mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine turbine blade , intended to be mounted around an axis of rotation , including a platform and a vane extending in a radial direction relative to the axis of rotation , going radially from the inside to the outside away from the platform and ending in a top (S), the vane comprising a leading edge (BA) and a trailing edge (BF), the trailing edge (BF) being located downstream of the leading edge (BA), and the vane comprising a lower surface wall and an upper surface wall each connecting the leading edge (BA) to the trailing edge (BF), the lower surface wall and the upper surface wall being connected to each other at the trailing edge (BF) by a trailing edge fillet , the blade including a cooling cavity supplying cooling flow to a plurality of cooling outlets emerging onto the trailing edge (BF), the cooling outlets being provided along the trailing edge (BF), on one of the lower surface and upper surface walls, between the platform and the top (S), two radially adjacent cooling outlets being delimited by a rib extending between an upstream end , located radially between the two radially adjacent cooling outlets , and a downstream end , which emerges onto the trailing edge (BF), characterised in that at least one cooling hole is formed in the thickness of at least one rib , between the upstream end and the downstream end , and/or at least one cooling hole , having a cylindrical portion, is formed in the thickness of a portion (Po) of the trailing edge fillet in the axial extension of at least one rib , downstream of the downstream end , so as to ensure fluid communication for a cooling flow between the inside and the outside of the blade for cooling said at least one rib .
Tray for housing containers, comprising a containing body (11; 11') provided with lateral walls (13, 14; 13', 14') and at least a bottom wall (12; 12'), wherein said housing tray comprises support elements integral with said lateral walls (13, 14; 13', 14') and said bottom wall (12; 12') of the containing body (11; 11') and formed by flaps that are made in a single body with said lateral walls (13, 14; 13', 14') and respectively said bottom wall (12; 12') and that extend transversely with respect to said lateral walls (13, 14; 13', 14') and respectively said bottom wall (12; 12') so as to be distanced from said lateral walls (13, 14; 13', 14') and from said bottom wall (12; 12') to form a plurality of holding seatings , each of which is configured to house and hold individually a respective container , said seatings being present, both in an essentially central zone, and also in lateral zones, substantially on the whole bottom wall , in order to hold, stably and each in its own specific seating , each individual container , substantially exploiting the whole surface of said bottom wall , and wherein the plurality of seatings are disposed on at least two rows, characterized in that at least one seating is formed between at least two arcuate parts of two support elements positioned consecutive along said bottom wall and at least one seating is formed between at least one arcuate part of one of said support elements and at least one of said lateral walls (13, 13' 14, 14').
Wire consisting of platinum group metals for producing grid catalysts, containing at least platinum and rhodium, characterized in that the wire is made as a sheath wire and consists of a core and one or more sheaths arranged one over the other outwards from the core in a radially symmetrical manner, and the rhodium concentration in the outermost sheath is lower than the rhodium concentration in the • core, if the sheath wire consists only of a core and a sheath, or • sheath, if the sheath wire consists of a core and two or more sheaths, arranged directly under the outermost sheath, and the rhodium concentration in the outermost sheath is 1 wt.% to 3 wt.%, and the rhodium concentration in the sheath or core arranged under the outermost sheath is in the range of 5 wt. % to 20 wt.%, preferably in the range of 8 wt.% to 12 wt.%, and the thickness of the outermost sheath is 1 μm to 10 μm, preferably 1 μm to 5 μm. • core, if the sheath wire consists only of a core and a sheath, or • sheath, if the sheath wire consists of a core and two or more sheaths, arranged directly under the outermost sheath, and the rhodium concentration in the outermost sheath is 1 wt.% to 3 wt.%, and the rhodium concentration in the sheath or core arranged under the outermost sheath is in the range of 5 wt. % to 20 wt.%, preferably in the range of 8 wt.% to 12 wt.%, and the thickness of the outermost sheath is 1 μm to 10 μm, preferably 1 μm to 5 μm.
