mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a crystallizable polyetherimide derived from: (a) a dianhydride component, comprising 96.8 mole % or more of 4,4'- bisphenol A dianhydride of formula and (b) a diamine component, consisting of para-phenylenediamine and less than 5.0 mole % of meta-phenylenediamine and optionally one or more diamine selected from the group consisting of p-phenylenediamine; benzidine; 1,5-diaminonaphthalene; bis(4-aminophenyl)methane; bis(4-aminophenyl)propane; bis(4-aminophenyl)sulfide; bis(4-aminophenyl)ether; 4,4'-diaminodiphenylpropane; 4,4'-diaminodiphenylmethane(4,4'-methylenedianiline); 4,4'-diaminodiphenylsulfide; 4,4'-diaminodiphenylsulfone; 4,4'-diaminodiphenylether(4,4'-oxydianiline); 1,5-diaminonaphthalene; 3,3'dimethylbenzidine; 4,3'-diaminodiphenylether; 1,3-bis(4-aminophenoxy)benzene; 4,4'-bis(4-aminophenoxy)biphenyl; and combinations thereof.; wherein the crystallizable polyetherimide has a T m from 250°C to 400°C and the difference between the T m and T g of the composition is equal to or more than 50°C. (a) a dianhydride component, comprising 96.8 mole % or more of 4,4'- bisphenol A dianhydride of formula and (b) a diamine component, consisting of para-phenylenediamine and less than 5.0 mole % of meta-phenylenediamine and optionally one or more diamine selected from the group consisting of p-phenylenediamine; benzidine; 1,5-diaminonaphthalene; bis(4-aminophenyl)methane; bis(4-aminophenyl)propane; bis(4-aminophenyl)sulfide; bis(4-aminophenyl)ether; 4,4'-diaminodiphenylpropane; 4,4'-diaminodiphenylmethane(4,4'-methylenedianiline); 4,4'-diaminodiphenylsulfide; 4,4'-diaminodiphenylsulfone; 4,4'-diaminodiphenylether(4,4'-oxydianiline); 1,5-diaminonaphthalene; 3,3'dimethylbenzidine; 4,3'-diaminodiphenylether; 1,3-bis(4-aminophenoxy)benzene; 4,4'-bis(4-aminophenoxy)biphenyl; and combinations thereof.;
A glass composition comprising: (a) 45-81 wt% B 2 O 3, (b) 1-7 wt% Na 2 O, (c) 0.1-5 wt% Al 2 O 3, (d) 0.1-2 wt% Li 2 O, (e) 0.5-6 wt% TiO 2, (f) 0.1-9 wt% ZnO and (g) 4-25 wt% BaO no bismuth, no vanadium, no cadmium and devoid of lead.
A method of synchronizing the frequency of a slave clock in a slave device to a master clock in a master device, the method including the steps of: a) receiving in the slave device a first message from said master device having a first time-stamp which is an approximate time-stamp of said master clock indicating the time of sending of said first message; b) extracting said first time-stamp from said first message and initializing a counter in the slave device which counts an output of said slave clock; c) receiving in the slave device a second message from said master device having a second time stamp, which is a time-stamp of said master clock indicating the precise time of sending of said first message d) extracting said second time-stamp from said second message; e) calculating a correction value, representative of the difference between the value of the first time-stamp and the value of the second time-stamp; f) receiving in the slave device a third message from said master device and reading the value of said counter at the time of receipt of said third message; g) receiving in the slave device a fourth message from said master device having a third time stamp, which is a time-stamp of the master clock indicating the precise time of sending of the third message according to said master clock; h) extracting said third time-stamp from said fourth message; i) calculating an error signal which is representative of the difference between said value of the counter as read in step f) and said third time-stamp, the error signal being adjusted using said correction value; and j) adjusting the frequency of said slave clock based on said error signal. a) receiving in the slave device a first message from said master device having a first time-stamp which is an approximate time-stamp of said master clock indicating the time of sending of said first message; b) extracting said first time-stamp from said first message and initializing a counter in the slave device which counts an output of said slave clock; c) receiving in the slave device a second message from said master device having a second time stamp, which is a time-stamp of said master clock indicating the precise time of sending of said first message d) extracting said second time-stamp from said second message; e) calculating a correction value, representative of the difference between the value of the first time-stamp and the value of the second time-stamp; f) receiving in the slave device a third message from said master device and reading the value of said counter at the time of receipt of said third message; g) receiving in the slave device a fourth message from said master device having a third time stamp, which is a time-stamp of the master clock indicating the precise time of sending of the third message according to said master clock; h) extracting said third time-stamp from said fourth message; i) calculating an error signal which is representative of the difference between said value of the counter as read in step f) and said third time-stamp, the error signal being adjusted using said correction value; and j) adjusting the frequency of said slave clock based on said error signal.
