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Metamath Proof Explorer |
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| Bibliographic Reference | Description | Metamath Proof Explorer Page(s) |
|---|---|---|
| [AkhiezerGlazman] p. 30 | Definition of operator | df-hosum 9514 |
| [AkhiezerGlazman] p. 39 | Definition of linear operator norm | df-nmo 8415 |
| [AkhiezerGlazman] p. 64 | Theorem | hmopidmch 10087 hmopidmcht 10089 |
| [AkhiezerGlazman] p. 65 | Theorem 1 | pjcmmul1 10138 pjcmmul2 10139 |
| [AkhiezerGlazman] p. 72 | Theorem | cnvunopt 9850 unoplint 9852 |
| [AkhiezerGlazman] p. 72 | Equation 2 | unopadj2t 9870 unopadjt 9851 |
| [AkhiezerGlazman] p. 73 | Theorem | elunop2t 9946 lnopuni 9945 |
| [AkhiezerGlazman] p. 80 | Proposition 1 | adjlnopt 10027 |
| [Apostol] p. 18 | Theorem I.1 | addcan 5375 addcant 5376 |
| [Apostol] p. 18 | Theorem I.2 | negeu 5379 |
| [Apostol] p. 18 | Theorem I.3 | negsub 5405 negsubt 5406 |
| [Apostol] p. 18 | Theorem I.4 | negneg 5414 negnegt 5417 |
| [Apostol] p. 18 | Theorem I.5 | subdi 5453 subdir 5454 subdirt 5452 subdit 5451 |
| [Apostol] p. 18 | Theorem I.6 | mul01 5455 mul01t 5467 mul02 5456 mul02t 5468 |
| [Apostol] p. 18 | Theorem I.7 | mulcan 5710 mulcanOLD 5711 mulcant 5714 mulcant2 5712 mulcant2OLD 5713 mulcantOLD 5715 |
| [Apostol] p. 18 | Theorem I.8 | receu 5725 |
| [Apostol] p. 18 | Theorem I.9 | divrec 5756 divrect 5758 divrecz 5757 |
| [Apostol] p. 18 | Theorem I.10 | recrec 5782 recrect 5790 |
| [Apostol] p. 18 | Theorem I.11 | mul0or 5718 mul0ort 5720 |
| [Apostol] p. 18 | Theorem I.12 | mul2neg 5471 mul2negt 5478 mulneg1 5469 mulneg1t 5475 |
| [Apostol] p. 18 | Theorem I.13 | divadddiv 5802 divadddivt 5798 |
| [Apostol] p. 18 | Theorem I.14 | divmuldiv 5800 divmuldivt 5794 |
| [Apostol] p. 18 | Theorem I.15 | divdivdiv 5803 divdivdivt 5799 |
| [Apostol] p. 20 | Axiom 7 | rpaddclt 6304 rpmulclt 6305 |
| [Apostol] p. 20 | Axiom 9 | 0nrp 6307 |
| [Apostol] p. 20 | Theorem I.17 | lttr 5609 |
| [Apostol] p. 20 | Theorem I.18 | ltadd1 5615 |
| [Apostol] p. 20 | Theorem I.19 | ltmul1 5836 ltmul1i 5835 ltmul1t 5844 ltmul2 5848 ltmul2t 5845 ltmullem 5664 |
| [Apostol] p. 20 | Theorem I.20 | msqgt0 5637 msqgt0t 5639 |
| [Apostol] p. 20 | Theorem I.21 | lt01 5704 |
| [Apostol] p. 20 | Theorem I.23 | lt0neg1t 5692 ltneg 5627 ltnegt 5679 |
| [Apostol] p. 20 | Theorem I.25 | lt2add 5620 lt2addt 5667 |
| [Apostol] p. 20 | Definition of positive numbers | df-rp 6295 |
| [Apostol] p. 21 | Exercise 4 | recgt0 5876 recgt0i 5828 recgt0t 5875 |
| [Apostol] p. 22 | Definition of integers | df-z 6150 |
| [Apostol] p. 22 | Definition of positive integers | dfnn2 5950 |
| [Apostol] p. 22 | Definition of rationals | df-q 6270 |
| [Apostol] p. 24 | Theorem I.26 | supeu 4597 supeui 4602 |
| [Apostol] p. 26 | Theorem I.28 | nnunb 6084 |
| [Apostol] p. 26 | Theorem I.29 | arch 6085 |
| [Apostol] p. 28 | Exercise 2 | btwnz 6230 |
| [Apostol] p. 28 | Exercise 3 | nnreclt 6086 |
| [Apostol] p. 28 | Exercise 4 | rebtwnz 6237 |
| [Apostol] p. 28 | Exercise 5 | zbtwnre 6236 |
| [Apostol] p. 28 | Exercise 6 | qbtwnre 6292 |
| [Apostol] p. 28 | Exercise 10(a) | zneo 6215 |
| [Apostol] p. 29 | Theorem I.35 | sqrth 6714 |
| [Apostol] p. 34 | Theorem I.36 (principle of mathematical induction) | peano5nn 5940 |
| [Apostol] p. 34 | Theorem I.37 (well-ordering principle) | nnwo 6473 |
| [Apostol] p. 361 | Remark | crmul 6755 crrecz 6756 |
| [Apostol] p. 363 | Remark | absgt0 6857 |
| [Apostol] p. 363 | Example | abssub 6860 |
| [BellMachover] p. 36 | Lemma 10.3 | id1 60 |
| [BellMachover] p. 97 | Definition 10.1 | df-eu 1385 |
| [BellMachover] p. 460 | Notation | df-mo 1386 |
| [BellMachover] p. 460 | Definition | mo3 1404 |
