mhurhangee/patent-ind-claim-en huggingface dataset:
A system for automatically monitoring the orientation of a patient over a period of time, comprising: a sensor configured to be attached to a patient and including at least one accelerometer adapted for outputting an acceleration data set representative of the patient's orientation; a processor responsive to the acceleration data set and configured to: monitor the orientation of the patient over time based on the acceleration data set to establish a history of the orientation of the patient over time; determine values for at least one biometric parameter of the patient , including at least one of a respiratory rate or a heart rate of the patient , based on the acceleration data set, and compare the determined values for the at least one biometric parameter of the patient with predefined values based on known physiological behavior; determine, based on the comparison, that the sensor is attached to the patient when the determined values for the at least one biometric parameter correspond to the predefined values; the system further comprising storage for storing the history of the orientation of the patient . a sensor configured to be attached to a patient and including at least one accelerometer adapted for outputting an acceleration data set representative of the patient's orientation; a processor responsive to the acceleration data set and configured to: monitor the orientation of the patient over time based on the acceleration data set to establish a history of the orientation of the patient over time; determine values for at least one biometric parameter of the patient , including at least one of a respiratory rate or a heart rate of the patient , based on the acceleration data set, and compare the determined values for the at least one biometric parameter of the patient with predefined values based on known physiological behavior; determine, based on the comparison, that the sensor is attached to the patient when the determined values for the at least one biometric parameter correspond to the predefined values; the system further comprising monitor the orientation of the patient over time based on the acceleration data set to establish a history of the orientation of the patient over time; determine values for at least one biometric parameter of the patient , including at least one of a respiratory rate or a heart rate of the patient , based on the acceleration data set, and compare the determined values for the at least one biometric parameter of the patient with predefined values based on known physiological behavior; determine, based on the comparison, that the sensor is attached to the patient when the determined values for the at least one biometric parameter correspond to the predefined values; the system further comprising storage for storing the history of the orientation of the patient .
A radiation unit , comprising: two groups of dipoles the polarizations of which are orthogonal, each group of the dipoles comprises two radiation arms which are disposed to be spaced apart relative to each other, and each of the radiation arms is provided with a first extension branch and a second extension branch which are disposed to be spaced apart from each other; wherein the surface area of the first extension branch is greater than the surface area of the second extension branch ; wherein an outer sidewall of each of the radiation arms is provided with a cut-off corner ; wherein each of the radiation arms is provided with a first hollowed groove , each of one end of the first extension branch and one end of the second extension branch is connected with the outer sidewall of each of the radiation arms , a first spacer groove in communication with the first hollowed groove is provided between the first extension branch and the second extension branch , and each of the first extension branch and the second extension branch is disposed towards the inside of the first hollowed groove ; wherein a second spacer groove and a current-conducting part for connecting two adjacent radiation arms are provided between the two adjacent radiation arms , and each of the two adjacent radiation arms is provided with a second hollowed groove in communication with the second spacer groove . two groups of dipoles the polarizations of which are orthogonal, each group of the dipoles comprises two radiation arms which are disposed to be spaced apart relative to each other, and each of the radiation arms is provided with a first extension branch and a second extension branch which are disposed to be spaced apart from each other; wherein the surface area of the first extension branch is greater than the surface area of the second extension branch ; wherein an outer sidewall of each of the radiation arms is provided with a cut-off corner ; wherein each of the radiation arms is provided with a first hollowed groove , each of one end of the first extension branch and one end of the second extension branch is connected with the outer sidewall of each of the radiation arms , a first spacer groove in communication with the first hollowed groove is provided between the first extension branch and the second extension branch , and each of the first extension branch and the second extension branch is disposed towards the inside of the first hollowed groove ; wherein a second spacer groove and a current-conducting part for connecting two adjacent radiation arms are provided between the two adjacent radiation arms , and each of the two adjacent radiation arms is provided with a second hollowed groove in communication with the second spacer groove .
A component processing apparatus defining at least one component holding position for holding a component , such as comprising at least one of a semiconductor die, a substrate, a cooling plate, a package, an inverter casing, a spacer, and comprising at least one displaceable member associated with each component holding position, each displaceable member being configured and arranged to allow exerting force on a component held in the associated component holding position, the component processing apparatus being characterized in that : it is comprising at least one apparatus part that is susceptible to strain induced by force, in use, exerted by the at least one displaceable member on the respective component(s) held in the component holding position(s), and that has a Fiber Bragg Grating, FBG, strain sensor , wherein the FBG strain sensor is configured and arranged mechanically attached to the respective apparatus part to allow measuring strain of the respective apparatus part as induced by force, in use, exerted by the at least one displaceable member on the respective component(s).
