mhurhangee/ep-ind-claims huggingface dataset:
A base station comprising: a memory configured to store a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit a transmission configuration via a physical downlink control channel, PDCCH, the transmission configuration indicating whether a random access channel, RACH, resource is available via transmission direction, wherein: t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction. a memory configured to store a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit a transmission configuration via a physical downlink control channel, PDCCH, the transmission configuration indicating whether a random access channel, RACH, resource is available via transmission direction, wherein: t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction. t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction.
A system for forming an anastomosis in a heart, comprising: a first catheter comprising an electrode; and a second catheter slidably disposed within the first catheter, the second catheter comprising a barb and a dilator the system being characterized in that the dilator comprises a mating surface, wherein the mating surface is configured to engage the electrode. a first catheter comprising an electrode; and a second catheter slidably disposed within the first catheter, the second catheter comprising a barb and a dilator the system being characterized in that the dilator comprises a mating surface, wherein the mating surface is configured to engage the electrode.
A method for the installation of air pipes for a flue gas air preheater, wherein a set of air pipes Is connected to said preheater, the method comprising: - cutting an air pipe connected to the preheater and detaching the portion of the air pipe that is to be removed from the preheater for replacement, - fitting a separate new air pipe in place of the air pipe portion to be removed, - connecting said new air pipe to the remaining portion of the air pipe in a sealed manner, as an extension of it, and - fixing the new air pipe to the remaining portion of the air pipe by utilizing a fastening sleeve fixed to the end of the new air pipe and inserting it in the remaining portion of the air pipe, the method being characterized by: - connecting the remaining portion to the fastening sleeve by means of a conical surface on the outer surface of the fastening sleeve, wherein the remaining portion adheres to the conical surface, and wherein the outer diameter of the conical surface and the inclination of the flank of the conical surface being selected such that the end of the remaining portion adheres tightly and with a sufficient frictional force to the fastening sleeve, when the fastening sleeve connected to the new air pipe is forced into the remaining portion. - cutting an air pipe connected to the preheater and detaching the portion of the air pipe that is to be removed from the preheater for replacement, - fitting a separate new air pipe in place of the air pipe portion to be removed, - connecting said new air pipe to the remaining portion of the air pipe in a sealed manner, as an extension of it, and - fixing the new air pipe to the remaining portion of the air pipe by utilizing a fastening sleeve fixed to the end of the new air pipe and inserting it in the remaining portion of the air pipe, the method being characterized by: - connecting the remaining portion to the fastening sleeve by means of a conical surface on the outer surface of the fastening sleeve, wherein the remaining portion adheres to the conical surface, and wherein the outer diameter of the conical surface and the inclination of the flank of the conical surface being selected such that the end of the remaining portion adheres tightly and with a sufficient frictional force to the fastening sleeve, when the fastening sleeve connected to the new air pipe is forced into the remaining portion.
A drying apparatus that dries an object to be dried containing a solvent, the drying apparatus comprising: a furnace body; a movable body configured to move in an interior space of the furnace body, with the object loaded thereon; a plurality of infrared heaters disposed above the movable body in the interior space of the furnace body; first gas supply/discharge unit for supplying a first gas having a regulated temperature and humidity to the first space, and discharging the first gas supplied to the first space from the first space; a division wall configured to divide the interior space of the furnace body into a first space including the movable body and a second space including the infrared heaters, characterised by: the plurality of infrared heaters being arranged along a direction of travel of the movable body at a plurality of points spaced from each other in the second space, a plurality of first portions of the division wall being located at positions corresponding to the respective infrared heaters in the direction of travel of the movable body, and being made of a material that transmits infrared radiation, and a plurality of second portions of the division wall being located at positions corresponding to respective spaces between adjacent ones of the infrared heaters in the direction of travel of the movable body, and being made of a material that does not transmit infrared radiation; a transmittance regulating unit for varying an infrared transmittance of the first portions of the division wall in accordance with a position in a direction orthogonal to the direction of travel of the movable body; a furnace body; a movable body configured to move in an interior space of the furnace body, with the object loaded thereon; a plurality of infrared heaters disposed above the movable body in the interior space of the furnace body; first gas supply/discharge unit for supplying a first gas having a regulated temperature and humidity to the first space, and discharging the first gas supplied to the first space from the first space; a division wall configured to divide the interior space of the furnace body into a first space including the movable body and a second space including the infrared heaters, characterised by: the plurality of infrared heaters being arranged along a direction of travel of the movable body at a plurality of points spaced from each other in the second space, a plurality of first portions of the division wall being located at positions corresponding to the respective infrared heaters in the direction of travel of the movable body, and being made of a material that transmits infrared radiation, and a plurality of second portions of the division wall being located at positions corresponding to respective spaces between adjacent ones of the infrared heaters in the direction of travel of the movable body, and being made of a material that does not transmit infrared radiation; a transmittance regulating unit for varying an infrared transmittance of the first portions of the division wall in accordance with a position in a direction orthogonal to the direction of travel of the movable body;
