689-2D, 2N, 2P Microsemi Corporation BRIDGE RECTIFIER
Дыскрэтныя паўправадніковыя прыборы
Нумар вытворцы:
689-2D, 2N, 2P
Вытворца:
Катэгорыя прадукцыі:
Апісанне:
BRIDGE RECTIFIER
Стан RoHs:
Табліцы дадзеных:
689-2D, 2N, 2P Табліцы дадзеных(PDF)
Напружанне - наперад (Vf) (макс.) @ If :
-
Напружанне - пік зваротнага (макс.) :
-
Пакет / Чахол :
-
Пакет прылады пастаўшчыка :
-
Працоўная тэмпература :
-
серыял :
Ток - зваротная ўцечка @ Vr :
-
Ток - Сярэдні выпрамлены (Io) :
-
Тып мацавання :
-
Тэхналогія :
-
Ўпакоўка :
-
Частка Статус :
Active
Тып дыёда :
-
в наличии
21,412
Unit Price:
Звяжыцеся з намі Прапанова
689-2D, 2N, 2P Канкурэнтныя кошты
ChipIc мае унікальную крыніцу паставак. Мы можам прапанаваць 689-2D, 2N, 2P больш
канкурэнтаздольную цану для нашых кліентаў. Вы можаце атрымаць асалоду ад нашым лепшым
сэрвісам, купіўшы ChipIc 689-2D, 2N, 2P. Калі ласка, не саромейцеся звяртацца наконт
лепшай цаны на 689-2D, 2N, 2P. Націсніце, каб атрымаць прапанову
689-2D, 2N, 2P Асаблівасці
689-2D, 2N, 2P is produced by Microsemi Corporation, belongs to Дыёды - Маставыя выпрамнікі.
689-2D, 2N, 2P Падрабязная інфармацыя аб прадукцыі
:
689-2D, 2N, 2P - гэта Дыёды - Маставыя выпрамнікі, буферныя ўзмацняльнікі, распрацаваныя і
вырабленыя
Microsemi Corporation.
689-2D, 2N, 2P вытворчасці Microsemi Corporation можна набыць на сайце Chipic.
Тут вы можаце знайсці розныя віды электронных дэталяў ад вядучых вытворцаў свету.
689-2D, 2N, 2P кампаніі Chipic прайшоў строгі кантроль якасці і адпавядае усім патрабаванням.
Статус запасаў, пазначаны на Chipic, прызначаны толькі для даведкі.
Калі вы не знайшлі запчастку, якую шукаеце, вы можаце звязацца з намі для атрымання дадатковай інфармацыі, такі як колькасць запасаў у табліцы дадзеных 689-2D, 2N, 2P (PDF), кошт 689-2D, 2N, 2P, Распіноўка 689-2D, 2N, 2P, кіраўніцтва 689-2D, 2N, 2P і рашэнне на замену 689-2D, 2N, 2P.
689-2D, 2N, 2P вытворчасці Microsemi Corporation можна набыць на сайце Chipic.
Тут вы можаце знайсці розныя віды электронных дэталяў ад вядучых вытворцаў свету.
689-2D, 2N, 2P кампаніі Chipic прайшоў строгі кантроль якасці і адпавядае усім патрабаванням.
Статус запасаў, пазначаны на Chipic, прызначаны толькі для даведкі.
Калі вы не знайшлі запчастку, якую шукаеце, вы можаце звязацца з намі для атрымання дадатковай інфармацыі, такі як колькасць запасаў у табліцы дадзеных 689-2D, 2N, 2P (PDF), кошт 689-2D, 2N, 2P, Распіноўка 689-2D, 2N, 2P, кіраўніцтва 689-2D, 2N, 2P і рашэнне на замену 689-2D, 2N, 2P.
689-2D, 2N, 2P FAQ
:
1. What is the difference between 2D, 2N, and 2P semiconductors?
2D semiconductors are two-dimensional materials with unique electronic properties, while 2N and 2P refer to n-type and p-type doping of traditional semiconductors.
