mhurhangee/ep-ind-claims huggingface dataset:
A method for cache coherency in a reconfigurable cache architecture, comprising: receiving a memory access command, wherein the memory access command includes at least an address of a memory to access; determining at least one access parameter based on the memory access command, wherein the at least one access parameter includes at least one of: a process ID, a processing core ID, a thread ID, and a cache bit; computing a deterministic function over the at least one access parameter and the address to achieve cache coherency; and determining a target cache bin for serving the memory access command based in part on an outcome of computing the deterministic function; wherein the reconfigurable cache architecture is distributed over a plurality of separate physical cache nodes (225-1 - 225-n), coupled to the memory. receiving a memory access command, wherein the memory access command includes at least an address of a memory to access; determining at least one access parameter based on the memory access command, wherein the at least one access parameter includes at least one of: a process ID, a processing core ID, a thread ID, and a cache bit; computing a deterministic function over the at least one access parameter and the address to achieve cache coherency; and determining a target cache bin for serving the memory access command based in part on an outcome of computing the deterministic function; wherein the reconfigurable cache architecture is distributed over a plurality of separate physical cache nodes (225-1 - 225-n), coupled to the memory.
A connector system comprising a contact pin and a socket for receiving the contact pin, the contact pin comprising: a first groove extending around the axis of the contact pin; a set of teeth extending around the axis of the contact pin; wherein the socket comprises a cup portion, the cup portion comprising: a set of teeth extending around the axis of the cup portion and for engaging with the teeth of the contact pin; and a first contact surface inside the cup portion and extending around the axis of the cup portion, characterised in that: the contact pin further comprises a coiled spring within the first groove, wherein the first contact surface is for contacting the coiled spring; the cup portion comprises a first ramp portion inside the cup portion, the first ramp portion reducing the internal width of the cup portion to where the first contact surface is located, the first ramp portion arranged to compress the coiled spring on insertion of the contact pin into the cup portion so that the coiled spring comes to rest against the first contact surface in a compressed state. a first groove extending around the axis of the contact pin; a set of teeth extending around the axis of the contact pin; a set of teeth extending around the axis of the cup portion and for engaging with the teeth of the contact pin; and a first contact surface inside the cup portion and extending around the axis of the cup portion, characterised in that: the contact pin further comprises a coiled spring within the first groove, wherein the first contact surface is for contacting the coiled spring; the cup portion comprises a first ramp portion inside the cup portion, the first ramp portion reducing the internal width of the cup portion to where the first contact surface is located, the first ramp portion arranged to compress the coiled spring on insertion of the contact pin into the cup portion so that the coiled spring comes to rest against the first contact surface in a compressed state. the contact pin further comprises a coiled spring within the first groove, wherein the first contact surface is for contacting the coiled spring; the cup portion comprises a first ramp portion inside the cup portion, the first ramp portion reducing the internal width of the cup portion to where the first contact surface is located, the first ramp portion arranged to compress the coiled spring on insertion of the contact pin into the cup portion so that the coiled spring comes to rest against the first contact surface in a compressed state.
A method, performed by a wireless station, for handling data stall at the wireless station, comprising: switching wireless communications from a first network device associated with a first radio access technology, RAT, to a second network device associated with a second RAT; monitoring one or more network devices associated with the first RAT, the one or more network devices including the first network device; filtering results from the monitoring based at least in part on one or more threshold values, wherein the filtering includes: identifying which of the one or more network devices to remove from a scan report or to identify as not suitable for the wireless communications in the scan report based at least in part on historical information associated with one or more of UL quality metrics, DL quality metrics and/or congestion metrics; identifying, based on the filtered results, one of the one or more network devices as suitable for the wireless communications; and switching the wireless communications from the second network device to the one network device identified as suitable for the wireless communications. switching wireless communications from a first network device associated with a first radio access technology, RAT, to a second network device associated with a second RAT; monitoring one or more network devices associated with the first RAT, the one or more network devices including the first network device; filtering results from the monitoring based at least in part on one or more threshold values, wherein the filtering includes: identifying which of the one or more network devices to remove from a scan report or to identify as not suitable for the wireless communications in the scan report based at least in part on historical information associated with one or more of UL quality metrics, DL quality metrics and/or congestion metrics; identifying, based on the filtered results, one of the one or more network devices as suitable for the wireless communications; and switching the wireless communications from the second network device to the one network device identified as suitable for the wireless communications.
