Salutron, Inc.

Lg Innotek Co., Ltd.

Samsung Electronics Co., Ltd.

Cvc Products, Inc.

Cvc, Inc.

Futurechem Co., Ltd

Other

Jung Hyun Plant Co., Ltd.

Lee, Yong Jin

Yong Jin Lee

Mehrdad M Moslehi

Kyoung Hoon Chai

Young Sun You

Young Jin Noh

Dong Youl Lee

Cheol Jang

Hyeong Min Kim

Sun Young Lee

Ji Sun Yun

Eddy Hui

Sang Young Lee

Min Hwan Kim

Gyu C Kim

Dae Yoon Chi

Sergey Belikov

Kyo Chul Lee

Byoung Se Lee

Xiangqun Chen

So Young Chu

Bong Jun Park

Hyeon Jin Jeong

Ahmad Kermani

Young O Kim

Duk M Yi

Jalil Kamali

Kaiping Chen

Robert McClain

Taeho Kim

Cecil J Davis

Ajit P Paranjpe

Mi Hyun Kim

Hwan Shim

Seung-Eun Lee

Dong Min Kim

Hyunsu Kim

Dawoon Jung

Lino A Velo

William J Messner

Nam Gyu Kim

Kwang Yong Jin

Jeahyuck Lee

Eungi Min

Hyun Su Hong

Sang Moo Lim

Chor Kuen Eddy Hui

Wonkyu Lee

Ji Ae Park

Buu Chau

Sang Beom Nam

Sun Hong Yoon

Woon Jung Jung

Chang Ken Lee

Francis Uy

Ran Ji Yoo

Leo Bellontindos

Junnifer Tumanda

Dong Kyoung Lim

Jin Bok Chang

Jhovenden Baroro

Seung Eun Lee

Jong Ho Park

Hyun Seok Shin

In Ho Yun

Byung Man Lee

The present invention relates to a pharmaceutical composition for diagnosing and treating prostate cancer, capable of targeting PSMA, and a compound provided by one aspect of the present invention has a glutamine-urea-lysine compound to which a radioactive metal-coupled chelator is structurally coupled and to which an aryl group that can additionally bind to PSMA protein is coupled. Coupling between the glutamine-urea-lysine compound and the chelator includes a polar spacer so as to serve the role of reducing in vivo nonspecific coupling and exhibit an effect of being rapidly removed from vital organs, but not from prostate cancer. These characteristics lower the radiation exposure, which is caused by a therapeutic radioisotope-coupled compound, to normal tissue and organs, and thus reduce side effects. In addition, a compound that contains a phenyl group having a coupling force with albumin has an increased residence time in the blood, thereby becoming more accumulated in prostate cancer.

PSMA-targeted radiopharmaceutical for diagnosing and treating prostate cancer

Various embodiments provide an electronic device and a method, the device comprising: a capacitive sensor, a heart rate sensor including at least one light-emitting unit, a first light receiving unit, and a second light receiving unit; and a processor, wherein the processor is configured to: measure capacitance for a user wearing the electronic device by using the capacitive sensor; emit light by using the light-emitting unit according to the capacitance; measure a first amount of light which is said light reflected by the user's body tissue through the first light receiving unit, and a second amount of light which is said light reflected by the body tissue through the second light receiving unit; determine that the electronic device is worn by the user when at least one amount of light of the first amount of light and the second amount of light satisfies an amount of light in a specified range; and determine that the electronic device is detached from the user when the first amount of light and the second amount of light do not satisfy the amount of light in the specified range. Also, other embodiments are possible.

Method for detecting wear using plurality of sensors and electronic device implementing same

Various embodiments of the present invention relate to: an electronic device capable of measuring illuminance by using an optical sensor and providing information on the measured illuminance to a user; and an operating method therefor. The electronic device according to various embodiments of the present invention comprises: a light emitting unit; a sensor having a light receiving unit; and a processor, wherein the processor is set so as to: sense a first illuminance outside the electronic device by using the sensor; emit light by using the light emitting unit when the first illuminance belongs to a predetermined range; confirm whether an external object is nearby by using the sensor based on at least the light emitted using the light emitting unit; determine the first illuminance as the illuminance outside the electronic device when the external object is not nearby; and estimate a second illuminance corresponding to the first illuminance by using a selected method based on at least context information related to the electronic device when the external object is nearby.

Electronic device for measuring illuminance, and operating method therefor

An electronic device is provided that includes a display, a biometric sensor, a motion sensor, a communication circuit configured to receive a signal for obtaining information related to a location of the electronic device, and a processor electrically connected with the display, the biometric sensor, the motion sensor, and the communication circuit, wherein the processor is configured to identify repeated activities related to the user, which follow a lapse of time, based on motion information obtained according to the lapse of time by using the motion sensor and location information obtained according to the lapse of time by using the communication module, calculate a stress index of the user corresponding to the repeated activities based on biometric information obtained by using the biometric sensor, and provide at least one activity of the repeated activities and a stress index corresponding to the at least one activity.

Electronic device and method for providing stress index corresponding to activity of user

The present invention relates to an 18F-labelled compound, and a use thereof. The compound selectively binds to a prostate-specific membrane antigen (PSMA), and enables the acquisition of clear prostate cancer images in a short time when used in positron emission tomography (PET).

