mhurhangee/ep-ind-claims huggingface dataset:
A rubber composition for a tread, the rubber composition containing: a rubber component; and a silica having a nitrogen adsorption specific surface area of 200 to 250 m 2 /g as measured by the BET method according to ASTM D3037-81, wherein an amount of the silica per 100 parts by mass of the rubber component is 70 to 120 parts by mass, the rubber composition contains a mercapto silane coupling agent and a zinc dithiophosphate represented by Formula below, where R 1 to R 4 each independently represent a straight chain or branched chain alkyl group having 1 to 18 carbon atoms, or a cycloalkyl group having 5 to 12 carbon atoms, a tanδ peak temperature determined according to the description is -25 to -15°C, tanδ at 50°C determined according to the description is 0.10 to 0.25, and tanδ at 0°C determined according to the description is 0.35 to 0.90. an amount of the silica per 100 parts by mass of the rubber component is 70 to 120 parts by mass, the rubber composition contains a mercapto silane coupling agent and a zinc dithiophosphate represented by Formula below, where R 1 to R 4 each independently represent a straight chain or branched chain alkyl group having 1 to 18 carbon atoms, or a cycloalkyl group having 5 to 12 carbon atoms, a tanδ peak temperature determined according to the description is -25 to -15°C, tanδ at 50°C determined according to the description is 0.10 to 0.25, and tanδ at 0°C determined according to the description is 0.35 to 0.90.
Method in a first radio base station (310, 500) serving a first cell in a wireless communication system, for informing a second radio base station serving a second cell that has a neighbour relation with the first cell, of at least the cell type of the first cell, the method comprising: adding information of the cell type to a set of information to be signaled to the second base station during one of an X2 setup procedure, an S1 setup procedure and an eNodeB configuration update procedure, and signalling said cell type information as part of said set of information during one of said X2 setup procedure, S1 setup procedure and eNodeB configuration update procedure, wherein also cell type information of direct neighbors of the first and/or second base station is added to the set of information which is signaled to the second base station, and wherein said cell type information includes cell size and cell hierarchical level. adding information of the cell type to a set of information to be signaled to the second base station during one of an X2 setup procedure, an S1 setup procedure and an eNodeB configuration update procedure, and signalling said cell type information as part of said set of information during one of said X2 setup procedure, S1 setup procedure and eNodeB configuration update procedure, wherein also cell type information of direct neighbors of the first and/or second base station is added to the set of information which is signaled to the second base station, and wherein said cell type information includes cell size and cell hierarchical level.
A transmitter, comprising: a first digital up-converter for converting data to an intermediate frequency signal; a pulse width modulator for encoding the IF signal to an IF pulse train; a second digital up-converter for converting the IF pulse train to a radio frequency pulse train; a power amplifier for amplifying the RF pulse train; and a filter for reconstructing a RF analog signal from the amplified RF pulse train, and wherein the PWM is a multi-level PWM, further comprising: a splitter for duplicating the IF signal; two multi-level quantizers (32, 32'), each quantizer being adapted to quantize the IF signal based on the comparison of the IF signal with a set of thresholds (35, 36) to produce two waveforms (37, 38); and a combiner for combining the two waveforms (37, 38) to produce the IF pulse train, the two multi-level quantizers (32, 32') including a first quantizer and a second quantizer, and the set of thresholds (35, 36) including a first set of thresholds and a second set of thresholds, and wherein values of the thresholds in the first set are opposite to values of the thresholds in the second set, having the same absolute values but different sign with respect to the values in said second set. a first digital up-converter for converting data to an intermediate frequency signal; a pulse width modulator for encoding the IF signal to an IF pulse train; a second digital up-converter for converting the IF pulse train to a radio frequency pulse train; a power amplifier for amplifying the RF pulse train; and a filter for reconstructing a RF analog signal from the amplified RF pulse train, and wherein the PWM is a multi-level PWM, further comprising: a splitter for duplicating the IF signal; two multi-level quantizers (32, 32'), each quantizer being adapted to quantize the IF signal based on the comparison of the IF signal with a set of thresholds (35, 36) to produce two waveforms (37, 38); and a combiner for combining the two waveforms (37, 38) to produce the IF pulse train, the two multi-level quantizers (32, 32') including a first quantizer and a second quantizer, and the set of thresholds (35, 36) including a first set of thresholds and a second set of thresholds, and wherein values of the thresholds in the first set are opposite to values of the thresholds in the second set, having the same absolute values but different sign with respect to the values in said second set. a splitter for duplicating the IF signal; two multi-level quantizers (32, 32'), each quantizer being adapted to quantize the IF signal based on the comparison of the IF signal with a set of thresholds (35, 36) to produce two waveforms (37, 38); and a combiner for combining the two waveforms (37, 38) to produce the IF pulse train, the two multi-level quantizers (32, 32') including a first quantizer and a second quantizer, and the set of thresholds (35, 36) including a first set of thresholds and a second set of thresholds, and wherein values of the thresholds in the first set are opposite to values of the thresholds in the second set, having the same absolute values but different sign with respect to the values in said second set.
