mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a secure service point "SSP" system for securely accessing a voice-enabled communication terminal (12; 105; 205), having certain functions associated therewith, using an Internet Protocol "IP" comprising; receiving user authentication data, from users using secure personal authentication reader "SPAR" devices (14; 106; 107; 108; 109; 206; 207; 208; 209), from a plurality of Secure Profile Management Point "SPM" points (110; 111; 112; 113; 210; 211; 212; 213), each of the SPM points including an IP phone (12; 105; 205) and a SPAR device, the IP phone and the SPAR device of each of the plurality of the SPM points being coupled, through a voice local area network "VLAN" (104; 204) and a gateway (101; 201), to a plurality of servers (117; 119; 121; 130; 131; 217; 230; 231) and a Multi-modal Application Platform "MAP" engine (116; 216); receiving a request from one of the SPAR devices; based on the received request, the MAP engine identifying a source of the request among the SPAR devices; identifying a type of user authentication data received; using an authentication server, receiving a response from the authentication server that includes one or more attributes uniquely identifying a user; performing authentication of the user; upon positive authentication of the user, retrieving a profile and permissions of the user from storage and building a telephony configuration according to the profile and permissions of the user; transmitting to the user a list of available communication and business services according to the profile and permissions of the user; based on the profile and permissions of the user, a location of the originating SPAR device and an association of the originating SPAR device with an IP phone, publishing user-related presence information to a presence server; and based on the profile and permissions of the user and user-related presence information, initiating an automated multi-modal session between the user and available and permissible business services.
A wearable article continuous in a longitudinal direction and a transverse direction comprising a front elastic belt region, a back elastic belt region, a crotch region, a waist opening, and a pair of leg openings; the crotch region extending longitudinally between the front elastic belt region and the back elastic belt region; wherein each of the front and back elastic belt is a laminate comprising an inner sheet, an outer sheet, and a plurality of elastic members running in the transverse direction, wherein the laminate further comprising an elastic bonding which continuously bonds the elastic members for at least 10mm in the direction of stretch in a region adjacent the side edges of the front and back elastic belts (84, 86), and a vertical bonding applied to at least one of the inner sheet and the outer sheet with intervals in the transverse direction to intermittently bond the elastic member to at least one of the inner sheet and the outer sheet, wherein at least one of the inner sheet and the outer sheet comprises a plurality of deformations wherein the deformations are aligned in the longitudinal direction, wherein the article has a Stretch Circumference Force of no more than 6.5 N, and a Fit Circumference Force of at least 3.0 N according to the measurements herein, wherein the ratio of the value of Stretch Circumference Force /Fit Circumference Force is less than 1.8, wherein the vertical bonding is spaced apart from each other in the longitudinal direction forming a longitudinal repeating pattern of discrete vertical bondings, wherein each elastic member is attached to the inner sheet or the outer sheet by at least one discrete vertical bonding, and wherein the bonding utilizes hot melt adhesive. wherein each of the front and back elastic belt is a laminate comprising an inner sheet, an outer sheet, and a plurality of elastic members running in the transverse direction, wherein the laminate further comprising an elastic bonding which continuously bonds the elastic members for at least 10mm in the direction of stretch in a region adjacent the side edges of the front and back elastic belts (84, 86), and a vertical bonding applied to at least one of the inner sheet and the outer sheet with intervals in the transverse direction to intermittently bond the elastic member to at least one of the inner sheet and the outer sheet, wherein at least one of the inner sheet and the outer sheet comprises a plurality of deformations wherein the deformations are aligned in the longitudinal direction, wherein the article has a Stretch Circumference Force of no more than 6.5 N, and a Fit Circumference Force of at least 3.0 N according to the measurements herein, wherein the ratio of the value of Stretch Circumference Force /Fit Circumference Force is less than 1.8, wherein the vertical bonding is spaced apart from each other in the longitudinal direction forming a longitudinal repeating pattern of discrete vertical bondings, wherein each elastic member is attached to the inner sheet or the outer sheet by at least one discrete vertical bonding, and wherein the bonding utilizes hot melt adhesive.
