Abstract: A pouch includes a packaging bag including a front surface sheet, a back surface sheet, a bottom surface sheet, and a top surface sheet and a spout. The packaging bag includes a pair of side seal portions, a front bottom seal portion, a back bottom seal portion, a front top seal portion, and a back top seal portion. At least one of the pair of side seal portions includes a side enclosing portion in which a gas is enclosed, the side enclosing portion having an elongated shape in a height direction. At least one of the front top seal portion or the back top seal portion includes a top enclosing portion in which a gas is enclosed, the top enclosing portion having an elongated shape in a width direction.

Abstract: A pouch container has a gas filling space therein, and includes a first wall section and a second wall section. The first wall section includes a first tongue-shaped portion. The second wall section includes a second tongue-shaped portion and overlapping the first tongue-shaped portion. A projection length of the second tongue-shaped portion is longer than that of the first tongue-shaped portion. A gas injection portion is provided in which an injection port communicating with the gas filling space is formed by joining both end portions of both the first tongue-shaped portion and the second tongue-shaped portion in a width direction, and the injection port is defined by a tip end portion of the first tongue-shaped portion in a projection direction and the second tongue-shaped portion at a portion facing the tip end portion.

Abstract: A pouch includes a packaging bag and a spout configured to dispense contents from the packaging bag. Left side seal portions include a first side gas enclosing portion enclosing a gas and having an elongated shape in a height direction, right side seal portions include a second side gas enclosing portion enclosing a gas and having an elongated shape in the height direction, left back top seal portions include a first posterior gas enclosing portion enclosing a gas and extending rearward, right back top seal portions include a second posterior gas enclosing portion enclosing a gas and extending rearward, the first posterior gas enclosing portion communicates with an upper end of the first side gas enclosing portion, and the second posterior gas enclosing portion communicates with an upper end of the second side gas enclosing portion.

Abstract: A pouch-type container including a pair of main-body sheets defining a storage space for containing a packaged substance; an opening at a first end of the main-body sheets in a z-direction; a spout at a second end, opposite the opening, of the main-body sheets in the z-direction; and an opening/closing part offset from the opening toward the second end in the z-direction to open and close the storage space. The pouch-type container further includes: a locking band fixed to the main-body sheets at a pair of fixed portions spaced apart in a width direction (x direction) to define an insertion space with the outer surface of one of the main-body sheets, the width direction being perpendicular to the y-direction wherein the main-body sheets face each other and the z-direction; and a lock part including at least one of the main-body sheets and configured to be locked with the locking band.

Abstract: A pouch includes a packaging bag including a front surface sheet, a back surface sheet, a bottom surface sheet, and a top surface sheet and a spout. The packaging bag includes a pair of side seal portions, a front bottom seal portion, a back bottom seal portion, a front top seal portion, and a back top seal portion. At least one of the pair of side seal portions includes a side enclosing portion in which a gas is enclosed, the side enclosing portion having an elongated shape in a height direction. At least one of the front top seal portion or the back top seal portion includes a top enclosing portion in which a gas is enclosed, the top enclosing portion having an elongated shape in a width direction.

Abstract: A plurality of pouch containers are continuously manufactured from materials including: a plurality of separate-type tubular film members each including a portion to be formed as a barrel portion; and a single first belt-shaped film member and a single second belt-shaped film member each including a plurality of portions each to be formed as a gusset portion. The step of closing an opening end of each of the separate-type tubular film members includes: supplying the belt-shaped film member to the opening end by conveying the belt-shaped film member in parallel with the separate-type tubular film members at the same speed as a conveyance speed of the separate-type tubular film members, to cause the belt-shaped film member to overlap with an opened joining margin of each of the separate-type tubular film members; and joining the joining margin to a portion of the belt-shaped film member that overlaps with the joining margin.

Abstract: The present invention relates to a method for manufacturing a semiconductor device in which a circuit element including a semiconductor chip, and a through conductor connecting an insulation layer in a thickness direction are embedded in the insulation layer. A wiring structure in which a predetermined pattern of wiring conductors is formed along a planar direction on an insulation part is created, and thereafter the wiring structure is sealed in the insulation layer in a state where the wiring structure is erected vertically. Consequently, the wiring conductor of the wiring conductor is caused to function as the through conductor in the insulation layer.

Abstract: The occurrence of a positional shift of a semiconductor chip during resin sealing is suppressed; and a redistribution layer is easily and accurately formed. A semiconductor device according to the present invention is provided with: a substrate which is formed of a cured thermosetting resin, and which has one or more recesses; a circuit element which is arranged within a recess of the substrate; and a redistribution layer which is connected to the circuit element on the opening side of the recess.

Abstract: Provided is a method of calibrating a microwave radiometer, which eliminates use of liquid nitrogen as a calibration source. The method is applied to a microwave radiometer configured to receive, by a receiver having a primary radiator connected thereto, a radio wave emitted from an object to be measured depending on a temperature of the object to be measured and to measure a brightness temperature of the object to be measured from an output signal of the receiver. In the method, the method a noise temperature Trx of the receiver appearing on an output side of the receiver is calibrated by observing a plurality of calibration sources having known brightness temperatures. The method includes using a radio wave reflector configured to totally reflect noise radiated from an input side of the receiver as one of the plurality of calibration sources.

