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1                                              BBB disruption, evaluated by mapping the R1 relaxation r
2                                              BBB dysfunction, however, is evident in many neurologica
3                                              BBB-impermeable fluorescent tracer injected transcardial
4           To tackle these critical issues, a BBB-permeable biomimetic codelivery system was designed
5                     The new development of a BBB transport vehicle may bring us a step closer to solv
6 a partial conversion of non-BBB CNS ECs to a BBB-like state, has little or no effect on gene expressi
7 in targeting, including drug delivery across BBB and direct nose-to-brain drug delivery along with th
8 atal CNS development as well as at the adult BBB.
9 nd adult CNS homeostasis but does not affect BBB barrier function.
10 ficacy in GBM, in vitro 3D models of GBM and BBB leveraging patient- or healthy-individual-derived ce
11          Collectively, 3D-bioprinted GBM and BBB models are promising systems and biomimetic alternat
12 an overview of current 3D-bioprinted GBM and BBB models is provided, elaborating on the microenvironm
13 e microenvironmental compositions of GBM and BBB, relevant biomaterials to mimic the native tissues,
14 logical and pathological features of GBM and BBB.
15 ferrin receptor (TfR), a native receptor and BBB transporter for the iron chaperone transferrin.
16 monstrates the distinct cellular uptakes and BBB penetrations through receptor-mediated transcytosis.
17 althy rats confirmed that both compounds are BBB permeable and that bladder accumulation is low until
18 sib is restricted by P-gp and Bcrp efflux at BBB.
19 e limitations being the brain-blood barrier (BBB).
20 (13)C-AcAc to cross the blood brain barrier (BBB) and its potential to monitor brain metabolism remai
21 essel abnormalities and blood-brain barrier (BBB) breakdown(14-16).
22 into the brain, causing blood-brain barrier (BBB) breakdown, extravasation of autoantibodies into the
23 92) or without (n = 90) blood-brain barrier (BBB) disruption and a diseased control group with cluste
24 hase (NOS) in mediating blood-brain barrier (BBB) disruption and peripheral immune cell infiltration
25 investigated controlled blood-brain barrier (BBB) disruption using a low-frequency clinical transcran
26                         Blood-brain barrier (BBB) dysfunction occurs in cerebrovascular diseases and
27  is often implicated in blood-brain barrier (BBB) dysfunction, but whether and how GLUT1 controls EC
28 llowing TBI, leading to blood brain barrier (BBB) dysfunction, neuronal damage and long term neuronal
29 f Abeta42 and cross the blood-brain barrier (BBB) following intravenous administration without notice
30 hy (CAA), which impairs blood-brain barrier (BBB) function and accelerates cognitive degeneration.
31 nt of robust assays for blood-brain barrier (BBB) function, including drug permeability and extrusion
32                     The blood-brain barrier (BBB) hinders the brain delivery of therapeutic immunoglo
33 low permeability of the blood-brain barrier (BBB) hinders the release of tumor biomarkers.
34 n important role at the blood-brain barrier (BBB) in promoting clearance of neurotoxic beta-amyloid (
35 ic social stress alters blood-brain barrier (BBB) integrity through loss of tight junction protein cl
36 ers of inflammation and blood-brain barrier (BBB) integrity were measured preoperatively and up to 48
37 brain and its impact on blood-brain barrier (BBB) integrity.
38                     The blood-brain barrier (BBB) is a dynamic component of the brain-vascular interf
39                     The blood brain barrier (BBB) is a major obstacle to the delivery of therapeutics
40 d that breakdown of the blood-brain barrier (BBB) is an early biomarker of human cognitive dysfunctio
41                     The blood-brain barrier (BBB) is an efficient barrier for molecules and drugs.
42              The intact blood-brain barrier (BBB) is likely responsible for the limited clinical resp
43                     The blood-brain barrier (BBB) is the major impediment for penetration of antiretr
44 olecular indices of the blood-brain barrier (BBB) is unclear.
45  The GenX effect on the blood-brain barrier (BBB) is unknown.
46                     The blood-brain barrier (BBB) maintains a stable brain microenvironment.
47 em cell (hiPSC)-derived blood-brain barrier (BBB) models established to date lack expression of key a
48 NS) induces endothelial blood-brain barrier (BBB) opening as well as the formation of a tight junctio
49      Ultrasound-induced blood-brain barrier (BBB) opening using microbubbles is a promising technique
50  limited by ineffective blood-brain barrier (BBB) penetrance.
