Abstract: The exemplary embodiments disclose a method, a computer program product, and a computer system for determining a duration of use left in an oxygen tank. The exemplary embodiments may include collecting data of a user and corresponding oxygen tank, extracting one or more features from the collected data, and determining a duration of use left in the oxygen tank based on the extracted one or more features and one or more models.

Abstract: A substrate processing method is provided. The substrate processing method includes: (S7) supplying a water repellent agent (SMT) to a substrate (W); (S11) supplying dilute isopropyl alcohol (dIPA) to the substrate (W) after the supplying a water repellent agent (SMT), the dilute isopropyl alcohol (dIPA) being obtained by diluting isopropyl alcohol; and (S12) drying the substrate (W) after the supplying dilute isopropyl alcohol (dIPA).

Abstract: A substrate treatment method includes a first gas treating step, a water-repellency treatment step, and a spraying step. In the first gas treating step, a first gas is supplied to the substrate inside the chamber in a state in which the inside of the chamber is decompressed. The first gas includes gas of an organic solvent. The water-repellency treatment step is executed after the first gas treating step. In the water-repellency treatment step, the inside of the chamber is in the decompressed state, and a water-repellent agent is supplied to the substrate inside the chamber. The spraying step is executed after the water-repellency treatment step. In the spraying step, the inside of the chamber is in the decompressed state, and a first liquid is sprayed over the substrate inside the chamber. The first liquid includes liquid of an organic solvent.

Abstract: The substrate treatment method includes a first decompressing step, a first pressurizing step, and a first atmospheric pressure step. In the first decompressing step, the inside of a chamber is in a decompressed state, and a first gas is supplied to a substrate inside the chamber. The first gas includes an organic solvent. The first pressurizing step is executed after the first decompressing step. In the first pressurizing step, mixed gas is supplied to the substrate inside the chamber, and the inside of the chamber is pressurized from the decompressed state to an atmospheric pressure state. The mixed gas includes an organic solvent and inert gas. The first atmospheric pressure step is executed after the first pressurizing step. In the first atmospheric pressure step, the inside of the chamber is maintained in the atmospheric pressure state, and at least any of liquid discharge treatment and substrate treatment is performed.

Abstract: A substrate treatment method includes a rinsing step of performing treatment of a substrate with a rinse liquid, an immersing step of immersing the substrate in a diluted isopropyl alcohol (dIPA) stored in a treatment tank after the rinsing step, a first isopropyl alcohol treatment step of performing treatment of the substrate with an isopropyl alcohol after the immersing step, and a water-repellent treatment step of performing water-repellent treatment of the substrate after the first isopropyl alcohol treatment step.

Abstract: The exemplary embodiments disclose a method, a computer program product, and a computer system for determining a duration of use left in an oxygen tank. The exemplary embodiments may include collecting data of a user and corresponding oxygen tank, extracting one or more features from the collected data, and determining a duration of use left in the oxygen tank based on the extracted one or more features and one or more models.

Abstract: Detection and monitoring of health conditions that are accompanied by an injury site includes receiving, by one or more processors, an identifier associated with a patient and an associated first image, the first image corresponding to an injury in the injury site. The one or more processors analyze the associated first image using a machine learning model that includes an inference engine and a knowledge base. The machine learning model compares the associated first image against a patient data history and a tracking database. In response to a determination the injury site is associated with the health condition, the one or more processors generate a first result including sending a report containing the first result to a healthcare professional caring for the patient and display the first result informing the patient and healthcare professional the injury needs special care including requiring an appointment.

Abstract: A substrate processing method for removing a resist from a substrate, the substrate comprising a surface layer which has been cured, and having a pattern disposed inside the resist. The method includes an SPM supplying step of supplying an SPM, formed by mixing sulfuric acid and a hydrogen peroxide solution, to the substrate and a liquid temperature increasing step of changing, in parallel to the SPM supplying step, a mixing ratio of the sulfuric acid and the hydrogen peroxide solution used to form the SPM to increase the liquid temperature of the SPM supplied to the substrate in the SPM supplying step.

Abstract: A substrate treatment method is used for removing a resist from a front surface of a substrate. A substrate treatment apparatus includes a substrate holding unit which holds the substrate, and a sulfuric acid ozone/water mixture supplying unit which supplies a sulfuric acid ozone/water mixture to the front surface of the substrate held by the substrate holding unit, the sulfuric acid ozone/water mixture being a mixture which is prepared by a method including mixing water with sulfuric acid ozone prepared by dissolving ozone gas in sulfuric acid.

Abstract: A surface emitting element that is a photoelectric conversion element and includes a substrate, first and second electrode patterns, and first and second electrode structures. The substrate has a first surface and a second surface facing each other. The substrate emits light from the first surface. The first and second electrode patterns are formed on the substrate and used for photoelectric conversion. The first electrode structure is connected to the first electrode pattern, and the second electrode structure is connected to the second electrode pattern. The first and second electrode structures are formed on a first side surface that is orthogonal to the first and second surfaces of the substrate in shapes protruding from the first side surface.

