mhurhangee/ep-ind-claims huggingface dataset:
A cellulose-reinforced polypropylene resin composite material, wherein it comprises, relative to the total weight of the cellulose-reinforced polypropylene resin composite material: 65 wt% to 85 wt% of polypropylene resin; 10 wt% to 20 wt% of a cellulose filler; and 1 wt% to 10 wt% of dyed rayon, wherein the color of the dyed rayon is different from that of the polypropylene resin, the cellulose filler is white or light colored without dyeing, the cellulose filler has a diameter ranging from 40 to 60 μm, and a length ranging from 0.7 to 1 mm, the dyed rayon has a diameter ranging from 10 to 20 μm, and a length ranging from 0.3 to 0.8 mm. 65 wt% to 85 wt% of polypropylene resin; 10 wt% to 20 wt% of a cellulose filler; and 1 wt% to 10 wt% of dyed rayon, wherein the color of the dyed rayon is different from that of the polypropylene resin, the cellulose filler is white or light colored without dyeing, the cellulose filler has a diameter ranging from 40 to 60 μm, and a length ranging from 0.7 to 1 mm, the dyed rayon has a diameter ranging from 10 to 20 μm, and a length ranging from 0.3 to 0.8 mm.
Process for building tyres comprising: arranging a carcass sleeve in a shaping work station; toroidally shaping said carcass sleeve and coupling it to a radially expandable/contractible toroidal forming drum defining a tyre being processed; moving said forming drum along a closed-loop completion path having an initial work station and a final work station coinciding with said shaping work station; building, along said closed-loop completion path, each component of a corresponding crown structure of the tyre being processed in radially external position with respect to the aforesaid tyre being processed, obtaining a green tyre, said crown structure being at least the set formed by a belt structure and tread band; decoupling said green tyre from said forming drum; picking up said green tyre. arranging a carcass sleeve in a shaping work station; toroidally shaping said carcass sleeve and coupling it to a radially expandable/contractible toroidal forming drum defining a tyre being processed; moving said forming drum along a closed-loop completion path having an initial work station and a final work station coinciding with said shaping work station; building, along said closed-loop completion path, each component of a corresponding crown structure of the tyre being processed in radially external position with respect to the aforesaid tyre being processed, obtaining a green tyre, said crown structure being at least the set formed by a belt structure and tread band; decoupling said green tyre from said forming drum; picking up said green tyre.
A water-in-oil emulsion which comprises as an effective ingredient a peptide having an amino acid sequence of Cys Tyr Thr Trp Asn Gln Met Asn Leu (SEQ ID NO: 3) that induces CTL recognizing the wild type WT1 peptide in an HLA-A24 restricted manner; wherein the emulsion is in a dosage unit form that comprises 0.1 to 100 mg of the peptide.
Adjustable camshaft with a hollow outer shaft and with an inner shaft received rotatably in the outer shaft, wherein the inner shaft comprises a cavity which can be charged with oil, and wherein at least one first radial aperture is formed in the outer shaft and at least one second radial aperture is formed in the inner shaft, such that, when the first radial aperture overlaps the second radial aperture, oil can flow between the cavity and the outer side of the outer shaft, wherein the second radial aperture comprises a larger cross section on the outer side of the inner shaft than on the inner side of the inner shaft, characterized in that - the first radial aperture comprises a larger cross section on the inner side of the outer shaft than on the outer side of the outer shaft. - the first radial aperture comprises a larger cross section on the inner side of the outer shaft than on the outer side of the outer shaft.
