Abstract: [Problem] A compound useful as an active ingredient of a pharmaceutical composition for treating pancreatic cancer is provided. [Solution] The present inventors have studied about a compound that is useful as an active ingredient of a pharmaceutical composition for treating pancreatic cancer and have found that a 4-aminoquinazoline compound has an excellent G12D mutant KRAS inhibition activity and can be used as a therapeutic agent for pancreatic cancer, thus completing the present invention. The 4-aminoquinazoline compound of the present invention or a salt thereof can be used as a therapeutic agent for pancreatic cancer.

Abstract: A secondary battery is provided with first and second electrode assembly bodies and first and second negative electrode tab groups. The first and second negative electrode tab groups respectively have collected foil portions each constituted by a plurality of collected tab portions and extension portions. The extension portions of the respective tab groups have portions-to-be-welded and step portions. In the step portions, the plurality of tabs are laminated in a state that the end portions thereof are shifted in a step-like manner. The secondary battery is provided with an overlapped portion where the step portions of the first negative electrode tab group and the second negative electrode tab group are overlapped with each other in the lamination direction of the negative electrode tabs.

Abstract: A power storage module comprises: an electrode stacked body including a stacked body in which a plurality of bipolar electrodes are stacked, a pair of terminal electrodes located on an outer side of the stacked body in a stacking direction of the bipolar electrodes, and a plurality of metal plates which constitute the stacked body and the pair of terminal electrodes; and a sealing body provided to surround a side surface of the electrode stacked body. The sealing body includes a plurality of first sealing portions coupled to edge portions of the plurality of metal plates, and a second sealing portion that couples the first sealing portions to each other. A thickness adjustment member that adjusts the thickness of the electrode stacked body in the stacking direction is disposed in the electrode stacked body at a position of overlapping the first sealing portions when viewed from the stacking direction.

Abstract: A secondary battery is provided with first and second electrode assembly bodies and first and second negative electrode tab groups. The first and second negative electrode tab groups respectively have collected foil portions each constituted by a plurality of collected tab portions and extension portions. The extension portions of the respective tab groups have portions-to-be-welded and step portions. In the step portions, the plurality of tabs are laminated in a state that the end portions thereof are shifted in a step-like manner. The secondary battery is provided with an overlapped portion where the step portions of the first negative electrode tab group and the second negative electrode tab group are overlapped with each other in the lamination direction of the negative electrode tabs.

Abstract: The method of manufacturing a semiconductor device according to the embodiment includes a step of performing cleaning. The cleaning step includes a step of preparing a cleaning apparatus having a first rotation mechanism including a first motor, a second rotation mechanism including a second motor, a second central shaft, and a cylindrical roller brush including an outer peripheral surface; a step of rotating the semiconductor wafer around the first central axis by the first rotation mechanism; and a step of rotating the roller brush around the second central axis by the second rotation mechanism and contacting the outer peripheral surface with the surface. An abnormality in the cleaning step is detected based on the current output from the second motor.

Abstract: A power storage device manufacturing method that seals a case housing an electrode assembly of a power storage device and injects an electrolyte into the case after sealing, the method includes a step accompanied by a pressure operation of increasing or reducing a pressure inside the case after sealing the case, and a process performed in a state of turning the inside of the case to the pressure higher or lower than an atmospheric pressure, and an internal space capacity of the case is measured based on a change with time of the pressure inside the case caused by the pressure operation inside the case.

Abstract: In order to avoid cracking of a semiconductor wafer when separating the semiconductor wafer from an electrostatic chuck, there is provided a manufacturing method of a semiconductor device including a step of monitoring the potential of the electrostatic chuck from the adsorption starting state of the semiconductor wafer by the electrostatic chuck to the adsorption finishing state thereof. The above step further includes a step of determining the semiconductor wafer to be in the adsorption finishing state when the potential of the electrostatic chuck is within a predetermined range.

Abstract: This electricity storage device comprises an electrode assembly, a case, an electrode terminal and a conductive member. The electrode assembly comprises a positive electrode, a negative electrode and a separator. The separator comprises a first separator part and a second separator part. The separator has a container part that contains portions of the positive electrode other than a tab. The separator has a welded part and a tab facing part. The welded part has facing parts that are positioned on both sides of the tab facing part. The facing parts face the electrode terminal with the conductive member being interposed therebetween. The facing parts are larger in shrinkage amount associated with thermal welding than the other portions of the welded part.

