mhurhangee/ep-ind-claims huggingface dataset:
A method of packaging a power amplifier module, comprising: providing a unified pattern comprising a ceramic layer and a pattern formed on the ceramic layer; bonding the unified pattern on a metal layer; and depositing a ceramic sidewall, on which at least one external signal connection lead line is formed, on the ceramic layer included in the unified pattern bonded on the metal layer, characterized by: forming a hole in the ceramic sidewall, forming a metal line on the ceramic sidewall, disposing an insulating layer between the ceramic sidewall and the metal line and between the at least one external signal connection lead line and the metal line, forming at least one vertical via plug within the hole to thereby connect the at least one external signal connection lead line to the pattern, wherein the at least one external signal connection lead line is configured to connect to an external device; and mounting a cover on the metal line formed on the ceramic sidewall deposited on the ceramic layer included in the unified pattern bonded on the metal layer; wherein the metal layer includes at least one connection frame connecting the power amplifier module to another module. providing a unified pattern comprising a ceramic layer and a pattern formed on the ceramic layer; bonding the unified pattern on a metal layer; and depositing a ceramic sidewall, on which at least one external signal connection lead line is formed, on the ceramic layer included in the unified pattern bonded on the metal layer, characterized by: forming a hole in the ceramic sidewall, forming a metal line on the ceramic sidewall, disposing an insulating layer between the ceramic sidewall and the metal line and between the at least one external signal connection lead line and the metal line, forming at least one vertical via plug within the hole to thereby connect the at least one external signal connection lead line to the pattern, wherein the at least one external signal connection lead line is configured to connect to an external device; and mounting a cover on the metal line formed on the ceramic sidewall deposited on the ceramic layer included in the unified pattern bonded on the metal layer; forming a hole in the ceramic sidewall, forming a metal line on the ceramic sidewall, disposing an insulating layer between the ceramic sidewall and the metal line and between the at least one external signal connection lead line and the metal line, forming at least one vertical via plug within the hole to thereby connect the at least one external signal connection lead line to the pattern, wherein the at least one external signal connection lead line is configured to connect to an external device; and mounting a cover on the metal line formed on the ceramic sidewall deposited on the ceramic layer included in the unified pattern bonded on the metal layer; wherein the metal layer includes at least one connection frame connecting the power amplifier module to another module.
A method for reading a hidden RFID tag positioned out of line-of-sight of a tag reader (230, 330), comprising: providing a passive reflector (100, 400) secured to an end of a manually supportable wand (220, 320), the passive reflector (100, 400) being resonant at the operating frequency of the RFID tag; providing a receiver capable of receiving signals at the operating frequency of the RFID tag; and positioning the passive reflector (100, 400) with the wand (220, 320) at a location within the line-of-sight of both the RFID tag and the receiver, whereby signals from the RFID tag will be received by the passive reflector (100, 400) and re-transmitted thereby to the receiver. providing a passive reflector (100, 400) secured to an end of a manually supportable wand (220, 320), the passive reflector (100, 400) being resonant at the operating frequency of the RFID tag; providing a receiver capable of receiving signals at the operating frequency of the RFID tag; and positioning the passive reflector (100, 400) with the wand (220, 320) at a location within the line-of-sight of both the RFID tag and the receiver, whereby signals from the RFID tag will be received by the passive reflector (100, 400) and re-transmitted thereby to the receiver.
A fuel cell, comprising: a pair of separators (8, 9) disposed on both surfaces of a cell structure which is comprised of anode and cathode laminated on both sides of an electrolyte membrane, passages (6, 7) being partitioned to be formed in the separators (8, 9) for circulating two types of gas for power generations; a plurality of ribs (20A-20F) which are made porous at least partly and disposed between each separator (8, 9) and the cell structure wherein at least part of the plurality of the porous ribs (20A-20F) are disposed successively on the entire cross-section of the gas passage (6, 7) in a direction crossing with the flow direction of the gas (α) for power generation characterized in that all the gas for power generation passes through the porous ribs (20A-20F), wherein either the at least part of the plurality of porous ribs are shaped in an elongate square pole extending between both peripheral edges (8a, 8a) (9a, 9a) of the separator (8, 9) or wherein the at least part of the plurality of porous ribs (20B-20F) are arranged in a staggered manner with adjacent porous ribs (20A-20F) contacting each other. a pair of separators (8, 9) disposed on both surfaces of a cell structure which is comprised of anode and cathode laminated on both sides of an electrolyte membrane, passages (6, 7) being partitioned to be formed in the separators (8, 9) for circulating two types of gas for power generations; a plurality of ribs (20A-20F) which are made porous at least partly and disposed between each separator (8, 9) and the cell structure wherein at least part of the plurality of the porous ribs (20A-20F) are disposed successively on the entire cross-section of the gas passage (6, 7) in a direction crossing with the flow direction of the gas (α) for power generation characterized in that all the gas for power generation passes through the porous ribs (20A-20F), wherein either the at least part of the plurality of porous ribs are shaped in an elongate square pole extending between both peripheral edges (8a, 8a) (9a, 9a) of the separator (8, 9) or wherein the at least part of the plurality of porous ribs (20B-20F) are arranged in a staggered manner with adjacent porous ribs (20A-20F) contacting each other. either the at least part of the plurality of porous ribs are shaped in an elongate square pole extending between both peripheral edges (8a, 8a) (9a, 9a) of the separator (8, 9) or wherein the at least part of the plurality of porous ribs (20B-20F) are arranged in a staggered manner with adjacent porous ribs (20A-20F) contacting each other.
