Mind-Body Medicine: Quantic Approach to Mind-Body Interaction in Relation to Healing and Self-Healing | Book Publisher International

 

In recent decades, medicine has undergone a profound transformation. The traditional view that separates the body and the mind is being replaced by a more integrative understanding, where emotional, psychological, and spiritual well-being are recognised as essential components of health. This perspective, often referred to as mind-body medicine, emphasises that healing involves more than the treatment of symptoms; it requires addressing the whole person.

 

The intention of this book is to explore the interconnected pathways between the mind and the body, supported by both scientific research and clinical experience. By presenting evidence-based approaches alongside practical insights, it seeks to bridge modern biomedical knowledge with ancient healing traditions. Readers will discover how lifestyle, emotions, stress, and consciousness influence health, and how interventions such as meditation, relaxation techniques, nutrition, movement, and compassionate care can contribute to profound healing outcomes.

 

This book is not only for healthcare professionals but also for individuals who wish to take an active role in their own healing journey. It invites readers to consider health as a dynamic balance, where prevention and self-awareness play as vital a role as medical treatment.

 

I hope that the pages ahead will inspire you to view medicine not solely as a science, but also as an art—one that honours the complexity of human existence and the potential for transformation when mind and body are approached as one.

Author(s) Details

Prof. Dr. Cengiz Mordeniz
Department of Anesthesiology, Tekirdag Namık Kemal University, 59030 Süleymanpaşa, Turkey.

 

Please see the book here :- https://doi.org/10.9734/bpi/mono/978-93-88417-16-7

Exploring Rabi Oscillations, Maximally Entangled States and Perfect Teleportation in the Anti-Jaynes-Cummings Interaction: Insights into Quantum Dynamics and Entanglement Applications | Chapter 5 | Current Research Progress in Physical Science Vol. 4

This study presents a method for producing maximally entangled qubit states, also known as entangled anti-polariton qubit states, in the anti-Jaynes-Cummings interaction mechanism. We show that, in an initial vacuum-field, the time evolution of entanglement in the anti-Jaynes-Cummings interaction process takes the same form as in the Jaynes-Cummings interaction process, and that Rabi oscillations in a cavity mode in the anti-Jaynes-Cummings interaction process occur in the reverse sense relative to the Jaynes-Cummings interaction process. We demonstrate quantum teleportation of an atomic quantum state using the created anti-polariton qubit state as one of the initial qubits. We accomplish a perfect maximal teleportation fidelity of unity by employing an entanglement swapping procedure.

 

Author (s) Details

 

Christopher Mayero
Department of Physics, Tom Mboya University, C19, Homabay, P.O. Box, 199- 40300, Homabay Kenya and Department of Physics and Material Science, Maseno University, Busia Road, Maseno, Private Bag-40105, Maseno, Kenya.

 

Joseph Akeyo Omolo
Department of Physics and Material Science, Maseno University, Busia Road, Maseno, Private Bag-40105, Maseno, Kenya.

 

Please see the book here:- https://doi.org/10.9734/bpi/crpps/v4/2566

The Utilization of Quantum Computing Methods for the Implementation of Supervised Machine Learning Frameworks | Chapter 2 | Theory and Applications of Engineering Research Vol. 2

 In this place chapter, the integration of quantity computing and machine intelligence is given a lot of consideration, which will make perfect sense when used to the context of modelling quantity machine learning. The system of quantum computing lends trust to the concept of numerous machine intelligence-related endeavors as possible applications in quantity technology. The goal of quantity computing search out develop a new standard of processing that is to say fundamentally different from that of established computers. This is accomplished by combining ideas from atomic science, such as superposition and entanglement, into the calculating process. In the first part of this chapter, we accepted a high-level examine some of the principles of theory that matter is made up of atoms. In addition to that, an investigation into quantity machine learning has too been looked at in this place article. The qubit is the most fundamental component of quantity technology and plays an important function in the implementation of quantity processes in a wide range of different fields of endeavour. The use of standard calculating devices is rendered outmoded by the coming of quantum computing, that permits the resolution of issues that were previously difficult. Complicated computations refer to issues that are considerably difficult to resolve using typical calculating methods. These problems are particularly difficult to answer. Learning software that is to say based on traditional models acts incredibly well, but it creates increasing requirements for calculating power since it must handle a complex and thorough quantity of data. When posing supervised machine intelligence with quantum calculating, some of the work that must be finished includes the option of features, the encoding of limits, and the building of parameterized circuits. Topics of discourse also contain the modelling of quantum parameterized circuits, in addition to the design and implementation of quantum feature sets for sample dossier. The application of quantum processes like as superposition and complication is used to illustrate the plan of guided machine learning.

Author(s) Details:

Mukta Nivelkar,
Department of Computer Engineering and Information Technology, Veermata Jijabai Technological Institute, Mumbai, India.

S. G. Bhirud,
Department of Computer Engineering and Information Technology, Veermata Jijabai Technological Institute, Mumbai, India.

