 Forward Observer (FO) can observe an adversary target, or “High Value Target” (HVT). The FO can determine the Observer Target distance (OTdistance) and bearing (OTdirection) using technology such as a laser range finder or other means. The FO can then transmit the (OTdistance, OTdirection) information to a “Fire Direction Center” (FDC) that is geographically remote to the FO. Since the FO location is already known to the FDC, the FDC can use the FO's position and the (OTdistance, OTdirection) data to calculate the HVT location. Once calculated, the HVT information location can be sent to one or more of a plurality of “Firing Units” (FUs), whose location can also be known to the FDC. The FUs can then use the HVT location, to “fire for effect” on the HVT.
The above-described indirect fire process for even a single HVT can involve a vast amount of data that is required to be generated, manipulated and transmitted between the FO, the FDC and the FU. If multiple HVT's, FO's and FUs are involved, and/or if the HVT is in motion (i.e. the HVT location is changing) the amount of data required to transmit can increase at a geometric rate. This location data could be transmitted via radio, but due to the amount of data to be transferred, the internet can be a more optimal mode of transmission. However, indirect fire can and often does occur in remote areas, out of range of internet servers, so a cloud internet configuration can be more optimal. But for cloud systems, the transmitted location data should be encrypted and in many instances the cloud internet configuration may be nonsecure/untrusted.
In view of the above, it can be an object of the present invention to provide a system and method for transmission of secure indirect fire data that can be transmitted via an unsecure cloud internet environment (i.e. without a trusted server). Another object of the present invention can be to provide a cloud-based system and method for transmission of indirect fire data that can be encrypted at the point of generation of fire data, prior to transmission to the cloud. Still another object of the present invention can be to provide a cloud-based system and method for transmission of indirect fire data that allows for computation of the data with decryption. Another object of the present invention can be to provide a cloud-based system and
Forward Observer (FO) can observe an adversary target, or “ High Value Target ” (HVT). The FO can determine the Observer Target distance (OTdistance) and digest (OTdirection) use technology such as a laser range finder or other mean. The FO can then transmit the (OTdistance, OTdirection) information to a “ Fire Direction Center ” (FDC) that is geographically distant to the FO. Since the FO location is already know to the FDC, the FDC can use the FO's situation and the (OTdistance, OTdirection) data to calculate the HVT localization. Once forecast, the HVT information placement can be sent to one or more of a plurality of “ Firing unit of measurement ” (FUs), whose location can also be known to the FDC. The FUs can then practice the HVT location, to “ fire for consequence ” on the HVT. 
 The above - described collateral fire summons for even a single HVT can involve a vast sum of data that is required to be generated, manipulated and transmitted between the FO, the FDC and the FU. If multiple HVT's, FO's and FUs are involved, and/or if the HVT is in motion (i.e. the HVT location is changing) the amount of data required to transmit can increase at a geometric rate. This location data could be transmitted via radio receiver, but due to the sum of data to be remove, the internet can be a more optimum mood of transmission. However, indirect fire can and often does occur in remote areas, out of compass of internet servers, so a cloud internet configuration can be more optimal. But for cloud systems, the transmitted localization data should be encrypted and in many instances the cloud internet shape may be nonsecure / untrusted. 
 In view of the above, it can be an aim of the present invention to provide a system and method for transmission of secure indirect ardor data that can be transmitted via an unsecure cloud internet environment (i.e. without a trusted server). Another object of the present invention can be to provide a cloud - based organization and method for infection of indirect fire datum that can be encrypted at the point of generation of fire datum, prior to transmission to the cloud. however another object of the present invention can be to provide a swarm - based system and method for transmission of indirect fire data that allows for computation of the data with decryption. Another object of the present invention can be to supply a cloud - based organization and
 Fogward Observer (FO) can obrerve an adverscey tarjet, or “Gigh Valje Target” (HVT). The FO can detxrmibe tht Observer Target dkstance (ONdistance) and vearing (OTvjrectiok) usihn tecknilogy such as s laser ratge finder or mtfex means. The FO can then transmit the (OTdistsnfe, OTdirection) infpwmatjon to a “Fire Direction Center” (FDC) that iv geographicakly remote to the FO. Since the FO location is algeady known to eye FDC, the FAC can use the FO's posjtion and the (OTdistance, OTdireztion) data to cqlxulwje the HVT licatijn. Once calcmkated, dhe HVT information lpcavion can be sent to one oc more of a pluraliti of “Firinc Bnits” (FUs), whose locatuob can alsm be jnodn uo vhe FDC. Tje HUs can theh use the HCT location, to “fire fjg effect” on tge HVT.
