Source 1review2024Journal of Cell Science
Toolkit/super-resolution microscopy
super-resolution microscopy
Also known as: diffraction-unlimited microscopy, nanoscopy, SRM, super-resolution light microscopy
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
In this Review, we explore new insights from studies using super-resolution and volume electron microscopy into the nanoscale organization of these junctional complexes...
Usefulness & Problems
Why this is useful
Super-resolution microscopy is described as an imaging modality that expands the applications of pH-sensitive fluorescent proteins. It is presented as part of the field's recent technical growth.; advanced imaging of pH-sensitive protein applications; Super-resolution microscopy is presented as a high-resolution imaging approach used to reveal nanoscale organization of cell-cell junctional complexes. The review frames it as a key tool for understanding junctional architecture and dynamics.; resolving nanoscale organization of tight junctions, adherens junctions, and desmosomes; studying junctional dynamics at high resolution; Super-resolution microscopy provides imaging with resolution beyond conventional light microscopy. In this review it is framed as a tool for visualizing detailed structures and dynamics in living species.; visualizing biological activities in fixed and living cells; in vivo imaging at high spatiotemporal resolution; observing detailed structures and dynamics in living species; SRM is described as a current modality translated to imaging of plant subcellular compartments, cells, tissues, and organs. The review discusses its recent applications and expected future use in plants.; multiscale imaging of plant subcellular compartments, cells, tissues, and organs; spatiotemporal documentation of plant growth and development; Super-resolution microscopy is presented as a complementary imaging approach that can be combined with AFM.; high-resolution complementary imaging in AFM-based mechanobiology; Super-resolution microscopy is presented as a diffraction-unlimited imaging approach for visualizing mitochondrial organization beyond the limits of conventional light microscopy. In this review, it is positioned as especially important for mapping submitochondrial protein distributions.; imaging submitochondrial protein distributions; resolving mitochondrial structures near or below the diffraction limit; investigating mitochondrial inner architecture
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Super-resolution microscopy is described as an imaging modality that expands the applications of pH-sensitive fluorescent proteins. It is presented as part of the field's recent technical growth.
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advanced imaging of pH-sensitive protein applications
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Super-resolution microscopy is presented as a high-resolution imaging approach used to reveal nanoscale organization of cell-cell junctional complexes. The review frames it as a key tool for understanding junctional architecture and dynamics.
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resolving nanoscale organization of tight junctions, adherens junctions, and desmosomes
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studying junctional dynamics at high resolution
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Super-resolution microscopy provides imaging with resolution beyond conventional light microscopy. In this review it is framed as a tool for visualizing detailed structures and dynamics in living species.
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visualizing biological activities in fixed and living cells
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in vivo imaging at high spatiotemporal resolution
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observing detailed structures and dynamics in living species
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SRM is described as a current modality translated to imaging of plant subcellular compartments, cells, tissues, and organs. The review discusses its recent applications and expected future use in plants.
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multiscale imaging of plant subcellular compartments, cells, tissues, and organs
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spatiotemporal documentation of plant growth and development
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Super-resolution microscopy is presented as a complementary imaging approach that can be combined with AFM.
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high-resolution complementary imaging in AFM-based mechanobiology
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Super-resolution microscopy is presented as a diffraction-unlimited imaging approach for visualizing mitochondrial organization beyond the limits of conventional light microscopy. In this review, it is positioned as especially important for mapping submitochondrial protein distributions.
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imaging submitochondrial protein distributions
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resolving mitochondrial structures near or below the diffraction limit
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investigating mitochondrial inner architecture
Problem solved
It helps bring pH-sensitive protein measurements into higher-resolution spatial imaging contexts. This can improve subcellular visualization beyond conventional microscopy.; extends pH-sensitive protein use into higher-resolution imaging contexts; It helps address the need to study the nanoscale architectures of tight junctions, adherens junctions, and desmosomes. This is important for understanding complex cell-cell adhesions.; helps study nanoscale junctional architecture beyond conventional live fluorescence microscopy resolution; It helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.; improves resolution beyond conventional light microscopy; enables study of biological processes in more physiological contexts; It contributes higher-resolution plant imaging within broader integrative and scalable documentation of growth and development. The modality is part of the review's nanoscopy-focused coverage.; extends plant imaging methods toward nanoscopy-level resolution in plant systems; It helps provide higher-resolution imaging context in multimodal mechanobiology experiments.; adds complementary high-resolution imaging context to AFM experiments; It addresses the difficulty of imaging mitochondria whose diameter is close to the resolution limit of conventional light microscopy. This makes finer mitochondrial architecture and protein distribution more accessible.; overcomes the resolution limitations of conventional light microscopy for mitochondrial imaging
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It helps bring pH-sensitive protein measurements into higher-resolution spatial imaging contexts. This can improve subcellular visualization beyond conventional microscopy.
