ApotheosisAZ wrote:Daniel,
I know you said to PM you if we figured anything out. I really haven't, but I did want to share an hypothesis.
I think Bree's dad was pointing out the substance in her blood that makes her desired by The Order.
He said that contact would be "periodic," and then said that he left money on the "table."
Both statements aren't true, from what I remember. I remember that the money was found in P. Monkey, and that contact didn't occur regularly.
I think he was saying "Periodic Table," as in
Periodic Table of the Elements. I think he might have been tipping us off as to what substance The Order is looking for in Bree's blood that makes her desirable for The Ceremony.
I am checking the Table for uncommon elements found in human blood. The most promising so far are
Lanthanides, which are also called "rare earth elements." A couple of these are found in blood at the pg/mL amounts.
I remember that the money was in P.Monkey too. I thought maybe I was wrong, so I went back and checked. Bree definitely told us it was in P.Monkey. I think your idea is totally awesome.
When I read that, I thought Bree must have lied to us though. I couldn't think of why, except the Order in the wrong direction or something. But the Periodic Table thing makes a lot more sense. lol.
As for which element it points to, that may be in the note too. I think you are one to something. *high five*
So, to get started on my search for Bree's element, I looked up quantum electrodynamics (
http://en.wikipedia.org/wiki/Quantum_Electrodynamics and superconductivity (
http://en.wikipedia.org/wiki/Superconductivity).
First, I tried to find a connection between them:
Like ferromagnetism and atomic spectral lines, superconductivity is a quantum mechanical phenomenon. It cannot be understood simply as the idealization of "perfect conductivity" in classical physics.
I am not at all a science person, but I believe this means that superconductivity exists when more than one particle interact. (Scientists, correct me.)
Second, I looked for elements for which superconductivity is possible:
Superconductivity occurs in a wide variety of materials, including simple elements like tin and aluminium, various metallic alloys and some heavily-doped semiconductors. Superconductivity does not occur in noble metals like gold and silver, nor in most ferromagnetic metals.
Ferromagnetic materials are basically the metals with which common people are familiar and typically interact. Noble metals are basically the kinds used for jewelry. (Again, correct me if I'm wrong.)
In 1986 the discovery of a family of cuprate-perovskite ceramic materials known as high-temperature superconductors, with critical temperatures in excess of 90 kelvin, spurred renewed interest and research in superconductivity for several reasons.
Cuprate refers to Copper Oxide. Perovskite refers to Calcium Titanium Oxide (a relatively rare mineral on the Earth's crust). The American Society for Testing and Materials (ASTM) defines a ceramic article as “an article having a glazed or unglazed body of crystalline or partly crystalline structure, or of glass, which body is produced from essentially inorganic, non-metallic substances and either is formed from a molten mass which solidifies on cooling, or is formed and simultaneously or subsequently matured by the action of the heat.
Conventional superconductors usually have critical temperatures ranging from less than 1 K to around 20 K. Solid mercury, for example, has a critical temperature of 4.2 K. As of 2001, the highest critical temperature found for a conventional superconductor is 39 K for magnesium diboride (MgB2), although this material displays enough exotic properties that there is doubt about classifying it as a "conventional" superconductor. Cuprate superconductors can have much higher critical temperatures: YBa2Cu3O7, one of the first cuprate superconductors to be discovered, has a critical temperature of 92 K, and mercury-based cuprates have been found with critical temperatures in excess of 130 K. The explanation for these high critical temperatures remains unknown.
This leads me wonder about a cuprate superconductor may be possible, being that they seem most likely to appear in human blood.
Generalizations of these theories form the basis for understanding the closely related phenomenon of superfluidity (because they fall into the Lambda transition universality class), but the extent to which similar generalizations can be applied to unconventional superconductors as well is still controversial. The four-dimensional extension of the Ginzburg-Landau theory, the Coleman-Weinberg model, is important in quantum field theory and cosmology.
I wish I weren't so damn stupid. But this seems to connect the note to the many, many discussions regarding astronomy. Cosmology uses physics a lot to study the universe. Astronomy studied outer space, which obviously includes the universe.
As for the Quantum Field Theory, well, Wikipedia may put it better than I could:
Non-relativistic quantum field theories are needed in condensed matter physics— for example in the BCS theory of superconductivity. Relativistic quantum field theories are indispensable in particle physics (see the standard model), although they are known to arise as effective field theories in condensed matter physics.
In that year, Bednorz and Müller discovered superconductivity in a lanthanum-based cuprate perovskite material, which had a transition temperature of 35 K.
Apo mentioned Lanthanoids as being the best possible element the Order is looking for. THIS could be our answer!
Also, I really am sorry if this is all totally stupid. I'm a writer, not a scientist. I deserve madd props for trying to comprehend all of this.