A compressor, comprising a housing and an anticorrosive coating layer covering a surface of the housing, wherein the anticorrosive coating layer comprises a base layer applied on a surface of the housing and a surface layer applied on the base layer, wherein the base layer and the surface layer are both organic coating layers, wherein the base layer is epoxy resin, and the surface layer is acrylic amino or polyester resin, characterized in that a phosphating layer is further formed between the surface of the housing of the compressor and the base layer of the compressor.
A computer implemented method for evaluating effect of a change in a communications network, the method comprising receiving a first set of performance indicator values comprising performance indicator values measured over a first period of time before the change in the communications network; receiving a second set of performance indicator values comprising performance indicator values measured over a second period of time after the change in the communications network; and comparing the first set and the second set to evaluate the effect of the change, characterized in that determining a performance threshold (406, 506, 606, 706) based on the performance indicator values of the first set, wherein the performance threshold is determined based on performance indicator values of the first set within a chosen comparison period (405, 505, 605, 705) of the first time period; determining a first performance ratio value based on the performance indicator values of the first set and the performance threshold by comparing performance indicator values of the first set outside the comparison period to the performance threshold; determining a second performance ratio value based on the performance indicator values of the second set and the performance threshold by comparing the performance indicator values of the second set to the performance threshold; and providing output based on the first performance ratio value and the second performance ratio value. receiving a first set of performance indicator values comprising performance indicator values measured over a first period of time before the change in the communications network; receiving a second set of performance indicator values comprising performance indicator values measured over a second period of time after the change in the communications network; and comparing the first set and the second set to evaluate the effect of the change, characterized in that determining a performance threshold (406, 506, 606, 706) based on the performance indicator values of the first set, wherein the performance threshold is determined based on performance indicator values of the first set within a chosen comparison period (405, 505, 605, 705) of the first time period; determining a first performance ratio value based on the performance indicator values of the first set and the performance threshold by comparing performance indicator values of the first set outside the comparison period to the performance threshold; determining a second performance ratio value based on the performance indicator values of the second set and the performance threshold by comparing the performance indicator values of the second set to the performance threshold; and providing output based on the first performance ratio value and the second performance ratio value.
A method for operating an access node in a wireless communications network, the method comprising: Transmitting, by an access node, an extended physical downlink control channel, E-PDCCH, wherein a demodulation reference signal, DM-RS, for the E-PDCCH supports channel estimation of the E-PDCCH, wherein each resource block within the E-PDCCH consists of a DM-RS capable of supporting channel estimation within the resource block. Transmitting, by an access node, an extended physical downlink control channel, E-PDCCH, wherein a demodulation reference signal, DM-RS, for the E-PDCCH supports channel estimation of the E-PDCCH, wherein each resource block within the E-PDCCH consists of a DM-RS capable of supporting channel estimation within the resource block.
A transmission for wind generators with a rotor, which via a multi-stage planetary gear arrangement (6, 5, 2, 16) and at least one spur gear stage (17, 19) is drive-connected to at least one generator, characterized in that the rotor is mounted in the housing (3, 8, 8') of the transmission and is connected to an internal gear carrier (7, 7'), on which an internal gear is arranged, wherein the rotor and the internal gear carrier (7, 7') consist of a unitary piece.
A fabric-based item comprising: a layer of fabric formed from extruded strands of material, wherein the layer of fabric has first and second areas (12W, 12L, 12R, 12RW) wherein the first area is formed from first portions of the extruded strands, wherein the second area (12L, 12R, 12RW) is formed from second portions of the extruded strands, wherein the extruded strands are characterized by a property that varies along the length of the extruded strands, and wherein the property has a first value in the first portions and a second value in the second portions.
