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  • 10:41, 5 November 2022 diff hist −5,522 Store:EEMIen07current Tag: Visual edit: Switched
  • 10:41, 5 November 2022 diff hist +5,519 N Store:EEMIen08Created page with "=== Table 2=== {| class="wikitable" !Stimulus !<math>\Delta x\Delta p_x</math> !<math>\Delta y\Delta p_y</math> !<math>\Delta x\Delta p_x</math> !<math>\Delta y\Delta p_y</math> !<math>\Delta x\Delta p_x</math> !<math>\Delta y\Delta p_y</math> !<math>\Delta x\Delta p_x</math> !<math>\Delta y\Delta p_y</math> |- | colspan="1" rowspan="1" |Taken | colspan="1" rowspan="1" |<small><math display="inline">(7\pm2.1)10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math..."
  • 10:40, 5 November 2022 diff hist +7,958 N Store:EEMIen07Created page with "==== Uncertainty principle ==== Despite the confirmation of previous neuroscientific results, and the apparent success of our quasi-quantum model, our research question as posed above remains only half answered. Using this model, we noted differences in the probability distributions and the phase space centroids in rest when compared to task. However, we still sought a parameter from the model that would remain the same in rest and task. To this end, we defined an analo..."
  • 10:39, 5 November 2022 diff hist +3,432 N Store:EEMIes06Created page with "=== Table 1 === Group averages of the centroids. {| class="wikitable" |+ !Stimulus !<math>\langle x\rangle</math> !<math>\langle y\rangle</math> !<math>\langle p_x\rangle</math> !<math>\langle p_y\rangle</math> |- |Taken | colspan="1" rowspan="1" |<small><math>(-1.4\pm5.8)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(2.4\pm8.0)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(-5.8\pm27.0)\times10^{-2}</math></small> | colspan=..."
  • 10:38, 5 November 2022 diff hist +3,432 N Store:EEMIde06Created page with "=== Table 1 === Group averages of the centroids. {| class="wikitable" |+ !Stimulus !<math>\langle x\rangle</math> !<math>\langle y\rangle</math> !<math>\langle p_x\rangle</math> !<math>\langle p_y\rangle</math> |- |Taken | colspan="1" rowspan="1" |<small><math>(-1.4\pm5.8)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(2.4\pm8.0)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(-5.8\pm27.0)\times10^{-2}</math></small> | colspan=..."
  • 10:38, 5 November 2022 diff hist +3,432 N Store:EEMIfr06Created page with "=== Table 1 === Group averages of the centroids. {| class="wikitable" |+ !Stimulus !<math>\langle x\rangle</math> !<math>\langle y\rangle</math> !<math>\langle p_x\rangle</math> !<math>\langle p_y\rangle</math> |- |Taken | colspan="1" rowspan="1" |<small><math>(-1.4\pm5.8)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(2.4\pm8.0)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(-5.8\pm27.0)\times10^{-2}</math></small> | colspan=..."
  • 10:38, 5 November 2022 diff hist +3,432 N Store:EEMIit06Created page with "=== Table 1 === Group averages of the centroids. {| class="wikitable" |+ !Stimulus !<math>\langle x\rangle</math> !<math>\langle y\rangle</math> !<math>\langle p_x\rangle</math> !<math>\langle p_y\rangle</math> |- |Taken | colspan="1" rowspan="1" |<small><math>(-1.4\pm5.8)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(2.4\pm8.0)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(-5.8\pm27.0)\times10^{-2}</math></small> | colspan=..."
  • 10:37, 5 November 2022 diff hist +3,432 N Store:EEMIen06Created page with "=== Table 1 === Group averages of the centroids. {| class="wikitable" |+ !Stimulus !<math>\langle x\rangle</math> !<math>\langle y\rangle</math> !<math>\langle p_x\rangle</math> !<math>\langle p_y\rangle</math> |- |Taken | colspan="1" rowspan="1" |<small><math>(-1.4\pm5.8)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(2.4\pm8.0)\times10^{-1}</math></small> | colspan="1" rowspan="1" |<small><math>(-5.8\pm27.0)\times10^{-2}</math></small> | colspan=..." current
  • 10:36, 5 November 2022 diff hist +7,019 N Store:EEMIes05Created page with "===== In practice ===== These two equations are how we create our quasi-quantum mechanical analogues. The second equation is an extension of Ehrenfest’s theorem, relating the average momenta of a particle to the time derivative of its average position. Where we have assumed a Hamiltonian with only a spatially dependent potential. Note that as the positions are fixed in space (positions of the electrodes) only the probability changes in time. Throughout this paper the m..."
