mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a maneuvering time of an autonomous vehicle, called an ego-vehicle, traveling at a first speed on a traffic lane, said ego-vehicle being preceded by a vehicle, called a target vehicle, traveling on the traffic lane at a second speed, the maneuver being intended to adapt the speed of the ego-vehicle from the first speed to the second speed, said method, said method being implemented by a processor and comprising the steps of: - Acquisition of the first speed, called the speed of the ego-vehicle; - Acquisition of a distance between the ego-vehicle and the target vehicle, called inter-vehicular distance; - Acquisition of the second speed, called the speed of the target vehicle; Determining a maneuvering time, tm, based on the speed of the ego-vehicle, on the inter-vehicular distance, on the speed of the target vehicle, and on a predetermined inter-vehicular time, the maneuvering time is given by the equation tm = k D 0 − V 2 ∗ Tiv V 1 − V 2, where V1 is the first speed, the speed of the ego-vehicle, V2 is the second speed, speed of the target vehicle, D0 is the distance between the ego-vehicle and the target vehicle, Tiv is a predetermined inter-vehicular time, k is a predetermined constant. - Acquisition of the first speed, called the speed of the ego-vehicle; - Acquisition of a distance between the ego-vehicle and the target vehicle, called inter-vehicular distance; - Acquisition of the second speed, called the speed of the target vehicle;
Textile composite material for lamination of a seat cover, with at least one nonwoven fabric component and with at least one foam material component which is connected to the nonwoven fabric component, wherein the nonwoven fabric component and the foam material component are mechanically connected to each other, wherein the nonwoven fabric component and the foam material component are needled with each other, and wherein the non-woven fabric component comprises at least one binder fibre and at least one functional fibre, characterised in that a holding force between the nonwoven fabric component and the foam material component, which acts counter to a foamnonwoven separating force, is greater than 1 N, wherein the foam material component has a maximum foam material thickness equivalent to a value of a value range between 1 mm and 6 mm, wherein the foam material component is embodied as a polyurethane-polyether foam or as a polyurethane-polyester foam, wherein the functional fibre has a linear mass density value equivalent to a value between 1.5 dtex and 24 dtex, and wherein the binder fibre has a linear mass density value equivalent to a value between 1 dtex and 9 dtex.
A device for straightening pipes with a radially expandable expansion tool that penetrates into the pipe and is carried by a tie rod with column, as well as means for exerting a straightening force that radially act upon the pipe from outside, characterized in that three means for exerting a straightening force are assigned to the expansion tool and axially spaced apart from one another, wherein the central means for exerting a straightening force (5; 6) is provided in the region of the expansion tool, and in that the means for exerting a straightening force are realized in the form of saddles (6; 6a, 6b) or rollers (5; 5a, 5b) being placed against the pipe, wherein the rollers (5; 5a, 5b) or saddles (6; 6a, 6b) are arranged in stands (7; 7a, 7b) such that they lie opposite of one another in a paired fashion.
A control device of a fuel pressure of an engine, the engine including an injector and a fuel pump, the control device comprising: an electronic control unit configured to: control a fuel discharge amount of the fuel pump such that an actual fuel pressure is equal to a target fuel pressure (PRRQ), the actual fuel pressure being a current value of a pressure of a fuel to be supplied to the injector, the target fuel pressure (PRRQ) being set based on an engine load; perform a predictive pressure reduction control when the electronic control unit predicts that the engine load would decrease, based on a requested torque, the requested torque being a requested value of an engine torque, the predictive pressure reduction control being a control to decrease the fuel discharge amount of the fuel pump to a value set according to a current value of the target fuel pressure (PRRQ); and characterized in that the predictive pressure reduction control being a control to decrease the fuel discharge amount of the fuel pump to be smaller than a value set according to a current value of the target fuel pressure (PRRQ); and perform a lower limit guard process when the actual fuel pressure is equal to or lower than a predetermined lower limit guard value (PRGD) and is lower than the target fuel pressure (PRRQ), during the execution of the predictive pressure reduction control, the lower limit guard process being a process of controlling the fuel discharge amount so as to maintain the actual fuel pressure at the lower limit guard value (PRGD). control a fuel discharge amount of the fuel pump such that an actual fuel pressure is equal to a target fuel pressure (PRRQ), the actual fuel pressure being a current value of a pressure of a fuel to be supplied to the injector, the target fuel pressure (PRRQ) being set based on an engine load; perform a predictive pressure reduction control when the electronic control unit predicts that the engine load would decrease, based on a requested torque, the requested torque being a requested value of an engine torque, the predictive pressure reduction control being a control to decrease the fuel discharge amount of the fuel pump to a value set according to a current value of the target fuel pressure (PRRQ); and characterized in that the predictive pressure reduction control being a control to decrease the fuel discharge amount of the fuel pump to be smaller than a value set according to a current value of the target fuel pressure (PRRQ); and perform a lower limit guard process when the actual fuel pressure is equal to or lower than a predetermined lower limit guard value (PRGD) and is lower than the target fuel pressure (PRRQ), during the execution of the predictive pressure reduction control, the lower limit guard process being a process of controlling the fuel discharge amount so as to maintain the actual fuel pressure at the lower limit guard value (PRGD).
