mhurhangee/ep-ind-claims huggingface dataset:
A yarn defect detecting device comprising: a detecting section including a first light projecting section adapted to project light in a first direction to a yarn path (Ya) where a yarn travels, a first light receiving section arranged facing the first light projecting section in the first direction with the yarn path (Ya) therebetween, a second light receiving section arranged at a position different from the first light receiving section, a first amplifying section adapted to amplify a detection signal of a first light projected by the first light projecting section and received by the first light receiving section to generate a first signal, and to output the first signal, a second amplifying section adapted to amplify a detection signal of a second light projected by the first light projecting section and received by the second light receiving section to generate a second signal, and to output the second signal, characterized by a control section adapted to perform a first adjustment processing to adjust an amplification factor in the first amplifying section in accordance with the first signal and to determine the amplification factor in the first amplifying section, and then to perform a second adjustment processing to adjust the amplification factor in the second amplifying section in accordance with the second signal while controlling the first light projecting section to emit light according to a control value of when the amplification factor in the first amplifying section is determined. a detecting section including a first light projecting section adapted to project light in a first direction to a yarn path (Ya) where a yarn travels, a first light receiving section arranged facing the first light projecting section in the first direction with the yarn path (Ya) therebetween, a second light receiving section arranged at a position different from the first light receiving section, a first amplifying section adapted to amplify a detection signal of a first light projected by the first light projecting section and received by the first light receiving section to generate a first signal, and to output the first signal, a second amplifying section adapted to amplify a detection signal of a second light projected by the first light projecting section and received by the second light receiving section to generate a second signal, and to output the second signal, characterized by a control section adapted to perform a first adjustment processing to adjust an amplification factor in the first amplifying section in accordance with the first signal and to determine the amplification factor in the first amplifying section, and then to perform a second adjustment processing to adjust the amplification factor in the second amplifying section in accordance with the second signal while controlling the first light projecting section to emit light according to a control value of when the amplification factor in the first amplifying section is determined.
Internal combustion engine comprising a multi-link crankshaft drive, the multi-link crankshaft drive comprising a plurality of coupling elements rotatably mounted on crankpins of a crankshaft and a plurality of articulated connecting rods rotatably mounted on crankpins of an eccentric shaft, each of the coupling elements being pivotally connected to a piston connecting rod of a piston of the internal combustion engine and to one of the articulated connecting rods, characterised by a balancer shaft which is driven by the crankshaft via a phase adjuster and is configured to at least partially eliminate second-order inertia forces ensuing in the internal combustion engine.
An immunochromatographic test strip the test strip prevents the interpretation of the test results by the user performing the test; having: - at least one sample pad in which the samples are loaded, - at least one conjugate pad having analyte-specific labeled antibodies present in the sample, - wherein the antibodies bound or unbound to the analyte advance and at least one membrane, - at least one absorption pad providing advancement of the sample and - two-dimensional barcode that is located on the membrane which has at least one content fixed zone characterized in that content-varying regions according to test result which are located on the barcode in such a way that they do not come in succession. - at least one sample pad in which the samples are loaded, - at least one conjugate pad having analyte-specific labeled antibodies present in the sample, - wherein the antibodies bound or unbound to the analyte advance and at least one membrane, - at least one absorption pad providing advancement of the sample and - two-dimensional barcode that is located on the membrane which has at least one content fixed zone characterized in that content-varying regions according to test result which are located on the barcode in such a way that they do not come in succession.
