mhurhangee/ep-ind-claims huggingface dataset:
Method to isolate a secure operation region with a safety-critical software and real-time operating system (RTOS) from a non-secure operation region with non-critical software and general operating system (GPOS) comprising - providing a non-secure mode - wherein the real-time operating system (RTOS) is inactivated and the general operating system (GPOS) is activated by a secure configuration register and - wherein secure interrupts are mapped to fast processor interrupts calling a secure monitor program and non-secure interrupts are mapped to regular processor interrupts by an interface configuration register; and - providing a secure mode - wherein the real-time operating system (RTOS) is activated and the general operating system (GPOS) is inactivated by the secure configuration register and - wherein secure interrupts are mapped to regular processor interrupts calling the real-time operating system (RTOS), fast processor interrupts are not used and non-secure interrupts are disabled by the interface configuration register. - providing a non-secure mode - wherein the real-time operating system (RTOS) is inactivated and the general operating system (GPOS) is activated by a secure configuration register and - wherein secure interrupts are mapped to fast processor interrupts calling a secure monitor program and non-secure interrupts are mapped to regular processor interrupts by an interface configuration register; and - wherein the real-time operating system (RTOS) is inactivated and the general operating system (GPOS) is activated by a secure configuration register and - wherein secure interrupts are mapped to fast processor interrupts calling a secure monitor program and non-secure interrupts are mapped to regular processor interrupts by an interface configuration register; and - providing a secure mode - wherein the real-time operating system (RTOS) is activated and the general operating system (GPOS) is inactivated by the secure configuration register and - wherein secure interrupts are mapped to regular processor interrupts calling the real-time operating system (RTOS), fast processor interrupts are not used and non-secure interrupts are disabled by the interface configuration register. - wherein the real-time operating system (RTOS) is activated and the general operating system (GPOS) is inactivated by the secure configuration register and - wherein secure interrupts are mapped to regular processor interrupts calling the real-time operating system (RTOS), fast processor interrupts are not used and non-secure interrupts are disabled by the interface configuration register.
An injection element for a rocket combustion chamber, comprising an insert, which has essentially the shape of a hollow cylinder with an axial channel and which connects a space of the combustion chamber with a propellant space, characterized in that the injection element is configured to be operated in a first operating mode where the propellant to be injected into the space of the combustion chamber has a first physical state, and in a second operating mode where the propellant to be injected into the space of the combustion chamber has a second physical state, and that the insert comprises an adaptation device configured to adjust a flow cross-section of the axial channel depending on at least the first and the second physical state of the propellant to be injected into the space of the combustion chamber, the adaptation device comprising at least one flow insert with at least one screen having a plurality of openings, the flow insert having different flow cross-sections and flow resistances depending on the physical state of the propellant flowing therethrough, and wherein a mesh width and/or a mesh depth of the openings of the screen is/are configured such that, when liquid propellant impinges on the screen, the flow cross-section is reduced due to capillary forces and/or surface tensions, so that the flow cross-section of the axial channel is adjustable depending on the physical state of the propellant flowing through the latter.
A process to produce a polyethylene composition comprising post consumer resin comprising the steps of: - providing a high density polyethylene post consumer resin having an ESCR (100%) of at most 10 hours as determined according to ASTM D 1693 condition B, a density ranging from 0.950 to 0.967 g/cm 3 as determined according to ASTM 1505 at a temperature of 23°C, an HLMI of 40 to 70 g/10 min as determined according to ISO 1133, condition G, at 190°C and 21.6 kg; - providing a virgin Ziegler-Natta catalyzed polyethylene resin, wherein the virgin polyethylene resin has a multimodal distribution and comprises at least two polyethylene fractions A and B, fraction A having a higher molecular weight and lower density than fraction B, wherein fraction A has a HL275 of at least 0.1 g/10 min and of at most 4 g/10 min as determined according to ISO 1133, condition G, at 190°C and under a load of 21.6 kg except that a die of 2.75 mm broad was used and has a density of at least 0.920 g/cm 3 and of at most 0.942 g/cm 3; and the virgin polyethylene resin having an HLMI of 5 to 75 g/10 min as determined