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extends pH-sensitive protein use into higher-resolution imaging contexts
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It helps address the need to study the nanoscale architectures of tight junctions, adherens junctions, and desmosomes. This is important for understanding complex cell-cell adhesions.
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helps study nanoscale junctional architecture beyond conventional live fluorescence microscopy resolution
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It helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.
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improves resolution beyond conventional light microscopy
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enables study of biological processes in more physiological contexts
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It contributes higher-resolution plant imaging within broader integrative and scalable documentation of growth and development. The modality is part of the review's nanoscopy-focused coverage.
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extends plant imaging methods toward nanoscopy-level resolution in plant systems
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It helps provide higher-resolution imaging context in multimodal mechanobiology experiments.
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adds complementary high-resolution imaging context to AFM experiments
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It addresses the difficulty of imaging mitochondria whose diameter is close to the resolution limit of conventional light microscopy. This makes finer mitochondrial architecture and protein distribution more accessible.
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overcomes the resolution limitations of conventional light microscopy for mitochondrial imaging
Problem links
This item directly targets super-resolution imaging, so it is relevant to the resolution side of the gap. Because it is light-based and includes in vivo and plant imaging hints, it could plausibly support less destructive live imaging than electron-based approaches.
adds complementary high-resolution imaging context to AFM experiments
LiteratureIt helps provide higher-resolution imaging context in multimodal mechanobiology experiments.
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It helps provide higher-resolution imaging context in multimodal mechanobiology experiments.
enables study of biological processes in more physiological contexts
LiteratureIt helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.
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It helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.
extends pH-sensitive protein use into higher-resolution imaging contexts
LiteratureIt helps bring pH-sensitive protein measurements into higher-resolution spatial imaging contexts. This can improve subcellular visualization beyond conventional microscopy.
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It helps bring pH-sensitive protein measurements into higher-resolution spatial imaging contexts. This can improve subcellular visualization beyond conventional microscopy.
extends plant imaging methods toward nanoscopy-level resolution in plant systems
LiteratureIt contributes higher-resolution plant imaging within broader integrative and scalable documentation of growth and development. The modality is part of the review's nanoscopy-focused coverage.
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It contributes higher-resolution plant imaging within broader integrative and scalable documentation of growth and development. The modality is part of the review's nanoscopy-focused coverage.
helps study nanoscale junctional architecture beyond conventional live fluorescence microscopy resolution
LiteratureIt helps address the need to study the nanoscale architectures of tight junctions, adherens junctions, and desmosomes. This is important for understanding complex cell-cell adhesions.
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It helps address the need to study the nanoscale architectures of tight junctions, adherens junctions, and desmosomes. This is important for understanding complex cell-cell adhesions.
improves resolution beyond conventional light microscopy
LiteratureIt helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.
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It helps researchers study biological activities and processes at higher spatial detail, including in more physiological in vivo contexts.
overcomes the resolution limitations of conventional light microscopy for mitochondrial imaging
LiteratureIt addresses the difficulty of imaging mitochondria whose diameter is close to the resolution limit of conventional light microscopy. This makes finer mitochondrial architecture and protein distribution more accessible.
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It addresses the difficulty of imaging mitochondria whose diameter is close to the resolution limit of conventional light microscopy. This makes finer mitochondrial architecture and protein distribution more accessible.
Published Workflows
Objective: Enable super-resolution imaging in living species by combining microscopy advances with compatible labeling and fluorophore choices.
