Results for 'Brain machine interface'

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  1. Brain Machine Interface and Human Enhancement – An Ethical Review.Karim Jebari - 2013 - Neuroethics 6 (3):617-625.
    Brain machine interface (BMI) technology makes direct communication between the brain and a machine possible by means of electrodes. This paper reviews the existing and emerging technologies in this field and offers a systematic inquiry into the relevant ethical problems that are likely to emerge in the following decades.
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  2. Brain machine-interface technology in neurosurgery.Jeffrey Rosenfeld & Marike Broekman - 2020 - In Stephen Honeybul (ed.), Ethics in neurosurgical practice. New York, NY: Cambridge University Press.
     
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  3.  84
    Brain-Machine Interfaces and Personal Responsibility for Action - Maybe Not As Complicated After All.Søren Holm & Teck Chuan Voo - 2011 - Studies in Ethics, Law, and Technology 4 (3).
    This comment responds to Kevin Warwick’s article on predictability and responsibility with respect to brain-machine interfaces in action. It compares conventional responsibility for device use with the potential consequences of phenomenological human-machine integration which obscures the causal chain of an act. It explores two senses of “responsibility”: 1) when it is attributed to a person, suggesting the morally important way in which the person is a causal agent, and 2) when a person is accountable and, on the (...)
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  4.  32
    BrainMachine Interfaces and the Integral Person.Christopher M. Reilly - 2020 - The National Catholic Bioethics Quarterly 20 (1):47-58.
    Physically enhancing brainmachine interfaces communicate elec­tronically with the patient’s mind in both directions. They present significant opportunities to improve a patient’s health and to restore his or her physical function, but they also present problems for the patient’s sense of agency and self. This is exacerbated by notions of extension and enhancement that are not grounded in an authentic human anthropology that describes the inherently dignified person as an integral union of body and soul.
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  5.  13
    Brain-Machine Interfaces to Assist the Blind.Maurice Ptito, Maxime Bleau, Ismaël Djerourou, Samuel Paré, Fabien C. Schneider & Daniel-Robert Chebat - 2021 - Frontiers in Human Neuroscience 15:638887.
    The loss or absence of vision is probably one of the most incapacitating events that can befall a human being. The importance of vision for humans is also reflected in brain anatomy as approximately one third of the human brain is devoted to vision. It is therefore unsurprising that throughout history many attempts have been undertaken to develop devices aiming at substituting for a missing visual capacity. In this review, we present two concepts that have been prevalent over (...)
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  6.  15
    Brain-machine interface: New challenge for humanity.Nemanja Nikolic, Ljubisa Bojic & Lana Tucakovic - 2022 - Filozofija I Društvo 33 (2):283-296.
    The aim of this paper is to clarify specific aspects of the impact of the brain-machine interface on our understanding of subjectivity. The brain-machine interface is presented as a phase of cyborgization of humans. Some projects in the field of brain-machine interface are aimed at enabling consensual telepathy - communication without symbolic mediation. Consensual telepathy refers to one of potential ways of transmission of information within singularity. Therefore, consensual telepathy is an (...)
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  7.  18
    Brain Machine Interface for forces and motion based on musculo-skeletal model.Koike Yasuharu, Kambara Hiroyuki & Yoshimura Natsue - 2015 - Frontiers in Human Neuroscience 9.
  8.  11
    Brain-Machine Interfaces in the Completely Locked-In and Stroke.Birbaumer Niels - 2015 - Frontiers in Human Neuroscience 9.
  9.  20
    Clinical Brain-Machine-Interfaces: Ethical Legal and Social Implications.Clausen Jens - 2015 - Frontiers in Human Neuroscience 9.
  10.  44
    Ethical monitoring of brain-machine interfaces.Federica Lucivero & Guglielmo Tamburrini - 2008 - AI and Society 22 (3):449-460.
