mhurhangee/ep-ind-claims huggingface dataset:
A system for thermotherapy treatment or prevention of antimicrobial resistant or biofilm infections, the system comprising: - a support configured to receive a nanoparticle assembly and configured to be conveyed towards a localized area of an organism infected or at risk to be infected by microorganisms; - said nanoparticle assembly comprising a plurality of nanoparticles (NPs) each one having a silver core and a surface surrounding said silver core, wherein the silver core is reactable to thermal energy; and wherein the nanoparticles have attached on the surface at least the antimicrobial agent amikacin and wherein the surface of each nanoparticle comprises a mPEG covering; - an energy unit configured to apply at least one thermal shot on said localized area exposed to the nanoparticle assembly, increasing the temperature of said localized area to a given value via the nanoparticle assembly, so enabling a nanotheranostic multimodal antimicrobial therapy. - a support configured to receive a nanoparticle assembly and configured to be conveyed towards a localized area of an organism infected or at risk to be infected by microorganisms; - said nanoparticle assembly comprising a plurality of nanoparticles (NPs) each one having a silver core and a surface surrounding said silver core, wherein the silver core is reactable to thermal energy; and wherein the nanoparticles have attached on the surface at least the antimicrobial agent amikacin and wherein the surface of each nanoparticle comprises a mPEG covering; - an energy unit configured to apply at least one thermal shot on said localized area exposed to the nanoparticle assembly, increasing the temperature of said localized area to a given value via the nanoparticle assembly, so enabling a nanotheranostic multimodal antimicrobial therapy.
An always on display method, comprising: receiving, by an electronic device, a screen-off event; in response to the screen-off event, obtaining, by the electronic device, usage data of the electronic device, wherein the usage data comprises a charge state and power information of the electronic device, wherein the power information of the electronic device comprises a first power level and a second power level, and power of the first power level is lower than power of the second power level; in response to the screen-off event, entering, by the electronic device, a screen-off state; and displaying, by the electronic device, a first target screen-off animation in a first display area, wherein, when the charge state of the electronic device is a not-in-charging state, the first target screen-off animation is a second screen-off animation if the power information is at the first power level, and the first target screen-off animation is a third screen-off animation if the power information is at the second power level; wherein the second screen-off animation is different from the third screen-off animation, characterized in that an animation object in the second screen-off animation is the same as an animation object in the third screen-off animation; and a moving speed of the animation object in the second screen-off animation is lower than a moving speed of the animation object in the third screen-off animation; or a moving range of the animation object in the second screen-off animation is smaller than a moving range of the animation object in the third screen-off animation. receiving, by an electronic device, a screen-off event; in response to the screen-off event, obtaining, by the electronic device, usage data of the electronic device, wherein the usage data comprises a charge state and power information of the electronic device, wherein the power information of the electronic device comprises a first power level and a second power level, and power of the first power level is lower than power of the second power level; in response to the screen-off event, entering, by the electronic device, a screen-off state; and displaying, by the electronic device, a first target screen-off animation in a first display area, wherein, when the charge state of the electronic device is a not-in-charging state, the first target screen-off animation is a second screen-off animation if the power information is at the first power level, and the first target screen-off animation is a third screen-off animation if the power information is at the second power level; wherein the second screen-off animation is different from the third screen-off animation, characterized in that an animation object in the second screen-off animation is the same as an animation object in the third screen-off animation; and a moving speed of the animation object in the second screen-off animation is lower than a moving speed of the animation object in the third screen-off animation; or a moving range of the animation object in the second screen-off animation is smaller than a moving range of the animation object in the third screen-off animation.
A system comprising: a sensor housing containing a detector, the sensor housing arranged for placement with a drill-string element, the sensor housing being a modular unit of hardware to make measurements in a well; and a processor operable to apply calibration coefficients from a data storage unit relative to a measurement reading from the detector such that the sensor housing is transferable to another drill-string element without a calibration measurement during or after the transfer, the calibration coefficients including calibration data correlated to variations in spacing and/or orientation of a source position relative to the detector or the sensor housing due to the transfer to another drill-string element. a sensor housing containing a detector, the sensor housing arranged for placement with a drill-string element, the sensor housing being a modular unit of hardware to make measurements in a well; and a processor operable to apply calibration coefficients from a data storage unit relative to a measurement reading from the detector such that the sensor housing is transferable to another drill-string element without a calibration measurement during or after the transfer, the calibration coefficients including calibration data correlated to variations in spacing and/or orientation of a source position relative to the detector or the sensor housing due to the transfer to another drill-string element.
