mhurhangee/ep-ind-claims huggingface dataset:
A polyurethane foam article comprising the reaction product of: an isocyanate component comprising an isocyanate prepolymer, said isocyanate prepolymer comprising the reaction product of: (i) a first polyether polyol; and (ii) a methylene diphenyl diisocyanate, said methylene diphenyl diisocyanate comprising: from 40% by weight to 60% by weight of 2,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; from 40% by weight to 60% by weight of 4,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; and less than 10% by weight of 2,2'-isomer based on the total weight of the methylene diphenyl diisocyanate; and an isocyanate-reactive composition comprising: (i) a second polyether polyol having secondary terminal hydroxyl groups; and (ii) an amine-initiated catalytic polyether polyol having primary hydroxyl groups; in the presence of a blowing agent. an isocyanate component comprising an isocyanate prepolymer, said isocyanate prepolymer comprising the reaction product of: (i) a first polyether polyol; and (ii) a methylene diphenyl diisocyanate, said methylene diphenyl diisocyanate comprising: from 40% by weight to 60% by weight of 2,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; from 40% by weight to 60% by weight of 4,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; and less than 10% by weight of 2,2'-isomer based on the total weight of the methylene diphenyl diisocyanate; and (i) a first polyether polyol; and (ii) a methylene diphenyl diisocyanate, said methylene diphenyl diisocyanate comprising: from 40% by weight to 60% by weight of 2,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; from 40% by weight to 60% by weight of 4,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; and less than 10% by weight of 2,2'-isomer based on the total weight of the methylene diphenyl diisocyanate; and from 40% by weight to 60% by weight of 2,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; from 40% by weight to 60% by weight of 4,4'-isomer based on the total weight of the methylene diphenyl diisocyanate; and less than 10% by weight of 2,2'-isomer based on the total weight of the methylene diphenyl diisocyanate; and an isocyanate-reactive composition comprising: (i) a second polyether polyol having secondary terminal hydroxyl groups; and (ii) an amine-initiated catalytic polyether polyol having primary hydroxyl groups; in the presence of a blowing agent. (i) a second polyether polyol having secondary terminal hydroxyl groups; and (ii) an amine-initiated catalytic polyether polyol having primary hydroxyl groups; in the presence of a blowing agent.
Method for the operation of a lifting platform system (19, 20, 21), in particular for several lifting platform systems (19, 20, 21) provided on a spatially limited installation surface, said lifting platform system (19, 20, 21) having at least two single-column lifting platforms (11, 22-28) each having a control unit and a loading handling attachment, wherein each control unit has a transmitter and a receiver and the method comprises the following steps: a) selection of a predetermined number of single-column lifting platforms (11, 22-28) for the formation of the lifting platform system (19, 20, 21), b) implementation of the single-column lifting platforms (11, 22-28) and configuration of the single-column lifting platforms (11, 22-28) to the lifting platform system (19, 20, 21) by setting up a radio connection on a radio channel between the control units of the single-column lifting platforms (11, 22-28), characterised in that the lifting platform system (19, 20, 21) is shifted into a standby mode after the configuration of the single-column lifting platforms (11, 22-28) or after the termination of an actuation process for lifting or lowering the load handling attachments of the single-column lifting platforms (11, 22-28), the receiver of each control unit being activated and the transmitter of each control unit being deactivated in said standby mode. a) selection of a predetermined number of single-column lifting platforms (11, 22-28) for the formation of the lifting platform system (19, 20, 21), b) implementation of the single-column lifting platforms (11, 22-28) and configuration of the single-column lifting platforms (11, 22-28) to the lifting platform system (19, 20, 21) by setting up a radio connection on a radio channel between the control units of the single-column lifting platforms (11, 22-28),
A computer-implemented method of determining a heading of a mobile device, comprising: spawning a plurality of clone processes, each clone process given an identical initial location and identical initial speed, and each clone process given a unique direction; and calculating, by each clone process, a respective position at the end of a frame period based on the identical initial location, the identical initial speed and unique direction; characterised in that the method further comprises: terminating clone processes whose position at the end of the frame period is outside a predetermined threshold, the terminating results in remaining clone processes, wherein terminating clone processes further comprises, for each clone process: determining a gap between the respective position and an obstacle identified by map data; and terminating each clone process whose gap is less than the predetermined threshold being a gap threshold; and determining the heading of the mobile device from the remaining clone processes. spawning a plurality of clone processes, each clone process given an identical initial location and identical initial speed, and each clone process given a unique direction; and calculating, by each clone process, a respective position at the end of a frame period based on the identical initial location, the identical initial speed and unique direction; terminating clone processes whose position at the end of the frame period is outside a predetermined threshold, the terminating results in remaining clone processes, wherein terminating clone processes further comprises, for each clone process: determining a gap between the respective position and an obstacle identified by map data; and terminating each clone process whose gap is less than the predetermined threshold being a gap threshold; and determining a gap between the respective position and an obstacle identified by map data; and terminating each clone process whose gap is less than the predetermined threshold being a gap threshold; and determining the heading of the mobile device from the remaining clone processes.
