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MOS current mode logic (MCML) is one of the most promising logic functions to counteract power analysis attacks. The static power MCML standard cells are significantly higher than the static CMOS logic to achieve an equivalent function. As a result, using such logical patterns is very limited in portable devices. The strange thing is that these devices are the most sensitive to physical attacks, which will benefit more people from passing MCML. The propose to overcome this limitation by significantly reducing the static power consumption of MCML-based full adder circuits. For this reason, current control by adaptive (ACCT) -MCML standard cell library is provided in each transistor cell suspension. The effect of sleep transistors on performance and area is negligible. In addition, the proposed difference library is compatible with Micro wind tools. The integrated real-time digital signal processing application, where the drive current must be high. The conventional design will have a low-efficiency supply voltage with low capacitance; even when operating, the circuit speed will be faster, and the delay will be high. So the proposed 14 T full adder based integrated circuit and adder are based on ACCT, which High power consumption, which has become an essential standard operation for the design of energy-efficient dedicated circuits, has become the primary function and compact device design, possible output. The coefficient plays a significant role in planning energy-saving processors and determining processor performance. Especially, the switching behavior is to diminish the power consumption of the design MCML full ladder logic. However, the performance of the circuit is less than the full adder binary logic. The proposed circuit's correctness and effectiveness are verified by Micro wind with a proposed MCML process of 0.13 μm and a power supply voltage of 4.2 V.

Zinc oxide NPs and various concentrations of Nd-ZnO NPs were prepared using a chemical precipitation process. Synthesized nanoparticles have been characterised by X-Ray Diffraction, Fourier Transform Infra-Red Spectroscopy, Scanning Electron Microscope, Transmission Electron Microscopy, Energy Dispersive X-ray Analysis, X-ray Photoelectron Spectroscopy, Micro-Raman and Photo Luminescence (PL) Spectra in order to study structural functional, morphological, elementary and compositional groups. XRD data verified the hexagonal wurtzite structure of the ZnO and Nd-ZnO NPs. Zn-O stretching frequencies ZnO and Nd-ZnO were observed at 423, 466, 423 and 452 cm-1, respectively, from the FTIR spectra. The morphological changes of ZnO and Nd-ZnO NPs have been confirmed by SEM and TEM. The EDAX spectra confirms the chemical composition of the elements involved. XPS confirms the oxidation status of the elements concerned. The peak at 432 cm-1 of the Raman spectra is the E2 phonon mode of the metal oxide NPs involved. The improved photoluminescent properties of Nd-ZnO compared to ZnO NPs are shown by the Photoluminescent (PL) spectra. The antibacterial activity of the synthesised nanoparticles against gram-positive and gram-negative bacteria indicates that the highest concentration of Nd-ZnO (Zn1-xNdxO when x=0.15) shows higher antibacterial activity. The anticancer activity of the synthesised nanoparticles has shown that the low concentration of Nd-ZnO (at Nd concentration is 0.05) is adequate for the 50 percent of cell mortality.