 covariance have a physical constancy. The general covariance of space-time intervals, as defined by the Minkowski metric, encompasses conscious experience, special relativity, general relativity, and quantum mechanics; the Minkowski metric is an axiom (premise, postulate) for a Theory of Everything. It is interesting to observe how the general covariance of space-time intervals was developed and extended to encompass everything. The notion of general covariance was developed in special relativity to encompass inertial frames of reference. Special relativity was developed to explain observed physical reality, which is essentially conscious experience. There is an increasing amount of evidence suggesting that the brain processes the three basic types of space-time intervals to create human conscious experiences (Sieb, 2015, 2016, 2017a, 2017b); the general covariance of space-time intervals is extended to human conscious experience (observed physical reality). In general relativity, the three basic types of space-time intervals are the source of gravity; the general covariance of space-time intervals is extended to encompass gravitation. In quantum mechanics, the three basic types of space-time intervals are the three fundamental interactions or forces; the general covariance of space-time intervals is extended to encompass quantum gravity. Consequently, the general covariance of space-time intervals forms the basis of a Theory of Everything (it encompasses everything). Space-time intervals are very important for human beings. They are the fundamental components of our conscious lives. Our entire daily activity is based on the processing of what, where, and when information carried by space-time intervals (Sieb, 2017a). We eat (what) at certain times (when) in certain places (where). We perform various tasks (what) at certain times (when) in certain places (where). Our entire conscious lives are directed and organized through the processing of what, where, and when information carried by space-time intervals. All of our higher cognitive processing and executive function (attention, perception, learning, memory, logic, planning, reasoning, calculating, decision-making, problem-solving, creative ability, intentional actions) is based on the what, where, and when information carried by space-time intervals. Scientific research at all levels is implemented through the collection and interpretation of the what, where, and when information carried by space-time intervals (Sieb, 2017a). It is important that scientists pay particular attention to space-time intervals in their collection and interpretation of data (Sieb, 2017a). Manipulation of space-time intervals may
covariance have a physical constancy. The general covariance of space - meter interval, as defined by the Minkowski metric, encompasses conscious experience, especial relativity, general relativity, and quantum mechanics; the Minkowski metric function is an axiom (premise, postulate) for a Theory of Everything. It is interesting to observe how the cosmopolitan covariance of quad - time interval was developed and extended to embrace everything. The notion of general covariance was developed in special relativity to encompass inertial frames of reference. particular relativity was developed to explain observed forcible reality, which is essentially conscious experience. There cost an increasing sum of evidence suggesting that the brain processes the three basic types of space - meter intervals to create human conscious experiences (Sieb, 2015, 2016, 2017a, 2017b); the general covariance of space - time intervals is extended to human conscious experience (observed physical reality). In general relativity, the three basic types of space - time intervals are the source of graveness; the cosmopolitan covariance of space - time intervals is extend to encompass gravitation. In quantum mechanics, the three basic types of space - time intervals are the three fundamental interactions or power; the general covariance of space - time intervals is extended to encompass quantum graveness. Consequently, the general covariance of space - time intervals forms the basis of a Theory of Everything (it embrace everything). quad - time intervals are very important for human beings. They are the cardinal components of our conscious lives. Our entire daily activity is based on the processing of what, where, and when information carried by space - prison term intervals (Sieb, 2017a). We consume (what) at certain times (when) in sealed places (where). We perform various tasks (what) at sealed times (when) in certain seat (where). Our entire conscious lives are address and organized through the processing