mhurhangee/ep-ind-claims huggingface dataset:
A method for automatic configuration of an elevator drive in a traction elevator comprising an elevator car, a counterweight, a traction sheave, an electrical motor and a plurality of elevator ropes arranged to hoist the elevator car in response to the electrical motor rotating the traction sheave, the method comprising: obtaining, by a drive computer unit of the elevator, a plurality of electrical motor parameters via a communication channel from a memory associated with the electrical motor, the plurality of electrical motor parameters comprising a diameter of the traction sheave or a radius of the traction sheave; determining, by the drive computer unit, based on the diameter of the traction sheave or the radius of the traction sheave, an angle that a rotor of the electrical motor is to be rotated in order to rotate the traction sheave a predefined length and thereby to pull the plurality of elevator ropes the predefined length; transmitting, by the drive computer unit, a first signal to an electrical converter to cause the electrical converter to supply power to the electrical motor to rotate the traction sheave the predefined length; receiving, by the drive computer unit, a first measurement signal indicating a distance travelled by the elevator car in response to the rotating of the traction sheave the predefined length, the first response signal being received from at least one of an accelerometer of the elevator car and a position sensor of the elevator car; characterized in that determining, by the drive computer unit, a roping ratio of the elevator by comparing the distance travelled to the predefined length; and recording the roping ratio to a memory of the drive computer unit. obtaining, by a drive computer unit of the elevator, a plurality of electrical motor parameters via a communication channel from a memory associated with the electrical motor, the plurality of electrical motor parameters comprising a diameter of the traction sheave or a radius of the traction sheave; determining, by the drive computer unit, based on the diameter of the traction sheave or the radius of the traction sheave, an angle that a rotor of the electrical motor is to be rotated in order to rotate the traction sheave a predefined length and thereby to pull the plurality of elevator ropes the predefined length; transmitting, by the drive computer unit, a first signal to an electrical converter to cause the electrical converter to supply power to the electrical motor to rotate the traction sheave the predefined length; receiving, by the drive computer unit, a first measurement signal indicating a distance travelled by the elevator car in response to the rotating of the traction sheave the predefined length, the first response signal being received from at least one of an accelerometer of the elevator car and a position sensor of the elevator car; characterized in that determining, by the drive computer unit, a roping ratio of the elevator by comparing the distance travelled to the predefined length; and recording the roping ratio to a memory of the drive computer unit.
A process for preparing a renewable chemical, comprising: (a) feeding to a reactor a reactor feed comprising a mixture of C 3 -C 6 alcohols at a concentration of at least 75 wt. %, the mixture of C3-C6 alcohols including isoamyl alcohol (isopentanol) and 2-methyl-1-butanol (active amyl alcohol); (b) contacting the mixture of C 3 -C 6 alcohols with a mixed oxide catalyst in the reactor, the mixed oxide catalyst having a formula Zn v /Mg w /Cu x /Mn y /Zr z, whereby the mixture is converted to at least one renewable chemical at a yield of at least 25 wt. %, wherein either (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (c) recovering the at least one renewable chemical, wherein the renewable chemical recovered in step (c) is methyl isobutyl ketone (MIBK), di-isobutyl ketone (DIBK), a Cs aldehyde, isoprene, and/or isoamylene. (a) feeding to a reactor a reactor feed comprising a mixture of C 3 -C 6 alcohols at a concentration of at least 75 wt. %, the mixture of C3-C6 alcohols including isoamyl alcohol (isopentanol) and 2-methyl-1-butanol (active amyl alcohol); (b) contacting the mixture of C 3 -C 6 alcohols with a mixed oxide catalyst in the reactor, the mixed oxide catalyst having a formula Zn v /Mg w /Cu x /Mn y /Zr z, whereby the mixture is converted to at least one renewable chemical at a yield of at least 25 wt. %, wherein either (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (c) recovering the at least one renewable chemical, wherein the renewable chemical recovered in step (c) is methyl isobutyl ketone (MIBK), di-isobutyl ketone (DIBK), a Cs aldehyde, isoprene, and/or isoamylene.
A liquid electrophotography printing apparatus (100 - 500), comprising: a photoconductive member having a surface configured to form a latent image thereon; fluid applicators, the fluid applicators being configured to apply fluid to the latent image to form a fluid image on the photoconductive member; a fluid chamber (21, 41) configured to store the fluid, the fluid having at least fluid particles, dissolved materials and a carrier liquid; a filtration assembly (22, 33, 43) in fluid communication with the fluid chamber (21, 41), the filtration assembly (22, 33, 43) configured to store filtration material to remove at least a portion of the fluid particles and the dissolved materials from the fluid from the fluid chamber (21, 41) to form a filtered fluid; and a maintenance unit (17, 48) different from the fluid applicators, the maintenance unit (17, 48) being configured to periodically apply the filtered fluid from the filtration assembly (22, 33, 43) to the photoconductive member and to remove at least the filtered fluid from the photoconductive member. a photoconductive member having a surface configured to form a latent image thereon; fluid applicators, the fluid applicators being configured to apply fluid to the latent image to form a fluid image on the photoconductive member; a fluid chamber (21, 41) configured to store the fluid, the fluid having at least fluid particles, dissolved materials and a carrier liquid; a filtration assembly (22, 33, 43) in fluid communication with the fluid chamber (21, 41), the filtration assembly (22, 33, 43) configured to store filtration material to remove at least a portion of the fluid particles and the dissolved materials from the fluid from the fluid chamber (21, 41) to form a filtered fluid; and a maintenance unit (17, 48) different from the fluid applicators, the maintenance unit (17, 48) being configured to periodically apply the filtered fluid from the filtration assembly (22, 33, 43) to the photoconductive member and to remove at least the filtered fluid from the photoconductive member.
