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BIX-A1069 Alveolar Model: What 25 Parts Show
Henan BOMN supply chain management Co., LTD

Lung leaflet alveolar model BIX-A1069 — enlarged 28 x 21 x 14.5 cm view of terminal and respiratory bronchioles and alveolar epithelium, 25 parts.

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BIX-A1069 Alveolar Model: What 25 Indicating Parts Actually Show

Short answer: BIX-A1069 is an enlarged teaching model of a lung leaflet that shows the structure of terminal bronchioles, respiratory bronchioles and alveolar epithelium. It is built with 25 indicating parts and measures 28 x 21 x 14.5 cm. Its job is not to show where the lungs sit in a body — it shows what the gas-exchange surface itself is made of, at a scale where a student can point at it.

Key takeaways

  • It magnifies one functional unit — the airway down to the alveolus — rather than the whole respiratory system.
  • 25 indicating parts give it the granularity of a labelling exercise rather than a single moulded shape.
  • Footprint 28 x 21 x 14.5 cm is bench-friendly: it fits where a full lung model would not.
  • It complements, not replaces, a whole-lung or torso model. Position is taught elsewhere; structure is taught here.
  • Price is not published on the product page.

Published specification

ItemPublished value
ModelBIX-A1069
DescriptionLung Leaflet Alveolar Model — Enlarged Bronchioles & Alveolar Epithelium Anatomy
Structures shownTerminal bronchioles, respiratory bronchioles, alveolar epithelium
Indicating parts25
SizeEnlarged — 28 x 21 x 14.5 cm
PriceNot published

To plan a sequence properly, write to cprmodel@adaanatomy.com quoting model BIX-A1069 and ask for the list of the 25 indicating parts and the package dimensions, so the labelling convention can be matched to the whole-lung models on the same bench.

Where this model sits in a respiratory teaching sequence

Stage of the sequenceWhat the student must learnModel type that fits
1. PositionWhere the lungs sit in the thorax and how they relate to the heart and diaphragmA torso or whole-lung model
2. Gross branchingLobes, segments and the main airway treeA segmented or transparent lung model
3. Functional unit (this model)How the airway terminates and what the gas-exchange surface looks likeAn enlarged leaflet model such as BIX-A1069
4. HistologyCellular structure of the alveolar wallMicroscope slides and prepared sections

The practical argument for stage 3 as a physical model rather than a diagram is size and scale. The alveoli are the part of the respiratory system that students consistently find hardest to picture, because the relevant structures are microscopic and their relationships are three-dimensional. An enlarged leaflet turns a micrograph into an object.

Using the 25 indicating parts as a teaching instrument

  1. Trace the path before naming the parts. Have students follow the airway from terminal bronchiole through respiratory bronchiole to alveolar epithelium with a pointer, and say the sequence before they learn any labels. The order is the physiology.
  2. Set a labelling task against the 25 indicators. The part count makes this model usable as an assessment object rather than a demonstration piece: hand out numbers, not names.
  3. Contrast the two bronchiole types explicitly. The model separates terminal from respiratory bronchioles, and that distinction is where gas exchange begins — a point that a single moulded airway cannot make.
  4. Bridge to histology. Finish the session on the enlarged surface, then show the matching section under the microscope so the student maps one onto the other in the same lesson.
  5. Reconnect to the whole lung. Put the leaflet model beside a whole-lung model and ask where this piece came from. Stage 3 only makes sense if the student can put it back.

Why a physical model rather than an image

The case for physical anatomy models is well supported: a meta-analysis of comparative studies found physical models effective in teaching anatomy [1], and the systematic review of advances in anatomy education treats physical models as complementary to virtual and printed resources rather than as superseded by them [2].

For airway and respiratory structures specifically, simulation-based approaches have also been used to teach respiratory anatomy to students, with a low-cost bronchoscopy simulation reporting that a physical trainer carries theoretical respiratory anatomy into hands-on practice [3]. The pattern across that literature is consistent: the physical object does not add information, it adds engagement with the structure — and for microscopic structures shown at magnification, that is precisely the missing step.

The honest limit: BIX-A1069 is a static structural model. It does not demonstrate ventilation, gas exchange or compliance, and it does not show disease states. Ventilation and physiology must be taught by other means.

FAQ

Q1. What is BIX-A1069?
An enlarged teaching model of a lung leaflet showing terminal bronchioles, respiratory bronchioles and alveolar epithelium.

Q2. How many parts does it have?
The page states 25 indicating parts.

Q3. What size is it?
28 x 21 x 14.5 cm, described on the page as enlarged.

Q4. Does it show the position of the lungs in the body?
No. It magnifies the functional unit. Position is taught on a torso or whole-lung model, which this model complements.

Q5. Does it demonstrate breathing or gas exchange?
No — it is a static structural model. It does not claim functional or pathological simulation.

Q6. How do I get the price and the part list?
Price is not published. Email cprmodel@adaanatomy.com with the model (BIX-A1069) and your quantity, and ask for the unit price, package dimensions and the list of the 25 indicating parts in the same message.

Request a quotation

Write to cprmodel@adaanatomy.com for the BIX-A1069 specification sheet and a quotation. If you are building a respiratory teaching bench, ask in the same enquiry about the whole-lung models in this range so the sequence from position to functional unit is covered by one order and one labelling convention.

References

  1. The effectiveness of physical models in teaching anatomy: a meta-analysis of comparative studies. Advances in Health Sciences Education. 2016.
  2. Advances in anatomy education: the role of virtual anatomy tables, immersive techniques, and 3D printing. A systematic review. Folia Morphologica. 2026.
  3. Bridging Theory and Practice: a Low-Cost Bronchoscopy Simulation for Teaching Respiratory Anatomy. Medical Science Educator. 2025.
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