Month: December 2022

Grenz, David C. published the artcileSpiroconjugated Tetraaminospirenes as Donors in Color-Tunable Charge-Transfer Emitters with Donor-Acceptor Structure, Recommanded Product: 4-Bromo-N-methyl-2-nitroaniline, the publication is Chemistry – A European Journal (2022), 28(6), e202104150, database is CAplus and MEDLINE.

Charge-transfer emitters are attractive due to their color tunability and potentially high photoluminescence quantum yields (PLQYs). Herein, the authors present tetraaminospirenes as donor moieties, which, in combination with a variety of acceptors, furnished 12 charge-transfer emitters with a range of emission colors and PLQYs of up to 99%. The spatial separation of their frontier MOs was obtained through careful structural design, and two donor-acceptor structures were confirmed by X-ray crystallog. A range of photophys. measurements supported by DFT calculations shed light on the optoelectronic properties of this new family of spiro-NN-donor-acceptor dyes.

Chemistry – A European Journal published new progress about 53484-26-7. 53484-26-7 belongs to bromides-buliding-blocks, auxiliary class Bromide,Nitro Compound,Amine,Benzene, name is 4-Bromo-N-methyl-2-nitroaniline, and the molecular formula is C7H7BrN2O2, Recommanded Product: 4-Bromo-N-methyl-2-nitroaniline.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Thongbamrer, Chopaka published the artcileSerum Compatible Spermine-Based Cationic Lipids with Nonidentical Hydrocarbon Tails Mediate High Transfection Efficiency, Computed Properties of 143-15-7, the publication is ChemBioChem (2022), 23(6), e202100672, database is CAplus and MEDLINE.

Cationic lipids are widely used as nonviral synthetic vectors for gene delivery as a safer alternative to viral vectors. In this work, a library of L-shaped spermine-based cationic lipids with identical and nonidentical hydrophobic chains having variable carbon lengths (from C10 to C18) was designed and synthesized. These lipids were characterized and the structure-activity relationships of these compounds were determined for DNA binding and transfection ability when formulated as cationic liposomes. The liposomes were then used successfully for the transfection of HEK293T, HeLa, PC3, H460, HepG2, SH-SY5Y and Calu′3 cell lines. The transfection efficiency of lipids with nonidentical hydrocarbon chains was greater than the identical analog. These reagents exhibited superior efficiency to the com. reagent, Lipofectamine3000, under both serum-free and 10-40 % serum conditions in HEK293T, HeLa and H460 cell lines. The lipids were not toxic to the tested cell line. The results suggest that L-shaped spermine-based cationic lipids with nonidentical hydrocarbon tails could serve as efficient and safe nonviral vector gene carriers in further in vivo studies.

ChemBioChem published new progress about 143-15-7. 143-15-7 belongs to bromides-buliding-blocks, auxiliary class Bromide,Aliphatic hydrocarbon chain, name is 1-Bromododecane, and the molecular formula is C12H17NS2, Computed Properties of 143-15-7.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Wang, Yan-En published the artcileSynthesis of fluorescent bisboronic acid sensors and their recognition of mono-/oligo-saccharides, COA of Formula: C12H16BBrO2, the publication is Chinese Chemical Letters (2017), 28(6), 1262-1267, database is CAplus.

Sensors capable of recognizing cell surface carbohydrates, such as sialyl Lewis X (sLe^x), are invaluable research tools and for the diagnosis and early detection of many forms of cancer. In this paper, we report the design and synthesis of a series of bisboronic acids 6(a-f) as fluorescent sensors towards mono-/oligosaccharides. Among them, compounds 6d and 6e showed strong binding affinities with glucose and fructose, while compound 6c, in which two anthracene-based boronic acid units were linked by a hexamethylene spacer, was able to recognize sLe^x selectivity and stained HEPG2 cells at 1 μmol/L.

