mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for producing a window glass with a resin frame to be mounted to a vehicle, a decorative molding formed of a magnetic member being provided on the resin frame, comprising: a mold having a cavity space formed therein for forming a resin frame on a window glass; the mold further including a first mold formed of a non-magnetic member and having a mounting surface, the mounting surface being configured to have a decorative molding mounted thereon; and an electromagnet disposed on a surface of the first mold opposite to the mounting surface and configured to retain, on the mounting surface, the decorative molding mounted on the mounting surface, wherein the electromagnet being not exposed to the mounting surface and being disposed to be separated from the mounting surface by the first mold as a non-magnetic member. a mold having a cavity space formed therein for forming a resin frame on a window glass; the mold further including a first mold formed of a non-magnetic member and having a mounting surface, the mounting surface being configured to have a decorative molding mounted thereon; and an electromagnet disposed on a surface of the first mold opposite to the mounting surface and configured to retain, on the mounting surface, the decorative molding mounted on the mounting surface, wherein the electromagnet being not exposed to the mounting surface and being disposed to be separated from the mounting surface by the first mold as a non-magnetic member.
System for influencing the senses of a person in a room for measuring and/or influencing physiological parameters of the person, wherein the person is substantially stationary and lying in the room during the measurement and/or influencing, having a sound insulating apparatus for screening off acoustically active devices with respect to the person (P), wherein the acoustically active devices serve for measuring and/or influencing the physiological parameters in the room , and an optical display apparatus for offering optical stimuli and/or signals for the person (P) in the field of view of the person (P), wherein the optical display apparatus extends in at least one viewing direction (B) of the stationary lying person (P) over a viewing angle (α) of at least 40° and at most 180°, in particular between 55° and 75°, very particularly of 70°, wherein the viewing angle (α) extends in a plane that extends down from the viewing direction (B) or to the left and to the right from the viewing direction, characterized by the optical display apparatus comprising a first luminous means , in particular a luminous field having LEDs or an OLED, for functional illumination, task lighting and /or biodynamic lighting of the room within the region of the person (P), and a second luminous means of the optical display apparatus , which is controllable independently of the first luminous means , in particular an LED grid for displaying patterns or optical stimuli, in particular as an entertainment light or for playing visual contents, wherein the first and second luminous means are arranged one above the other, wherein the superposed optical signals of the two luminous means are incident on a translucent projection area of the optical display apparatus , which is located in the field of view of the person (P).
A method for damping torsional oscillations in a drive system , wherein the drive system comprises at least one electrical machine and a plurality of rotating components , which are interconnected via shafts ; the method comprising: determining angular speeds ( θ i ) for at least some of the shafts based on measurements in the drive system ; determining angular speed differences ( Δ Θ ^ ̇ i ) from the angular speeds ( θ i ) with a drive system model , which models the drive system as a number of inertia elements ( J i ) interconnected via coupling elements and every angular speed difference ( Δ Θ ^ ̇ i ) refers to a difference of angular speeds at ends of the coupling elements; determining a damping torque ( T damp ) from the from the angular speed differences ( Δ Θ ^ ̇ i ) with a function that models at least some of the electrical machine , the rotating components and the shafts ; adapting a reference torque ( T ref ) for the at least one electrical machine by adding the damping torque; controlling the at least one electrical machine with the adapted reference torques ( T ). wherein the drive system comprises at least one electrical machine and a plurality of rotating components , which are interconnected via shafts ; the method comprising: determining angular speeds ( θ i ) for at least some of the shafts based on measurements in the drive system ; determining angular speed differences ( Δ Θ ^ ̇ i ) from the angular speeds ( θ i ) with a drive system model , which models the drive system as a number of inertia elements ( J i ) interconnected via coupling elements and every angular speed difference ( Δ Θ ^ ̇ i ) refers to a difference of angular speeds at ends of the coupling elements; determining a damping torque ( T damp ) from the from the angular speed differences ( Δ Θ ^ ̇ i ) with a function that models at least some of the electrical machine , the rotating components and the shafts ; adapting a reference torque ( T ref ) for the at least one electrical machine by adding the damping torque; controlling the at least one electrical machine with the adapted reference torques ( T ). determining angular speeds ( θ i ) for at least some of the shafts based on measurements in the drive system ; determining angular speed differences ( Δ Θ ^ ̇ i ) from the angular speeds ( θ i ) with a drive system model , which models the drive system as a number of inertia elements ( J i ) interconnected via coupling elements and every angular speed difference ( Δ Θ ^ ̇ i ) refers to a difference of angular speeds at ends of the coupling elements; determining a damping torque ( T damp ) from the from the angular speed differences ( Δ Θ ^ ̇ i ) with a function that models at least some of the electrical machine , the rotating components and the shafts ; adapting a reference torque ( T ref ) for the at least one electrical machine by adding the damping torque; controlling the at least one electrical machine with the adapted reference torques ( T ).