of what, where, and when data carried by space - time interval. All of our higher cognitive processing and executive function (attention, perception, eruditeness, memory, logic, planning, reasoning, calculating, decision - devising, problem - solving, creative ability, intentional actions) is based on the what, where, and when information carried by quad - time intervals. Scientific research at all levels is implemented through the collection and interpretation of the what, where, and when data carried by space - time intervals (Sieb, 2017a). It is important that scientists pay particular care to space - time intervals in their collection and interpretation of data (Sieb, 2017a). Manipulation of space - time intervals may
 cogariance have a physical constancy. The ywneral covarjance of space-time intervals, as defiied vy tht Minkowski metric, dncompassvs consciius txperience, special relatiynty, gskeral celativity, and auantum mewhanics; the Mitkuwdki metric is an axiom (premise, posttlate) fpr a Theory of Ederyuhigg. If is interesting to observe how ths generel covariance og space-time intervals was fevepoped and extended to encompaws edwrything. The notion of general covzriance was developed in speciau relctivity to guxomodss inertiao fraies of refercmce. Spacial rrlativity was cevxlopwd to explain observev physical reality, wrich is evszntially conscious expeeiencg. These ir an indrxasjng amlunv of evidende suggestibg that the brain ptosvxses the thrse basyc types of space-time intervals to create hujan conscious experiencws (Sieb, 2015, 2016, 2017a, 2017b); the gengral covaryance of space-time intervals is extended to human consriuus ewperkwnfe (observed physical reality). In general relatybiuy, nhe three basic tnpes of space-time onhetdals are the rource of gravity; the generwl covatiance of space-uime ontervals is extended to enxompass gravptatuon. In quantum meckanics, the tkree bssic yypes of space-time intexvals zre the thrfe fundamsvtal interactionr og fosces; the general covariancq of spacx-time intervxls os extqnded to ejcompass quantum gravity. Consgquentny, the genfral covariance of space-time invxrvals forms jhe bavis of a Theovy of Everythind (it encompassgs everytking). Soace-time ihtervalv are very ymportant for juman beings. They arq thw fubdamentxu components og our conscious livws. Our entire dailn actkbity is based ou uhw processing og wfat, wjece, anq when informdtiov cxtried by space-tind inyervals (Sieb, 2017a). We ead (whzt) at certain timex (rhen) in xertain [laces (where). Ee perform various taskv (wiat) at cettain times (when) in certain plades (where). Ouv entire conssiouw lives are birected and organized through the procewsing of what, whete, and when informatipk carried by spacq-time intarvals. All of our hither cognitive prpcessing and executivs funcdion (wttention, perception, learning, memory, logic, planning, reasoning, calculating, decismog-making, proglem-xolvitg, ereativq abmlmty, intentional abtions) is based on the what, wherx, and when iuformation carried by space-tike intervals. Sckentific research at all levels os implemented through the collrction and interpretatiok of the qhat, shere, and xhen information cartied bv spacw-time ibteryals (Sieb, 2017a). It is ilportant hhat seientists pay particular attentiob to spafe-time intervals in their clulectpon and interpretation kf dzha (Sigb, 2017a). Manipulatoon of space-tike intervals may
covariance have a physical constancy. The general space-time as defined the Minkowski metric, general and quantum mechanics; Minkowski metric is axiom (premise, postulate) for a Theory Everything. It is interesting to observe how the general covariance of space-time intervals developed and extended to encompass everything. The notion of general covariance was developed special to inertial of reference. Special relativity was developed to explain observed physical reality, which is essentially conscious experience. is an increasing amount of evidence suggesting that brain processes the three types of space-time intervals to human experiences (Sieb, 2016, 2017b); general covariance of intervals is extended to human conscious experience (observed physical reality). In general relativity, the three basic types space-time intervals source of the covariance space-time intervals is encompass gravitation. In quantum mechanics, the of space-time intervals are the three fundamental interactions forces; the covariance of space-time intervals is extended encompass quantum gravity. Consequently, the general covariance of intervals forms the basis of a Theory of Everything (it encompasses everything). Space-time intervals are for human beings. They the fundamental components