mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus comprising: a transmitter for transmitting a control signal indicating a special subframe configuration including a length of a uplink portion of a special subframe including a downlink portion and the uplink portion, a second transmission time interval, TTI, for the uplink portion of the special subframe being shorter than a first TTI for an uplink subframe; a receiver for receiving user data or a sounding reference signal based on the control signal; and a mapper, characterized in that the special subframe configuration takes a value out of: a first value indicating the length of the uplink portion, which is not sufficient to accommodate the user data in the second TTI; and a second value indicating the length of the uplink portion, which is sufficient to accommodate the user data in the second TTI, and the mapper is adapted to demap the sounding reference signal from the uplink portion when the special subframe configuration takes the first value and to demap the user data from the uplink portion when the special subframe configuration takes the second value. a transmitter for transmitting a control signal indicating a special subframe configuration including a length of a uplink portion of a special subframe including a downlink portion and the uplink portion, a second transmission time interval, TTI, for the uplink portion of the special subframe being shorter than a first TTI for an uplink subframe; a receiver for receiving user data or a sounding reference signal based on the control signal; and a mapper, characterized in that the special subframe configuration takes a value out of: a first value indicating the length of the uplink portion, which is not sufficient to accommodate the user data in the second TTI; and a second value indicating the length of the uplink portion, which is sufficient to accommodate the user data in the second TTI, and the mapper is adapted to demap the sounding reference signal from the uplink portion when the special subframe configuration takes the first value and to demap the user data from the uplink portion when the special subframe configuration takes the second value. a first value indicating the length of the uplink portion, which is not sufficient to accommodate the user data in the second TTI; and a second value indicating the length of the uplink portion, which is sufficient to accommodate the user data in the second TTI, and the mapper is adapted to demap the sounding reference signal from the uplink portion when the special subframe configuration takes the first value and to demap the user data from the uplink portion when the special subframe configuration takes the second value.
Method for operating a vehicle combination consisting of a towing vehicle and a towed vehicle, characterised in that - input variables of the towing vehicle and of the towed vehicle are read in in a read-in step, wherein the input variables comprise an item of useful load information relating to a useful load (m load, m trailer) of the vehicle combination, an item of torque information relating to a torque on a drive train of the towing vehicle, an item of brake pressure information relating to brake pressures (P 1, P 2, P 3, P trl) provided in the vehicle combination and an item of inclination angle information relating to an angle of inclination (a) of a road under the vehicle combination; - output variables are determined in a determining step using the input variables and a processing specification, wherein the output variables comprise an item of front axle load information relating to an axle load (m) on a front axle of the towing vehicle and an item of rear axle load information relating to an axle load (m) on a rear axle (107b, 107c) of the towing vehicle; and - the output variables are used to actuate a brake system of the vehicle combination in a using step in order to operate the vehicle combination. - input variables of the towing vehicle and of the towed vehicle are read in in a read-in step, wherein the input variables comprise an item of useful load information relating to a useful load (m load, m trailer) of the vehicle combination, an item of torque information relating to a torque on a drive train of the towing vehicle, an item of brake pressure information relating to brake pressures (P 1, P 2, P 3, P trl) provided in the vehicle combination and an item of inclination angle information relating to an angle of inclination (a) of a road under the vehicle combination; - output variables are determined in a determining step using the input variables and a processing specification, wherein the output variables comprise an item of front axle load information relating to an axle load (m) on a front axle of the towing vehicle and an item of rear axle load information relating to an axle load (m) on a rear axle (107b, 107c) of the towing vehicle; and - the output variables are used to actuate a brake system of the vehicle combination in a using step in order to operate the vehicle combination.
