.2 :Al.sub.2 O.sub.3 in the precipitation batch.
The instantaneously forming precipitates of amorphous sodium aluminosilicate upon mixing of aluminate solutions with silicate solutions above room temperature lead to the formation of a gel-like reaction mixture that has no fluidity at first. This, in the one hand, makes a thorough and complete mixing of the two reaction components and thus also the obtaining of a homogeneous reaction product difficult and, on the other hand, delays also a subsequent crystallization of the amorphous product, if this is desired. Beyond this, the effect causes the formation of a relatively coarse-grained product containing large proportions with a particle diameter exceeding 50.mu.. With a batch precipitation of sodium aluminosilicate, the no longer fluid reaction mixture usually can be liquefied again by a sufficiently long application of strong shear forces. Until now, however, a continuous precipitation of amorphous sodium aluminosilicate was made impossible by the brief available time, due to the continuous process at technologically significant rates, which was inadequate to break up or crush the nonfluid reaction mixture sufficiently to reliquefy it. 1. Field of the Invention
The present invention generally relates to digital receivers used at the input of a digital device to detect a digital signal and transmit it without error to the device. More specifically, the present invention relates to the design of digital receivers that may be used to receive noisy digital input signals.
2. Description of Related Art
Digital receivers are used at the input of digital devices, such as digital devices connected to a digital network. The receiver's function is to detect when a digital input signal is high or low, corresponding to digital ones and zeros, and pass that signal through to the digital device. It is of prime importance that the receiver accurately transmit the input signal, without error, and without introducing additional false digital data. This can be difficult when the digital input signal is noisy.
For use in high speed systems, it is desirable for the receiver to have the fastest possible response. However, receiver accuracy cannot be sacrificed to achieve higher speeds. When the digital input signal is guaranteed to be "clean", i.e., where the signal has little or no noise associated with it, the receiver can be designed to be very fast. Real world digital signals, on the other hand, often have a great deal of noise, particularly at the transitions between each low and high. In the presence of such noise, a high speed receiver may not accurately track the input signal
.2: Al.sub.2 O.sub.3 in the precipitation batch. 
 The instantaneously forming precipitates of amorphous sodium aluminosilicate upon mixing of aluminate solution with silicate solution above room temperature lead to the formation of a gel - comparable reaction mixture that have no fluidity at first. This, in the one hand, makes a thorough and complete mix of the two reaction components and thus also the obtaining of a homogeneous chemical reaction product difficult and, on the early hand, delay besides a subsequent crystallization of the amorphous product, if this is desired. Beyond this, the impression causes the formation of a relatively coarse - ingrain product incorporate large proportions with a particle diameter exceeding 50.mu.. With a batch precipitation of sodium aluminosilicate, the no longer fluent reaction mixture usually can be liquefied again by a sufficiently long application of solid shear force. Until now, however, a continuous precipitation of amorphous sodium aluminosilicate was made impossible by the brief available time, due to the continuous process at technologically significant rates, which was inadequate to unwrap up or crush the nonfluid reaction mixture sufficiently to reliquefy it. 1. sphere of the Invention 
 The present invention generally relates to digital receivers use at the stimulation of a digital device to detect a digital signal and transmit it without error to the device. More specifically, the present invention relate to the design of digital receivers that may be used to receive noisy digital remark signals. 
 2. Description of Related Art 
 Digital receivers are used at the input of digital device, such as digital device connected to a digital network. The receiver's function is to detect when a digital input signal is eminent or low, corresponding to digital ones and zero, and pass that signal through to the digital device. It is of prime importance that the receiver accurately transmit the remark signal, without error, and without introducing extra false digital data. This can be difficult when the digital input signal is noisy. 
 For function in high amphetamine systems, it is desirable for the receiver to have the fastest possible reply. However, receiver accuracy cannot be sacrificed to achieve higher speeds. When the digital input signal is guaranteed to be " clean ", i.e., where the signal has little or no noise associate with it, the receiver can be designed to be very debauched. Real world digital signals, on the other hand, often receive a great deal of noise, particularly at the transitions between each low and eminent. In the bearing of such noise, a high speed receiver may not accurately track the input signal
.2 :Al.dub.2 O.sub.3 in the precipitxtion batch.
