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How to Shoot Geotagged 360 Photos: 6 Fail-Proof Saving Steps

By LRTK Team (Lefixea Inc.)

All-in-One Surveying Device: LRTK Phone

In the fields of construction and civil engineering sites, equipment inspections, and construction management, on-site documentation using 360-degree cameras has been attracting attention in recent years. A single 360-degree photo can record an entire site, which is highly useful for remote situation checks and quality and safety management. Furthermore, 360 photos with location information (geotags) make it clear "where it was taken," enabling photo data to be linked to drawings or maps for management. However, for those introducing this technology for the first time or for practitioners who understand the basic operations but have concerns about positioning accuracy and data storage, knowing the correct shooting procedures and storage methods is important. In this article, we explain practical, on-site know-how ranging from preparation for shooting geotagged 360 photos, equipment selection, ensuring positioning accuracy, concrete shooting procedures, six steps to save data without failures, sharing methods, common mistakes, operational rules, to safety management.


Table of Contents

Key Points for Shooting Preparation

Selecting 360-degree Cameras and Equipment

How to Ensure Positioning Accuracy

Correct Procedures for Shooting 360-degree Photos

Six Saving Procedures to Avoid Mistakes

How to Share 360-degree Photos

Common Mistakes and Countermeasures

Establishing and Enforcing Operational Rules

On-site Safety Management Considerations

Summary


Key Points for Preparing to Shoot

Thorough preparation is essential to successfully capture geotagged 360 photos. Before heading out to shoot, check the following points. First, make sure the batteries of the 360-degree camera and the smartphone (or tablet) you will use are sufficiently charged. If you will be shooting on location for an extended period, bring spare batteries and a charger to avoid running out of power midway. Also check that there is free space in the camera’s internal storage (SD card, etc.), and if necessary, organize data in advance. Check the lens for dirt or scratches and clean the lens before shooting. Because 360-degree cameras capture all directions, even slight lens dirt can show up prominently in the images.


Next, plan the schedule and movement flow at the shooting site. Mark on the drawings in advance or place markers on site to indicate where you will take 360-degree photos, as this is more efficient. If you will be shooting multiple locations, simulate the travel order and the directions in which you will shoot. To avoid rushing and ensure smooth shooting on site, prepare and bring a shooting plan and a checklist. Also, if you are shooting indoors or in locations with unstable GPS signals, consider in advance the methods for positioning (acquiring location information) as described later. If necessary, load site drawings and map data onto your smartphone so you can refer to them and always keep track of the shooting positions.


Additionally, preparing safety measures is important. Wear basic protective gear such as helmets and safety shoes, and check the surrounding area for safety when setting up and operating the camera. When using a tripod or monopod, ensure a stable base so the equipment does not tip over, and secure it with weights if necessary. When shooting at heights, implement fall-prevention measures, and for restricted areas obtain permission from relevant personnel; prepare a safety management plan during the preparation stage. By thoroughly preparing for shooting, you can prevent on-site problems and carry out high-quality 360-degree photo documentation.


Selecting 360-Degree Cameras and Equipment

Equipment selection also determines the success of position-tagged 360° photos. First, choose a 360° camera body that has the performance and sturdiness to withstand field use. When used outdoors or in dusty environments such as construction and civil engineering, dustproof and waterproof performance is important (as a guideline, a dustproof/waterproof rating of IP65 or higher is desirable). In addition, check shock resistance and opt for a rugged model that is unlikely to fail from minor drops or knocks. Also, selecting a model capable of shooting at high resolution is helpful when enlarging photos to check details. As a guideline, 18MP (approximately 18 million pixels) or higher for still images is advantageous for quality control if possible. However, higher resolution also increases file sizes, so it is necessary to establish a data management system such as the storage procedures described later.


Next are the devices used to acquire location information. Some 360-degree cameras have GPS built into the camera body and can record location information (latitude and longitude) simultaneously with shooting. For example, GPS-equipped models are convenient because they can obtain geotagged photos with the camera alone. On the other hand, for cameras without GPS, it is common to use the smartphone's GPS by linking the camera with a smartphone. By connecting the camera and smartphone via Bluetooth or Wi‑Fi and turning on the smartphone's location services, the smartphone's location information is sent to the camera at the time of shooting and embedded in the photos. When shooting on site, to improve the smartphone's positioning accuracy, it is a good idea to enable high-accuracy mode in advance (such as Android's high-accuracy positioning mode) or to use a positioning assistance app.


