mhurhangee/ep-ind-claims huggingface dataset:
An operating device comprising: an operating unit that includes an operating section; a supporting member that supports the operating unit; a supporting mechanical section that is provided between the operating unit and the supporting member; an operation detecting section configured to detect that the operating unit has been pressed rearward; and a response force applying mechanism that is configured to apply a response force to the operating unit, the response force being oriented in a second direction intersecting a first direction that is a front-rear direction, wherein in the supporting mechanical section a connecting shaft section is provided at one of the operating unit and the supporting member and a connecting receiving section is provided at the other of the operating unit and the supporting member, and the connecting shaft section is supported by the connecting receiving section so as to be movable in the first direction, a restoring member that is configured to cause the operating unit to be restored forward, and wherein the connecting receiving section includes a first elastic member that continues supporting the connecting shaft section from both sides thereof in the second direction while the connecting shaft section moves in the first direction; characterized in that, in the supporting mechanical section, a position of the connecting shaft section and a position of the connecting receiving section relative to each other are restricted in a third direction intersecting both the first direction and the second direction. an operating unit that includes an operating section; a supporting member that supports the operating unit; a supporting mechanical section that is provided between the operating unit and the supporting member; an operation detecting section configured to detect that the operating unit has been pressed rearward; and a response force applying mechanism that is configured to apply a response force to the operating unit, the response force being oriented in a second direction intersecting a first direction that is a front-rear direction, wherein in the supporting mechanical section a connecting shaft section is provided at one of the operating unit and the supporting member and a connecting receiving section is provided at the other of the operating unit and the supporting member, and the connecting shaft section is supported by the connecting receiving section so as to be movable in the first direction, a restoring member that is configured to cause the operating unit to be restored forward, and wherein the connecting receiving section includes a first elastic member that continues supporting the connecting shaft section from both sides thereof in the second direction while the connecting shaft section moves in the first direction; characterized in that, in the supporting mechanical section, a position of the connecting shaft section and a position of the connecting receiving section relative to each other are restricted in a third direction intersecting both the first direction and the second direction.
A device for controlling power associated with a passenger conveyor motor, comprising: a regenerative drive that is configured to facilitate providing electricity generated by the motor to a power source when the passenger conveyor is moving; and a controller that determines when an operating condition of the regenerative drive is outside of a desired range and responsively prevents the regenerative drive from facilitating providing the electricity to the power source characterised by a bypass switch between the regenerative drive and the power source and wherein the controller controls the bypass switch to permit or prevent the regenerative drive from facilitating providing electricity to the power source. a regenerative drive that is configured to facilitate providing electricity generated by the motor to a power source when the passenger conveyor is moving; and a controller that determines when an operating condition of the regenerative drive is outside of a desired range and responsively prevents the regenerative drive from facilitating providing the electricity to the power source characterised by a bypass switch between the regenerative drive and the power source and wherein the controller controls the bypass switch to permit or prevent the regenerative drive from facilitating providing electricity to the power source.
A clutch actuator unit, comprising: a housing including a mounting space and a penetration aperture formed therein, the penetration aperture receiving extending from the mounting space to outside the housing; a slide pad disposed in a length direction along an inner side surface of the mounting space; a slider disposed in the mounting space and configured to slide with an inner side surface of the slide pad and move back and forth thereon; an operating rod connected to the slider through the penetration aperture wherein an internal portion of the operating rod is connected to the slider and the operating rod extends outside the housing through the penetration aperture; and a drive portion configured to operate the slider back and forth in unison with the operating rod, wherein a stopper is integrally formed with the slide pad along a front surface of the slide pad to limit the movement of the slider, characterized in that the stopper is formed by a bended front end portion of the slide pad to be integrally formed with the slide pad; and the slide pad includes a first member that is disposed at one side surface of the mounting space, and a second member that is bent from the first member to be integrally formed therewith, wherein the stopper is formed with a front end portion of the first member and a lubricant pocket is formed on the second member. a housing including a mounting space and a penetration aperture formed therein, the penetration aperture receiving extending from the mounting space to outside the housing; a slide pad disposed in a length direction along an inner side surface of the mounting space; a slider disposed in the mounting space and configured to slide with an inner side surface of the slide pad and move back and forth thereon; an operating rod connected to the slider through the penetration aperture wherein an internal portion of the operating rod is connected to the slider and the operating rod extends outside the housing through the penetration aperture; and a drive portion configured to operate the slider back and forth in unison with the operating rod, wherein a stopper is integrally formed with the slide pad along a front surface of the slide pad to limit the movement of the slider, characterized in that the stopper is formed by a bended front end portion of the slide pad to be integrally formed with the slide pad; and the slide pad includes a first member that is disposed at one side surface of the mounting space, and a second member that is bent from the first member to be integrally formed therewith, wherein the stopper is formed with a front end portion of the first member and a lubricant pocket is formed on the second member.