Chinese Chemical Letters published new progress about 166821-88-1. 166821-88-1 belongs to bromides-buliding-blocks, auxiliary class Bromide,Boronic acid and ester,Benzyl bromide,Benzene,Boronic Acids,Boronic acid and ester, name is 2-(2-(Bromomethyl)phenyl)-5,5-dimethyl-1,3,2-dioxaborinane, and the molecular formula is C15H21BO2, COA of Formula: C12H16BBrO2.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Wang, Yan’en published the artcileTriazole-linked fluorescent bisboronic acid capable of selective recognition of the Lewis Y antigen, Formula: C12H16BBrO2, the publication is Bioorganic & Medicinal Chemistry Letters (2017), 27(9), 1983-1988, database is CAplus and MEDLINE.

Cell surface carbohydrates of the Lewis blood group antigens, Lewis X (Le^x), Lewis Y (Le^y), Lewis A (Le^a), and their sialylated derivatives, such as sialy Lewis X (sLe^x) and sialy Lewis A (sLe^a), play important roles in various recognition processes. These cell surface carbohydrates have also been associated with the development and progression of many types of cancers. Recently, we synthesized four anthracene-based fluorescent bisboronic acid sensors (compounds 2a-d) linked by ‘click’ chem. with tethers of different lengths to match the epitope of various Lewis group of sugars. Among the four compounds, 2a appears to have both high sensitivity and selectivity for Le^y among other carbohydrate antigens.

Bioorganic & Medicinal Chemistry Letters published new progress about 166821-88-1. 166821-88-1 belongs to bromides-buliding-blocks, auxiliary class Bromide,Boronic acid and ester,Benzyl bromide,Benzene,Boronic Acids,Boronic acid and ester, name is 2-(2-(Bromomethyl)phenyl)-5,5-dimethyl-1,3,2-dioxaborinane, and the molecular formula is C15H21BO2, Formula: C12H16BBrO2.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Kawanishi, T. published the artcileA Study of Boronic Acid Based Fluorescent Glucose Sensors, Product Details of C12H16BBrO2, the publication is Journal of Fluorescence (2004), 14(5), 499-512, database is CAplus and MEDLINE.

Boronic acid based anthracene dyes were designed, synthesized, and immobilized to solid phase, creating a continuous glucose sensor. Glucose sensitivities of dyes can decrease drastically after immobilization, therefore how to immobilize a dye to solid phase without changing the dye property is a key issue in developing the sensor. The glucose sensitivity of the simplest 1st generation sensor, which is based on an immobilized mono-phenylboronate/single-arm type, came short of the sensitivity requirement for practical use, because of the very moderate fluorescence intensity change over the physiol. glucose range. However, the 2nd generation, an immobilized bis-phenylboronate/double-arm type sensor, which contained two boronate groups in the dye moiety in expectation of a large intensity change, brought about considerable improvement on its glucose sensitivity. The authors tried to introduce functional groups onto an anthracene ring to improve the dyes’ fluorescence properties. Acetyl or carboxyl substitution on anthracene contributed to shift the fluorescence wavelength into the more visible range (red-shift) and a divergence of wavelength between an excitation peak and an emission peak. This improvement is advantageous to the design of an optical detection system. Furthermore, single arm immobilization to this carboxyl group, thus linking directly to the fluorophore led to a 3rd generation sensor, an immobilized bis-phenylboronate/single-arm type, that was twice as sensitive as that of the 2nd generation sensor, presumably due to increased mobility of the dye moiety. The results of the authors’ study advance closer toward a clin. useful continuous fluorescent glucose sensor.

Journal of Fluorescence published new progress about 166821-88-1. 166821-88-1 belongs to bromides-buliding-blocks, auxiliary class Bromide,Boronic acid and ester,Benzyl bromide,Benzene,Boronic Acids,Boronic acid and ester, name is 2-(2-(Bromomethyl)phenyl)-5,5-dimethyl-1,3,2-dioxaborinane, and the molecular formula is C12H16BBrO2, Product Details of C12H16BBrO2.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Gunsalus, Robert P. published the artcilePreparation of coenzyme M analogs and their activity in the methyl coenzyme M reductase system of Methanobacterium thermoautotrophicum, Category: bromides-buliding-blocks, the publication is Biochemistry (1978), 17(12), 2374-7, database is CAplus and MEDLINE.