An electric power generation device comprising at least one single chamber type fuel cell including an electrolyte, a fuel electrode joined to the electrolyte and an air electrode separated from the fuel electrode and joined to the electrolyte, said fuel cell being arranged in a fuel gas channel through which high-temperature fuel gas flows to generate electric power, characterized in that, the electric power generating device further comprises either a N-type or P-type thermoelectric element which is provided separately from the fuel cell and extends from inside of the fuel gas channel to outside of the fuel gas channel, wherein in a case where the electric power generation device further comprises the N-type thermoelectric element, the air electrode of the fuel cell is a P-type thermoelectric element extending from inside of the fuel gas channel to outside of the fuel gas channel and electrically connected to the N-type thermoelectric element outside the fuel gas channel; and in a case where the electric power generation device further comprises the P-type thermoelectric element, the fuel electrode of the fuel cell is an N-type thermoelectric element extending from inside of the fuel gas channel to outside of the fuel gas channel and electrically connected to the P-type thermoelectric element outside the fuel gas channel.
A gas generating apparatus comprising a housing, and a plurality of fuel capsules, wherein each fuel capsule comprises a pre-determined amount of a metal hydride and a pre-determined amount of a liquid reactant comprising water separated by a membrane, wherein the membranes are designed to be ruptured sequentially by a moving energy storage element so that the metal hydride and the liquid reactant can react to produce hydrogen gas, wherein the moving energy storage element comprises a coil spring and the coil spring comprises a hook to rupture the membrane.
A 3D model reconstruction method, comprising: providing, by one or more laser emitters (210a, 210b), a plurality of laser beams for tracking an electronic device; capturing, by a depth camera on the electronic device, a depth data (RD1, RD2) of a target object when that the electronic device moves around the target object; detecting, by one or more light sensors on the electronic device, the laser beams emitted by the one or more laser emitters (210a, 210b) to obtain a camera pose initial value of the depth camera accordingly; performing, by a processing circuit, a 3D reconstruction of the target object using the depth data (RD1, RD2) based on the camera pose initial value to output a 3D model of the target object; and estimating, by the processing circuit, a camera pose between a first time point and a second time point, the estimate being based on the depth data at the first time point, the depth data at the second time point, and the camera pose initial value. providing, by one or more laser emitters (210a, 210b), a plurality of laser beams for tracking an electronic device; capturing, by a depth camera on the electronic device, a depth data (RD1, RD2) of a target object when that the electronic device moves around the target object; detecting, by one or more light sensors on the electronic device, the laser beams emitted by the one or more laser emitters (210a, 210b) to obtain a camera pose initial value of the depth camera accordingly; performing, by a processing circuit, a 3D reconstruction of the target object using the depth data (RD1, RD2) based on the camera pose initial value to output a 3D model of the target object; and estimating, by the processing circuit, a camera pose between a first time point and a second time point, the estimate being based on the depth data at the first time point, the depth data at the second time point, and the camera pose initial value.
A method for regulating the average electromagnetic torque of a polyphase rotating electrical machine equipped with stator and/or rotor windings, which are supplied with a polyphase voltage and a polyphase current that are generated by an inverter, the inverter being formed by switches whose switching is controllable, this method including: - a control step of switching the switches as a function of an instantaneous torque set point, using an exact response control process to do this so that the instantaneous torque set point is reached as soon as the next regulation time, and - a step at each regulation time of calculating, from an average torque set point, the instantaneous torque set point to be applied so that the average of the instantaneous electromagnetic torque of the machine converges toward said average torque set point, characterized in that it includes a step of determining the value of the harmonics of the voltage and/or the current which are generated by the inverter, and in that the instantaneous torque set point is also established (at 122, 124) during the calculation step as a function of this value of the harmonics, so as to produce an instantaneous torque set point suitable for limiting the difference between the average of the instantaneous electromagnetic torque, between two successive regulation times, and said average torque set point. - a control step of switching the switches as a function of an instantaneous torque set point, using an exact response control process to do this so that the instantaneous torque set point is reached as soon as the next regulation time, and - a step at each regulation time of calculating, from an average torque set point, the instantaneous torque set point to be applied so that the average of the instantaneous electromagnetic torque of the machine converges toward said average torque set point,
A service node capability processing method comprising: determining, by a first service node capability processing apparatus, an exchange information set of service nodes on a service function chaining for processing a data packet, wherein the exchange information set includes an intersection of capabilities of the service nodes on the service function chaining; and encapsulating, by the first service node capability processing apparatus, the exchange information set in the data packet, wherein the exchange information set is used for the service nodes to read a processing result which is obtained by processing a capability corresponding to the intersection of the capabilities of the service nodes and which is encapsulated in the data packet; wherein determining, by the first service node capability processing apparatus, an exchange information set of service nodes on a service function chaining for processing a data packet comprises: determining the capabilities of various service nodes on the service function chaining; and selecting a same capability of at least two service nodes as the intersection of the capabilities of the service nodes. determining, by a first service node capability processing apparatus, an exchange information set of service nodes on a service function chaining for processing a data packet, wherein the exchange information set includes an intersection of capabilities of the service nodes on the service function chaining; and encapsulating, by the first service node capability processing apparatus, the exchange information set in the data packet, wherein the exchange information set is used for the service nodes to read a processing result which is obtained by processing a capability corresponding to the intersection of the capabilities of the service nodes and which is encapsulated in the data packet; wherein determining, by the first service node capability processing apparatus, an exchange information set of service nodes on a service function chaining for processing a data packet comprises: determining the capabilities of various service nodes on the service function chaining; and selecting a same capability of at least two service nodes as the intersection of the capabilities of the service nodes. determining the capabilities of various service nodes on the service function chaining; and selecting a same capability of at least two service nodes as the intersection of the capabilities of the service nodes.
