A defined ±0.1° accuracy grade
Select H310-TS150M when the required inclination change is compatible with ±0.1° accuracy. Specify the working range and measurement conditions.
Tilt sensor.
Medium precision.
±0.1° accuracy.
The Hitelecom H310-TS150M is a medium-precision tilt sensor with ±0.1° accuracy for measuring inclination at a defined mounting point. Explore rack uprights, poles, equipment frames and other assets where this accuracy grade matches the required angle change. Start with the smallest useful change, then specify mounting, reporting and the data connection for your project.
±0.1°Medium precision accuracyH310-TS150M
0.01°High-precision alternativeExisting high-precision tilt sensor
±1°Low-precision alternativeH310-TS100L
KEY FEATURES
Made for the way
you monitor.
Match the accuracy grade, measured element and installation to the angle change your team needs to review.
An angle tied to an asset
Associate the mounting point with a rack bay, pole, frame or equipment ID so the reading has a clear location in the inspection record.
A consistent installation reference
Record the initial position after fixing the sensor. Review later readings using the same mounting position and angle convention.
Mounting planned for the task
Choose the measured member, fixing surface and access together. Share drawings or a site photograph to define the installation arrangement.
A specified data route
Include your communication and platform requirements in the enquiry. Confirm the supported configuration and interface for the supplied model.
A practical review workflow
Define a project-specific review condition and the person who will assess a persistent change. Validate the complete workflow during commissioning.
A CLEARER VIEW OF CHANGE
Measure the angle.
Follow the trend.
A tilt sensor measures the angle at its own mounting point. For H310-TS150M, compare later readings with a documented installation reference and assess the useful change against the ±0.1° accuracy grade. The asset, fixing arrangement and site conditions give that trend its meaning; the angle reading describes local rotation at the chosen point.
Find your applicationFROM READING TO INSIGHTIllustrative readings
Installation reference0.3°
Later reading0.5°
Change from reference+0.2°
Illustrative comparison only. Specify the supplied working range and resolution separately.
- 01
Establish the reference
Fix the sensor to the selected element. Record its asset ID, mounting position, angle convention and initial reading.
- 02
Define a useful change
Compare the project’s smallest meaningful change with ±0.1° accuracy, then specify the range, reading interval and review condition.
- 03
Connect the reading to an action
Confirm the supplied data interface, identify the responsible team and test the agreed reporting workflow during commissioning.
CHOOSE YOUR MEASUREMENT GRADE
Three grades.
One clear choice.
H310-TS150M is the ±0.1° medium-precision option. Compare the required angle change with the grade before selecting the mounting, operating profile and data route. H310-TS150M acquires an angle reading every minute and sends scheduled reports every four hours, with 240 acquisition cycles between reports.
0.01°
High precision
Existing high-precision tilt sensor entry.
±0.1°
Medium precision
H310-TS150M accuracy grade.
±1°
Low precision
H310-TS100L accuracy grade.
Your task
The selection reference
Required angle change, mounting and measurement conditions.
H310-TS150M · GRADE SELECTIONThe required angle change.
The appropriate measurement grade.
The appropriate measurement grade.
Accuracy, resolution and a project review threshold describe different things. Specify them separately for the working range and site conditions. Confirm the measurement and reporting intervals, power arrangement and enclosure for the supplied H310-TS150M configuration.
APPLICATIONS
Different structures.
One focused measurement.
Explore inclination records for warehouse racking, infrastructure, industrial equipment and energy assets. Each task identifies the measured member, mounting point and project details for the ±0.1° model.
9 industry categories 39 monitoring tasks
Application illustrations show monitoring environments; they are not customer installation records.
01Smart warehousing5 monitoring tasks +
Rack systems, automated high-bay storage and mezzanine columns across the warehouse.
Warehouse racking
Local inclination of a selected rack upright relative to its documented installation reference.
Keep an inclination history for selected pallet-rack uprights across the warehouse. Link each reading to the rack row and bay, then compare it with the installation reference, documented load states and handling reports. The record gives the warehouse team a consistent way to review orientation after layout changes, reported forklift contact or rack maintenance alongside its normal inspection process.
- Inclination to monitor
- Local inclination of a selected rack upright relative to its documented installation reference.
- Monitoring point
- A rigid upright position protected from pallet loads and forklift contact.
- Plan your installation
- Rack layout, upright section, typical load states, required angle sensitivity and inspection workflow.
Automated high-bay racking
Local inclination of a selected high-bay upright under comparable loading conditions.
Connect local upright-orientation readings to the rack rows and service locations of an automated high-bay warehouse. Maintenance teams can compare the angle history before and after stacker-crane servicing, rack adjustments or reported contact, using consistent loading conditions. The named monitoring points keep the information useful across a large storage installation while leaving crane, shuttle and load clearances available.
