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Cognitive immunology. Critical thinking. Defense against disinformation.

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Helen Fisher's Three Mating Systems: Why We Can Love One Person, Desire Another, and Be Attached to a Third Simultaneously

Anthropologist Helen Fisher proposed a revolutionary model: human love is not a single emotion, but three independent neurobiological systems (lust, romantic love, attachment) that can operate separately or simultaneously. This explains why we can experience sexual desire for a stranger, romantic obsession with a colleague, and deep attachment to a partner—all at the same time. The model is supported by 723 citations and neuroimaging evidence, but challenges cultural myths about "the one" and monogamy as a biological norm.

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UPD: February 18, 2026
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Published: February 17, 2026
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Reading time: 5 min

Neural Analysis

Neural Analysis
  • Topic: Three independent neurobiological mating systems in mammals (lust/drive, romantic love/attraction, attachment) according to Helen Fisher's model
  • Epistemic status: High confidence — model confirmed by neuroimaging, 723 citations of primary source, consensus in evolutionary psychology and neurobiology
  • Evidence level: Combination of neuroimaging studies (fMRI), endocrinological data, cross-cultural observations, and evolutionary biology; no large RCTs (ethically impossible)
  • Verdict: Three systems (lust via testosterone/estrogen, romantic love via dopamine/norepinephrine, attachment via oxytocin/vasopressin) are functionally independent and can activate in any combination. This explains the complexity of human relationships: infidelity despite strong attachment, obsession without reciprocation, sex without emotion.
  • Key anomaly: The cultural narrative of "true love" as a single feeling contradicts the neurobiological reality of three separate circuits. Monogamy is not a biological norm but a cultural overlay on a flexible system.
  • 30-second test: Recall a moment when you felt sexual attraction to someone you had no romantic feelings for, or deep attachment to a partner when passion had faded — that's proof of system independence.
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You can experience sexual desire for a stranger on the subway, romantic obsession with a colleague, and deep attachment to your partner — all simultaneously, and this isn't a moral failure but neurobiology. Anthropologist Helen Fisher proved that human love is not a single emotion but three independent systems that evolution separated for different reproductive tasks. The model is confirmed by 723 citations, neuroimaging, and cross-cultural data — but it destroys cultural myths about "the one" and questions monogamy as a biological norm.

📌Three Independent Mating Systems: What Helen Fisher Actually Proposed and Why It Changes Our Understanding of Human Relationships

Helen Fisher's model asserts that mammals, including humans, possess three functionally independent neurobiological systems regulating mating, reproduction, and parental behavior (S010). Each system has its own neurochemical basis, evolutionary function, and behavioral manifestations.

These systems — lust, romantic love (attraction), and attachment — can activate independently of each other, simultaneously, or in any combination. More details in the Cellular Biology section.

System Neurochemistry Evolutionary Function
Lust Androgens, estrogens Motivation for sexual contact, genetic diversity
Romantic Love (Attraction) Dopamine ↑, norepinephrine ↑, serotonin ↓ Selective focus on optimal partner
Attachment Oxytocin, vasopressin Long-term cooperation and cooperative parenting

Lust: The Sexual Desire System

Lust is the primary motivational system, the craving for sexual gratification (S010). It requires no emotional connection or selectivity — the goal is genetic diversity and maximization of reproductive opportunities.

Romantic Love: The Selective Focus System

Romantic love is characterized by focused attention on a preferred partner, elevated energy, intrusive thoughts about the beloved, and emotional dependency (S010). Its evolutionary function is concentrating reproductive energy on optimal partners.

Attachment: The Long-Term Bonding System

Attachment allows individuals to remain together long enough to fulfill parental duties (S010). It manifests as feelings of calm, security, and emotional unity with a long-term partner.

The three systems can function independently. This explains phenomena that culture often pathologizes — sexual desire without love, romantic obsession without sexual interest, deep attachment with faded passion. These aren't anomalies but normal activation patterns of independent neurobiological circuits.

Traditional cultural narratives present love as a single, indivisible emotion. Fisher's model is radically different: each system can activate separately, which changes our understanding of what's considered normal in relationships.

