mhurhangee/ep-ind-claims huggingface dataset:
A striker plate (11, 111, 211, 311) for a door surround or door frame, in particular of a security door, with at least one opening (10, 13) for purposes of introducing a latch and/or a lock of a leaf of the door, wherein the leaf is mounted in the door surround or the frame such that it can rotate about at least one axis of rotation, preferably a vertical axis of rotation, and wherein the at least one opening (10, 13) has at least two rollers at an edge (19, 37) on which a retaining surface of the latch or lock, in the mounted state of the leaf, can be supported in the event of an opening force acting on the leaf, which rollers, in a locking position of the latch and/or lock, come into contact with the latch and/or lock, and are mounted such that they can rotate about an axis running parallel to the edge (19, 37), wherein the at least two rollers are mounted such that they cannot be displaced in a direction at right angles to the axis, characterised in that each of the at least two rollers is a needle bearing, which in each case rolls with its rolling elements formed as needles on an outer shell surface of the axial body.
A rotational orientation control apparatus for controlling rotational orientation of a load suspended from the apparatus, the apparatus including a rotator having at least one flywheel, at least one respective flywheel drive means, and a control means, control of the at least one flywheel providing a respective proportion of reaction torque, characterised in that said at least one flywheel includes at least one fan having vanes (50, 150), wherein, in use, the vanes create a reaction torque augmenting or replacing a change of speed of rotation of the at least one flywheel for controlling rotational orientation of the suspended load.
Gas turbine combustion chamber having an inner combustion chamber wall and having an outer combustion chamber wall, which form a ringshaped combustion chamber, wherein mixing-air holes are formed in a manner distributed around the circumference in the inner combustion chamber wall and the outer combustion chamber wall, wherein the respective combustion chamber wall (2, 3) is bulged towards the interior of the combustion chamber in the region of a respective mixing-air hole and the respective mixing-air hole is arranged in the bulge, characterized in that the respective mixing-air hole arranged in the bulge is in each case formed on a flow-on surface of the bulge with respect to the throughflow direction of the combustion chamber.
A method of estimating initial states of a system model for an industrial process with a plurality of sub-processes, the method comprising: - optimizing, as a function of state variables x, an objective function J comprising a difference between observed quantities y and outputs ŷ of a merged Mixed Logical Dynamic MLD system model for then industrial process, with the optimization being performed over a number of time steps in the past and being subject to constraints defined by the merged MLD system model's dynamics, and wherein the merged MLD system model is a combination of MLD subsystem models representing the sub-processes of the industrial process; and - retaining optimizing values x 0 of the state variables at an ultimate time step as an estimated initial state for control, based on the merged MLD system model, of the industrial process, the method characterized in that the state variables comprise an intermediary state variable, and further comprising the steps of: - excluding the intermediary state variable from the optimization, and - simulating a value of the intermediary state variable at the ultimate time step by evaluating the MLD system model, and retaining the simulated value in the estimated initial state x 0. - optimizing, as a function of state variables x, an objective function J comprising a difference between observed quantities y and outputs ŷ of a merged Mixed Logical Dynamic MLD system model for then industrial process, with the optimization being performed over a number of time steps in the past and being subject to constraints defined by the merged MLD system model's dynamics, and wherein the merged MLD system model is a combination of MLD subsystem models representing the sub-processes of the industrial process; and - retaining optimizing values x 0 of the state variables at an ultimate time step as an estimated initial state for control, based on the merged MLD system model, of the industrial process, the method characterized in that the state variables comprise an intermediary state variable, and further comprising the steps of: - excluding the intermediary state variable from the optimization, and - simulating a value of the intermediary state variable at the ultimate time step by evaluating the MLD system model, and retaining the simulated value in the estimated initial state x 0.
