Abstract: Systems and methods are disclosed, including a non-transitory computer readable medium storing computer executable code that when executed by a processor cause the processor to project a mixed reality environment to a headset, the mixed reality environment having one or more objects, each being created by object computer code having properties that define how the objects interact within the mixed reality environment; in response to a first input from at least one user interface device, display an action menu on the visual feedback screen having a list of pre-defined action modules, the action modules including a module of computer executable code having one or more functions, the one or more functions configured to affect one or more properties of a first object of the one or more objects within the mixed reality environment; and update the object computer code of the first object to include a selected action module.

Abstract: An electrocardiogram (ECG) measurement device for a vehicle is provided. The ECG measurement device includes an impedance compensator that corresponds to an electrode in contact with a body of a driver and configured to compensate an impedance of each of electrode signals received from the electrode. An electrode selector sequentially selects the electrode signals in response to receiving the electrode signals from the electrode. A differential amplifier differentially amplifies the electrode signals. In particular, each electrode signal has the compensated impedance. Additionally, a signal quality evaluator evaluates quality of an ECG signal output from the differential amplifier and a compensation controller then adjusts an impedance compensation value of each of the impedance compensators as a result of evaluating the quality of the ECG signal.

Abstract: Please amend the Abstract of the Disclosure with the attached Abstract. A power distribution method in an energy storage system including a plurality of battery racks and a plurality of DC/DC converters connected to each corresponding battery rack may include collecting information about each battery rack and information about each DC/DC converter; setting a power command for each battery rack according to a type and a state of each battery rack; and performing charge/discharge control for each battery rack according to the set power command for each battery rack.

Abstract: A battery bank control device is provided for setting a power limit value of a battery bank in which a plurality of battery racks (BRs) are connected in parallel. The device includes: a voltage measurement unit measuring a voltage of each BR of the plurality of BRs; a first power limit calculation unit calculating a first power limit value according to a state of charge (SOC) calculated based on the voltage of each BR with respect to each BR; a capacity ratio calculation unit calculating a capacity ratio of each BR based on capacity information of the plurality of BRs; a second power limit calculation unit calculating a second power limit value using the capacity ratio and the first power limit value of each BR; and a battery bank power limit calculation unit calculating a battery bank power limit value using the second power limit value of each BR.

Abstract: A light source module includes a heat sink having a mounting region; a light emitting device package having a first surface disposed on the mounting region of the heat sink and a second surface that is opposite to the first surface, the light emitting device package including a connection pad disposed on the second surface; a circuit board disposed on the mounting region of the heat sink and spaced apart from the light emitting device package, the circuit board including a connector and a terminal electrically connected to the connector; and a bracket disposed between the light emitting device package and the circuit board on the mounting region of the heat sink, and coupled to the heat sink, the bracket including a lead frame pressing the connection pad and the terminal to connect the connection pad and the terminal.

Abstract: A light source module includes a heat sink having a mounting region; a light emitting device package having a first surface disposed on the mounting region of the heat sink and a second surface that is opposite to the first surface, the light emitting device package including a connection pad disposed on the second surface; a circuit board disposed on the mounting region of the heat sink and spaced apart from the light emitting device package, the circuit board including a connector and a terminal electrically connected to the connector; and a bracket disposed between the light emitting device package and the circuit board on the mounting region of the heat sink, and coupled to the heat sink, the bracket including a lead frame pressing the connection pad and the terminal to connect the connection pad and the terminal.

Abstract: A semiconductor light emitting device includes a plurality of light emitting cells having first and second surface opposing each other, the plurality of light emitting cells including a first conductivity-type semiconductor layer, a second conductivity-type semiconductor layer, and an active layer therebetween, an insulating layer on the second surface of the plurality of light emitting cells and having first and second openings defining a first contact region of the first conductivity-type semiconductor layer and a second contact region of the second conductivity-type semiconductor layer, respectively, a connection electrode on the insulating layer and connecting a first contact region and a second contact region of adjacent light emitting cells, a transparent support substrate on the first surface of the plurality of light emitting cells, and a transparent bonding layer between the plurality of light emitting cells and the transparent support substrate.

Abstract: A semiconductor light emitting device includes a plurality of light emitting cells having first and second surface opposing each other, the plurality of light emitting cells including a first conductivity-type semiconductor layer, a second conductivity-type semiconductor layer, and an active layer therebetween, an insulating layer on the second surface of the plurality of light emitting cells and having first and second openings defining a first contact region of the first conductivity-type semiconductor layer and a second contact region of the second conductivity-type semiconductor layer, respectively, a connection electrode on the insulating layer and connecting a first contact region and a second contact region of adjacent light emitting cells, a transparent support substrate on the first surface of the plurality of light emitting cells, and a transparent bonding layer between the plurality of light emitting cells and the transparent support substrate.

Abstract: Disclosed herein is a method for controlling gear shifting of an automatic transmission from an N gear stage to an N? gear stage. The gear shifting is embodied by means of engaging and releasing friction elements. The method includes selecting at least two among an rpm of a turbine, an rpm of a first motor generator (MG1), an rpm of a second motor generator (MG2) and an rpm of a planetary gear set as control factors, and controlling engagement and release of the friction elements using the control factors.