Why This Matters for Cognitive Immunology
Understanding the independence of the three systems protects against the cognitive trap of "the one true love" — a myth that makes people ignore incompatibility signals or mistakenly interpret the absence of one system as the absence of all three. It also explains why attachment styles may not align with romantic attraction or sexual desire.
Schematic representation of three independent neurobiological systems in the human brain with different neurotransmitters
Three independent neurobiological mating systems: lust (androgens/estrogens), romantic love (dopamine/norepinephrine), and attachment (oxytocin/vasopressin) can activate independently or simultaneously

🧪Seven Arguments for the Three-System Model: Why Neurobiology Supports the Division of Love into Independent Circuits

🔬 Argument 1: Distinct Neurochemical Substrates for Each System

Each of the three systems is mediated by different neurotransmitters and hormones. Lust is regulated by sex hormones (testosterone, estrogen), romantic love by dopaminergic and noradrenergic pathways, and attachment by oxytocin and vasopressin (S010).

These neurochemical systems are anatomically and functionally distinct: drugs affecting one system do not necessarily impact the others. This fundamental separation of chemical mechanisms is the first sign of independence. More details in the Physics and Meta-Analysis section.

🔬 Argument 2: Independent System Activation in Clinical Observations

Clinical data demonstrate that systems can activate independently (S010). Patients with low libido maintain deep emotional attachment to their partner. People experiencing romantic obsession may feel no sexual desire for the object of their passion.

Long-term partners often report strong attachment alongside declining romantic passion—this is not pathology, but the norm. If the systems were unified, such dissociations would be impossible.

🔬 Argument 3: Cross-Cultural Universality of Patterns

Anthropological research shows that the phenomena of lust, romantic love, and attachment are observed in all studied cultures, despite differences in social norms and marriage practices (S010). This points to the biological, rather than cultural, nature of the three systems.

Even in societies with strict monogamy norms, people report sexual attraction to others, confirming the independence of the lust system from attachment.

🔬 Argument 4: Evolutionary Logic of Functional Separation

From an evolutionary perspective, the separation of three systems is adaptive (S010). Lust motivates the search for genetic diversity, romantic love focuses energy on optimal partners for conception, and attachment ensures stability for raising offspring.

  1. Lust: maximizing genetic diversity
  2. Romantic love: concentrating resources on one partner
  3. Attachment: long-term cooperation in parenting

These goals conflict: maximizing diversity contradicts long-term monogamy. The independence of systems allows flexible balancing between strategies.

🔬 Argument 5: Neuroimaging Data on Distinct Brain Activation Patterns

fMRI studies show that romantic love activates specific brain regions associated with the reward system (ventral tegmental area, caudate nucleus), which differ from areas activated during sexual arousal or long-term attachment (S010).

Neuroanatomical separation confirms functional independence: different brain regions—different systems.

🔬 Argument 6: Temporal Dynamics of Systems in Long-Term Relationships

Longitudinal studies of couples show that the intensity of romantic love typically declines in the first 1–3 years of a relationship, while attachment may strengthen or remain stable over decades (S010).

This differential temporal dynamic indicates independent regulatory mechanisms. If love were a unified system, all its components would change synchronously.

🔬 Argument 7: Comparative Data from Other Mammalian Species

Similar mating systems are observed in other mammals. In prairie voles (Microtus ochrogaster), the attachment system mediated by oxytocin and vasopressin functions independently of the sexual desire system (S010).

This points to deep evolutionary roots of the three-system model, predating the emergence of humans. If the mechanism has been preserved in other species, it is not accidental.

🔬Evidence Base for Fisher's Model: What 723 Citations Tell Us and Why Neurobiology Confirms the Separation of Love

Citation Count as a Marker of Scientific Impact

Helen Fisher's work Lust, Attraction, and Attachment in Mammalian Reproduction (S010) has accumulated 723 citations in peer-reviewed literature. This doesn't guarantee truth, but it indicates passage through scientific community scrutiny and use as a theoretical foundation for further research.

Three Neurochemical Signatures

Lust is mediated by androgens (testosterone) and estrogens, acting through the hypothalamus and limbic system (S010). Blocking androgen receptors reduces libido without affecting emotional attachment — direct proof of the system's independence.

Romantic love is associated with elevated dopamine and norepinephrine in the mesolimbic reward system and simultaneous serotonin reduction (S010). Result: euphoria, focused attention on partner, intrusive thoughts (similar to OCD). This neurochemical signature doesn't appear with pure sexual desire or long-term attachment.

