Samsung Electronics Co., Ltd.

Skhynix Inc.

Seung-min Lee

Jae-geol Cho

Seong-je Cho

Kwang-bok Kim

Chul-ho Cho

Sun-tae Jung

Jeong-gun Lee

Sun-Tae Jung

Hyoung-seon Choi

Chul-Ho Cho

Young-Kyu Cho

Sung-Soo Kim

Kang-ill Seo

Jae-Seung Hwang

Jong-In Lee

Jea-Hyuck Lee

Young-jae Oh

Min-Chull Paik

Chang-Won Jang

Won-Ha Choi

In-Jo Jeong

Jae-Min Cha

Seong-Wook Jo

Seong-Je Cho

Hyoung-Seon Choi

A wearable body composition analyzer according to various embodiments of the present disclosure may include an induction part for inducing secretion of bodily liquid while being in contact with a body part, a collection part that collects the bodily liquid secreted, a sensor part that detects a body composition from the bodily liquid collected, and a wearable part to which the induction part and the collection part is detachably attached, wherein the wearable part may be worn on a body. The above-described wearable body composition analyzer may be implemented variously according to embodiments.

Sensor module and wearable body composition analyzer including same

Disclosed is a glucose measuring apparatus including a pressure measurer having an elastic part or a pressure sensor, that measures a pressure applied to an object, a film that comprises a first optical waveguide configured to be close to the object, a near infrared ray (NIR) irradiator that irradiates an NIR to the first optical waveguide if the measured pressure is greater than or equal to a preset value, an NIR receiver that receives an attenuated total reflection NIR (ATR-NIR) from the first optical waveguide, and an analyzer that measures a blood glucose level based on the ATR-NIR, wherein the film is an independent module that can be combined with and separated from the glucose measuring apparatus.

Glucose measuring apparatus and method

Methods and apparatuses for blood glucose measurement are provided. A first glucose concentration in a body fluid of a user is detected based on a first measurement interval. A first blood glucose level of the user is determined based on the first glucose concentration. A glucose concentration measurement interval is changed from the first measurement interval to a second measurement interval according to an occurrence of an event. A second glucose concentration in the body fluid is detected based on the second measurement interval. A second blood glucose level of the user is determined based on the second glucose concentration.

Blood glucose measurement apparatus and blood glucose measurement method thereof

A biometric information measuring sensor is provided that includes a base comprising a plurality of bio-marker measuring areas and a plurality of electrodes. Each of the plurality of electrodes is disposed on a respective one of the plurality of bio-marker measuring areas, and each of the plurality of electrodes includes a working electrode and a counter electrode spaced apart from the working electrode. The biometric information measuring sensor also includes a plurality of needles. Each of the needles is disposed on a respective one of the plurality of electrodes. Two or more of the plurality of needles have different lengths.

Biometric information measuring sensor, biometric information measuring system, and method of measuring biometric information using the sensor

Disclosed is a wearable electronic device including a body portion wearable on a human body, a circuit portion mounted on the body portion, and a sensor portion contacting the human body to measure a bio signal, wherein the sensor portion is detachably coupled to the body portion.

Wearable electronic device

A blood glucose measurement apparatus includes: a control unit configured to determine a user's blood glucose level based on a concentration of body fluid secreted from the user; and a biometric information acquisition unit configured to acquire biometric information indicating a status of a user's autonomic nervous system. The control unit is configured to correct the determined blood glucose level based on the biometric information.

Noninvasive blood glucose measurement method and apparatus

An electronic device is provided. The electronic device includes a first antenna, a second antenna, a transmission/reception path unit, a first reception path unit, a second reception path unit including a low noise amplifier (LNA), a signal path selection unit configured to connect each of the first antenna and the second antenna to the transmission/reception path unit, the first reception path unit, or the second reception path unit, and a radio frequency integrated circuit (RFIC) module or a processor including the RFIC module configured to control the signal path selection unit to have a first state in which the first antenna is connected to the transmission/reception path unit and the second antenna is connected to the second reception path unit or control the signal path selection unit to have a second state in which the first antenna is connected to the first reception path unit and the second antenna is connected to the transmission/reception path unit.

Electronic device and antenna control method thereof

A semiconductor device may include a memory core including a data cell region and a parity cell region, a parity calculation logic configured for generating a parity from data received by the parity calculation logic, and an error correcting logic configured for outputting error-corrected data by using data that is output from the data cell region and a parity that is output from the parity cell region.

Semiconductor device performing error correction operation

A method for manufacturing a non-volatile memory device including a self-aligned gate structure, and a non-volatile memory device manufactured by the same method, are provided. In the method for manufacturing a non-volatile memory device, a tunnel dielectric layer is formed on a semiconductor substrate. First floating gate patterns are formed on the tunnel dielectric layer. Mold patterns are formed on the first floating gate patterns to selectively expose predetermined portions of the first floating gate patterns. Floating gates are formed by removing the exposed portions of the first floating gate patterns using the mold patterns as a mask. Interlayer dielectric layer patterns are formed for insulating the floating gates from one another by filling gaps between the mold patterns. The mold patterns exposed between the interlayer dielectric layer patterns are formed using the interlayer dielectric layer patterns as an etching mask. A dielectric layer is formed on the floating gates exposed by the removal of the mold patterns, between the interlayer dielectric layer patterns. Control gates are formed, aligned with the floating gates, by filling gaps between the interlayer dielectric layer patterns on the dielectric layer.

Non-volatile memory device having self-aligned gate structure and method of manufacturing same

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Seoul, South Korea

Seung-min Lee