  • 10:36, 5 November 2022 diff hist +7,019 N Store:EEMIde05Created page with "===== In practice ===== These two equations are how we create our quasi-quantum mechanical analogues. The second equation is an extension of Ehrenfest’s theorem, relating the average momenta of a particle to the time derivative of its average position. Where we have assumed a Hamiltonian with only a spatially dependent potential. Note that as the positions are fixed in space (positions of the electrodes) only the probability changes in time. Throughout this paper the m..."
  • 10:35, 5 November 2022 diff hist +7,019 N Store:EEMIfr05Created page with "===== In practice ===== These two equations are how we create our quasi-quantum mechanical analogues. The second equation is an extension of Ehrenfest’s theorem, relating the average momenta of a particle to the time derivative of its average position. Where we have assumed a Hamiltonian with only a spatially dependent potential. Note that as the positions are fixed in space (positions of the electrodes) only the probability changes in time. Throughout this paper the m..."
  • 10:35, 5 November 2022 diff hist +7,019 N Store:EEMIit05Created page with "===== In practice ===== These two equations are how we create our quasi-quantum mechanical analogues. The second equation is an extension of Ehrenfest’s theorem, relating the average momenta of a particle to the time derivative of its average position. Where we have assumed a Hamiltonian with only a spatially dependent potential. Note that as the positions are fixed in space (positions of the electrodes) only the probability changes in time. Throughout this paper the m..."
  • 10:34, 5 November 2022 diff hist +34 Store:EEMIen04current
  • 10:34, 5 November 2022 diff hist +34 Store:EEMIit04
  • 10:34, 5 November 2022 diff hist +34 Store:EEMIfr04
  • 10:33, 5 November 2022 diff hist +34 Store:EEMIde04
  • 10:33, 5 November 2022 diff hist +34 Store:EEMIes04
  • 10:33, 5 November 2022 diff hist −10 Store:EEMIen05current
  • 10:17, 5 November 2022 diff hist −20,686 Exploring electroencephalography with a model inspired by quantum mechanics
  • 10:17, 5 November 2022 diff hist +7,029 N Store:EEMIen05Created page with "With the same holding true for y. These two equations are how we create our quasi-quantum mechanical analogues. The second equation is an extension of Ehrenfest’s theorem, relating the average momenta of a particle to the time derivative of its average position. Where we have assumed a Hamiltonian with only a spatially dependent potential. Note that as the positions are fixed in space (positions of the electrodes) only the probability changes in time. Throughout this p..."
  • 10:15, 5 November 2022 diff hist +3,637 N Store:EEMIes04Created page with "=== Results === In this paper, we adapted the probability amplitudes of quantum mechanics to define new metrics for examining EEG data—the ‘average position’ and ‘average momentum’ of the EEG signal. These were constructed from our definition of ‘brain states’ based on the quasi-quantum model. This allowed us to ascertain the frequency with which unique brain regions are entered by the pseudo-wavefunction, as well as explore the average-valued phase space...."
  • 10:15, 5 November 2022 diff hist +3,637 N Store:EEMIde04Created page with "=== Results === In this paper, we adapted the probability amplitudes of quantum mechanics to define new metrics for examining EEG data—the ‘average position’ and ‘average momentum’ of the EEG signal. These were constructed from our definition of ‘brain states’ based on the quasi-quantum model. This allowed us to ascertain the frequency with which unique brain regions are entered by the pseudo-wavefunction, as well as explore the average-valued phase space...."