51 these difficulties, but blood-brain barrier (BBB) penetration of related drugs is poor.
52 cy, selectivity, and/or blood-brain barrier (BBB) penetration profile.
53      Recently we showed blood brain barrier (BBB) permeability and memory loss are associated with di
54             Increase in blood-brain barrier (BBB) permeability is a crucial step in neuroinflammatory
55                     The blood-brain barrier (BBB) presents a significant challenge for treating brain
56                   These blood-brain barrier (BBB) properties are impediments to brain drug delivery,
57     Transfer across the blood-brain barrier (BBB) remains a significant hurdle for the development of
58 rug delivery across the blood-brain barrier (BBB) remains a significant obstacle for the development
59 ystem (CNS) through the blood-brain barrier (BBB) remains poorly understood.
60                     The blood-brain barrier (BBB) serves to protect and regulate the CNS microenviron
61 iological barriers, the blood-brain barrier (BBB) strongly impede hurdle for drug transport to brain.
62 ls contain a functional blood-brain barrier (BBB) that is necessary for neuronal survival and activit
63  impenetrability of the blood-brain barrier (BBB) to most conventional drugs impedes the treatment of
64  enters by crossing the blood-brain barrier (BBB) via macrophages, which are considered as conduits b
65 ogic restoration of the blood-brain barrier (BBB), 12 mo after murine TBI, is associated with arreste
66 cular components of the blood-brain barrier (BBB), a specialized neurovascular unit evolved to mainta
67 es the integrity of the blood-brain barrier (BBB), and infects the CNS in the early stages of infecti
68 d a functionally intact blood-brain barrier (BBB), and so are shielded from exposure to therapeutic d
69 gliosis, erosion of the blood-brain barrier (BBB), formation of inflammatory cytokines, and brain inf
70 e barriers, such as the blood-brain barrier (BBB), have not yet been fully defined.
71 the brain, known as the blood-brain barrier (BBB), is understood to maintain brain function in part v
72 capable of crossing the blood-brain barrier (BBB), thereby enabling the delivery of therapeutic genes
73 munotherapy through the blood-brain barrier (BBB), together with the brain's unique biochemical and a
74 eability changes in the blood brain barrier (BBB), which may eventually result in the pathogenesis of
75 transiently disrupt the blood-brain barrier (BBB), which may induce a sterile inflammation response.
76  properties, termed the blood-brain barrier (BBB), which stringently regulate the entry of molecules
77 ient penetration to the blood-brain barrier (BBB).
78 coprotein (P-gp) at the blood-brain barrier (BBB).
79 he brain because of the blood-brain barrier (BBB).
80  penetration across the blood-brain barrier (BBB).
81 ithout compromising the blood-brain barrier (BBB).
82 ug transport across the blood brain barrier (BBB).
83  liposomes traverse the blood-brain barrier (BBB).
84 ique transporter at the blood brain barrier (BBB).
85 the permeability of the blood-brain barrier (BBB).
86 severely limited by the blood-brain barrier (BBB).
87 ering properties of the blood-brain barrier (BBB).
88 he invasion through the blood-brain barrier (BBB).
89 penetration through the blood-brain barrier (BBB).
90 radiotracer crosses the blood-brain barrier (BBB).
91  mainly ascribed to the blood-brain barrier (BBB).
92 ood-brain barrier/blood-brain tumor barrier (BBB/BBTB), and limited tumor uptake.
93 er (L-NAME) administered after blast blocked BBB disruption and prevented CD4(+) T-cell infiltration
94 nables the chemotherapeutic to overcome both BBB and multidrug resistance (MDR) glioma cells while pr
95 -retina barrier and blood-brain barrier (BRB/BBB) are selective and semipermeable and are critical fo
96 e strategy for the development of better BRB/BBB models and novel EC barrier-inducing therapeutics.
97       Endothelial cells (ECs) within the BRB/BBB are tightly coupled, express high levels of Claudin-
98 ancement indicating BBB opening, followed by BBB closure within 24 h.
99 ain parenchyma, with transport maintained by BBB-specific transcriptional programmes.
100 le infusions were able to achieve consistent BBB opening at multiple target sites.
