Classics - Science topic

Here is a stationary solution [1]:

Zone I:U(x) = E eV - R E eV

Zone II: U(x) = E Exp (-a x)eV

from x=0 to x=dx

Note that the exponential decay in zone II comes from the fact that this is the case for this initial value problem imposed by the statistics of the matrix B.

Zone III:

U(x) = E Exp (-a dx)eV

from x=dx to x=infinity

If we apply the continuity equation to the limit between zones I,II then we apply the continuity equation to the limit between zones II,III then the Bohr formula E=N h f we arrive at the same formula for the reflection coefficient (R) and transmission coefficient (T) as those obtained from the classical Schrödinger equation. NB: at the two boundaries I-II and II-III correspond respectively y=0 and y=dx.

1-Useless Quantum mechanics-The complex untold story.

Thank you so much Subhajit Karmakar

Interestingly, your first half of the question addresses the con the Google acheived "quantum supremacy" some years back by quantum computing some 10^48 data bits of random zeroes and ones. the claim went on to say that conventional computers would take 10,000 years to generate 10^48 bits of randome zeroes and ones.

Obviously, this means that this stated test result must then require 10,000 years to validate. As such, Googles claim cannot be validated. Point being that if each data set requires conventional computers to validate, then what is the point of non validated "quantum computed" data?

Quantum Computing and certainly Quantum Teleportation of data and Information is all scam. you publosh news headlines and faux scientific papers purely to dance on Wall Street. And in all that Commerce, you find Lamborghinis, Ferraris, Aston Martins, and a lab that looks like an old black and white film filled with antiquated and equipment so obsolete, you cannot even run it with a 21st century computer: used junk for the xameras.

Subject: Invitation to Join Dailyplanet.Club and Response to Your Question on Universe Formation

Dear Abbas Kashani,

I hope you are doing well.

I would like to extend an invitation to you to join us at www.Dailyplanet.Club, a community of innovators, researchers, and forward thinkers exploring the boundaries of science, technology, and sustainability. Your interest in quantum mechanics and the formation of the universe aligns perfectly with our mission, and I believe your contributions would be highly valuable.

Regarding your question about the formation of the universe:

That said, I believe that Darwin’s theory, while influential, is not entirely accurate when it comes to understanding the formation of the planet and the universe. We have found some amazing results at Dailyplanet.Club, which present a different perspective, showing how the universe and planetary formation could be viewed through a new, intuitive lens. These findings are only shared with our members, as we are building something transformative—not just a place for research, but a platform that makes a tangible difference by producing real-world innovations in factories, infrastructure, and beyond.

I hope this provides some insight, and I look forward to having you join Dailyplanet.Club, where together we can create something truly remarkable.

Best regards, MJ CEO, Dailyplanet.Club MJHSA Ltd.

Psychai

also, different names were given to ghosts depending on their circumstance regarding their death. some of these names were: the akeraios, the biothanatoi, the aoroi, the atopos, the chthonic ghosts, and the heroic dead.

Dear colleagues,

QM experiments, and probably even higher-level systems, are definitely proving to be affected by observers; e.g., see the research of Dean Radin on the deviation of the mean value of quantum random number generators and rest of his research. 

On the other hand, large systems are often in a state of decoherence, and hence, quantum effects have no impact on the behavior of such macroscopic objects and processes. The line between those two extreme cases is blurry and constantly shifting. 

What is astounding is that the bulk of research confirming that consciousness is impacting reality is constantly growing. It has far-reaching consequences. One of the most profound impacts is our innate ability to alter our well-being and health and even heal from serious diseases. 

A list of important publications describing quantum biology functioning follows. This research has gained impetus in the last couple of years. According to my understanding, from this research, we can start to understand the principles of coupling between consciousness and quantum systems outcomes. 

What is your take on this exciting area of research?

