mhurhangee/ep-ind-claims huggingface dataset:
An electronic system for non-invasive monitoring of estrogen of a female human, the system comprising: a wearable device including a sensor system (101, 102, 103, 104) configured to be worn in contact with the skin of the female human and to determine one or more physiological parameters of the female human; and a processor (13, 30, 40) configured to receive and store the physiological parameters of the female human from the sensor system (101, 102, 103, 104) for a respective point in time; the processor (13, 30, 40) being further configured to determine a change in the physiological parameters of the female human, using the physiological parameters of the female human stored for a plurality of respective points in time; and the processor (13, 30, 40) being further configured to detect a change in estrogen level of the female human based on the change in the physiological parameters of the female human, wherein the sensor system is configured to determine a level of perfusion (p) of the female human; and the processor (13, 30, 40) is configured to receive and store the level of perfusion (p) of the female human from the sensor system for a respective point in time, to determine a change in the level of perfusion (p) of the female human by calculating a first derivative of a course of the level of perfusion (p), using the levels of perfusion (p) of the female human stored for a plurality of respective points in time; and to detect the change in estrogen level of the female human based on the change in the level of perfusion (p) of the female human. a wearable device including a sensor system (101, 102, 103, 104) configured to be worn in contact with the skin of the female human and to determine one or more physiological parameters of the female human; and a processor (13, 30, 40) configured to receive and store the physiological parameters of the female human from the sensor system (101, 102, 103, 104) for a respective point in time; the processor (13, 30, 40) being further configured to determine a change in the physiological parameters of the female human, using the physiological parameters of the female human stored for a plurality of respective points in time; and the processor (13, 30, 40) being further configured to detect a change in estrogen level of the female human based on the change in the physiological parameters of the female human, wherein the sensor system is configured to determine a level of perfusion (p) of the female human; and the processor (13, 30, 40) is configured to receive and store the level of perfusion (p) of the female human from the sensor system for a respective point in time, to determine a change in the level of perfusion (p) of the female human by calculating a first derivative of a course of the level of perfusion (p), using the levels of perfusion (p) of the female human stored for a plurality of respective points in time; and to detect the change in estrogen level of the female human based on the change in the level of perfusion (p) of the female human.
A toilet seat set with a toilet seat and a toilet lid, which are pivotably connected to a technical box, which is connectable to a ceramic via fixing means on a side of the ceramic, wherein the toilet seat is equipped with at least one electrical consumer and with a device for supplying power to the electrical consumer, which comprises an energy transmission device which is designed for contactless inductive energy transmission, wherein the contactless inductive energy transmission takes place between the technical box and the toilet seat, a receiver coil is arranged on a side of the seat and a transmitter coil is arranged on a side of the technical box, wherein the toilet seat comprises two shell parts, which, when joined together, delimit a receiving space in which the receiver coil with the control electronics is accommodated, a downgrade is formed on the shell part facing the technical box, wherein the technical box is immersed at least with a region accommodating the transmitter coil into the downgrade, so that, when the toilet seat is closed, the transmitter coil is in operative connection with the receiver coil for supplying energy to the consumer, and wherein the toilet seat comprises a seat ring edge on a side of a joint, wherein the seat ring edge is immersed between a toilet seat joint (4, 6) and the transmitter coil into a correspondingly designed channel-shaped recess of the technial box.
