mhurhangee/ep-ind-claims huggingface dataset:
An electronic system, comprising: a processor; and a memory device coupled to the processor and having a program stored thereon for execution by the processor, wherein the processor is configured by the program to: use a point spread function to de-blur an original motion invariant image to create a modified motion invariant image; use an edge detector to find edges in the modified motion invariant image; determine the distances between the edges and corresponding artifacts in the modified motion invariant image; use the distances between the edges and the corresponding artifacts to estimate a velocity of an object in the modified motion invariant image; generate a corrected point spread function corresponding to the estimated velocity of the object; and use the corrected point spread function to de-blur the original motion invariant image and create a resulting image. a processor; and a memory device coupled to the processor and having a program stored thereon for execution by the processor, wherein the processor is configured by the program to: use a point spread function to de-blur an original motion invariant image to create a modified motion invariant image; use an edge detector to find edges in the modified motion invariant image; determine the distances between the edges and corresponding artifacts in the modified motion invariant image; use the distances between the edges and the corresponding artifacts to estimate a velocity of an object in the modified motion invariant image; generate a corrected point spread function corresponding to the estimated velocity of the object; and use the corrected point spread function to de-blur the original motion invariant image and create a resulting image. use a point spread function to de-blur an original motion invariant image to create a modified motion invariant image; use an edge detector to find edges in the modified motion invariant image; determine the distances between the edges and corresponding artifacts in the modified motion invariant image; use the distances between the edges and the corresponding artifacts to estimate a velocity of an object in the modified motion invariant image; generate a corrected point spread function corresponding to the estimated velocity of the object; and use the corrected point spread function to de-blur the original motion invariant image and create a resulting image.
Apparatus for monitoring discharge processes in a conductor in a medium- or high-voltage system, which apparatus has at least one transformer (2, 3) which is suitable for detecting a current flowing in the conductor, wherein the at least one transformer (2, 3) is connected to a monitoring device for monitoring the discharge process, characterized in that the transformer (2, 3) and the monitoring device have a release arranged between them which, when a threshold current (I S) flowing in the conductor is exceeded, changes the monitoring device from a passive mode, which is not suitable for monitoring, to an active mode, which is suitable for monitoring, and the transformer (2, 3) and the monitoring device have at least one memory circuit arranged between them which stores the discharge current which is to be monitored and/or logged by the monitoring device.
An aqueous composition comprising: (a) 0.6-2.0 wt% gellan gum; (b) 0.01-20 wt% polyols and/or amino acids having a molecular mass less than 1000 Dalton; and (c) 10-40 wt% radiopaque material. (a) 0.6-2.0 wt% gellan gum; (b) 0.01-20 wt% polyols and/or amino acids having a molecular mass less than 1000 Dalton; and (c) 10-40 wt% radiopaque material.
A marine seismic source, comprising: a housing having a central axis, an open end, and a closed end opposite the open end; a. piston coaxially disposed within the housing; a flywheel disposed within the housing and axially positioned between the closed end and the piston, wherein the flywheel is configured to rotate about a rotational axis; a connecting rod moveably coupling the piston to the flywheel; wherein the connecting rod has a first end pivotally coupled to the piston and a second end pivotally coupled to the flywheel; characterized in that the second end of the connecting rod has a first position at a first distance measured radially from the rotational axis, and a second position at a second distance measured radially from the rotational axis, wherein the first distance is less than the second distance. a housing having a central axis, an open end, and a closed end opposite the open end; a. piston coaxially disposed within the housing; a flywheel disposed within the housing and axially positioned between the closed end and the piston, wherein the flywheel is configured to rotate about a rotational axis; a connecting rod moveably coupling the piston to the flywheel; wherein the connecting rod has a first end pivotally coupled to the piston and a second end pivotally coupled to the flywheel; characterized in that the second end of the connecting rod has a first position at a first distance measured radially from the rotational axis, and a second position at a second distance measured radially from the rotational axis, wherein the first distance is less than the second distance.
