Office Pod Maintenance: The Complete Care Guide for HIGHKA

Table of Contents

Your HIGHKA soundproof office pod is a precision-engineered workspace asset — designed for an 8–12 year operational lifespan, with key components independently tested to 50,000+ use cycles.

That lifespan is not automatic. Like any high-performance professional equipment, a soundproof office pod delivers its full value — including the ISO 23351-1 Class A acoustic performance, the consistent ventilation quality, and the reliable sensor response — when it is maintained correctly. Irregular care shortens component life, allows acoustic performance to degrade (particularly through ventilation pathway accumulation), and creates the kind of minor user experience issues — stiff seals, dusty panels, reduced lighting clarity — that erode the environment quality the pod is designed to provide.

This guide provides the complete HIGHKA office pod maintenance programme: a clear understanding of how each system works, a practical tiered maintenance schedule (daily, weekly, monthly, quarterly), a cleaning protocol for each pod surface and system, and the usage guidelines that protect performance and longevity across the full product lifespan.

Before establishing a maintenance routine, it helps to understand what each HIGHKA pod system does and why its condition directly affects the user experience and acoustic performance.

HIGHKA pods use a six-layer hollow composite acoustic construction, patent-protected and specifically tuned for the human speech frequency range (500 Hz–4 kHz). This multi-layer structure is what delivers the 35 dB noise reduction certified to ISO 23351-1 Class A. The acoustic integrity of the wall system is maintained by keeping the panel surfaces clean and free from adhesive residue, puncture damage, or surface abrasion that could compromise the material integrity of the outer layer.

Unlike PIR (passive infrared) motion sensors, HIGHKA pods use a microwave radar sensor with a 0.1-second response time, operating across a temperature range of −30°C to 60°C. This sensor detects human presence through respiration rather than gross body movement — ensuring that lighting and ventilation remain continuously active throughout focus sessions, including during stationary work. The sensor requires no calibration or routine maintenance, but the sensor housing should be kept clean and free from obstructions that could interfere with signal transmission.

The dual-channel turbine ventilation system is the pod’s most maintenance-sensitive component. It maintains active airflow throughout occupancy, actively refreshes the air every 30 minutes when unoccupied, and runs a post-use odour clearance cycle after each session. Ventilation performance depends on unobstructed intake and exhaust vents — accumulated dust is the primary cause of gradual ventilation degradation and is the maintenance task with the highest impact on user comfort and air quality.

HIGHKA pods feature stepless dimming from 0 to 1,800 lm with colour temperature adjustable from 3,000K to 6,500K, using anti-glare Osram LED (CRI 90, UGR <20). The LED system has a long operational life under normal commercial use and requires no replacement under standard maintenance. Light output quality is preserved by keeping the light panel covers clean and free from dust accumulation that reduces output intensity and colour rendering accuracy.

The industrial-grade PLC (Programmable Logic Controller) manages all pod systems — lighting activation, ventilation sequencing, sensor response, and system coordination. The PLC requires no routine user maintenance. If system behaviour anomalies are observed (delayed lighting response, irregular ventilation cycles), the first diagnostic step is to confirm the power connection is stable and the pod is not sharing a circuit with high-draw equipment.

All HIGHKA pod models include purpose-designed ergonomic furniture as standard: scratch-resistant HPL (High-Pressure Laminate) tabletops and high-density foam seating. HPL surfaces are highly durable and stain-resistant under normal use, but benefit from regular wiping to prevent surface residue buildup. High-density foam seating maintains its support properties longest when kept clean and free from spills.

HIGHKA pods are available in 8 exterior colour options, developed through market research with 500+ participants. The exterior finish is selected for durability in commercial environments but benefits from periodic cleaning to maintain the professional appearance that contributes to the pod’s integration with office aesthetics.

The following maintenance programme is structured into four tiers based on frequency, ensuring that all pod systems receive appropriate attention without requiring excessive facilities team time.

These are the basic hygiene and care practices that all pod users should follow at the end of each session:

Post-session surface clear: Remove all personal items, food, drinks, and waste from the pod interior at the end of each use. HIGHKA pods are equipped with a post-use odour clearance ventilation cycle — this cycle is most effective when the pod interior is clear of odour sources (food, strong beverages) before vacating.

Seat check: Confirm that the seating is in its correct position. High-density foam seating should be positioned on the seating base rather than leaning against walls, which can create contact marks on interior surfaces over time.

Power state: If the pod is not being used for an extended period (overnight, weekend), confirm the pod is in its standard unoccupied state — ventilation will cycle automatically every 30 minutes to maintain air freshness; no manual action is required.

Report issues immediately: Any anomalous behaviour — unusual sounds from the ventilation system, lighting that fails to activate, door seal that feels different from normal — should be reported to the facilities team on the day of observation. Early reporting prevents minor issues from developing into functional problems.