- Inclination to monitor
- Local inclination of a selected high-bay upright under comparable loading conditions.
- Monitoring point
- An approved rigid upright position outside stacker-crane, shuttle and load clearances.
- Plan your installation
- Rack height, row identifiers, service access, load states, smallest useful angle change and fixing position.
Cantilever racking
Inclination of the selected cantilever-rack column under comparable loading.
Follow the orientation of selected cantilever-rack columns carrying tubes, timber or other long goods. Associate each point with its bay, arm arrangement and normal load distribution so later readings can be compared meaningfully. The resulting angle record supports review after handling impacts, rack adjustments or changes in stored lengths and weights, with the required sensitivity defined for the installation.
- Inclination to monitor
- Inclination of the selected cantilever-rack column under comparable loading.
- Monitoring point
- A rigid column section clear of cantilever arms, long goods and loading contact.
- Plan your installation
- Column and base details, arm layout, representative loads, access and required angle sensitivity.
Drive-in pallet racking
Local inclination of a selected drive-in rack upright at documented load conditions.
Organize upright-inclination records by storage lane in drive-in or drive-through pallet racks. Compare readings with the installation reference and documented loading sequences to review changes after reported forklift contact, support-rail adjustment or maintenance. Recording the same structural member under comparable loads helps the inspection team relate an angle change to a specific lane rather than an unidentified part of the warehouse.
- Inclination to monitor
- Local inclination of a selected drive-in rack upright at documented load conditions.
- Monitoring point
- An approved rigid upright position outside vehicle travel and pallet-support clearances.
- Plan your installation
- Lane layout, loading sequence, upright identity, review sensitivity and inspection access.
Mezzanine support columns
Local inclination of a named mezzanine support column.
Associate inclination readings with the columns supporting a warehouse mezzanine or storage platform. Establish the reference after installation and record representative loads on the level above. Later comparisons provide an orientation history for review after storage-layout changes, equipment relocation or support maintenance, keeping each reading linked to the column grid and the owner’s inspection records.
- Inclination to monitor
- Local inclination of a named mezzanine support column.
- Monitoring point
- An approved rigid column position protected from handling contact and clear of removable finishes.
- Plan your installation
- Column grid, mezzanine use, representative loads, fixing permission and required angle sensitivity.
02Poles & towers5 monitoring tasks +
Street lighting, power lines, telecom sites and roadside sign supports.
Street-light poles
Local inclination of the selected pole section relative to its installation reference.
Keep a named inclination reference for street-light poles across roads and public spaces. Maintenance teams can compare later readings after reported vehicle contact, foundation works or pole servicing, with each record tied to the same fixing direction and asset identifier. The approach also applies to selected roadside equipment poles where a local orientation history is useful for planned inspection and maintenance.
- Inclination to monitor
- Local inclination of the selected pole section relative to its installation reference.
- Monitoring point
- An approved rigid pole section above the base and protected from vehicle contact.
- Plan your installation
- Pole material and diameter, base arrangement, measurement direction, access and required review sensitivity.
Transmission towers
Local inclination of an approved tower member along defined measurement axes.
Relate orientation readings from selected transmission-tower members to the tower identifier, mounting level and measurement direction. A documented reference supports comparisons after foundation works, member replacement or scheduled inspections. Keeping the angle history with maintenance and site-condition records helps the utility review a persistent local change at the intended member, using the angular sensitivity specified in its asset monitoring plan.
- Inclination to monitor
- Local inclination of an approved tower member along defined measurement axes.
- Monitoring point
- An owner-approved rigid member with the required electrical and maintenance clearances.
- Plan your installation
- Tower drawings, member and elevation, electrical clearances, required angle sensitivity and inspection workflow.
Telecom towers
Local inclination of an approved telecom-tower member at a defined height.
Maintain a local orientation history for selected telecom-tower members as equipment and site arrangements change. Link every point to its mounting height, measurement direction and tower reference, then compare readings with antenna additions, maintenance visits and foundation inspections. The record helps the site team distinguish a persistent change at a named structural member from an undocumented change in the measurement setup.
- Inclination to monitor
- Local inclination of an approved telecom-tower member at a defined height.
- Monitoring point
- A rigid structural member clear of antenna adjustments, equipment access and service routes.
- Plan your installation
- Tower type, member geometry, mounting height, work history, required angular change and access.
Billboard support poles
Inclination of the selected billboard-support pole at the approved mounting position.
Connect the inclination history of a billboard support pole to the sign location and its maintenance record. Compare the same member and measurement direction after panel replacement, support work or foundation servicing, noting the relevant wind and loading conditions. This gives the sign owner a repeatable local angle reference for inspection review without confusing changes in the billboard panel with changes in its support.
- Inclination to monitor
- Inclination of the selected billboard-support pole at the approved mounting position.
- Monitoring point
- A rigid approved pole or support-member position accessible to the maintenance team.