| [BellMachover] p. 461 | Axiom Ext | ax-ext 1463 |
| [BellMachover] p. 462 | Theorem 1.1 | bm1.1 1466 |
| [BellMachover] p. 463 | Axiom Rep | axrep5 2706 |
| [BellMachover] p. 463 | Scheme Sep | axsep 2710 |
| [BellMachover] p. 463 | Theorem 1.3ii | bm1.3ii 2714 |
| [BellMachover] p. 466 | Axiom Pow | axpow2 2753 |
| [BellMachover] p. 466 | Axiom Union | axun2 2877 |
| [BellMachover] p. 468 | Definition | df-ord 2960 |
| [BellMachover] p. 469 | Theorem 2.2(i) | ordirr 2975 |
| [BellMachover] p. 469 | Theorem 2.2(iii) | onelon 2981 |
| [BellMachover] p. 469 | Theorem 2.2(vii) | ordn2lp 2977 |
| [BellMachover] p. 471 | Definition of N | df-om 3141 |
| [BellMachover] p. 471 | Problem 2.5(ii) | bm2.5ii 3028 |
| [BellMachover] p. 471 | Definition of Lim | df-lim 2962 |
| [BellMachover] p. 472 | Axiom Inf | zfinf 4647 |
| [BellMachover] p. 473 | Theorem 2.8 | limom 3155 |
| [BellMachover] p. 477 | Equation 3.1 | df-r1 4665 |
| [BellMachover] p. 478 | Definition | rankval2 4692 |
| [BellMachover] p. 478 | Theorem 3.3(i) | r1ord3 4679 |
| [BellMachover] p. 480 | Axiom Reg | zfreg2 4616 |
| [BellMachover] p. 488 | Axiom AC | ac5 4774 aceq4 4756 |
| [BellMachover] p. 490 | Definition of aleph | alephval3 4926 |
| [BeltramettiCassinelli] p. 107 | Remark 10.3.5 | atom1d 10289 |
| [BeltramettiCassinelli] p. 166 | Theorem 14.8.4 | irred 10330 irredt 10331 |
| [BeltramettiCassinelli1] p. 400 | Proposition P8(ii) | atoml2 10319 |
| [Beran] p. 3 | Definition of join | dfchj3 9333 sshjval3t 9334 |
| [Beran] p. 39 | Theorem 2.3(i) | cmcm2 9544 cmcm2i 9549 cmcm2t 9567 |
| [Beran] p. 40 | Theorem 2.3(iii) | lecm 9553 lecmi 9554 lecmt 9568 |
| [Beran] p. 45 | Theorem 3.4 | cmcmlem 9542 |
| [Beran] p. 49 | Theorem 4.2 | cm2jt 9571 |
| [Beran] p. 95 | Definition | df-sh 9084 sh 9086 |
| [Beran] p. 95 | Lemma 3.1(S5) | his5t 8961 |
| [Beran] p. 95 | Lemma 3.1(S6) | his6t 8973 |
| [Beran] p. 95 | Lemma 3.1(S7) | his7t 8964 |
| [Beran] p. 95 | Lemma 3.2(S8) | ho01 9762 |
| [Beran] p. 95 | Lemma 3.2(S9) | hoeq1t 9764 |
| [Beran] p. 95 | Lemma 3.2(S10) | ho02 9763 |
| [Beran] p. 95 | Lemma 3.2(S11) | hoeq2t 9765 |
| [Beran] p. 95 | Postulate (S1) | ax-his1 8957 his1 8974 |
| [Beran] p. 95 | Postulate (S2) | ax-his2 8958 |
| [Beran] p. 95 | Postulate (S3) | ax-his3 8959 |
| [Beran] p. 95 | Postulate (S4) | ax-his4 8960 |
| [Beran] p. 96 | Definition of norm | df-hnorm 8845 dfhnorm2 8996 normvalt 8998 |
| [Beran] p. 96 | Definition for Cauchy sequence | hcau 9059 |
| [Beran] p. 96 | Definition of Cauchy sequence | df-hcau 8850 |
| [Beran] p. 96 | Definition of complete subspace | chsscm 9120 |
| [Beran] p. 96 | Definition of converge | df-hlim 8849 hlim 9064 |
| [Beran] p. 97 | Theorem 3.3(i) | norm-i 9008 norm-it 9004 |
| [Beran] p. 97 | Theorem 3.3(ii) | norm-ii 9012 norm-iit 9013 normlem0 8983 normlem1 8984 normlem2 8985 normlem3 8986 normlem4 8987 normlem5 8988 normlem6 8989 normlem7 8990 normlem7tALT 8993 |
| [Beran] p. 97 | Theorem 3.3(iii) | norm-iii 9014 norm-iiit 9015 |
| [Beran] p. 98 | Remark 3.4 | bcsALT 9054 bcsHIL 9055 bcst 9056 |
| [Beran] p. 98 | Remark 3.4(B) | normlem9at 8995 normpar 9029 normpart 9030 |
| [Beran] p. 98 | Remark 3.4(C) | normpyct 9021 normpyth 9017 normpytht 9020 |
| [Beran] p. 99 | Remark | lnfn0 9979 lnfn0t 9984 lnop0 9902 lnop0t 9898 |
| [Beran] p. 99 | Theorem 3.5(i) | nmcfnex 9994 nmcfnext 9996 nmcopex 9965 nmcopexlem1 9959 nmcopext 9967 |
| [Beran] p. 99 | Theorem 3.5(ii) | nmcfnlb 9995 nmcfnlbt 9997 nmcoplb 9966 nmcoplbt 9968 |
| [Beran] p. 99 | Theorem 3.5(iii) | lnfncon 9998 lnfncont 9999 lnopcon 9971 lnopcont 9972 |
| [Beran] p. 99 | Definition of operator | df-hosum 9514 |
