mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a self-supporting light emitting element including an active region sandwiched between an N-type region and a P-type region, with conductive pads on a surface of the light emitting element that are coupled to the N-type and P-type regions, and an optical element that receives light emitted from the light emitting element and emits light through one or more light emitting surfaces, wherein the light emitting device is a discrete self-supporting device, and the surface that includes the conductive pads forms an external surface of the light emitting device to facilitate coupling of the discrete device to an external source of power, characterized in that, the light emitting element includes a conductive layer between the conductive pads and the N-type an P-type regions that is sufficiently thick so as to provide self-support to the light emitting element. a self-supporting light emitting element including an active region sandwiched between an N-type region and a P-type region, with conductive pads on a surface of the light emitting element that are coupled to the N-type and P-type regions, and an optical element that receives light emitted from the light emitting element and emits light through one or more light emitting surfaces, wherein the light emitting device is a discrete self-supporting device, and the surface that includes the conductive pads forms an external surface of the light emitting device to facilitate coupling of the discrete device to an external source of power, characterized in that, the light emitting element includes a conductive layer between the conductive pads and the N-type an P-type regions that is sufficiently thick so as to provide self-support to the light emitting element.
Torsional vibration damping arrangement, comprising a drive side and an output side, a first torque transmission path and, parallel thereto, a second torque transmission path and a planetary gear arrangement, for superimposing the torques which are conducted via the torque transmission paths (4, 5) being provided between the drive side and the output side, a first phase shifting arrangement for generating a phase shift of rotational unevennesses which are conducted via the first torque transmission path with regard to the rotational unevennesses which are conducted via the second torque transmission path being provided in the first torque transmission path, the planetary gear arrangement having at least one first planetary carrier with at least one first planetary gear axle and a first active radius, two planetary gears (11, 13) being arranged on the at least one first planetary gear axle, of which a first planetary gear meshes with a drive-side first internal gear and a second planetary gear meshes with an output-side second internal gear, characterized in that it is true at least for a connection between a planetary gear (11, 13) and an internal gear (12, 14) that a first spacing between at least one planetary gear axle and a force transmission point on an internal gear (12, 14) can be changed.
A cover for a point light source having a composition comprising a transparent plastic matrix having dispersed therein from 1 to 10 equivalent loading weight percent of small diffusing particles having a mean particle size of from 3 to 15 microns, and from 2 to 10 equivalent loading percent by weight of large diffusing particles having a mean particle size of from 40 to 70 microns, where the total weight percent of diffusing particles is from 3 to 30 equivalent loading weight percent, the weight percent based on the polymer matrix, and wherein said cover has a surface roughness of from 0.5 to 4 microns.
An integrated light-emitting diode driver circuit adapted to receive an AC voltage (Vac) and convert the AC voltage (Vac) to drive a light-emitting diode string, the integrated light-emitting diode driver circuit comprising: a bi-directional power line communication unit adapted to receive the AC voltage (Vac) and adapted to convert a modulation signal (Spwm) on the AC voltage (Vac) to generate a light-dimming control signal (Sdim); a power conversion module adapted to receive the AC voltage (Vac) and convert the AC voltage (Vac) to generate an output voltage (Vo); a constant current/constant voltage control unit adapted to receive the light-dimming control signal (Sdim) to generate a constant light-dimming current (Idim) or a constant light-dimming voltage (Vdim); and a rectifying and filtering unit adapted to receive the constant light-dimming current (Idim) or the constant light-dimming voltage (Vdim) and the output voltage (Vo) to rectify and filter the constant light-dimming current (Idim) or the constant light-dimming voltage (Vdim) and the output voltage (Vo) and output a driving voltage (V LED) to drive the light-emitting diode string; characterized in that the bi-directional power line communication unit is adapted to generate the live wire output voltage (V Lo) to provide the live wire output voltage (V Lo) to the power conversion module. a bi-directional power line communication unit adapted to receive the AC voltage (Vac) and adapted to convert a modulation signal (Spwm) on the AC voltage (Vac) to generate a light-dimming control signal (Sdim); a power conversion module adapted to receive the AC voltage (Vac) and convert the AC voltage (Vac) to generate an output voltage (Vo); a constant current/constant voltage control unit adapted to receive the light-dimming control signal (Sdim) to generate a constant light-dimming current (Idim) or a constant light-dimming voltage (Vdim); and a rectifying and filtering unit adapted to receive the constant light-dimming current (Idim) or the constant light-dimming voltage (Vdim) and the output voltage (Vo) to rectify and filter the constant light-dimming current (Idim) or the constant light-dimming voltage (Vdim) and the output voltage (Vo) and output a driving voltage (V LED) to drive the light-emitting diode string; characterized in that the bi-directional power line communication unit is adapted to generate the live wire output voltage (V Lo) to provide the live wire output voltage (V Lo) to the power conversion module.