- Plan your installation
- Support geometry, panel dimensions, base details, environmental context and required angle sensitivity.
Distribution utility poles
Local inclination of the selected distribution pole in the agreed direction.
Organize inclination records for selected distribution poles by asset number and line section. Compare the local pole angle with its installation reference after nearby ground works, pole maintenance or reported contact, using the same measurement direction. A consistent point record gives the utility team useful context for field inspections across dispersed routes and helps connect an observed change to the correct pole.
- Inclination to monitor
- Local inclination of the selected distribution pole in the agreed direction.
- Monitoring point
- An owner-approved rigid pole position with the required electrical and maintenance clearances.
- Plan your installation
- Pole material, line section, fixing approval, relevant angle change, service access and inspection schedule.
03Bridges, roads & ports4 monitoring tasks +
Selected bridge members, highway retaining walls and working waterfront structures.
Bridge piers & structural members
Local inclination of a selected bridge pier or other engineer-defined rigid member.
Keep an angle record for a named bridge pier or other selected rigid member during agreed installation, maintenance or inspection stages. Connect each reading to its fixing direction, reference condition and relevant work records. H310-TS150M is an option where the engineering team’s local rotation objective is compatible with ±0.1° accuracy; the record complements the bridge’s established survey and inspection measurements.
- Inclination to monitor
- Local inclination of a selected bridge pier or other engineer-defined rigid member.
- Monitoring point
- An approved rigid member position away from loose finishes, joints and moving interfaces.
- Plan your installation
- Member drawings, measurement direction, reference stages, required rotation sensitivity and engineering review procedure.
Highway retaining walls
Local inclination of a selected retaining-wall section at a defined elevation.
Follow the orientation of selected retaining-wall sections along a road corridor. Give each point a wall-section and elevation reference, then compare readings with drainage maintenance, adjacent excavation and inspection observations. The local angle history helps the road-maintenance team review changes at a specific section under documented conditions, with the useful angular sensitivity defined in the wall’s monitoring and maintenance plan.
- Inclination to monitor
- Local inclination of a selected retaining-wall section at a defined elevation.
- Monitoring point
- A sound approved wall position clear of loose finishes, drainage outlets and vehicle exposure.
- Plan your installation
- Wall geometry, section identifiers, drainage context, reference conditions and required angle sensitivity.
Quay walls
Local inclination of the selected rigid quay-wall section.
Connect local quay-wall inclination readings to a named berth section and its maintenance history. Compare the angle record with inspections, apron works and documented operating conditions, including relevant tide and loading context. A stable mounting reference helps the port team review a persistent orientation change at the intended wall element while keeping the information separate from movements of fenders, bollards or handling equipment.
- Inclination to monitor
- Local inclination of the selected rigid quay-wall section.
- Monitoring point
- An approved wall position clear of fenders, mooring hardware, vessels and handling contact.
- Plan your installation
- Wall-section drawings, tide and loading context, marine exposure, access and required rotation sensitivity.
Jetty supports
Local inclination of a selected fixed jetty pile or support member.
Maintain a local orientation record for selected fixed piles or support members beneath a jetty. Identify the member and measurement direction so readings can be reviewed with berth activity, repairs and scheduled structural inspections. Comparisons under agreed conditions help the owner follow a persistent change at that support, with the angle sensitivity and water-exposure conditions specified for the actual installation.
- Inclination to monitor
- Local inclination of a selected fixed jetty pile or support member.
- Monitoring point
- An approved rigid support position suited to fixing access and the expected water exposure.
- Plan your installation
- Pile or support identity, reference conditions, access, exposure and required rotation sensitivity.
04Railways & tunnels3 monitoring tasks +
Railway-side structures, tunnel lining sections and tunnel-portal walls.
Railway-side structures
Local inclination of a selected catenary mast or railway-side retaining-wall member.
Keep inclination records for selected catenary masts or retaining-wall members beside a railway corridor. Associate each point with the asset identifier, mounting direction and installation reference, then compare readings after authorized maintenance or nearby works. This supports review of the named structural member where ±0.1° accuracy matches the specified angle task, alongside the infrastructure owner’s inspection and survey procedures.
- Inclination to monitor
- Local inclination of a selected catenary mast or railway-side retaining-wall member.
- Monitoring point
- An owner-approved rigid member position with the required track, electrical and service clearances.
- Plan your installation
- Asset drawings, selected member, electrical clearances, access windows and required rotation sensitivity.
Tunnel lining sections
Local inclination of an engineer-selected rigid concrete lining section.
Tie a local inclination record to a selected concrete tunnel-lining section and its documented reference direction. Compare readings at agreed project stages with lining inspections, adjacent works and maintenance records. This provides an additional angle history for the named section when the required local rotation measurement fits ±0.1° accuracy, with interpretation kept within the tunnel engineer’s wider survey and monitoring plan.
