Detecting and Displaying Energy from Skin Cancer Lesions Comparison of Post Biopsy Skin Cancer Scabs with Normal Skin Injury Scabs. A Biophysics Approach

 

Abraham A. Embi ¹

 

¹ BS MBA,13442 SW 102 Lane Miami, 33186, Florida, United States

 

1. INTRODUCTION

This manuscript introduces a comparison of electromagnetic energy emitted by similar in size healthy human skin tissue scabs with post biopsy cancer tissue counterparts. Ever since the development in 2015 and introduction in 2016 Scherlag et al. (2016) of a tabletop methodology able to display living plants and animal tissue emission of EMRs; numerous papers were published. They rank form demonstrating properties of living biological tissue EMRs penetrating glass barriers to quantitatively measuring the human hair follicle EMR vertical range. A variety of papers could be obtained by searching Embi AA in Google Scholar A typical normal hair follicle EMR emission patterns is shown below (Exhibit I). Worth noting that the information herein reported is of a qualitative nature, in other words cancer and normal tissue EMR energy are absorbed by the anisotropic K3Fe, and images recorded Figgis et al. (1969)

 

2. MATERIALS AND METHODS

2.1. MATERIALS

1)     Tissue samples. Control post normal skin tissue injury dry scabs (n=2); and post Squamous Cell Carcinoma (SCC) biopsy sites (n=2). Examples in Figure 4 below.

2)     25x75x1mm clean glass slides

3)     Potassium Ferricyanide K₃ [Fe (CN)₆]. crystals.

4)     Demineralized bottled water

5)     Celest Ron Video Microscope Model # 44348

6)     MacBook Pro Apple computer with Photo Application software.

 

2.2. METHODS

Normal skin arm tissue scab was placed on a glass slide containing two drops of liquid K3Fe. This preparation was dubbed a Simple Slide Preparation or SSP. The same approach was used with SCC post biopsy scabs. Images and video recordings during and post evaporation were downloaded onto an Apple computer photo application program for both safekeeping and interpretation.

 

3. RESULTS

After careful revision of the stored images, the normal skin tissue samples showed a smooth uninterrupted advance of the K3Fe crystallization (Exhibit I). This lack of delay and distortion in crystals formation had been previously seen emitted by undisturbed healthy tissue. On the other hand. changes in tissue metabolism would induce delays and irregular periodic crystals formations Embí (2020)

The images obtained from cancer tissue scabs, show an irregular pattern in crystallization energy (read energy), especially in the immediate edges of the actual sample Figure 1 Small scab tissue fragments from the SCC samples were recorded surrounded by very fine K3Fe filamentous structures (Exhibit II). This could be attributed to an increased energy emission when compared to the normal tissue small tissue fragment (Exhibit II). Duplicate experiments (n=2) in both the cancer and normal tissue scabs irregular EMR emissions are herein reported. As final note the findings presented are qualitative.

 

 

4. DISCUSSION

The difference between cancer and normal tissue has been widely described in the literature, for example:

“Cancer cells keep dividing. Cancer cells ignore the body’s signals to stop dividing. Your body has a built-in process, called apoptosis or programmed cell death, that tells the body to get rid of cells it doesn’t need anymore. Normal cells are better at listening: They listen to the body’s cues and stop reproducing when enough cells are present” Bradford (2022)

Another salient characteristic is the increased metabolism of cancer cells when compared normal. The results presented in this manuscript are in support of a concept of cancer cells irregular, as well as increased energy emission Figure 2 as documented by both the interrupted energy emission, and the presence of herein introduced energy emission by sma ll scab tissue fragments adjacent to normal samples. Additionally, there is a void or “gap” in K3Fe large crystals presence in the immediate outer edges of cancer scabs; where in one sample unexplained small tissue fragments detached from the sample are energized.One may ask: Where is the energy stored in tissue scabs? Scabs are mainly composed of a fibrin network, platelets and collagen, previous work by this author described “ENERGY DETECTION IN THE FORM OF LIGHT RADIATION AT END OF HUMAN BLOOD COAGULATION CASCADE” Abraham (2019) It could be theorized that this type of stored energy in the scabs of cancer and normal tissue are detected in the SSPs as presented in this manuscript.

 

5. MEDICAL IMPLICATIONS

The introduction of a tabletop optical microscopy technique able to display emitted energy by normal and diseased human tissue samples could have implications in medicine, why? Perhaps the effect of drug therapy on tissue energy could be simplified by a table- top microscopy technique.

 

EXHIBIT 1 Control Experiment I

Undisturbed Normal Hair Follicle Tissue Concentric EMRs Waves Absorbed by the Paramagnetic Potassium Ferricyanide in Solution.