A method for implementing time division duplex configuration, comprising: receiving, by a primary base station, time division duplex, TDD, configuration information of a secondary serving cell and an identity of the secondary serving cell that are sent by a secondary base station wherein the TDD configuration information of the secondary serving cell is determined by the secondary base station for the secondary serving cell, the secondary serving cell belongs to the secondary base station; and sending, by the primary base station, the TDD configuration information of the secondary serving cell and the identity of the secondary serving cell to a terminal which maintains connections with the primary base station and the secondary base station simultaneously. receiving, by a primary base station, time division duplex, TDD, configuration information of a secondary serving cell and an identity of the secondary serving cell that are sent by a secondary base station wherein the TDD configuration information of the secondary serving cell is determined by the secondary base station for the secondary serving cell, the secondary serving cell belongs to the secondary base station; and sending, by the primary base station, the TDD configuration information of the secondary serving cell and the identity of the secondary serving cell to a terminal which maintains connections with the primary base station and the secondary base station simultaneously.
Use of a cosmetic composition for dyeing keratin fibers, especially human keratin fibers, said cosmetic composition comprising a dye active principle selected from the group consisting of a Gardenia extract and a Gardenia powder, characterized in that: a. the Gardenia extract contains between 0.1 and 10 wt% crocins, preferentially between 1 and 5 wt%, relative to the weight of the dry extract, b. the Gardenia powder contains between 0.1 and 10 wt% crocins, preferentially between 1 and 5 wt%, relative to the weight of the powder, c. the composition has a pH ranging between 4 and 8, and d. the composition is free of reducing compound. a. the Gardenia extract contains between 0.1 and 10 wt% crocins, preferentially between 1 and 5 wt%, relative to the weight of the dry extract, b. the Gardenia powder contains between 0.1 and 10 wt% crocins, preferentially between 1 and 5 wt%, relative to the weight of the powder, c. the composition has a pH ranging between 4 and 8, and d. the composition is free of reducing compound.
A direction-finding antenna system comprising a plurality of tapered dipole antenna elements (50,50a,50b) arranged in a circular array around a central axis; wherein each tapered dipole antenna element comprises a pair of rectangular elongated antenna elements (52,54) mounted radially from said central axis and configured to be curved such that a distance between said pair of rectangular elongated antenna elements is larger at the periphery of the system with respect to the center thereof; characterised in that said pair of rectangular elongated antenna elements comprises at least one rectangular elongated antenna element formed by a conducting layer located between two sheets of dielectric material (64,66).
A packaging assembly for an applicator (200, 300) configured for loading a buttress assembly (100, 316, 318) onto an end effector of a surgical stapler, wherein the packaging assembly comprises: (a) an outer tray; (b) a pouch having a top layer, a bottom layer, and an interior between the top and bottom layers (402, 404), wherein the top layer and the bottom layer are connectable to form a selective hermetic seal around the interior, and wherein the bottom layer of the pouch is configured to be contacted by the outer tray, which is configured to protect the bottom layer of the pouch from damage by fitting closely against the bottom layer of the pouch; (c) an inner tray (600, 700) configured to be positionable within the interior of the pouch such that the bottom layer of the pouch separates the inner tray (600, 700) from the outer tray; and (d) a desiccant material, wherein the inner tray (600, 700) is configured to selectively retain the desiccant material, wherein the desiccant material is configured to absorb any moisture within the interior of the pouch. (a) an outer tray; (b) a pouch having a top layer, a bottom layer, and an interior between the top and bottom layers (402, 404), wherein the top layer and the bottom layer are connectable to form a selective hermetic seal around the interior, and wherein the bottom layer of the pouch is configured to be contacted by the outer tray, which is configured to protect the bottom layer of the pouch from damage by fitting closely against the bottom layer of the pouch; (c) an inner tray (600, 700) configured to be positionable within the interior of the pouch such that the bottom layer of the pouch separates the inner tray (600, 700) from the outer tray; and (d) a desiccant material, wherein the inner tray (600, 700) is configured to selectively retain the desiccant material, wherein the desiccant material is configured to absorb any moisture within the interior of the pouch.
