Development of Climbing Location Information Service App using SmartPhone Sensor and Augmented Reality

Author(s):  
Yun-Jeong Kang ◽  
Dong-Oun Choi
Author(s):  
Chee Oh Chung ◽  
Yilun He ◽  
Hoe Kyung Jung

With the advent of the Android system, smart phones are rapidly developing and through the conveniency of accessing internet on the smart phones, a user’s location information can be accessed anywhere and anytime easily. Augmented Reality Based Technology enables the provision of variety information such as pictures and location of buildings in the navigation field. Most of the augmented reality program used to Visual Trace Method (Marker method and Markerless Method). For the Visual Trace Method, the marker installation and digital information should be assigned while the Non-visual Trace Method requires the use of hardware (G.P.S, sensors etc). Most navigation systems can only show the path from a user’s current location to their destination. In this paper, the design and implementation of an augmented reality program is discussed. It will use the smart phone’s inbuilt camera and GPS to display a user’s surround information in real time on the smart phone. The proposed system will combine the G.P.S location-based technology and virtual trace technology to provide the user with basic information about a building they are looking for or one in their immediate surrounding.


Author(s):  
A. S. Zuev ◽  
A. N. Zueva ◽  
D. A. Leonov

The article analyzes opportunities for obtaining additional competitive strengths in engineering products due to the use of augmented reality technology for interactive information provision and support in terms of assembly, operation and maintenance for the products themselves as well as machinery units and production system components employed in the processes listed. The article also provides a short overview of equipment available on the market that can be viewed as a prototype for hardware and software complexes that provide informational support for technical personnel while the latter performs its job functions. It covers prospects of implementing informational systems that provide the operator with visualized supporting content online through the use of AR technology into the life cycle stages, processes of production, maintenance and operation of products and machinery equipment, as well as specialized applications. It also analyzes the necessary functional options and scenarios of using these applications, thus explaining the point of implementing them not as separate software products oriented on separate product units and equipment, but in the context of a unified information service of support for the production process, basically allowing the formation of a new production engineering instrument that goes along with the concept of the fourth technological revolution - reference-informational AR systems, the concept of use for which is universal to all industries and the consumer sector of the national economy. It analyzes the main limitations of the wide use of informational systems based on AR technology and gives grounds for its lessening midterm influence, based on, including but not limited to, the options for implementing new architectural solutions that are supported by the developing wireless data transfer technology (5G standard) as well as video compressing and transfer standards (MPEG-I). Based on the analysis of materials provided, rationale for implementing AR technology into the stages of machinery production and equipment life cycle is given, as well as new opportunities for obtaining their additional competitive strengths and relevance of information security of the corresponding reference-informational systems based on AR technology.


Author(s):  
Chee Oh Chung ◽  
Yilun He ◽  
Hoe Kyung Jung

With the advent of the Android system, smart phones are rapidly developing and through the conveniency of accessing internet on the smart phones, a user’s location information can be accessed anywhere and anytime easily. Augmented Reality Based Technology enables the provision of variety information such as pictures and location of buildings in the navigation field. Most of the augmented reality program used to Visual Trace Method (Marker method and Markerless Method). For the Visual Trace Method, the marker installation and digital information should be assigned while the Non-visual Trace Method requires the use of hardware (G.P.S, sensors etc). Most navigation systems can only show the path from a user’s current location to their destination. In this paper, the design and implementation of an augmented reality program is discussed. It will use the smart phone’s inbuilt camera and GPS to display a user’s surround information in real time on the smart phone. The proposed system will combine the G.P.S location-based technology and virtual trace technology to provide the user with basic information about a building they are looking for or one in their immediate surrounding.


2021 ◽  
Vol 9 (4) ◽  
pp. 449
Author(s):  
Diky Rizky Awan ◽  
Agus Muliantara

Currently, the whole world is experiencing a pandemic outbreak of the COVID-19 virus, which is an infectious disease that is one of the types of coronavirus. Transmission of this virus can go through the surrounding goods that are touched by the hand so it is recommended to always maintain hand hygiene by washing hands with water and soap. Not at every entrance in Niti Mandala Renon field, there is a sink and no information about the location of the sink in this field, which can cause the community to be confused due to lack of information. Augmented Reality (AR) applications can be used to solve this problem because with AR can explain more interactive information because the information displayed through 3D objects is directly applied to the real world visually. In this case, AR is used to display the map of sink location information with an interactive 3D model that can be rotated and zoomed to help the community easily get the information. This application use marker-based AR with multi-target so that each map information is stored and display on the different marker. Users only need to install the application on their android device and scan the QR code provided, then the 3D map object will be displayed according to the registered marker. Based on testing this study gets a 100% success rate in functional aspects.


2016 ◽  
Vol 140 (4) ◽  
pp. 3277-3277
Author(s):  
Hiraku Okumura ◽  
Khiwadkar Sushrut ◽  
Sungyoung Kim

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