Patent classifications
B29L2031/34
Additive manufacturing of three-dimensional object
Some examples include an additive manufacturing system including a processor and a memory to store instructions. The instructions cause the processor to generate print data from received data related to a three-dimensional build object. The generated print data includes defined print data to dispensing a first agent at a build area of a build material layer, defined print data to selectively dispensing a second agent at a component receiving area within the build area of the build material layer, the second agent to locally reduce a viscosity of the build material at the component receiving area to a viscous state, and defined print data to position a component within the component receiving area at a time of the component receiving area being in a viscous state.
Device for manufacturing rotor core and method for manufacturing rotor core
Provided is a manufacturing device and a manufacturing method for a rotor core that can prevent damage from being caused to an end of a magnet due to movement of the magnet when injecting a resin material. Included are a first mold including a fitting recess that fits and holds a laminated iron core in which a magnet is inserted into a magnet insertion hole, a second mold that is engaged with the first mold and clamps and seals the laminated iron core together with the first mold, a resin injection unit that is provided to the second mold, and injects a resin material into the magnet insertion hole, and a magnet positioning and holding mechanism that positions and holds the magnet in a state of being fit into the fitting recess of the first mold.
Three dimensional thermoforming and lamination
A system and method for forming plastic sheet into a three-dimensional shape. The plastic sheet may include one or more sheet-mounted components, such as electronics, that must be shielded from excessive heat, pressure, and/or crushing when the formation of the sheet occurs. A recess will be formed to protect against directly contacting sheet-mounted component. The recess may be aligned along the heating plate and/or the form core and/or along a protective blanket which may be set over (and under) sheet prior to heating/forming. The sheet is registered (with or without a blanket) onto a base plate, and preferably over a form core. The sheet is then raised to contact with a heating plate, and then placed downward over the (optionally heated) form core. Recess(es) align in locations corresponding to mounted component to protect same.
COUPLING STRUCTURES FOR ELECTRONIC DEVICE HOUSINGS
A housing for an electronic device is disclosed. The housing comprises a first component and a second component separated from the first component by a gap. The housing also includes a first molded element disposed at least partially within the gap and defining at least a portion of an interlock feature, and a second molded element disposed at least partially within the gap and mechanically engaging the interlock feature. The first component, the second component, and the second molded element form a portion of an exterior surface of the housing. A method of forming the housing is also disclosed.
Image pickup module and the manufacturing method thereof
An image pickup module includes a cover, a plurality of image pickup units, a self-curing gel, and a photopolymer gel. The cover includes an upper shield, a side shield, and illumination openings and image pickup openings on the upper shield, and the upper shield and the side shield surround an accommodation space where the image pickup units are disposed. The cover at least covers a portion of upper surfaces of the image pickup units. The photopolymer gel is disposed on positions corresponding to the illumination openings that expose the photopolymer gel. The self-curing gel is disposed between the upper surfaces of the image pickup units and the upper shield. The photopolymer gel is configured to fix relative positions between the image pickup units and the cover. A manufacturing method of an image pickup module is also provided.
TRIBOELECTRIC NANOGENERATORS BASED ON CHEMICALLY TREATED CELLULOSE
Triboelectric nanogenerators that operate in a vertical contact separation mode and methods for fabricating the triboelectric generators are provided. Also provided are methods for using the triboelectric nanogenerators to harvest mechanical energy and convert it into electric energy. In the TENGs, one or both of the triboelectrically active layers comprises a cellulose that has been chemically treated to alter its electron affinity.
Method for manufacturing insert-molded bus bar, and insert-molded bus bar
A method for manufacturing an insert-molded bus bar includes the steps of: preparing a first bus bar having a through hole and a second bus bar having a protrusion corresponding to the through hole; preparing a mold having therein a swaging member capable of swaging the protrusion; placing the first and second bus bars in the mold with the protrusion being inserted into the through hole; swaging the first and second bus bars using the swaging member of the mold to obtain connected bus bars that are the bus bars connected to each other; and injecting a molding material around the connected bus bars that are the bus bars connected to each other by swaging to perform insert molding using the mold and obtain the insert-molded bus bar.
SONOTRODE FOR THE ULTRASONIC WELDING OF PLASTIC COMPONENTS OF AN ELECTRONIC CIGARETTE
The invention relates to a sonotrode for the ultrasonic welding of plastic components of an electronic cigarette.
The sonotrode comprises: a body comprising a first end which can be connected to an ultrasound generator, and a second end; a cavity that develops from the second end towards the first end, for receiving at least partially a plastic component of an electronic cigarette to be welded. The cavity defines an opening at the second end of the body, communicating with the outside of the sonotrode.
In particular, at the opening, the cross section of the cavity has an outline comprising: a first portion that has the shape of a first arc of a reference circumference, which comprises a first end and a second end, opposite each other; and a second portion, that has the shape of a second arc of said reference circumference, which comprises a first end and a second end, opposite each other.
The aforementioned outline further comprises: a third portion, connected to the first end of the first portion and to the first end of the second portion, which develops externally with respect to the reference circumference; and a fourth portion, connected to the second end of the first portion and to the second end of the second portion, which develops externally with respect to said reference circumference.
High-energy density nanocomposite capacitor
A composite film having a high dielectric permittivity engineered particles dispersed in a high breakdown strength polymer material to achieve high energy density.
Heat flux sensor and method of manufacturing the same
A heat flux sensor is provided with a main body which detects heat flux, and filling members. The main body has a first surface. The first surface has an uneven shape, with a plurality of concave portions and a plurality of convex portions. The filling members are filled in the plurality of concave portions. Surfaces of the filling members constitutes a part of an outer surface of the heat flux sensor. The degree of flatness of the outer surface is higher than the degree of flatness of the first surface of the main body.