A wireless transmit/receive unit, WTRU, comprising: a processor, the processor configured at least to: configure a measurement configuration, the measurement configuration including a plurality of measld parameters, each of the plurality of measld parameters associated with at least one of a plurality of reportConfig parameters, each of the plurality of reportConfig parameters corresponding to an event associated with at least one of a plurality of serving cells; and: a transceiver, the transceiver configured at least to: receive a resource radio control, RRC, connection message indicating at least one of an RRC connection reestablishment or an RRC connection reconfiguration, the processor being further configured to: reconfigure the measurement configuration, the reconfiguration including: a removal of a first measld parameter of the plurality of measld parameters from the measurement configuration during the at least one of the RRC connection reestablishment or the RRC connection reconfiguration on condition of an occurrence of a first event associated with a first serving cell of the plurality of serving cells, the first measld parameter associated with a first reportConfig parameter of the plurality of reportConfig parameters corresponding to the first event associated with the first serving cell; and a retention of a second measld parameter of the plurality of measld parameters in the measurement configuration during the at least one of the RRC connection reestablishment or the RRC connection reconfiguration, wherein the first measld parameter has been removed from the measurement configuration based on the occurrence of the first event associated with the first serving cell of the plurality of serving cells, the second measld parameter associated with a second reportConfig parameter of the plurality of reportConfig parameters, the second reportConfig parameter of the plurality of reportConfig parameters corresponding to a second event associated with a second serving cell.
A method comprising: receiving a configuration for a number of N HARQ − ACK TB hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits per data transport block, TB; receiving a downlink control information, DCI, format scheduling a reception of a data TB; receiving the data TB that includes a number of N CB TB data code blocks, CBs; determining a number of N HARQ − ACK TB HARQ-ACK information bits for a respective number of CB groups, CBGs; determining N CB CBG = ⌈ N CB TB / N HARQ − ACK TB ⌉ CBs per CBG for first mod N CB TB N HARQ − ACK TB CBGs, and N CB CBG = ⌊ N CB TB / N HARQ − ACK TB ⌋ CBs per CBG for last N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB CBGs; generating mod N CB TB N HARQ − ACK TB HARQ-ACK information bits for the first mod N CB TB N HARQ − ACK TB CBGS; generating N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB HARQ-ACK information bits for the last N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB CBGs; generating a HARQ-ACK codeword that includes the mod N CB TB N HARQ − ACK TB HARQ-ACK information bits followed by the N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB HARQ-ACK information bits, wherein ┌ ┐ is a ceiling function, └ ┘ is a floor function, and mod is a modulo function; and transmitting the HARQ-ACK codeword in a physical uplink control channel, PUCCH, or in a physical uplink shared data channel, PUSCH. receiving a configuration for a number of N HARQ − ACK TB hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits per data transport block, TB; receiving a downlink control information, DCI, format scheduling a reception of a data TB; receiving the data TB that includes a number of N CB TB data code blocks, CBs; determining a number of N HARQ − ACK TB HARQ-ACK information bits for a respective number of CB groups, CBGs; determining N CB CBG = ⌈ N CB TB / N HARQ − ACK TB ⌉ CBs per CBG for first mod N CB TB N HARQ − ACK TB CBGs, and N CB CBG = ⌊ N CB TB / N HARQ − ACK TB ⌋ CBs per CBG for last N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB CBGs; generating mod N CB TB N HARQ − ACK TB HARQ-ACK information bits for the first mod N CB TB N HARQ − ACK TB CBGS; generating N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB HARQ-ACK information bits for the last N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB CBGs; generating a HARQ-ACK codeword that includes the mod N CB TB N HARQ − ACK TB HARQ-ACK information bits followed by the N HARQ − ACK TB − mod N CB TB N HARQ − ACK TB HARQ-ACK information bits, wherein ┌ ┐ is a ceiling function, └ ┘ is a floor function, and mod is a modulo function; and transmitting the HARQ-ACK codeword in a physical uplink control channel, PUCCH, or in a physical uplink shared data channel, PUSCH.
