Shape Modeling for 3D Archaeological Vessels

The Smart House Planner is an AI-powered solution designed to simplify the process of residential home design by combining intelligent planning, 3D modelling, and real-time cost estimation through an interactive conversational interface. With the rising demand for personalized housing solutions and the complexity of balancing aesthetics, functionality, and budget, there is a growing need for systems that can automate architectural planning while remaining user-friendly. This project addresses that challenge by integrating Gemini AI for intelligent design recommendations, Blender for automated 3D visualization, and a cost estimation engine for transparent financial planning. The system enables users to specify requirements such as housing type (1BHK, 2BHK, 3BHK, Duplex, Villa), dimensions, and style preferences via a modern Django-based web interface. Gemini AI processes these inputs to generate optimized layouts by considering space utilization, and functional flow. These layouts are then transformed into realistic, interactive 3D models using Blender, allowing users to explore their prospective homes virtually. Simultaneously, the cost estimation module calculates material, labour, costs, producing downloadable reports that support informed decision-making and budget control. By unifying AI-driven design intelligence, real-time 3D modelling, and detailed cost breakdowns, Smart House Planner provides a comprehensive platform that enhances user engagement, reduces reliance on professional intervention, and democratizes access to architectural planning. This solution demonstrates how AI, visualization technologies, and web-based interfaces can transform the way individuals approach housing design, making the process more efficient, transparent, and accessible to both professionals and non-experts.

This study deals with an evaluation of the sewing thread consumptions relative to the basic stitches shapes. Indeed, lockstitch type 301, three-overegged stitch type 504, chain stitch type 401 and safety stitch (five overegged stitch) type 516 are considered for this investigation. Hence, the overall analyzed consumption values are compared and discussed using different methods such as statistical, geometrical modelling and image analysis techniques. By classifying the comparative results, those obtained using image analysis and geometrical modelling techniques seem relevant. In fact, based on the differences investigated between experimental and theoretical consumptions, explained as error in percentage values, the image analysis technique is appears as the best method to evaluate the consumed thread amount. Even though, the errors are ranged from 0 to 3.89%, from 0.01 to 18.83% and from 0.17 to 18.98% for the image analysis, geometrical modelling and the statistical methods, respectively. These findings proved that the image analysis method presents the lowest error values; furthermore, it can be widely used by industrial to predict and evaluate the consumption values.

In this paper we present a method for sharing interactive and dynamic 3D models that are collaboration-unaware, i.e., models that have not been designed to be used by multiple users at the same time. This functionality is an essential requirement for the inclusion of arbitrary 3D models, as generated by standard CAD or animation software, into teleconferencing sessions. A key aim of this work is to show that a large part of the required functionality can be developed in a way so that it is reusable for other applications such as shared whiteboards or networked computer games. Our method therefore consists of both an application dependent part that handles the specific tasks required for sharing 3D models, and of a number of generic services such as synchronization, scalable support for latecomers, and the ability to record and replay sessions. The generic services are based on an abstract media model and the RTP/I application level protocol for distributed interactive media. Any other application for a medium that shares this model and that uses RTP/I may reuse these generic services. We have implemented a prototype called TeCo3D demonstrating the feasibility of our approach.

IntroductionModern patient portals are powerful tools that foster communication between providers and patients. While increasing patient access to their medical records, these portals often only provide written radiology reports and...

In these days, 3D models are introduced as new digital contents such as video games and data material for 3D printer. The demand of 3D modeling for ordinary people has been increased. While using existed hand-held 3D modeling system, users have to estimate unmeasured area through a display. Also users have to terminate consequently modeling with watching a process of modeling [Fudono et al. 2005]. In this paper, we propose a novel modeling system which indicates route guidance by means of area limitation of modeling at the beginning. Owing to area limitation of modeling, users can obtain desired 3D model with watching effective route guide for measuring and automatic termination of modeling. Users can obtain desired 3D model easily and quickly

The development of 3D technology allows the digitisation of cultural heritage objects. Despite the fact that 3D scanning technology is not fully developed, it offers great opportunities for recording spatial data. Three-dimensional digital recording can be made for museum exhibits as well as for historic architectural objects. The method used is a non-invasive (non-contact) method, which is a significant advantage when working with historic buildings. The use of 3D scanners makes it possible to reduce the risk of damage to the monument. The application of a safe method of 3D scanning facilitates digital archiving of objects, which gives many possibilities of their use. One of them is digital dissemination of three-dimensional models and even making replicas using 3D printing technology. These types of models make it possible to reach a wide audience. First of all, they provide access to monuments for people with special needs, who currently constitute over a dozen percent of the population. In particular, they are the elderly, sick or people with various types of disabilities, e.g. motionally or visually impaired people. Literature analysis as well as conversations with dysfunctional people show that 3D digitisation of cultural heritage objects is needed and expected. The article presents an example of the use of modern 3D technologies for the dissemination of cultural heritage on the example of objects from the area of the Silk Road. A two-track process of making small museum artefacts available is presented. The first track concerns making objects available in the form of interactive digital 3D models placed on websites. The second one uses real models printed in 3D technology, which can be made available to visually impaired people. The work discusses the course of joint activities to prepare these 3D models and specialised activities that are necessary to make both versions of 3D models for presentation on the web and for kinaesthetic cognition, i.e. by touch. The authors’ actions resulted in the preparation of 3D models of historic vessels from the turn of the 11th/12th centuries from the ancient city of Afrasiyab – a suburb of modern Samarkand in Uzbekistan.