The nbstanteneouslg formine precipitates of amorphous doeium qluminosilicate upon mkxing of wluminatw sooytions witi silicabz solhbions ebove room tempgrature lead to the formathov lf a gel-like reaction mixture that ras no glkidity at firsj. Thix, in fhe one hand, makes a thorough and domplett mixing of the twp reaction components and hhus also the obtaininh of a homotenejys reaction oroduct difficult and, kn the other hand, delays also a subszquent crysjcolixdtion of thx amorihous product, if this is desored. Beyond thls, thx efdect causes the formavion of a relatively coarse-grdiued product containint oarge pro[ortkins wiuh e pzrticlf dmameter excseding 50.mu.. Wuth a batch precipiuatyin of sodium zluminjsylicate, the no longer fluid reaction miqturs usually can be liquefued again by a sufficlently logg application of strong shear forces. Until now, hmwevec, x cinbinuuys precipitation of amorphous sodium aluminosilydaue eas made imposfible by thr hrogf available tkme, duz tk the continuous pgocess wt texhnologicwlly significant rates, which waw inadequate ro break up or crudh the nonfuuid reacyion mixture sufficientuy tk reliquefy it. 1. Fiels of the Inventiov
Thv prasent invention generally welates ti diyital rezeivgrs useq at the ijput of a digital device to dgtect d digital dignal and transmit it without xcror to the dgviwe. Kore speeificakly, the presegt invention rglates to the aesign of sigital receivers ehat may be uvgd to receive noisy dygitql ibput sievals.
2. Descriptipn of Relcued Art
Digutal receivers are usgd at the input oy eigital devices, suzh ws dmgitaj devices contectdd gp a dkgital netwifk. Tne receiver's functiot is to detect when a cinital inpot signal is high or lpw, corresponding tl digmtal oies anc zgros, and pass that signal throufh to the dinital device. Yt iw of prime ikportance that the receiver accurately vransmit the input signql, without error, anb eithout intcoducigg additimnal false digital dqta. This can be dlfficult when the digifal in[ut slgnal is noisy.
For use in high speed systems, it is desirable for the receicer to have the faatesy posviyle respogse. Ioxever, receiver acburacy cannot be sacrificed to arhieve higvex speeds. When the digital inpit signal is guxranteed to be "clean", i.e., shere thr signal has little or no noise associated with it, the veceiver xan bs designed to be very fast. Rral woxld ditital sugnaps, on the othdr nakd, often hwve e gxeat deal of noise, particularly ar the rrwnsitions betweei each low akd high. In thg presence of sucg nojde, a figh speed reveiver may not accurately track thv igput signal
.2 :Al.sub.2 O.sub.3 in the precipitation batch. forming of amorphous aluminosilicate upon mixing solutions room temperature lead the formation of gel-like reaction mixture that has no at first. This, in the one hand, makes a thorough and complete mixing the two reaction components and thus also the obtaining of a homogeneous reaction difficult on other delays also a subsequent crystallization of the amorphous product, if this is desired. Beyond this, the causes the formation of a relatively coarse-grained product large proportions with a diameter exceeding 50.mu.. With a precipitation sodium aluminosilicate, no fluid mixture usually can liquefied again by a sufficiently long application of strong shear forces. Until now, however, a continuous precipitation amorphous sodium made impossible the available due to the at technologically significant rates, which was up or crush the nonfluid reaction mixture sufficiently reliquefy it. Field of the Invention The present generally relates to digital receivers used at the of a digital device to detect a digital signal and transmit it without error to More specifically, the present relates to the of receivers may used to noisy digital input signals. 2. Description of Related Art Digital receivers used at the input of digital devices, such as digital to digital network. The function is to detect a input signal is high corresponding digital and that through to the digital It is of prime importance the receiver accurately transmit and without introducing additional false digital data. This be difficult when the digital input signal noisy. For use in high speed systems, it is desirable for the to have possible response. However, receiver accuracy cannot be sacrificed achieve higher speeds. When digital input signal is guaranteed to be "clean", i.e., the has little no noise associated it, the receiver be designed to fast. Real digital on often have a great deal of particularly the transitions between each low high. presence of such noise, a high speed receiver may not accurately track the input signal
.2 :Al.sub.2 O.sub.3 in the precipitatiOn batch.
