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Activating Your Body'sNatural Cancer Killers

If you or someone you love is facing cancer, join Dr. Sosa for a clear, no-pressure explanation of non-toxic, immune-based options — NK cell therapy, immunotherapy, and Cytotron — and how to understand whether they might fit your situation.

DateThursday, June 11
Time11:00 AM CDMX
WhereLive on Zoom
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Your 60 Minutes With Dr. Sosa

What You'll Discover

A clear, jargon-free walkthrough of the integrative science behind a non-toxic approach to cancer care — and what it could mean for you or someone you love.

01

How NK Cells Hunt Cancer

Why Natural Killer cells are a key part of your immune defense, and how they can be amplified, expanded, and reinfused to help recognize and target abnormal cells while aiming to limit harm to healthy tissue. (Investigational; not FDA-approved.)

02

Immunotherapy, Unlocked

How checkpoint inhibitors like OPDIVO® (nivolumab, FDA-approved) remove the "brakes" cancer places on your immune system — and how LAK and Dendritic Cell therapies, which remain investigational, are being explored alongside them.

03

The Cytotron Approach

How RFQMR (Rotational Field Quantum Magnetic Resonance) technology — which holds an FDA Breakthrough Device designation (an investigational status, not FDA approval) — is being studied as a non-toxic approach in early clinical work.

04

Inside the 4-Week Program

What the Integrative Oncology Program in Mexico City actually involves — 12 consultations, 24+ lab assessments, and how to know if you may qualify.

Run of Show · ~60 Minutes

The Webinar Agenda

A focused hour, ending with live time to get your questions answered by Dr. Sosa.

0:00Welcome

Why the Immune System Holds the Key

The philosophy behind integrative oncology and what makes a non-toxic approach different.

0:10Science

NK Cells & Immunotherapy, Explained Simply

How NK, LAK, and Dendritic cell therapies — plus checkpoint inhibitors — turn your own defenses against cancer.

0:25Technology

The Cytotron RFQMR Breakthrough

A look at this FDA Breakthrough Device–designated (investigational) technology and the tumor types being studied.

0:38Program

Inside the 4-Week Mexico City Program

The patient journey, candidacy, and what to expect — step by step.

0:48Live Q&A

Ask Dr. Sosa Anything

Open floor — bring your questions for a real, unscripted conversation.


The Science We'll Cover

Three Pillars of Integrative Immunotherapy

Each works with your body — not against it — and each amplifies the others.

Cellular Therapy

NK Cell Immunotherapy

Among the immune system's first-line defenders, expanded ex vivo and reinfused to help recognize signals on stressed or abnormal cells, with the aim of limiting harm to healthy tissue. NK cell therapy for solid tumors is investigational and not FDA-approved.

FDA Breakthrough Device Designation

Cytotron RFQMR

A non-invasive technology that, in early and largely uncontrolled studies, has been associated with tumor stabilization and improved quality of life in some patients. It is being studied as a non-toxic, investigational approach.

Whole-Person Protocol

Integrative Oncology

A synergistic 4-week program combining immunotherapy, metabolic and microbiome support, nutrition, and emotional healing — personally overseen by Dr. Sosa.

Explore in 3D · interactive

The mechanisms, at molecular scale

Drag to rotate each model. These are simplified, science-based depictions of how each approach is understood to work — down to the proteins involved.

drag to rotate
Cellular therapy · innate immunity

How an NK cell kills a cancer cell

Natural Killer cells weigh signals from activating and inhibitory receptors. Healthy cells display MHC class I "self" tags that quiet NK cells; many stressed or transformed cells lose them — the "missing-self" trigger — while showing stress ligands that NK activating receptors detect.

1 Inhibitory receptors (KIR, NKG2A) scan for MHC class I; when it is missing or reduced, the "off" signal drops.
2 Activating receptors (e.g. NKG2D) engage stress ligands such as MICA/MICB, tipping the balance toward a kill.
3 The NK cell forms a synapse and releases perforin and granzyme B, which activate caspases and drive the target into apoptosis.
At the molecular level: perforin polymerizes into Ca²⁺-dependent pores; granzyme B enters and cleaves caspase-3/-7 and BID → tBID, triggering mitochondrial permeabilization, cytochrome-c release and the apoptosome. Tumor XIAP can restrain caspases; mitochondrial Smac/DIABLO relieves that brake.
NK cellTarget · low MHC-Iperforin poregranzyme B

Simplified model. NK cell therapy for solid tumors is investigational and not FDA-approved.

The science, visualized

See how it actually works

Three mechanisms, drawn simply. Tap each to explore what we'll walk through live — in plain language.

few "self" (MHC-I) signals NK cell activating + inhibitory receptors Abnormal cell
Cellular therapy

How NK cells spot trouble

Natural Killer cells weigh activating signals against inhibitory ones. Healthy cells show MHC class I "self" markers that hold NK cells back; stressed or cancerous cells often lose them — a trigger immunologists call "missing-self".

