mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a material handling system including a plurality of conveying units, the plurality of conveying units being independently controllable, comprising: generating, by a computing device, motion profiles for a plurality of articles to provide a pre-determined gap between the articles, wherein the motion profiles are generated based on at least one known first gap between the articles as the articles enter the system, and the predetermined gap is different than the first gap; and controlling, by the computing device, the plurality of conveying units to move each article in accordance with its motion profile as the plurality of articles move through the material handling system, wherein the plurality of conveying units are controlled to concurrently implement the plurality of motion profiles for each of the plurality of articles, wherein the plurality of conveying units are controlled such that the plurality of articles have the pre-determined gap between the articles when the articles exit the plurality of conveying units, Z r characterized in that, when the conveying units are shorter than the length of the articles and when a conveying unit among the plurality of conveying units has on it simultaneously a portion of two articles among the plurality articles, the motion profile of one of the two articles controls a speed of said conveying unit, and the one of the two articles is determined according to which has the larger value of the sum of: level of contact with said conveying unit; and gap between the articles; divided by length of the article. generating, by a computing device, motion profiles for a plurality of articles to provide a pre-determined gap between the articles, wherein the motion profiles are generated based on at least one known first gap between the articles as the articles enter the system, and the predetermined gap is different than the first gap; and controlling, by the computing device, the plurality of conveying units to move each article in accordance with its motion profile as the plurality of articles move through the material handling system, wherein the plurality of conveying units are controlled to concurrently implement the plurality of motion profiles for each of the plurality of articles, wherein the plurality of conveying units are controlled such that the plurality of articles have the pre-determined gap between the articles when the articles exit the plurality of conveying units, Z r characterized in that, when the conveying units are shorter than the length of the articles and when a conveying unit among the plurality of conveying units has on it simultaneously a portion of two articles among the plurality articles, the motion profile of one of the two articles controls a speed of said conveying unit, and the one of the two articles is determined according to which has the larger value of the sum of: level of contact with said conveying unit; and gap between the articles; divided by length of the article.
A magnetic attachment device comprising a body and a pair of levers pivotally attached on a pivot axis to the body, and actuation means adapted to cause relative movement between the body and the levers about the pivot axis, the device having an attachment configuration and a release configuration, and wherein relative movement between the body and the levers moves the device between the attachment and release configurations, wherein the body and the levers each include a surface (71, 70, 3") for engagement with a substrate, and the actuation means includes a cam associated with each lever, wherein each lever includes a cam engagement surface, and wherein the cams are mounted rotatably on the body, and wherein the cams are connected to the actuation means, and wherein the actuation means and the levers are configured such that upon actuation of the actuation means the body moves with respect to the levers, the levers remaining stationary, characterised in that actuation of said actuation means rotates said cams and thereby generates said relative movement between the body and the levers about the pivot axis.
A process for the gas phase polymerization of at least one alpha-olefin comprising: polymerizing at least one alpha-olefin in a fluidized bed reactor with a polyolefin purging unit and a vent gas recovery system, wherein the fluidized bed reactor operates in a condensed mode or super condensed mode with a recycle stream comprising one or more alkane(s) having 3 to 5 C atoms, wherein further at least one additional alkane with 6 to 12 C atoms is added to the recycle stream in an amount so that it represents between 0,0100 mol.% and 0,5000 mol.% of the recycle stream composition introduced into the reactor.
Dishwasher comprising a washing container that provides a washing chamber and comprising a spray device for applying washing liquid to washware to be cleaned, the spray device having a rotatably mounted spray unit provided with passage openings for washing liquid to pass through, the spray unit being arranged so as to be vertically movable inside a housing, the housing providing an abutment that interacts with the spray unit in the vertical direction and having a storage space for washing liquid, which space is formed underneath the spray unit, characterised in that the spray unit is disc-shaped, and in that the spray unit has, on the rear side thereof facing the storage space, guide blades projecting into the storage space, by means of which a rotational movement of the spray unit can be effected when washing liquid is introduced into the storage space of the housing.
