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Magnetic tunnel junctions (MTJs) play a crucial role in spintronic applications, particularly data storage and sensors. Especially as a non-volatile memory, MTJs has received substantial attention due to its CMOS compatibility, low power consumption, fast switching speed, and high endurance. In parallel, bio-resorbable electronics have emerged as a promising solution for systems requiring temporary operation and secure data disposal, especially in military, intelligence, and biomedical systems where devices must safely disintegrate under physiological conditions. In this study, the bio-resorbability of MTJ is investigated by analyzing the dissolution behavior of its nanometer-thick constituent layers in phosphate-buffered saline solution at pH 7.4, simulating physiological environments. The MTJ structures, composed of bio-resorbable materials, exhibit well-controlled degradation behaviors. Critically, as one of the ferromagnetic layers dissolves, binary information is irreversibly lost, within 10 h of immersion. These findings highlight the potential of MTJs not only as high-performance memory elements but also as secure, transient data storage platforms. The ability to modify the dissolution lifetime by materials and thickness selection offers unique advantages for short-lived implantable devices, paving the way for integrating spintronic functionality into next-generation bioresorbable electronics.
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http://dx.doi.org/10.1002/adma.202507912 | DOI Listing |
Ann Plast Surg
September 2025
From the Department of Plastic Surgery, Vanderbilt University Medical Center, Nashville, TN.
Background: Compressive neuropathy in the upper extremity is a common and often debilitating condition that significantly impacts function and quality of life. Despite its prevalence, the diagnosis, and management of compressive neuropathies remain complex with promising innovations. Plastic surgeons play a critical role in both surgical and nonsurgical interventions for these conditions.
View Article and Find Full Text PDFJ Phys Chem Lett
September 2025
Faculty of Materials Science and Chemistry, China University of Geosciences, Wuhan 430074, China.
Two-dimensional ferroelectric tunnel junctions (2D FTJs) have attracted extensive attention in recent years, which mainly change the height of the tunnel barrier via manipulation of the ferroelectric polarization. However, it is very challenging to realize the high tunneling electroresistance (TER) of FTJs based on the barrier height. Here, we report the 2D FTJs using a unique structure with semiconducting MoS/α-InSe/monolayer graphene, where ferroelectric polarization of α-InSe shifts the barrier height by 1.
View Article and Find Full Text PDFSmall
September 2025
Department of Materials Science, Chiba University, 1-33 Yayoi-cho, Inage-ku, Chiba, 263-8522, Japan.
1D electronic structures on 2D crystalline surfaces are crucial for investigating low-dimensional quantum phenomena and enabling the development of dimensionally engineered nanodevices. However, the inherent periodic symmetry of 2D atomic lattices generally leads to delocalized electronic band extending across the surface, making the creation of periodic 1D electronic states a significant challenge. Here, robust 1D electronic ordering is demonstrated in ultrathin Mn films grown on an atomically flat, non-reconstructed body-centered cubic Fe substrate.
View Article and Find Full Text PDFAm J Sports Med
September 2025
Twin Cities Orthopedics, Edina, Minnesota, USA.
Background: Meniscal extrusion has been reported to be present in >50% of knees after medial meniscus root repair. Meniscal extrusion has also been reported to be a risk factor for the progression of osteoarthritis and poorer patient-reported outcomes by impairing the ability of the meniscus to absorb hoop stress.
Purpose: To determine whether the addition of a centralization suture to 2-tunnel transtibial root repair reduces postoperative medial meniscal extrusion in patients with type 2 posterior medial meniscus root (PMMR) tears.
Dalton Trans
September 2025
Department of Chemistry, Jadavpur University, Kolkata-700032, India.
A series of homometallic tetranuclear Ln complexes, [Ln(μ-OH){pyC(OH)O}(OCCMe)] [{pyC(OH)O} = monoanionic -diol form of di-2-pyridyl ketone; Ln = Nd (1), Eu (2), Tb (3), Dy (4), Er (5) and Yb (6)], have been synthesized and characterized. The asymmetric unit of each of the tetranuclear derivatives comprises the dinuclear motif, [Ln(μ-OH){pyC(OH)O}(OCCMe)]. The core structure of this Ln family possesses two homometallic structural subunits, LnIII3O, which are further connected through the bridging μ-OH ligands.
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