mhurhangee/ep-ind-claims huggingface dataset:
Catching net for a catching device, in particular for catching unmanned flying objects with a catching region, which comprises several net meshes, which are formed by interconnected net threads (15, 15a, 15b) or net strands, a net frame, which surrounds the catching area and is connected to the net meshes, at least two weighting elements, which are connected to the net frame or are integrated into the net frame, wherein the catching net is configured such as to be fired from a catching device, wherein the catching net is tensioned in flight under the effect of the accelerated weighting elements, wherein the catching net comprises at least one absorption device (22, 24, 26), which is configured such that, when the catching region of the catching net comes in contact with an object which is to be caught, it at least partially absorbs the forces taking effect on the catching region due to the weighting elements, characterized in that the absorption device comprises at least one predetermined break point at the connection between a weighting element and the catching net. a catching region, which comprises several net meshes, which are formed by interconnected net threads (15, 15a, 15b) or net strands, a net frame, which surrounds the catching area and is connected to the net meshes, at least two weighting elements, which are connected to the net frame or are integrated into the net frame, wherein the catching net is configured such as to be fired from a catching device, wherein the catching net is tensioned in flight under the effect of the accelerated weighting elements, wherein the catching net comprises at least one absorption device (22, 24, 26), which is configured such that, when the catching region of the catching net comes in contact with an object which is to be caught, it at least partially absorbs the forces taking effect on the catching region due to the weighting elements, characterized in that the absorption device comprises at least one predetermined break point at the connection between a weighting element and the catching net.
A resistive-membrane touch panel comprising: a first sheet member having a first resistive membrane on a main surface thereof; a second sheet member that is flexible and has a second resistive membrane on a main surface thereof, the second sheet member being opposed to the first sheet member with a spacer interposed in between in such a manner that the second resistive membrane and the first resistive membrane face each other with a certain spacing therebetween; and a third sheet member that is laminated on an outer main surface of the second sheet member, wherein the third sheet member has a thermal contraction rate no lower than a thermal contraction rate of the second sheet member, characterised in that the second sheet member has a polarizing property and a thickness of the third sheet member is in a range of 50μm to 250μm. a first sheet member having a first resistive membrane on a main surface thereof; a second sheet member that is flexible and has a second resistive membrane on a main surface thereof, the second sheet member being opposed to the first sheet member with a spacer interposed in between in such a manner that the second resistive membrane and the first resistive membrane face each other with a certain spacing therebetween; and a third sheet member that is laminated on an outer main surface of the second sheet member, wherein the third sheet member has a thermal contraction rate no lower than a thermal contraction rate of the second sheet member, characterised in that the second sheet member has a polarizing property and a thickness of the third sheet member is in a range of 50μm to 250μm.
A method for mounting a switch body in a steering column anti-theft body, the anti-theft body comprising a housing configured to receive the switch body, wherein the switch body comprises at least a first attachment means and at least a first bayonet mounting means, and wherein the anti-theft body comprises at least a second attachment means and at least a second bayonet mounting means disposed at the housing, the method comprising steps for: - inserting the switch body into the housing of the anti-theft body along a housing longitudinal axis, - displacing the switch body into the housing such that the first and second attachment means cooperate together by clipping in order to fasten the switch to the anti-theft body, and the first and second bayonet mounting means cooperate together so as to prevent a displacement of the switch body out of the housing along the housing longitudinal axis, and the displacement step comprises pivoting the switch body in the housing about the switch longitudinal axis. - inserting the switch body into the housing of the anti-theft body along a housing longitudinal axis, - displacing the switch body into the housing such that the first and second attachment means cooperate together by clipping in order to fasten the switch to the anti-theft body, and the first and second bayonet mounting means cooperate together so as to prevent a displacement of the switch body out of the housing along the housing longitudinal axis, and
A method for producing milk foam, in particular for the preparation of drinks that contain milk foam in a coffee machine, a gaseous medium, in particular air, being able to be delivered to the milk being conveyed by a pump, and the milk/air mixture that is formed being conveyed to an outlet for milk foam or drinks containing milk foam, the milk foam that is produced having a specific consistency, which is determined and is monitored by a regulating process and/or can be changed by adjusting, whereby the temperature of the milk foam serves as parameter for the adjustment of the target value sensor, characterised in that the consistency of the milk foam that is produced is determined and is monitored by the regulating process and/or can be changed by this adjustment, whereby this is achieved by changing the pump speed.