- Inclination to monitor
- Local inclination of an engineer-selected rigid concrete lining section.
- Monitoring point
- An approved lining position clear of joints, service attachments and access routes.
- Plan your installation
- Lining geometry, section identifier, reference stages, required rotation sensitivity and the wider monitoring plan.
Tunnel portals
Local inclination of the selected tunnel-portal headwall or sidewall section.
Follow local orientation at selected concrete headwall or sidewall sections around a tunnel portal. Keep the section identity and fixing direction with the installation reference, then compare readings after portal works, drainage maintenance or nearby excavation. The angle history gives the project team a defined structural point to review alongside visual inspections and other site measurements at the tunnel entrance.
- Inclination to monitor
- Local inclination of the selected tunnel-portal headwall or sidewall section.
- Monitoring point
- An approved rigid wall position clear of loose rock, drainage paths and operating clearances.
- Plan your installation
- Portal drawings, wall section, works sequence, access and required local angle sensitivity.
05Slopes, dams & embankments4 monitoring tasks +
Engineered slopes, concrete-dam sections, mine benches and reservoir-bank retaining structures.
Engineered slopes & embankments
Local inclination of a selected rigid retaining-wall or concrete stabilization member.
Follow local inclination at selected rigid retaining or stabilization members on an engineered slope. Link each point to its structural section and initial reference, then compare readings with drainage work, inspections and changes to the adjoining ground. The angle history adds a named surface-structure record to the site plan where the required angular sensitivity matches the medium-precision grade.
- Inclination to monitor
- Local inclination of a selected rigid retaining-wall or concrete stabilization member.
- Monitoring point
- An engineering-approved rigid structural surface with a stable fixing reference.
- Plan your installation
- Slope and support drawings, structural section, drainage context, required angle sensitivity and inspection plan.
Concrete-dam structural points
Local inclination at the selected rigid concrete dam section.
Maintain a local angle record at an engineer-selected concrete dam section, with the block identity, fixing direction and reference conditions documented. Compare readings at agreed inspection or maintenance stages with the dam’s existing measurement records and water-level context. Use the ±0.1° grade only when it suits that defined rotation task; this point record remains one input to the owner’s wider monitoring programme.
- Inclination to monitor
- Local inclination at the selected rigid concrete dam section.
- Monitoring point
- An engineer-approved structural position on the selected concrete section, clear of joints and loose finishes.
- Plan your installation
- Dam-section drawings, reference stages, required rotation sensitivity, water-level context and monitoring procedure.
Open-pit bench retaining structures
Local inclination of a selected rigid bench-retaining or concrete facing section.
Keep an orientation history for selected rigid retaining or concrete facing sections beside an open-pit bench road. Identify the bench, member and reference direction so comparisons remain tied to the same structural point. The mine team can review the angle record with excavation stages, drainage works and inspections, using the sensitivity and interpretation defined in its geotechnical monitoring plan.
- Inclination to monitor
- Local inclination of a selected rigid bench-retaining or concrete facing section.
- Monitoring point
- An approved rigid section with a suitable fixing surface outside mobile-equipment clearances.
- Plan your installation
- Bench layout, structural section, excavation stages, access and required local angle sensitivity.
Reservoir-bank retaining walls
Local inclination of a selected reservoir-bank retaining-wall section.
Associate local inclination readings with named retaining-wall sections along a reservoir bank. Compare the same point and direction with its installation reference, recording water-level context, drainage maintenance and nearby works. The resulting angle history helps the owner review a persistent change at a specific wall section while maintaining a clear link to the shoreline inspection and maintenance record.
- Inclination to monitor
- Local inclination of a selected reservoir-bank retaining-wall section.
- Monitoring point
- A sound approved wall surface clear of drainage outlets, loose finishes and inspection-route obstructions.
- Plan your installation
- Wall geometry, section and elevation, water-level context, access and required rotation sensitivity.
06Construction & temporary works4 monitoring tasks +
Temporary support systems, excavation walls, steel erection and modular-unit setup.
Construction & temporary supports
Local inclination of a selected temporary support member at a defined work stage.
Record the orientation of selected shoring towers, falsework or temporary support members at agreed construction stages. Connect each reading to the member identifier, bracing state and reference established after installation. The angle history helps the site team compare conditions during staged loading or support changes and maintain a consistent record alongside the temporary-works inspection and measurement procedure.
- Inclination to monitor
- Local inclination of a selected temporary support member at a defined work stage.
- Monitoring point
- A designer-approved rigid member position clear of joints, adjustment points and access.
- Plan your installation
- Support drawings, member identities, work stages, bracing states and required angle sensitivity.
Excavation retaining walls
Local inclination of a selected excavation retaining-wall section.
