We demonstrate a thin-film, solid-state refrigerator based on the removal of hot electrons from a metal by quantum-mechanical tunneling. We have halved the electronic temperature in a macroscopic film from 260 mK to near 130 mK. Both the cooling power and
{
"title_en": "Practical electron-tunneling refrigerator",
"designation": "",
"series": "",
"status": "",
"date": "2004-01-21",
"date_original": "January 21, 2004",
"url": "https://www.nist.gov/publications/practical-electron-tunneling-refrigerator",
"source": "NIST Publications",
"display_en": "",
"authors_en": "Anna Clark , Anthony Williams , Steve Ruggiero , Marcel L. van den Berg, Joel N. Ullom",
"abstract_excerpt_en": "We demonstrate a thin-film, solid-state refrigerator based on the removal of hot electrons from a metal by quantum-mechanical tunneling. We have halved the electronic temperature in a macroscopic film from 260 mK to near 130 mK. Both the cooling power and",
"id": "7212946e88692e189b92",
"sources": [
"NIST Publications"
],
"source_records": [
{
"title_en": "Practical electron-tunneling refrigerator",
"designation": "",
"series": "",
"status": "",
"date": "2004-01-21",
"date_original": "January 21, 2004",
"url": "https://www.nist.gov/publications/practical-electron-tunneling-refrigerator",
"source": "NIST Publications",
"display_en": "",
"authors_en": "Anna Clark , Anthony Williams , Steve Ruggiero , Marcel L. van den Berg, Joel N. Ullom",
"abstract_excerpt_en": "We demonstrate a thin-film, solid-state refrigerator based on the removal of hot electrons from a metal by quantum-mechanical tunneling. We have halved the electronic temperature in a macroscopic film from 260 mK to near 130 mK. Both the cooling power and"
}
],
"translation_state": "none"
}