The InstaNtaNeoUsLy foRminG precipitates oF AmorPhous sodium aluminosiliCate uPoN MixiNG oF alumInate soLUtIONs wItH sIliCaTE sOlutiOns Above roOm temperatUre LeAd to the formaTIoN of a gel-likE reAction mixturE thAt has nO fLuiDIty at FirSt. ThiS, in the ONe hand, Makes a thoRoUGh and cOMplete mIXInG of tHe two reaction compONeNTs and thus also tHe obtaInINg OF A hoMogEneous reacTiOn proDUct diffICuLT ANd, oN The other hand, dElays also a sUBseQuent cRyStaLLizatiOn of tHe AMorPhous producT, if tHis is desiRed. BeyONd this, tHE effect Causes The ForMatiON oF a RelAtIVelY CoArsE-GraIned prodUcT cOntaiNing LARGE proPorTionS with A particle diamEteR excEEdiNg 50.mu.. WIth a bAtch PrEcipiTation Of sodIuM aluminosilicatE, the No longer fLuiD rEacTiOn mixTUre usuAllY caN be liquEfied agAIn bY a SUFFiCiently long applicaTiON Of Strong shEar forCEs. unTIl now, howEvEr, a ContINUous pReciPItAtion of aMorphoUS sOdIum alumInOsilicAtE waS maDe impOSsibLe by thE brief avAilabLE time, due to the cONtinuous proceSS aT TEcHNoloGicAlly signifiCant RAtes, WhicH WaS inADequaTe to bReAK uP Or crush the nonfluid rEaCtion mIxturE sufficiently To reliquefY IT. 1. field of tHe InVEnTIon
The present iNventIon generalLY relates To digItal receIvers used AT The input Of a DigItaL deVICe To detect a digiTAL sigNaL and traNsmIt it witHouT erRor To tHe Device. MorE specifiCaLlY, tHe PreSent iNVention rElAteS tO thE desiGN of digItal rEceiVeRs THat May be usED tO REceiVe NoIsy dIgiTaL inpuT sigNAls.
2. descripTion of RelAteD art
DIgItAl receiVers are used at ThE input of diGiTal DeviceS, SUch as digItal devices connected to a DIgital nEtwOrk. ThE recEiver's funCtiOn is to DetECt when A digitAl inpUt SigNAL is hiGH Or Low, CoRrespondinG TO diGital OnEs anD zeros, aNd pass that signal thROugH to the digital DevIce. IT IS oF prIMe IMpoRtANce THAt the receiver acCurately trAnSMiT the input sIGnaL, wIthout eRror, and WithoUT introdUcing addiTional falSe DigiTAL daTa. This can bE difficuLt when the DIgitaL InPut siGnaL is noiSy.
for Use in High spEEd sYstemS, it is dEsIrable For thE rEceiver tO have the fastest possible ResponSe. HowEveR, receiver AccURacY cannot be SacrIficed to acHieVe hIgher SpeEDs. WheN the DIgItaL Input SignAL is guaranTEeD to BE "ClEan", i.e., where tHE SIgnAl has LitTLe or no NoisE associated with it, THe receiver can bE desIGNed To bE Very FaSt. Real world digItaL sIGNals, on thE oTher hand, oftEn have a gReAT deal Of noisE, partiCularly AT ThE TransiTionS beTween each Low AnD High. In tHe PrESence oF sucH nOise, a hIgh speED recEIVer may not accuratEly trACK the iNPut SignaL
.2 :Al.sub.2 O.sub.3 in th e precipit ation  ba tch .Theinst antaneously fo r ming  precipitates of amorp housso d iuma lu minos ilicate up o n  mi xi ng  of  a l um inate  so lutions  with sili cat esolutions ab o ve  room temp era ture lead to  th e form at ion of agel -like  react i on mix ture that  h a s no f l uiditya t  f irst . This, in the on e  h a nd, makes a th orough  a n dc o mpl ete  mixing of  t he tw o  reacti o nc o m pon e nts and thusalso the ob t ain ing of  a  ho m ogeneo us re ac t ion  product di ffic ult and,on the other h a nd, del ays al soa s ubse q ue nt  cr ys t all i za tio n  of  the amo rp ho us pr oduc t , i f th isis d esire d. Beyond thi s,thee ffe ct ca usesthefo rmati on ofa rel at ively coarse-gr aine d product  co nt ain in g lar g e prop ort ion s witha parti c ledi a m e te r exceeding 50.mu. .W i th  a batch  preci p it at i on of so di umalum i n osili cate ,  t he no lo nger f l ui dreactio nmixtur eusu all y can be l iquefi ed again  by a sufficiently l o ng applicatio n  o f st r ongshe ar forces.Unti l  now , ho w ev er, a con tinuo us pr e cipitation of amorp ho us sod ium a luminosilicat e was made i m possible  byt he brief availabl e tim e, due tot he conti nuous  process  at techn o l ogically  si gni fic ant r at es, which was i nade qu ate tobre ak up o r c rus h t heno nfluid re action m ix tu re  s uff icien t ly to re li que fy  it . 1.F ield o f the  Inv en ti o n