A base station in a wireless communication network, the base station comprising: a transceiver; and a controller configured to: receive (304; 404) a first message from a terminal, transmit (305; 405), to a core network entity, a second message including a closed subscription group identification, CSG ID, to which the base station belongs, receive (307; 407), from the core network entity, a third message including information indicating whether the terminal is a CSG member of the base station based on the CSG ID, release a bearer for the terminal, if the terminal is not the CSG member of the base station, and configure a bearer for the terminal, if the terminal is the CSG member of the base station. a transceiver; and a controller configured to: receive (304; 404) a first message from a terminal, transmit (305; 405), to a core network entity, a second message including a closed subscription group identification, CSG ID, to which the base station belongs, receive (307; 407), from the core network entity, a third message including information indicating whether the terminal is a CSG member of the base station based on the CSG ID, release a bearer for the terminal, if the terminal is not the CSG member of the base station, and configure a bearer for the terminal, if the terminal is the CSG member of the base station. receive (304; 404) a first message from a terminal, transmit (305; 405), to a core network entity, a second message including a closed subscription group identification, CSG ID, to which the base station belongs, receive (307; 407), from the core network entity, a third message including information indicating whether the terminal is a CSG member of the base station based on the CSG ID, release a bearer for the terminal, if the terminal is not the CSG member of the base station, and configure a bearer for the terminal, if the terminal is the CSG member of the base station.
A memory management device that controls writing into and reading from a main memory comprising a nonvolatile semiconductor memory and a volatile semiconductor memory in response to a writing request and a reading request from a processor , the memory management device comprising: a coloring information storage unit that stores coloring information, comprising static color information, generated based on a data characteristic of data to be written into at least one of the nonvolatile semiconductor memory and the volatile semiconductor memory; and a writing management unit that references the coloring information to determine a region into which the data is written among the nonvolatile semiconductor memory and the volatile semiconductor memory , characterized in that the coloring information comprises a data life, which is a value set by estimating a period in which data is used without being erased based on the type of that data or the like, estimated based on the data characteristic of the data, and in that the memory management device further comprises a reading management unit that determines whether to use the volatile semiconductor memory as a cache by referencing the coloring information of the data when the data is read from the nonvolatile semiconductor memory. a coloring information storage unit that stores coloring information, comprising static color information, generated based on a data characteristic of data to be written into at least one of the nonvolatile semiconductor memory and the volatile semiconductor memory; and a writing management unit that references the coloring information to determine a region into which the data is written among the nonvolatile semiconductor memory and the volatile semiconductor memory , characterized in that the coloring information comprises a data life, which is a value set by estimating a period in which data is used without being erased based on the type of that data or the like, estimated based on the data characteristic of the data, and in that the memory management device further comprises a reading management unit that determines whether to use the volatile semiconductor memory as a cache by referencing the coloring information of the data when the data is read from the nonvolatile semiconductor memory.
An electrical plug for power and signal transmission, comprising: at least one signal pin configured to communicate signal; a plurality of power pins (3-11, 132-135, 137, 332, 333) configured to transmit electrical power, wherein the plurality of power pins (3-11, 132-135, 137, 332, 333) comprise at least one power pin having a first polarity and at least one power pin having a second polarity opposite to the first polarity; and a plug substrate configured to support the at least one signal pin and the plurality of power pins (3-11, 132-135, 137, 332, 333), wherein the first polarity is a positive polarity, and the second polarity is a negative polarity, wherein the at least one power pin (3-11, 132-135, 137, 332, 333) having a negative polarity has a longer length than the at least one power pin (3-11, 132-135, 137, 332, 333) having a positive polarity and the at least one signal pin , characterized in that the pins (1-12, 130-135, 250, 330-336, 450, 550) of the electrical plug are disposed such that the at least one power pin (3-11, 132-135, 137, 332, 333) having a positive polarity and the at least one signal pin are positioned on opposite sides of the at least one power pin (3-11, 132-135, 137, 332, 333) having a negative polarity . at least one signal pin configured to communicate signal; a plurality of power pins (3-11, 132-135, 137, 332, 333) configured to transmit electrical power, wherein the plurality of power pins (3-11, 132-135, 137, 332, 333) comprise at least one power pin having a first polarity and at least one power pin having a second polarity opposite to the first polarity; and a plug substrate configured to support the at least one signal pin and the plurality of power pins (3-11, 132-135, 137, 332, 333), wherein the first polarity is a positive polarity, and the second polarity is a negative polarity, wherein the at least one power pin (3-11, 132-135, 137, 332, 333) having a negative polarity has a longer length than the at least one power pin (3-11, 132-135, 137, 332, 333) having a positive polarity and the at least one signal pin , characterized in that the pins (1-12, 130-135, 250, 330-336, 450, 550) of the electrical plug are disposed such that the at least one power pin (3-11, 132-135, 137, 332, 333) having a positive polarity and the at least one signal pin are positioned on opposite sides of the at least one power pin (3-11, 132-135, 137, 332, 333) having a negative polarity .
