mhurhangee/ep-ind-claims huggingface dataset:
Door system, comprising: (i) a securing mechanism for securing a vehicle door, wherein the securing mechanism comprises: a locking system which comprises a locking element and which is configured, in a locking position of the locking element, to lock the vehicle door in a closed position and, in an unlocking position of the locking element, to unlock the vehicle door; a securing element which is configured, in a securing position, to block a movement of the locking element from the locking position into the unlocking position in a first direction and, in a release position, to release the movement of the locking element from the locking position into the unlocking position in the first direction; and an actuator which is configured to move the securing element from the release position into the securing position and/or from the securing position into the release position, wherein the securing element is further configured, in the securing position, to release a movement of the locking element in a second direction; (ii) a vehicle door; and (iii) a door frame, characterized in that the locking system is arranged on the door, and in that the actuator and the securing element are arranged on the door frame. (i) a securing mechanism for securing a vehicle door, wherein the securing mechanism comprises: a locking system which comprises a locking element and which is configured, in a locking position of the locking element, to lock the vehicle door in a closed position and, in an unlocking position of the locking element, to unlock the vehicle door; a securing element which is configured, in a securing position, to block a movement of the locking element from the locking position into the unlocking position in a first direction and, in a release position, to release the movement of the locking element from the locking position into the unlocking position in the first direction; and an actuator which is configured to move the securing element from the release position into the securing position and/or from the securing position into the release position, wherein the securing element is further configured, in the securing position, to release a movement of the locking element in a second direction; a locking system which comprises a locking element and which is configured, in a locking position of the locking element, to lock the vehicle door in a closed position and, in an unlocking position of the locking element, to unlock the vehicle door; a securing element which is configured, in a securing position, to block a movement of the locking element from the locking position into the unlocking position in a first direction and, in a release position, to release the movement of the locking element from the locking position into the unlocking position in the first direction; and an actuator which is configured to move the securing element from the release position into the securing position and/or from the securing position into the release position, wherein the securing element is further configured, in the securing position, to release a movement of the locking element in a second direction; (ii) a vehicle door; and (iii) a door frame,
A nonwoven fabric comprising a first surface and a second surface and a visually discernible pattern of three-dimensional features on one of the first or second surface (12, 14), each of the three-dimensional features defining a microzone comprising a first region (20 and a second region, the first and second regions (20, 22) having a difference in values for: basis weight, the difference in basis weight being greater than 5 gsm; and thickness, the difference in thickness being greater than 25 microns; and volumetric density, the difference in volumetric density being greater than 0.042 g/cc. basis weight, the difference in basis weight being greater than 5 gsm; and thickness, the difference in thickness being greater than 25 microns; and volumetric density, the difference in volumetric density being greater than 0.042 g/cc.
A retracting system for a plurality of pull-out furniture parts each able to be pulled out from a furniture carcass in a pull-out direction and able to be pushed into the furniture carcass in a direction opposite to the pull-out direction, comprising a retracting unit for each of the pull-out furniture parts, which retracting units each have a retracting part, acted upon by a retraction spring, adjustable by an entrainer, entrained with the pull-out furniture part upon pulling-out of the pull-out furniture part, between an initial position which the retracting part occupies in the pushed-in state of the pull-out furniture part and a waiting position in which the entrainer uncouples from the retracting part upon pulling-out of the pull-out furniture part, and a bearing unit adjustably supporting the retracting part between the initial position and the waiting position, wherein the retracting system comprises at least one mounting rail, securable to the furniture carcass, which has a plurality of mounting locations, wherein in each case one of the bearing units can be secured to a respective mounting location and for this purpose a respective mounting location has at least one mounting element (64, 65, 70, 71, 72, 77) to secure the bearing unit to the mounting rail, characterized in that the bearing units are connected to the mounting rail via snap connections in the state in which they are secured to the at least one mounting rail, wherein to secure one of the bearing units to one of the mounting locations, the bearing unit is first of all insertable, in an insertion direction at right angles to the longitudinal extension of the mounting rail, into the mounting location into an intermediate position and in this case the insertion of the bearing unit into the intermediate position is guided through the cooperation of at least one connecting element (67, 68, 69) of the bearing unit with at least one of the mounting elements (64, 65, 70, 71, 72, 77) of the mounting location, and furthermore is displaceable in the direction of the longitudinal extension of the mounting rail into a mounting position in which at least one resilient snap element (62, 63), arranged on the bearing unit or on the mounting rail, snaps into the other of these two parts (8, 29).
