mhurhangee/ep-ind-claims huggingface dataset:
A method of a making a glass bottle (20, 120, 220, 320) that includes the steps of: (a) forming a parison from a gob (g) of molten glass around a plunger (150, 250) in a blank mold (170, 270) having a neck ring (174, 274) with internal surfaces for forming a neck finish (32, 132, 232, 332), wherein the parison includes a body, and a neck having the a neck finish, an axial lip (38, 338), and a neck interior (30,130, 230, 330), and wherein at least a portion of the plunger has a non-circular cross section to form the neck interior with a corresponding non-circular cross-section including internal axial features (40, 140, 240, 840, 440, 540, 640, 740, 840, 940, 1040, 1140, 1240, 1340, 1440, 1540, 1640, 1740, 1840, 1940, 2040, 2140, 2240, 2340, 2440, 2540, 2640, 2740, 2840, 2940, 3040, 3140, 3240, 3340) having axial ends axially spaced apart from the lip, and wherein the at least the portion of the plunger is of a length sufficient to form a portion of the neck interior corresponding to the neck finish and at least a portion of the rest of the neck interior below the neck finish with the non-circular cross-section corresponding to the plunger non-circular cross-section; and (b) blowing the parison in a blow mold (180, 280) to form the bottle, which has the neck interior of non-circular cross-section and the neck finish with an external surface of circular cross section. (a) forming a parison from a gob (g) of molten glass around a plunger (150, 250) in a blank mold (170, 270) having a neck ring (174, 274) with internal surfaces for forming a neck finish (32, 132, 232, 332), wherein the parison includes a body, and a neck having the a neck finish, an axial lip (38, 338), and a neck interior (30,130, 230, 330), and wherein at least a portion of the plunger has a non-circular cross section to form the neck interior with a corresponding non-circular cross-section including internal axial features (40, 140, 240, 840, 440, 540, 640, 740, 840, 940, 1040, 1140, 1240, 1340, 1440, 1540, 1640, 1740, 1840, 1940, 2040, 2140, 2240, 2340, 2440, 2540, 2640, 2740, 2840, 2940, 3040, 3140, 3240, 3340) having axial ends axially spaced apart from the lip, and wherein the at least the portion of the plunger is of a length sufficient to form a portion of the neck interior corresponding to the neck finish and at least a portion of the rest of the neck interior below the neck finish with the non-circular cross-section corresponding to the plunger non-circular cross-section; and (b) blowing the parison in a blow mold (180, 280) to form the bottle, which has the neck interior of non-circular cross-section and the neck finish with an external surface of circular cross section.
A method for automatically verifying postal indicia, the method comprising a) scanning a mail piece at a mail facility to obtain a human-readable image and a machine readable image in a single image including a postal indicium representing postage-related information associated with, the mail piece, the postal indicium being uniquely identifiable and having a human-readable portion and a machine-readable portion; b) sending scanned postal indicium information to a point of automation; c) comparing, at the point of automation, the scanned postal indicium information against stored postal indicium data to determine whether the postal indicium is valid, d)determining a destination address using a mail piece dependent indicium including a delivery point code DPC and a flag identifying the status of the DPC as a validated DPC or an un-validated DPC; e) receiving, at the mail facility, an instruction on how to handle the mail piece; and f) processing the mail piece in a mail system at the mail facility in accordance with the received instruction. a) scanning a mail piece at a mail facility to obtain a human-readable image and a machine readable image in a single image including a postal indicium representing postage-related information associated with, the mail piece, the postal indicium being uniquely identifiable and having a human-readable portion and a machine-readable portion; b) sending scanned postal indicium information to a point of automation; c) comparing, at the point of automation, the scanned postal indicium information against stored postal indicium data to determine whether the postal indicium is valid, d)determining a destination address using a mail piece dependent indicium including a delivery point code DPC and a flag identifying the status of the DPC as a validated DPC or an un-validated DPC; e) receiving, at the mail facility, an instruction on how to handle the mail piece; and f) processing the mail piece in a mail system at the mail facility in accordance with the received instruction.
