mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a process tool condition, the method comprising: obtaining a plurality of high resolution wafer images of a plurality of wafers, the plurality of wafers including wafers fabricated in a plurality of wafer lots; reducing the resolution of the plurality of the high resolution wafer images by down-sampling the high-resolution wafer images; calculating a plurality of wafer-level metrics designed to extract one or more process tool signatures for each particular wafer of the plurality of wafers, the plurality of wafer-level metrics for each particular wafer being calculated based on the wafer image down sampled from the high-resolution wafer image obtained for said particular wafer; calculating a lot-level statistical value for each particular wafer lot of the plurality of wafer lots, the lot-level statistical value for each particular wafer lot being calculated at least partially based on: the plurality of wafer-level metrics for wafers fabricated in said particular wafer lot and the plurality of wafer-level metrics for wafers fabricated in at least one additional wafer lot in a specified process group; performing a statistical analysis of the process tool based on the lot-level statistical values; identifying potential process tool drift condition based on the lot-level statistical values; and providing the identified potential process tool drift condition for adjustment of the process tool based on the identified process tool drift condition. obtaining a plurality of high resolution wafer images of a plurality of wafers, the plurality of wafers including wafers fabricated in a plurality of wafer lots; reducing the resolution of the plurality of the high resolution wafer images by down-sampling the high-resolution wafer images; calculating a plurality of wafer-level metrics designed to extract one or more process tool signatures for each particular wafer of the plurality of wafers, the plurality of wafer-level metrics for each particular wafer being calculated based on the wafer image down sampled from the high-resolution wafer image obtained for said particular wafer; calculating a lot-level statistical value for each particular wafer lot of the plurality of wafer lots, the lot-level statistical value for each particular wafer lot being calculated at least partially based on: the plurality of wafer-level metrics for wafers fabricated in said particular wafer lot and the plurality of wafer-level metrics for wafers fabricated in at least one additional wafer lot in a specified process group; performing a statistical analysis of the process tool based on the lot-level statistical values; identifying potential process tool drift condition based on the lot-level statistical values; and providing the identified potential process tool drift condition for adjustment of the process tool based on the identified process tool drift condition.
A pedal device for an electronic keyboard apparatus to add sound effects to musical notes generated by the electronic keyboard apparatus in response to an operator depressing the pedal device, comprising: at least one pedal that is moved in response to a depression operation; a chassis that rotationally supports the pedal according to the depression operation to move the pedal downwardly about a supporting position supported by the chassis; a first reaction force application device that is configured to apply a first reaction force countering a depression of the pedal by the operator from an initial state to a specified state, wherein the first reaction force increases as the pedal is depressed from the initial state to the specified state; a second reaction force application device that is configured to apply a second reaction force countering a depression of the pedal by the operator after the specified state, wherein after the specified state the first reaction force and the second reaction force are applied to the pedal; a sensor; and an actuator for transferring an amount of the depression of the pedal to the sensor to produce a voltage, wherein the actuator receives the first reaction force from the first reaction force application device at a first location on the actuator and the second reaction force from the second reaction force application device at a second location on the actuator; characterised in that the chassis has a first internal space in which the first reaction force application device is mounted and a fitting section formed in a hollowed out configuration having a second internal space in which the second reaction force application device is mounted, wherein the first and second reaction force application devices are mounted between the chassis and the actuator, wherein the fitting section abuts against the actuator to restrict a downward movement of the pedal after the specified state. at least one pedal that is moved in response to a depression operation; a chassis that rotationally supports the pedal according to the depression operation to move the pedal downwardly about a supporting position supported by the chassis; a first reaction force application device that is configured to apply a first reaction force countering a depression of the pedal by the operator from an initial state to a specified state, wherein the first reaction force increases as the pedal is depressed from the initial state to the specified state; a second reaction force application device that is configured to apply a second reaction force countering a depression of the pedal by the operator after the specified state, wherein after the specified state the first reaction force and the second reaction force are applied to the pedal; a sensor; and an actuator for transferring an amount of the depression of the pedal to the sensor to produce a voltage, wherein the actuator receives the first reaction force from the first reaction force application device at a first location on the actuator and the second reaction force from the second reaction force application device at a second location on the actuator;
An apparatus for displaying a character image corresponding to a state of use of a portable terminal, the apparatus comprising: an emotion value memory comprising emotion variance values which are allocated to different events from different applications occurring in the portable terminal, respectively; a character memory comprising character images; a controller arranged for selecting a character image from the character memory corresponding to an emotion value reflecting a history of different events from different applications which have occurred in the portable terminal, wherein the controller is arranged for confirming an emotion variance value corresponding to an event among the emotion variance values when the event occurs in the portable terminal, and changing the emotion value by using the confirmed emotion variance value; and a display unit arranged for displaying the selected character image. an emotion value memory comprising emotion variance values which are allocated to different events from different applications occurring in the portable terminal, respectively; a character memory comprising character images; a controller arranged for selecting a character image from the character memory corresponding to an emotion value reflecting a history of different events from different applications which have occurred in the portable terminal, wherein the controller is arranged for confirming an emotion variance value corresponding to an event among the emotion variance values when the event occurs in the portable terminal, and changing the emotion value by using the confirmed emotion variance value; and a display unit arranged for displaying the selected character image.
