mhurhangee/ep-ind-claims huggingface dataset:
Container cleaning module for a modular container cleaning machine, wherein the container cleaning module comprises: - at least one rack for receiving containers oriented upside down, wherein the at least one rack comprises each at least one liquid supply line, and wherein the at least one rack comprises each a plurality of pins (5, 28, 33) onto which the containers oriented upside down are placable, wherein each one of the plurality of pins (5, 28, 33) comprises at least one nozzle (6, 29, 35, 36) for internal cleaning of a container placed thereon and oriented upside down, - a module housing with: - at least one liquid inlet, - at least one liquid outlet, - at least one insertion device (10a, 10b) for receiving one or several ones of the at least one rack, - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing, - a control device and a sensory mechanism for controlling and monitoring a cleaning operation by the container cleaning module, characterised in that the sensory mechanism comprises a detection and execution sensory mechanism, wherein the detection sensory mechanism is adapted to detect temperatures of the liquid in the container cleaning module and/or the degree of soiling of the liquid discharged through the liquid outlet, wherein the execution sensory mechanism is adapted to initiate execution processes based on values determined before a cleaning operation and/or determined during a cleaning operation, wherein the execution sensory mechanism uses therefor values detected by the detection sensory mechanism which the execution sensory mechanism obtained from the detection sensory mechanism. - at least one rack for receiving containers oriented upside down, wherein the at least one rack comprises each at least one liquid supply line, and wherein the at least one rack comprises each a plurality of pins (5, 28, 33) onto which the containers oriented upside down are placable, wherein each one of the plurality of pins (5, 28, 33) comprises at least one nozzle (6, 29, 35, 36) for internal cleaning of a container placed thereon and oriented upside down, - a module housing with: - at least one liquid inlet, - at least one liquid outlet, - at least one insertion device (10a, 10b) for receiving one or several ones of the at least one rack, - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing, - at least one liquid inlet, - at least one liquid outlet, - at least one insertion device (10a, 10b) for receiving one or several ones of the at least one rack, - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing, - a control device and a sensory mechanism for controlling and monitoring a cleaning operation by the container cleaning module,
A communication method, wherein the method comprises: obtaining, by a first device, first indication information; and sending, by the first device, the first indication information and first data to a second device, wherein the first indication information comprises first information, and the first information is used to indicate the second device to feed back hybrid automatic repeat request, HARQ, information for the first data based on distance information, and/or indicate the second device to feed back HARQ information for the first data based on information about signal quality, and receiving, by the first device, HARQ information for the first data fed back by the second device based on the first indication information, wherein the first indication information comprises a first field, and three different values of the first field are used to indicate the second device to feed back HARQ information for the first data based on the distance information using the first of the three different values, on the information about the signal quality using the second of the three different values, and on both the distance information and the information about the signal quality using the third of the three different values. obtaining, by a first device, first indication information; and sending, by the first device, the first indication information and first data to a second device, wherein the first indication information comprises first information, and the first information is used to indicate the second device to feed back hybrid automatic repeat request, HARQ, information for the first data based on distance information, and/or indicate the second device to feed back HARQ information for the first data based on information about signal quality, and receiving, by the first device, HARQ information for the first data fed back by the second device based on the first indication information, wherein the first indication information comprises a first field, and three different values of the first field are used to indicate the second device to feed back HARQ information for the first data based on the distance information using the first of the three different values, on the information about the signal quality using the second of the three different values, and on both the distance information and the information about the signal quality using the third of the three different values.
A device for dispensing a carbonated beverage, in particular beer, under pressure, the device comprising connection means for connecting said device to a source of carbonated beverage, and where the device at the opposite end of the connection means has a valve that may be brought into a closed position where no beverage is dispensed, and an open position where beverage is dispensed, the valve comprising a valve housing provided internally with an annular valve seat and an axially symmetric valve body which is displaceable along its axis of symmetry so that the valve body can interact with the valve seat, where the valve body includes a head portion and a stem portion, where the stem portion extends from the head portion at the side of the head portion facing the valve seat, the stem portion further extending through an opening, the opening being concentric about the axis of symmetry of the valve body, and where a contact surface of the head portion is in contact with the valve seat in the closed position and is out of contact with said valve seat in the open position, respectively, the head portion being urged into contact with the valve seat under the action of the beverage supplied through the connection means in the closed position, where the head portion can be moved from the closed to the open position when the free end of the stem portion is actuated in a direction along the axis of symmetry by external means, e.g. by a bottom of a glass, thereby mechanically urging the stem and thereby the head portion out of contact with the valve seat, and wherein the valve is provided with at least one discharge outlet (10, 50, 60) for the beverage, characterised in that throttle means (20, 30, 40, 51b, 68) is/are arranged at the discharge outlet(s) (10, 50, 60) for constricting a cross-sectional area of the discharge outlet(s) (10, 50, 60) through which the beverage is to pass when the head portion is in the open position, the throttle means (20, 30, 40, 51b, 68) arranged such the cross-sectional area of the discharge outlets (10, 50, 60) can be adjusted by moving the throttle means manually.