A process for the recovery of lithium from minerals rich in lithium and phosphate, the process characterised by comprising passing an ore containing one or more minerals rich in lithium and phosphate to an acid leach step thereby producing a pregnant leach solution, subjecting the pregnant leach solution to a series of process steps by which one or more impurity elements are removed, and recovering lithium as a lithium containing salt product, wherein the series of process steps by which one or more impurity elements are removed includes a low pH impurity removal step conducted at an elevated temperature of greater than 90°C for the precipitation of one or more impurities, including alunite, wherein a base is added to the low pH impurity removal step, wherein the low pH impurity removal step is operated at a pH of in the range 2 to 3.
A method of fabricating a semiconductor device, the method comprising: forming a cavity in a first substrate; forming a passivation layer within the cavity and on the bottom portion of the first substrate; defining a getter location within the cavity at which the substrate is exposed through the passivation layer; porosifying the substrate at the getter location to form pores; depositing a getter on the getter location such that the getter enters the pores and coats surfaces within the pores; and removing the passivation layer; characterized in that the cavity includes side walls and a base, the passivation layer is formed on the side walls and a portion of the base, and the portion of the base at which the substrate is exposed through the passivation layer is defined as the getter location. forming a cavity in a first substrate; forming a passivation layer within the cavity and on the bottom portion of the first substrate; defining a getter location within the cavity at which the substrate is exposed through the passivation layer; porosifying the substrate at the getter location to form pores; depositing a getter on the getter location such that the getter enters the pores and coats surfaces within the pores; and removing the passivation layer; characterized in that the cavity includes side walls and a base, the passivation layer is formed on the side walls and a portion of the base, and the portion of the base at which the substrate is exposed through the passivation layer is defined as the getter location.
An instrument for detecting partial electric discharges in an electric apparatus, comprising: - an input stage set up to receive a discharge signal representative of one or more partial discharge pulses and a sync signal representative of an alternating voltage applied to the electric apparatus; - an output stage set up to transfer data from the instrument in digital form; - a data processing stage connected both to the input stage and to the output stage, for receiving the discharge signal and the sync signal, and extracting substantially in real time for each pulse detected the value of an amplitude parameter (q), correlated with a pulse amplitude, and the value of a phase parameter (f), representative of the phase of the voltage applied to the electric apparatus concurrently with the pulse, and transferring substantially in real time to the output stage a processed digital signal comprising the values extracted, characterized in that the processing stage comprises a filtering module set up to disable substantially in real time the transfer to the output of the values of the parameters extracted for one or more pulses, as a function of comparing the values extracted for the amplitude and phase parameters with predetermined reference values for the amplitude and phase parameters, wherein the extracted amplitude and phase parameter values lie in a reference plane (q-f) having as its coordinates the phase and amplitude parameters, and wherein the filtering module disables, substantially in real time, the transfer to the output of extracted parameter values according to whether they lie inside or outside of a filtering area defined by the reference values of the phase and amplitude parameters. - an input stage set up to receive a discharge signal representative of one or more partial discharge pulses and a sync signal representative of an alternating voltage applied to the electric apparatus; - an output stage set up to transfer data from the instrument in digital form; - a data processing stage connected both to the input stage and to the output stage, for receiving the discharge signal and the sync signal, and extracting substantially in real time for each pulse detected the value of an amplitude parameter (q), correlated with a pulse amplitude, and the value of a phase parameter (f), representative of the phase of the voltage applied to the electric apparatus concurrently with the pulse, and transferring substantially in real time to the output stage a processed digital signal comprising the values extracted,
A recombinant DNA molecule comprising a nucleotide sequence selected from the group consisting of SEQ ID NO:1-8, SEQ ID NO:10, and full complements thereof.