An audio processor for providing a plurality of loudspeaker signals on the basis of a plurality of input signals, wherein the audio processor is configured to obtain an information about a position of a listener; wherein the audio processor is configured to obtain an information about positions of a plurality of loudspeakers; wherein the audio processor is configured to obtain an information about an orientation of the listener; wherein the audio signal processor is configured to dynamically allocate loudspeakers for playing back objects and/or channel objects and/or adapted signals derived from the input signals, in dependence on the information about the position of the listener and in dependence on the information about positions of the loudspeakers; wherein the audio signal processor is configured to render the objects and/or the channel objects and/or the adapted signals derived from the input signals, in dependence on the information about the position of the listener and in dependence on the information about positions of the loudspeakers, in order to obtain the loudspeaker signals such that a rendered sound follows the listener when the listener moves or turns; wherein the audio processor is configured to compute a position of objects and/or channel objects on the basis of information about the position and the orientation of the listener; characterised in that the audio processor is configured to dynamically allocate one or more loudspeakers for playing back the objects and/or channel objects, in dependence on the distances between the position of the objects and/or of the channel objects and the loudspeakers. wherein the audio processor is configured to obtain an information about a position of a listener; wherein the audio processor is configured to obtain an information about positions of a plurality of loudspeakers; wherein the audio processor is configured to obtain an information about an orientation of the listener; wherein the audio signal processor is configured to dynamically allocate loudspeakers for playing back objects and/or channel objects and/or adapted signals derived from the input signals, in dependence on the information about the position of the listener and in dependence on the information about positions of the loudspeakers; wherein the audio signal processor is configured to render the objects and/or the channel objects and/or the adapted signals derived from the input signals, in dependence on the information about the position of the listener and in dependence on the information about positions of the loudspeakers, in order to obtain the loudspeaker signals such that a rendered sound follows the listener when the listener moves or turns; wherein the audio processor is configured to compute a position of objects and/or channel objects on the basis of information about the position and the orientation of the listener; characterised in that the audio processor is configured to dynamically allocate one or more loudspeakers for playing back the objects and/or channel objects, in dependence on the distances between the position of the objects and/or of the channel objects and the loudspeakers.
Floor area element comprising a profile element made of light metal in particular by means of an extrusion process, wherein the profile element preferably comprises ribs arranged parallel to one another and forming a tread surface, characterised in that the ribs have depressions arranged perpendicular to the extension of the ribs, wherein the depressions are designed to have an edge at the transition from the upper side of the rib forming the tread surface into the depression.
An antibody which specifically binds to OSM and which inhibits the binding of OSM to the gp130 receptor but does not directly interact with site II residues and wherein the antibody comprises CDRH3 of SEQ ID NO.3 or a variant of SEQ ID NO.3 wherein Position 98 is substituted for Leu, and wherein the antibody comprises: i) CDRH2 as set out in SEQ ID NO. 2 ii) CDRL1 as set out in SEQ ID NO. 4 and iii) CDRL3 as set out in SEQ ID NO. 6: and wherein the antibody binds to both Marmoset and human OSM with an affinity stronger than 1nM when measured by Biacore or kinexa. i) CDRH2 as set out in SEQ ID NO. 2 ii) CDRL1 as set out in SEQ ID NO. 4 and iii) CDRL3 as set out in SEQ ID NO. 6:
Cooling arrangement for a WHR-system in a vehicle, wherein the cooling system comprises a first cooling circuit including a first radiator in which a circulating coolant is cooled to a first temperature (T 1), a second cooling circuit including a second radiator in which a circulating coolant is cooled to a second temperature (T 2) which is lower than the first temperature (T 1), and a third cooling circuit including a third radiator in which the coolant is cooled to a third temperature (T 3) which is lower than the second temperature (T 2), characterised in that the cooling arrangement comprises a condenser inlet line directing coolant from the second radiator to a condenser of the WHR-system where the coolant cools a working medium of the WHR-system and cooling adjusting means (13, 16, 24, 38) by which it is possible to adjust the temperature and/or the flow of the coolant in the second cooling circuit to the condenser by means of coolant in the first cooling circuit and/or the coolant in the third cooling circuit, a sensor sensing a parameter related to the cooling of the working medium in the condenser, and a control unit configured to receive information about said parameter, to estimate a suitable cooling of the working medium in the condenser and to control the cooling adjusting means (13, 16, 24, 38) such that the coolant in the condenser inlet line provides said estimated cooling of the working medium in the condenser.
A method of controlling paging for a plurality of devices capable of wireless communication, the method comprising: receiving (104, 106) at a device of the plurality of devices a paging type indication indicative of a group paging or a dedicated paging; and in response to the paging type indication, causing calculation of paging locations in received frames according to a group paging mode or a dedicated paging mode in a predetermined manner, characterized in that, the method further comprising one of following: communicating an indication of group paging from a mobility management entity to a station serving the plurality of devices, and in response thereto, switching the station in the group paging mode; or configuring the station serving the plurality of devices to the group paging mode by means of operations, administration and maintenance apparatus.