Aerosol device comprising: - a container containing: - one or more propellants, and - a composition comprising one or more sebum-absorbing powders with a sebum uptake of greater than or equal to 35 ml/100 g, the propellant(s) possibly being present in the composition or, in the container, separate from the composition, - a means for dispensing the said aerosol composition, comprising a diffuser equipped with three spray orifices. - a container containing: - one or more propellants, and - a composition comprising one or more sebum-absorbing powders with a sebum uptake of greater than or equal to 35 ml/100 g, the propellant(s) possibly being present in the composition or, in the container, separate from the composition, - one or more propellants, and - a composition comprising one or more sebum-absorbing powders with a sebum uptake of greater than or equal to 35 ml/100 g, - a means for dispensing the said aerosol composition, comprising a diffuser equipped with three spray orifices.
A method comprising: determining, by an ingress network device, whether a first egress network device is segment routing, SR, aware; based on the first egress network device being SR aware, initiating, by the ingress network device, establishment of a first SR tunnel toward the first egress network device; forwarding, by the ingress network device, multicast traffic on the first SR tunnel; determining, by the ingress network device, whether a second egress network device is SR aware; based on the second egress network device not being segment routing aware, initiating, by the ingress network device, establishment of a non-SR tunnel toward the second egress network device; forwarding, by the ingress network device, multicast traffic on the non-SR tunnel; determining, by the ingress network device, that the second egress network device becomes SR aware; initiating, by the ingress network device, the establishment of a second SR tunnel to the second egress network device; forwarding, by the ingress network device, multicast traffic on the second SR tunnel; and tearing down, by the ingress network device, the non-SR tunnel. determining, by an ingress network device, whether a first egress network device is segment routing, SR, aware; based on the first egress network device being SR aware, initiating, by the ingress network device, establishment of a first SR tunnel toward the first egress network device; forwarding, by the ingress network device, multicast traffic on the first SR tunnel; determining, by the ingress network device, whether a second egress network device is SR aware; based on the second egress network device not being segment routing aware, initiating, by the ingress network device, establishment of a non-SR tunnel toward the second egress network device; forwarding, by the ingress network device, multicast traffic on the non-SR tunnel; determining, by the ingress network device, that the second egress network device becomes SR aware; initiating, by the ingress network device, the establishment of a second SR tunnel to the second egress network device; forwarding, by the ingress network device, multicast traffic on the second SR tunnel; and tearing down, by the ingress network device, the non-SR tunnel.
Method for removing tattoos, comprising the steps of - positioning a microneedle patch on a tattooed area of the skin, wherein the microneedles penetrate into the tattooed skin layer; - introducing, especially by means of manual pressure, into the skin through the microneedles of the patch an especially aqueous solution for dissolving the color pigments; - allowing action of the introduced solution for a period within the range from 15 to 45 min, preferably from 20-40 min, particularly preferably from 25 to 35 min; characterized in that the color pigments are removed by extraction by means of negative pressure through the microneedles of the patch. - positioning a microneedle patch on a tattooed area of the skin, wherein the microneedles penetrate into the tattooed skin layer; - introducing, especially by means of manual pressure, into the skin through the microneedles of the patch an especially aqueous solution for dissolving the color pigments; - allowing action of the introduced solution for a period within the range from 15 to 45 min, preferably from 20-40 min, particularly preferably from 25 to 35 min;
An electrical switching apparatus (1; 1'), comprising: - at least two power components (4, 5), each including first (41, 51) and second (42, 52) power transistors, - an illumination control device of the transistors, configured to deliver a first control signal to each of the first transistors (41, 51) and a second control signal to each of the second transistors (42, 52), - an electrical interconnect device (3; 6) connecting the illumination control device to the power components (4, 5) to transmit the first and second control signals to the first and second transistors, the interconnect device (3; 6) comprising several electrically conductive plates (31, 31', 32, 32'; 61, 61', 62, 62') extending parallel to one another, each of these electrically conductive plates being connected between a control electrode of one of the first or second power transistors (41, 42, 51, 52) and a corresponding output of the illumination control device, each first power transistor (41, 51) comprising first (411, 511) and second (412, 512) control electrodes, each second power transistor (42, 52) comprising third and