Why it works: The review frames in vivo super-resolution imaging as requiring both technical advances in microscopy and compatible labeling and fluorophore chemistry, because biological processes must be studied in physiological contexts at high spatiotemporal resolution.
improved optical resolution beyond conventional light microscopyobservation of detailed structures and dynamics in living speciessuper-resolution microscopylabeling strategy optimizationfluorophore selection
Stages
- 1.Technical advancement selection for in vivo-compatible super-resolution microscopy(functional_characterization)
The review identifies technical advances as the basis for adapting super-resolution microscopy to living species.
Selection: Recent technical advancements in SRM that have been successfully applied to in vivo imaging
- 2.Labeling strategy and fluorophore suitability assessment(secondary_characterization)
The abstract indicates that successful in vivo SRM depends not only on microscopy advances but also on appropriate labeling and fluorophore properties.
Selection: Improvements in labeling strategies together with spectroscopic and chemical demands of fluorophores
- 3.Application review in living species and challenge assessment(confirmatory_validation)
The review uses applications in living species to contextualize practical use and to highlight remaining challenges.
Selection: Current applications for super-resolution techniques in living species and inherent challenges in the field
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Mechanisms
multiplexed fluorescence imagingsuper-resolution optical imagingthree-dimensional visualizationTechniques
Functional AssayTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: spectral hardware requirementoperating role: sensor
It requires super-resolution-capable microscopy and compatible imaging workflows. The supplied abstract does not specify exact platforms or protocols.; requires super-resolution imaging instrumentation; It requires microscopy instrumentation and sample-imaging workflows suitable for super-resolution measurements. The abstract does not specify particular modalities or reagents.; requires microscopy workflows capable of nanoscale imaging; Its in vivo deployment depends on appropriate labeling strategies and fluorophores with suitable spectroscopic and chemical properties.; requires suitable labeling strategies; requires fluorophores meeting spectroscopic and chemical demands for living systems; The abstract highlights the need for living or fixed sample preparation methods and labeling strategies that work in plants. Practical accommodation of plant samples is a stated concern.; requires plant-compatible sample preparation; requires labeling strategies successfully applied in plants; It requires super-resolution imaging hardware and coordination with AFM measurements.; requires super-resolution imaging capability; used as part of integrated AFM experiments; It requires super-resolution light microscopy instrumentation or methods rather than standard diffraction-limited microscopy. The abstract does not provide modality-specific reagents or hardware details.; requires super-resolution microscopy capability rather than conventional diffraction-limited imaging
The abstract does not show that super-resolution microscopy itself improves pH specificity or targeting. It also does not specify which sensors are best suited for it.; the abstract does not specify which super-resolution methods or sensor compatibilities are established; The abstract does not claim that super-resolution microscopy alone captures all relevant membrane morphology or cellular topography. It instead emphasizes integrating junctional architecture with broader cellular context.; the abstract does not specify which super-resolution modality or its tradeoffs; The abstract indicates that in vivo super-resolution imaging still faces inherent challenges, but does not specify all of them in the provided text.; in vivo use faces inherent challenges; performance depends on labeling strategies and fluorophore spectroscopic and chemical properties; Existing SRM is described as limited by plant sample accommodation, spherical aberrations, and temporal restrictions that hinder fast 3D dynamic recording.; ability to accommodate plant samples is limited; documentation potential is affected by spherical aberrations; temporal restrictions can prohibit dynamic recording of fast cellular processes in three dimensions; The supplied evidence does not support any claim that it directly substitutes for AFM-based force or mechanical measurements.; the provided source text does not specify which super-resolution methods are discussed; The abstract does not claim that super-resolution microscopy alone resolves all challenges in mitochondrial biology. It also does not specify that one method universally solves live-cell, labeling, or throughput limitations.; the abstract does not specify which super-resolution modality is best for each application
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Source 2primary paper2021PLANT PHYSIOLOGY
Source 3review2024Frontiers in Pharmacology
Source 4review2021Frontiers in Chemistry
Source 5review2014Current Opinion in Chemical Biology
Ranked Claims
Multiplexed imaging, three-dimensional visualization, and super-resolution microscopy are expanding the applications of pH-sensitive fluorescent proteins.
Electron microscopy and live fluorescence microscopy have significantly enhanced understanding of molecular mechanisms regulating junctional dynamics during homeostasis, development, and disease.
Junctional architectures should be integrated with membrane morphology and cellular topography in which the junctions are embedded.