References:

[1] Madl, P.; Renati, P. Quantum Electrodynamics Coherence and Hormesis: Foundations of Quantum Biology. Int. J. Mol. Sci. 2023, 24, 14003. https:// doi.org/10.3390/ijms241814003

[2] Madl, P.; Renati, P. Quantum Electrodynamics Coherence and Hormesis: Foundations of Quantum Biology. Int. J. Mol. Sci. 2023, 24, 14003. https:// doi.org/10.3390/ijms241814003

[3] Lewis Grozinger, Martyn Amos Pablo Carbonell, Thomas E. Gorochowski, Diego A. Oyarzún Harold Fellermann, Ruud Stoof , Paolo Zuliani, Huseyin Tas & Angel Goñi-Moreno: Pathways to cellular supremacy in biocomputing, Nature Communications 10(1) (2019),

DOI: 10.1038/s41467-019-13232-z

[4] Michael P. Robertson & Gerald F. Joyce: The Origins of the RNA World, Cold Spring Harb Perspect Biol 2012;4:a003608, DOI: 10.1101/cshperspect.a003608

If we turn to the already mentioned simplification of space in the form of a helix of a cylinder, then gravity is the force generated by the limit cycle, which tightens the pitch of the helix to zero at the point where the helix degenerates into a circle. As for quantized fields, these are limit cycles in dual space, so they are not responsible for gravity.

Dear Mustapha Anis Younes These articles can answer your question.

To introduce more clarity on the subject, we compare the structure and properties of the proposed 4D unit space with those of current existing 4D spaces, namely the,

A-stochastic Markov space.

And

B-Einstein relativity space.

A -Markov chains [6],

In both chains, the Markov and matrix B chains,the dimensionless time t is expressed by t = Ndt,

i-The solution of the Markov chains can converge to the required solution or not, an additional condition is required while the convergence of all B chains towards the solution of the IC-BC problem is ensured for all values ​​of the RO element of [0.1] .

ii- It is not easy to find eigenvalues and eigenvectors for M-Matrix while it is simple for B-Matrix and for its summation of the power series.

iii-Markov chains are not able to deal with the source/sink term S or boundary conditions BC, but B chains can.

Contrary to the Markov statistical chains, The B-transition matrix has a place for boundary conditions vector b and source term vector S in addition to initial conditions IC.

B-Einstein's theories of special and general relativity,

i-Einstein space and matrix string space B are included in a 4-dimensional unitary space where space and time are not separate entities but rather intertwined in a four-D

ii-The framework of Einstein's physics is the continuum [7,8] but

since the universe is discrete, we assume that it is more likely that the 4D Einstein unit space (for special and general relativity) is classified as a subset of the B-matrix unit string space 4D than the reverse.

I dont expect that much from that combination , perhaps missing something.

Finally, here is a simple understanding of spaces:

The Laplacian theorem lives and functions in the 4D-unit space but not in the classical 3D+t space.

The theory of relativity and the speed of light c lives and functions in 4D unit space but not in classical 3D+t space.

. . etc.

Science leaves the era of mathematics and enters the era of matrix mechanics and the turning point is the discovery of numerical statistical theory called Cairo techniques and its transition matrices eligible to solve almost all problems of classical physics and of quantum mechanics.

No more partial differential equations, no more numerical integration, no more FDM techniques. . etc.

Statistical matrix mechanics is capable of solving all of the above problems and additionally predicting unknown universal physical rules.

Note that the Heisenberg matrix and the Dirac matrix are neither physical nor statistical and incomplete.

Science leaves the era of mathematics and enters the era of matrix mechanics and the turning point is the discovery of numerical statistical theory called Cairo techniques and its transition matrices eligible to solve almost all problems of classical physics and of quantum mechanics.

No more partial differential equations, no more numerical integration, no more FDM techniques. . etc.

Statistical matrix mechanics is capable of solving all of the above problems and additionally predicting unknown universal physical rules.

Note that the Heisenberg matrix and the Dirac matrix are neither physical nor statistical and incomplete.

Yes, people may not always be fully rational, but they tend to act within limits of rationality when they are aware of their disincentives and constraints, adjusting their behavior to balance between rationality and irrationality.