101 of microbubbles are important for consistent BBB opening.
102  or below, we were able to obtain consistent BBB opening without injury at all pressures.
103 hese results demonstrate safe and controlled BBB disruption with a low-frequency clinical TcMRgFUS de
104 in transient hypervascularization but delays BBB maturation in specific CNS regions, as evidenced by
105 gether, we introduce the first hiPSC-derived BBB model that displays an adhesion molecule phenotype t
106 ug delivery, how multiple cell types dictate BBB function and the role of the BTB in disease progress
107 BB) compared to glioblastoma core (disrupted BBB).
108       Here, we demonstrate in the Drosophila BBB that EcI is indispensable for ecdysone entry into th
109 d into the vascular basement membrane during BBB formation.
110  crucial extracellular matrix protein during BBB maturation that regulates cell-cell interactions and
111 osome/lysosome pathway (with high-efficiency BBB crossing observed in vitro), while competing for the
112 ess, altered expression of genes crucial for BBB barrier functioning nor reduced vascular function.
113  Wnt/beta-catenin signaling is essential for BBB development, its downstream targets within the neuro
114            P7C3-A20 also protected mice from BBB degradation after acute TBI.
115  processes can be used to safely advance FUS-BBB opening into a wider range of clinical applications.
116 e disruption of the blood-brain barrier (FUS-BBB opening).
117 ledge of the secondary effects caused by FUS-BBB opening on brain physiology, identify areas that rem
118  information would help to safely expand FUS-BBB opening protocols into a wider range of drug deliver
119 ompromised by the specific mechanisms of FUS-BBB opening.
120 ndary effects is becoming vital now that FUS-BBB opening treatments have entered clinical trials.
121 I-induced breaks in cortical and hippocampal BBB endothelium.
122  the key structure and function of the human BBB and enables 3D mapping of nanoparticle distributions
123 al and physiological properties of the human BBB in vitro.
124 evaluate whether (18)F-CFA crosses the human BBB.
125 stems which have potential to cross impaired BBB, target and deliver drugs selectively to activated m
126 EVG nanoformulation demonstrated an improved BBB model penetration cross the in vitro BBB model and a
127  was more effective (P < 0.05) for improving BBB permeation and brain accumulation of the darunavir p
128                                           In BBB models of hCMEC/d3 cells, nanoARVs with higher DHA c
129 ial fibrillary acidic protein in CSF, and in BBB permeability (CSF/serum albumin ratio).
130 injected exogenous tracers-as is standard in BBB studies-fully represents blood-to-brain transport.
131 d biopsy (FUS-LBx) that uses FUS to increase BBB permeability in murine glioblastoma models and thus
132                                    Increased BBB permeability was confirmed by the significant increa
133 ation across BMVEC monolayers, and increased BBB permeability in vitro.
134                        Our findings indicate BBB compromise in DM ex vivo, in vitro and in vivo model
135 ppocampal parenchymal enhancement indicating BBB opening, followed by BBB closure within 24 h.
136                                  FUS-induced BBB permeability has been shown to enhance the bioavaila
137            Our results show that FUS-induced BBB permeability is required to deliver a significant am
138 3-MPa and 0.4-MPa FUS) consistently inducing BBB opening and extravascular transfection.
139       In contrast IA infusion with an intact BBB resulted in 3.56 +/- 1.06%ID/g and 3.57 +/- 0.59%ID/
140  representative of human DIPG with an intact BBB.
141 antially lower in invasive tumor rim (intact BBB) compared to glioblastoma core (disrupted BBB).
142 the carriers, drugs locally cross the intact BBB.
143 f other forms of neurodegeneration involving BBB deterioration (e.g., Alzheimer's disease, Parkinson'
144 n capillary pericytes(15-19), which maintain BBB integrity(20-22).
145 ansiently, reproducibly, and focally mediate BBB opening in the hippocampus/EC in humans.
146 olecular mechanisms of miR-15a/16-1-mediated BBB dysfunction may enable the discovery of new therapie
147 linical trials investigating MRgFUS-mediated BBB opening, which may ameliorate DIPG chemotherapeutic
148                        Blocking NOS-mediated BBB dysfunction during this acute/subacute post-blast in
149 ll (iPSC)-derived BMEC-like cells as a model BBB substrate on which to mine for new RMT-targeting ant
150 s as well as binding to both human and mouse BBB in brain tissue sections.