Method for detecting a sequence of rotational speed/torque fluctuations of a drive device, wherein the drive device comprises at least one internal combustion engine and a torsional oscillation influencing device, wherein for detection of rotational speed/torque fluctuations the actual rotational speed of the torsional oscillation influencing device is determined, and wherein - a local rotational speed minimum and a local rotational speed maximum are detected, and wherein - the local rotational speed minimum and the local rotational speed maximum are evaluated under formation of a local amplitude and a local frequency as local rotational speed characteristic values, characterized by the following method steps: - determining the duration of a local oscillation period, wherein within this period the local rotational speed characteristic values are in an oscillation tolerance range, wherein this oscillation tolerance range is related to a tolerance basis, wherein this tolerance basis is related to the first determined local amplitude/frequency of a local oscillation pattern, wherein the oscillation tolerance range is a range which is limited by two tolerance threshold values, wherein one of these threshold values, related to the tolerance basis, is 25%, preferably 10% and more preferably 3% larger than this and the further one of these threshold values is 25%, preferably 10% and more preferably 3% smaller than this, - describing a local oscillation pattern, which comprises the duration of the local oscillation period, the local amplitude and the local frequency, and - comparing the local oscillation pattern with predetermined comparison oscillation patterns, wherein, by this comparison, a categorization of this oscillation pattern is facilitated. - a local rotational speed minimum and a local rotational speed maximum are detected, and wherein - the local rotational speed minimum and the local rotational speed maximum are evaluated under formation of a local amplitude and a local frequency as local rotational speed characteristic values, - determining the duration of a local oscillation period, wherein within this period the local rotational speed characteristic values are in an oscillation tolerance range, wherein this oscillation tolerance range is related to a tolerance basis, wherein this tolerance basis is related to the first determined local amplitude/frequency of a local oscillation pattern, wherein the oscillation tolerance range is a range which is limited by two tolerance threshold values, wherein one of these threshold values, related to the tolerance basis, is 25%, preferably 10% and more preferably 3% larger than this and the further one of these threshold values is 25%, preferably 10% and more preferably 3% smaller than this, - describing a local oscillation pattern, which comprises the duration of the local oscillation period, the local amplitude and the local frequency, and - comparing the local oscillation pattern with predetermined comparison oscillation patterns, wherein, by this comparison, a categorization of this oscillation pattern is facilitated.
A method for managing device trigger action requests, comprising: receiving , at a network entry point node , a Device-Action Request command from an external services capability server with an action type attribute value pair set to indicate a new device trigger action request for performing a replacement of on another old device trigger request; and determining , by the network entry point node , a status of the old device trigger request from the external services capability server ; sending, by the network entry point node , a response message to the external services capability server indicating status of the new device trigger action request; causing, by the network entry point node , a replacement of the old device trigger request in accordance with the new device trigger action request comprised in the Device-Action Request command ; and sending from the network entry point node to a store and forward center , based on the Device-Action Request command , a submit trigger replace request including an old device trigger reference number for identifying the old device trigger request and a new trigger reference number identifying a substitute trigger request. receiving , at a network entry point node , a Device-Action Request command from an external services capability server with an action type attribute value pair set to indicate a new device trigger action request for performing a replacement of on another old device trigger request; and determining , by the network entry point node , a status of the old device trigger request from the external services capability server ; sending, by the network entry point node , a response message to the external services capability server indicating status of the new device trigger action request; causing, by the network entry point node , a replacement of the old device trigger request in accordance with the new device trigger action request comprised in the Device-Action Request command ; and sending from the network entry point node to a store and forward center , based on the Device-Action Request command , a submit trigger replace request including an old device trigger reference number for identifying the old device trigger request and a new trigger reference number identifying a substitute trigger request.
Motor vehicle lighting device with a lamp module fulfilling a signal light function, which has an elongated light guide extending along a guide line (x), which has a front side extending along the guide line (x), a rear side opposite the front side and lateral surfaces lying between the front side and the rear side , and which has first partial surfaces arranged in the rear side , which define a light-conducting volume of the light guide and which are arranged tilted with respect to the guide line (x) of the light guide at a first angle of attack (a), and that the light guide has second partial surfaces which define a light-conducting protrusion of the light guide protruding from a surface of the light guide and which are arranged tilted with respect to a longitudinal direction of the light guide at a second angle of attack (b), wherein the second angle of attack (b) is greater than the first angle of attack (a) and in particular is so large that light incident on the second partial surfaces from the interior of the light guide , which light is incident on the second partial surfaces from the same direction as light incident on the first partial surfaces from the interior of the light guide , which light still undergoes total internal reflections there, emerges directly from the respective second partial surface , characterised in that the surface of the light guide, from which the light-conducting protrusion protrudes, is a lateral surface of the light guide , and that the lamp module has a reflector which is arranged in the light path of the light directly emitted via the second partial surface and is designed to direct this light through the light guide or past the light guide , and that the front side of the light guide is convexly curved in its plane perpendicular to its guide line (x).