A computer-implemented method comprising: receiving, at a processor, time of flight depth camera amplitude and phase measurements depicting surfaces in a scene; computing an index of a look up table from the measurements; using the index to read a corrected depth value from the look up table, the corrected value being a depth of a surface from the camera having been calculated by taking into account at least three possible light ray paths between the camera and a surface in the scene; the corrected value having been calculated by searching for values of a backscattering vector, wherein the backscattering vector values comprise weights indicating how much contribution is made to the amplitude and phase values observed at a pixel from light associated with a plurality of different distance bins, and the distance bins comprise a distance range from the time of flight camera divided into intervals. receiving, at a processor, time of flight depth camera amplitude and phase measurements depicting surfaces in a scene; computing an index of a look up table from the measurements; using the index to read a corrected depth value from the look up table, the corrected value being a depth of a surface from the camera having been calculated by taking into account at least three possible light ray paths between the camera and a surface in the scene; the corrected value having been calculated by searching for values of a backscattering vector, wherein the backscattering vector values comprise weights indicating how much contribution is made to the amplitude and phase values observed at a pixel from light associated with a plurality of different distance bins, and the distance bins comprise a distance range from the time of flight camera divided into intervals.
Composition for increasing the water retaining capacity and aeration of soil, comprising: - a superabsorbent polymer material, and - xylite fibres having a fibre size of 0.5 - 6.0 cm. - a superabsorbent polymer material, and - xylite fibres having a fibre size of 0.5 - 6.0 cm.
A sensor, in particular a position sensor, preferably an angular sensor or a linear sensor, comprising: a detection unit which is configured to detect a measurement variable and to generate a measurement signal which represents the detected measurement variable, and an adjustment unit which is configured to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition. a detection unit which is configured to detect a measurement variable and to generate a measurement signal which represents the detected measurement variable, and an adjustment unit which is configured to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition. to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition.
A method for processing a medium access control entity, comprising: establishing, by a UE, a corresponding medium access control entity for a second connectivity, so that there exists dual connectivity between the UE and a network side comprising a first connectivity and the second connectivity; wherein a radio resource control function exists in the first connectivity and signaling radio bearers are carried by the first connectivity, and characterized in that the medium access control entity of the second connectivity comprises a multiplexing or de-multiplexing module, a logic channel prioritization module, a control module, a random access control module and a hybrid automatic repeat request module; and releasing, by the UE, the medium access control entity of the second connectivity, releasing all radio resources related to the second connectivity and stopping timers related to the second connectivity when the UE receives an instruction for releasing the second connectivity. establishing, by a UE, a corresponding medium access control entity for a second connectivity, so that there exists dual connectivity between the UE and a network side comprising a first connectivity and the second connectivity; wherein a radio resource control function exists in the first connectivity and signaling radio bearers are carried by the first connectivity, and characterized in that the medium access control entity of the second connectivity comprises a multiplexing or de-multiplexing module, a logic channel prioritization module, a control module, a random access control module and a hybrid automatic repeat request module; and releasing, by the UE, the medium access control entity of the second connectivity, releasing all radio resources related to the second connectivity and stopping timers related to the second connectivity when the UE receives an instruction for releasing the second connectivity.
A surgical system, comprising: a 3D tracking sensor; a trackable element (40, 42) fixable to an object; the 3D tracking sensor being configured to track the trackable element (40,42); a surgical controller configured to determine a pose of the trackable element (40, 42) relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object; wherein generating the point cloud comprises using the determination of the pose of the trackable element (40, 42) relative to the 3D tracking sensor to determine the location of the tip of the registration probe relative to the trackable element (40, 42) while the tip of the registration probe contacts the object at the plurality of contact points. a 3D tracking sensor; a trackable element (40, 42) fixable to an object; the 3D tracking sensor being configured to track the trackable element (40,42); a surgical controller configured to determine a pose of the trackable element (40, 42) relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object; determine a pose of the trackable element (40, 42) relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object; generate a point cloud representing a plurality of contact points between the registration probe and the object; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object; wherein generating the point cloud comprises using the determination of the pose of the trackable element (40, 42) relative to the 3D tracking sensor to determine the location of the tip of the registration probe relative to the trackable element (40, 42) while the tip of the registration probe contacts the object at the plurality of contact points.