The starting point for obtaining the modified Schrödinger PDE describing ψ^2(x,y,z,t) cannot be the Schrödinger PDE itself because it is not complete.

The starting point is the following PDE,

dU/dt)partial=D.Nabla^2 U +S(x,y,z,t) . . . (1)

Where U=ψ^2=ψψ*.

Equation 1, just like Schrödinger's classic PDE, applies to infinite free space and must be supplemented by rules of vacuum dynamics, the most important of which is:

S(x,y,z,t) =Constant * V(x,y,z,t) . . . . (2)

In addition to other commonly accepted rules of vacuum dynamics.

In this case, in simple terms, ∫E∙dt can also be dimensionless.

In such a context, if we consider that time is discretized and woven into the 4D unit space, this would quite indicate a quantized, complete and simultaneous quantum state of the system.

Additionally, the principle of least action is inherent to the solution, which is not always the case for the classic Schrödinger equation.

To be continued.

Hello Prof Valerie Renaudin, Prof Joaqin Torress, Dr Pampa Sadhukhan

This topic sounds interesting. It has a relationship to a current/ongoing research project, building a submersible robot to explore deep lakes and open ocean marine environments. The goal is to build a device that will be self navagating containing obstacle detection and inherent collision avoidance as well as the obvious wide ranging data collection capabilities. I aim to make the robot fully autonomous with no tethering to a surface vehicle required. The functional model would be a kind of "Throw it over the side and let it explore", mode of operation.

Would it be possible to keep in touch with you folk to see the end results of these investigations as there may be emerging interesting adaptations that are applicable to my project.

Regards

Murray Foote

Bakhodir Khonnazarovich Tursunbaev That is a great question... If you consider both an ontological and epistemological ball, the only difference is that one has a property distinguishing it from nothingness... Essentially this means that existence can be defined more or less as a continuum with at least one property (from a specific set). Additionally, since enclosing an existing object in a larger geometry would not entail such larger object exists, every point in the continuum must have a property. Since the atom does not form a continuum, the atom does not exist: it is composed of things that exists, and those interactions produce the properties of the atom. Per the infinite divisibility property, existence is infinitely divisible. What we perceive as being fundamental, is again infinitely divisible. Quantum mechanics models the exchange between the visible and the invisible so to speak.... With that said, the processes that occur in nature can be deduced logically, but the extent to which such processes occur is found through experimentation. Therefore your question does not make sense in relation to the claims but that is probably my fault for not being more clear.

Sorry,not my cup of tea

I discovered a new and completely different nuclear model. The explanation is based on the conclusion of my model:

It is very difficult to say that the universe started with matter or waves.

If we are in the middle of another world, it starts with waves.

The beginning of the universe: we only need two zero particles

Characteristics of the zero particle: 1- an infinite particle smaller than an atom 2- unipolar without mass and without waves.

3- A particle that consists only of the inner core and does not have a shell. 4- Fiery particle (explosive flame that spreads in space).

For the universe to begin, all that is needed is the connection between two zero particles and the result

A spark creates a world.

Two zero particles of different nature interact with each other. The beginning of the world is with a love relationship (touch) between them. The first waves circulate between them and the first sparks occur. A new dipole particle is created. From the ashes of sparks, shells, etc.

The new dipole emits particles and waves.

The world we touch = dipole particles + waves

A dipole particle creates a wave, and waves create particles.

. 6 forces (waves) are formed inside the nucleus of each dipole particle, three of which are internal forces and three are outgoing forces.

There is a common wave between all particles: the neutrino wave.

The answer to your questions lies in how the nucleus is formed.

The whole world is made with one formula. Atoms, stars, planets, elements, our body, etc. all have a single formula. The formation of the nucleus is the same in all of them. I discovered the formation of the nucleus in all its details. The volume of my discoveries in space is large in physics and chemistry. There are about 150 to 200 different articles.

I still haven't found a suitable place to present it. I am ready to explain all my calculations and formulas to anyone who is interested.

Wave-particle duality: I have explained it in different places.

I changed the basis of physics. Proton, neutron, electron, photon, etc. are defined differently in my method. And the way the light is produced is different.

