620 results about "Skin temperature" patented technology

A system and method for monitoring vital signs and capturing data from a patient remotely using radiotelemetry techniques. The system is characterized by a cordless, disposable sensor band with sensors form measuring full waveform ECG, full waveform respiration, skin temperature, and motion, and transmission circuitry for the detection and transmission of vital signs data of the patient. A small signal transfer unit that can either be worn by the patient, e.g., on his or her belt, or positioned nearby receives data from the sensor band, which it then forwards by e.g., radio transmission to a base station that can be located up to 60 meters away. The base station receives data transmissions from the signal transfer unit and is designed to connect to conventional phone lines for transferring the collected data to a remote monitoring station. The base station may also capture additional clinical data, such as blood pressure data, and to perform data checks. Patient safety is enhanced by the ability of the base station to compare clinical data, e.g., ECG, against given profiles and to mark events when appropriate or when the base station is programmed to do so. Such events are indicated to the physician and could be indicated to the patient by reverse transmission to the signal transfer unit. A remote monitoring station allows the presentation and review of data (including events) forwarded by the sensor band. ECG analysis software and a user-friendly graphical user interface are provided to remotely analyze the transmitted data and to permit system maintenance and upkeep. The system of the invention has useful application to the collection of patient clinical data during drug trials and medical testing for regulatory approvals as well as management of patients with chronic diseases.

A system and method for monitoring health parameters and capturing data from a subject. The system is characterized by a cordless, disposable sensor band with sensors for measuring full waveform ECG, full waveform respiration, skin temperature, and motion, and a connector which accepts a memory card or a smart card for storage of the measured data. After a predetermined period of time, such as when the sensor band is removed, the memory card or smart card is removed and inserted into a monitoring device which reads the stored health parameter data of the subject. The monitoring device includes a base station that includes a memory / smart card reader and is connected to conventional phone lines for transferring the collected data to a remote monitoring station. The base station may also capture additional clinical data, such as blood pressure data, and to perform data checks. Subject safety is enhanced by the ability of the base station to compare clinical data, e.g. ECG, against given profiles and to mark events when appropriate or when the base station is programmed to do so. The remote monitoring station allows the presentation and review of data (including events) forwarded by the sensor band. ECG analysis software and a user-friendly graphical user interface are provided to remotely analyze the transmitted data and to permit system maintenance and upkeep. In alternative embodiments, a smart card includes the sensor band's electronics and / or signal transmission circuitry in conjunction with a portable data logger so that the electronics may be reused from one disposable sensor band to the next without limiting the patient's range of movement. The system of the invention has useful application to the collection of subject clinical data during drug trials and medical testing for regulatory approvals as well as management of subjects with chronic diseases.

A system for detecting symptoms of hypoglycemia in a diabetic individual. The system comprises a temperature sensing system, a conductance sensing system, a trending system, a threshold system, and an alarm system. The temperature sensing system produces a temperature signal representative of a skin temperature of the diabetic individual. The conductance sensing system produces a conductance signal representative of a level of perspiration of the diabetic individual. The trending system produces a slope estimate representative of a rate of change of the skin temperature over a predetermined interval in response to the temperature signal. The threshold system produces a slope threshold representative of a hypoglycemic decline in skin temperature observed over the predetermined interval in response to the conductance signal and to the temperature signal. The alarm system produces an indication of the presence of hypoglycemic symptoms in response to the slope estimate and the slope threshold.

A computerized system for scheduling at least one daily activity of a user. One or more sensors are attached to the body of the user which monitor one or more physiological parameters of the body Physiological data is produced representative of the one or more physiological parameters during a time period. A processing unit attached to memory, is programmed for the scheduling of activities based on the physiological data and on previously stored values. The scheduled activities preferably include eating of a meal, exercise or rest of the user. Physiological parameters include skin temperature and / or heart rate. When the scheduled daily activity is eating of a meal, the processing unit is preferably programmed to recommend to the user to eat the meal during a portion of the time period when the skin temperature is rising or when the heart rate is falling.

An improved optical system for treatment of disorders of the skin, especially vascular lesions, such as Port Wine Stains. The system irradiates the skin with radiation at a predetermined wavelength and cools the skin during a predetermined time interval in coordination with delivery of the radiation. The absorption of the radiation by the skin and the change in temperature of the skin is monitored by the system and the operation of the radiation delivery system is controlled to optimize treatment of the vascular lesion. The source of irradiation is an arc lamp and the cooling system delivers a cooling gas to a lens in contact with the skin. The cooling gas can be carbon dioxide, freon, or any other appropriate gas. The lens used has a high heat conductivity and may be formed of sapphire.