according to ISO 1133, condition G, at 190°C and 21.6 kg, a density ranging from 0.945 to 0.960 g/cm 3, the density being determined according to ASTM 1505 at a temperature of 23°C; - blending the high density polyethylene post consumer resin with the virgin polyethylene resin in to form a polyethylene composition, wherein said composition comprises from 15 to 70 wt% of high density polyethylene post consumer resin relative to the total weight of the composition. - providing a high density polyethylene post consumer resin having an ESCR (100%) of at most 10 hours as determined according to ASTM D 1693 condition B, a density ranging from 0.950 to 0.967 g/cm 3 as determined according to ASTM 1505 at a temperature of 23°C, an HLMI of 40 to 70 g/10 min as determined according to ISO 1133, condition G, at 190°C and 21.6 kg; - providing a virgin Ziegler-Natta catalyzed polyethylene resin, wherein the virgin polyethylene resin has a multimodal distribution and comprises at least two polyethylene fractions A and B, fraction A having a higher molecular weight and lower density than fraction B, wherein fraction A has a HL275 of at least 0.1 g/10 min and of at most 4 g/10 min as determined according to ISO 1133, condition G, at 190°C and under a load of 21.6 kg except that a die of 2.75 mm broad was used and has a density of at least 0.920 g/cm 3 and of at most 0.942 g/cm 3; and the virgin polyethylene resin having an HLMI of 5 to 75 g/10 min as determined according to ISO 1133, condition G, at 190°C and 21.6 kg, a density ranging from 0.945 to 0.960 g/cm 3, the density being determined according to ASTM 1505 at a temperature of 23°C; - blending the high density polyethylene post consumer resin with the virgin polyethylene resin in to form a polyethylene composition, wherein said composition comprises from 15 to 70 wt% of high density polyethylene post consumer resin relative to the total weight of the composition.
A detector device for detecting radiation, comprising: a. a conversion layer for converting incident radiation into an electric charge; b. a plurality of charge collecting electrodes arranged at a first surface of said conversion layer and adapted to collect electric charge generated in said conversion layer, said charge collecting electrodes forming a predetermined pattern with intermediate gaps; c. at least one counter electrode which is arranged at a second surface of said conversion layer, said second surface opposing said first surface; and d. a plurality of external guiding electrodes placed remote from said conversion layer and connected to an electric potential which has the same sign as the charge to be collected by said charge collecting electrodes, said external guiding electrodes being arranged to prevent electric field lines from leaving said conversion layer through said gaps, wherein said plurality of guiding electrodes are placed on a connecting layer provided for connecting said charge collecting electrodes; characterized in that said detector device is adapted to apply to said guiding electrodes a voltage U g = U bias · (d gap /2+d g ·ε c /ε g) / (d g /2+d c), wherein U bias denotes a voltage applied between said charge collecting electrodes and the counter electrode through which said radiation is received, d gap denotes the width of said gaps between said charge collecting electrodes, d g denotes a distance between the connecting layer on which said guiding electrodes are arranged and said conversion layer, ε c denotes the relative permittivity of said conversion layer, ε g denotes the relative permittivity in the layer between said collecting electrodes and said guiding electrodes, and d c denotes the thickness of said conversion layer. a. a conversion layer for converting incident radiation into an electric charge; b. a plurality of charge collecting electrodes arranged at a first surface of said conversion layer and adapted to collect electric charge generated in said conversion layer, said charge collecting electrodes forming a predetermined pattern with intermediate gaps; c. at least one counter electrode which is arranged at a second surface of said conversion layer, said second surface opposing said first surface; and d. a plurality of external guiding electrodes placed remote from said conversion layer and connected to an electric potential which has the same sign as the charge to be collected by said charge collecting electrodes, said external guiding electrodes being arranged to prevent electric field lines from leaving said conversion layer through said gaps, wherein said plurality of guiding electrodes are placed on a connecting layer provided for connecting said charge collecting electrodes;
A compound comprising a single domain antibody (sdAb) comprising a complementarity determining region 1 sequence HYTMG (SEQ ID NO:1); CDR2 sequence RITWGGDNTFYSNSVKG (SEQ ID NO:2); and CDR3 sequence GSTSTATPLRVDY (SEQ ID NO:3); the single domain antibody binding TMEM30A and capable of transmigrating across the blood brain barrier and an analgesic peptide acting on opioid receptors, neuropeptide Y receptors, neurotensin receptors, galanin receptors, orexin receptors, somatostatin receptors, or any combination thereof.