A biocompatible component comprising a substrate having a surface having a hierarchical surface structure comprising a microstructure and a primary nanostructure superimposed on said microstructure, characterized in that a secondary nanostructure is superimposed on said primary nanostructure, and in that the secondary nanostructure comprises metallic oxide.
A real-time optical gas imaging system comprising: an infrared camera module configured to capture infrared radiation and generate infrared images of a target scene comprising infrared image data; a memory for storing one or more infrared images; a display; one or more processors configured to create a filtered background image by combining infrared image data from a first plurality of infrared images, captured over time by the infrared camera module, using a first filtering process, the first filtering process including a first filtering parameter; create a filtered foreground image by combining infrared image data from a second plurality of infrared images, captured over time by the infrared camera module, using a second filtering process, the second filtering process including a second filtering parameter; create optical gas image data by comparing the filtered background image and the filtered foreground image; generate a display image including the optical gas image data for presentation on the display; characterized in that the one or more processors are further configured to detect a change in the received infrared image data, wherein detecting the change in the received image data comprises detecting motion of the infrared camera module; in response to the motion of the infrared camera module exceeding a threshold, adjust the first filtering parameter or the second filtering parameter. an infrared camera module configured to capture infrared radiation and generate infrared images of a target scene comprising infrared image data; a memory for storing one or more infrared images; a display; one or more processors configured to create a filtered background image by combining infrared image data from a first plurality of infrared images, captured over time by the infrared camera module, using a first filtering process, the first filtering process including a first filtering parameter; create a filtered foreground image by combining infrared image data from a second plurality of infrared images, captured over time by the infrared camera module, using a second filtering process, the second filtering process including a second filtering parameter; create optical gas image data by comparing the filtered background image and the filtered foreground image; generate a display image including the optical gas image data for presentation on the display; characterized in that the one or more processors are further configured to detect a change in the received infrared image data, wherein detecting the change in the received image data comprises detecting motion of the infrared camera module; in response to the motion of the infrared camera module exceeding a threshold, adjust the first filtering parameter or the second filtering parameter.
Modular piece of seating furniture and/or lying furniture, comprising a stool module, which has a stool seating surface and a stool foot portion, comprising a body module, which has a base body and a body seating surface which can be arranged in two positions (A, B) thereon, wherein in a first position, in which the body seating surface is substantially upright, the stool foot portion of the stool module can be received in the base body, in such a way that the stool seating surface forms a shared seating place, wherein in a second position, in which the body seating surface is pivoted to be substantially horizontal, the body module provides a first seating place formed with the pivoted body seating surface, and a second seating place can be provided independently of the body module by way of the stool module taken out of the base body.
A powdered oleoresin composition comprising; a) oleoresin(s) in an amount ranges from 30 to 90%; b) mineral hydroxide(s)/ oxide(s)/ chloride(s)/ carbonate(s) in an amount ranges from 0.01 to 50% and c) either organic/inorganic acid(s) in an amount ranges from 0.001 to 20% of the total composition or is devoid of organic/inorganic acid(s). a) oleoresin(s) in an amount ranges from 30 to 90%; b) mineral hydroxide(s)/ oxide(s)/ chloride(s)/ carbonate(s) in an amount ranges from 0.01 to 50% and c) either organic/inorganic acid(s) in an amount ranges from 0.001 to 20% of the total composition or is devoid of organic/inorganic acid(s).
A method of relay transmission, comprising: receiving, by a relay terminal device, an ADPtive, ADP, layer Protocol Data Unit, PDU, sent to a network device by a remote terminal device through the relay terminal device; characterized by: the ADP-layer PDU containing identifier information of the remote terminal device; acquiring, by the relay terminal device, the identifier information, contained in the ADP-layer PDU, of the remote terminal device in an ADP layer of layer 2; and forwarding, by the relay terminal device according to the acquired identifier information of the remote terminal device, data contained in the ADP-layer PDU to the network device. receiving, by a relay terminal device, an ADPtive, ADP, layer Protocol Data Unit, PDU, sent to a network device by a remote terminal device through the relay terminal device; characterized by: the ADP-layer PDU containing identifier information of the remote terminal device; acquiring, by the relay terminal device, the identifier information, contained in the ADP-layer PDU, of the remote terminal device in an ADP layer of layer 2; and forwarding, by the relay terminal device according to the acquired identifier information of the remote terminal device, data contained in the ADP-layer PDU to the network device. the ADP-layer PDU containing identifier information of the remote terminal device; acquiring, by the relay terminal device, the identifier information, contained in the ADP-layer PDU, of the remote terminal device in an ADP layer of layer 2; and forwarding, by the relay terminal device according to the acquired identifier information of the remote terminal device, data contained in the ADP-layer PDU to the network device.