mhurhangee/patent-ind-claim-en huggingface dataset:
An oscillating structure with piezoelectric actuation, comprising: - a fixed supporting body and a mobile body ; and - a first torsional elastic element and a second torsional elastic element constrained to respective portions of the fixed supporting body and defining an axis of rotation (O), wherein the mobile body comprises: a mobile element arranged between, and connected to, said first and second torsional elastic elements , the mobile element being rotatable about the axis of rotation (O) as a consequence of a torsion of the first and second deformable elements; and wherein the mobile body further comprises a first control structure , which is coupled to the mobile element and houses a first piezoelectric actuator , configured to cause, in use, a local deformation of the first control structure that generates a torsion of the first and second torsional elastic elements , wherein said mobile element comprises: a central body , a first connection region between the central body and the first torsional elastic element , and a second connection region between the central body and the second torsional elastic element , wherein said first control structure is fixed with respect to the first and second connection regions , is separated from the central body by a first trench and forms a frame of the central body , and wherein each of the first and second connection regions has a constant of torsional stiffness higher than the constant of torsional stiffness of each of the first and second torsional elastic elements . - a fixed supporting body and a mobile body ; and - a first torsional elastic element and a second torsional elastic element constrained to respective portions of the fixed supporting body and defining an axis of rotation (O), a mobile element arranged between, and connected to, said first and second torsional elastic elements , the mobile element being rotatable about the axis of rotation (O) as a consequence of a torsion of the first and second deformable elements; and wherein the mobile body further comprises a first control structure , which is coupled to the mobile element and houses a first piezoelectric actuator , configured to cause, in use, a local deformation of the first control structure that generates a torsion of the first and second torsional elastic elements , wherein said mobile element comprises: a central body , a first connection region between the central body and the first torsional elastic element , and a second connection region between the central body and the second torsional elastic element , wherein said first control structure is fixed with respect to the first and second connection regions , is separated from the central body by a first trench and forms a frame of the central body , and wherein each of the first and second connection regions has a constant of torsional stiffness higher than the constant of torsional stiffness of each of the first and second torsional elastic elements .
A composition, comprising: an EVA polymer produced from ethylene, vinyl acetate, and one or more polar comonomers, wherein at least one of the one or more polar comonomers comprises an amine moiety, wherein the EVA polymer has a number average molecular weight (Mn) ranging from 5 to 50 kDa. an EVA polymer produced from ethylene, vinyl acetate, and one or more polar comonomers, wherein at least one of the one or more polar comonomers comprises an amine moiety, wherein the EVA polymer has a number average molecular weight (Mn) ranging from 5 to 50 kDa.
An airfoil comprising: pressure and suction side walls extending in a chord-wise direction (C) between leading and trailing edges , the pressure and suction side walls extending in a radial direction (R) to provide an exterior airfoil surface ; a core cooling passage arranged between the pressure and suction side walls in a thickness direction (T) and extending radially toward a tip ; a skin passage arranged in one of the pressure and suction side walls to form a hot side wall and a cold side wall , wherein the hot side wall defines a portion of the exterior airfoil surface , the cold side wall defines a portion of the core cooling passage , and the core cooling passage and the skin passage are configured to have a same direction of fluid flow (F); and a resupply hole cluster (118; 218; 318; 418) including first and second resupply holes that each extend through the cold side wall to fluidly interconnect the core cooling and skin passages , characterised in that : the first and second resupply holes intersect one another and terminate in an exit at the skin passage . pressure and suction side walls extending in a chord-wise direction (C) between leading and trailing edges , the pressure and suction side walls extending in a radial direction (R) to provide an exterior airfoil surface ; a core cooling passage arranged between the pressure and suction side walls in a thickness direction (T) and extending radially toward a tip ; a skin passage arranged in one of the pressure and suction side walls to form a hot side wall and a cold side wall , wherein the hot side wall defines a portion of the exterior airfoil surface , the cold side wall defines a portion of the core cooling passage , and the core cooling passage and the skin passage are configured to have a same direction of fluid flow (F); and a resupply hole cluster (118; 218; 318; 418) including first and second resupply holes that each extend through the cold side wall to fluidly interconnect the core cooling and skin passages , the first and second resupply holes intersect one another and terminate in an exit at the skin passage .