A number of 2-(methylthio)ethanesulfonate (Me-coenzyme M, I) analogs were synthesized and investigated as substrates for I reductase, an enzyme system found in extracts of M. thermoautotrophicum. Replacement of the Me moiety by an Et group yielded an analog which served as a precursor for C₂H₆ formation. Pr-coenzyme M, however, was not converted to C₃H₈. Analogs which contained addnl. methylene C atoms, such as 3-(methylthio)propanesulfonate or 4-(methylthio)butanesulfonate or analogs modified at the sulfide or sulfonate position, N-methyltaurine and 2-(methylthio)ethanol, were inactive. These analogs, in addition to a number of com. available compounds, also were tested for their ability to inhibit the reduction of I to CH₄. Bromoethanesulfonate and chloroethanesulonate proved to be potent inhibitors of the reductase, resulting in 50% inhibition at 7.9 × 10^-6 M and 7.5 × 10^-5 M, resp. Analogs of coenzyme M which contained modifications to other regions were also evaluated and found to be weak inhibitors of CH₄ biosynthesis.

Biochemistry published new progress about 55788-44-8. 55788-44-8 belongs to bromides-buliding-blocks, auxiliary class Bromide,Salt,Aliphatic hydrocarbon chain,Aliphatic hydrocarbon chain, name is Sodium 3-bromopropane-1-sulfonate, and the molecular formula is C3H6BrNaO3S, Category: bromides-buliding-blocks.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Gualandi, Andrea published the artcileApplication of coumarin dyes for organic photoredox catalysis, Related Products of bromides-buliding-blocks, the publication is Chemical Communications (Cambridge, United Kingdom) (2018), 54(72), 10044-10047, database is CAplus and MEDLINE.

Here we report the application of readily prepared and available coumarin dyes for photoredox catalysis, which are able to mimic powerful reductant [Ir(III)] complexes. Coumarin derivatives I and II, (9 and 10 , resp.), were employed as photoreductants in pinacol coupling and in other reactions, in the presence of Et₃N as a sacrificial reducing agent. As the electronic, photophys., and steric properties of coumarins could be varied, a wide applicability to several classes of photoredox reactions is predicted.

Chemical Communications (Cambridge, United Kingdom) published new progress about 401-55-8. 401-55-8 belongs to bromides-buliding-blocks, auxiliary class Fluoride,Bromide,Aliphatic hydrocarbon chain,Ester, name is Ethylbromofluoroacetate, and the molecular formula is C4H6BrFO2, Related Products of bromides-buliding-blocks.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Lee, Yujin published the artcileAn Asymmetric Pathway to Dendrobine by a Transition-Metal-Catalyzed Cascade Process, Category: bromides-buliding-blocks, the publication is Angewandte Chemie, International Edition (2017), 56(40), 12250-12254, database is CAplus and MEDLINE.

An asym. pathway to the caged tetracyclic pyrrolidine alkaloid, dendrobine (I), is reported. The successful synthetic strategy features a one-pot, sequential palladium-catalyzed enyne cycloisomerization and rhodium-catalyzed diene-assisted pyrrolidine formation by allylic CH activation. The developed transition-metal-catalyzed cascade process permits rapid access to the dendrobine core structure II and circumvents the handling of labile intermediates. An intramol. aldol condensation under carefully defined reaction conditions takes place with a concomitant detosylation, followed by reductive amine methylation, to afford a late-stage intermediate (previously identified by several prior dendrobine syntheses) in only 10 synthetic steps overall.

Angewandte Chemie, International Edition published new progress about 69361-41-7. 69361-41-7 belongs to bromides-buliding-blocks, auxiliary class PROTAC Linker,Aliphatic Linker, name is (4-Bromobut-1-yn-1-yl)trimethylsilane, and the molecular formula is C7H13BrSi, Category: bromides-buliding-blocks.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Seth, Punit P. published the artcileEfficient solution phase synthesis of 2-(N-acylamino)benzimidazoles, Synthetic Route of 53484-26-7, the publication is Tetrahedron Letters (2002), 43(41), 7303-7306, database is CAplus.