A rebar tying machine, comprising a tying machine main body and a steel wire winding assembly mounted within the main body, wherein the steel wire winding assembly comprises a winding mechanism and a driving device for driving the winding mechanism, and further comprises a locking device; an advance/retreat locating slot axially disposed along the winding mechanism and a rotating cam slot disposed along the periphery of the winding mechanism, which are communicated to each other and are disposed on the winding mechanism; an anti-rotation fixing pin of the locking device moving in the advance/retreat locating slot, and sliding in the rotating cam slot; and a steel wire cutting-off mechanism, to which a wire cutting plate in the steel wire winding assembly is connected, is further mounted within the main body; characterized in that the steel wire cutting-off mechanism comprises a transmission device, a wire discharging block and a linear cutting-off device, which are mounted within the main body; the transmission device is connected to the linear cutting-off device; the wire discharging block has a wire discharging passage, and is further provided with a chute intersected with the wire discharging passage; wherein a wire cutter in the linear cutting-off device linearly slides in the chute, the locking device further comprises a pedestal fixed on the main body and having thereon a hollow protrusion in which the anti-rotation fixing pin is disposed; a resetting spring is provided between the anti-rotation fixing pin and the protrusion; and a reinforcing rib is formed between the pedestal and the protrusion.
A method, comprising: receiving, by one or more processors of a host computing device (110, 120) of a first enclave, a request to duplicate an application running inside the first enclave; generating, by the one or more processors, a snapshot of the first enclave including the application; encrypting, by the one or more processors, the snapshot inside the first enclave with a snapshot key; copying, by the one or more processors, the encrypted snapshot from the first enclave to untrusted memory of the host; generating, by the one or more processors, a second enclave; sending, by the one or more processors, the snapshot key from the first enclave to the second enclave through a secure communication channel; copying, by the one or more processors, the encrypted snapshot from the untrusted memory of the host into the second enclave; and decrypting, by the one or more processors, the encrypted snapshot inside the second enclave with the snapshot key, further comprising creating, by the one or more processors, an entry for the first enclave, the entry allowing a snapshotting thread to enter the first enclave from the host, wherein the snapshot is taken by the snapshotting thread inside the first enclave, and generating, by the one or more processors, an entry barrier for the entry created for the first enclave, and wherein the entry barrier prevents host-side threads other than the snapshotting thread from entering the first enclave. receiving, by one or more processors of a host computing device (110, 120) of a first enclave, a request to duplicate an application running inside the first enclave; generating, by the one or more processors, a snapshot of the first enclave including the application; encrypting, by the one or more processors, the snapshot inside the first enclave with a snapshot key; copying, by the one or more processors, the encrypted snapshot from the first enclave to untrusted memory of the host; generating, by the one or more processors, a second enclave; sending, by the one or more processors, the snapshot key from the first enclave to the second enclave through a secure communication channel; copying, by the one or more processors, the encrypted snapshot from the untrusted memory of the host into the second enclave; and decrypting, by the one or more processors, the encrypted snapshot inside the second enclave with the snapshot key, further comprising creating, by the one or more processors, an entry for the first enclave, the entry allowing a snapshotting thread to enter the first enclave from the host, wherein the snapshot is taken by the snapshotting thread inside the first enclave, and generating, by the one or more processors, an entry barrier for the entry created for the first enclave, and wherein the entry barrier prevents host-side threads other than the snapshotting thread from entering the first enclave.
A tire having a jointless protector belt, wherein the jointless protector belt is a continuously wound strip of one or more reinforcement cords, wherein the strip of one or more reinforcement cords is wound in a sine wave pattern or in a wavy pattern, characterized in that the one or more reinforcement cords are formed of nylon or a blend of nylon and aramid.
