A charging station for providing power to a physiological monitoring device can include a charging bay and a tray. The charging bay can include a charging port configured to receive power from a power source. The tray can be positioned within and movably mounted relative to the charging bay. The tray can be further configured to secure the physiological monitoring device and move between a first position and a second position. In the first position, the tray can be spaced away from the charging port, and, in the second position, the tray can be positioned proximate the charging port, thereby allowing the physiological monitoring device to electrically connect to the charging port.

A smart watch comprises a watch head and a watch strap. The watch head comprises: a first electrode for contacting skin of a watch-wearing wrist; a second electrode for contacting skin of a non-watch-wearing wrist, wherein both the first electrode and the second electrode are electrically connected with a main control unit of the smart watch, so that the main control unit calculates an electrocardiogram according to bioelectric signals detected by the first electrode and the second electrode; and an air bag for contacting the skin of the watch-wearing wrist, wherein the air bag is respectively connected with an air pump and a pressure sensor, and the pressure sensor is connected with the main control unit, so that the main control unit calculates blood pressure according to a detection signal of the pressure sensor.

A system for using an oximeter to provide blood pressure readings relies on a comparative interface between readings of a patient's blood flow waveform (oximeter) and blood pressure (sphygmomanometer) in his/her vasculature. For this purpose, a steady state condition is identified by calibrating a blood flow measurement A from the oximeter with a simultaneously obtained blood pressure measurement P from the sphygmomanometer. Further, using these simultaneous measurements, a blood pressure model is created that is based on the steady state. Thereafter, blood flow waveform readings from the oximeter are correlated with the steady state model to provide continuous blood pressure readings.

A blood pressure detection method is provided. The method comprising: obtaining wrist circumference data, wrist fat thickness data, and blood pressure data and correcting the blood pressure data based on the wrist circumference data and the wrist fat thickness data.

To provide a cuff for measuring blood pressure which is excellent in durability and convenient to use. A cuff for measuring blood pressure includes a band enveloping an air bag between an outer cloth and an inner cloth facing the outer cloth; a first opening portion provided in the outer cloth; and a first hook-and-loop fastener welded to the outer cloth in a state where the first opening portion is closed from an inner side of the band and a raised surface is exposed through the first opening portion.

Embodiments of this disclosure are directed to a wearable blood pressure measurement device having an inner sleeve and a cuff module. The inner sleeve is wearable on a limb of a user and has a first attachment mechanism. The cuff module has a second attachment mechanism that is attachable to the first attachment mechanism. The cuff module includes a cuff configured for placement over the inner sleeve, a bladder assembly having one or more bladders configured to expand and contract in response to a flow of a fluid therethrough, and a controller. The controller is configured to measure a blood pressure of the user while controlling expansion and contraction of the one or more bladders.

Methods, apparatuses, and systems for providing real-time surgical assistance to a surgical robot using an imaging module, a context computer module, and a quantum analysis module are disclosed. The imaging module receives one or more data related to a patient from an intra-operative database and performs a first step analysis based on the received data. The context computer module determines a type of resource required for analysis based on data received from a historical database and the intra-operative database. The quantum analysis module receives data from the imaging module and the context computer module. The quantum analysis module receives real-time data from operation room (OR) equipment and performs quantum analysis on the received data and real-time data. The quantum analysis module facilitates real-time surgical assistance and recommendations to the surgical robot.

A biological information analyzing device includes: an indicator extraction unit that extracts an indicator pertaining to a characteristic of a blood pressure waveform using data of the blood pressure waveform obtained by a sensor, which is worn on a user's body and can non-invasively measure the blood pressure waveform for each of heartbeats, continuously measuring the blood pressure waveform; and a processing unit that carries out a process based on the extracted indicator.

Provided is a convenient blood pressure cuff. A blood pressure cuff includes a band-like body enveloping an air bag between an outer cloth and an inner cloth facing the outer cloth; a ring-like member held at a position near one end edge it in a longitudinal direction of the band-like body and extending in a lateral direction of the band-like body; and an auxiliary member stored inside a terminal region between the end edge it of the band-like body and the ring-like member and extending in the lateral direction. The outer cloth and the inner cloth in the terminal region are welded to each other in a state where the auxiliary member is sandwiched between the outer cloth and the inner cloth.

A blood-pressure-related information display device includes a data acquisition unit, a risk value calculator, and a display processor. The data acquisition unit acquires blood pressure data including a systolic blood pressure and a diastolic blood pressure for the subject. The risk value calculator obtains a systolic risk value representing a risk corresponding to the acquired systolic blood pressure and a diastolic risk value representing a risk corresponding to the acquired diastolic blood pressure based on a predetermined blood pressure standard. The display processor performs processing of displaying a risk range from the systolic risk value to the diastolic risk value in a curved or straight elongated display region defining a one-dimensional risk coordinate in the display screen.