| [Beran] p. 100 | Lemma 3.6 | normpar2 9031 projlem1 9194 projlem10 9203 projlem11 9204 projlem12 9205 projlem13 9206 projlem14 9207 projlem15 9208 projlem16 9209 projlem17 9210 projlem17 9210 projlem2 9195 projlem21 9214 projlem22 9215 projlem3 9196 projlem5 9198 projlem8 9201 projlem8 9201 projlem9 9202 |
| [Beran] p. 101 | Lemma 3.6 | norm3adif 9023 norm3adift 9028 norm3dif 9022 norm3dift 9025 projlem 9225 projlem18 9211 projlem19 9212 projlem20 9213 projlem23 9216 projlem24 9217 projlem25 9218 projlem26 9219 projlem27 9220 projlem28 9221 projlem29 9222 projlem30 9223 projlem31 9224 projlem4 9197 projlem6 9199 projlem7 9200 projlemHIL 9226 |
| [Beran] p. 102 | Theorem 3.7(i) | chocuni 9180 pjpjth 9267 pjpjtht 9266 pjth 9241 pjtht 9242 |
| [Beran] p. 102 | Theorem 3.7(ii) | ococ 9255 ococt 9256 |
| [Beran] p. 103 | Remark 3.8 | nlelch 10002 |
| [Beran] p. 104 | Theorem 3.9 | riesz3 10003 riesz4 10004 riesz4t 10005 |
| [Beran] p. 104 | Theorem 3.10 | cnlnadj 10017 cnlnadjeu 10018 cnlnadjeut 10019 cnlnadjlem1 10008 cnlnadjt 10020 nmopadjle 10029 |
| [Beran] p. 106 | Theorem 3.11(i) | adjeq0 10032 |
| [Beran] p. 106 | Theorem 3.11(v) | nmopadj 10031 |
| [Beran] p. 106 | Theorem 3.11(ii) | adjmult 10033 |
| [Beran] p. 106 | Theorem 3.11(iv) | adjadjt 9868 |
| [Beran] p. 106 | Theorem 3.11(vi) | nmopcoadj 10042 nmopcoadj2 10043 |
| [Beran] p. 106 | Theorem 3.11(iii) | adjaddt 10034 |
| [Beran] p. 106 | Theorem 3.11(vii) | nmopcoadj0 10044 |
| [Beran] p. 106 | Theorem 3.11(viii) | adjco 10041 pjadj2co 10141 pjadjco 10097 |
| [Beran] p. 107 | Definition | closedsub 9101 df-ch 9100 |
| [Beran] p. 107 | Remark 3.12 | chocclt 9192 chsscm 9120 occl 9189 occllem1 9181 occllem2 9182 occllem3 9183 occllem4 9184 occllem5 9185 occllem6 9186 occllem7 9187 occllem8 9188 occlt 9190 ocsh 9164 shocclt 9191 shocsh 9165 |
| [Beran] p. 107 | Remark 3.12(B) | ococint 9305 |
| [Beran] p. 107 | Remark 3.12(C) | ch2 9122 chcmh 9121 |
| [Beran] p. 108 | Theorem 3.13 | chintclt 9304 |
| [Beran] p. 109 | Property (i) | pjadj 9626 pjadj2t 10123 pjadj3t 10124 pjadjt 9638 |
| [Beran] p. 109 | Property (ii) | pjidm 9625 pjidmco 10113 pjidmcot 10117 |
| [Beran] p. 110 | Definition of projector ordering | pjord 10109 |
| [Beran] p. 111 | Remark | ho0valt 9684 pjch1t 9623 |
| [Beran] p. 111 | Definition | df-hfmul 9518 df-hfsum 9517 df-hodif 9516 df-homul 9515 df-hosum 9514 |
| [Beran] p. 111 | Lemma 4.4(i) | pjot 9624 |
| [Beran] p. 111 | Lemma 4.4(ii) | pjch 9273 pjcht 9647 |
| [Beran] p. 111 | Lemma 4.4(iii) | pjoc2 9279 pjoc2t 9280 |
| [Beran] p. 112 | Theorem 4.5(i)->(ii) | pjss2 9633 |
| [Beran] p. 112 | Theorem 4.5(i)->(iv) | pjssm 9634 pjssmt 10101 |
| [Beran] p. 112 | Theorem 4.5(i)<->(ii) | pjss2co 10100 |
| [Beran] p. 112 | Theorem 4.5(i)<->(iii) | pjss1co 10099 |
| [Beran] p. 112 | Theorem 4.5(i)<->(vi) | pjnormss 10104 |
| [Beran] p. 112 | Theorem 4.5(iv)->(v) | pjssge0 9635 pjssge0t 10102 |
| [Beran] p. 112 | Theorem 4.5(v)<->(vi) | pjdifnorm 9636 pjdifnormt 10103 |
| [ChoquetDD] p. 2 | Definition of mapping | df-mpt 4082 |
| [Cohen] p. 301 | Remark | relogoprlem 8777 |
| [Cohen] p. 301 | Property 2 | relogmult 8778 |
| [Cohen] p. 301 | Property 3 | relogdivt 8779 |
| [Cohen] p. 301 | Property 4 | relogexpt 8782 |
| [Cohen] p. 301 | Property 1a | log1 8774 |
| [Cohen] p. 301 | Property 1b | loge 8775 |
| [Diestel] p. 2 | Definition | df-sgra 10774 |
| [Diestel] p. 28 | Definition | df-pgra 10771 |
| [Diestel] p. 28 | Definition of hypergraph | ishgrag 10762 |
| [Eisenberg] p. 67 | Definition 5.3 | df-dif 2055 |
| [Eisenberg] p. 82 | Definition 6.3 | dfom3 4651 |
| [Eisenberg] p. 125 | Definition 8.21 | df-map 4333 |
| [Eisenberg] p. 216 | Example 13.2(4) | omenps 4658 |
| [Eisenberg] p. 310 | Theorem 19.8 | cardprc 4884 |
| [Eisenberg] p. 310 | Corollary 19.7(2) | cardsdom 4859 |
