Abstract:
A cutaneous medical device having a main part containing an electrical energy source that can generate an electric current and electronic components that form part of an electric circuit; and at least one removable cutaneous electrode comprising an electric plug. The electrode is intended to be in electric contact with a user. The electrode also includes at least one base which is positioned on a first face of the main part and can be electrically connected to the at least one removable cutaneous electrode.
Abstract:
The invention relates to a method for manufacturing a thin airtight housing, which includes: (a) providing a first element in which a recess is made; (b) forming a solder joint in said recess, said joint being at least partially inserted in said recess; (c) placing a second element opposite said first element and said joint; (d) forming a first airtight seal between the first and second elements in order to assemble same and form an assembly; (e) placing a cover on top of said assembly; and (f) forming a second airtight seal between said assembly and said cover.
Abstract:
An electrical connector, in particular for a medical device that is intended to be secured to the skin of a user, is disclosed. The connector includes a base for solidly connecting to the device and a plug for solidly connecting to an electric conductor. The plug includes a connection means and the base includes a plurality of connection means, each being adapted to engage with the connection means of the plug in order to establish a connection between the base and the plug.
Abstract:
A substantially planar device intended to be secured to the skin of a user is disclosed. The device includes components and electrical connection means defining at least one rigid zone of the device. The electrical connection means have, in the plane of the device, a surface corresponding to at least one component and the means are disposed such as to cover the at least one component in order to protect the component mechanically.
Abstract:
The invention relates to a method for manufacturing a photovoltaic module comprising plurality of solar cells in a thin-layer structure, in which the following are formed consecutively in the structure: an electrode on the rear surface (41), a photovoltaic layer (43) obtained by depositing components including metal precursors and at least one element taken from Se and S and by annealing such as to convert said components into a semiconductor material, and another semiconductor layer (44) in order to create a pn junction with the photovoltaic layer (43); characterized in that the metal precursors form, on the electrode on the rear surface (41), a continuous layer, while said at least one element forms a layer having at least one break making it possible, at the end of the annealing step, to leave an area (430) of the layer of metal precursors in the metal state at said break.
Abstract:
A photovoltaic device including a CIGS photovoltaic module having a so-called top surface, intended to be exposed to light radiation; and a light emitting diode emitting light at a wavelength of less than 600 nm and transparent to radiation in the near infrared, attached to the top surface of the photovoltaic module. A photovoltaic generation system having: at least one such photovoltaic device; a system of switches to selectively connect the photovoltaic module to the light emitting diode or to a terminal supplying an external load; and a control circuit for controlling the system of switches. An electrical system having: such a photovoltaic generation system; a battery connected to the supply terminal; and at least one electronic circuit connected to the battery in order to be powered. An implantable medical device having such an electronic system.
Abstract:
The invention relates to a method for manufacturing a photovoltaic module comprising a plurality of solar cells in a thin-layer structure, in which the following are consecutively formed: an electrode on the rear surface (41), a photovoltaic layer (46) obtained by depositing a layer (42) of precursors and by annealing such as to convert the precursors into a semiconductor material, and another semiconductor layer (43) in order to create a pn junction with the photovoltaic layer (46); characterised in that the layer (42) is deposited in a localised manner, such as to leave free at least one area (410) of the electrode on the rear surface (41) placed between two adjacent cells, wherein the annealing step modifies said area (410) which has higher resistivity than the rest of the electrode on the rear surface (41), such as to provide electric insulation between two adjacent cells.
Abstract:
A cutaneous electrode device intended for being connected to an electrical pulse generator including a planar body and an electrically insulating material on which at least one electrode, at least one means for connecting to the electrical pulse generator and at least one conductive element electrically connecting said electrode to said connection means are formed. The at least one electrode ends at an inner surface of the body and the at least one connection means ends at an outer surface of the body. The body also has at least one projecting portion that is mechanically connecting an electrode and a connection.
Abstract:
A cutaneous medical device having a main part containing an electrical energy source that can generate an electric current and electronic components that form part of an electric circuit; and at least one removable cutaneous electrode comprising an electric plug. The electrode is intended to be in electric contact with a user. The electrode also includes at least one base which is positioned on a first face of the main part and can be electrically connected to the at least one removable cutaneous electrode.
Abstract:
A method for producing an intermediate product for obtaining a photovoltaic module comprising a plurality of solar cells, said method comprising the following steps: (a) localized deposition on a substrate (4) of a layer of metal (8) so as to cover at least one portion (401) of the substrate, (b) deposition on this localized layer (8) of a layer (41) of conductive material, said layer coating the localized layer (8).