mhurhangee/ep-ind-claims huggingface dataset:
A first mobile device for sharing energy with a second mobile device, the first mobile device comprising: a battery; an inductive coil; a charge sensor unit configured to identify a charge state of the battery of the first mobile device; a user interface unit configured to receive an input for selecting a source mode for the first mobile device, wherein in the source mode the first mobile device operates to supply energy to the second mobile device; and characterized by an inverter circuit configured to convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage when the source mode is selected, and configured to supply the energy to the second mobile device based on the AC voltage through the inductive coil if the identified charge state of the battery is not less than a predefined level to prevent the charge state of the battery from being less than the predefined level, and based on the identified charge state of the battery of the first mobile device, the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the energy to the second mobile device. a battery; an inductive coil; a charge sensor unit configured to identify a charge state of the battery of the first mobile device; a user interface unit configured to receive an input for selecting a source mode for the first mobile device, wherein in the source mode the first mobile device operates to supply energy to the second mobile device; and characterized by an inverter circuit configured to convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage when the source mode is selected, and configured to supply the energy to the second mobile device based on the AC voltage through the inductive coil if the identified charge state of the battery is not less than a predefined level to prevent the charge state of the battery from being less than the predefined level, and based on the identified charge state of the battery of the first mobile device, the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the energy to the second mobile device.
A method for transmitting a hybrid automatic repeat request, HARQ, acknowledge/negative acknowledge, ACK/NACK, signal in a mobile communication system, the method comprising: determining, by a controller, two orthogonal frequency division multiplexing, OFDM, symbols for ACK/NACK transmission as a first OFDM symbol and a second OFDM symbol; dividing, by the controller, ACK/NACK signals for a plurality of user equipments, UEs, into at least two sets, wherein the ACK/NACK signals of a first set are intended for a first UE set and the ACK/NACK signals of a second set are intended for a second UE set; mapping, by a mapper, an ACK/NACK signal for the first UE set and an ACK/NACK signal for the second UE set to the OFDM symbols so that a number of repetitions of the ACK/NACK signal for the first UE set within the OFDM symbols is equal to a number of repetitions of the ACK/NACK signal for the second UE set within the OFDM symbols, and transmitting, by a transmitter, the mapped OFDM symbols; wherein the ACK/NACK signal for the first UE set is once mapped to the first OFDM symbol and is twice mapped to the second OFDM symbol, and wherein the ACK/NACK signal for the second UE set is twice mapped to the first OFDM symbol and is once mapped to the second OFDM symbol. determining, by a controller, two orthogonal frequency division multiplexing, OFDM, symbols for ACK/NACK transmission as a first OFDM symbol and a second OFDM symbol; dividing, by the controller, ACK/NACK signals for a plurality of user equipments, UEs, into at least two sets, wherein the ACK/NACK signals of a first set are intended for a first UE set and the ACK/NACK signals of a second set are intended for a second UE set; mapping, by a mapper, an ACK/NACK signal for the first UE set and an ACK/NACK signal for the second UE set to the OFDM symbols so that a number of repetitions of the ACK/NACK signal for the first UE set within the OFDM symbols is equal to a number of repetitions of the ACK/NACK signal for the second UE set within the OFDM symbols, and transmitting, by a transmitter, the mapped OFDM symbols; wherein the ACK/NACK signal for the first UE set is once mapped to the first OFDM symbol and is twice mapped to the second OFDM symbol, and wherein the ACK/NACK signal for the second UE set is twice mapped to the first OFDM symbol and is once mapped to the second OFDM symbol.
Operating unit with a touch-sensitive operating area and with a control unit, wherein the operating area is designed for capturing regions of the operating area which are touched by a finger of a user and for transmitting information about the touched regions to the control unit, wherein the control unit is designed to determine from the information about the touched regions an activation point on the operating area and, if the activation point lies in a predetermined field of the operating area, to execute a function assigned to the field, characterised in that the control unit is designed to determine the activation point at or in the region of an edge line bounding a fingertip and lying in front in the movement direction of the finger on the surface of the operating area only if a detected speed of movement of a course of the touched regions of the operating area exceeds a predetermined limit value, and otherwise to determine the activation point from a centroid of all regions touched by the finger at a point in time.