A floor structure for a vehicle, trailer or the like having a support frame, in particular a lead frame, onto which an extruded section forming a floor plate is mounted, said extruded section being composed of a plurality of section segments arranged next to one another, with adjacent section segments being connected to one another via a labyrinth-like joining point, and said extruded section having downwardly open hollow regions, wherein at least one fastening groove provided for the installation and positioning of load securing elements is formed at the upper side of the extruded section, which extends in the longitudinal direction of the extruded section and has a double V-shaped cross-section which is defined by a W-shaped wall portion of an upper wall of the extruded section and by serif-like projections.
A latch circuit, comprising: a master circuit comprising a cross coupled pair of inverters; a slave circuit comprising a cross coupled pair of inverters (60,62) wherein each inverter of the slave circuit comprises an NMOS and PMOS transistor in series with connected gates at their input; a data input terminal; a data output terminal (DOUT); an inverter arrangement (43,44) for inverting the data at the data input terminal, to derive an inverted and a non-inverted version of the data input; a first switching arrangement (45c, 45d) for switching the inverted and non-inverted versions of the data input to the master circuit for a first phase of an input clock, and for decoupling the inverted and non-inverted versions of the data input from the master circuit for a second phase of an input clock; and a second switching arrangement (45a,45b) for coupling together the master circuit and the slave circuit for the second phase of the input clock, and for decoupling the master circuit and the slave circuit for the first phase of the input clock, wherein the inverters (60, 62) of the slave circuit are coupled to a high voltage rail and a low voltage rail, wherein for each of the two inverters, the coupling to one of the voltage rails is through a resistive element (64,66) characterized by that the resistive element (64,66) comprises a diode-connected transistor or a polysilicon resistor. a master circuit comprising a cross coupled pair of inverters; a slave circuit comprising a cross coupled pair of inverters (60,62) wherein each inverter of the slave circuit comprises an NMOS and PMOS transistor in series with connected gates at their input; a data input terminal; a data output terminal (DOUT); an inverter arrangement (43,44) for inverting the data at the data input terminal, to derive an inverted and a non-inverted version of the data input; a first switching arrangement (45c, 45d) for switching the inverted and non-inverted versions of the data input to the master circuit for a first phase of an input clock, and for decoupling the inverted and non-inverted versions of the data input from the master circuit for a second phase of an input clock; and a second switching arrangement (45a,45b) for coupling together the master circuit and the slave circuit for the second phase of the input clock, and for decoupling the master circuit and the slave circuit for the first phase of the input clock, wherein the inverters (60, 62) of the slave circuit are coupled to a high voltage rail and a low voltage rail, wherein for each of the two inverters, the coupling to one of the voltage rails is through a resistive element (64,66) characterized by that the resistive element (64,66) comprises a diode-connected transistor or a polysilicon resistor.
A signal sending method performed by a network device, comprising: determining a position of a synchronization signal block, SSB, to be sent; sending the SSB according to the determined position of the SSB to a terminal; wherein, the SSB carries information of time-frequency synchronization and cell identification; one SSB burst set comprises a preset quantity of repeatedly sent SSBs, and characterized in that the determining the position of the SSB to be sent comprises determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed. determining a position of a synchronization signal block, SSB, to be sent; sending the SSB according to the determined position of the SSB to a terminal; wherein, the SSB carries information of time-frequency synchronization and cell identification; one SSB burst set comprises a preset quantity of repeatedly sent SSBs, and characterized in that the determining the position of the SSB to be sent comprises determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed. determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed.
