mhurhangee/ep-ind-claims huggingface dataset:
Touch probe for checking position and/or dimensions of a workpiece, comprising - a support and protective frame with a rest and locating area, - an armset that is movable with respect to and partly housed in the support and protective frame, comprising a feeler adapted to touch the workpiece to be checked, and an arm carrying the feeler, - a thrust device adapted to urge the armset against the rest and locating area, - a constraint and positioning system arranged between the armset and the support and protective frame at the rest and locating area, comprising a rest system with reference mechanical stops and contacts that are closed when mechanical elements of the armset cooperate with mechanical elements of the support and protective frame, the reference mechanical stops being adapted to define a rest position of the touch probe, and - a processing circuit (30; 30') adapted to detect the state of the contacts and to provide a signal indicative of said rest position when all the contacts are closed, characterized in that - the processing circuit (30; 30') is adapted to individually detect the state of each of said contacts, - the processing circuit (30; 30') is adapted to provide said signal indicative of the rest position even when it detects that one of said contacts is not closed. - a support and protective frame with a rest and locating area, - an armset that is movable with respect to and partly housed in the support and protective frame, comprising a feeler adapted to touch the workpiece to be checked, and an arm carrying the feeler, - a thrust device adapted to urge the armset against the rest and locating area, - a constraint and positioning system arranged between the armset and the support and protective frame at the rest and locating area, comprising a rest system with reference mechanical stops and contacts that are closed when mechanical elements of the armset cooperate with mechanical elements of the support and protective frame, the reference mechanical stops being adapted to define a rest position of the touch probe, and - a processing circuit (30; 30') adapted to detect the state of the contacts and to provide a signal indicative of said rest position when all the contacts are closed, characterized in that - the processing circuit (30; 30') is adapted to individually detect the state of each of said contacts, - the processing circuit (30; 30') is adapted to provide said signal indicative of the rest position even when it detects that one of said contacts is not closed.
A current detection device, comprising: two conductors, wherein at least one conductor comprises a first surface and a second surface and defines a hole extending from the first surface into the inside of the at least one conductor; a resistor disposed between the two conductors; and two detection portions respectively disposed on the two conductors, wherein at least one detection portion is a detection terminal comprising a first terminal portion and a second terminal portion, and at least one portion of the first terminal portion is inserted into the hole, wherein the first terminal portion comprises a first flange and a second flange, the second flange is connected to the second terminal portion, and at least one portion of the second flange is buried into the at least one conductor, the first flange is buried into the at least one conductor, a distal end of the first flange does not protrude beyond the second surface and keeps a distance from the second surface, a gap is defined between the first flange and the second flange, and at least one portion of the gap is filled with a material of the at least one conductor, and a width of the second flange is greater than a width of the first flange. two conductors, wherein at least one conductor comprises a first surface and a second surface and defines a hole extending from the first surface into the inside of the at least one conductor; a resistor disposed between the two conductors; and two detection portions respectively disposed on the two conductors, wherein at least one detection portion is a detection terminal comprising a first terminal portion and a second terminal portion, and at least one portion of the first terminal portion is inserted into the hole, wherein the first terminal portion comprises a first flange and a second flange, the second flange is connected to the second terminal portion, and at least one portion of the second flange is buried into the at least one conductor, the first flange is buried into the at least one conductor, a distal end of the first flange does not protrude beyond the second surface and keeps a distance from the second surface, a gap is defined between the first flange and the second flange, and at least one portion of the gap is filled with a material of the at least one conductor, and a width of the second flange is greater than a width of the first flange.