A method of operating an exhaust gas recirculation pump for an internal combustion engine comprising: providing an EGR pump assembly including an electric motor coupled to a roots device having rotors, the EGR pump operably connected to an internal combustion engine; providing an EGR control unit linked to the EGR pump assembly; providing sensors linked to the EGR control unit; determining if a motor speed is equal to a predetermined target in step S1 wherein when the motor speed is equal to the predetermined target then; determining if a motor torque is equal to a predetermined target in step S2 wherein when the motor torque is equal to the predetermined target then; determining if a motor temperature is equal to a predetermined target in step S3 wherein when the motor temperature is equal to the predetermined target then; maintaining operation of the exhaust gas recirculation pump. providing an EGR pump assembly including an electric motor coupled to a roots device having rotors, the EGR pump operably connected to an internal combustion engine; providing an EGR control unit linked to the EGR pump assembly; providing sensors linked to the EGR control unit; determining if a motor speed is equal to a predetermined target in step S1 wherein when the motor speed is equal to the predetermined target then; determining if a motor torque is equal to a predetermined target in step S2 wherein when the motor torque is equal to the predetermined target then; determining if a motor temperature is equal to a predetermined target in step S3 wherein when the motor temperature is equal to the predetermined target then; maintaining operation of the exhaust gas recirculation pump.
A hollow glass body, comprising: a cylindrical main body portion having a first inside diameter, a first end opening and a second end opening on opposite ends of the hollow glass body, wherein the second end opening delimits the cylindrical main body portion and the hollow glass body has a second inside diameter at the second end opening, wherein the second inside diameter is smaller than the first inside diameter, and wherein - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2. a cylindrical main body portion having a first inside diameter, a first end opening and a second end opening on opposite ends of the hollow glass body, wherein the second end opening delimits the cylindrical main body portion and the hollow glass body has a second inside diameter at the second end opening, wherein the second inside diameter is smaller than the first inside diameter, and wherein - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2. - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2.
A manufacturing process for at least one diaphragm unit of a MEMS transducer, in which multiple piezoelectric transducer units, each comprising at least one electrode layer (4, 5) and at least one piezoelectric layer, are formed on a carrier, characterized in that the carrier is removed from the transducer units, that at least one of the transducer units is arranged on a diaphragm and is connected thereto in order to form the at least one diaphragm unit and that multiple diaphragm units are formed with the aid of the diaphragm, and/or that the diaphragm is separated in the area between two diaphragm units. in which multiple piezoelectric transducer units, each comprising at least one electrode layer (4, 5) and at least one piezoelectric layer, are formed on a carrier, characterized in that the carrier is removed from the transducer units, that at least one of the transducer units is arranged on a diaphragm and is connected thereto in order to form the at least one diaphragm unit and that multiple diaphragm units are formed with the aid of the diaphragm, and/or that the diaphragm is separated in the area between two diaphragm units.
Electrical crimp contact device formed out of a conductive material layer (100, 200, 300) in particular for an aluminium cable, preferably tab contact device, splice contact device or socket contact device, preferably for the automotive sector, having a contact region, a conductor crimp region and an insulation crimp region, for an electrical connection of a conductor of a cable, the conductor crimp region having a 3D structure zone as a fixing device (230; 232, 234) configured to fix the conductor; wherein the insulation crimp region comprises an insulation fixing device (330; 332, 334) comprising at least one first insulation zone and at least one second insulation zone; wherein said first and second insulation fixing zones (332, 334) are 3D structures comprising mesoscopic or macroscopic projections spaced apart along a longitudinal axis of the contact device thereby the insulation of the cable, in addition to the mechanical clamping by the insulation crimp region, can be mechanically secured; characterized in that at least in a blank of the contact device, the fixing device (230; 232, 234) extends in an oblique manner with respect to the longitudinal axis of the contact device, and wherein the fixing device (230; 232, 234) is completely interrupted or bridged by a rigid web of the conductor crimp region in a transverse direction of the contact device, wherein the web is constituted by a complete thickness of a material layer of the conductor crimp region, and the web itself extends substantially in a direction of the longitudinal axis and separates the fixing device (230; 232, 234) into two components (230, 232; 234), wherein the web reinforces the contact device.
Cylinder block for a compressor, having a central opening for accommodating a drive shaft of a drive unit and defining a central axis of the cylinder block, a plurality of cylinder bores arranged around the central opening and adapted for accommodating a piston each, and at least one stop on a drive side of the cylinder block, characterized in that the stop is arranged within an triangular area which is delimited by the central opening and the two adjacent cylinder bores, the triangular area being delimited radially and inwardly by the central opening and in a laterally direction by lines extending from the central axis through the center lines of two adjacent cylinder bores.
A vehicle device temperature adjustment system, comprising a temperature adjustment passage (21, 22) circularly connecting a heat generation element as a vehicle device, and a pump adapted to circulate a heat medium that cools/heats the heat generation element, the temperature adjustment passage (21, 22) including a passage open/close means (9A, 9B) adapted to interrupt a flow of the heat medium and to adjust a flow volume of the heat medium, an air take-in means adapted to introduce an air into the temperature adjustment passage (21, 22), and a heat medium discharge means adapted to discharge the heat medium from the temperature adjustment passage (21, 22) to an outside of a vehicle, characterized in that the passage open/close means (9A, 9B), the air take-in means, the heat generation element, the pump, and the heat medium discharge means are arranged in the temperature adjustment passage (21, 22) in that order.