Force sensor comprising a support, at least one test body which is suspended by suspension means from the support, and which is capable of moving in a plane parallel to the support, means for measuring the displacement of the test body, which means comprise at least a first strain gauge provided with a vibrating beam, the sensor further comprising first electrostatic coupling means (C1, C3') for electrostatically coupling the test body and said at least one first strain gauge, which coupling means are configured to mechanically uncouple said first strain gauge and the test body, so that at rest, said first electrostatic coupling means generate traction on the first strain gauge, and so that, under the effect of an external force, said first electrostatic coupling means modify the state of strain of the first strain gauge, the vibrating beam having a nanometric cross-section between several tens of nanometres and 1 micrometre, the vibrating beam being suspended, at one end, from said support, and at another end, from a suspension beam (12, 214, 114', 114, 314), the suspension beam (12, 214, 114', 114) having a cross-section that is at least ten times greater than the cross-section of the vibrating beam, the suspension beam having a micrometric cross-section between 1μm and several hundred micrometres.
An air conditioner comprising: a fan that blows air to a heat exchanger; a motor that drives the fan; a controller which includes: a rotation speed detector configured to detect a rotation speed of the motor; a current detector configured to detect a current value of the motor; a phase detector configured to detect a magnetic pole position of the motor; a pulsation detector configured to extract a pulsation component of the current value, based on the detected current value and magnetic pole position of the motor; and a resonance determiner that is configured to determine presence or absence of resonance of a casing of an outdoor or indoor unit (1, 200) having the motor, based on the extracted pulsation component of the current value and the rotation speed. a fan that blows air to a heat exchanger; a motor that drives the fan; a controller which includes: a rotation speed detector configured to detect a rotation speed of the motor; a current detector configured to detect a current value of the motor; a phase detector configured to detect a magnetic pole position of the motor; a pulsation detector configured to extract a pulsation component of the current value, based on the detected current value and magnetic pole position of the motor; and a resonance determiner that is configured to determine presence or absence of resonance of a casing of an outdoor or indoor unit (1, 200) having the motor, based on the extracted pulsation component of the current value and the rotation speed. a rotation speed detector configured to detect a rotation speed of the motor; a current detector configured to detect a current value of the motor; a phase detector configured to detect a magnetic pole position of the motor; a pulsation detector configured to extract a pulsation component of the current value, based on the detected current value and magnetic pole position of the motor; and a resonance determiner that is configured to determine presence or absence of resonance of a casing of an outdoor or indoor unit (1, 200) having the motor, based on the extracted pulsation component of the current value and the rotation speed.
Interstitial free ferritic steel strip or sheet comprising, in weight percent, • at most 0.005 % C_total; • up to 0.2 % Si; • up to 1.0 % Mn; • from 6 to up to 9 % Al; • up to 0.010% N; • up to 0.080 % Ti • up to 0.080 % Nb; • up to 0.1 % Zr; • up to 0.1 % V; • up to 0.01 % S; • up to 0.1 % P; • up to 0.01 % B • remainder iron and inevitable impurities; wherein wherein C_total < = Minimum X Y + Maximum Z 0 + 12 / 93 * Nb + 12 / 91 * Zr + 12 / 51 * V; wherein X = 2 ⋅ 12 2 ⋅ 32 ⋅ S; Y = 2 ⋅ 12 4 ⋅ 48 ⋅ Ti − 48 14 ⋅ N; Z = 12 48 ⋅ Ti − 48 14 ⋅ N − 4 ⋅ 48 2 ⋅ 32 ⋅ S; wherein Minimum[X,Y] = lower value of X and Y and Minimum[X,Y] = zero if Y is negative; Maximum[Z,0] = higher value of zero and Z; C_solute = C_total − Minimum X Y − Maximum Z 0 − 12 / 93 * Nb − 12 / 91 * Zr − 12 / 51 * V; and wherein C_solute is equal to or smaller than zero. • at most 0.005 % C_total; • up to 0.2 % Si; • up to 1.0 % Mn; • from 6 to up to 9 % Al; • up to 0.010% N; • up to 0.080 % Ti • up to 0.080 % Nb; • up to 0.1 % Zr; • up to 0.1 % V; • up to 0.01 % S; • up to 0.1 % P; • up to 0.01 % B • remainder iron and inevitable impurities; Minimum[X,Y] = lower value of X and Y and Minimum[X,Y] = zero if Y is negative; Maximum[Z,0] = higher value of zero and Z; C_solute = C_total − Minimum X Y − Maximum Z 0 − 12 / 93 * Nb − 12 / 91 * Zr − 12 / 51 * V; and wherein C_solute is equal to or smaller than zero.