1 NK cells patrol and sample the surface markers of nearby cells.
2 When inhibitory "self" (MHC-I) signals are missing, activating receptors win out.
3 The NK cell releases cytotoxic granules (perforin & granzymes) that trigger the target's self-destruct (apoptosis), aiming to spare healthy cells.

Illustrative simplification. NK cell therapy for solid tumors is investigational and not FDA-approved.

An active frontier of science

A rapidly growing field of research

Immune-based and cell therapies are among the most active areas of cancer research worldwide. These figures describe the broader scientific fields the webinar explores — they are not a claim about any individual result.

8,000+
cancer immunotherapy studies registered
1,000+
studies involving NK (Natural Killer) cells
2,100+
immunotherapy trials actively recruiting

Source: ClinicalTrials.gov (U.S. National Library of Medicine), retrieved June 2026. Figures reflect the overall research fields and do not represent outcomes of the Pathways to Heal program.

Dr. Carlos Armando Sosa Luna, M.D., Medical Director
25+
Years Experience
10K+
Patients Treated
Your Presenter

Dr. Carlos Armando Sosa LunaM.D. · Medical Director

One of Mexico's most distinguished physicians in cellular therapy and integrative oncology, Dr. Sosa combines military surgical training with over 25 years of clinical experience and more than 10,000 patients treated.

His evidence-informed approach integrates cutting-edge immunotherapy with comprehensive, whole-person care. Dr. Sosa personally reviews every potential patient case — and in this live session he'll answer your questions directly.

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Thursday, June 11, 2026
11:00 AM Mexico City (CST)  ·  1:00 PM New York (EDT)
12:00 PM Chicago (CDT)  ·  10:00 AM Los Angeles (PDT)
Duration: ~60 minutes · Hosted live on Zoom
"From the moment I arrived, I knew I was in the right place. The integrative approach gave me hope when I thought I had run out of options."
★★★★★   Omar Rosales Sánchez, Patient

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From Our Patients

Stories of Healing

In their own words — patients and families on their experience with Dr. Sosa and the team.

Verified

"The doctor is very humane and stabilized me — and today I am doing well. I am grateful every day."

Norma AndradePatient
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"The entire team treats you with warmth. I never felt like a number — I felt cared for, seen, and supported."

Erika DíazPatient
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"From the moment I arrived, I knew I was in the right place. The integrative approach gave me hope."

Omar Rosales SánchezPatient
25+
Years Experience
10K+
Patients Treated
6
Integrated Pathways
FDA
Breakthrough Device Designation
(investigational — not FDA approval)

Real patient experiences, shared with permission. Individual results vary and are not typical; testimonials describe personal experience and are not a promise of any outcome. NK‑cell, LAK and dendritic‑cell therapies and the integrative protocol are investigational and offered outside the U.S. — see the full medical disclaimer below.

Before You Join

Webinar Questions

Yes — completely free and no obligation. It's an educational session to help you understand integrative immunotherapy options. You're welcome to invite a spouse, family member, or caregiver.

Register anyway. Everyone who signs up receives a replay link by email, so you can watch when it's convenient. Attending live is best, though — that's your chance to ask Dr. Sosa questions directly.

After registering you'll receive a private Zoom link by email, plus reminders before the event. Just click the link at 11:00 AM Mexico City time on Thursday, June 11 from any phone, tablet, or computer.

The webinar explains who the Integrative Oncology Program is designed for and how candidacy is evaluated. Dr. Sosa personally reviews each individual case — the session is the perfect first step to understand your options.

NK cells are innate immune lymphocytes — the body's rapid-response "first responders." Unlike T cells, they don't need to be pre-trained against a specific target. They read two opposing signals on every cell: inhibitory signals from "self" markers called MHC class I, and activating signals from stress molecules (like MICA/MICB) that appear on damaged or transformed cells. Many tumor cells shed their MHC-I to hide from T cells — but that "missing self" is exactly what flips NK cells on. Once engaged, an NK cell releases perforin and granzymes that open the target's membrane and trigger apoptosis (programmed cell death). In cell therapy, NK cells are expanded outside the body and reinfused to increase their numbers and activity. (Investigational for solid tumors.)

Immune cells carry built-in "off switches" (checkpoints) that normally stop them from attacking healthy tissue. The PD-1 receptor on a T cell is one of these. Tumors exploit it by displaying the matching ligand, PD-L1 — pressing the brake so the immune cell powers down. OPDIVO® (nivolumab) is an FDA-approved anti-PD-1 antibody that physically caps PD-1 so PD-L1 can no longer engage it. The brake is released and the immune cell stays active against the tumor. Pairing checkpoint blockade with cell therapies (NK, LAK, dendritic-cell) is an area of active investigation.