A compound of the formula I where: Ar 1 is phenyl and is substituted with 0-3 substituent selected from cyano, halo, alkyl, haloalkyl and haloalkoxy; Ar 2 is phenyl, pyridinyl or pyrimidinyl, and is substituted with 1 OR substituent and with 0-2 halo or alkyl substituents; R is hydrogen or a prodrug moiety selected from the group consisting of alkyl esters, amino acid esters, alkoxy esters, phosphonic acids, phosphonic alkyl esters, alkoxyphosphononate acid, alkoxyphosphonate alkyl esters, alkyl carabamates, amino acid carbamates, alkyl phosporamidates, aryl phosphoramidates, and sulfamates; X is a bond or C 1 -C 3 alkylene; n is 1 or 2; ring A is piperidine, piperazine and is substituted with 0-1 halo substituents; or a pharmaceutically acceptable salt thereof. Ar 1 is phenyl and is substituted with 0-3 substituent selected from cyano, halo, alkyl, haloalkyl and haloalkoxy; Ar 2 is phenyl, pyridinyl or pyrimidinyl, and is substituted with 1 OR substituent and with 0-2 halo or alkyl substituents; R is hydrogen or a prodrug moiety selected from the group consisting of alkyl esters, amino acid esters, alkoxy esters, phosphonic acids, phosphonic alkyl esters, alkoxyphosphononate acid, alkoxyphosphonate alkyl esters, alkyl carabamates, amino acid carbamates, alkyl phosporamidates, aryl phosphoramidates, and sulfamates; X is a bond or C 1 -C 3 alkylene; n is 1 or 2; ring A is piperidine, piperazine and is substituted with 0-1 halo substituents;
Method for determining correction characteristics of a visual aid for at least one eye of a person, an individual physiology of the person being taken into account in the processing of the retinal image in order to attain an individual optimum of visual comfort for the person, wherein: - in a first step, a visual impression of the person is determined under a first usage condition, after which - in a second step, a visual impression of the person is determined under a second usage condition, and after which - in a third step, the wavefront of the person is optimized by determining the correction characteristics of the visual aid until the visual impression of the person under the second usage condition at least approximately matches the visual impression of the person under the first usage condition was determined in the first step. - in a first step, a visual impression of the person is determined under a first usage condition, after which - in a second step, a visual impression of the person is determined under a second usage condition, and after which - in a third step, the wavefront of the person is optimized by determining the correction characteristics of the visual aid until the visual impression of the person under the second usage condition at least approximately matches the visual impression of the person under the first usage condition was determined in the first step.
A patient interface comprising: a first tubing (251, 243) defining a first fluid path; a body portion (252, 262) configured to communicate with the first fluid path; a first nostril interface (253, 263) extending from the body portion, wherein the nostril interface communicates with the first fluid path; a first securement portion extending from the body portion proximate the nostril interface, wherein the securement portion is constructed and arranged to engage an exterior surface of a patient's nose to secure the patient interface to such a patient's nose; and a second securement portion disposed more proximate to the nostril interface than the first securement portion, wherein the second securement portion is constructed and arranged to engage an interior surface of the patient's nose and to cooperate with the first securement portion so as to clamp portion of the patient's nose therebetween, wherein the first nostril interface (253, 262) is operatively connected with the body portion (252, 262) to communicate the fluid path with the nostril, wherein the body portion communicates with a second fluid path and further comprises a second nostril interface for communication with the second nostril of the patient, wherein the second nostril interface extends from the body portion and is operatively coupled to the second fluid path. a first tubing (251, 243) defining a first fluid path; a body portion (252, 262) configured to communicate with the first fluid path; a first nostril interface (253, 263) extending from the body portion, wherein the nostril interface communicates with the first fluid path; a first securement portion extending from the body portion proximate the nostril interface, wherein the securement portion is constructed and arranged to engage an exterior surface of a patient's nose to secure the patient interface to such a patient's nose; and a second securement portion disposed more proximate to the nostril interface than the first securement portion, wherein the second securement portion is constructed and arranged to engage an interior surface of the patient's nose and to cooperate with the first securement portion so as to clamp portion of the patient's nose therebetween, wherein the first nostril interface (253, 262) is operatively connected with the body portion (252, 262) to communicate the fluid path with the nostril, wherein the body portion communicates with a second fluid path and further comprises a second nostril interface for communication with the second nostril of the patient, wherein the second nostril interface extends from the body portion and is operatively coupled to the second fluid path.