A cathode for a lithium secondary battery, comprising: a cathode current collector; and a cathode active material layer comprising a first cathode active material layer and a second cathode active material layer sequentially stacked on the cathode current collector, wherein the first cathode active material layer includes first cathode active material particles having a secondary particle structure, and the second cathode active material layer includes second cathode active material particles having a single particle shape, wherein a ratio of a SPAN value defined as Equation 1 of the second cathode active material particles relative to a SPAN value defined as Equation 1 of the first cathode active material particles is in a range from 2 to 4.5: SPAN = D 90 − D 10 / D 50 wherein, in Equation 1, D10, D50 and D90 are particle diameters at cumulative volume percents of 10%, 50% and 90%, respectively, in a cumulative volume particle diameter distribution obtained by using FE-SEM. a cathode current collector; and a cathode active material layer comprising a first cathode active material layer and a second cathode active material layer sequentially stacked on the cathode current collector, wherein the first cathode active material layer includes first cathode active material particles having a secondary particle structure, and the second cathode active material layer includes second cathode active material particles having a single particle shape, wherein a ratio of a SPAN value defined as Equation 1 of the second cathode active material particles relative to a SPAN value defined as Equation 1 of the first cathode active material particles is in a range from 2 to 4.5: SPAN = D 90 − D 10 / D 50 wherein, in Equation 1, D10, D50 and D90 are particle diameters at cumulative volume percents of 10%, 50% and 90%, respectively, in a cumulative volume particle diameter distribution obtained by using FE-SEM.
A sealing structure with a torsional damper and an oil seal, wherein the torsional damper includes a hub, an annular mass body centered about an axis (x) that covers an outer circumference of the hub, and a damper elastic body that is disposed between the hub and the mass body and elastically connects the hub and the mass body to each other, the torsional damper being attached to one end of a rotary shaft with the hub being inserted into a through-hole of an attachment target part, the oil seal includes an annular seal lip centered about the axis (x) and is attached in the through-hole of the attachment target part to seal between the hub and the through-hole of the attachment target part, the hub includes an annular boss part centered about the axis (x), an annular rim part centered about the axis (x) that is located at an outer periphery of the boss part, a disk-shaped disk part centered about the axis (x) that connects the boss part and the rim part to each other, and an annular hub pocket centered about the axis (x), the hub pocket includes an annular outer circumferential surface opposed to the boss part on an outer periphery side and provides an annular recess centered about the axis (x) that is recessed in a direction toward the disk part, and the seal lip of the oil seal directly or indirectly abuts against the boss part in a slidable manner, characterized in that the outer circumferential surface of the hub pocket increases in diameter toward the disk part along the axis (x), the oil seal includes an annular side lip centered about the axis (x), and the side lip of the oil seal extends toward the hub pocket so that an annular gap (g1, g2) is formed between the side lip and the outer circumferential surface of the hub pocket.
A surface-treated tin-plated steel sheet comprising: an alloy layer on a surface of a steel sheet; a tin-plated layer which is provided on the alloy layer and subjected to a heat-melting treatment, so that 3.0% to 50% of the alloy layer is exposed and the rest of the surface is tin-plated; and a film comprising P and Si as coating weight of 0.5 to 100 mg/m 2 and 0.1 to 250 mg/m 2, respectively, provided on the exposed portions of the alloy layer and the tin-plated layer. an alloy layer on a surface of a steel sheet; a tin-plated layer which is provided on the alloy layer and subjected to a heat-melting treatment, so that 3.0% to 50% of the alloy layer is exposed and the rest of the surface is tin-plated; and a film comprising P and Si as coating weight of 0.5 to 100 mg/m 2 and 0.1 to 250 mg/m 2, respectively, provided on the exposed portions of the alloy layer and the tin-plated layer.
A method of screening the content of an enclosure for the presence of one or more target substances, the method comprising: providing a removable sampling card and a sampling card holder configured to removably receive the removable sampling card; inserting the removable sampling card into the sampling card holder; drawing air from the enclosure into the sampling card holder, and passing the drawn air across the removable sampling card having a coating; and thereafter removing the removable sampling card from the sampling card holder and analyzing the removable sampling card; wherein the coating on the removable sampling card is configured to absorb/adsorb the one or more target substances, and wherein analyzing the removable sampling card comprises determination if the coating has absorbed/adsorbed one or more target substances, and characterized in that the coating comprises a combination of two or more materials selected from a group consisting of diphenylene oxide polymers prepared in chloroform, divinyl benzene and a carbon composite material, wherein the coating is applied on a substrate comprising a stainless steel mesh. providing a removable sampling card and a sampling card holder configured to removably receive the removable sampling card; inserting the removable sampling card into the sampling card holder; drawing air from the enclosure into the sampling card holder, and passing the drawn air across the removable sampling card having a coating; and thereafter removing the removable sampling card from the sampling card holder and analyzing the removable sampling card; wherein the coating on the removable sampling card is configured to absorb/adsorb the one or more target substances, and wherein analyzing the removable sampling card comprises determination if the coating has absorbed/adsorbed one or more target substances, and characterized in that the coating comprises a combination of two or more materials selected from a group consisting of diphenylene oxide polymers prepared in chloroform, divinyl benzene and a carbon composite material, wherein the coating is applied on a substrate comprising a stainless steel mesh.
