Abstract: The present invention relates to an editing method of a dynamic spectrum program, which includes the following steps. Downloading the spectral recipe is to download the spectral recipe with multi light scene with specific color temperature or at least one specific color temperature to the editing device through the internet, and connect the editing device with the software as a service system or platform as a service system configured in the cloud. Perform the correlation editing between the specific function and the spectral recipe. The editing device divides the specific function to be achieved into multiple blocks through the software as a service system or the platform as a service system, and the blocks correspond to the spectral recipe of the multi light scene respectively. And forming a functional dynamic spectrum program, which is to configure multiple blocks for corresponding time to form a dynamic spectrum program.

Abstract: A lighting environment sharing platform includes an intelligent human-centric lighting system comprising a cloud, a lighting field terminal, and a client terminal interconnected via the Internet. The cloud manages a database of multi-spectrum lighting parameters, light scenes based on emotional needs, and spectrum recipes shared by users. The client terminal selects light scenes according to emotional needs, controls multi-spectrum devices, accordingly, uploads effective scenes to the cloud, and accesses shared spectrum recipes.

Abstract: A method for implementing emotion navigation by using an intelligent human centric lighting system for implementing emotion navigation includes the following steps. Step 1 is to confirm an initial emotion of a user. Step 2 is to set a target emotion. Step 3 is to select a relay emotion to set an emotion navigation path. Step 4 is to edit a multispectral recipe corresponding to the relay emotion and the target emotion according to the multispectral recipe. Step 5 is to perform a lighting program of the multispectral recipe of the relay emotion and the target emotion. If the determination is not reaching the target emotion of Step 6, then go to obtain the user's personal physiological data to find out the multispectral recipe of the corresponding emotion that can adjust to the target emotion.

Abstract: A method for constructing a lighting environment sharing platform includes constructing a multi-spectrum light-emitting device database stored in a cloud environment module, wherein one or more lighting parameters of specific color temperatures are used to control a multi-spectrum light-emitting device; constructing a light scene database formed by multi-spectrum combinations based on user emotional needs; selecting and controlling light scenes; recording effective scenes to form a spectrum recipe database; and enabling users to store and share spectrum recipes via the cloud.

Abstract: A system for automatically adjusting the lighting parameters of a space is disclosed herein. The control module sets the target lighting parameters in the space and drive the smart lamp groups to illuminate by using the preset light recipe and to control the smart lamp groups to perform the illumination. The control module compares an ambient light detection value in the actual environment with the target value. When the ambient light detection value is not the same as the target value, the control module drives the ambient light sensor module performs a dimming procedure to the smart lamp groups. Wherein, the dimming procedure includes the step of adjusting an illuminance uniformity of the space according to the actual illuminance detected by the ambient light sensor module. After the calculation of the illuminance uniformity formula, the illuminance uniformity is adjusted to be the same as a target illuminance uniformity.

Abstract: The present invention is grading method for establishing the response of EEG files to physiological emotions through human factor lighting (HCL) system and EEG includes the following steps: Step 1, enhance spectrum which obtained the specific color temperature with synergistic effect on the specific physiological emotional response identified by fMRI; Step 2, making the user wear an EEG and give the element with specific emotional stimulation to stimulate the user's specific physiological emotion and induced the user's specific physiological emotion; Step 3, carry out the lighting program, after step 2, start the HCL system to lighting the user with different color temperatures, record and store the EEG files after lighting with different color temperatures; Step 4, EEG files that classify specific emotions by similarity through the learning method of AI; Step 5, establish the EEG classification database according to the similarity ranking of EEG files with specific color temperature.

Abstract: A system for automatically adjusting the lighting parameters of a space is disclosed herein. The control module sets the target lighting parameters in the space and drive the smart lamp groups to illuminate by using the preset light recipe and to control the smart lamp groups to perform the illumination. The control module compares an ambient light detection value in the actual environment with the target value. When the ambient light detection value is not the same as the target value, the control module drives the ambient light sensor module performs a dimming procedure to the smart lamp groups. Wherein, the dimming procedure includes the step of adjusting an illuminance uniformity of the space according to the actual illuminance detected by the ambient light sensor module. After the calculation of the illuminance uniformity formula, the illuminance uniformity is adjusted to be the same as a target illuminance uniformity.