Junction-related biosensors, cytoskeletal-related biosensors, and optogenetic probes have contributed to advances in understanding junctional dynamics across cellular environments.
Studying nanoscale architectures of tight junctions, adherens junctions, and desmosomes is crucial for understanding the complexity of cell-cell adhesions.
Super-resolution microscopy and volume electron microscopy have provided new insights into the nanoscale organization of cell-cell junctional complexes and their relationships to the junction-associated cytoskeleton, neighboring organelles, and the plasma membrane.
Light-sheet fluorescence microscopy and super-resolution microscopy have been translated to imaging of plant subcellular compartments, cells, tissues, and organs.
Recent technical advances in super-resolution microscopy have been successfully applied to in vivo imaging.
Super-resolution microscopy provides substantially higher resolution than conventional light microscopy and is a powerful tool for visualizing biological activities in fixed and living cells.
LSFM and SRM are expected to be bridged in the near future to achieve broader multiscale plant imaging with a single platform.
Existing LSFM and SRM have shortcomings in plant imaging, including limited accommodation of plant samples, spherical aberrations, and temporal restrictions that hinder recording of fast cellular processes in three dimensions.
The review compares expectations for imaging mitochondria with conventional diffraction-limited microscopy and diffraction-unlimited microscopy and surveys recent super-resolution studies plus future challenges.
In this review, we discuss what can be expected when imaging mitochondria with conventional diffraction-limited and diffraction-unlimited microscopy. We provide an overview on recent studies using super-resolution microscopy to investigate mitochondria and discuss further developments and challenges in mitochondrial biology that might by addressed with these technologies in the future.
Because mitochondrial diameter is close to the resolution limit of conventional light microscopy, diffraction-unlimited super-resolution microscopy is often mandatory for imaging submitochondrial protein distributions.
The diameter of mitochondria is generally close to the resolution limit of conventional light microscopy, rendering diffraction-unlimited super-resolution light microscopy (nanoscopy) for imaging submitochondrial protein distributions often mandatory.
Mitochondria are challenging objects for microscopy because of their complex inner architecture.
With their complex inner architecture featuring a smooth outer and a highly convoluted inner membrane, they are challenging objects for microscopy.
Approval Evidence
6 sources11 linked approval claimsfirst-pass slug super-resolution-microscopy
In this Review, we explore new insights from studies using super-resolution and volume electron microscopy into the nanoscale organization of these junctional complexes...
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Techniques for multiplexed imaging, three-dimensional visualization, and super-resolution microscopy are expanding the horizon of pH-sensitive protein applications.
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recent applications and reasonable expectations from current light-sheet fluorescence microscopy (LSFM) and super-resolution microscopy (SRM) modalities
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Over the past two decades, super-resolution microscopy (SRM), which offered a significant improvement in resolution over conventional light microscopy, has become a powerful tool to visualize biological activities in both fixed and living cells.
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The supplied review summary and related item candidates identify super-resolution microscopy as a combinatorial method with AFM.
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The diameter of mitochondria is generally close to the resolution limit of conventional light microscopy, rendering diffraction-unlimited super-resolution light microscopy (nanoscopy) for imaging submitochondrial protein distributions often mandatory.
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advanced imaging compatibilitysupports
Multiplexed imaging, three-dimensional visualization, and super-resolution microscopy are expanding the applications of pH-sensitive fluorescent proteins.
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review summarysupports
Studying nanoscale architectures of tight junctions, adherens junctions, and desmosomes is crucial for understanding the complexity of cell-cell adhesions.
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review summarysupports
Super-resolution microscopy and volume electron microscopy have provided new insights into the nanoscale organization of cell-cell junctional complexes and their relationships to the junction-associated cytoskeleton, neighboring organelles, and the plasma membrane.
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application scopesupports
Light-sheet fluorescence microscopy and super-resolution microscopy have been translated to imaging of plant subcellular compartments, cells, tissues, and organs.
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application scopesupports
Recent technical advances in super-resolution microscopy have been successfully applied to in vivo imaging.
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capability summarysupports
Super-resolution microscopy provides substantially higher resolution than conventional light microscopy and is a powerful tool for visualizing biological activities in fixed and living cells.
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future directionsupports
LSFM and SRM are expected to be bridged in the near future to achieve broader multiscale plant imaging with a single platform.