The internal structure of light is like the solar system. All its planets and moons move in highly elongated elliptical orbits. The light particle is emitted only from the surface of the source and at a certain distance.

As a result of collision of light particles: each main wave of light turns into two inverse waves.

After presenting my findings, more and more complete explanation of calculations.

Thank you

Less the cost of divorce ...

It looks like cell debris in Brownian motion.

Nature cannot be understood under

logic alone. Need empiricism.

Your project presents a comprehensive exploration of the concept of reincarnation, blending insights from various disciplines including philosophy, hard sciences, engineering, and softer sciences. The structured approach, delineated in the table of contents, facilitates a thorough examination of the topic, guiding readers through different layers of analysis.

However, it's crucial to ensure that each section contributes cohesively to the overarching argument. While the incorporation of differential equations adds an intriguing dimension to the discourse, it's essential to elucidate its relevance and application within the context of reincarnation.

Moreover, attributing the belief in reincarnation solely to white supremacy is a bold assertion that warrants meticulous substantiation. Providing concrete evidence and nuanced reasoning to support this claim will enhance the credibility of your argument and foster deeper engagement with your thesis.

Furthermore, the inclusion of suggestions for fostering social justice through specific metaphysical frameworks, such as a Universalist Christian Heaven, adds depth to the discussion. Nonetheless, ensuring clarity and feasibility in implementing these suggestions will be paramount for their effectiveness.

Overall, your project exhibits a commendable interdisciplinary approach and ambitious scope. By refining your argumentation, providing robust evidence, and ensuring clarity in your proposals, you can elevate the discourse and foster meaningful dialogue on the improbable belief in reincarnation and its societal implications.

Arturo Geigel, Thank you for your answer!

Unfortunately, the scope of my work is quite limited. I will try to take into account your recommendations and hope that I will get a high-quality study.

Heaven is not a dream but a reality according to the Scripture.

Solution to this one:

So once more you have shown that if you violate the first law, you also violate the second law.

BEING PUBLISHED IS GREAT.

Normally we do not comment on the answers of our fellow contributors but when the answer ("nature can only be described in a unitary four-dimensional x-t space"

There is no basis for this claim.)

comes from our friend Professor John Francis Miller, this should be different.

You can't ask Mother Nature if she lives and performs her functions in 3D+t space or in 4D unitary space?

But when you model nature in a 4D unit space and the numerical results in solving problems in all areas of mathematics and physics are precise and breathtaking, we consider that a respectable baseline.

We remind you that the real proof of the Schrödinger equation only comes from its exact and diverse applications.

Micro aggression tends to be usually felt in our every day life.In literature, we can find many examples for it.I think that it is tackled mostly in modern novels and drama genres .

One classic book on disturbance ecology that would be highly recommended is "The Ecology of Natural Disturbance and Patch Dynamics" by Simon Levin, Thomas Pickett, and Jonathan Shugart. This influential book explores the role of disturbance in shaping ecological patterns and processes, such as succession, community dynamics, and biodiversity.

Another important text in the field of disturbance ecology is "Disturbance Ecology" by David B. Lindenmayer, Philip S. Burton, and Jann Williams. This book provides a comprehensive overview of the ecological impacts of disturbances, including natural events like fire, storms, and flooding, as well as human-induced disturbances such as logging and urbanization.

For a more focused review article on disturbance ecology, you may want to look into scientific journals that publish research in this area, such as "Ecology," "Journal of Ecology," or "Ecosystems." These journals often feature review articles that synthesize current knowledge and advances in disturbance ecology research.

However, "The Ecology of Natural Disturbance and Patch Dynamics" and "Disturbance Ecology" are both excellent classical books that provide a strong foundation in the principles and concepts of disturbance ecology. They would be valuable resources for anyone interested in exploring this field further.