A system for dispensing a flowable material comprising: a bulk bin container having a bottom wall and a plurality of upstanding side walls (17a-d) foldably joined to the bottom wall to form an interior space and wherein one of the plurality of the side walls includes a dispensing opening; and a cassette being configured to be disposed into the interior space and being positioned on the bottom wall of the bulk bin container, the cassette comprises a product bag having respective inlet and outlet ports (20, 21) used for respective filling and dispensing the flowable material from the product bag, and a sump base dispensing apparatus (18, 18') being configured to be attached to the product bag via a dispensing fitment (22, 22') so as to assist in removing the flowable material through the dispensing fitment by gravity force, the sump base dispensing apparatus includes a sump tray (24, 24', 24", 24'") and a locking bracket (26, 26', 26", 26'") that is used to securely hold in place the dispensing fitment and an integrated locking tongue (36, 36', 36", 36'") defined by a hinge line (38, 38', 38", 38'") formed on an upper portion of a front wall (32C, 32C', 32C", 32C'") of the sump tray wherein the hinge line permits the locking bracket and the dispensing fitment to fold back and lay down inside of the interior space of the sump tray. a bulk bin container having a bottom wall and a plurality of upstanding side walls (17a-d) foldably joined to the bottom wall to form an interior space and wherein one of the plurality of the side walls includes a dispensing opening; and a cassette being configured to be disposed into the interior space and being positioned on the bottom wall of the bulk bin container, the cassette comprises a product bag having respective inlet and outlet ports (20, 21) used for respective filling and dispensing the flowable material from the product bag, and a sump base dispensing apparatus (18, 18') being configured to be attached to the product bag via a dispensing fitment (22, 22') so as to assist in removing the flowable material through the dispensing fitment by gravity force, the sump base dispensing apparatus includes a sump tray (24, 24', 24", 24'") and a locking bracket (26, 26', 26", 26'") that is used to securely hold in place the dispensing fitment and an integrated locking tongue (36, 36', 36", 36'") defined by a hinge line (38, 38', 38", 38'") formed on an upper portion of a front wall (32C, 32C', 32C", 32C'") of the sump tray wherein the hinge line permits the locking bracket and the dispensing fitment to fold back and lay down inside of the interior space of the sump tray.
An alignment system comprising: an alignment source module configured to releasably couple to a first unit of a pair of optoelectronic arrays such that the alignment source module is oriented to emit an optical beam in substantial alignment with a first optical axis of the first unit; and, an alignment indicator module configured to releasably couple to a second unit of the pair of optoelectronic arrays such that the alignment indicator module provides a visible indication when the optical beam is within a predetermined near-alignment orientation range relative to a second optical axis of the second unit, wherein the near-alignment orientation range comprises a range between 4° to 16°, and defines a range of misalignment between the first optical axis and the second optical axis more precise than an unaided alignment and less precise than a subsequent precision alignment, and, wherein each of the alignment source module and the alignment indicator module is configured to axially couple along a longitudinal axis of the respective unit of the pair of optoelectronic arrays, the longitudinal axis being substantially parallel with an array of optical elements of the respective unit. an alignment source module configured to releasably couple to a first unit of a pair of optoelectronic arrays such that the alignment source module is oriented to emit an optical beam in substantial alignment with a first optical axis of the first unit; and, an alignment indicator module configured to releasably couple to a second unit of the pair of optoelectronic arrays such that the alignment indicator module provides a visible indication when the optical beam is within a predetermined near-alignment orientation range relative to a second optical axis of the second unit, wherein the near-alignment orientation range comprises a range between 4° to 16°, and defines a range of misalignment between the first optical axis and the second optical axis more precise than an unaided alignment and less precise than a subsequent precision alignment, and, wherein each of the alignment source module and the alignment indicator module is configured to axially couple along a longitudinal axis of the respective unit of the pair of optoelectronic arrays, the longitudinal axis being substantially parallel with an array of optical elements of the respective unit.