Assembly between a first profile section acting as upright (210 and 220) and a second profile section acting as crosspiece (110 and 120), the respective longitudinal axes of which are arranged in different, non-parallel planes, the end of the crosspiece fastened to the upright being preformed such as to offer to the upright a plane of support that is not perpendicular to the longitudinal axis of the crosspiece, the angle formed taking the angle formed by the planes in which said longitudinal axes are arranged, CHARACTERIZED IN THAT the upright is fasted on the crosspiece by screws passing through the thickness of the upright, the assembly comprising, between the heads of screws and the upright spherical supports that, interacting with holes made in the thickness of the upright, enable the screw to fulfil its role of clamping over a wide angular gap, the profile section of the crosspiece being preformed from longitudinal screwing channels, the screws passing through the thickness of the upright in order to fasten the upright to the crosspiece being screwed into said channels.
A method of controlling a bias voltage supplied to an optical Mach-Zehnder modulator to operate Mach-Zehnder modulator at quadrature, the method comprising: providing, or determining that there is present, a stable optical input power to the modulator, providing a target for the optical output power of the modulator, the target for the optical output power of the modulator being the optical output power corresponding to the modulator operating at quadrature at the given stable optical input power, and pre-defining an acceptable optical output power range including said provided target; applying, to the modulator, a bias voltage having an initial value of 0V; and thereafter, monitoring the optical output power while varying the bias voltage until the value of the bias voltage is the value that is closest to the initial value and that biases the modulator so that the optical output power of the modulator is within the pre-defined range of the target optical output power, wherein the step of varying the bias voltage comprises, starting at the initial value of zero volts, sweeping the bias voltage in a zigzag pattern with gradually increasing amplitude. providing, or determining that there is present, a stable optical input power to the modulator, providing a target for the optical output power of the modulator, the target for the optical output power of the modulator being the optical output power corresponding to the modulator operating at quadrature at the given stable optical input power, and pre-defining an acceptable optical output power range including said provided target; applying, to the modulator, a bias voltage having an initial value of 0V; and thereafter, monitoring the optical output power while varying the bias voltage until the value of the bias voltage is the value that is closest to the initial value and that biases the modulator so that the optical output power of the modulator is within the pre-defined range of the target optical output power, wherein the step of varying the bias voltage comprises, starting at the initial value of zero volts, sweeping the bias voltage in a zigzag pattern with gradually increasing amplitude.
A method of facilitating communications between a wireline network and a fifth generation, 5G, network, comprising: transmitting, by an interworking function in a control plane, IF-CP, of a broadband network gateway, BNG, a registration request to a 5G core in the 5G network to authenticate a residential gateway, RG, wherein the registration request carries an identifier, ID, with location information corresponding to the RG in the wireline network; exchanging, by the IF-CP, a set of messages with the 5G core to complete registration; transmitting, by the IF-CP, a protocol data unit, PDU, session establishment request to the 5G core, the PDU session establishment request carrying an identifier of the RG; receiving, by the IF-CP, from the 5G core, a PDU session acknowledgement, ACK, and establishing a session, the PDU session ACK carrying a tunnel endpoint identifier, TEID, of a user plane function, UPF, in the 5G core; providing, by the IF-CP, the TEID of the UPF in the 5G core to an interworking function in a user plane, IF-UP, of the BNG to establish a tunnel based on the session; encapsulating a data packet with a tunnel header including the TEID of the UPF in the 5G core; and transmitting the encapsulated data packet over the tunnel to the 5G core. transmitting, by an interworking function in a control plane, IF-CP, of a broadband network gateway, BNG, a registration request to a 5G core in the 5G network to authenticate a residential gateway, RG, wherein the registration request carries an identifier, ID, with location information corresponding to the RG in the wireline network; exchanging, by the IF-CP, a set of messages with the 5G core to complete registration; transmitting, by the IF-CP, a protocol data unit, PDU, session establishment request to the 5G core, the PDU session establishment request carrying an identifier of the RG; receiving, by the IF-CP, from the 5G core, a PDU session acknowledgement, ACK, and establishing a session, the PDU session ACK carrying a tunnel endpoint identifier, TEID, of a user plane function, UPF, in the 5G core; providing, by the IF-CP, the TEID of the UPF in the 5G core to an interworking function in a user plane, IF-UP, of the BNG to establish a tunnel based on the session; encapsulating a data packet with a tunnel header including the TEID of the UPF in the 5G core; and transmitting the encapsulated data packet over the tunnel to the 5G core.