| [Enderton] p. 18 | Axiom of Empty Set | axnul 2717 |
| [Enderton] p. 19 | Definition | df-tp 2422 |
| [Enderton] p. 26 | Exercise 5 | unissb 2535 |
| [Enderton] p. 26 | Exercise 10 | pwel 2768 |
| [Enderton] p. 28 | Exercise 7(b) | pwun 2838 |
| [Enderton] p. 30 | Theorem "Distributive laws" | iinun2 2617 iunin2 2616 |
| [Enderton] p. 31 | Theorem "De Morgan's laws" | iindif2 2619 iundif2 2618 |
| [Enderton] p. 32 | Exercise 20 | unineq 2261 |
| [Enderton] p. 33 | Exercise 23 | iinuni 2623 |
| [Enderton] p. 33 | Exercise 25 | iununi 2624 |
| [Enderton] p. 33 | Exercise 24(a) | iinpw 2625 |
| [Enderton] p. 33 | Exercise 24(b) | iunpw 2923 iunpwss 2626 |
| [Enderton] p. 36 | Definition | opthwiener 2816 |
| [Enderton] p. 38 | Exercise 6(a) | unipw 2765 |
| [Enderton] p. 38 | Exercise 6(b) | pwuni 2766 |
| [Enderton] p. 41 | Lemma 3D | opeluu 2888 rnex 3370 rnexg 3368 |
| [Enderton] p. 41 | Exercise 8 | dmuni 3328 rnuni 3468 |
| [Enderton] p. 42 | Definition of a function | dffun6 3548 dffun7 3549 |
| [Enderton] p. 43 | Definition of function value | funfv2 3780 |
| [Enderton] p. 43 | Definition of single-rooted | funcnv 3566 |
| [Enderton] p. 44 | Definition (d) | dfima2 3414 dfima3 3415 |
| [Enderton] p. 47 | Theorem 3H | fvco2 3784 |
| [Enderton] p. 49 | Axiom of Choice (first form) | ac7 4770 ac7g 4771 aceq3 4755 aceq4 4756 aceq5 4762 aceq6a 4763 aceq6b 4764 aceq7 4765 aceqkm 4803 |
| [Enderton] p. 50 | Theorem 3K(a) | imaiun 3873 |
| [Enderton] p. 52 | Definition | df-map 4333 |
| [Enderton] p. 53 | Exercise 21 | coass 3521 |
| [Enderton] p. 53 | Exercise 27 | dmco2 3513 |
| [Enderton] p. 53 | Exercise 14(a) | funin 3575 |
| [Enderton] p. 53 | Exercise 22(a) | imass2 3442 |
| [Enderton] p. 54 | Remark | ixpf 4365 ixpssmap 4372 |
| [Enderton] p. 54 | Definition of infinite Cartesian product | df-ixp 4357 |
| [Enderton] p. 55 | Axiom of Choice (second form) | ac9s 4786 |
| [Enderton] p. 56 | Theorem 3M | erref 4284 |
| [Enderton] p. 57 | Lemma 3N | erthi 4290 |
| [Enderton] p. 57 | Definition | df-ec 4272 |
| [Enderton] p. 58 | Definition | df-qs 4275 |
| [Enderton] p. 60 | Theorem 3Q | th3q 4326 th3qcor 4325 th3qlem1 4323 th3qlem2 4324 |
| [Enderton] p. 61 | Exercise 35 | df-ec 4272 |
| [Enderton] p. 65 | Exercise 56(a) | dmun 3326 |
| [Enderton] p. 68 | Definition of successor | df-suc 2963 |
| [Enderton] p. 71 | Definition | df-tr 2689 dftr4 2693 |
| [Enderton] p. 72 | Theorem 4E | unisuc 3055 |
| [Enderton] p. 73 | Exercise 6 | unisuc 3055 |
| [Enderton] p. 79 | Theorem 4I(A1) | nna0 4232 |
| [Enderton] p. 79 | Theorem 4I(A2) | nnasuc 4234 |
| [Enderton] p. 79 | Definition of operation value | df-opr 3974 |
| [Enderton] p. 80 | Theorem 4J(A1) | nnm0 4233 |
| [Enderton] p. 80 | Theorem 4J(A2) | nnmsuc 4235 |
| [Enderton] p. 81 | Theorem 4K(1) | nnaass 4246 |
| [Enderton] p. 81 | Theorem 4K(2) | nna0r 4236 nnacom 4242 |
| [Enderton] p. 81 | Theorem 4K(3) | nndi 4247 |
| [Enderton] p. 81 | Theorem 4K(4) | nnmass 4248 |
| [Enderton] p. 81 | Theorem 4K(5) | nnmcom 4250 |
| [Enderton] p. 82 | Exercise 16 | nnm0r 4237 nnmsucr 4249 |
| [Enderton] p. 88 | Exercise 23 | nnaordex 4258 |
| [Enderton] p. 129 | Definition | bren 4386 df-en 4377 |
| [Enderton] p. 132 | Theorem 6B(b) | canth 3916 |
| [Enderton] p. 133 | Exercise 1 | xpomen 7515 |
| [Enderton] p. 133 | Exercise 2 | qnnen 7518 |
| [Enderton] p. 134 | Theorem (Pigeonhole Principle) | php 4523 |
| [Enderton] p. 135 | Corollary 6C | php3 4525 php3OLD 4526 |
| [Enderton] p. 136 | Corollary 6E | nneneq 4522 |
| [Enderton] p. 136 | Corollary 6D(a) | pssinf 4539 pssinfOLD 4540 |
| [Enderton] p. 136 | Corollary 6D(b) | ominf 4541 ominfOLD 4542 |
| [Enderton] p. 137 | Lemma 6F | pssnn 4549 |