An arc-based device comprising two or more main electrodes (310, 315, 360), each electrode of the two or main electrodes (310, 315, 360) connected to an electrically different portion of an electric circuit (320, 325), the arc-based device including: an ablative plasma gun subassembly comprising: a body; a first pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within an interior of the body; a second pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within the interior of the body; and ablative material disposed proximate the distal ends (125, 130, 135, 140) of at least one of the first pair of electrodes and the second pair of electrodes: wherein in response to a low voltage high current arc (80, 194) between the second pair of electrodes, an ablative plasma gun of the ablative gun subassembly injects an ablative plasma into a main gap between the two or more main electrodes (310, 315, 360), thereby triggering an arc between the two or more main electrodes (310, 315, 360). an ablative plasma gun subassembly comprising: a body; a first pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within an interior of the body; a second pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within the interior of the body; and ablative material disposed proximate the distal ends (125, 130, 135, 140) of at least one of the first pair of electrodes and the second pair of electrodes: a body; a first pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within an interior of the body; a second pair of electrodes comprising distal ends (125, 130, 135, 140) disposed within the interior of the body; and ablative material disposed proximate the distal ends (125, 130, 135, 140) of at least one of the first pair of electrodes and the second pair of electrodes: wherein in response to a low voltage high current arc (80, 194) between the second pair of electrodes, an ablative plasma gun of the ablative gun subassembly injects an ablative plasma into a main gap between the two or more main electrodes (310, 315, 360), thereby triggering an arc between the two or more main electrodes (310, 315, 360).
A method performed by a core network node, wherein the core network node, a transmission point (308,312) and a wireless device operate in a wireless communications network, and wherein the method is characterized in: - managing (702,802) at least one set of transmission points (308,312), wherein each transmission point (308,312) is associated with a respective index; and - receiving, from the wireless device, measurement information relating to a positioning reference signal transmitted from one transmission point out of the at least one set of transmission points and an index, and mapping the measurement information to a transmission point (308,312) based on the received index and an association, which association associates a transmission point to an index that is unique for the wireless device. - managing (702,802) at least one set of transmission points (308,312), wherein each transmission point (308,312) is associated with a respective index; and - receiving, from the wireless device, measurement information relating to a positioning reference signal transmitted from one transmission point out of the at least one set of transmission points and an index, and mapping the measurement information to a transmission point (308,312) based on the received index and an association, which association associates a transmission point to an index that is unique for the wireless device.
Coolant condenser unit as a housing-protected component of a cooling or air-conditioning device for cooling goods to be transported in transport vehicles with a coolant compression independent of the vehicle engine and coolant evaporation arranged separately from the coolant condenser unit, - with an device support with at least one component of a coolant circuit, in particular an electrically driven coolant compressor, fastened thereto, in particular in a horizontal position, - with a heat exchanger disposed on the device support, serving as a condenser and through which air can flow transversely, - with connecting lines for liquid coolant and/or vapour coolant for a coolant circuit including connectors to at least one coolant evaporator of a coolant circuit, - with a fan which delivers air transverse through the heat exchanger and - with a housing enclosing the coolant condenser unit on its outside, wherein the heat exchanger has an envelope shape forming open end faces (12A, 12B) and an interior, the envelope shape being given a complete circumference by connecting the circumferential end faces of the heat exchanger by a supplementary wall, and wherein the interior formed by the envelope-shapes heat exchanger accommodates the at least one component of the cooling or air-conditioning device, preferably a coolant circuit, in particular one operated with on-board voltage, characterized in that an air guide bonnet provided above a ring element formed as a component of the housing covers or partially covers an impeller of the fan in an air-guiding manner. - with an device support with at least one component of a coolant circuit, in particular an electrically driven coolant compressor, fastened thereto, in particular in a horizontal position, - with a heat exchanger disposed on the device support, serving as a condenser and through which air can flow transversely, - with connecting lines for liquid coolant and/or vapour coolant for a coolant circuit including connectors to at least one coolant evaporator of a coolant circuit, - with a fan which delivers air transverse through the heat exchanger and - with a housing enclosing the coolant condenser unit on its outside,