Note that typical smartphone GPS may be accurate only to within several meters (several ft). If higher positioning accuracy is required (for example, when you want to indicate exactly which room inside a building a photo was taken in, or when you need to compare exactly the same point across multiple shoots), consider using high-precision GNSS equipment. Recently, compact GNSS receivers that support the RTK (Real-Time Kinematic) method have appeared that can be linked with smartphones or cameras to achieve centimeter-level positioning (half-inch accuracy). For example, by using an external RTK receiver for a smartphone or a GNSS device that supports multiple frequencies without requiring a base station (such as devices compatible with the CLAS augmentation signal from the Michibiki satellites), you can record positions with an accuracy of several centimeters (several in) even in mountainous areas outside of network coverage. Depending on field requirements, combining these high-precision positioning devices can dramatically improve the accuracy of photo location information.


Finally, the surrounding accessories. Tripods and monopods are indispensable for stable shooting. Especially with 360-degree cameras, which capture the entire sphere, selfie sticks and tripods can appear in the shot, but using a thin monopod or a dedicated stand can minimize their visibility. At sites with uneven ground, a tripod with a reliable height-adjustment mechanism is useful. Also prepare a remote control for remote operation and a timer function. With a remote control, the photographer can trigger the shutter from a distance, allowing clean 360-degree photos without the photographer appearing in them (some recent models also have a time-shift shooting feature that captures the front and rear lenses at different times to avoid capturing the photographer). Consider bringing portable lighting where illumination is insufficient. By properly selecting and preparing this equipment, you can confidently capture high-quality geotagged 360 photos on site.


How to Ensure Positioning Accuracy

In geotagged 360° photos, the accuracy of location information is a key point. To be able to plot and use the photos you took on maps or drawings later, you should record coordinates with as little error as possible. Below, we summarize the methods and precautions you should keep in mind to ensure positioning accuracy.


As a basic rule outdoors, check the GPS signal status before shooting. When using a smartphone, check the displayed location error in your camera or map app (many smartphones show an error radius). Just before shooting, wait in an open area for several tens of seconds to allow the GPS to acquire a sufficient fix (i.e., to reduce the error), and then start shooting. In environments where GNSS signals are easily disturbed, such as between buildings or under overpasses, it is effective, if possible, to first stabilize positioning in an open area before entering the site. If positioning still cannot be stabilized, one option is to take the photo first, then obtain the coordinates of that point separately with a handheld GPS or surveying instrument and link them to the photo later.


Next is the use of high-precision positioning technologies. When using the RTK-GNSS receiver mentioned above, always make sure that the RTK has obtained a Fix at the time of shooting. By confirming on the dedicated app that “RTK Fix” or “high-precision positioning mode” is displayed before pressing the shutter, you can consistently ensure centimeter-level positional accuracy (cm level accuracy; half-inch accuracy). It is important to wait for the accuracy to stabilize even if it takes some time. Conversely, if you shoot while not Fixed (in a float solution or single solution state), errors of tens of centimeters to several meters (tens of cm to several m; tens of in to several ft) can occur, which may lead to misunderstandings when identifying positions later. Also, in locations where the smartphone loses cellular coverage during positioning, devices that support Michibiki’s CLAS or offline RTK can continue positioning, but if not, consider preparing in advance by downloading base station data (using the PPP-RTK method or utilizing pre-seed information).


Also make it a habit to verify the accuracy of each photo. After shooting, preview the photo on the spot and check the recorded location information if possible. For example, some smartphone companion apps can display a pin for the taken photo on a map. Use that to confirm whether a pin has been placed in an obviously incorrect location. If the pin is in an unnatural position, positioning may have been disturbed during shooting, so consider waiting a short time and retaking the photo. A small on-site check can help prevent the later failure of “I don't know where this photo was taken.”


Finally, although this is not directly related to positioning accuracy, consider the reproducibility of the shooting position. When conducting fixed-point observations of the same site, photographing from as close as possible to the same position and height each time allows you to compare photos accurately. To do this, it is useful to mark the floor or wall to fix the shooting position, or to record the tripod height and the camera’s orientation. By improving reproducibility, even small positional shifts can be relied on when comparing and examining results from multiple shoots. By taking such measures to maximize positioning accuracy, the reliability of location-tagged 360 photos is improved, enabling accumulation of data without recording errors.