 

 

 

 

Figure 1

                                                                         

Figure 1 Human Hair in SSP K3 Fe after Evaporation Showing F=Follicle Black Arrows Pointing at Organized Concentric K3 Fe Crystallization Due Full Absorption of the Follicle’s EMR Note Reproduced From: Article Citation: Embí Abrahám A. Bs. (2020). The Drunken Hair: Introducing In Vivo Demonstration of Increased Blood Alcohol Concentration Temporary Disrupting Human air Follicles Emission of Electromagnetic Radiation. International Journal of Research -Granthaalayah, 8(10), 123- 130. Https://Doi.Org/10.29121/Granthaalayah.V8.I10.2020.1568

 

Isolated Video Frame Showing Interrupted Energy Emission Near Cancer Tissue

Figure 2

                                                                       

Figure 2 Cancer scab in SSP K3Fe showing fractionated EMR emissions near tissue. Black Arrow: Fragmented energy emission Orange Arrow: Pointing at undisturbed energy emission pattern. For details link to: https://youtu.be/XtDMtXWjfTc ……Or Scan QR Code in image. Compare Orange arrow pattern with Exhibit I EMRs undisturbed pattern

 

Cancer vs Normal Very Small Scabs Energy Emissions

 

EXHIBIT 2

Figure 3

                                                      

Figure 3 Showing A: SCC scab fragment near main scab sample showing very fine K3Fe crystals indicative of energy emission. B: Normal Tissue scab fragment also near main scab sample showing absence of K3Fe crystals emissions. Indicative of a less energetic state

 

Additional Cancer Tissue Scab Irregular Energy Emission

Figure 4

                                                                          

Figure 4 SCC post biopsy skin scab in SSP K3Fe showing: Black Arrow: Uneven and fractionated emissions of EMRs as demonstrated by a gap in K3Fe crystals. Please compare to Figure 1 For additional details link to: https://youtu.be/dDTeOYYh9tQ.or Scan QR Code in image

 

6. SUPPLEMENTAL MATERIAL

Size of Normal and Cancerous Scabs Selected for this Manuscript

Figure 5

                                                                           

Figure 5 Showing comparable size of healthy and post biopsy squamous skin carcinoma scab

 

K3Fe Fractionated Energy Emission Pattern from Injured Distal Hair Follicle Bulb.

Figure 6

                                                                        

Figure 6 Black Arrow: Fractionation K3Fe crystallization due to damage to distal follicle dermal papilla. Disturbed energy emission by injury to distal hair. Please compare with Figure 1 in text

 

Normal Tissue Uninterrupted Crystallization Pattern Observed in Two Samples Tested

 

EXHIBIT 3

Figure 7

                                                                         

Figure 7 Sequential images in lieu of video recorded every 3 minutes of the uninterrupted advance of K3Fe crystallization from a normal scab tissue sample

 

Cancer Tissue Scab Interrupted Crystallization Pattern; The Gap

Figure 8

                                                                             

Figure 8 Amplified image in figure showing scab tissue fragment of SCC showing interrupted K3Fe crystals advance towards (cancer scab) Please compare with S3 where the crystals reach the scab tissue.

 

CONFLICT OF INTERESTS

None. 

 

ACKNOWLEDGMENTS

None.

 

REFERENCES

Abraham A. (2019). Energy Detection in The Form of Light Radiation At End of Human Blood Coagulation Cascade- The Optical Absorption of Water Vs. Fibrin Burst Energy Release. International Journal of Research - Granthaalayah, 7(9), 200-212.

Bradford, T. M. (2022). Cancer Treatment Centers of America. 

Embi, A. A. (n.d.).  Google Scholar Citations.

Embí A. B. S. (2020). The Drunken Hair : Introducing in Vivo Demonstration of Increased Blood Alcohol Concentration Temporary Disrupting Human Hair Follicles Emission of Electromagnetic Radiation. International Journal Of Research -Granthaalayah, 8(10), 123-130. https://doi.org/10.29121/granthaalayah.v8.i10.2020.1568

Figgis, B. N. Gerloch, M. Mason, R and Sydney, R. (1969). Nyholm the crystallography and paramagnetic anisotropy of potassium ferricyanide. https://doi.org/10.1098/rspa.1969.0031 

Scherlag, B. J. Sahoo, K. Embi, A. A. (2016). Novel and Simplified Method for Imaging the Electromagnetic Energy in Plant and Animal Tissue. Journal of Nanoscience and Nanoengineering. 2(1), 6-9.