Changed around line 6: title Microscopes
- printDataset
+ printConcepts
- name: string
- The name of the microscope
- invented: year
- The year this telescope was invented
- resolution: int
- The smallest resolution it can see, in nanometers.
+ nameParser
+ extends abstractStringMeasureParser
+ description The name of the microscope
- wikipedia: url
- A URL to learn more about this kind of microscope.
+ inventedParser
+ extends abstractIntegerMeasureParser
+ description The year this telescope was invented
- type: string
- Classify each microscope by type (e.g., optical, electron, scanning probe) to allow users to filter and understand the specific applications and functionalities of different microscopes.
+ resolutionParser
+ extends abstractIntegerMeasureParser
+ description The smallest resolution it can see, in nanometers.
- applications: string
- Describe common or notable applications of each microscope type, such as biology, materials science, nanotechnology, etc. This helps users understand where a particular microscope can be best utilized.
+ wikipediaParser
+ extends abstractUrlMeasureParser
+ description A URL to learn more about this kind of microscope.
- key_advancements: string
- List significant improvements or iterations made over the initial model. This could include details on enhancements in resolution, usability, or adaptation to different scientific needs, showing the evolution of the technology.
+ typeParser
+ extends abstractStringMeasureParser
+ description Classify each microscope by type (e.g., optical, electron, scanning probe) to allow users to filter and understand the specific applications and functionalities of different microscopes.
- inventor_developer: string
- Knowing who invented or developed the microscope can provide historical context and acknowledgment of significant contributions in the field. This also helps in understanding the geographical and institutional origins of
+ applicationsParser
+ extends abstractStringMeasureParser
+ description Describe common or notable applications of each microscope type, such as biology, materials science, nanotechnology, etc. This helps users understand where a particular microscope can be best utilized.
+
+ key_advancementsParser
+ extends abstractStringMeasureParser
+ description List significant improvements or iterations made over the initial model. This could include details on enhancements in resolution, usability, or adaptation to different scientific needs, showing the evolution of the technology.
+
+ inventor_developerParser
+ extends abstractStringMeasureParser
+ description Knowing who invented or developed the microscope can provide historical context and acknowledgment of significant contributions in the field. This also helps in understanding the geographical and institutional origins of
- ::
-
- name: Optical Microscope
- invented: 1590
- resolution: 200
- wikipedia: https://en.wikipedia.org/wiki/Optical_microscope
- type: Optical
- applications: General biological and medical microscopy
- key_advancements: Improved lens quality and microscope design for better image clarity and detail.
- inventor_developer: Zacharias Janssen (attributed)
-
- ::
-
- name: Electron Microscope
- invented: 1931
- resolution: 0.2
- wikipedia: https://en.wikipedia.org/wiki/Electron_microscope
- type: Electron
- applications: Cellular biology, materials science, virology
- key_advancements: Enhanced magnification and resolution, allowing visualization of structures at the atomic level.
- inventor_developer: Ernst Ruska and Max Knoll
-
- ::
-
- name: Scanning Tunneling Microscope
- invented: 1981
- resolution: 0.1
- wikipedia: https://en.wikipedia.org/wiki/Scanning_tunneling_microscope
- type: Scanning Probe
- applications: Surface science, nanotechnology
- key_advancements: Ability to image surfaces at the atomic level.
- inventor_developer: Gerd Binnig and Heinrich Rohrer
-
- ::
-
- name: Confocal Microscope
- invented: 1957
- resolution: 200
- wikipedia: https://en.wikipedia.org/wiki/Confocal_microscopy
- type: Optical
- applications: 3D imaging of biological samples
- key_advancements: Provides optical sectioning capability to observe multiple layers within specimens.
- inventor_developer: Marvin Minsky
-
- ::
-
- name: Atomic Force Microscope
- invented: 1986
- resolution: 0.1
- wikipedia: https://en.wikipedia.org/wiki/Atomic_force_microscopy
- type: Scanning Probe
- applications: Nanotechnology, surface engineering
- key_advancements: Can image non-conductive materials, providing a three-dimensional surface profile.