A device for dispensing different goods, in particular high-priced and/or theft-prone goods, the device comprising a goods store in which the different goods can be stored, the device comprising an operating terminal by means of which the different goods can be selected, and the device comprising a first conveying means, preferably a conveyor belt, by means of which the goods can be horizontally brought into the effective range of a second conveying means, the goods being transportable substantially vertically to a goods dispensing area with the aid of the second conveying means, the goods dispensing area being within the accessible range of a customer and/or of a cashier, the device comprising a transport shaft in which the goods can be transported to the goods dispensing area with the aid of the second transport means, and the transport shaft having a constant curvature in at least one portion, characterized in that along its side surfaces, the transport shaft includes recesses through which the second transport means engages into the transport shaft und thus accesses the goods.
Use of peroxide (s) for crosslinking at least one polymer, said polymer consisting of an ethylene homopolymer or copolymer and in particular the ethylene-vinyl acetate copolymer or a mixture of EVA with another ethylene homopolymer or copolymer, characterized in that the peroxide consists of a mixture of OO-tert-butyl O-isopropyl monoperoxycarbonate and of OO-tert-butyl 0-2-ethylhexyl monoperoxycarbonate or 00-tert-amyl 0-2-ethylhexyl monoperoxycarbonate, or of OO-tert-amyl O-isopropyl monoperoxycarbonate and of 00-tert-butyl O-2-ethylhexyl monoperoxycarbonate or 00-tert-amyl O-2-ethylhexyl monoperoxycarbonate in a mass ratio of from 40%/60% to 60%/40% of these two peroxides forming said mixture, and even more preferentially in a mass ratio of from 45%/55% to 55%/45% of these two peroxides forming said mixture.
An isolated nucleic acid comprising a sequence of a bifidobacteria CRISPR locus selected from the group consisting of a) Bala1 (SEQ ID NO: 1); b) a Bala1 repeat sequence selected from SEQ ID NO: 2 and sequence variants thereof; c) a Bala1 spacer sequence selected from SEQ ID NOs: 3-24; wherein the sequence variants of SEQ ID NO: 2 comprise one or more substitutions selected from the group consisting of: substitution of C for T at position 12, substitution of C for T at position 14, and substitution of G for A at position 36.
Method for detecting a load on a rotor blade of a wind turbine, the method comprising the following steps: deriving a deflection of the rotor blade from an acceleration value which represents an acceleration on the rotor blade, the acceleration value being integrated twice in order to obtain the deflection; determining a signal drift component of the deflection using an absolute value which represents an absolute measured value of an absolute sensor on the rotor blade by comparing the deflection with a strain value as the absolute value in order to obtain the signal drift component, the strain value representing a strain of the rotor blade that can be detected by a strain gauge on the rotor blade, or by comparing the deflection with a position value as the absolute value in order to obtain the signal drift component, the position value representing a position of the rotor blade that can be detected by a camera system on the rotor blade; and ascertaining the load using the signal drift component and the deflection and also material characteristic values of the rotor blade by subtracting the signal drift component from the deflection in order to obtain a stabilized deflection value for ascertaining the load. deriving a deflection of the rotor blade from an acceleration value which represents an acceleration on the rotor blade, the acceleration value being integrated twice in order to obtain the deflection; determining a signal drift component of the deflection using an absolute value which represents an absolute measured value of an absolute sensor on the rotor blade by comparing the deflection with a strain value as the absolute value in order to obtain the signal drift component, the strain value representing a strain of the rotor blade that can be detected by a strain gauge on the rotor blade, or by comparing the deflection with a position value as the absolute value in order to obtain the signal drift component, the position value representing a position of the rotor blade that can be detected by a camera system on the rotor blade; and ascertaining the load using the signal drift component and the deflection and also material characteristic values of the rotor blade by subtracting the signal drift component from the deflection in order to obtain a stabilized deflection value for ascertaining the load.