| [Enderton] p. 138 | Corollary 6G | ssfi 4552 ssfiOLD 4553 |
| [Enderton] p. 139 | Theorem 6H(c) | mapen 4501 |
| [Enderton] p. 142 | Theorem 6I(3) | xpcdaen 4955 |
| [Enderton] p. 142 | Theorem 6I(4) | mapcdaen 4956 |
| [Enderton] p. 143 | Theorem 6J | cda0en 4949 cda1en 4950 |
| [Enderton] p. 144 | Exercise 13 | unifi 4574 unifi2 4575 unifi2OLD 4577 unifiOLD 4576 |
| [Enderton] p. 144 | Corollary 6K | undif2 2348 unfi 4568 unfi2 4570 unfi2OLD 4571 unfiOLD 4569 |
| [Enderton] p. 145 | Figure 38 | ffoss 3720 |
| [Enderton] p. 145 | Definition | df-dom 4378 |
| [Enderton] p. 146 | Example 1 | domen 4388 domeng 4389 |
| [Enderton] p. 146 | Example 3 | nndomo 4531 omsdomnn 4543 |
| [Enderton] p. 149 | Theorem 6L(a) | cdadom2 4958 |
| [Enderton] p. 149 | Theorem 6L(c) | mapdom1 4502 xpdom1 4453 xpdom1g 4454 |
| [Enderton] p. 149 | Theorem 6L(d) | mapdom2 4504 |
| [Enderton] p. 151 | Theorem 6M | zorn 4819 |
| [Enderton] p. 151 | Theorem 6M(4) | ac8 4785 aceq5 4762 |
| [Enderton] p. 159 | Theorem 6Q | unictb 7591 |
| [Enderton] p. 162 | Lemma 6R | infxpidm 7579 |
| [Enderton] p. 164 | Example | infdif 7583 |
| [Enderton] p. 165 | Exercise 34 | infmap1 7588 |
| [Enderton] p. 168 | Definition | df-po 2849 |
| [Enderton] p. 192 | Theorem 7M(a) | onel 3107 |
| [Enderton] p. 192 | Theorem 7M(b) | ontr1 3012 |
| [Enderton] p. 192 | Theorem 7M(c) | onirr 3106 |
| [Enderton] p. 193 | Corollary 7N(b) | 0elon 3031 |
| [Enderton] p. 193 | Corollary 7N(c) | onsuc 3114 |
| [Enderton] p. 193 | Corollary 7N(d) | ssonuni 3004 |
| [Enderton] p. 194 | Remark | onprc 2998 |
| [Enderton] p. 194 | Exercise 16 | suc11 3102 |
| [Enderton] p. 197 | Definition | df-card 4838 |
| [Enderton] p. 197 | Theorem 7P | carden 4853 |
| [Enderton] p. 200 | Exercise 25 | tfis 3136 |
| [Enderton] p. 202 | Lemma 7T | r1tr 4676 |
| [Enderton] p. 202 | Definition | df-r1 4665 |
| [Enderton] p. 202 | Theorem 7Q | r1val1 4680 |
| [Enderton] p. 204 | Theorem 7V(b) | rankval4 4724 |
| [Enderton] p. 206 | Theorem 7X(b) | en2lp 4623 |
| [Enderton] p. 207 | Exercise 30 | rankpr 4714 rankpw 4706 rankuniss 4723 |
| [Enderton] p. 207 | Exercise 34 | opthreg 4625 |
| [Enderton] p. 208 | Exercise 35 | suc11reg 4626 |
| [Enderton] p. 212 | Definition of aleph | alephval3 4926 |
| [Enderton] p. 213 | Theorem 8A(a) | alephord2 4899 |
| [Enderton] p. 213 | Theorem 8A(b) | cardalephex 4909 |
| [Enderton] p. 222 | Definition of kard | karden 4748 kardex 4747 |
| [Enderton] p. 240 | Exercise 25 | oarec 4205 |
| [Enderton] p. 257 | Definition of cofinality | cflim 4933 |
| [FreydScedrov] p. 283 | Axiom of Infinity | ax-inf 4643 inf1 4628 inf2 4629 |
| [Gleason] p. 117 | Proposition 9-2.1 | df-enq 5061 enqer 5070 |
| [Gleason] p. 117 | Proposition 9-2.2 | df-1q 5067 df-nq 5062 |
| [Gleason] p. 117 | Proposition 9-2.3 | df-plpq 5059 df-plq 5063 |
| [Gleason] p. 119 | Proposition 9-2.4 | caoprmo 4079 df-mpq 5060 df-mq 5064 |
| [Gleason] p. 119 | Proposition 9-2.5 | df-rq 5065 |
| [Gleason] p. 119 | Proposition 9-2.6 | ltexpq 5104 ltexpq2 5105 |
| [Gleason] p. 120 | Proposition 9-2.6(i) | halfpq 5106 ltbtwnpq 5108 |
| [Gleason] p. 120 | Proposition 9-2.6(ii) | ltapq 5100 |
| [Gleason] p. 120 | Proposition 9-2.6(iii) | ltmpq 5101 |
| [Gleason] p. 120 | Proposition 9-2.6(iv) | ltrpq 5109 |
| [Gleason] p. 121 | Definition 9-3.1 | df-np 5110 |
| [Gleason] p. 121 | Definition 9-3.1 (ii) | prcdpq 5121 |
| [Gleason] p. 121 | Definition 9-3.1(iii) | prnmax 5123 |
| [Gleason] p. 122 | Definition | df-1p 5111 |
| [Gleason] p. 122 | Remark (1) | prub 5122 |
| [Gleason] p. 122 | Lemma 9-3.4 | prlem934 5163 prlem934a 5161 prlem934b 5162 |
| [Gleason] p. 122 | Proposition 9-3.2 | df-ltp 5114 |