An earth working machine, for example a road milling machine, recycler, stabilizer, or surface miner, having a propelling unit and a machine frame carried by the propelling unit, wherein the earth working machine comprises a working apparatus for earth working, and an operator's platform, having an operating console for controlling at least one functional device (32, 39) of the earth working machine, being provided on the machine frame, wherein the operator's platform comprises a platform floor that is vibrationally decoupled from the machine frame by interposition of a damping structure, characterized in that the earth working machine comprises, in the region of the operator's platform, a seat mount arrangement fastened directly onto the machine frame that is embodied to be brought into releasable mounting engagement with a counterpart mount arrangement of an operating seat (62, 64), wherein the seat mount arrangement comprises a mount arrangement having a mount configuration (66a1) that is embodied for mounting engagement with a counterpart mount configuration of the operating seat (62, 64), wherein the mounting engagement is releasable without destroying the components involved in the mounting engagement and with no engagement of tools onto connecting components, wherein the operator's platform floor comprises a seat mount opening which passes through the operator's platform floor and which is penetrated by the mount arrangement or/and through which the mount configuration (66a1) is reachable from the operator's platform.
A non-effervescent gastroretentive, sustained-release tablet formulation, comprising: pregabalin or a pharmaceutically acceptable form thereof; crospovidone in an amount of about 20 to about 40 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof; a cationic copolymer based on dimethylaminoethyl methacrylate, butyl methacrylate, and methyl methacrylate random copolymer in an amount of about 2.5 to about 5.0 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof, and a controlled-release polymer which is a hydroxypropyl methyl cellulose in an amount of about 40 to about 74 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof. pregabalin or a pharmaceutically acceptable form thereof; crospovidone in an amount of about 20 to about 40 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof; a cationic copolymer based on dimethylaminoethyl methacrylate, butyl methacrylate, and methyl methacrylate random copolymer in an amount of about 2.5 to about 5.0 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof, and a controlled-release polymer which is a hydroxypropyl methyl cellulose in an amount of about 40 to about 74 wt. %, relative to the total weight of the tablet core excluding the weight of the pregabalin or pharmaceutically acceptable form thereof.
A capacitor lifespan estimation method comprising: calculating an estimated heat generation temperature by using drive conditions at least including drive timing information and drive current value information, and temperature change characteristic information of a capacitor, the drive timing information being indicative of a plurality of times from a drive start timing of the capacitor, the drive current value information being indicative of a plurality of drive current values corresponding to the plurality of times respectively, the plurality of drive current values being each indicative of a drive current value at a corresponded time of the plurality of times and fluctuating; the method being characterised by calculating an evaporation amount of an electrolytic solution of the capacitor after elapse of a reference time by using the estimated heat generation temperature; and calculating a lifespan estimation value of the capacitor by using the evaporation amount of the electrolytic solution. calculating an estimated heat generation temperature by using drive conditions at least including drive timing information and drive current value information, and temperature change characteristic information of a capacitor, the drive timing information being indicative of a plurality of times from a drive start timing of the capacitor, the drive current value information being indicative of a plurality of drive current values corresponding to the plurality of times respectively, the plurality of drive current values being each indicative of a drive current value at a corresponded time of the plurality of times and fluctuating; the method being characterised by calculating an evaporation amount of an electrolytic solution of the capacitor after elapse of a reference time by using the estimated heat generation temperature; and calculating a lifespan estimation value of the capacitor by using the evaporation amount of the electrolytic solution.