Method for the positionally accurate population of a circuit substrate with at least one electronic component, which comprises at least two light-emitting surfaces (3a, 3b, 3c), which can be activated separately from one another, and by means of which positional errors of the light-emitting surfaces (3a, 3b, 3c) on the electronic component are detected, and compensated for by the calculation of a correction variable (k), having the following steps: a) Optical detection of the actual positions of at least two light-emitting surfaces (3a, 3b, 3c) of the electronic component with respect to a reference point, b) Calculation of at least one actual variable (S ist), characterising the geometrical position of the light-emitting surfaces (3a, 3b, 3c) as a function of the actual positions of the at least two light-emitting surfaces (3a, 3b, 3c) of the electronic component, c) Comparison of the at least one actual variable (S ist) with at least one desired variable (S soll), for purposes of calculating at least one correction variable (k), wherein the desired variable (S soll) takes the form of predefined values relating to the position and orientation of the light-emitting surfaces (3a, 3b, 3c) with respect to the reference point, d) Population of the circuit substrate with the at least one electronic component as a function of the at least one correction variable (k). a) Optical detection of the actual positions of at least two light-emitting surfaces (3a, 3b, 3c) of the electronic component with respect to a reference point, b) Calculation of at least one actual variable (S ist), characterising the geometrical position of the light-emitting surfaces (3a, 3b, 3c) as a function of the actual positions of the at least two light-emitting surfaces (3a, 3b, 3c) of the electronic component, c) Comparison of the at least one actual variable (S ist) with at least one desired variable (S soll), for purposes of calculating at least one correction variable (k), wherein the desired variable (S soll) takes the form of predefined values relating to the position and orientation of the light-emitting surfaces (3a, 3b, 3c) with respect to the reference point, d) Population of the circuit substrate with the at least one electronic component as a function of the at least one correction variable (k).
A wrong operation detection device for monitoring whether or not a calibration start for determining an initial deflation index is issued in a tire pressure unadjusted state after a deflation warning in a tire pressure monitoring system for detection of deflation of a tire by comparison with the initial deflation index based on rotation speed information and/or a resonance frequency after adjusting pressure of the tire equipped on a vehicle, the wrong operation detection device comprising: comparison means for comparing a first deflation index serving as a deflation index at any time point in a period from issue of the deflation warning to vehicle stop after the issue of the warning, with a second deflation index serving as a deflation index obtained after the calibration start, detection means for detection of wrong operation of a reset button based on a comparison result by the comparison means, and wrong operation warning means for issuing a warning when the detection means detects the wrong operation. comparison means for comparing a first deflation index serving as a deflation index at any time point in a period from issue of the deflation warning to vehicle stop after the issue of the warning, with a second deflation index serving as a deflation index obtained after the calibration start, detection means for detection of wrong operation of a reset button based on a comparison result by the comparison means, and wrong operation warning means for issuing a warning when the detection means detects the wrong operation.
Method for calibration of a camera-based system of a vehicle with a windshield pane, the method comprising the steps of placing an imaging target in form of a board with a known pattern in the field of view of a camera of the camera based system, such that the camera can acquire an calibration image of the board through the windshield pane, acquiring exactly one calibration image of the board with the camera, comparing the calibration image to the known pattern, calculating a windshield distortion which is introduced by the windshield pane, using a camera model comprising parameters representing distortion properties of the windshield, wherein the intrinsic parameters of the camera are known, and storing the windshield distortion in the camera-based system.
A hardware accelerator system for signature matching in a distributed network system comprising one or more hardware accelerator circuits, wherein each of the hardware accelerator circuit utilizes a compressed deterministic finite automata, DFA, comprising a state table representing a database of digital signatures defined by a plurality of states and a plurality of characters, wherein the plurality of states are divided into groups, each group comprising a leader state having a plurality of leader state transitions and one or more member states, each having a plurality of member state transitions, the one or more hardware accelerators comprising: a memory circuit configured to store, the leader state transitions within each group of the compressed DFA; only the member state transitions that are different from the leader state transitions for a respective character within each group of the compressed DFA; and member transition bitmasks associated respectively with the one or more member states, wherein each of the member transition bitmasks comprises a plurality of bitmasks that identify the member state transitions within the respective member state that are different from the leader state transitions for a respective character within each group of the compressed DFA. the leader state transitions within each group of the compressed DFA; only the member state transitions that are different from the leader state transitions for a respective character within each group of the compressed DFA; and member transition bitmasks associated respectively with the one or more member states, wherein each of the member transition bitmasks comprises a plurality of bitmasks that identify the member state transitions within the respective member state that are different from the leader state transitions for a respective character within each group of the compressed DFA.