An apparatus comprising a cleaning rod arranged for cleaning a smelt spout and a smelt discharge opening of a chemicals recovery boiler, supported in a chassis frame, the chassis frame forming a swing that is pivotally supported about a pivot axis between the outer ends of two arms (8, 9), the arms extending in parallel, the apparatus further comprising a pivot actuation means (39; 41) acting on the swing and controllable for pivoting the swing and the cleaning rod about the axis, characterized in that a linear actuation means supported in the swing is operable for driving the cleaning rod in reciprocating, retraction and extension movements (x, y) respectively, in the axial direction of the cleaning rod, and wherein one or more sensors (40; 47-52) are arranged to provide control basis for correlation of the axial retraction movement (x) of the cleaning rod with the change in pivot angle (φ) of the cleaning rod during downwards pivoting of the cleaning rod upon cleaning the smelt spout.
An in vitro method of enhancing the activation of T-cytotoxic/suppressor lymphocytes in blood, said method comprising contacting the blood with an amount of modified citrus pectin having a molecular weight of under 40,000 daltons effective to increase T-cytotoxic/suppressor lymphocyte activation, as compared with the level of activation in the absence of administration of said MCP.
A catheter assembly (22, 122) in a liquid impermeable, vapor impermeable package containing a liquid, the catheter assembly comprising: a catheter (10, 110) having an insertable portion with a hydrophilic coating; a liquid impermeable, vapor permeable sleeve (12, 113) having an exterior and an interior and surrounding at least the insertable portion of the catheter (10, 110), the sleeve having a water vapor permeability of greater than about 300 g/m 2 /day and an exterior surface wherein a contact angle with water on the exterior surface of the sleeve is at or above about 100°; and whereby a vapor produced from the liquid within the package can pass from the exterior to the interior of the sleeve (12, 113) to hydrate the hydrophilic coating, and wherein the liquid in the package is isolated from the sleeve (12, 113) in a manner permitting the liquid to at least partially change phase to produce the vapor within the package. a catheter (10, 110) having an insertable portion with a hydrophilic coating; a liquid impermeable, vapor permeable sleeve (12, 113) having an exterior and an interior and surrounding at least the insertable portion of the catheter (10, 110), the sleeve having a water vapor permeability of greater than about 300 g/m 2 /day and an exterior surface wherein a contact angle with water on the exterior surface of the sleeve is at or above about 100°; and whereby a vapor produced from the liquid within the package can pass from the exterior to the interior of the sleeve (12, 113) to hydrate the hydrophilic coating, and wherein the liquid in the package is isolated from the sleeve (12, 113) in a manner permitting the liquid to at least partially change phase to produce the vapor within the package.
