mhurhangee/ep-ind-claims huggingface dataset:
A circuit for protection against electrostatic discharge, comprising: an input/output node and a driver (991, 992, 993, 994) coupled between a supply voltage line and a ground voltage node; the driver having a first transistor (991,992), a second transistor (993, 994), a third transistor (992, 991), and a fourth transistor (993,994) coupled in series, the first transistor, the second transistor, the third transistor, and the fourth transistor each having a gate; a first source/drain node of the first transistor coupled to the input/output node; a second source/drain node of the first transistor coupled to a first source/drain of the second transistor at a first interior node (465,466), wherein the second source/drain node of the first transistor is capable of accumulating charge when electrically floating in a nonoperational mode; a first source/drain node of the third transistor coupled to the input/output node; a second source/drain node of the third transistor coupled to a first source/drain of the fourth transistor at a second interior node (465,466); a first current flow control circuit (901,902) coupled to a discharge node and the second source/drain node of the first transistor; a second current flow control circuit (902,901) coupled to the discharge node and the second source/drain node of the third transistor;and the first current flow control circuit (901, 902) electrically oriented in bias direction for allowing accumulated charge to discharge from the first interior node (465,466) via the first current flow control circuit (901, 902) to the discharge node (401, 430,431) wherein the discharge node is the input/output node; wherein first current flow control circuit is directly coupled between the first interior node and the input/output node.
A method of assessing type 2 diabetes susceptibility in a human subject, the method comprising determining in a sample the identity of at least one allele at each of the following single nucleotide polymorphisms (SNPs): SLC16A11 - rs75493593; HNF1A - rs483353044; TCF7L2 - rs7903146; CDKN2A/B - rs10811661; CDKAL1 - rs7756992; SLC30A8 - rs3802177; IGF2BP2 - rs4402960; FTO - rs9936385; PPARG - rs1801282; HHEX/IDE - rs1111875; ADCY5 - rs11717195; JAZF1 - rs849135; WSF1 - rs4458523; INS-IGF2 - rs149483638; KCNQ1 - rs2237897; and KCNJ11 - rs5219. SLC16A11 - rs75493593; HNF1A - rs483353044; TCF7L2 - rs7903146; CDKN2A/B - rs10811661; CDKAL1 - rs7756992; SLC30A8 - rs3802177; IGF2BP2 - rs4402960; FTO - rs9936385; PPARG - rs1801282; HHEX/IDE - rs1111875; ADCY5 - rs11717195; JAZF1 - rs849135; WSF1 - rs4458523; INS-IGF2 - rs149483638; KCNQ1 - rs2237897; and KCNJ11 - rs5219.
An irradiation system comprising: a light position detection unit (4, 5) configured to detect a light position of an oncoming vehicle, in three dimensions, from a captured image captured by an imaging device configured to capture an image ahead of a host vehicle; a driver position calculation unit configured to calculate a position shifted upward, by an amount (d height) corresponding to a difference in height between the light position and a driver's face position in a predetermined standard vehicle, and shifted in a first horizontal direction by a first distance (d light -d driver) from the light position detected by the light position detection unit, as a driver position; a shaded area generation unit configured to generate a first area (AB'C) having vertices respectively set at the light position, the driver position and a position (B') shifted in a second horizontal direction, opposite to the first direction, by a distance (2xd light) corresponding to a distance between a pair of lights in the predetermined standard vehicle from the driver position, as a shaded area (AB'C); and an irradiation unit (9a, 3) configured to irradiate an area ahead of the host vehicle while shading the shaded area (AB'C) generated by the shaded area generation unit. a light position detection unit (4, 5) configured to detect a light position of an oncoming vehicle, in three dimensions, from a captured image captured by an imaging device configured to capture an image ahead of a host vehicle; a driver position calculation unit configured to calculate a position shifted upward, by an amount (d height) corresponding to a difference in height between the light position and a driver's face position in a predetermined standard vehicle, and shifted in a first horizontal direction by a first distance (d light -d driver) from the light position detected by the light position detection unit, as a driver position; a shaded area generation unit configured to generate a first area (AB'C) having vertices respectively set at the light position, the driver position and a position (B') shifted in a second horizontal direction, opposite to the first direction, by a distance (2xd light) corresponding to a distance between a pair of lights in the predetermined standard vehicle from the driver position, as a shaded area (AB'C); and an irradiation unit (9a, 3) configured to irradiate an area ahead of the host vehicle while shading the shaded area (AB'C) generated by the shaded area generation unit.