A system for magnetically shielding a charged particle lithography apparatus, the system comprising: - a first chamber having walls comprising a magnetic shielding material, the first chamber enclosing, at least partially, the charged particle lithography apparatus; - a second chamber having walls comprising a magnetic shielding material, the second chamber enclosing the first chamber; the first chamber has a cubical shape, characterized in that the first chamber is provided with a degaussing arrangement comprising at least one degauss coil that traces a path along three edges on the inside of the first chamber walls, and returning along the three edges on the outside of the first chamber walls. - a first chamber having walls comprising a magnetic shielding material, the first chamber enclosing, at least partially, the charged particle lithography apparatus; - a second chamber having walls comprising a magnetic shielding material, the second chamber enclosing the first chamber;
A pressure sensor with double measuring scale, configured to receive a pressure acting in a direction, comprising: - a flexible body (16, 34), adapted to undergo, at least in part, deflection as a function of said pressure; - a first substrate (32; 52) arranged facing a first side of the flexible body (16, 34); - a transduction assembly (28, 29; 94) configured to generate a first output signal (V out1) and a second output signal (V out2) as a function of the deflection of respective first and second portions (19, 17) of the flexible body (16, 34); - a first focusing region arranged between the first substrate and the flexible body, configured to concentrate, during a first operating condition, a first value (P INT1) of said pressure in the first portion of the flexible body (16, 34) so as to generate a deflection of only the first portion of the flexible body (16, 34); and - a second focusing region arranged between the first substrate and the flexible body, configured to concentrate, during a second operating condition, a second value (P INT2) of said pressure in a second portion of the flexible body (16, 34) so as to generate a deflection of the second portion of the flexible body (16, 34), the transduction assembly being configured to generate the first output signal (V out1) during the first operating condition by correlating the deflection of the first portion of the flexible body (16, 34) to the first pressure value (P INT1), and for generating the second output signal (V out2) during the second operating condition by correlating the deflection of the second portion of the flexible body (16, 34) to the second pressure value (P INT2), characterized by further comprising a first cavity between the first substrate and the flexible body (16, 34), wherein the first focusing region extends in the first cavity and has a first thickness equal to the distance existing between the first substrate and the flexible body (16, 34), and the second focusing region extends in the first cavity and has a second thickness smaller than said first thickness. - a flexible body (16, 34), adapted to undergo, at least in part, deflection as a function of said pressure; - a first substrate (32; 52) arranged facing a first side of the flexible body (16, 34); - a transduction assembly (28, 29; 94) configured to generate a first output signal (V out1) and a second output signal (V out2) as a function of the deflection of respective first and second portions (19, 17) of the flexible body (16, 34); - a first focusing region arranged between the first substrate and the flexible body, configured to concentrate, during a first operating condition, a first value (P INT1) of said pressure in the first portion of the flexible body (16, 34) so as to generate a deflection of only the first portion of the flexible body (16, 34); and - a second focusing region arranged between the first substrate and the flexible body, configured to concentrate, during a second operating condition, a second value (P INT2) of said pressure in a second portion of the flexible body (16, 34) so as to generate a deflection of the second portion of the flexible body (16, 34),
A respiratory apparatus for providing therapy for a patient with disordered breathing, the respiratory apparatus comprising: a flow generator having a blower to generate a flow of breathable gas for a patient interface at a pressure above atmospheric pressure, the blower comprising a motor; one or more sensors (104, 110, 108, 106), the one or more sensors configured to respectively output measurement of one or more of: a) a pressure of the flow of breathable gas; b) a temperature of the flow of breathable gas; c) a speed of the motor; and d) a flow rate of the flow of breathable gas; and a processor comprising an altitude estimation unit, wherein the processor is configured to determine an estimate of an altitude of the respiratory apparatus based on the output measurement from the one or more sensors, and wherein the processor is configured to control the blower based on the estimate of the altitude. a flow generator having a blower to generate a flow of breathable gas for a patient interface at a pressure above atmospheric pressure, the blower comprising a motor; one or more sensors (104, 110, 108, 106), the one or more sensors configured to respectively output measurement of one or more of: a) a pressure of the flow of breathable gas; b) a temperature of the flow of breathable gas; c) a speed of the motor; and d) a flow rate of the flow of breathable gas; and a) a pressure of the flow of breathable gas; b) a temperature of the flow of breathable gas; c) a speed of the motor; and d) a flow rate of the flow of breathable gas; and a processor comprising an altitude estimation unit, wherein the processor is configured to determine an estimate of an altitude of the respiratory apparatus based on the output measurement from the one or more sensors, and wherein the processor is configured to control the blower based on the estimate of the altitude.
