Abstract: The invention provides a non-invasive blood glucose monitoring device with a wearing fit detection function, comprising a substrate, a blood glucose monitoring module, an optical feedback sensing module and at least one light-blocking wall. The substrate defines a first setting area for disposing the blood glucose monitoring module and a second setting area for disposing the optical feedback sensing module. The second setting area is between an edge of the substrate and the first setting area. The optical feedback sensing module includes at least one light-emitting element and at least one light-receiving element. Each light-emitting element emits a light signal corresponding to at least one specific wavelength, and each light-receiving element receives the light signal corresponding to the at least one specific wavelength, after being reflected, as a basis for determining the wearing fit. The at least one light-blocking wall is located between the first setting area and the second setting area.

Abstract: A non-invasive blood glucose monitoring module with high optical transmittance includes a substrate, a first detecting unit and a second detecting unit. The first detecting unit includes a first light source set, a first photosensitive element and first blocking wall structures. The first photosensitive element receives light, with a first wavelength, emitted from the first light source set. The first blocking wall structures are located between the two first light-emitting elements and between the first light source set and the first photosensitive element. The second detecting unit includes a second light source set, a second photosensitive element and second blocking wall structures. The second photosensitive element receives light, with a second wavelength, emitted from the second light source set. The second blocking wall structures are located between the two second light-emitting elements and between the second light source set and the second photosensitive element.

Abstract: A display device including an element array substrate, an electrophoretic display substrate and a humidity sensor is provided. The electrophoretic display substrate is disposed on the element array substrate. The humidity sensor includes a conductive pattern disposed on a side of the element array substrate adjacent to the electrophoretic display substrate. A driving method of the display device is also provided.

Abstract: A three-dimensional reflective display device includes a reflective display panel, a lens array disposed on the reflective display panel, and a front light module disposed on the lens array. The reflective display panel includes pixel structures, and each pixel structure includes a left-eye pixel and a right-eye pixel. The lens array includes lenticular lenses extending in a first direction and arranged in a second direction perpendicular to the first direction. The lenticular lenses are respectively corresponding to the pixel structures. The front light module includes two front light components. The two front light components both include a light guide plate and a light source disposed on a light incident surface of the light guide plate, where the light incident surfaces face to each other in the second direction.

Abstract: The invention provides a non-invasive blood glucose monitoring device, which comprises a flexible circuit board, at least one blood glucose monitoring module and an adhesive layer. The at least one blood glucose monitoring module is arranged on the flexible circuit board, and each blood glucose monitoring module includes a barrier structure, a light emitting element, a light sensing element and a transparent cover. The barrier structure forms a first space and a second space isolated from each other; the light emitting element and the light sensing element are respectively located in the first space and the second space; the transparent cover is combined with the barrier structure to enclose the first space and the second space. The adhesive layer is arranged on the flexible circuit board and is located around the at least one blood glucose monitoring module.

Abstract: A miniaturized blood glucose measurement module using polarized light is provided, which includes an electromagnet assembly, a light-emitting assembly, and a light-receiving assembly. The electromagnet assembly includes a metal base and a coil. The metal base includes an accommodating portion and a side surface. The accommodating portion is located within a scope of the side surface, and the coil is wound on the side surface. The light-emitting assembly is embedded in the accommodating portion and includes a light-emitting element and a first polarizing element. A light emitted by the light-emitting element passes through the first polarizing element to generate a polarized light, and the light-emitting assembly forms a light-emitting surface. The light-receiving assembly is embedded in the accommodating portion and adjacent to the light-emitting assembly, and the light-receiving assembly includes a light-sensing element, a magnetic crystal and a second polarizing element.