    The ethical monitoring of brain-machine interfaces (BMIs) is discussed in connection with the potential impact of BMIs on distinguishing traits of persons, changes of personal identity, and threats to personal autonomy. It is pointed out that philosophical analyses of personhood are conducive to isolating an initial thematic framework for this ethical monitoring problem, but a contextual refinement of this initial framework depends on applied ethics analyses of current BMI models and empirical case-studies. The personal autonomy-monitoring problem is approached (...)
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  11.  79
    European Public Deliberation on Brain Machine Interface Technology: Five Convergence Seminars. [REVIEW]Karim Jebari & Sven-Ove Hansson - 2013 - Science and Engineering Ethics 19 (3):1071-1086.
    We present a novel procedure to engage the public in ethical deliberations on the potential impacts of brain machine interface technology. We call this procedure a convergence seminar, a form of scenario-based group discussion that is founded on the idea of hypothetical retrospection. The theoretical background of this procedure and the results of five seminars are presented.
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  12.  21
    Clinical applications of bidirectional brain-machine interfaces.Fetz Eberhard - 2015 - Frontiers in Human Neuroscience 9.
  13.  23
    Home-based hybrid brain-machine interface (BMI) training for neurorehabilitation of stroke.Soekadar Surjo, Witkowski Matthias, Cohen Leonhard & Birbaumer Niels - 2015 - Frontiers in Human Neuroscience 9.
  14.  37
    Ethical monitoring of brain-machine interfaces, A note on personal identity and autonomy.Guglielmo Tamburrini - 2008 - AI and Society 22 (3):449-460.
  15.  16
    On the Merge of Brain-Machine Interfaces: The Real Story of "The Terminal Man".Mima Tatsuya - 2015 - Frontiers in Human Neuroscience 9.
  16.  22
    Brain state-dependent robotic reaching movement with a multi-joint arm exoskeleton: combining brain-machine interfacing and robotic rehabilitation.Daniel Brauchle, Mathias Vukelić, Robert Bauer & Alireza Gharabaghi - 2015 - Frontiers in Human Neuroscience 9.
  17.  36
    A Wireless Multichannel Neural Recording system for Implantable Brain-Machine Interfaces.Ando Hiroshi, Takizawa Kenichi, Yoshida Takeshi, Matsushita Kojiro, Hirata Masayuki & Suzuki Takafumi - 2015 - Frontiers in Human Neuroscience 9.
  18.  9
    The Ethics of Thinking with Machines: Brain-Computer Interfaces in the Era of Artificial Intelligence.David M. Lyreskog, Hazem Zohny, Ilina Singh & Julian Savulescu - 2023 - International Journal of Chinese and Comparative Philosophy of Medicine 21 (2):11-34.
    LANGUAGE NOTE | Document text in English; abstract also in Chinese. 腦機介面 (BCIs) 是大腦和電腦無需人工交互即可直接交流的一系列技術。隨著人工智能 (AI) 時代的到來,我們需要更多地關注腦機介面和人工智能的融合所帶來的倫理問題。那麼,與機器一起思考會帶來什麼樣的倫理問題?在本文中,圍繞這一主題,我們將重點關注以下問題:自主性、完整性、身分認同、隱私,以及 作為一種增強的方式,該技術在兒科領域的應用會帶來怎樣的風險和潛在收益。我們的結論是,雖然該技術存在多種令人擔憂的問題,同時也有可能帶來好處,但仍存在很大的不確定性。如果生命倫理學家想在這一領域有所建樹 ,他們就應該做好準備來迎接我們對醫學和醫療保健領域中一些我們視為核心價值的理解的重大轉變。 Brain-Computer Interfaces – BCIs – are a set of technologies with which brains and computers can communicate directly, without the need for manual interaction. As we are witnessing the dawn of an era in which Artificial Intelligence (AI) quite possibly will come to dominate the technological innovation landscape, we are compelled to ask questions about the ethical issues which the convergence of BCIs and (...)
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  19. Ghost in the Machine: A Philosophical Analysis of the Relationship Between Brain-Computer Interface Applications and their Users.Richard Heersmink - 2009 - Dissertation, University of Twente.