A method for technically supporting a manual order picking process, wherein a user executes order picking steps, which are output to the user in the form of handling instructions, in the course of the manual order picking process, wherein said handling instructions originate from a management server for managing the manual order picking process and are stored therein in the form of digital data, wherein one or more order picking steps respectively specify the removal of one or more objects from at least one storage location by the user and/or wherein one or more order picking steps respectively specify the depositing of one or more objects in at least one storage location by the user, wherein information on the manual order picking process is at least partially visually output to the user via data glasses, wherein the handling instructions are transmitted from the management server to the data glasses and are output to the user via the data glasses, and wherein the user is provided with an indication that the respective order picking step has been carried out via the data glasses, characterized in that - a sensor device in a mobile unit of a number of mobile units acquires sensor data, based on which the effected execution of a respective order picking step is determined, wherein a respective mobile unit of the number of mobile units is carried on an arm or on a hand or on a foot or on a leg of the user with the aid of a fastening means of the respective mobile unit; - data that is based on the sensor data of the sensor device is transmitted via a wireless data interface (WM, BM) of the mobile unit, whereupon the management server is informed of the effected execution of the respective order picking step. - a sensor device in a mobile unit of a number of mobile units acquires sensor data, based on which the effected execution of a respective order picking step is determined, wherein a respective mobile unit of the number of mobile units is carried on an arm or on a hand or on a foot or on a leg of the user with the aid of a fastening means of the respective mobile unit; - data that is based on the sensor data of the sensor device is transmitted via a wireless data interface (WM, BM) of the mobile unit, whereupon the management server is informed of the effected execution of the respective order picking step.
Reversibly switchable formulation, characterized in that the formulation can be switched by means of a Diels-Alder reaction or hetero-Diels-Alder reaction, in that the formulation comprises a component A which has two dienophilic double bonds, in that the formulation comprises a component B which has two diene functionalities, in that at least one of the components, A or B, is present as a polymer, and in that the formulation forms high-molecular polymer chains at room temperature and at a higher temperature the high-molecular polymer chains are broken back down to the reactants and/or to shorter chain segments to an extent of at least 50% and in that the dienophile is a compound having a carbon-sulphur double bond.
A polyacetal resin composition comprising a polyacetal resin, wherein the polyacetal resin composition further comprises the following, and, with respect to 100 parts by weight of the polyacetal resin: 0.05 to 5.5 parts by weight of a low-density polyethylene having a melt flow rate of 1.0 to 50 g/10 minutes, wherein the melt flow rate is measured in accordance with ISO1133 Standards (190°C, 2.16 kg), 0.05 to 2.0 parts by weight of a fatty acid compound, and 0.001 to 1.0 part by weight of hydrotalcite, wherein the fatty acid compound is a fatty acid ester, a fatty acid amide, or a combination thereof, wherein the fatty acid ester is selected from the group consisting of stearyl stearate, behenyl behenate, pentaerythritol distearate, and pentaerythritol tetrastearate, and the fatty acid amide is selected from the group consisting of ethylenebis(stearamide), eth-ylenebis(oleamide), stearic acid monoamide, and oleic acid monoamide. the polyacetal resin composition further comprises the following, and, with respect to 100 parts by weight of the polyacetal resin: 0.05 to 5.5 parts by weight of a low-density polyethylene having a melt flow rate of 1.0 to 50 g/10 minutes, wherein the melt flow rate is measured in accordance with ISO1133 Standards (190°C, 2.16 kg), 0.05 to 2.0 parts by weight of a fatty acid compound, and 0.001 to 1.0 part by weight of hydrotalcite, 0.05 to 5.5 parts by weight of a low-density polyethylene having a melt flow rate of 1.0 to 50 g/10 minutes, wherein the melt flow rate is measured in accordance with ISO1133 Standards (190°C, 2.16 kg), 0.05 to 2.0 parts by weight of a fatty acid compound, and 0.001 to 1.0 part by weight of hydrotalcite, wherein the fatty acid compound is a fatty acid ester, a fatty acid amide, or a combination thereof, wherein the fatty acid ester is selected from the group consisting of stearyl stearate, behenyl behenate, pentaerythritol distearate, and pentaerythritol tetrastearate, and the fatty acid amide is selected from the group consisting of ethylenebis(stearamide), eth-ylenebis(oleamide), stearic acid monoamide, and oleic acid monoamide.