A quality-degraded portion estimating apparatus, comprising: an information collection means for collecting quality information and flow rates of flows circulated in a network as well as structural information of the network; a quality-degraded flow/quality-non-degraded flow determining means for finding links through which the flows pass from the flow quality information and the network structural information collected by the information collection means and managing those in form of a flow quality/route link table, determining quality-degraded flows and quality-non-degraded flows based on a degrading threshold value and a non-degrading threshold value determined in advance, finding a set of degraded flows that pass through all the links through which one or more degraded flows pass, eliminating non-degraded links based on a non-degraded flow number threshold value or a non-degraded flow rate threshold value according to a minimum element number determined from a corresponding table that is determined in advanced, and generating a reduced flow/route link table; and a first quality-degraded portion estimating means for reading out the reduced flow quality/route link table and estimating a quality-degraded portion based on the reduced flow quality/route table by using a minimum link number estimating method. an information collection means for collecting quality information and flow rates of flows circulated in a network as well as structural information of the network; a quality-degraded flow/quality-non-degraded flow determining means for finding links through which the flows pass from the flow quality information and the network structural information collected by the information collection means and managing those in form of a flow quality/route link table, determining quality-degraded flows and quality-non-degraded flows based on a degrading threshold value and a non-degrading threshold value determined in advance, finding a set of degraded flows that pass through all the links through which one or more degraded flows pass, eliminating non-degraded links based on a non-degraded flow number threshold value or a non-degraded flow rate threshold value according to a minimum element number determined from a corresponding table that is determined in advanced, and generating a reduced flow/route link table; and a first quality-degraded portion estimating means for reading out the reduced flow quality/route link table and estimating a quality-degraded portion based on the reduced flow quality/route table by using a minimum link number estimating method.
A computer implemented method for controlling a device adapted for projecting a light beam on at least a part of an eye of a wearer, the part of the eye comprising a plurality of portions, the device having an optical module comprising a light source, a pupil being defined for the eye, the method comprising a step of: - providing the size of the pupil, - determining a command law of the radiant power of the light source, the command law being determined on the provided pupil size, and wherein a maximum light intensity and a minimum light intensity are defined for the part of the eye and, at the step of determining, the command law further depends from at least one parameter selected in the group of the maximum light intensity and the minimum light intensity, each one of the maximum light intensity and the minimum light intensity varying spatially in the part of the eye from one portion of the part of the eye to another portion of the part of the eye. - providing the size of the pupil, - determining a command law of the radiant power of the light source, the command law being determined on the provided pupil size, and
A staple cartridge assembly, comprising: a cartridge body comprising a deck and a plurality of staple cavities defined in said deck; a plurality of staples removably stored in said staple cavities; and an implantable layer (4000, 4100, 4200) positioned over said staple cavities, wherein said implantable layer comprises: a top surface (4005, 4105, 4205) and a bottom surface; structural fibers (4006, 4106, 4206) weaved into and between said top surface (4005, 4105, 4205) and said bottom surface to form pillar walls (4009, 4109, 4209) extending between said top surface (4005, 4105, 4205) and said bottom surface; and reinforcement fibers (4007, 4107) interwoven within said pillar walls. a cartridge body comprising a deck and a plurality of staple cavities defined in said deck; a plurality of staples removably stored in said staple cavities; and an implantable layer (4000, 4100, 4200) positioned over said staple cavities, wherein said implantable layer comprises: a top surface (4005, 4105, 4205) and a bottom surface; structural fibers (4006, 4106, 4206) weaved into and between said top surface (4005, 4105, 4205) and said bottom surface to form pillar walls (4009, 4109, 4209) extending between said top surface (4005, 4105, 4205) and said bottom surface; and reinforcement fibers (4007, 4107) interwoven within said pillar walls. a top surface (4005, 4105, 4205) and a bottom surface; structural fibers (4006, 4106, 4206) weaved into and between said top surface (4005, 4105, 4205) and said bottom surface to form pillar walls (4009, 4109, 4209) extending between said top surface (4005, 4105, 4205) and said bottom surface; and reinforcement fibers (4007, 4107) interwoven within said pillar walls.
Family of devices (1; 20; 80) for fastening elements (40; 41; 42; 43; 44; 45) previously cylindrically bored (3; 22), each device comprising: - a screw (4; 23; 81) extending along an axis (5; 24; 82) and comprising a frustoconical shaft (6; 25; 83) and a head (7; 26; 84), - a bushing (8; 27; 87) intended to accommodate the shaft of the screw within itself, the bushing extending along the same axis and having a cylindrical outer surface (9; 28; 89) and a frustoconical inner surface (10; 29; 90), characterized in that - it comprises at least two devices of which the bushings have, before installation by interference, an identical outer diameter (16A; 16C) and a different rate (C1; C2) of taper of the inner surface. - a screw (4; 23; 81) extending along an axis (5; 24; 82) and comprising a frustoconical shaft (6; 25; 83) and a head (7; 26; 84), - a bushing (8; 27; 87) intended to accommodate the shaft of the screw within itself, the bushing extending along the same axis and having a cylindrical outer surface (9; 28; 89) and a frustoconical inner surface (10; 29; 90), - it comprises at least two devices of which the bushings have, before installation by interference, an identical outer diameter (16A; 16C) and a different rate (C1; C2) of taper of the inner surface.