- inventor_developer: Gerd Binnig, Calvin Quate, Christoph Gerber
-
- ::
-
- name: Fluorescence Microscope
- invented: 1911
- resolution: 200
- wikipedia: https://en.wikipedia.org/wiki/Fluorescence_microscope
- type: Optical
- applications: Biological sciences, medical diagnostics
- key_advancements: Uses fluorescence and phosphorescence to study properties of organic or inorganic substances.
- inventor_developer: Oskar Heimstädt
-
- ::
-
- name: Phase Contrast Microscope
- invented: 1934
- resolution: 200
- wikipedia: https://en.wikipedia.org/wiki/Phase_contrast_microscopy
- type: Optical
- applications: Live cell imaging without staining
- key_advancements: Enhances contrast in transparent and colorless samples.
- inventor_developer: Frits Zernike
-
- ::
-
- name: Transmission Electron Microscope
- invented: 1933
- resolution: 0.05
- wikipedia: https://en.wikipedia.org/wiki/Transmission_electron_microscopy
- type: Electron
- applications: Material science, cancer research, virology
- key_advancements: Capable of imaging at a significantly higher resolution than light microscopes, down to the level of atomic structures.
- inventor_developer: Ernst Ruska
-
- ::
-
- name: Scanning Electron Microscope
- invented: 1942
- resolution: 1
- wikipedia: https://en.wikipedia.org/wiki/Scanning_electron_microscope
- type: Electron
- applications: Materials research, forensic examinations, biological research
- key_advancements: Produces high-resolution images of a sample surface, revealing detailed topography.
- inventor_developer: Manfred von Ardenne
-
- ::
-
- name: Digital Microscope
- invented: 1980s
- resolution: 200
- wikipedia: https://en.wikipedia.org/wiki/Digital_microscope
- type: Optical
- applications: Education, industrial inspection, clinical research
- key_advancements: Integration with digital cameras and computers for enhanced imaging and analysis.
- inventor_developer: Various contributors
-
- ::
-
- name: Stereo Microscope
- invented: 1671
- resolution: 10000
- wikipedia: https://en.wikipedia.org/wiki/Stereo_microscope
- type: Optical
- applications: Manufacturing, botany, entomology
- key_advancements: Provides a three-dimensional viewing experience by using two separate optical paths.
- inventor_developer: Cherubin d'Orleans
-
- ::
-
- name: X-ray Microscope
- invented: 1946
- resolution: 50
- wikipedia: https://en.wikipedia.org/wiki/X-ray_microscopy
- type: X-ray
- applications: Material sciences, paleontology
- key_advancements: Uses X-rays to penetrate samples and create images of the internal structure.
- inventor_developer: Raymond Castaing
-
- ::
-
- name: Cryo-Electron Microscopy
- invented: 1975
- resolution: 0.1
- wikipedia: https://en.wikipedia.org/wiki/Cryo-electron_microscopy
- type: Electron
- applications: Structural biology, virology
- key_advancements: Allows imaging of samples at cryogenic temperatures, preserving native state.
- inventor_developer: Jacques Dubochet, Joachim Frank, Richard Henderson
-
- ::
+ name Optical Microscope
+ invented 1590
+ resolution 200
+ wikipedia https://en.wikipedia.org/wiki/Optical_microscope
+ type Optical
+ applications General biological and medical microscopy
+ key_advancements Improved lens quality and microscope design for better image clarity and detail.
+ inventor_developer Zacharias Janssen (attributed)
+
+
+
+ name Electron Microscope
+ invented 1931
+ resolution 0.2
+ wikipedia https://en.wikipedia.org/wiki/Electron_microscope
+ type Electron
+ applications Cellular biology, materials science, virology
+ key_advancements Enhanced magnification and resolution, allowing visualization of structures at the atomic level.
+ inventor_developer Ernst Ruska and Max Knoll
+
+
+
+ name Scanning Tunneling Microscope
+ invented 1981
+ resolution 0.1
+ wikipedia https://en.wikipedia.org/wiki/Scanning_tunneling_microscope
+ type Scanning Probe
+ applications Surface science, nanotechnology
+ key_advancements Ability to image surfaces at the atomic level.