A breath alcohol testing device comprising: a housing containing non-disposable components; a pressure sensor within the housing; an alcohol sensor within the housing; and a disposable sample chamber assembly removably attached to the housing having: a) an inlet for receiving a breath sample from a test subject; b) an inlet chamber receiving the breath sample from the inlet and having: (i) a biometric sensor port to the pressure sensor; and (ii) an outlet for the breath sample to flow from the inlet chamber; c) a sample chamber receiving the breath sample from the outlet of the inlet chamber and having an alcohol sensor port to the alcohol sensor; d) a filter in the alcohol sensor port of the sample chamber preventing liquids from entering the alcohol sensor; and e) a one-way valve in the outlet of the inlet chamber preventing the backflow of gas from the sample chamber into the inlet chamber; wherein the outlet and the one-way valve of the inlet chamber create back-pressure during the breath sample that is measured by the pressure sensor. a housing containing non-disposable components; a pressure sensor within the housing; an alcohol sensor within the housing; and a disposable sample chamber assembly removably attached to the housing having: a) an inlet for receiving a breath sample from a test subject; b) an inlet chamber receiving the breath sample from the inlet and having: (i) a biometric sensor port to the pressure sensor; and (ii) an outlet for the breath sample to flow from the inlet chamber; c) a sample chamber receiving the breath sample from the outlet of the inlet chamber and having an alcohol sensor port to the alcohol sensor; d) a filter in the alcohol sensor port of the sample chamber preventing liquids from entering the alcohol sensor; and e) a one-way valve in the outlet of the inlet chamber preventing the backflow of gas from the sample chamber into the inlet chamber; a) an inlet for receiving a breath sample from a test subject; b) an inlet chamber receiving the breath sample from the inlet and having: (i) a biometric sensor port to the pressure sensor; and (ii) an outlet for the breath sample to flow from the inlet chamber; c) a sample chamber receiving the breath sample from the outlet of the inlet chamber and having an alcohol sensor port to the alcohol sensor; d) a filter in the alcohol sensor port of the sample chamber preventing liquids from entering the alcohol sensor; and e) a one-way valve in the outlet of the inlet chamber preventing the backflow of gas from the sample chamber into the inlet chamber; wherein the outlet and the one-way valve of the inlet chamber create back-pressure during the breath sample that is measured by the pressure sensor.
A method for producing a human cell aggregate comprising a cerebellar progenitor tissue, comprising subjecting an aggregate of human pluripotent stem cells to suspension culturing in a serum-free medium containing insulin, and treating, in the suspension culturing, the aggregate of human pluripotent stem cells or a human cell aggregate derived therefrom with a ROCK inhibitor selected from the group consisting of Y-27632 ((+)- -trans-4-(1-aminoethyl)-N-(4-pyridyl)cyclohexanecarboxamide), Fasudil (5-(1-Homopiperazinyl)sulfonylisoquinoline), and H-1152( -(+)-2-Methyl-1-[(4-methyl-5-isoquinolinyl)sulfonyl]-hexahydro-1H-1,4-diazepine), a TGFβ signal inhibitor selected from the group consisting of SB431542 (4-(5-benzol[1,3]dioxol-5-yl-4-pyridin-2-yl-1H-imidazol-2-yl)-benzamide), LY-364947, SB-505 and A-83-01, and a first fibroblast growth factor selected from the group consisting of FGF2 and FGF8.
A system for repairing a defect in the soft tissue comprising: a strand of suture having at least one loop having two ends (22, 24) and a sliding, locking, or ratcheting knot; and a clasp device (51, 60), wherein the clasp device (51, 60) has: a first eyelet, a first slot through which one of the ends of the suture can be routed into the first eyelet, a second eyelet, and a second slot through which another one of the ends of the suture can be routed into the second eyelet wherein the suture and clasp device (51, 60) are configured in combination to surround the tissue defect and at least partially approximate the defect with the two ends (22, 24) of the loop extending in opposite directions of the clasp device (51, 60). a strand of suture having at least one loop having two ends (22, 24) and a sliding, locking, or ratcheting knot; and a clasp device (51, 60), a first eyelet, a first slot through which one of the ends of the suture can be routed into the first eyelet, a second eyelet, and a second slot through which another one of the ends of the suture can be routed into the second eyelet wherein the suture and clasp device (51, 60) are configured in combination to surround the tissue defect and at least partially approximate the defect with the two ends (22, 24) of the loop extending in opposite directions of the clasp device (51, 60).
