Abstract: In one aspect, a system for in vivo stimulation of targeted tissues of a subject integrated in Exosome and/or stem cell therapies may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 400 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 10 to 3000 mW/cm2.

Abstract: In one aspect, a method for measuring cell metabolism through photobiomodulation comprising steps of receiving a broadband near-infrared spectroscopy (bbNIRS) image including one or more responding signals to light stimulation regarding a specific cell; extracting two or more turning points on one of the responding signals; extracting two or more threshold points on one of the responding signals; generating a first line by curve fitting to approximate the turning points on the responding signal and determining a slop of the first line; generating a second line by curve fitting to approximate the threshold points on the responding signal and determining a slop of the second line; and comparing the input images, the first line and the second line to determine a rate of cell metabolism of the specific cell.

Abstract: A system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source; a controller to control operation of the light source; a signal detecting unit and a processor configured to receive a signal from the signal detecting unit; analyze the signal and generate a feedback signal to the controller to control the light source until optimal results are obtained, wherein the detected signal is an electroencephalogram (EEG) signal, on which local peak frequencies are extracted and recorded periodically and repeatedly within a predetermined time frame before, during and after light stimulation, and the feedback signal is generated by comparing the local peak frequencies of before, during and after the brain stimulation to determine if brain synchronization occurs and sustains, and the feedback signal is generated.

Abstract: In one aspect, a method for measuring cell metabolism through photobiomodulation comprising steps of receiving a broadband near-infrared spectroscopy (bbNIRS) image including one or more responding signals to light stimulation regarding a specific cell; extracting two or more turning points on one of the responding signals; extracting two or more threshold points on one of the responding signals; generating a first line by curve fitting to approximate the turning points on the responding signal and determining a slop of the first line; generating a second line by curve fitting to approximate the threshold points on the responding signal and determining a slop of the second line; and comparing the input images, the first line and the second line to determine a rate of cell metabolism of the specific cell.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.

Abstract: A system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source; a controller to control operation of the light source; a signal detecting unit and a processor configured to receive a signal from the signal detecting unit; analyze the signal and generate a feedback signal to the controller to control the light source until optimal results are obtained, wherein the detected signal is an electroencephalogram (EEG) signal, on which local peak frequencies are extracted and recorded periodically and repeatedly within a predetermined time frame before, during and after light stimulation, and the feedback signal is generated by comparing the local peak frequencies of before, during and after the brain stimulation to determine if brain synchronization occurs and sustains, and the feedback signal is generated.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.

Abstract: An orthopedic insole may include at least one strength layer and at least one shock absorbing layer. In one embodiment, the strength layer may be relatively rigid and includes a heel portion and an arch portion, contoured to fit the plantar or bottom surface of the foot to provide arch support. The shock absorbing layer may include a plurality of shock absorbing cells such as recoverable honeycombs or any other negative stiffness structure with the capability to recover. A gait analysis that may include an individual's weight transfer trajectory may have to be conducted to determine the structure of the shock absorbing layer. The orthopedic insole may further include an adjusting layer to supplement the strength layer and the shock absorbing layer to make adjustment to the orthopedic insole if needed.

Abstract: Electric pole loppers are provided. An electric pole lopper includes a handle, a connecting pole and a pruning component which are connected in sequence, wherein the pruning component comprises a casing, a control mechanism and, connected in sequence, a motive power mechanism, a drive mechanism and a cutter set, wherein the motive power mechanism and the drive mechanism are disposed in the casing, the cutter set is disposed at that end of the casing which is remote from the motive power mechanism, a switch connected to the motive power mechanism is provided on the handle, and the control mechanism is connected to the drive mechanism; the drive mechanism is a worm gear/worm drive mechanism or a ball screw drive mechanism.