Method of assisted piloting for an aircraft having a rotary wing and a propulsion unit including at least one propulsion propeller, each propeller having a plurality of first blades, and the rotary wing including a rotor provided with a plurality of second blades, in said method, an order from a pilot of the given aircraft to require movement in a longitudinal or vertical direction is translated into an acceleration setpoint in said direction, and then this acceleration setpoint is converted by predetermined laws into at least one setpoint of required longitudinal attitude (θ*) transmitted to a first automatic system of required longitudinal attitude controlling a longitudinal cyclical pitch of the second blades of the rotary wing to respect said setpoint of required longitudinal attitude (θ*) and into a first setpoint of required load factor (Nx*) in a longitudinal direction of the aircraft parallel to a roll axis of said aircraft transmitted to a second automatic system of requiring said load factor controlling a collective pitch of the first blades of the propulsion unit to respect said first setpoint (Nx*), in said method, when said order is an order of movement in a longitudinal direction of the aircraft parallel to a roll axis of said aircraft, this order of movement in a longitudinal direction is translated into a longitudinal acceleration setpoint, and then this acceleration setpoint is converted by predetermined laws uniquely into a setpoint of required longitudinal attitude (θ*) transmitted to a first automatic system of required longitudinal attitude and into a first setpoint (Nx*) of required load factor, said method being characterised in that said first setpoint of required load factor (Nx*) is determined by the following second longitudinal control law: Nx * = b · γ x * / g − k / a + b where "Nx*" represents said first setpoint of required load factor, "γ x *" represents the longitudinal acceleration setpoint, "g" represents the acceleration of gravity, "•" represents the multiplication sign, "/" represents the division sign, "a" represents a first longitudinal constant adjustable in flight, "b" represents a second longitudinal constant adjustable in flight, "k" represents a third longitudinal constant adjustable in flight, and in that the third longitudinal constant (k) is equal to zero to cancel said first setpoint (Nx*) of required load factor when the pilot does not give an order of movement in a longitudinal direction, the longitudinal acceleration setpoint being zero during manoeuvres to nose up, or during changes of references of longitudinal attitude by the attitude setting control, the second automatic system of required load factor acting on a command system to lower the collective pitch of the first blades, and/or, during manoeuvres to dive, the second automatic system of required load factor acting on a command system to increase the collective pitch of the first blades.
Vehicle seat comprising two different, mutually slidable parts (210, 220) and a cushion mat assembly, characterised in that the cushion mat assembly comprises a spring structure and a substantially rigid frame for carrying the spring structure, said rigid frame is being provided with attaching means (170, 180) to said respective slidable parts (210, 220) of the vehicle seat such that the position of the spring structure can be varied relative to one of said slidable parts (210, 220) of the vehicle seat, wherein the spring structure is provided with coupling means (150, 160) to the substantially rigid frame and to one of said two different, mutually slidable parts (210, 220) of the vehicle seat, respectively.
A method for encoding an audio signal, the method comprising: (a) receiving an audio signal; (b) generating an encoded audio signal; and (c) outputting the encoded audio signal; wherein generating the encoded audio signal comprises processing consecutive audio frames of the audio signal to avoid discontinuities, the processing comprising: using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity (106a, 106b) between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame. (a) receiving an audio signal; (b) generating an encoded audio signal; and (c) outputting the encoded audio signal; wherein generating the encoded audio signal comprises processing consecutive audio frames of the audio signal to avoid discontinuities, the processing comprising: using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity (106a, 106b) between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame. using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity (106a, 106b) between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame.
A closure device for treating a tissue opening, the device comprising a longitudinally extending closure body having a proximal portion and a distal portion, wherein: the distal portion of the closure body includes a plurality of suture-receiving elements for supporting a suture at spaced apart locations relative to the tissue opening, an entrance opening formed in the proximal portion of the closure body and a passageway extending from the entrance opening for guiding a needle assembly to a target access opening of the plurality of suture-receiving elements, and the closure body includes a finger shield or guard around the entrance opening to protect against accidental needle stick as a needle is introduced into the entrance opening. the distal portion of the closure body includes a plurality of suture-receiving elements for supporting a suture at spaced apart locations relative to the tissue opening, an entrance opening formed in the proximal portion of the closure body and a passageway extending from the entrance opening for guiding a needle assembly to a target access opening of the plurality of suture-receiving elements, and the closure body includes a finger shield or guard around the entrance opening to protect against accidental needle stick as a needle is introduced into the entrance opening.