Process for controlling a state variable controllable by a technical building installation, by which process the state variable is detected continuously or at least during a given period of time and the detected state variable as ACTUAL state variable is compared with a SET state variable and on detection of a deviation from the norm this deviation is evaluated with regard to whether the actuator provided to control the technical building installation is to be or not to be overridden to compensate the deviation, wherein a first controller is used to detect and compensate detected deviations of the ACTUAL state variable from the SET state variable, and in case of a compensation to be effected, the actuator is overridden accordingly and in the following the modification of the state variable with regard to the overriding of the actuator is monitored, whether the effected modification of the state variable was sufficient to compensate the deviation, characterized by the fact that the modification of the state variable with regard to the overriding of the actuator is also monitored with regard to whether the modification pattern of the state variable as ACTUAL modification pattern sufficiently corresponds to a SET modification pattern, wherein on detection of a deviation regarding the modification pattern of the state variable, with the next overriding of the actuator this overriding for converging the deviation of the detected ACTUAL modification pattern to the SET modification pattern is effected by means of at least one changed control parameter, wherein the adaptation of an ACTUAL modification pattern of the changing state variable to a SET modification pattern is effected by means of a second controller, wherein the continuously detected state variable, with reference to the following criteria, after effected overriding of the variable evaluates: a) bounce and/or b) persisting deviation and/or c) vibration behaviour and compares those with corresponding SET modification patterns. a) bounce and/or b) persisting deviation and/or c) vibration behaviour
A Full Authority Digital Engine Control (FADEC) system that includes a digital pressure sensor and a dual channel electronic engine control unit for a gas turbine engine, comprising: a division function configured to divide a measured pressure rate of change of each of a FADEC channel A and a FADEC channel B {P dot} by an average pressure of said FADEC channel A and said FADEC channel B to obtain a resultant value from each of said FADEC channel A and said FADEC channel B, wherein each of said FADEC channel A and said FADEC channel B is in communication with a section of a gas turbine engine, when in use; said measured pressure rate of change is measured by said digital pressure sensor on each of said FADEC channel A and said FADEC channel B; a first comparator function configured to bound a proper high resultant value from said division function for each of said FADEC channel A and said FADEC channel B; a second comparator function configured to bound a proper low resultant value from said division function for each of said FADEC channel A and said FADEC channel B; and an OR gate in communication with said first comparator and said second comparator for each of said FADEC channel A and said FADEC channel B; and wherein the electronic engine control unit is configured if either comparator function is true for either of said FADEC channel A and said FADEC channel B, to filter out that FADEC channel for a time period so as to avoid triggering a surge recovery sequence. a division function configured to divide a measured pressure rate of change of each of a FADEC channel A and a FADEC channel B {P dot} by an average pressure of said FADEC channel A and said FADEC channel B to obtain a resultant value from each of said FADEC channel A and said FADEC channel B, wherein each of said FADEC channel A and said FADEC channel B is in communication with a section of a gas turbine engine, when in use; said measured pressure rate of change is measured by said digital pressure sensor on each of said FADEC channel A and said FADEC channel B; a first comparator function configured to bound a proper high resultant value from said division function for each of said FADEC channel A and said FADEC channel B; a second comparator function configured to bound a proper low resultant value from said division function for each of said FADEC channel A and said FADEC channel B; and an OR gate in communication with said first comparator and said second comparator for each of said FADEC channel A and said FADEC channel B; and wherein the electronic engine control unit is configured if either comparator function is true for either of said FADEC channel A and said FADEC channel B, to filter out that FADEC channel for a time period so as to avoid triggering a surge recovery sequence.