Abstract: Disclosed is a blade replacement apparatus of an electric instrument, which is used to replace blades connected by a bolt, the bolt extending along a first axis, the blade replacement apparatus comprising a nut that fits the bolt to fix the blade, a nut loosening/tightening member, a locking member, and an operating member, one of the nut loosening/tightening member and the operating member having a first matching portion, the locking member having a second matching portion, wherein the operating member is movable between an operating position and a non-operating position, the operating member allowing a user to perform an operation by hand without using any instruments; when the operating member is in the non-operating position, the first matching portion engages with the second matching portion, and the rotation of the nut loosening/tightening member around the first axis is obstructed by the locking member; when the operating member is in the operating position, the first matching portion is disengaged fro

Abstract: The present invention provides an electric pruner saw, comprising a motor (12), a wobble bearing (13) and a saw (14, 15), and further comprising a balancing component; the balancing component and saw vibrate at the same frequency in parallel directions, but the phases of vibration of the balancing component and saw differ by 180°, such that the opposite-phase vibration of the balancing component partially or completely offsets the vibration of the saw. Furthermore, the wobble bearing in the pruner saw is arranged at an upper side of the motor, such that a rotating rod of the pruner saw is located between the motor and a saw rod; thus, the wobble bearing is closer to the saw rod, so the length of a swing rod of the wobble bearing is shortened, and consequently the various components are arranged more compactly, thus reducing the volume of the pruner saw.

Abstract: The present utility model provides a reciprocating saw clamping device, the clamping device being mounted on a machine body of the reciprocating saw, close to a cutting saw blade located at a front end of the machine body of the reciprocating saw, and being configured to clamp an object to be cut when the reciprocating saw is performing a cutting operation, wherein the clamping device comprises a clamp and a clamp support, the clamp and clamp support being rotatably hinge-connected, and the clamping device is removably mounted on the machine body of the reciprocating saw by means of positioning structures which fit each other and are arranged on the clamp support and a housing of the reciprocating saw. The present utility model also provides a reciprocating saw having the clamping device. The reciprocating saw clamping device of the present utility model is not only structurally simple and convenient to operate, but can also satisfy cutting requirements of different sizes, with a larger range of operations.

Abstract: Disclosed in the present invention is an electric lopper, comprising a handle, a connecting pole and a pruning component which are connected in sequence, wherein the pruning component comprises a casing, a control mechanism and, connected in sequence, a motive power mechanism, a drive mechanism and a cutter set, wherein the motive power mechanism and the drive mechanism are disposed in the casing, the cutter set is disposed at that end of the casing which is remote from the motive power mechanism, a switch connected to the motive power mechanism is provided on the handle, and the control mechanism is connected to the drive mechanism; the drive mechanism is a worm gear/worm drive mechanism or a ball screw drive mechanism. The present invention is used for pruning bushes, branches, etc.

Abstract: In one aspect, a system for in vivo stimulation of targeted tissues of a subject integrated in Exosome and/or stem cell therapies may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 400 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 10 to 3000 mW/cm2.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.

Abstract: A system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source; a controller to control operation of the light source; a signal detecting unit and a processor configured to receive a signal from the signal detecting unit; analyze the signal and generate a feedback signal to the controller to control the light source until optimal results are obtained, wherein the detected signal is an electroencephalogram (EEG) signal, on which local peak frequencies are extracted and recorded periodically and repeatedly within a predetermined time frame before, during and after light stimulation, and the feedback signal is generated by comparing the local peak frequencies of before, during and after the brain stimulation to determine if brain synchronization occurs and sustains, and the feedback signal is generated.

Abstract: In one aspect, a method for measuring cell metabolism through photobiomodulation comprising steps of receiving a broadband near-infrared spectroscopy (bbNIRS) image including one or more responding signals to light stimulation regarding a specific cell; extracting two or more turning points on one of the responding signals; extracting two or more threshold points on one of the responding signals; generating a first line by curve fitting to approximate the turning points on the responding signal and determining a slop of the first line; generating a second line by curve fitting to approximate the threshold points on the responding signal and determining a slop of the second line; and comparing the input images, the first line and the second line to determine a rate of cell metabolism of the specific cell.

Abstract: In one aspect, a system for in vivo and transcranial stimulation of brain tissue of a subject may include at least one light source, a controller to control operation of the light source, a signal detecting unit and a processor configured to receive signals from the signal detecting unit, analyze the signals and generate a feedback signal to the controller to control the light source until optimal results are obtained. In one embodiment, the light source is a laser instrument and the wavelength can range from 800 to 1100 nm. In another embodiment, the irradiance of the laser instrument can range from 50 to 1000 mW/cm2.