The Cytotron is a non-invasive device based on Rotational Field Quantum Magnetic Resonance (RFQMR). It delivers focused, modulated radiofrequency energy intended to influence the cell's transmembrane potential and nudge dysregulated cells back toward their natural apoptosis (programmed-cell-death) pathways. It received an FDA Breakthrough Device Designation in 2019 for breast, liver, and pancreatic cancers. Important: a Breakthrough Device Designation is an expedited-review status for an investigational device — it is not FDA approval or clearance, and the published clinical evidence is early-stage and largely uncontrolled.

The process is a form of adoptive cell therapy. A starting population of NK cells is obtained — either from the patient (autologous) or a screened donor (allogeneic) — typically via a blood draw or leukapheresis. In a certified lab the cells are cultured ex vivo with cytokines such as interleukin-2 (IL-2) and interleukin-15 (IL-15), often alongside engineered feeder/antigen-presenting cells, which drives them to multiply many-fold and ramp up their cytotoxic machinery. After purity, viability, and sterility checks, the activated NK cells are reinfused intravenously so a larger, more active population is circulating. Because NK cells are short-lived, protocols often use repeated infusions. (Adoptive NK cell therapy is investigational for solid tumors and is not FDA-approved for these uses.)

They target different arms of the immune system. NK (Natural Killer) therapy amplifies innate \"first-responder\" cells that kill stressed or MHC-deficient cells without prior training. LAK (Lymphokine-Activated Killer) therapy takes a mixed population of lymphocytes (NK and T cells) and super-activates them with high-dose IL-2, producing broad cytotoxic activity. Dendritic-cell therapy works upstream and differently: dendritic cells are the immune system's \"teachers\" — they are loaded with tumor antigens and reinfused to train the patient's own T cells to recognize the cancer, more like a personalized therapeutic vaccine. An integrative protocol may combine these so innate killing, broad cytotoxicity, and antigen-specific training reinforce one another. (All three are investigational for these uses and not FDA-approved.)

Every living cell holds a small voltage across its membrane — the transmembrane potential — and rapidly dividing cells tend to sit in a more depolarized (less negative) state than mature, quiescent tissue. Rotational Field Quantum Magnetic Resonance (RFQMR) delivers focused, low-energy radiofrequency pulses tuned to a narrow resonance window, with the stated aim of perturbing that transmembrane potential in dysregulated cells and nudging them back toward their natural apoptosis (orderly programmed-cell-death) pathway rather than uncontrolled growth — while aiming to leave normal, slower-cycling tissue largely undisturbed. Important honesty note: this is the proposed mechanism, not a proven one. The Cytotron holds an FDA Breakthrough Device Designation (an expedited-review status for an investigational device — not approval or clearance), and the published human evidence is early-stage and largely uncontrolled.

They are two very different ways a cell can die. Apoptosis is programmed, orderly \"cellular self-destruct\": the cell shrinks, fragments its DNA, packages itself into tidy membrane-bound bodies, and is cleared quietly by the immune system — with little surrounding inflammation. Necrosis is uncontrolled cell rupture that spills the cell's contents and triggers inflammation and collateral damage. Many cancers survive partly by evading apoptosis. The therapies discussed in this webinar — from NK-cell killing (via perforin/granzyme signaling) to the Cytotron's proposed effect on transmembrane potential — are oriented toward restoring the apoptotic route, the body's own clean, controlled mechanism for removing abnormal cells. This is educational background, not a claim of guaranteed effect.

No. The webinar is educational and informational only. It is not a substitute for personalized medical advice, diagnosis, or treatment from a qualified provider.

The science, in depth

For those who want the molecular detail

Plain-language answers grounded in the published immunology literature — with citations you can look up yourself.

The Natural Killer cell first forms a tight contact zone — an immune synapse — with its target. Into that gap it secretes perforin, which polymerizes into pores in the target's membrane in a calcium-dependent way. Through (and triggered alongside) those pores, the enzyme granzyme B enters the target and cleaves caspase-3 and caspase-7 directly, and also cleaves BID to tBID. tBID drives mitochondrial outer-membrane permeabilization, releasing cytochrome c, which assembles the apoptosome and activates caspase-9. The result is apoptosis — orderly, self-contained cell death. Some tumors raise XIAP to block caspases; the mitochondrial protein Smac/DIABLO can neutralize XIAP and restore killing. This perforin/granzyme-B, caspase-dependent pathway is well documented in NK cytotoxicity studies. NK cell therapy for solid tumors remains investigational and is not FDA-approved.

