mhurhangee/ep-ind-claims huggingface dataset:
A passage barrier system for controlling the passage of pedestrians, comprising a barrier member, a barrier member support and an actuator means, said barrier member being rotatable by the actuator means about a vertical rotation axis of the barrier member support between a position blocking in use the passage of pedestrians and a position enabling in use said passage, a sensor means for detecting the rotation angle of the barrier member and a controller means fed by an output signal of the sensor means for controlling the actuator means, wherein the controller means comprises a memory storing a list of rotation angles including - a first angle defining the rotation position of the barrier member allowing for blocking the passing of pedestrians, - a second angle defining the rotation position of the barrier member allowing for the passing of the pedestrians in one direction, and the controller means is adapted to continuously read the rotation angle of the barrier member detected by the sensor means to thereby actuate the actuator means if the measured angle of the barrier member does not coincide with a selected one of the list of rotation angles, wherein the actuator means ceases to be actuated when the measured angle coincides with a selected one of the angles of the list of rotation angles to thereby define a blocking or the passing position of the barrier member for the blocking or the passing of pedestrians, characterized in that the sensor means comprises a capacitive rotation encoder, having a rotor and stator, the memory listing comprises a third angle defining the rotation position of the barrier member allowing for the passing of the pedestrians in the other direction, and in order to allow for a uniform movement of the barrier member irrespective of actuator means movement fluctuations, its angular speed is detected from the temporal evolvement of the output signal of the capacitive rotation encoder and a correction signal is generated by the controller means in case the detected angular speed should differ from a predetermined angular target speed, wherein the correction signal is fed to a driver for the actuator means to adjust the speed of this means. - a first angle defining the rotation position of the barrier member allowing for blocking the passing of pedestrians, - a second angle defining the rotation position of the barrier member allowing for the passing of the pedestrians in one direction, and
An universal error-correction circuit with fault-tolerant nature, comprising: an error-correction unit with fault-tolerant nature implemented by a logic gate, wherein digital input signals of the error-correction unit with fault-tolerant nature are separately I 0, I 1..., I 2k -1, and I 2k, digital output signals or signal of the error-correction unit with fault-tolerant nature are separately O 0, O 1..., O k -2, and O k -1, and the digital input signals and the digital output signals belong to a set {0,1}, wherein k is a positive integer; and the error-correction unit with fault-tolerant nature is configured to: when k=1, if I 0 = I 1, set O 0 = I 0; and if I 0 is not equal to I 1, set O 0 = I 2 and when k>1, if O k -2 = I 2k -1, set O k -1 = I 2 k -1; and if O k - 2 is not equal to I 2k-1 set O k -1 = I 2 k. when k=1, if I 0 = I 1, set O 0 = I 0; and if I 0 is not equal to I 1, set O 0 = I 2 and when k>1, if O k -2 = I 2k -1, set O k -1 = I 2 k -1; and if O k - 2 is not equal to I 2k-1 set O k -1 = I 2 k.
An implant comprising: a body comprising a plurality of coil springs (30, 32, 40, 42) formed of an osteoconductive material; the body comprising a stiffness of between 400 megapascals (MPa) and 1,200 MPa; and the body comprising a plurality of pores having an average size of between 150 microns and 600 microns. a body comprising a plurality of coil springs (30, 32, 40, 42) formed of an osteoconductive material; the body comprising a stiffness of between 400 megapascals (MPa) and 1,200 MPa; and the body comprising a plurality of pores having an average size of between 150 microns and 600 microns.
Self-propelled surface treatment unit with a drive device for the autonomous travel of the surface treatment unit within an environment, an energy storage device, a data storage device having an environmental map of the environment, and a navigation device for the navigation and self-location of the surface treatment unit within the environment, on the basis of the environmental map, wherein the environmental map has environmental zones (7, 8, 9, 10), wherein the environmental map has energy data for at least two environmental zones (7, 8, 9, 10), which indicates the amount of energy that the surface treatment unit will require for the surface treatment of the respective environmental zone (7, 8, 9, 10) and characterized in that a control and evaluation device is provided, which is equipped to access the environmental map, to compare the stored amounts of energy with one another, and, as a function of the stored amounts of energy, to determine a sequence in which the environmental zones (7, 8, 9, 10) are treated in succession.