A fan housing with a housing body for accommodating fan components and an outer casing which surrounds the housing body in circumferential direction, wherein the housing body has at least two webs (9, 11) extending in circumferential direction on the radial outer side thereof, and/or the outer casing has at least two ribs (7, 8) extending in circumferential direction on the radial inner side thereof, which ribs, in the assembled state, between the housing body and the outer casing, form a channel circulating in circumferential direction for receiving and holding a heating band, characterized in that the outer casing has at least one guiding rib directed in the radial direction toward the housing body as well as into the channel and extending in circumferential direction.
A method for forming an adhesion promoting layer on a metallic substrate (204, 404) comprising throughout, except for trace impurities, only a single metal or a single metal alloy, the method comprising: generating a non-thermal plasma in air at atmospheric pressure in a confined plasma-forming region and flowing air to the plasma-forming region, the non-thermal plasma comprising monatomic oxygen; characterized by the metallic substrate (204, 404) comprising titanium, exposing a substrate surface of the metallic substrate (204, 404) to the monatomic oxygen in the plasma emitted from an outlet wherein: the monatomic oxygen of the non-thermal plasma penetrates into the metallic substrate (204, 404) and oxidizes the metallic substrate (204, 404) to form a metal oxide from the metal atoms of the metallic substrate; and the metal oxide is formed as a metal oxide layer (212, 412) comprising titanium oxide disposed directly on and attached to an underlying bulk metallic layer (216, 416) of the metallic substrate (204, 404), whereby the metal oxide layer (212, 412) is integral with the underlying bulk metallic layer (216, 416) of the metallic substrate (216, 416), such that the metal oxide layer promotes adhesive bonding. generating a non-thermal plasma in air at atmospheric pressure in a confined plasma-forming region and flowing air to the plasma-forming region, the non-thermal plasma comprising monatomic oxygen; characterized by the metallic substrate (204, 404) comprising titanium, exposing a substrate surface of the metallic substrate (204, 404) to the monatomic oxygen in the plasma emitted from an outlet wherein: the monatomic oxygen of the non-thermal plasma penetrates into the metallic substrate (204, 404) and oxidizes the metallic substrate (204, 404) to form a metal oxide from the metal atoms of the metallic substrate; and the metal oxide is formed as a metal oxide layer (212, 412) comprising titanium oxide disposed directly on and attached to an underlying bulk metallic layer (216, 416) of the metallic substrate (204, 404), whereby the metal oxide layer (212, 412) is integral with the underlying bulk metallic layer (216, 416) of the metallic substrate (216, 416), such that the metal oxide layer promotes adhesive bonding. the monatomic oxygen of the non-thermal plasma penetrates into the metallic substrate (204, 404) and oxidizes the metallic substrate (204, 404) to form a metal oxide from the metal atoms of the metallic substrate; and the metal oxide is formed as a metal oxide layer (212, 412) comprising titanium oxide disposed directly on and attached to an underlying bulk metallic layer (216, 416) of the metallic substrate (204, 404), whereby the metal oxide layer (212, 412) is integral with the underlying bulk metallic layer (216, 416) of the metallic substrate (216, 416), such that the metal oxide layer promotes adhesive bonding.
Method for producing a PTFE-based coating on aluminium alloy moulds used for rubber vulcanization for tire production, wherein - the mould surface is degreased and decontaminated in a bath at a temperature of 50― 55 °C and a pH of 11.0 to 12.5 for 2-3 minutes, - rinsed in demineralized water at a temperature of 20―30 ° C, and wherein - the surface of the moulds is further coated in a bath containing up to 0.5% of hexafluorozirconium acid at a temperature of 25-30 °C and a pH of 4.8-5.2 for 1-2 minutes, followed by - rinsing in demineralized water at a temperature of 20―30 °C and - drying at a temperature of 110-115 °C for 20―25 minutes, characterized in that the PTFE-based coating comprises an aqueous-based polytetrafluoroethylene dispersion, ground TiO 2 particles in an amount of 0.5 to 50 % by volume and up to 5% of non-ionic surfactant, the mould is coated in a bath containing the PTFE-based coating composition at a temperature of 60-65 °C and a pH of 7.5-8.5 for 15-16 minutes, and it is dried without rinsing at temperature of 80-120 °C for 30-40 minutes to form a coating with a thickness of 20-25 μm. - the mould surface is degreased and decontaminated in a bath at a temperature of 50― 55 °C and a pH of 11.0 to 12.5 for 2-3 minutes, - rinsed in demineralized water at a temperature of 20―30 ° C, and wherein - the surface of the moulds is further coated in a bath containing up to 0.5% of hexafluorozirconium acid at a temperature of 25-30 °C and a pH of 4.8-5.2 for 1-2 minutes, followed by - rinsing in demineralized water at a temperature of 20―30 °C and - drying at a temperature of 110-115 °C for 20―25 minutes, characterized in that
Method for performing an analysis, identification and/or troubleshooting, preferably a remote maintenance, on a lifting platform of a heavy goods vehicle, wherein first a near-field connection, preferably a Bluetooth ® connection, is produced between at least one mobile communication means and a control unit of the lifting platform and identification data, verification data, operating parameters and/or error information data are interchanged between the communication means and the control unit, and these outbound data are transmitted to an electronic data processing network by the at least one mobile communication means via a far-field connection, and wherein the outbound data are taken as a basis for the data processing network to transmit inbound data directly back to the mobile communication means or for at least one network application to which the outbound data have previously been transmitted by the data processing network to transmit inbound data back to the mobile communication means, and wherein the interchange of the data between the lifting platform and the at least one mobile communication means is initialized by an operator or, in the event of a malfunction of the lifting platform, the data interchange between the lifting platform and the at least one mobile communication means is initialized automatically, and wherein pairing, i.e. the connection, between the lifting platform and the at least one mobile communication means is accomplished by entering a code into an operating unit of the lifting platform, the entered code being checked for validity by the operating unit of the lifting platform, and the operating unit using a protocol to activate the at least one mobile communication means if the validity check on the code is positive.