A method of scrambling signals assigned on predetermined radio resources of at least one layer of resource blocks with the same time and frequency resources, comprising the steps of: selecting a random seed from a first random seed generated based on a transmission point ID and a second random seed generated based on a group ID assigned by a transmission point or a user equipment specific ID; initializing a scrambling sequence by the selected random seed; and scrambling the signals with the initialized scrambling sequence, characterized by selecting the first random seed when a user equipment is in a MU-MIMO operation, and selecting the second random seed when the user equipment is not in the MU-MIMO operation. selecting a random seed from a first random seed generated based on a transmission point ID and a second random seed generated based on a group ID assigned by a transmission point or a user equipment specific ID; initializing a scrambling sequence by the selected random seed; and scrambling the signals with the initialized scrambling sequence, characterized by selecting the first random seed when a user equipment is in a MU-MIMO operation, and selecting the second random seed when the user equipment is not in the MU-MIMO operation.
Sensor element for detecting at least one property of a gas in a measurement space, in particular for detecting a proportion of at least one gas component of the gas, the sensor element having at least one electrode, the electrode being connected via at least one reference gas channel to at least one surrounding space, the reference gas channel being configured as an open, unfilled reference gas channel, characterized in that the reference gas channel has an effective open cross-sectional area of 500 μm 2 to 10, 000 μm 2.
A method of laser ablation surface preparation of a three-dimensional surface, the method comprising: receiving a 3D virtual model of a surface to be ablated; generating a series of waypoints to form a preliminary ablation path through which a laser sheet would move across the surface, wherein each of the waypoints is associated with a waypoint location on the surface and includes a laser head position, a laser sheet orientation, and a scan width, wherein the scan width is the width of the laser sheet incident on the surface; optimizing the coverage by the laser sheet of the surface of the preliminary ablation path by adjusting one or more of the laser head position, the laser sheet orientation, the scan width, the waypoint location, and the scan spacing of one or more waypoints to produce an adapted ablation path; and ablating the surface by moving the laser sheet according to the adapted ablation path. receiving a 3D virtual model of a surface to be ablated; generating a series of waypoints to form a preliminary ablation path through which a laser sheet would move across the surface, wherein each of the waypoints is associated with a waypoint location on the surface and includes a laser head position, a laser sheet orientation, and a scan width, wherein the scan width is the width of the laser sheet incident on the surface; optimizing the coverage by the laser sheet of the surface of the preliminary ablation path by adjusting one or more of the laser head position, the laser sheet orientation, the scan width, the waypoint location, and the scan spacing of one or more waypoints to produce an adapted ablation path; and ablating the surface by moving the laser sheet according to the adapted ablation path.
Light comprising a housing, a plurality of light fixtures arranged in the housing, a covering disc which closes the housing in the radiation direction and a film for changing the radiation characteristics of the light fixtures, which is arranged in front of the light fixtures in the radiation direction, wherein the film is arranged between the covering disc and a supporting disc, and wherein the film is in direct contact with both discs (5, 7), characterised in that the covering disc is circumferentially adhered to the housing, wherein the supporting disc is mounted on an elastic bearing which is arranged on a first circumferential step of the housing, and wherein the covering disc is mounted in the housing by means of an adhesion arranged circumferentially on the second step.
