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Managing Samples in caNanoLab | caNanoLab User's Guide| Managing Sample Characterizations
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Define biopolymer properties.
| Field | Description | ||||||
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| Name | Enter the name of the biopolymer. | ||||||
| Bipolymer type |
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| Sequence | Using the appropriate format, enter the complete sequence of the biopolymer. |
After defining the particle properties, continue to define Carbon Nanotube information.
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Fill in the carbon nanotube properties as needed.
| Field | Description |
|---|---|
| Average Length | Enter the average length of the nanotube. |
| Length Unit | Select or enter the measurement unit type for the average length measurement of the nanotube. |
| Chirality | The spatial position or orientation of functional groups located within a molecule. Enter information about the chirality in the nanotube and its effect on the orientation of functional groups located on the particle. |
| Diameter | Enter the measurement of the nanotube diameter, as measured from one side of the tube wall through the center of the nanotube to the opposite point on the circumference. |
| Diameter Unit | Enter the measurement unit type of the nanotube diameter. |
| Wall Type |
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After defining the particle properties, continue to define Dendrimer information.
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Fill in the dendrimer properties.
| Field | Description |
|---|---|
| Branch | Branches are molecules that branch off of the core (like tree branches). Enter a description that represents the number of branches in the dendrimer. |
| Generation | Generations are shells layered on the core of a dendrimer. Dendrimers consist of layers of chemical shells built on a core module. Each shell consists of two chemicals in the same order (A-B) and each shell is called a generation. The generations are labeled in decimal to illustrate the shell layering/consistency. For example, Generation 2.5 (G2.5) = 1 shell of A-B (1), surrounded by a second shell of A-B (2), topped off with only one chemical A within the shell (.5). As such, the layering structure would be (A-B, A-B, A) = 2.5. List the generations reflected in this dendrimer.
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After defining the particle properties, continue to define Emulsion information.
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Fill in the emulsion properties as needed.
| Field | Description |
|---|---|
| Is Polymerized* | Specify whether the composition is polymerized. Polymerization consists of enzymatic reactions that link a series of monomers, forming a polymerized compound (polymer), usually of high molecular weight, by combination of simpler molecules (monomers). |
| Polymer Name* |
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After defining the particle properties, continue to define Fullerene information.
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Fill in the fullerene properties as needed.
| Field | Description |
|---|---|
| Average Diameter | Enter themeasurement of the fullerene diameter, as measured from one side of the nanoparticle through its center to the opposite point on the circumference. |
| Average Diameter Unit | Enter the measurement unit type of the fullerene diameter. |
| Number of Carbons | Enter the number of carbon molecules comprising the fullerene. |
After defining the particle properties, continue to define Liposome information.
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Fill in the liposome properties as needed. After defining the particle properties, continue to define Metal Particle information.
| Field | Description |
|---|---|
| Polymer Name | Enter the name of the liposome polymer. |
| Is Polymerized | Polymerization consists of enzymatic reactions that link a series of monomers, forming a polymerized compound (polymer), usually of high molecular weight, by combination of simpler molecules (monomers). Select Yes or No, reflecting whether or not the liposome is polymerized. |
After defining the particle properties, continue to define Metal Particle information.
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Define the polymer properties.
| Field | Description |
|---|---|
| Initiator | Enter the agent that initiated the polymerization. Examples are free radicals or peroxide. |
| Is crosslinked | Crosslinking is a covalent bond between two polymers or two different regions of the same polymer. Select Yes or No, indicating whether the polymer is crosslinked. |
| Crosslink Degree | Enter the percentage level of covalent linkage in the polymer. |
After defining the particle properties, continue to define Quantum Dot information.
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Defining Nanomaterial Composing Elements
To define Define the composing elements for the nanomaterial entity.
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| Field | Description |
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| Composing Element Type |
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| * | Select from the drop-down list the type of composing element comprising this nanomaterial (required). Options include the following: |
| Chemical Name |
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| * | Enter the chemical name given to the atomic or molecular structure that composes the center of the nanoparticle (required). | ||||||
| Crosslink Degree | Enter the percentage level of covalent linkage in the polymer. | ||||||
| PubChem Data Source/PubChem ID |
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| Amount/Amount Unit |
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| Molecular Formula Type |
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| Molecular Formula |
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| Enter the chemical formula of the nanoparticle. | |
| Description |
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| Enter a description for the composing element. | |
| Inherent Function |
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Inherent function is the characteristic behavior of a sample that results from the chemical and physical composition and properties of the entity.
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| Description |
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| Enter any additional function information for the nanomaterial entity that the form does not already include. |
Click Save to add the inherent function details to the nanomaterial entity or Cancel to just close the window.
After defining composing elements, continue to define Add supporting documentation files.
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