Exterior wipe-down: Using a clean, damp microfibre cloth, wipe all accessible exterior surfaces — the panel body, door frame, and any visible trim. For stubborn marks, a mild non-abrasive cleaning solution diluted in water is appropriate. Avoid solvent-based cleaners, which can affect surface finish and, on acoustic panel exteriors, may penetrate to underlying material layers.

Glass cleaning (interior and exterior): Using standard glass cleaner appropriate for commercial environments and a clean microfibre cloth, clean all glass panels on both interior and exterior surfaces. Pay particular attention to the door glass at handle height, which receives the most contact. Use a clean, dry cloth for the final pass to eliminate streaking.

HPL tabletop cleaning: Wipe the HPL tabletop with a damp cloth to remove surface residue, dust, and minor marks. HPL is highly stain-resistant but should not be allowed to accumulate surface residue that can gradually dull the finish. For persistent marks, a mild cleaning solution is appropriate; avoid abrasive pads or scouring agents that will scratch the HPL surface and reduce scratch resistance over time.

Seating surface inspection and clean: Inspect seating surfaces for marks, spills, or wear. Wipe high-density foam seating with a slightly damp cloth for surface cleaning. For spills that have been absorbed, blot (do not rub) with a clean, damp cloth and allow to air dry before next use.

Ventilation vent check: Visually inspect the intake and exhaust vents for visible dust accumulation. If surface dust is present, use a dry brush or the soft brush attachment on a vacuum cleaner at low suction to clear vent surfaces. Do not insert objects into vent openings or attempt to clean internal duct surfaces without specialist guidance.

Door seal inspection: Run a clean cloth along the door seal perimeter to remove surface dust and check seal integrity. The door seal is the acoustic boundary between the pod interior and the open floor — a seal that is torn, displaced, or significantly compressed in one area will create an acoustic weak point. Any seal anomaly should be reported for assessment.

Floor surface clean: Sweep or vacuum the pod floor surface to remove dust, debris, and any particles tracked in from the open floor. A clean floor surface also maintains the pod’s interior aesthetic quality and prevents abrasive particles from being transferred to seating surfaces.

Deep ventilation maintenance: Using a dry brush and vacuum with a soft brush attachment, thoroughly clean all visible surfaces of intake and exhaust vents. Check that ventilation cycles are running as expected: the system should activate within 0.1 seconds of occupancy detection, run continuously during occupancy, cycle every 30 minutes when unoccupied, and complete a post-use clearance cycle after each session ends. Any deviation from this pattern warrants a review of the ventilation system status.

LED panel cleaning: Using a clean, dry or slightly damp microfibre cloth, gently clean the LED panel covers to remove accumulated dust that reduces light output intensity and can shift colour rendering. Do not use abrasive materials or liquid cleaners directly on LED covers. Clean light panels restore the full 0–1,800 lm output range and maintain the colour accuracy (CRI 90) and glare performance (UGR <20) that make HIGHKA lighting suitable for extended screen work.

Acoustic panel surface inspection: Inspect all interior acoustic panel surfaces for dust accumulation, marks, or any physical damage. Dust acoustic panels gently with a dry, soft cloth or a low-pressure compressed air tool. Do not use damp cloths on acoustic panel surfaces, as moisture can affect the acoustic material properties of some panel types. Any panel damage — tears, punctures, or separation from the mounting surface — should be logged and assessed.

Control panel and sensor housing: Wipe all control surfaces (lighting and ventilation adjustment controls) with a lightly damp cloth. Clean the sensor housing cover with a dry cloth to ensure clear signal transmission. Do not use liquid cleaners on electronic control surfaces.

Structural check: With the door open, visually inspect the pod frame, panel joints, and corner connectors for any signs of loosening, separation, or unusual movement. HIGHKA pods are assembled with industrial-grade hardware; structural issues are rare but should be identified early. Any structural observation should be reported for professional assessment.

Door mechanism check: Open and close the pod door through its full range of motion, noting whether the action feels smooth and consistent. Check that the door seal engages fully when closed. A door that requires noticeably more force to close, or that does not seal uniformly around the perimeter, indicates a seal or alignment issue that should be addressed before it affects acoustic performance.

Full acoustic integrity check: Using a portable sound level meter, measure the ambient noise level inside the pod with the door closed while a standardised noise source (a speaker playing white noise at a known output level) is active on the open floor outside. Compare the measurement against the baseline established at installation. A significant deviation from the original differential — more than 2–3 dB in either direction — indicates a potential acoustic integrity issue (damaged seal, panel separation, or vent pathway blockage) that warrants further investigation.

Ventilation performance verification: Time the ventilation cycle response from the moment occupancy is detected to the moment airflow begins. HIGHKA’s microwave radar sensor provides 0.1-second response; the ventilation system should begin active airflow within this window. Also verify the 30-minute idle refresh cycle by monitoring during an unoccupied period. Any deviation from specification warrants a system review.