A method for identifying a root cause of an anomaly in operation of one or more machines, the method comprising: obtaining sensor data from a set of sensors associated with the one or more machines; converting the sensor data into a set of sensor states; building an optimal Directed Acyclic Graph, DAG, for the set of sensors based on the set of sensor states to model causal dependency; determining, by using the DAG, a probability of an anomaly state of a target sensor based on a state of a direct neighbor sensor; determining a root cause of the anomaly state associated with the target sensor by back-tracking the anomaly state in the DAG. wherein converting the sensor data into a set of sensor states comprises: applying a data pre-processing technique to the sensor data to time align the sensor data with a unified global reference time, wherein the unified global reference time includes a set of time intervals; and applying a data summarization technique to the pre-processed sensor data. obtaining sensor data from a set of sensors associated with the one or more machines; converting the sensor data into a set of sensor states; building an optimal Directed Acyclic Graph, DAG, for the set of sensors based on the set of sensor states to model causal dependency; determining, by using the DAG, a probability of an anomaly state of a target sensor based on a state of a direct neighbor sensor; determining a root cause of the anomaly state associated with the target sensor by back-tracking the anomaly state in the DAG. wherein converting the sensor data into a set of sensor states comprises: applying a data pre-processing technique to the sensor data to time align the sensor data with a unified global reference time, wherein the unified global reference time includes a set of time intervals; and applying a data summarization technique to the pre-processed sensor data. applying a data pre-processing technique to the sensor data to time align the sensor data with a unified global reference time, wherein the unified global reference time includes a set of time intervals; and applying a data summarization technique to the pre-processed sensor data.
A method performed by a network node for providing access to a wireless communications system, wherein a carrier/system bandwidth of the wireless communications system comprises a set of bandwidth parts (47, 48, 49) and the network node is configured with a plurality of initial bandwidth parts (47, 48) selected from the set of bandwidth parts (47, 48, 49) for initial network access on an unlicensed spectrum, the method comprising: broadcasting control information, wherein the control information is indicative of the plurality of initial bandwidth parts (47, 48); receiving a random access transmission from a wireless device on one initial bandwidth part of the plurality of initial bandwidth parts (47, 48) indicating, in the control information, a second plurality of initial bandwidth parts (50, 51) provided by a second network node; receiving a candidate cell measurement report from the wireless device that reports measurements (202, 204) of the second plurality of initial bandwidth parts (50, 51) provided by the second network node; and transmitting a handover command (124, 212) based on the received candidate cell measurement report; wherein the cell measurement report includes a measurement trigger event, wherein the measurement trigger event indicates that at least one initial bandwidth part of the second plurality of initial bandwidth parts (50, 51) provided by the second network node has met a measurement trigger condition, and wherein the handover command (124, 212, 238) prompts random access between the wireless device and the second network node on one initial bandwidth part of the second plurality of initial bandwidth parts (50, 51). broadcasting control information, wherein the control information is indicative of the plurality of initial bandwidth parts (47, 48); receiving a random access transmission from a wireless device on one initial bandwidth part of the plurality of initial bandwidth parts (47, 48) indicating, in the control information, a second plurality of initial bandwidth parts (50, 51) provided by a second network node; receiving a candidate cell measurement report from the wireless device that reports measurements (202, 204) of the second plurality of initial bandwidth parts (50, 51) provided by the second network node; and transmitting a handover command (124, 212) based on the received candidate cell measurement report; wherein the cell measurement report includes a measurement trigger event, wherein the measurement trigger event indicates that at least one initial bandwidth part of the second plurality of initial bandwidth parts (50, 51) provided by the second network node has met a measurement trigger condition, and wherein the handover command (124, 212, 238) prompts random access between the wireless device and the second network node on one initial bandwidth part of the second plurality of initial bandwidth parts (50, 51).
Capacitor element, comprising a coil provided with a hollow central axis and connection cables, said coil being embedded in resin inside a surrounding cylinder open at its upper part, characterized in that it comprises an auto-centring disk for the axis and the connecting cables engaged to the upper part of the cylinder, said auto-centring disk further engages said hollow central axis and said connecting cables wherein centring and closing said auto-centring disk enables placing the coil and the hollow centring axis in a central position with respect to the inner walls of the cylinder.