An aneurysm device endovascularly deliverable to a site proximate an artery with bifurcating branches, the aneurysm device comprising: a closure structure; and a supplemental stabilizer (103, 240) connected to the closure structure, the supplemental stabilizer configured to reside in the artery; the closure structure comprising a distal-facing aspect configured to at least partially block an opening to the aneurysm; a proximal-facing aspect configured to arch unobtrusively over lumina of the bifurcating branches; and the proximal-facing aspect of the closure structure and the supplemental stabilizer (103, 240) being configured to hold the distal-facing aspect of the closure structure at the neck of the aneurysm; and wherein the closure structure further includes at least one strut (180a-d); characterised in that the strut (180a-d) comprises a hinge point (175a-d) at which the strut (180a-d) folds to form a loop element (185a-b) configured to open and lodge within at least one of the bifurcating branches. a closure structure; and a supplemental stabilizer (103, 240) connected to the closure structure, the supplemental stabilizer configured to reside in the artery; the closure structure comprising a distal-facing aspect configured to at least partially block an opening to the aneurysm; a proximal-facing aspect configured to arch unobtrusively over lumina of the bifurcating branches; and a distal-facing aspect configured to at least partially block an opening to the aneurysm; a proximal-facing aspect configured to arch unobtrusively over lumina of the bifurcating branches; and the proximal-facing aspect of the closure structure and the supplemental stabilizer (103, 240) being configured to hold the distal-facing aspect of the closure structure at the neck of the aneurysm; and wherein the closure structure further includes at least one strut (180a-d); characterised in that the strut (180a-d) comprises a hinge point (175a-d) at which the strut (180a-d) folds to form a loop element (185a-b) configured to open and lodge within at least one of the bifurcating branches.
An aortic protection device (200, 400, 600) comprising: a heart-proximal ring (213,604,628); and a mesh lumen (232, 402) shaped and sized to extend along the aorta, from a heart-side of a brachiocephalic artery exit from the aorta to distal of a left subclavian artery exit from the aorta, characterized by: the mesh lumen (232, 402) is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring (213,604,628) is attached to a heart-proximal end of the mesh lumen (232, 402). a heart-proximal ring (213,604,628); and a mesh lumen (232, 402) shaped and sized to extend along the aorta, from a heart-side of a brachiocephalic artery exit from the aorta to distal of a left subclavian artery exit from the aorta, characterized by: the mesh lumen (232, 402) is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring (213,604,628) is attached to a heart-proximal end of the mesh lumen (232, 402). the mesh lumen (232, 402) is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring (213,604,628) is attached to a heart-proximal end of the mesh lumen (232, 402).
A test and measurement instrument, comprising: a plurality of digitizers, including a first digitizer configured to digitize a first input signal to generate a first digitized signal representative of said first input signal, and a second digitizer configured to digitize a second input signal to generate a second digitized signal representative of said second input signal; a signal processor coupled to receive said first and second digitized signals from said digitizers, said signal processor configured to mathematically combine at least said first digitized signal directly with said second digitized signal into a combined digitized signal; an acquisition memory coupled to receive and store said combined digitized signal; and a trigger circuit coupled to receive said combined digitized signal and to trigger an acquisition in response to a characteristic of said combined digitized signal. a plurality of digitizers, including a first digitizer configured to digitize a first input signal to generate a first digitized signal representative of said first input signal, and a second digitizer configured to digitize a second input signal to generate a second digitized signal representative of said second input signal; a signal processor coupled to receive said first and second digitized signals from said digitizers, said signal processor configured to mathematically combine at least said first digitized signal directly with said second digitized signal into a combined digitized signal; an acquisition memory coupled to receive and store said combined digitized signal; and a trigger circuit coupled to receive said combined digitized signal and to trigger an acquisition in response to a characteristic of said combined digitized signal.