A temporary spacer device for the treatment of infections at the elbow joint, in particular during the two-stage treatment of infections, during the time from the explant of a first prosthesis and the implant of a second prosthesis, in order to treat the infection underway at the implant site, comprising: - at least one ulnar section, comprising a stem portion extending along a substantially longitudinal axis (x-x) between a proximal end and a distal end; - at least one humeral section, comprising a stem portion extending along a substantially longitudinal axis (y-y) between a proximal end and a distal end; - at least one engagement seat between said distal end of said at least one humeral section and said proximal end of said at least one ulnar section, said at least one engagement seat being delimited by said at least one humeral section; - articulation means between said distal end of said at least one humeral section and said proximal end of said at least one ulnar section, positionable along an axis (z-z) orthogonal to said substantially longitudinal axis (y-y) of said at least one humeral section; characterized in that said proximal end of said at least one ulnar section is engageable in said engagement seat with its own longitudinal axis (x-x) non-orthogonal to said axis (z-z) of said articulation means, according to at least two opposed working positions, according to whether said spacer device is designed to be implanted in the right or in the left upper limb of a patient. - at least one ulnar section, comprising a stem portion extending along a substantially longitudinal axis (x-x) between a proximal end and a distal end; - at least one humeral section, comprising a stem portion extending along a substantially longitudinal axis (y-y) between a proximal end and a distal end; - at least one engagement seat between said distal end of said at least one humeral section and said proximal end of said at least one ulnar section, said at least one engagement seat being delimited by said at least one humeral section; - articulation means between said distal end of said at least one humeral section and said proximal end of said at least one ulnar section, positionable along an axis (z-z) orthogonal to said substantially longitudinal axis (y-y) of said at least one humeral section;
A method for transmission in a transmitter of a communication system, said system comprising said transmitter which comprises at least one first and one second antenna and a receiver which comprises at least one receiving antenna, said method comprising a step of determining a transmit diversity scheme for at least one group of symbols from among a plurality of modulated symbols, wherein said step of determining said transmit diversity scheme comprises at least one step for choosing a phase shift value of at least one symbol of said at least one group of symbols transmitted from the second antenna, said phase shift value being chosen based on: - at least one phase shift parameter N and - N calculated quantities H k (n), at a time k where 0 ≤ n ≤ N-1, which are function of channel responses, h k1, h k2, respectively between said at least one first transmitting antenna and said at least one receiving antenna and between said at least one second transmitting antenna and said at least one receiving antenna, and in that the method comprises a step of phase shifting, allowing rotating said symbol by said phase shift value which is a multiple n of π/N value, where n maximizes Hk(n). - at least one phase shift parameter N and - N calculated quantities H k (n), at a time k where 0 ≤ n ≤ N-1, which are function of channel responses, h k1, h k2,
An electronic device for decoding a picture, comprising: an obtaining circuit configured to obtain a first picture and a second picture, which are followed by pictures in decoding order; and, a decoding circuit configured to decode the first picture, the second picture, and the pictures following the first picture and the second picture; wherein no picture that precedes the first picture in the decoding order with a temporal identifier greater than or equal to a temporal identifier of the first picture is used for inter prediction when decoding the pictures that follow the first picture in decoding order, and no picture that precedes the second picture in the decoding order with a temporal identifier greater than or equal to a temporal identifier of the second picture is used for inter prediction when decoding the pictures that follow the second picture in the decoding order with a temporal identifier equal to the temporal identifier of the second picture; wherein the obtaining circuit obtains a picture indicator, the picture indicator is a Network Access Layer unit type, the NAL unit type is associated with the second picture, and the second picture provides temporal layer switching functionality. an obtaining circuit configured to obtain a first picture and a second picture, which are followed by pictures in decoding order; and, a decoding circuit configured to decode the first picture, the second picture, and the pictures following the first picture and the second picture; wherein no picture that precedes the first picture in the decoding order with a temporal identifier greater than or equal to a temporal identifier of the first picture is used for inter prediction when decoding the pictures that follow the first picture in decoding order, and no picture that precedes the second picture in the decoding order with a temporal identifier greater than or equal to a temporal identifier of the second picture is used for inter prediction when decoding the pictures that follow the second picture in the decoding order with a temporal identifier equal to the temporal identifier of the second picture; wherein the obtaining circuit obtains a picture indicator, the picture indicator is a Network Access Layer unit type, the NAL unit type is associated with the second picture, and the second picture provides temporal layer switching functionality.