A drill pipe having an elongate tubular body with an interior surface enclosing a main bore which extends generally parallel to a longitudinal axis of the tubular body from a first end to a second end of the tubular body, a side port provided in an exterior surface of the tubular body, a side bore extending through the body from the main bore to the side port, and a valve assembly (20, 22) which is operable to substantially prevent flow of fluid along the main bore and to substantially prevent flow of fluid along the side bore, wherein the valve assembly (20, 22), side port and side bore are provided in a first connection portion of the drill pipe at the first end thereof characterised in that, the first connection portion comprises a thickened portion of the tubular body in which the separation of the interior surface and the exterior surface is substantially greater than the adjacent portion of the tubular body, wherein the length of the connection portion parallel to the longitudinal axis of the tubular body is less than 64 cm.
A method, comprising: calculating a degree of significance of nodes in a network, respectively, based on one or more significance factors; determining one or more significant nodes based on the calculated degree of significance; determining a nodal region in the network of deteriorated network health; and correlating the nodal region of deteriorated network health with a significant node of the one or more significant nodes. calculating a degree of significance of nodes in a network, respectively, based on one or more significance factors; determining one or more significant nodes based on the calculated degree of significance; determining a nodal region in the network of deteriorated network health; and correlating the nodal region of deteriorated network health with a significant node of the one or more significant nodes.
A method of separating a strengthened glass sheet, the method comprising: a. providing the strengthened glass sheet, the strengthened glass sheet having a first surface and a second surface, wherein each of the first surface and second surface has a strengthened surface layer under a compressive stress and extending from the surface to a depth of layer, and a central region under a tensile stress; b. forming at least one damage line in the central region, wherein the at least one damage line is formed by irradiating the strengthened glass sheet with a laser that operates in the window of transparency of the glass transmission spectrum in a way that nonlinear absorption creates the at least one damage line while the bulk of the strengthened glass sheet experiences no excessive heating, wherein the at least one damage line is formed by irradiating the glass sheet with a nanosecond pulsed laser having a power in the range from 1 W up to 3 W; and c. initiating and propagating a crack to separate the glass sheet along the at least one damage line into at least two pieces, wherein at least one of the pieces has at least one of a predetermined shape and a predetermined dimension. a. providing the strengthened glass sheet, the strengthened glass sheet having a first surface and a second surface, wherein each of the first surface and second surface has a strengthened surface layer under a compressive stress and extending from the surface to a depth of layer, and a central region under a tensile stress; b. forming at least one damage line in the central region, wherein the at least one damage line is formed by irradiating the strengthened glass sheet with a laser that operates in the window of transparency of the glass transmission spectrum in a way that nonlinear absorption creates the at least one damage line while the bulk of the strengthened glass sheet experiences no excessive heating, wherein the at least one damage line is formed by irradiating the glass sheet with a nanosecond pulsed laser having a power in the range from 1 W up to 3 W; and c. initiating and propagating a crack to separate the glass sheet along the at least one damage line into at least two pieces, wherein at least one of the pieces has at least one of a predetermined shape and a predetermined dimension.
Method for obtaining a mosaic tile product comprising tiles arranged and mutually joined in an irreversible fashion to form a panel, the method comprising: - preparing said panel with said tiles exposed on their back faces; - providing a backing netting in a wire-like material adapted to be superimposed to said tiles in connection with all of them, leaving on the back faces an exposed surface area of at least 70% the size area of the tiles; - spreading over said netting a distribution of PVC plasticizer in a liquid state; - joining said PVC glued netting to said tiles over the back faces; - processing the compound thus obtained in at least one curing step of the PVC plasticizer and at least one pressing step of the netting against the tiles. - preparing said panel with said tiles exposed on their back faces; - providing a backing netting in a wire-like material adapted to be superimposed to said tiles in connection with all of them, leaving on the back faces an exposed surface area of at least 70% the size area of the tiles; - spreading over said netting a distribution of PVC plasticizer in a liquid state; - joining said PVC glued netting to said tiles over the back faces; - processing the compound thus obtained in at least one curing step of the PVC plasticizer and at least one pressing step of the netting against the tiles.
