Chocolate is a posh comfortable materials characterised by stable particles (cocoa powder, milk stable particles and sugar crystals) dispersed in a crystallized fats matrix largely composed of cocoa butter (CB). Important chocolate properties comparable to snap, and visible look are strongly dependent on the inside molecular association (polymorph), measurement and form, in addition to the spatial distribution of CB crystals inside the chocolate combine. In recent years confectionary corporations have put growing effort in creating novel chocolate recipes to enhance the dietary profile of chocolate merchandise (e.g., by lowering the quantity of excessive saturated fats and sugar content material) and to counteract the growing worth of cocoa butter in addition to sustainability points associated to some chocolate components.
Different reformulation strategies can dramatically have an effect on the crystallization thermodynamic and kinetic behaviour of cocoa butter; due to this fact, affecting the structural and sensorial properties of chocolate. In this overview we analyse how completely different reformulation strategies have an effect on the crystallization behaviour of cocoa butter and, therefore, the structural and sensorial properties of chocolate. In explicit, this work discusses the effect of: (1) CB alternative with emulsions, hydrogels, oleogels and oleofoams; (2) CB dilution with limonene or cocoa butter equivalents; (3) alternative or discount of the quantity of sugar and milk in chocolate.
We discovered that there’s definitely potential for profitable novel various chocolate merchandise with managed crystalline properties; nonetheless, additional analysis remains to be wanted to make sure sensory acceptance and affordable shelf-life of these novel merchandise. To preprel superior anode supplies involving alloy/de-alloy chemistry for potassium ion batteries (PIBs), two-dimensional (2D) bismuth subcarbonate (BCO) nanosheets that posses excessive theoretical capability of 631 mAh g -1 had been firstly proposed.
The giant lattice spacing of 0.683 nm alongside b axis facilitate insertion of Ok + ion to spice up excessive capability supply of ~610 mAh g -1 , and the in-situ nano-crystalization properly ease quantity modifications of the built-in particle and shorten ion diffusion path throughout potassiation/depotassiation. After coupling with a concentrated KFSI-G2 electrolyte, the sturdy and environment friendly SEI constructed from enhanced participation of FSI – synergistically endow structural stability of the flower-like BCO, and allow a chronic biking efficiency with capability of ~300 mAh g -1 at 0.2 A g -1 for 1500 cycles, attaining an ultralow decay price of 0.007%.
Kinesthetic engagement in Gestalt analysis outscores analytical ‘atomic characteristic’ analysis in perceiving getting old in crystallization photos of agricultural merchandise
There is an growing curiosity in a systemic method to meals high quality. From this attitude, the copper chloride crystallization technique is an attention-grabbing asset because it allows an estimation of a pattern’s ‘resilience’ in response to managed degradation. In earlier research, we confirmed that an ISO-standardized visible analysis panel may accurately rank crystallization photos of numerous agricultural merchandise in line with their diploma of induced degradation. In this paper we examined the position of contextual sensitivity herein, with the goal to additional enhance the visible analysis. To this finish, we in contrast topics’ efficiency in rating assessments, whereas primed in line with two perceptional strategies (ranges: analytical vs. kinesthetic engagement), in line with a within-subject design.
The rating take a look at consisted out of wheat and rocket lettuce crystallization photos, exhibiting 4 ranges of induced degradation. The perceptual technique imbuing kinesthetic engagement improved the efficiency of the rating take a look at in each samples examined. To the finest of our information, that is the first report on the coaching and utility of such a perceptual technique in visible analysis. The manufacturing of diffraction-quality protein crystals is difficult and usually requires bespoke, time-consuming and costly strategies. A system has been developed during which the BCL6 BTB area acts as a crystallization chaperone and promiscuous meeting block which will kind the foundation for affinity-capture crystallography.
The protein of curiosity is expressed with a C-terminal tag that interacts with the BTB area, and co-crystallization results in its incorporation inside a BTB-domain lattice. This technique was used to unravel the construction of the SH3 area of human nebulin, a construction beforehand solved by NMR, at 1.56 Å decision. This method is easy and efficient, requiring solely routine protein complexation and crystallization screening, and must be relevant to a spread of proteins.
Effects of ethylene oxide chain size on crystallization of polysorbate 80 and its associated compounds
As a outcome of the synthesis protocol polyoxyethylene sorbitan monooleate (polysorbate 80, PS80) is a extremely complicated combination of compounds. PS80 was due to this fact separated into its most important constituents, e.g. polyoxyethylene isosorbide esters and polyoxyethylene esters, in addition to mono- di- and polyesters utilizing preparative high-performance liquid chromatography. In this complete examine the particular person parts and their ethoxylation stage had been verified by matrix assisted laser desorption/ionization time-of-flight and their thermotropic habits was analyzed utilizing differential scanning calorimetry and X-ray diffraction.