151               Antibodies targeted the murine BBB after intravenous administration with one particular
152                                   Such a new BBB targeting ligand could enhance the transport of ther
153 in vivo leads to a partial conversion of non-BBB CNS ECs to a BBB-like state, has little or no effect
154 ) and delivers neurotensin, an otherwise non-BBB-penetrant neuropeptide, at levels capable of modulat
155 of P7C3-A20, including restoration of normal BBB endothelium length, increased brain capillary pericy
156 niques, and the development of biomarkers of BBB integrity along with systems biology approaches, sho
157                                 Breakdown of BBB integrity during cerebral ischemia initiates a devas
158 anoid model recapitulates characteristics of BBB dysfunction under hypoxic physiological conditions a
159 rn mediate the activity-dependent control of BBB efflux transport.
160  residues, S269 and N472, as determinants of BBB crossing for AAVrh.10 and AAVrh.39, a feature utiliz
161 eolin-1 (cav-1) are critical determinants of BBB integrity that can regulate barrier properties of th
162      These results indicate a disturbance of BBB integrity.
163 ry pericyte density, increased expression of BBB tight junction proteins, reduced brain infiltration
164 ing of therapeutics without the intrusion of BBB and GI exposure.
165 ssociated with a rapid and selective loss of BBB transcripts and chromatin features, as well as a gre
166 m albumin levels in the cortex, a measure of BBB breakdown, were significantly higher after SE in EP2
167 n pCECs from tMCAO mice at the time point of BBB opening following 1 h tMCAO and reperfusion.
168 r research fraternity due to the presence of BBB.
169 duced cell death, as well as preservation of BBB integrity in mice after exposure to toxic levels of
170                                Prevention of BBB injury may be a new therapeutic approach to avert co
171  is accompanied by a remarkable reduction of BBB disruption and CNS inflammation.
172 he safety, feasibility, and reversibility of BBB opening with FUS treatment of the hippocampus and en
173       To quantify the effects of infusion on BBB opening, we calculated the MRI contrast enhancement
174  effects of hypoxia and neuroinflammation on BBB function.
175 nism responsible for the action of NMDARs on BBB permeabilization.
176 single blast exposure, induced delayed-onset BBB disruption (72 hours post-blast) in cerebellum.
177  into the brain across an osmotically opened BBB.
178                                          Our BBB platform may present a complementary in vitro model
179 ent was clearly depicted in those with overt BBB disruption, while paravenous and parasinus meningeal
180 helial electrical resistance (TEER) and poor BBB phenotype.
181  deplete circulating reticulocytes or reduce BBB-expressed endogenous TfR1 in mice.
182 , mice lacking Th17 lymphocytes have reduced BBB leakage, microglial activation, and antibody infiltr
183 15a/16-1 had smaller brain infarcts, reduced BBB leakage, and decreased infiltration of peripheral im
184 y, knockout of miR-34a significantly reduces BBB permeability, alleviates disruption of tight junctio
185 and whether neuronal activity could regulate BBB properties.
186   In particular, neuronal activity regulates BBB efflux transporter expression and function, which is
187 on in brain endothelial cells that regulates BBB permeability in inflammatory conditions.SIGNIFICANCE
188 ticellular 3D spheroids display reproducible BBB features and functions.
189 the range of pressure for efficient and safe BBB opening is very narrow.
190 le destabilization occurred resulted in safe BBB openings, as shown by MR images and gross pathology.
191 etion of endothelial miR-15a/16-1 suppresses BBB pathologies after ischemic stroke.
192 lled and consistent approach to multi-target BBB disruption.
193 articles (STICK-NPs) can sequentially target BBB/BBTB and brain tumor cells with surface maltobionic
194 iously reported the feasibility of temporary BBB opening within the normal murine brainstem using MRg
195                                          The BBB has been blamed for limiting the access of therapeut
196                                          The BBB protects the brain from xenobiotic neurotoxicants an
197 rategies to improve drug delivery across the BBB and BTB and discuss their impact on improving conven
198 imate the rate of virus transport across the BBB as well as viral replication inside the brain, and w
199 ier, upsurges the drug permeation across the BBB due to its unique structural properties.
200 involved in immune cell migration across the BBB in vivo.