Please see the link here: https://stm.bookpi.org/TAER-V2/article/view/12945

An Investigation on Development and Evaluation of Kanamycin Hydrogels for Wound Healing | Chapter 4 | Advanced Concepts in Pharmaceutical Research Vol. 1

 The aim of this study search out create and test kanamycin for wound restorative. Kanamycin is an antibiotic secondhand as a first-line treatment. Kanamycin's assimilation from the parentral pathway is revised by hydrogel. For the goal of wound curative, hydrogel outperforms traditional dose forms in conditions of patient compliance. Carbomer (Carbopol) is exploited in the hydrogel formation. To develop the combining of the drug and the physical characteristics of the hydrogel, five batches of hydrogel were fashioned using variable concentrations of hydroxy propyl methyl cellulose and ethyl organic compound composed of carbon. The kanamycin is insoluble in PEG-400, but as per the process it is must to dissolve kanamycin in PEG-400. Therefore, a co-firm study performed. Evaluation limit such as image, solubility study, swelling calculation, spreadibility, percent drug entanglement efficiency, ph detection, and in-vitro release study were acted for hydrogels of each batch and parcel- 3 was optimized best array from all five batches. Batch-3 shows best solubility, lump and percent drug entanglement properties. Batch-3 is smart to release 91% drug release in 8 hr. The produced hydrogel proved good evaluation possessions as well as depository stability. The hydrogel maybe used as a cure delivery portion of drug or other consumable form for a variety of reasons.

Author(s) Details:

Chanchal Chaurasiya,
NKBR College of Pharmacy and Research Centre, Meerut, India.

Kajol Verma,
NKBR College of Pharmacy and Research Centre, Meerut, India.

Pooja Tomar,
NKBR College of Pharmacy and Research Centre, Meerut, India.

Rahul Kumar Verma,
Lupin Limited, India.

Please see the link here: https://stm.bookpi.org/ACPR-V1/article/view/12075

Homeopathic Remedies as the Pharmacological Means of Informational Medicine | Chapter 4 | Challenges and Advances in Pharmaceutical Research Vol. 4

Homeopathy, a type of complementary medicine, employs potentized compounds known as remedies that transmit information and concentrates on correcting incorrect perceptions and repairing negative energy signals. It also adheres to the principle of similarity. A theoretical model to explain their effects is lacking, despite the fact that there is some empirical data and some academic study.

In homoeopathy, generalised entanglement occurs twice: once between the remedy and the original material (the potentiation principle) and once between the specific symptoms of the patient and the overall symptoms of the remedy image (similarity principle). The homoeopathic approach is also intertwined between the patient's symptoms and the therapeutic ingredient, in addition to the medicine itself. The absence of the homoeopathic cure causes it to act as a type of container that "absorbs" symptoms. The overall pattern of symptoms makes sense.

Homeopathic medicine works on an intellectual level, but there is still no physical justification for the way in which energy shifts take place. A physical explanation for the effectiveness of homoeopathy may be found in quantum physics. In order to explain the therapeutic mode of homoeopathic action, bio-molecular processes, such as the memory of water and "non-local" macro-entanglement, and patient-practitioner-remedy (PPR) interactions in terms of quantum matter-type fields, must be used. Homeopathy and quantum theory may have similarities that make them valuable for describing the homoeopathic process because quantum qualities can be physical even when they are not visible. The pharmacological means of proof for informational medicine might be thought of as homoeopathic medicines.

Author (s) Details:

Mordeniz Cengiz,
Department of Anesthesiology, Intensive Care and Pain Medicine, Medical Faculty, Namik Kemal University, Turkey.

Please see the link here: https://stm.bookpi.org/CAPR-V4/article/view/7506

Study of Bell Correlations From Local Un-entangled States of Light and Quantum Electro-dynamics| Chapter 1 | New Trends in Physical Science Research Vol.3

Based on the Bell theorem, it has long been considered that a theoretical calculation of the Bell correlation requires the explicit use of an entangled state. A physical superposition of light waves occurs in the down-converter sources used in Bell tests. On the other hand, wave propagation to spatially distant detectors eliminates this physical superposition. Bell correlations must be produced by local waves and the source boundary conditions of their previously entangled state. The current model uses disentangled split waves, nonlinear optics boundary conditions, and quantum electrodynamics properties of single-photon and vacuum states to estimate Bell correlations. Transient interference between photon-excited waves and photon-empty waves is postulated based on the fact that the potential of interference was considered to be required by the designers of Bell-experiment sources. This paradigm employs local random variables, but no underlying causation is defined. The current work presents a Bell correlation calculation based on the assumption that physically isolated, non-superimposed electromagnetic waves do not impact one other instantly.

Author(s) Details:

Louis Sica,
Institute for Quantum Studies, Chapman University, Orange, CA & Burtonsville, MD, USA and  Inspire Institute Inc., Alexandria, VA, USA.

Please see the link here: https://stm.bookpi.org/NTPSR-V3/article/view/6820