A windshield wiper module, comprising - at least one windshield which is located on the front part of the vehicle, - at least one plastic body in which the windshield fits, - at least one connecting member which enables the plastic body to remain fixed on place where it is positioned, - at least one motor hood which enables the preservation of the motor part, - at least one motor hood bottom which provides support for the motor hood, - at least one plastic traverse which is located on the lower part of the windshield, - at least one wiper motor which is mounted between the plastic body and the plastic traverse, - at least one dashboard panel which is located on the lower part of the plastic body the windshield wiper module being characterised in that: - at least one plastic traverse hinge which is located where the plastic body and the plastic traverse coincide, - the wiper motor is connected to the plastic body with bolts after the windshield and the plastic body are mounted, - the plastic traverse is mounted in the vertical axis of the vehicle after the wiper motor is connected with bolt, and which traverse has vents thereon so that the wiper arm-wiper motor connection points go out. - at least one windshield which is located on the front part of the vehicle, - at least one plastic body in which the windshield fits, - at least one connecting member which enables the plastic body to remain fixed on place where it is positioned, - at least one motor hood which enables the preservation of the motor part, - at least one motor hood bottom which provides support for the motor hood, - at least one plastic traverse which is located on the lower part of the windshield, - at least one wiper motor which is mounted between the plastic body and the plastic traverse, - at least one dashboard panel which is located on the lower part of the plastic body the windshield wiper module being characterised in that: - at least one plastic traverse hinge which is located where the plastic body and the plastic traverse coincide, - at least one plastic traverse hinge which is located where the plastic body and the plastic traverse coincide, - the wiper motor is connected to the plastic body with bolts after the windshield and the plastic body are mounted, - the plastic traverse is mounted in the vertical axis of the vehicle after the wiper motor is connected with bolt, and which traverse has vents thereon so that the wiper arm-wiper motor connection points go out.
A surface finish stylus for a multi-directional scanning probe, comprising; an elongate stylus shaft (120;140) having a longitudinal axis, and one or more contact elements (124,126; 144,146,148; 196,198) protruding from the elongate stylus shaft (120;140) for contacting a surface to be measured, characterised in that the one or more contact elements (124,126; 144,146,148; 196,198) are configured to enable measurement of surface finish during motion of the stylus shaft relative to a surface along a measurement direction (M1, M2, M3) that is non-parallel to the longitudinal axis, and the one or more contact elements (124,126; 144,146,148; 196,198) comprise a plurality of contact elements having a plurality of different orientations relative to the stylus shaft (120;140). an elongate stylus shaft (120;140) having a longitudinal axis, and one or more contact elements (124,126; 144,146,148; 196,198) protruding from the elongate stylus shaft (120;140) for contacting a surface to be measured, characterised in that the one or more contact elements (124,126; 144,146,148; 196,198) are configured to enable measurement of surface finish during motion of the stylus shaft relative to a surface along a measurement direction (M1, M2, M3) that is non-parallel to the longitudinal axis, and the one or more contact elements (124,126; 144,146,148; 196,198) comprise a plurality of contact elements having a plurality of different orientations relative to the stylus shaft (120;140).
A gas liquid separator, comprising: a chamber including a fluid mixture inlet, the fluid mixture inlet providing an inlet for a fluid mixture into the chamber, a liquid solvent outlet, a gas outlet, and an actively controlled pressure regulator disposed within the fluid mixture inlet, wherein the actively controlled pressure regulator further comprises a sensor and is configured to create a phase change of a substantial part of the fluid mixture within the fluid mixture inlet in response to feedback from the sensor. a chamber including a fluid mixture inlet, the fluid mixture inlet providing an inlet for a fluid mixture into the chamber, a liquid solvent outlet, a gas outlet, and an actively controlled pressure regulator disposed within the fluid mixture inlet, wherein the actively controlled pressure regulator further comprises a sensor and is configured to create a phase change of a substantial part of the fluid mixture within the fluid mixture inlet in response to feedback from the sensor.
Manually guided floor cleaning machine, comprising a chassis with a front end and a rear end in relation to a straight ahead forward travel direction, a wheel arrangement, which is arranged on the chassis in the region of the rear end, and a cleaning head, which is pivotably arranged on the chassis in the region of the front end, at least one brush being arranged on the cleaning head and a drive device being arranged for the driven rotation of the at least one brush, wherein, in the straight ahead forward travel direction, a rotational axis of the at least one brush is parallel to a wheel axis of the wheel arrangement, characterized in that the cleaning head is pivotable to the left and/or the right by more than 90° in relation to the straight ahead forward travel direction.