201 nm; hydrodynamic diameter 3-4 nm) across the BBB was studied as a function of time by confocal laser
202 ed as the main efflux transporter across the BBB, in vivo and in vitro.
203 ration of metastatic cancer cells across the BBB, offering new targets for the development of gene an
204 ting steroid hormone permeability across the BBB.
205 efficient biotherapeutic delivery across the BBB.
206 ssful receptor-mediated transport across the BBB.
207  crossing the BBB model without altering the BBB model integrity.
208 -GBM co-culture model was used to assess the BBB permeability and anti-tumor activity of the DOX-EDT-
209 lopramide can measure ABCB1 induction at the BBB in a beta-amyloidosis mouse model (APP/PS1-21 mice)
210 ed P-gp and BCRP transport activities at the BBB through different mechanisms.
211 ed desert hedgehog (DHH) is expressed at the BBB under resting conditions.
212 H expression within endothelial cells at the BBB, then demonstrated that DHH is down-regulated during
213 esistance-associated protein 2 (MRP2) at the BBB.
214       We discuss the challenges posed by the BBB and BTB for drug delivery, how multiple cell types d
215 eriphery, the protection of the brain by the BBB offers an isolated sanctuary to harbor HIV and maint
216  endothelial cells (BMECs) that comprise the BBB.
217 n-mimetic nanoparticles (eHNPs) to cross the BBB and deliver a SHH inhibitor effectively to the cance
218 et need for drug carriers that can cross the BBB and deliver drugs to targeted sites with high drug-l
219 in AAV8, may confer the ability to cross the BBB in AAVrh.10 and AAVrh.39.
220 indicating that (18)F-CFA does not cross the BBB in humans.
221  whereby (D)CDX-modified liposomes cross the BBB in vivo using the brain efflux-index method.
222 proteins and viral particulates to cross the BBB, we engineered a synthetic protein nanoparticle (SPN
223 AR antibody to TfR1 that rapidly crosses the BBB and exhibits a favorable pharmacokinetic and safety
224 ively) indicating that (18)F-FAC crosses the BBB.
225 ocyte-derived macrophages after crossing the BBB model without altering the BBB model integrity.
226 antial deficits in behavior and disrupts the BBB after SE.
227 , in lipid nanocarriers for facilitating the BBB passage of an ARV darunavir.
228 pressed in surface glial cells that form the BBB, and EcI knockdown in the BBB suppresses ecdysone si
229 ed on cerebral endothelial cells forming the BBB, regulate immune cell infiltration across this barri
230 ids underwent hypoxia (0.1% O(2); 24 h), the BBB was more permeable, permitting the uptake of more na
231  that form the BBB, and EcI knockdown in the BBB suppresses ecdysone signaling within the CNS and blo
232  culture system, the CNS requires EcI in the BBB to incorporate ecdysone from the culture medium.
233 sistance barrier properties of ECs as in the BBB.
234                A deeper understanding of the BBB and BTB through the application of single-cell seque
235 1-14), leads to accelerated breakdown of the BBB and degeneration of brain capillary pericytes(15-19)
236 s of endothelial Dhh on the integrity of the BBB and Glia Limitans.
237 gical diseases owing to the existence of the BBB and the blood-spinal cord barrier have been terrible
238  novel mechanisms underlying crossing of the BBB by (D)CDX-modified liposomes, suggesting that (D)CDX
239 y diffuse through the plasma membrane of the BBB cells to reach the brain [1], because of the predomi
240   Our findings suggest that breakdown of the BBB contributes to APOE4-associated cognitive decline in
241                               Opening of the BBB during a stroke has a negative impact on acute outco
242  is based on a time-dependent opening of the BBB for nanoparticles, followed by a rapid diffusion int
243                           Dysfunction of the BBB further potentiates viral replication within the CNS
244        In summary, genetic disruption of the BBB generates endothelial signals that drive the formati
245  that can regulate barrier properties of the BBB in response to HIV-1 infection.
246 POE4 (epsilon3/epsilon3) by breakdown of the BBB in the hippocampus and medial temporal lobe.
247                  High baseline levels of the BBB pericyte injury biomarker soluble PDGFRbeta(7,8) in
248  The development of an in-vitro mimic of the BBB requires recapitulating the correct phenotype of the
249        We demonstrate on-chip mimicry of the BBB structure and function by cellular interactions, key
250 cessing occurs within the endothelium of the BBB, but any influence on transcytosis remains unclear.
