Type 1 Type 2
Type 1 Type 2 - Related Videos
04:26
Streptozocin Treatment: A Zebrafish Model of Type 1 Diabetes Mellitus
0 Views •
2023
This video describes the technique of creating a zebrafish model for Type 1 diabetes mellitus with the help of the drug Streptozocin, to study the pathophysiology of diabetic complications and metabolic memory.
01:22
Diabetes Mellitus: Type 2 and Gestational
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2024
Type 2 diabetes, characterized by insulin resistance, arises when the insulin receptors on cells lose responsiveness to insulin, diminishing the cell's capacity to take up glucose, resulting in elevated blood glucose levels. To receive a diagnosis of Type 2 diabetes, a series of blood glucose tests are necessary to assess whether the blood glucose falls within normal parameters. If the result is out of the normal range, a patient may be diagnosed as prediabetic or diabetic, depending on the...
10:07
Isolation of Type I and Type II Pericytes from Mouse Skeletal Muscles
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Cited by 11 •
2017
This work describes a FACS-based protocol that allows for easy and simultaneous isolation of type I and type II pericytes from skeletal muscles.
03:53
An Orthotopic Sciatic Nerve Xenograft for Neurofibromatosis Type 1 Neurofibromas
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2025
Neurofibromatosis type 1 (NF1) leads to benign peripheral nerve sheath tumors (neurofibromas) that require a specific nerve microenvironment for growth. An optimized orthotopic xenograft model was developed, using intraneural injection of human Schwann cells into NSG mice. This model recapitulates human neurofibromas and provides a valuable platform to evaluate therapeutic strategies.
01:23
Types of RNA
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2019
Overview Three main types of RNA are involved in protein synthesis: messenger RNA (mRNA), transfer RNA (tRNA), and ribosomal RNA (rRNA). These RNAs perform diverse functions and can be broadly classified as protein-coding or non-coding RNA. Non-coding RNAs play important roles in the regulation of gene expression in response to developmental and environmental changes. Non-coding RNAs in prokaryotes can be manipulated to develop more effective antibacterial drugs for human or animal use. RNA...
FAQs
Type 1 superconductors undergo an abrupt loss of superconductivity once the applied magnetic field exceeds a single critical value. Type 2 superconductors respond progressively: magnetic flux begins entering at a lower critical field and continues through a mixed state until an upper critical field is reached. This different field response determines how each material behaves in electromagnetic engineering systems.
The mixed state allows Type 2 materials to admit magnetic flux as quantized vortices while remaining superconducting between their lower and upper critical fields. This behavior prevents an immediate transition caused by increasing field strength and gives the material greater magnetic-field tolerance. Consequently, engineers can consider Type 2 superconductors for systems exposed to strong electromagnetic conditions.
Critical fields define the magnetic operating limits of the materials. Type 1 superconductors have one critical value associated with an abrupt loss of superconductivity, whereas Type 2 superconductors have lower and upper critical fields that bound their mixed state. These limits provide an engineering basis for evaluating whether a superconducting material can maintain its intended electromagnetic performance.
Their two-stage field response gives Type 2 superconductors greater tolerance for magnetic fields than Type 1 materials. Magnetic flux can enter as quantized vortices without immediately eliminating superconductivity, allowing operation across a mixed-state range. That characteristic is especially relevant where equipment must sustain high magnetic fields and high currents while preserving efficient, stable electromagnetic performance.
The comparison should begin with the system’s expected magnetic-field and current demands. A Type 1 material becomes unsuitable when its applied field exceeds its critical value, while a Type 2 material offers a broader field-tolerant range bounded by lower and upper critical fields. Engineers can therefore use field tolerance and current requirements to guide material selection for the intended device.
The classification helps predict whether a material will lose superconductivity abruptly or pass through a flux-penetrated mixed state as magnetic conditions change. It also indicates the material’s likely suitability for efficient and stable electromagnetic performance. These predictions support early evaluation of superconducting components intended for electromagnets, magnetic resonance imaging, particle accelerators, and power devices.
Their behavior matters in technologies that require efficient, stable control of electric currents and magnetic fields. The overview identifies electromagnets, magnetic resonance imaging systems, particle accelerators, and power devices as important applications. Type 2 materials are particularly relevant when designs demand greater tolerance for magnetic fields and high currents, while Type 1 behavior remains characterized by an abrupt field limit.