A method for determining the coagulation time of a blood sample to be analyzed, comprising the following steps: - providing a reaction cuvette containing the blood sample to be analyzed , the reaction cuvette comprising a bottom delimiting a concave raceway whose concavity is directed upwards, - placing a ferromagnetic ball on the raceway of the reaction cuvette , - subjecting the ferromagnetic ball to a magnetic field so as to displace the ferromagnetic ball along the raceway in an oscillatory movement, - exposing the blood sample to be analyzed to an incident light beam configured to be at least partially obscured by the ferromagnetic ball during at least one part of the oscillatory movement of the ferromagnetic ball along the raceway , - detecting at least one light beam transmitted through the reaction cuvette and coming from the incident light beam so as to provide a measurement signal (S M ), characterized in that it comprises: - carrying out a first processing of the measurement signal (S M ) so as to provide a first signal (S1) representative of the variation of at least one physical quantity representative of the movement of the ferromagnetic ball , - carrying out a second processing of the measurement signal (S M ) so as to provide a second signal (S2) representative of the variation of at least one optical property of the blood sample to be analyzed, - determining a first value (t1) of the coagulation time of the blood sample to be analyzed from the first signal, and - determining a second value (t2) of the coagulation time of the blood sample to be analyzed from the second signal. - providing a reaction cuvette containing the blood sample to be analyzed , the reaction cuvette comprising a bottom delimiting a concave raceway whose concavity is directed upwards, - placing a ferromagnetic ball on the raceway of the reaction cuvette , - subjecting the ferromagnetic ball to a magnetic field so as to displace the ferromagnetic ball along the raceway in an oscillatory movement, - exposing the blood sample to be analyzed to an incident light beam configured to be at least partially obscured by the ferromagnetic ball during at least one part of the oscillatory movement of the ferromagnetic ball along the raceway , - detecting at least one light beam transmitted through the reaction cuvette and coming from the incident light beam so as to provide a measurement signal (S M ), - carrying out a first processing of the measurement signal (S M ) so as to provide a first signal (S1) representative of the variation of at least one physical quantity representative of the movement of the ferromagnetic ball , - carrying out a second processing of the measurement signal (S M ) so as to provide a second signal (S2) representative of the variation of at least one optical property of the blood sample to be analyzed, - determining a first value (t1) of the coagulation time of the blood sample to be analyzed from the first signal, and - determining a second value (t2) of the coagulation time of the blood sample to be analyzed from the second signal.
An aluminum chlorohydrate salt which comprises arginine and wherein the aluminum chlorohydrate salt has (i) an amount of Peak 1 material relative based on a total of Peaks 3, 4, and 5 of at least 20%, as measured by size exclusion chromatography, or (ii) an amount of Peak 1 material relative based on a total of Peaks 1, 2, 3, 4, and 5 of at least 17%, as measured by size exclusion chromatography. (i) an amount of Peak 1 material relative based on a total of Peaks 3, 4, and 5 of at least 20%, as measured by size exclusion chromatography, or (ii) an amount of Peak 1 material relative based on a total of Peaks 1, 2, 3, 4, and 5 of at least 17%, as measured by size exclusion chromatography.
A method for reducing lateral powder waste of a layer (M) of powder material which advances on a mobile conveyor surface, the powder layer having a transversal section having a generally isosceles trapezium shape with two lateral edges having a decreasing thickness which diminishes mainly in accordance with the angle of friction of the powder, and two lateral walls provided for containing the layer of powder, the walls being perpendicular to the mobile surface and parallel to the advancement direction, wherein the walls are located internally of the reducing edge so as to divide the edge into two parts having substantially the same transversal dimension, and in that the powder which during the advancing of the layer (M) is external of the walls is transferred into a space afforded between the walls in proximity of the walls.
