Abstract: The present disclosure provides for treating pulmonary hypertension by administering to a subject suffering from pulmonary hypertension a therapeutically effective amount of a non-oral therapeutic agent for treating pulmonary hypertension followed by an orally administered form of a therapeutic agent for treating pulmonary hypertension, wherein the amount of non-oral therapeutic agent is sufficient to allow for an increased amount of the orally administered therapeutic agent to thereafter be administered compared to a subject who is not previously treated with the non-oral therapeutic agent.

Abstract: Semiconductor packages including a computing device with a heat source, and related devices and methods, are disclosed herein. For example, the computing device may have a heatsink physically and thermally coupled with the heat source. The heatsink may include a structural element internal to the heatsink. The structural element may cause a surface of the heatsink to deform to a non-planar configuration when the heatsink is coupled to the heat source.

Abstract: An aqueous binder composition is disclosed that includes 5.0% by weight to 50.0% by weight of a monomeric polyol having at least four hydroxyl groups, based on the total solids content of the aqueous binder composition; and at least 50.0% by weight of a cross-linking agent comprising a polymeric polycarboxylic acid having at least two carboxylic acid groups, based on the total solids content of the aqueous binder composition. The aqueous binder composition includes a ratio of molar equivalents of carboxylic acid groups to hydroxyl groups is between 0.15/1.0 and 2.23/1 and has a pH of 2.2 to 4.0 and a viscosity at 40% solids and 25° C. of 10 cP to 60 cP.

Abstract: Embodiments described herein may include apparatuses, systems and/or processes to encapsulate a circuit board to be cooled with a liquid coolant, that includes a first part dimensioned to receive the circuit board coupled with one or more heat sinks; a second part dimensioned to mate with the first part, and with a portion of a side of the circuit board around the one or more heat sinks to create a volume surrounding the circuit board, with a portion of the one or more heat sinks are outside the volume and is to be exposed to the liquid coolant, and a sealer to seal areas where the second part mates with the first part and the portion of the side of the circuit board, to prevent the liquid coolant from entering the volume. Other embodiments may be described and/or claimed.

Abstract: A fibrous insulation product comprising a plurality of randomly oriented glass fibers and a cross-linked formaldehyde-free binder composition at least partially coating the fibers is disclosed. The cross-linked formaldehyde-free binder composition is formed from an aqueous binder composition comprising 5.0% by weight to 37.0% by weight of at least one monomeric polyol having at least four hydroxyl groups and at least 50.0% by weight of a cross-linking agent comprising a polymeric polycarboxylic acid having at least two carboxylic acid groups, based on the total solids content of the aqueous binder composition. The glass fibers have an average fiber diameter in the range of 8 HT to 12 HT. The fibrous insulation product, after curing, has a density, when uncompressed, in the range of 0.30 pcf to 2.7 pcf.

Abstract: Embodiments described herein may include apparatuses, systems and/or processes to provide a mechanism with a folded wrapping to mate with a circuit board and a heatsink to enclose and seal a volume between the circuit board and the heatsink. The mechanism with the folded wrapping may be dimensioned to enclose and seal the volume with the volume having a size to accommodate one or more processors to be disposed within the volume, electrically coupled to the circuit board and thermally coupled to the heatsink. On enclosing and sealing the volume, the mechanism with the folded wrapping may keep coolant from reaching the one or more processors when the circuit board, the mechanism, and the heatsink are immersed in the coolant. Other embodiments may be described and/or claimed.

Abstract: A failsafe piston retention assembly, and related components, systems, and methods are disclosed. A failsafe piston retention assembly comprises a head comprising a head body having a first surface. The assembly also includes a piston having second surface, the piston slidably coupled with respect to the head. The piston has a retracted configuration and an unretracted configuration. In the retracted configuration, the second surface is fixed with respect to the first surface by a magnetic force. One advantage of this arrangement is that the piston is retained in its retracted configuration in the event of an operational failure of the piston mechanism. For example, for a hydraulically controlled piston, the magnetic force retains the piston in a retracted configuration even in the event of a loss of hydraulic pressure.

Abstract: Embodiments may relate a computing device with a heat source. The computing device may have a heatsink physically and thermally coupled with the heat source. The heatsink may include a structural element internal to the heatsink. The structural element may cause a surface of the heatsink to deform to a non-planar configuration when the heatsink is coupled to the heat source. Other embodiments may be described or claimed.

Abstract: A fibrous insulation product is provided comprising a nonwoven fiber mat including a plurality of fibers bound together by an aqueous binder composition comprising that includes a thermally degradable polyol; a crosslinking agent; and an acid/aldehyde. The binder composition is free of added formaldehyde.

Abstract: Embodiments described herein may include apparatuses, systems and/or processes to provide a mechanism with a folded wrapping to mate with a circuit board and a heatsink to enclose and seal a volume between the circuit board and the heatsink. The mechanism with the folded wrapping may be dimensioned to enclose and seal the volume with the volume having a size to accommodate one or more processors to be disposed within the volume, electrically coupled to the circuit board and thermally coupled to the heatsink. On enclosing and sealing the volume, the mechanism with the folded wrapping may keep coolant from reaching the one or more processors when the circuit board, the mechanism, and the heatsink are immersed in the coolant. Other embodiments may be described and/or claimed.