Abstract: Disclosed herein is a method for controlling gear shifting of an automatic transmission from an N gear stage to an N? gear stage. The gear shifting is embodied by means of engaging and releasing friction elements. The method includes selecting at least two among an rpm of a turbine, an rpm of a first motor generator (MG1), an rpm of a second motor generator (MG2) and an rpm of a planetary gear set as control factors, and controlling engagement and release of the friction elements using the control factors.

Abstract: An optical modulator module is disclosed, comprising a bendable flexible printed circuit board in which a circuit pattern is formed, and to which control signals are inputted from the outside; an optical modulator element modulating an incident light according to a driving voltage and sending out the modulated light; an at least partially transparent substrate through which the incident light and the modulated light pass, and in which a circuit pattern is formed; and a driving integrated circuit electrically connected with the flexible printed circuit board, and supplying the optical modulator element with the driving voltage according to the inputted control signals, the flexible printed circuit board being electrically connected with the substrate.

Abstract: An optical modulator module is disclosed, comprising a bendable flexible printed circuit board in which a circuit pattern is formed, and to which control signals are inputted from the outside; an optical modulator element modulating an incident light according to a driving voltage and sending out the modulated light; an at least partially transparent substrate through which the incident light and the modulated light pass, and in which a circuit pattern is formed; and a driving integrated circuit electrically connected with the flexible printed circuit board, and supplying the optical modulator element with the driving voltage according to the inputted control signals, the flexible printed circuit board being electrically connected with the substrate.

Abstract: Disclosed herein are an electrostatic-type variable diffractive light modulator, which includes lower micromirrors that are provided on a glass substrate to be spaced apart from each other, and actuates upper micromirrors that are spaced apart from the substrate by an electrostatic actuating method, thus allowing the upper and lower micromirrors to diffract incident light entering a lower portion of the substrate, and a method of manufacturing the electrostatic-type variable diffractive light modulator.

Abstract: Disclosed is a light modulator having a digital micro blaze diffraction grating. In the light modulator, a fine protrusion is formed on an edge of a lower surface of a diffraction member so that a reflective surface inclines due to the fine protrusion when the diffraction member is drawn downward.

Abstract: Disclosed herein are an electrostatic-type variable diffractive light modulator, which includes lower micromirrors that are provided on a glass substrate to be spaced apart from each other, and actuates upper micromirrors that are spaced apart from the substrate by an electrostatic actuating method, thus allowing the upper and lower micromirrors to diffract incident light entering a lower portion of the substrate, and a method of manufacturing the electrostatic-type variable diffractive light modulator.

Abstract: Thin film AMA in an optical projection system and a method for manufacturing the same are disclosed. The thin film AMA has an active matrix having electrical wiring and a connecting terminal, a first actuator, a second actuator, a supporting element, and a reflecting member. The first actuator and the second actuator are parallely formed and the supporting element is formed in the direction perpendicular to the first actuator and the second actuator. The reflecting member supported by a plurality of posts is tilted by a double displacement, so the quality of a picture projected onto a screen is greatly increased. Also, the first actuator and the second actuator respectively have symmetrical structures centering around the first anchor and the second anchor so that the first actuator and the second actuator have stable structures.

Abstract: Thin film AMA in an optical projection system and a method for manufacturing the same are disclosed. The thin film AMA has a substrate having an electrical wiring and a connecting terminal, an actuator formed on the substrate, and a supporting element for supporting the actuator and for preventing an initial deflection of the actuator. The actuator has a bottom electrode, an active layer, a top electrode. The supporting element has a supporting layer attached beneath the bottom electrode for supporting the actuator, a supporting member for supporting the actuator, the supporting member being formed between the substrate where the connecting terminal is formed and a bottom of a first portion of the supporting layer, and a secondary supporting member for preventing an initial deflection of the actuator, the secondary supporting member being formed between the substrate and a bottom of a second portion of the supporting layer.

Abstract: Thin film AMA in an optical projection system and a method for manufacturing the same are disclosed. The thin film AMA has a substrate having electrical wiring and a connecting terminal, an actuator, and a reflecting member. The actuator has a supporting layer, a bottom electrode, an active layer, and a top electrode. The supporting layer has a first portion attached beneath the bottom electrode and a second portion exposed out of bottom electrode. The reflecting member is formed on the second portion of supporting layer. The supporting layer tilts with the actuator. Hence, the thin film AMA has much enhanced light efficiency of the right reflected by the reflecting member by minimizing the area of the actuator and maximizing the area of the reflecting member, so the quality of a picture projected onto a screen is greatly increased.

Abstract: The thin film AMA has a substrate, an actuator, a common line, and a reflecting member. The substrate has an electrical wiring and a connecting terminal and the actuator has a supporting layer, a bottom electrode, a top electrode, and an active layer. The common line is formed on a portion of actuator and is connected to top electrode. The electrical wiring and connecting terminal may not be damaged because actuator is formed on a portion of substrate adjacent to the portion where electrical wiring and connecting terminal are formed. The voltage drop of a second signal can be minimized because common line is formed thickly on a portion of actuator, so a sufficient second signal is applied to top electrode. The flatness of reflecting member may be enhanced because reflecting member is formed on a second sacrificial layer.