Abstract: The present invention provides a semiconductor device manufacturing method that can sense the atmospheric air leakage more precisely and that can prevent too many defective products from being manufactured. The semiconductor device manufacturing method according to the embodiment includes the steps of: forming a barrier layer over an interlayer insulating film over a semiconductor substrate; forming a wiring layer over the barrier layer; forming a mask having an opening and configured by a photosensitive organic film over the wiring layer; patterning the wiring layer by etching the wiring layer through the opening; and removing the mask by a plasma processing using an ashing gas. The step of removing the mask includes the step of sensing an atmospheric air leakage that is mixture of the atmospheric air into the ashing gas by measuring an emission intensity of nitrogen in the ashing gas using an ultraviolet photometer.

Abstract: The present invention provides a semiconductor device manufacturing method that can sense the atmospheric air leakage more precisely and that can prevent too many defective products from being manufactured. The semiconductor device manufacturing method according to the embodiment includes the steps of: forming a barrier layer over an interlayer insulating film over a semiconductor substrate; forming a wiring layer over the barrier layer; forming a mask having an opening and configured by a photosensitive organic film over the wiring layer; patterning the wiring layer by etching the wiring layer through the opening; and removing the mask by a plasma processing using an ashing gas. The step of removing the mask includes the step of sensing an atmospheric air leakage that is mixture of the atmospheric air into the ashing gas by measuring an emission intensity of nitrogen in the ashing gas using an ultraviolet photometer.

Abstract: A positive collector and a negative collector are arranged such that connecting surfaces of the positive collector and the negative collector that are connected to collection groups face an electrode assembly. An insulator is arranged in a case between the positive and negative collectors and a terminal wall of the case. The insulator separates an opposing surface from the terminal wall. This reduces useless space and insulates the collectors and the power collection groups from the case.

Abstract: To shorten a maintenance time of a semiconductor manufacturing apparatus and to improve productivity of a semiconductor manufacturing line. A semiconductor wafer is processed by the semiconductor manufacturing apparatus in which reaction product in the inside of a wafer lift pin hole was removed using a cleaning jig having a return on its tip part.

Abstract: To shorten a maintenance time of a semiconductor manufacturing apparatus and to improve productivity of a semiconductor manufacturing line. A semiconductor wafer is processed by the semiconductor manufacturing apparatus in which reaction product in the inside of a wafer lift pin hole was removed using a cleaning jig having a return on its tip part.

Abstract: A power storage device manufacturing method that seals a case housing an electrode assembly of a power storage device and injects an electrolyte into the case after sealing, the method includes a step accompanied by a pressure operation of increasing or reducing a pressure inside the case after sealing the case, and a process performed in a state of turning the inside of the case to the pressure higher or lower than an atmospheric pressure, and an internal space capacity of the case is measured based on a change with time of the pressure inside the case caused by the pressure operation inside the case.

Abstract: This electricity storage device comprises an electrode assembly, a case, an electrode terminal and a conductive member. The electrode assembly comprises a positive electrode, a negative electrode and a separator. The separator comprises a first separator part and a second separator part. The separator has a container part that contains portions of the positive electrode other than a tab. The separator has a welded part and a tab facing part. The welded part has facing parts that are positioned on both sides of the tab facing part. The facing parts face the electrode terminal with the conductive member being interposed therebetween. The facing parts are larger in shrinkage amount associated with thermal welding than the other portions of the welded part.

Abstract: A positive collector and a negative collector are arranged such that connecting surfaces of the positive collector and the negative collector that are connected to collection groups face an electrode assembly. An insulator is arranged in a case between the positive and negative collectors and a terminal wall of the case. The insulator separates an opposing surface from the terminal wall. This reduces useless space and insulates the collectors and the power collection groups from the case.

Abstract: A lithium-ion secondary battery is provided where the production process line that fabricated it can be identified. The lithium-ion secondary battery includes a jelly roll, a positive electrode tab, a negative electrode tab, a positive electrode can, and a lid. The jelly roll is made by rolling the positive electrode and the negative electrode with an interposed separator, and is contained in the casing. The positive electrode tab has one end connected to the positive electrode of the jelly roll and the other end connected to the lid. The negative electrode tab has one end connected to the negative electrode of the jelly roll and the other end connected to a terminal provided on the lid. The other end of the negative electrode tab has a shape with a cut at a cut angle determined in accordance with the production process line that fabricated the lithium-ion secondary battery.

Abstract: A lithium-ion secondary battery is provided where the production process line that fabricated it can be identified. The lithium-ion secondary battery includes a jelly roll, a positive electrode tab, a negative electrode tab, a positive electrode can, and a lid. The jelly roll is made by rolling the positive electrode and the negative electrode with an interposed separator, and is contained in the casing. The positive electrode tab has one end connected to the positive electrode of the jelly roll and the other end connected to the lid. The negative electrode tab has one end connected to the negative electrode of the jelly roll and the other end connected to a terminal provided on the lid. The other end of the negative electrode tab has a shape with a cut at a cut angle determined in accordance with the production process line that fabricated the lithium-ion secondary battery.