A method of sequencing a target nucleic acid polymer, comprising (a) modifying a target nucleic acid polymer by adding inserts into the target nucleic acid polymer to produce a modified nucleic acid polymer, wherein the modified nucleic acid polymer comprises a plurality of sequence regions from the target nucleic acid polymer and a plurality of internal inserts; wherein the inserts comprise ligands that attach to receptors on the solid support surface and are added into the target nucleic acid polymer by transposases, and each of the inserts comprise a first transposon element and a second transposon element that is contiguous with the first transposon element; (b) producing denatured fragments of the modified nucleic acid polymer in a vessel comprising a solid support surface, each fragment comprising one of the sequence regions; (c) capturing the fragments randomly at locations in a region of the solid support surface; (d) detecting the fragments at the locations and determining nucleotide sequences of the sequence regions; (e) determining relative physical distances between the fragments at the locations; and (f) producing a representation of the nucleotide sequence for the target nucleic acid polymer based on the nucleotide sequences from the fragments and the relative physical distances between the locations on the solid support surface, wherein (a) comprises forming transposomes, each transposome comprising a transposase associated with the first transposon element and the second transposon element. (a) modifying a target nucleic acid polymer by adding inserts into the target nucleic acid polymer to produce a modified nucleic acid polymer, wherein the modified nucleic acid polymer comprises a plurality of sequence regions from the target nucleic acid polymer and a plurality of internal inserts; wherein the inserts comprise ligands that attach to receptors on the solid support surface and are added into the target nucleic acid polymer by transposases, and each of the inserts comprise a first transposon element and a second transposon element that is contiguous with the first transposon element; (b) producing denatured fragments of the modified nucleic acid polymer in a vessel comprising a solid support surface, each fragment comprising one of the sequence regions; (c) capturing the fragments randomly at locations in a region of the solid support surface; (d) detecting the fragments at the locations and determining nucleotide sequences of the sequence regions; (e) determining relative physical distances between the fragments at the locations; and (f) producing a representation of the nucleotide sequence for the target nucleic acid polymer based on the nucleotide sequences from the fragments and the relative physical distances between the locations on the solid support surface,
An electronic apparatus performing two-way communication with a remote control device, the apparatus comprising: a receiving unit which receives a data signal from the remote control device; a signal processing unit which performs signal processing to convert the received data signal into a pulse signal; and a control unit which detects information included in the received data signal based on a time interval between starting points of pulse periods which are in a row in the pulse signal, characterised in that. the control unit detects the information included in the received data signal based on a time interval between falling edges or rising edges of the pulse periods. a receiving unit which receives a data signal from the remote control device; a signal processing unit which performs signal processing to convert the received data signal into a pulse signal; and a control unit which detects information included in the received data signal based on a time interval between starting points of pulse periods which are in a row in the pulse signal, characterised in that.
