mhurhangee/patent-ind-claim-en huggingface dataset:
A random access method of a terminal in a network supporting carrier aggregation, the method comprising: determining whether a Scheduling Request, SR, is pending; determining , when the SR is pending, whether an uplink transmission resource is available in a current Transmission Time Interval, TTI; determining , when the uplink transmission resource is not available, whether a Physical Uplink Control Channel, PUCCH, resource is configured to transmit the SR; and initiating , when the PUCCH resource is not configured, a random access process in a primary cell, wherein the primary cell is the cell to which the UE has established connection before other serving cells are configured; determining , when the PUCCH resource is configured, whether the PUCCH resource is configured for transmitting the SR in the current TTI, whether the current TTI is not a part of a measurement gap and whether a prohibit timer is not running; comparing , when the PUCCH resource is configured for transmitting of the SR in the current TTI, the current TTI is not a part of measurement gap and the prohibit timer is not running, an SR transmission times counter with a maximum SR transmission value; releasing, when the SR transmission times counter is equal to or greater than the maximum SR transmission value, the PUCCH and sounding reference signal, SRS; and initiating , when the SR transmission times counter is equal to or greater than the maximum SR transmission value, the random access process in the primary cell. determining whether a Scheduling Request, SR, is pending; determining , when the SR is pending, whether an uplink transmission resource is available in a current Transmission Time Interval, TTI; determining , when the uplink transmission resource is not available, whether a Physical Uplink Control Channel, PUCCH, resource is configured to transmit the SR; and initiating , when the PUCCH resource is not configured, a random access process in a primary cell, wherein the primary cell is the cell to which the UE has established connection before other serving cells are configured; determining , when the PUCCH resource is configured, whether the PUCCH resource is configured for transmitting the SR in the current TTI, whether the current TTI is not a part of a measurement gap and whether a prohibit timer is not running; comparing , when the PUCCH resource is configured for transmitting of the SR in the current TTI, the current TTI is not a part of measurement gap and the prohibit timer is not running, an SR transmission times counter with a maximum SR transmission value; releasing, when the SR transmission times counter is equal to or greater than the maximum SR transmission value, the PUCCH and sounding reference signal, SRS; and initiating , when the SR transmission times counter is equal to or greater than the maximum SR transmission value, the random access process in the primary cell.
An assembled battery , comprising: secondary batteries with a flat prismatic shape that are stacked in a thickness direction, each of the secondary batteries having a pair of external terminals at one end in a height direction of the secondary battery ; spacer members that are stacked alternately with the secondary batteries ; and plate-shaped members each made of a metal material, the plate-shaped members extending in a stacking direction of the secondary batteries and facing side surfaces of the spacer members along the stacking direction, wherein each spacer member includes engagement parts made of resin with an insulating property at opposite ends of the spacer member in the height direction, the engagement parts being adapted to be engaged with each plate-shaped member , each engagement part is a groove-like concave part that extends in the stacking direction with opposite ends open, one of the engagement parts provided at the same end in the height direction on which the external terminals are located, the engagement part being formed to have a groove-like shape with a depth toward an inside in the width direction of the secondary battery , and one of the ends of each plate-shaped member in the height direction is bent to the inside in the width direction from the height direction, protrudes to a depth direction of the one of the engagement parts, and is engaged with the one of the engagement parts in a manner that sliding is possible in the stacking direction. secondary batteries with a flat prismatic shape that are stacked in a thickness direction, each of the secondary batteries having a pair of external terminals at one end in a height direction of the secondary battery ; spacer members that are stacked alternately with the secondary batteries ; and plate-shaped members each made of a metal material, the plate-shaped members extending in a stacking direction of the secondary batteries and facing side surfaces of the spacer members along the stacking direction, wherein each spacer member includes engagement parts made of resin with an insulating property at opposite ends of the spacer member in the height direction, the engagement parts being adapted to be engaged with each plate-shaped member , each engagement part is a groove-like concave part that extends in the stacking direction with opposite ends open, one of the engagement parts provided at the same end in the height direction on which the external terminals are located, the engagement part being formed to have a groove-like shape with a depth toward an inside in the width direction of the secondary battery , and one of the ends of each plate-shaped member in the height direction is bent to the inside in the width direction from the height direction, protrudes to a depth direction of the one of the engagement parts, and is engaged with the one of the engagement parts in a manner that sliding is possible in the stacking direction.
