
FoldPumpVac transport testing evaluated the complete FAC-02 packaged shipping unit through a third-party distribution-style laboratory sequence.
Before choosing equipment, review Fitiger's anti-choking device buyer evidence checklist for FDA wording, testing, seller traceability, and kit-selection questions.
Before testing began, the packaged unit was conditioned for 72 hours at 23 deg C and 50% relative humidity. The test sequence then included manual handling, stacking, free vibration, low-pressure exposure, road and air vibration, resonance testing, concentrated impact, and final re-handling under YY/T 0681.15-2019.
The report recorded:
A transport-unit mass of 1.64 kg.
A calculated stacking load of 225 N for a maximum three-layer stack.
Low-pressure exposure at 59.5 kPa for 60 minutes.
Free vibration at 25 mm double amplitude and 4.32 Hz.
Road random vibration at 0.40, 0.54, and 0.70 grms.
Air-transport vibration at 1.05 grms for 120 minutes.
A measured resonance point of 50.2 Hz with a 10-minute hold.
A concentrated-impact condition equivalent to 5.4 J.
Manual-handling drops at 38 cm, including a later 76 cm drop on carton face 3.
The laboratory conclusion states that the tested items conformed to the stated requirements. Its results table records no package damage and no visible product-appearance damage across the tested sequence.
That supports FoldPumpVac distribution readiness under the tested conditions. It does not independently establish shelf life, unlimited environmental storage, unchanged suction performance after transport, FDA authorization, or the outcome of an emergency.
A smaller package is easier to carry, but compact size does not remove the stresses of distribution.
A FoldPumpVac kit may move through factory packing, pallet storage, freight handling, airport cargo systems, delivery vehicles, local sorting centers, and final-mile delivery before it reaches a home, school, restaurant, office, or care facility.
During that journey, the package may experience several different forces:
| Weight from cartons stacked above it. | Repeated road and aircraft vibration. |
| Changes in atmospheric pressure. | Short impacts during loading and unloading. |
| Drops during manual handling. |
Movement at a frequency that causes the package or its contents to resonate.
Those forces do not always leave an obvious mark. A carton can look acceptable while internal components have shifted, loosened, or pressed against one another.
That is why anti-choking device shipping validation should evaluate the complete packaged unit, not only the device body placed on a workbench.
The FAC-02 sample was tested as a complete one-box shipping unit.
The report identifies:
| Model: FAC-02. | Product family: FoldPumpVac. |
| Transport-unit mass: 1.64 kg. | Production date: May 8, 2025. |
| Recorded validity date: May 7, 2027. |
Preconditioning: 72 hours at 23 deg C and 50% relative humidity.
Inspection basis: YY/T 0681.15-2019.
The preconditioning step established a controlled starting point before the package entered the mechanical stress sequence.
That matters because a transport report is easier to interpret when the initial temperature and humidity conditions are defined. Without a controlled baseline, it becomes harder to separate the effect of the test from an unknown previous storage condition.
The report then moved the same shipping unit through a connected series of distribution hazards rather than testing each condition on unrelated samples.
This sequence-based approach is useful because real distribution is cumulative. A carton may be stacked first, vibrated later, exposed to lower pressure during air shipment, and then dropped during final handling.

The FAC-02 shipping unit was exposed to 59.5 kPa for 60 minutes.
Low-pressure transport testing is commonly associated with air freight and high-altitude distribution conditions. A reduction in surrounding pressure can affect carton shape, flexible packaging, closed air spaces, internal fit, component positioning, and seals within a packaged system.
The FAC-02 report records no package damage and no visible product-appearance damage after the complete sequence that included this low-pressure condition.
The evidence-supported statement is therefore specific: the tested FAC-02 shipping unit completed the recorded 59.5 kPa exposure as part of the full transport sequence without the listed forms of visible damage.
The report does not establish that the package is unaffected by every altitude, aircraft route, exposure duration, temperature combination, or global-shipping condition. It also does not prove unlimited storage at low pressure after delivery.
Those would be broader claims than the report supports.

The resonance portion is one of the most distinctive parts of the FAC-02 transport report.
