisions. Learn how EKGs simplify data management, ensure compliance, and support AI-powered analysis in different industries.

Enterprise Knowledge Graphs Explained – Making Sense of Your Data

Enterprise Knowledge Graphs unify fragmented data into a connected, queryable system. Discover how they break silos, improve decision-making, and drive innovation.

From People to Machines: How the SEMIC Style Guide Ensures Data Interoperability

Discover the SEMIC Style Guide, a practical framework developed by the European Commission to promote semantic interoperability across the EU. Learn about Core Vocabularies, Application Profiles, and the tools to harmonize data communication and reuse effectively.

The SEMIC Style Guide: A Framework for Creating Clear and Interoperable Semantic Data Specifications

Discover the SEMIC Style Guide, a practical framework developed by the European Commission to promote semantic interoperability across the EU. Learn about Core Vocabularies, Application Profiles, and the tools to harmonize data communication and reuse effectively.

Speaking the Same Language: The Power of Semantic Interoperability

Discover how semantic interoperability bridges the gap between disconnected systems, enabling meaningful data exchange and transforming bureaucracy into opportunity. Explore how Meaningfy empowers organisations with Linked Data, NLP, and Knowledge Graphs.

Why is “Reuse” an Ambiguous Word in the World of Precise Semantic Specifications?

Explore why “reuse” in semantic specifications can be ambiguous, the challenges of OWL imports, and how SEMIC’s principles enhance reusability and interoperability.

Semantic Data Specifications (SDS): The Role of the Single Source of Truth (SSoT) and model2owl

Learn how the Single Source of Truth (SSoT) and model2owl enable seamless creation of Semantic Data Specifications with automation and consistency.

Achieving Consistency in Semantic Data Specifications: Challenges and Solutions

Discover how the SEMIC Style Guide addresses the challenges of creating consistent Semantic Data Specifications that enable seamless human-machine interoperability.

Semantic Data Specifications Comprise Artefacts: A Practical Framework for Consistent Data

Explore how Semantic Data Specifications unify data artefacts like ontologies, data shapes, and schemas to ensure consistency, adaptability, and interoperability.

model2owl: Transforming Semantic Data Standards and eProcurement Ontologies

Discover how model2owl transforms semantic data standards by automating UML-to-OWL conversions, ensuring consistency, and streamlining interoperability.

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