A method for the approximate determination of voltages at a high voltage side of a transformer on the basis of measured voltages at a low voltage side of the transformer, comprising the following steps: - Measuring delta voltages (uo) and string voltages (u Y) and phase angles (Φ Y) at the low voltage side of the transformer; - Transforming the string voltages (u Y) and phase angles (Φ Y) into positive and negative sequence voltages (u +, u -) and phase angles (Φ +, Φ -) of the positive and negative sequence systems, respectively, at the low voltage side; - Determining positive and negative sequence voltages (u*+, u*-) and phase angles (Φ ∗ +, (Φ ∗ -) of the positive and negative sequence systems, respectively, at the high voltage side from the positive and negative sequence voltages (u+, u-) and phase angles (Φ +, Φ -) of the positive and negative sequence systems, respectively, at the low voltage side; - Determining estimates of a zero-sequence voltage (u* 0) and a phase angle (Φ* 0) of a zero-sequence system at the high voltage side from the measured delta voltages (uo) and string voltages (u Y) and phase angles (Φ Y) at the low voltage side; - Transforming the positive, negative and zero sequence voltages (u*+, u*-, u* 0) and the phase angles (Φ ∗ +, Φ ∗ -) into string voltages and/or delta voltages at the high voltage side of the transformer. - Measuring delta voltages (uo) and string voltages (u Y) and phase angles (Φ Y) at the low voltage side of the transformer; - Transforming the string voltages (u Y) and phase angles (Φ Y) into positive and negative sequence voltages (u +, u -) and phase angles (Φ +, Φ -) of the positive and negative sequence systems, respectively, at the low voltage side; - Determining positive and negative sequence voltages (u*+, u*-) and phase angles (Φ ∗ +, (Φ ∗ -) of the positive and negative sequence systems, respectively, at the high voltage side from the positive and negative sequence voltages (u+, u-) and phase angles (Φ +, Φ -) of the positive and negative sequence systems, respectively, at the low voltage side; - Determining estimates of a zero-sequence voltage (u* 0) and a phase angle (Φ* 0) of a zero-sequence system at the high voltage side from the measured delta voltages (uo) and string voltages (u Y) and phase angles (Φ Y) at the low voltage side; - Transforming the positive, negative and zero sequence voltages (u*+, u*-, u* 0) and the phase angles (Φ ∗ +, Φ ∗ -) into string voltages and/or delta voltages at the high voltage side of the transformer.
A hermaphroditic electrical connector comprising: a housing (120, 122) having a rear side an opposite front side, a top side, and an opposite bottom side; a first projection extending proximate to the top side of the housing from the rear side of the housing; a second projection extending proximate to the top side of the housing from the rear side of the housing, the first and second projections being spaced from one another by a slot; and a central protrusion extending proximate to the bottom side of housing from the rear side of the housing; characterized in that the central protrusion includes a top surface that contains a series of inclined (280, 284) and declined surfaces, wherein the inclined surfaces (280, 284) of the central protrusion of the electrical connector are configured to be in abutment with corresponding inclined surfaces of a mating central protrusion when mating to a corresponding hermaphroditic electrical connector. a housing (120, 122) having a rear side an opposite front side, a top side, and an opposite bottom side; a first projection extending proximate to the top side of the housing from the rear side of the housing; a second projection extending proximate to the top side of the housing from the rear side of the housing, the first and second projections being spaced from one another by a slot; and a central protrusion extending proximate to the bottom side of housing from the rear side of the housing; characterized in that the central protrusion includes a top surface that contains a series of inclined (280, 284) and declined surfaces, wherein the inclined surfaces (280, 284) of the central protrusion of the electrical connector are configured to be in abutment with corresponding inclined surfaces of a mating central protrusion when mating to a corresponding hermaphroditic electrical connector.