A definite correlation was discovered between the common size of the ethylene oxide (EO) chains in the headgroup and the particular person compounds’ means to crystallize. Importantly, a important quantity of EO items required for crystallization of the headgroup was decided (6 EO items per chain or 24 per molecule). The investigation additionally revealed that the hydrocarbon tails solely crystallize for polyoxyethylene sorbitan esters if saturated. PS80 is synthesized by reacting with roughly 20 mol of EO per mole of sorbitol, nonetheless, the quantity of EO items in the sorbitan ester in business PS80 merchandise is larger than the anticipated 20 (5 EO items per chain).
 pLDH Protein Protein |
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| abx061407-1mg | Abbexa | 1 mg | EUR 2639 |
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pLDH Protein Protein |
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| abx061408-1mg | Abbexa | 1 mg | EUR 2639 |
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 Protein A Protein |
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| abx061461-10mg | Abbexa | 10 mg | EUR 439 |
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 Protein G Protein |
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| 20-abx260044 | Abbexa |
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Protein G Protein |
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| 20-abx262181 | Abbexa |
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 Protein L Protein |
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| 20-abx262993 | Abbexa |
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Protein L Protein |
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| 20-abx262994 | Abbexa |
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 Protein A protein |
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| 30R-1304 | Fitzgerald | 100 ug | EUR 278 |
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Description: Purified recombinant S.aureus Protein A protein |
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 Protein) Protein-Export Protein SecB (SecB) Protein |
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| 20-abx261442 | Abbexa |
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 Protein Export Protein SecB Recombinant Protein |
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| PROTP0AG86 | BosterBio | Regular: 25ug | EUR 317 |
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Description: Recombinant E.Coli SecB produced in E.Coli is a single, non-glycosylated polypeptide chain containing 155 amino acids and having a molecular mass of 17.2 kDa. SecB was over-expressed in E. coli and purified by conventional chromatography. |
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 Polyadenylate-Binding Protein-Interacting Protein 2 Protein |
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| 20-abx260556 | Abbexa |
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 Heat Shock Protein-Binding Protein 1 Protein |
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| 20-abx262435 | Abbexa |
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 Protein-A Staphylococcal Protein A Recombinant Protein |
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| PROTP38507 | BosterBio | Regular: 100mg | EUR 524 |
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Description: Recombinant Staphylococcal Protein A produced in E.Coli is a non-glycosylated, Polypeptide chain having a molecular mass of 45 kDa.;Recombinant Staphylococcal Protein A is purified by proprietary chromatographic techniques. |
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 Cys-Protein G Protein |
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| 20-abx260045 | Abbexa |
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 Protein) Protein GLC8 (GLC8) Protein |
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| 20-abx260445 | Abbexa |
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 Protein) Protein Max (MAX) Protein |
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| 20-abx260587 | Abbexa |
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 Protein) Protein CutA (CUTA) Protein |
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| 20-abx260588 | Abbexa |
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 Ribosomal Protein S3A Protein |
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| 20-abx260901 | Abbexa |
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 Ribosomal Protein S10 Protein |
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| 20-abx261043 | Abbexa |
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 Ribosomal Protein S12 Protein |
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| 20-abx261079 | Abbexa |
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 Ribosomal Protein L26 Protein |
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| 20-abx261104 | Abbexa |
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 Protein) Protein SET (SET) Protein |
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| 20-abx261106 | Abbexa |
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 Ribosomal Protein L11 Protein |
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| 20-abx261115 | Abbexa |
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 Centromere Protein-M Protein |
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| 20-abx261135 | Abbexa |
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 Ribosomal Protein L35A Protein |
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| 20-abx261171 | Abbexa |
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 Ribosomal Protein L34 Protein |
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| 20-abx261172 | Abbexa |
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 Centromere Protein-P Protein |
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| 20-abx261213 | Abbexa |
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 Ribosomal Protein 4X Protein |
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| 20-abx261221 | Abbexa |
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 Centromere Protein-Q Protein |
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| 20-abx261234 | Abbexa |
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 Centromere Protein-U Protein |
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| 20-abx261241 | Abbexa |
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 Protein) Protein LZIC (LZIC) Protein |
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| 20-abx261245 | Abbexa |
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 Protein) Protein BRICK1 (BRK1) Protein |
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| 20-abx261249 | Abbexa |
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 Protein-c Receptor Protein |
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| 20-abx261298 | Abbexa |
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 Surfactant Protein D Protein |
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| 20-abx261338 | Abbexa |
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 Centromere Protein-H Protein |
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| 20-abx261515 | Abbexa |
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 Ribosomal Protein S13 Protein |
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| 20-abx261933 | Abbexa |
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 Protein) Protein KIBRA (WWC1) Protein |
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| 20-abx261958 | Abbexa |
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 Ribosomal Protein L18A Protein |
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| 20-abx261962 | Abbexa |