An LC oscillator circuit that produces an output signal (V) having an amplitude and a frequency, the output signal (V) having a frequency dependence on temperature and also having a frequency dependence on amplitude, comprising: - a tank circuit , - a transconductance amplifier , configured for operating the tank circuit within a phase region of a local or global temperature null by controlling the harmonic content of the current input to the tank circuit , in which phase region of a local or global temperature null, the frequency of the output signal (V) exhibits a reduced sensitivity to changes in temperature; characterized in - a reference voltage generation circuit , configured for sensing a change in temperature and for generating a reference signal (V ref (T)) for automatic amplitude control, which reference signal (V ref (T)) is a controlled programmable function of temperature; and - an automatic amplitude controller , configured for controlling the amplitude of the output signal (V) in response to the reference signal by controlling the transconductance amplifier such that the frequency of the output signal (V) follows a TNULL characteristic as a function of temperature in the phase region of the temperature null. - a tank circuit , - a transconductance amplifier , configured for operating the tank circuit within a phase region of a local or global temperature null by controlling the harmonic content of the current input to the tank circuit , in which phase region of a local or global temperature null, the frequency of the output signal (V) exhibits a reduced sensitivity to changes in temperature; characterized in - a reference voltage generation circuit , configured for sensing a change in temperature and for generating a reference signal (V ref (T)) for automatic amplitude control, which reference signal (V ref (T)) is a controlled programmable function of temperature; and - an automatic amplitude controller , configured for controlling the amplitude of the output signal (V) in response to the reference signal by controlling the transconductance amplifier such that the frequency of the output signal (V) follows a TNULL characteristic as a function of temperature in the phase region of the temperature null.
A method performed by a vehicle to everything application enabler, VAE, client of a wireless device for using a service in a wireless communication network for vehicle to anything, V2X, wireless devices, the method comprising: - receiving , from a V2X application specific client, a V2X message of a service with a service ID; - determining a VAE server for receiving an uplink V2X message based on the service ID; and - transmitting the uplink V2X message to the determined VAE server with the service ID. - receiving , from a V2X application specific client, a V2X message of a service with a service ID; - determining a VAE server for receiving an uplink V2X message based on the service ID; and - transmitting the uplink V2X message to the determined VAE server with the service ID.
A gravure printing roll (A) comprising: a gravure printing roll body ; and cells formed in a peripheral surface of the gravure printing roll body , the cells each having an opening with a ratio between a dimension in a circumferential direction of the gravure printing roll body and a dimension in an axial center direction of the gravure printing roll body , dimension in the circumferential direction/dimension in the axial center direction, being 1.15 to 7, the cells each having an opening area of 3900 μm 2 or smaller, characterized by the formation density of the cells in the gravure printing roll (A) being 25 cells/mm 2 or smaller.
Receiving device for receiving at least one energy storage component , comprising at least one receiving part which delimits at least in sections a mounting frame for receiving the energy storage component , wherein a coolant channel structure comprising at least in sections at least one coolant channel is formed in the surface of the receiving part , which coolant channel structure communicates with at least one coolant inlet and with at least one coolant outlet , wherein the receiving part forms a base surface of the receiving device and a frame-like additional receiving part forming a plurality of side surfaces of the receiving device that also delimit the mounting frame is provided, in which receiving part a plurality of receiving compartments are formed for receiving at least one energy storage component in an exact fit, wherein on a side of a central crossbeam of the additional receiving part facing the at least one coolant inlet and the at least one coolant outlet at least one receiving compartment is formed for receiving at least one electronic component connected or to be connected electrically to an energy storage cell and wherein on a side of the central crossbeam of the additional receiving part facing away from the at least one coolant inlet and the at least one coolant outlet at least one receiving compartment is formed for receiving at least one energy storage cell .