Every physical system has frequencies at which vibration can become amplified. When a package, component, or internal structure approaches one of those frequencies, relatively small external movement can produce greater motion inside the system.
This is resonance.
The report documents:
A measured resonance point of 50.2 Hz.
A 10-minute hold at that resonance condition.
That adds a different layer of information from a general vibration test.
A generic vibration profile asks how the shipping unit behaves across repeated movement. A resonance test asks what happens when the package is held at a measured frequency where movement may be amplified.
For FoldPumpVac portable device, this is particularly relevant because the product is built around a compact, collapsible structure. The packaged components still need to remain positioned and protected while the shipping unit is exposed to repeated movement.
The report records no package damage and no product-appearance damage after the overall sequence.
That supports the packaged unit's mechanical stability at the recorded resonance condition. It does not independently prove that every internal functional specification was measured again after the resonance hold.
A package does not encounter one uniform type of movement during distribution.
The FAC-02 report therefore includes several vibration conditions.
The free-vibration condition used:
25 mm double amplitude.
4.32 Hz.
20 minutes with the bottom face down.
10 minutes on each of two adjacent side orientations.
Changing the carton orientation matters because the internal load path changes when a package rests on a different face.
A component supported from below in one orientation may press against a sidewall in another.
The road-transport profile included:
0.40 grms for 40 minutes.
0.54 grms for 15 minutes.
0.70 grms for 5 minutes.
The increasing levels represent more than one intensity of repeated movement.
This is closer to the reality of road distribution, where vibration varies with vehicle type, road surface, speed, suspension, cargo position, and handling conditions.
Air-transport vibration
The air-vibration condition used:
1.05 grms.
120 minutes.
The longer air-vibration duration is important because cumulative movement can affect a package even when no single event appears dramatic.
Taken together, the free, road, air, and resonance conditions show that the FAC-02 shipping unit was not evaluated through a single simplified shake test.
It was exposed to several movement profiles designed to examine different parts of the distribution environment.

The FAC-02 report calculated a stacking load of 225 N using:
A shipping-unit mass of 1.64 kg.
A maximum transport stack height of three layers.
Stacking tests address a common but easily overlooked risk.
Cartons spend time beneath other cartons in warehouses, freight vehicles, distribution centers, and temporary storage. Sustained compression can deform a box, shift internal packaging, or press components together.
After the specified stacking stage and the wider transport sequence, the laboratory results continued to record no package damage and no product-appearance damage.
That supports resistance to the defined 225 N compressive condition.
It does not mean the carton can tolerate any number of stacked boxes, any load, or indefinite compression.
The meaningful statement is the measured one: the tested shipping unit met the report's stated requirements under the calculated three-layer stacking condition.
Manual handling and the 76 cm face-3 drop
Distribution systems are not controlled entirely by machines.
Packages are lifted, placed on carts, transferred between vehicles, set onto loading docks, and carried to final storage locations. Human handling introduces angles and impacts that are difficult to represent with vibration alone.
The FAC-02 sequence included two manual-handling stages.
The first used 38 cm drop events. The later stage again included 38 cm drops and recorded a 76 cm drop on carton face 3.
"Face 3" identifies the carton orientation used in the test. The result applies to the complete packaged shipping unit in that defined orientation.
It should not be rewritten as:
FoldPumpVac is drop-proof from 76 cm.
The unpackaged device can be dropped safely.
Any package face will produce the same outcome.
Repeated drops from the same height are covered.
Every floor surface or impact angle has been validated.
The report supports the specified packaged-unit test event, not a universal drop claim.

The report also documents a concentrated-impact condition.
A cylindrical striker was dropped from 0.8 m, creating an impact energy equivalent to 5.4 J.
This test differs from dropping the entire carton.
A full-package drop distributes force through the carton orientation, edges, corners, internal supports, and the mass of the complete shipping unit. A concentrated-impact test applies force over a smaller area.
That can help reveal whether a localized hit is more likely to deform or penetrate part of the packaging system.
After the full FAC-02 sequence, the report continued to record no package damage and no visible product-appearance damage.