+ inventor_developer Gerd Binnig and Heinrich Rohrer
+
+
+
+ name Confocal Microscope
+ invented 1957
+ resolution 200
+ wikipedia https://en.wikipedia.org/wiki/Confocal_microscopy
+ type Optical
+ applications 3D imaging of biological samples
+ key_advancements Provides optical sectioning capability to observe multiple layers within specimens.
+ inventor_developer Marvin Minsky
+
+
+
+ name Atomic Force Microscope
+ invented 1986
+ resolution 0.1
+ wikipedia https://en.wikipedia.org/wiki/Atomic_force_microscopy
+ type Scanning Probe
+ applications Nanotechnology, surface engineering
+ key_advancements Can image non-conductive materials, providing a three-dimensional surface profile.
+ inventor_developer Gerd Binnig, Calvin Quate, Christoph Gerber
+
+
+
+ name Fluorescence Microscope
+ invented 1911
+ resolution 200
+ wikipedia https://en.wikipedia.org/wiki/Fluorescence_microscope
+ type Optical
+ applications Biological sciences, medical diagnostics
+ key_advancements Uses fluorescence and phosphorescence to study properties of organic or inorganic substances.
+ inventor_developer Oskar Heimstädt
+
+
+
+ name Phase Contrast Microscope
+ invented 1934
+ resolution 200
+ wikipedia https://en.wikipedia.org/wiki/Phase_contrast_microscopy
+ type Optical
+ applications Live cell imaging without staining
+ key_advancements Enhances contrast in transparent and colorless samples.
+ inventor_developer Frits Zernike
+
+
+
+ name Transmission Electron Microscope
+ invented 1933
+ resolution 0.05
+ wikipedia https://en.wikipedia.org/wiki/Transmission_electron_microscopy
+ type Electron
+ applications Material science, cancer research, virology
+ key_advancements Capable of imaging at a significantly higher resolution than light microscopes, down to the level of atomic structures.
+ inventor_developer Ernst Ruska
+
+
+
+ name Scanning Electron Microscope
+ invented 1942
+ resolution 1
+ wikipedia https://en.wikipedia.org/wiki/Scanning_electron_microscope
+ type Electron
+ applications Materials research, forensic examinations, biological research
+ key_advancements Produces high-resolution images of a sample surface, revealing detailed topography.
+ inventor_developer Manfred von Ardenne
+
+
+
+ name Digital Microscope
+ invented 1980s
+ resolution 200
+ wikipedia https://en.wikipedia.org/wiki/Digital_microscope
+ type Optical
+ applications Education, industrial inspection, clinical research
+ key_advancements Integration with digital cameras and computers for enhanced imaging and analysis.
+ inventor_developer Various contributors
+
+
+
+ name Stereo Microscope
+ invented 1671
+ resolution 10000
+ wikipedia https://en.wikipedia.org/wiki/Stereo_microscope
+ type Optical
+ applications Manufacturing, botany, entomology
+ key_advancements Provides a three-dimensional viewing experience by using two separate optical paths.
+ inventor_developer Cherubin d'Orleans
+
+
+
+ name X-ray Microscope
+ invented 1946
+ resolution 50
+ wikipedia https://en.wikipedia.org/wiki/X-ray_microscopy
+ type X-ray
+ applications Material sciences, paleontology
+ key_advancements Uses X-rays to penetrate samples and create images of the internal structure.
+ inventor_developer Raymond Castaing
+
+
+
+ name Cryo-Electron Microscopy
+ invented 1975
+ resolution 0.1
+ wikipedia https://en.wikipedia.org/wiki/Cryo-electron_microscopy
+ type Electron
+ applications Structural biology, virology
+ key_advancements Allows imaging of samples at cryogenic temperatures, preserving native state.
+ inventor_developer Jacques Dubochet, Joachim Frank, Richard Henderson
+
+