A method comprising: retrieving a unique identifier associated with a cable modem ; retrieving a unique key associated with a system-on-a-chip (205; 305) associated with the cable modem; using the unique key as an encryption key to encrypt the unique identifier associated with the cable modem, thereby producing an encrypted unique identifier; using the unique key as a decryption key to decrypt the encrypted unique identifier, thereby producing the unique identifier associated with the cable modem; and outputting the unique identifier associated with the cable modem to an upstream controller, wherein the unique identifier associated with the cable modem is output as an authorization request message. retrieving a unique identifier associated with a cable modem ; retrieving a unique key associated with a system-on-a-chip (205; 305) associated with the cable modem; using the unique key as an encryption key to encrypt the unique identifier associated with the cable modem, thereby producing an encrypted unique identifier; using the unique key as a decryption key to decrypt the encrypted unique identifier, thereby producing the unique identifier associated with the cable modem; and outputting the unique identifier associated with the cable modem to an upstream controller, wherein the unique identifier associated with the cable modem is output as an authorization request message.
A method comprising: forwarding a data flow of a plurality data packets according to a protocol adapted for locally-managed data forwarding in a software-defined networking, SDN, architecture and packaging at least some state information with said data packet prior to said forwarding; entering each data packet of said plurality of data packets to a data communication forwarding entity, FE; wherein at said FE, selecting a next destination of said data packet by applying state machine logic to at least one field of said data packet and to state information tracked by said FE before said data packet is received, wherein said state machine logic comprises rules for forwarding said data packet and wherein said state information comprises at least one of: a network state of a network transferring said data packet from a sender of said packet to a destination of said packet, a FE state of said data communication FE, a packet state of said input data packet, a data flow state of a data flow comprising said input data packet, policy data of said network, event information of an event logged before said data packet is received, a state machine identifier, ID, identifying a respective state machine logic to apply to a data packet, and flow context of said data flow; and forwarding said data packet to said selected next destination. forwarding a data flow of a plurality data packets according to a protocol adapted for locally-managed data forwarding in a software-defined networking, SDN, architecture and packaging at least some state information with said data packet prior to said forwarding; entering each data packet of said plurality of data packets to a data communication forwarding entity, FE; wherein at said FE, selecting a next destination of said data packet by applying state machine logic to at least one field of said data packet and to state information tracked by said FE before said data packet is received, wherein said state machine logic comprises rules for forwarding said data packet and wherein said state information comprises at least one of: a network state of a network transferring said data packet from a sender of said packet to a destination of said packet, a FE state of said data communication FE, a packet state of said input data packet, a data flow state of a data flow comprising said input data packet, policy data of said network, event information of an event logged before said data packet is received, a state machine identifier, ID, identifying a respective state machine logic to apply to a data packet, and flow context of said data flow; and forwarding said data packet to said selected next destination.
A method for forwarding an Ethernet frame by a Time-Sensitive Networking Ethernet bridge provided by means of a mobile radio communication system comprising: receiving the Ethernet frame at a an ingress port of the Ethernet bridge provided by an ingress port Time-Sensitive Networking, TSN, translator ; the ingress port TSN translator determining an internal priority value of the Ethernet frame; forwarding the Ethernet frame along with the determined internal priority value from the ingress port TSN translator to an egress port TSN translator providing an egress port of the Ethernet bridge; and the egress port TSN translator outputting the Ethernet frame by the egress port depending on the internal priority value; wherein the ingress port TSN translator matches the Ethernet frame against multiple stream filters and submits the Ethernet frame to a stream gate associated with a matching stream filter, wherein the stream gate defines the internal priority value. receiving the Ethernet frame at a an ingress port of the Ethernet bridge provided by an ingress port Time-Sensitive Networking, TSN, translator ; the ingress port TSN translator determining an internal priority value of the Ethernet frame; forwarding the Ethernet frame along with the determined internal priority value from the ingress port TSN translator to an egress port TSN translator providing an egress port of the Ethernet bridge; and the egress port TSN translator outputting the Ethernet frame by the egress port depending on the internal priority value; wherein the ingress port TSN translator matches the Ethernet frame against multiple stream filters and submits the Ethernet frame to a stream gate associated with a matching stream filter, wherein the stream gate defines the internal priority value.