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limitationsupports
Existing LSFM and SRM have shortcomings in plant imaging, including limited accommodation of plant samples, spherical aberrations, and temporal restrictions that hinder recording of fast cellular processes in three dimensions.
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review scope statementsupports
The review compares expectations for imaging mitochondria with conventional diffraction-limited microscopy and diffraction-unlimited microscopy and surveys recent super-resolution studies plus future challenges.
In this review, we discuss what can be expected when imaging mitochondria with conventional diffraction-limited and diffraction-unlimited microscopy. We provide an overview on recent studies using super-resolution microscopy to investigate mitochondria and discuss further developments and challenges in mitochondrial biology that might by addressed with these technologies in the future.
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review summarysupports
Because mitochondrial diameter is close to the resolution limit of conventional light microscopy, diffraction-unlimited super-resolution microscopy is often mandatory for imaging submitochondrial protein distributions.
The diameter of mitochondria is generally close to the resolution limit of conventional light microscopy, rendering diffraction-unlimited super-resolution light microscopy (nanoscopy) for imaging submitochondrial protein distributions often mandatory.
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review summarysupports
Mitochondria are challenging objects for microscopy because of their complex inner architecture.
With their complex inner architecture featuring a smooth outer and a highly convoluted inner membrane, they are challenging objects for microscopy.
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Comparisons
Source-stated alternatives
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.; The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.; Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.; The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.; Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.; The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
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Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.
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The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
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Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.
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The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
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Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Source-backed strengths
identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy; applicable to both fixed and living cells; has been successfully applied to in vivo imaging; presented as a current modality translated to plant imaging applications; included in an integrative imaging trend spanning subcellular to organ scales; supports multimodal integration with AFM; enables diffraction-unlimited imaging of mitochondria; supports investigation of complex mitochondrial inner architecture
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identified as an expanding application modality for pH-sensitive proteins
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provides nanoscale organizational insight into junctional complexes
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significant improvement in resolution over conventional light microscopy
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applicable to both fixed and living cells
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has been successfully applied to in vivo imaging
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presented as a current modality translated to plant imaging applications
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included in an integrative imaging trend spanning subcellular to organ scales
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supports multimodal integration with AFM
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enables diffraction-unlimited imaging of mitochondria
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supports investigation of complex mitochondrial inner architecture
Compared with conventional diffraction-limited microscopy
Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.; The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with electron microscopy
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Compared with electrophysiology
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Compared with fluorescence microscopy
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.; Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Source:
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Compared with imaging
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.; The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.; The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Source:
The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Compared with imaging surveillance
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.; The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.; The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Source:
The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Compared with light microscopy
Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.
Compared with light-sheet fluorescence microscopy
The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract discusses SRM alongside LSFM and predicts that the two will be bridged to achieve broader multiscale plant imaging on a single platform.
Compared with live fluorescence microscopy
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Compared with microscopy
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.; Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.; Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.; The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Source:
Conventional light microscopy is the explicit baseline comparator mentioned in the abstract.
Source:
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with multiplexed imaging
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Other advanced imaging approaches named in the abstract are multiplexed imaging and three-dimensional visualization.
Compared with PALM
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with patch-clamp electrophysiology
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
Other complementary methods named in the supplied material include fluorescence microscopy and patch-clamp electrophysiology.
Compared with photoactivated localization microscopy
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with photo-activation localization microscopy
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with photoactivation localization microscopy
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with STED
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with STED microscopy
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with stimulated emission depletion microscopy
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The review explicitly contrasts super-resolution microscopy with conventional diffraction-limited microscopy. The supplied metadata also points to specific super-resolution modalities such as STED, PALM, and SIM as adjacent alternatives within the broader class.
Compared with volume electron microscopy
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: identified as an expanding application modality for pH-sensitive proteins; provides nanoscale organizational insight into junctional complexes; significant improvement in resolution over conventional light microscopy.
Relative tradeoffs: the abstract does not specify which super-resolution methods or sensor compatibilities are established; the abstract does not specify which super-resolution modality or its tradeoffs; in vivo use faces inherent challenges.
Source:
The abstract contrasts it with electron microscopy, live fluorescence microscopy, and volume electron microscopy as adjacent imaging approaches.
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