A method for the radiography of a load in order to perform detection, the method comprising the following steps: a) emitting a pulse of divergent x-rays from a source, the load and the source being in motion relative to one another; b) from the x-ray pulse, forming an incident x-ray beam using a collimator, and irradiating a section of the load extending along a median plane; and c) collecting the x-rays after they pass through the load in receiving sensors situated behind the load in the extension of the incident beam, and generating raw image signals corresponding to the x-ray doses received by the receiving sensors; steps a) and b) being iterated on successive sections of the load so as to obtain a radiographic image of the load; the method being characterized in that it further comprises a step d) in which a measurement is done of the x-ray doses received by at least two intermediate sensors of a reference block situated in the incident beam so as to be passed through by at least two separate angular sectors of the incident beam delimited in step b), generating independent reference signals corresponding to the doses measured by the intermediate sensors in each angular sector, and correcting the raw image signals obtained in step c) using reference signals, and wherein, in step d), an intrinsic energy of the incident beam is evaluated from the reference signals and the raw image signals obtained in step c) are corrected through a calculation using said intrinsic energy. the evaluation of the intrinsic energy including the following phases: - a measured angular distribution of the reference signals obtained for a given x-ray pulse from measured reference signals is established; - the measured angular distribution is compared with predetermined angular distributions corresponding to different intrinsic energies; and - the measured angular distribution is associated with a predetermined angular distribution, and the intrinsic energy of the predetermined angular distribution is assigned to the given x-ray pulse. a) emitting a pulse of divergent x-rays from a source, the load and the source being in motion relative to one another; b) from the x-ray pulse, forming an incident x-ray beam using a collimator, and irradiating a section of the load extending along a median plane; and c) collecting the x-rays after they pass through the load in receiving sensors situated behind the load in the extension of the incident beam, and generating raw image signals corresponding to the x-ray doses received by the receiving sensors; - a measured angular distribution of the reference signals obtained for a given x-ray pulse from measured reference signals is established; - the measured angular distribution is compared with predetermined angular distributions corresponding to different intrinsic energies; and - the measured angular distribution is associated with a predetermined angular distribution, and the intrinsic energy of the predetermined angular distribution is assigned to the given x-ray pulse.
A method for measuring a capacitance for use in detecting the development of a pressure ulcer at a target location of a patient's skin, comprising: positioning a flexible substrate adjacent the target location of the patient's skin, wherein on the flexible substrate are embedded an array of bipolar radiofrequency sensors (24, 26), wherein each sensor comprises a first electrode and a second electrode and wherein each sensor (24, 26) is individually coupled to an interface electronic package, wherein the electronics package is configured for independent interrogation and excitation of each of the bipolar RF sensors (24, 26), and data retrieval from each of the bipolar RF sensors (24, 26); conforming the flexible substrate to the patient's skin at the target location; exciting the bipolar RF sensors (24, 26) to emit RF energy into the patient's skin derma; and measuring a capacitance at the target location of the patient's skin as an indicator of the Sub-Epidermal Moisture at the target location. positioning a flexible substrate adjacent the target location of the patient's skin, wherein on the flexible substrate are embedded an array of bipolar radiofrequency sensors (24, 26), wherein each sensor comprises a first electrode and a second electrode and wherein each sensor (24, 26) is individually coupled to an interface electronic package, wherein the electronics package is configured for independent interrogation and excitation of each of the bipolar RF sensors (24, 26), and data retrieval from each of the bipolar RF sensors (24, 26); conforming the flexible substrate to the patient's skin at the target location; exciting the bipolar RF sensors (24, 26) to emit RF energy into the patient's skin derma; and measuring a capacitance at the target location of the patient's skin as an indicator of the Sub-Epidermal Moisture at the target location.
A MEMS system comprising: a MEMS device comprising a high-voltage port; and a CMOS device comprising: a semiconductor technology substrate, extended-voltage isolation regions, and a high-voltage bias generator comprising a sequence of voltage boosting stages, wherein each extended-voltage isolation region comprises a native region (670, 671) separating an N-type well region from a P-type well region (641, 642), thereby extending a breakdown voltage between the N-type and P-type well regions, wherein the P-type well region encloses the N-type well region, and wherein each voltage boosting stage is electrically coupled to and enclosed by the extended-voltage isolation region, and the high-voltage bias generator is further coupled to the high-voltage port. a MEMS device comprising a high-voltage port; and a CMOS device comprising: a semiconductor technology substrate, extended-voltage isolation regions, and a high-voltage bias generator comprising a sequence of voltage boosting stages, a semiconductor technology substrate, extended-voltage isolation regions, and a high-voltage bias generator comprising a sequence of voltage boosting stages, wherein each extended-voltage isolation region comprises a native region (670, 671) separating an N-type well region from a P-type well region (641, 642), thereby extending a breakdown voltage between the N-type and P-type well regions, wherein the P-type well region encloses the N-type well region, and wherein each voltage boosting stage is electrically coupled to and enclosed by the extended-voltage isolation region, and the high-voltage bias generator is further coupled to the high-voltage port.