A method for reading data stored in a polymer, comprising: i) providing an RLC resonator having an inductor and a cell, the cell having a nanopore and a polymer that can traverse through the nanopore, the resonator having an AC output voltage frequency response at a probe frequency in response to an AC input voltage at the probe frequency; ii) providing the AC input voltage having at least the probe frequency; and iii) monitoring the AC output voltage at least at the probe frequency, the AC output voltage at the probe frequency being indicative of the data stored in the polymer at the time of monitoring, wherein the cell comprises at least two compartments and at least a top and bottom electrode, the nanopore being disposed between the electrodes, and the cell having a fluid therein, wherein the polymer is moved through the nanopore via a DC steering voltage applied to the electrodes, wherein the DC steering voltage being provided by a controller, wherein the electrodes, the nanopore and the fluid having an effective cell capacitance that changes when the polymer passes through the nanopore, and wherein the inductor is connected in series with the cell to create the resonator, a combination of the inductor and effective cell capacitance being related to the resonant frequency response. i) providing an RLC resonator having an inductor and a cell, the cell having a nanopore and a polymer that can traverse through the nanopore, the resonator having an AC output voltage frequency response at a probe frequency in response to an AC input voltage at the probe frequency; ii) providing the AC input voltage having at least the probe frequency; and iii) monitoring the AC output voltage at least at the probe frequency, the AC output voltage at the probe frequency being indicative of the data stored in the polymer at the time of monitoring, wherein the cell comprises at least two compartments and at least a top and bottom electrode, the nanopore being disposed between the electrodes, and the cell having a fluid therein, wherein the polymer is moved through the nanopore via a DC steering voltage applied to the electrodes, wherein the DC steering voltage being provided by a controller, wherein the electrodes, the nanopore and the fluid having an effective cell capacitance that changes when the polymer passes through the nanopore, and wherein the inductor is connected in series with the cell to create the resonator, a combination of the inductor and effective cell capacitance being related to the resonant frequency response.
A stretchable laminate sheet including a thermoplastic stretchable film laminated on a non-woven fabric containing thermoplastic fiber therein, wherein: the non-woven fabric and the stretchable film are welded together at a plurality of first welding portions and a plurality of second welding portions; the first welding portions each have a longer first length in a first direction, and each have a first width, shorter than the first length, in a second direction perpendicular to the first direction; and the second welding portions each have a longer second length in a third direction crossing the first direction, and each have a second width, shorter than the second length, in a fourth direction perpendicular to the third direction; wherein the first and the second welding portions (1, 2) are arranged along sides, excluding corners, of virtual polygonal shapes each having four or more sides, and each area (α) surrounded by the corners of each of the polygonal shapes and the first and the second welding portions (1, 2) is a non-welding portion where the non-woven fabric and the stretchable film are not welded together. the non-woven fabric and the stretchable film are welded together at a plurality of first welding portions and a plurality of second welding portions; the first welding portions each have a longer first length in a first direction, and each have a first width, shorter than the first length, in a second direction perpendicular to the first direction; and the second welding portions each have a longer second length in a third direction crossing the first direction, and each have a second width, shorter than the second length, in a fourth direction perpendicular to the third direction; wherein the first and the second welding portions (1, 2) are arranged along sides, excluding corners, of virtual polygonal shapes each having four or more sides, and each area (α) surrounded by the corners of each of the polygonal shapes and the first and the second welding portions (1, 2) is a non-welding portion where the non-woven fabric and the stretchable film are not welded together.
A system for accurately delivering controlled amounts of viscous fluid from a fluid reservoir to one or more fluid delivery devices (161, 162), comprising: a variable-volume fill chamber that defines a cavity that is adapted to contain the fluid; a movable plunger in the fill chamber cavity that can be moved within the cavity to vary the effective volume of the cavity; a structure fluidly interconnecting the reservoir to the fill chamber; a device that automatically moves the plunger so as to dispense fluid from the fill chamber; a structure fluidly interconnecting fluid flowing from the fill chamber to one or more fluid delivery devices (161, 162); and a controller that automatically controls operation of the device that moves the plunger, to dispense a predetermined amount of fluid from the fill chamber to the fluid delivery devices (161, 162), characterized in that the plunger defines a plunger body that carries a seal (104a, 104b) proximate its distal end that is located in the fill chamber cavity, and further defines a passageway in the plunger body that begins distally of the seal (104a, 104b) and terminates at the distal end proximally of the seal (104a, 104b), and further defines a selectively-operable valve in the passageway, wherein the valve can be opened to allow air to be bled from the cavity. a variable-volume fill chamber that defines a cavity that is adapted to contain the fluid; a movable plunger in the fill chamber cavity that can be moved within the cavity to vary the effective volume of the cavity; a structure fluidly interconnecting the reservoir to the fill chamber; a device that automatically moves the plunger so as to dispense fluid from the fill chamber; a structure fluidly interconnecting fluid flowing from the fill chamber to one or more fluid delivery devices (161, 162); and a controller that automatically controls operation of the device that moves the plunger, to dispense a predetermined amount of fluid from the fill chamber to the fluid delivery devices (161, 162), characterized in that the plunger defines a plunger body that carries a seal (104a, 104b) proximate its distal end that is located in the fill chamber cavity, and further defines a passageway in the plunger body that begins distally of the seal (104a, 104b) and terminates at the distal end proximally of the seal (104a, 104b), and further defines a selectively-operable valve in the passageway, wherein the valve can be opened to allow air to be bled from the cavity.