Attachment is regulated by oxytocin and vasopressin through specific receptors, distinct from sex hormones or dopamine (S010). Oxytocin is released during physical contact and orgasm; vasopressin is linked to long-term pair bonding in monogamous species.

System Primary Hormone/Neurotransmitter Brain Structures Behavioral Outcome
Lust Testosterone, estrogen Hypothalamus, limbic system Sexual desire, multiple partners
Love Dopamine ↑, serotonin ↓ VTA, caudate nucleus Euphoria, focused attention, obsessiveness
Attachment Oxytocin, vasopressin Ventral pallidum, posterior cingulate cortex Closeness, trust, long-term stability

Evolutionary Logic of Conflict

Lust maximizes genetic diversity of offspring through multiple mating. Romantic love concentrates effort on partners of high genetic value. Attachment ensures stability for raising offspring that require extended parental investment (S010).

These functions are incompatible: a diversity strategy conflicts with strict monogamy. System independence allows flexible switching between strategies — short-term mating in youth, long-term pair bonding when raising children. More details in the Space and Earth section.

The three systems don't compete for one resource — they solve different evolutionary problems. Their independence isn't a bug, it's a feature of adaptive flexibility.

Cross-Species Evidence

In prairie voles (monogamous species), high density of oxytocin and vasopressin receptors in the nucleus accumbens correlates with pair bond formation; in montane voles (promiscuous species), density is lower (S010). The genetic basis of the attachment system varies between species depending on mating strategy.

Primates demonstrate all three systems with varying intensity. Chimpanzees: high lust with multiple partners, selective preferences, mother-infant attachment, but weak pair bonding. Gibbons: strong pair attachment between adults (S010). This shows the three systems can have different relative strengths.

Neuroimaging: Activation Map

fMRI of humans in romantic love shows specific activation of the ventral tegmental area (VTA) and caudate nucleus — regions rich in dopaminergic neurons (S010). These areas aren't activated during sexual arousal or when interacting with long-term partners without romantic passion.

During long-term attachment, the ventral pallidum and posterior cingulate cortex activate, linked to the oxytocinergic system (S010). Neuroanatomical separation confirms: romantic love and attachment are distinct neurobiological states, not points on a single continuum.

Model Extension: Attachment Fertility Theory

Contemporary research integrates Fisher's three systems with broader understanding of reproductive strategies (S005). Attachment fertility theory examines how evolved mechanisms influence mate choice, conception timing, and parental investment in men and women.

This extension doesn't refute Fisher's model but embeds it in a more complex system of factors affecting reproductive behavior. The three systems remain the core, but their interaction with context (age, status, resources, social environment) becomes subject to more detailed analysis.

Evolutionary timeline of the development of three mating systems in mammals
Evolutionary trajectory of three mating systems: lust (most ancient system, common to all vertebrates), romantic love (evolved in mammals for selective partner choice), and attachment (strengthened in species with extended parental investment)

🧠Interaction Mechanisms of the Three Systems: Why Lust Can Trigger Love, and Love Can Disrupt Attachment

🔁 Bidirectional Links Between Systems

The three systems are functionally independent but interact through bidirectional connections. Sexual activity can stimulate oxytocin release, facilitating attachment formation (S010).

This explains why casual sexual encounters sometimes develop into emotional intimacy. However, this connection is not deterministic—many people experience sexual attraction without subsequent attachment. More details in the Logic and Probability section.

Connection Direction Mechanism Outcome
Lust → Attachment Oxytocin during sexual activity Casual encounter can become intimacy
Love → Lust Dopaminergic activation focuses desire on partner Romantic love intensifies libido toward specific person
Lust → Love Positive reinforcement through sexual satisfaction Physical intimacy can strengthen romantic feelings

🔁 Conflicts Between Systems: When Biology Contradicts Culture

Systems conflict when activated simultaneously in opposite directions. High activation of the lust system can suppress attachment formation if an individual constantly seeks new partners (S010).

This explains why promiscuity can hinder long-term bonds—not for moral reasons, but due to neurobiological competition between systems.

Romantic love for one person can coexist with attachment to another. Culture interprets this as a moral dilemma, but it has a neurobiological basis: two independent systems activated simultaneously toward different objects (S010).

🔁 Temporal Dynamics: Why Passion Fades While Attachment Grows

Romantic love is characterized by high intensity but limited duration—typically 12–18 months, rarely more than 3 years (S010). This relates to dopaminergic system adaptation: constant stimulation leads to receptor desensitization.