  • 10:15, 5 November 2022 diff hist +3,637 N Store:EEMIfr04Created page with "=== Results === In this paper, we adapted the probability amplitudes of quantum mechanics to define new metrics for examining EEG data—the ‘average position’ and ‘average momentum’ of the EEG signal. These were constructed from our definition of ‘brain states’ based on the quasi-quantum model. This allowed us to ascertain the frequency with which unique brain regions are entered by the pseudo-wavefunction, as well as explore the average-valued phase space...."
  • 10:15, 5 November 2022 diff hist +3,637 N Store:EEMIit04Created page with "=== Results === In this paper, we adapted the probability amplitudes of quantum mechanics to define new metrics for examining EEG data—the ‘average position’ and ‘average momentum’ of the EEG signal. These were constructed from our definition of ‘brain states’ based on the quasi-quantum model. This allowed us to ascertain the frequency with which unique brain regions are entered by the pseudo-wavefunction, as well as explore the average-valued phase space...."
  • 10:14, 5 November 2022 diff hist +3,637 N Store:EEMIen04Created page with "=== Results === In this paper, we adapted the probability amplitudes of quantum mechanics to define new metrics for examining EEG data—the ‘average position’ and ‘average momentum’ of the EEG signal. These were constructed from our definition of ‘brain states’ based on the quasi-quantum model. This allowed us to ascertain the frequency with which unique brain regions are entered by the pseudo-wavefunction, as well as explore the average-valued phase space...."
  • 10:13, 5 November 2022 diff hist +10,014 N Store:EEMIes03Created page with "Indeed, the same set of structured patterns of neural activity have been found during "active" states, such as, while completing different tasks<ref>Biswal BB, Eldreth DA, Motes MA, Rypma B. Task-dependent individual differences in prefrontal connectivity. Cereb. Cortex. 2010;20:2188–2197. doi: 10.1093/cercor/bhp284. [PMC free article][PubMed] [CrossRef] [Google Scholar]</ref><ref>Fox MD, Raichle ME. Spontaneous fluctuations in brain activity observed with functional m..."
  • 10:13, 5 November 2022 diff hist +10,014 N Store:EEMIde03Created page with "Indeed, the same set of structured patterns of neural activity have been found during "active" states, such as, while completing different tasks<ref>Biswal BB, Eldreth DA, Motes MA, Rypma B. Task-dependent individual differences in prefrontal connectivity. Cereb. Cortex. 2010;20:2188–2197. doi: 10.1093/cercor/bhp284. [PMC free article][PubMed] [CrossRef] [Google Scholar]</ref><ref>Fox MD, Raichle ME. Spontaneous fluctuations in brain activity observed with functional m..."
  • 10:13, 5 November 2022 diff hist +10,014 N Store:EEMIfr03Created page with "Indeed, the same set of structured patterns of neural activity have been found during "active" states, such as, while completing different tasks<ref>Biswal BB, Eldreth DA, Motes MA, Rypma B. Task-dependent individual differences in prefrontal connectivity. Cereb. Cortex. 2010;20:2188–2197. doi: 10.1093/cercor/bhp284. [PMC free article][PubMed] [CrossRef] [Google Scholar]</ref><ref>Fox MD, Raichle ME. Spontaneous fluctuations in brain activity observed with functional m..."
  • 10:13, 5 November 2022 diff hist +10,014 N Store:EEMIit03Created page with "Indeed, the same set of structured patterns of neural activity have been found during "active" states, such as, while completing different tasks<ref>Biswal BB, Eldreth DA, Motes MA, Rypma B. Task-dependent individual differences in prefrontal connectivity. Cereb. Cortex. 2010;20:2188–2197. doi: 10.1093/cercor/bhp284. [PMC free article][PubMed] [CrossRef] [Google Scholar]</ref><ref>Fox MD, Raichle ME. Spontaneous fluctuations in brain activity observed with functional m..."
  • 10:12, 5 November 2022 diff hist +10,014 N Store:EEMIen03Created page with "Indeed, the same set of structured patterns of neural activity have been found during "active" states, such as, while completing different tasks<ref>Biswal BB, Eldreth DA, Motes MA, Rypma B. Task-dependent individual differences in prefrontal connectivity. Cereb. Cortex. 2010;20:2188–2197. doi: 10.1093/cercor/bhp284. [PMC free article][PubMed] [CrossRef] [Google Scholar]</ref><ref>Fox MD, Raichle ME. Spontaneous fluctuations in brain activity observed with functional m..."
