Abstract: The present disclosure relates to peptide compounds and conjugate compounds, processes, methods and uses thereof for treating cancer.

Abstract: The present disclosure relates to peptide compounds and conjugate compounds, processes, methods and uses thereof for treating cancer.

Abstract: The present disclosure relates to peptide compounds and conjugate compounds, processes, methods and uses thereof for treatment of cancer or aggressive cancer.

Abstract: This application describes a process for the preparation of flexible electrode-separator elements or assemblies, which includes the application of an electrode material on the separator. The electrode material comprises graphene, for instance produced by graphite exfoliation. The electrode-separator elements obtained by the process as well as their use in electrochemical cells are also described.

Abstract: The present disclosure relates to peptide compounds and conjugate compounds, processes, methods and uses thereof for treating cancer and increasing cellular internalization of said peptide compounds. The peptide compounds are selected from the following group consisting of; GVRAKAGVRNMFKSESY as set forth in SEQ ID NO: 9; GVRAKAGVRN(Nle)FKSESY as set forth in SEQ ID NO: 10; and YKSLRRKAPRWDAPLRDPALRQLL as set forth in SEQ ID NO: 11; and wherein at least one protecting group and/or at least one labelling agent is connected to said peptide compound.

Abstract: A process for recycling an electrode material comprising graphene and an electrochemically active material is described. The process comprises a step of adding, in any order, water and a non-miscible solvent to the electrode material, thereby forming a biphasic system comprising an organic phase and an aqueous phase; and a step of separating and filtering the organic phase to recover graphene. The process optionally comprises additional steps of washing, drying, and/or thermally treating. Also described are electrodes including the recycled graphene, as well as the electrochemical cells and their uses.

Abstract: The present disclosure relates to peptide compounds and conjugate compounds, processes, methods and uses thereof for treating inflammation. For example, the compounds can comprise compounds; IKLSGGVQAKAGVINMDKSESM, formula (V) as set forth in SEQ ID NO: 5, GVRAKAGVRN(Nle)FKSESY, formula (X) as set forth in SEQ ID NO: 10 and YKSLRRK.APRWDAPLRDPALRQLL, formula (XI) as set forth in SEQ ID NO: 11 wherein at least one protecting group and/or at least one labelling agent is connected to said peptide compound at an N- and/or C-terminal end, for use in inhibiting or decreasing TNF-alpha-induced COX-2 expression in cells expression sortilin.

Abstract: Described is a method or process for modifying the surface of carbon-coated electrochemically active materials such as complex oxides like olivine-type cathode materials. For instance, the surface of the carbon-coated powder material is modified to increase its hydrophobic characteristics. Also, specific groups may be grafted on the carbon surface of cathode material using the diazonium chemistry, for instance, by the spontaneous grafting of aryl ions generated in situ by the diazotization of an arylamine compound.

Abstract: A process for recycling an electrode material comprising graphene and an electrochemically active material is described. The process comprises a step of adding, in any order, water and a non-miscible solvent to the electrode material, thereby forming a biphasic system comprising an organic phase and an aqueous phase; and a step of separating and filtering the organic phase to recover graphene. The process optionally comprises additional steps of washing, drying, and/or thermally treating. Also described are electrodes including the recycled graphene, as well as the electrochemical cells and their uses.

Abstract: This application describes a process for the preparation of flexible electrode-separator elements or assemblies, which includes the application of an electrode material on the separator. The electrode material comprises graphene, for instance produced by graphite exfoliation. The electrode-separator elements obtained by the process as well as their use in electrochemical cells are also described.

Abstract: Described is a method or process for modifying the surface of carbon-coated electrochemically active materials such as complex oxides like olivine-type cathode materials. For instance, the surface of the carbon-coated powder material is modified to increase its hydrophobic characteristics. Also, specific groups may be grafted on the carbon surface of cathode material using the diazonium chemistry, for instance, by the spontaneous grafting of aryl ions generated in situ by the diazotization of an arylamine compound.