A turning apparatus for rotating a turbine rotor, the turning apparatus comprises: an electric motor comprising an output shaft; a moving gear that is movable between a first position at which rotation of the output shaft of the electric motor is able to be transmitted to the turbine rotor, and a second position and a third position, which are different from each other, at which rotation of the output shaft of the electric motor is unable to be transmitted to the turbine rotor; a movement mechanism configured to move the moving gear between the first position, the second position and the third position; and the turning apparatus being characterised in that a control device is configured to control the movement mechanism based on a retreat signal such that the moving gear is moved from the first position to the second position and control the movement mechanism based on an adhesion prevention signal such that the moving gear reciprocates between the second position and the third position. an electric motor comprising an output shaft; a moving gear that is movable between a first position at which rotation of the output shaft of the electric motor is able to be transmitted to the turbine rotor, and a second position and a third position, which are different from each other, at which rotation of the output shaft of the electric motor is unable to be transmitted to the turbine rotor; a movement mechanism configured to move the moving gear between the first position, the second position and the third position; and the turning apparatus being characterised in that a control device is configured to control the movement mechanism based on a retreat signal such that the moving gear is moved from the first position to the second position and control the movement mechanism based on an adhesion prevention signal such that the moving gear reciprocates between the second position and the third position.
A method for whitening teeth of a subject comprising administering a composition comprising one or more isolated, non-pathogenic, hydrogen peroxide-producing bacterial species or strains to an oral cavity of a subject.
A piezoelectric material comprising a main component containing a perovskite-type metal oxide represented by Formula 1, a first auxiliary component composed of Mn, and a second auxiliary component composed of Bi or Bi and Li, wherein the content of Mn is 0.040 parts by weight or more and 0.500 parts by weight or less based on 100 parts by weight of the metal oxide on a metal basis; and the content of Bi is 0.042 parts by weight or more and 0.850 parts by weight or less and the content of Li is 0.028 parts by weight or less, including 0 parts by weight, based on 100 parts by weight of the metal oxide on a metal basis, (Ba 1-x Ca x) a (Ti 1-y Zry)O 3..., wherein, 0.030 ≤ x < 0.090, 0.030 ≤ y ≤ 0.080, and 0.9860 ≤ a ≤ 1.0200; and under the proviso that the piezoelectric material is not the piezoelectric material according to Comparative Example 15 of EP 2 749 550 A2. the content of Mn is 0.040 parts by weight or more and 0.500 parts by weight or less based on 100 parts by weight of the metal oxide on a metal basis; and the content of Bi is 0.042 parts by weight or more and 0.850 parts by weight or less and the content of Li is 0.028 parts by weight or less, including 0 parts by weight, based on 100 parts by weight of the metal oxide on a metal basis, (Ba 1-x Ca x) a (Ti 1-y Zry)O 3..., wherein, 0.030 ≤ x < 0.090, 0.030 ≤ y ≤ 0.080, and 0.9860 ≤ a ≤ 1.0200; and under the proviso that the piezoelectric material is not the piezoelectric material according to Comparative Example 15 of EP 2 749 550 A2.