Control device for a power converter which has a plurality of power cells, each of which comprise at least one power semiconductor switch element (T1-T4) and a remote input/output (I/O) device for communication with a central control unit in order to receive information from the central control unit, including commands for switching the at least one power semiconductor switch element (T1-T4), and to transmit feedback information from the power cell to the central control unit, characterised in that the control device comprises: at least one multiplexer/demultiplexer device (36, 37) which has an uplink port (49, 49') for connection to the central control unit, several downlink ports (51, 51') for direct connection to a respective remote I/O device of an assigned power cell, and a communication control and management module (52, 52') which is configured to extract information concerning the respective power cells from a transmission frame received from the central control unit via the uplink port (49, 49') and supply this to the respective downlink port (51, 51') for the respective power cell, and insert feedback information obtained from the respective power cells in a reception frame and transmit this to the central control unit via the uplink port (49, 49'). at least one multiplexer/demultiplexer device (36, 37) which has an uplink port (49, 49') for connection to the central control unit, several downlink ports (51, 51') for direct connection to a respective remote I/O device of an assigned power cell, and a communication control and management module (52, 52') which is configured to extract information concerning the respective power cells from a transmission frame received from the central control unit via the uplink port (49, 49') and supply this to the respective downlink port (51, 51') for the respective power cell, and insert feedback information obtained from the respective power cells in a reception frame and transmit this to the central control unit via the uplink port (49, 49').
A polyethylene composition suitable for packaging applications comprising: (a) a first polyethylene fraction having a single peak in a temperature range of 40 °C to 75 °C in an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein a first polyethylene area fraction is an area in the elution profile beneath the single peak of the first polyethylene fraction between 40 and 75° C, and wherein the first polyethylene fraction area comprises from 45% to 65% of the total area of the elution profile; and (b) a second polyethylene fraction having at least one peak in a temperature range of 85 °C to 110 °C in the elution profile via iCCD analysis method, and wherein a second polyethylene area fraction is an area in the elution profile beneath the at least one peak of the second polyethylene fraction between 85°C and 110°C, and wherein the second polyethylene fraction area comprises from 15% to 35% of the total area of the elution profile; wherein the polyethylene composition has a density of 0.905 g/cm 3 to 0.918 g/cm 3, a melt index (I 2) of 0.7 g/10 minutes to 3.5 g/10 minutes, and wherein the composition has a melt index ratio (I 10 /I 2) that meets the following equation: I 10 /I 2 < 7.0 - 1.2 log (I 2). (a) a first polyethylene fraction having a single peak in a temperature range of 40 °C to 75 °C in an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein a first polyethylene area fraction is an area in the elution profile beneath the single peak of the first polyethylene fraction between 40 and 75° C, and wherein the first polyethylene fraction area comprises from 45% to 65% of the total area of the elution profile; and (b) a second polyethylene fraction having at least one peak in a temperature range of 85 °C to 110 °C in the elution profile via iCCD analysis method, and wherein a second polyethylene area fraction is an area in the elution profile beneath the at least one peak of the second polyethylene fraction between 85°C and 110°C, and wherein the second polyethylene fraction area comprises from 15% to 35% of the total area of the elution profile;
A harvesting machine for picking up crop material comprising a container having a closable filler connection for receiving a fluid (11, 12) which can be supplied by at least one supply system to crop material picked up by the harvesting machine, characterised in that the container has at least one further closable opening through which at least one additional container which can be filled with a fluid (11, 12) can be introduced into the container, the content of which can be mixed with the fluid (11, 12) in the container.