A power transmitter, comprising: - at least one capacitor set (721, 724) comprising a plurality of capacitors; - a converting unit (722, 725) arranged to convert an electrical connection of capacitors to a parallel connection, when charging the plurality of capacitors, and to convert the electrical connection of capacitors to a series connection, when discharging capacitors; - a power input unit arranged to charge the capacitors, when connected in parallel by the converting unit, with power supplied from a power supply; and - a transmitting unit arranged to transmit power stored in the capacitors, when connected in series by the converting unit, - wherein the converting unit is arranged to electrically connect capacitors to the power input unit when capacitors are connected in parallel, and to electrically connect capacitors to the transmitting unit when the capacitors are connected in series, CHARACTERIZED IN THAT the transmitting unit comprises a source resonator for wireless power transmission, and the converting unit is arranged to convert the electrical connection of the plurality of capacitors to a parallel connection, when charging the plurality of capacitors, to select a number of capacitors of the plurality of capacitors to control a resonance frequency of the source resonator, and to convert the electrical connection of the number of capacitors of the plurality of capacitors to a series connection, when discharging the plurality of capacitors. - at least one capacitor set (721, 724) comprising a plurality of capacitors; - a converting unit (722, 725) arranged to convert an electrical connection of capacitors to a parallel connection, when charging the plurality of capacitors, and to convert the electrical connection of capacitors to a series connection, when discharging capacitors; - a power input unit arranged to charge the capacitors, when connected in parallel by the converting unit, with power supplied from a power supply; and - a transmitting unit arranged to transmit power stored in the capacitors, when connected in series by the converting unit, - wherein the converting unit is arranged to electrically connect capacitors to the power input unit when capacitors are connected in parallel, and to electrically connect capacitors to the transmitting unit when the capacitors are connected in series, CHARACTERIZED IN THAT the transmitting unit comprises a source resonator for wireless power transmission, and the converting unit is arranged to convert the electrical connection of the plurality of capacitors to a parallel connection, when charging the plurality of capacitors, to select a number of capacitors of the plurality of capacitors to control a resonance frequency of the source resonator, and to convert the electrical connection of the number of capacitors of the plurality of capacitors to a series connection, when discharging the plurality of capacitors.
A barbed suture retainer comprising: an elongate body portion that includes a distal wall, a proximal wall, and side walls (46, 48) extending between the distal and proximal side walls (50, 52) and defines at least one suture tray; and a loading unit on the elongate body portion, wherein the at least one suture tray is configured and dimensioned to support the whole length of a relatively stiff barbed suture material without substantial bending of the suture material and the loading unit is configured and dimensioned to support a surgical needle affixed to the said length of relatively stiff barbed suture material, and a retainer block positioned within the suture tray, the retainer block releasably securing a portion of the length of barbed suture material within the suture tray. an elongate body portion that includes a distal wall, a proximal wall, and side walls (46, 48) extending between the distal and proximal side walls (50, 52) and defines at least one suture tray; and a loading unit on the elongate body portion, wherein the at least one suture tray is configured and dimensioned to support the whole length of a relatively stiff barbed suture material without substantial bending of the suture material and the loading unit is configured and dimensioned to support a surgical needle affixed to the said length of relatively stiff barbed suture material, and a retainer block positioned within the suture tray, the retainer block releasably securing a portion of the length of barbed suture material within the suture tray.
Belt, with a belt body which extends substantially in a longitudinal direction and substantially comprises a flexible material, wherein at least one tensioning member, preferably a plurality of tensioning members, is at least substantially embedded in the belt body in the longitudinal direction and at least substantially surrounded by the flexible material of the belt body, and with a coating which is arranged directly on the belt body from a drive side of the belt, wherein the coating comprises a fabric layer, and wherein, facing the belt body, the coating has a first film which is arranged between the belt body and the fabric layer and is designed to isolate the belt body from the fabric layer, characterized in that the flexible material of the belt body comprises polyurethane, preferably consists of polyurethane, and the material of the first film comprises polyurethane, preferably consists of polyurethane, and the flexible material of the belt body and the material of the first film comprise the same polyurethane, preferably consist of the same polyurethane. with a belt body which extends substantially in a longitudinal direction and substantially comprises a flexible material, wherein at least one tensioning member, preferably a plurality of tensioning members, is at least substantially embedded in the belt body in the longitudinal direction and at least substantially surrounded by the flexible material of the belt body, and with a coating which is arranged directly on the belt body from a drive side of the belt, wherein the coating comprises a fabric layer, and wherein, facing the belt body, the coating has a first film which is arranged between the belt body and the fabric layer and is designed to isolate the belt body from the fabric layer, characterized in that the flexible material of the belt body comprises polyurethane, preferably consists of polyurethane, and the material of the first film comprises polyurethane, preferably consists of polyurethane, and the flexible material of the belt body and the material of the first film comprise the same polyurethane, preferably consist of the same polyurethane.
