mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing filled containers, wherein a preform of a thermoplastic material is thermally conditioned in the area of a heating section along a transport path, and is subsequently deformed, within a mold, into a container by pressure application, and wherein the preform is during its transformation into the container at least temporarily guided by a stretch rod, wherein a filling medium to be filled into the container is used as fluid for the container formation, and the stretching process is supported by the supply of filling medium characterized in that the stretching force of the stretch rod acting upon the preform is measured and the volumetric flow of the filling medium is controlled depending on the measured stretching force in such a way that a minimum stretching force is always maintained for guiding the preform.
A surgical stapling device comprising: an approximation assembly including an anvil retainer having a distal portion and a proximal portion; a shell assembly including a staple cartridge and a shell housing, the shell housing having an inner housing portion defining a central bore in which the anvil retainer is received, a plurality of shell splines supported on the inner housing portion within the bore, each of the plurality of shell splines defining a guide channel with an adjacent one of the plurality of shell splines, the staple cartridge being supported on the shell housing; and an anvil assembly including an anvil shaft having at least one anvil spline and an anvil head having an anvil surface defining a plurality of staple deforming recesses, the at least one anvil spline defining a longitudinal axis ("W"), the anvil shaft being releasably engaged on the anvil retainer and the anvil head being supported on a distal portion of the anvil shaft, wherein the at least one anvil spline includes first and second tapered surfaces (42, 44) that intersect at an apex at a proximal end of the anvil spline, characterized in that the apex is offset to one side of the longitudinal axis ("W") about a circumference of the anvil shaft to provide asymmetry to the anvil spline, the first tapered surface having a surface area β and the second tapered surface having a surface area Ω that is different from surface area β. an approximation assembly including an anvil retainer having a distal portion and a proximal portion; a shell assembly including a staple cartridge and a shell housing, the shell housing having an inner housing portion defining a central bore in which the anvil retainer is received, a plurality of shell splines supported on the inner housing portion within the bore, each of the plurality of shell splines defining a guide channel with an adjacent one of the plurality of shell splines, the staple cartridge being supported on the shell housing; and an anvil assembly including an anvil shaft having at least one anvil spline and an anvil head having an anvil surface defining a plurality of staple deforming recesses, the at least one anvil spline defining a longitudinal axis ("W"), the anvil shaft being releasably engaged on the anvil retainer and the anvil head being supported on a distal portion of the anvil shaft, wherein the at least one anvil spline includes first and second tapered surfaces (42, 44) that intersect at an apex at a proximal end of the anvil spline, characterized in that the apex is offset to one side of the longitudinal axis ("W") about a circumference of the anvil shaft to provide asymmetry to the anvil spline, the first tapered surface having a surface area β and the second tapered surface having a surface area Ω that is different from surface area β.
A method at a user device of authenticating and authorizing a user for one or more web services, the method comprising: generating and storing a plurality of personas, each persona indicative of a unique identity of a user for one or more web services and comprising one or more attributes populated with at least one portion of user attribute information and a URL for the one or more web services, the one or more attributes comprising user authentication information for the one or more web services; storing a persona symbol comprising at least one symbol mapped to each respective persona of the plurality of personas; receiving a selection of a persona symbol from the plurality of stored persona symbols for the plurality of personas, wherein the receiving comprises receiving an indication of a gesture that matches the persona symbol or receiving an indication of the persona symbol moving to a position on a display of the user device, the gesture indicative of at least one of a letter, a number or a geometric shape, and the position corresponding to a symbol indicative of the one or more web services; activating the persona corresponding to the selected persona symbol; and transmitting at least one attribute of the one or more attributes of the persona being activated to the web service over a network for the authentication and authorization of the user for the one or more web services. generating and storing a plurality of personas, each persona indicative of a unique identity of a user for one or more web services and comprising one or more attributes populated with at least one portion of user attribute information and a URL for the one or more web services, the one or more attributes comprising user authentication information for the one or more web services; storing a persona symbol comprising at least one symbol mapped to each respective persona of the plurality of personas; receiving a selection of a persona symbol from the plurality of stored persona symbols for the plurality of personas, wherein the receiving comprises receiving an indication of a gesture that matches the persona symbol or receiving an indication of the persona symbol moving to a position on a display of the user device, the gesture indicative of at least one of a letter, a number or a geometric shape, and the position corresponding to a symbol indicative of the one or more web services; activating the persona corresponding to the selected persona symbol; and transmitting at least one attribute of the one or more attributes of the persona being activated to the web service over a network for the authentication and authorization of the user for the one or more web services.