A method for detecting a presence of non-self-sufficient occupants or children at a back seat of a vehicle (1 comprising following steps in a sequence: A) detecting an opening of a rear door for a first time longer than a first predetermined time, wherein the first predetermined time is longer than 3 seconds; B) detecting an ignition of an engine of the vehicle; C) detecting a turning off of the engine of the vehicle; D) detecting an opening of a driver's door; E) detecting that the rear door has not been opened for a second time longer than a second predetermined time, wherein the second predetermined time is longer than 4 seconds; F) detecting either a locking of the vehicle during a third predetermined time (T MAX), wherein the third predetermined time (T MAX) is longer than 10 seconds or that the vehicle has not been locked for the third predetermined time (T MAX); and G) actuating a forgotten occupant alarm based on the detections of steps A through F. A) detecting an opening of a rear door for a first time longer than a first predetermined time, wherein the first predetermined time is longer than 3 seconds; B) detecting an ignition of an engine of the vehicle; C) detecting a turning off of the engine of the vehicle; D) detecting an opening of a driver's door; E) detecting that the rear door has not been opened for a second time longer than a second predetermined time, wherein the second predetermined time is longer than 4 seconds; F) detecting either a locking of the vehicle during a third predetermined time (T MAX), wherein the third predetermined time (T MAX) is longer than 10 seconds or that the vehicle has not been locked for the third predetermined time (T MAX); and G) actuating a forgotten occupant alarm based on the detections of steps A through F.
An active unit of a networked detector system, comprising: a processor; a network port for connection to a central control unit; an optical data input port arranged to receive a wireless optical data; signal a watchdog unit arranged to monitor the received optical data; wherein the processor is arranged to enable the optical data input port on receipt of an enable signal received by the active unit from the central control unit via the network, and wherein the watchdog unit is arranged such that, if more than a predetermined amount of data is received which is not recognized as data relating to the active unit, the optical data input port is disabled. a processor; a network port for connection to a central control unit; an optical data input port arranged to receive a wireless optical data; signal a watchdog unit arranged to monitor the received optical data; wherein the processor is arranged to enable the optical data input port on receipt of an enable signal received by the active unit from the central control unit via the network, and wherein the watchdog unit is arranged such that, if more than a predetermined amount of data is received which is not recognized as data relating to the active unit, the optical data input port is disabled.
A method for handling link quality measurements, the method being performed by a wireless device in a wireless communication network, the method comprising: - receiving, from a network node in the wireless communication network, measurement parameters defining a triggering link quality measurement signal, wherein the measurement parameters specify the triggering signal and comprise reference sequence identifiers of other link quality measurement signals to be measured in response to detecting the triggering signal; - detecting the triggering link quality measurement signal, and - performing, in response to the detection of the triggering link quality measurement signal, measurements on said other link quality measurement signals. - receiving, from a network node in the wireless communication network, measurement parameters defining a triggering link quality measurement signal, wherein the measurement parameters specify the triggering signal and comprise reference sequence identifiers of other link quality measurement signals to be measured in response to detecting the triggering signal; - detecting the triggering link quality measurement signal, and - performing, in response to the detection of the triggering link quality measurement signal, measurements on said other link quality measurement signals.
A set comprising a filter candle for separating a compressed gas and a disperse phase present therein, and a bottom cap placed on a lower side of the filter candle, wherein the filter candle contains a filter medium, which, looking in the flow direction of the gas, contains a coalescence medium for coalescing the disperse phase and a drainage medium for draining the coalesced disperse phase in a downward direction to the bottom cap for discharging the coalesced disperse phase, wherein at least one drainage opening (5, 6, 7, 8) is provided in the bottom cap at a position corresponding to the drainage medium for discharging coalesced liquid from the drainage medium, wherein a side of the bottom cap facing away from the filter medium is provided with a drip-off position that is located at a position shifted relative to the at least one drainage opening (5, 6, 7, 8) to a central part of the bottom cap, characterized in that at least one drainage profile (1, 2, 3, 4, 13, 14) is extending from at least one drainage opening (5, 6, 7, 8) to the drip-off position, the drainage profile (1, 2, 3, 4, 13, 14) being provided for discharging the coalesced disperse phase from the at least one drainage opening (5, 6, 7, 8) to the drip-off position along which the coalesced disperse phase is discharged, wherein the at least one drainage profile (1, 2, 3, 4, 13, 14) protrudes from the side of the bottom cap facing away from the filter medium or is recessed into it.