A device comprising: a) a longitudinal axis (X'); b) a ramp wire coaxial along most of it's length with the longitudinal axis (X'), wherein a portion of said ramp wire is displaced from said longitudinal axis; c) a drive rod substantially coaxial with the longitudinal axis (X'); and wherein at least a portion of the ramp wire is slidably enclosed by the cutter along a ramp wire length, characterized in that d) said cutter is a broach comprising cutting teeth, said broach substantially coaxial with the longitudinal axis (X') and said cutting teeth projecting substantially radially from said longitudinal axis (X'); the said device further comprises; e) a reversing drive cam; wherein said reversing drive cam is shaped to drive i) distal-to-proximal axial translation of the broach over the ramp wire, followed by ii) about 90 to about 180 degrees of axial rotation of the broach around the ramp wire, followed by iii) proximal-to-distal axial translation of the broach over the ramp wire, followed by iv) about 90 to about 180 degrees of axial rotation to the broach around the ramp wire; and followed by v) optional repetition of steps (i) through (iv). a) a longitudinal axis (X'); b) a ramp wire coaxial along most of it's length with the longitudinal axis (X'), wherein a portion of said ramp wire is displaced from said longitudinal axis; c) a drive rod substantially coaxial with the longitudinal axis (X'); and wherein at least a portion of the ramp wire is slidably enclosed by the cutter along a ramp wire length, characterized in that d) said cutter is a broach comprising cutting teeth, said broach substantially coaxial with the longitudinal axis (X') and said cutting teeth projecting substantially radially from said longitudinal axis (X'); the said device further comprises; e) a reversing drive cam; wherein said reversing drive cam is shaped to drive i) distal-to-proximal axial translation of the broach over the ramp wire, followed by ii) about 90 to about 180 degrees of axial rotation of the broach around the ramp wire, followed by iii) proximal-to-distal axial translation of the broach over the ramp wire, followed by iv) about 90 to about 180 degrees of axial rotation to the broach around the ramp wire; and followed by v) optional repetition of steps (i) through (iv). i) distal-to-proximal axial translation of the broach over the ramp wire, followed by ii) about 90 to about 180 degrees of axial rotation of the broach around the ramp wire, followed by iii) proximal-to-distal axial translation of the broach over the ramp wire, followed by iv) about 90 to about 180 degrees of axial rotation to the broach around the ramp wire; and followed by v) optional repetition of steps (i) through (iv).
Flapping wing device comprising a base body, a drive device and a flapping wing, wherein the flapping wing comprises a first and a second wing section (8, 9) and an articulation device between the first and the second wing section (8, 9), wherein the first wing section has an articulation means for a pivotable mounting on the base body and wherein the drive device is designed for introducing a relative movement between the base body and the flapping wing, wherein an articulation axis of the articulation means and a pivot axis of the articulation device are oriented at least almost parallel to each other, wherein the first wing section comprises a dimensionally stable first support strut located adjacent to a first extension axis, which extends between the articulation means and the articulation device and on which support elements oriented at right angles to the extension axis are arranged, wherein the second wing section comprises a dimensionally stable second support strut, which, starting from the articulation device, is formed along a second extension axis and on which support elements oriented at right angles to the second extension axis are arranged, the support elements being pivotably mounted on the support strut (11, 12), characterised in that the first and/or the second wing section (8, 9) is/are assigned an actuating means for introducing a pivoting movement of the support elements (25, 38) relative to the support strut (11, 12) about a pivot axis (28, 34) concentric with the support strut (11, 12).