A method of discharging droplets about at least a portion of an object, said method comprising: discharging a cloud (302, 402) including a plurality of cloud droplets in a vicinity of the object, wherein at least some of the plurality of cloud droplets are formed from a decontaminating agent; discharging a stream into the cloud after waiting a predetermined amount of time while the plurality of cloud droplets are suspended in air, the stream including a plurality of stream droplets, wherein at least some of the plurality of stream droplets have an electrostatic charge; and depositing at least some of the plurality of cloud droplets onto the portion of the object to facilitate decontaminating the portion, wherein discharging a cloud (302, 402) further comprises discharging a cloud, wherein the plurality of cloud droplets have a mean particle size between 0.1 micron and 0.5 micron, and wherein discharging a stream (306, 502) further comprises discharging a stream, wherein the plurality of stream droplets have a mean particle size between 6.0 microns and 20.0 microns. discharging a cloud (302, 402) including a plurality of cloud droplets in a vicinity of the object, wherein at least some of the plurality of cloud droplets are formed from a decontaminating agent; discharging a stream into the cloud after waiting a predetermined amount of time while the plurality of cloud droplets are suspended in air, the stream including a plurality of stream droplets, wherein at least some of the plurality of stream droplets have an electrostatic charge; and depositing at least some of the plurality of cloud droplets onto the portion of the object to facilitate decontaminating the portion, wherein discharging a cloud (302, 402) further comprises discharging a cloud, wherein the plurality of cloud droplets have a mean particle size between 0.1 micron and 0.5 micron, and wherein discharging a stream (306, 502) further comprises discharging a stream, wherein the plurality of stream droplets have a mean particle size between 6.0 microns and 20.0 microns.
Angle sensor for a vehicle, comprising a support on which rest two varieties of tracks (110; 120) extending overall radially relative to an axis of rotation of the support, disposed around the latter alternately, angularly equidistant, and cooperating with detection means (200; 210) situated facing the tracks (110; 120) to produce information relating to the rotation of the support, the sensor comprising at least one group of two successive tracks (111; 121) having a singularity of form with respect to the other tracks (110; 120), namely that the two tracks (111; 121) of the group have a common edge inclined angularly with respect to the radial direction that it should have if these two tracks did not have singularity of form, characterized in that it comprises only two detection means (200; 210) offset angularly and radially from one another so that they do not simultaneously cross any one of the edges on the disc and processing means which receive the signals from the detection means (200; 210) and are configured to identify a situation in which the detection means (200; 210) are located facing a group having a singularity.
A DNA construct comprising an isolated nucleotide sequence selected from SEQ ID NO: 6 or 8, or promoter portion thereof, operatively linked to a polypeptide-encoding sequence operatively linked to a transcriptional terminator, wherein the DNA construct enables efficient expression of the polypeptide in a fungal species selected from Pucciniomycotina and Ustilaginomycotina subphyla.
Production of blends of wood particles and/or other vegetal particles with plastic in an extrusion line, a) with a feed section, a planetary roller extruder or a planetary roller extruder section (202, 203) as well as with a melt vessel and a pump, b) wherein the particles to be blended with the plastic are fed Into the feed section that conveys them into the planetary roller extruder or planetary roller extruder section (202, 203), c) wherein the plastic, in particulate form, is fed into the melt vessel, melted therein and the melt is separately conveyed into the planetary roller extruder or planetary roller extruder section (202, 203), d) wherein the wood particles and/or vegetal particles are mixed with the melt and the mixture is homogenised in the planetary roller extruder or planetary roller extruder section (202, 203), e) wherein the wood particles and/or other vegetal particles in the blend make up at least 60 wt %, preferably at least 65 wt %, f) the blend is then discharged from the planetary roller extruder or planetary roller extruder section (202, 203) and g) the blend is compacted. a) with a feed section, a planetary roller extruder or a planetary roller extruder section (202, 203) as well as with a melt vessel and a pump, b) wherein the particles to be blended with the plastic are fed Into the feed section that conveys them into the planetary roller extruder or planetary roller extruder section (202, 203), c) wherein the plastic, in particulate form, is fed into the melt vessel, melted therein and the melt is separately conveyed into the planetary roller extruder or planetary roller extruder section (202, 203), d) wherein the wood particles and/or vegetal particles are mixed with the melt and the mixture is homogenised in the planetary roller extruder or planetary roller extruder section (202, 203), e) wherein the wood particles and/or other vegetal particles in the blend make up at least 60 wt %, preferably at least 65 wt %, f) the blend is then discharged from the planetary roller extruder or planetary roller extruder section (202, 203) and g) the blend is compacted.
Platform for an installation, wherein the platform is provided with a first support system for supporting on a ground surface, wherein the first support system comprises a first support element and a first and second lifting device (12, 13), wherein the first and the second lifting device (12, 13) are each connected pivotally to the platform and to the first support element for moving the first support element between a position of use, in which the first support element makes contact with the ground surface, and a rest position in which the first support element is clear of the ground surface, and wherein the first support system comprises a first displacing device connected pivotally to the first support element and to the platform for displacing the platform relative to the first support element in a first direction of displacement (x) in the position of use, and wherein the first support system comprises a second displacing device connected pivotally to the first support element and to the platform for displacing the platform relative to the first support element in a second direction of displacement (y) substantially perpendicular to the first direction of displacement in the position of use.