Integrated process for compressing air and producing a carbon dioxide-rich fluid, comprising the steps of: i) contacting air intended for an air compressor with water to produce humidified air, or even water-saturated air, and cooled water; ii) compressing the humidified air in the compressor to produce compressed air; iii) using at least part of the compressed air or a fluid produced by separating the compressed air in a plant that produces a carbon dioxide-rich gas (29, 37); iv) compressing the carbon dioxide-rich gas in a carbon dioxide compressor; and v) cooling the carbon dioxide-rich gas upstream and/or downstream of the carbon dioxide compressor using cold energy of the cooled water of step i). i) contacting air intended for an air compressor with water to produce humidified air, or even water-saturated air, and cooled water; ii) compressing the humidified air in the compressor to produce compressed air; iii) using at least part of the compressed air or a fluid produced by separating the compressed air in a plant that produces a carbon dioxide-rich gas (29, 37); iv) compressing the carbon dioxide-rich gas in a carbon dioxide compressor; and v) cooling the carbon dioxide-rich gas upstream and/or downstream of the carbon dioxide compressor using cold energy of the cooled water of step i).
Compounds of the formula I in which and independently of one another, denote or in which Y denotes S or O, where only one of and may denote and in the 1,4-phenylene groups, one C-H group or two C-H groups may be replaced by N and L 0 on each occurrence, independently of one another, denotes H, Br, Cl, F, -CN, -NCS, -SCN, SF 5, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 3 -C 6 cycloalkyl or a mono- or polyfluorinated C 1 -C 10 alkyl or alkoxy group, R 01 and R 02 each, independently of one another, denote a halogenated or unsubstituted alkyl radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CH=CH-, -CF=CF-, -CF=CH-, -CH=CF-, - O-, -O -, - -, -O- or -S- in such a way that O or S atoms are not linked directly to one another and, optionally, independently of one another, R 01 may also denote ethynyl (i.e. -C≡CH) and R 02 may also denote H, and R 03 and R 04 each, independently of one another, denote a halogenated or unsubstituted alkyl radical having 1 to 6, preferably having 1 to 4, particularly preferably having 1, 2 or 3 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CH=CH-, -CF=CF-, -CF=CH-, -CH=CF-, - O-, -O -, - -, -O- or -S- in such a way that O or S atoms are not linked directly to one another, where, in the case where denotes and R 03 and R 04 both denote CH 3, R 01 denotes alk-1-ynyl. L 0 on each occurrence, independently of one another, denotes H, Br, Cl, F, -CN, -NCS, -SCN, SF 5, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 3 -C 6 cycloalkyl or a mono- or polyfluorinated C 1 -C 10 alkyl or alkoxy group, R 01 and R 02 each, independently of one another, denote a halogenated or unsubstituted alkyl radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CH=CH-, -CF=CF-, -CF=CH-, -CH=CF-, - O-, -O -, - -, -O- or -S- in such a way that O or S atoms are not linked directly to one another and, optionally, independently of one another, R 01 may also denote ethynyl (i.e. -C≡CH) and R 02 may also denote H, and R 03 and R 04 each, independently of one another, denote a halogenated or unsubstituted alkyl radical having 1 to 6, preferably having 1 to 4, particularly preferably having 1, 2 or 3 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CH=CH-, -CF=CF-, -CF=CH-, -CH=CF-, - O-, -O -, - -, -O- or -S- in such a way that O or S atoms are not linked directly to one another, R 03 and R 04 both denote CH 3, R 01 denotes alk-1-ynyl.