A method, comprising: receiving, by a layer 2 tunneling protocol access concentrator, LAC, an indication to set up a layer 2 tunneling protocol, L2TP, tunnel associated with a client device; and characterized in determining, by the LAC and based on the indication, a multicast address associated with initiating setup of the L2TP tunnel; sending, by the LAC, to the multicast address, a request associated with initiating the L2TP tunnel to a plurality of L2TP network servers, LNSs, in order to cause the plurality of LNSs to receive the request; receiving, by the LAC, a set of responses to the request, the set of responses being provided by a respective set of LNSs, the plurality of LNSs including the respective set of LNSs; selecting, by the LAC and based on the set of responses, a particular LNS, of the respective set of LNSs, with which to set up the L2TP tunnel; and initiating, by the LAC, setup of the L2TP tunnel with the particular LNS. receiving, by a layer 2 tunneling protocol access concentrator, LAC, an indication to set up a layer 2 tunneling protocol, L2TP, tunnel associated with a client device; and characterized in determining, by the LAC and based on the indication, a multicast address associated with initiating setup of the L2TP tunnel; sending, by the LAC, to the multicast address, a request associated with initiating the L2TP tunnel to a plurality of L2TP network servers, LNSs, in order to cause the plurality of LNSs to receive the request; receiving, by the LAC, a set of responses to the request, the set of responses being provided by a respective set of LNSs, the plurality of LNSs including the respective set of LNSs; selecting, by the LAC and based on the set of responses, a particular LNS, of the respective set of LNSs, with which to set up the L2TP tunnel; and initiating, by the LAC, setup of the L2TP tunnel with the particular LNS.
A magnetic element (1, 201) for wireless power transmission, which generates an induced electromotive force by magnetic coupling, wherein: in a cross section in the direction of magnetic coupling, conductor sections, adapted to conduct an alternating current flowing in a single direction, and a magnetic material section provided in all gaps between the conductor sections are arranged in parallel in a direction perpendicular to the direction of magnetic coupling, wherein the conductor sections and the magnetic material sections are spiraled from an inner circumference side to an outer circumference side at equal intervals; and each of the conductor sections or the magnetic material section has one or more protruding regions (61, 261) which, or each of which, is a portion of conductor section protruding from the magnetic material section in the direction of magnetic coupling, or a portion of the magnetic material protruding from the conductor section in the direction of magnetic coupling. in a cross section in the direction of magnetic coupling, conductor sections, adapted to conduct an alternating current flowing in a single direction, and a magnetic material section provided in all gaps between the conductor sections are arranged in parallel in a direction perpendicular to the direction of magnetic coupling, wherein the conductor sections and the magnetic material sections are spiraled from an inner circumference side to an outer circumference side at equal intervals; and each of the conductor sections or the magnetic material section has one or more protruding regions (61, 261) which, or each of which, is a portion of conductor section protruding from the magnetic material section in the direction of magnetic coupling, or a portion of the magnetic material protruding from the conductor section in the direction of magnetic coupling.
A lamp unit comprising: a first light source; a first light source supporting portion that supports the first light source; a second light source; a second light source supporting portion that supports the second light source; a projection lens; a first reflector that is disposed so as to reflect, toward the projection lens, light emitted by the first light source; a second reflector that is disposed so as to reflect, toward the projection lens, light emitted by the second light source; and a shade that blocks part of light reflected by the first reflector or the second reflector, the first light source supporting portion and the second light source supporting portion support the first light source and the second light source so that the first light source and the second light source are disposed on opposite sides with respect to an optical axis of the projection lens, characterised in that the first reflector is disposed on a side opposite to the first light source with respect to the optical axis of the projection lens, and the second reflector is disposed on a side opposite to the second light source with respect to the optical axis of the projection lens. a first light source; a first light source supporting portion that supports the first light source; a second light source; a second light source supporting portion that supports the second light source; a projection lens; a first reflector that is disposed so as to reflect, toward the projection lens, light emitted by the first light source; a second reflector that is disposed so as to reflect, toward the projection lens, light emitted by the second light source; and a shade that blocks part of light reflected by the first reflector or the second reflector, the first light source supporting portion and the second light source supporting portion support the first light source and the second light source so that the first light source and the second light source are disposed on opposite sides with respect to an optical axis of the projection lens, characterised in that the first reflector is disposed on a side opposite to the first light source with respect to the optical axis of the projection lens, and the second reflector is disposed on a side opposite to the second light source with respect to the optical axis of the projection lens.