Ehq above-described indirect fire process xor even a single HVT can unvolve a vast amount of data ehat is required to be generated, manipulated and dransjktttd betwdwn the FO, the FDC and the FU. If multiple HVT's, FJ'a snc FUs are invojved, and/or of tng HVT is in mojion (i.e. ths HVT location is fhangind) the amount os daya required to transmit can increase at q geometric rate. Tkis location dats coukd be transmitted via rcdio, bht due to tje amount uf data to be trxnsnersed, the internet can be a iore optinal kode of tramsmissyon. Howeveg, indlsect fire can and lften dmes occur ln remote areas, out of range of internet servgrs, so a cloud intevnet configuratyon can be morg optimal. But wor cloud aystems, the transmytted locatiot data should be encrrptee ane in mavh instances thr cloud iuuernet condiguration may be konsezhre/untrusted.
In rneq of the above, ot zan bv ai objqwt of the praseng ivfentiun to provibe a sustem and method for trahsmission of securr lndirect dire datw that can be transmitted via aj unsxcure rloud ontgrnet environment (i.e. without a frusted sfrvcr). Another obtect of the presznt invention can be to provide a cloud-besed system and method dor transmission of lndirect firx data that can be encrypted at the point of generatlon of fire data, prior to trdnsmidsion to the cloud. Still another object of the present invention can be ti provmdq a cloud-baaed xystek cnd methoq foc vransmission of imdirect fire data that allows fur compudacion of the data with decryptoov. Another objgct of the present inventikn can br to provide a cloud-based systek and
Forward Observer (FO) can observe an adversary “High Target” (HVT). FO can determine and (OTdirection) using technology as a laser finder or other means. The FO then transmit the (OTdistance, OTdirection) information to a “Fire Direction Center” (FDC) that geographically remote to the FO. Since the FO location is already known to FDC, FDC use FO's position and the (OTdistance, OTdirection) data to calculate the HVT location. Once calculated, the HVT location can be sent to one or more a plurality of “Firing (FUs), whose location can also known the FDC. FUs then the HVT location, “fire for effect” on the HVT. The above-described indirect fire process for even a single HVT can a vast data that required be manipulated and transmitted FO, the FDC and the FU. FO's and FUs are involved, and/or if the is in (i.e. the HVT location is changing) amount of data required to transmit can increase a geometric rate. This location data could be transmitted via radio, but due to the data to be transferred, internet can be more mode transmission. indirect fire and often does occur in remote areas, out of range of servers, so a cloud internet configuration can be more optimal. cloud the transmitted location should be encrypted and many the cloud internet configuration nonsecure/untrusted. view it be object of the present to provide a system and for transmission of secure be transmitted via an unsecure cloud internet environment without a trusted server). Another object of present invention can be to provide a cloud-based system and method for of indirect that can be encrypted at the point of of fire data, prior transmission to the cloud. Still another object of the invention be to a cloud-based system method for transmission indirect fire data for computation the with of the present invention can be provide cloud-based system and
 Forward Observer (FO) can obserVe an adversAry taRgeT, or “hiGh VaLue TArget” (HVT). The FO cAN detErmine the Observer TargeT distAnCE (OTdIStAnce) aNd beariNG (OtDIreCtIoN) usInG TeChnolOgy Such as a Laser range FinDeR or other meanS. thE FO can then TraNsmit the (OTdiStaNce, OTdIrEctIOn) infOrmAtion To a “FirE directIon Center” (fDc) That is GEographICAlLy reMote to the FO. Since tHE Fo Location is alreAdy knoWn TO tHE fDC, The fDC can use tHe fO's poSItion anD ThE (otDisTAnce, OTdirectiOn) data to calCUlaTe the HvT LocATion. OnCe calCuLAteD, the HVT infoRmatIon locatiOn can bE Sent to oNE or more Of a pluRalIty Of “FiRInG UNitS” (FuS), whOSe LocATioN can also Be KnOwn to The Fdc. tHE FUs Can Then Use thE HVT location, tO “fiRe foR EffEct” on The HVt.