251 is review, we elucidate the pathology of the BBB, its ability to potentiate viral replication, as wel
252 t evidence indicates that among cells of the BBB, pericytes are prone to HIV-1 infection.
253 are known to compromise the integrity of the BBB, resulting in a vasculature known as the blood-tumou
254 re correlated with increased activity of the BBB-degrading cyclophilin A-matrix metalloproteinase-9 p
255  model demonstrated the effectiveness of the BBB-penetrating combination therapy and the macrophage-m
256 M-1) and a decrease in the expression of the BBB-related tight junction protein, Zonula occludens-1 (
257 hes for generation of in vitro models of the BBB.
258 ium without MRI-detectable disruption of the BBB.
259 the temporary and repeated disruption of the BBB.
260 s to enhance the clearance properties of the BBB.
261 sed ultrasound (FUS) can reversibly open the BBB and facilitate delivery of targeted brain therapeuti
262 ith microbubbles can non-invasively open the BBB in a targeted manner.
263  binding peptide for transiently opening the BBB tight junctions are expected to enhance the efficacy
264 elective" transfection), without opening the BBB.
265 we found that endothelial Dhh both opens the BBB via the modulation of forkhead box O1 (FoxO1) transc
266                              To overcome the BBB, both passive permeability and efflux transporter li
267 he dissolved dye alone did not penetrate the BBB.
268 ntly demonstrated that miR-34a regulates the BBB by targeting cytochrome c (CYC) in vitro.
269 -derived Sonic hedgehog (SHH) stabilizes the BBB during CNS inflammatory disease, while endothelial-d
270 pon their systemic administration, study the BBB with its physiological ligand.
271                             We show that the BBB remains intact using passive cavitation detection (P
272 hibiting penetration of the drug through the BBB and is a valid targeting strategy for drugs to facil
273 cted permeation of the conjugate through the BBB in vivo.
274 n of how ecdysone enters the CNS through the BBB to exert its diverse role in Drosophila brain develo
275  bidirectional transport of BDNF through the BBB, we tested the hypothesis that plasma BDNF may be us
276  the dynamics of monocyte recruitment to the BBB and the highly regionalized localization of monocyte
277 ing increased opportunities to transpass the BBB/BBTB via glucose-transporter-mediated transcytosis b
278  the brain and in the plasma coupled via the BBB.
279 ch this can be performed safely, whereby the BBB is disrupted to the point of being permeable to norm
280 iew, I examine the various ways in which the BBB exhibits endocrine-related properties.
281 identify active molecular changes within the BBB associated with stress resilience that might serve a
282             Currently, major contributors to BBB dysfunction are not well understood.
283                      Eight mRNAs relating to BBB function, a microglia and three immune cell markers
284 d gene expression that may have relevance to BBB regulation and drug delivery.
285 ets of Wnt/beta-catenin signaling underlying BBB maturation, we performed a microarray analysis that
286          However the majority of widely used BBB models demonstrate low transendothelial electrical r
287 achieve optimal delivery of therapeutics via BBB disruption.
288               Similarly to CAA, our in vitro BBB displayed significantly more amyloid accumulation in
289 ved BBB model penetration cross the in vitro BBB model and an enhanced HIV-1 suppression in HIV-1-inf
290 is EVG nanoformulation to cross the in vitro BBB model and suppress the HIV-1 in macrophage cells.
291                        They form an in vitro BBB that regulates the transport of compounds into the s
292 s associated liposomes) to cross an in vitro BBB using a simulated cerebral endothelium monolayer for
293 e high TEER PBMEC system for use in in-vitro BBB models.
294 ulating the correct phenotype of the in-vivo BBB, particularly for drug permeation studies.
295  only during neuroinflammation but also when BBB integrity is compromised in the resting state.
296 hronic neuroinflammatory tolerance" in which BBB opening in the resting state is sufficient to stimul
297 the healthy brain, a mechanism of widespread BBB dysfunction with age and a strategy for enhanced dru
298 n were significantly higher (P < 0.001) with BBB disruption, but SN-38 was only detected in <50% of t
299      Strikingly, this does not coincide with BBB leakiness, altered expression of genes crucial for B
300                              Irinotecan with BBB disruption did not impede tumor growth or increase s

 
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