Bench Test Evaluation
Bench Test Evaluation - Related Videos
10:06
Manufacture of a Multi-Purpose Low-Cost Animal Bench-Model for Teaching Tracheostomy
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Cited by 5 •
2019
This article illustrates every step of the manufacture of a new multi-purpose low-cost animal bench-model for subglottic airway access management. All the procedures are shown in the video. The model's realism and its suitability for training the given clinical maneuvers were assessed by independent senior otolaryngologists and anesthesiologists.
10:08
Construction and Setup of a Bench-scale Algal Photosynthetic Bioreactor with Temperature, Light, and pH Monitoring for Kinetic Growth Tests
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Cited by 4 •
2017
This paper describes the assembly process and operation of a bench-scale photosynthetic bioreactor that can be used, in conjunction with other methods, to estimate pertinent kinetic growth parameters. This system continuously monitors the pH, light, and temperature using sensors, a data acquisition and control unit, and open-source data acquisition software.
13:24
Integration of Wet and Dry Bench Processes Optimizes Targeted Next-generation Sequencing of Low-quality and Low-quantity Tumor Biopsies
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Cited by 2 •
2016
An integrated system for targeted next-generation sequencing of oncology specimens is described. This cross-platform system is optimized for low-quality and low-quantity tumor biopsies, accommodates low DNA inputs, includes well-characterized multi-variant controls, and features a novel variant caller that is informed by quantitative pre-analytical quality control measures.
08:41
Microalgae Cultivation and Biomass Quantification in a Bench-Scale Photobioreactor with Corrosive Flue Gases
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Cited by 2 •
2019
Bench-scale, axenic cultivation facilitates microalgal characterization and productivity optimization before subsequent process scale-up. Photobioreactors provide the necessary control for reliable and reproducible microalgal experiments and can be adapted to safely cultivate microalgae with the corrosive gases (CO2, SO2, NO2) from municipal or industrial combustion emissions.
06:55
Scanning Light Scattering Profiler (SLPS) Based Methodology to Quantitatively Evaluate Forward and Backward Light Scattering from Intraocular Lenses
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Cited by 2 •
2017
This protocol describes the scanning light scattering profiler (SLSP) that enables the full-angle quantitative evaluation of forward and backward scattering of light from intraocular lenses (IOLs) using goniophotometer principles.
FAQs
Predefined specifications turn a bench evaluation into a structured pass-fail or comparative assessment. Investigators select measurable performance outputs and judge them against expected function and safety criteria under controlled conditions. This approach makes results easier to interpret, highlights departures from intended behavior, and supports decisions about whether a design requires modification before further development.
Test conditions are chosen to challenge the characteristic most relevant to the device, material, or procedure. Load or pressure can examine response, flow can assess behavior under movement, temperature can reveal sensitivity to environmental change, and repeated use can expose performance changes. Matching each condition to the intended function helps reveal meaningful failure modes.
Comparisons are useful when a product has alternative materials or configurations. By exposing each option to the same controlled conditions and measuring the same outputs, investigators can identify performance differences without changing the evaluation framework. The evidence can show which design choice better meets predefined specifications and whether a particular failure mode is associated with one option.
A practical workflow begins by defining the performance and safety criteria, then selecting controlled conditions that represent the question under study. The evaluator applies those conditions, measures the relevant outputs, and compares the findings with the predefined specifications. Documenting failures, differences, and design responses creates a traceable basis for iterative development and later risk assessment.
It is most useful before a device, material, or procedure is used in patients, particularly when its function or safety still needs systematic examination. The method can identify design weaknesses and failure modes early, allowing teams to modify the product before clinical translation. It supports a staged development process rather than relying on patient use to reveal problems.
Results can serve several connected purposes in medical development. They help verify that a design performs as intended, support comparison of materials or configurations, and provide evidence for risk assessment and regulatory submissions. When findings are consistent with predefined criteria, they can also strengthen the rationale for clinical translation, while unfavorable results identify issues requiring further design work.