An injection system for injecting a fluid into an exhaust tract, having at least two modules and at least one pressure compensation volume (44, 46, 48, 54, 56, 57, 58), wherein each module comprises at least one injection unit (40, 50, 60), which is designed to inject the fluid into the exhaust tract and wherein the pressure compensation volume (44, 46, 48, 54, 56, 58) is designed to feed the fluid to at least one of the modules and connects at least two of the modules hydraulically to one another, characterized in that at least the first module comprises a metering unit (10, 20, 30; 21, 31) for metering the fluid, wherein the metering unit (10, 20, 30) comprises a cutoff valve (12, 22, 32) for cutting off the fluid feed and a metering valve (14, 24, 34) for metering the fluid, and wherein an outlet of the cutoff valve (12, 22, 32) is hydraulically connected to an inlet of the metering valve (14, 24, 34), wherein the inlet of the second module is hydraulically connected via the pressure compensation volume (44, 46) to the outlet of the cutoff valve of the first module.
A communication connector, comprising one insulator, conductive contacts fixed through the insulator, and conducting bodies that are in respectively one-to-one connection to the conductive contacts, wherein the conductive contacts comprise a differential contact used to transmit a differential signal and an earth contact used for grounding, the conductive contacts are arranged in arrays to form several conductive contact arrays, each conductive contact array comprises several conductive contact groups, each conductive contact group comprises two differential contacts and one earth contact, conducting bodies connected to each conductive contact array form a conducting body array, conducting bodies connected to each conductive contact group form a conducting body group, the communication connector further comprises several shielding pieces fixed through the insulator, the shielding pieces are disposed between two neighboring conducting body arrays, each shielding piece is not conductively connected to any object so that each shielding piece is neither grounded nor electrically connected to any conductive object, and the shielding pieces are fixed between the two neighboring conducting body arrays, wherein the insulator comprises a fixing frame and several terminal sheet layers fixed through the fixing frame, each conductive contact array is disposed on one side of a terminal sheet layer to form a contact terminal array, a conducting body array connected to the contact terminal array is embedded in the terminal sheet layer, the terminal sheet layers are stacked, and each shielding piece covers one surface of the two opposite surfaces of two neighboring terminal sheet layers characterized in that each shielding piece covers only one conducting body group of a same conducting body array.
Elevator, which comprises control appliances (2,3,4,5,6,7,8,9, 10) of the elevator fitted to communicate between themselves, and which elevator comprises a control arrangement for placing at least one of the control appliances of the elevator into a standby mode or for terminating a standby mode, wherein the aforementioned control arrangement is fitted to set the standby mode on the basis of at least one activation signal, and in that the control arrangement is fitted to send a control signal of the standby mode to at least one of the control appliances (2,3,4,5,6,7,8,9,10) of the elevator, which control appliance of the elevator comprises a first and a second power supply circuit, to which second power supply circuit a controllable switch is connected such that power supply from the output of the second power supply circuit can be either allowed or prevented with the control of the switch, and to which first power supply circuit a controller is connected, which controller comprises an input for the control signal of the standby mode, and in that the aforementioned controller is fitted to control the aforementioned switch on the basis of the control signal of the standby mode, characterized in that the power supply to a brake of the elevator is fitted to occur with the control of a brake control appliance of the elevator via a power supply circuit of safety devices of the elevator, the aforementioned controllable switch is fitted to the power supply circuit of the brake of the elevator such that power supply to the opener of the brake can be either allowed or prevented with the control of the switch, and in that the aforementioned switch is periodically controlled to the state of permitted power supply in the standby mode of the brake control appliance of the elevator for testing the brake of the elevator one preset interval at a time.