Method of an arrangement for monitoring sleep in a subject by measuring within a prescribed interval skin temperature of a predetermined region of the subject's body and a motion sensor for sensing motion of the subject, comparing the measured skin temperature of the predetermined region with a predetermined temperature threshold, and classifying the subject as being asleep or awake based on whether the skin temperature of the predetermined region is above or below the temperature threshold and on the motion data. In alternative aspects the invention relates to methods of and arrangements for manipulating sleep, as well as monitoring or manipulating alertness.

A biometric device configured to be attached to a portion of a body of a user measures biometric data of the user. The device includes an optical emitter, a wavelength filter, an optical sensor and a processor, for sending a light to the body of a user, receiving light received from the user, filtering and processing it to measure biometric data of the user, including for example, heart rate and blood flow rate. In addition, the biometric device may include other sensors, such as a galvanic skin response sensor, an ambient temperature sensor, skin temperature, motion sensor, etc., to enable the biometric device to measure arousal or conductivity changing events, ambient temperature, user temperature and motion associated with the user. Additionally, information from each sensor may be used to further filter noise in one or more signals received by the sensors to provide biometric data to the user.

Systems and methods for noninvasive skin treatment and deep tissue tightening are disclosed. An exemplary method and treatment system are configured for controlled thermal energy delivery to treat subdermal regions of the skin. First, specific control parameters such as power, skin temperature, and ultrasound frequency are chosen so as to provide localized delivery of ultrasound to a region of interest. Then, ultrasound energy is delivered at a frequency, depth, distribution, timing, and energy density to achieve the desired therapeutic effect.

The present invention concerns a method and a kit, for the treatment of a selected area of the skin and / or subcutaneous tissue, and in particular for the cosmetic treatment of skin conditions such as regional fat deposits including cellulite. The method comprises heating the selected area to a sustained skin temperature of about 32 to about 50° C. for a desired period of time, using a device comprising either a heat source capable of conductively heating the selected area or, alternatively, an infra-red source for emitting infra-red with a wavelength from about 700 nm to about 15000 nm. The method also comprises administering, simultaneously or sequentially in either order, a composition containing an active agent selected from the group comprising a skin active, a nutrient absorption suppressant or a thermogenic agent, preferably a metabolic stimulating agent, more preferably a lipolytic agent, or a mixture thereof, the composition being either a topical composition for application to the selected area, or an area adjacent thereto, or an oral composition.

A system and method for treating skin. The system comprises a source of radiation for irradiating the skin and a pair of electrodes for applying a voltage to the skin. An electrical meter measures an electrical response of the skin to the applied voltage. A processor adjusts a parameter of the radiation based upon the measured response. The invention may be used to control skin temperature during thermal treatment.

Heat and light is generated and applied to the skin of a user with multiple arrays of light emitting devices. The amount of heat and light energy delivered from each array is separately controlled relative to a predetermined dose of light energy and a temperature of the skin adjacent to each array. The arrays may be flexibly connected to conform to the contours of a significant area the user's anatomy.

A method and apparatus for noninvasive glucose measurement measures glucose indirectly from the natural response of tissue to variations in analyte concentration. The indirect measurement method utilizes factors affected by or correlated with the concentration of glucose, such as refractive index, electrolyte distribution or tissue scattering. Measurement reliability is greatly improved by stabilizing optical properties of the tissue at the measurement site, thus blood perfusion rates at the sample site are regulated. Perfusion is monitored and stabilized by spectroscopically measuring a control parameter, such as skin temperature, that directly affects perfusion. The control parameter is maintained in a range about a set point, thus stabilizing perfusion. Skin temperature is controlled using a variety of means, including the use of active heating and cooling elements, passive devices, such as thermal wraps, and through the use of a heated coupling medium having favorable heat transfer properties.

A temperature sensing device including at least a first contact type temperature sensing element determines body core temperature of a warm blooded animal or human based on an estimated skin temperature of the patient which is computed based on temperature measurements obtained by the first sensing element.

The present application discloses a a baby health monitoring device comprising a skin temperature sensor connected to a microprocessor for mathematically converting the sensed temperature to corrected skin temperature; a movement sensor; a display screen for indicating condition of baby; and a means for communicating with a computer.

The present invention relates to assessing and measuring vascular and endothelial function. A vasostimulant is provided to a patient to stimulate hemodynamic activity in a selected extremity and vascular function is assessed by monitoring a change in a blood flow, skin temperature and / or blood oxygen content at the selected extremity and assessing the patient's vascular function based upon the monitoring.