Abstract: A surface emitting element including a semiconductor substrate and a casing. The substrate includes an optical element having a photoelectric conversion function. First and second terminal electrodes are disposed on the substrate. The casing has a depression for accommodating the substrate. Moreover, first and second connection electrodes are formed in the casing. The first and second terminal electrodes are formed so as to protrude from the side surfaces of the substrate. The first and second connection electrodes are formed so as to protrude toward the depression side in the casing. The first terminal electrode and the first connection electrode are in contact with each other, and the second terminal electrode and the second connection electrode are in contact with each other.

Abstract: A VCSEL array includes a base substrate, a plurality of VCSEL devices and an inter-device line. Each of the plurality of VCSEL devices is disposed on a front side of the base substrate. The inter-device line connects two of the plurality of VCSEL devices that are adjacent to each other, the two VCSEL devices being connected in series such that forward directions of the two VCSEL devices are the same. An insulating groove that electrically insulates the two VCSEL devices is formed on the base substrate.

Abstract: A cathode electrode, cathode pad electrodes, cathode wiring electrodes, an anode electrode, an anode pad electrode, and an anode wiring electrode are disposed on the surface of a vertical-cavity surface-emitting laser device. A light-emitting-region multilayer portion having active layers sandwiched by clad layers and DBR layers is formed directly below the anode electrode. A region where the light-emitting-region multilayer portion is formed serves as a light-emitting region. The light-emitting region is positioned closer to one end of the first direction than is a suction region onto which a flat collet sucks with respect to the first direction, in such a way that the light-emitting region is substantially in contact with or spaced a predetermined distance from the suction region.

Abstract: A VCSEL array includes a base substrate, VCSEL element columns arranged in a row direction (y direction) on a front-surface side of the base substrate and parallel wiring lines that connect the VCSEL element columns in parallel with each other. Each of the VCSEL element columns includes a plurality of VCSEL elements arranged in a column direction (x direction) and a plurality of series wiring lines. The plurality of series wiring lines serially connect every two VCSEL elements that are adjacent to each other in the column direction among the plurality of VCSEL elements in such an orientation that the forward directions of the two VCSEL elements match. Insulating grooves are formed on the base substrate. The insulating grooves electrically insulate the VCSEL element columns from each other. The insulating grooves electrically insulate the VCSEL elements from each other.

Abstract: A substrate treatment method is used for removing a resist from a front surface of a substrate. A substrate treatment apparatus includes a substrate holding unit which holds the substrate, and a sulfuric acid ozone/water mixture supplying unit which supplies a sulfuric acid ozone/water mixture to the front surface of the substrate held by the substrate holding unit, the sulfuric acid ozone/water mixture being a mixture which is prepared by a method including mixing water with sulfuric acid ozone prepared by dissolving ozone gas in sulfuric acid.

Abstract: A substrate treatment method is provided, which includes a liquid film retaining step of retaining a liquid film of a treatment liquid on a major surface of a substrate, and a heater heating step of locating a heater in opposed relation to the major surface of the substrate to heat the treatment liquid film by the heater in the liquid film retaining step, wherein an output of the heater is changed from a previous output level in the heater heating step.

Abstract: A substrate processing method includes an SPM supplying step of supplying SPM having high temperature to an upper surface of a substrate, a DIW supplying step of supplying, after the SPM supplying step, DIW having room temperature to the upper surface of the substrate to rinse off a liquid remaining on the substrate, and a hydrogen peroxide water supplying step of supplying, after the SPM supplying step and before the DIW supplying step, hydrogen peroxide water of a liquid temperature lower than the temperature of the SPM and not less than room temperature, to the upper surface of the substrate in a state where the SPM remains on the substrate.

Abstract: A substrate processing method includes an SPM supplying step of supplying SPM having high temperature to an upper surface of a substrate, a DIW supplying step of supplying, after the SPM supplying step, DIW having room temperature to the upper surface of the substrate to rinse off the liquid remaining on the substrate, a hydrogen peroxide water supplying step of supplying, after the SPM supplying step and before the DIW supplying step, hydrogen peroxide water of a liquid temperature lower than the temperature of the SPM and not less than room temperature, to the upper surface of the substrate in a state where the SPM remains on the substrate, and a temperature decrease suppressing step of supplying, in parallel to the hydrogen peroxide water supplying step, pure water having high temperature to a lower surface of the substrate.

Abstract: A VCSEL array includes a base substrate, a plurality of VCSEL devices and an inter-device line. Each of the plurality of VCSEL devices is disposed on a front side of the base substrate. The inter-device line connects two of the plurality of VCSEL devices that are adjacent to each other, the two VCSEL devices being connected in series such that forward directions of the two VCSEL devices are the same. An insulating groove that electrically insulates the two VCSEL devices is formed on the base substrate.

Abstract: A VCSEL array includes a base substrate, VCSEL element columns arranged in a row direction (y direction) on a front-surface side of the base substrate and parallel wiring lines that connect the VCSEL element columns in parallel with each other. Each of the VCSEL element columns includes a plurality of VCSEL elements arranged in a column direction (x direction) and a plurality of series wiring lines. The plurality of series wiring lines serially connect every two VCSEL elements that are adjacent to each other in the column direction among the plurality of VCSEL elements in such an orientation that the forward directions of the two VCSEL elements match. Insulating grooves are formed on the base substrate. The insulating grooves electrically insulate the VCSEL element columns from each other. The insulating grooves electrically insulate the VCSEL elements from each other.