A method for a lawful interception of one or more encrypted messages in a communication network, the method comprising: receiving, by a lawful interception device, a copy of the one or more encrypted messages, wherein each of the messages is encrypted by a symmetric message encryption key; the method further comprises: receiving, by the lawful interception device, one or more message encryption key generation parameters associated with the one or more encrypted messages from the communication network, wherein values of the message encryption key generation parameters are populated by the communication network; receiving, by the lawful interception device, logic for generating the message encryption key, from an encryption device, to decrypt the one or more encrypted messages; generating, by the lawful interception device, the message encryption key based on the received one or more message encryption key generation parameters and the received logic for generating the message encryption key; decrypting, by the lawful interception device, the one or more encrypted messages based on the generated message encryption key, for the lawful interception. receiving, by a lawful interception device, a copy of the one or more encrypted messages, wherein each of the messages is encrypted by a symmetric message encryption key; the method further comprises: receiving, by the lawful interception device, one or more message encryption key generation parameters associated with the one or more encrypted messages from the communication network, wherein values of the message encryption key generation parameters are populated by the communication network; receiving, by the lawful interception device, logic for generating the message encryption key, from an encryption device, to decrypt the one or more encrypted messages; generating, by the lawful interception device, the message encryption key based on the received one or more message encryption key generation parameters and the received logic for generating the message encryption key; decrypting, by the lawful interception device, the one or more encrypted messages based on the generated message encryption key, for the lawful interception. receiving, by the lawful interception device, one or more message encryption key generation parameters associated with the one or more encrypted messages from the communication network, wherein values of the message encryption key generation parameters are populated by the communication network; receiving, by the lawful interception device, logic for generating the message encryption key, from an encryption device, to decrypt the one or more encrypted messages; generating, by the lawful interception device, the message encryption key based on the received one or more message encryption key generation parameters and the received logic for generating the message encryption key; decrypting, by the lawful interception device, the one or more encrypted messages based on the generated message encryption key, for the lawful interception.
An agricultural baler for compressing material into square bales, in particular for compressing straw bales, comprising - a main channel, - at least one main compactor, - at least one binding device, - at least one drive device, as well as - at least one transmission device, wherein the main compactor cooperates with the drive device by means of the transmission device, so that the main compactor can oscillate backwards and forwards within the main channel parallel to a channel axis of the main channel and in this manner, material located in the main channel can be successively compressed, wherein, by means of the binding device, compressed material located within the main channel can be accumulated portion by portion so that a respective bale is formed, characterized by a control device by means of which, in addition to an operational mode in which the respective material can be compressed into the bale, the baler can additionally be operated in a maintenance mode and a start-up mode, wherein, when the baler is operated in the maintenance mode, at least the main compactor can be moved at a maintenance speed which is reduced with respect to an operating speed used in the operational mode, and wherein, when the baler is operated in the start-up mode, at least the main compactor can be moved in a direction of movement which is opposite to that of the operational mode, and wherein the baler comprises at least one energy storage system which cooperates with a drive shaft of the drive device wherein, by means of the energy storage system, braking energy can be stored during the course of braking of the drive shaft and acceleration energy can be transmitted to the drive shaft during the course of an acceleration of the drive shaft, and at least during the course of the operation of the baler in its start-up mode, at least some of the energy for the drive device is supplied by means of the energy storage system. - a main channel, - at least one main compactor, - at least one binding device, - at least one drive device, as well as - at least one transmission device,
A solar cell module comprising: a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes (141, 142) that are formed on a back surface of the semiconductor substrate, the first and second electrodes extending in a first direction, and having different polarities; and conductive lines disposed to extend in a second direction crossing the first direction on the back surface of the semiconductor substrate included in each solar cell, the conductive lines including first conductive lines connected to the first electrodes through a conductive adhesive and insulated from the second electrodes through an insulating layer, and second conductive lines connected to the second electrodes through the conductive adhesive and insulated from the first electrodes through the insulating layer, wherein a first direction length of the insulating layer in the first direction is greater than a linewidth of each conductive line and is less than a distance between the conductive lines, and wherein the first direction length of the insulating layer is greater than the first direction length of the conductive adhesive, and a first direction length of the conductive adhesive in the first direction is greater than a linewidth of each conductive line, is equal to or less than 1.25 times of the linewidth of each conductive line and is less than a distance between the conductive lines. a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes (141, 142) that are formed on a back surface of the semiconductor substrate, the first and second electrodes extending in a first direction, and having different polarities; and conductive lines disposed to extend in a second direction crossing the first direction on the back surface of the semiconductor substrate included in each solar cell, the conductive lines including first conductive lines connected to the first electrodes through a conductive adhesive and insulated from the second electrodes through an insulating layer, and second conductive lines connected to the second electrodes through the conductive adhesive and insulated from the first electrodes through the insulating layer, wherein a first direction length of the insulating layer in the first direction is greater than a linewidth of each conductive line and is less than a distance between the conductive lines, and wherein the first direction length of the insulating layer is greater than the first direction length of the conductive adhesive, and a first direction length of the conductive adhesive in the first direction is greater than a linewidth of each conductive line, is equal to or less than 1.25 times of the linewidth of each conductive line and is less than a distance between the conductive lines.