An image forming apparatus comprising: an original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) that conveys an original; an original scanning unit that scans the original conveyed by the original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) so as to generate an image of the original; and a plotter unit that draws the image on a recording medium; characterized by an abnormality detecting unit (312, Se0, Se1, Se2, Se3, Se4, Se5, Se6, Se7,Se8) that detects an abnormality in the plotter unit when in operation; and a control unit (3, 311, 315) that, when the abnormality detecting unit (312, Se0, Se1, Se2, Se3, Se4, Se5, Se6, Se7,Se8) detects the abnormality in the plotter unit, shuts off first power supply to the original scanning unit, and sets a first conveying speed of the original by the original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) to be higher than a second conveying speed of the original during scanning. an original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) that conveys an original; an original scanning unit that scans the original conveyed by the original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) so as to generate an image of the original; and a plotter unit that draws the image on a recording medium; characterized by an abnormality detecting unit (312, Se0, Se1, Se2, Se3, Se4, Se5, Se6, Se7,Se8) that detects an abnormality in the plotter unit when in operation; and a control unit (3, 311, 315) that, when the abnormality detecting unit (312, Se0, Se1, Se2, Se3, Se4, Se5, Se6, Se7,Se8) detects the abnormality in the plotter unit, shuts off first power supply to the original scanning unit, and sets a first conveying speed of the original by the original conveying unit (11a, 11b, 12a, 12b, 13, 14, 15, 16, 20a, 20b, 21a, 21b, 32a, 32b, 33) to be higher than a second conveying speed of the original during scanning.
A medical implant (10a, 10b), in particular a stent (12a, 12b), for implantation in an animal body and/or a human body (14a, 14b), comprising a base body (16a, 16b), which comprises at least two webs (18a, 18a', 18b, 18b'; 20a, 20a', 20b, 20b') having at least two deflection points (24a, 24b; 26a, 26b) located opposite one another in the axial direction (22a, 22b), and at least one adjusting means (28a, 28b; 30a, 30b) acting on the deflection points (24a, 24b; 26a, 26b) for adjusting an extension (32a, 32b) of the base body (16a, 16b) in the circumferential direction (34a, 34b), characterized in that an orientation of a direction of the respective stent (18a, 18a', 18b, 18b'; 20a, 20a', 20b, 20b') changes at the respective deflection point (24a, 24b; 26a, 26b), a web being a structure of the base body that extends in the circumferential direction of the implant and has a meander or wave shape, it being possible to shorten an axial distance (36a, 36b) between the two deflection points (24a, 24b; 26a, 26b) using the adjusting means (28a, 28b; 30a, 30b).
A housing with a captive securing means, a housing cover and a screw, whereby it is possible to fasten the housing cover to the housing by way of the screw passed through the captive securing means, the captive securing means having a shaft for holding the screw and having a retaining means arranged in the shaft, the retaining means resting, in the inserted state of the screw, at a tangential point on the outer circumferential surface of the screw, the retaining means being arranged on the inner circumferential surface of the shaft, the retaining means extending from the inner circumferential surface of the shaft in a substantially linear manner into the free region of the shaft such that at the tangential point the angle between the direction of extent of the retaining means and the outer circumferential surface of the screw is < 90 degrees, the retaining means having a first bevel that extends in the plug-in direction of the screw, the first bevel being arranged on the retaining means such that the first bevel, in the inserted state of the screw rests in a substantially parallel manner on the outer circumferential surface, which has the tangential point, of the screw, and the first bevel comprising a radius and the radius of the first bevel substantially corresponding to the radius of the screw.
