mhurhangee/patent-ind-claim-en huggingface dataset:
A method for time-synchronizing signal data from independent recording devices for comparative analysis comprising steps of: receiving a first dataset and a second dataset from separate recording devices , each dataset comprising a plurality of sequential samples representing a signal over a period of time, at least one of the plurality of samples of each dataset comprising a PPS-tagged sample tagged by utilizing a pulse-per-second (PPS) signal indicating that the sample was taken immediately after a rising edge of a pulse in the PPS signal obtained from a highly accurate time source onboard the recording device ; extracting indices of the PPS-tagged samples along with corresponding time values from the first dataset and the second dataset; determining a common time value between the first dataset and the second dataset along with the indices of the corresponding PPS-tagged samples; extracting frames of a specific length from the first dataset and the second dataset aligned on the PPS-tagged samples corresponding to the common time value; and performing comparative analysis between the frames, characterized in that the method further comprises calculating an overall signal energy for each frame and excluding frames having an overall signal energy exceeding a predetermined threshold from the comparative analysis. receiving a first dataset and a second dataset from separate recording devices , each dataset comprising a plurality of sequential samples representing a signal over a period of time, at least one of the plurality of samples of each dataset comprising a PPS-tagged sample tagged by utilizing a pulse-per-second (PPS) signal indicating that the sample was taken immediately after a rising edge of a pulse in the PPS signal obtained from a highly accurate time source onboard the recording device ; extracting indices of the PPS-tagged samples along with corresponding time values from the first dataset and the second dataset; determining a common time value between the first dataset and the second dataset along with the indices of the corresponding PPS-tagged samples; extracting frames of a specific length from the first dataset and the second dataset aligned on the PPS-tagged samples corresponding to the common time value; and performing comparative analysis between the frames, characterized in that the method further comprises calculating an overall signal energy for each frame and excluding frames having an overall signal energy exceeding a predetermined threshold from the comparative analysis.
A connecting device for electric motor testing, characterized in that an electric motor to be tested is placed in a thermostat , the connecting device penetrates a side wall of the thermostat and comprises a housing , a connecting shaft and at least two seals, the connecting shaft comprises a first section , a second section , and an intermediate section located between the first section and the second section, the first section, the second section and the intermediate section are integrally formed, the intermediate section is located inside the housing, and the first section and the second section are located outside the housing; the at least two seals are sleeved on an outer peripheral wall of the intermediate section and are in tight fit with the housing, and at least one sealed cavity is enclosed together by the at least two seals , the outer peripheral wall of the intermediate section and an inner wall of the housing, and is filled with compressed air to support the connecting shaft; and the first section is connected to a piece of external electric motor testing equipment outside a thermostat, and the second section is connected to the electric motor inside the thermostat. the connecting shaft comprises a first section , a second section , and an intermediate section located between the first section and the second section, the first section, the second section and the intermediate section are integrally formed, the intermediate section is located inside the housing, and the first section and the second section are located outside the housing; the at least two seals are sleeved on an outer peripheral wall of the intermediate section and are in tight fit with the housing, and at least one sealed cavity is enclosed together by the at least two seals , the outer peripheral wall of the intermediate section and an inner wall of the housing, and is filled with compressed air to support the connecting shaft; and the first section is connected to a piece of external electric motor testing equipment outside a thermostat, and the second section is connected to the electric motor inside the thermostat.
An electric cable for supplying power to aircrafts, rail vehicles, motor vehicles, ships or other devices, which is provided with a central current conductor consists of conductor wires and with at least one insulation , a return conductor , which is arranged concentrically around the current conductor , consisting of a number of individual conductors , which are stranded together, and several controlling chargers as control and/or dummy cores, which are embedded between the conductors , and an outer casing , wherein the electric cable is designed as a single cable, wherein the individual conductors of the return conductor are dimensioned with an overall cross-section, which corresponds approximately to that of the conductor made of the conductor wires , wherein reinforcing elements are associated with the outer casing distributed over the entire circumference and allocated to the outer casing , or the outer casing consists of a plurality of layers .
