From the book, Water & Salt, The Essence of Life
by Dr. Barbara Hendel MD and Peter Ferreira

ElementOrderNum.ResultsAnalysis Type
ActiniumAc89<0 .001ppmFSK
AluminumAl130 .661ppmAAS
AntimonySb51<0 .01ppmAAS
ArsenicAs33<0 .01ppmAAS
AstatineAt85<0 .001ppmFSK
BariumBa561 .96ppmAAS1TXR
BerylliumBe4<0 .01ppmAAS
BismuthBi83<0 .10ppmAAS
BoronB5<0 .001ppmFSK
BromineBr352 .1ppmTXRF
CadmiumCd48<0 .01ppmAAS
CaesiumCs55<0 .001ppmFSK
CalciumCa204 .05g1kgTitration
CarbonC6<0 .001ppmFSK
CeriumCe58<0 .001ppmFSK
ChlorideCl-17590 .93g1kgGravimetrie
ChromiumCr240 .05ppmAAS
CobaltCo270 .60ppmAAS
CopperCu290 .56ppmAAS
DysprosiumDy66<4 .0ppmTXRF
ErbiumEr68<0 .001ppmFSK
EuropiumEu63<3 .0ppmTXRF
FluorideF-9<0 .1g1kgPotentiometer
FranciumFr87<1 .0ppmTXRF
GadoliniumGd64<0 .001ppmFSK
GalliumGa31<0 .001ppmFSK
GermaniumGe32<0 .001ppmFSK
GoldAu79<1 .0ppmTXRF
HafniumHf72<0 .001ppmFSK
HolmiumHo67<0 .001ppmFSK
HydrogenH10 .30g1kgDIN
IndiumIn49<0 .001ppmFSK
IodineI53<0 .1g1kgPotentiometer
IridiumIr77<2 .0ppmTXRF
IronFe2638 .9ppmAAS
LanthanumLa57<0 .001ppmFSK
LeadPb820 .10ppmAAS
LithiumLi30 .40g1kgAAS
LutetiumLu71<0 .001ppmFSK
MagnesiumMg120 .16g1kgAAS
ManganeseMn250 .27ppmAAS
MercuryHg80<0 .03ppmAAS
MolybdenumMo420 .01ppmAAS
NeodymiumNd60<0 .001ppmFSK
NickelNi280 .13ppmAAS
NiobiumNb41<0 .001ppmFSK
NitrogenN70 .024ppmICG
OsmiumOs76<0 .001ppmFSK
OxygenO81 .20g1kgDIN
PalladiumPd46<0 .001ppmFSK
PhosphorusP15<0 .10ppmICG
PlatinumPt780 .47ppmTXRF
PlutoniumPu94<0 .001ppmFSK
PoloniumPo84<0 .001ppmFSK
PotassiumK+193 .5g1kgFSM
PraseodymiumPr59<0 .001ppmFSK
PromethiumPm61unstableArtificial isotope – not included
ProtactiniumPa91<0 .001ppmFSK
RadiumRa88<0 .001ppmFSK
RheniumRe75<2 .5ppmTXRF
RhodiumRh45<0 .001ppmFSK
RubidiumRb370 .04ppmAAS
SamariumSm62<0 .001ppmFSK
ScandiumSc21<0 .0001ppmFSK
SeleniumSe340 .05ppmAAS
SiliconSi14<0 .1g1kgAAS
SilverAg470 .031ppmAAS
SodiumNa+11382 .61g1kgFSM
StrontiumSr380 .014g1kgAAS
SulphurS1612 .4g1kgTXRF
TantalumTa731 .1ppmTXRF
TechnetiumTc43unstableArtificial isotope – not included
TelluriumTe52<0 .001ppmFSK
TerbiumTb65<0 .001ppmFSK
    ThalliumTi810 .06ppmAAS
ThoriumTh90<0 .001ppmFSK
ThuliumTm69<0 .001ppmFSK
TinSn50<0 .01ppmAAS
TitaniumTi22<0 .001ppmFSK
UraniumU92<0 .001ppmFSK
VanadiumV230 .06ppmAAS
WolframW74<0 .001ppmFSK
YtterbiumY39<0 .001ppmFSK
YtterbiumYb70<0 .001ppmFSK
ZincZn302 .38ppmAAS
ZirconiumZr40<0 .001ppmFSK

 The inert gasses Helium-He-2, Neon-Ne-10, Argon-Ar-18, Krypton-Kr-36, Xenon-Xe-54, and Radon-Rn-86 could not be included in the research.Many of the elements could not be proven with conventional chemical analysis.Through the transfer of frequency patterns by means of wave     transference, it was possible to prove the frequency pattern with the aid of frequency, spectroscopy.With this, the detection of elements even smaller than <0.001 ppm was proven.The research analysis confirmed the holistic properties of the original Himalayan crystal salt.The sodium chloride content is 97.41% and meets the worldwide necessary standards for table salt.Additional Combined ElementsWaterH2O1.5g/kgDINAmmoniumNH4+0.010ppmPhotometrieNitrateNO3-0.09ppmPhotometriePhosphatePO43-<0.10ppmICGHydrogencarbonateHCO3-<1.0g/kgTitrationThe inert gasses Helium-He-2, Neon-Ne-10, Argon-Ar-18, Krypton-Kr-36, Xenon-Xe-54, and Radon-Rn-86 could not be included in the research. Many of the elements could not be proven with conventional chemical analysis. Through the transfer of frequency patterns by means of wave transference, it was possible to prove the frequency pattern with the aid of frequency spectroscopy. With this, the detection of elements even smaller than <0.001 ppm was proven.The research analysis confirmed the holistic properties of the original Himalayan crystal salt. The sodium chloride content is 97.41% and meets the worldwide necessary standards for table salt.g/kgGrams per kilogramDINGerman Standards InstituteICGIonchromatographyAASAtom absorbtion spectrometryTXRFTotal reflection -X-Ray -Floresence-SpectometryppmParts per millionFSMFlamespectrometryFSKFrequency Spectroscopy