mhurhangee/ep-ind-claims huggingface dataset:
Method for customizing a blank of cardboard, corrugated cardboard or the like sheet material, which is delimited by first and second parallel opposite sides and third and fourth opposite sides which are orthogonal to said first and second sides, so that it can be folded into a package suitable for containing at least one item to be shipped, comprising the steps of: - doing on a face of the blank a first couple of a first and second wave-shaped crease lines and a second couple of third and fourth wave-shaped crease lines, each of said wave-shaped crease lines (16a, 16b) being crossed by a plurality of straight crease tracts distanced from each other and aligned with corresponding straight crease tracts of the other wave-shaped crease lines (16a, 16b) and parallel to said first and second sides, so that said third side, said first, second, third and fourth wave-shaped crease lines (16a, 16b) and fourth side delimit in succession a first top panel, a first side panel, a bottom panel, a second side panel and a second top panel, - doing in portions of said face of the blank, which are close to the first and second sides, respectively, first and second continuous straight crease lines which are parallel to each other and to said straight crease tracts, and delimit respective back and front wings (32a, 32b) of each of said first top panel, first side panel, bottom panel, second side panel and second top panel, and - applying at least one strip of glue, transversally to said straight crease lines on at least a portion of the blank close to said third or fourth side. - doing on a face of the blank a first couple of a first and second wave-shaped crease lines and a second couple of third and fourth wave-shaped crease lines, each of said wave-shaped crease lines (16a, 16b) being crossed by a plurality of straight crease tracts distanced from each other and aligned with corresponding straight crease tracts of the other wave-shaped crease lines (16a, 16b) and parallel to said first and second sides, so that said third side, said first, second, third and fourth wave-shaped crease lines (16a, 16b) and fourth side delimit in succession a first top panel, a first side panel, a bottom panel, a second side panel and a second top panel, - doing in portions of said face of the blank, which are close to the first and second sides, respectively, first and second continuous straight crease lines which are parallel to each other and to said straight crease tracts, and delimit respective back and front wings (32a, 32b) of each of said first top panel, first side panel, bottom panel, second side panel and second top panel, and - applying at least one strip of glue, transversally to said straight crease lines on at least a portion of the blank close to said third or fourth side.
A pintle, tracking injector with an internal damper, comprising a movable closing bushing embedded in a body, which body has at least one outlet hole, at least one inlet hole and an ambient pressure hole, and a pre-tensioned spring embedded between the closing bushing and the body, characterised in that the closing bushing is sealed by spring bellows, to the inner side of which the ambient pressure is applied through the ambient pressure hole, and on the side opposite to the bellows the closing bushing is provided with a piston with at least one hole through which the fuel flows, wherein said piston moves inside a cylinder and the closing bushing is attached coaxially inside the body and it is pressed by the spring, which in at least one extreme position closes the outlet hole and in at least the second extreme position opens the outlet hole.
A glycosylated IgG Fc-containing protein preparation, wherein one or more Fc residues in the CH2 region of the glycosylated Fc-containing protein are mutated to maintain or to increase the hydrophobic interactions and decrease the hydrophilic interactions in the CH2 or CH3 regions wherein the mutations are Lys 246 Ala, Thr 260 Ala, and/or Arg 301 Ala.
A radio communication apparatus for use in a communication system where a downlink frequency band includes a plurality of frequency blocks including one or more carrier frequencies and one or more of the frequency blocks are used for data transmission to a single user, the apparatus comprising: an reception unit configured to receive a signal from a transmitting station; an evaluation unit configured to evaluate respective reception signal qualities for the plurality of frequency blocks included in the downlink frequency band and to store a plurality of quality evaluations of the received signal; a generation unit configured to determine CQIs, Channel Quality Indicators, to be transmitted as the reception signal qualities by selecting the reception signal qualities associated with a predetermined number of frequency blocks among the reception signal qualities evaluated for the plurality of frequency blocks; and a transmission unit configured to transmit an uplink control signal including the determined CQIs to be transmitted and ACK or NACK indicative of an error detection result of received downlink data, wherein the generation unit is configured to determine a reference value calculated from the evaluated reception signal qualities over the overall downlink frequency band and difference values between selected ones of the evaluated reception signal qualities and the calculated reference value as the CQIs to be transmitted. an reception unit configured to receive a signal from a transmitting station; an evaluation unit configured to evaluate respective reception signal qualities for the plurality of frequency blocks included in the downlink frequency band and to store a plurality of quality evaluations of the received signal; a generation unit configured to determine CQIs, Channel Quality Indicators, to be transmitted as the reception signal qualities by selecting the reception signal qualities associated with a predetermined number of frequency blocks among the reception signal qualities evaluated for the plurality of frequency blocks; and a transmission unit configured to transmit an uplink control signal including the determined CQIs to be transmitted and ACK or NACK indicative of an error detection result of received downlink data, wherein the generation unit is configured to determine a reference value calculated from the evaluated reception signal qualities over the overall downlink frequency band and difference values between selected ones of the evaluated reception signal qualities and the calculated reference value as the CQIs to be transmitted.