our lives. entire activity is on the processing of what, where, and when information carried by intervals (Sieb, 2017a). We eat (what) at certain times (when) places We perform various (what) at certain times in places (where). Our entire are and processing what, and when information carried space-time intervals. All of our cognitive processing and executive logic, planning, reasoning, calculating, decision-making, problem-solving, creative ability, actions) is based on the what, where, when information carried by space-time intervals. Scientific research at all levels is through the interpretation of the what, where, and when information by space-time intervals (Sieb, It is important that scientists pay particular attention to intervals their collection interpretation of data 2017a). Manipulation of intervals may
 covariance have a physical coNstancy. The GenerAl cOvaRiAnce Of spAce-time intervaLS, as dEfined by the Minkowski meTric, eNcOMpasSEs ConscIous expERiENCe, sPeCiAl rElATiVity, gEneRal relaTivity, and qUanTuM mechanics; thE miNkowski metRic Is an axiom (preMisE, postuLaTe) fOR a TheOry Of EveRythinG. it is inTeresting To OBserve HOw the geNERaL covAriance of space-timE InTErvals was develOped anD eXTeNDEd tO enCompass eveRyThing. tHe notioN Of GENEraL Covariance was Developed in SPecIal relAtIviTY to encOmpasS iNErtIal frames of RefeRence. SpecIal relATivity wAS develoPed to eXplAin ObseRVeD pHysIcAL reALiTy, wHIch Is essentIaLlY consCiouS EXPErieNce. therE is an Increasing amoUnt Of evIDenCe sugGestiNg thAt The brAin proCesseS tHe three basic typEs of Space-time IntErValS tO creaTE human ConSciOus expeRiences (sIeb, 2015, 2016, 2017A, 2017b); THE GeNeral covariance of sPaCE-TiMe intervAls is eXTeNdED to human CoNscIous EXPerieNce (oBSeRved physIcal reALiTy). in generAl RelatiViTy, tHe tHree bASic tYpes of Space-timE inteRVals are the sourCE of gravity; the GEnERAl COvarIanCe of space-tiMe inTErvaLs is EXtEndED to enCompaSs GRaVItation. In quantum mecHaNics, thE threE basic types of Space-time iNTERvals are The tHReE Fundamental intEractIons or forcES; the geneRal coVariance Of space-tiME IntervalS is ExtEndEd tO ENcOmpass quantum GRAvitY. COnsequeNtlY, the genEraL coVarIanCe Of space-tiMe intervAlS fOrMs The Basis OF a Theory Of eveRyThiNg (it eNCompasSes evErytHiNg). sPacE-time inTErVALs arE vErY impOrtAnT for hUman BEinGs. They aRe the fundAmeNTal cOmPoNents of Our conscious lIvEs. Our entirE dAilY activITY is based On the processing of what, whERe, and whEn iNformAtioN carried bY spAce-timE inTErvals (sieb, 2017a). WE eat (wHaT) at CERtain TIMeS (whEn) In certain pLACes (Where). we PerfOrm variOus tasks (what) at certAIn tImes (when) in cerTaiN plaCES (wHerE). ouR EntIrE ConSCIous lives are dirEcted and orGaNIzEd through tHE prOcEssing oF what, whEre, anD When infOrmation cArried by sPaCe-tiME IntErvals. All oF our highEr cognitiVE procESsIng anD exEcutivE fUncTion (aTtentiON, peRceptIon, leaRnIng, memOry, loGiC, planninG, reasoning, calculating, deCision-MakinG, prOblem-solvIng, CReaTive abiliTy, inTentional aCtiOns) Is basEd oN The whAt, whERe, And WHen inFormATion carriED bY spACE-tIme intervalS. sCIenTific ResEArch at All lEvels is implementeD Through the collEctiON And IntERpreTaTion of the what, wHerE, aND When infoRmAtion carrieD by space-TiME inteRvals (SIeb, 2017a). It Is imporTANt THat sciEntiSts Pay particUlaR aTTention To SpACe-time InteRvAls in tHeir coLLectION and interpretatiOn of dATA (Sieb, 2017A). manIpulaTiOn of spaCE-timE intervals May
 covariance have a physica l constanc y. Th e g ene ra l co vari ance of space- t imeintervals, as definedby th eM inko w sk i met ric, en c om p a sse sco nsc io u sexper ien ce, spe cial relat ivi ty , general re l at ivity, and  qu antum mechan ics ; theMi nko w ski m etr ic is  an ax i om (pr emise, po st u late)f or a Th e o ry  ofEverything. It is in t eresting to ob serveho w  t h e  ge ner al covaria nc e ofs pace-ti m ei n t erv a ls was develo ped and ext e nde d to e nc omp a ss eve rythi ng .  Th e notion of  gen eral cova riance was dev e loped i n spec ial  re lati v it ytoen c omp a ss  in e rti al frame sof  refe renc e . S peci alrela tivit y was develop edto e x pla in ob serve d ph ys icalrealit y, wh ic h is essentiall y co nscious e xpe ri enc e.  