This supports resistance to the defined 5.4 J condition. It does not establish immunity to punctures, sharp objects, crushing equipment, or impacts above the tested energy.
Technical wording should not be broadened beyond the observation that was actually recorded.
The FAC-02 report lists:
No package damage.
No product-appearance damage.
Those are meaningful findings, but they are visual and packaging-level findings.
They should not automatically be translated into:
Suction performance was unchanged.
Pull force remained identical.
Every connection was functionally retested.
The foldable mechanism completed a post-transport endurance test.
The masks maintained every dimensional specification.
The product will perform identically after any shipping event.
Those questions require the relevant functional or dimensional verification data.
This distinction is not a weakness in the transport report. It is simply the boundary of the report's scope.
A credible engineering article should make that boundary visible rather than hiding it behind the word "passed."
What the FAC-02 transport report supports
Within the recorded laboratory conditions, the report supports discussion of:
| FoldPumpVac transport testing. | FAC-02 shipping validation. |
| Anti-choking device package durability. | Resistance to the defined low-pressure condition. |
| Resistance to the recorded stacking load. |
Stability under free, road, air, and resonance vibration.
Resistance to the specified drop and concentrated-impact sequence.
Distribution readiness after controlled preconditioning.
Visible package and product condition after the tested sequence.
These findings are useful for families, facility managers, procurement teams, distributors, and quality reviewers because they replace vague durability language with defined test conditions.
"Transport-ready" is more meaningful when the article explains what the package actually encountered.
What this report does not establish by itself
The FAC-02 transport report does not independently prove:
| A complete two-year shelf-life claim. | Accelerated-aging completion. |
| Real-time aging confirmation. | Unlimited hot-car or cold-car storage. |
Safe storage outside labeled temperature and humidity limits.
Functional suction performance after every transport stage.
Clinical effectiveness during choking emergencies.
FDA clearance, approval, or authorization for FoldPumpVac.
Guaranteed package protection under every shipping method.
A guaranteed emergency outcome.
Transport testing, aging studies, functional testing, connection-strength testing, human-factors work, labeling, and regulatory review answer different questions.
They may belong to the same evidence program, but one report cannot substitute for all of them.
The wider medical-device field treats shipping-unit performance as part of product development and quality planning.
FDA recognizes ASTM D4169 as a standard for evaluating the ability of shipping units to withstand anticipated hazards in distribution environments.
The FAC-02 laboratory report used YY/T 0681.15-2019, not ASTM D4169. The standards should not be described as identical or interchangeable.
The relevant point is broader: controlled transport testing is an established engineering practice for evaluating how packaged medical products tolerate distribution hazards.
FDA shelf-life guidance also makes clear that the time a device remains within acceptable specifications can depend on multiple factors. Packaging, transportation, materials, storage conditions, and later verification all contribute to the evidence picture.
That is why the FAC-02 transport report should be treated as transport evidence, not as a complete shelf-life determination.
What to inspect when a FoldPumpVac kit arrives
Laboratory shipping validation does not remove the need for a delivery inspection.
Before placing a FoldPumpVac kit into service:
Check the outer carton for crushing, punctures, tears, water exposure, or unusual deformation.
Confirm that the storage bag, device, masks, and instructions are present.
Inspect the product body for visible cracks, deformation, loose parts, or contamination.
Check the masks for warping, tears, surface damage, or debris.
Confirm that the mask connection appears secure.
Review the current instructions for use.
Store the kit within the labeled temperature and humidity limits.
Keep it accessible to the intended adult responder.
Reinspect the kit after relocation, unusual environmental exposure, or visible package damage.
Follow the stated inspection and replacement schedule.
Do not assume that a portable choking rescue kit can remain indefinitely in an uncontrolled vehicle.
A parked vehicle can expose products to temperatures far outside normal room-storage conditions. Transport validation is not the same as permanent hot-car storage validation.

Transport protection matters because an emergency-readiness device may remain stored for a long time before anyone needs it.
The package must arrive intact. The kit must be stored correctly. Intended responders must know where it is. Instructions must remain available. The equipment must be inspected on a routine schedule.