An efficient solution phase protocol for the synthesis of 2-(N-acylamino)benzimidazoles is reported. The 2-(N-acylamino)benzimidazole ring system was assembled using S_NAr reactions, nitro group reduction, acylthiourea formation and cyclization with EDC. The acyl protected 2-aminobenzimidazole derivatives were obtained in high yield and purity without purification of intermediates or final products. This reaction sequence eliminates the use of highly toxic cyanogen bromide, a reagent commonly used to prepare the 2-aminobenzimidazole ring system.

Tetrahedron Letters published new progress about 53484-26-7. 53484-26-7 belongs to bromides-buliding-blocks, auxiliary class Bromide,Nitro Compound,Amine,Benzene, name is 4-Bromo-N-methyl-2-nitroaniline, and the molecular formula is C12H10O4S, Synthetic Route of 53484-26-7.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary

Frevel, L. K. published the artcileTabulated diffraction data for tetragonal isomorphs, Formula: C6H12Br2, the publication is Industrial and Engineering Chemistry, Analytical Edition (1946), 83-93, database is CAplus.

cf. C.A. 32, 7841.8; 36, 2192.4; 37, 1671.9; 38, 3211³. Continuing the valuable procedure for comparing diffraction patterns of isomorphic substances the authors present data for tetragonal isomorphs. Four complete figures depict representative diffraction patterns for 40 tetragonal substances, arranged in sets with the simplest structure with highest symmetry listed first. In addition 327 tetragonal substances, including 50 synthesized by the authors, are tabulated by types. The following table lists 447 in an ascending order of axial ratios: Na_{(0.2_0.4)}WO₃, γ-NH₄I; Cd[Hg(CNS)₄], NiSb₂O₄; Co[Hg(CNS)₄], γ-NH₄Br (∼173°K.); [CH₃CHO]₄, N(CH₃)₄Cl; Zn[Hg(CNS)₄], N(CH₃)₄MnO₄; Pt(NH₃)₄Cl₂.H₂O, N(CH₃)₄Br; Be-(W, Mo), C(CH₂ONO₂)₄; Pd(NH₃)₄Cl₂.H₂O, Cl₂ (88°K.); Ag(CH₃.CS.NH₂)₄Cl, OsO₅C₄(CH₃)₈; MgPt(CN)₄.7H₂O, Ca(OCl)₂.3H₂O; Cu(CH₃.CS.NH₂)₄Cl, N(CH₃)₄ClO₄; [(CH₃)₃As, PdCl₂]₂, SnI