A flavor generation system, comprising: a power source unit that includes a power source that is electrically connected to or connectable to a load for atomizing an aerosol source or heating a flavor source, and a first controller ; and a charging unit that includes a second controller and that is capable of charging the power source, wherein the power source unit further includes a first temperature sensor capable of outputting a detected value or an estimated value of a temperature of the power source, wherein the first controller is configured to control a charging speed of the power source based on an output value of the first temperature sensor, wherein the charging unit further includes a conversion unit that is capable of converting a voltage or a current of input electric power and outputting the converted voltage or current, and a second temperature sensor , characterised in that the conversion unit is configured to be capable of performing a first charging mode, and a second charging mode in which a value of electric power or a current per unit time that can be output by the conversion unit is greater than that in the first charging mode, and in that the second controller is configured to cause the conversion unit to perform the second charging mode in a case where the output value of the second temperature sensor is equal to or higher than a threshold, and cause the conversion unit to perform the first charging mode in a case where the output value of the second temperature sensor is lower than the threshold. a power source unit that includes a power source that is electrically connected to or connectable to a load for atomizing an aerosol source or heating a flavor source, and a first controller ; and a charging unit that includes a second controller and that is capable of charging the power source, wherein the power source unit further includes a first temperature sensor capable of outputting a detected value or an estimated value of a temperature of the power source, wherein the first controller is configured to control a charging speed of the power source based on an output value of the first temperature sensor, wherein the charging unit further includes a conversion unit that is capable of converting a voltage or a current of input electric power and outputting the converted voltage or current, and a second temperature sensor , characterised in that the conversion unit is configured to be capable of performing a first charging mode, and a second charging mode in which a value of electric power or a current per unit time that can be output by the conversion unit is greater than that in the first charging mode, and in that the second controller is configured to cause the conversion unit to perform the second charging mode in a case where the output value of the second temperature sensor is equal to or higher than a threshold, and cause the conversion unit to perform the first charging mode in a case where the output value of the second temperature sensor is lower than the threshold.
A glass building material , comprising: a first photovoltaic string of a bifacial light-receiving type which has a shape extending in one direction; a second photovoltaic string of a bifacial light-receiving type which is arranged next to the first photovoltaic string in a width direction, and which has a shape extending in the one direction; a first glass substrate which is configured to cover one surface side of the first photovoltaic string and one surface side of the second photovoltaic string ; and a reflective film which is arranged on at least part of another surface side of the first photovoltaic string and another surface side of the second photovoltaic string , which has a transmittance higher than a reflectance in a visible light region, and which has a reflectance higher than a transmittance in a near-infrared region, characterised in that a distance (d) between the reflective film and the first photovoltaic string is at least 0.1 times as large as a width (W1) of the first photovoltaic string . a first photovoltaic string of a bifacial light-receiving type which has a shape extending in one direction; a second photovoltaic string of a bifacial light-receiving type which is arranged next to the first photovoltaic string in a width direction, and which has a shape extending in the one direction; a first glass substrate which is configured to cover one surface side of the first photovoltaic string and one surface side of the second photovoltaic string ; and a reflective film which is arranged on at least part of another surface side of the first photovoltaic string and another surface side of the second photovoltaic string , which has a transmittance higher than a reflectance in a visible light region, and which has a reflectance higher than a transmittance in a near-infrared region, characterised in that a distance (d) between the reflective film and the first photovoltaic string is at least 0.1 times as large as a width (W1) of the first photovoltaic string .
A seal assembly comprising: a side ring , wherein the side ring comprises an annular piece of solid material; and a cartridge affixed to the side ring , the cartridge comprising: a shoulder ; a beam connected to and extending from the shoulder; a shoe attached to an end of the beam ; and a rotary seal disposed on a bottom portion of the shoe , characterised by : a removable pin that engages with the cartridge and the side ring such that a portion of the cartridge is fastened to the side ring , wherein the side ring has a hole, and the pin extends through a portion of the shoulder and into the hole of the side ring . a side ring , wherein the side ring comprises an annular piece of solid material; and a cartridge affixed to the side ring , the cartridge comprising: a shoulder ; a beam connected to and extending from the shoulder; a shoe attached to an end of the beam ; and a rotary seal disposed on a bottom portion of the shoe , a shoulder ; a beam connected to and extending from the shoulder; a shoe attached to an end of the beam ; and a rotary seal disposed on a bottom portion of the shoe ,
An electrode assembly comprising: an active material compact ; a first solid electrolyte ; and a second amorphous solid electrolyte , wherein the active material compact includes a plurality of voids, the first solid electrolyte is formed on a surface of the active material compact containing the plurality of voids such that the first solid electrolyte is formed in the plurality of voids, and at least a part of the first solid electrolyte is in contact with the active material compact , and the second amorphous solid electrolyte is formed so as to cover the first solid electrolyte and the active material compact such that the second amorphous solid electrolyte is formed in voids of the assembly of the active material compact and the first solid electrolyte , and is formed of an oxide containing Si or B. an active material compact ; a first solid electrolyte ; and a second amorphous solid electrolyte , wherein the active material compact includes a plurality of voids, the first solid electrolyte is formed on a surface of the active material compact containing the plurality of voids such that the first solid electrolyte is formed in the plurality of voids, and at least a part of the first solid electrolyte is in contact with the active material compact , and the second amorphous solid electrolyte is formed so as to cover the first solid electrolyte and the active material compact such that the second amorphous solid electrolyte is formed in voids of the assembly of the active material compact and the first solid electrolyte , and is formed of an oxide containing Si or B.
