mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling hearing devices , each hearing device being worn by a user , the hearing devices being communicatively interconnected with each other for data exchange to form a hearing device system , wherein the method comprises: acquiring a sound signal of each user with a microphone of the hearing device of the user ; determining from the sound signal a speaker signal , which indicates, whether the user is a speaking user ; determining a priority score for each user from the speaker signal of the user ; determining a punishment score for each user from the speaker signal of the user , wherein the punishment score of a user depends on the number of times, how often the speaker signal of the user indicates that the user starts to speak, during another user is speaking; outputting sound signals from speaking users to the users via the hearing devices of the users, such that sound signals from speaking users with a priority score smaller than a threshold are muted and the sound signal of a user is muted, when the punishment score of the user is higher than a threshold. acquiring a sound signal of each user with a microphone of the hearing device of the user ; determining from the sound signal a speaker signal , which indicates, whether the user is a speaking user ; determining a priority score for each user from the speaker signal of the user ; determining a punishment score for each user from the speaker signal of the user , wherein the punishment score of a user depends on the number of times, how often the speaker signal of the user indicates that the user starts to speak, during another user is speaking; outputting sound signals from speaking users to the users via the hearing devices of the users, such that sound signals from speaking users with a priority score smaller than a threshold are muted and the sound signal of a user is muted, when the punishment score of the user is higher than a threshold.
A shutter driver for generating a driving voltage for an optical shutter of a 3D image sensor device configured to generate 3D image data that includes depth information determined based on optical modulation signals, wherein the optical shutter operates using an electro-absorption mechanism, the shutter driver comprising: a resonator configured to resonate through an electrical energy exchange with the optical shutter to generate the driving voltage (Vdrv), wherein the shutter driver is characterized by further comprising: a loss compensator configured to provide electrical energy to the resonator to compensate for electrical energy lost due to parasitic resistance during the electrical energy exchange between the resonator and the optical shutter; and a first controller configured to provide a pair of control signals to control at least one of: an amount of electrical energy provided to the resonator by the loss compensator, and a time taken by the loss compensator to provide the electrical energy to the resonator, wherein the first controller comprises; a duty ratio controller (146e_2) adapted to generate a duty ratio control signal (XDR) based on the driving voltage (Vdrv); and a control signal output unit (146e_1) adapted to adjust the duty ratios of the pair of control signals in response to the generated duty ratio control signal (XDR). a loss compensator configured to provide electrical energy to the resonator to compensate for electrical energy lost due to parasitic resistance during the electrical energy exchange between the resonator and the optical shutter; and a first controller configured to provide a pair of control signals to control at least one of: an amount of electrical energy provided to the resonator by the loss compensator, and a time taken by the loss compensator to provide the electrical energy to the resonator, wherein the first controller comprises; a duty ratio controller (146e_2) adapted to generate a duty ratio control signal (XDR) based on the driving voltage (Vdrv); and a control signal output unit (146e_1) adapted to adjust the duty ratios of the pair of control signals in response to the generated duty ratio control signal (XDR).
Front engine mount system for an engine of an aircraft , the front engine mount system comprising: - an engine pylon comprising, in its front part, a frontal part having a mount wall , and - a front engine mount comprising, on either side of a median plane, a system of connecting rods (304a-b), where each system of connecting rods (304a-b) is attached in articulated fashion by at least one first connection point (306a-b, 310) to the mount wall and is designed to be attached in articulated fashion by at least one second connection point to a front part of the engine , and where each system of connecting rods (304a-b) comprises a front connecting rod and a rear connecting rod , where each first connection point (306a-b, 310) between the mount wall and a system of connecting rods (304a-b) is in the form of a clevis, where one wall of said clevis consists of the front connecting rod of said system of connecting rods (304a-b), where another wall of said clevis consists of the rear connecting rod of said system of connecting rods (304a-b), where the mount wall is arranged between the two connecting rods (305a-b), and where a pin passes through a bore of each connecting rod (305a-b) and a bore of the mount wall the front engine mount system being characterized in that it comprises, for each system of connecting rods (304a-b), a waiting fail-safe attachment point (314a-b) that is activated in the event of failure of a primary load path, and that creates an auxiliary load path between the engine and the engine pylon , in that each waiting fail-safe attachment point (314a-b) consists of a clevis created in the engine and a pin snugly fitted into bores of said clevis and passing through a bore of the mount wall , whose diameter is greater than the diameter of the pin. - an engine pylon comprising, in its front part, a frontal part having a mount wall , and - a front engine mount comprising, on either side of a median plane, a system of connecting rods (304a-b),
An earphone comprising: an earphone body provided with a speaker , the earphone body being adapted to be worn at least partly between, or internally of, the tragus and anti-tragus in the ear, and a transmission cable connected to the speaker for the transmission of electrical signals to the speaker , characterised in that the earphone comprises a loop of variable length and geometry formed at least in part by a part of the transmission cable, which, when the earphone body is in place, is adapted to be located at least partly in the concha (C) of the wearer and to engage the surface of the ear. an earphone body provided with a speaker , the earphone body being adapted to be worn at least partly between, or internally of, the tragus and anti-tragus in the ear, and a transmission cable connected to the speaker for the transmission of electrical signals to the speaker , characterised in that the earphone comprises a loop of variable length and geometry formed at least in part by a part of the transmission cable, which, when the earphone body is in place, is adapted to be located at least partly in the concha (C) of the wearer and to engage the surface of the ear.