  • 10:11, 5 November 2022 diff hist +105 Exploring electroencephalography with a model inspired by quantum mechanics
  • 10:10, 5 November 2022 diff hist −4,072 Exploring electroencephalography with a model inspired by quantum mechanics→‎Introduction
  • 10:10, 5 November 2022 diff hist +4,091 N Store:EEMIes02Created page with "=== Introduction === An important but outstanding issue in contemporary cognitive neuroscience is understanding the organizational properties of neural activity. For instance, is there a fundamental structure to the spatial–temporal patterns neural brain activity across different conditions? One common approach used to address this question is to examine the brain at “rest”. Measures such as functional connectivity, independent component analysis and graph theoreti..."
  • 10:10, 5 November 2022 diff hist +4,091 N Store:EEMIde02Created page with "=== Introduction === An important but outstanding issue in contemporary cognitive neuroscience is understanding the organizational properties of neural activity. For instance, is there a fundamental structure to the spatial–temporal patterns neural brain activity across different conditions? One common approach used to address this question is to examine the brain at “rest”. Measures such as functional connectivity, independent component analysis and graph theoreti..."
  • 10:09, 5 November 2022 diff hist +4,091 N Store:EEMIfr02Created page with "=== Introduction === An important but outstanding issue in contemporary cognitive neuroscience is understanding the organizational properties of neural activity. For instance, is there a fundamental structure to the spatial–temporal patterns neural brain activity across different conditions? One common approach used to address this question is to examine the brain at “rest”. Measures such as functional connectivity, independent component analysis and graph theoreti..."
  • 10:09, 5 November 2022 diff hist +4,091 N Store:EEMIit02Created page with "=== Introduction === An important but outstanding issue in contemporary cognitive neuroscience is understanding the organizational properties of neural activity. For instance, is there a fundamental structure to the spatial–temporal patterns neural brain activity across different conditions? One common approach used to address this question is to examine the brain at “rest”. Measures such as functional connectivity, independent component analysis and graph theoreti..."
  • 10:09, 5 November 2022 diff hist +4,091 N Store:EEMIen02Created page with "=== Introduction === An important but outstanding issue in contemporary cognitive neuroscience is understanding the organizational properties of neural activity. For instance, is there a fundamental structure to the spatial–temporal patterns neural brain activity across different conditions? One common approach used to address this question is to examine the brain at “rest”. Measures such as functional connectivity, independent component analysis and graph theoreti..."
  • 10:08, 5 November 2022 diff hist −1,443 Exploring electroencephalography with a model inspired by quantum mechanics→‎Abstract
  • 10:08, 5 November 2022 diff hist +1,462 N Store:EEMIes01Created page with "== Abstract== An outstanding issue in cognitive neuroscience concerns how the brain is organized across different conditions. For instance, during the resting-state condition, the brain can be clustered into reliable and reproducible networks (e.g., sensory, default, executive networks). Interestingly, the same networks emerge during active conditions in response to various tasks. If similar patterns of neural activity have been found across diverse conditions, and ther..."
  • 10:08, 5 November 2022 diff hist +1,462 N Store:EEMIde01Created page with "== Abstract== An outstanding issue in cognitive neuroscience concerns how the brain is organized across different conditions. For instance, during the resting-state condition, the brain can be clustered into reliable and reproducible networks (e.g., sensory, default, executive networks). Interestingly, the same networks emerge during active conditions in response to various tasks. If similar patterns of neural activity have been found across diverse conditions, and ther..."
  • 10:08, 5 November 2022 diff hist +1,462 N Store:EEMIfr01Created page with "== Abstract== An outstanding issue in cognitive neuroscience concerns how the brain is organized across different conditions. For instance, during the resting-state condition, the brain can be clustered into reliable and reproducible networks (e.g., sensory, default, executive networks). Interestingly, the same networks emerge during active conditions in response to various tasks. If similar patterns of neural activity have been found across diverse conditions, and ther..."