A heater supporter for a cooking apparatus, the heater supporter comprising: a clip configured to receive a heater; a spacer configured to maintain a predetermined space between the clip and the heater received therein; an extended bar having a first end extending from the clip; and a hook member extending from a second end of the extended bar opposite the first end and configured to be fixed to an installation plane of the heater, wherein the clip, the extended bar, and the hook member are formed integrally from a single metal panel, wherein the clip includes first and second arcs (151a, 151b), the extended bar includes first and second extension portions, and the hook member includes first and second hooks (157a, 157b) all formed along the single metal panel, characterized in that the extended bar elastically supports the heater positioned in the clip so as to at least partially absorb an external shock applied to the heater, and the extended bar includes an elastic portion that elastically supports the heater positioned in the clip, wherein the elastic portion comprises a bent portion (155a, 155b) of the extended bar. a clip configured to receive a heater; a spacer configured to maintain a predetermined space between the clip and the heater received therein; an extended bar having a first end extending from the clip; and a hook member extending from a second end of the extended bar opposite the first end and configured to be fixed to an installation plane of the heater, wherein the clip, the extended bar, and the hook member are formed integrally from a single metal panel, wherein the clip includes first and second arcs (151a, 151b), the extended bar includes first and second extension portions, and the hook member includes first and second hooks (157a, 157b) all formed along the single metal panel, characterized in that the extended bar elastically supports the heater positioned in the clip so as to at least partially absorb an external shock applied to the heater, and the extended bar includes an elastic portion that elastically supports the heater positioned in the clip, wherein the elastic portion comprises a bent portion (155a, 155b) of the extended bar.
An isolated transport construct, or a salt or solvate thereof, consisting of a transport peptide of amino acid sequence SEQ ID NO: 1 that is linked to a cargo moiety comprising an amino acid sequence selected from the group consisting of SEQ ID NOs: 3-6.
A method for cooling electricity storage means with high capacity, characterized in that it includes: - a step of cooling the storage means when the latter are in operation and are delivering an electric current in a power circuit; - a step of cooling the storage means when they are no longer delivering electric current, this step using a low voltage battery, and in that it includes, while the storage means are in operation, steps consisting of: a. measuring the temperature (1110, 1111, 1112, 1113) of the high capacity storage means when said means are in operation; b. determining a time interval until the next cutoff of operation of the high capacity storage means; c. extrapolating the temperature reached by the storage means at said next cutoff of operation; d. calculating the energy necessary to bring the storage means back to a defined nominal temperature after the cutoff of operation; e. measuring the charge status of the low voltage battery to deduce therefrom a need for charging with regard to the necessary energy determined at step d and the charge time necessary to carry out a charge corresponding to this need; f. comparing the necessary charge time with the time interval determined at step b; g. triggering the charge of the low voltage battery if the charge time is greater than or equal to the time interval determined at step b. - a step of cooling the storage means when the latter are in operation and are delivering an electric current in a power circuit; - a step of cooling the storage means when they are no longer delivering electric current, this step using a low voltage battery, a. measuring the temperature (1110, 1111, 1112, 1113) of the high capacity storage means when said means are in operation; b. determining a time interval until the next cutoff of operation of the high capacity storage means; c. extrapolating the temperature reached by the storage means at said next cutoff of operation; d. calculating the energy necessary to bring the storage means back to a defined nominal temperature after the cutoff of operation; e. measuring the charge status of the low voltage battery to deduce therefrom a need for charging with regard to the necessary energy determined at step d and the charge time necessary to carry out a charge corresponding to this need; f. comparing the necessary charge time with the time interval determined at step b; g. triggering the charge of the low voltage battery if the charge time is greater than or equal to the time interval determined at step b.
A modified flavivirus envelope protein comprising a mutated E protein N-terminal transmembrane domain (E-T1 domain), wherein the mutated E-T1 domain has a deletion of amino acids at positions of 0 to +3 or -2 to 0 relative to a central glycine at position 0 of an unmodified E-T1 domain, wherein the flavivirus comprising the modified flavivirus E protein has an ability to produce at least 100 fold more progeny viruses when infecting insect cells than when infecting mammalian cells.