Abstract: Provided herein are stabilized underfill film-containing assemblies which extend the work-life of underfill films. In accordance with certain aspects of the present invention, there are also provided stabilized underfill film-containing assemblies which extend the shelf-life of underfill films. In certain aspects of the present invention, there are also provided methods for extending the work-life of underfill films. In another aspect of the present invention, there are also provided methods for extending the shelf-life of underfill films.

Abstract: A plurality of pouch containers are continuously manufactured from materials including: a plurality of separate-type tubular film members each including a portion to be formed as a barrel portion; and a single first belt-shaped film member and a single second belt-shaped film member each including a plurality of portions each to be formed as a gusset portion. The step of closing an opening end of each of the separate-type tubular film members supplying the belt-shaped film member to the opening end by conveying the belt-shaped film member in parallel with the separate-type tubular film members at the same speed as a conveyance speed of the separate-type tubular film members, to cause the belt-shaped film member to overlap with an opened joining margin of each of the separate-type tubular film members; and joining the joining margin to a portion of the belt-shaped film member that overlaps with the joining margin.

Abstract: A method for manufacturing an intermediate material for a soft packaging container according to the present invention includes: a first overlaying step P1 of laying a second raw film sheet 120 over a first raw film sheet 110; a confining portion forming step P2 of forming a filler confining portion 50 for confining a filler 59, the filler confining portion 50 being constituted by a non-joined region between the first raw film sheet 110 and the second raw sheet 12, by joining a portion of the first raw film sheet 110 and a portion of the second sheet 12 to each other; a folding step P4 of folding the first raw film sheet 110 and the second sheet 12 with the first raw film sheet 110 on an outer side, such that the filler confining portion 50 is present in a state where an inner portion thereof is continuous on two sides that are connected via at least one folding position; an accommodating portion forming step P5 of forming an accommodating portion 60 by joining a plurality of portions including at least one of

Abstract: Provided is a method of calibrating a microwave radiometer, which eliminates use of liquid nitrogen as a calibration source. The method is applied to a microwave radiometer configured to receive, by a receiver having a primary radiator connected thereto, a radio wave emitted from an object to be measured depending on a temperature of the object to be measured and to measure a brightness temperature of the object to be measured from an output signal of the receiver. In the method, the method a noise temperature Trx of the receiver appearing on an output side of the receiver is calibrated by observing a plurality of calibration sources having known brightness temperatures. The method includes using a radio wave reflector configured to totally reflect noise radiated from an input side of the receiver as one of the plurality of calibration sources.

Abstract: A method for manufacturing an intermediate material for a soft packaging container according to the present invention includes: a first overlaying step P1 of laying a second raw film sheet 120 over a first raw film sheet 110; a confining portion forming step P2 of forming a filler confining portion 50 for confining a filler 59, the filler confining portion 50 being constituted by a non-joined region between the first raw film sheet 110 and the second raw sheet 12, by joining a portion of the first raw film sheet 110 and a portion of the second sheet 12 to each other; a folding step P4 of folding the first raw film sheet 110 and the second sheet 12 with the first raw film sheet 110 on an outer side, such that the filler confining portion 50 is present in a state where an inner portion thereof is continuous on two sides that are connected via at least one folding position; an accommodating portion forming step P5 of forming an accommodating portion 60 by joining a plurality of portions including at least one of

Abstract: Provided herein are multilayer articles comprising at least one underfill film layer. In certain aspects, there are also provided methods for improving the worklife stability of such articles. In certain aspects, there are also provided methods for improving the storage stability of such articles. In certain aspects, there are also provided methods for making such articles. In certain aspects, there are also provided stabilized articles produced by the methods described herein.

Abstract: An objective of the present invention is to provide a sinterable bonding material capable of providing a bonded article having a long-term reliability. The present invention relates to a sinterable bonding material comprising a silver filler and resin particles, wherein the silver filler comprises a flake-shaped filler having an arithmetic average roughness (Ra) of 10 nm or less; and the resin particles have an elastic modulus (E) of 10 GPa or less, and a heat decomposition temperature of 200° C. or more. The sintered product of the sinterable bonding material of the present invention is excellent in bonding strength and heat-release characteristics, and has an improved stress relaxation ability.

Abstract: Provided herein are mixed resin systems and the use thereof for wafer-level underfill (WAUF) for three-dimensional TSV packages. In one aspect, there are provided compositions comprising (1) an epoxy resin, (2) a maleimide, nadimide or itaconamide, (3) an acrylate and (4) a filler. In certain aspects, the epoxy resin is a siloxane-modified resin. In certain aspects, the invention relates to underfill films prepared from invention compositions. In certain aspects, the invention relates to articles comprising the underfill films described herein.

Abstract: An objective of the present invention is to provide a sinterable bonding material excellent in sinterability. The present invention relates to a sinterable bonding material comprising a silver filler and an organic base compound as a sintering promoter.