Link local wall-inclination records to the section, elevation and excavation stage of a construction project. Compare readings with the reference condition, support changes and inspection observations as work progresses. A consistent point record helps the project team relate an angle change to the documented work sequence, using the sensitivity and review process established in the excavation’s wider monitoring plan.
- Inclination to monitor
- Local inclination of a selected excavation retaining-wall section.
- Monitoring point
- An approved rigid wall position clear of anchors, support interfaces and construction contact.
- Plan your installation
- Wall and support drawings, excavation stages, point elevations, required rotation sensitivity and review process.
Steel-column erection
Inclination of the selected steel column during a defined erection stage.
Keep a local angle record for selected steel columns during defined erection and adjustment stages. Tie each reading to the column mark, fixing direction and current bracing arrangement, then compare it with the agreed installation reference. The record supports the site’s established setting-out and inspection procedure where ±0.1° accuracy meets the specified angular task, including documented updates after intentional column adjustment.
- Inclination to monitor
- Inclination of the selected steel column during a defined erection stage.
- Monitoring point
- An approved rigid column position outside lifting, bolting and bracing work areas.
- Plan your installation
- Column marks, erection stages, installation tolerance, bracing states and site measurement procedure.
Modular-unit setup orientation
Local inclination of a selected rigid modular-building frame member.
Establish an inclination reference for a selected frame member after a modular building is positioned on its supports. Identify the unit and measurement point, then compare readings after relocation, support adjustment or planned maintenance. The local angle record gives the site team consistent setup information across moves, with the normal loading condition and required angular sensitivity agreed for that unit.
- Inclination to monitor
- Local inclination of a selected rigid modular-building frame member.
- Monitoring point
- An accessible owner-approved frame position clear of removable cladding.
- Plan your installation
- Unit type, support layout, relocation plans, reference condition and required angle sensitivity.
07Heritage, buildings & trees3 monitoring tasks +
Conservation projects, existing buildings under repair and the static orientation of selected trees.
Heritage buildings & pagodas
Local inclination of a conservation-approved rigid structural member.
Keep an orientation history for selected structural members in a heritage building or pagoda. Associate each point with the conservation survey and compare readings before and after repair, support adjustment or changes in documented loading. The record gives the conservation team a repeatable local angle reference where its required sensitivity suits the grade, using an approved fixing method that respects the historic fabric.
- Inclination to monitor
- Local inclination of a conservation-approved rigid structural member.
- Monitoring point
- A specialist-approved structural position using a fixing method appropriate to the historic fabric.
- Plan your installation
- Conservation survey, member identity, permitted fixing, work stages and required angle sensitivity.
Existing buildings & repair works
Local inclination of an engineer-selected rigid building member.
Record local orientation at building members selected for a repair or adjacent-works monitoring project. Link each point to the structural survey and a documented reference, then compare readings with the work sequence, loading changes and inspections. This keeps an identifiable angle history available to the responsible engineer as one part of the building’s assessment and maintenance records.
- Inclination to monitor
- Local inclination of an engineer-selected rigid building member.
- Monitoring point
- An engineer-approved structural position with suitable access and a stable fixing surface.
- Plan your installation
- Building survey, selected member, repair or adjacent-work stages, required sensitivity and interpretation plan.
Urban & heritage trees
Static local trunk inclination at an approved reference point under comparable observation conditions.
Keep a static trunk-orientation record for selected urban or heritage trees using an arborist-approved mounting arrangement. Identify the tree, mounting height and reference direction, then compare readings under agreed observation conditions after support adjustment, nearby works or maintenance. The angle history can accompany arboricultural inspections, with the useful angular change, growth allowance and care of the monitored tree defined in advance.
- Inclination to monitor
- Static local trunk inclination at an approved reference point under comparable observation conditions.
- Monitoring point
- An arborist-approved trunk position with a mounting arrangement that protects bark and accommodates growth.
- Plan your installation
- Tree assessment, trunk geometry, mounting permission, observation conditions, growth allowance and useful angle change.
08Industrial equipment6 monitoring tasks +
Factory equipment and fixed frames, complemented by settled-angle checks on adjustable machinery.
Large equipment & machine frames
Static inclination of the selected rigid machine frame or base.
Maintain a static orientation reference for the rigid frame or base of a large machine, including injection-moulding equipment. Compare readings after relocation, foundation work or support maintenance, using the same stationary load condition. The record helps the maintenance team document a change in machine setup where the manufacturer’s required angular tolerance is compatible with ±0.1° accuracy.
- Inclination to monitor
- Static inclination of the selected rigid machine frame or base.
- Monitoring point
- A manufacturer-approved rigid frame or base position clear of heat, moving parts and service access.
- Plan your installation
- Machine type, installation requirements, stationary load state, required angle tolerance and fixing position.
Production-line frames
Static inclination of a selected rigid production-line support frame.
