Surgical Manipulation Application
Surgical Manipulation Application - Related Videos
13:27
Osteopathic Manipulative Treatment as a Useful Adjunctive Tool for Pneumonia
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Cited by 50 •
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Pneumonia is one of the top ten leading causes of death in the U.S. Osteopathic manipulative techniques (OMT) may be utilized as an adjunctive therapy in the treatment of pneumonia to enhance biomechanical and immune function; and ultimately, to reduce hospital stay, duration of antibiotics, incidence of respiratory failure, and mortality. In this video-article, we will review randomized controlled studies on the use of OMT in pneumonia patients, as well as demonstrate specific hands-on...
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Easy Manipulation of Architectures in Protein-based Hydrogels for Cell Culture Applications
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Different methods to manipulate three-dimensional architecture in protein-based hydrogels are evaluated here with respect to material properties. The macroporous networks are functionalized with a cell-adhesive peptide, and their feasibility in cell culture is evaluated using two different model cell lines.
16:27
Biophysical Assays to Probe the Mechanical Properties of the Interphase Cell Nucleus: Substrate Strain Application and Microneedle Manipulation
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Cited by 25 •
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We present two independent, microscope-based tools to measure the induced nuclear and cytoskeletal deformations in single, living adherent cells in response to global or localized strain application. These techniques are used to determine nuclear stiffness (i.e., deformability) and to probe intracellular force transmission between the nucleus and the cytoskeleton.
08:54
In vivo Application of the REMOTE-control System for the Manipulation of Endogenous Gene Expression
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Cited by 2 •
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This protocol outlines the steps needed to generate a model system in which the transcription of an endogenous gene of interest can be conditionally controlled in live animals or cells using enhanced lac repressor and/or tet activator systems.
08:40
TAPE: A Biodegradable Hemostatic Glue Inspired by a Ubiquitous Compound in Plants for Surgical Application
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Cited by 12 •
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We describe the simplest protocol to prepare biodegradable medical glue that has an effective hemostatic ability. TAPE is a water-immiscible supramolecular aggregate prepared by mixing of tannic acid, a ubiquitous compound found in plants, and poly(ethylene) glycol, yielding a 2.5 times greater water-resistant adhesion compared with commercial fibrin glue.
FAQs
The result depends on how deliberately mechanical forces are directed through the instrument and into the tissue. Anatomy and tissue properties determine how structures respond during access, repositioning, repair, or modification. Controlling these interactions helps practitioners and researchers maintain procedural precision while limiting avoidable tissue injury, which is especially important when evaluating implants, biomaterials, or engineered constructs.
Anatomy determines where access and repositioning can occur, while tissue properties influence how biological structures respond to handling. Ignoring either factor can make manipulation less precise and may interfere with healing constraints. In bioengineering studies, accounting for these characteristics also helps researchers judge whether a material, device, or tissue-engineered construct can be handled and placed appropriately.
Clinical procedures provide the practical setting in which instruments, implants, biomaterials, and engineered tissues interact with the body. Bioengineering uses that setting to examine how design choices affect handling, placement, and integration with biological structures. This connection allows procedural observations to inform the development of surgical tools and technologies intended to work more effectively within anatomical and healing constraints.
Controlled mechanical action, sterile conditions, anatomical considerations, tissue properties, and healing constraints all influence outcomes. These factors must be considered together rather than treated as separate concerns. Their combined effect determines how precisely a structure can be accessed or modified and how well an implant, biomaterial, or tissue-engineered construct may function within the biological environment.
A study begins by defining the target structure and the intended action, such as access, repositioning, repair, or modification. Researchers then select controlled instrument handling under sterile conditions, account for anatomy and tissue properties, and consider healing constraints. The resulting interaction can be examined to assess procedural precision, tissue response, or the suitability of a bioengineered technology.
It is useful when researchers need to examine how an implant or biomaterial is placed, handled, or integrated with biological tissue. The application provides a practical context for considering instrument access, tissue properties, and healing constraints together. Findings can guide improvements in material design and placement strategies while helping reduce tissue injury associated with procedural handling.
Tool development can be guided by observing how instruments deliver controlled mechanical forces to biological structures. Researchers can use these interactions to consider whether a tool supports precise access, repositioning, repair, or modification while respecting anatomy and tissue properties. This bioengineering perspective links instrument design with reduced injury and more effective interaction between the tool and the body.
Handling tissue-engineered constructs during a surgical application can reveal whether their placement and modification are compatible with procedural requirements. Researchers can consider how the construct responds to instrument contact, anatomical positioning, and healing constraints. These observations help assess design suitability and may support improvements that allow engineered tissues to interact more effectively with the body.