Correct Procedure for Shooting 360-Degree Photos

Here we explain the step-by-step procedure for shooting actual 360-degree photographs. The basic operations are simple, but by keeping a few key points in mind during shooting you can create a comprehensive, high-quality photographic record without oversights.


Equipment setup: When you arrive at the shooting location, first set up the 360-degree camera. Stabilize the tripod or monopod and adjust it so the camera is level (some models have an electronic level function in the smartphone app, so make use of it). Operate the camera from a few meters away, if possible, so you are not visible in the camera lens. If the floor is flat indoors, you can also shorten the tripod and set it directly on the floor, but if you place it directly on a surface or platform, be careful that the camera does not fall over.


Confirming acquisition of location information: If the camera and smartphone are connected, check the smartphone to confirm the current location is being acquired. Make sure the GPS icon has stopped blinking, and if using RTK that it displays "Fix", before proceeding with shooting. If necessary, to establish a directional reference, view the camera preview in the smartphone app and adjust the composition (for example, set the camera so that major structures are directly ahead).


Shooting: Once you’re ready, press the shutter button to take the photo. If you’re operating remotely with a remote control or a smartphone app, confirm the capture by the shutter sound or the blinking of the indicator light. Some cameras allow you to set a self-timer of about 2 to 10 seconds, so using the timer is a good way to ensure the photographer can step away from the camera and avoid appearing in the frame. Recent models also offer photographer‑hiding features called time shift or ghost mode, so be sure to make use of them if your model supports them.


Preview check: Immediately after shooting, check the photo on the smartphone or camera screen. Check for exposure, blur, or unnatural rendering at the seams between lenses (stitching errors). If it is too dark or too bright, consider re-shooting with HDR mode or exposure compensation. If moving people or machinery are captured and make the image hard to see, try changing the timing and retaking the shot. To avoid the mistake of later finding that important areas are not visible because you left the shots "as-is", it is important to verify quality on the spot. Also, ideally confirm whether location tags are recorded (for example, check that the photo's pin appears on the app's map display).


Record: After shooting at all planned locations has been completed, leave a brief record note of the shooting date and time and the shooting location. For example, noting in the site daily report or inspection record sheet something like "Month Day Building XX 1st-floor hall 360° shooting with Camera A (file name 0001)" will be useful when organizing photos later. On sites where multiple people are shooting, don't forget to share who photographed which locations. If you fill in the photographed locations on a map or drawing to visualize them as "photographed," it will help prevent missed shots.


These are the basic shooting procedures. Especially on-site, you are often pressed for time, but calmly and reliably taking each photo one by one is ultimately the quickest way to reduce rework. Precisely because 360-degree photos can capture the entire site in a single shoot, stay calm and shoot carefully to eliminate mistakes like "I forgot to photograph that part...".


6 Foolproof Storage Procedures

After you finish shooting, the next step is saving the photo data. Even 360-degree photos you worked hard to capture can lead to failures—such as "data disappearing," "location information being lost," or "not knowing which file is which"—if saved incorrectly. Here, we introduce six sequential storage steps to prevent these kinds of mistakes.


Immediate data copy after shooting: After finishing shooting on site, copy the photo data to another storage medium as soon as possible. Leaving it on the camera body or SD card is risky, because in the event of loss or malfunction the data could be lost. If you can bring a laptop to the site, back it up there; if that's difficult, copy it to a PC or an external HDD as soon as you return to the office.


Backup the original files: For copied original data, always make duplicates and store them redundantly (backup). Ideally, follow the 3-2-1 rule: create three copies of your photos, store them on at least two different types of media (for example, an on-premises server and a portable SSD), and keep one of those copies off-site or in the cloud. At a minimum, if you store data on your PC, keep another set on a different HDD or NAS so that if one device fails you can restore from the other.


Save in a format that preserves metadata: Photo metadata (Exif information such as location data, date and time, and camera model) is extremely important. Take care to ensure these are not lost when saving. For example, set image-editing software to include Exif when exporting, and share via the cloud rather than as email attachments to preserve Exif. In particular, because location information remains as a geotag embedded in the photo data, when performing format conversion or resizing you should, whenever possible, retain the original format (JPEG etc.) or choose a method that preserves the metadata. If you keep the original data as-is, the metadata will be preserved, so even if editing is necessary, always keep a separate copy of the original.