Abstract: A system for automatically adjusting the lighting parameters of a space is disclosed herein. The control module sets the target lighting parameters in the space and drive the smart lamp groups to illuminate by using the preset light recipe and to control the smart lamp groups to perform the illumination. The control module compares an ambient light detection value in the actual environment with the target value. When the ambient light detection value is not the same as the target value, the control module drives the ambient light sensor module performs a dimming procedure to the smart lamp groups. Wherein, the dimming procedure includes the step of adjusting an illuminance uniformity of the space according to the actual illuminance detected by the ambient light sensor module. After the calculation of the illuminance uniformity formula, the illuminance uniformity is adjusted to be the same as a target illuminance uniformity.

Abstract: The present invention discloses a method for implementing emotion navigation by using an intelligent human centric lighting system. The emotion navigation method includes the following steps. Step 1 is to confirm an initial emotion of a user. Step 2 is to set a target emotion. Step 3 is to select a relay emotion to set an emotion navigation path. Step 4 is to edit a multispectral recipe corresponding to the relay emotion and the target emotion according to the multispectral recipe. Step 5 is to perform a lighting program of the multispectral recipe of the relay emotion and the target emotion. If the determination is not reaching the target emotion of Step 6, then go to obtain the user's personal physiological data to find out the multispectral recipe of the corresponding emotion that can adjust to the target emotion.

Abstract: A lighting system for establishing a database of multispectral circadian rhythm lighting scenario and psychological stress indicators is configured in space, which is characterized by downloading the multispectral circadian rhythm lighting scenario database from the cloud; the multispectral lighting parameters and circadian rhythm parameters are selected from the multispectral circadian rhythm lighting scenario database to start the light-emitting device for lighting; the ambient light sensor measures and judges whether the circadian rhythm parameters reach the set value; when each circadian rhythm parameter in the circadian rhythm lighting scenario database has reached the set value, the light-emitting device is started for lighting; after the blood or saliva of the light control subjects were tested, the psychological stress index values of the illuminators were obtained; the portable communication device transmits the circadian rhythm parameters and psychological stress index values to the cloud; among the

Abstract: A lighting system with a multispectral circadian rhythm lighting scenario, which performs lighting by the following procedures, the procedures include: downloading the multispectral circadian rhythm lighting scenario database from a portable communication device to the cloud through the Internet; the portable communication device selects a multispectral lighting parameter and a circadian rhythm parameter from the multispectral circadian rhythm lighting scenario database to start the light-emitting device to control the illuminator to perform lighting; after the blood or saliva test of the light control subjects, the psychological stress index values of the illuminator were obtained; the portable communication device or the management control module transmits the circadian rhythm parameters and psychological stress index values to the cloud.

Abstract: The present invention is grading method for establishing the response of EEG files to physiological emotions through human factor lighting (HCL) system and EEG includes the following steps: Step 1, enhance spectrum which obtained the specific color temperature with synergistic effect on the specific physiological emotional response identified by fMRI; Step 2, making the user wear an EEG and give the element with specific emotional stimulation to stimulate the user's specific physiological emotion and induced the user's specific physiological emotion; Step 3, carry out the lighting program, after step 2, start the HCL system to lighting the user with different color temperatures, record and store the EEG files after lighting with different color temperatures; Step 4, EEG files that classify specific emotions by similarity through the learning method of AI; Step 5, establish the EEG classification database according to the similarity ranking of EEG files with specific color temperature.

Abstract: The present invention is a human centric lighting (HCL) method with adjustable lighting parameters comprises the following steps: 1) User connects with the cloud through the intelligent communication device and selects the specific spectral recipe that the user wants to achieve a specific emotion from the cloud; 2) The light emitting device is configured to emit light in a specific light field according to the lighting parameters in a specific light field to select the light in a specific light field; 3) After the user performs HCL, when the effect of specific emotion is not reached, the user adjusts the lighting parameters in the selected specific spectral recipe through the intelligent communication device; 4) When the user has achieved the effect of specific emotion after performing HCL, store the corresponding lighting parameters of the adjusted spectral recipe to the cloud.

