Pollen Trap Assembly
Pollen Trap Assembly - Related Videos
07:19
A 3D Printed Pollen Trap for Bumble Bee (Bombus) Hive Entrances
0 Views •
Cited by 7 •
2020
We present a non-lethal and automated mechanism to collect pollen from bumble bee (Bombus) workers returning to a hive. Instructions for producing, preparing, installing and using the devices are included. By using 3D-printed objects, modification to the design was timely, efficient and allowed for quick turnaround for testing.
13:39
Optical Trapping of Nanoparticles
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Cited by 7 •
2013
The following setup approach details low power optical trapping of dielectric nanoparticles using a double-nanohole in metal film.
01:41
Social Traps
0 Views •
2020
Social traps are negative situations where people get caught in a direction or relationship that later proves to be unpleasant, with no easy way to back out of or avoid. The concept was orignally introduced by John Platt who applied psychology to Garrett Hardin's "Tragedy of the Commons", where in New England herd owners could let their cattle graze in the common ground. This situation seems like a good idea, but an individual could have an advantage. If they owned more cows, the larger...
06:34
A Component-resolved Diagnostic Approach for a Study on Grass Pollen Allergens in Chinese Southerners with Allergic Rhinitis and/or Asthma
0 Views •
Cited by 4 •
2017
This work describes a protocol that uses a component-resolved approach to study sensitization to grass pollen allergens in a cohort of patients from southern China with allergic rhinitis and/or asthma.
11:45
Experimental Methods for Trapping Ions Using Microfabricated Surface Ion Traps
0 Views •
Cited by 19 •
2017
This paper presents a microfabrication methodology for surface ion traps, as well as a detailed experimental procedure for trapping ytterbium ions in a room-temperature environment.
FAQs
Airflow brings airborne pollen into contact with the exposed adhesive or collection surface. Grains may settle onto the surface or impact it as air moves through the trap. Keeping the collection surface positioned consistently within the airflow helps make samples comparable across locations and sampling periods, supporting more reliable identification and measurement of pollen abundance.
The collection surface must remain exposed enough to receive airborne pollen, but the surrounding structure should limit weather exposure and contamination. This balance allows the trap to sample pollen dispersing through the air without allowing unrelated environmental material to interfere as readily. Maintaining that balance improves the consistency and interpretability of collected samples.
Consistent surface placement, airflow exposure, and protection from contamination are central factors. If these conditions vary substantially between traps or sampling periods, differences in collected pollen may reflect assembly or placement rather than changes in dispersal. Standardizing the setup therefore supports comparisons of flowering patterns, seasonal changes, and pollen movement across sites or times.
The essential components are a device structure, an exposed adhesive or other collection surface, and protective features that reduce weather exposure and contamination. Assembly prepares these elements so the collection surface can remain in an airflow while the device stays suitably protected. The resulting arrangement is ready for placement and repeated sampling under consistent conditions.
Researchers should position the assembled device so its collection surface encounters the relevant airflow while retaining protection from weather and contamination. Consistent placement is important when sampling across multiple locations or time periods. A standardized arrangement makes the resulting samples more useful for examining pollen dispersal, flowering patterns, biodiversity, and seasonal variation.
Collected pollen can provide information for identifying and measuring airborne pollen, which supports studies of plant reproduction and pollen dispersal. In broader biological monitoring, these samples can contribute to assessments of biodiversity and seasonal change. The same observations also have relevance to aerobiology, ecological monitoring, and airborne allergen assessment.