Abstract: Immunogenic compositions comprising a p97 adhesin adjuvant polypeptide, or a nucleic acid encoding said p97 adhesin adjuvant polypeptide, and a heterologous antigen are disclosed. Uses of the p97 adhesin adjuvant polypeptide or nucleic acid, or immunogenic compositions comprising same, for inducing an immune response against a heterologous antigen in a subject are also disclosed.

Abstract: An electrochemical method and system for removing nitrate and ammonia in effluents, using an undivided flow-through electrolyzer, said electrolyzer comprising at least one cell, each cell comprising at least one anode and one cathode, the cathode being in a copper/nickel based alloy of a high corrosion resistance and a high electroactivity for nitrate reduction to ammonia and the anode being a DSA electrode of a high corrosion resistance and a high electroactivity for ammonia oxidation to nitrogen in presence of chloride.

Abstract: Methods for increasing lipolysis in a cell are described herein. Such methods comprise the application of an electrical current to a cell. In an embodiment, the application of the electrical current does not substantially alter the viability of such cell and/or preserves the viability of such cell. In an embodiment, such cell is an adipocyte. Corresponding uses and packages are also described.

Abstract: There are provided compositions comprising a first compound selected from the group consisting of compounds of formulas (Ib), (III), (V), and (VII), and a second compound selected from the group consisting of compounds of formulas (IIb), (IV), (VI), and (VIII): Various chemical entities can be used for R4 to R11. These compositions can be particularly useful as anti-static agents or as electron activable precursors to a redox couple.

Abstract: There is provided a process for preparing compounds of formula M3M1A2. The process comprises reacting a compound of formula M2M1A2 with a compound of formula M3X2, in the presence of at least one coordinating solvent. M1 can be chosen from B3+, Al3+, Ga3+, In3+, Tl3+, Fe3+, and Au3+; M2 can be chosen from Li+, Na+, K+, Cs+, (T1)3Si—, and N(T2)4+; M3 can be chosen from Cu+, Ag+, Li+, Na+, K+, Cs+, Rb+, Fr+, Au+, and Hg+; A can be chosen from S and Se; and X2 can be chosen from Cl?, Br?, I?, F?, CH3COO?, NO3?, and CN?. Such compounds can be used for various purposes in the field of electrochemistry.

Abstract: There is provided a sit-stand stool comprising a seat adapted to support a pelvis of a user and a base. The base supports the seat and is adapted to securely engage a floor. The base is adapted to provide a tilting motion of the seat, between a raised position and a forwardly inclined position, in a vertical plane about a pivot axis in accordance with the posture of the user while constraining the movement to prevent lateral tilting or inclination transverse to the vertical plane. The base is also adapted to prevent a rearward motion beyond the raised position, and a forward motion beyond the forwardly inclined position in order to reduce the risks for the user to lose stability. Such a stool permits to the user to stabilize his posture, without being in a completely seated position.

Abstract: Methods for increasing lipolysis in a cell are described herein. Such methods comprise the application of an electrical current to a cell. In an embodiment, the application of the electrical current does not substantially alter the viability of such cell and/or preserves the viability of such cell. In an embodiment, such cell is an adipocyte. Corresponding uses and packages are also described.

Abstract: A seating device comprising a connecting element having an end portion dimensioned to be releasably and rotatably inserted into an aperture defined in a ground or floor. The aperture is dimensioned to receive the connecting element so as to support the seating device. The seating device also comprises a supporting element connected to a seat. The supporting element is pivotably connected to the connecting element. Moreover, at least one of the connecting element and supporting element comprises at least one stop so as to permit the supporting element to pivot between a first position whereat the supporting element is in a substantially vertical position, and a second position whereat the supporting element is forwardly inclined of 30 degrees or less with respect to the first position. Such a device is particularly useful for persons who need to stabilize their posture while performing a task.

Abstract: The present invention relates to an electrode comprising a non-conductive substrate, a first layer and a second layer. The first layer is disposed on the substrate and comprises indium tin oxide or fluorine-doped SnO2. The second layer is disposed on the first layer and comprises CoS. A process for preparing this electrode is also disclosed. Such an electrode is particularly useful in a photovoltaic cell.