A process for producing coke, the process comprising: heating a coker feedstock to a coking temperature to produce a heated coker feedstock ; feeding the heated coker feedstock to a coking drum ; feeding a coking additive comprising at least one hydroconversion or hydrocracking catalyst to the coking drum ; subjecting the heated coker feedstock to thermal cracking in the coking drum to crack a portion of the coker feedstock to produce a cracked vapor product and produce a coke product, wherein the process further comprises intimately combining the heated coker feedstock with the coking additive by means of a mixing tee comprising at least two intersecting flow conduits and an injection nozzle extending into or through the intersection of the at least two intersecting flow conduits and injecting the coking additive into the flow of the heated coker feedstock passing annularly over the injection nozzle , the mixing tee feeding the mixture of heated coker feedstock and coking additive to a lower portion of the coking drum . heating a coker feedstock to a coking temperature to produce a heated coker feedstock ; feeding the heated coker feedstock to a coking drum ; feeding a coking additive comprising at least one hydroconversion or hydrocracking catalyst to the coking drum ; subjecting the heated coker feedstock to thermal cracking in the coking drum to crack a portion of the coker feedstock to produce a cracked vapor product and produce a coke product, wherein the process further comprises intimately combining the heated coker feedstock with the coking additive by means of a mixing tee comprising at least two intersecting flow conduits and an injection nozzle extending into or through the intersection of the at least two intersecting flow conduits and injecting the coking additive into the flow of the heated coker feedstock passing annularly over the injection nozzle , the mixing tee feeding the mixture of heated coker feedstock and coking additive to a lower portion of the coking drum .
A method for decomposing an aldehyde contained in a combustion exhaust gas, the method comprising a step of contacting the aldehyde with an aldehyde decomposition catalyst, characterized in that the aldehyde decomposition catalyst is made of a zeolite in a cation form NH4 having a structure selected from MFI and BEA and carrying at least one metal selected from the group consisting of Cu, Mn, Ce, Zn, Fe, and Zr.
A circuit arrangement (TC) for controlling at least one light-emitting component (LD), said circuit arrangement (TC) comprising: - at least one IDLE detector (ID) for monitoring at least one differential input (IN+, IN-) for the presence of an electrical idle state; - at least one time delay block (TD) being triggered by the IDLE detector (ID) when the EI state at the differential input (IN+, IN-) gets interrupted or is resumed; - at least one signal type detector (SD) for detecting whether the differential input (IN+, IN-) is driven by a L[ow]F[requency]P[eriodic]S[ignalling] or by a S[uper]S[peed] / e[nhanced]S[uper]S[peed] signalling, said signal type detector (SD) having a decision latency time being less than the time delay provided by the time delay block (TD); - at least one decision circuit (DT) for making a decision whether LFPS or SS / eSS signalling is to be transmitted, said decision being based on information from the IDLE detector (ID) and/or from the signal type detector (SD); - at least one input stage (IS) being connected to the decision circuit (DT); and - at least one output stage (OS) being provided for driving the light-emitting component (LD), said output stage (OS) being turned on or turned off by the decision circuit (DT), characterized in that the time delay is chosen with respect to distinguishing a LFPS ping sequence representing an LFPS burst of not longer than about 200 ns, and an L[FPS]B[ased]P[WM]S[ignalling] logic "0" being represented by an LFPS burst of at least about 500 ns. - at least one IDLE detector (ID) for monitoring at least one differential input (IN+, IN-) for the presence of an electrical idle state; - at least one time delay block (TD) being triggered by the IDLE detector (ID) when the EI state at the differential input (IN+, IN-) gets interrupted or is resumed; - at least one signal type detector (SD) for detecting whether the differential input (IN+, IN-) is driven by a L[ow]F[requency]P[eriodic]S[ignalling] or by a S[uper]S[peed] / e[nhanced]S[uper]S[peed] signalling, said signal type detector (SD) having a decision latency time being less than the time delay provided by the time delay block (TD); - at least one decision circuit (DT) for making a decision whether LFPS or SS / eSS signalling is to be transmitted, said decision being based on information from the IDLE detector (ID) and/or from the signal type detector (SD); - at least one input stage (IS) being connected to the decision circuit (DT); and - at least one output stage (OS) being provided for driving the light-emitting component (LD), said output stage (OS) being turned on or turned off by the decision circuit (DT),