An apparatus for routing information centric networking, ICN, content in an internet protocol, IP, based networking environment, comprising: a plurality of interfaces; an internet protocol, IP, packet classifier coupled to the interfaces, wherein the IP packet classifier is configured to identify IP interest, IP-I, packets and IP content, IP-C, packets from incoming IP traffic on the plurality of interfaces, wherein information indicating a type of a IP packet is encoded in IP headers of the IP-I packets and the IP-C packets, and the type of a IP packet comprises a IP-I packet or a IP-C packet; an IP protocol classifier coupled to the IP packet classifier, wherein the IP protocol classifier is configured to classify the IP-I packets and the IP-C packets based on an identity of one of a plurality of session level protocols; and a plurality of application processing engines, APEs, coupled to the IP protocol classifier, wherein each of the APEs corresponds to a corresponding session level protocol, wherein each of the APEs is configured to: interpret a name in an IP-I packet; respond to a request for content if the content is contained within an application content store; store content from the IP-C packet in the application content store; and index the content from the IP-C packet in the application content store based on a name of the IP-C packet. a plurality of interfaces; an internet protocol, IP, packet classifier coupled to the interfaces, wherein the IP packet classifier is configured to identify IP interest, IP-I, packets and IP content, IP-C, packets from incoming IP traffic on the plurality of interfaces, wherein information indicating a type of a IP packet is encoded in IP headers of the IP-I packets and the IP-C packets, and the type of a IP packet comprises a IP-I packet or a IP-C packet; an IP protocol classifier coupled to the IP packet classifier, wherein the IP protocol classifier is configured to classify the IP-I packets and the IP-C packets based on an identity of one of a plurality of session level protocols; and a plurality of application processing engines, APEs, coupled to the IP protocol classifier, wherein each of the APEs corresponds to a corresponding session level protocol, wherein each of the APEs is configured to: interpret a name in an IP-I packet; respond to a request for content if the content is contained within an application content store; store content from the IP-C packet in the application content store; and index the content from the IP-C packet in the application content store based on a name of the IP-C packet. interpret a name in an IP-I packet; respond to a request for content if the content is contained within an application content store; store content from the IP-C packet in the application content store; and index the content from the IP-C packet in the application content store based on a name of the IP-C packet.
A position adjustment mechanism for a lifting balance device comprising: a first cover in which at least one lifting balance device is arranged, and each of the at least one lifting balance device including a first support, a second support intersected with the first support, and a shaft configured to connected the first support and the second support; and an adjustment device located below the shaft; wherein the adjustment device is fixed inside the first cover, the first cover has a first opening defined thereon and located below the shaft, a threaded sleeve is connected with the first opening and is screwed with a threaded tube, such that the threaded tube is adjustably moved relative to the threaded sleeve so as to change a position of a top of the threaded tube and to limit a lowest descending position of each of the first support and the second support. a first cover in which at least one lifting balance device is arranged, and each of the at least one lifting balance device including a first support, a second support intersected with the first support, and a shaft configured to connected the first support and the second support; and an adjustment device located below the shaft; wherein the adjustment device is fixed inside the first cover, the first cover has a first opening defined thereon and located below the shaft, a threaded sleeve is connected with the first opening and is screwed with a threaded tube, such that the threaded tube is adjustably moved relative to the threaded sleeve so as to change a position of a top of the threaded tube and to limit a lowest descending position of each of the first support and the second support.