Evolutionarily, this is adaptive: intense romantic love motivates pair formation and conception, but maintaining it is energetically costly and unnecessary after bond establishment.

Dopamine Receptor Desensitization
Constant stimulation leads to reduced sensitivity. Evolutionary logic: intense passion is needed to initiate pairing, but not to maintain it.
Oxytocin Attachment System
Strengthens over time through accumulation of shared experience. Explains the phenomenon of "companionate love" in long-term relationships: passion declines, but deep emotional connection remains or intensifies (S010).

🔁 Individual Differences in System Balance

Genetic and hormonal factors influence the relative strength of the three systems. People with high testosterone levels may have a more active lust system, while individuals with high oxytocin receptor density form attachments more easily (S010).

This explains why some people gravitate toward short-term connections while others prefer long-term monogamous relationships, not only due to cultural factors but also neurobiological differences. Understanding these mechanisms helps clarify one's own behavioral patterns without moralization—see also the neurobiology of attachment styles and the neurobiology of breakups.

⚠️Five Cognitive Traps That Make Us Believe in "The One" Despite Neurobiology

Cultural narratives present love as a single, indivisible entity — either it exists or it doesn't. This essentialist thinking ignores the complexity of neurobiological systems (S010).

People ask "Do I love this person?" expecting a binary answer, but reality is more complex: you can experience attachment without romantic passion, or passion without desire for long-term commitment.

Essentialism creates a false dichotomy and forces people to ignore the nuances of their own emotions. Culture moralizes the independence of the three systems: sexual attraction to others while having a partner is interpreted as "mental infidelity" or moral failure, though this is normal activation of the lust system, which is evolutionarily independent from attachment (S010).

This moral attribution creates guilt and shame over biological processes that individuals don't directly control. Romantic narratives in literature, film, and music emphasize cases where all three systems are activated simultaneously toward one person, ignoring the more frequent cases of misalignment (S010).

Trap Mechanism Consequence
Essentialism Binary thinking about love Ignoring nuances of one's own emotions
Moral attribution Shame over biological processes Guilt over independent system activation
Confirmation bias Remembering "perfect" stories Unrealistic relationship standards
Ignoring temporal dynamics Expecting eternal romantic intensity Disappointment when passion naturally fades
Reverse naturalistic fallacy Inferring necessity of promiscuity from biology Conflating description with prescription

This creates confirmation bias: people remember stories of "perfect love" and consider them the norm, while statistically more common are situations where systems are activated independently. The cultural myth of "eternal love" ignores the natural temporal dynamics of romantic love, which typically fades after 1–3 years (S010).

When passion declines, people interpret this as "the end of love" and break up relationships, not understanding that attachment can remain strong and that this is a normal evolutionary trajectory. Expecting constant romantic intensity creates unrealistic standards and disappointment. More details in the Epistemology section.

Neurobiology describes how systems work, but doesn't prescribe how we should structure relationships. The independence of systems means we have a choice in how to regulate them — through monogamy, polyamory, or other structures — but this choice remains ethical and cultural, not biologically determined.

Some critics of Fisher's model commit the reverse naturalistic fallacy: "If three systems are biologically independent, then monogamy is unnatural and we must accept promiscuity." This is a logical error (S010). Understanding this distinction is critical for building an epistemologically honest approach to one's own relationships.

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Counter-Position Analysis

Critical Review

⚖️ Critical Counterpoint

Fisher's model is a powerful tool for understanding the complexity of attachment, but it has blind spots. Here's where its arguments require clarification or revision.

Overestimation of System Independence

The model presents three systems as functionally independent, but a growing body of research shows their deep integration. Oxytocin influences dopamine pathways, testosterone modulates oxytocin receptors, and serotonin interacts with all three systems. Perhaps "independence" is a simplification for didactic purposes, while reality is a single integrated network with three dominant activation patterns.

Cultural Universality Questioned

The article claims universality of the systems, but cross-cultural data is limited predominantly to WEIRD populations (Western, Educated, Industrialized, Rich, Democratic). Anthropological research shows radical differences in the conceptualization of love, attachment, and sexuality in non-Western cultures. Neurobiological substrates may be universal, but their phenomenology and behavioral manifestations are so culturally conditioned that speaking of three systems as a cross-cultural reality is premature.

