Temperature Controlled Curing
Temperature Controlled Curing - Related Videos
06:43
Esophageal Heat Transfer for Patient Temperature Control and Targeted Temperature Management
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Cited by 6 •
2017
This study presents a novel method to provide efficient patient temperature control for cooling or warming patients. A single use, triple lumen device is placed into the esophagus, analogous to a standard orogastric tube, and connects to existing heat exchange units to perform automatic patient temperature management.
01:25
Accelerated Curing of Concrete
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2024
Accelerating concrete curing is achieved by applying heat and additional moisture. This process accelerates the hydration of the cement, resulting in an earlier strength gain in the concrete. Steam curing is a method wherein the concrete products are either transported through a chamber on a conveyor belt or encased in plastic, allowing steam at atmospheric pressure to circulate freely around them. This process begins with a phase of moist curing that typically lasts between 3 to 5 hours, after...
06:09
Studying the Protein Quality Control System of D. discoideum Using Temperature-controlled Live Cell Imaging
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2016
The social amoebae Dictyostelium discoideum has recently been established as a system to study protein misfolding and proteostasis. Here, we describe a new imaging-based methodology to study temperature-induced protein aggregation and the cellular stress response in D. discoideum.
01:20
Curing of Concrete
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2024
The hydration of cement takes place within the water-filled capillary pores. However, environmental elements can disrupt this process by evaporating water from the concrete surfaces. Sealed concrete with a water-cement ratio below 0.5 experiences self-desiccation, leading to water loss. The water loss in concrete is mitigated by curing. This technique involves keeping the concrete saturated to maintain the necessary temperature and moisture conditions, to optimally fill the spaces in the cement...
01:26
Curing Methods
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2024
Concrete members with a small surface-to-volume ratio are cured by oiling and moistening the forms before casting the concrete member. These forms can be left in place for a prolonged period to prevent moisture loss, and can be wetted if made of a material suitable for wetting. If the forms are removed early, the concrete member is moistened and covered with polythene sheets to maintain moisture. For large horizontal concrete surfaces exposed to dry weather, a temporary covering is suspended...
FAQs
Temperature directly influences reaction kinetics and molecular mobility during curing. A higher or lower thermal condition can therefore change how quickly polymerization or hydrogel formation proceeds and how readily molecules rearrange. Because these changes affect gelation time and final structure, maintaining a defined temperature helps researchers attribute differences in material performance to the intended formulation or process rather than uncontrolled thermal variation.
Crosslink density provides a useful link between thermal conditions and material performance. Changes in curing temperature can alter how extensively a polymer or hydrogel network forms, which in turn may influence mechanical strength and molecular mobility. Monitoring these relationships helps bioengineers select a curing condition that produces the desired structural stability without treating gelation time or strength as independent properties.
Thermal control becomes especially important when the formulation contains cells, proteins, or other temperature-sensitive biological constituents. Keeping the curing environment precisely defined can help limit processing-related thermal stress while allowing the material to stabilize. This balance supports biological compatibility and is relevant when fabricating encapsulated cell constructs or other biomaterials that must retain both usable structure and biological performance.
A practical workflow begins by establishing the intended thermal environment, then maintaining that condition during polymerization, hydrogel formation, or stabilization. Researchers can track the resulting gelation time and inspect final structure, crosslink density, and mechanical strength. Comparing these outcomes across consistently controlled runs reveals whether the selected thermal condition provides the required material properties and process reproducibility.
Temperature-controlled curing is useful when a bioengineering process must produce a stable material in a defined form, including scaffolds, coatings, encapsulated cell constructs, or other biomaterial components. The approach is particularly relevant when structure and performance must be coordinated with biological compatibility. Thermal conditions can be adjusted as part of process design to support the intended balance of these outcomes.
Researchers can interpret curing results by considering several linked outcomes rather than a single endpoint. Gelation time indicates how rapidly stabilization occurs, while crosslink density, mechanical strength, and final structure describe the resulting material. Biological compatibility adds a separate performance criterion when cells or proteins are present. Recording these outcomes under the same thermal conditions improves comparisons between experiments and batches.