Arc-extinguishing chamber of an electrical protection device comprising an arc formation chamber containing a fixed contact and a moving contact, said contacts (5, 6) being located on a branch of an electrical circuit, referred to as the main branch, which contacts (5, 6), at the moment of their separation, form an arc between them, said arc formation chamber communicating with the input of a second chamber, referred to as the arc-quenching chamber, this moving contact extending in such a way as to draw an arc between the contacts (5, 6) as they separate, this arc being capable of changing over to a branch of an electrical circuit, referred to as the changeover branch, said changeover branch being located within the arc-quenching chamber, after a certain opening distance between the two contacts (5, 6), said arc-extinguishing chamber additionally including current-limiting means (CTPa, CTPb) in the branch referred to as the changeover branch, these means (CTPa, CTPb) including an element, referred to as the current-limiting element, the resistance of which is capable of increasing under the effect of the current in such a way as to increase the impedance in the changeover branch, said arc-extinguishing chamber including a second current-limiting element (CTPb) placed in the branch referred to as the changeover branch in series with the fixed contact and allowing the pole voltage to increase when the arc is in the arc-quenching chamber E, in such a way as to limit the short-circuit current, characterized in that it includes a first current-limiting element (CTPa) placed in the branch referred to as the main branch in series with and downstream of the moving contact, the first element being capable of accelerating the changeover of the arc and of preventing the return of the arc to the contacts (5, 6), or return breakdown, once changeover has been achieved.
Master-slave system for dynamical address allocating of slave units comprising a master unit having a digital output for supplying a serial signal sequence of signals, and at least two slave units, wherein each of the slave units includes at least one digital serial memory having a size of one bit, and each includes an input and an output, wherein the slave units are serially connected to one another via the inputs and the outputs via a signal line, and wherein the input of a first slave unit is connected via the signal line to the digital output of the master unit, wherein the master slave system is configured so that a signal change of a serial signal sequence of signals supplied by the digital output is detected at the input of the slave unit, wherein in reaction to the signal change the master-slave system is configured - to raise the address of the corresponding slave unit in each case by the value "1", - to store the signal change in the memory, wherein only the positive flank change of a signal change of the serial signal sequence of signals is stored and - to pass a corresponding signal at the output of the respective slave unit and thereby supply at the Input of the respective nearest adjacent slave unit. - to raise the address of the corresponding slave unit in each case by the value "1", - to store the signal change in the memory, wherein only the positive flank change of a signal change of the serial signal sequence of signals is stored and - to pass a corresponding signal at the output of the respective slave unit and thereby supply at the Input of the respective nearest adjacent slave unit.
A method of measuring mixed gas by conditioning an output signal from a sensor, wherein said sensor is selected from the group comprising: potentiometric zirconia oxygen sensors equipped with platinum electrodes; Lambda sensors; and mixed-potential gas sensors, said method consisting of the steps: a. Applying voltage pulses of opposite polarity and having substantially the same amplitude between sensor electrodes by connecting sensor electrodes to a charging power supply; b. Separating said pulses by pauses by disconnecting the charging power supply from the sensor; c. Extracting information regarding concentration of analyzed gases by recording sensor discharge voltage decay during pause immediately following voltage pulse. a. Applying voltage pulses of opposite polarity and having substantially the same amplitude between sensor electrodes by connecting sensor electrodes to a charging power supply; b. Separating said pulses by pauses by disconnecting the charging power supply from the sensor; c. Extracting information regarding concentration of analyzed gases by recording sensor discharge voltage decay during pause immediately following voltage pulse.
A method of providing a reduction of speech rate control signalling in a network element of a mobile communications network according to channel conditions, the method comprising: - receiving a first rate control request for setting a highest allowed speech codec rate at a first rate from a core network coupled to the network element; - sending a first control message to a mobile station coupled to said network element for disabling speech rates higher than said first rate; - starting a timer with a predetermined ending value; - receiving a second rate control request for setting said highest allowed speech codec rate at a second rate from a core network coupled to the network element; wherein said second rate is higher than said first rate; - putting said second rate control request on hold, if a current value of said timer is smaller than said predetermined ending value - receiving a third rate control request for setting said highest allowed speech codec at a third rate, wherein said third rate is lower than said second and said first rate; - sending a third control message to said mobile station to disable speech rates higher than said third rate without waiting for the timer to reach the predetermined ending value. - receiving a first rate control request for setting a highest allowed speech codec rate at a first rate from a core network coupled to the network element; - sending a first control message to a mobile station coupled to said network element for disabling speech rates higher than said first rate; - starting a timer with a predetermined ending value; - receiving a second rate control request for setting said highest allowed speech codec rate at a second rate from a core network coupled to the network element; wherein said second rate is higher than said first rate; - putting said second rate control request on hold, if a current value of said timer is smaller than said predetermined ending value - receiving a third rate control request for setting said highest allowed speech codec at a third rate, wherein said third rate is lower than said second and said first rate; - sending a third control message to said mobile station to disable speech rates higher than said third rate without waiting for the timer to reach the predetermined ending value.