A panel light apparatus comprising: a heat sink frame, comprising a plurality of frame bars forming a surrounding border; a first LED light bar (121, 122) with a first plugging structure (5121, 5122, 5111, 5112) to be plugged to a second plugging structure (4211, 4212, 4221, 4222) on an inner side of one of the frame bars, the first plugging structure (5121, 5122, 5111, 5112) and the second plugging structure (4211, 4212, 4221, 4222) providing both structural connection and electric connection, the first LED light bar (121, 122) is fixed to the heat sink frame by the connection of the first plugging structure and the second plugging structure, and heat of the LED light bar (121, 122) being transmitted to the heat sink frame; an optical guiding module to be placed in the surrounding border, the optical guiding module comprising a light diffusion layer and a light guiding layer, a lateral side of the light guiding layer facing to LED modules of the first LED light bar (121, 122) for guiding light of the LED modules to the light diffusion layer via the light guiding layer and then to escape from a front side of the optical guiding module, the light guiding layer and the light diffusion layer being fixed together as an assembly module before being placed in the surrounding border; and a back cover fixed to the heat sink frame pressing a back side of the optical guiding module, wherein the optical guiding module has a clip at a corner for fixing the light guiding layer to the light diffusion layer, and the corner has a chamfer. a heat sink frame, comprising a plurality of frame bars forming a surrounding border; a first LED light bar (121, 122) with a first plugging structure (5121, 5122, 5111, 5112) to be plugged to a second plugging structure (4211, 4212, 4221, 4222) on an inner side of one of the frame bars, the first plugging structure (5121, 5122, 5111, 5112) and the second plugging structure (4211, 4212, 4221, 4222) providing both structural connection and electric connection, the first LED light bar (121, 122) is fixed to the heat sink frame by the connection of the first plugging structure and the second plugging structure, and heat of the LED light bar (121, 122) being transmitted to the heat sink frame; an optical guiding module to be placed in the surrounding border, the optical guiding module comprising a light diffusion layer and a light guiding layer, a lateral side of the light guiding layer facing to LED modules of the first LED light bar (121, 122) for guiding light of the LED modules to the light diffusion layer via the light guiding layer and then to escape from a front side of the optical guiding module, the light guiding layer and the light diffusion layer being fixed together as an assembly module before being placed in the surrounding border; and a back cover fixed to the heat sink frame pressing a back side of the optical guiding module, wherein the optical guiding module has a clip at a corner for fixing the light guiding layer to the light diffusion layer, and the corner has a chamfer.
A barrier for plastic injection molding, the barrier comprising: a manganese (Mn) catalyst; and an oxygen barrier, characterized in that, a polynuclear complex is created via manganese ions. a manganese (Mn) catalyst; and an oxygen barrier, characterized in that, a polynuclear complex is created via manganese ions.
A hybrid work machine, comprising: an engine; a water temperature meter that detects a water temperature of the engine; a hydraulic pump driven by the engine; a boom attached to an upper-part turning body of the hybrid working machine, an arm attached to the boom, and an attachment attached to the arm, the boom, the arm, and the attachment being driven with hydraulic fluid discharged by the hydraulic pump; a motor generator connected to the engine; an electric energy storage unit configured to store electric power generated by the motor generator; and a control part configured to perform control on driving of the motor generator so as to start to increase an assist output of the motor generator, so that the assist output of the motor generator increases as the water temperature of the engine increases, so as to compensate for a decrease in an output of the engine, when the water temperature of the engine detected by the water temperature meter exceeds a first predetermined temperature at which the output of the engine starts to decrease, and start to decrease the assist output of the motor generator when the water temperature of the engine detected by the water temperature meter becomes lower than a second predetermined temperature at which the output of the engine starts to increase, after the water temperature of the engine stops increasing and starts to decrease. an engine; a water temperature meter that detects a water temperature of the engine; a hydraulic pump driven by the engine; a boom attached to an upper-part turning body of the hybrid working machine, an arm attached to the boom, and an attachment attached to the arm, the boom, the arm, and the attachment being driven with hydraulic fluid discharged by the hydraulic pump; a motor generator connected to the engine; an electric energy storage unit configured to store electric power generated by the motor generator; and a control part configured to perform control on driving of the motor generator so as to