    This Master’s thesis explores the relationship between Brain-Computer Interfaces (BCIs) and their human users from a functional, epistemological and phenomenological perspective. The analysis has four steps. I start out with a technical description of BCI systems in which I conceptually analyze different types of BCI applications. This results in the development of a taxonomy of applications which is the point of departure for further philosophical analysis. Thereafter, I explore the functional relationship between BCI applications and their users. That is (...)
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  20. The mind and the machine. On the conceptual and moral implications of brain-machine interaction.Maartje Schermer - 2009 - NanoEthics 3 (3):217-230.
    Brain-machine interfaces are a growing field of research and application. The increasing possibilities to connect the human brain to electronic devices and computer software can be put to use in medicine, the military, and entertainment. Concrete technologies include cochlear implants, Deep Brain Stimulation, neurofeedback and neuroprosthesis. The expectations for the near and further future are high, though it is difficult to separate hope from hype. The focus in this paper is on the effects that these new (...)
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  21.  12
    A data-driven machine learning approach for brain-computer interfaces targeting lower limb neuroprosthetics.Arnau Dillen, Elke Lathouwers, Aleksandar Miladinović, Uros Marusic, Fakhredinne Ghaffari, Olivier Romain, Romain Meeusen & Kevin De Pauw - 2022 - Frontiers in Human Neuroscience 16.
    Prosthetic devices that replace a lost limb have become increasingly performant in recent years. Recent advances in both software and hardware allow for the decoding of electroencephalogram signals to improve the control of active prostheses with brain-computer interfaces. Most BCI research is focused on the upper body. Although BCI research for the lower extremities has increased in recent years, there are still gaps in our knowledge of the neural patterns associated with lower limb movement. Therefore, the main objective of (...)
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  22.  8
    A data-driven machine learning approach for brain-computer interfaces targeting lower limb neuroprosthetics.Arnau Dillen, Elke Lathouwers, Aleksandar Miladinović, Uros Marusic, Fakhreddine Ghaffari, Olivier Romain, Romain Meeusen & Kevin De Pauw - 2022 - Frontiers in Human Neuroscience 16.
    Prosthetic devices that replace a lost limb have become increasingly performant in recent years. Recent advances in both software and hardware allow for the decoding of electroencephalogram signals to improve the control of active prostheses with brain-computer interfaces. Most BCI research is focused on the upper body. Although BCI research for the lower extremities has increased in recent years, there are still gaps in our knowledge of the neural patterns associated with lower limb movement. Therefore, the main objective of (...)
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  23.  34
    Using brain-computer interfaces: a scoping review of studies employing social research methods.Johannes Kögel, Jennifer R. Schmid, Ralf J. Jox & Orsolya Friedrich - 2019 - BMC Medical Ethics 20 (1):18.
    The rapid expansion of research on Brain-Computer Interfaces is not only due to the promising solutions offered for persons with physical impairments. There is also a heightened need for understanding BCIs due to the challenges regarding ethics presented by new technology, especially in its impact on the relationship between man and machine. Here we endeavor to present a scoping review of current studies in the field to gain insight into the complexity of BCI use. By examining studies related (...)
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  24. Did I Do That? Brain–Computer Interfacing and the Sense of Agency.Pim Haselager - 2013 - Minds and Machines 23 (3):405-418.
    Brain–computer interfacing (BCI) aims at directly capturing brain activity in order to enable a user to drive an application such as a wheelchair without using peripheral neural or motor systems. Low signal to noise ratio’s, low processing speed, and huge intra- and inter-subject variability currently call for the addition of intelligence to the applications, in order to compensate for errors in the production and/or the decoding of brain signals. However, the combination of minds and machines through BCI’s (...)
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  25.  41
    The Epistemic Value of BrainMachine Systems for the Study of the Brain.Edoardo Datteri - 2017 - Minds and Machines 27 (2):287-313.