  • 10:07, 5 November 2022 diff hist +1,462 N Store:EEMIit01Created page with "== Abstract== An outstanding issue in cognitive neuroscience concerns how the brain is organized across different conditions. For instance, during the resting-state condition, the brain can be clustered into reliable and reproducible networks (e.g., sensory, default, executive networks). Interestingly, the same networks emerge during active conditions in response to various tasks. If similar patterns of neural activity have been found across diverse conditions, and ther..."
  • 10:07, 5 November 2022 diff hist +1,462 N Store:EEMIen01Created page with "== Abstract== An outstanding issue in cognitive neuroscience concerns how the brain is organized across different conditions. For instance, during the resting-state condition, the brain can be clustered into reliable and reproducible networks (e.g., sensory, default, executive networks). Interestingly, the same networks emerge during active conditions in response to various tasks. If similar patterns of neural activity have been found across diverse conditions, and ther..." current
  • 10:01, 5 November 2022 diff hist +1,704 Exploring electroencephalography with a model inspired by quantum mechanics
  • 02:36, 4 November 2022 diff hist +2,476 N Store:FLes06Created page with "==Final considerations== Topics that could distract the reader’s attention were, in fact, essential for demonstrating the message. Normally, indeed, when any more or less brilliant mind allows itself to throw a stone into the pond of Science, a shockwave is generated, typical of the period of Kuhn’s extraordinary science, against which most of the members of the international scientific community row. With good faith, we can say that this phenomenon—as regards the..."
  • 02:36, 4 November 2022 diff hist +2,476 N Store:FLde06Created page with "==Final considerations== Topics that could distract the reader’s attention were, in fact, essential for demonstrating the message. Normally, indeed, when any more or less brilliant mind allows itself to throw a stone into the pond of Science, a shockwave is generated, typical of the period of Kuhn’s extraordinary science, against which most of the members of the international scientific community row. With good faith, we can say that this phenomenon—as regards the..."
  • 02:36, 4 November 2022 diff hist +6,310 N Store:FLes05Created page with "==Fuzzy set <math>\tilde{A}</math> and membership function <math>\mu_{\displaystyle {\tilde {A}}}(x)</math>== We choose - as a formalism - to represent a fuzzy set with the 'tilde':<math>\tilde{A}</math>. A fuzzy set is a set where the elements have a 'degree' of belonging (consistent with fuzzy logic): some can be included in the set at 100%, others in lower percentages. To mathematically represent this degree of belonging is the function <math>\mu_{\displaystyle {\til..."
  • 02:36, 4 November 2022 diff hist +6,310 N Store:FLde05Created page with "==Fuzzy set <math>\tilde{A}</math> and membership function <math>\mu_{\displaystyle {\tilde {A}}}(x)</math>== We choose - as a formalism - to represent a fuzzy set with the 'tilde':<math>\tilde{A}</math>. A fuzzy set is a set where the elements have a 'degree' of belonging (consistent with fuzzy logic): some can be included in the set at 100%, others in lower percentages. To mathematically represent this degree of belonging is the function <math>\mu_{\displaystyle {\til..."
  • 02:35, 4 November 2022 diff hist +2,158 N Store:FLde04Created page with "===Set operators=== Given the whole universe <math>U</math> we indicate with <math>x</math> its generic element so that <math>x \in U</math>; then, we consider two subsets <math>A</math> and <math>B</math> internal to <math>U</math> so that <math>A \subset U</math> and <math>B \subset U</math> {| |left|80px |'''Union:''' represented by the symbol <math>\cup</math>, indicates the union of the two sets <math>A</math> and <math>B</math> <math>(A\cup B..."
  • 02:35, 4 November 2022 diff hist +2,158 N Store:FLes04Created page with "===Set operators=== Given the whole universe <math>U</math> we indicate with <math>x</math> its generic element so that <math>x \in U</math>; then, we consider two subsets <math>A</math> and <math>B</math> internal to <math>U</math> so that <math>A \subset U</math> and <math>B \subset U</math> {| |left|80px |'''Union:''' represented by the symbol <math>\cup</math>, indicates the union of the two sets <math>A</math> and <math>B</math> <math>(A\cup B..."

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