Apparatus for producing and sustaining a glow discharge plasma in a plasma discharge space comprising at least two oppositely spaced electrodes (13, 14), means for supplying a gas or a gas mixture under atmospheric pressure conditions in said discharge space, AC power supply means for voltage energizing said electrodes (13, 14), and electric stabilisation means for stabilizing current variations in said plasma, said stabilisation means are connected between said electrodes (13, 14) and said powder supply means, and are arranged for counteracting current variations produced in said plasma within fractions of a microsecond, characterised in that said stabilization means comprise pulse generator means arranged to provide voltage pulses superimposed at said energizing voltage at said electrodes (13, 14), and wherein said pulse generator means is formed by a power amplifier and by an inductor, said power amplifier having input or control terminals (32, 33) which are connected to the inductor which is connected in series with one of the electrodes and the AC power supply means, wherein said power amplifier has one output terminal connected with the other electrode and another output terminal connected with said power supply means.
A method comprising: receiving a plurality of signals corresponding to symbols of a codeword of an orthogonal differential vector signaling code on a plurality of wires (W1, W2, W3, W4) of a multi-wire bus, and responsively generating a plurality of sub-channel outputs (140, 142, 144) using a plurality of multi-input comparators, MICs, (120, 122, 124) connected to the plurality of wires of the multi-wire bus; the method characterized in comprising generating a plurality of wire-specific skew control signals, each wire-specific skew control signal of the plurality of wire-specific skew control signals generated by combining (i) one or more sub-channel specific skew measurement signals associated with corresponding sub-channel outputs undergoing a transition and (ii) a corresponding wire-specific transition delta, each sub-channel specific skew measurement signal generated by a multiplication of a corresponding early-late indication component obtained from the corresponding sub-channel output undergoing the transition and a corresponding MIC input weighting coefficient component; and providing the plurality of wire-specific skew control signals to respective wire-skew control elements to adjust wire-specific skew. receiving a plurality of signals corresponding to symbols of a codeword of an orthogonal differential vector signaling code on a plurality of wires (W1, W2, W3, W4) of a multi-wire bus, and responsively generating a plurality of sub-channel outputs (140, 142, 144) using a plurality of multi-input comparators, MICs, (120, 122, 124) connected to the plurality of wires of the multi-wire bus; the method characterized in comprising generating a plurality of wire-specific skew control signals, each wire-specific skew control signal of the plurality of wire-specific skew control signals generated by combining (i) one or more sub-channel specific skew measurement signals associated with corresponding sub-channel outputs undergoing a transition and (ii) a corresponding wire-specific transition delta, each sub-channel specific skew measurement signal generated by a multiplication of a corresponding early-late indication component obtained from the corresponding sub-channel output undergoing the transition and a corresponding MIC input weighting coefficient component; and providing the plurality of wire-specific skew control signals to respective wire-skew control elements to adjust wire-specific skew.
A computer-implemented method comprising: performing (3102, 3204) calibration adjustments for a touch sensor that is associated with at least one control of a handheld controller (100, 200, 400, 600) by adjusting, in response to a criterion being satisfied, a high-level proximity value, measured by the touch sensor, indicative of an object contacting the at least one control; determining a first digitized force sensing resistor, FSR, value based at least in part on force data provided by a FSR (922, 1300, 1800) that is associated with the at least one control; determining that the first digitized FSR value exceeds a threshold value; pausing the performing of the calibration adjustments for the touch sensor in response to the determining that the first digitized FSR value exceeds the threshold value; determining a second digitized FSR value based at least in part on the force data provided by the FSR; determining that the second digitized FSR value is less than or equal to the threshold value; and resuming the performing of the calibration adjustments for the touch sensor in response to the determining that the second digitized FSR value is less than or equal to the threshold value. performing (3102, 3204) calibration adjustments for a touch sensor that is associated with at least one control of a handheld controller (100, 200, 400, 600) by adjusting, in response to a criterion being satisfied, a high-level proximity value, measured by the touch sensor, indicative of an object contacting the at least one control; determining a first digitized force sensing resistor, FSR, value based at least in part on force data provided by a FSR (922, 1300, 1800) that is associated with the at least one control; determining that the first digitized FSR value exceeds a threshold value; pausing the performing of the calibration adjustments for the touch sensor in response to the determining that the first digitized FSR value exceeds the threshold value; determining a second digitized FSR value based at least in part on the force data provided by the FSR; determining that the second digitized FSR value is less than or equal to the threshold value; and resuming the performing of the calibration adjustments for the touch sensor in response to the determining that the second digitized FSR value is less than or equal to the threshold value.