A person support apparatus, comprising: a fixed width deck section having a width and an outboard edge; a wing movably coupled to the fixed width section; a motor assembly mechanically grounded to one of the fixed width section and the wing; a lead screw having a rotational axis and being coupled to the motor assembly; and a carrier configured to engage the lead screw and move there along as the lead screw rotates about the rotational axis; characterized in that the person support apparatus further comprises: a clasp associated with the other of the fixed width section and the wing, the clasp being configured to move between an engaged position where the clasp engages the carrier and a disengaged position where the clasp is disengaged from the carrier; and a manual release assembly configured to move the clasp between the engaged position and the disengaged position to allow a user to manually move the wing between a deployed position in which a lateral extremity thereof is outboard of the outboard edge (56, 58) and a stored position in which the lateral extremity is inboard of its deployed position. a fixed width deck section having a width and an outboard edge; a wing movably coupled to the fixed width section; a motor assembly mechanically grounded to one of the fixed width section and the wing; a lead screw having a rotational axis and being coupled to the motor assembly; and a carrier configured to engage the lead screw and move there along as the lead screw rotates about the rotational axis; characterized in that the person support apparatus further comprises: a clasp associated with the other of the fixed width section and the wing, the clasp being configured to move between an engaged position where the clasp engages the carrier and a disengaged position where the clasp is disengaged from the carrier; and a manual release assembly configured to move the clasp between the engaged position and the disengaged position to allow a user to manually move the wing between a deployed position in which a lateral extremity thereof is outboard of the outboard edge (56, 58) and a stored position in which the lateral extremity is inboard of its deployed position. a clasp associated with the other of the fixed width section and the wing, the clasp being configured to move between an engaged position where the clasp engages the carrier and a disengaged position where the clasp is disengaged from the carrier; and a manual release assembly configured to move the clasp between the engaged position and the disengaged position to allow a user to manually move the wing between a deployed position in which a lateral extremity thereof is outboard of the outboard edge (56, 58) and a stored position in which the lateral extremity is inboard of its deployed position.
A refrigerator comprising: a cabinet that defines an upper storage space and a lower storage space; a front panel door configured to open and close the lower storage space; a drawer configured to insert into and withdraw from the lower storage space, the drawer comprising an accommodation portion; a driving device located in the front panel door and configured to generate power; and wherein the driving device is further configured to, in a state of being coupled to an elevation device, provide the power for operation of the elevation device, characterized in that the elevation device is located on the bottom surface of the inner side of the drawer and configured to elevate, relative to the drawer, at least part of the accommodation portion of the drawer, and wherein the elevation device is provided as a scissors type so that the elevation device is folded in a descending state and unfolded in an ascending state, wherein the driving device in the front panel door is configured to couple to the elevation device in the drawer through a rear surface of the front panel door and through a front surface of the drawer that faces the rear surface of the front panel door. a cabinet that defines an upper storage space and a lower storage space; a front panel door configured to open and close the lower storage space; a drawer configured to insert into and withdraw from the lower storage space, the drawer comprising an accommodation portion; a driving device located in the front panel door and configured to generate power; and wherein the driving device is further configured to, in a state of being coupled to an elevation device, provide the power for operation of the elevation device, characterized in that the elevation device is located on the bottom surface of the inner side of the drawer and configured to elevate, relative to the drawer, at least part of the accommodation portion of the drawer, and wherein the elevation device is provided as a scissors type so that the elevation device is folded in a descending state and unfolded in an ascending state, wherein the driving device in the front panel door is configured to couple to the elevation device in the drawer through a rear surface of the front panel door and through a front surface of the drawer that faces the rear surface of the front panel door.