    Bionic systems, connecting biological tissues with computer or robotic devices through brainmachine interfaces, can be used in various ways to discover biological mechanisms. In this article I outline and discuss a “stimulation-connection” bionics-supported methodology for the study of the brain, and compare it with other epistemic uses of bionic systems described in the literature. This methododology differs from the “synthetic”, simulative method often followed in theoretically driven Artificial Intelligence and cognitive science, even though it involves machine (...)
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  26.  27
    A Man vs. Machine Shootout Duel: Do we have Control over our Intention-Predictive Brain Signals? In a Real-time Duelling Game Subjects try to execute Self-initiated Movements before being predicted and interrupted by an EEG-based Brain-Computer Interface.Schultze-Kraft Matthias, Birman Daniel, Rusconi Marco, Daehne Sven, Blankertz Benjamin & Haynes John-Dylan - 2015 - Frontiers in Human Neuroscience 9.
  27.  8
    Comparing machine learning approaches for motor-activity-related brain computer interfaces.Lei Wang & Hasan Ayaz - 2018 - Frontiers in Human Neuroscience 12.
  28. Doing Things with Thoughts: Brain-Computer Interfaces and Disembodied Agency.Steffen Steinert, Christoph Bublitz, Ralf Jox & Orsolya Friedrich - 2019 - Philosophy and Technology 32 (3):457-482.
    Connecting human minds to various technological devices and applications through brain-computer interfaces (BCIs) affords intriguingly novel ways for humans to engage and interact with the world. Not only do BCIs play an important role in restorative medicine, they are also increasingly used outside of medical or therapeutic contexts (e.g., gaming or mental state monitoring). A striking peculiarity of BCI technology is that the kind of actions it enables seems to differ from paradigmatic human actions, because, effects in the world (...)
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  29. The Asilomar Survey: Stakeholders' Opinions on Ethical Issues Related to Brain-Computer Interfacing. [REVIEW]Femke Nijboer, Jens Clausen, Brendan Z. Allison & Pim Haselager - 2011 - Neuroethics 6 (3):541-578.
    Brain-Computer Interface (BCI) research and (future) applications raise important ethical issues that need to be addressed to promote societal acceptance and adequate policies. Here we report on a survey we conducted among 145 BCI researchers at the 4th International BCI conference, which took place in May–June 2010 in Asilomar, California. We assessed respondents’ opinions about a number of topics. First, we investigated preferences for terminology and definitions relating to BCIs. Second, we assessed respondents’ expectations on the marketability of (...)
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    A Survey on Deep Learning-Based Short/Zero-Calibration Approaches for EEG-Based Brain–Computer Interfaces.Wonjun Ko, Eunjin Jeon, Seungwoo Jeong, Jaeun Phyo & Heung-Il Suk - 2021 - Frontiers in Human Neuroscience 15:643386.
    Brain–computer interfaces (BCIs) utilizing machine learning techniques are an emerging technology that enables a communication pathway between a user and an external system, such as a computer. Owing to its practicality, electroencephalography (EEG) is one of the most widely used measurements for BCI. However, EEG has complex patterns and EEG-based BCIs mostly involve a cost/time-consuming calibration phase; thus, acquiring sufficient EEG data is rarely possible. Recently, deep learning (DL) has had a theoretical/practical impact on BCI research because of (...)
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  31.  10
    Improved Brain–Computer Interface Signal Recognition Algorithm Based on Few-Channel Motor Imagery.Fan Wang, Huadong Liu, Lei Zhao, Lei Su, Jianhua Zhou, Anmin Gong & Yunfa Fu - 2022 - Frontiers in Human Neuroscience 16.
    Common spatial pattern is an effective algorithm for extracting electroencephalogram features of motor imagery ; however, CSP mainly aims at multichannel EEG signals, and its effect in extracting EEG features with fewer channels is poor—even worse than before using CSP. To solve the above problem, a new combined feature extraction method has been proposed in this study. For EEG signals from fewer channels, wavelet packet transform, fast ensemble empirical mode decomposition, and local mean decomposition were used to decompose the band-pass (...)