Abstract: A solid-state lidar device includes an emitting module and a receiving module. The emitting module includes a laser driver and a light emitting source. The laser driver is used to drive the light emitting source to emit a light signal. The laser driver is a high electron mobility transistor, and the light emitting source includes at least one laser diode. The receiving module is used to receive the light signal being reflected and generate an output signal according to the light signal, and the receiving module includes an avalanche photodiode. The avalanche photodiode includes a lead sulfide quantum dot colloid layer, and the lead sulfide quantum dot colloid layer is arranged on a reflection path of the light signal received by the avalanche photodiode.

Abstract: The invention provides a non-invasive blood glucose monitoring module with polarized light, which comprises a light emitting component, a light receiving component and a connecting member. The light emitting component includes a light emitting element and a first polarizing element, and light emitted from the light emitting element passes through the first polarizing element to transform into polarized light. A light emitting surface is formed for the light emitting component. The light receiving component includes a light sensing element, a magnetic crystal layer and a second polarizing element, and the light sensing element receives the polarized light being reflected and sequentially passing through the magnetic crystal layer and the second polarizing element. A light receiving surface is formed for the light receiving component. The connecting member connects one side of the light emitting component and one side of the light receiving component.

Abstract: The invention provides a curved non-invasive glucose monitoring module includes a substrate, a barrier structure, a light emitting element, a monitoring element and a transparent cover. The barrier structure, the light-emitting element and the monitoring element are all arranged on the substrate. The barrier structure forms a first space and a second space isolated from each other. The light emitting element is located in the first space, and the monitoring element is located in the second space. The transparent cover is combined with the barrier structure to close the first space and the second space. At least one of the substrate and the transparent cover is a curved structure.

Abstract: An infrared light sensing device includes a substrate, a light source module, a light sensing module, a barrier structure and a protective cover. The light source module, the light sensing module and the barrier structure are arranged on the substrate, and the barrier structure is used to isolate the light source module and the light sensing module. The protective cover is bonded to the barrier structure and includes a plate, a first bandpass optical film and a second bandpass optical film. The first bandpass optical film is disposed on the plate and faces the light source module, and the first bandpass optical film corresponds to a first infrared light spectrum range. The second bandpass optical film is disposed on the plate and faces the light sensing module, the second bandpass optical film corresponds to a second infrared light spectrum range located within the first infrared light spectrum range.

Abstract: The invention provides a biomedical detection photoelectric module, which includes a circuit substrate, a plurality of isolating barriers, a light-emitting unit, a photosensitive unit, and a light-guiding assembly. The light-guiding assembly provides a first optical element and a second optical element, respectively, corresponding to a light-emitting unit and a light-sensing unit. The first optical element has a first pattern layer to alter the emitting angle of the first light generated by the light-emitting unit. The second optical element has a second pattern layer to alter the incident angle of a second optical element entering the light-sensing unit. The first light is guided by the first optical element so that the energy of the first light is concentrated and incident on a predetermined area of a human's skin layer. The second light in the predetermined area is guided by the second optical element to enter the light-sensing unit.

Abstract: The invention provides a sidelight-type non-invasive glucose monitoring module, which includes a substrate, an sidelight-type light source assembly, an sidelight-type light sensing assembly and a blocking member. The sidelight-type light source assembly is arranged on the substrate and includes a light-emitting element and a first light-guiding element. The sidelight-type light sensing assembly is arranged on the substrate and includes a light-sensing element and a second light-guiding element. The blocking member is arranged between the sidelight-type light source assembly and the sidelight-type light sensing assembly to block the sidelight-type light source assembly from the sidelight-type light sensing assembly.

Abstract: The present invention provides a photodiode structure, which includes a chip, an electrode group, an electrode protection layer and a metal alloy band-pass optical film. The electrode group is arranged on the chip, and the electrode group includes a positive electrode and a negative electrode; the electrode protection layer is arranged on the chip and covers the electrode group; the metal alloy band-pass optical film is arranged on the electrode protection layer and includes a plurality of layered structures, and the plurality of layered structures includes at least two metal alloy material layers.