Abstract: Embodiments described herein may include apparatuses, systems and/or processes to encapsulate a circuit board to be cooled with a liquid coolant, that includes a first part dimensioned to receive the circuit board coupled with one or more heat sinks; a second part dimensioned to mate with the first part, and with a portion of a side of the circuit board around the one or more heat sinks to create a volume surrounding the circuit board, with a portion of the one or more heat sinks are outside the volume and is to be exposed to the liquid coolant, and a sealer to seal areas where the second part mates with the first part and the portion of the side of the circuit board, to prevent the liquid coolant from entering the volume. Other embodiments may be described and/or claimed.

Abstract: A failsafe piston retention assembly, and related components, systems, and methods are disclosed. A failsafe piston retention assembly comprises a head comprising a head body having a first surface. The assembly also includes a piston having second surface, the piston slidably coupled with respect to the head. The piston has a retracted configuration and an unretracted configuration. In the retracted configuration, the second surface is fixed with respect to the first surface by a magnetic force. One advantage of this arrangement is that the piston is retained in its retracted configuration in the event of an operational failure of the piston mechanism. For example, for a hydraulically controlled piston, the magnetic force retains the piston in a retracted configuration even in the event of a loss of hydraulic pressure.

Abstract: A failsafe piston retention assembly, and related components, systems, and methods are disclosed. A failsafe piston retention assembly comprises a head comprising a head body having a first surface. The assembly also includes a piston having second surface, the piston slidably coupled with respect to the head. The piston has a retracted configuration and an unretracted configuration. In the retracted configuration, the second surface is fixed with respect to the first surface by a magnetic force. One advantage of this arrangement is that the piston is retained in its retracted configuration in the event of an operational failure of the piston mechanism. For example, for a hydraulically controlled piston, the magnetic force retains the piston in a retracted configuration even in the event of a loss of hydraulic pressure.

Abstract: An insulation system includes roof sheathing panels, spaced apart structural members, a first insulation material, and a second insulation material. The first insulation material is disposed between pairs of the spaced apart structural members. The second insulation material is disposed across the spaced apart structural members and the first insulation material, such that both the spaced apart structural members and the first insulation material are covered by the second insulation material.

Abstract: An insulation system includes roof sheathing panels, spaced apart structural members, a plurality of pins, insulation support material, and insulation. The plurality of pins are secured to the roof sheathing panels, the structural members, or both. The insulation support material is connected to the pins to form an insulation cavity below the roof sheathing panels and below the structural members. Insulation is disposed on the insulation support material, between the spaced apart structural members and directly under the bottommost surfaces of the structural members.

Abstract: A failsafe piston retention assembly, and related components, systems, and methods are disclosed. A failsafe piston retention assembly comprises a head comprising a head body having a first surface. The assembly also includes a piston having second surface, the piston slidably coupled with respect to the head. The piston has a retracted configuration and an unretracted configuration. In the retracted configuration, the second surface is fixed with respect to the first surface by a magnetic force. One advantage of this arrangement is that the piston is retained in its retracted configuration in the event of an operational failure of the piston mechanism. For example, for a hydraulically controlled piston, the magnetic force retains the piston in a retracted configuration even in the event of a loss of hydraulic pressure.

Abstract: A method of manufacturing a flexible circuit, including forming a first set of traces, forming a second set of traces, and cutting a gap between the first and second set of traces.

Abstract: A print head has an ink reservoir to hold ink, the reservoir having protrusions, an external manifold coupled to the ink reservoir, the ink manifold having channels on a first surface that match the protrusions, and an adhesive in the channels to contact the protrusions. A method of assembling a print head includes mounting a jet stack to a flat plate of a merge fixture, dispensing adhesive on an external manifold attached to the jet stack, placing a reservoir in the merge fixture above the external manifold such that the reservoir does not contact the adhesive, attaching an upper plate to the reservoir to set a depth, pressing the reservoir into the adhesive, and curing the adhesive.

Abstract: A print head has an ink reservoir to hold ink, the reservoir having protrusions, an external manifold coupled to the ink reservoir, the ink manifold having channels on a first surface that match the protrusions, and an adhesive in the channels to contact the protrusions. A method of assembling a print head includes mounting a jet stack to a flat plate of a merge fixture, dispensing adhesive on an external manifold attached to the jet stack, placing a reservoir in the merge fixture above the external manifold such that the reservoir does not contact the adhesive, attaching an upper plate to the reservoir to set a depth, pressing the reservoir into the adhesive, and curing the adhesive.

Abstract: An insulation system includes roof sheathing panels, spaced apart structural members, a first insulation material, and a second insulation material. The first insulation material is disposed between pairs of the spaced apart structural members. The second insulation material is disposed across the spaced apart structural members and the first insulation material, such that both the spaced apart structural members and the first insulation material are covered by the second insulation material.