A heating device comprising: - a heating appliance having a burner , - a first control unit having a non-volatile first memory , wherein the first control unit is arranged to control the heating appliance , wherein the first control unit and the associated first memory form a separately exchangeable assembly, - a second control unit having a non-volatile second memory , wherein the second control unit is arranged to control a component or assembly of the heating device , wherein the second control unit and the associated second memory form a further separately exchangeable assembly, wherein the first control unit is arranged to perform the following steps after its activation following initial installation or following maintenance or repair: - reading a first data set (DS1) from the first memory , - reading a second data set (DS2) from the second memory , - performing a check to determine whether at least one of the data sets (DS1, DS2) has been stored and transmitted without errors and is therefore correct, whereby each data set (DS1, DS2) is checked separately using a check value procedure, - if no correct data set (DS1, DS2) was detected, creating the first data set (DS1) and the second data set (DS2) based on default or factory settings and/or initialization sequences and storing the first data set (DS1) and the second data set (DS2), and - if one correct and one incorrect data set (DS1, DS2) was detected, replacing the incorrect data set (DS1 or DS2) with the correct data set (DS2 or DS1). - a heating appliance having a burner , - a first control unit having a non-volatile first memory , wherein the first control unit is arranged to control the heating appliance , wherein the first control unit and the associated first memory form a separately exchangeable assembly, - a second control unit having a non-volatile second memory , wherein the second control unit is arranged to control a component or assembly of the heating device , wherein the second control unit and the associated second memory form a further separately exchangeable assembly, - reading a first data set (DS1) from the first memory , - reading a second data set (DS2) from the second memory , - performing a check to determine whether at least one of the data sets (DS1, DS2) has been stored and transmitted without errors and is therefore correct, whereby each data set (DS1, DS2) is checked separately using a check value procedure, - if no correct data set (DS1, DS2) was detected, creating the first data set (DS1) and the second data set (DS2) based on default or factory settings and/or initialization sequences and storing the first data set (DS1) and the second data set (DS2), and - if one correct and one incorrect data set (DS1, DS2) was detected, replacing the incorrect data set (DS1 or DS2) with the correct data set (DS2 or DS1).
A liposome within which RNA encoding an immunogen of interest is encapsulated, wherein the liposome comprises a lipid with a cationic head group, a lipid with a zwitterionic head group and has a diameter in the range of 60-180nm, wherein the immunogen is a spike glycoprotein.
A foamed stretch-formed polyolefin resin body which has a polyolefin resin single-layer structure that is physically foamed into an expansion ratio of 1.01 to 2.0 times, wherein the surface roughness Ra (JIS-B-0601-1994) is not more than 10 μm in the region where the cells are distributed therein, wherein the polyolefin resin has an MFR (AST M-D-1238, 230°C) of 1 to 80 g/10 min; and wherein the polyolefin resin satisfies the following conditions (A) and (B) : (A) a random polypropylene is contained in an amount of not less than 70% by weight; and (B) in a melting curve obtained by the DSC measurement, by using the Diamond DSC manufactured by Perkin Elmer Co. as a measuring apparatus and measuring pellets of the polyolefin resin under the condition of elevating the temperature at a rate of 10 °C/min, a maximum strength peak temperature is lower than 150°C, and a difference (Ti - Tf) is not lower than 50°C between a melt start temperature (Ti) at a melt peak inclusive of a maximum strength peak and a melt end temperature (Tf). (A) a random polypropylene is contained in an amount of not less than 70% by weight; and (B) in a melting curve obtained by the DSC measurement, by using the Diamond DSC manufactured by Perkin Elmer Co. as a measuring apparatus and measuring pellets of the polyolefin resin under the condition of elevating the temperature at a rate of 10 °C/min, a maximum strength peak temperature is lower than 150°C, and a difference (Ti - Tf) is not lower than 50°C between a melt start temperature (Ti) at a melt peak inclusive of a maximum strength peak and a melt end temperature (Tf).