An exhaust gas purification system comprising a gasoline engine, and comprising in consecutive order the following devices: a first three-way-catalyst (TWC1), a gasoline particulate filter (GPF) and a second three-way-catalyst (TWC2), such that the TWC1 is located upstream from the GPF, which is located upstream from the TWC2, wherein the oxygen storage capacity (OSC) of the TWC2 is greater than the OSC of the GPF, wherein the OSC is determined in mg/l of the volume of the device, and wherein the oxygen storage capacity (OSC) of the TWC1 is greater than the OSC of the TWC2, wherein the OSC is determined in mg/l of the volume of the device, and wherein the volume of the TWC1 (V TWC1 ) is from 20% to 50% of the total catalyst volume V cat and is larger than the volume of the TWC2, and wherein the ratio V cat / V eng is at from 1 to 5, wherein V cat is the total catalyst volume of all devices and V eng is the engine displacement of the gasoline engine. a first three-way-catalyst (TWC1), a gasoline particulate filter (GPF) and a second three-way-catalyst (TWC2), such that the TWC1 is located upstream from the GPF, which is located upstream from the TWC2, wherein the oxygen storage capacity (OSC) of the TWC2 is greater than the OSC of the GPF, wherein the OSC is determined in mg/l of the volume of the device, and wherein the oxygen storage capacity (OSC) of the TWC1 is greater than the OSC of the TWC2, wherein the OSC is determined in mg/l of the volume of the device, and wherein the volume of the TWC1 (V TWC1 ) is from 20% to 50% of the total catalyst volume V cat and is larger than the volume of the TWC2, and wherein the ratio V cat / V eng is at from 1 to 5, wherein V cat is the total catalyst volume of all devices and V eng is the engine displacement of the gasoline engine.
A display device (EA) comprising: a window (WP); an anti-reflector (RPP) disposed under the window (WP), the anti-reflector (RPP) comprising: a first area (RA1) having a first transmittance; and a second area (RA2) having a second transmittance higher than the first transmittance; and a display panel (DP) disposed under the anti-reflector (RPP), the display panel (DP) comprising: a first display area (DA1) having a first resolution; and a second display area (DA2) having a second resolution lower than the first resolution, wherein the second area (RA2) overlaps with the second display area (DA2) in a plan view; and an electronic module (SS) disposed under the second display area (DA2) of the display panel (DP), and the second area (RA2) is an area overlapping with the electronic module (SS) when viewed in a plan view. a window (WP); an anti-reflector (RPP) disposed under the window (WP), the anti-reflector (RPP) comprising: a first area (RA1) having a first transmittance; and a second area (RA2) having a second transmittance higher than the first transmittance; and a first area (RA1) having a first transmittance; and a second area (RA2) having a second transmittance higher than the first transmittance; and a display panel (DP) disposed under the anti-reflector (RPP), the display panel (DP) comprising: a first display area (DA1) having a first resolution; and a second display area (DA2) having a second resolution lower than the first resolution, a first display area (DA1) having a first resolution; and a second display area (DA2) having a second resolution lower than the first resolution, wherein the second area (RA2) overlaps with the second display area (DA2) in a plan view; and an electronic module (SS) disposed under the second display area (DA2) of the display panel (DP), and the second area (RA2) is an area overlapping with the electronic module (SS) when viewed in a plan view.