Original text (in French) see here:

Quantum Computing by Mathematics: achieving tomorrow's technology with today's tools. In continuation of the previous posts, despite the advances to achieve the power of quantum computing at temperatures such as 1 Kelvin and efforts to use photonic and laser styles to achieve this power at room temperature, it is still far from reaching the level of using quantum computers in consumers' homes with reasonable costs. As mentioned, computing styles based on artificial intelligence and neural, cognitive, and neuromorphic computing are also being developed. Of course, these methods seek to imitate one hundred percent the behavior of human brain calculations in machines, so that they can convey most of the possible abilities and states. Meanwhile, using computational tools from various branches of mathematics such as algebra, analysis, and geometry is a completely different approach. Changing the basis of calculations from binary scalar states to vectors, matrices and other high-dimensional tools such as tensors and manifolds is a style that is very close to quantum states and gates. Of course, the origin of this style was trying to simulate states and quantum computing with mathematical algorithms on classical computers, as well as managing big data and multidimensional data with high dimensions.

For more information, please see:

Arabic lexicography refers to the study and compilation of dictionaries for the Arabic language. It has developed over centuries and can be categorized into two main periods: classical and modern Arabic lexicography.

Classical Arabic Lexicography:

1. Early Efforts: The roots of Arabic lexicography can be traced back to the early Islamic period. Scholars like Al-Khalil ibn Ahmad Al-Farahidi and Al-Jawhari compiled dictionaries to document the vocabulary of the Quran, poetry, and Arabic literature.

2. Al-Qamus: The most significant work of classical Arabic lexicography is "Al-Qamus" by Al-Firuzabadi. It is a comprehensive Arabic dictionary that includes etymology, definitions, and usage examples. Al-Qamus served as a foundation for subsequent Arabic dictionaries.

3. Focus on Classical Arabic: Classical lexicography primarily focused on the vocabulary and usage of Classical Arabic, which was the language of the Quran, Islamic texts, and literature from the pre-Islamic era to the medieval period.

Modern Arabic Lexicography:

1. Expansion of Vocabulary: Modern Arabic lexicography reflects the expansion of the Arabic language and its usage in contemporary contexts. It encompasses the vocabulary used in various fields such as science, technology, politics, and economics.

2. Multivolume Dictionaries: Modern Arabic dictionaries, like "Al-Mawrid" by Rohi Baalbaki and "Lisan Al-Arab" by Ibn Manzur, are extensive and multivolume works that cover a wide range of vocabulary from classical to modern Arabic.

3. Linguistic Analysis: Modern lexicography incorporates linguistic analysis, providing information on word origins, derivations, meanings, pronunciation, and usage in different dialects and regions.

4. Digital Lexicography: With the advancement of technology, digital dictionaries and online resources have become popular. Online platforms and mobile applications offer quick access to Arabic dictionaries, including interactive features like audio pronunciation and search functions.

Modern Arabic lexicography has expanded in terms of vocabulary usage in several ways:

1. Scientific and Technological Terminology: With advancements in science and technology, modern Arabic lexicography has incorporated a vast range of technical terms and terminology related to fields such as medicine, engineering, computer science, and telecommunications. This expansion allows for the accurate interpretation and understanding of these specialized areas.

2. Political and Societal Terminology: Modern Arabic lexicography has also adapted to reflect the changing political and societal landscape. It includes vocabulary related to politics, governance, international relations, social issues, and cultural phenomena. This expansion ensures that dictionaries are up-to-date and relevant to contemporary discourse.

3. Globalization and Borrowed Words: The influence of globalization has led to the incorporation of borrowed words from different languages into modern Arabic lexicography. As Arabic speakers interact with other cultures and languages, new terms are assimilated, reflecting the multicultural nature of modern society. These borrowed words are often included with Arabic transliterations and explanations.

4. Colloquial and Dialectal Vocabulary: Modern Arabic lexicography recognizes the importance of colloquial and dialectal variations of Arabic. Dictionaries now include vocabulary specific to different dialects, allowing for a comprehensive understanding of the language across various regions. This expansion reflects the diversity and richness of Arabic as a spoken language.