Fertilizer granulate, which contains magnesium, sulphate and urea, each with respect to the total weight of the granulate, in the following quantities: urea, in a quantity of 20.0 to 38.0 wt%, calculated as elemental nitrogen; magnesium in a quantity of 1.5 to 9.5 wt%, calculated as elemental magnesium; and sulphate in a quantity of 2.7 to 12.0 wt%, calculated as elemental sulphur; wherein at least a portion of the magnesium, the urea and the sulphate is present in the form of at least one of the crystalline phases of the formulae and MgSO 4* 6 NH 2 -C(=O)-NH 2 * 0.5 H 2 O MgSO 4* 4 NH 2 -C(=O)-NH 2 * H 2 O and wherein 1 to 20 wt% of the magnesium, with respect to the total quantity of the magnesium contained in the fertilizer granulate, calculated in each case as elemental magnesium, is present in the form of water-insoluble magnesium salts. urea, in a quantity of 20.0 to 38.0 wt%, calculated as elemental nitrogen; magnesium in a quantity of 1.5 to 9.5 wt%, calculated as elemental magnesium; and sulphate in a quantity of 2.7 to 12.0 wt%, calculated as elemental sulphur; wherein at least a portion of the magnesium, the urea and the sulphate is present in the form of at least one of the crystalline phases of the formulae and MgSO 4* 6 NH 2 -C(=O)-NH 2 * 0.5 H 2 O MgSO 4* 4 NH 2 -C(=O)-NH 2 * H 2 O and wherein 1 to 20 wt% of the magnesium, with respect to the total quantity of the magnesium contained in the fertilizer granulate, calculated in each case as elemental magnesium, is present in the form of water-insoluble magnesium salts.
An antenna interface arrangement for cancellation of a transmit signal at a receiver port of a transceiver, the antenna interface arrangement comprising: a distributed transformer having a primary side winding connectable to a transmitter port of the transceiver and having a first part (111, 211, 311) and a second part (112, 212, 312); a first secondary side winding (113, 213, 313) connectable to an antenna port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding (114, 214, 314, 315) connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the second inductive coupling is adapted to provide a first version of the transmit signal at the receiver port; and an amplifier (105, 106, 205, 206, 305, 306) having an input connected to the first secondary side winding and an output connected to the second secondary side winding, wherein the first inductive coupling and the amplifier are adapted to provide a second version of the transmit signal at the receiver port, for cancelling the first version of the transmit signal. a distributed transformer having a primary side winding connectable to a transmitter port of the transceiver and having a first part (111, 211, 311) and a second part (112, 212, 312); a first secondary side winding (113, 213, 313) connectable to an antenna port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding (114, 214, 314, 315) connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the second inductive coupling is adapted to provide a first version of the transmit signal at the receiver port; and a primary side winding connectable to a transmitter port of the transceiver and having a first part (111, 211, 311) and a second part (112, 212, 312); a first secondary side winding (113, 213, 313) connectable to an antenna port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding (114, 214, 314, 315) connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the second inductive coupling is adapted to provide a first version of the transmit signal at the receiver port; and an amplifier (105, 106, 205, 206, 305, 306) having an input connected to the first secondary side winding and an output connected to the second secondary side winding, wherein the first inductive coupling and the amplifier are adapted to provide a second version of the transmit signal at the receiver port, for cancelling the first version of the transmit signal.
A connector for connecting pipes for transporting fluids; the connector comprising: - a tubular casing, which extends around a main axis; - an end insert, which can be snap coupled to one end of the tubular casing; - a tubular sleeve, which comprises at least one pin and is configured to be fitted around a respective fluid transport pipe and to cooperate with the end insert such that a relative rotation around the main axis of the tubular sleeve within the end insert results in a relative displacement of the tubular sleeve with respect to the end insert in a direction substantially parallel to the main axis; and - a clamping element, which is housed within the tubular casing and is configured to retain the respective transport pipe; the end insert being provided with at least one internal seat, which is shaped to house a respective pin of the tubular sleeve and to guide said pin along a segment of a helical trajectory, which develops around the main axis; the at least one internal seat being shaped so as to allow a relative displacement of the respective pin of the tubular sleeve with respect to the end insert in a direction substantially parallel to the main axis. - a tubular casing, which extends around a main axis; - an end insert, which can be snap coupled to one end of the tubular casing; - a tubular sleeve, which comprises at least one pin and is configured to be fitted around a respective fluid transport pipe and to cooperate with the end insert such that a relative rotation around the main axis of the tubular sleeve within the end insert results in a relative displacement of the tubular sleeve with respect to the end insert in a direction substantially parallel to the main axis; and - a clamping element, which is housed within the tubular casing and is configured to retain the respective transport pipe; the end insert being provided with at least one internal seat, which is shaped to house a respective pin of the tubular sleeve and to guide said pin along a segment of a helical trajectory, which develops around the main axis; the at least one internal seat being shaped so as to allow a relative displacement of the respective pin of the tubular sleeve with respect to the end insert in a direction substantially parallel to the main axis.