b₂O₄; [(CH₃)₃As, PdBr₂]₂, N(CH₃)₄I; C(CH₂OCOCH₃)₄, PH₄I; CS₂(∼100°K.), Cd₃Hg; C₆H₄[1,2]CH₃.SO₂NH₂, Na₂(TiFe)Si₄O₁₁, narsarsukite; Fe₃P, PbPb₂O₄; (Fe,Ni,Co)₃P, Cu₃Pd; Ni₃P, Ag₂SO₄.4NH₃; W₄O₁₁, Ca₁₀Mg₂Al₄Si₉O₃₄(OH)₄,; Cr₃P, vesuvianite; Mn₃P, C(COOCH₃)₄; KgMg(H₂O)₆(Cl,Br)₃, LaAl₄; NaK(Ca,Mg,Mn)Al₄Si₅O₁₈.8H₂O, ashcroftine, C₂(CH₃)₄Br₂ N(C₂H₅)₄I; CdHg, TeO₂; Pb(C₆H₅)₄, PCl₅; CH₂OH(CHOH)₂CH₂OH, Al₂Cu; (C₆H₄ [1,2]O.CH = NOH)₂Pt, Sn₂Fe; Sn(C₆H₅)₄, Sn₂Mn; β-Sn, 2-Hydroxy-10-methoxy-1,2,3,4,5,6,7,8,13,14,15-dodecahydrochrysene; [PNCl₂]₄, AgClO₂, ZnHg(CNS)₄, NiZn; WO₂, Si[SC(CH₃)₃]₄; MoO₂, Ge[SC(CH₃)₃]₄; K₂PdCl₄, Sn[SC(CH₃)₃]₄; (C₆H₅)₄AsI, Fe₂B; K₂PtCl₄, (CH₃)₂CHSSi[SC(CH₃)₃]₃; (NH₄)₂PdCl₄, Co₂B; Ge(C₆H₅)₄, Ge₂Fe; NH₄ClO₂, NaBaPO₄; Na₂Co(CNS)₄.8H₂O, julienite, KBaPO₄; SeO₂, Ni₂B; Si(C₆H₅)₄, Pb₂Pd; [(CH₃)₂SiO]₈, Sn₂Co; CbO₂, NaSrPO₄; Ni₄Mo, KSrPO₄; Ca₄Al₆Si₆O₂₄(SO₄,CO₃), meionite, YVO₄; Na₄Al₃Si₉O₂₄Cl, marialite, NH₄NO₃-II (357-398°K.); N(CH₃)₄ICl₂, TlSe; RhVO₄, CaCrO₄; VO₂, SrO₂.8H₂O; Ca₂ZnSi₂O₇, hardystonite, Pb₂Rh; RhCbO₄, Ag₃Ca; TiO₂, YPO₄; RhTaO₄, ∼ZrH₂; C(C₆H₅)₄, ZrSiO₄; CrO₂, CuB₂O₄.CuCl₂.4H₂O, bandylite; CrCbO₄, Sr(OH)₂.8H₂O; CrTaO₄, YAsO₄; GeO₂, ∼MnBi₂; FeTaO₄, Hg(CN)₂; (Ca,Na)₂(Mg,Al)(Al₂Si)₂O₇, PbIn_{2_3}; melilite, AgClO₃; MnO₂, (Ca,Na)₂Be(Si,Al)₂(O,F)₇,; FeSbO₄, meliphanite; FeCbO₄, AuCu; Ca₂Al₂SiO₇, gehlenite, γ-Mn; AlSbO₄, KH₂AsO₄; MgF₂, 2Pb(OH)₂.CuCl₂, diaboleite; (Ca,Na)₂Be(Al,Si)₂(O,F)₇, KH₂PO₄; meliphanite, AgBrO₃; GaSbO₄, W₁₂O₃₂(OH)₂; NiF₂, 95Mn.5Cu; CrSbO₄, 96Mn.4Pd; ZnF₂, 89Mn.11Cu; NH₄SH, ∼70Mo-30N; SnO₂, FePd; RhSbO₄, NiMn; (Ca,Na)₂BeSi₂(O,OH,F)₇, 62Mn.38N; leucophanite, AgSb(OH)₆; MnF₂, trans-Pd(NH₃)₂Cl; CoF₂, 92Mn.8N; PbO₂, Pd(NH₃)₂I₂; NiAs₂O₄, 79Mn.21Cu; C(CH₂OC₆H₅), NaSb(OH)₆; PdF₂, Ni₄Mo; FeSb₂O₄, 66Mn.34Cu; MnSb₂O₄, Ag₂HgI₄; RuO₂, NH₄H₂PO₄; FeF₂, NH₄H₂AsO₄; CoSb₂O₄, BaTiO₃; ZnSb₂O₄, SrPb₃; IrO₂, Cu₂HgI₄; MgSb₂O₄, ZrO₂ (<1273° K.); OsO₂, Pt(NH₃)₄PtCl₄; Rb₂CuCl₄.2H₂O, ZnMn₂O₄; (Pd, Pt, Ni)S, Mn₂Sb ∼Ni₂Sb, BaC₂; PdS, C₃H₇NH₃Br; CdIn₂O₄; Mg(ClO₂)₂.6H₂O, Cr₂Ni, Rb₃CoCl₅; (NH₄)₂CuCl₄.2H₂O, SrC₂; ∼PbCl₂.Cu(OH)₂, cumengeite; (NH₄)₂CuBr₄.2H₂O, KAlSi₂O₅, leucite, MnMn₂O₄; α-Martensite, Fe₂As; PbTiO₃, NdC₂; K₂CuCl₄.2H₂O, CaC₂; Al₂C₁₂O₁₂.18H₂O, mellite, BaFCl; In, PrC₃; (NH₄)₂FeCl₄.2H₂O, CaO₂; Pb₂Cl₂CO₃, SmC₂; Pb₂Br₂CO₃, Mn₂As; K₃CrO₈, CeC₂; Cs₃TaO₈, LaC₂; AgFO₃, SrFCl; Rb₃TaO₈, l-Co(NH₂.CH₂.CH₂.NH₂)₃Br₃.H₂O; K₃TlCl₅.2H₂O, CsO₂, 6CuO.Cu₂O, paramelaconite; Rb₃TlBr₅.8/7H₂O, BAFI; RbO₂, NH₄Pb₂Br₅; KNCO, CH₃NH₃Br; KN₃, RbPb₂Br₅; K₃CbO₃, KAlF₄; K₃TaO₃, RbAlF₄; NiZn, KPb₂Br₅; RbN₂, PdO; KO₂, Cr₂As; UC₂, CH₃NH₃I; CH₃NH₃Cl, PtO; KFHF, PtS; PbO-Bi₂O₃, TlAlF₄; Ca(UO₂)₂(PO₄)₂.61/2H₂O, CaFCl; LiOH, PbFCl; K₂OsO₂Cl₄, KCa₄Si₈O₂₀F.8H₂O, apophyllite; γ-LiBi, NH₄AlF₄; PbO, BaO₂; Ca₄NaAl₃Si₅O₁₉, sarcolite, KUO₂(CH₃COO)₃; SnO, α-Pt(NH₃)₂Cl₄; ThC₂, PbFBr; C₂(CH₃)₂Br₄, AgFeS₂; Fe₂(TeO₃)₃.xH₂O, mackayite, NH₄CN; Sr(OH)₂.8H₂O, (C₂H₅)₃As.AgI; γ-Mn, SrO₂; Ni-N, BiOCl; AuCu, NH₄HgCl₃; C₄H₄S (∼ 100°K.), thiophene, FeSi₂; 5PbCrO₄.3PbMoO₄.10PbSO₄, NiTa₂O₆; 95Mn.5Cu, Fe(Cb,Ta)₂O₆, mossite; MgIn, CoTa₂O₆; (Ca,Na)₂BeSi₂(O,OH,F)₇, MgTa₂O₆; leucophanite, FeTa₂O₆, tapiolite; 89Mn.11Cu, Pb(Cl,OH)₂4PbO.2Fe₂O₃,; Ba(CH₂COO)₂, hämatophanite; NiMn, KHC₂; FePd, CuFeS₂, chalcopyrite; 79Mn.21Cu, Cu₂FeSnS₄, stannite; NaBi, KUO₂(CH₃COO)₃; SiO₂, H₂O₂; Cd₃P₂, 3Mn₂O₃.MnSiO₃, braunite; 66Mn.34Cu, NH₄UO₂(CH₃COO)₃; AlPO₄, Pb₅Cu₄Cl₁₀O₄.6H₂O,; Li₂O₂, pseudoboleite; Ni₂Sb₄, ∼CuGa₂; Zn₃P₂, TiGa₃; Zn₃As₂, BiOBr; C d₃As₂, (Bi,W)₈-nO₁₂, russellite; [N(CH₃)₄]₂SiF₆, NaHC₂; B₂O₃.24WO₃.66H₂O, BaFeSi₄O₁₀, gillespite; H₄SiW₁₂O₄₀.31H₂O, NH₄IO₄; C(CH₂OH)₄, AgUO₂(CH₃COO)₃.xH₂O; (NH₄)₅BW₁₂O₄₀.26H₂O, CdMoO₄; Cs₂AuAuCl₆, CaWO₄; CuCl.3SC(NH₂)₂, NaLa(WO₄)₂; TiGa₃, NaCe(WO₄)₂; Y(Cb, Ta)O₄, Pr₂(MoO₄)₃; YCbO₄, LiLa(WO₄)₂; FeSe, CaMoO₄; YTaO₄, NaBi(MoO₄)₂; CuFe₂O₄, Nd₂(MoO₄)₃; Na₅Al₃F₁₄, NaReO₄; Na₂O₂, VAl₃; Cs₂AgAuCl₆, ZrGa₃; AgCo(NH₃)₂(NO₂)₄, LiBi(MoO₄)₂; Pb(ClO₂)₂, LiLa(MoO₄)₂; C₃H₇NH₃I, NaLa(MoO₄)₂; In, SrWO₄; BAsO₄, KIO₄; Cu₂Sb, RbIO₄; BPO₄, NH₄ReO₄; ZrGa₃, Ce₂(MoO₄)₃; VAl₃, La₂(MoO₄)₃; [N(CH₃)₂(C₂H₅)₂]₂SnCl₆, PbWO₄; ∼Fe₃Ti, KLa(WO₄)₂; TaAl₃, KBi(MoO₄)₂; C₈H₇NH₃Cl, KCe(WO₄)₂; TiAl₃, KReO₄; CbAl₃, TaAl₃; CaIn₂O₄, Sn₂(MoO₄)₃; Cs₃CoCl₅, AgReO₄; SrMoO₄, Cu(UO₂)₂(PO₄)₂.8H₂O, torberite; PbMoO₄, Ca(UO₂)₂(PO₄)₂.101/2H₂O; KLa(MoO₄)₂, C₄H₉NH₃I; TiAl₃, C₄H₉NH₃Cl; CbAl₃, Hg₂F₂; NaIO₄, C₂H₄(NH₂)₂.H₂SO₄; AgIO₄, C₄H₉NH₃Br; BaWO₄, Tl(CH₃)₂Br; RbReO₄, LiBi₃O₄Cl₂; BiOI, NaBi₃O₄Cl₂; BaMoO₄, MnSi₂; BiAsO₄, NaBi₃O₄Br₂; β-TlReO₄ (400°K.), Cd₂Bi₂O₄Br₂; KOsO₃N, LiBi₃O₄Br₂; Hg₂I₂, Tl(CH₃)₂Cl; KCrO₃F, C₅H₁₁NH₃Cl; C₂₈H₃₆N₄, acetonylpyrrol, Cd₂Bi₂O₄I₂; Hg₂Br₂, NaBi₃O₄I₂; cis-[Pt(NH₃)(C₂H₄)Cl₂]₂, LiBi₃O₄I₂; 6Pb(S,Tl)₂.AuTl₂, nagyagite, C₅H₁₁NH₃I; Hg₂Cl₂, C₅H₁₁NH₃Br; WSi₂, ThSi₂; MoSi₂, ZnP₂; Al₄Ba, CdP₂; (CH₂CO)₂NI, C₆H₁₃NH₃I; Al₄Sr, La₂MoO₆; TiO₂, C₆H₁₃NH₃Cl; CsSO₃F, C₆H₁₃NH₃Br; CsCrO₃F, Pb₉Cu₈Ag₃Cl₂₁O₈.9H₂O, boleite; Al₄Ca, C₇H₁₅NH₃I; CaNa₄Al₁₂(PO₄)₈(OH)₁₈.6H₂O wardite, C₇H₁₅NH₃Cl ZrAl₃; C₅H₄O₄N₄, l-spiro-5,5′-dihydantoin, C₈H₁₇NH₃I β-Me d-glucoside; [(NH₂)₂CNH]₂.H₂CO₃, C₁₀H₂₁NH₃I; Tl(CH₃)₂I, Beyerite; 2,4,6(C₆H₂)I(NO₂)₃, C₁₁H₂₃NH₃I; C₆H₄[1,2](COC₂H₅)₂, C₁₂H₂₅NH₃I; HgI₂, C₁₄H₆O₂[2,7](NO₂)₂, 2,7-dinitroanthraquinone; Cr₂Al; The general procedure for identifying a noncatalogued pattern is: (1) plot the log d values and corresponding relative intensities of the unidentified pattern on a narrow strip of paper; (2) verify that the pattern is noncubic; (3) find an isomorphic prototype among the representative diffraction patterns; (4) compute lattice constants and check the appropriate classification tables; (5) confirm identification of the unknown by qual. spectroscopic anal., or by spot tests.

Industrial and Engineering Chemistry, Analytical Edition published new progress about 594-81-0. 594-81-0 belongs to bromides-buliding-blocks, auxiliary class Bromide,Aliphatic hydrocarbon chain, name is 2,3-Dibromo-2,3-dimethylbutane, and the molecular formula is C6H12Br2, Formula: C6H12Br2.

Referemce:
https://en.wikipedia.org/wiki/Bromide,
bromide – Wiktionary