5. Neologisms and Slang: Modern Arabic lexicography has also embraced the inclusion of neologisms and slang terms that emerge within contemporary Arabic-speaking communities. This expansion captures the ever-evolving nature of language and keeps dictionaries relevant to current usage.

Therefore, modern Arabic lexicography has expanded its vocabulary usage by incorporating scientific and technological terminology, political and societal terms, borrowed words, colloquial and dialectal vocabulary, as well as neologisms and slang. This expansion ensures that dictionaries remain comprehensive and reflective of the dynamic nature of the Arabic language in the modern world.

Both classical and modern Arabic lexicography play a crucial role in preserving the Arabic language, documenting its vocabulary, and supporting language learners, researchers, translators, and those interested in Arabic linguistics.

From the beginning (in the 60 of last century) the focus of IPM was the pest, disease and weed management in the agroecosystems. The concept evolution leads to include all other aspects of crop management essencial to do an agriculture crop, like irrigation, nutrition, soil conservation and so on. In the last case we call it ICM (integrated crop management). The focus moved on from pest control to farm optimization.

The use of high level of management in agroecosystems could be done excluding all the human made pesticide and fertilizers sprayed over crops or soil incorporated. This is the case of Organic Farming systems. In our case in Europe we exclude the contact of all synthetic human made chemicals with the crops when farmers produce under this label. In the situation subventions are necessary to compensate the farmers from the loss of income.

A simple solution to the black hole puzzle: What does the sun look like in the distance if we look at it from above the sun's north pole? Answer: in the form of a black hole.

If we look at the sun from a distance below the south pole of the sun, what will it look like? The answer is only darkness.

I mean quite clearly.

Classic proof, black hole, I explained all the details in my discoveries.

All my findings are classics. And without theoretical and quantum physics.

All answers are from my new kernel model results

Quantum algorithms diverge significantly from their classical counterparts due to the unique properties of quantum mechanics. Let’s explore these differences:

Good day! Quantum algorithms like quantum support vector machines (QSVMs) and quantum neural networks (QNNs) differ from their classical counterparts in several key ways. One major difference is in their computational power - quantum computers can perform certain computations much faster than classical computers, so QSVMs and QNNs have the potential to provide significant speedups. However, demonstrating practical quantum advantage is still an open challenge.

Another key difference is in how data is represented. Classical algorithms work with bits that are either 0 or 1, while quantum algorithms use qubits which can be in superposition states. This means QNNs can take quantum data as input, allowing them to potentially model quantum systems more naturally than classical neural networks.

The structure of QNNs is often similar to feedforward classical neural nets, with input passing through layers of qubits before reaching the output. But the operations at each layer leverage quantum effects. Some QNN designs even mimic aspects of classical neural nets, like convolutional networks, in a quantum circuit.

Training QNNs involves optimizing network parameters, just like classical neural net training. However, the noisy, error-prone nature of current quantum devices makes QNN training more challenging. Techniques like variational quantum circuits help make training more robust, and some approaches involve pre-training QNNs on classical simulators before deploying them on quantum hardware.

While classical SVMs and neural networks are quite general-purpose, QSVMs and QNNs may be particularly well-suited for certain applications like modeling quantum systems, working with quantum-enhanced feature spaces, and providing learning speedups for specific problems. But it's important to note that QNNs are not simply "quantum versions" of classical neural nets - they are fundamentally different and suited for different types of problems.

Overall, while QSVMs and QNNs have some conceptual similarities to their classical counterparts, they differ significantly in computational power, data representation, network structure, training process, and target applications due to being based on the principles of quantum mechanics. Further developments in quantum hardware, algorithms, and training techniques will be needed to fully realize their potential I think.

Interesting enough, Albert Michelson detected in 1887 the Sagnac-effect, without investigating it.

In summary, to determine an appropriate coefficient constant for DFIG active and reactive power control in sliding mode, start with a reasonable initial value, use simulation to evaluate performance, and adjust the coefficient constant until satisfaction in terms of system stability and transient response.