Brake actuator for an aircraft hydraulic brake, which is intended to be added into one of the cavities of a brake ring, the actuator comprising - a liner designed to be housed sealingly in the cavity of the ring; - a piston mounted to slide sealingly in the liner along an axis of sliding (X) so as to apply a braking force on friction pads when a fluid is introduced under pressure into the cavity, and having a determined operational travel; - a wear compensation device which defines a position to which the piston retreats into the liner by means of a mobile stop that can be moved forward by the piston as a braking force is applied; - an elastic return member returning the piston towards the retracted position bearing against the mobile stop; characterized in that the mobile stop is reduced to a friction member rubbing against the liner, such that one of the faces of the friction member serves as a stop defining the retracted position of the piston, and the other of the faces serves as a support for the elastic return member, the elastic member having, when compressed, a sufficient increase in force in order to be able to push back the mobile stop in the event that the piston is not in contact with the friction pads while its operational travel is already exhausted. - a liner designed to be housed sealingly in the cavity of the ring; - a piston mounted to slide sealingly in the liner along an axis of sliding (X) so as to apply a braking force on friction pads when a fluid is introduced under pressure into the cavity, and having a determined operational travel; - a wear compensation device which defines a position to which the piston retreats into the liner by means of a mobile stop that can be moved forward by the piston as a braking force is applied; - an elastic return member returning the piston towards the retracted position bearing against the mobile stop;
An endoscope comprising: a shaft having an outer shaft diameter, a distal shaft portion, a proximal shaft portion, and a longitudinal axis therebetween, wherein the shaft is configured to rotate at least about 180° about the axis; a handle coupled to the proximal portion of the shaft ; an electrical connector fixed to the handle an electronic image sensor with a diagonal dimension carried by the distal portion of the shaft ; electrical leads extending from the image sensor to the connector fixed in the handle , wherein the electrical leads are flexible and configured with a slack portion in the interior of the handle to accommodate rotation of the shaft ; and a channel extending through at least the distal shaft portion and having a channel diameter, wherein a section of the channel in the distal portion is re-configurable between a constricted shape and a non-constricted shape to accommodate a tool introduced therethrough and wherein the combined diagonal dimension and channel diameter is greater than the outer shaft diameter, wherein one end of the slack portion extends around the longitudinal axis of the rotating shaft and is carried on a spool and the spool is concentric with the longitudinal axis of the shaft. a shaft having an outer shaft diameter, a distal shaft portion, a proximal shaft portion, and a longitudinal axis therebetween, wherein the shaft is configured to rotate at least about 180° about the axis; a handle coupled to the proximal portion of the shaft ; an electrical connector fixed to the handle an electronic image sensor with a diagonal dimension carried by the distal portion of the shaft ; electrical leads extending from the image sensor to the connector fixed in the handle , wherein the electrical leads are flexible and configured with a slack portion in the interior of the handle to accommodate rotation of the shaft ; and a channel extending through at least the distal shaft portion and having a channel diameter, wherein a section of the channel in the distal portion is re-configurable between a constricted shape and a non-constricted shape to accommodate a tool introduced therethrough and wherein the combined diagonal dimension and channel diameter is greater than the outer shaft diameter, wherein one end of the slack portion extends around the longitudinal axis of the rotating shaft and is carried on a spool and the spool is concentric with the longitudinal axis of the shaft.