Organize stationary inclination readings by frame and production-line section. Compare the same structural point after layout alterations, foundation work or support maintenance, keeping the installation reference and load condition with the record. This gives the factory team a consistent angle history for fixed frames across a large line and helps connect a reported change to the relevant maintenance activity.
- Inclination to monitor
- Static inclination of a selected rigid production-line support frame.
- Monitoring point
- An approved fixed-frame position clear of moving equipment, guards, heat and service routes.
- Plan your installation
- Line layout, frame identity, reference load state, smallest useful angular change and fixing access.
Fixed conveyor supports
Static inclination of the selected fixed conveyor-support member.
Keep a local orientation record for selected fixed supports beneath an industrial conveyor. Identify each point by support number and conveyor section, then compare readings after foundation repairs, loading changes or maintenance under agreed stationary conditions. The record helps the maintenance team review the intended support member separately from belt movement, roller adjustment or changes elsewhere along the conveying route.
- Inclination to monitor
- Static inclination of the selected fixed conveyor-support member.
- Monitoring point
- A rigid fixed support clear of belts, rollers, material flow and adjustment mechanisms.
- Plan your installation
- Conveyor layout, support identity, reference load state, required angle sensitivity and access.
Pallet-tilting platforms
Stationary inclination of the tilting pallet platform.
Record the settled inclination of a pallet-tilting platform at the positions used in a handling process. Mount the sensor on the moving platform member and identify the loading condition for each comparison. The medium-precision grade can be specified where the required angle-setting or verification tolerance calls for a finer record than broad raised-and-lowered status.
- Inclination to monitor
- Stationary inclination of the tilting pallet platform.
- Monitoring point
- An approved rigid part of the moving platform, clear of hinges, load travel and handling contact.
- Plan your installation
- Working positions, required angle tolerance, loading conditions, measurement axis, fixing clearance and reporting needs.
Adjustable conveyor sections
Stationary inclination of the adjustable conveyor section.
Keep an angle record for a conveyor section that is intentionally adjusted between process setups. Take the comparison after the section is secured and movement has settled, using the same reference direction. Define the permitted angular setting and required tolerance so the supplied measurement grade, working range and reporting arrangement can be matched to the installation.
- Inclination to monitor
- Stationary inclination of the adjustable conveyor section.
- Monitoring point
- A rigid member that moves with the adjustable conveyor section, outside belt and transfer clearances.
- Plan your installation
- Setup angles, locking arrangement, stationary measurement condition, required tolerance, axis and fixing position.
Tilting assembly fixtures
Stationary inclination of the adjustable assembly-fixture plate.
Use a repeatable inclination record when an assembly fixture is set to different working angles. Fix the sensor to the tilting fixture member and compare readings only after the position is clamped and settled. Share the required angle-setting tolerance and working positions so H310-TS150M can be assessed for this specific setup and verification task.
- Inclination to monitor
- Stationary inclination of the adjustable assembly-fixture plate.
- Monitoring point
- A rigid part of the tilting fixture plate clear of clamps, workpieces and operator access.
- Plan your installation
- Fixture drawings, working angles, clamped states, required angle tolerance, mounting clearances and access constraints.
09Energy & utilities5 monitoring tasks +
Water-tank and silo supports, solar installations and industrial pipe-rack columns.
Elevated water-tank supports
Local inclination of the selected elevated-tank support under documented water-level conditions.
Link inclination readings from selected water-tank support columns to the support identifier and installation reference. Compare measurements at documented water levels and review the angle history with maintenance and inspection records. Keeping the load context with each comparison gives the water-utility team a consistent local orientation record for the intended support, with the required sensitivity specified in the asset monitoring plan.
- Inclination to monitor
- Local inclination of the selected elevated-tank support under documented water-level conditions.
- Monitoring point
- An owner-approved rigid support position with suitable fixing and maintenance access.
- Plan your installation
- Tank and support drawings, water-level comparisons, required rotation sensitivity, fixing and inspection workflow.
Fixed solar-panel supports
Local inclination of the selected fixed solar-support post or rigid frame member.
Keep an orientation reference for selected posts or frame members in a fixed solar array. Identify the row and support so readings can be compared after footing works, frame repairs or changes to the surrounding ground. The angle history helps the site team review the same rigid support over time, keeping its condition separate from panel-surface observations or an adjustable panel’s chosen working angle.
- Inclination to monitor
- Local inclination of the selected fixed solar-support post or rigid frame member.
- Monitoring point
- An approved rigid fixed support clear of module surfaces, cable routes and service access.
- Plan your installation
- Support drawings, row identity, reference orientation, required angular change and fixing permission.
Silo & tank supports
Local inclination of a selected rigid silo or tank support at documented fill conditions.