A nested data package (A0) for providing pairing information or other second freight data from an administrative controller to at least one second controller using a first controller as a transporter, characterized in that : - the nested data package (A0) comprises at least a first data layer (A1) being encrypted using a first key (uk 1 ) of the first controller , wherein the first data layer (A1) comprises at least first freight data (FD1) and a second data layer (A2), - as alternative (i) the second data layer (A2) is encrypted using a second key (uk 2 ) of the second controller and comprises a third data layer (A3), or as alternative (ii) the second data layer (A2) comprises at least a digital signature (DS) of an administrative controller attached to a third data layer (A3) and the third data layer (A3) - in case of alternative (i), the third data layer (A3) comprises at least a digital signature (DS) of an administrative controller attached to a fourth data layer (A4) and the fourth data layer (A4) and in case of alternative (ii) the third data layer (A3) is encrypted using a second key (uk 2 ) of the second controller and comprises a fourth data layer (A4) and in that - the fourth data layer (A4) comprises at least second freight data (FD 2), wherein the second freight data (FD2) comprises at least the first key (uk 1 ) and/or a first ID (ID1) of the first controller and/or an expected second response (R2) of the first controller . - the nested data package (A0) comprises at least a first data layer (A1) being encrypted using a first key (uk 1 ) of the first controller , wherein the first data layer (A1) comprises at least first freight data (FD1) and a second data layer (A2), - as alternative (i) the second data layer (A2) is encrypted using a second key (uk 2 ) of the second controller and comprises a third data layer (A3), or as alternative (ii) the second data layer (A2) comprises at least a digital signature (DS) of an administrative controller attached to a third data layer (A3) and the third data layer (A3) - in case of alternative (i), the third data layer (A3) comprises at least a digital signature (DS) of an administrative controller attached to a fourth data layer (A4) and the fourth data layer (A4) and in case of alternative (ii) the third data layer (A3) is encrypted using a second key (uk 2 ) of the second controller and comprises a fourth data layer (A4) and in that - the fourth data layer (A4) comprises at least second freight data (FD 2), wherein the second freight data (FD2) comprises at least the first key (uk 1 ) and/or a first ID (ID1) of the first controller and/or an expected second response (R2) of the first controller .
A positioning method performed by a network side positioning apparatus, comprising: determining (S101) a measurement configuration message of a User Equipment, UE, wherein the measurement configuration message comprises UE-level measurement reference signal configuration information; sending (SI02) the measurement configuration message to the UE to instruct the UE to perform measurement and reporting; positioning (S103) the UE based on a measurement result reported by the UE; characterized in that : wherein the UE-level measurement reference signal configuration information particularly comprises: Synchronization Signal block, SS block, configuration information; wherein the measurement result comprises: Reference Signal Received Power of SS Blocks, SS-RSRP, and/or Time Difference of Arrival of SS blocks, SS-TDOA; wherein the measurement result further comprises: a cell identity and an SS block time index, corresponding to the SS-RSRP. determining (S101) a measurement configuration message of a User Equipment, UE, wherein the measurement configuration message comprises UE-level measurement reference signal configuration information; sending (SI02) the measurement configuration message to the UE to instruct the UE to perform measurement and reporting; positioning (S103) the UE based on a measurement result reported by the UE; wherein the UE-level measurement reference signal configuration information particularly comprises: Synchronization Signal block, SS block, configuration information; wherein the measurement result comprises: Reference Signal Received Power of SS Blocks, SS-RSRP, and/or Time Difference of Arrival of SS blocks, SS-TDOA; wherein the measurement result further comprises: a cell identity and an SS block time index, corresponding to the SS-RSRP.
A method performed by a handle of a conducted electrical weapon, CEW , for determining whether a pulse of a stimulus signal provided a predetermined amount of charge, the stimulus signal for impeding locomotion of a human or animal target, the method comprising: discharging a capacitance (CMH); providing a current for a duration of time to charge the capacitance to a first voltage, the duration of time related to the predetermined amount of charge; after charging, recording a magnitude of the first voltage; discharging the capacitance; providing the pulse of the stimulus signal, providing the pulse charges the capacitance to a second voltage, the second voltage is related to an amount of charge provided by the pulse; and comparing the magnitude of the first voltage to a magnitude of the second voltage to determine whether the pulse provided the predetermined amount of charge. discharging a capacitance (CMH); providing a current for a duration of time to charge the capacitance to a first voltage, the duration of time related to the predetermined amount of charge; after charging, recording a magnitude of the first voltage; discharging the capacitance; providing the pulse of the stimulus signal, providing the pulse charges the capacitance to a second voltage, the second voltage is related to an amount of charge provided by the pulse; and comparing the magnitude of the first voltage to a magnitude of the second voltage to determine whether the pulse provided the predetermined amount of charge.