A method for recovering energy comprising the steps of: a) Providing a hot fluid stream; b) Thermally contacting the hot fluid stream with a first heat transfer fluid in a first heat exchanger, thereby transferring heat from the hot fluid stream to the first heat transfer fluid and obtaining a heated first heat transfer fluid having a temperature T 1 and a pressure p 1; c) Subjecting the heated first heat transfer fluid to 2 to 5, preferably 2 to 4, most preferably 2 or 3 compressing steps to obtain a compressed first heat transfer fluid having a pressure p 2; d) Thermally contacting the compressed first heat transfer fluid with an aqueous condensate in a second heat exchanger, thereby transferring heat from the compressed first heat transfer fluid to the aqueous condensate and vaporizing the aqueous condensate to obtain a steam stream; e) Using the steam stream for energy recovery thereby obtaining a stream comprising an aqueous condensate; wherein - the ratio of pressure p 2 to pressure pi, p 2 /p 1, is 5 to 50; and - the steam stream used for energy recovery has temperature T s is in the range of from 120 to 200°C, preferably from 130 to 170°C, more preferably from 135 to 150°C and pressure p s is in the range of from 2.0 to 15.5 barg, preferably from 2.7 to 7.9 barg, more preferably from 3.1 to 4.8 barg. a) Providing a hot fluid stream; b) Thermally contacting the hot fluid stream with a first heat transfer fluid in a first heat exchanger, thereby transferring heat from the hot fluid stream to the first heat transfer fluid and obtaining a heated first heat transfer fluid having a temperature T 1 and a pressure p 1; c) Subjecting the heated first heat transfer fluid to 2 to 5, preferably 2 to 4, most preferably 2 or 3 compressing steps to obtain a compressed first heat transfer fluid having a pressure p 2; d) Thermally contacting the compressed first heat transfer fluid with an aqueous condensate in a second heat exchanger, thereby transferring heat from the compressed first heat transfer fluid to the aqueous condensate and vaporizing the aqueous condensate to obtain a steam stream; e) Using the steam stream for energy recovery thereby obtaining a stream comprising an aqueous condensate; - the ratio of pressure p 2 to pressure pi, p 2 /p 1, is 5 to 50; and - the steam stream used for energy recovery has temperature T s is in the range of from 120 to 200°C, preferably from 130 to 170°C, more preferably from 135 to 150°C and pressure p s is in the range of from 2.0 to 15.5 barg, preferably from 2.7 to 7.9 barg, more preferably from 3.1 to 4.8 barg.
A light detection and ranging, LiDAR, device comprising: a scanning optical system comprising a plurality of light sources and a beam steering device, the scanning optical system being configured to scan an object with a plurality of irradiation beams projected from the plurality of light sources toward the object at a plurality of irradiation angles, respectively; a light detector comprising a plurality of pixel regions that are configured to separately detect the plurality of irradiation beams projected toward the object at the plurality of irradiation angles and reflected from the object; and a processor configured to control the scanning optical system and the light detector, and obtain information about the object based on the plurality of irradiation beams detected by the light detector,, wherein the processor is further configured to control the scanning optical system to select a number of the plurality of light sources and to scan the object based on the selected light sources, and characterized in that the processor is further configured to set the number of light sources to be selected based on a reference period of time and an image resolution to process one image frame of the object. a scanning optical system comprising a plurality of light sources and a beam steering device, the scanning optical system being configured to scan an object with a plurality of irradiation beams projected from the plurality of light sources toward the object at a plurality of irradiation angles, respectively; a light detector comprising a plurality of pixel regions that are configured to separately detect the plurality of irradiation beams projected toward the object at the plurality of irradiation angles and reflected from the object; and a processor configured to control the scanning optical system and the light detector, and obtain information about the object based on the plurality of irradiation beams detected by the light detector,, wherein the processor is further configured to control the scanning optical system to select a number of the plurality of light sources and to scan the object based on the selected light sources, and characterized in that the processor is further configured to set the number of light sources to be selected based on a reference period of time and an image resolution to process one image frame of the object.
A condensate drain pan comprising: a porous expanded polymeric substrate; and a crystallized polymeric layer atop the substrate; the polymeric substrate comprising expanded bead material; characterised in that: the crystallized polymeric layer is a crystallized layer of the expanded bead material of the polymeric substrate, the polymeric substrate below the crystallized layer having essentially no crystallization. a porous expanded polymeric substrate; and a crystallized polymeric layer atop the substrate; the polymeric substrate comprising expanded bead material; characterised in that: the crystallized polymeric layer is a crystallized layer of the expanded bead material of the polymeric substrate, the polymeric substrate below the crystallized layer having essentially no crystallization.
Lifting column, preferably for height-adjustable tables comprising a guide consisting of a first member, a second member and a third member arranged mutually telescopic compared to each other, and a spindle unit comprising a first spindle, which with an end is secured to an end of the first member of the guide, a second spindle with a first spindle nut secured to an end of this, said first spindle nut co-operates with the first spindle, a second spindle nut secured against rotation and co-operating with the second spindle, a drive tube, which co-operates with the second spindle for driving this, and a first part of a clutch at the upper end of the drive tube, a motor unit with a reversible electric motor and a transmission, where the transmission has a second part of the clutch for co-operating with a first part of the clutch at the end of the drive tube for driving this, characterized in that the second member of the guide with a lower end is secured to a lower end of the second spindle, that the second spindle nut co-operating with the second spindle with a first bearing by means of a rigid connection is fixed to a shaft stub secured to an end of the drive tube, and that the shaft stub is secured via a second bearing.
A supported catalyst system comprising: (a) a coprecipitated silica- and titania-containing support comprising an alumoxane, and (b) at least one metallocene, wherein the supported catalyst system has a Ti content of from 0.1 wt% to 10 wt%. (a) a coprecipitated silica- and titania-containing support comprising an alumoxane, and (b) at least one metallocene, wherein the supported catalyst system has a Ti content of from 0.1 wt% to 10 wt%.