T he pres e nt i nven ti on  gen era ll y rel ates todigital  receiver s u s ed a tth e input  of a digital  d evice to d et ect  a dig i t al signa l and transmit it witho u t error  to  thedevi ce. Morespe cifica lly ,  the p resent  inve nt ion r elate s to  th edesign ofd i git al re ce iver s thatmay be used to rec e ive  noisy digita l i nput s ig nal s .2 . D es c rip t i on of Related A rt
Digital  r e ce ivers areu sed  a t the i nput of  digi t al devi ces, such  as digit al  dev i c esconnectedto a dig ital netw o rk. T h erecei ver 's fun ct ion  is t o dete c t w hen a  digit al  input  sign al  is high  or low, correspondingto dig italone s and zer os, and  pass tha t si gnal throu ghtothe d igi t al de vice .  I t i s  of p rime importanc e  t hat t he  receiver a c c u rat ely t ran s mit th e in put signal, witho u t error, and w itho u t  in tro d ucin gadditional fal sedi g i tal data .This can be  difficu lt whenthe di gitalinput s i g na l  is no isy. 
Fo r use inhig hs peed sy st em s , it i s de si rablefor th e  rec e i ver to have thefaste s t  poss i ble  resp on se. How e ver,  receiveraccuracy ca nnot b e sa crifi ced toac hievehig he r speeds.W hen the d igita l input  s igna l i s guar ante e d  to b e "c le an" , i.e., w h e re th es ign al h as li tt le o r no nois e  associa ted with it ,the r eceive r  c a n  be design edto be v ery fast.R ealw or l d dig ital s ignals , on th e  ot he r hand,  of t e n have agreat dea l  of  n oise , partic ul arly  a t t he  transitions be tween ea ch low a n d  high.  In thep resenc eof such nois e, ahi g h speed r ece iver ma y  no t a ccu rate lytrac k  the input signal
.2 :Al.sub.2_O.sub.3 in_the precipitation batch.
The instantaneously_forming precipitates_of_amorphous sodium_aluminosilicate_upon mixing of_aluminate solutions with_silicate solutions above room_temperature lead to_the_formation of a gel-like reaction mixture that has no fluidity at first. This, in_the_one hand,_makes_a_thorough and complete mixing of_the two reaction components and_thus also_the obtaining of a homogeneous reaction product difficult_and,_on the other_hand, delays also a subsequent crystallization of the amorphous_product, if this is desired. Beyond_this, the effect_causes_the_formation of a relatively_coarse-grained product containing large proportions with_a particle diameter exceeding 50.mu.. With_a batch precipitation of sodium aluminosilicate, the_no longer fluid reaction mixture usually_can be liquefied again by_a sufficiently_long application of strong shear_forces. Until now,_however, a_continuous precipitation of_amorphous sodium aluminosilicate was made impossible_by the brief_available time, due to the continuous_process_at technologically significant_rates,_which_was inadequate_to break up_or_crush the_nonfluid_reaction mixture sufficiently to reliquefy it._1._Field of the Invention
The present invention generally_relates to digital receivers_used_at the input of_a digital device to detect_a digital signal and transmit it_without error_to the_device. More specifically, the present invention relates to the design of_digital receivers that may be used_to receive noisy digital_input signals.
2._Description_of Related Art
Digital_receivers_are used_at the input of digital devices, such_as digital_devices connected to a digital network._The receiver's function is_to_detect when a digital input signal_is high or low, corresponding to_digital ones and zeros, and_pass_that_signal through to the digital_device. It is of prime importance_that the receiver_accurately transmit the input signal, without error,_and_without introducing additional false digital data._This_can be difficult when the digital_input_signal_is noisy.
For use in high_speed systems, it is desirable for_the receiver to have the fastest possible response. However,_receiver accuracy cannot_be sacrificed to achieve higher_speeds._When_the digital input signal is guaranteed to be "clean", i.e.,_where the_signal has little_or no noise associated with it, the receiver can be_designed to be very fast. Real world_digital signals, on the other hand, often have a great deal_of noise, particularly at the transitions between each_low and high. In the presence of_such noise, a high_speed_receiver may not accurately track the input_signal