Systematic file organization and naming: When saving data, establish rules for how files will be organized. The basic approach is to create folders for each shooting date and site name and save the photo files within them. For example, use folder names like "2025-12-01_◯◯ Site" and "2025-12-08_◯◯ Site" that include the date and site name, and save files inside with filenames that indicate the shooting location, such as "Point A.jpg" and "Point B.jpg". Share a unified naming convention (naming rule) with the team so that the date/time and location can be inferred from the filename — this will be useful later. If you have an inventory ledger or photo management software, make sure to follow it and place files in the designated folders.


Deletion and compression of unnecessary data: Before saving, organize and delete clearly unnecessary photos (blurred, duplicate failed cuts, etc.). For 360-degree photos, where data volumes become enormous, it is important to operate in a way that does not leave redundant data. However, if you are unsure whether to delete something, do not force deletion; it is better to isolate and store them in a separate folder labeled "unused cuts". Also, for long-term storage, one option is to reduce capacity using lossless compression formats (for example, ZIP archives). However, because compression and decompression add overhead, adopt them according to your operational workflow.


Regular checks for data preservation: Saved data also requires periodic inspection. In particular, if the backup medium is an external HDD, consider checking a few times a year whether it can be read properly and copying the data to a new medium. If you store data in the cloud, pay attention to contract expiration dates and storage overages, and manage them to avoid forgetting to renew. Also, make it a habit to update your backups every time you take new photos, keeping the latest data always duplicated. If you keep up with regular inspections and updates, you can avoid failures such as "I can't find the photos from that day" or "I thought I had backed them up, but the backup was outdated" when it matters.


By putting the six steps above into practice, you can safely and efficiently store and manage 360-degree photo data. The key points are "copy immediately", "store in two places", "keep things organized", and "perform regular checks". To avoid losing important on-site records, don't skimp on the extra step after shooting—make sure to reliably protect your data.


How to Share 360-Degree Photos

Geotagged 360-degree photos that have been captured and saved only realize their value when shared among stakeholders. By sharing information with remote supervisors, clients, and partner companies and conveying the on-site situation realistically, communication efficiency improves dramatically. Here we explain methods and key points for smoothly sharing 360-degree photos.


First, as a common approach, there is sharing using cloud storage. If your organization has an in-house cloud service, it’s convenient to upload the photo files there and grant viewing permissions to the relevant parties. By placing photos in a shared folder and sharing the URL, people can download the photo files via a browser even from remote locations. However, ordinary cloud storage does not allow 360-degree images to be viewed in a full-spherical view, and they may be displayed simply as distorted image files. Because viewers need to open them individually in a 360-degree viewer (a dedicated app or an image viewer), it’s helpful to add a brief note when sharing: "Please open the images in a 360-compatible viewer."


Next, consider using a more specialized 360-degree image sharing platform. For the construction industry, there are several cloud services that allow you to associate 360-degree photos with drawings and manage them. Some systems, including in-house developed ones, provide a mechanism to place pins at capture locations so you can view the photos. By using such services, recipients can intuitively grasp "where the image was taken" and check it by dragging the view around in their browser. This not only smooths information sharing but also eliminates the hassle of sending files individually and ensures they can always refer to the latest data in the cloud.


Even if you haven't deployed dedicated tools, you can make sharing easier by tweaking the file format. 360-degree photos are usually in JPEG format, but a plain JPEG can be hard to view depending on the recipient's software. One solution is to send the 360-degree photo as an equirectangular image (spherical panorama) so it can be opened by common viewers, and provide guidance to a free viewer app (for example, the Google Street View app for smartphones, which can also be used to view it). Alternatively, you can extract several still captures from the image and paste them into a PDF report. By extracting the important areas as flat photos and attaching the original data with a note such as “see 360-degree image for details,” you can convey the minimum necessary information regardless of the recipient's environment.


Be mindful of security when sharing. Construction photos may contain confidential project information. When sharing via the cloud, set access permissions to restricted access and take measures to prevent leaks, such as adding a password. When sending as an email attachment, ensure security by, for example, password-protecting compressed files. In addition, it is important to follow up so that recipients can properly view the 360-degree photos. If necessary, share a simple viewing manual (for example, "save the file and then open it like this"), or, if internal, hold a briefing to inform staff. There is no point in sharing if files are left unused because people do not know how to view them. Consider supporting easy use by anyone as part of the sharing process.


Common Mistakes and Countermeasures

It is also important to be aware of common mistakes that tend to occur when operating geotagged 360° photos. Here we introduce the on-site mistakes that frequently occur and the countermeasures for them.