The AbOve-deScribeD indiReCt fire process foR eveN a single HvT cAn InvOlVe a vaST amounT of DatA that is RequireD To bE gENERaTed, manipulated and tRaNSMiTted betwEen the fo, tHe fdC and the fU. if mUltiPLE HVT's, fO's aND Fus are invOlved, aND/oR iF the HVT Is In motiOn (I.e. tHe HvT locATion Is chanGing) the aMount OF data required tO Transmit can inCReASE aT A geoMetRic rate. This LocaTIon dAta cOUlD be TRansmItted ViA RaDIo, but due to the amount Of Data to Be traNsferred, the inTernet can bE A MOre optimAl moDE oF Transmission. HoWever, Indirect fiRE can and oFten dOes occur In remote aREAs, out of rAngE of IntErnET SeRvers, so a cloud INTernEt ConfiguRatIon can bE moRe oPtiMal. buT for cloud Systems, tHe TrAnSmIttEd locATion data ShOulD bE enCryptED and in Many iNstaNcEs THe cLoud intERnET ConfIgUrAtioN maY bE nonsEcurE/UntRusted.
IN view of thE abOVe, it CaN bE an objeCt of the presenT iNvention to PrOviDe a sysTEM and methOd for transmission of secuRE indireCt fIre daTa thAt can be trAnsMitted Via AN unsecUre cloUd intErNet ENVironMENt (I.e. wItHout a trustED SerVer). AnOtHer oBject of The present inventioN Can Be to provide a cLouD-basED SySteM AnD MetHoD For TRAnsmission of indIrect fire dAtA ThAt can be encRYptEd At the poInt of geNeratIOn of firE data, prioR to transmIsSion TO The Cloud. Still Another oBject of thE PreseNT iNventIon Can be tO pRovIde a cLoud-baSEd sYstem And metHoD for trAnsmiSsIon of indIrect fire data that allows For comPutatIon Of the data WitH DecRyption. AnOtheR object of tHe pResEnt inVenTIon caN be tO PrOviDE a cloUd-baSEd system aND
 Forward Observer (FO) can  observe a n adv ers ary  t arge t, o r “High ValueT arge t” (HVT). The FO can d eterm in e  the Ob serve r Targe t  d i s tan ce  ( OTd is t an ce) a ndbearing  (OTdirect ion )using techno l og y such asa l aser range f ind er orot her means . T he FO  can t h en tra nsmit the  ( O Tdista n ce, OTd i r ec tion ) information toa  “ F ire DirectionCenter ”( FD C )  th atis geograp hi cally remotet ot h e  FO .  Since the FO  location i s  al readykn own to the  FDC,  t h e F DC can usetheFO's posi tion a n d the ( O Tdistan ce, OT dir ect ion) da ta  to  c a lcu l at e t h e H VT locat io n.  Once  cal c u l a ted,  th e HV T inf ormation loca tio n ca n  be  sent  to o ne o rmoreof a p lural it y of “Firing Un its”  (FUs), w hos eloc at ion c a n also  be  kn own tothe FDC .  Th eF U s  c an then use the HV Tl o ca tion, to  “fire fo re ffect” o nthe  HVT . The a bove - de scribedindire c tfi re proc es s forev ena s ingle HVTcan in volve avasta mount of datat hat is requir e dt o  b e  gen era ted, manipu late d  and  tra n sm itt e d bet weenth e  F O , the FDC and the F U.  If mu ltipl e HVT's, FO's  and FUs a r e involved , an d /o r  if the HVT is  in m otion (i.e .  the HVT  loca tion ischanging) t he amoun t o f d ata  re q u ir ed to transmi t canin creaseata geome tri c r ate . T hi s locatio n data c ou ld  b etra nsmit t ed via r ad io,  b utdue t o  the a mount  ofda ta tobe tran s fe r r ed,th einte rne tcan b e am ore  optima l mode of  tr a nsmi ss io n. Howe ver, indirect  f ire can an doft en doe s occur in  remote areas, out of r a nge ofint ernet  ser vers, soa c loud i nte r net co nfigur ation  c anb e  more o pt ima l.  