A communication device comprising: a control unit that selects, from among a plurality of code sequences orthogonal to one another, one multiple-subframe spreading code sequence by which an uplink signal repeated in a plurality of subframes is multiplied, said uplink signal including a demodulation reference signal DMRS to which a cyclic shift is applied and which is multiplied by a an Orthogonal Cover Code, OCC; and a transmitting unit adapted to transmit a control signal including a downlink control information, DCI, comprising a field for indicating the cyclic shift and the OCC used in uplink for the DMRS to a terminal that does not perform repetition transmission; - wherein said transmitting unit is further adapted to transmit, to a terminal for which transmission of the repeated uplink signal is configured, a control signal including a DCI wherein said field is used as a field for indicating the multiple-subframe spreading code sequence used for the repeated uplink signal and the cyclic shift and OCC used for DMRS; wherein among a plurality of values indicated by using bits constituting the field, two values of the field associated one to one with two cyclic shifts having a maximum cyclic shift difference are associated one to one with two multiple-subframe spreading code sequences having low mutual orthogonality among the plurality of code sequences. a control unit that selects, from among a plurality of code sequences orthogonal to one another, one multiple-subframe spreading code sequence by which an uplink signal repeated in a plurality of subframes is multiplied, said uplink signal including a demodulation reference signal DMRS to which a cyclic shift is applied and which is multiplied by a an Orthogonal Cover Code, OCC; and a transmitting unit adapted to transmit a control signal including a downlink control information, DCI, comprising a field for indicating the cyclic shift and the OCC used in uplink for the DMRS to a terminal that does not perform repetition transmission; - wherein said transmitting unit is further adapted to transmit, to a terminal for which transmission of the repeated uplink signal is configured, a control signal including a DCI wherein said field is used as a field for indicating the multiple-subframe spreading code sequence used for the repeated uplink signal and the cyclic shift and OCC used for DMRS; wherein among a plurality of values indicated by using bits constituting the field, two values of the field associated one to one with two cyclic shifts having a maximum cyclic shift difference are associated one to one with two multiple-subframe spreading code sequences having low mutual orthogonality among the plurality of code sequences. - wherein said transmitting unit is further adapted to transmit, to a terminal for which transmission of the repeated uplink signal is configured, a control signal including a DCI wherein said field is used as a field for indicating the multiple-subframe spreading code sequence used for the repeated uplink signal and the cyclic shift and OCC used for DMRS;
An apparatus for estimating a vehicle pitch relative to a road, the apparatus comprising: a wheel speed sensor part adapted to obtain wheel speed data; an inertial measurement unit, IMU, sensor part adapted to obtain IMU data; a preprocessing part adapted to extract a stop section and a moving section based on the wheel speed data and the IMU data; and a slope estimation part adapted to estimate a vehicle pitch in the stop section and a road slope in the moving section and estimate a vehicle pitch relative to a road based on the vehicle pitch and the road slope, wherein the slope estimation part is adapted to: fit a virtual line to a shape of a road to calculate a magnitude of an error based on the virtual line and a position of a vehicle; compare the calculated magnitude of the error and a predetermined threshold to evaluate linearity of the road; and estimate the vehicle pitch relative to a road according to a result of the evaluation when the linearity of the road is appropriate. a wheel speed sensor part adapted to obtain wheel speed data; an inertial measurement unit, IMU, sensor part adapted to obtain IMU data; a preprocessing part adapted to extract a stop section and a moving section based on the wheel speed data and the IMU data; and a slope estimation part adapted to estimate a vehicle pitch in the stop section and a road slope in the moving section and estimate a vehicle pitch relative to a road based on the vehicle pitch and the road slope, wherein the slope estimation part is adapted to: fit a virtual line to a shape of a road to calculate a magnitude of an error based on the virtual line and a position of a vehicle; compare the calculated magnitude of the error and a predetermined threshold to evaluate linearity of the road; and estimate the vehicle pitch relative to a road according to a result of the evaluation when the linearity of the road is appropriate. fit a virtual line to a shape of a road to calculate a magnitude of an error based on the virtual line and a position of a vehicle; compare the calculated magnitude of the error and a predetermined threshold to evaluate linearity of the road; and estimate the vehicle pitch relative to a road according to a result of the evaluation when the linearity of the road is appropriate.