An ambulatory skin temperature monitoring system. A flexible band is attachable to a patient. The flexible band also secures an electronics assembly that comprises the various electrical components that monitor and operate the ambulatory skin temperature monitoring system. At least one skin temperature sensor is positioned so that it is in contact with the patients skin when the system is attached to the patient. There is also an ambient temperature sensor positioned on the top surface of the electronics assembly housing for measuring and contrasting the ambient temperature to the skin temperature. The electronics assembly positioned within generally comprises a power source and a micro-controller. The micro-controller is coupled with the skin temperature sensor and the ambient temperature sensor. The micro-controller also includes a memory unit for storing temperature data obtained from the skin temperature sensor and the ambient temperature sensor. Data from the system can be downloaded to a remote computing device where software can plot the data in a desired format for analysis by medical personnel.

The invention relates to an indoor temperature adjusting method based on user human body temperature change. According to the indoor temperature adjusting method, the indoor temperature is adjusted through an air conditioner; a user wears a wearable body temperature analysis device; the wearable body temperature analysis device can collect the human body skin temperature, analyze the cold and hot sensing degree of the human body on the indoor environment temperature and send an analysis result to an air conditioner temperature control module; the air conditioner temperature control module can automatically adjust the set temperature of the air conditioner according to the cold and hot sensing degree of the human body and the indoor environment temperature, and therefore the indoor environment temperature can be adjusted automatically. Accordingly, the human body can always be at a comfortable temperature, so the possibility that the user gets ill under the condition of being too cold or too hot is reduced; in addition, the air conditioner can operate in a low-power-consumption state for a long time, and the purpose of energy conservation is achieved. The method solves the problems that the set temperature of an existing air conditioner needs to be adjusted manually, the power consumption is high and the user will get ill due to the fact that the user is in the too cold or too hot environment.

A method and system for heating a skin area surface of an individual from an initial temperature to a treatment temperature in a treatment time period exceeding 0.5 sec, where the treatment temperature is in the range of 40°-60° C. An RF generator provides a continuous wave RF voltage energy or a quasi-continuous wave RF voltage across first and second electrode, where at least the first electrode is associated with an applicator that is displaced over the skin surface. The system further includes a skin temperature measuring device or an applicator displacement speed measuring device; and a CPU that monitors a skin temperature or an applicator displacement speed. The CPU turns off the RF energy when the skin temperature is above a predetermined temperature or the displacement speed of the applicator is below a predetermined speed, in order to prevent overheating of the skin.

Methods and apparatus are provided for determining individual vascular responses by employing iontophoresis to deliver vasoactive compounds to local area and determining resultant changes in blood flow by measuring changes in skin temperature as a correlate of local blood flow. The invention further provides methods and apparatus for assessing vascular reactivity in individuals under ambulatory conditions and relating stress responses to vascular reactivity.

A relaxation system includes a main body and a remote controller. In the relaxation system, a user grasps the remote controller for manipulation, whereby information on the health condition of the user is acquired. The information on the health condition means, for example, voice data based on the voice of the user, physiological data representing the skin temperature of the user, pulse rate, GRS, and the like, and question and answer data involving the identification number of the user, age, height, weight, and mental condition. The main body estimates physical and mental conditions of the user based on the acquired information on the health condition for controlling the operation of kneading balls.

Devices and methods are disclosed which relate to an electronic device having a human stimulus receptor which, when activated, suspends activation of a screensaver. The screensaver is activated to conserve the power and life of the electronic device. When latently viewing the electronic device, however, the human stimulus receptor is activated. A countdown starts counting down a pre-determined amount of time once the human stimulus receptor is inactive. At the expiration of the countdown, the screensaver is activated. The human stimulus receptor responds to skin conductivity, natural muscular twitch, pulse, skin temperature, and / or eye movement. Only when the electronic device no longer detects any of these human stimuli will the countdown begin. A user may set the predetermined amount of time.

A system and method is provided for thermally conditioning a sleep environment and managing skin temperature of a user. The thermal system and method include a heat exchanger and controller configured to conductively cool and heat a user during sleep and at other times. The thermal system provides for management of skin temperature of a user, such that sleep comfort and / or quality may be improved, and the thermal system may take advantage of reduced sensitivity of a sleeper during deep sleep for more aggressive thermal manipulation of skin temperature via the conductive cooling. In addition, the thermal system may be further configured to condition the sleep environment when the user is not present based on pre-sleep or maintenance considerations.

