Taken from The Liturgical Year by Dom Prosper Guéranger  (1841-1875)

Quote:Chrysanthus and Daria were husband and wife, noble by birth, and still more by their faith, which Daria had received together with baptism through her husband’s persuasion. At Rome they converted an immense multitude to Christ, Daria instructing the women and Chrysanthus the men. On this account the prefect Celerinus arrested them, and handed them over to the tribune Claudius, who ordered his soldiers to bind Chrysanthus and put him to the torture. But all his bonds were loosed, and the fetters which were put upon him were broken.

They then wrapped him in the skin of an ox and exposed him to a burning sun; and next cast him, chained hand and foot, into a very dark dungeon; but his chains were broken, and the prison filled with a brilliant light. Daria was dragged to a place of infamy; but at her prayer God defended her from insult by sending a lion to protect her. Finally, they were both led to the sand-pits on the Salarian Way, where they were thrown into a pit and covered with a heap of stones; and thus they together won the crown of martyrdom.

Taken from this email from this Our Lady of Fatima Chapel newsletter:

Perhaps this is perfectly natural? I have no experience in either seismology or volcanology and won't attempt to explain this. 

But it does make one scratch one's head in bewilderment, just a little. 

The following screenshot is from the European-Mediterranean Seismological Centre (EMSC) website [zoomed in on the Island of La Palma], taken just moments ago. It shows earthquake activity over the last forty-eight hours on the island of La Palma, whose Cumbre Vieja volcano erupted on September 19th, 2021. 

Hydrogel Biosensor: Implantable Nanotech?

Quote:“The sensor has two parts. One is a 3mm string of hydrogel, a material whose network of polymer chains is used in some contact lenses and other implants. Inserted under the skin with a syringe, the string includes a specially engineered molecule that sends a fluorescent signal outside of the body when the body begins to fight an infection.

The other part is an electronic component attached to the skin. It sends light through the skin, detects the fluorescent signal and generates another signal that the wearer can send to a doctor, website, etc. It’s like a blood lab on the skin that can pick up the body’s response to illness before the presence of other symptoms, like coughing.”

Quote:“Rather than being isolated from the body, the biosensors work fully integrated within the body’s tissue — without any metal device or electronics, thereby overcoming the body’s attempts to reject it. To date, the injected biosensors have functioned for as long as four years.

Smaller than a grain of rice, each biosensor is a flexible fiber about 5 mm long and half a millimeter wide, comprised of a porous scaffold that induces capillary and cellular ingrowth from surrounding tissue. The hydrogel is linked to light-emitting fluorescent molecules that continuously signal in proportion to the concentration of a body chemical, such as oxygen, glucose, or other biomolecule of interest.”

Quote:“Conventional sensors, such as those found in continuous glucose monitors, have a sensing electrode wire that penetrates the skin to measure a target chemical in the fluid that surrounds cells. But because the body “sees” the electrode as foreign material, it needs to be removed and replaced within several days at a different location to avoid the effects of inflammation and scar tissue that eventually prevents the electrode from functioning accurately.

The team at Profusa is developing a family of tiny biosensors composed of a tissue-like hydrogel, similar to a soft contact lens, that are painlessly placed under the skin with a single injection. Rather than being isolated from the body, the biosensors work fully integrated within the body’s tissue — without any metal device or electronics, thereby overcoming the body’s attempts to reject it.”

Quote:“Traditional microelectronic materials, such as silicon, gold, stainless steel and iridium, cause scarring when implanted. For applications in muscle or brain tissue, electrical signals need to flow for them to operate properly, but scars interrupt this activity … “We started looking at organic electronic materials like conjugated polymers that were being used in non-biological devices,” says Martin, who is at the University of Delaware. “We found a chemically stable example that was sold commercially as an antistatic coating for electronic displays.”

After testing, the researchers found that the polymer had the properties necessary for interfacing hardware and human tissue … So far, the team has made a polymer with dopamine, which plays a role in addictive behaviours, as well as dopamine-functionalised variants of the EDOT monomer. Martin says these biological-synthetic hybrid materials might someday be useful in merging artificial intelligence with the human brain.

Ultimately, Martin says, his dream is to be able to tailor how these materials deposit on a surface and then to put them in tissue in a living organism. “The ability to do the polymerization in a controlled way inside a living organism would be fascinating.”“