Method for producing a gas turbine component which is to be coated, with exposed holes, in which the surface configuration of the component is visually predetermined and stored for scanning the position and the shape of the holes before its coating, and, after its coating, the surface configuration of the component is visually rescanned for exposing the holes which are covered with coating material, wherein based on the predetermined surface configuration of the component, a tool is positioned in relation to the component in such a way that the tool exposes the corresponding hole by means of local removal of the coating material, wherein the actual surface configuration of the component is three-dimensionally scanned, in which the three-dimensional scanning is carried out by means of a triangulation method, in which the current position of the component or of the holes is calculated by using an especially uncoated reference geometry element which is provided on the component.
A fluid treatment system comprising: a first fluid inlet; a second fluid inlet; a fluid outlet; a fluid treatment zone comprising a housing within which is disposed a fluid separation section and a fluid radiation section in fluid communication with one another and in fluid communication with the first fluid inlet, the second fluid inlet and the fluid outlet; and a valve system configured to operate in: (i) a first mode in which fluid passes through the fluid separation section and fluid radiation section, and (ii) a second mode in which fluid substantially bypasses the fluid separation section and passes through the fluid radiation section; the valve system comprises a first valve element and a second valve element;in the first mode, the first valve element is in an open position and the second valve element is in a closed position;in the second mode, the first valve element is in a closed position and the second valve element is in an open position, characterized by the following features: the fluid separation section comprises a plurality of separation elements arranged in a separation element array; the fluid separation section comprises a backwash element; the backwash element comprises an arm portion configured to be rotatably movable with respect to adjacent separation elements. a first fluid inlet; a second fluid inlet; a fluid outlet; a fluid treatment zone comprising a housing within which is disposed a fluid separation section and a fluid radiation section in fluid communication with one another and in fluid communication with the first fluid inlet, the second fluid inlet and the fluid outlet; and a valve system configured to operate in: (i) a first mode in which fluid passes through the fluid separation section and fluid radiation section, and (ii) a second mode in which fluid substantially bypasses the fluid separation section and passes through the fluid radiation section; the valve system comprises a first valve element and a second valve element;in the first mode, the first valve element is in an open position and the second valve element is in a closed position;in the second mode, the first valve element is in a closed position and the second valve element is in an open position, characterized by the following features: the fluid separation section comprises a plurality of separation elements arranged in a separation element array; the fluid separation section comprises a backwash element; the backwash element comprises an arm portion configured to be rotatably movable with respect to adjacent separation elements. the fluid separation section comprises a plurality of separation elements arranged in a separation element array; the fluid separation section comprises a backwash element; the backwash element comprises an arm portion configured to be rotatably movable with respect to adjacent separation elements.
A transmission assembly, in particular transmission, wherein the transmission assembly has a central housing part which receives a bearing of an output shaft and a bearing of an input shaft, wherein a bearing cover is placed on the central housing part and is connected, in particular screw-connected, wherein the bearing cover covers an axial end face of one of the axial end regions of the output shaft and optionally also of an intermediate shaft in housing-forming manner, wherein a cavity region through which oil flows, in particular oil pocket, is formed between the bearing cover and central housing part and at least delimited by the central housing part and by the bearing cover, wherein a flat contact face is formed on the central housing part, in which face bores are formed, and the bearing cover is placed with its correspondingly flat contact face on the flat contact face of the central housing part and is connected by means of screws screw-connected into the bores, wherein the flat contact face of the central housing part and/or the flat contact face on the inner side of the bearing cover in each case comprise a cutout which is at least a partial region of the cavity region, wherein the cutout is introduced into the flat contact face of the central housing part as a depression, characterised in that the flat contact surfaces of the central housing part and of the bearing cover have [a] in each case a bore which passes through the bearing cover and the central housing part in each case, for passing through the input shaft, the bore being spaced apart from the cutout, a fan being connected on the input shaft in a positively and/or non-positively locking manner, the cooling air flow of which fan flows past the bearing cover, in the central housing part a first duct running from an oil pump to an upper side of the transmission assembly, and opening into the cavity region, an opening region being covered by the bearing cover.