fourth control electrodes (421, 521), and the electrical interconnect device comprising first (31; 61), second (31'; 61'), third (32; 62) and fourth (32'; 62') electrically conductive plates electrically connecting the first (411, 511), second (412, 512), third (421, 521) and fourth (422, 522) control electrodes, respectively, to the respective outputs of the illumination control device, this electrical switching apparatus being characterized in that the first (31; 61) and second (31'; 61') electrically conductive plates have an identical shape and are superimposed with one another, the third (32; 62) and fourth (32'; 62') electrically conductive plates have an identical shape and are superimposed with one another, and the electrically conductive plates are stacked with one another, the first (31; 61) and second (31'; 61') electrically conductive plates being laterally offset relative to the third (32; 62) and fourth (32'; 62') electrically conductive plates so as to be superimposed with these third and fourth electrically conductive plates only at an overlap zone. - at least two power components (4, 5), each including first (41, 51) and second (42, 52) power transistors, - an illumination control device of the transistors, configured to deliver a first control signal to each of the first transistors (41, 51) and a second control signal to each of the second transistors (42, 52), - an electrical interconnect device (3; 6) connecting the illumination control device to the power components (4, 5) to transmit the first and second control signals to the first and second transistors,
A comparator (200, 200A) implementing hysteresis, the comparator comprising: an input stage comprising a differential pair (212, 212) coupled to an input current source, the input stage comprising a positive input terminal, a negative input terminal, and input stage output nodes; a folded cascode stage comprising first and second cascode nodes coupled to the input stage output nodes, the first and second cascode nodes further coupled to first and second loading nodes, respectively, via cascode transistors (226, 228); a load coupled to the first and second loading nodes, the output of the comparator coupled to one of the loading nodes; and a current offset stage controlled by the first and second loading nodes and configured to increase current drawn from the first cascode node relative to current drawn from the second cascode node in response to the second loading node voltage being greater than the first loading node voltage, and vice versa. an input stage comprising a differential pair (212, 212) coupled to an input current source, the input stage comprising a positive input terminal, a negative input terminal, and input stage output nodes; a folded cascode stage comprising first and second cascode nodes coupled to the input stage output nodes, the first and second cascode nodes further coupled to first and second loading nodes, respectively, via cascode transistors (226, 228); a load coupled to the first and second loading nodes, the output of the comparator coupled to one of the loading nodes; and a current offset stage controlled by the first and second loading nodes and configured to increase current drawn from the first cascode node relative to current drawn from the second cascode node in response to the second loading node voltage being greater than the first loading node voltage, and vice versa.
An encoded information reading terminal comprising: a microprocessor; a memory communicatively coupled to said microprocessor; a radio frequency identifier (RFID) reading device configured to perform at least one of: outputting raw message data containing an encoded message and outputting decoded message data corresponding to an encoded message; two or more antennas, each antenna of said two or more antennas being electrically coupled to a switching circuit; wherein said two or more antennas have substantially different spatial orientation; wherein said switching circuit is configured to alternatively electrically couple each antenna (338a, 338b) of said two or more antennas to said RFID reading device; characterized in that said switching circuit is configured to electrically couple each antenna (338a, 338b) of said two or more antennas to said RFID front end for a pre-defined period of time in a pre-defined sequential manner, until a radio signal having a signal strength exceeding a pre-defined signal strength threshold is detected. a microprocessor; a memory communicatively coupled to said microprocessor; a radio frequency identifier (RFID) reading device configured to perform at least one of: outputting raw message data containing an encoded message and outputting decoded message data corresponding to an encoded message; two or more antennas, each antenna of said two or more antennas being electrically coupled to a switching circuit; wherein said two or more antennas have substantially different spatial orientation; wherein said switching circuit is configured to alternatively electrically couple each antenna (338a, 338b) of said two or more antennas to said RFID reading device; characterized in that said switching circuit is configured to electrically couple each antenna (338a, 338b) of said two or more antennas to said RFID front end for a pre-defined period of time in a pre-defined sequential manner, until a radio signal having a signal strength exceeding a pre-defined signal strength threshold is detected.