Maintain an inclination history for selected support legs or frame members beneath a silo or tank. Link each point to the support identifier and commissioning reference, then compare readings under documented fill conditions after maintenance, load changes or foundation work. The record gives the asset team a consistent local angle reference for support inspections and helps preserve the loading context behind each comparison.
- Inclination to monitor
- Local inclination of a selected rigid silo or tank support at documented fill conditions.
- Monitoring point
- An approved rigid support point clear of hot surfaces, process equipment and maintenance routes.
- Plan your installation
- Vessel and support drawings, fill-state comparisons, required sensitivity, exposure and fixing approval.
Pipe-rack columns
Local inclination of the selected rigid pipe-rack column.
Connect local column-inclination readings to the structural grid of an industrial pipe rack. Compare the same member and reference direction after pipe modifications, support maintenance or foundation works, recording the relevant operating and load conditions. This provides the plant team with an identifiable angle history for a fixed column alongside its established pipe-support inspection and maintenance records.
- Inclination to monitor
- Local inclination of the selected rigid pipe-rack column.
- Monitoring point
- An approved column position clear of pipe movement, hot surfaces and maintenance routes.
- Plan your installation
- Rack grid, column details, pipe-load context, required angle sensitivity and fixing approval.
Manual solar-panel inclination
Stationary inclination of the manually adjusted solar-panel frame.
Record the inclination of a solar panel or small array after its mounting angle is manually adjusted and secured. Compare the stationary reading with the project’s specified setting, keeping the same panel-frame mounting point and angle convention. Provide the required setting tolerance, site exposure and working range so the measurement configuration can be matched to the installation.
- Inclination to monitor
- Stationary inclination of the manually adjusted solar-panel frame.
- Monitoring point
- An approved rigid part of the panel frame that follows its inclination and leaves the modules unobstructed.
- Plan your installation
- Panel and bracket geometry, adjustment positions, required angle tolerance, axis, fixing permission and site conditions.
SERIES & CONFIGURATIONS
The right specification.
For your installation.
Use H310-TS150M as the model reference and ±0.1° as the confirmed accuracy grade. Include the remaining operating and integration requirements in your project brief.
MODEL REFERENCE
H310-TS150M
Medium precision tilt sensor · ±0.1° accuracy. The quotation and supplied specification identify the working range, resolution, power, enclosure and communication configuration for your project.
Download the H310-TS150M datasheet (PDF) Select a configuration ↓| Model | H310-TS150M |
|---|---|
| Product grade | Medium precision |
| Accuracy | ±0.1° |
| Measurement | Inclination / angular position at the mounting point |
| Application focus | Local inclination trends where ±0.1° accuracy meets the monitoring objective |
| Installation reference | Record the initial position, asset ID and angle convention during commissioning |
| Acquisition interval | Every 1 minute |
| Scheduled reporting | Every 4 hours |
| Acquisition cycles | 240 per scheduled report |
| Service life | Follows the supplied configuration and operating conditions |
| Range & resolution | Specify the required working range and reported increment for the quotation |
| Reporting & integration | Confirm the supplied interface, data destination and event-reporting workflow |
| Power & enclosure | Select for the installation environment and required service arrangement |
A configuration built around your project.
What you need to observe
Identify the asset or moving component, expected positions, working angle range and smallest change that matters to your team.
Where it will operate
Share the country, site temperatures, exposure, mounting surface and access for installation or maintenance.
How the result will be used
Define the reporting schedule, data destination, review condition and person responsible for the next action.
What you plan to deploy
Include quantities, sample evaluation, OEM or branding requirements, interface details and the intended rollout date.
CONNECTIVITY & INTEGRATION
Your installation.
Your data destination.
Include the required data route in your project brief. Confirm the communication configuration and supported interface for the supplied model before deployment.
For distributed locations
Measurement point→Specified connection→Your platform
If the project calls for a cellular connection, provide the installation country, operator coverage and required report schedule. Confirm the available device configuration, regional bands, SIM arrangement and platform interface for this model with the quotation.
- Country, operator and coverage at the mounting point
- Required update and notification times
- Supplied radio configuration and destination interface
For points across one site
Measurement points→Specified receiver→Your platform
If your site uses a local receiver or gateway, share its protocol and interface requirements. Agree the compatible device configuration, radio settings and onward data route before ordering. A project requirement for LoRa or LoRaWAN needs explicit compatibility confirmation.
- Existing receiver or gateway and its protocol
- Site layout, obstructions and point count
- Onward connection, data fields and commissioning checks
Make the first message useful.
Agree the supplied interface and sample message with the platform team. Identify the device, asset, reported angle, axis convention, unit, timestamp and reference. Test the agreed reporting and notification workflow from a real measurement point before rollout.
Discuss platform integration ↗ANSWERS FOR YOUR PROJECT
Frequently
asked questions.
Practical answers for selecting and installing the H310-TS150M medium precision tilt sensor.
Ask about your project ↗What is the H310-TS150M tilt sensor?