A three phase duplexing motor for an electric power steering apparatus comprising: a motor which is provided with a stator equipped with 2 sets of three phase windings , and a rotor equipped with a permanent magnet , and drives a steering mechanism of a vehicle; 2 sets of inverters which supply AC power to each set of the three phase windings ; and a controller which controls the 2 sets of inverters , wherein when abnormality occurs in a control system of the three phase windings of one set, the controller sets 0 to a supply current to the three phase windings of an abnormality occurrence set, and increases a supply current to the three phase windings of a normal set more than normal time, with a preliminarily set increase upper limit current value as an upper limit characterized by a coercive force of the permanent magnet being configured so that a demagnetizing factor becomes less than or equal to a preliminarily set allowable demagnetizing factor, when the supply current to the three phase windings of the normal set is increased to the increase upper limit current value at a maximum service temperature of the motor . a motor which is provided with a stator equipped with 2 sets of three phase windings , and a rotor equipped with a permanent magnet , and drives a steering mechanism of a vehicle; 2 sets of inverters which supply AC power to each set of the three phase windings ; and a controller which controls the 2 sets of inverters , wherein when abnormality occurs in a control system of the three phase windings of one set, the controller sets 0 to a supply current to the three phase windings of an abnormality occurrence set, and increases a supply current to the three phase windings of a normal set more than normal time, with a preliminarily set increase upper limit current value as an upper limit characterized by a coercive force of the permanent magnet being configured so that a demagnetizing factor becomes less than or equal to a preliminarily set allowable demagnetizing factor, when the supply current to the three phase windings of the normal set is increased to the increase upper limit current value at a maximum service temperature of the motor .
Spacer fabric, in particular for a seat cushion, having - an upper fabric layer , - a lower fabric layer which is substantially parallel to the upper fabric layer , - a spacer layer which is arranged between the upper fabric layer and the lower fabric layer and formed by pile threads that extend substantially perpendicularly to the upper fabric layer and the lower fabric layer and connect these, wherein the pile threads are spaced apart from each other to form a free space , through which air can flow, and - a heating means on the upper fabric layer , characterized in that the heating means is formed with conductive threads made of a polymer material which is electrically conductive at ambient temperature and blocks current at a predetermined increased limit temperature, in that the conductive threads are incorporated in a thread structure of the upper fabric layer and in that at least a part of the pile threads is formed by the conductive threads . - an upper fabric layer , - a lower fabric layer which is substantially parallel to the upper fabric layer , - a spacer layer which is arranged between the upper fabric layer and the lower fabric layer and formed by pile threads that extend substantially perpendicularly to the upper fabric layer and the lower fabric layer and connect these, wherein the pile threads are spaced apart from each other to form a free space , through which air can flow, and - a heating means on the upper fabric layer , the heating means is formed with conductive threads made of a polymer material which is electrically conductive at ambient temperature and blocks current at a predetermined increased limit temperature, in that the conductive threads are incorporated in a thread structure of the upper fabric layer and in that at least a part of the pile threads is formed by the conductive threads .
An attachment device for attaching a component to a support component , in particular a support component of a vehicle, comprising a retaining element which can be inserted into an opening of the support component and which has latching means for releasably latching to the opening of the support component , and comprising a locking element that can be inserted into the retaining element , wherein, when the locking element is inserted into the retaining element , the latching means of the retaining element are blocked so as to prevent release of the latching, wherein the retaining element has a sealing ring for bearing in a sealing manner against the opening of the support component , which ring, when inserted into the opening of the support component , bears in a sealing manner against opposite sides of the support component , wherein the retaining element has, as latching means, multiple elastic resilient limbs which, when the retaining element is inserted into the opening of the support component , releasably latch to the opening of the support component , and wherein the locking element has at least one locking section which, when the locking element is inserted into the retaining element , prevents an inward movement of the elastic resilient limbs , characterized in that the locking element is of pot-shaped design, and wherein the locking element has at least one latching hook configured to latch a corresponding latching hook of the component when the latching hook of the component is inserted into the locking element .
Hybrid drive module for a motor vehicle drive train , comprising a housing , in which a torsional vibration damping system and an electric machine are received, the torsional vibration damping system consisting of a damping device and a vibration absorber which are provided between an input side and an output side of the torsional vibration damping system and are positioned in a wet space of the housing , the torsional vibration damping system being connected on its output side to a separating clutch , via which the torsional vibration damping system can be connected to an output side of the hybrid drive module , to which output side the electric machine is also connected, characterized in that the damping device comprises two torsional vibration dampers .