An electric braking apparatus, comprising: an electromechanical actuator configured to apply an axial load on a brake stack; and a damping end-stop for coupling to the electro-mechanical actuator of the electric braking apparatus, wherein the damping end-stop is configured to transmit torque into the EMA and comprises: an end cap; a screw disposed such that a longitudinal axis, about which the screw is rotatable, extends through the end cap; a nut threadably engaged with the screw and movable with the end cap relative to the screw with screw rotation; and a spring element anchored on the end cap to resist the screw rotation beyond a predefined position; characterized in that: the end cap comprises: a first boss on which the spring element is hooked; a second boss to bias the spring element to resist the screw rotation beyond the predefined position; and a third boss to pre-load the spring element against the second boss. an electromechanical actuator configured to apply an axial load on a brake stack; and a damping end-stop for coupling to the electro-mechanical actuator of the electric braking apparatus, wherein the damping end-stop is configured to transmit torque into the EMA and comprises: an end cap; a screw disposed such that a longitudinal axis, about which the screw is rotatable, extends through the end cap; a nut threadably engaged with the screw and movable with the end cap relative to the screw with screw rotation; and a spring element anchored on the end cap to resist the screw rotation beyond a predefined position; an end cap; a screw disposed such that a longitudinal axis, about which the screw is rotatable, extends through the end cap; a nut threadably engaged with the screw and movable with the end cap relative to the screw with screw rotation; and a spring element anchored on the end cap to resist the screw rotation beyond a predefined position; characterized in that: the end cap comprises: a first boss on which the spring element is hooked; a second boss to bias the spring element to resist the screw rotation beyond the predefined position; and a third boss to pre-load the spring element against the second boss. a first boss on which the spring element is hooked; a second boss to bias the spring element to resist the screw rotation beyond the predefined position; and a third boss to pre-load the spring element against the second boss.
A hot rolled steel product having a composition comprising in percentage by weight: 0.06% ≤ Carbon ≤ 0.18 % 0.01 % ≤ Nickel ≤ 0.6 % 0.001 % ≤ Copper ≤ 2 % 0.001 % ≤ Chromium ≤ 2% 0.001 % ≤ Silicon ≤ 0.8 % 0 % ≤ Nitrogen ≤ 0.008% 0 % ≤ Phosphorus ≤ 0.03 % 0% ≤ Sulfur ≤ 0.03 % 0.001% ≤ Molybdenum ≤ 0.5% 0.001% ≤ Niobium ≤ 0.1% 0.001% ≤ Vanadium ≤ 0.5% 0.001% ≤ Titanium ≤ 0.1% and can contain one or more of the following optional elements 0.2 % ≤ Manganese ≤ 2% 0 005% ≤ Aluminum ≤ 0.1 % 0 % ≤ Boron ≤ 0.003% 0% ≤ Calcium ≤ 0.01% 0 % ≤ Magnesium ≦ 0.010% the remainder composition being composed of iron and unavoidable impurities caused by processing, such product having a tertiary scale layer comprising, in area fraction, a total amount of at least 50% of magnetite and ferrite wherein ferrite is at least 25%, 0% to 50 % of wustite, and 0% to 10% of hematite, such scale layer having a thickness between 5 microns and 40 microns. 0.06% ≤ Carbon ≤ 0.18 % 0.01 % ≤ Nickel ≤ 0.6 % 0.001 % ≤ Copper ≤ 2 % 0.001 % ≤ Chromium ≤ 2% 0.001 % ≤ Silicon ≤ 0.8 % 0 % ≤ Nitrogen ≤ 0.008% 0 % ≤ Phosphorus ≤ 0.03 % 0% ≤ Sulfur ≤ 0.03 % 0.001% ≤ Molybdenum ≤ 0.5% 0.001% ≤ Niobium ≤ 0.1% 0.001% ≤ Vanadium ≤ 0.5% 0.001% ≤ Titanium ≤ 0.1% and can contain one or more of the following optional elements 0.2 % ≤ Manganese ≤ 2% 0 005% ≤ Aluminum ≤ 0.1 % 0 % ≤ Boron ≤ 0.003% 0% ≤ Calcium ≤ 0.01% 0 % ≤ Magnesium ≦ 0.010%
An inhaler device (400, 1000, 800, 982) for controlled extraction of at least one active substance from at least one type of plant matter by application of heat, said inhaler device comprising: a source material layer containing plant matter; a material layer (304, 25A) in contact with said source material layer; circuitry for controlling heating of said plant matter; a delivery tract for delivery of said active substance to a user; characterized in that said material layer is configured for direct heating of said plant matter to extract said active substance; said material layer comprising apertures having a size sufficiently small to contain said plant matter and sufficiently large to allow said active substance to escape to a delivery tract; and in that said source material layer has a thickness ranging from 0.2 mm to 1 mm; said source material layer compressed to a density that leaves enough air spaces for vapors to escape, so that at least some air flows from behind said layer, through said layer, and to said delivery tract. a source material layer containing plant matter; a material layer (304, 25A) in contact with said source material layer; circuitry for controlling heating of said plant matter; a delivery tract for delivery of said active substance to a user; characterized in that said material layer is configured for direct heating of said plant matter to extract said active substance; said material layer comprising apertures having a size sufficiently small to contain said plant matter and sufficiently large to allow said active substance to escape to a delivery tract; and in that said source material layer has a thickness ranging from 0.2 mm to 1 mm; said source material layer compressed to a density that leaves enough air spaces for vapors to escape, so that at least some air flows from behind said layer, through said layer, and to said delivery tract.