A method (400, 600) for wireless communication at a user equipment, comprising: pre-configuring or semi-statically configuring the user equipment with a time domain energy signature pattern associated with a channel reservation waveform; receiving (410, 610) a signal in a shared radio frequency spectrum band (310,510), from a first radio access technology, the signal comprising a pattern of energy periods (560, 565) that includes at least one high energy period and at least one low energy period; detecting that the received signal is associated with the channel reservation waveform based on the pattern of energy periods (560, 565); determining the energy level (350, 550) of the received signal during the at least one low energy period of the pattern of energy periods (560, 565); determining (425, 630) that the energy level (350, 550) of the received signal during the at least one low energy period is associated with a collision occurring between the first communication (305, 505) and a second communication (335, 535) from a second RAT by comparing the energy level (350, 550) of the received signal during the at least one low energy period with the energy level expected, based on the channel reservation waveform, during the low energy period; and reporting (440, 640) collision feedback (345, 545) to a node of a wireless communications network associated with the user equipment based at least in part on the determining (425, 630). pre-configuring or semi-statically configuring the user equipment with a time domain energy signature pattern associated with a channel reservation waveform; receiving (410, 610) a signal in a shared radio frequency spectrum band (310,510), from a first radio access technology, the signal comprising a pattern of energy periods (560, 565) that includes at least one high energy period and at least one low energy period; detecting that the received signal is associated with the channel reservation waveform based on the pattern of energy periods (560, 565); determining the energy level (350, 550) of the received signal during the at least one low energy period of the pattern of energy periods (560, 565); determining (425, 630) that the energy level (350, 550) of the received signal during the at least one low energy period is associated with a collision occurring between the first communication (305, 505) and a second communication (335, 535) from a second RAT by comparing the energy level (350, 550) of the received signal during the at least one low energy period with the energy level expected, based on the channel reservation waveform, during the low energy period; and reporting (440, 640) collision feedback (345, 545) to a node of a wireless communications network associated with the user equipment based at least in part on the determining (425, 630).
A method for the prediction of the amount of heterosis in plants, wherein sRNA molecules which are associated with a hybrid trait are identified and parent lines which are suitable for the production of hybrids are analyzed for the level of an expression of the identified sRNA molecules; wherein the identification of the sRNA molecules comprises the steps of: a) determination of the extent of the expression of traits in different hybrids produced from genetically different parent lines; and b) analysis of the parent lines of the tested hybrids in terms of their sRNA expression. a) determination of the extent of the expression of traits in different hybrids produced from genetically different parent lines; and b) analysis of the parent lines of the tested hybrids in terms of their sRNA expression.
A system of eye spectral imaging comprising: an optical system that images eye tissue onto a digital sensor array; and a multi-spectral filter array that is optically fitted with the digital sensor array, wherein the multi-spectral filter array is divided into unit cells, each unit cell comprising an integer number of filters with different spectral bands, wherein each detector unit in the digital sensor array is covered by only one filter and the filter array is disposed in close proximity to the digital sensor array in the optical path of the optical system and characterised in that optically fitted comprises: the filter array being deposited on the light sensing surface of the sensor array; or the filter array being deposited on the cover glass attached to a light sensing surface of the sensor array; or the filter array being deposited on the thin film attached to a light sensing surface of the sensor array. the filter array being deposited on the light sensing surface of the sensor array; or the filter array being deposited on the cover glass attached to a light sensing surface of the sensor array; or the filter array being deposited on the thin film attached to a light sensing surface of the sensor array.
A flux-cored wire for arc welding of a duplex stainless steel, the flux-cored wire including a stainless-steel sheath filled with a flux, the flux-cored wire comprising, with respect to the total mass of the wire: 21.0% to 27.0% by mass Cr; 7.0% to 11.0% by mass Ni; 2.0% to 4.0% by mass Mo; 0.08% to 0.25% by mass N; 0.1% to 2.5% by mass Mn; 0.1% to 1.0% by mass Si; 0.3% to 0.7% by mass of a Ti alloy in terms of Ti, a Ti alloy content in terms of Ti being expressed as [Ti]; 0.05% to 0.30% by mass of an Al alloy in terms of Al, an Al alloy content in terms of Al being expressed as [Al]; and the balance being Fe, a slag-forming component, and incidental impurities, wherein parameter A expressed as A= [Ti] + 2 × [Al] is 0.7 to 1.20. 21.0% to 27.0% by mass Cr; 7.0% to 11.0% by mass Ni; 2.0% to 4.0% by mass Mo; 0.08% to 0.25% by mass N; 0.1% to 2.5% by mass Mn; 0.1% to 1.0% by mass Si; 0.3% to 0.7% by mass of a Ti alloy in terms of Ti, a Ti alloy content in terms of Ti being expressed as [Ti]; 0.05% to 0.30% by mass of an Al alloy in terms of Al, an Al alloy content in terms of Al being expressed as [Al]; and the balance being Fe, a slag-forming component, and incidental impurities, wherein parameter A expressed as A= [Ti] + 2 × [Al] is 0.7 to 1.20.