A compound of the formula below: wherein L is selected from: -CH 2 -, and -CH 2 CH 2 -; R1 is selected from: -CH 3 and -CF 3; A is selected from: and wherein, T is selected from: CH 2, NH, and O; U is selected from: CH 2, NH, and O; V is selected from: CH 2, C=O, NH, N-CH 3, and O; provided that at least one but not all of T, U, and V are CH 2, and when U is O then each of T and V is other than O or N; W is selected from: CH 2 and O; X is selected from: CH and N; provided that when W is CH 2, X is N and when W is O, X is CH; Y is selected from: CH 2, N-C 6 H 5, and O; Z is selected from CH 2 and O: R2 is selected from: H and halogen; R3 is selected from: H, cyclopropyl, and phenyl; R4 is selected from H and phenyl; wherein identifies the bond attaching A to L; and pharmaceutically acceptable salts thereof. L is selected from: -CH 2 -, and -CH 2 CH 2 -; R1 is selected from: -CH 3 and -CF 3; A is selected from: and wherein, T is selected from: CH 2, NH, and O; U is selected from: CH 2, NH, and O; V is selected from: CH 2, C=O, NH, N-CH 3, and O; provided that at least one but not all of T, U, and V are CH 2, and when U is O then each of T and V is other than O or N; W is selected from: CH 2 and O; X is selected from: CH and N; provided that when W is CH 2, X is N and when W is O, X is CH; Y is selected from: CH 2, N-C 6 H 5, and O; Z is selected from CH 2 and O: R2 is selected from: H and halogen; R3 is selected from: H, cyclopropyl, and phenyl; R4 is selected from H and phenyl; wherein identifies the bond attaching A to L; and pharmaceutically acceptable salts thereof. T is selected from: CH 2, NH, and O; U is selected from: CH 2, NH, and O; V is selected from: CH 2, C=O, NH, N-CH 3, and O; provided that at least one but not all of T, U, and V are CH 2, and when U is O then each of T and V is other than O or N; W is selected from: CH 2 and O; X is selected from: CH and N; provided that when W is CH 2, X is N and when W is O, X is CH; Y is selected from: CH 2, N-C 6 H 5, and O; Z is selected from CH 2 and O: R2 is selected from: H and halogen; R3 is selected from: H, cyclopropyl, and phenyl; R4 is selected from H and phenyl; wherein identifies the bond attaching A to L; and pharmaceutically acceptable salts thereof.
A method of programming a nonvolatile memory cell in accordance with claim 6, the method comprising: applying a bias voltage to a first input of a memory cell which comprises the select transistor and the memory transistor; and further characterized by: applying a preset limit current to the first transistor of the current limiting circuit and applying a program current to the second transistor of the current limiting circuit, wherein the current limiting circuit is electrically connected to a second input of the memory cell and includes the operational amplifier which receives a voltage limit input and provides a feedback signal to the third transistor of the current limiting circuit to stabilize a bit line voltage of the second transistor; and applying a ramped gate voltage to the memory cell to program the memory cell with the preset limited current determined by the current limiting circuit. applying a bias voltage to a first input of a memory cell which comprises the select transistor and the memory transistor; and further characterized by: applying a preset limit current to the first transistor of the current limiting circuit and applying a program current to the second transistor of the current limiting circuit, wherein the current limiting circuit is electrically connected to a second input of the memory cell and includes the operational amplifier which receives a voltage limit input and provides a feedback signal to the third transistor of the current limiting circuit to stabilize a bit line voltage of the second transistor; and applying a ramped gate voltage to the memory cell to program the memory cell with the preset limited current determined by the current limiting circuit. applying a preset limit current to the first transistor of the current limiting circuit and applying a program current to the second transistor of the current limiting circuit, wherein the current limiting circuit is electrically connected to a second input of the memory cell and includes the operational amplifier which receives a voltage limit input and provides a feedback signal to the third transistor of the current limiting circuit to stabilize a bit line voltage of the second transistor; and applying a ramped gate voltage to the memory cell to program the memory cell with the preset limited current determined by the current limiting circuit.
An optical observation instrument, in particular a surgical microscope or exoscope, comprising an optics unit with an objective arrangement and at least one electronic image recorder (12, 12'), wherein the optics unit has a first stereo channel with a first beam path and a second stereo channel with a second beam path for recording a stereo image of an object field with the at least one electronic image recorder (12, 12') and wherein the first and the second beam path run through the objective arrangement, and a retaining device on which the optics unit is mounted so as to be rotatable about a first axis of rotation which at least approximately corresponds to an axis of the objective arrangement, characterized in that the optical observation instrument has a viewing direction angled with respect to the axis of the objective arrangement and comprises a deflection element arranged on the object-side of the objective arrangement for deflecting the first and the second beam path into the objective arrangement, wherein the optics unit is mounted so as to be rotatable about the first axis of rotation relative to the retaining device and relative to the deflection element. the optical observation instrument has a viewing direction angled with respect to the axis of the objective arrangement and comprises a deflection element arranged on the object-side of the objective arrangement for deflecting the first and the second beam path into the objective arrangement, wherein the optics unit is mounted so as to be rotatable about the first axis of rotation relative to the retaining device and relative to the deflection element.