mhurhangee/ep-ind-claims huggingface dataset:
A method for avoiding network security desynchronization, comprising: performing, by a user terminal, a authentication and key agreement, AKA, process in an original network, wherein the original network is an evolved universal terrestrial radio access network, EUTRAN; performing, by the user terminal, a network handover from the original network to a new network, wherein the new network is a universal terrestrial radio access network, UTRAN; performing, by the user terminal, a key derivation in the new network, wherein a ciphering key, CK ps ', and an integrity key, IK ps ', are derived from a root key, Kasme, of a packet switched domain; and setting a security parameter stored in a universal subscriber identity module, USIM, in the user terminal to be unavailable, including deleting an original CK ps and an original IK ps in the USIM after the CK ps ' and the IK ps ' are derived when the user terminal performs handover from the EUTRAN to the UTRAN. performing, by a user terminal, a authentication and key agreement, AKA, process in an original network, wherein the original network is an evolved universal terrestrial radio access network, EUTRAN; performing, by the user terminal, a network handover from the original network to a new network, wherein the new network is a universal terrestrial radio access network, UTRAN; performing, by the user terminal, a key derivation in the new network, wherein a ciphering key, CK ps ', and an integrity key, IK ps ', are derived from a root key, Kasme, of a packet switched domain; and setting a security parameter stored in a universal subscriber identity module, USIM, in the user terminal to be unavailable, including deleting an original CK ps and an original IK ps in the USIM after the CK ps ' and the IK ps ' are derived when the user terminal performs handover from the EUTRAN to the UTRAN.
A modular bone plate including at least a first member (3, 3", 3"", 4, 4', 4", 4"', 4"", 4""', 4""") and a second member (2, 2', 2", 4, 4', 4", 4"', 4"", 4""', 4""") each having a top surface and a bottom surface, the first member (3, 3", 3"", 4, 4', 4", 4"', 4"", 4""', 4""") comprising a male connection portion (44, 44', 44", 44"', 44"") with a single hole (31, 42) extending from the top surface to the bottom surface and the second member (2, 2', 2", 4, 4', 4", 4"', 4"", 4""', 4""") comprising a female connection portion with a single hole (21, 41) extending from the top surface to the bottom surface, wherein the male connection portion (44, 44', 44", 44"', 44"") is insertable into the female connection portion such that the holes (21, 31, 41, 42) overlap and wherein an anchor or a plug member (7, 7') is insertable into the holes (21, 31, 41, 42) when they overlap, characterized in that the female connection portion comprises a recess (23, 23', 45, 45', 45", 45"', 45"", 45""") for accommodating the male connection portion (44, 44', 44", 44"', 44""), which recess (23, 23', 45, 45', 45", 45"', 45"", 45""") is provided in a side wall of the female connection portion and is in communication with the hole (21, 41).
A medicament composition in dry powder form characterized in that said dry powder medicament composition contains tiotropium bromide with water content less than or equal to 2.5% and fluticasone propionate wherein; • the mean particle size of tiotropium bromide with water content less than or equal to 2.5% and fluticasone propionate is in the range of 1.5 to 4.5 μm and • said active agents are present in the composition with the ratio of 1:3 to 1:50 respectively and • lactose which has a mean particle size less than 100 μm is used as carrier stored in capsules or blisters wherein the inside layer of the blister cavity or the capsule material that is in contact with the dry powder formulation is an antistatic material. • the mean particle size of tiotropium bromide with water content less than or equal to 2.5% and fluticasone propionate is in the range of 1.5 to 4.5 μm and • said active agents are present in the composition with the ratio of 1:3 to 1:50 respectively and • lactose which has a mean particle size less than 100 μm is used as carrier stored in capsules or blisters wherein the inside layer of the blister cavity or the capsule material that is in contact with the dry powder formulation is an antistatic material.