A packaging apparatus comprising: an inside panel, a bottom panel, and an inside folding panel connecting a top panel to said inside panel; a left folding panel connecting said bottom panel and said top panel to each other; a bottom right panel connected to a top right panel along a first common edge; wherein said inside panel is connected to said top right panel along a further common edge; an insert comprising a locking member; characterized in that the packaging apparatus further comprises an inside closing panel connected to said inside panel along a left panel; said inside closing panel, said inside panel, said inside folding panel, said top panel, said left folding panel and said bottom panel, when folded, form a sleeve having an opening, said sleeve having a substantially rectangular cross-section; said inside panel comprises a rectangular cutout on an edge directly opposite said further common edge; said sleeve is adapted to receive said insert; said insert is slidable within said sleeve along a sliding direction normal to said rectangular cross-section; and said rectangular cutout forms a lip on said inside panel to receive said locking member on said insert when said insert is positioned within said sleeve. an inside panel, a bottom panel, and an inside folding panel connecting a top panel to said inside panel; a left folding panel connecting said bottom panel and said top panel to each other; a bottom right panel connected to a top right panel along a first common edge; wherein said inside panel is connected to said top right panel along a further common edge; an insert comprising a locking member; the packaging apparatus further comprises an inside closing panel connected to said inside panel along a left panel; said inside closing panel, said inside panel, said inside folding panel, said top panel, said left folding panel and said bottom panel, when folded, form a sleeve having an opening, said sleeve having a substantially rectangular cross-section; said inside panel comprises a rectangular cutout on an edge directly opposite said further common edge; said sleeve is adapted to receive said insert; said insert is slidable within said sleeve along a sliding direction normal to said rectangular cross-section; and said rectangular cutout forms a lip on said inside panel to receive said locking member on said insert when said insert is positioned within said sleeve.
A molding method for removing distortion in a molding part of a separator base material which has been pre-molded to a shape corresponding to a product shape, the method for removing distortion in a separator comprising: employing a first die which corresponds to a product shape of a first molding surface (50b1) pre-molded onto a first surface of the separator base material, and second dies which are opposed to the first die and which correspond to a product shape of a second molding surface (50b2) pre-molded onto the other surface opposite the first surface (50b1) of the separator base material, a first molding step in which the first die is pressed by applying an impact force towards the first molding surface side of the separator base material causing the separator base material to move towards the second dies, and a second molding step subsequent to the first molding step, in which the second dies are pressed towards the second molding surface side of the separator base material, and the molding part of the separator base material is sandwiched between the first die and the second dies (11, 21). employing a first die which corresponds to a product shape of a first molding surface (50b1) pre-molded onto a first surface of the separator base material, and second dies which are opposed to the first die and which correspond to a product shape of a second molding surface (50b2) pre-molded onto the other surface opposite the first surface (50b1) of the separator base material, a first molding step in which the first die is pressed by applying an impact force towards the first molding surface side of the separator base material causing the separator base material to move towards the second dies, and a second molding step subsequent to the first molding step, in which the second dies are pressed towards the second molding surface side of the separator base material, and the molding part of the separator base material is sandwiched between the first die and the second dies (11, 21).
A sensing apparatus for sensing an object, wherein the object is a heart or a part of a heart and the sensing apparatus comprises an arrangement of sensing elements for sensing a property of the object, wherein the sensing elements are operable in a contact mode, in which a sensing is performable, while the sensing elements are in contact with the object, and in a non-contact mode, in which a sensing is performable, while the sensing elements are not in contact with the object, wherein the sensing elements are adapted to acquire an electrical signal, which depends on a property to be determined, and wherein the sensing apparatus comprises an electrical signal processing unit for performing a non-contact mode filtering, which is a bandpass filtering retaining only frequencies from 0.1 to 300 Hz, and a transformation of the filtered electrical signal to a surface of the object, at which the property of the object is to be determined, if the sensing elements are in the non-contact mode, and for performing a contact mode filtering, which is a bandpass filtering retaining only frequencies from 30 to 500 Hz, if the sensing elements are in the contact mode.
An anti-intrusion cylinder for locks of the type comprising a stator provided with a substantially cylindrical longitudinal cavity for accommodating a rotor with a longitudinal recess for the insertion of a key, said rotor and said stator comprising a plurality of channels, which are substantially aligned and face each other when the cylinder is in the closed configuration, said channels accommodating respective coding pins, driver pins and optional elastic means preset to prevent the rotation of the rotor in the stator in the absence of the key in said longitudinal recess, characterized in that at least one of said driver pins comprises a stem, which is accommodated slidingly with mechanical play in the portion of the stator of a respective channel, said stem being provided with a mushroom-shaped tip that has a smaller diameter than said stem, said tip facing and being proximate to the corresponding coding pin, at least one contoured annular body that has a diameter substantially similar to the diameter of said channel being fitted with mechanical play on said mushroom-shaped tip.