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  32.  25
    Thoughts Unlocked by Technology—a Survey in Germany About Brain-Computer Interfaces.J. R. Schmid, O. Friedrich, S. Kessner & R. J. Jox - 2021 - NanoEthics 15 (3):303-313.
    A brain-computer interface is a rapidly evolving neurotechnology connecting the human brain with a computer. In its classic form, brain activity is recorded and used to control external devices like protheses or wheelchairs. Thus, BCI users act with the power of their thoughts. While the initial development has focused on medical uses of BCIs, non-medical applications have recently been gaining more attention, for example in automobiles, airplanes, and the entertainment context. However, the attitudes of the general (...)
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  33.  6
    Evaluation of a New Lightweight EEG Technology for Translational Applications of Passive Brain-Computer Interfaces.Nicolina Sciaraffa, Gianluca Di Flumeri, Daniele Germano, Andrea Giorgi, Antonio Di Florio, Gianluca Borghini, Alessia Vozzi, Vincenzo Ronca, Fabio Babiloni & Pietro Aricò - 2022 - Frontiers in Human Neuroscience 16.
    Technologies like passive brain-computer interfaces can enhance human-machine interaction. Anyhow, there are still shortcomings in terms of easiness of use, reliability, and generalizability that prevent passive-BCI from entering real-life situations. The current work aimed to technologically and methodologically design a new gel-free passive-BCI system for out-of-the-lab employment. The choice of the water-based electrodes and the design of a new lightweight headset met the need for easy-to-wear, comfortable, and highly acceptable technology. The proposed system showed high reliability in both (...)
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  34.  36
    Vector Phase Analysis Approach for Sleep Stage Classification: A Functional Near-Infrared Spectroscopy-Based Passive Brain–Computer Interface.Saad Arif, Muhammad Jawad Khan, Noman Naseer, Keum-Shik Hong, Hasan Sajid & Yasar Ayaz - 2021 - Frontiers in Human Neuroscience 15.
    A passive brain–computer interface based upon functional near-infrared spectroscopy brain signals is used for earlier detection of human drowsiness during driving tasks. This BCI modality acquired hemodynamic signals of 13 healthy subjects from the right dorsolateral prefrontal cortex of the brain. Drowsiness activity is recorded using a continuous-wave fNIRS system and eight channels over the right DPFC. During the experiment, sleep-deprived subjects drove a vehicle in a driving simulator while their cerebral oxygen regulation state was continuously (...)
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  35.  67
    Improved classification performance of EEG-fNIRS multimodal brain-computer interface based on multi-domain features and multi-level progressive learning.Lina Qiu, Yongshi Zhong, Zhipeng He & Jiahui Pan - 2022 - Frontiers in Human Neuroscience 16.
    Electroencephalography and functional near-infrared spectroscopy have potentially complementary characteristics that reflect the electrical and hemodynamic characteristics of neural responses, so EEG-fNIRS-based hybrid brain-computer interface is the research hotspots in recent years. However, current studies lack a comprehensive systematic approach to properly fuse EEG and fNIRS data and exploit their complementary potential, which is critical for improving BCI performance. To address this issue, this study proposes a novel multimodal fusion framework based on multi-level progressive learning with multi-domain features. The (...)
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  36.  37
    Killer Robot Arms: A Case-Study in Brain–Computer Interfaces and Intentional Acts.David Gurney - 2018 - Minds and Machines 28 (4):775-785.
    I use a hypothetical case study of a woman who replaces here biological arms with prostheses controlled through a brain–computer interface the explore how a BCI might interpret and misinterpret intentions. I define pre-veto intentions and post-veto intentions and argue that a failure of a BCI to differentiate between the two could lead to some troubling legal and ethical problems.
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  37.  6
    Target-Related Alpha Attenuation in a Brain-Computer Interface Rapid Serial Visual Presentation Calibration.Daniel Klee, Tab Memmott, Niklas Smedemark-Margulies, Basak Celik, Deniz Erdogmus & Barry S. Oken - 2022 - Frontiers in Human Neuroscience 16.
