DPI-10 & DPI-10SR


COMPLETE HANDHELD 3D SCANNING SOLUTION


  • kit all-in-one: hardware+software to immediately start surveying!
  • Double choice between DPI-10 (2-12 ft range) or DPI-10SR (for close-proximity 1-6 ft range)
  • Instantly capture color 3D data with full freedom of motion
  • 8MP camera per la cattura di immagini HD
  • Produce accurate and reliable results in complex environments
  • Review and edit your point cloud data immediately on the tablet
  • Export directly to compressed DP format, PTS, PTX, PLY, PTG, E57, LAS, LAZ, & POD
  • Built-in advanced features include AprilTags, Append, Targeting and more
  • Directly compatible with the Light Kit, Pole Kit and Accuscale-DP Kit
  • 32 GB storage
  • Dot3D PRO preloaded and licensed to that tablet, computer and camera. License is perpetual or 3 years subscription
  • Perfectly compatible with Reconstructor for advanced data processing

 

DATASHEET  QUOTATION

 

 

 

 

 

DPI 8X

 

REALSENSE™ INTEGRATION


TURN YOUR WINDOWS TABLET OR PC INTO A HANDHELD 3D SCANNER!


  • Do you own a Windows Tablet or an Intel Realsense camera(D415, D435, D410)? Capture 3D data by integrate theDot3D software (View, Edit, Scan o Pro)
  • Suitable solution
  • Choosing between four license option (yearly plans available)
  • Export directly to compressed DP format, PTS, PTX, PLY, PTG, E57, LAS, LAZ, & POD
  • Perfectly compatible with Reconstructor for advanced data processing

 

REQUEST AN OFFER

 

 

REALSENSE

 

 

 

 

 

DOT3D SOFTWARE

 

The complete professional 3D capture and editing application for DPI-8S and DPI-8S SR handheld 3D scanners on Android, as well as Intel® RealSense™ devices on Windows. An easy way to view, edit and share your data!
«Designed for customers who wants rapid advances in new 3D sensors, mobile computing hardware and operating systems, while also preserving their investment in existing 3D capture and design workflows.» Rafael Spring - DotProduct CTO

 

 

 

 

Software Integration

START WORKING WITH RECONSTRUCTOR

Import DP files in Reconstructor and experience the automatic scans registration. Get high-resolution 3D meshes and measures, make cross sections, orthophotos, etc. Integrate DP point clouds with data coming from tripod scanners, drone or mobile systems!

 

Learn more

 

 

 

 

 

 

 

ARTICLES . PRESENTATIONS . PAPERS

 

 

 

DAL RILIEVO 3D AL DIGITAL TWIN EXCURSUS SULLEVOLUZIONE TECNOLOGICA NEL CAMPO DELLA GEOMATICA OPERATIVA[2023] DAL RILIEVO 3D AL DIGITAL TWIN: EXCURSUS SULL'EVOLUZIONE TECNOLOGICA NEL CAMPO DELLA GEOMATICA OPERATIVA

DOWNLOAD PDF | 1.2 MB [ITA]

Come l’evoluzione delle tecnologie della geomatica ha portato dal concetto di rilevamento 3D all’attuale concetto rivoluzionario del Digital Twin, il gemello digitale della realtà. Lo sviluppo esponenziale delle tecnologie hardware e software di rilevamento digitale, unita ad una sempre più dettagliata documentazione fotografica, stanno rivoluzionando in modo epocale l’approccio al rilevamento e documentazione del reale.

 

ACCURACY IMPROVEMENT OF AN IMMS IN AN URBAN SCENARIO[2022] ACCURACY IMPROVEMENT OF A IMMS IN AN URBAN SCENARIO

DOWNLOAD PDF | 1.4 MB [ENG]

Indoor Mobile Mapping Systems (IMMSs) technologies are becoming increasingly popular thanks to the possibility of acquiring a massive amount of 3D data in a fast and effective way in those areas where GNSS signal is unavailable, like urban canyons, densely vegetated areas, underground sites and buildings. They offer an efficient way to produce point clouds but with noticeably lower accuracy than traditional Terrestrial Laser Scanning (TLS). The present paper wants to analyse two different methods to improve the accuracy of the point cloud coming from an IMMS survey in a vast urban scenario.

 

LIDAR IMMS VS HANDHELD MULTI CAMERA SYSTEM A STRESS TEST IN A MOUNTAIN TRAIL PATH[2022] LIDAR IMMS VS HANDHELD MULTI CAMERA SYSTEM: A STRESS-TEST IN A MOUNTAIN TRAIL-PATH

DOWNLOAD PDF | 1.9 MB [ENG]

Indoor Mobile Mapping Systems (IMMS) are attracting growing attention, especially when LiDAR sensors are considered, thanks to the possibility to obtain a wide range and complete data in those areas where GNSS signal is not available. However, the drift error that accumulates during the acquisition is often inadequate in the absence of quality constraints in the case of extensive acquisitions. Concurrently, recent developments regarding multicamera mobile solutions have shown promising results in containing the drift error, but the data produced are too noisy and not enough complete in terms of acquisition range.