An auto-injector apparatus, comprising: a flexible container (16; 108; 108', 108"; 320, 322; 420, 422; 502) containing a liquid medicant; a needle (26; 144; 308; 408; 509) communicated with the container; a housing, the container being received in the housing; a pump disposed in the housing and positioned to engage the flexible container and expel the medicant from the container through the needle upon relative movement between the pump and the container; and a main drive spring (40; 226) operably associated with the needle to extend the needle from a first needle position wherein the needle is completely received in the housing to a second needle position wherein the needle protrudes from the housing, characterized in that the pump comprises a roller (210; 310; 410; 524). a flexible container (16; 108; 108', 108"; 320, 322; 420, 422; 502) containing a liquid medicant; a needle (26; 144; 308; 408; 509) communicated with the container; a housing, the container being received in the housing; a pump disposed in the housing and positioned to engage the flexible container and expel the medicant from the container through the needle upon relative movement between the pump and the container; and a main drive spring (40; 226) operably associated with the needle to extend the needle from a first needle position wherein the needle is completely received in the housing to a second needle position wherein the needle protrudes from the housing, characterized in that the pump comprises a roller (210; 310; 410; 524).
A capacitive point source sensor for detecting presence of a liquid, the capacitive point source sensor comprising: a main body having a sensor end and an outer end, the main body being configured to be coupled to and at least partially inserted through a container of the liquid; two conductive contacts (306, 308) located on the sensor end of the main body and separated by a gap; an insulator enclosing the two conductive contacts; two leads (310, 312) each coupled to one of the two conductive contacts and extending through the main body, characterized in that the sensor end is configured to be flush with an inner surface of the container and in that a first lead of the two leads is configured to receive an alternating current, AC, signal and to transmit the AC signal to a first conductive contact of the two conductive contacts such that capacitance between the two conductive contacts can be determined based on an amplitude of an electrical signal received by a second lead of the two leads via a second conductive contact of the two conductive contacts, the capacitance corresponding to the presence of the liquid. a main body having a sensor end and an outer end, the main body being configured to be coupled to and at least partially inserted through a container of the liquid; two conductive contacts (306, 308) located on the sensor end of the main body and separated by a gap; an insulator enclosing the two conductive contacts; two leads (310, 312) each coupled to one of the two conductive contacts and extending through the main body, characterized in that the sensor end is configured to be flush with an inner surface of the container and in that a first lead of the two leads is configured to receive an alternating current, AC, signal and to transmit the AC signal to a first conductive contact of the two conductive contacts such that capacitance between the two conductive contacts can be determined based on an amplitude of an electrical signal received by a second lead of the two leads via a second conductive contact of the two conductive contacts, the capacitance corresponding to the presence of the liquid.
Handling module for loading a conveying apparatus of a conveyor dishwasher, comprising: A. at least one turning wheel for turning at least one tableware item, wherein the turning wheel has at least one tableware-item compartment; B. at least one feeding ramp for feeding the tableware item to the turning wheel; C. at least one charging ramp for transferring the tableware item from the turning wheel to a conveying apparatus of the conveyor dishwasher, wherein the turning wheel is arranged between the feeding ramp and the charging ramp, wherein the turning wheel is designed to receive the tableware item fed via the feeding ramp in the tableware-item compartment in an orientation with a use side facing upwards, wherein the turning wheel is also designed to turn the tableware item and to place it onto the charging ramp with the use side facing downwards, characterized in that the charging ramp has at least one disposal opening, wherein waste that is present on the tableware item can be disposed of through the disposal opening on account of its gravitational force when the tableware item is placed on its use side. A. at least one turning wheel for turning at least one tableware item, wherein the turning wheel has at least one tableware-item compartment; B. at least one feeding ramp for feeding the tableware item to the turning wheel; C. at least one charging ramp for transferring the tableware item from the turning wheel to a conveying apparatus of the conveyor dishwasher, wherein the turning wheel is arranged between the feeding ramp and the charging ramp, wherein the turning wheel is designed to receive the tableware item fed via the feeding ramp in the tableware-item compartment in an orientation with a use side facing upwards, wherein the turning wheel is also designed to turn the tableware item and to place it onto the charging ramp with the use side facing downwards, characterized in that the charging ramp has at least one disposal opening, wherein waste that is present on the tableware item can be disposed of through the disposal opening on account of its gravitational force when the tableware item is placed on its use side.