| [Gleason] p. 122 | Proposition 9-3.3 | ltsopr 5160 psslinpr 5159 supexpr 5187 suplem1pr 5185 suplem2pr 5186 |
| [Gleason] p. 123 | Proposition 9-3.5 | addclpr 5144 addclprlem1 5142 addclprlem2 5143 df-plp 5112 |
| [Gleason] p. 123 | Proposition 9-3.5(i) | addasspr 5148 |
| [Gleason] p. 123 | Proposition 9-3.5(ii) | addcompr 5147 |
| [Gleason] p. 123 | Proposition 9-3.5(iii) | ltaddpr 5164 |
| [Gleason] p. 123 | Proposition 9-3.5(iv) | ltexpri 5173 ltexprlem1 5166 ltexprlem2 5167 ltexprlem3 5168 ltexprlem4 5169 ltexprlem5 5170 ltexprlem6 5171 ltexprlem7 5172 |
| [Gleason] p. 123 | Proposition 9-3.5(v) | ltapr 5175 ltaprlem 5174 |
| [Gleason] p. 123 | Proposition 9-3.5(vi) | addcanpr 5176 |
| [Gleason] p. 124 | Lemma 9-3.6 | prlem936 5179 prlem936a 5177 prlem936b 5178 |
| [Gleason] p. 124 | Proposition 9-3.7 | df-mp 5113 mulclpr 5146 mulclprlem 5145 reclem1pr 5180 reclem2pr 5181 |
| [Gleason] p. 124 | Theorem 9-3.7(iv) | 1idpr 5157 |
| [Gleason] p. 124 | Proposition 9-3.7(i) | mulasspr 5150 |
| [Gleason] p. 124 | Proposition 9-3.7(ii) | mulcompr 5149 |
| [Gleason] p. 124 | Proposition 9-3.7(iii) | distrpr 5156 |
| [Gleason] p. 124 | Proposition 9-3.7(v) | recexpr 5184 reclem3pr 5182 reclem4pr 5183 |
| [Gleason] p. 126 | Proposition 9-4.1 | df-enr 5190 df-mpr 5189 df-plpr 5188 enrer 5200 |
| [Gleason] p. 126 | Proposition 9-4.2 | df-0r 5195 df-1r 5196 df-nr 5191 |
| [Gleason] p. 126 | Proposition 9-4.3 | df-mr 5193 df-plr 5192 negexsr 5235 recexsr 5240 recexsrlem 5236 |
| [Gleason] p. 127 | Proposition 9-4.4 | df-ltr 5194 |
| [Gleason] p. 130 | Proposition 10-1.3 | creui 6758 creur 6757 cru 6752 crut 6753 |
| [Gleason] p. 130 | Definition 10-1.1(v) | axcnre 5310 |
| [Gleason] p. 132 | Definition 10-3.1 | crim 6787 crimt 6785 crre 6786 crret 6784 |
| [Gleason] p. 132 | Definition 10-3.2 | cjvalt 6778 |
| [Gleason] p. 133 | Definition 10.36 | absval2 6855 absval2t 6866 |
| [Gleason] p. 133 | Proposition 10-3.4(a) | cjadd 6802 cjaddt 6826 |
| [Gleason] p. 133 | Proposition 10-3.4(c) | cjmul 6803 cjmult 6827 |
| [Gleason] p. 133 | Proposition 10-3.4(e) | cjcj 6792 cjcjt 6825 |
| [Gleason] p. 133 | Proposition 10-3.4(f) | cjreb 6795 cjrebt 6814 cjret 6824 rereb 6794 rerebt 6791 reret 6813 |
| [Gleason] p. 133 | Proposition 10-3.4(h) | addcj 6812 addcjt 6829 |
| [Gleason] p. 133 | Proposition 10-3.7(a) | absvalt 6777 |
| [Gleason] p. 133 | Proposition 10-3.7(b) | abscj 6859 abscjt 6848 |
| [Gleason] p. 133 | Proposition 10-3.7(c) | abs00 6856 abs00t 6867 |
| [Gleason] p. 133 | Proposition 10-3.7(d) | releabs 6904 releabst 6900 |
| [Gleason] p. 133 | Proposition 10-3.7(f) | absmul 6861 absmult 6872 |
| [Gleason] p. 133 | Proposition 10-3.7(g) | sqabsadd 6864 sqabsaddt 6862 |
| [Gleason] p. 133 | Proposition 10-3.7(h) | abstri 6905 abstrit 6912 |
| [Gleason] p. 134 | Definition 10-4.1 | df-exp 6584 exp0t 6586 expp1t 6589 |
| [Gleason] p. 135 | Proposition 10-4.2(a) | expaddt 6611 |
| [Gleason] p. 135 | Proposition 10-4.2(b) | expmult 6612 |
| [Gleason] p. 135 | Proposition 10-4.2(c) | mulexpt 6609 |
| [Gleason] p. 140 | Exercise 1 | znnen 7517 |
| [Gleason] p. 141 | Definition 11-2.1 | fzvalt 6484 |
| [Gleason] p. 168 | Proposition 12-2.1(a) | climadd 7131 |
| [Gleason] p. 168 | Proposition 12-2.1(b) | climsub 7144 |
| [Gleason] p. 168 | Proposition 12-2.1(c) | climmul 7142 |
| [Gleason] p. 171 | Corollary 12-2.2 | climmulc 7147 climmulc2 7143 |
| [Gleason] p. 172 | Corollary 12-2.5 | climfnrcl 7125 climrecl 7124 |
| [Gleason] p. 172 | Proposition 12-2.4(c) | climcj 7164 |
| [Gleason] p. 173 | Definition 12-3.1 | df-ltxr 5514 df-xr 5513 ltxrt 5519 |
| [Gleason] p. 175 | Definition 12-4.1 | df-limsup 6543 limsupvalt 6544 |
| [Gleason] p. 180 | Theorem 12-5.1 | climsup 7169 |