Abstract: The present invention provides a non-invasive flexible blood glucose detecting and sleep monitoring device for monitoring the sleep state and blood glucose state of the detected person. The non-invasive flexible blood glucose detecting and sleep monitoring device includes a detection module including: a substrate; a plurality of optical modules, each being an optical cover plates with a coating layer; retaining walls, being disposed on the substrate, and the retaining walls respectively establishing a first space and a second space with the substrate and the optical modules; a light emitting unit, being disposed in the first space; and the sensing unit, being disposed in the second space. The non-invasive flexible blood glucose detecting and sleep monitoring device further includes a flexible piezoelectric module for being placed on the detected person; and a detecting unit, being connected to the detection module and the flexible piezoelectric module.

Abstract: A method is provided forming an airtight structure of an electroacoustic device which includes a body shell composed of at least two half-shells and at least one airtight structure region. The method includes providing an automatic glue dispensing device for dispensing and pre-curing a photo-curing glue for one of the two half-shells, putting the half-shell into a photo-curing device to convert the photo-curing glue pre-cured completely into an elastomer, and combining the half-shell and the other one to have a pressing wall of the other half-shell to press the elastomer to form the airtight structure of the electroacoustic device, wherein the automatic glue dispensing device includes a glue dispensing head moving on a groove of the airtight region of the half-shell for dispensing the photo-curing glue and a pre-curing head continuously providing a curing light ray for pre-curing the photo-curing glue.

Abstract: A computing device for training a fully-connected neural network (FCNN) comprises at least one storage device; and at least one processing circuit, coupled to the at least one storage device. The at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: computing a block-diagonal approximation of a positive-curvature Hessian (BDA-PCH) matrix of the FCNN; and computing at least one update direction of the BDA-PCH matrix according to an expectation approximation conjugated gradient (EA-CG) method.

Abstract: A touch panel may include a substrate, a touch unit region and a covering layer. The touch unit region includes first electrode and a second electrode isolated from the first electrode. The covering layer covers at least one of the first electrode and the second electrode and has a touch surface. A distance between the touch surface and the first electrode or the second electrode ranges between 0.01 micrometers and 100 micrometers. A mutual capacitance value between the first electrode and the second electrode ranges between 0.1 pF and 10 pF when a touch has not occurred yet.

Abstract: According to embodiments of the disclosure, a substrate structure, a method for manufacturing the substrate structure, and a method for manufacturing an electronic device are disclosed. The substrate structure includes a carrier, a de-bonding layer, and a flexible substrate. The carrier has a top surface. The de-bonding layer contacts the carrier, wherein there is a first adhesion force between the de-bonding layer and the carrier. The de-bonding layer is prepared from a composition, and the composition includes at least one acrylate-based monomer and at least one acrylate-based oligomer, wherein the total number of acrylate groups in the acrylate-based monomer and the acrylate-based oligomer is greater than or equal to 3. The flexible substrate covers and contacts the de-bonding layer, wherein there is a second adhesion force between the de-bonding layer and the flexible substrate. The second adhesion force is greater than the first adhesion force.

Abstract: A secondary-side bucking and current-stabilizing flyback power converter adopts a dual-stage isolated circuit architecture and outputs a constant output current to drive a low-power LED module, and its primary stage adopts a flyback circuit architecture with a primary regulated voltage, and its secondary stage adopts of a buck circuit architecture of the current stabilizer, so that after the primary stage converts the constant voltage, the current stabilizer senses the load effect of the output current at the LED module to regulate the output cycle and maintain the total output of the output current constant and reduce the ripple amplitude, so as to achieve a non-strobe output result and improve the illumination effect of the LED module.

Abstract: A system for achieving non-interruptive data reconstruction is disclosed. The system includes a source storage, a target storage, a server, a traffic modeling unit and at least one data moving service unit. With the help of traffic modeling unit, a period of time of low access can be estimated. Data reconstruction (copying or moving) can be carried on during the period of time. Thus, non-interruptive data reconstruction can be done.