An oscillator for providing an oscillating voltage for a powder spray coating device, the oscillator having the following: - a first signal generator for generating an intermediate circuit voltage; - a second signal generator for generating a modulation signal; - a modulation unit for generating an oscillator voltage; - a modulation signal isolating element, connected to the second signal generator, the modulation signal isolating element being adapted to interrupt an electrical connection between the second signal generator and the modulation unit in the presence of a modulation isolating signal; - a first terminal for outputting the oscillator voltage to a powder spray coating device; and - a second terminal for returning the used oscillator voltage to a reference potential, in particular earth potential, the modulation unit being designed for generating the oscillator voltage by modulation of the intermediate circuit voltage with the modulation signal, and a first voltage monitoring device being provided, designed for continuously measuring the oscillator voltage, comparing it with at least one specified or specifiable oscillator voltage reference value and, if a first comparison criterion is satisfied, outputting the modulation isolating signal to the modulation signal isolating element. - a first signal generator for generating an intermediate circuit voltage; - a second signal generator for generating a modulation signal; - a modulation unit for generating an oscillator voltage; - a modulation signal isolating element, connected to the second signal generator, the modulation signal isolating element being adapted to interrupt an electrical connection between the second signal generator and the modulation unit in the presence of a modulation isolating signal; - a first terminal for outputting the oscillator voltage to a powder spray coating device; and - a second terminal for returning the used oscillator voltage to a reference potential, in particular earth potential,
A system for implanting a prosthesis in a pedicle of a vertebra, comprising: a fastener comprising a first end, and a second end for insertion into the pedicle; a reamer comprising a replaceable reamer tip that engages the first end of the fastener, wherein the reamer tip is removably connected to an outer sleeve (1254, 1354) and comprises a first cutting portion and a second cutting portion that is proximally adjacent the first cutting portion, wherein the first cutting portion cuts a hole of a first diameter and the second cutting portion cuts a hole of a second diameter that is larger than the first diameter; and a base broach comprising a broach tip that is a replaceable broach tip and that is removably connected to the sleeve (1254, 1354), wherein the broach comprises a broach tip having a body provided with a plurality of fins with cutting features for cutting a plurality of slots in the pedicle around the fastener and is aligned with a length of the fastener. a fastener comprising a first end, and a second end for insertion into the pedicle; a reamer comprising a replaceable reamer tip that engages the first end of the fastener, wherein the reamer tip is removably connected to an outer sleeve (1254, 1354) and comprises a first cutting portion and a second cutting portion that is proximally adjacent the first cutting portion, wherein the first cutting portion cuts a hole of a first diameter and the second cutting portion cuts a hole of a second diameter that is larger than the first diameter; and a base broach comprising a broach tip that is a replaceable broach tip and that is removably connected to the sleeve (1254, 1354), wherein the broach comprises a broach tip having a body provided with a plurality of fins with cutting features for cutting a plurality of slots in the pedicle around the fastener and is aligned with a length of the fastener.
A device for preventing insertion of a fuse into a fuse holder, the device comprising: two retaining elements [18a, 18b] that are capable of engaging with a fuse holder, wherein each retaining element [18a, 18b] comprises an actuator tab, a stem region, and a foot, wherein the actuator tab and the foot are at respective ends of the stem region, and the foot and the actuator tab lie in a plane that is perpendicular to a longitudinal axis of the stem region, a resilient member situated between the two retaining elements [18a, 18b], wherein the retaining elements [18a, 18b] are moveable relative to each other between an engaged and a released position, such that in the engaged position the resilient member exerts pressure on the two retaining elements thereby urging them apart, and in the released position the retaining elements [18a, 18b] are moved towards each other and the resilient member is compressed, characterized in that, the device further comprises a core body, wherein there is a cavity in the core body, and the dimensions of the cavity are such that it houses the stem region of the retaining elements [18a, 18b] and the resilient member, and allows for movement of the retaining elements [18a, 18b] encompassed therein in a single plane along the longitudinal axis of the device between the released and engaged positions. two retaining elements [18a, 18b] that are capable of engaging with a fuse holder, wherein each retaining element [18a, 18b] comprises an actuator tab, a stem region, and a foot, wherein the actuator tab and the foot are at respective ends of the stem region, and the foot and the actuator tab lie in a plane that is perpendicular to a longitudinal axis of the stem region, a resilient member situated between the two retaining elements [18a, 18b], wherein the retaining elements [18a, 18b] are moveable relative to each other between an engaged and a released position, such that in the engaged position the resilient member exerts pressure on the two retaining elements thereby urging them apart, and in the released position the retaining elements [18a, 18b] are moved towards each other and the resilient member is compressed, characterized in that, the device further comprises a core body, wherein there is a cavity in the core body, and the dimensions of the cavity are such that it houses the stem region of the retaining elements [18a, 18b] and the resilient member, and allows for movement of the retaining elements [18a, 18b] encompassed therein in a single plane along the longitudinal axis of the device between the released and engaged positions.