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 Ribosomal Protein S18 Protein |
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| 20-abx262032 | Abbexa |
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 Centromere Protein-A Protein |
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| 20-abx262074 | Abbexa |
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 Centromere Protein-B Protein |
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| 20-abx262075 | Abbexa |
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 Protein) Protein AMBP (AMBP) Protein |
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| 20-abx262116 | Abbexa |
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 Protein A / G Protein |
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| 20-abx262179 | Abbexa |
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Protein A / G Protein |
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| 20-abx262182 | Abbexa |
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 Ribosomal Protein L23A Protein |
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| 20-abx262616 | Abbexa |
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 Ribosomal Protein L22 Protein |
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| 20-abx262641 | Abbexa |
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 Ribosomal Protein S16 Protein |
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| 20-abx262643 | Abbexa |
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 Ribosomal Protein S20 Protein |
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| 20-abx262728 | Abbexa |
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 Protein) Protein JTB (JTB) Protein |
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| 20-abx262811 | Abbexa |
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Protein AMBP (AMBP) Protein |
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| 20-abx262923 | Abbexa |
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 Protein L-Cys Protein |
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| 20-abx263053 | Abbexa |
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 Protein L Cys Protein |
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| 20-abx263054 | Abbexa |
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 Cys-Protein-L Protein |
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| 20-abx263055 | Abbexa |
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 Protein) Protein Amnionless (AMN) Protein |
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| 20-abx263207 | Abbexa |
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 Ribosomal Protein S14 Protein |
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| 20-abx263299 | Abbexa |
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 Protein) Protein BEX1 (BEX1) Protein |
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| 20-abx263364 | Abbexa |
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 Ribosomal Protein S19 Protein |
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| 20-abx263367 | Abbexa |
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 Ribosomal Protein S24 Protein |
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| 20-abx263370 | Abbexa |
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 Ribosomal Protein L30 Protein |
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| 20-abx263376 | Abbexa |
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 Ribosomal Protein L31 Protein |
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| 20-abx263395 | Abbexa |
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 Protein) Human Myelin Proteolipid Protein Like Protein (PLPL) Protein |
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| 20-abx654425 | Abbexa |
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 Protein) Human Transmembrane Protein 2 Like Protein (TMEM2L) Protein |
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| 20-abx655334 | Abbexa |
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 Protein) Mouse FK506 Binding Protein Like Protein (FKBPL) Protein |
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| 20-abx650795 | Abbexa |
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 Protein) Human Brain Protein 44 Like Protein (BRP44L) Protein |
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| 20-abx167822 | Abbexa |
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 Protein) Human FK506 Binding Protein Like Protein (FKBPL) Protein |
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| 20-abx165927 | Abbexa |
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 Protein) Microtubule Associated Protein Tau / Tau Protein (MAPT) Protein |
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| 20-abx262449 | Abbexa |
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Microtubule Associated Protein Tau / Tau Protein (MAPT) Protein |
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| 20-abx262455 | Abbexa |
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Microtubule Associated Protein Tau / Tau Protein (MAPT) Protein |
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| 20-abx262840 | Abbexa |
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Microtubule Associated Protein Tau / Tau Protein (MAPT) Protein |
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| 20-abx263440 | Abbexa |
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 Protein) Human Protein Z (PROZ) Protein |
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| 20-abx654876 | Abbexa |
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 Protein) Maltose Binding Protein (MBP) Protein |
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| 20-abx655552 | Abbexa |
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 Protein) Human Protein S (PROS) Protein |
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| abx670077-50ug | Abbexa | 50 ug | EUR 300 |
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 Protein) Green Fluorescent Protein (GFP) Protein |
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| 20-abx651492 | Abbexa |
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 Protein) Escherichia coli Protein (ECP) Protein |
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| 20-abx066464 | Abbexa |
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 Protein) Mouse Prion Protein (PRNP) Protein |
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| 20-abx068666 | Abbexa |
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 Protein) Human Prion Protein (PRNP) Protein |
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| 20-abx068667 | Abbexa |
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 Protein) Human Protein C (PROC) Protein |
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| 20-abx068731 | Abbexa |
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 Protein) Mouse Protein C (PROC) Protein |
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| 20-abx068732 | Abbexa |
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 Protein) Rat Protein C (PROC) Protein |
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| 20-abx068733 | Abbexa |
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Human Protein S (PROS) Protein |
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| 20-abx068765 | Abbexa |
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Human Protein S (PROS) Protein |
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| 20-abx068766 | Abbexa |
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 Protein) Rat Protein S (PROS) Protein |
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| 20-abx068767 | Abbexa |
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Rat Protein S (PROS) Protein |