A compute device (204-1, 1240) for producing proactive notifications of data storage performance, the compute device comprising: one or more data storage devices; one or more processors; and one or more memory devices having stored therein a plurality of instructions that, when executed by the one or more processors, cause the compute device to: obtain key indicator data indicative of a performance condition associated with operations of the one or more data storage devices and an associated predefined threshold that, if satisfied, indicates the presence of a key indicator; obtain remedial action data indicative of a remedial action to be performed by the compute device in response to identification of the key indicator in telemetry data produced by the compute device during operation; analyze said telemetry data, produced by the compute device during operation, to determine whether the key indicator is present in the telemetry data; perform, in response to a determination that the key indicator is present, the predefined remedial action; and send a notification of the key indicator to a remote compute device. one or more data storage devices; one or more processors; and one or more memory devices having stored therein a plurality of instructions that, when executed by the one or more processors, cause the compute device to: obtain key indicator data indicative of a performance condition associated with operations of the one or more data storage devices and an associated predefined threshold that, if satisfied, indicates the presence of a key indicator; obtain remedial action data indicative of a remedial action to be performed by the compute device in response to identification of the key indicator in telemetry data produced by the compute device during operation; analyze said telemetry data, produced by the compute device during operation, to determine whether the key indicator is present in the telemetry data; perform, in response to a determination that the key indicator is present, the predefined remedial action; and send a notification of the key indicator to a remote compute device. obtain key indicator data indicative of a performance condition associated with operations of the one or more data storage devices and an associated predefined threshold that, if satisfied, indicates the presence of a key indicator; obtain remedial action data indicative of a remedial action to be performed by the compute device in response to identification of the key indicator in telemetry data produced by the compute device during operation; analyze said telemetry data, produced by the compute device during operation, to determine whether the key indicator is present in the telemetry data; perform, in response to a determination that the key indicator is present, the predefined remedial action; and send a notification of the key indicator to a remote compute device.
Method for managing, by a computer system on board a first motor vehicle, the operation of an adaptive cruise control of the first vehicle, the method comprising the steps of: i) determining whether a second motor vehicle located directly in front of the first vehicle was previously located directly in front of the first vehicle and whether a third motor vehicle located directly in front of the second vehicle was previously located directly in front of the second vehicle; and, when this is not the case, assign a zero value to a current consistency parameter, or, when this is the case, ii) determine the instantaneous speed of movement of the second vehicle; iii) determine the instantaneous speed of movement of the third vehicle; iv) determining a value of a speed divergence parameter as a function of the instantaneous speed of movement of the second vehicle and the instantaneous speed of movement of the third vehicle; v) determining a value of a variation parameter of a consistency indicator as a function of the value of the speed divergence parameter; vi) determine a value of the current consistency parameter as a function of the value of the variation parameter of a consistency indicator; And vii) manage the operation of the adaptive cruise control such that a set speed value that it takes into account is adapted according to the value of the speed divergence parameter and the value of the current coherence parameter; the management process being characterized in that step iv) comprises a step consisting of determining the difference between the instantaneous speed of movement of the third vehicle and the instantaneous speed of movement of the second vehicle and of dividing this difference by the instantaneous speed of movement of the second vehicle. i) determining whether a second motor vehicle located directly in front of the first vehicle was previously located directly in front of the first vehicle and whether a third motor vehicle located directly in front of the second vehicle was previously located directly in front of the second vehicle; and, when this is not the case, assign a zero value to a current consistency parameter, or, when this is the case, ii) determine the instantaneous speed of movement of the second vehicle; iii) determine the instantaneous speed of movement of the third vehicle; iv) determining a value of a speed divergence parameter as a function of the instantaneous speed of movement of the second vehicle and the instantaneous speed of movement of the third vehicle; v) determining a value of a variation parameter of a consistency indicator as a function of the value of the speed divergence parameter; vi) determine a value of the current consistency parameter as a function of the value of the variation parameter of a consistency indicator; And vii) manage the operation of the adaptive cruise control such that a set speed value that it takes into account is adapted according to the value of the speed divergence parameter and the value of the current coherence parameter; the management process being characterized in that
Control unit for a rail vehicle, wherein the control unit can be or is connected to a sensor device assigned to at least one roll damping device of the rail vehicle for the reception of transverse motion data and wherein the control unit is designed to detect a frictional connection between at least one wheel and a rail on the basis of received transverse motion data.