 

2022_isprs-archives-XLIII-B1-2022-121-2022_INDOOR MOBILE MAPPING SYSTEMS AND (BIM) DIGITAL MODELS FOR CONSTRUCTION PROGRESS MONITORING[2022] INDOOR MOBILE MAPPING SYSTEMS AND (BIM) DIGITAL MODELS FOR CONSTRUCTION PROGRESS MONITORING

DOWNLOAD PDF | 912 KB [ENG]

Technological developments of the last decades are making it possible to speed up different processes involved in construction projects. Terrestrial laser scanners (TLS) are commonly used to map a construction site due to the level of accuracy provided, but indoor mobile mapping systems (iMMS) could offer a more efficient approach by speeding up the acquisition time and capturing all the details of the site just by walking through it, provided that the point cloud is accurate enough for the purpose of interest.

 

MODELLI DIGITALI DELLE GRANDI FRANE ALPINE TRA ITALIA E SVIZZERA[2022] MODELLI DIGITALI DELLE GRANDI FRANE ALPINE TRA ITALIA E SVIZZERA

DOWNLOAD PDF | 2 MB [ITA]

La ricerca in corso, sostenuta dal Progetto Interreg Italia-Svizzera A.M.AL.PI.18, riguarda l’elaborazione e gestione dei dati provenienti da attività di indagine finalizzate a produrre ipotesi e modelli utili alla ricostruzione delle cause, modalità e degli effetti di eventi franosi.

 

2022 ISEC - SCAN TO BIM EFFICIENT APPROACH TO EXTRACT BIM MODELS FROM HIGH PRODUCTIVE INDOOR MOBILE MAPPING SURVEY[2022] SCAN-TO-BIM EFFICIENT APPROACH TO EXTRACT BIM MODELS FROM HIGH PRODUCTIVE INDOOR MOBILE MAPPING SURVEY

DOWNLOAD PDF | 780 KB [ENG]

Building Information Modeling represents one of the most interesting developments in construction fields in the last 20 years. BIM process supports the creation of intelligent data that can be used throughout the life cycle of a construction project. Where a project involves a pre-existing structure, reality capture can provide the most critical information. The purpose of this paper is to describe an efficient approach to extract 3D models using high productive indoor Mobile Mapping Systems (iMMS) and an optimized scan-to-BIM workflow.

 

INTEGRATED LASER SCANNER TECHNIQUES TO PRODUCE HIGH RESOLUTION DTM OF VEGETATED TERRITORY[2021] INTEGRATED LASER SCANNER TECHNIQUES TO PRODUCE HIGH-RESOLUTION DTM OF VEGETATED TERRITORY

DOWNLOAD PDF | 1.6 MB [ENG]

The paper presents the first part of a research project concerning the creation of 3D terrain models useful to understand landslide movements. Thus, it illustrates the creation process of a multi-source high-resolution Digital Terrain Model (DTM) in very dense vegetated areas obtained by integrating 3D data coming from three sources, starting from long and medium-range Terrestrial Laser Scanner up to a Backpack Indoor Mobile Mapping System.

 

INVESTIGATING THE PERFORMANCE OF A HANDHELD MOBILE MAPPING SYSTEM IN DIFFERENT OUTDOOR SCENARIOS[2021] INVESTIGATING THE PERFORMANCE OF A HANDHELD MOBILE MAPPING SYSTEM IN DIFFERENT OUTDOOR SCENARIOS

DOWNLOAD PDF | 400 KB [ENG]

In recent years, portable Mobile Mapping Systems (MMSs) are emerging as valuable survey instruments for fast and efficient mapping of both internal and external environments. The aim of this work is to assess the performance of a commercial handheld MMS, Gexcel HERON Lite, in two different outdoor applications: 1) the mapping of a large building (a standard use-case scenario of this technology); 2) the survey of a torrent reach (a field in which portable systems are not yet widely employed).

 

DIGITAL COMMUNICATION TECHNOLOGIES TO SUPPORT END-USERS LEARNING FOR A SAFE RETURN TO SCHOOL DURING COVID-19[2021] DIGITAL COMMUNICATION TECHNOLOGIES TO SUPPORT END-USERS LEARNING FOR A SAFE RETURN TO SCHOOL DURING COVID-19

DOWNLOAD PDF | 620 KB [ENG]

The paper provides support for the definition of COVID-19 protocols in order to allow the safe re-opening of an educational building. It also derives a reusable approach extendable to other building typologies. The integrated adoption of multiple simulation-oriented technologies is investigated.