A method comprising: obtaining a code to be printed on one or more products by a laser marking device configured to direct a laser beam in two orthogonal directions to move between different locations and to dwell at the different locations to form marks on the one or more products ; grouping discrete symbols in the code with each other into separate symbol groups based on locations of the discrete symbols in the code; organizing the separate symbol groups into one or more macro-level stripes in a direction perpendicular to a direction of motion of the one or more products in a product line configured to move products through a facility; organizing one or more symbols in each respective symbol group into one or more stripes in the direction perpendicular to the direction of motion; adding an extra distance or a time delay between stripes in at least one of the separate symbol groups to prevent clipping of a symbol by the laser marking device due to a print aperture of the laser marking device; and causing the laser marking device to direct the laser beam in accordance with the separate symbol groups, including using the extra distance or the time delay between the stripes in the at least one of the separate symbol groups. obtaining a code to be printed on one or more products by a laser marking device configured to direct a laser beam in two orthogonal directions to move between different locations and to dwell at the different locations to form marks on the one or more products ; grouping discrete symbols in the code with each other into separate symbol groups based on locations of the discrete symbols in the code; organizing the separate symbol groups into one or more macro-level stripes in a direction perpendicular to a direction of motion of the one or more products in a product line configured to move products through a facility; organizing one or more symbols in each respective symbol group into one or more stripes in the direction perpendicular to the direction of motion; adding an extra distance or a time delay between stripes in at least one of the separate symbol groups to prevent clipping of a symbol by the laser marking device due to a print aperture of the laser marking device; and causing the laser marking device to direct the laser beam in accordance with the separate symbol groups, including using the extra distance or the time delay between the stripes in the at least one of the separate symbol groups.
An implantable microparticle (100; 200) comprising: a generally spherical body, the body comprising: a first material (102; 202) comprising a biodegradable magnesium based compound or a biodegradable magnesium based alloy; a second material (104; 204) different than the first material, the second material comprising one or more of gallium arsenide, dysprosium, lanthanum iron oxide, lanthanide (e.g. LaFe-Si-H) particles, cobalt, and neodymium, wherein the second material is distributed throughout the first material to avoid hot spots within the microparticle; wherein the first material is a non-Curie temperature material or has a Curie temperature lower than a Curie temperature of the second material; and wherein the first material (102; 202) and the second material (104; 204) form a composite having a Curie temperature in the range of 35 °C and 100 °C. a first material (102; 202) comprising a biodegradable magnesium based compound or a biodegradable magnesium based alloy; a second material (104; 204) different than the first material, the second material comprising one or more of gallium arsenide, dysprosium, lanthanum iron oxide, lanthanide (e.g. LaFe-Si-H) particles, cobalt, and neodymium, wherein the second material is distributed throughout the first material to avoid hot spots within the microparticle; wherein the first material is a non-Curie temperature material or has a Curie temperature lower than a Curie temperature of the second material; and wherein the first material (102; 202) and the second material (104; 204) form a composite having a Curie temperature in the range of 35 °C and 100 °C.
A method of regulating a permanent magnet synchronous motor , which is preferably installed in a vacuum device , in particular during a starting up or braking of the permanent magnet synchronous motor , wherein the permanent magnet synchronous motor comprises a permanent magnet rotor and a plurality of coils which are preferably arranged about an axis of rotation of the permanent magnet rotor and which can be controlled with a voltage vector which preferably rotates about the axis of rotation, characterized in that the method at least comprises the following steps: determining a target voltage vector, which is necessary for achieving a desired movement of the permanent magnet rotor , and a target degree of control; determining a first time period for controlling the coils with a first voltage vector and a second time period for controlling the coils with a second voltage vector such that a control of the coils resulting from the control of the coils during the first time period and the second time period is equivalent to a control of the coils with the target voltage vector and the target degree of control; controlling the coils with the first voltage vector for the first time period; controlling the coils with the second voltage vector for the second time period before or after the first time period; determining a current slope based on a current change in the coils during the first time period and/or during the second time period; and regulating the permanent magnet synchronous motor based on the determined current slope. determining a target voltage vector, which is necessary for achieving a desired movement of the permanent magnet rotor , and a target degree of control; determining a first time period for controlling the coils with a first voltage vector and a second time period for controlling the coils with a second voltage vector such that a control of the coils resulting from the control of the coils during the first time period and the second time period is equivalent to a control of the coils with the target voltage vector and the target degree of control; controlling the coils with the first voltage vector for the first time period; controlling the coils with the second voltage vector for the second time period before or after the first time period; determining a current slope based on a current change in the coils during the first time period and/or during the second time period; and regulating the permanent magnet synchronous motor based on the determined current slope.