Method for optimizing the detection of marine targets by an airborne radar integrated into a carrier, characterized in that the detection being done for a given mission, said method includes: - A phase of analysing, learning and refreshing the environment, in which phase elements of influence on the sea clutter perceived by the radar are sought and stored in memory; - A phase of updating the path to be followed by said carrier depending on the requirements of said mission and said elements of influence issued from the result of said analysing phase, said path to be followed decreasing the power of the clutter received by the radar when said antenna is pointing towards a search zone liable to contain a target; said phases (1, 2) being repeated throughout said mission; one element of influence being the direction in which the antenna of said radar is pointing with respect to the wind direction, said wind direction is determined by detecting the direction in which the power of the signal backscattered by the sea is maximum during said phase of analysing the environment. - A phase of analysing, learning and refreshing the environment, in which phase elements of influence on the sea clutter perceived by the radar are sought and stored in memory; - A phase of updating the path to be followed by said carrier depending on the requirements of said mission and said elements of influence issued from the result of said analysing phase, said path to be followed decreasing the power of the clutter received by the radar when said antenna is pointing towards a search zone liable to contain a target;
A seal assembly system for a bulk bag, comprising: - a bag that stores a material, the bag includes an opening; the bag includes an inner layer and an outer layer; - a collar having a top end and a bottom end opposite thereto, an internal wall that defines a through passage that extends between the top end and the bottom end; the collar having a web on the bottom end; and wherein the seal assembly system is comprising a lid; characterized by the collar having: a lip on the top end; wherein the lid is configured to releaseably attach to the lip of the collar to provide a hermetic seal at the opening; wherein the web of the collar is integrated to the inner layer and the outer layer at the opening; and in that the inner layer is a foil laminate and the outer layer is a ribbon-woven structure made of polypropylene. - a bag that stores a material, the bag includes an opening; the bag includes an inner layer and an outer layer; - a collar having a top end and a bottom end opposite thereto, an internal wall that defines a through passage that extends between the top end and the bottom end; a lip on the top end; wherein the lid is configured to releaseably attach to the lip of the collar to provide a hermetic seal at the opening; wherein the web of the collar is integrated to the inner layer and the outer layer at the opening; and
Flexurally rigid corner construction for a support structure of a welt roof hall, for connecting a roof grid support of this welt roof hall in the grid support direction of the latter, and for connecting a system scaffold (50.1, 50.2) of this welt roof hall in the wall direction, wherein the corner construction has a first truss area running in the wall direction, and a second truss area running in the grid support direction, and wherein - the second truss area has an external belt element (14.1) having a welt profile and an internal belt element (14.2), and the spacing of the external belt element (14.1) and of the internal belt element (14.2) corresponds to the spacing of the upper belt (60.1) with the welt rail and the lower belt (60.2) of the roof grid support; and - the first truss area on the lower side has two connector elements (25.1, 25.2), the system spacing of the latter corresponding to the system width dimension of a system scaffold (50.1, 50.2), in particular a Layher Allround scaffold system or Layher Blitz Scaffold system, or a trackway rail construction, - characterized in that - the first and the second truss area (12, 14) each have a diagonal element (12.5, 14.5), the latter forming a continuous diagonal within the flexurally rigid corner construction that runs from the lower end region of the external belt element (12.1) of the first truss area to the upper end region of the belt element (14.1) of the second truss area. - the second truss area has an external belt element (14.1) having a welt profile and an internal belt element (14.2), and the spacing of the external belt element (14.1) and of the internal belt element (14.2) corresponds to the spacing of the upper belt (60.1) with the welt rail and the lower belt (60.2) of the roof grid support; and - the first truss area on the lower side has two connector elements (25.1, 25.2), the system spacing of the latter corresponding to the system width dimension of a system scaffold (50.1, 50.2), in particular a Layher Allround scaffold system or Layher Blitz Scaffold system, or a trackway rail construction, - characterized in that - the first and the second truss area (12, 14) each have a diagonal element (12.5, 14.5), the latter forming a continuous diagonal within the flexurally rigid corner construction that runs from the lower end region of the external belt element (12.1) of the first truss area to the upper end region of the belt element (14.1) of the second truss area.
Internal combustion engine with a compressor in the intake tract and an exhaust gas recirculation system, which comprises a recirculation line between the exhaust system branch and the intake tract, a secondary channel branching off from a main channel of the intake tract and bridging an adjustable actuator in the main channel, the secondary channel being connected with the compressor inlet area of the compressor, characterized in that an intake-air plenum, which is flow-connected with the compressor inlet area, is disposed downstream of the secondary channel, and that the recirculation line leads into the intake-air plenum.