Medical device for managing the glycaemic balance of a diabetic patient, said device comprising: - a memory module configured for storing a plurality of blood glucose levels measured during a glycaemic balance phase (P1) over a given period of time, said blood glucose levels measured being relative to a content of a blood component representative of the blood glucose level of said patient, and - a processing circuit implementing a management rule configured for detecting a glycaemic imbalance state in the patient by comparing said blood glucose levels measured with a threshold value range having an upper blood glucose limit corresponding to a high blood glucose state and a lower blood glucose limit corresponding to a low blood glucose state, said processing circuit being configured for emitting a warning signal when a glycaemic imbalance state is detected, - a titration circuit configured for calculating a daily insulin dose; the device further comprising a processor configured for, upon receipt of the warning signal: - deactivating said processing circuit so as to bring an end to the balance phase (P1), and - activate the titration circuit so as to initiate a titration phase (P2) for determining a new daily insulin dose; said titration circuit being configured for emitting a balance signal when a glycaemic balance state is detected during the titration phase; the processor being further configured for, upon receipt of the balance signal: - activate the processing circuit , and - deactivate the titration circuit . - a memory module configured for storing a plurality of blood glucose levels measured during a glycaemic balance phase (P1) over a given period of time, said blood glucose levels measured being relative to a content of a blood component representative of the blood glucose level of said patient, and - a processing circuit implementing a management rule configured for detecting a glycaemic imbalance state in the patient by comparing said blood glucose levels measured with a threshold value range having an upper blood glucose limit corresponding to a high blood glucose state and a lower blood glucose limit corresponding to a low blood glucose state, said processing circuit being configured for emitting a warning signal when a glycaemic imbalance state is detected, - a titration circuit configured for calculating a daily insulin dose; - deactivating said processing circuit so as to bring an end to the balance phase (P1), and - activate the titration circuit so as to initiate a titration phase (P2) for determining a new daily insulin dose; - activate the processing circuit , and - deactivate the titration circuit .
A spark ablation device for generating nanoparticles provided with an inlet/outlet for gas and comprising a spark generator ; the spark generator comprising first and second electrodes , wherein the first and/ or second electrodes are hollow and connected or connectable to a gas supply, and at least one power source which is arranged to be operative for maintaining a discharge between the first and second electrodes , wherein the power source comprises a continuous DC or AC power source, supplemented with a source for pulsed power, characterized in that the device is provided with an outlet for the generated nanoparticles, wherein the generated nanoparticles are removed via one or both of the electrodes and said power source is configured for repetitively and intermittently varying its power output between a first energy level wherein a continuous discharge is maintained between the electrodes of the spark ablation device and a second energy level higher than the first energy level for ablating at least a portion of the electrodes , and wherein the first energy level is selected at a level insufficient to generate nanoparticles, and the second energy level is selected at a level to unavoidably generate nanoparticles, wherein the at least one power source comprises a pulse generator for repetitively increasing the energy of the discharge.
A cutout for packaging comprising two detachable elements respectively formed from cutouts of sheet-form card or corrugated card material, a first element forming the base of the packaging and a second element forming the lid of the packaging, said cutout comprising two main flaps , a first main flap of quadrilateral shape and a second main flap also of quadrilateral shape, said flaps being connected by a first fold line directly or by means of a secondary flap, and a set of lateral tabs arranged on either side of at least one of said main flaps and connected to said main flaps by second fold lines perpendicular to the first fold line , characterised in that the first main flap is of quadrilateral shape and its four corners are chamfered.