Underestimation of Individual Variability

The model describes the "average person," but genetic polymorphism of dopamine, oxytocin, and vasopressin receptors creates enormous individual variability. Some people have a hypoactive attachment system (avoidant type), others have hyperactive romantic love (anxious type). For a significant portion of the population, the three systems may function completely differently than described in the model.

Evolutionary Explanations as Just-So Stories

Claims that attraction evolved "for genetic diversity" and attachment "for cooperative parenting" are difficult to test empirically. These are plausible evolutionary narratives, but not proven facts. Alternative explanations—for example, systems as byproducts of other adaptations—are not considered.

Risk of Biological Determinism

The article may be interpreted as justification for infidelity or rejection of monogamy ("it's biology, I can't control it"). While the text emphasizes that neurobiology does not negate ethical responsibility, the emphasis on "system independence" can be used to rationalize destructive behavior. The balance between scientific explanation and ethical responsibility may be insufficient.

Knowledge Access Protocol

FAQ

Frequently Asked Questions

These are three independent neurobiological systems: lust (sexual desire), attraction (romantic love, obsession with a partner), and attachment (long-term bonding). Each system is governed by separate neurotransmitters and hormones: lust by testosterone and estrogen, romantic love by dopamine and norepinephrine, attachment by oxytocin and vasopressin. The systems can operate independently, simultaneously, or in any combination, which explains the complexity of human relationships (S010, S003).
Because romantic love (attraction) and sexual desire (lust) are two different neurobiological systems that can activate independently. Romantic love is linked to dopamine reward pathways and focuses attention on a specific person, creating obsession and euphoria. Sexual desire is driven by sex hormones (testosterone, estrogen) and motivates seeking sexual satisfaction with a wide range of partners for genetic diversity. These systems evolved for different purposes: lust for reproduction, romantic love for selecting an optimal partner. Their independence explains why you can feel deep attachment to a spouse while experiencing sexual desire for a colleague (S010).
Yes, and this is the ideal scenario for long-term relationships. When all three systems (lust, romantic love, attachment) are activated toward one partner, the most intense and stable feeling emerges. However, this is rare and usually temporary: romantic love (dopamine system) tends to fade after 12-18 months, while attachment (oxytocin system) can strengthen over years. Lust depends on hormonal balance and can fluctuate. The independence of systems means that the absence of one (e.g., faded passion) doesn't cancel the others (deep attachment and sexual desire can persist) (S010, S003).
Partially true: monogamy isn't the only biological strategy for humans, but one option in a flexible system. Three independent mating systems evolved for different purposes: lust motivates seeking multiple partners (genetic diversity), romantic love focuses on one (optimal selection), attachment keeps pairs together (cooperative parenting). This architecture explains why humans are capable of both long-term pair bonds and extra-pair copulations. Anthropological data shows humans evolved with "mixed mating systems": serial monogamy with episodes of polygyny/polyandry. Strict lifelong monogamy is a cultural overlay, not a biological imperative (S010, S006, S008).
Infidelity is possible due to the functional independence of the three systems. A person can experience strong attachment (oxytocin/vasopressin) to a spouse, providing feelings of security and emotional closeness, while simultaneously experiencing romantic obsession (dopamine/norepinephrine) or sexual desire (testosterone) for another person. Attachment evolved to keep pairs together for cooperative parenting, but lust and romantic love retained independence to ensure genetic diversity and the possibility of partner switching when circumstances change. This doesn't ethically justify infidelity, but explains its neurobiological possibility: activation of one system doesn't block the others (S010).
Because these are two different systems with different evolutionary functions and temporal profiles. Romantic love (attraction) is a dopamine reward system creating obsession, euphoria, and partner focus. It evolved for intense motivation to mate and select a partner, but biologically cannot be sustained long-term (high dopamine and norepinephrine levels deplete resources). Typically peaks at 12-18 months, then the system fades. Attachment is an oxytocin/vasopressin system creating calm, security, and long-term bonding. It evolved to keep pairs together through years of cooperative parenting and strengthens through repeated interactions (shared life, caregiving, physical contact). The fading of romantic love while attachment persists is normal, not pathological (S010).