A method of manufacturing a granulated raw material for sintering, wherein when a compounding raw material for sintering formed by compounding iron ore powder, carbon material, and auxiliary material is granulated in a granulator, water vapor is blown into the granulator thereby to increase the temperature of the granulated raw material for sintering to be higher than that of the compounding raw material for sintering before charged into the granulator by not less than 10 °C, characterized in that a blowing amount of the water vapor into the granulator is not less than 3.0 kg/t-s, and when the temperature of the granulated raw material for sintering discharged from the granulator exceeds 60°C, water content from industrial water, hot water, or condensate water is supplied so as to add water content equivalent to not less than 0.5% but not more than 3.0 mass% of that of the granulated raw material for sintering after granulation, in addition to the water content supplied by blowing water vapor. wherein when a compounding raw material for sintering formed by compounding iron ore powder, carbon material, and auxiliary material is granulated in a granulator, water vapor is blown into the granulator thereby to increase the temperature of the granulated raw material for sintering to be higher than that of the compounding raw material for sintering before charged into the granulator by not less than 10 °C, characterized in that a blowing amount of the water vapor into the granulator is not less than 3.0 kg/t-s, and when the temperature of the granulated raw material for sintering discharged from the granulator exceeds 60°C, water content from industrial water, hot water, or condensate water is supplied so as to add water content equivalent to not less than 0.5% but not more than 3.0 mass% of that of the granulated raw material for sintering after granulation, in addition to the water content supplied by blowing water vapor.
A control apparatus configured to perform image stabilization using a first image stabilization unit and a second image stabilization unit , the control apparatus comprising a determining unit configured to determine a correction ratio between the first image stabilization unit and the second image stabilization unit, characterized in that the determining unit determines the correction ratio between the first image stabilization unit and the second image stabilization unit such that a proportion of the second image stabilization unit in the correction ratio increases as a shortest distance to a movable end of the first image stabilization unit decreases, wherein the determining unit determines the correction ratio between the first image stabilization unit and the second image stabilization unit such that the proportion of the second image stabilization unit at a first timing in which a shortest distance to a movable end of the first image stabilization unit is a first distance is larger than the proportion of the second image stabilization unit at a second timing different from the first timing in which the shortest distance to the movable end of the first image stabilization unit is a second distance longer than the first distance. characterized in that the determining unit determines the correction ratio between the first image stabilization unit and the second image stabilization unit such that a proportion of the second image stabilization unit in the correction ratio increases as a shortest distance to a movable end of the first image stabilization unit decreases, wherein the determining unit determines the correction ratio between the first image stabilization unit and the second image stabilization unit such that the proportion of the second image stabilization unit at a first timing in which a shortest distance to a movable end of the first image stabilization unit is a first distance is larger than the proportion of the second image stabilization unit at a second timing different from the first timing in which the shortest distance to the movable end of the first image stabilization unit is a second distance longer than the first distance.
A transmission method that transmits an optical signal from transmitting node equipment to receiving node equipment via a plurality of virtual lanes in dual polarization or multi-level modulation, the transmission method comprising: receiving a first frame signal of a first frequency and a second frame signal of a second frequency, and storing the first frame signal and the second frame signal on a memory in the transmitting node equipment; characterized by reading out the first frame signal from the memory at a third frequency, and inserting a stuff byte into the first frame signal read out from the memory such that a difference between the first frequency and the third frequency is adjusted to generate a third frame signal; reading out the second frame signal from the memory at the third frequency, and inserting a stuff byte into the second frame signal read out from the memory such that a difference between the second frequency and the third frequency is adjusted to generate a fourth frame signal; and transmitting the third fame signal and the fourth frame signal respectively via different virtual lanes, wherein the third frequency is higher than the first frequency and the second frequency. receiving a first frame signal of a first frequency and a second frame signal of a second frequency, and storing the first frame signal and the second frame signal on a memory in the transmitting node equipment; characterized by reading out the first frame signal from the memory at a third frequency, and inserting a stuff byte into the first frame signal read out from the memory such that a difference between the first frequency and the third frequency is adjusted to generate a third frame signal; reading out the second frame signal from the memory at the third frequency, and inserting a stuff byte into the second frame signal read out from the memory such that a difference between the second frequency and the third frequency is adjusted to generate a fourth frame signal; and transmitting the third fame signal and the fourth frame signal respectively via different virtual lanes, wherein the third frequency is higher than the first frequency and the second frequency.