A battery pack, comprising: a box body ; a battery module mounted in the box body , the battery module comprising an anti-explosion assembly ; a module electrical connection piece mounted on the battery module ; and a first protecting assembly mounted in the box body and configured to protect the module electrical connection piece when an ejecta discharged from the anti-explosion assembly impacts the module electrical connection piece ; a second protecting assembly mounted in the box body and facing toward the anti-explosion assembly , the second protecting assembly being configured to protect the box body from an impact by the ejecta discharged from the anti-explosion assembly ; wherein the second protecting assembly bends toward the anti-explosion assembly along edges of two sides in a direction of a connecting line, to enclose the anti-explosion assembly in a space formed by the second protecting assembly and the battery module , wherein the connecting line is between the anti-explosion assembly and the module electrical connection piece . a box body ; a battery module mounted in the box body , the battery module comprising an anti-explosion assembly ; a module electrical connection piece mounted on the battery module ; and a first protecting assembly mounted in the box body and configured to protect the module electrical connection piece when an ejecta discharged from the anti-explosion assembly impacts the module electrical connection piece ; a second protecting assembly mounted in the box body and facing toward the anti-explosion assembly , the second protecting assembly being configured to protect the box body from an impact by the ejecta discharged from the anti-explosion assembly ; wherein the second protecting assembly bends toward the anti-explosion assembly along edges of two sides in a direction of a connecting line, to enclose the anti-explosion assembly in a space formed by the second protecting assembly and the battery module , wherein the connecting line is between the anti-explosion assembly and the module electrical connection piece .
Modified enterovirus of ECHO 7 type characterized by stable genome sequence that has at least 85%, preferably at least 95%, still more preferably at least 99% of sequence identical to Seq ID No 1.
A formation-restoring system for drifting Motion-To-Electrical Energy Transforming Devices (MTEETDs), comprising: a plurality of drifting MTEETDs connected by separation restorative tethers, the separation restorative tethers each incorporating a tensioning mechanism , and the separation restorative tethers each characterized by a Critical Distance between its respective connected drifting MTEEDTS, such that: at a separation less than the Critical Distance, no biasing force is applied to the respective connected drifting MTEEDTS by the separation restorative tether; and at a separation greater than the Critical Distance, a biasing force is applied by the associated separation restorative tether on the respective connected drifting MTEEDTS to bias said respective connected drifting MTEETDs to a separation less than the Critical Distance; wherein a relative movement of connected drifting MTEETDs that leads to a separation exceeding the Critical Distance of the associated separation restorative tether, horizontally expands the tensioning mechanism to transition the tensioning mechanism from an inert state having a neutral horizontal applied force to an energized state having a net horizontal applied force, the energized state characterized by the expansion of the tensioning mechanism to impart a buoyancy-related potential energy to a vertically displaceable element of the tensioning mechanism; and wherein a subsequent release of the buoyancy-related potential energy of the vertically displaceable element contracts the tensioning mechanism until the tensioning mechanism reaches its inert state, the contraction of the tensioning mechanism biasing the connected drifting MTEETDs to a separation less than the Critical Distance. at a separation less than the Critical Distance, no biasing force is applied to the respective connected drifting MTEEDTS by the separation restorative tether; and at a separation greater than the Critical Distance, a biasing force is applied by the associated separation restorative tether on the respective connected drifting MTEEDTS to bias said respective connected drifting MTEETDs to a separation less than the Critical Distance; wherein a relative movement of connected drifting MTEETDs that leads to a separation exceeding the Critical Distance of the associated separation restorative tether, horizontally expands the tensioning mechanism to transition the tensioning mechanism from an inert state having a neutral horizontal applied force to an energized state having a net horizontal applied force, the energized state characterized by the expansion of the tensioning mechanism to impart a buoyancy-related potential energy to a vertically displaceable element of the tensioning mechanism; and wherein a subsequent release of the buoyancy-related potential energy of the vertically displaceable element contracts the tensioning mechanism until the tensioning mechanism reaches its inert state, the contraction of the tensioning mechanism biasing the connected drifting MTEETDs to a separation less than the Critical Distance.
A radiation shielding material for shielding X-rays, gamma-rays and neutron-rays, the radiation shielding material comprises a complex containing a fibrous nanocarbon material, a primary radiation shielding particle, and a binder, the fibrous nanocarbon material and the primary radiation shielding particle being dispersed in the binder, wherein the complex has a density of 0.8 to 3.0 g/cm 3 , and characterized in that the complex has nanosized holes outside the fibrous nanocarbon material. the fibrous nanocarbon material and the primary radiation shielding particle being dispersed in the binder, wherein the complex has a density of 0.8 to 3.0 g/cm 3 , and characterized in that the complex has nanosized holes outside the fibrous nanocarbon material.