Abstract: Stimuli-responsive NPs with excellent stability, high loading efficiency, encapsulation of multiple agents, targeting to certain cells, tissues or organs of the body, can be used as delivery tools. These NPs contain a hydrophobic inner core and hydrophilic outer shell, which endows them with high stability and the ability to load therapeutic agents with high encapsulation efficiency. The NPs are preferably formed from amphiphilic stimulus-responsive polymers or a mixture of amphiphilic and hydrophobic polymers or compounds, at least one type of which is stimuli-responsive. These NPs can be made so that their cargo is released primarily within target certain cells, tissues or organs of the body, upon exposure to endogenous or exogenous stimuli. The rate of release can be controlled so that it may be a burst, sustained, delayed, or a combination thereof. The NPs have utility as research tools or for clinical applications including diagnostics, therapeutics, or combination of both.

Abstract: Nanoparticulate pharmaceutical formulations and methods for co-delivery of two or more species of nucleic acids for simultaneous suppression and expression of target genes in a cell, are provided. The nanoparticles encapsulate two or more nucleic acid species. The first nucleic acid suppresses expression of a gene or product thereof, e.g., inhibitory nucleic acid, such as antisense, siRNA, miRNA, Dicer siRNA, piRNA, etc. The second nucleic acid increases expression of, or encodes, an endogenous or exogenous protein or polypeptide, e.g., an mRNA. The first and second nucleic acid species simultaneously target or affect the same or different cellular processes within a cell including communication, senescence, DNA repair, gene expression, metabolism, necrosis, and apoptosis.

Abstract: This application relates to the technical field of embedded window display, and provides an embedded window display method and apparatus, an electronic device, and a readable storage medium. The method includes: when detecting a preset operation instruction, starting an embedded window in a currently displayed parent window based on the preset operation instruction; displaying an embedded window application corresponding to the preset operation instruction in the embedded window, where the embedded window and the parent window are at a same layer or adjacent layers, and an application displayed in the embedded window is associated with the parent window; and performing, when receiving an operation instruction of the embedded window application, an interaction operation based on the operation instruction of the embedded window application.

Abstract: The present invention relates to methods and compositions for specifically modulating the Hippo pathway transcription factor TAZ (WWTR1), as a therapeutic target for inhibiting or preventing liver conditions including the progression of steatosis-to-NASH in a patient.

Abstract: Stimuli-responsive NPs with excellent stability, high loading efficiency, encapsulation of multiple agents, targeting to certain cells, tissues or organs of the body, can be used as delivery tools. These NPs contain a hydrophobic inner core and hydrophilic outer shell, which endows them with high stability and the ability to load therapeutic agents with high encapsulation efficiency. The NPs are preferably formed from amphiphilic stimulus-responsive polymers or a mixture of amphiphilic and hydrophobic polymers or compounds, at least one type of which is stimuli-responsive. These NPs can be made so that their cargo is released primarily within target certain cells, tissues or organs of the body, upon exposure to endogenous or exogenous stimuli. The rate of release can be controlled so that it may be a burst, sustained, delayed, or a combination thereof. The NPs have utility as research tools or for clinical applications including diagnostics, therapeutics, or combination of both.

Abstract: Nanoparticulate pharmaceutical formulations and methods for co-delivery of two or more species of nucleic acids for simultaneous suppression and expression of target genes in a cell, are provided. The nanoparticles encapsulate two or more nucleic acid species. The first nucleic acid suppresses expression of a gene or product thereof, e.g., inhibitory nucleic acid, such as antisense, siRNA, miRNA, Dicer siRNA, piRNA, etc. The second nucleic acid increases expression of, or encodes, an endogenous or exogenous protein or polypeptide, e.g., an mRNA. The first and second nucleic acid species simultaneously target or affect the same or different cellular processes within a cell including communication, senescence, DNA repair, gene expression, metabolism, necrosis, and apoptosis.

Abstract: This invention relates to amphiphile-polymer particles, compositions, methods of making, and methods of use thereof.

Abstract: Nanoparticulate pharmaceutical formulations and methods for co-delivery of two or more species of nucleic acids for simultaneous suppression and expression of target genes in a cell, are provided. The nanoparticles encapsulate two or more nucleic acid species. The first nucleic acid suppresses expression of a gene or product thereof, e.g., inhibitory nucleic acid, such as antisense, siRNA, miRNA, Dicer siRNA, piRNA, etc. The second nucleic acid increases expression of, or encodes, an endogenous or exogenous protein or polypeptide, e.g., an mRNA. The first and second nucleic acid species simultaneously target or affect the same or different cellular processes within a cell including communication, senescence, DNA repair, gene expression, metabolism, necrosis, and apoptosis.

Abstract: This invention relates to amphiphile-polymer particles comprising obtaining a first solution comprising a water-insoluble polymer, a payload and a first amphiphile in a water-miscible solvent; mixing the first solution with an aqueous second solution to form an aqueous composition comprising a particle comprising a water-insoluble polymeric core comprising the water-insoluble polymer; the payload; and the first amphiphile.

Abstract: Stimuli-responsive NPs with excellent stability, high loading efficiency, encapsulation of multiple agents, targeting to certain cells, tissues or organs of the body, can be used as delivery tools. These NPs contain a hydrophobic inner core and hydrophilic outer shell, which endows them with high stability and the ability to load therapeutic agents with high encapsulation efficiency. The NPs are preferably formed from amphiphilic stimulus-responsive polymers or a mixture of amphiphilic and hydrophobic polymers or compounds, at least one type of which is stimuli-responsive. These NPs can be made so that their cargo is released primarily within target certain cells, tissues or organs of the body, upon exposure to endogenous or exogenous stimuli. The rate of release can be controlled so that it may be a burst, sustained, delayed, or a combination thereof. The NPs have utility as research tools or for clinical applications including diagnostics, therapeutics, or combination of both.

Abstract: This invention relates to amphiphile-polymer particles comprising obtaining a first solution comprising a water-insoluble polymer, a payload and a first amphiphile in a water-miscible solvent; mixing the first solution with an aqueous second solution to form an aqueous composition comprising a particle comprising a water-insoluble polymeric core comprising the water-insoluble polymer; the payload; and the first amphiphile.

Abstract: Nanoparticles containing an aqueous core containing one or more nucleic acids, such as siRNA, and a shell containing one or more hydrophobic cationic materials, one or more amphiphilic materials, and one or more therapeutic, diagnostic, and/or prophylactic agents are. The hydrophobic cationic material and the hydrophobic portion of the amphiphilic material provide a non-polar polymer matrix for loading non-polar drugs, protect and promoting siRNA molecule retention inside the NP core, and control drug release. The hydrophilic portion of the amphiphilic material can form a corona around the particle which prolongs circulation of the particles in the blood stream and decreases uptake by the RES.

Abstract: The invention relates to a catalyst that is very suitable for the conversion of a benzoic acid into the corresponding benzaldehyde. The catalyst can be obtained via coprecipitation of a manganese salt, a salt from which an acid support is formed, a zinc salt and optionally a copper salt at a pH between 4 and 10, calcination, after precipitation, of the coprecipitate at a temperature of between 300 and 700.degree. C. and then, optionally, reduction of the calcined coprecipitate with the aid of a hydrogen-containing gas mixture. Using such a catalyst the hydrogenation of a benzoic acid can be carried out at lower temperature resulting in energy-savings and, hence, cost-savings.