A magnetic image sensor, comprising: - a magnetic resistance , arranged along a scanning direction and configured to detect a changed magnetic signal in a range to be detected, wherein the magnetic resistance is a Tunneling Magnetic Resistance, TMR, manufactured on a semiconductor silicon wafer by vacuum coating, and a first pad and a second pad are configured to connect two ends of the TMR ; - a configuration resistance , connected with the magnetic resistance , wherein a resistance value of the configuration resistance is adjustable, wherein the configuration resistance is connected with the magnetic resistance in a one-to-one corresponding manner; and - a driving circuit , connected with the magnetic resistance and configured to perform output control on the changed magnetic signal detected by the magnetic resistance . - a magnetic resistance , arranged along a scanning direction and configured to detect a changed magnetic signal in a range to be detected, wherein the magnetic resistance is a Tunneling Magnetic Resistance, TMR, manufactured on a semiconductor silicon wafer by vacuum coating, and a first pad and a second pad are configured to connect two ends of the TMR ; - a configuration resistance , connected with the magnetic resistance , wherein a resistance value of the configuration resistance is adjustable, wherein the configuration resistance is connected with the magnetic resistance in a one-to-one corresponding manner; and - a driving circuit , connected with the magnetic resistance and configured to perform output control on the changed magnetic signal detected by the magnetic resistance .
A knob assembly includes: a knob body that is disposed at a front surface of a control panel and that is configured to rotate with respect to a rotation shaft extended in a front-rear direction of the knob assembly ; a light diffusing part that is disposed at a rear side of the knob body and that is configured to diffuse light; and a light source part that is disposed at a rear side of the light diffusing part and that includes one or more light sources , wherein the light diffusing part comprises a light source corresponding part (123-1) that is disposed at a position corresponding to one of the one or more light sources , and characterised in that , a thickness of the light diffusing part along a virtual first straight line (L1) that passes from a center (O) of the light diffusing part through the light source corresponding part (123-1) is greater than a thickness of the light diffusing part along a virtual straight line (L4) from a center (O) of the light diffusing part that does not pass through the light source corresponding part (123-1), the virtual first straight line (L1) and the virtual straight line (L4) being in a plane to which the front rear direction is perpendicular. a knob body that is disposed at a front surface of a control panel and that is configured to rotate with respect to a rotation shaft extended in a front-rear direction of the knob assembly ; a light diffusing part that is disposed at a rear side of the knob body and that is configured to diffuse light; and a light source part that is disposed at a rear side of the light diffusing part and that includes one or more light sources , wherein the light diffusing part comprises a light source corresponding part (123-1) that is disposed at a position corresponding to one of the one or more light sources , and characterised in that , a thickness of the light diffusing part along a virtual first straight line (L1) that passes from a center (O) of the light diffusing part through the light source corresponding part (123-1) is greater than a thickness of the light diffusing part along a virtual straight line (L4) from a center (O) of the light diffusing part that does not pass through the light source corresponding part (123-1), the virtual first straight line (L1) and the virtual straight line (L4) being in a plane to which the front rear direction is perpendicular.
A process to produce composite particles; the process comprises a loading step, during which silver-based nanoparticles are obtained bound to outer surfaces of microparticles of TiO 2 so as to obtain said composite particles; said loading step comprising, in turn, a mixing sub-step, a drying sub-step and a heating sub-step, which is at least partially subsequent to the drying sub-step; during the mixing sub-step, a solution containing silver ions and the microparticles of TiO 2 is kept under stirring so as to obtain an intermediate mixture; during the drying sub-step, the water content of the intermediate mixture is reduced (in particular, the intermediate mixture is dried) by supplying heat to the intermediate mixture itself; during the heating sub-step, said intermediate mixture is kept at a temperature higher than 300°C for at least 30 minutes; the silver-based nanoparticles being selected from the group consisting of: silver nanoparticles, silver oxide nanoparticles and a combination thereof; the silver-based nanoparticles comprise silver oxide; the microparticles of TiO 2 having a mean diameter from 0.1 μm to 1 pm; at least 98% by weight of the microparticles of TiO 2 with respect to the overall weight of the microparticles of TiO 2 being of anatase.