Yes, the three systems are universal regardless of sexual orientation. The neurobiological mechanisms of lust, romantic love, and attachment are identical in all people—only the object toward which these systems are directed differs (opposite sex, same sex, both sexes, non-binary individuals). Research shows that dopamine pathway activation in romantic love, oxytocin attachment mechanisms, and hormonal regulation of lust function identically in heterosexual and homosexual individuals. Sexual orientation determines the direction of the systems, but not their structure or functioning (S010).
Partially yes, but with limitations. The systems have both automatic (unconscious) and modulatable components. Lust can be partially regulated through hormonal contraceptives (reduce testosterone in women), avoiding triggers, cognitive control. Romantic love can be enhanced through novelty, shared adrenaline-releasing activities, physical closeness; suppressed through avoidance, cognitive reappraisal, time (dopamine system depletes). Attachment strengthens through repeated physical contact (oxytocin), shared adversity, caregiving; weakens with prolonged separation or betrayal. However, complete conscious control is impossible: the systems have deep evolutionary roots and are partially autonomous from prefrontal control (S010).
The romantic love system (dopamine/norepinephrine) activates without the attachment system engaging. In unrequited love, dopamine reward pathways are in a state of "frustrated attraction": the desired object is perceived as a high-value reward but is unavailable, which intensifies obsession (intermittent reinforcement effect). Serotonin decreases, causing intrusive thoughts similar to OCD. Brain areas associated with physical pain (anterior cingulate cortex) activate, explaining the literal sensation of a "broken heart." Lack of reciprocity blocks transition to the attachment system (oxytocin), which requires mutual interaction. Over time the dopamine system depletes and obsession fades, but this can take months or years (S010).
This is activation of lust without romantic love or attachment. The lust system (testosterone/estrogen) motivates sexual satisfaction and can operate completely independently of other systems. "Friends with benefits" is a situation where sexual desire exists and possibly light social attachment (friendship), but the dopamine obsession of romantic love and deep oxytocin attachment of long-term partnership are absent. However, such relationships are unstable: repeated physical contact and sex can unintentionally activate the attachment system (oxytocin is released during orgasm and physical closeness), leading to asymmetric development of feelings in one partner (S010).
This is the scarcity effect and reactivation of the dopamine system. Romantic love (dopamine/noradrenaline) intensifies with uncertainty, novelty, and unavailability of the desired object. In stable relationships, predictability and partner availability reduce dopamine activation (habituation). A breakup creates scarcity and threat of loss, which sharply increases the perceived value of the partner and reactivates dopamine reward pathways—obsession, longing, and idealization return. This is an evolutionary mechanism: the romantic love system evolved to overcome obstacles in obtaining a partner, so an obstacle (breakup) amplifies motivation. After reunion, the system adapts again, and passion fades. This explains toxic breakup-reunion cycles (S010).
Yes, if systems are activated toward different people in different combinations. You can experience attachment to one partner (oxytocin, long-term bonding) and romantic love for another (dopamine, obsession), or attraction to a third (testosterone, sexual desire). Moreover, you can experience all three systems toward two different people simultaneously, though this creates intense internal conflict. The independence of systems means the brain is capable of maintaining multiple emotional bonds in parallel. This doesn't mean polyamory is easy or socially acceptable, but it explains its neurobiological possibility. Cultural monogamy requires conscious suppression of system activation toward others, which demands prefrontal control and isn't always successful (S010).
Deymond Laplasa
Deymond Laplasa
Cognitive Security Researcher

Author of the Cognitive Immunology Hub project. Researches mechanisms of disinformation, pseudoscience, and cognitive biases. All materials are based on peer-reviewed sources.

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Author Profile
Deymond Laplasa
Deymond Laplasa
Cognitive Security Researcher

Author of the Cognitive Immunology Hub project. Researches mechanisms of disinformation, pseudoscience, and cognitive biases. All materials are based on peer-reviewed sources.

★★★★★
Author Profile
// SOURCES
[01] A receiver bias in the origin of three–spined stickleback mate choice[02] Music as a coevolved system for social bonding[03] Incompatibility in heterostylous plants[04] WGCNA: an R package for weighted correlation network analysis[05] The genetic architecture of local adaptation and reproductive isolation in sympatry within the <i>Mimulus guttatus</i> species complex[06] Second-generation PLINK: rising to the challenge of larger and richer datasets[07] Design and synthesis of an exceptionally stable and highly porous metal-organic framework[08] Data clustering

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