Method for autonomous processing of floor surfaces with the aid of a mobile, self-driving device, in particular a floor cleaning device such as a suction and/or sweeping and/or mopping robot, comprising the following method steps: - Implementing an exploration tour of the mobile, self-driving device in a proposed floor processing area, - Detecting obstacles (3, 4, 5) and/or objects located on the floor by means of a detection facility, - Classifying the obstacles and/or objects (3, 4, 5) as movable or non-movable, and - Transporting the obstacles and/or objects classified as movable to at least one collection point, characterised in that the collection point is cleaned before obstacles and/or objects classified as movable are transported to the collection point. - Implementing an exploration tour of the mobile, self-driving device in a proposed floor processing area, - Detecting obstacles (3, 4, 5) and/or objects located on the floor by means of a detection facility, - Classifying the obstacles and/or objects (3, 4, 5) as movable or non-movable, and - Transporting the obstacles and/or objects classified as movable to at least one collection point, characterised in that the collection point is cleaned before obstacles and/or objects classified as movable are transported to the collection point.
A light emitting diode arrangement having at least one high-power light emitting diode and a flexible circuit board with electrical conductor tracks (22, 23), wherein the high-power light emitting diode is mounted on the flexible circuit board, wherein - the flexible circuit board includes a thermally conductive layer which is in thermal contact with the high-power light emitting diode; and - the thermally conductive layer and the electrical conductor tracks (22, 23) are located in a common plane of the flexible circuit board, the flexible circuit board contains a flexible carrier layer, wherein the electrical conductor tracks (22, 23) are applied to the flexible carrier layer, characterized in that the thermally conductive layer is applied to the flexible carrier layer, and the thermally conductive layer is not in electrical contact with the electrical conductor tracks (22, 23). - the flexible circuit board includes a thermally conductive layer which is in thermal contact with the high-power light emitting diode; and - the thermally conductive layer and the electrical conductor tracks (22, 23) are located in a common plane of the flexible circuit board, the flexible circuit board contains a flexible carrier layer, wherein the electrical conductor tracks (22, 23) are applied to the flexible carrier layer,
A helical antenna system, comprising a printed circuit board and a radiation body arranged on the printed circuit board, wherein the radiation body comprises at least one main helical arm and at least one parasitic helical arm, each main helical arm corresponds to at least one parasitic helical arm, each main helical arm is arranged in parallel with and is spaced with its corresponding parasitic helical arm, wherein, a first terminal of each main helical arm is electrically connected to a first terminal of the corresponding parasitic helical arm, to form a feed output terminal of the helical antenna system; a second terminal of the main helical arm and a second terminal of the parasitic helical arm are both in a floating state; and a length of the parasitic helical arm is greater than a length of its corresponding main helical arm, and characterized in that: a helix angle (β) of a part of the parasitic helical arm exceeding its corresponding main helical arm is less than a helix angle (α) of a part of the parasitic helical arm not exceeding its corresponding main helical arm. a first terminal of each main helical arm is electrically connected to a first terminal of the corresponding parasitic helical arm, to form a feed output terminal of the helical antenna system; a second terminal of the main helical arm and a second terminal of the parasitic helical arm are both in a floating state; and a length of the parasitic helical arm is greater than a length of its corresponding main helical arm, and characterized in that: a helix angle (β) of a part of the parasitic helical arm exceeding its corresponding main helical arm is less than a helix angle (α) of a part of the parasitic helical arm not exceeding its corresponding main helical arm.
A method for host controlled enablement of an automatic background operation in a memory device, the method comprising: using the host to determine whether the memory device supports host controlled enablement of the automatic background operation; and using the host to configure the memory device to perform the automatic background operation in the memory device in response to the host determining that the memory device supports host controlled enablement of the automatic background operation; characterised by: writing a time period value to a register, namely a time register, of the memory device; wherein the time period is a time that the memory device should wait before enabling or automatically performing the background operation; and enabling or automatically performing the background operation responsive to the time period expiring after completion of a last host commanded operation. using the host to determine whether the memory device supports host controlled enablement of the automatic background operation; and using the host to configure the memory device to perform the automatic background operation in the memory device in response to the host determining that the memory device supports host controlled enablement of the automatic background operation; characterised by: writing a time period value to a register, namely a time register, of the memory device; wherein the time period is a time that the memory device should wait before enabling or automatically performing the background operation; and enabling or automatically performing the background operation responsive to the time period expiring after completion of a last host commanded operation. writing a time period value to a register, namely a time register, of the memory device; wherein the time period is a time that the memory device should wait before enabling or automatically performing the background operation; and enabling or automatically performing the background operation responsive to the time period expiring after completion of a last host commanded operation.