A gas sensor control device for controlling a gas sensor, said gas sensor comprising a gas sensor element including a cell comprising a solid electrolyte and a pair of electrodes (12b, 12c) disposed on the solid electrolyte for detecting concentration of a specific gas component, said gas sensor control device comprising: a circuit board connectable to the gas sensor via a signal line; a voltage control unit mounted on the circuit board and configured to control a voltage developed across the pair of electrodes (12b, 12c) of the cell to a constant voltage; a temperature detecting unit mounted on the circuit board and configured to detect a temperature of the circuit board; and a voltage correcting unit mounted on the circuit board and configured to apply a correction voltage to the voltage control unit, the correction voltage compensating for a temperature-dependent variation in the level of the constant voltage, which is due to a temperature-dependent variation of a characteristic of a circuit of the voltage control unit, based on the temperature detected by the temperature detecting unit. a circuit board connectable to the gas sensor via a signal line; a voltage control unit mounted on the circuit board and configured to control a voltage developed across the pair of electrodes (12b, 12c) of the cell to a constant voltage; a temperature detecting unit mounted on the circuit board and configured to detect a temperature of the circuit board; and a voltage correcting unit mounted on the circuit board and configured to apply a correction voltage to the voltage control unit, the correction voltage compensating for a temperature-dependent variation in the level of the constant voltage, which is due to a temperature-dependent variation of a characteristic of a circuit of the voltage control unit, based on the temperature detected by the temperature detecting unit.
A method for positioning an acoustic wave signal source in a vehicle, wherein the method comprises: - collecting at least two acoustic wave signals; - calculating a relative position of the acoustic wave signal source relative to the vehicle based on the at least two acoustic wave signals; - obtaining a position of the vehicle; and - determining positioning information, that is the absolute position, of the acoustic wave signal source based on the position of the vehicle and the calculated relative position of the acoustic wave signal source relative to the vehicle, and judging a movement direction and speed of the acoustic wave signal source by a frequency shift of the collected acoustic wave signal, characterized in that, the method further comprises: - correcting the absolute position of the acoustic wave signal source by means of road information in a digital map with both the road area and the road traffic direction as boundary conditions; - marking the acoustic wave signal source in the digital map according to the absolute position of the acoustic wave signal source. - collecting at least two acoustic wave signals; - calculating a relative position of the acoustic wave signal source relative to the vehicle based on the at least two acoustic wave signals; - obtaining a position of the vehicle; and - determining positioning information, that is the absolute position, of the acoustic wave signal source based on the position of the vehicle and the calculated relative position of the acoustic wave signal source relative to the vehicle, and judging a movement direction and speed of the acoustic wave signal source by a frequency shift of the collected acoustic wave signal, - correcting the absolute position of the acoustic wave signal source by means of road information in a digital map with both the road area and the road traffic direction as boundary conditions; - marking the acoustic wave signal source in the digital map according to the absolute position of the acoustic wave signal source.
A system comprising a memory device and an operating system driver to manage memory access operations between at least one application and the memory device, the memory device comprising: a driver; a volatile memory; a nonvolatile memory; and a controller comprising a memory buffer; the system being characterized in that the driver is configured, in response to receiving a page out request from an operating system on the volatile memory, to program the controller to copy a page from the volatile memory to the nonvolatile memory through the memory buffer, and to execute a series of read operations to a dummy location in the memory buffer while the controller copies the page from the volatile memory to the nonvolatile memory; wherein the controller is configured, in response to receiving the page out request, to provide dummy data to the driver and to copy page data from the volatile memory to the memory buffer as a background operation; and wherein the driver is further configured, in response to the controller having copied the page, to invalidate the page from a local cache memory in a CPU package coupled with the memory buffer and to release the page from volatile memory to the operating system; and a signal that the page is freed from the volatile memory is provided to the operating system from the driver. a driver; a volatile memory; a nonvolatile memory; and a controller comprising a memory buffer; the system being characterized in that the driver is configured, in response to receiving a page out request from an operating system on the volatile memory, to program the controller to copy a page from the volatile memory to the nonvolatile memory through the memory buffer, and to execute a series of read operations to a dummy location in the memory buffer while the controller copies the page from the volatile memory to the nonvolatile memory; wherein the controller is configured, in response to receiving the page out request, to provide dummy data to the driver and to copy page data from the volatile memory to the memory buffer as a background operation; and wherein the driver is further configured, in response to the controller having copied the page, to invalidate the page from a local cache memory in a CPU package coupled with the memory buffer and to release the page from volatile memory to the operating system; and a signal that the page is freed from the volatile memory is provided to the operating system from the driver.