Full structural and hardware inspection: With the pod emptied of all furniture, inspect all accessible panel connections, corner joints, door hinges, and frame connections. Tighten any accessible hardware that has loosened through use. Inspect hinge movement for smooth operation and even resistance through the full door arc.

Exterior appearance assessment: Assess the condition of all exterior surfaces for marks, finish degradation, or discolouration that may have developed gradually. Minor surface marks can typically be addressed with appropriate cleaning; surface finish changes that cannot be cleaned should be documented and assessed.

Usage record review: Review the pod’s usage log (if available through workspace management system integration) to confirm utilisation patterns. Pods with above-average utilisation frequency may benefit from increased weekly maintenance frequency.

These guidelines apply throughout the pod’s operational life and are directly linked to the preservation of specific performance characteristics:

Occupancy within model capacity: Each HIGHKA model is rated for a specific maximum occupancy — Model S (1 person), Model M (1–2 persons), Model SL (2 persons), Model L (2–4 persons), Model XL (4–6 persons). Exceeding these capacities places excessive load on seating, increases CO₂ accumulation rate beyond ventilation design, and can affect door seal engagement from additional weight distribution. Maintaining occupancy within model specification directly preserves the ventilation and acoustic performance for which the model is sized.

Keep ventilation vents unobstructed: The dual-channel turbine ventilation system’s performance depends entirely on unobstructed intake and exhaust pathways. Bags, coats, or equipment placed against vent openings reduce airflow and can cause the ventilation system to work against resistance, shortening component life. Keep a minimum 20 cm clearance from all visible vent openings.

No food or beverages inside the pod: Beyond the risk of spills on HPL surfaces and seating, food and beverages introduce organic odour sources that the post-use ventilation cycle is designed to clear but not absorb. Accumulated food odour also creates surface residue on acoustic panels that is difficult to remove without risking moisture damage.

Indoor deployment only: HIGHKA pods are designed and calibrated for indoor commercial environments. Outdoor deployment — including uncovered covered areas — subjects the acoustic wall system, electronic components, and seating materials to temperature and humidity ranges outside the design specification. The operating temperature range of the microwave radar sensor (−30°C to 60°C) applies to the sensor component; the broader pod structure and electronic systems are designed for indoor commercial temperature and humidity conditions.

Standard power connection only: HIGHKA pods are designed to connect to standard commercial power supplies via the provided connection. Do not use extension leads as a permanent solution, do not share the pod’s power circuit with high-draw equipment, and do not attempt to modify the pod’s electrical system. The industrial-grade PLC managing all systems requires a stable, clean power supply to maintain accurate sensor response and system timing.

No structural modifications: HIGHKA pods are engineered as integrated systems — acoustic performance, ventilation efficiency, and sensor operation all depend on the precise relationship between components. Any structural modification — drilling, cutting, attaching hardware to panel surfaces, or altering component positions — risks compromising one or more of these interdependencies. This includes adhesive application to interior or exterior surfaces, which can damage panel finishes and leave residue that is difficult to remove without surface abrasion.

Report wear and anomalies promptly: HIGHKA pods are built to last 8–12 years under commercial use, with key components tested to 50,000+ use cycles. Early identification and resolution of developing issues — a door seal beginning to compress unevenly, a ventilation cycle that sounds different from baseline, a lighting adjustment that requires more input than before — is significantly less costly than addressing fully developed failures. Maintenance issues reported within the first cycle of observation are almost always addressable without component replacement.

Respect the post-use ventilation cycle: After vacating the pod, allow the post-use odour clearance cycle to run to completion before the next user enters. This cycle is designed to restore internal air quality to its baseline condition between users — interrupting it by immediate reoccupation results in the next user beginning their session in air that has not been fully refreshed. In high-utilisation environments, a brief pause between sessions allows the system to complete its cycle.

Maintaining a simple log for each pod supports consistent care and provides useful history for warranty and support purposes:

Recording the pod serial number, installation date, and any component history (seal inspections, ventilation assessments, structural checks) creates the documentation trail that supports both internal facilities management and any warranty-related support requests.

HIGHKA pods are engineered for 8–12 years of commercial operational life, with key components tested to 50,000+ use cycles. That engineering investment is protected and extended by the maintenance programme outlined in this guide.

The highest-priority maintenance tasks are, in order: weekly ventilation vent inspection and cleaning (most impact on air quality and long-term system performance); weekly door seal inspection (most impact on acoustic performance); and monthly acoustic panel and LED cleaning (most impact on environment quality and user experience).

These tasks are low-cost, quick, and directly linked to the preservation of the ISO 23351-1 Class A acoustic performance, the consistent ventilation quality, and the professional environment quality that make HIGHKA pods worth the investment.

Need support with your HIGHKA pod maintenance programme?

👉 Contact HIGHKA support or request a maintenance consultation

Our team is available to answer maintenance questions, provide guidance on specific cleaning protocols, and assist with any performance assessment your facility team requires.