Insects are the most diverse group of living organisms on Earth, but their small size and structural complexity make species identification a challenging task, especially for those with less experience in entomology. Accurate identification is essential for pest management decisions in agriculture. Traditional 2D resources, such as field guides and taxonomic keys, may exhibit limitations when depicting complex insect structures, as exemplified by the intricate morphology of insect mouthparts. This study explores the use of 3D models to enhance the learning experience in insect identification and morphology education. We developed an online course that incorporated interactive digital 3D models alongside instructional videos and assessments. Participants (N = 102), primarily undergraduate students in natural sciences, completed pre- and posttests to assess knowledge gains. Additionally, they completed a survey designed to evaluate learning satisfaction, self-efficacy, limitations of the learning tools, and to collect open-ended written feedback. A paired samples t-test revealed a significant increase in posttest scores compared to pretest scores (t = −17.71, P < 0.001). Most participants rated learning satisfaction and self-efficacy above 9 on a 0 to 10-point Likert scale survey. Participants highlighted the effectiveness of 3D models in species differentiation and morphological understanding. Feedback suggested potential improvements, including expanded insect coverage and interactive comparison tools. This study demonstrates that 3D models can significantly enhance insect morphology education, providing an engaging and effective learning tool for students and pest management professionals.

Utilizing the Fourth Dimension for Patient Education in Cardiovascular Surgery

Interactive 3D modeling in VR is both aided by immersive 3D input and hampered by model disjunct, tool-based or selection-action user interfaces. We propose a direct, signifier-based approach to the popular interactive technique of creating 3D models through a sequence of extrusion operations. Motivated by handles and signifiers that communicate the affordances of everyday objects, we define a set of design principles for an immersive, signifier-based modeling interface. We then present an interactive 3D modeling system where all modeling affordances are modelessly reachable and signified on the model itself.

Three-dimensional tow inclination model for calculating elastic constants of three-dimensional triaxial braided composites

Graphs are a ubiquitous data structure to model processes and relations in a wide range of domains. Examples include control-flow graphs in programs and semantic scene graphs in images. Identifying subgraph patterns in graphs is an important approach to understand their structural properties. We propose a visual analytics system GraphQ to support human-in-the-loop, example-based, subgraph pattern search in a database containing many individual graphs. To support fast, interactive queries, we use graph neural networks (GNNs) to encode a graph as fixed-length latent vector representation, and perform subgraph matching in the latent space. Due to the complexity of the problem, it is still difficult to obtain accurate one-to-one node correspondences in the matching results that are crucial for visualization and interpretation. We, therefore, propose a novel GNN for node-alignment called NeuroAlign, to facilitate easy validation and interpretation of the query results. GraphQ provides a visual query interface with a query editor and a multi-scale visualization of the results, as well as a user feedback mechanism for refining the results with additional constraints. We demonstrate GraphQ through two example usage scenarios: analyzing reusable subroutines in program workflows and semantic scene graph search in images. Quantitative experiments show that NeuroAlign achieves 19%-29% improvement in node-alignment accuracy compared to baseline GNN and provides up to 100× speedup compared to combinatorial algorithms. Our qualitative study with domain experts confirms the effectiveness for both usage scenarios.

Graphical representation has long been used in the domain of software engineering to provide comprehension aids. Generic and query-based code browsers have contributed towards program comprehension through the provision of high-level customized structural views of the source code. Some research has already focused on combining the advantages of the two techniques through the representation of high-level query-based views using different data visualization techniques. However, little has been done towards the visualization of the query composition process itself. In this paper we develop a query engine for software structural analysis which provides a visual query interface over a high-level textual query language to eliminate the requirement for understanding the query language syntax. Our implementation is provided as an Eclipse plug-in, namely HyQ4J (which stands for hybrid query for Java).

We describe the design of a multimedia database management system for a distributed news-on-demand multimedia information system. News-on-demand is an application that uses broadband network services to deliver news articles to subscribers in the form of multimedia documents. Different news providers insert articles into the database, which are then accessed by users remotely, over a broadband, asynchronous transfer-mode (ATM) network. The particulars of our design are an object-oriented approach and strict adherence to international standards, in particular the Standard Generalized Mark-up Language (SGML) and Hy-Time. The multimedia database system has a visual query facility, which is also described in this paper. The visual query interface provides three major facilities for end users: presentation, navigation, and querying of multimedia news documents. The main focus, however, is the querying of multimedia objects stored in the database.

Studies into the evolution and development of leaf shape have connected variation in plant form, function, and fitness. For species with consistent leaf margin features, patterns in leaf architecture are related to both biotic and abiotic factors. However, for species with inconsistent leaf shapes, quantifying variation in leaf shape and the effects of environmental factors on leaf shape has proven challenging. To investigate leaf shape variation in a species with inconsistently shaped leaves, we used geometric morphometric modeling and deterministic techniques to analyze approximately 500 digitized specimens of Capsella bursa-pastoris collected throughout the continental United States over 100 years. We generated a morphospace of the leaf shapes and modeled leaf shape as a function of environment and time. Leaf shape variation of C. bursa-pastoris was strongly associated with temperature over its growing season, with lobing decreasing as temperature increased. While we expected to see changes in variation over time, our results show that the level of leaf shape variation was consistent over the 100 years. Our findings showed that species with inconsistent leaf shape variation can be quantified using geometric morphometric modeling techniques and that temperature is the main environmental factor influencing leaf shape variation.

Three-dimensional modeling of Virtual reality can be divided into four phases: geometric modeling, physical modeling, motion modeling and behavior modeling, This paper describes the geometric modeling stage, modeling techniques and model optimization technology used to create the Southern Gardens.