A modular air conditioning system, comprising: a plurality of transportable cooling modules , each cooling module comprising a plurality of phase change material (PCM) packs in a thermally insulated housing with spaces between the PCM packs forming channels for the flow of air from an air inlet of the housing to an air outlet of the housing ; a transportable control module having a housing with an inlet and a plurality of air outlets and a pump for causing, in use, the flow of air from the air inlet to each of the air outlets, and means for linking the transportable control module to said transportable cooling modules, wherein, in use, each air outlet of the control module is connected to the air inlet of a respective cooling module , such that the flow of air from the air inlet of the cooling module to the air outlet of the cooling module is caused by the pump of the control module . a plurality of transportable cooling modules , each cooling module comprising a plurality of phase change material (PCM) packs in a thermally insulated housing with spaces between the PCM packs forming channels for the flow of air from an air inlet of the housing to an air outlet of the housing ; a transportable control module having a housing with an inlet and a plurality of air outlets and a pump for causing, in use, the flow of air from the air inlet to each of the air outlets, and means for linking the transportable control module to said transportable cooling modules, wherein, in use, each air outlet of the control module is connected to the air inlet of a respective cooling module , such that the flow of air from the air inlet of the cooling module to the air outlet of the cooling module is caused by the pump of the control module .
A lubrication system for a fan drive planetary gear system comprising: a shaft ; a stationary first bearing configured to receive a lubricant from a lubricant input, wherein the stationary first bearing is located adjacent the shaft ; a second bearing configured to rotate with the shaft , wherein the first bearing engages the second bearing and is configured to transfer the lubricant from the first bearing to the second bearing and into at least one fluid passage in the shaft , and the first bearing and the second bearing are disposed about a rotational axis (A); and a conduit fluidly connecting the at least one passage in the shaft with at least one component on the fan drive gear system , characterised in that : the conduit is parallel to the rotational axis (A); the conduit is flexible; the shaft is a fan drive shaft; and the second bearing is fixedly attached to the fan drive shaft . a stationary first bearing configured to receive a lubricant from a lubricant input, wherein the stationary first bearing is located adjacent the shaft ; a second bearing configured to rotate with the shaft , wherein the first bearing engages the second bearing and is configured to transfer the lubricant from the first bearing to the second bearing and into at least one fluid passage in the shaft , and the first bearing and the second bearing are disposed about a rotational axis (A); and a conduit fluidly connecting the at least one passage in the shaft with at least one component on the fan drive gear system , characterised in that : the conduit is parallel to the rotational axis (A); the conduit is flexible; the shaft is a fan drive shaft; and the second bearing is fixedly attached to the fan drive shaft . the conduit is parallel to the rotational axis (A); the conduit is flexible; the shaft is a fan drive shaft; and the second bearing is fixedly attached to the fan drive shaft .
A rear corner element (1;1') for a roll-up truck bed cover , the rear corner element (1;1') has a mounting part (3;3') and a cover part (2;2'), the mounting part (3;3') has - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed , - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and at least one rainwater diverting channel and/or chamber extending lengthwise of the mounting part (3;3') from the at least one rainwater inlet towards the first rear end part (6;6') characterized in that the rear corner element (1;1') guides rainwater that gathers in the coupling rail from above and from the top face of the truck bed cover out along a rear end wall of the truck bed . the mounting part (3;3') has - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed , - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed , - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and at least one rainwater diverting channel and/or chamber extending lengthwise of the mounting part (3;3') from the at least one rainwater inlet towards the first rear end part (6;6') characterized in that the rear corner element (1;1') guides rainwater that gathers in the coupling rail from above and from the top face of the truck bed cover out along a rear end wall of the truck bed .
A dental gypsum powder, comprising: a hemihydrate gypsum; and a water reducing agent, wherein a mass ratio of the water reducing agent to the hemihydrate gypsum is not less than 0.1% and not more than 1%, and wherein, when a particle size distribution of the dental gypsum powder is measured on a volume basis in the manner disclosed in the description, the content of particles having a particle size of 10 μm or less is not less than 15% by volume and not more than 30% by volume, the content of particles having a particle size of 20 μm or less is not less than 45% by volume and not more than 55% by volume, and the content of particles having a particle size of 30 μm or less is not less than 58% by volume and not more than 72% by volume. a hemihydrate gypsum; and a water reducing agent, wherein a mass ratio of the water reducing agent to the hemihydrate gypsum is not less than 0.1% and not more than 1%, and wherein, when a particle size distribution of the dental gypsum powder is measured on a volume basis in the manner disclosed in the description, the content of particles having a particle size of 10 μm or less is not less than 15% by volume and not more than 30% by volume, the content of particles having a particle size of 20 μm or less is not less than 45% by volume and not more than 55% by volume, and the content of particles having a particle size of 30 μm or less is not less than 58% by volume and not more than 72% by volume.