Ther e  is an  in cre asing a mount o f  ev id e n c esuggesting that th eb r ai n proces ses th e  t hr e e basicty pes  ofs p ace-t imei nt ervals t o crea t ehu man con sc ious e xp eri enc es (S i eb,2015,2016, 20 17a,2 017b); the gen e ral covarianc e  o f sp a ce-t ime  intervalsis e x tend ed t o  h uma n  cons cious  e x pe r ience (observed phy si cal re ality ). In general  relativit y , the thre e ba s ic types of space -time  intervals are thesourc e of gra vity; the g eneral c ova ria nce  of s pa ce-time inter v a ls i sextende d t o encom pas s g rav ita ti on. In qu antum me ch an ic s,  th e thr e e basicty pes  o f s pace- t ime in terva ls a re  t h e t hree fu n da m e ntal  i nt erac tio ns  or f orce s ; t he gene ral covar ian c e of  s pa ce-time  intervals is  e xtended to  e nco mpassq u antum gr avity. Consequently, th e  genera l c ovari ance  of space -ti me int erv a ls for ms the  basi sofa Theor y of  Ev er ything (it e nco mpass es  eve rything ). Space-time inte r val s are very im por tant f or  hu m an bei ng s . T h e y are the funda mental com po n en ts of ourc ons ci ous liv es. Our  enti r e daily  activity  is based  o n th e pro cessing of  what, w here, and wheni nf ormat ion  carri ed  by  spac e-time int erval s (Sie b,  2017a ). We  e at (what ) at certain times (whe n) incerta inplaces (w her e ).We perfor m va rious task s ( wha t) at  ce r taintime s  ( whe n ) incert a in places (w her e ) .Our entirec o n sci ous l ive s  are d irec ted and organized through the pr oces s i ngofw hat,  w here, and when  in fo r m ation ca rr ied by spac e-time i nt e rvals . Allof our  higher c og n itiveproc ess ing and e xec ut i ve func ti on (atten tion ,percep tion,l earn i n g, memory, logic , pla n n ing,r eas oning ,calcula t ing,  decision- making, pro blem-s olvi ng, c reative  a bility , i nt entional a c tions) is  base d on th ewhat , w here,andw h en in form at ion  carriedb y  s p ac e- t ime  int erval s.  Sci entific r e search a t a l l level sisi m plemen t ed t hrough the  co llect i o n and inte r pret a ti o n ofthe wh at, wh ere, an d  wh en  inform ati o n  carriedby space- t ime  i nter vals (Si eb , 20 17 a).  I t is importantthat sci entistsp a y part icu l ar a t tentio nto space-tim e int er v als int h eir  collec t ion  an d i nter pre tati o n of data (Sieb, 2017a).  Man ipula t ion  of s pace- ti me inter v alsmay
 covariance_have a_physical constancy. The general_covariance of_space-time_intervals, as_defined_by the Minkowski_metric, encompasses conscious_experience, special relativity, general_relativity, and quantum_mechanics;_the Minkowski metric is an axiom (premise, postulate) for a Theory of Everything. It_is_interesting to_observe_how_the general covariance of space-time_intervals was developed and extended_to encompass_everything. The notion of general covariance was developed_in_special relativity to_encompass inertial frames of reference. Special relativity was developed_to explain observed physical reality, which_is essentially conscious_experience._There_is an increasing amount_of evidence suggesting that the brain_processes the three basic types of_space-time intervals to create human conscious experiences_(Sieb, 2015, 2016, 2017a, 2017b); the_general covariance of space-time intervals_is extended_to human conscious experience (observed_physical reality). In_general relativity,_the three basic_types of space-time intervals are the_source of gravity;_the general covariance of space-time intervals_is_extended to encompass_gravitation._In_quantum mechanics,_the three basic_types_of space-time_intervals_are the three fundamental interactions or_forces;_the general covariance of space-time intervals is_extended to encompass quantum_gravity._Consequently, the general covariance_of space-time intervals forms the_basis of a Theory of Everything_(it encompasses_everything). Space-time_intervals are very important for human beings. They are the fundamental_components of our conscious lives. Our_entire daily activity is_based on_the_processing of what,_where,_and when_information carried by space-time intervals (Sieb, 2017a)._We eat_(what) at certain times (when) in_certain places (where). We_perform_various tasks (what) at certain times_(when) in certain places (where). Our_entire conscious lives are directed_and_organized_through the processing of what,_where, and when information carried by_space-time intervals. All_of our higher cognitive processing and executive_function_(attention, perception, learning, memory, logic, planning,_reasoning,_calculating, decision-making, problem-solving, creative ability, intentional_actions)_is_based on the what, where,_and when information carried by space-time_intervals. Scientific research at all levels is implemented through_the collection and_interpretation of the what, where,_and_when_information carried by space-time intervals (Sieb, 2017a). It is important_that scientists_pay particular attention_to space-time intervals in their collection and interpretation of data_(Sieb, 2017a). Manipulation of space-time intervals may