A radio frequency identification device (RFID) apparatus comprising a transmitter portion, a receiver portion; a plurality of antennas comprising at least four antennas (A, B, C, D) and a switching matrix; Characterised in that: each antenna is selectively connectable via the switching matrix to both the receiver portion and the transmitter portion; wherein the apparatus is arrangeable in a first configuration wherein one or more of the plurality of antennas is connected via the switching matrix to the transmitter portion as a transmitting antenna and the remaining ones of the plurality of antennas are connected via the switching matrix to the receiver portion as receiving antennas. each antenna is selectively connectable via the switching matrix to both the receiver portion and the transmitter portion; wherein the apparatus is arrangeable in a first configuration wherein one or more of the plurality of antennas is connected via the switching matrix to the transmitter portion as a transmitting antenna and the remaining ones of the plurality of antennas are connected via the switching matrix to the receiver portion as receiving antennas.
A door opening/closing device controlling opening/closing of a door based on a user operation performed by being in contact with an operation handle served as a handle at a time of opening/closing the door, the door opening/closing device comprising: a detection unit provided in the operation handle and configured to detect a contact state of a user with the operation handle; a door driving unit configured to open or close the door; and a control unit configured to determine that a first operation involving a direction is a user operation, wherein the control unit is configured to control the door driving unit and open or close the door based on the user operation that is determined, characterized in that the control unit is configured to determine that the first operation is the user operation under the condition that the first operation and a second operation for determining the validity of the first operation are detected by the detection unit, wherein the second operation is a second user operation performed by being in contact with the operation handle and the control unit is configured to determine that the first operation is the user operation under a further condition that an interval between the first operation and the second operation is equal to or longer than a predetermined determination time. a detection unit provided in the operation handle and configured to detect a contact state of a user with the operation handle; a door driving unit configured to open or close the door; and a control unit configured to determine that a first operation involving a direction is a user operation, wherein the control unit is configured to control the door driving unit and open or close the door based on the user operation that is determined, characterized in that the control unit is configured to determine that the first operation is the user operation under the condition that the first operation and a second operation for determining the validity of the first operation are detected by the detection unit, wherein the second operation is a second user operation performed by being in contact with the operation handle and the control unit is configured to determine that the first operation is the user operation under a further condition that an interval between the first operation and the second operation is equal to or longer than a predetermined determination time.
A method of producing a light emitting device comprising an anode, a cathode, a light emitting layer disposed between the anode and the cathode, and an encapsulating layer, comprising a step of forming the light emitting layer by an application method using an iridium complex having an iridium atom as the central metal or a polymer compound comprising a constitutional unit derived from an iridium complex having an iridium atom as the central metal, a step of forming the anode or the cathode, and a step of forming the encapsulating layer, wherein for the whole process from initiation of the step of forming the light emitting layer to completion of the step of forming the encapsulating layer during which the light emitting device in production is exposed to ozone, the average value of the ozone concentration: A ppb and the time interval: B min satisfy the formula: 0 ≤ A × B ≤ 1000 and the iridium complex is an iridium complex represented by the formula: wherein n 1 represents an integer of 1 or more, n 2 represents an integer of 0 or more, and n 1 +n 2 is 3, E 1 and E 2 each independently represent a carbon atom or a nitrogen atom, and at least one of E 1 and E 2 is a carbon atom, the ring R 1 represents a 5-membered or 6-membered aromatic heterocyclic ring and these rings each optionally have a substituent, and when a plurality of the substituents are present, they may be the same or different and may be combined together to form a ring together with the atoms to which they are attached, and when a plurality of the rings R 1 are present, they may be the same or different, and E 1 is a carbon atom when the ring R 1 is a 6-membered aromatic heterocyclic ring, the ring R 2 represents a 5-membered or 6-membered aromatic hydrocarbon ring or a 5-membered or 6-membered aromatic heterocyclic ring and these rings each optionally have a substituent, and when a plurality of the substituents are present, they may be the same or different and may be combined together to form a ring together with the atoms to which they are attached, and when a plurality of the rings R 2 are present, they may be the same or different, and E 2 is a carbon atom when the ring R 2 is a 6-membered aromatic heterocyclic ring, and A 1 -G 1 -A 2 represents an anionic bidentate ligand, and A 1 and A 2 each independently represent a carbon atom, an oxygen atom or a nitrogen atom, and these atoms each may be an atom constituting a ring, and G 1 represents a single bond or an atomic group constituting the bidentate ligand together with A 1 and A 2, and when a plurality of A 1 -G 1 -A 2 are present, they may be the same or different.