A constant current power factor correction circuit, comprising: an input capacitor configured to receive an input current from a constant current source and produce an input voltage, wherein the input current comprises an input current waveform; a switching device switchable between a first state and an second state, wherein when the switching device is in the first state, the input capacitor is charged from the input current and the input voltage rises, and when the switching device is in the second state, the input capacitor is drained and the input voltage drops; a controller coupled to the switching device and configured to control switching back and forth between the first state and the second state to give the input voltage a substantially sinusoidal waveform, wherein the sinusoidal waveform matches the input current waveform, and wherein the controller is further configured to monitor the input voltage and compare the input voltage to a reference voltage, and switch the switching device from the first state to the second state when the input voltage reaches the reference voltage; and a rectifier bridge configured to rectify the input current and coupled to the input capacitor and to an inductor that is coupled to and between an output of the rectifier bridge and the switching device, wherein the inductor is charged and discharged based on whether the switching device is in the first state or the second state. an input capacitor configured to receive an input current from a constant current source and produce an input voltage, wherein the input current comprises an input current waveform; a switching device switchable between a first state and an second state, wherein when the switching device is in the first state, the input capacitor is charged from the input current and the input voltage rises, and when the switching device is in the second state, the input capacitor is drained and the input voltage drops; a controller coupled to the switching device and configured to control switching back and forth between the first state and the second state to give the input voltage a substantially sinusoidal waveform, wherein the sinusoidal waveform matches the input current waveform, and wherein the controller is further configured to monitor the input voltage and compare the input voltage to a reference voltage, and switch the switching device from the first state to the second state when the input voltage reaches the reference voltage; and a rectifier bridge configured to rectify the input current and coupled to the input capacitor and to an inductor that is coupled to and between an output of the rectifier bridge and the switching device, wherein the inductor is charged and discharged based on whether the switching device is in the first state or the second state.
Mixture comprising or consisting of a) 2,2-dimethyl-3-(3-methylphenyl)-propanol b) 4,4a,5,9b-tetrahydro-2,4-dimethylindeno[1,2-d]- m -dioxin and optionally, one, two, three or all of the compounds selected from the group consisting of: c) 2-isobutyl-4-methyltetrahydro-2 H -pyran-4-ol d) citronellyloxyacetaldehyde e) 4-n-decylpyridine f) 4-(4-methyl-3-penten-1-yl)-3-cyclohexene carboxaldehyde. a) 2,2-dimethyl-3-(3-methylphenyl)-propanol b) 4,4a,5,9b-tetrahydro-2,4-dimethylindeno[1,2-d]- m -dioxin c) 2-isobutyl-4-methyltetrahydro-2 H -pyran-4-ol d) citronellyloxyacetaldehyde e) 4-n-decylpyridine f) 4-(4-methyl-3-penten-1-yl)-3-cyclohexene carboxaldehyde.
Hand operated crimping tool comprising a body arranged between a distal end and a proximal end of the crimping tool, a tool head arranged distally on the crimping tool, and handles (8, 10) arranged proximally on the crimping tool, where at least one handle (8, 10) is pivotally arranged, and where the relative movement of the tool handles (8, 10) is connected to the relative movement of crimping dies (42, 44) between which crimping dies (42, 44) at least one workpiece is arranged to be crimped, the tool head comprising a main head part and a pivotable head part, the crimping dies (42, 44) being arranged at the body and the main head part, characterized in, that the movement of the at least one pivotally arranged handle (8, 10) is further arranged connected to the movement of the pivotable head part via the body and a toggle mechanism or a cam mechanism, whereby the pivotable head part of the tool head is arranged movable between an open head position and a closed head position depending on the relative position of the tool handles (8, 10).