Patent classifications
B29L2031/18
Heat stake and method of eliminating heat stake sink marks in a plastic part
A heat stake for a plastic part includes a body having a proximal end, a flared section and a distal end. The proximal end has a first cross-sectional area A.sub.1 and the flared section has a second cross-sectional area A.sub.2 where A.sub.1<A.sub.2. The distal end has a dual taper. That plastic part incorporating the heat stake is also disclosed.
MANUFACTURING PROCESS OF A SOLID THERMAL BALANCING COMPOSITE MATERIAL
A solid thermal balancing composite material with lightweight is formed by a reinforced composite material pressured by a molding machine after going through a powder filling equipment. The reinforced composite material is a mixture of inorganic filler powders and polymer adhesives after granulation. The specific gravity of the solid thermal balancing composite material is no greater than 2.0. In addition, the present invention is adjustable in different shapes for various applications of heat dissipation.
VASCULAR POLYMERIC ASSEMBLY
A vascular polymeric assembly is provided which includes a heat source, a polymeric substrate configured to enclose and protect at least a portion of the heat source; and a channel defined in the polymeric substrate configured to transfer a heat flow away from the heat source via a channel coolant flow.
Housing parts, housings and processes for preparing the same
The present invention relates to a housing part, a housing and an electronic device. The housing part according to this invention comprises a first layer, said first layer being molded from a first composition comprising a1) 50-90 wt. % of a first amorphous polymer and b1) 10-50 wt. % of a first thermally conductive filler, the first composition having a thermal conductivity (TC1) of 4-40 W/(m*K), a second layer, said second layer being molded from a second composition comprising a2) 50-90 wt. % of a second amorphous polymer and b2) 10-50 wt. % of a second thermally conductive filler, the second composition having a thermal conductivity (TC2) of 0.5-10 W/(m*K), and the second layer being molded over the first layer by leaving at least one area of the first layer not being over-molded with the second layer for being exposed to at least one heat source, wherein, TC1 is at least 2 W/(m*K) larger than TC2, the amounts of al and b1 are based on the total weight of the first composition, the amounts of a2 and b2 are based on the total weight of the second composition, and the thermal conductivity is measured in-plane according to ASTM E1461-01. The housing part provided in this invention has high heat dissipating efficiency and mechanical properties as well as high dimensional stability.
PROCESS TO MANUFACTURE AN INTERCONNECTED STACK OF THERMOPLASTIC FRAMES
The invention is directed to a process to manufacture an interconnected stack of thermoplastic frames having two sides by stacking the thermoplastic frames to obtain a stack of frames such that the facing sides of two neighbouring frames are in contact with each other at a contact area. When stacking a longitudinal conduit is formed which runs along the length of the stack and a branched conduit is formed at the contact area. The interconnected stack of thermoplastic frames are obtained by supplying a pressurised melt of a plastic material to the elongated conduit and branched conduits.
Heater assembly with cavity filled with a potting compound
A heater assembly for an aerosol-generating device is provided, the heater assembly including: a bushing defining an aperture at a first end of the bushing and a cavity at a second end of the bushing; and an elongate electrical heater extending from the first end of the bushing, in which a portion of the elongate electrical heater extends through the aperture and into the cavity. An aerosol-generating device, and an aerosol-generating system, are also provided.
WATER-COOLED HEAT DISSIPATION MODULE ASSEMBLY
A water-cooled heat dissipation module assembly capable of cooling a power module of a vehicle driving inverter system using a battery or fuel cell. The water-cooled heat dissipation module assembly includes a housing unit provided in the form of a housing having an opening portion at least partially opened at one side thereof. The housing unit and at least a part of a rim region of the cooling unit are made of a plastic material, and the housing unit and the cooling unit are joined to each other by plastic welding using a laser.
THREE-DIMENSIONALLY SHAPED THERMALLY CONDUCTIVE MOLDED BODY, AND MANUFACTURING METHOD THEREOF
Provided is a three-dimensionally shaped thermally conductive molded body and manufacturing method thereof, that can ensure sufficient gap filling properties and contact surface area with regard to heat dissipating components such as heat sinks and the like and heat generating components such as IC chips and the like, without adding excessive stress to these components. The three-dimensionally shaped thermally conductive molded body of a first aspect of the present disclosure contains a thermally conductive material and a silicone-based material, the molded body has a substantially flat bottom surface, and a three-dimensional shaped part located on the inside of the bottom surface, and the height of the three-dimensionally shaped part that is higher than the bottom surface differs in at least two locations.
HEAT EXCHANGER COMPONENT WITH EMBEDDED SENSOR
An additively manufactured component is provided. The additively manufactured component includes an additively manufactured first part defining a first trench, an additively manufactured second part defining a second trench and a fiber optic sensor. The additively manufactured first and second parts are additively manufactured together with the first and second trenches corresponding in position such that the additively manufactured first and second parts form an assembled part with a fiber channel cooperatively defined by the first and second trenches. The fiber optic sensor includes a first sensor part embedded in the fiber channel and a second sensor part operably coupled to the first sensor part and extendible at an exterior of the assembled part.
ADDITIVELY MANUFACTURED HEAT EXCHANGERS AND METHODS FOR MAKING THE SAME
An additively manufactured heat exchanger can include a plurality of vertically built fins, and a plurality of non-horizontally built parting sheets. The plurality of vertically built fins can extend between and connect to the plurality of parting sheets. The heat exchanger can include a plurality of layers of fins and parting sheets. The heat exchanger can include first and second flow circuits for allowing separate fluid flows to flow through the heat exchanger to exchange heat therebetween.