Assembly for a speed reducer of a rotary electric machine, the assembly comprising: - a ring gear secured to a transverse wall, - a base plate intended to be mounted so as to rotate as one with a mount of the machine, - axially acting elastic means, such as an axially acting elastic washer, characterized in that the assembly also comprises: - an attached hub on which the transverse wall of the ring gear, the base plate and the elastic means are mounted, - this hub bearing at least one first shoulder for supporting the axially acting elastic means, and - at least one second shoulder for supporting the transverse wall of the ring gear, and in that the axially acting elastic means are supported indirectly on the first shoulder by way of a closure washer supported on the first shoulder and positioned in a groove formed around the hub. - a ring gear secured to a transverse wall, - a base plate intended to be mounted so as to rotate as one with a mount of the machine, - axially acting elastic means, such as an axially acting elastic washer, characterized in that the assembly also comprises: - an attached hub on which the transverse wall of the ring gear, the base plate and the elastic means are mounted, - this hub bearing at least one first shoulder for supporting the axially acting elastic means, and - at least one second shoulder for supporting the transverse wall of the ring gear,
A drape for use during surgery on a patient, wherein the drape is configured for covering at least a portion of the patient during surgery and for covering an instrument array, wherein a portion of the drape (18, 20, 22, 24) covering the instrument array is transparent, and wherein the drape comprises a first hole panel comprising a first hole containing portion and a flap, wherein said first hole containing portion is attached to a transparent portion (18, 20, 22, 24) of said drape, wherein a line (52, 54) for the delivery of a fluid to the patient can pass from the instrument array through a hole in the first hole containing portion to the patient, and wherein the flap is configured to cover the first hole containing portion.
A centrifugal electric pump, of the type comprising a shell for the containment of a set of impellers interleaved with fixed diffusers, and of a motor that drives said impellers to rotate, since they are keyed on a same shaft as said motor, said pump comprising a sealing chamber that is provided between said impellers and said motor and that is extended around said shaft to collect condensation water and water seepage originating from the set of said impellers, said sealing chamber being connected to the outside of said pump by means of at least one water discharge duct, said shell having at least one discharge hole at said at least one discharge duct, said shell comprising a substantially cylindrical portion, which surrounds said impellers, said sealing chamber and said motor, and is constituted by two jackets (20a, 20b) which are mated on the transverse plane at said discharge hole and two opposite heads (21, 22) for closing the end faces of said cylindrical portion, respectively a first head at the intake and a second head at the delivery of the pump.
A first communication device comprising circuitry configured to - exchange data with one or more second communication devices (STA1, STA2) on a first communication channel, and - transmit collision information (IN, TN) on a second communication channel that is a different channel than the first communication channel, wherein the circuitry is configured to transmit said collision information once it is aware that there is a collision on the first communication channel or once it is aware of a data transmission of a second communication device on the first communication channel or once it received a CTS or RTS notification from a second communication device on the first communication channel, said collision information indicating - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device shall continue data transmission on the first communication channel and/or which second communication device shall stop data transmission on the first communication channel and/or which second communication device shall not initiate data transmission on the first communication channel. - exchange data with one or more second communication devices (STA1, STA2) on a first communication channel, and - transmit collision information (IN, TN) on a second communication channel that is a different channel than the first communication channel, wherein the circuitry is configured to transmit said collision information once it is aware that there is a collision on the first communication channel or once it is aware of a data transmission of a second communication device on the first communication channel or once it received a CTS or RTS notification from a second communication device on the first communication channel, said collision information indicating - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device shall continue data transmission on the first communication channel and/or which second communication device shall stop data transmission on the first communication channel and/or which second communication device shall not initiate data transmission on the first communication channel. - that there is a collision on the first communication channel or that the first communication channel is occupied and - which second communication device shall continue data transmission on the first communication channel and/or which second communication device shall stop data transmission on the first communication channel and/or which second communication device shall not initiate data transmission on the first communication channel.