A device according to an embodiment includes an optical system employing the OCT, and tomographically visualizes the viscoelasticity of tissue of an object. The device includes an optical mechanism that guides light from a light source to the tissue of the object to scan the tissue, a loading device that applies deformation energy to the tissue, a control computation unit that computes tomographic distribution of the viscoelasticity of the tissue by controlling driving of the loading device and the optical mechanism and processing an optical interference signal from the optical system on the basis of the driving, and a display device that displays the viscoelasticity of the tissue in a form of tomographic visualization. The loading device is a non-contact loading device that loads acoustic radiation pressure in the tissue by outputting ultrasonic waves toward a focus point set in the object.

A system is described to create customized unique identification (UID) codes combined with customized printable optical or NFC sensors and to combine these unique sensors and unique IDs with unique environmental events, traceability, unique data from cell phones (including geolocation) and person-specific unique indicators such as biomarkers to create completely unique, low cost and proprietary printable genomic and environmental blockchain sensor networks for the Internet of Things (IoT), counterfeit identification, healthcare, pharmaceutical applications and small payment transactions worldwide.

A friction control device (44) is adapted to induce a lateral strain (or stretching) within a human tissue surface to which the device is applied, in order thereby to reduce the static friction between the device and the human tissue surface. The strain is induced by means of an actuator arrangement adapted to effect a relative separation of a plurality of contact surface regions (40) of the device, such that when said regions are pressed onto the receiving surface, the relative separation induces a strain in at least the region of the receiving surface falling between the locations of the applied regions. The extent of separation matches or exceeds the minimum extent necessary to overcome static friction.

The present invention relates to a method for diagnosing a degradation of esthetic qualities of the skin, based on a measurement of the level of expression of the gene encoding FLG2. The present invention also relates to a method for the cosmetic treatment of skin. The present invention also relates to a method for identifying a compound for reducing and/or slowing the degradation of esthetic quality of the skin, and a kit.

A skin diagnostic device is provided that includes a body including a coupling member positioned on one surface, the body being attached/detached to/from an electronic device including an image sensor by using the coupling member, an optical unit positioned in the body and including at least one lens, wherein the optical unit is configured to focus measurement light reflected from a target on the image sensor of the electronic device, and at least one light source unit positioned adjacent to the optical unit and configured to irradiate light toward the target, wherein the coupling member includes at least one magnetic body and an alignment member positioned adjacent to the magnetic body.

A system and method for the non-invasive measurement of tone, state of tension, biomechanical or viscoelastic properties of soft biological tissues includes a testing-end, an actuator arranged to apply a force to the testing-end, and a sensor to sense movement of the testing-end. A signal generating circuit supplies a control signal to the actuator so the biological tissues are subjected by the testing-end to a load, including means to adjust the signal provided by the signal generating circuit in accordance with the component of weight acting through the testing-end onto the biological tissue so that the load to which the biological tissue is subjected is constant. An impulse signal generating circuit supplies an impulse signal to the actuator so the biological tissue is subjected by the testing-end to a mechanical deformation. In use the soft biological tissue is subjected first to the constant load, and then to the impulse signal; and the consequent movement of the biological tissue is then registered.

An electronic apparatus and a method for providing skin inspection information thereof are provided. The method includes the following steps. If it is determined that current measurement information is received, a result assessment page showing a detection result of the current measurement information is displayed via a screen, to show whether the detection result achieves a skin goal via the result assessment page. A skin overview page is displayed in response to receipt of an operation performed on the result assessment page. A goal setting page is displayed via the screen in response to receipt of a first operation performed on the skin overview page, and setting of the skin goal is received via the goal setting page. A detail analysis page associated with one of skin parameters is displayed via the screen in response to receipt of a second operation performed on the skin overview page.

Methods and devices are disclosed to reduce tissue trauma when a physician retracts a patient's tissues for surgery. A device includes a tissue engager adapted to engage a patient's tissue, a control system adapted to control the tissue engager to deform the patient's tissue, and a sensor adapted to produce a first signal based on a status of the tissue engager. The control system is operatively associated with a motive source and the sensor. The control system is configured to receive the first signal based on the status of the at least one tissue engager, and control, in light of the first signal based on the status of the at least one tissue engager, the at least one motive source in order to control the motion of the at least one tissue engager. The motion of the at least one tissue engager may be an oscillating motion.

Devices, kits, systems and methods are described herein for treatment to skin, including but not limited to wound healing, the treatment, amelioration, and/or prevention of scars or keloids. Certain devices kits, systems and methods are used to select treatment parameters, devices or methods for treating skin in a location, zone, or region of skin having particular mechanical or other properties.

The present invention provides a skin care device which performs optical care and thermal care in one device and minimizes noise that may occur in the skin measurement sensor, the device comprising: a housing for forming an outer appearance; a heat transfer bracket disposed at one end of the housing; a light source unit mounted on one end of the housing; a light transfer bracket including a light permeable material and fixed to the housing to cover the light source unit; a skin measurement sensor extending through a first hole formed in the light transfer bracket to protrude outward; and a first substrate mounted with the light source unit and spaced from the skin measurement sensor.