A rate control method performed in a mobility management entity, MME, the method comprising: the MME receiving an uplink, UL, Non-Access Stratum, NAS, message transmitted by a wireless communication device, WCD; and the MME, in response to receiving the UL NAS message, generating a downlink, DL, NAS message and transmitting the DL NAS message towards the WCD, wherein transmitting the DL NAS message towards the WCD comprises the MME transmitting an S1 layer message comprising the DL NAS message to a base station that is configured to forward the DL NAS message to the WCD, and the DL NAS message included in the S1 layer message comprises information indicating a number of UL NAS messages containing user data that the WCD is permitted send to the MME within a certain time period, characterised in that: the DL NAS message identifies at least one of: i) a throttling factor that indicates a level by which the WCD should reduce an amount of UL data in any future control plane message to the MME, and ii) a throttling delay that indicates how much time the WCD should wait before including any UL data in any future control plane message to the MME. the MME receiving an uplink, UL, Non-Access Stratum, NAS, message transmitted by a wireless communication device, WCD; and the MME, in response to receiving the UL NAS message, generating a downlink, DL, NAS message and transmitting the DL NAS message towards the WCD, wherein transmitting the DL NAS message towards the WCD comprises the MME transmitting an S1 layer message comprising the DL NAS message to a base station that is configured to forward the DL NAS message to the WCD, and the DL NAS message included in the S1 layer message comprises information indicating a number of UL NAS messages containing user data that the WCD is permitted send to the MME within a certain time period, characterised in that: the DL NAS message identifies at least one of: i) a throttling factor that indicates a level by which the WCD should reduce an amount of UL data in any future control plane message to the MME, and ii) a throttling delay that indicates how much time the WCD should wait before including any UL data in any future control plane message to the MME. i) a throttling factor that indicates a level by which the WCD should reduce an amount of UL data in any future control plane message to the MME, and ii) a throttling delay that indicates how much time the WCD should wait before including any UL data in any future control plane message to the MME.
A pneumatic tire, comprising: four or more circumferential main grooves extending in a tire circumferential direction; and a plurality of land portions defined by the circumferential main grooves, the land portions comprising a center land portion located on an innermost side in a tire width direction, a shoulder land portion located on an outermost side in the tire width direction, and a middle land portion located between the center land portion and the shoulder land portion, in at least one land portion of the center land portion and the middle land portion, a lug groove being disposed extending in the tire width direction and opening to two of the circumferential main grooves defining the land portion, a groove width LW of the lug groove being in a range 0.5 mm ≤ LW ≤ 3.0 mm, the lug groove comprising a lug groove central portion formed spaced apart from the circumferential main groove and having a predetermined length in an extension direction of the lug groove, and lug groove edge portions located on both sides of the lug groove central portion in the extension direction of the lug groove, and a groove depth Dc of the lug groove central portion, a groove depth De of the lug groove edge portion, and a groove depth Dg of the circumferential main groove having a relationship in a range 0.05 ≤ (Dc/Dg) ≤ 0.40 and in a range 0.60 ≤ (De/Dg) ≤ 1.00, and a width RWc of the lug groove central portion in the tire width direction and a width RWa of the land portion comprising the lug groove in the tire width direction having a relationship in a range 0.30 ≤ (RWc/RWa) ≤ 0.7. four or more circumferential main grooves extending in a tire circumferential direction; and a plurality of land portions defined by the circumferential main grooves, the land portions comprising a center land portion located on an innermost side in a tire width direction, a shoulder land portion located on an outermost side in the tire width direction, and a middle land portion located between the center land portion and the shoulder land portion, in at least one land portion of the center land portion and the middle land portion, a lug groove being disposed extending in the tire width direction and opening to two of the circumferential main grooves defining the land portion, a groove width LW of the lug groove being in a range 0.5 mm ≤ LW ≤ 3.0 mm, the lug groove comprising a lug groove central portion formed spaced apart from the circumferential main groove and having a predetermined length in an extension direction of the lug groove, and lug groove edge portions located on both sides of the lug groove central portion in the extension direction of the lug groove, and a groove depth Dc of the lug groove central portion, a groove depth De of the lug groove edge portion, and a groove depth Dg of the circumferential main groove having a relationship in a range 0.05 ≤ (Dc/Dg) ≤ 0.40 and in a range 0.60 ≤ (De/Dg) ≤ 1.00, and a width RWc of the lug groove central portion in the tire width direction and a width RWa of the land portion comprising the lug groove in the tire width direction having a relationship in a range 0.30 ≤ (RWc/RWa) ≤ 0.7.