A pharmaceutical composition for oral administration, consisting essentially of (a) 4 to 40 % by weight of a taxane, (b) 10 to 40 % by weight of polyoxyl glyceryl fatty acid ester, (c) 30 to 70 % by weight of (c-1) monooleoyl glycerol or (c-2) an oleoyl glycerol complex, and (d) 5 to 30 % by weight of a surfactant, wherein the oleoyl glycerol complex has 30 to 65 % by weight of monooleoyl glycerol contents; 15 to 50 % by weight of dioleoyl glycerol contents; and 2 to 20 % by weight of trioleoyl glycerol contents. (a) 4 to 40 % by weight of a taxane, (b) 10 to 40 % by weight of polyoxyl glyceryl fatty acid ester, (c) 30 to 70 % by weight of (c-1) monooleoyl glycerol or (c-2) an oleoyl glycerol complex, and (d) 5 to 30 % by weight of a surfactant,
An artificial marble having a background region and chips, wherein the chips comprise high specific gravity chips obtained by use of a low specific gravity material having a lower specific gravity than that of the background region and a high specific gravity material having a higher specific gravity than that of the background region; and characterized in that each of the high specific gravity chips comprises: a high specific gravity region made of the high specific gravity material to have a higher specific gravity than that of the background region; and low specific gravity regions made of the low specific gravity material to have a lower specific gravity than that of the background region, wherein the low specific gravity regions are uniformly distributed in a background of the high specific gravity region, and wherein the low specific gravity regions made of the low specific gravity material contain no inorganic filler, and the low specific gravity regions form a transparent layer or transparent chips having a light transmissivity of 70∼100%. a high specific gravity region made of the high specific gravity material to have a higher specific gravity than that of the background region; and low specific gravity regions made of the low specific gravity material to have a lower specific gravity than that of the background region, wherein the low specific gravity regions are uniformly distributed in a background of the high specific gravity region, and wherein the low specific gravity regions made of the low specific gravity material contain no inorganic filler, and the low specific gravity regions form a transparent layer or transparent chips having a light transmissivity of 70∼100%.
Parking brake device for motor vehicles, having at least one first parking brake unit and a second parking brake unit, wherein the first parking brake unit has at least one first compressed air connection, a first inlet venting solenoid unit, a first relay valve, a spring brake valve and at least one first compressed air outlet (71, 72), wherein the first compressed air connection is connected to the first inlet venting solenoid unit and the first relay valve, wherein a first control line is provided at the first parking brake unit in such a way that the first relay valve is connected to the first inlet venting solenoid unit, the first control line having a first branch upstream of the first relay valve, wherein a first outlet line is provided in the first parking brake unit, which first outlet line is connected to the at least one first compressed air outlet (71; 72) and has a first outlet branch, wherein a spring brake line is provided in the first parking brake unit, which spring brake line is connected to the first control line via the first branch and to the outlet line via the first outlet branch, wherein the first parking brake unit has a spring brake valve, which is located in the spring brake line and connected to the first relay valve, and a first restrictor unit, which is located in the spring brake line between the first outlet branch of the first outlet line and the first branch of the first control line. wherein the first parking brake unit has at least one first compressed air connection, a first inlet venting solenoid unit, a first relay valve, a spring brake valve and at least one first compressed air outlet (71, 72), wherein the first compressed air connection is connected to the first inlet venting solenoid unit and the first relay valve, wherein a first control line is provided at the first parking brake unit in such a way that the first relay valve is connected to the first inlet venting solenoid unit, the first control line having a first branch upstream of the first relay valve, wherein a first outlet line is provided in the first parking brake unit, which first outlet line is connected to the at least one first compressed air outlet (71; 72) and has a first outlet branch, wherein a spring brake line is provided in the first parking brake unit, which spring brake line is connected to the first control line via the first branch and to the outlet line via the first outlet branch, wherein the first parking brake unit has a spring brake valve, which is located in the spring brake line and connected to the first relay valve, and a first restrictor unit, which is located in the spring brake line between the first outlet branch of the first outlet line and the first branch of the first control line.