An attachable needle assembly for use on a medication delivery pen, the needle assembly comprising: a spike housing that is configured to engage the medication delivery pen and pierce a reservoir septum of the medication delivery pen; a needle assembly housing secured to the spike housing, the needle assembly housing enclosing: a needle assembly septum having a septum cavity, the septum cavity being in continuous fluid communication with the spike housing; and a plurality of needles configured to pierce the needle assembly septum; characterized in that, the needle assembly housing further enclosing a spring cooperating with the needle assembly housing to automatically rotate the needle assembly septum when the needle assembly housing moves between a first position and a second position; wherein when the needle assembly housing is in the first position, the plurality of needles are disengaged from the needle assembly septum while the spring is compressed, and when the needle assembly housing is in the second position, one of the plurality of needles enters into fluid communication with the septum cavity and is exposed for medicament delivery while further compressing the spring. a spike housing that is configured to engage the medication delivery pen and pierce a reservoir septum of the medication delivery pen; a needle assembly housing secured to the spike housing, the needle assembly housing enclosing: a needle assembly septum having a septum cavity, the septum cavity being in continuous fluid communication with the spike housing; and a plurality of needles configured to pierce the needle assembly septum; characterized in that, the needle assembly housing further enclosing a spring cooperating with the needle assembly housing to automatically rotate the needle assembly septum when the needle assembly housing moves between a first position and a second position; wherein a needle assembly septum having a septum cavity, the septum cavity being in continuous fluid communication with the spike housing; and a plurality of needles configured to pierce the needle assembly septum; characterized in that, the needle assembly housing further enclosing a spring cooperating with the needle assembly housing to automatically rotate the needle assembly septum when the needle assembly housing moves between a first position and a second position; wherein when the needle assembly housing is in the first position, the plurality of needles are disengaged from the needle assembly septum while the spring is compressed, and when the needle assembly housing is in the second position, one of the plurality of needles enters into fluid communication with the septum cavity and is exposed for medicament delivery while further compressing the spring.
A transmission device comprising: a first amplifier being a differential amplifier of a common source structure and comprising cross coupled capacitors, and configured to amplify an input signal; a second amplifier being a differential amplifier of a common gate structure configured to amplify a signal outputted from the first amplifier; and a harmonic termination unit connected to output terminals of the first amplifier and input terminals of the second amplifier, and configured to terminate at least a portion of a second harmonic, wherein the harmonic termination unit is configured to offset at least a portion of parasitic capacitance generated at the output terminals of the first amplifier and the input terminals of the second amplifier, with respect to a fundamental frequency, and to ground a signal having a frequency of the second harmonic, with respect to the frequency of the second harmonic, wherein the harmonic termination unit consists in a first inductor, a second inductor, and a capacitor, wherein one end of the first inductor is connected to one of the output terminals of the first amplifier and one of the input terminals of the second amplifier, wherein one end of the second inductor is connected to the other one of the output terminals of the first amplifier and the other one of the input terminals of the second amplifier, wherein the other ends of the first inductor and the second inductor are connected with each other and are connected with one end of the capacitor, and wherein the other end of the capacitor is grounded. a first amplifier being a differential amplifier of a common source structure and comprising cross coupled capacitors, and configured to amplify an input signal; a second amplifier being a differential amplifier of a common gate structure configured to amplify a signal outputted from the first amplifier; and a harmonic termination unit connected to output terminals of the first amplifier and input terminals of the second amplifier, and configured to terminate at least a portion of a second harmonic, wherein the harmonic termination unit is configured to offset at least a portion of parasitic capacitance generated at the output terminals of the first amplifier and the input terminals of the second amplifier, with respect to a fundamental frequency, and to ground a signal having a frequency of the second harmonic, with respect to the frequency of the second harmonic, wherein the harmonic termination unit consists in a first inductor, a second inductor, and a capacitor, wherein one end of the first inductor is connected to one of the output terminals of the first amplifier and one of the input terminals of the second amplifier, wherein one end of the second inductor is connected to the other one of the output terminals of the first amplifier and the other one of the input terminals of the second amplifier, wherein the other ends of the first inductor and the second inductor are connected with each other and are connected with one end of the capacitor, and wherein the other end of the capacitor is grounded.