A light source module, comprising: at least a light emitting diode; a switching power supply having an input port, an output port, a transforming unit, and a switching unit; wherein an external power source is connected to the input port, the light emitting diode is electrically connected to the output port, and the transforming unit is between the input port and the output port to receive power of the external power source through the input port, transform the power, and send the power to the light emitting diode through the output port; wherein the switching unit includes a ringing choke converter electrically connected to the transforming unit to make the transforming unit provide a constant current to the light emitting diode by turning on and turning off the power output from the transforming unit, and wherein the light source module comprises a voltage compensation unit being electrically connected to the switching unit to control the switching unit to make the transforming unit provide the constant current to the light emitting diode when voltage of the external power source changes, characterized in that the light source module further comprise a temperature compensation unit being electrically connected to the voltage compensation unit to control the switching unit to make the transforming unit provide the constant current to the light emitting diode when temperature of the switching power supply changes. at least a light emitting diode; a switching power supply having an input port, an output port, a transforming unit, and a switching unit; wherein an external power source is connected to the input port, the light emitting diode is electrically connected to the output port, and the transforming unit is between the input port and the output port to receive power of the external power source through the input port, transform the power, and send the power to the light emitting diode through the output port; wherein the switching unit includes a ringing choke converter electrically connected to the transforming unit to make the transforming unit provide a constant current to the light emitting diode by turning on and turning off the power output from the transforming unit, and
Precision weighing machine with a weighing chamber, a draught protector (18, 20) surrounding the weighing chamber, a climate module which includes an air pressure sensor, a humidity sensor and an air temperature sensor and which is removably arranged in the weighing chamber, a processor arranged in the precision weighing machine, a data input unit arranged in the precision weighing machine and a data transmission path configured to exchange data between the climate module and the processor.
A driving support control apparatus using an electric power steering mechanism that calculates a current command value based on at least a steering torque, drives a motor based on said current command value, and assists and controls a steering system, characterized in that said driving support control apparatus comprises: a SAT estimating section that estimates a self-aligning torque; a SAT transfer characteristic control section that corrects said self-aligning torque in order to make a time constant of a self-aligning torque transfer characteristic equal to a desired value, compensates said steering torque in accordance with a corrected self-aligning torque, and outputs a compensated steering torque as a first compensated steering torque; a disturbance sensitivity control section that suppresses a disturbance included by said self-aligning torque, compensates said first compensated steering torque in accordance with a self-aligning torque obtained by suppressing said disturbance, and outputs a compensated first compensated steering torque as a second compensated steering torque; and a vehicle characteristic compensation control section that compensates said second compensated steering torque in accordance with an actual steering angle that is detected so that a vehicle characteristic from said actual steering angle to a yaw rate becomes a primary delay characteristic. a SAT estimating section that estimates a self-aligning torque; a SAT transfer characteristic control section that corrects said self-aligning torque in order to make a time constant of a self-aligning torque transfer characteristic equal to a desired value, compensates said steering torque in accordance with a corrected self-aligning torque, and outputs a compensated steering torque as a first compensated steering torque; a disturbance sensitivity control section that suppresses a disturbance included by said self-aligning torque, compensates said first compensated steering torque in accordance with a self-aligning torque obtained by suppressing said disturbance, and outputs a compensated first compensated steering torque as a second compensated steering torque; and a vehicle characteristic compensation control section that compensates said second compensated steering torque in accordance with an actual steering angle that is detected so that a vehicle characteristic from said actual steering angle to a yaw rate becomes a primary delay characteristic.