An aircraft turbomachine , this turbomachine having a longitudinal axis (A) and comprising: - a high-pressure body called HP comprising an HP shaft for connecting a HP compressor rotor to a HP turbine rotor , this HP shaft extending along said axis, - a low-pressure body called LP comprising a LP shaft for connecting a LP compressor rotor to a LP turbine rotor , this LP shaft extending along said axis and inside the HP shaft, - a fan connected to a fan shaft , and - an epicyclic reduction gear connecting the LP shaft to the fan shaft , characterised in that the LP body comprises three modules: - a first module comprising the LP turbine and the LP shaft , the LP shaft comprising a downstream end coupled to the rotor of the LP turbine, - a second module comprising the LP compressor and a journal secured to the rotor of the LP compressor, this journal being configured to be coupled in rotation to an upstream end of the LP shaft and to be immobilised axially on this end by screwing a nut onto a thread on the shaft, and - a third module comprising an input shaft of the reduction gear , said input shaft comprising an upstream end for coupling to a sun gear of the reduction gear and a downstream end comprising first splines which are oriented parallel to said axis and which are configured to be engaged in complementary second splines of said second module , radially oriented screws being carried by one of the second and third modules and intended to be engaged in the other of the second and third modules in order to axially lock the first and second splines in each other. - a high-pressure body called HP comprising an HP shaft for connecting a HP compressor rotor to a HP turbine rotor , this HP shaft extending along said axis, - a low-pressure body called LP comprising a LP shaft for connecting a LP compressor rotor to a LP turbine rotor , this LP shaft extending along said axis and inside the HP shaft, - a fan connected to a fan shaft , and - an epicyclic reduction gear connecting the LP shaft to the fan shaft , - a first module comprising the LP turbine and the LP shaft , the LP shaft comprising a downstream end coupled to the rotor of the LP turbine, - a second module comprising the LP compressor and a journal secured to the rotor of the LP compressor, this journal being configured to be coupled in rotation to an upstream end of the LP shaft and to be immobilised axially on this end by screwing a nut onto a thread on the shaft, and - a third module comprising an input shaft of the reduction gear , said input shaft comprising an upstream end for coupling to a sun gear of the reduction gear and a downstream end comprising first splines which are oriented parallel to said axis and which are configured to be engaged in complementary second splines of said second module , radially oriented screws being carried by one of the second and third modules and intended to be engaged in the other of the second and third modules in order to axially lock the first and second splines in each other.
Cartridge for a fluid treatment system, the cartridge including a housing encapsulating matter without a fixed shape as a collective, which matter includes at least one fluid treatment medium , the housing including fluid-pervious sections allowing fluid to pass through the housing to contact the fluid treatment medium , wherein at least one section of the housing is formed by at least one membrane, at least one fluid-pervious section of the housing includes at least a fluid-pervious component provided at an axial end of the housing, and at least an axially adjoining section of the housing, closed on itself around the axis, is formed only by at least one membrane, characterised in that the at least one fluid-pervious section of the housing that includes at least the fluid-pervious component forms a downstream end of the cartridge, and in that the fluid-pervious component includes a self-supporting porous body stiff enough to support the remainder of the cartridge. the cartridge including a housing encapsulating matter without a fixed shape as a collective, which matter includes at least one fluid treatment medium , the housing including fluid-pervious sections allowing fluid to pass through the housing to contact the fluid treatment medium , wherein at least one section of the housing is formed by at least one membrane, at least one fluid-pervious section of the housing includes at least a fluid-pervious component provided at an axial end of the housing, and at least an axially adjoining section of the housing, closed on itself around the axis, is formed only by at least one membrane, characterised in that the at least one fluid-pervious section of the housing that includes at least the fluid-pervious component forms a downstream end of the cartridge, and in that the fluid-pervious component includes a self-supporting porous body stiff enough to support the remainder of the cartridge.
Method for producing a barrier layer in a polymer film comprising the steps of: A) providing a carrier body comprising the polymer film which is made from at least one polymer, the polymer film forming a barrier interface of the carrier body , B) drying the barrier interface , C) exposing the barrier interface to one reagent gas , or to a plurality of reagent gases which do not chemically react with each other, so that the at least one reagent gas chemically reacts with the at least one polymer at least inside the polymer film in at least one chemical reaction and so forming the barrier layer , wherein inside the polymer film in step C) means that the at least one reagent gas chemically reacts with the at least one polymer in a depth of the polymer film of at least 10 nm, and D) removing at least one product gas of said at least one chemical reaction. A) providing a carrier body comprising the polymer film which is made from at least one polymer, the polymer film forming a barrier interface of the carrier body , B) drying the barrier interface , C) exposing the barrier interface to one reagent gas , or to a plurality of reagent gases which do not chemically react with each other, so that the at least one reagent gas chemically reacts with the at least one polymer at least inside the polymer film in at least one chemical reaction and so forming the barrier layer , wherein inside the polymer film in step C) means that the at least one reagent gas chemically reacts with the at least one polymer in a depth of the polymer film of at least 10 nm, and D) removing at least one product gas of said at least one chemical reaction.