A storage apparatus which stores objects, comprising: a housing ; a base stand being disposed in the housing and its position being fixed against the housing ; a rotating storage rack which is connected to the base stand through a rotating shaft extending in the vertical direction and rotating relative to the base stand , the center of rotation being the rotating shaft , the rotating storage rack comprising a rotating shelf on which objects are disposed; and a rotating shaft driving part which rotates the rotating shaft ; wherein the base stand comprises a power-transmission unit which transmits electric power in a non-contact state between the base stand and the storage rack ; and the rotating storage rack comprises: a power driven device or a detection device , the device being disposed so as to rotate integrally with the rotating shelf and the device being driven by electric power; and a power-receiving unit which supplies the electric power transmitted from the power-transmission unit to the power driven device or the detection device . a housing ; a base stand being disposed in the housing and its position being fixed against the housing ; a rotating storage rack which is connected to the base stand through a rotating shaft extending in the vertical direction and rotating relative to the base stand , the center of rotation being the rotating shaft , the rotating storage rack comprising a rotating shelf on which objects are disposed; and a rotating shaft driving part which rotates the rotating shaft ; wherein the base stand comprises a power-transmission unit which transmits electric power in a non-contact state between the base stand and the storage rack ; and the rotating storage rack comprises: a power driven device or a detection device , the device being disposed so as to rotate integrally with the rotating shelf and the device being driven by electric power; and a power-receiving unit which supplies the electric power transmitted from the power-transmission unit to the power driven device or the detection device . a power driven device or a detection device , the device being disposed so as to rotate integrally with the rotating shelf and the device being driven by electric power; and a power-receiving unit which supplies the electric power transmitted from the power-transmission unit to the power driven device or the detection device .
A food composition comprising at least 0.1% w/w Chlorella protothecoides microalgal biomass and one or more other edible ingredient, wherein the microalgal biomass (i) comprises microalgal cells cultured under heterotrophic conditions, (ii) is reduced in green pigmentation, and (iii) comprises at least 10% oil by dry weight, wherein less than 5% by weight of the oil is docosahexanoic acid (DHA) (C22:6).
An internal combustion engine system comprising - a compressor arranged to compress air, and - at least one combustor , at least one of the at least one combustor being arranged to receive the compressed air, - wherein the system comprises a heat exchanger arranged to receive the compressed air from the compressor before it reaches the at least one of the at least one combustor , - wherein the system comprises an exhaust treatment device arranged to process exhaust gases produced by at least one of the at least one combustor , - wherein the system comprises an expander arranged to receive the exhaust gases from the at least one of the at least one combustor , and to expand and extract energy from the exhaust gases, the exhaust treatment device being arranged to receive the exhaust gases from the expander , - characterized in that the heat exchanger is arranged to receive the exhaust gases from the expander, - and that the heat exchanger is arranged to transfer heat from the compressed air to the exhaust treatment device , whereby the temperature of the exhaust treatment device is increased to improve the process therein. - a compressor arranged to compress air, and - at least one combustor , at least one of the at least one combustor being arranged to receive the compressed air, - wherein the system comprises a heat exchanger arranged to receive the compressed air from the compressor before it reaches the at least one of the at least one combustor , - wherein the system comprises an exhaust treatment device arranged to process exhaust gases produced by at least one of the at least one combustor , - wherein the system comprises an expander arranged to receive the exhaust gases from the at least one of the at least one combustor , and to expand and extract energy from the exhaust gases, the exhaust treatment device being arranged to receive the exhaust gases from the expander , - characterized in that the heat exchanger is arranged to receive the exhaust gases from the expander, - and that the heat exchanger is arranged to transfer heat from the compressed air to the exhaust treatment device , whereby the temperature of the exhaust treatment device is increased to improve the process therein.
Device for discharging liquid in the form of a broad jet, comprising a feed opening for the liquid and comprising a discharge opening that is in line connection with the feed opening and comprises an opening cross-section that is wider than it is tall, wherein a) the discharge opening is formed in a wall element that can be removed from the rest of the device , characterised in that b) the device is part of a device system comprising a plurality of wall elements that can be interchanged, c) the wall element comprises at least one connection element that interacts in a form-fitting manner with a mating connection element on the device, and is designed to be able to be slid laterally off the device in order to be removed. a) the discharge opening is formed in a wall element that can be removed from the rest of the device , characterised in that b) the device is part of a device system comprising a plurality of wall elements that can be interchanged, c) the wall element comprises at least one connection element that interacts in a form-fitting manner with a mating connection element on the device, and is designed to be able to be slid laterally off the device in order to be removed.