Abstract: The present invention relates to an editing method of a dynamic spectrum program, which includes the following steps. Downloading the spectral recipe is to download the spectral recipe with multi light scene with specific color temperature or at least one specific color temperature to the editing device through the internet, and connect the editing device with the software as a service system or platform as a service system configured in the cloud. Perform the correlation editing between the specific function and the spectral recipe. The editing device divides the specific function to be achieved into multiple blocks through the software as a service system or the platform as a service system, and the blocks correspond to the spectral recipe of the multi light scene respectively. And forming a functional dynamic spectrum program, which is to configure multiple blocks for corresponding time to form a dynamic spectrum program.

Abstract: In some embodiments, an inductor-inductor-capacitor (LLC) converter includes a transformer having a primary winding, a secondary winding, and an auxiliary winding. The primary winding is coupled to a primary side circuit and the auxiliary winding has a first winding portion coupled between a first terminal and a middle terminal, and a second winding portion coupled between the middle terminal and a second terminal. The LLC converter further includes a first diode coupled between the first terminal and a first node, a second diode coupled between the second terminal and the first node, and a switch coupled between the first node and a reference voltage terminal. The middle terminal of the auxiliary winding is coupled to the reference voltage terminal.

Abstract: In some embodiments, an inductor-inductor-capacitor (LLC) converter includes a transformer having a primary winding, a secondary winding, and an auxiliary winding. The primary winding is coupled to a primary side circuit and the auxiliary winding has a first winding portion coupled between a first terminal and a middle terminal, and a second winding portion coupled between the middle terminal and a second terminal. The LLC converter further includes a first diode coupled between the first terminal and a first node, a second diode coupled between the second terminal and the first node, and a switch coupled between the first node and a reference voltage terminal. The middle terminal of the auxiliary winding is coupled to the reference voltage terminal.

Abstract: An integrated circuit device and method of making the integrated circuit device are disclosed. An exemplary apparatus includes: a semiconductor layer; and a dielectric layer on the semiconductor layer, the dielectric layer having conductive vias and dummy vias formed therein, wherein the conductive vias and dummy vias extend varying distances into the dielectric layer, the conductive vias extending through the dielectric layer to the semiconductor layer, and the dummy vias extending through the dielectric layer to a distance above the semiconductor layer.

Abstract: A method of making an integrated circuit includes providing a low-k dielectric layer on a substrate, the low-k dielectric layer including or adjacent to a plurality of conductive features; patterning the low-k dielectric layer to form trenches; patterning the low-k dielectric layer to form conductive vias and dummy vias, wherein each of the conductive vias is aligned with at least one of the plurality of the conductive features and at least one of the trenches, and each of the dummy vias is a distance above the plurality of conductive features; filling the trenches, conductive vias, and dummy vias using one or more conductive materials; and planarizing the conductive material(s).

Abstract: An integrated circuit device and method of making the integrated circuit device are disclosed. An exemplary apparatus includes: a semiconductor layer; and a dielectric layer on the semiconductor layer, the dielectric layer having conductive vias and dummy vias formed therein, wherein the conductive vias and dummy vias extend varying distances into the dielectric layer, the conductive vias extending through the dielectric layer to the semiconductor layer, and the dummy vias extending through the dielectric layer to a distance above the semiconductor layer.

Abstract: A method of making an integrated circuit includes providing a low-k dielectric layer on a substrate, the low-k dielectric layer including or adjacent to a plurality of conductive features; patterning the low-k dielectric layer to form trenches; patterning the low-k dielectric layer to form conductive vias and dummy vias, wherein each of the conductive vias is aligned with at least one of the plurality of the conductive features and at least one of the trenches, and each of the dummy vias is a distance above the plurality of conductive features; filling the trenches, conductive vias, and dummy vias using one or more conductive materials; and planarizing the conductive material(s).