A power conversion device comprising: a printed wiring board on which an alternating-current power-supply input part to which alternating-current power is input, a converter circuit part to convert alternating-current power input to the alternating-current power-supply input part to direct-current power, an inverter circuit part to convert direct-current power converted by the converter circuit part to alternating-current power, an alternating-current power-supply output part to output alternating-current power converted by the inverter circuit part, and a conductive pattern to electrically connect the alternating-current power-supply input part, the converter circuit part, the inverter circuit part, and the alternating-current power-supply output part to one another are provided, characterized in that, a busbar that has a plate-like shape with a plane direction thereof perpendicular to a plane direction of the printed wiring board, is arranged to overlap the conductive pattern in plan view, and includes two or more connecting portions (2a, 2b) that are in contact with the conductive pattern and electronic components (11, 12) are provided on a surface of the printed wiring board, on which the busbar is arranged, wherein a height dimension of the busbar is higher than the height dimensions of electronic components (11, 12) that are arranged next to the busbar. a printed wiring board on which an alternating-current power-supply input part to which alternating-current power is input, a converter circuit part to convert alternating-current power input to the alternating-current power-supply input part to direct-current power, an inverter circuit part to convert direct-current power converted by the converter circuit part to alternating-current power, an alternating-current power-supply output part to output alternating-current power converted by the inverter circuit part, and a conductive pattern to electrically connect the alternating-current power-supply input part, the converter circuit part, the inverter circuit part, and the alternating-current power-supply output part to one another are provided, characterized in that, a busbar that has a plate-like shape with a plane direction thereof perpendicular to a plane direction of the printed wiring board, is arranged to overlap the conductive pattern in plan view, and includes two or more connecting portions (2a, 2b) that are in contact with the conductive pattern and electronic components (11, 12) are provided on a surface of the printed wiring board, on which the busbar is arranged, wherein a height dimension of the busbar is higher than the height dimensions of electronic components (11, 12) that are arranged next to the busbar.
A radar altimeter for mounting onto an aircraft, the radar altimeter comprising: a base configured to mount to an external surface of an aircraft, the base having an inner portion defining a first aperture and a flange disposed around the inner portion, wherein the inner portion has a generally rectangular geometry defining a long dimension and a short dimension; a chassis mounted to the base and having a planar portion that is disposed perpendicular to a plane formed by the base and extends parallel to the long dimension of the generally rectangular geometry; a plurality of circuit boards (320, 322, 324) mounted to the chassis and disposed parallel to the planar portion of the chassis; and an antenna module disposed proximate a first aperture formed in the base, the antenna module coupled to at least one of the plurality of circuit boards (320, 322, 324); wherein the base is configured to mount over a second aperture in the external surface of the aircraft such that the chassis and the plurality of circuit boards (320, 322, 324) are placed through the second aperture and are disposed inside of the aircraft. a base configured to mount to an external surface of an aircraft, the base having an inner portion defining a first aperture and a flange disposed around the inner portion, wherein the inner portion has a generally rectangular geometry defining a long dimension and a short dimension; a chassis mounted to the base and having a planar portion that is disposed perpendicular to a plane formed by the base and extends parallel to the long dimension of the generally rectangular geometry; a plurality of circuit boards (320, 322, 324) mounted to the chassis and disposed parallel to the planar portion of the chassis; and an antenna module disposed proximate a first aperture formed in the base, the antenna module coupled to at least one of the plurality of circuit boards (320, 322, 324); wherein the base is configured to mount over a second aperture in the external surface of the aircraft such that the chassis and the plurality of circuit boards (320, 322, 324) are placed through the second aperture and are disposed inside of the aircraft.