A combustor for a gas turbine engine comprising: a support shell (68,70); a first liner panel (72A,72B) mounted to the support shell (68,70) via a multiple of studs, the first liner panel (72A,72B) including a first rail that extends from a cold side of the first liner panel (72A,72B); and a second liner panel (74A,74B) mounted to the support shell (68,70) via a multiple of studs, the second liner panel (74A,74B) including a second rail that extends from a cold side of the second liner panel (74A,74B), and the first liner panel (72A,72B) has a first hot side and the second liner panel (74A,74B) has a second hot side, wherein the second hot side is offset toward the support shell (68,70) with respect to the first hot side, characterised in that: the first rail is non-perpendicular to the cold side and includes a concave surface to at least partially form a curved interface passage (150;150A); the second rail includes a convex surface to at least partially form the curved interface passage (150;150A); and the curved interface passage (150;150A) is configured to direct a leakage flow in a parabolic flow path to be ejected generally parallel to the hot side of the liner panels (72,74) to promote film attachment to the hot side and facilitate cooling effectiveness. a support shell (68,70); a first liner panel (72A,72B) mounted to the support shell (68,70) via a multiple of studs, the first liner panel (72A,72B) including a first rail that extends from a cold side of the first liner panel (72A,72B); and a second liner panel (74A,74B) mounted to the support shell (68,70) via a multiple of studs, the second liner panel (74A,74B) including a second rail that extends from a cold side of the second liner panel (74A,74B), and the first liner panel (72A,72B) has a first hot side and the second liner panel (74A,74B) has a second hot side, wherein the second hot side is offset toward the support shell (68,70) with respect to the first hot side, characterised in that: the first rail is non-perpendicular to the cold side and includes a concave surface to at least partially form a curved interface passage (150;150A); the second rail includes a convex surface to at least partially form the curved interface passage (150;150A); and the curved interface passage (150;150A) is configured to direct a leakage flow in a parabolic flow path to be ejected generally parallel to the hot side of the liner panels (72,74) to promote film attachment to the hot side and facilitate cooling effectiveness. the first rail is non-perpendicular to the cold side and includes a concave surface to at least partially form a curved interface passage (150;150A); the second rail includes a convex surface to at least partially form the curved interface passage (150;150A); and the curved interface passage (150;150A) is configured to direct a leakage flow in a parabolic flow path to be ejected generally parallel to the hot side of the liner panels (72,74) to promote film attachment to the hot side and facilitate cooling effectiveness.
A leaf seal for effecting a seal between two coaxial, relatively rotating components, the leaf seal having an annular pack of leaves (42, 42', 42") which are stacked face-to-face within the pack, and which are mountable to one of the components at respective root portions of the leaves such that the leaves extend towards the other component and respective edges of the leaves are presented for wiping contact with the other component; wherein the pack includes a plurality of spacers, each spacer separating the root portions of neighbouring leaves to form therebetween interleaf gaps which allow an axial leakage flow through the pack; wherein the spacers are distributed around the pack such that the leaves (42, 42', 42") are divided into blocks of two or more leaves sandwiched at their root portions between nearest-neighbour spacers; and wherein within each block the leaves make face-to-face contact with their nearest-neighbour leaves in the block over their entire lengths from their respective root portions to their respective wiping contact edges.
An additional module for connection to an injector for dispensing a medical substance, comprising a housing having a holding apparatus and a receiving unit having a holding element (43.1, 43.2) for holding the injector on or in the receiving unit, wherein the receiving unit is movable relative to the housing, wherein a) the additional module has a holding configuration in which the holding unit is held in the housing by the holding apparatus and is not freely movable relative to the housing and in which the holding element (43.1, 43.2) is locked by the housing, b) the additional module has a release configuration in which the holding unit is released from the holding apparatus and is mounted in such a way that it can move freely relative to the housing and cannot detach from the housing and in which the holding element (43.1, 43.2) is released from the locking mechanism wherein the additional module can be adjusted from the holding configuration to the release configuration and back by an adjusting movement of the receiving unit relative to the housing. a) the additional module has a holding configuration in which the holding unit is held in the housing by the holding apparatus and is not freely movable relative to the housing and in which the holding element (43.1, 43.2) is locked by the housing, b) the additional module has a release configuration in which the holding unit is released from the holding apparatus and is mounted in such a way that it can move freely relative to the housing and cannot detach from the housing and in which the holding element (43.1, 43.2) is released from the locking mechanism
An insulating composite film, comprising: an upper film layer, made of at least one of polypropylene, polycarbonate, and polyethylene terephthalate materials; a lower film layer, made of at least one of polypropylene, polycarbonate, and polyethylene terephthalate materials, wherein the upper surface of the intermediate film layer and the lower surface of the upper film layer are bonded together, and the lower surface of the intermediate film layer and the upper surface of the lower film layer are bonded together, characterized in that the insulating composite film further comprises an intermediate film layer located between the upper film layer and the lower film layer, made of a thermoplastic resin selected from polymethyl methacrylate (PMMA) or polyarylate. an upper film layer, made of at least one of polypropylene, polycarbonate, and polyethylene terephthalate materials; a lower film layer, made of at least one of polypropylene, polycarbonate, and polyethylene terephthalate materials, wherein the upper surface of the intermediate film layer and the lower surface of the upper film layer are bonded together, and the lower surface of the intermediate film layer and the upper surface of the lower film layer are bonded together, characterized in that the insulating composite film further comprises an intermediate film layer located between the upper film layer and the lower film layer, made of a thermoplastic resin selected from polymethyl methacrylate (PMMA) or polyarylate.