    This study evaluated the feasibility of using occipitoparietal alpha activity to drive target/non-target classification in a brain-computer interface for communication. EEG data were collected from 12 participants who completed BCI Rapid Serial Visual Presentation calibrations at two different presentation rates: 1 and 4 Hz. Attention-related changes in posterior alpha activity were compared to two event-related potentials : N200 and P300. Machine learning approaches evaluated target/non-target classification accuracy using alpha activity. Results indicated significant alpha attenuation following target letters (...)
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  38.  15
    Brain to Brain Interfaces (BBIs) in future military operations; blurring the boundaries of individual responsibility.Sahar Latheef - 2022 - Monash Bioethics Review 41 (1):49-66.
    Developments in neurotechnology took a leap forward with the demonstration of the first Brain to Brain Interface (BBI). BBIs enable direct communication between two brains via a Brain Computer Interface (BCI) and bypasses the peripheral nervous system. This discovery promises new possibilities for future battlefield technology. As battlefield technology evolves, it is more likely to place greater demands on future soldiers. Future soldiers are more likely to process large amounts of data derived from an extensive (...)
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  39. Bonding Brains to Machines: Ethical Implications of Electroceuticals for the Human Brain.Jens Clausen - 2013 - Neuroethics 6 (3):429-434.
    Novel neurotechnologies like deep brain stimulation and brain-computer interfaces promise clinical benefits for severely suffering patients. Nevertheless, such electroceuticals raise several ethical issues on different levels: while on the level of clinical neuroethics issues with direct relevance for diagnosis and treatment have to be discussed, on the level of research neuroethics questions regarding research and development of these technological devices like investigating new targets and different diseases as well as thorough inclusion criteria are dealt with. On the level (...)
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  40. Unifying Approaches to the Unity of Consciousness Minds, Brains and Machines Susan Stuart.Brains Minds - 2005 - In L. Magnani & R. Dossena (eds.), Computing, Philosophy and Cognition. pp. 4--259.
     
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  41. Brain to computer communication: Ethical perspectives on interaction models. [REVIEW]Guglielmo Tamburrini - 2009 - Neuroethics 2 (3):137-149.
    Brain Computer Interfaces (BCIs) enable one to control peripheral ICT and robotic devices by processing brain activity on-line. The potential usefulness of BCI systems, initially demonstrated in rehabilitation medicine, is now being explored in education, entertainment, intensive workflow monitoring, security, and training. Ethical issues arising in connection with these investigations are triaged taking into account technological imminence and pervasiveness of BCI technologies. By focussing on imminent technological developments, ethical reflection is informatively grounded into realistic protocols of brain-to-computer (...)
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  42. Artificial Brains and Hybrid Minds.Paul Schweizer - 2017 - In Vincent C. Müller (ed.), Philosophy and theory of artificial intelligence 2017. Berlin: Springer. pp. 81-91.
    The paper develops two related thought experiments exploring variations on an ‘animat’ theme. Animats are hybrid devices with both artificial and biological components. Traditionally, ‘components’ have been construed in concrete terms, as physical parts or constituent material structures. Many fascinating issues arise within this context of hybrid physical organization. However, within the context of functional/computational theories of mentality, demarcations based purely on material structure are unduly narrow. It is abstract functional structure which does the key work in characterizing the respective (...)
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  43.  12
    Brain-State Transitions, Responsibility, and Personal Identity.Stephen Rainey, Karmele Olaciregui Dague & Roger Crisp - 2022 - Cambridge Quarterly of Healthcare Ethics 31 (4):453-463.
    This article examines the emerging possibility of “brain-state transitioning,” in which one brain state is prompted through manipulating the dynamics of the active brain. The technique, still in its infancy, is intended to provide the basis for novel treatments for brain-based disorders. Although a detailed literature exists covering topics around brain-machine interfaces, where targets of brain-based activity include artificial limbs, hardware, and software, there is less concentration on the brain itself as a (...)