Every NK cell runs a constant tally of activating versus inhibitory signals. Inhibitory receptors (the KIR family and NKG2A) recognize MHC class I "self" molecules that healthy cells display abundantly — a strong inhibitory signal that says "leave me alone." Many virally infected or transformed cells downregulate MHC class I to hide from T cells; paradoxically that removes the NK brake — the "missing-self" trigger first described by Kärre and colleagues. At the same time, stressed cells display activating ligands such as MICA/MICB and ULBPs, read by the activating receptor NKG2D. Only when activating signals outweigh inhibitory ones does the NK cell commit to a kill — which is how it spares normal tissue.

Apoptosis is programmed cell death: a controlled, ATP-dependent dismantling in which the cell shrinks, its DNA is cleaved, the membrane forms blebs, and "eat-me" signals (like surface phosphatidylserine) flag it for tidy removal by phagocytes — with little inflammation. That contrasts with necrosis, a messy rupture that spills contents and inflames surrounding tissue. Immune-based approaches aim to push abnormal cells down the apoptotic route specifically because it is targeted and self-limiting.

Activated T cells display the PD-1 receptor. When a tumor's PD-L1 engages PD-1, PD-1's cytoplasmic ITIM/ITSM motifs become phosphorylated and recruit the phosphatase SHP-2, which strips activating phosphates off CD28 and proximal T-cell-receptor signaling — effectively a molecular "off-switch." A PD-1 blocking antibody such as nivolumab (OPDIVO®) caps PD-1 so PD-L1 can't engage it; SHP-2 is no longer recruited and co-stimulation resumes, letting the T cell re-engage the tumor. Nivolumab is FDA-approved for specific indications; using it alongside cell therapies as part of an integrative protocol is investigational.

The scientific rationale is that each targets a different layer of the same problem. Checkpoint blockade lifts the brakes on T cells; NK cells add an MHC-independent line of attack that can reach tumors which have hidden from T cells by lowering MHC class I. Separately, laboratory work has shown that cellular stress — including from radiation — can increase NK killing, in part by releasing Smac to neutralize the XIAP brake inside tumor cells. That mechanistic logic is why combinations are an active research question. It is a rationale, not proof: the specific integrative combination offered is investigational and its added benefit has not been established in controlled trials.

Cytotron delivers non-ionizing radiofrequency energy within a rotating magnetic-resonance field (RFQMR), focused on a target region. That is physically different from ionizing radiotherapy (X-rays/gamma rays), which deposits enough energy to break chemical bonds and damage DNA directly. The studied aim of RFQMR is to influence cell behavior non-invasively. Importantly, Cytotron holds an FDA Breakthrough Device Designation — an expedited-review pathway for investigational devices — which is not the same as FDA approval or clearance, and published clinical evidence remains early-stage and largely uncontrolled.

No — and we won't claim that. Of the approaches discussed, only checkpoint inhibitors such as nivolumab are FDA-approved, and only for specific cancer indications. NK cell, LAK, and dendritic-cell therapies, and the combined integrative protocol, are investigational and offered outside the United States. Cytotron/RFQMR is an investigational device. This webinar is educational; it is meant to help you understand the science and ask better questions of your own care team — not to promise an outcome.

Selected references

Based on articles retrieved from PubMed. These peer-reviewed papers describe the general mechanisms and scientific fields discussed above; they are not studies of the Pathways to Heal program and do not represent its outcomes.

  1. van Nimwegen MJ, et al. NK-cell killing of tumor cells via the perforin/granzyme-B, caspase-dependent pathway. Clin Exp Metastasis. 2007;24(5):379–87. doi:10.1007/s10585-007-9075-9
  2. Yang KL, et al. Reciprocal complementation of the tumoricidal effects of radiation and natural killer cells (granzyme B, Smac/XIAP). PLoS One. 2013;8(4):e61797. doi:10.1371/journal.pone.0061797
  3. Betser-Cohen G, et al. MHC class I peptide presentation and KIR2DL1 inhibitory recognition (the "missing-self" balance). J Immunol. 2006;176(11):6762–9. doi:10.4049/jimmunol.176.11.6762
  4. Trojaniello C, Vitale MG, Ascierto PA. PD-1/PD-L1 blockade in melanoma combinations. Curr Opin Oncol. 2021;33(2):133–8. doi:10.1097/CCO.0000000000000709
  5. Li H, et al. Correlates of survival to anti–PD-1 (nivolumab) immune-checkpoint blockade. Nat Commun. 2019;10:4346. doi:10.1038/s41467-019-12361-9
Thursday, June 11 · 11:00 AM CDMX

Your Story Isn't Over. It's a New Chapter.

Reserve your free seat to learn about investigational, immune-based approaches — and whether they may be worth discussing with your own care team. Guided by Dr. Sosa.

Free · No obligation · Can't attend live? Everyone who registers gets the replay.

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