Missed shots: Even when shooting with a 360-degree camera, you can still forget to photograph key points. For example, you may miss photographing a part of the site and later realize that “there are only no photos for that area.” As a countermeasure, list shooting points in advance and enforce a workflow of marking them with a check after shooting. When multiple people are photographing, clarify each person’s area of responsibility and use double checks to prevent missed shots.


Location information recording errors: There are also failures where you forgot to connect with your smartphone and location information was not recorded. After shooting, you look at the photo and find no GPS information, leaving you unsure where it was taken. To prevent this, make it a habit to check each time before shooting that "the smartphone’s GPS is turned on" and "the camera’s location-recording setting is enabled." Even if some photos end up missing geotags, if you have notes of the date, time, and place of shooting, you can manually add location information to the photos later (using a geotag editing tool, etc.).


Loss of photo data: Data can sometimes be lost due to errors made during the storage stage. For example, formatting an SD card before transferring its data, or a PC failing when no backups have been made. Such catastrophic losses can be largely avoided by faithfully following the six storage procedures described above. Because the risk is especially high if there is no habit of making backups, ensure the entire team adopts the practice of keeping copies in multiple locations.


Lost in photo organization: You may take lots of photos but fall behind on organizing them, making it common to "not be able to find the photos you need" or "not know which file name corresponds to which location." Especially when you shoot every day and your data accumulates, if you don't properly name files and sort them into folders, it can take an enormous amount of time to locate photos later. This can be addressed by creating initial organization rules and practicing them daily. Even when you're busy, sorting photos into folders by the end of the day and uploading them to a photo management system if necessary will let you quickly reach the photo you need later.


Inadequate viewing environment: When sharing, the recipient may not be able to view the 360-degree photos correctly, causing them to go to waste. For example, you might receive inquiries such as "I received the images but can't view them properly." To address this, as mentioned in the sharing methods section, prepare a viewing guide and, where appropriate, also provide still images. Also, within your company it can be effective to set up a viewer environment and install the dedicated software on PCs so that anyone can open the files.


The kinds of failures described above can be largely prevented through prior countermeasures and information sharing within the team. By knowing in advance the points that are prone to failure and operating with the awareness that "this case requires caution," you can minimize troubles on site.


Establishing and Enforcing Operational Rules

To continuously utilize geotagged 360-degree photos on site, establishing and enforcing operational rules is essential. Even if there is excitement when the system is introduced, if field staff use it inconsistently you will not get the full benefits. Here we explain key points for creating rules to ensure smooth operation.


First, standardize the photo-taking procedures. Clearly document "when, where, who, and how to take photos." For example, set timing rules such as "photograph the main areas on Monday morning once a week" and "the person in charge takes photos and records them upon completion of each process." In addition, create a manual that includes a "pre-shoot checklist" (equipment and GPS checks, etc.) and "post-shoot processing" (through data storage and sharing), and post it in visible locations on site or distribute it; this is effective. If the procedure manual is prepared so that even new staff can follow it, others can substitute when the person in charge is absent, which reduces the risk of missing records.


Next is conducting training. Especially in the initial stage, hold hands-on shooting practice sessions using a 360-degree camera so that all staff have an opportunity to become familiar with operating it. Members who were confused at first will feel less resistance once they personally experience the whole process from shooting to saving and sharing. Even a short training session can enable on-site, autonomous use if participants understand “Is this how I should shoot?” and “Is this where the data is saved?” By ensuring not only the site representative and supervisors but also foremen and inspectors know how to operate it, you can establish a system for the entire team to share recorded information.


Clarifying role assignments and who is responsible for management is also important. For example, even if each person handles routine shooting, decide who will take care of final data management (checking backup status and consolidating data to the cloud)—for instance, the ICT staff or office personnel. Because backup and data organization tend to be postponed, it is reassuring to assign them as regular tasks, such as "Every Friday ◯◯ checks all data." This also helps prevent human error and contributes to creating a system that ensures photos are managed without omissions even on busy sites.


Finally, formalize continuous improvement as a rule. Once you start operating, you will notice things like "folder names would be better this way" or "we should increase the shooting frequency a bit." Discuss those regularly within the team and reflect them in the operating rules. For example, at a monthly regular meeting, put "usage of 360-degree photos" on the agenda, share what worked well and what problems were encountered, and decide on improvement measures. The field is always changing, so the rules need the flexibility to evolve accordingly. To avoid letting a handy tool go to waste, continue to refine the operating rules by incorporating on-site feedback and work to ensure they are adopted.