A method characterised by comprising: transmitting, from a first apparatus to a second apparatus, over a first secure channel between the first apparatus and the second apparatus in a first access network, access information of a second network, which is required in the second access network to establish between the first apparatus and the second apparatus a parallel second secure connection over the second access network, the access information of the second network being not usable to establish a secure connection in the first access network.
A method for forcing an application to store data in a secure storage location, the method comprising: identifying, by a policy engine executed by the first computing device, a first application executed by the first computing device as a trusted application; intercepting, by a file system filter driver, a first request of the first application to write a first set of data to an unsecure storage location; redirecting, by the file system filter driver, responsive to the identification of the first application as a trusted application, the intercepted first request to a secure storage location; and writing, by the first computing device, the first set of data to the secure storage location. identifying, by a policy engine executed by the first computing device, a first application executed by the first computing device as a trusted application; intercepting, by a file system filter driver, a first request of the first application to write a first set of data to an unsecure storage location; redirecting, by the file system filter driver, responsive to the identification of the first application as a trusted application, the intercepted first request to a secure storage location; and writing, by the first computing device, the first set of data to the secure storage location.
A process for the removal of deposits from an oil and/or gas well, and/or from the surface structures, and/or from the equipments connected therewith, and/or from hydrocarbon bearing formations, comprising: - injecting at least one oil-in-water nanoemulsion into said oil or gas well, and/or surface structures, and/or equipments connected therewith, and/or hydrocarbon bearing formations; - leaving said nanoemulsion in said oil or gas well, and/or surface structures, and/or equipments connected therewith, and/or hydrocarbon bearing formations, for a predetermined time, wherein said oil-in-water nanoemulsion comprises a quantity of oil ranging from 2% by weight to 20% by weight with respect to the total weight of said oil-in-water nanoemulsion and wherein in said oil-in-water nanoemulsion, the dispersed phase (i.e. oil) is distributed in the dispersing phase (i.e. water and surfactants) in the form of droplets having a specific area (area/volume) ranging from 6000 m 2 /l to 300000 m 2 /l. - injecting at least one oil-in-water nanoemulsion into said oil or gas well, and/or surface structures, and/or equipments connected therewith, and/or hydrocarbon bearing formations; - leaving said nanoemulsion in said oil or gas well, and/or surface structures, and/or equipments connected therewith, and/or hydrocarbon bearing formations, for a predetermined time, wherein said oil-in-water nanoemulsion comprises a quantity of oil ranging from 2% by weight to 20% by weight with respect to the total weight of said oil-in-water nanoemulsion and wherein in said oil-in-water nanoemulsion, the dispersed phase (i.e. oil) is distributed in the dispersing phase (i.e. water and surfactants) in the form of droplets having a specific area (area/volume) ranging from 6000 m 2 /l to 300000 m 2 /l.
A moveable tractor-baler combination including (a) a self-powered tractor having a plurality of ground-engaging members (13, 14, 16, 17) and a steering mechanism for steering at least one said ground-engaging member so as to cause changes in a direction of movement of the tractor; (b) a baler that is towed behind the tractor when the tractor moves forwardly and is pivotably connected to the tractor; (c) one or more sensors (36, 38) for sensing one or more lines (herein swath lines) of crop material corresponding to a maximal quantity of crop material per unit length of a swath; and (d) a control apparatus that operates in dependence on at least one output of the one or more sensors (36, 38) to operate the steering mechanism of the tractor such that the baler follows a said swath line in a manner optimising the ingestion of crop material into the baler for baling, wherein the at least one said sensor (36, 38) is mounted on the tractor and wherein one or more said sensors (36, 38) is at least temporarily operable to sense a swath line, of a swath extending laterally with respect to the tractor and that is laterally offset from the direction of forward movement of the tractor; and wherein the control apparatus operates the steering mechanism so that the alignment of the baler becomes optimised with respect to the laterally offset swath line before ingestion of crop material of the laterally offset swath line commences.
A method of using an unlicensed band, the method performed by a Long Term Evolution Advanced, LTE-A, based base station and comprising: for transmitting the data in the unlicensed band, setting, by the base station, a configuration including a threshold value, wherein the configuration is related to a Listen Before Talk, LBT, operation; measuring, by the base station, interference caused by signals from other nodes for a preset measurement period; comparing the measured interference with the threshold value; adjusting the threshold value based on whether an absence of the other nodes is determined based on the measurement. for transmitting the data in the unlicensed band, setting, by the base station, a configuration including a threshold value, wherein the configuration is related to a Listen Before Talk, LBT, operation; measuring, by the base station, interference caused by signals from other nodes for a preset measurement period; comparing the measured interference with the threshold value; adjusting the threshold value based on whether an absence of the other nodes is determined based on the measurement.