A motor driving apparatus, comprising: an inverter that drives a motor ; and a control unit configured to output a PWM signal for controlling operations of a switching element included in the inverter , wherein the control unit determines an inductance parameter used to calculate a speed command value for determining a duty ratio of the PWM signal, characterized in that the control unit is configured to correct a value of the determined inductance parameter, on the basis of whether the motor is being accelerated, wherein the inductance parameter is determined using a table prestored in the control unit , on the basis of measured values of electric currents of the inverter , and wherein, when the motor is being accelerated, the value of the determined inductance parameter is corrected on the basis of a change in speeds of the motor . an inverter that drives a motor ; and a control unit configured to output a PWM signal for controlling operations of a switching element included in the inverter , wherein the control unit determines an inductance parameter used to calculate a speed command value for determining a duty ratio of the PWM signal, characterized in that the control unit is configured to correct a value of the determined inductance parameter, on the basis of whether the motor is being accelerated, wherein the inductance parameter is determined using a table prestored in the control unit , on the basis of measured values of electric currents of the inverter , and wherein, when the motor is being accelerated, the value of the determined inductance parameter is corrected on the basis of a change in speeds of the motor .
A system for transmitting control pressures and/or working pressures from a wheel-hub pressure medium supply , in particular from a wheel-hub pressure medium rotary union , to a vehicle rim mounted on the wheel hub , wherein the system has a receiving part , which has a central region with a central opening and at least one extension region projecting radially from the central region , at least in some regions, and the receiving part can be connected to the wheel hub by means of the at least one radially projecting extension region , preferably in a detachable way; the system also has a rim insert for recording or exporting the control pressures and/or working pressures, which can be accommodated, at least in some regions, by the opening of the central region , and control pressures and/or working pressures can be transmitted from the wheel-hub pressure medium supply via the receiving part to the rim insert .
A method for scanning terrestrial networks for positioning measurements comprising: synchronizing scans by a mobile device for wireless wide area network, WWAN, based positioning measurements and scans for local area wireless network, LAWN, based positioning measurements to be aligned in time by software scheduling discarding any scans that do not occur within a time difference threshold form each other, wherein the LAWN comprises wireless local area networks, WLANs, and wireless personal area networks, WPANs, and does not include cellular networks or satellite networks, and wherein the WWAN does not include a satellite network or any of the LAWNs; scanning with the mobile device for the WWAN based positioning measurements; scanning with the mobile device for the LAWN based positioning measurements; and using (208; 606) only the WWAN based positioning measurements and the LAWN based positioning measurements that occur within the time difference threshold from each other for crowdsourcing positions of the mobile device and/or to determine a position fix for the mobile device; wherein the time difference threshold is variable based on a speed of the mobile device. synchronizing scans by a mobile device for wireless wide area network, WWAN, based positioning measurements and scans for local area wireless network, LAWN, based positioning measurements to be aligned in time by software scheduling discarding any scans that do not occur within a time difference threshold form each other, wherein the LAWN comprises wireless local area networks, WLANs, and wireless personal area networks, WPANs, and does not include cellular networks or satellite networks, and wherein the WWAN does not include a satellite network or any of the LAWNs; wherein the LAWN comprises wireless local area networks, WLANs, and wireless personal area networks, WPANs, and does not include cellular networks or satellite networks, and wherein the WWAN does not include a satellite network or any of the LAWNs; scanning with the mobile device for the WWAN based positioning measurements; scanning with the mobile device for the LAWN based positioning measurements; and using (208; 606) only the WWAN based positioning measurements and the LAWN based positioning measurements that occur within the time difference threshold from each other for crowdsourcing positions of the mobile device and/or to determine a position fix for the mobile device; wherein the time difference threshold is variable based on a speed of the mobile device.
Variable-diameter wheel consisting of a central hub , a peripheral band formed by a plurality of arcuate segments , each of the arcuate segments being connected to said hub , characterized in that said hub comprises radial guide means for the sliding of retractable radial arms , each of the retractable radial arms being rigidly connected at its distal end to one of said arcuate segments , the opposite end being provided with a member for connection to a movable plate that is coaxial with said hub and rotatable relative to said hub , said movable plate having curved guide regions , each of said connecting members engaging with one of said arms in order to control the linear and radial movement of the proximal end of the corresponding arm .
Exercise machine with simulation of load pushing which comprises a continuous moving track mounted on a pair of cylinders , wherein the front ending of the moving track is fitted into a housing onto which is affixed a control panel with display and wherein the cylinder on which the front part of the track is mounted is connected by a transmission with a brake system operated through the control panel , wherein on supports which are part of a supporting structure of the exercise machine and which are placed at an approximately right angle in respect of the continuous moving track a shaft of a wheel is pivotally mounted, wherein the wheel has along its outer circumference paddles to be pushed by the user, wherein the wheel with paddles is located in front of the continuous moving track , and in that the wheel with paddles is connected by a mechanical transmission with the continuous moving track such that turning of the wheel drives the continuous moving track , characterized in that the wheel with paddles is located above the housing in a position in which it can be pushed by the hands of the user of the exercise machine while walking on the continuous moving track .