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1 g the backbone of cis-polynorbornene and cis-polybutadiene.
2 d in the polynorbornene scaffold relative to polybutadiene.
3 lever with greater mechanical advantage than polybutadiene.
4 slate these learnings to leverage commercial polybutadiene and acrylonitrile butadiene styrene (ABS)
5                                   Epoxidized polybutadiene and epoxidized polynorbornene were subject
6 such as poly(dimethylsiloxane), hydrogenated polybutadiene, and ethylene phthalate.
7  approach, and a mixture of polyisobutylene, polybutadiene, and polystyrene has been confirmed in the
8 The distinct selectivity differences between polybutadiene- and carbon-coated zirconia as well as the
9 fferent chromatographic selectivities (e.g., polybutadiene- and carbon-coated zirconia) are serially
10 ocyclopropane (gDCC) copolymers derived from polybutadiene are subjected to ultrasonication, the gDCC
11 hes to repurpose unsaturated polymers (e.g., polybutadiene) are scarce.
12 sules formed from a commercial polystyrene-b-polybutadiene-b-polystyrene triblock polymer.
13 mentation kinetics of micelles formed by 1,2-polybutadiene-block-poly(ethylene oxide) (PB-PEO) copoly
14 ly bound to a cross-linked polystyrene-block-polybutadiene-block-polystyrene (SBS) polymer have been
15                                              Polybutadiene-coated zirconia (PBD-ZrO2) is very useful
16 ombination of an octadecylsilane (ODS) and a polybutadiene-coated zirconia (PBD-ZrO2) phase was used
17  on octadecyl silane-bonded silica (ODS) and polybutadiene-coated zirconia (PBD-ZrO2) phases.
18  to other phases, especially with respect to polybutadiene-coated zirconia (PBD-ZrO2).
19           This material has been compared to polybutadiene-coated zirconia, octadecyl- and phenyl-bon
20                                          The polybutadiene contributes to the reversed-phase interact
21      Among these materials, the hydrogenated polybutadiene-Cp analog can be thermally depolymerized (
22 ed polyepichlorohydrin, polyisobutylene, and polybutadiene gratings, respectively, were found to be 8
23 tegy to upcycle waste polyalkenamers such as polybutadiene into new, performance-advantaged materials
24 ers surface-modified with grafted epoxidized polybutadiene layers enabled the direct detection of cru
25 tathesis catalyst, a chemically cross-linked polybutadiene network becomes malleable at room temperat
26 gle-step method to selectively add amines to polybutadienes, offering an efficient strategy to access
27 In this work, we propose a method to upcycle polybutadiene, one of the most widely used commercial ru
28                                              Polybutadiene (PB) and polyisoprene (PI), the two most c
29  and hemi- and post-metallocenes, in cis-1,4-polybutadiene (PB) degradation reveals, for the first ti
30  methacrylate) (PMMA), polystyrene (PS), and polybutadiene (PB) molecular weights were determined by
31 ion Ru metathesis catalyst into cross-linked polybutadiene (PBD) network, the material self-heals eff
32 on a reversed-phase material made by coating polybutadiene (PBD) on porous zirconia.
33 using a trithiocarbonate-capped hydrogenated polybutadiene (PhBD) steric stabilizer block in n-dodeca
34 er membrane protein F (OmpF), in short-chain polybutadiene-poly(ethylene oxide) (PB-PEO) membranes.
35 e both 28 wt% (PBD13) and 70 wt% (PBD50) 1,2-polybutadiene polymers.
36 Oxidation of the surface of cross-linked 1,4-polybutadiene provided a hydrophilic substrate that reco
37 n of challenging internal alkenes of the 1,4-polybutadiene unit was observed.
38  cis-substituted gem-difluorocyclopropanated polybutadiene using the extensional forces generated by
39                 Primary amine-functionalized polybutadiene was also prepared, demonstrating that a br
40                                              Polybutadiene was functionalized with dibromocyclopropan
41                              When epoxidized polybutadiene was sonicated, there was no observable sma
42                      The vinyl groups of 1,2-polybutadiene were aminated with ease, and unexpectedly
43 ehavior of a single chain of cyclopropanated polybutadiene, which is governed by rapid isomerization
44                                  By treating polybutadiene with a difluorocarbene source, we embedded
45  generate an optical response and to degrade polybutadiene with embedded HF-cleavable silyl ethers (1
46  carbon-based analogues, polycyclooctene and polybutadiene, with stretching constants that agree well