Many thanks for the documents. Thanks to the results of measurements on hydrogen and deuterium, both muonic, there is a new physics that uses a lot of mathematics but people do not understand these results. For example the radius of the hydrogen atom is a function of a muonic ratio. I will post prepints on my RG pages soon therefore people can find similarity because I continu to work with the known constants of physics but I rejected the Rydberg and the Bohr radius classical equations. for me theses two constants it is time that they take retired!!! they blocked physics toward to uses more mathematics!!!! that is my opinion.

Metaphysics is the branch of philosophy that deals with the fundamental nature of reality.There are a few metaphysical ideas that could potentially end stratification or the division of people into different social classes one idea is the concept of social justice.

This is the idea that all people are equal and deserve to be treated fairly.Another idea is the concept of social mobility, this is the idea that people should have the opportunity to move up or down the social ladder based on their own efforts.

Another challenge is that some people may be unwilling to share power or resources with others.

Both Plato and Aristotle were trying to express an aspect of reality that cannot be expressed in human language. Does placing two different emphases on something that is properly inexpressible make one version true and the other a "noble lie" or are both responses equally both truthful and false?

Klasik fizikle yapılan her hesaplama kuantum fiziği tarafından kabul edilemez.

Really, any PCR-based reaction will tend to produce weird stuff if you leave it long enough: when the reaction is exponential, anything, anything that the primers can bind (including the taqman probe, and themselves) to will tend to end up being amplified. Even if the binding affinity is terrible and the chances are almost zero, it only needs to happen once to get something that can be amplified by subsequent rounds.

But that's usually ok: Cq of 33 is very, very close to the barest minimum quantification anyway (rule of thumb is that Cq 35 roughly corresponds to a single target molecule per well), and if your miR of interest is routinely present at Cq values comparable to your 'background' Cq of 33, then it's safe to conclude that your miR of interest isn't meaningfully present.

In my experience, miRs are usually fairly robustly expressed (Cq 20-26) or not at all (Cq 33+).

It honestly sounds to me like you're wasting a lot of time, energy and effort trying to remove non-existent contamination: this isn't contamination, it's just the way your assay works, and that's...ok: assays are rarely perfect.

The concept of the wave function is mathematically very well founded by studying these 3 publications:

In addition, the following 2 references provide further clarification:

Thank you for this contribution, Hector Oviedo-Cruz . I also appreciate the inclusion of an article.

Leonie Puschnig Is birthrate connected to female workplace inclusion involved?

The convergence of Artificial Intelligence (AI), Quantum Computing, and Blockchain Technology is poised to reshape the foundation of the web in profound ways. As AI continues to advance, it can leverage the immense processing power of quantum computers to solve complex problems at unprecedented speeds, revolutionizing tasks like optimization, machine learning, and cryptography.

Quantum computing's ability to perform parallel computations and solve certain problems exponentially faster than classical computers opens up new possibilities for AI algorithms. This synergy can lead to breakthroughs in fields such as drug discovery, optimization of supply chains, and the development of more sophisticated AI models.

Blockchain, with its decentralized and secure nature, can benefit from quantum-resistant cryptographic algorithms provided by quantum computing. This ensures the continued integrity and security of distributed ledgers in a post-quantum world. Integrating quantum-resistant algorithms into blockchain technology will safeguard the authenticity and privacy of transactions.

Moreover, the collaboration of these technologies could lead to the development of more efficient and secure consensus mechanisms for decentralized networks. Quantum-resistant cryptography can enhance the security of blockchain systems, mitigating potential threats posed by quantum computers.

In summary, the overlap of AI, Quantum Computing, and Blockchain Technology has the potential to redefine the web's foundation by accelerating computational capabilities, enhancing security, and enabling innovative applications across various domains. This convergence represents a paradigm shift, offering a glimpse into a future where the web is more intelligent, secure, and capable of handling complex tasks with unprecedented efficiency.

Maybe a bit cheezy, but "preventing tragedies IS performing miracles" in my opinion. Then again, negative news are always more reported and recognized than positive news, so if if someone performs an extraordinarily good feat, they will be only awarded, if at all, for a very short time.