A medical system for classifying a cardiac response to a pacing pulse, comprising: - a pacing circuit configured to deliver (2220, 2310) pacing pulses to a heart chamber; - a sensing circuit configured to sense (2230, 2320) cardiac signals associated with the pacing pulses; - a template processor configured to generate (2250, 2350) at least one cardiac response template by repetitively measuring (2230, 2320) cardiac signal feature values for each of a plurality of cardiac signals respectively associated with a plurality of pacing pulses and to determine (2245, 2345) a median value of the cardiac signal feature values for each repetition and to create (2250, 2350) the at least one cardiac response template by averaging the median values from each repetition; and - a cardiac response classification processor configured to determine whether a sensed cardiac signal following a pacing pulse is consistent with the at least one cardiac response template and to classify the cardiac response to the pacing pulse based on whether the cardiac signal is consistent with the at least one cardiac response template. - a pacing circuit configured to deliver (2220, 2310) pacing pulses to a heart chamber; - a sensing circuit configured to sense (2230, 2320) cardiac signals associated with the pacing pulses; - a template processor configured to generate (2250, 2350) at least one cardiac response template by repetitively measuring (2230, 2320) cardiac signal feature values for each of a plurality of cardiac signals respectively associated with a plurality of pacing pulses and to determine (2245, 2345) a median value of the cardiac signal feature values for each repetition and to create (2250, 2350) the at least one cardiac response template by averaging the median values from each repetition; and - a cardiac response classification processor configured to determine whether a sensed cardiac signal following a pacing pulse is consistent with the at least one cardiac response template and to classify the cardiac response to the pacing pulse based on whether the cardiac signal is consistent with the at least one cardiac response template.
An Inverter module comprising the following features: a photovoltaic bus interface, a battery bus interface and a mains interface; a voltage regulator connected via separate terminals to said photovoltaic bus interface, said battery bus interface and an intermediate circuit, said voltage regulator being configured to convert an adjustable photovoltaic bus voltage present at said photovoltaic bus interface to a selectable intermediate circuit voltage of said intermediate circuit and said intermediate circuit voltage to an adjustable battery bus voltage present at said battery bus interface and said battery bus voltage to said intermediate circuit voltage; and an inverter connected to the Intermediate circuit and the mains interface, the inverter being adapted to convert the intermediate circuit voltage to a mains alternating voltage provided at the mains interface and the mains alternating voltage to the intermediate circuit voltage. a photovoltaic bus interface, a battery bus interface and a mains interface; a voltage regulator connected via separate terminals to said photovoltaic bus interface, said battery bus interface and an intermediate circuit, said voltage regulator being configured to convert an adjustable photovoltaic bus voltage present at said photovoltaic bus interface to a selectable intermediate circuit voltage of said intermediate circuit and said intermediate circuit voltage to an adjustable battery bus voltage present at said battery bus interface and said battery bus voltage to said intermediate circuit voltage; and an inverter connected to the Intermediate circuit and the mains interface, the inverter being adapted to convert the intermediate circuit voltage to a mains alternating voltage provided at the mains interface and the mains alternating voltage to the intermediate circuit voltage.
A curable composition comprising component (a): a carboxyl group-containing polyurethane which has an aromatic ring concentration of 0.1 to 4.5 mmol/g and contains an organic residue derived from a polyisocyanate; component (b): a solvent; and component (c): a compound having two or more epoxy groups in one molecule. component (a): a carboxyl group-containing polyurethane which has an aromatic ring concentration of 0.1 to 4.5 mmol/g and contains an organic residue derived from a polyisocyanate; component (b): a solvent; and component (c): a compound having two or more epoxy groups in one molecule.
Heat exchange plate for a device for exchanging heat between a first fluid and a second fluid, said heat exchange plate extending in a plane, said heat exchange plate comprising at least two strips (B1, B2) extending between a first edge of the heat exchange plate and a second edge of the heat exchange plate opposite the first edge in a first direction, the strips (B1, B2) being placed side by side in a second direction, each one of the strips (B1, B2) comprising at least one channel extending from the first edge to the second edge and opening into the first edge and the second edge, said channel being intended for the circulation of a first fluid, two directly adjacent strips being arranged relative to one another in such a way that a crest of one strip and a crest of the directly adjacent strip are offset in the first direction and in such a way that, in the second direction, the crest of one strip and the trough of the directly adjacent strip delimit flow paths (C1, C2, C1', C2') for a second fluid, said plate being characterised in that said strips (B1, B2) each have an undulation comprising crests and troughs.