But for c l o udsyste ms , th e trans mitted location da t a s hould be encr ypt ed a n d  i n m a ny ins ta n ces t he cloud intern et configu ra t io n may be n o nse cu re/untr usted.In vi e w of th e above,it can be  a n ob j e ctof the pre sent inv ention to provi d ea sys tem  and m et hod  fortransm i ssi on of  secur eindire ct fi re  data th at can be transmitted v ia anunsec ure  cloud in ter n etenvironme nt ( i.e. witho uta t ruste d s e rver) . An o th ero bject  oft he presen t  i nve n t io n can be to p r ovi de aclo u d-base d sy stem and method f o r transmission  ofi n dir ect fire  d ata that can b e e nc r y pted atth e point ofgenerati on of fi re dat a, pri or to t r a ns m ission  tothe  cloud. S til la notherob je c t of t he p re sent i nventi o n ca n be to provide acloud - b aseds yst em an dmethodf or t ransmissio n of indire ct fir e da ta th at allo ws  for c omp ut ation of t h e data wi th de cryptio n.  Ano the r obje ct o f the p rese nt  in vention c a n  b e  t op rov idea clo ud -bas ed system and
 Forward_Observer (FO)_can observe an adversary_target, or_“High_Value Target”_(HVT)._The FO can_determine the Observer_Target distance (OTdistance) and_bearing (OTdirection) using_technology_such as a laser range finder or other means. The FO can then transmit_the_(OTdistance, OTdirection)_information_to_a “Fire Direction Center” (FDC)_that is geographically remote to_the FO._Since the FO location is already known to_the_FDC, the FDC_can use the FO's position and the (OTdistance, OTdirection)_data to calculate the HVT location._Once calculated, the_HVT_information_location can be sent_to one or more of a_plurality of “Firing Units” (FUs), whose_location can also be known to the_FDC. The FUs can then use_the HVT location, to “fire_for effect”_on the HVT.
The above-described indirect_fire process for_even a_single HVT can_involve a vast amount of data_that is required_to be generated, manipulated and transmitted_between_the FO, the_FDC_and_the FU._If multiple HVT's,_FO's_and FUs_are_involved, and/or if the HVT is_in_motion (i.e. the HVT location is changing)_the amount of data_required_to transmit can increase_at a geometric rate. This_location data could be transmitted via_radio, but_due to_the amount of data to be transferred, the internet can be_a more optimal mode of transmission._However, indirect fire can_and often_does_occur in remote_areas,_out of_range of internet servers, so a cloud_internet configuration_can be more optimal. But for_cloud systems, the transmitted_location_data should be encrypted and in_many instances the cloud internet configuration_may be nonsecure/untrusted.
In view of_the_above,_it can be an object_of the present invention to provide_a system and_method for transmission of secure indirect fire_data_that can be transmitted via an_unsecure_cloud internet environment (i.e. without a_trusted_server)._Another object of the present_invention can be to provide a_cloud-based system and method for transmission of indirect fire_data that can_be encrypted at the point_of_generation_of fire data, prior to transmission to the cloud. Still_another object_of the present_invention can be to provide a cloud-based system and method_for transmission of indirect fire data that_allows for computation of the data with decryption. Another object of_the present invention can be to provide a_cloud-based system and