As I understanding the question it is about learning, here about learning mechanics (typically the first topic in a course in Theoretical Physics).

One of the most famous textbooks on the matter - that of Landau and Lifschitz - actually begins with the Lagrangian formulation. This works quite

well, at least for students who are really interested in Theoretical Physics.

While Hawking did propose that black holes radiate energy and lose mass that way, this has NOT been experimentally observed, the main difficulty being that the temperature of this radiation is in the microkelvin range for astrophysical black holes.

He has done work of much greater significance: The singularity theorem with Penrose and the proposal that black holes have a finite entropy, when probed by quantum probes.

From the Beatles, Revolution:

Take two Okay

You say you want a revolution Well, you know We all want to change the world You tell me that it's evolution Well, you know We all want to change the world

But when you talk about destruction Don't you know that you can count me out (in)

Don't you know it's gonna be All right? Don't you know it's gonna be (all right) Don't you know it's gonna be (all right)

You say you got a real solution Well, you know We'd all love to see the plan You ask me for a contribution Well, you know We're all doing what we can

But if you want money for people with minds that hate All I can tell you is brother you have to wait

Don't you know it's gonna be (all right) Don't you know it's gonna be (all right) Don't you know it's gonna be (all right)

You say you'll change the constitution Well, you know We'd all love to change your head You tell me it's the institution Well, you know You better free your mind instead

But if you go carrying pictures of Chairman Mao You ain't going to make it with anyone anyhow

Don't you know it's gonna be (all right) Don't you know it's gonna be (all right) Don't you know it's gonna be (all right)

All, all, all, all, all, all, all, all, all, all, all right All right, all right, all right, all right, all right

Peter Simons is doing some wonderful work on a mereological approach to classical spherical geometry.

May I know the ratio of drug to nanoparticles ?

Dear Felipe Franco Campos

If you're looking to confirm the cholinergic phenotype of differentiated SH-SY5Y cells, one reliable marker to consider is Choline Acetyltransferase (ChAT). ChAT is an enzyme involved in the synthesis of acetylcholine, a neurotransmitter associated with cholinergic neurons. Immunostaining for ChAT can be a robust method to identify and confirm the presence of cholinergic neurons in your differentiated cell culture. Additionally, you may want to check for other markers associated with cholinergic neurons, such as vesicular acetylcholine transporter (VAChT) or nicotinic acetylcholine receptors. Moreover, You can also check morphological changes and MAP2 expressions

Kind regards

AB Bayazid

Coordination system just imagination of any system. In that particular system, we just calculate any motion or any physical quantity in particular system. All systems do not contain infinite range, all theories are existing till particular coordinates. Dimensions could be change, but coordinate systems remain unchanged. So it doesn't matter.

Hello. Unfortunately, my scientific interest is connected with another field of research. I can't help you. Have a nice day.

Which of the possible meanings of 'classic' should we apply here?

Hi Florens,

unfortunately, I never got them.

Best,

Christian

it is the measurement on a moving frame. Sagnac effect is an experimental evidence.

There are several possible causes of inflation according to economic theories. I will mention some of them briefly:

1. The theory of money demand: It is based on the idea that inflation arises due to an increase in the amount of money circulating in the economy more than an increase in economic production. An increase in money in the economy can occur due to monetary expansion policies or increased government spending, which leads to an increase in general demand and a rise in prices.

2. Social Cost Theory: According to this theory, inflation rises when the production costs of firms increase and these costs are passed on to consumers by increasing prices. These costs can be the result of an increase in the prices of labour, raw materials, energy or taxes, and cause firms to raise the prices of their products to offset the increased costs.

3. Expected inflation theory: It assumes that expectations of escalating inflation may lead to a self-increase in prices. If individuals expect an increase in consumer prices in the future, they may increase their current spending before the expected price increase occurs, thus increasing general demand and actually increasing prices.

4. Structural inflation theory: It is related to the inelasticity of economic supply. For example, when there is a sudden increase in demand for a particular commodity and there is no effective ability to increase production, the prices will rise as a result of the scarcity of the product.