An electrical junction box comprising a housing, comprising a first cover and a second cover, wherein the first cover comprises a first wall, two lateral projections extending from the first wall and a cross bar connecting the lateral projections, surrounding a rectangular opening, wherein the second cover comprises a second wall, an elongated tongue extends from the second wall, wherein the elongated tongue protrudes through the rectangular opening, an end portion of the elongated tongue comprises a lock protrusion protruding in an protrusion angle from the elongated tongue, the lock protrusion having a lock surface that is in engagement with the cross bar when the elongated tongue is fully received in the rectangular opening, wherein the elongated tongue comprises two lateral arms extending from the second wall and a cross lock bar arranged perpendicular to the lateral arms, the cross lock bar connecting the lateral arms on their arm ends, wherein the lock protrusion is arranged in the middle of the cross lock bar, and the elongated tongue and the lock protrusion have perpendicular to a mating axis a relaxed width D2, characterized in that the cross lock bar is arranged along a turn axis, the lock protrusion is partly, flexibly rotatable around the turn axis, when a force act against the lock protrusion, thereby flexible deforming the cross lock bar, the rotation angle around the turn axis is less than 45°, and the relaxed width D2 is bigger than a flexed width D3 when the protrusion urges against the cross bar in the mating process, and the lock protrusion protrudes from a free end of the elongated tongue defining a protrusion angle to the elongated tongue of less than 45°. the elongated tongue comprises two lateral arms extending from the second wall and a cross lock bar arranged perpendicular to the lateral arms, the cross lock bar connecting the lateral arms on their arm ends, wherein the lock protrusion is arranged in the middle of the cross lock bar, and the elongated tongue and the lock protrusion have perpendicular to a mating axis a relaxed width D2, characterized in that the cross lock bar is arranged along a turn axis, the lock protrusion is partly, flexibly rotatable around the turn axis, when a force act against the lock protrusion, thereby flexible deforming the cross lock bar, the rotation angle around the turn axis is less than 45°, and the relaxed width D2 is bigger than a flexed width D3 when the protrusion urges against the cross bar in the mating process, and the lock protrusion protrudes from a free end of the elongated tongue defining a protrusion angle to the elongated tongue of less than 45°.
Transmission for a motor vehicle, in particular for a series/parallel hybrid vehicle, having at least one transmission housing and having at least one rotatably mounted transmission input element, wherein the entire transmission housing is assembled from at least one transmission housing part or from multiple transmission housing parts and/or at least one housing cover, wherein the transmission input element can be driven by an internal combustion engine and/or an electric machine and/or via a dual-mass flywheel, wherein the transmission input element is formed at least partially as an internal gear (Z H), wherein the transmission input element has a first toothed region (Z HZ) and a shaft stub region (Z HW), wherein the first toothed region (Z HZ) has an internal toothing (Z HI) and/or an external toothing (Z HA), and wherein, by means of the shaft stub region (Z HW), the transmission input element can be mounted at least partially on a wall of the transmission housing and/or of the housing cover, characterized in that the shaft stub region (Z HW) is at least partially of two-part form and in that the shaft stub region (Z HW) of the transmission input element is, in the assembled state, formed at least by a first shaft stub part and by a second shaft stub part which are rotationally operatively connected fixedly and/or in positively locking fashion to one another, in that the first shaft stub part and the first toothed region (Z HZ) are produced and/or formed as an integral part, and the first shaft stub region has that region of the transmission element which forms the internal gear (Z H).
Moulded piece for assembly on or in a household appliance, which on at least one visible side is provided with a coating which consists of a material containing plastic, which is applied by an injection moulding method to a premoulding substantially corresponding to the shape of the moulded piece, characterised in that the premoulding is an injection-moulded part and has at least one flow aid and/or at least one flow brake, which provide for a uniform flow front during the overspraying with a plastic, wherein a flow aid is a section on which the coating has a greater layer thickness than in the adjacent sections and wherein a flow brake is a section on which the coating has a lesser layer thickness than in the adjacent sections.