An agricultural working vehicle, with an apparatus for attaching an implement and a device for attaching counterweights, as well as a chassis comprising at least two axles, a front axle and a back axle, on which torque transmission means (5, 7) are disposed, and with a braking system which can be controlled by means of a control device and which comprises at least one brake device (18, 19, 24) which acts on at least one of the axles (6, 8) or the torque transmission means (5, 7) disposed thereon, characterized in that the control device is configured to adjust a maximum braking pressure and/or a braking pressure profile (26a, 26b, 26c) provided to the front axle by the braking system as a function of at least one characteristic which is specific to the implement which can be determined by means of the control device with the aid of information provided regarding the type of implement.
Flow-guiding component having at least one functional region for contact with a flowing medium and having at least one functional region with load-bearing properties, wherein the functional regions (7, 8, 9, 10, 15, 16) are produced from a construction material by successively solidifying layers by means of radiation, and different properties of the functional regions (7, 8, 9, 10, 11, 15, 16) are generated by variation of the radiation, wherein the construction material of the functional regions (7, 8, 9, 10, 15, 16) is identical in chemical composition, characterized in that the functional regions (7, 16) with load-bearing properties have greater strength than the functional regions (8, 9, 10, 15) which come into contact with the medium, and the hardness of the functional regions (8, 9, 10, 15) which come into contact with the medium is greater than the hardness of the functional regions (7, 16) with load-bearing properties.
Braking system comprising: - a pivoting element having an axis AA and carrying at least one first actuation lever and a release arm, the pivoting element being capable of and designed for pivoting about the axis AA following actuation of the first actuation lever, - a locking member which interacts with the release arm, and - a resilient member which interacts with the locking member, and in which, when the pivoting element pivots about the axis AA following actuation of the first actuation lever, the release arm moves between at least: a first position in which the release arm holds the locking member in a rest position, and a second position in which the release arm releases the locking member, said locking member then being pushed into an active position by the resilient member, characterised in that said system further comprises a damper (9, 10), the locking member being carried by a connecting element which has an axis BB and is joined to at least one support part (11, 12), each part carrying a damper (9, 10). - a pivoting element having an axis AA and carrying at least one first actuation lever and a release arm, the pivoting element being capable of and designed for pivoting about the axis AA following actuation of the first actuation lever, - a locking member which interacts with the release arm, and - a resilient member which interacts with the locking member, a first position in which the release arm holds the locking member in a rest position, and a second position in which the release arm releases the locking member, said locking member then being pushed into an active position by the resilient member, characterised in that said system further comprises a damper (9, 10), the locking member being carried by a connecting element which has an axis BB and is joined to at least one support part (11, 12), each part carrying a damper (9, 10).
A method for transmitting an acknowledgement/not-acknowledgement, ACK/NACK, the method performed by a user equipment, UE, configured with a primary cell and a secondary cell and comprising: receiving data in a downlink subframe n-k of the secondary cell; and transmitting an ACK/NACK for the data in an uplink subframe n of the primary cell, wherein the primary cell is a cell using a time division duplex, TDD, frame and the secondary cell is a cell using a frequency division duplex, FDD, frame, wherein the primary cell is configured with one of uplink-downlink configurations in the following table 1, [Table 1] Uplink-downlink configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein, in the table 1, D denotes a downlink subframe, S denotes a special subframe, and U denotes an uplink subframe, and wherein when an uplink-downlink configuration of the primary cell is an uplink-downlink configuration 3, 4 or 6 of the table 1, the n and the k are determined by the following table 2, [Table 2] Uplink-downlink Configuration Subframe n 0 1 2 3 4 5 6 7 8 9 3 - - 11, 10, 9, 8, 7, 6 6, 5 5, 4 - - - - - 4 - - 12, 11, 10, 9, 8, 7 7, 6, 5, 4 - - - - - - 6 - - 8, 7 7, 6 6, 5 - - 7 7, 6, 5 - receiving data in a downlink subframe n-k of the secondary cell; and transmitting an ACK/NACK for the data in an uplink subframe n of the primary cell, wherein the primary cell is a cell using a time division duplex, TDD, frame and the secondary cell is a cell using a frequency division duplex, FDD, frame, wherein the primary cell is configured with one of uplink-downlink configurations in the following table 1, [Table 1] Uplink-downlink configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein, in the table 1, D denotes a downlink subframe, S denotes a special subframe, and U denotes an uplink subframe, and wherein when an uplink-downlink configuration of the primary cell is an uplink-downlink configuration 3, 4 or 6 of the table 1, the n and the k are determined by the following table 2,