H310-TS150M is Hitelecom’s medium-precision tilt sensor with ±0.1° accuracy. It measures inclination at the mounting point and is selected around the angle changes that matter to the application.
Typical project discussions include warehouse rack uprights, poles, equipment frames and other defined members. Share the minimum useful angle change, working range and site conditions so the grade and complete configuration can be assessed.
Explore the specification →What does ±0.1° accuracy mean?
The ±0.1° value is the specified accuracy grade for H310-TS150M. Accuracy concerns agreement with a reference measurement under the applicable measurement conditions.
It does not specify the smallest displayed increment, repeatability, or a project notification threshold. Request the working-range and test-condition details in the supplied specification and define those requirements separately.
Explore the specification →How does medium precision compare with the high- and low-precision versions?
The existing high-precision entry is identified as 0.01°. H310-TS150M is the ±0.1° medium-precision model, while H310-TS100L is the ±1° low-precision model.
Select the grade around the smallest meaningful angle change and the measurement conditions. Use the high-precision page when the project needs a finer measurement grade; consider H310-TS100L for economical multi-point monitoring across outdoor light poles, conventional racks up to 8 m and automated-storage structures where ±1° accuracy matches the angle changes to review.
Compare the three grades →Can H310-TS150M be used on warehouse racking?
It can be considered for local inclination monitoring at selected rack uprights where ±0.1° accuracy matches the monitoring objective. Define the particular upright, installation reference and angle change that will prompt a review.
Share the rack layout, upright dimensions, loading arrangements and inspection responsibilities. Review the mounting with the rack owner and validate the proposed measurement against the site’s normal conditions.
Explore warehouse applications →How do I choose the accuracy for a structural or infrastructure application?
Start with the monitoring plan for the specific member. Identify the local rotation to be observed and compare the required measurement performance with the ±0.1° grade, including installation and environmental effects.
Where the plan calls for smaller changes or a finer grade, review the high-precision option. Use angle history alongside the project’s inspections and other specified measurements; agree the interpretation and response with the responsible engineer.
Explore the specification →How do I mount the sensor and establish the reference?
Fix the sensor securely to the element whose angle you want to observe. Record the sensor ID, asset location, mounting position, angle convention and initial reading after installation.
Use the same fixing arrangement for later comparisons. Keep a new reference record after repositioning the sensor, modifying its bracket or changing the measured member.
See the measurement workflow →Does the example angle change define the detection threshold?
No. The illustrated 0.3° reference, 0.5° later reading and +0.2° change demonstrate how a reference comparison is presented. They do not specify the model’s range, resolution or a minimum detectable change.
Define the required review condition for the real asset, with a margin suited to measurement accuracy and the installation. Confirm the supported reporting behaviour and test the complete response during commissioning.
Explore the specification →Can I specify 4G, NB-IoT, LoRa or an existing gateway?
Include the required communication route, country and receiver or operator details in the enquiry. The available radio configuration and protocol for the supplied H310-TS150M need to be confirmed in the quotation.
For a local gateway project, provide its protocol and onward interface. For a cellular project, provide regional coverage and reporting requirements. Confirm any LoRaWAN requirement explicitly.
Plan the connection →What is needed to send readings to our platform?
Share the platform’s interface and authentication requirements, together with the expected angle fields, asset identifiers, units, timestamps and reference information. Confirm the supported interface for the supplied device configuration.
Review a sample message and test the path from a real mounting point to the platform. Define the notification recipients and the response expected when a review condition is met.
Review the data handover →What measurement interval, reporting interval and battery life apply?
H310-TS150M acquires an angle reading every minute and sends scheduled reports every four hours, with 240 acquisition cycles between reports.
Service life and power follow the supplied configuration and operating conditions. Event reporting and notification requirements are agreed for the project.
Explore the specification →Which outdoor and enclosure details should I provide?
Describe temperature exposure, rain or water contact, cleaning, corrosive conditions, mounting surface and access for maintenance. Add dimensions or a photograph of the fixing position.
The supplied specification should confirm the enclosure protection, environmental limits and mounting arrangement for the selected H310-TS150M configuration. Review these with communication coverage at the actual location.
Explore the specification →What information helps you prepare a quotation?
Include H310-TS150M, the application, installation country, quantity and required deployment date. Describe the working angle range, smallest meaningful change and proposed mounting points.
Add the reporting schedule, power expectations, communication route and platform interface. A drawing or site photograph helps make the sample and configuration proposal specific to the installation.
Prepare your project brief →LET'S TALK ABOUT YOUR PROJECT
Your next step.
A sensor that fits.
Tell us about your application for H310-TS150M. We’ll help match the required angle performance, mounting and project interface.
sales@hitelecom.cn ↗Start with three details.
Your application, installation country and estimated quantity. Add a site photo or platform requirements to your email when available.