A system for managing a document conversion environment, comprising: a server computer including an isolation service that isolates native applications from server software so that the server software is unaffected by problems experienced by the native applications, wherein when the system detects that a native document having a native document type is ready for conversion, the isolation service determines whether a native application associated with the native document type of the native document has been started and when it has not started, the isolation service starts the native application and causes the started native application to load and convert the native document from the native document type to a common document format, wherein the isolation service starts a single instance of the native application and monitors the single instance of the native application so that it complies with a specified parameter, condition, or setting of operation, wherein the isolation service restarts the single instance of the native application when it does not comply with the specified parameter, condition, or setting, wherein a user provides to the system maximum memory, maximum conversion time, maximum conversion attempts as parameters to be monitored for the native application. a server computer including an isolation service that isolates native applications from server software so that the server software is unaffected by problems experienced by the native applications, wherein when the system detects that a native document having a native document type is ready for conversion, the isolation service determines whether a native application associated with the native document type of the native document has been started and when it has not started, the isolation service starts the native application and causes the started native application to load and convert the native document from the native document type to a common document format, wherein the isolation service starts a single instance of the native application and monitors the single instance of the native application so that it complies with a specified parameter, condition, or setting of operation, wherein the isolation service restarts the single instance of the native application when it does not comply with the specified parameter, condition, or setting, wherein a user provides to the system maximum memory, maximum conversion time, maximum conversion attempts as parameters to be monitored for the native application.
A porous film comprising a porous base and a porous layer containing particles A disposed at least on one side thereof, wherein the particles A contain a mixture including a polymer formed from a fluorine-containing (meth)acrylate monomer and a polymer formed from a (meth)acrylate monomer having a hydroxyl group or a copolymer including a fluorine-containing (meth)acrylate monomer and a (meth)acrylate monomer having a hydroxyl group, with the (meth)acrylate monomer having a hydroxyl group accounting for more than 2 mass% and 30 mass% or less of all components of the particles A, which account for 100 mass%.
Method for allocating radio resources for setting up satellite communications in a first communication system comprising a constellation of non-GSO satellites (SAT_NGSO1,SAT_NGSO2) and a plurality of terminals (TER_NGSO1, TER_NGSO2), the method comprising the following steps, for each terminal (TER_NGSO1, TER_NGSO2): - determining a distinct separation angle threshold to be observed with respect to a constellation of geostationary satellites (SAT_GSO), a separation angle being defined as the smallest topocentric angle by which a given non-GSO satellite (SAT_NGSO1,SAT_NGSO2) and any geostationary satellite (SAT_GSO) of the geostationary arc are seen from a given terminal (TER_NGSO1,TER_NGSO2), - authorising the terminal (TER_NGSO1, TER_NGSO2) to set up a communication link with a non-GSO satellite (SAT_NGSO1, SAT_NGSO2) if the separation angle (αt 1 1, αt 2 2) associated with said link is greater than or equal to the separation angle threshold. - determining a distinct separation angle threshold to be observed with respect to a constellation of geostationary satellites (SAT_GSO), a separation angle being defined as the smallest topocentric angle by which a given non-GSO satellite (SAT_NGSO1,SAT_NGSO2) and any geostationary satellite (SAT_GSO) of the geostationary arc are seen from a given terminal (TER_NGSO1,TER_NGSO2), - authorising the terminal (TER_NGSO1, TER_NGSO2) to set up a communication link with a non-GSO satellite (SAT_NGSO1, SAT_NGSO2) if the separation angle (αt 1 1, αt 2 2) associated with said link is greater than or equal to the separation angle threshold.
A method for supplying a subscription on a security element which is configured for insertion or is part of a user's mobile end device and permanently installed therein, wherein the method comprises the following steps: supplying the subscription on the security element of the user's mobile end device, the subscription being held available on a background system by a service or product provider as one subscription of a plurality of subscriptions and enabling communication over a mobile radio network, wherein the subscription is downloaded to the security element over a further mobile radio network over which the security element can communicate by means of a further subscription already present, and accessing the mobile radio network by the security element by means of the subscription supplied on the security element, wherein while the security element accesses the mobile radio network the position of the mobile end device is determined at time intervals in order to check whether the position of the mobile end device falls within a predefined range of allowed positions, and wherein, if the established position of the mobile end device does not fall within the predefined range of allowed positions, the access of the subscription supplied to the mobile radio network is denied. supplying the subscription on the security element of the user's mobile end device, the subscription being held available on a background system by a service or product provider as one subscription of a plurality of subscriptions and enabling communication over a mobile radio network, wherein the subscription is downloaded to the security element over a further mobile radio network over which the security element can communicate by means of a further subscription already present, and accessing the mobile radio network by the security element by means of the subscription supplied on the security element, wherein while the security element accesses the mobile radio network the position of the mobile end device is determined at time intervals in order to check whether the position of the mobile end device falls within a predefined range of allowed positions, and wherein, if the established position of the mobile end device does not fall within the predefined range of allowed positions, the access of the subscription supplied to the mobile radio network is denied.