Contact plate intended to be placed in contact with the wall of an electrode of an electro-metallurgical furnace, comprising at least one internal channel having at least one inlet and at least one outlet likely to be respectively linked to at least one external fluid intake duct and to at least one external duct for discharging this fluid, in which is formed at least one blind elongate hole (16, 68) inside which is installed an elongate partition (35, 76) which has opposing elongate edges (39, 40) adjacent to opposing elongate zones (33, 34) of the elongate hole so as to define, in said hole, elongate spaces (16a-16b; 68a-68b) on either side of the elongate partition, the elongate partition being formed in such a way as to define a connecting passage (41, 77) between said elongate spaces and horizontal link holes (29, 69) communicating with said elongate spaces being formed at a distance from said connecting passage, said elongate spaces forming portions of said internal channel (59, 79).
Heat-sensitive recording material - having a web-shaped substrate, comprising a front side and a reverse side opposite the front side, - having a heat-sensitive recording layer disposed to the front side of the web-shaped substrate, this heat-sensitive recording layer comprising at least one dye precursor and at least one (colour) developer which is reactive with this at least one dye precursor, - having a front-side surface of the heat-sensitive recording material that is formed dehesively with respect to layers of adhesive which can be applied to the reverse side of the web-shaped substrate, where the heat-sensitive recording material, for the formation of its dehesive front-side surface, ▪ comprises a furnish which is disposed above the heat-sensitive recording layer and comprises at least one release agent, the furnish comprising, as the at least one release agent, a silicone component, and ▪ a diffusion layer, which is formed between the at least one release agent-comprising furnish and the heat-sensitive recording layer, where the diffusion layer is formed by areal diffusion of parts at least of the release agent from the furnish into the upper region, oriented toward the furnish, of the heat-sensitive recording layer applied before the application of the furnish, and where a fraction of 5 to 50 wt% of the entirety of the release agents of the furnish diffuse into the upper region of the heat-sensitive recording layer formed, where the heat-sensitive recording layer comprises at least one inorganic pigment selected from the list encompassing kaolinite, magnesium silicate hydrate (talc), aluminium hydroxide, calcium carbonate and silicon dioxide (silica). - having a web-shaped substrate, comprising a front side and a reverse side opposite the front side, - having a heat-sensitive recording layer disposed to the front side of the web-shaped substrate, this heat-sensitive recording layer comprising at least one dye precursor and at least one (colour) developer which is reactive with this at least one dye precursor, - having a front-side surface of the heat-sensitive recording material that is formed dehesively with respect to layers of adhesive which can be applied to the reverse side of the web-shaped substrate, ▪ comprises a furnish which is disposed above the heat-sensitive recording layer and comprises at least one release agent, the furnish comprising, as the at least one release agent, a silicone component, and ▪ a diffusion layer, which is formed between the at least one release agent-comprising furnish and the heat-sensitive recording layer,
Apparatus for edging workpieces with an edging strip, comprising a radiation source, a contact pressure device for pressing the edging strip against the workpiece, and a contact pressure zone in the area of which the edging strip is directed by relative movement of the workpiece and the edging strip towards the narrow side of the workpiece whilst forming a joining gap, and is then pressed on the narrow side of the workpiece by means of the contact pressure device, wherein the radiation emerging from the radiation source, effects the activation of an adhesive layer or adhesion-mediating layer, by means of which the edging strip and workpiece are connected, the apparatus further comprising a light guide or radiation path as well as a radiation profiling means arranged between the light guide or radiation path and the edging strip, the means being adapted for shaping the profile of a radiation spot generated by radiation hitting the edging strip in a direction perpendicular to the feeding direction of the edging strip such that the length of the spot in the direction perpendicular to the feeding direction of the edging strip has at least the width of the edging strip or of the portion of the workpiece's narrow side to be covered by the edging strip, wherein the radiation is directed via said light guide or radiation path and the radiation profiling means, characterised in that the radiation profiling means comprises a device for changing the intensity distribution of the radiation hitting the edging strip along the direction perpendicular to the feeding direction of the edging strip, the device being adapted such that the intensity distribution of the radiation entering the device is altered in the direction perpendicular to the feeding direction of the edging strip such that the radiation emerging from the device has an intensity distribution in the direction perpendicular to the feeding direction of the edging strip, which hat intensity peaks (11 a, 11 b) at the edges (2a, 2b) of the edging strip.