A master operation input device configured to operate a slave manipulator provided with joints (201 - 208) adapted to multiple degrees of freedom, the master operation input device comprising: a grip portion which is variable in position and orientation while being gripped by an operator, the grip portion being configured to give command values regarding the position and orientation of a distal end of the slave manipulator in accordance with the variation in position and orientation, the distal end being the farthest end when the slave manipulator is viewed from a fixed end thereof; and a first operation portion which is located to be operable by a fingertip of the operator when the grip portion is gripped, the first operation portion being operable independently of the grip portion, wherein the first operation portion is configured to give a command value regarding a driving amount to drive the joint at the distal end of the slave manipulator in response to a manual operation, characterized in that the first operation portion is a rolling joint that is configured to be rotated by a fingertip of the operator when the grip portion is gripped and has the same structure as the joint at the distal end of the slave manipulator regarding the grip portion. a grip portion which is variable in position and orientation while being gripped by an operator, the grip portion being configured to give command values regarding the position and orientation of a distal end of the slave manipulator in accordance with the variation in position and orientation, the distal end being the farthest end when the slave manipulator is viewed from a fixed end thereof; and a first operation portion which is located to be operable by a fingertip of the operator when the grip portion is gripped, the first operation portion being operable independently of the grip portion, wherein the first operation portion is configured to give a command value regarding a driving amount to drive the joint at the distal end of the slave manipulator in response to a manual operation, characterized in that the first operation portion is a rolling joint that is configured to be rotated by a fingertip of the operator when the grip portion is gripped and has the same structure as the joint at the distal end of the slave manipulator regarding the grip portion.
A system comprising: a power transistor comprising a first drain connected to a load, a first gate connected to a gate driver, wherein the gate driver is configured to drive a first gate voltage on the first gate, and a first source connected to a ground; a sampling transistor comprising a second drain connected to the first gate, a second gate connected to the first drain and a second source; and a sampling capacitor connected between the second source and the ground, wherein the sampling transistor is configured to sample a Miller plateau voltage of the first gate voltage on the sampling capacitor, in response to the first gate voltage increasing to the Miller plateau voltage and a first drain voltage of the first drain decreasing to a value equal to the Miller plateau voltage plus a threshold voltage of the sampling transistor. a power transistor comprising a first drain connected to a load, a first gate connected to a gate driver, wherein the gate driver is configured to drive a first gate voltage on the first gate, and a first source connected to a ground; a sampling transistor comprising a second drain connected to the first gate, a second gate connected to the first drain and a second source; and a sampling capacitor connected between the second source and the ground, wherein the sampling transistor is configured to sample a Miller plateau voltage of the first gate voltage on the sampling capacitor, in response to the first gate voltage increasing to the Miller plateau voltage and a first drain voltage of the first drain decreasing to a value equal to the Miller plateau voltage plus a threshold voltage of the sampling transistor.
An alloy for a penetrator comprising 90 wt% to 99 wt% of tungsten, 0.02 wt% to 0.2 wt% of yttrium, as well as nickel and iron, wherein - at ambient temperature and a loading rate of 5 mm/min - the alloy has a tensile strength (Rm) of at least 1380 MPa, a proof stress (RP0.2) of at least 1320 MPa and an elongation of failure of at least 4%.
A method of determining white balance gains comprising: (a) receiving a digital image including a plurality of pixels; (b) receiving non-pixel data relating to camera capture parameters including an aperture value, an exposure time value, and an exposure ISO index in the form of a speed value specific to the received digital image; (c) using the aperture value, time value, and the exposure ISO index to calculate a scene brightness value; and (d) using the calculated scene brightness value to adjust the color of the digital image by: (i) using the image pixel data to compute a color coordinate value; (ii) determining a scene illuminant type from the computed scene color coordinate value and the calculated scene brightness value; (iii) using the determined scene illuminant type to determine white balance gains. (a) receiving a digital image including a plurality of pixels; (b) receiving non-pixel data relating to camera capture parameters including an aperture value, an exposure time value, and an exposure ISO index in the form of a speed value specific to the received digital image; (c) using the aperture value, time value, and the exposure ISO index to calculate a scene brightness value; and (d) using the calculated scene brightness value to adjust the color of the digital image by: (i) using the image pixel data to compute a color coordinate value; (ii) determining a scene illuminant type from the computed scene color coordinate value and the calculated scene brightness value; (iii) using the determined scene illuminant type to determine white balance gains. (i) using the image pixel data to compute a color coordinate value; (ii) determining a scene illuminant type from the computed scene color coordinate value and the calculated scene brightness value; (iii) using the determined scene illuminant type to determine white balance gains.