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  44.  24
    Brain Gene Transfer and Brain Implants.Rolando Meloni, Jacques Mallet & Nicole Faucon Biguet - 2010 - Studies in Ethics, Law, and Technology 4 (3).
    Information and communication technologies , with their increasing and widespread utilization in daily life, may exert an important impact on brain performances. The development of their use for improving several cerebral processes, by abolishing the brain/machine interface, is envisaged and is subject to debate. The scientific research on brain implants and brain gene transfer aiming to restore central nervous system functions, altered by disease or trauma, may contribute to this debate. Indeed, the advances that (...)
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  45.  10
    Theater of MachinesJohn Tresch. The Romantic Machine: Utopian Science and Technology after Napoleon. xvii + 449 pp., illus., bibl., index. Chicago/London: University of Chicago Press, 2012. $45. [REVIEW]Robert Brain - 2015 - Isis 106 (2):401-405.
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  46.  13
    Feasible Mind Uploading.Randal A. Koene - 2014-08-11 - In Russell Blackford & Damien Broderick (eds.), Intelligence Unbound. Wiley. pp. 90–101.
    The aim here is to implement intelligence in an engineered processing substrate – a machine mind, as it were. This solution is clearly related to work in artificial intelligence (AI) and shares many of its analytical requirements and synthesis goals, but the objective is unambiguously to make individual human minds independent of a single substrate. Brainmachine interfaces require adaptations for communication to be possible, emphasizing either the machine or the brain. Brain emulation on general‐purpose (...)
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  47. Emotional empathy transition patterns from human brain responses in interactive communication situations.Tomasz M. Rutkowski, Andrzej Cichocki, Danilo P. Mandic & Toyoaki Nishida - 2011 - AI and Society 26 (3):301-315.
    The paper reports our research aiming at utilization of human interactive communication modeling principles in application to a novel interaction paradigm designed for brain–computer/machine-interfacing (BCI/BMI) technologies as well as for socially aware intelligent environments or communication support systems. Automatic procedures for human affective responses or emotional states estimation are still a hot topic of contemporary research. We propose to utilize human brain and bodily physiological responses for affective/emotional as well as communicative interactivity estimation, which potentially could be (...)
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  48. Neural reuse: A fundamental organizational principle of the brain.Michael L. Anderson - 2010 - Behavioral and Brain Sciences 33 (4):245.
    An emerging class of theories concerning the functional structure of the brain takes the reuse of neural circuitry for various cognitive purposes to be a central organizational principle. According to these theories, it is quite common for neural circuits established for one purpose to be exapted (exploited, recycled, redeployed) during evolution or normal development, and be put to different uses, often without losing their original functions. Neural reuse theories thus differ from the usual understanding of the role of neural (...)
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  49. Data Mining the Brain to Decode the Mind.Daniel Weiskopf - forthcoming - In Neural Mechanisms: New Challenges in the Philosophy of Neuroscience.
    In recent years, neuroscience has begun to transform itself into a “big data” enterprise with the importation of computational and statistical techniques from machine learning and informatics. In addition to their translational applications such as brain-computer interfaces and early diagnosis of neuropathology, these tools promise to advance new solutions to longstanding theoretical quandaries. Here I critically assess whether these promises will pay off, focusing on the application of multivariate pattern analysis (MVPA) to the problem of reverse inference. I (...)
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  50.  19
    Envisioning Intention-Oriented Brain-to-Speech Decoding.L. Li, J. Vasil & S. Negoita - 2019 - Journal of Consciousness Studies 27 (1-2):71-93.
    The typical approach to decoding speech from the brain (using brain-machine interfaces) is to decode low-level linguistic units (e.g. phonemes, syllables) from motor articulation areas (e.g. Premotor cortex) with the aim of assembling these low-level units into higher-level discourse. We propose that brain-to-speech decoding may benefit from adopting a functional view of language, which conceives of language as an instrumental tool for interacting with others' intentions in order to fulfil one's own intentions. This functional view of (...)
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