| [Gleason] p. 180 | Theorem 12-5.3 | caucvg3 7181 caucvg3a 7178 caucvg3t 7182 climcau 7170 |
| [Gleason] p. 181 | Remark | cau2 6927 |
| [Gleason] p. 182 | Exercise 3 | cvgcmp 7198 |
| [Gleason] p. 182 | Exercise 4 | cvgrat 7269 |
| [Gleason] p. 195 | Theorem 13-2.12 | abs1m 6918 |
| [Gleason] p. 217 | Lemma 13-4.1 | btwnzge0t 6260 |
| [Gleason] p. 223 | Definition 14-1.1 | df-met 7803 |
| [Gleason] p. 223 | Definition 14-1.1(a) | met0 7825 |
| [Gleason] p. 223 | Definition 14-1.1(b) | metgt0 7830 |
| [Gleason] p. 223 | Definition 14-1.1(c) | metsym 7826 |
| [Gleason] p. 223 | Definition 14-1.1(d) | mettri 7827 |
| [Gleason] p. 225 | Definition 14-1.5 | metxp 7844 metxpcl 7842 metxpdval 7839 metxpfval 7841 metxptval 7840 |
| [Gleason] p. 230 | Proposition 14-2.6 | xplm 7985 xplmi 7983 xplmi2 7984 |
| [Gleason] p. 240 | Theorem 14-4.3 | metcnp4 7980 |
| [Gleason] p. 240 | Proposition 14-4.2 | metcnp3 7906 |
| [Gleason] p. 243 | Proposition 14-4.16 | addcn 7996 mulcn 7998 subcn 7997 |
| [Gleason] p. 295 | Remark | bcval4t 6975 |
| [Gleason] p. 295 | Equation 2 | bcpasc 6983 bcpasc2 6981 bcpasc2t 6982 bcpasct 6984 |
| [Gleason] p. 295 | Definition of binomial coefficient | bcvalt 6972 df-bc 6971 |
| [Gleason] p. 296 | Remark | bcn0t 6977 bcnnt 6978 |
| [Gleason] p. 296 | Theorem 15-2.8 | binom 7086 |
| [Gleason] p. 308 | Equation 2 | ef0 7349 |
| [Gleason] p. 308 | Equation 3 | efcj 7350 efcjt 7351 |
| [Gleason] p. 309 | Corollary 15-4.3 | efne0t 7383 |
| [Gleason] p. 309 | Corollary 15-4.4 | efexpt 7386 |
| [Gleason] p. 310 | Equation 14 | sinadd 7465 sinaddt 7467 |
| [Gleason] p. 310 | Equation 15 | cosadd 7466 cosaddt 7468 |
| [Gleason] p. 311 | Equation 17 | sincossqt 7475 |
| [Gleason] p. 311 | Equation 18 | cosbndt 7481 sinbndt 7480 |
| [Gleason] p. 311 | Lemma 15-4.7 | sqeqor 6662 sqeqort 6664 |
| [Gleason] p. 311 | Definition of pi | df-pi 7316 |
| [Godowski] p. 730 | Equation SF | goeq 10209 |
| [GodowskiGreechie] p. 249 | Equation IV | 3oa 9621 |
| [Goldberg] p. 10 | Definition of operator | df-hosum 9514 |
| [Halmos] p. 31 | Theorem 17.3 | riesz1t 10006 riesz2t 10007 |
| [Halmos] p. 35 | Definition of operator | df-hosum 9514 |
| [Halmos] p. 41 | Definition of Hermitian | hmopadj2t 9873 |
| [Halmos] p. 42 | Definition of projector ordering | pjord 10109 |
| [Halmos] p. 43 | Theorem 26.1 | elpjhmopt 10121 elpjidmt 10120 pjnmop 10083 |
| [Halmos] p. 44 | Remark | pjinorm 9629 pjinormt 9640 |
| [Halmos] p. 44 | Theorem 26.2 | elpjcht 10125 pjrn 9655 pjrnt 9660 pjvect 9649 |
| [Halmos] p. 44 | Theorem 26.3 | pjnorm2t 9680 |
| [Halmos] p. 44 | Theorem 26.4 | hmopidmpj 10088 hmopidmpjt 10090 |
| [Halmos] p. 45 | Theorem 27.1 | pjinvar 10128 |
| [Halmos] p. 45 | Theorem 27.3 | pjoc 10116 pjocvect 9650 |
| [Halmos] p. 45 | Theorem 27.4 | pjorthco 10105 |
| [Halmos] p. 48 | Theorem 29.2 | pjsspos 10108 |
| [Halmos] p. 48 | Theorem 29.3 | pjssdif1 10111 pjssdif2 10110 |
| [Halmos] p. 50 | Definition of spectrum | df-spec 9789 |
| [Hamilton] p. 28 | Definition 2.1 | ax-1 4 |
| [Hamilton] p. 31 | Example 2.7(a) | id1 60 |
| [Hamilton] p. 73 | Rule 1 | ax-mp 7 |
| [Hamilton] p. 74 | Rule 2 | ax-gen 966 |
| [Herstein] p. 54 | Exercise 28 | df-grp 8047 |
| [Herstein] p. 55 | Lemma 2.2.1(a) | grpideu 8063 |
| [Herstein] p. 55 | Lemma 2.2.1(b) | grpinveu 8073 |
| [Herstein] p. 55 | Lemma 2.2.1(c) | grp2inv 8087 |
| [Herstein] p. 55 | Lemma 2.2.1(d) | grpinvop 8089 |
| [Herstein] p. 57 | Exercise 1 | isgrp2i 8085 |
| [Holland] p. 1519 | Theorem 2 | sumdmd 10356 |
| [Holland] p. 1520 | Lemma 5 | cdj1 10369 cdj3 10377 cdj3lem1 10370 cdjreu 10368 |
| [Holland] p. 1524 | Lemma 7 | mddmdin0 10367 |
| [Hughes] p. 14 | Definition of operator | df-hosum 9514 |
| [Hughes] p. 44 | Equation 1.21b | ax-his3 8959 |
