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Tuesday, August 30, 2011

Hairdeis

The earliest example of writing in a "Germanic" language is the Bible. (Translator died 381 A.D.) Look at Chapter 10 of the book of John:

Amenamenqiþaizwis:saeiinnniatgaggiþþairhdauringardanlambe:aksteigiþaljaþro:sah hliftusistjahwaidedja. iþsainngaggandsþairhdaurhairdeisistlambe.

This is much closer to way people still speak than the usual translation. We say amen not verily. Lamb garden is more understandable than sheepfold and so on.

Usual translation: Verily, verily, I say unto you, He that entereth not by the door into the sheepfold, but climbeth up some other way, the same is a thief and a robber. But he that entereth in by the door is the shepherd of the sheep.

Likewise, reading Voltaire is much easier than reading approved French.



Hairdeis became “Sceapa hyrde” in Saxon and Shepherd, Swineherd, Goatherd, Neatherd, etc. in English because of the Aristotelian tradition of trying to create a word for everything. Putting spaces between words became the start of endless confusion in the language. With the advent of computers, mathematics and science you would think they would see the errors of their ways. But, no they simply create more specialized languages so people cannot communicate with each other. It is a joy to read the New Testament before the spaces were added. Grammar became more important than meaning. In English, hairdeis has for the most part been replaced by manager because of the connotations of sheep and herder. Gothic did not have this problem being so civilized; the word for sheep simply does not exist and you have the inherently good connotation of hairdeis since Gothic is a synthetic language. What does hairdeis mean? Read a book written before they started putting the silly spaces between words and you can begin at last to understand the meaning of your language.

Silent Night in Swedish

Sunday, August 28, 2011

Swedish dialogue

Rossi reminds me of Mr. Diggiloo, if you know what I mean.

Monday, June 20, 2011

Lotta på Liseberg - Del 3

Direkt från Liseberg i Göteborg bjuder Lotta Engberg på allsång och kända artister uppträder Alexander Rybak, Orup, Loa Falkman och Sanna Nielsen.

måndag 20 juni 2011

Fritt tillgängligt 6 dagar till



Sunday, June 5, 2011

Trassel







When will my life begin

I see the light

I've got a dream







Lotta på Liseberg

Sommarens gäster

20 juni: Alexander Rybak, Orup, Loa Falkman och Sanna Nielsen.

27 juni: Christer Sjögren, Thomas Di Leva, Ola och Jörgen Mörnbäck.

4 juni: Malena Ernman, The Poodles och Swingfly featuring Pauline.

11 juni: Jessica Andersson, Charlotte Perrelli, Linda Pritchard och Alcazar.

18 juni: Jenny Silver, Jack Vreeswijk, Ann-Louise Hanson, Josefin Glenmark och Brolle.

25 juni: Lill Lindfors, Ulrik Munther och Martin Rolinski.

1 augusti: Danny, Arja Saijonmaa, dessutom medverkar den danska gruppen A friend in London, den finska artisten Paradise Oskar och den norska sångerskan Stella Mwangi, som alla tre har vunnit sina länders respektive uttagningar till Eurovision song contest 2011.

8 augusti: Eric Saade, Tomas Ledin, Thomas Petersson och September.

Tuesday, April 12, 2011

Jenny och Sanna

Sanna%20och%20Jenny%20Kallur%20i%20Nyhetsmorgon

Systrar Sanna och Jenny Kallur är tillbaka. Båda två har återhämtat sig efter diverse skador och räknar med att tävla till sommaren. Hör de berätta i TV4-as Nyhetsmorgon Söndag.

Thursday, March 31, 2011

Graphene with a twist

Credit: A. Luican et al., Phys. Rev. Lett. (2011)
Single-Layer Behavior and Its Breakdown in Twisted Graphene Layers
A. Luican, Guohong Li, A. Reina, J. Kong, R. R. Nair, K. S. Novoselov, A. K. Geim, and E. Y. Andrei

Phys. Rev. Lett. 106, 126802 (Published March 21, 2011)



Graphene


Stacks of graphene are expected to possess drastically different electronic properties compared to their single-layer components, as a result of interlayer coupling. Theory dictates that graphene’s massless low-energy excitations should disappear, even for the simple bilayer structure. However, experiments have shown that, paradoxically, the electronic properties of single layers somehow survive in layered structures. Theorists have suggested that a relative rotation of one layer with respect to the one below it—a “twist” in the stacking—might be the resolution of the paradox.

Now, in a paper appearing in Physical Review Letters, Adina Luican and collaborators from Rutgers University and the Massachusetts Institute of Technology, both in the US, and the University of Manchester, UK, provide experimental proof of the influence of twisting on the band structure of bilayer graphene. Using scanning tunneling microscopy and spectroscopy, the researchers find that for twist angles above 20°, the electronic properties of the twisted layers are practically indistinguishable from those of single-layer graphene. Based on their measurements, Luican et al. conclude that at small angles, the massless Dirac fermion picture of graphene breaks down and the electronic spectrum is dominated by a saddle point feature, while at large rotation angles, the intersection point in the spectrum shifts to irrelevant high energies and the familiar Dirac energy dispersion is recovered. – Alexios Klironomos