18F-labelled compound for prostate cancer diagnosis, and use thereof

Provided is a touch panel. The touch panel includes a substrate and an electrode member disposed on the substrate. The electrode member includes a base material for electrode having first and second surfaces opposite to each other, a first electrode disposed on the first surface, and a second electrode disposed on the second surface.

Touch panel and method for manufacturing electrode member

Technology is described for a wearable sensor system including an accelerometer and a PPG optical sensor having light processing elements including at least one photodetector in at least one linear configuration sharing an axis of orientation with the accelerometer. Heart rate measurements determined from reflected light detected by a photodetector of the light processing elements in a linear configuration are co-sampled with accelerometer measurements for one of its axes sharing its orientation with the linear configuration, thus providing per axis measurements which provide more precise data points for more easily compensating for motion artifacts in heart rate data. A wrist wearable biometric monitoring device is also described which embodies the wearable sensor system and performs active motion artifact compensation.

Sensor system for heart rate measurement per axis of shared orientation

An integrated sensor module includes one or more packaged light source semiconductor devices and one or more packaged light detector semiconductor devices mounted to a top surface of a substrate. A pre-molded cover structure includes a portion molded from an opaque molding compound and a further portion molded from a light transmissive molding compound. For each of the packaged light source and light detector semiconductor devices, the pre-molded cover structure includes a pre-molded cavity covered by a window formed of the light transmissive molding compound. The pre-molded cover structure is attached to the substrate such that each of the packaged light source and light detector semiconductor devices fits within a respective cavity, and such that a barrier formed of the opaque molding compound is positioned between each packaged light source semiconductor device and light detector semiconductor device. The module can also include additional sensors and/or electrodes for use by sensors.

Integrated sensor modules

Provided is a method for manufacturing a touch panel. In the method, a substrate is prepared, a transparent electrode is formed on the substrate, an interconnection electrode material is applied to the substrate by printing, an interconnection electrode is formed by drying the interconnection electrode material, and a circuit board is disposed on the interconnection electrode.

Touch panel and method for manufacturing the same

An apparatus selectively attaches a physiologic sensor pod to an article of apparel or clothing, wherein the sensor pod includes a housing having a top surface, a bottom surface, a peripheral surface, and a groove extending around the peripheral surface. In an embodiment, the apparatus comprises an elastic ring having an inner circumference slightly smaller than an outer circumference of the groove in the outer circumference of the sensor pod. The apparatus can also include a slit extending from an outer circumference of the elastic ring toward, but not all the way to, the inner circumference of ring, wherein a portion of fabric is insertable into the slit, at which point, a peripheral portion of the elastic ring can be sewn or otherwise attached to the fabric. In another embodiment, the adaptor includes a support ring adapted to be sewn to the elastic ring with a portion of fabric therebetween.

Apparatus for selectively attaching physiological sensor pod to different types of wearable apparel, and wearable apparel including the same

A physiologic sensor pod comprises a housing, and first and second electrodes on a bottom surface of the housing and spaced apart from one another. Within the housing is a battery, a battery charging circuit, an electrocardiogram (ECG) sensor circuit powered by the battery and adapted to sense an ECG signal, and a reset detection circuit. The battery charging circuit is adapted to charge the battery when the first and second electrodes of the physiologic sensor pod are placed in contact with first and second electrical contacts of a charging unit. The ECG sensor circuit is adapted to obtain an ECG signal while the first and second electrodes are placed against a user's chest. The reset detection circuit is adapted to output a reset signal, which causes the physiologic sensor pod to be reset, when a voltage between the first and second electrodes is greater than a reset threshold level.

Physiological sensor pod with reset circuit

A physiologic sensor pod comprises a housing including first and second electrodes on a bottom surface thereof, and a third electrode on a top surface thereof. Within the housing is a battery, a battery charging circuit, an ECG sensor circuit, switch circuitry, and a controller adapted to control at least a portion of the switch circuitry. When the switch circuitry is in a first configuration the first and second electrodes are connected to the battery charging circuit. When the switch circuitry is in a second configuration, the first and second electrodes are connected, respectively, to first and second inputs of the ECG sensor circuit. When the switch circuitry is in a third configuration, one or both of the first and second electrodes is/are coupled to a first input of an ECG sensor circuit and the third electrode is coupled to a second input of the ECG sensor circuit.

Physiological sensor pod and charging unit

The touch panel includes a first substrate and a second substrate spaced apart from each other; a position detecting electrode on at least one of the first and second substrates; a pressure detecting electrode on a bottom surface of the first substrate; a wire connecting the position detecting electrode to a substrate; and an intermediate layer being elastically deformed such that a thickness of the intermediate layer is varied.

Touch panel including an elastic intermediate layer

A touch panel according to the embodiment includes a substrate including an effective area and a dummy area surrounding the effective area; a transparent electrode on the substrate; and an outer dummy layer on the dummy area, wherein the outer dummy layer comprises a piezoelectric material.

Touch panel comprising a piezoelectric material

Growing community of inventors

Seoul, South Korea

Yong Jin Lee