A detector apparatus for detecting fluorescence and/or phosphorescence emitted by a target comprising: a first transmissive polariser (302, 402, 502) for polarising, with a first polarisation, radiation incident on the target; a second transmissive polariser (304, 404, 504) arranged to substantially extinguish radiation with the first polarisation; a sample region (303, 403, 503) therebetween; a detector (305, 405, 505) arranged to receive light transmitted by the second transmissive polariser; a first reflective polariser (306, 406, 506) arranged between the first (302, 402, 502) and second (304, 404, 504) transmissive polarisers to redirect light emitted or transmitted by the sample region (303, 403, 503) towards the sample region (303, 403, 503) and such that light with the first polarisation is sent towards the sample region (303, 403, 503) and light with a second polarisation is sent towards the detector (305, 405, 505), wherein the first transmissive polariser (302, 402, 502), second transmissive polariser (304, 404, 504), detector (305, 405, 505), first reflective polariser (306, 406, 506) and second reflective polariser are arranged substantially on a common optical axis. a first transmissive polariser (302, 402, 502) for polarising, with a first polarisation, radiation incident on the target; a second transmissive polariser (304, 404, 504) arranged to substantially extinguish radiation with the first polarisation; a sample region (303, 403, 503) therebetween; a detector (305, 405, 505) arranged to receive light transmitted by the second transmissive polariser; a first reflective polariser (306, 406, 506) arranged between the first (302, 402, 502) and second (304, 404, 504) transmissive polarisers to redirect light emitted or transmitted by the sample region (303, 403, 503) towards the sample region (303, 403, 503) and such that light with the first polarisation is sent towards the sample region (303, 403, 503) and light with a second polarisation is sent towards the detector (305, 405, 505), wherein the first transmissive polariser (302, 402, 502), second transmissive polariser (304, 404, 504), detector (305, 405, 505), first reflective polariser (306, 406, 506) and second reflective polariser are arranged substantially on a common optical axis.
A goal shot training device comprising: a substantially cross-shaped training covering having a body, a top edge, a bottom edge, first and second side edges, and a pair of side extensions extending laterally from the body and being configured to obscure a net of a goal, the covering composed of a knit material defining multiple openings such that air passes through the covering, the openings being non-square-shaped and thereby visually differentiated from holes in goal nets and the openings being up to about 96,5 mm by 96,5 mm in size, the material creating negative space by obscuring visual access behind the training covering and forming at least one user-configurable opening that allows visual access of positive space including a portion of the net of the goal when the covering is affixed to the goal; and a first band of brightly colored material running between the first side edge of the training covering and the top edge of the training covering, a second band of brightly colored material running between the first side edge of the training covering and the bottom edge of the training covering, a third band of brightly colored material running between the second side edge of the training covering and the top edge of the training covering, and a fourth band of brightly colored material running between the second side edge of the training covering and the bottom edge of the training covering; wherein a user may configure the covering to practice shots originating from different positions on a playing area by adjusting the location of the covering relative to the net of the goal. a substantially cross-shaped training covering having a body, a top edge, a bottom edge, first and second side edges, and a pair of side extensions extending laterally from the body and being configured to obscure a net of a goal, the covering composed of a knit material defining multiple openings such that air passes through the covering, the openings being non-square-shaped and thereby visually differentiated from holes in goal nets and the openings being up to about 96,5 mm by 96,5 mm in size, the material creating negative space by obscuring visual access behind the training covering and forming at least one user-configurable opening that allows visual access of positive space including a portion of the net of the goal when the covering is affixed to the goal; and a first band of brightly colored material running between the first side edge of the training covering and the top edge of the training covering, a second band of brightly colored material running between the first side edge of the training covering and the bottom edge of the training covering, a third band of brightly colored material running between the second side edge of the training covering and the top edge of the training covering, and a fourth band of brightly colored material running between the second side edge of the training covering and the bottom edge of the training covering; wherein a user may configure the covering to practice shots originating from different positions on a playing area by adjusting the location of the covering relative to the net of the goal.