An automatic swimming pool cleaner comprising a body having an interior and comprising: a. a lower section defining an inlet (26; 26') for receiving pool water; b. a fluid-powered motor positioned at least partly in the lower section; c. an upper section defining a water outlet and comprising means for connecting the body to a hose, the upper section being moveable relative to the lower section to expose the fluid-powered motor for cleaning; and d. means for separating the upper and lower sections without using tools. a. a lower section defining an inlet (26; 26') for receiving pool water; b. a fluid-powered motor positioned at least partly in the lower section; c. an upper section defining a water outlet and comprising means for connecting the body to a hose, the upper section being moveable relative to the lower section to expose the fluid-powered motor for cleaning; and d. means for separating the upper and lower sections without using tools.
A method of decolorizing a non-food industrial product or a food product, said food product being chosen in the group consisting of dairy products, edible oils, edible fats, polysaccharides, beverages and combinations thereof, comprising contacting the product with an aqueous dispersion having a viscosity between 800-2,000 mPa.s using ASTM D2196-10 comprising a) 35% by weight or more of water-insoluble, solid organic peroxide having an average particle size of less than 10 μm, preferably of less than 5 μm and b) surfactant which is a polyglyceryl ester of one or more C6-C18 fatty acids selected from the group consisting of octanoic acid, decanoic acid, and mixtures thereof.
A permanent magnet machine system, comprising: a PM machine having a q-axis voltage feedback signal (Vq_Fbk) and a pullout torque that represents a peak torque that the PM machine generates; a controller configured to control the PM machine, the controller including at least one control logic configured to limit a q-axis current command (Iq_Cmd); characterized by at least one control logic configured to monitor the q-axis voltage feedback signal (Vq_Fbk) of the PM machine to determine a machine flux (Flx); at least one control logic configured to calculate a torque producing current limit (Iq_Lim) based on the determined machine flux (Fix), the torque producing current limit (Iq_Lim) representing the peak torque producing current the PM machine operates at before surpassing the pullout torque value, wherein the torque producing current limit (Iq_Lim) is based on at least the q-axis voltage feedback signal (Vq_Fbk); the at least one control logic configured to limit a q-axis current command (Iq_Cmd) configured to use the torque producing current limit (Iq_Lim) such that the q-axis current command (Iq_Cmd) does not substantially exceed the torque producing current limit (Iq_Lim); and a q-axis current regulator configured to receive the limited q-axis current command (Iq_Cmd) to produce a commanded q-axis voltage (Vq_Cmd) that is supplied to the PM machine. a PM machine having a q-axis voltage feedback signal (Vq_Fbk) and a pullout torque that represents a peak torque that the PM machine generates; a controller configured to control the PM machine, the controller including at least one control logic configured to limit a q-axis current command (Iq_Cmd); characterized by at least one control logic configured to monitor the q-axis voltage feedback signal (Vq_Fbk) of the PM machine to determine a machine flux (Flx); at least one control logic configured to calculate a torque producing current limit (Iq_Lim) based on the determined machine flux (Fix), the torque producing current limit (Iq_Lim) representing the peak torque producing current the PM machine operates at before surpassing the pullout torque value, wherein the torque producing current limit (Iq_Lim) is based on at least the q-axis voltage feedback signal (Vq_Fbk); the at least one control logic configured to limit a q-axis current command (Iq_Cmd) configured to use the torque producing current limit (Iq_Lim) such that the q-axis current command (Iq_Cmd) does not substantially exceed the torque producing current limit (Iq_Lim); and a q-axis current regulator configured to receive the limited q-axis current command (Iq_Cmd) to produce a commanded q-axis voltage (Vq_Cmd) that is supplied to the PM machine.
A radiation detection device comprising: an optical detector pixel array (3 a) having one or more pixel cells which can be triggered by optical photons; a timestamp trigger unit in operative communication with at least one timing unit; wherein the timestamp trigger unit is configured to receive signals from the optical detector pixel array (3 a) and is further configured to determine at least a first pixel cell triggering rate for the one or more pixel cells within the optical detector pixel array; wherein the at least a first pixel cell triggering rate is determined by computing the number of triggered pixel cells within the optical detector pixel array within a predetermined delay period; wherein the timestamp trigger unit is configured to cause the at least one timing unit to generate a first timestamp indicative of the end of the predetermined delay period based on the at least a first pixel cell triggering rate for the one or more pixel cells within the optical detector pixel array, characterized by being based further on a second pixel cell triggering rate for the one or more pixel cells within the optical detector pixel array and wherein the second pixel cell triggering rate is determined at a later point in time to the first pixel cell triggering rate. an optical detector pixel array (3 a) having one or more pixel cells which can be triggered by optical photons; a timestamp trigger unit in operative communication with at least one timing unit;