An in vitro method for the removal of anti-endothelin-receptor antibodies from isolated blood, a. wherein in a first step the presence or absence of an anti-endothelin-receptor antibody is determined in a blood sample from a patient to be diagnosed, wherein the patient is thought to have a disease selected from the group of graft rejection, preeclampsia, hypertension, vasculitis, collagenosis, an inflammatory rheumatic disease and arteriosclerosis, b. wherein upon determining the presence of an anti-endothelin-receptor antibody in the blood sample of the patient anti-endothelin-receptor antibody is removed from isolated blood of said patient. a. wherein in a first step the presence or absence of an anti-endothelin-receptor antibody is determined in a blood sample from a patient to be diagnosed, wherein the patient is thought to have a disease selected from the group of graft rejection, preeclampsia, hypertension, vasculitis, collagenosis, an inflammatory rheumatic disease and arteriosclerosis, b. wherein upon determining the presence of an anti-endothelin-receptor antibody in the blood sample of the patient anti-endothelin-receptor antibody is removed from isolated blood of said patient.
An operation circuit comprising: a data conversion unit to convert data into first data sequences that are pseudo-random number sequences; a coefficient storage unit to store a weighting coefficient that is a value weighted for each of the first data sequences; a coefficient conversion unit to convert the weighting coefficient into a weighting coefficient sequence that is a pseudo-random number sequence; a plurality of first weighted addition units (200-1, 200-2) to generate a second data sequence obtained by weighting and adding up the first data sequences with use of the first data sequences and the weighting coefficient sequences; and at least one second weighted addition unit to generate a third data sequence obtained by weighting and adding up the second data sequences with use of the second data sequences and the weighting coefficient sequence; characterised by a control unit to select the first data sequences to be inputted to the first weighted addition units (200-1, 200-2) such that operation error levels in the first weighted addition units and the second weighted addition unit become smaller than a predetermined value, wherein the weighting coefficient has a value of 0 or more and 1 or less, and the control unit is configured to reduce the operation error level by minimizing a maximum value of a product of a value obtained by subtracting the weighting coefficient from 1 and the weighting coefficient; or the control unit is configured to reduce the operation error level by minimizing a difference between the weighting coefficient and 0. a data conversion unit to convert data into first data sequences that are pseudo-random number sequences; a coefficient storage unit to store a weighting coefficient that is a value weighted for each of the first data sequences; a coefficient conversion unit to convert the weighting coefficient into a weighting coefficient sequence that is a pseudo-random number sequence; a plurality of first weighted addition units (200-1, 200-2) to generate a second data sequence obtained by weighting and adding up the first data sequences with use of the first data sequences and the weighting coefficient sequences; and at least one second weighted addition unit to generate a third data sequence obtained by weighting and adding up the second data sequences with use of the second data sequences and the weighting coefficient sequence; characterised by a control unit to select the first data sequences to be inputted to the first weighted addition units (200-1, 200-2) such that operation error levels in the first weighted addition units and the second weighted addition unit become smaller than a predetermined value, wherein the weighting coefficient has a value of 0 or more and 1 or less, and the control unit is configured to reduce the operation error level by minimizing a maximum value of a product of a value obtained by subtracting the weighting coefficient from 1 and the weighting coefficient; or the control unit is configured to reduce the operation error level by minimizing a difference between the weighting coefficient and 0.
A compound having the formula: wherein R 1, R 2, R 3, and R 4 are each independently selected from the group consisting of unsubstituted C 1-20 alkyl, H, C 2-20 alkenyl and unsubstituted alkylaryl with C 1-20 alkyl; n is 1 to 100; X is selected from the group consisting of hydrogen, a functional group and a crosslinking group; and Y is -O-(CH 2 -CH 2 -O) p -CH 3; and p is 1 to 700. R 1, R 2, R 3, and R 4 are each independently selected from the group consisting of unsubstituted C 1-20 alkyl, H, C 2-20 alkenyl and unsubstituted alkylaryl with C 1-20 alkyl; n is 1 to 100; X is selected from the group consisting of hydrogen, a functional group and a crosslinking group; and Y is -O-(CH 2 -CH 2 -O) p -CH 3; and p is 1 to 700.