2. How does the bandgap of a 2D semiconductor differ from that of a traditional semiconductor?
The bandgap of a 2D semiconductor can be tuned by altering its thickness, unlike traditional semiconductors where the bandgap is fixed by the material's composition.
3. What are the key challenges in fabricating 2D semiconductors?
One major challenge is achieving large-scale production with high quality and uniformity, as well as integrating 2D semiconductors into existing device architectures.
4. How do the electrical properties of 2D semiconductors compare to those of traditional semiconductors?
2D semiconductors exhibit exceptional carrier mobility and on/off ratios, making them promising candidates for next-generation electronics.
5. What are the potential applications of 2D semiconductors in optoelectronics?
2D semiconductors have shown promise in applications such as photodetectors, light-emitting diodes (LEDs), and solar cells due to their unique optical properties.
6. How do defects impact the performance of 2D semiconductors?
Defects can significantly affect the electronic and optical properties of 2D semiconductors, making defect engineering a critical aspect of their development.
7. What methods are used to characterize the quality of 2D semiconductors?
Techniques such as Raman spectroscopy, photoluminescence, and scanning probe microscopy are commonly employed to assess the structural and optoelectronic properties of 2D semiconductors.
8. What strategies are being explored to improve the stability of 2D semiconductors under ambient conditions?
Encapsulation techniques, surface passivation, and protective coatings are being investigated to mitigate the degradation of 2D semiconductors when exposed to air and moisture.
9. How do 2D semiconductors contribute to the advancement of flexible and transparent electronics?
Their atomically thin nature and mechanical flexibility make 2D semiconductors ideal for flexible and transparent electronic devices, including displays and sensors.
10. What are the current limitations hindering the widespread adoption of 2D semiconductors in commercial applications?
Challenges include scalability, reproducibility, and the development of reliable manufacturing processes that can meet the demands of mass production.
2D semiconductors are two-dimensional materials with unique electronic properties, while 2N and 2P refer to n-type and p-type doping of traditional semiconductors.
2. How does the bandgap of a 2D semiconductor differ from that of a traditional semiconductor?
The bandgap of a 2D semiconductor can be tuned by altering its thickness, unlike traditional semiconductors where the bandgap is fixed by the material's composition.
3. What are the key challenges in fabricating 2D semiconductors?
One major challenge is achieving large-scale production with high quality and uniformity, as well as integrating 2D semiconductors into existing device architectures.
4. How do the electrical properties of 2D semiconductors compare to those of traditional semiconductors?
2D semiconductors exhibit exceptional carrier mobility and on/off ratios, making them promising candidates for next-generation electronics.
5. What are the potential applications of 2D semiconductors in optoelectronics?
2D semiconductors have shown promise in applications such as photodetectors, light-emitting diodes (LEDs), and solar cells due to their unique optical properties.
6. How do defects impact the performance of 2D semiconductors?
Defects can significantly affect the electronic and optical properties of 2D semiconductors, making defect engineering a critical aspect of their development.
7. What methods are used to characterize the quality of 2D semiconductors?
Techniques such as Raman spectroscopy, photoluminescence, and scanning probe microscopy are commonly employed to assess the structural and optoelectronic properties of 2D semiconductors.
8. What strategies are being explored to improve the stability of 2D semiconductors under ambient conditions?
Encapsulation techniques, surface passivation, and protective coatings are being investigated to mitigate the degradation of 2D semiconductors when exposed to air and moisture.
9. How do 2D semiconductors contribute to the advancement of flexible and transparent electronics?
Their atomically thin nature and mechanical flexibility make 2D semiconductors ideal for flexible and transparent electronic devices, including displays and sensors.
10. What are the current limitations hindering the widespread adoption of 2D semiconductors in commercial applications?
Challenges include scalability, reproducibility, and the development of reliable manufacturing processes that can meet the demands of mass production.
689-2D, 2N, 2P Змяненні, ключавыя словы
:
689-2D, 2N, 2P Кошт
689-2D, 2N, 2P Малюнак
689-2D, 2N, 2P Напружанне на выснове
Акцыі: Хуткая праверка каціровак
Мінімальная замова: 1
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