Precautions for on-site safety management

When utilizing 360-degree cameras, sufficient attention must also be paid to safety management. It would be counterproductive if focusing on the equipment led to neglecting the safety of workers. Here, we will review the safety precautions to observe when shooting 360-degree photos.


First, comply with basic safety rules at the worksite. The camera operator must reliably wear required protective equipment such as a helmet, safety harness, and reflective vest. When setting up the camera, take care not to extend into vehicle or heavy-equipment passages, and act with safety first—for example, assign a spotter or temporarily request vehicle stoppage if necessary. When shooting at height or on scaffolding, one hand is likely to be occupied, so always implement fall-prevention measures (re-attaching the safety harness to a handrail or hook) before operating the camera. Because 360-degree camera shooting can require supporting the equipment with both hands, it is essential to maintain a stable posture on scaffolding and avoid overreaching.


Next is safety in handling equipment. When using a tripod, spread the legs fully to stabilize it, and on windy days hang weights or sandbags to prevent tipping. During shooting, clearly mark the area around the tripod (e.g., place cones) so that people and vehicles do not collide with it, and set it up in a position that is out of the way, such as near a wall, whenever possible. If equipment should fall, it can cause not only damage to the camera but also injuries to those nearby. In particular, when using poles taller than 2 m (6.6 ft), take care to ensure that people do not enter the fall radius. When shooting while holding equipment high, check that there are no obstacles underfoot, and have a safety officer call out to prevent tripping and falling so the team can provide support.


Also, consider safety in terms of privacy and information management. A 360-degree photo captures everything at the site. In places where members of the public are nearby, faces, car license plates, and other personal information can be captured unknowingly. When sharing such photos outside the company, it is desirable to process them appropriately (for example, by blurring people in the image) before distributing them. Even on site, it is important to notify nearby workers and obtain their consent when shooting. If you say, "We will take a 360-degree photo now, so please cooperate," people will notice the camera and move out of the way. To avoid problems caused by taking photos without permission, ensure smooth communication at the site.


Finally, as a safety management precaution, also adopt the mindset of not getting so absorbed in shooting. When using new equipment, it's easy to become so focused on shooting that you lose awareness of your surroundings. Always maintain the awareness that "this is a site where hazards may be present," and do not neglect checking the surrounding situation (area monitoring). For example, as with normal work, pay attention to safety by checking whether a backhoe is swinging, whether objects might fall from above, or whether exposed rebar ends are protruding at your feet. It is also safer to have one person assigned to watch the photographer to perform safety checks and assist with equipment. Using 360-degree photos can contribute to strengthening safety management, but operate with safety as the top priority at all times so that the practice itself does not create new risks.


Summary

We explained the procedures and key points for capturing, storing, sharing, and utilizing location-tagged 360 photos. On construction, civil engineering, and facilities sites, combining 360-degree photos that can record all directions at once with accurate location information can greatly reduce omissions in records and communication errors, and is expected to improve the efficiency and sophistication of construction management and inspection tasks. At first, preparing equipment and managing data may seem cumbersome, but by putting into practice the shooting preparations and equipment selection points, methods for ensuring positioning accuracy, correct shooting procedures, and the six steps for fail-safe storage introduced in this article, anyone should be able to operate 360-degree photos on site with confidence. Furthermore, by devising sharing methods so all stakeholders can utilize them, the site can be virtually experienced remotely and communication will become smoother. Even after operations begin, if you pay attention to common failure cases and continue under appropriate rule-making and safety management, location-tagged 360 photos should take root as a powerful on-site DX tool.


There are also solutions that leverage high-precision positioning technologies to enhance photo documentation and positioning on site. For example, in a system that integrates a 360-degree camera with RTK-GNSS, simply pressing the shutter can simultaneously capture photos in all directions and record coordinates with centimeter-level accuracy (half-inch accuracy), and automatically organize and share them in the cloud. By using tools like LRTK, anyone can easily create high-precision geotagged photo records without specialized knowledge, which can lead to more efficient future construction records and simplified surveying work. Adopt such advanced technologies according to your company’s needs and make full use of geotagged 360 photos to realize safe and efficient site operations. Going forward, site documentation that shares high-precision data among the team and visualizes it will enable further productivity improvements and quality assurance. At your site as well, please take the step toward smart record management using geotagged 360 photos.


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