None of those steps changes the emergency-response order.
In a choking emergency:
Call 911.
Follow established choking rescue protocols first.
Do not delay standard first aid while retrieving or preparing a device.
Consider an anti-choking device only as a second option if established protocols are unsuccessful.
Use any device only within its current instructions, warnings, intended population, and applicable regulatory status.
A transport report can support confidence in the packaged distribution process alongside How It Works. It cannot replace first-aid training, emergency communication, correct product staging, or responsible use.
The most important part of the FAC-02 report is not one dramatic number.
It is the combination of different transport conditions:
| Controlled preconditioning. | Low-pressure exposure. | Three-layer stacking. |
| Free vibration. | Road random vibration. | Air-transport vibration. |
| A measured resonance hold. | Concentrated impact. | Manual-handling drops. |
| Final package and product-appearance inspection. |
That pattern matters because shipping damage rarely comes from only one source.
For FoldPumpVac FAC-02, the report records no package damage and no visible product-appearance damage after the defined sequence.
That supports a careful distribution-readiness claim under the tested conditions.
It does not need to be exaggerated into a claim about every environment, every shipment, or every emergency. Specific evidence is more persuasive when its limits remain intact.
For related planning context, review the anti-choking device buyer evidence checklist.
The laboratory conclusion states that the tested items conformed to the stated requirements of YY/T 0681.15-2019. The results table records no package damage and no product-appearance damage across the tested sequence.
The packaged FAC-02 shipping unit was conditioned for 72 hours at 23 deg C and 50% relative humidity before the transport sequence began.
The report records exposure at 59.5 kPa for 60 minutes.
The calculated stacking load was 225 N, based on a transport-unit mass of 1.64 kg and a maximum three-layer stack.
The laboratory identified a resonance point at 50.2 Hz and held the packaged unit at that condition for 10 minutes. This evaluates the package at a frequency where vibration may be amplified rather than relying only on general vibration profiles.
The report records a striker drop from 0.8 m, producing an impact energy equivalent to 5.4 J.
No. It applies to one defined face-3 drop of the complete packaged shipping unit within the laboratory sequence. It is not a universal drop-proof claim for the unpackaged product.
Not by itself. The report records package damage and visible product-appearance findings. Post-transport suction performance requires the relevant functional test data.
No. It provides transport and distribution evidence under the tested conditions. Shelf-life support requires a broader evidence package that may include accelerated aging, real-time aging, storage limits, packaging evaluation, and post-aging functional verification.
The transport report does not support unlimited storage in an uncontrolled vehicle. Follow the labeled storage conditions and inspect the kit after unusual heat, cold, humidity, water exposure, or visible package damage.
Third-party FAC-02 transport-performance report - Supports FAC-02 model identification, 72-hour conditioning, 59.5 kPa exposure, 225 N stacking, vibration profiles, 50.2 Hz resonance, 5.4 J impact, drop handling, and recorded package/product-appearance results. Reference: Project source file / laboratory report.
FDA Shelf Life of Medical Devices - Supports the distinction between transport testing and the broader evidence used to establish shelf life and storage instructions.
FDA Medical Devices Exposed to Heat and Humidity - Supports following labeled environmental conditions and inspecting packaging and seals after unusual exposure.
FDA Recognized Consensus Standard ASTM D4169 - Supports the broader regulatory relevance of evaluating shipping units against anticipated distribution hazards.
FDA Choking Rescue Protocol Safety Communication, updated March 4, 2026 - Supports established choking rescue protocols first and anti-choking devices only as a second option after standard protocols are unsuccessful.
This article discusses third-party laboratory distribution testing for Fitiger FoldPumpVac FAC-02. It is intended for engineering, product-safety, procurement, and educational discussion only.
The transport report does not establish clinical effectiveness, guarantee an emergency outcome, replace shelf-life validation, or constitute FDA marketing authorization.
In a choking emergency, call 911 and follow established choking rescue protocols first. Use any second-line suction device only according to its current instructions for use, warnings, intended population, and applicable regulatory requirements.