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| 20-abx068769 | Abbexa |
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 Protein) Centromere Protein B (CENPB) Protein |
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| abx160005-200ug | Abbexa | 200 ug | EUR 1261 |
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 Yellow Fever Envelope Protein Protein |
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| abx160018-100ug | Abbexa | 100 ug | EUR 551 |
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 Protein) Mouse Protein Z (PROZ) Protein |
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| 20-abx167987 | Abbexa |
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 Protein) Human Kell Protein (KEL) Protein |
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| 20-abx168735 | Abbexa |
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 Protein) Mouse Kell Protein (KEL) Protein |
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| 20-abx168736 | Abbexa |
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 Protein) Rat Kell Protein (KEL) Protein |
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| 20-abx168737 | Abbexa |
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 Protein) Human Translocator Protein (TSPO) Protein |
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| 20-abx165906 | Abbexa |
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 Protein) Epididymis Protein 4 (HE4) Protein |
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| abx061477-50pmol | Abbexa | 50 pmol | EUR 1177 |
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Epididymis Protein 4 (HE4) Protein |
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| abx061478-50pmol | Abbexa | 50 pmol | EUR 1177 |
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 Protein A / G / L Protein |
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| 20-abx260039 | Abbexa |
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 Staphylococcal Protein-A Cys Protein |
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| 20-abx260059 | Abbexa |
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Staphylococcal Protein-A Cys Protein |
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| abx260059-1gr | Abbexa | 1 gr | EUR 1970 |
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Staphylococcal Protein-A Cys Protein |
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| 20-abx260060 | Abbexa |
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Staphylococcal Protein-A Cys Protein |
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| abx260060-1gr | Abbexa | 1 gr | EUR 1970 |
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 Protein) Surfactant Protein A1 (SFTPA1) Protein |
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| 20-abx260062 | Abbexa |
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Surfactant Protein A1 (SFTPA1) Protein |
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| abx260062-1gr | Abbexa | 1 gr | EUR 1970 |
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Surfactant Protein A1 (SFTPA1) Protein |
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| 20-abx260077 | Abbexa |
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Surfactant Protein A1 (SFTPA1) Protein |
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| abx260077-1gr | Abbexa | 1 gr | EUR 1845 |
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 Soy Bean P34 Protein Protein |
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| 20-abx260180 | Abbexa |
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 Bone Morphogenetic protein-7 Protein |
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| 20-abx260413 | Abbexa |
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 Heat Shock Protein 47 Protein |
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| 20-abx260420 | Abbexa |
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 Protein) Retinoblastoma Protein 1 (RB1) Protein |
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| 20-abx260454 | Abbexa |
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 Phosphatidylethanolamine Binding Protein 1 Protein |
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| 20-abx260464 | Abbexa |
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 Visinin-Like Protein-1 Protein |
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| 20-abx260465 | Abbexa |
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 Vacuolar Protein Sorting 28 Protein |
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| 20-abx260470 | Abbexa |
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 Heat Shock Protein 27 Protein |
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| 20-abx260487 | Abbexa |
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Heat Shock Protein 27 Protein |
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| 20-abx260552 | Abbexa |
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 Copper Transport Protein ATOX1 Protein |
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| 20-abx260559 | Abbexa |
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 Protein) Macrophage-Capping Protein (CAPG) Protein |
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| 20-abx260560 | Abbexa |
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 Proliferation-associated protein 2G4 Protein |
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| 20-abx260573 | Abbexa |
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 NCK Adaptor Protein 1 Protein |
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| 20-abx260606 | Abbexa |
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 Calcium Binding Protein P22 Protein |
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| 20-abx260610 | Abbexa |
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 Protein) Myelin P2 Protein (PMP2) Protein |
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| 20-abx260645 | Abbexa |
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 UL16 Binding Protein 1 Protein |
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| 20-abx260710 | Abbexa |
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 EBNA1 Binding Protein 2 Protein |
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| 20-abx260778 | Abbexa |
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 Heat Shock Protein 105 Protein |
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| 20-abx260801 | Abbexa |
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 Phosphatidylinositol Transfer Protein, beta Protein |
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| 20-abx260804 | Abbexa |
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 MAPK Scaffold Protein 1 Protein |
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| 20-abx260824 | Abbexa |
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 Phosphatidylinositol Transfer Protein, alpha Protein |
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| 20-abx260827 | Abbexa |
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 Heat-Responsive Protein 12 Protein |
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| 20-abx260828 | Abbexa |
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 BAI1-Associated Protein 2 Protein |
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| 20-abx260856 | Abbexa |
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The complicated habits of all examined compounds revealed that if the quantity of a number of of the linear by-products is decreased, the quantity of EO items in the chains will keep under the important quantity and the product will be unable to crystallize by the EO chains. Metal halide perovskites have fascinated the analysis group over the previous decade, and demonstrated unprecedented success in optoelectronics.