A system for determining a patient-ventilator breath contribution index (PVBC) in a spontaneously breathing, mechanically ventilated patient, comprising: - a first detector of electrical activity (EAdi) of a patient's respiratory muscle during inspiration without or with reduced mechanical ventilatory assist and with mechanical ventilatory assist; - a second detector (40, 42) of a patient's inspiratory volume (Vt) without or with reduced mechanical ventilatory assist and with mechanical ventilatory assist; and - a calculator (36, 64, 76, 78) determining a patient's efficiency to generate an inspiratory volume (Vt) without or with reduced mechanical ventilatory assist as a first ratio between the detected patient's inspiratory volume (Vt) without or with reduced mechanical ventilatory assist and the detected electrical activity (EAdi) of the patient's respiratory muscle during inspiration and without or with reduced mechanical ventilatory assist, wherein when the measurement is done with reduced mechanical ventilatory assist, a linear or non-linear prediction model is used to estimate what the reduction in diaphragm electrical activity (EAdi) and inspiratory volume (Vt) would have been at the zero level or PEEP level and thereby determining the first ratio; said calculator (36, 64, 76, 78) determining further a patient's efficiency to generate an inspiratory volume (Vt) with mechanical ventilatory assist as a second ratio between the detected patient's inspiratory volume (Vt) with mechanical ventilatory assist and the detected electrical activity (EAdi) of the patient's respiratory muscle during inspiration and with mechanical ventilatory assist; and the patient-ventilator breath contribution index as a third ratio between the calculated patient's efficiency to generate an inspiratory volume without or with reduced mechanical ventilatory assist and the calculated patient's efficiency to generate an inspiratory volume with mechanical ventilatory assist. - a first detector of electrical activity (EAdi) of a patient's respiratory muscle during inspiration without or with reduced mechanical ventilatory assist and with mechanical ventilatory assist; - a second detector (40, 42) of a patient's inspiratory volume (Vt) without or with reduced mechanical ventilatory assist and with mechanical ventilatory assist; and - a calculator (36, 64, 76, 78) determining a patient's efficiency to generate an inspiratory volume (Vt) without or with reduced mechanical ventilatory assist as a first ratio between the detected patient's inspiratory volume (Vt) without or with reduced mechanical ventilatory assist and the detected electrical activity (EAdi) of the patient's respiratory muscle during inspiration and without or with reduced mechanical ventilatory assist, wherein when the measurement is done with reduced mechanical ventilatory assist, a linear or non-linear prediction model is used to estimate what the reduction in diaphragm electrical activity (EAdi) and inspiratory volume (Vt) would have been at the zero level or PEEP level and thereby determining the first ratio;
A conductive assembly, comprising: a heating element or antenna; an airfoil having an aerodynamic surface; a connector base forming a pathway from the interior of the airfoil to the aerodynamic surface; and further characterized by a floating center disposed inside the connector base and held in place by a retainer ring, wherein in an intermediate structure, the floating center is able to move in the x and y directions but is immobilized in the z-direction which is a direction normal to the airfoil surface; wherein the x, y, and z directions are mutually perpendicular; wherein an electrical conductor is disposed within the floating center and wherein the floating center completes the electrical connection from the interior of the airfoil to the heating element or antenna. a heating element or antenna; an airfoil having an aerodynamic surface; a connector base forming a pathway from the interior of the airfoil to the aerodynamic surface; and further characterized by a floating center disposed inside the connector base and held in place by a retainer ring, wherein in an intermediate structure, the floating center is able to move in the x and y directions but is immobilized in the z-direction which is a direction normal to the airfoil surface; wherein the x, y, and z directions are mutually perpendicular; wherein an electrical conductor is disposed within the floating center and wherein the floating center completes the electrical connection from the interior of the airfoil to the heating element or antenna.
A process for homogenizing and pelletizing a polyethylene composition comprising the steps of a) providing a polyethylene composition having a density of from 0.90 g/cm 3 to 0.97 g/cm 3 and a melt flow rate MFR 21.6 at 190°C under a load of 21.6 kg of from 1 g/10 min to 50 g/10 min, wherein the polyethylene composition is bimodal or multimodal; b) melting the polyethylene composition; c) passing the melt through a combination of screens consisting of screens having a mesh opening of at least 205 μm and comprising at least two screens having a mesh opening of from 205 μm to 350 μm; and e) pelletizing the molten polyethylene composition. a) providing a polyethylene composition having a density of from 0.90 g/cm 3 to 0.97 g/cm 3 and a melt flow rate MFR 21.6 at 190°C under a load of 21.6 kg of from 1 g/10 min to 50 g/10 min, wherein the polyethylene composition is bimodal or multimodal; b) melting the polyethylene composition; c) passing the melt through a combination of screens consisting of screens having a mesh opening of at least 205 μm and comprising at least two screens having a mesh opening of from 205 μm to 350 μm; and e) pelletizing the molten polyethylene composition.