Vehicle, comprising a frame and two or more steered wheels (4, 5) that are longitudinally aligned in a longitudinal direction (d) that extends from a rear area towards a front area of the vehicle, wherein each steered wheel (4, 5) is capable of turning with respect to a respective central rotation axis (4a, 5a), wherein the vehicle further comprises: - a rocker assembly, to which each steered wheel (4, 5) is connected via a respective articulated connection (13, 14) which provides the respective central rotation axis (4a, 5a), wherein said rocker assembly is swivellable with respect to the frame around a rocker rotation axis that is provided by an articulated connection between the rocker assembly and the frame, wherein the rocker rotation axis is parallel to the central rotation axes (4a, 5a) of the steered wheels (4, 5), providing the rocker assembly and the steered wheels (4, 5) with a joint swivelled movement on a plane that is perpendicular to the central rotation axes (4a, 5a) of the steered wheels (4, 5), wherein - the vehicle further comprises a handlebar set capable of turning around a handlebar rotation axis, wherein the vehicle is characterized in that: the rocker rotation axis intersects the handlebar rotation axis. - a rocker assembly, to which each steered wheel (4, 5) is connected via a respective articulated connection (13, 14) which provides the respective central rotation axis (4a, 5a), wherein said rocker assembly is swivellable with respect to the frame around a rocker rotation axis that is provided by an articulated connection between the rocker assembly and the frame, wherein the rocker rotation axis is parallel to the central rotation axes (4a, 5a) of the steered wheels (4, 5), providing the rocker assembly and the steered wheels (4, 5) with a joint swivelled movement on a plane that is perpendicular to the central rotation axes (4a, 5a) of the steered wheels (4, 5), wherein - the vehicle further comprises a handlebar set capable of turning around a handlebar rotation axis, wherein the vehicle is characterized in that: the rocker rotation axis intersects the handlebar rotation axis.
A system (102, 202) in a computing environment, the system comprising: a plurality of guest partitions (106, 114 1 -114 m, 214 1 -214 n) corresponding to virtual machines in a virtual machine environment, each guest partition including a guest antimalware agent (116 1 -116 m, 216 1 -216 n); and an antimalware scanning mechanism (104, 204) comprising one or more antimalware-related components, the antimalware scanning mechanism configured to communicate with the guest antimalware agents on the guest partitions, the antimalware scanning mechanism further configured to provide shared antimalware scanning resources and shared antimalware scanning functionality to the guest partitions via the guest antimalware agents, the system further comprising: a management component (108, 208) that is part of virtual machine management services on a root partition (112, 212), the management component being configured to communicate with the antimalware scanning mechanism, characterized in that the antimalware scanning mechanism is further configured to communicate with the management component to use the management services to place a guest partition into an offline state for scanning by the antimalware scanning mechanism; and wherein the antimalware scanning mechanism is further configured to take any needed remedial actions against the guest partition in offline state. a plurality of guest partitions (106, 114 1 -114 m, 214 1 -214 n) corresponding to virtual machines in a virtual machine environment, each guest partition including a guest antimalware agent (116 1 -116 m, 216 1 -216 n); and an antimalware scanning mechanism (104, 204) comprising one or more antimalware-related components, the antimalware scanning mechanism configured to communicate with the guest antimalware agents on the guest partitions, the antimalware scanning mechanism further configured to provide shared antimalware scanning resources and shared antimalware scanning functionality to the guest partitions via the guest antimalware agents, the system further comprising: a management component (108, 208) that is part of virtual machine management services on a root partition (112, 212), the management component being configured to communicate with the antimalware scanning mechanism, characterized in that the antimalware scanning mechanism is further configured to communicate with the management component to use the management services to place a guest partition into an offline state for scanning by the antimalware scanning mechanism; and wherein the antimalware scanning mechanism is further configured to take any needed remedial actions against the guest partition in offline state.
Method for producing an anchor rail comprising a rail body and comprising anchor bodies which are fastened to the rail body, wherein - a fastening body which is provided with an opening is arranged in the interior of the rail body, - an anchor body is guided through a through-opening provided in the rail body, - the anchor body is arranged in the opening in the fastening body, and - the anchor body is directly integrally bonded simultaneously to the fastening body and to the rail body in a joining process. - a fastening body which is provided with an opening is arranged in the interior of the rail body, - an anchor body is guided through a through-opening provided in the rail body, - the anchor body is arranged in the opening in the fastening body, and - the anchor body is directly integrally bonded simultaneously to the fastening body and to the rail body in a joining process.