 

Digitalisation in construction sector[2021] DIGITALIZATION IN THE CONSTRUCTION SECTOR (Analytical Report - European Construction Sector Observatory)

DOWNLOAD PDF | 4.2 MB [ENG]

This Analytical Report is part of the European Construction Sector Observatory (ECSO) project. It aims to describe the state of play of digitalisation in the EU construction sector and identify some of its main drivers and challenges. In doing so, the report provides information, evidence and lessons learnt aiming to support a wide range of stakeholders, including policymakers, who wish to support the integration of digital technologies in the construction sector.

 

INDOOR MOBILE MAPPING SYSTEM AND CROWD SIMULATION TO SUPPORT SCHOOL REOPENING BECAUSE OF COVID-19: A CASE STUDY[2020] INDOOR MOBILE MAPPING SYSTEM AND CROWD SIMULATION TO SUPPORT SCHOOL REOPENING BECAUSE OF COVID-19: A CASE STUDY

DOWNLOAD PDF | 500 KB [ENG]

Occupancy analyses represent a crucial topic for building performance. At present, this is even true because of the pandemic emergency due to SARS-CoV-2 and the need to support the functional analysis of building spaces in relation to social distancing rules. Moreover, the need to assess the suitability of spaces in high occupancy buildings as the educational ones, for which occupancy evaluations result pivotal to ensuring the safety of the end-users in their daily activities, is a priority. The proposed paper investigates the steps that are needed to secure a safe re-opening of an educational building.

 

FAST INDOOR MAPPING TO FEED AN INDOOR DB FOR BUILDING AND FACILITY MANAGEMENT[2019] FAST INDOOR MAPPING TO FEED AN INDOOR DB FOR BUILDING AND FACILITY MANAGEMENT

DOWNLOAD PDF | 1 MB [ENG]

Facility Management activities require collecting and organising a large amount of information about a building, for example, geometry, MEP structures, lighting and antifire devices, typologies of furniture, paving characteristics, structures and more. The success story presented in the paper describes how using an Indoor Mobile Mapping approach, it is possible to satisfy the need to acquire plant views of a large part of buildings and, simultaneously, to record 3D+Full resolution RGB images. Thanks to this fast acquisition it is later possible to feed a 2D/3D database, identifying the main objects needed to support a facility management process.

 

OPEN PIT MINE 3D MAPPING BY TLS AND DIGITAL PHOTOGRAMMETRY. 3D MODEL UPDATE THANKS TO A SLAM BASED APPROACH[2018] OPEN PIT MINE 3D MAPPING BY TLS AND DIGITAL PHOTOGRAMMETRY. 3D MODEL UPDATE THANKS TO A SLAM-BASED APPROACH

DOWNLOAD PDF | 220 KB [ENG]

The University of Brescia has realised a project to map in 3D an open pit mine located in Botticino, a famous location of marble extraction close to Brescia in North Italy. Terrestrial Laser Scanner 3D point clouds combined with RGB images and digital photogrammetry from UAV have been used to map a large part of the cave. By rigorous and well know procedures a 3D point cloud and mesh model have been obtained using an easy and rigorous approach.

 


  • CARATTERISTICHE


    • Screen Size: 8 inch
    • Device Size: 24 x 14.5 x 7.3 cm
    • Weight: 1.11 Kg
    • Interfaces: USB, Wi-Fi
    • Capacity: 16 GB or 32 GB
    • Sensor Range: 60 cm to 4 m (2 to 12 feet)
    • Export Formats: PTS, PTX, PLY, PTG, E57, LAS, LAZ, POD, or DP format for efficient storage and rapid data export
    • Operative Temperature: 15° C - 35° C (60° F - 85° F)
    • Horizontal FOV: 57.5°
    • Point Density: ≤ 1.7 mm at 1 m distance, ≤ 3.4 mm at 2 m distance
    • Power Supply: integrated battery

     


  • CARATTERISTICHE


    • Screen Size: 8 inch
    • Device Size: 24 x 14.5 x 7.3 cm
    • Weight: 1.11 Kg
    • Interfaces: USB, Wi-Fi
    • Capacity: 16 GB or 32 GB
    • Sensor Range: 30 cm to 180 cm (1 to 6 feet)
    • Export Formats: PTS, PTX, PLY, PTG, E57, LAS, LAZ, POD, or DP format for efficient storage and rapid data export
    • Operative Temperature: 15° C - 35° C (60° F - 85° F)
    • Horizontal FOV: 57.5°
    • Point Density: ≤ 1.7 mm at 1 m distance, ≤ 3.4 mm at 2 m distance
    • Power Supply: integrated battery

     

 

 

 

 

 

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