| [Hughes] p. 47 | Definition of projection operator | dfpjopt 10119 |
| [Hughes] p. 49 | Equation 1.30 | eighmret 9895 eigre 9768 eigret 9769 |
| [Hughes] p. 49 | Equation 1.31 | eighmortht 9896 eigorth 9771 eigortht 9772 |
| [Hughes] p. 137 | Remark (ii) | eigpos 9770 |
| [Jech] p. 4 | Definition of class | cv 958 cvjust 1475 |
| [Jech] p. 42 | Lemma 6.1 | alephexp1 7599 |
| [Jech] p. 42 | Equation 6.1 | alephadd 7597 alephmul 7598 |
| [Jech] p. 43 | Lemma 6.2 | infmap2 7596 |
| [Jech] p. 71 | Lemma 9.3 | jech9.3 4688 |
| [Jech] p. 72 | Equation 9.3 | scott0 4739 scottex 4738 |
| [Jech] p. 72 | Exercise 9.1 | rankval4 4724 |
| [Jech] p. 72 | Scheme "Collection Principle" | cp 4744 |
| [Jech] p. 78 | Definition implied by the footnote | opthprc 3230 |
| [KalishMontague] p. 81 | Axiom B7' in footnote 1 | ax-9 968 |
| [Kalmbach] p. 14 | Definition of lattice | chabs1 9449 chabs1t 9447 chabs2 9450 chabs2t 9448 chjass 9417 chjasst 9464 |
| [Kalmbach] p. 15 | Definition of atom | df-at 10274 elat 10275 |
| [Kalmbach] p. 15 | Definition of covers | cvbr2t 10219 |
| [Kalmbach] p. 20 | Definition of commutes | cmbr 9541 cmbrt 9535 df-cm 9534 |
| [Kalmbach] p. 22 | Remark | pjoml5 9539 pjoml5t 9564 |
| [Kalmbach] p. 22 | Definition | pjoml2 9536 pjoml2t 9562 |
| [Kalmbach] p. 22 | Theorem 2(v) | cmcm 9543 cmcmi 9548 cmcmt 9565 |
| [Kalmbach] p. 22 | Theorem 2(ii) | omls 9254 pjoml 9276 pjomlt 9277 |
| [Kalmbach] p. 23 | Remark | cmbr2 9547 cmcm3 9545 cmcm3i 9550 cmcm3t 9566 cmcm4 9546 |
| [Kalmbach] p. 23 | Lemma 3 | cmbr3 9551 cmbr3t 9559 |
| [Kalmbach] p. 25 | Theorem 5 | fh1 9572 fh1t 9569 fh2 9573 fh2t 9570 |
| [Kalmbach] p. 65 | Remark | chjatom 10293 chslej 9389 chslejt 9429 shslej 9346 shslejt 9358 |
| [Kalmbach] p. 65 | Proposition 1 | chocin 9385 chocint 9426 chsupclt 9316 chsupval2t 9310 dfchsup2 9306 h0elch 9135 helch 9124 hsupval2t 9308 ocin 9177 ococss 9174 shococss 9175 |
| [Kalmbach] p. 65 | Definition of subspace sum | shsumvalt 9285 |
| [Kalmbach] p. 66 | Remark | df-pj 9245 pjssm 9634 pjssmt 10101 |
| [Kalmbach] p. 67 | Lemma 3 | osum 9594 osumt 9596 |
| [Kalmbach] p. 67 | Lemma 4 | pjc 10137 |
| [Kalmbach] p. 103 | Exercise 6 | atmd2 10336 |
| [Kalmbach] p. 103 | Exercise 12 | mdsl0 10246 |
| [Kalmbach] p. 140 | Remark | hatomic 10295 hatomict 10296 hatomistic 10298 |
| [Kalmbach] p. 140 | Proposition 1(i) | atexcht 10317 |
| [Kalmbach] p. 140 | Proposition 1(ii) | chcv1t 10291 |
| [Kalmbach] p. 140 | Proposition 1(iii) | cvexch 10305 cvexcht 10310 |
| [Kalmbach] p. 149 | Remark 2 | chrelat 10300 |
| [Kalmbach] p. 153 | Exercise 5 | spansncv 9605 spansncvt 9606 |
| [Kalmbach] p. 153 | Proposition 1(ii) | spansncv2t 10229 |
| [Kalmbach] p. 266 | Definition | df-st 10148 |
| [Kalmbach] p. 353 | Definition of operator | df-hosum 9514 |
| [Kalmbach2] p. 8 | Definition of adjoint | df-adjh 9783 |
| [Kreyszig] p. 3 | Property M1 | metcl 7821 |
| [Kreyszig] p. 4 | Property M2 | meteq0 7822 |
| [Kreyszig] p. 8 | Definition 1.1-8 | dscmet 7928 |
| [Kreyszig] p. 12 | Equation 5 | conjmult 5811 muleqaddt 5724 |
| [Kreyszig] p. 18 | Definition 1.3-2 | opnfval 7867 |
| [Kreyszig] p. 19 | Remark | opntop 7880 |
| [Kreyszig] p. 19 | Theorem T1 | opn0 7883 opnm 7870 |
| [Kreyszig] p. 19 | Theorem T2 | opnuni 7878 |
| [Kreyszig] p. 19 | Definition of neighborhood | metnei 7888 |
| [Kreyszig] p. 20 | Definition 1.3-3 | metcnp2 7898 |
| [Kreyszig] p. 25 | Definition 1.4-1 | lmbr 7938 |
| [Kreyszig] p. 26 | Lemma 1.4-2(a) | lmuni 7961 |
| [Kreyszig] p. 28 | Theorem 1.4-5 | lmcau 8006 |
| [Kreyszig] p. 28 | Definition 1.4-3 | iscau 7946 iscms 7956 |
| [Kreyszig] p. 30 | Theorem 1.4-7 | cmsss 8007 |
| [Kreyszig] p. 30 | Theorem 1.4-6(a) | metcls 7976 metelcls 7975 |
| [Kr |