Method for degassing a cross-flow diafiltration unit, comprising, in the order specified, the steps of: (i) providing a cross-flow diafiltration unit having a diafiltration channel, a retentate channel and a permeate channel, a first filter material delimiting the diafiltration channel from the retentate channel, and a second filter material delimiting the retentate channel from the permeate channel, (ii) feeding a liquid into the retentate channel so that the liquid flows in a flow direction through the retentate channel and penetrates through the first filter material into the diafiltration channel, whereby the retentate channel and the diafiltration channel are filled with and degassed by the liquid, and (iii) feeding the liquid into the retentate channel and into the diafiltration channel so that the liquid passes out of the diafiltration channel into the retentate channel and out of the retentate channel into the permeate channel; wherein the cross-flow diafiltration unit provided in step (i) has a pump, the diafiltration channel is connected in a fluid conducting manner to the pump, and the pump can be operated bi-directionally, the retentate channel is connected in a fluid conducting manner to at least one inlet for a feed liquid and to at least one outlet for the retentate, the cross-flow diafiltration unit additionally has a feed liquid pump or a valve for feeding in the feed liquid; and in step (ii), the liquid is pumped out of the diafiltration channel by the pump. (i) providing a cross-flow diafiltration unit having a diafiltration channel, a retentate channel and a permeate channel, a first filter material delimiting the diafiltration channel from the retentate channel, and a second filter material delimiting the retentate channel from the permeate channel, (ii) feeding a liquid into the retentate channel so that the liquid flows in a flow direction through the retentate channel and penetrates through the first filter material into the diafiltration channel, whereby the retentate channel and the diafiltration channel are filled with and degassed by the liquid, and (iii) feeding the liquid into the retentate channel and into the diafiltration channel so that the liquid passes out of the diafiltration channel into the retentate channel and out of the retentate channel into the permeate channel; wherein the cross-flow diafiltration unit provided in step (i) has a pump, the diafiltration channel is connected in a fluid conducting manner to the pump, and the pump can be operated bi-directionally, the retentate channel is connected in a fluid conducting manner to at least one inlet for a feed liquid and to at least one outlet for the retentate, the cross-flow diafiltration unit additionally has a feed liquid pump or a valve for feeding in the feed liquid; and in step (ii), the liquid is pumped out of the diafiltration channel by the pump.
A thermoplastic energy absorber having a horizontal axis and a vertical axis comprising: an array of energy absorbing lobes protruding from a base, the lobes arranged in two or more rows; wherein the energy absorbing lobes have a vertical length and a horizontal width, and wherein a ratio of L:D is greater than 1; wherein the energy absorbing lobes in each row are disposed in a staggered manner with respect to energy absorbing lobes in an adjacent row; wherein at least one lobe is present along any vertical cross section of the energy absorber; and wherein the energy absorber is configured to be installed on a vehicle for absorption of impact energy. an array of energy absorbing lobes protruding from a base, the lobes arranged in two or more rows; wherein the energy absorbing lobes have a vertical length and a horizontal width, and wherein a ratio of L:D is greater than 1; wherein the energy absorbing lobes in each row are disposed in a staggered manner with respect to energy absorbing lobes in an adjacent row; wherein at least one lobe is present along any vertical cross section of the energy absorber; and wherein the energy absorber is configured to be installed on a vehicle for absorption of impact energy.
Stroke transmitter, at least comprising - a hydraulic temperature compensator (5; 25; 28), wherein the hydraulic temperature compensator (5; 25; 28) at least comprises - a longitudinally extensible hydraulic chamber (10, 11) and - a gas-filled chamber which is at least partly enclosed by the hydraulic chamber (10, 11), - wherein the hydraulic chamber (10, 11) is subdivided into a first sub-chamber and a second sub-chamber which are hydraulically connected to each other by means of at least one throttle point, - wherein the second sub-chamber adjoins the gas-filled chamber, and wherein the stroke transmitter further comprises: - a stroke actuator acting on the temperature compensator (5; 25; 28), and - a further hydraulic chamber which is fluidically connected to the first sub-chamber of the hydraulic chamber (10, 11) of the temperature compensator (5; 25; 28), - wherein the further hydraulic chamber is in fluidic connection with a displaceably mounted actuating element. - a hydraulic temperature compensator (5; 25; 28), wherein the hydraulic temperature compensator (5; 25; 28) at least comprises - a longitudinally extensible hydraulic chamber (10, 11) and - a gas-filled chamber which is at least partly enclosed by the hydraulic chamber (10, 11), - wherein the hydraulic chamber (10, 11) is subdivided into a first sub-chamber and a second sub-chamber which are hydraulically connected to each other by means of at least one throttle point, - wherein the second sub-chamber adjoins the gas-filled chamber, - a stroke actuator acting on the temperature compensator (5; 25; 28), and - a further hydraulic chamber which is fluidically connected to the first sub-chamber of the hydraulic chamber (10, 11) of the temperature compensator (5; 25; 28), - wherein the further hydraulic chamber is in fluidic connection with a displaceably mounted actuating element.