A finger temperature detecting device includes a carrier, a finger-attachment member extending from the carrier, a temperature sensor mounted in the carrier for detecting skin temperature of the finger of the wearer, and means of informing the wearer when a temperature value detected by the temperature sensor is larger than the precedent reading. The finger-attachment member is wearable on a finger of a wearer and allows adjustment in wearing tightness to securely retain appropriate attachment of the temperature sensor to a fixed survey area of finger surface. In another embodiment, a seat extends from the carrier for receiving the temperature sensor.

A method and apparatus for measuring the biological condition of an animal by acquiring and analyzing its biological signals are provided. The biological signals from skin temperature, a photoplenthysmogram (PPG), an electrocardiogram (ECG), electrodermal activity (EDA), an electromyogram (EMG), and an electrogastrogram (EGG) are detected using a biological signal detection unit which is attached to the animal's skin. Feature vectors, including the mean heart rate of the photoplenthysmogram and its standard deviation, the very low frequency, low frequency, and high frequency components of heart rate variability, the frequency and mean amplitude of skin conductance responses, and the mean and maximum skin temperatures, are extracted from the detected biological signals. The biological condition, including needs and emotions, of the animal as to whether or not the animal feels hunger or fear, how much the animal is stressed, or whether or not the animal needs to have a bowel movement, is determined using a pattern classifier which has learned reference vectors, which reflect the behaviors, needs, and emotions of different kinds of animals for various biological conditions and are stored in a predetermined database. Therefore, the biological condition of the animal can be determined through instrumental communication, not through human languages, and the breeding of pets can be efficiently managed.

A device for measuring the capillary refill time of a patient and for use in determining an amount of oxygen in the blood of the patient has light sources and a light detector for use in carrying out pulse oximetry. The device also includes an actuator for applying pressure to a selected portion of the body of the patient, such as the nail bed of a finger or toe of the patient, to cause the removal of blood from the nail bed when actuated. A timer commences a time interval with a deactuation of the actuator. The deactuation relieves the pressure applied by the actuator to the body portion of the patient and allows blood to return to the portion. The timing interval is terminated by a reduction in the amount of light received by the light detector as a result of the restoration of blood to the body portion. The time interval so determined comprises an indication of the capillary refill time of the patient. Compensation in accordance with a skin temperature measurement may be provided.

The invention discloses wireless intelligent multi-physiological-parameter health supervision wrist type equipment. Electrocardio collecting equipment, a reflecting type photoelectric sensor, a temperature sensor and an inertial sensor are arranged on a wrist watch, so that the heart rate, blood oxygen, the pulse rate, skin temperature, moving speed and blood pressure parameters are displayed. The obtained parameters are sent to intelligent equipment for storing through a wireless module. During blood pressure parameter measuring, the linear relation principle existing in blood pressure and pulse wave transmission time is used, and a traditional sleeve type blood pressure measuring method is not used.

A patient carestation for providing care to a patient including at least one environmental sensor sensing information concerning the environment surrounding the patient and providing electronic signals indicative of that environment. There are also physiological sensors sensing information relating to physiological conditions of the patient other than skin temperature and providing electronic signals indicative of physiological conditions of the patient. There may also be therapeutic sensors providing data based on therapy administered by peripheral apparatus and an input receiving patient information. A signal processor receives the signals from the physiological sensors, the environmental sensor, the therapeutic sensor and the patient information input and combines those signals into an integrated combination of signals for use by the caregiver. The integrated combination of signals can be used in a smart alarm or to generally appraise the caregiver at a central location as to the status of the patient.

The invention discloses an airplane infrared radiation and atmospheric transmittance modeling method, belonging to the field of airplane infrared radiation modeling and simulation in computer simulation. The modeling method comprises the following steps of: firstly acquiring an airplane infrared radiation intensity interface, establishing an airplane surface skin temperature model by integrating surrounding environmental radiation, and calculating airplane surface skin infrared radiation intensity according to an area model; and then establishing an engine effuser infrared radiation intensity model; and finally establishing an plume input parameter model and plume temperature model and calculating plume infrared radiation intensity. After acquiring an airplane zero-distance infrared radiation intensity model, the invention adopts software Modtran4 to establish a transmission radiation model of infrared radiation in an atmospheric environment to acquire atmospheric transmittance and further obtain an infrared radiation intensity signal reaching an sensor terminal. In the modeling method, the models are simple, and experiment data accords with real conditions. The modeling method can be applied to platform infrared scene generation and infrared target detection platforms easily.