A transmission, having a hollow-cylindrical main body with end faces which has an internal toothing and a rotary axis and in which main body a driven input member and an output member are rotatably supported, and the output member includes two rotary bodies (50, 50') with spacers, the rotary bodies being connected non-rotatably to one another and having a circular outer contour transversely to the rotary axis, between which rotary bodies at least one gear wheel and at least one means for converting planetary motions of the gear wheel into rotary motions of the output member are disposed, characterized in that - the means has the form of a ring, both end faces of which each have at least two guide means (74-1, 74-2; 74-3, 74-4) with center axes (77-X, 77-Y); - the center axes (77-X) of the guide means (74-1, 74-2) of one end face extend perpendicular to an axial plane, while the center axes (77-Y) of the guide means (74-3, 74-4) of the other end face extend parallel to the axial plane; and - the ring has continuous, axially oriented openings, through which spacers pass without contacting them. - the means has the form of a ring, both end faces of which each have at least two guide means (74-1, 74-2; 74-3, 74-4) with center axes (77-X, 77-Y); - the center axes (77-X) of the guide means (74-1, 74-2) of one end face extend perpendicular to an axial plane, while the center axes (77-Y) of the guide means (74-3, 74-4) of the other end face extend parallel to the axial plane; and - the ring has continuous, axially oriented openings, through which spacers pass without contacting them.
A method of generating a highly concentrated protein solution in an apparatus, comprising the steps of: (i) loading a first protein solution in an aqueous buffer into a retentate tank; (ii) allowing the first protein solution to flow from the retentate tank into an ultrafiltration device and (a) circulating the first protein solution through the ultrafiltration device, wherein the ultrafiltration device comprises a porous hydrophilic membrane with a retentate side and a permeate side, the pore size of the membrane being such that the aqueous buffer is allowed to absorb in the membrane while the proteins are retained; (b) applying a flow of gas to the permeate side of the porous hydrophilic membrane, the flow of gas being applied across the permeate side of the membrane; and (c) collecting a second protein solution on the retentate side, wherein the second protein solution is a highly concentrated protein solution, wherein the highly concentrated protein solution comprises at least 200 g/L of protein, preferably at least 260 g/L of protein, at least 350 g/L of protein or 460 g/L of protein, wherein applying the flow of gas to the permeate side of the porous hydrophilic membrane allows the aqueous buffer from the first protein solution to absorb into the porous hydrophilic membrane and to evaporate outside the porous hydrophilic membrane. (i) loading a first protein solution in an aqueous buffer into a retentate tank; (ii) allowing the first protein solution to flow from the retentate tank into an ultrafiltration device and (a) circulating the first protein solution through the ultrafiltration device, wherein the ultrafiltration device comprises a porous hydrophilic membrane with a retentate side and a permeate side, the pore size of the membrane being such that the aqueous buffer is allowed to absorb in the membrane while the proteins are retained; (b) applying a flow of gas to the permeate side of the porous hydrophilic membrane, the flow of gas being applied across the permeate side of the membrane; and (c) collecting a second protein solution on the retentate side, wherein the second protein solution is a highly concentrated protein solution, wherein the highly concentrated protein solution comprises at least 200 g/L of protein, preferably at least 260 g/L of protein, at least 350 g/L of protein or 460 g/L of protein, (a) circulating the first protein solution through the ultrafiltration device, wherein the ultrafiltration device comprises a porous hydrophilic membrane with a retentate side and a permeate side, the pore size of the membrane being such that the aqueous buffer is allowed to absorb in the membrane while the proteins are retained; (b) applying a flow of gas to the permeate side of the porous hydrophilic membrane, the flow of gas being applied across the permeate side of the membrane; and (c) collecting a second protein solution on the retentate side, wherein the second protein solution is a highly concentrated protein solution, wherein the highly concentrated protein solution comprises at least 200 g/L of protein, preferably at least 260 g/L of protein, at least 350 g/L of protein or 460 g/L of protein,
A vehicular door lock device comprising: a housing; an electrical component that is arranged on the housing; and a terminal that is electrically connected to the electrical component and made of a conductive thin plate including a connecting portion configured to connect adjacent conductive portions, wherein an electrical circuit related to the electrical component is formed by dividing the conductive portions from each other by shearing off the connecting portion, the housing includes engagement grooves that are opened at right angles with respect to mounting portions on which the conductive portions of the terminal are mounted, wherein the terminal includes the conductive portions and pins that are arranged at end portions of the conductive portions, bent at right angles, and configured to engage with the engagement grooves, and the pins are formed by folded portions that are obtained by folding end portions of the terminal at 180 degrees, in a manner that a thickness of the folded portions are twice a thickness of the conductive portions. a housing; an electrical component that is arranged on the housing; and a terminal that is electrically connected to the electrical component and made of a conductive thin plate including a connecting portion configured to connect adjacent conductive portions, wherein electrically connected to the electrical component and made of a conductive thin plate including a connecting portion configured to connect adjacent conductive portions, wherein an electrical circuit related to the electrical component is formed by dividing the conductive portions from each other by shearing off the connecting portion, the housing includes engagement grooves that are opened at right angles with respect to mounting portions on which the conductive portions of the terminal are mounted, wherein the terminal includes the conductive portions and pins that are arranged at end portions of the conductive portions, bent at right angles, and configured to engage with the engagement grooves, and the conductive portions and pins that are arranged at end portions of the conductive portions, bent at right angles, and configured to engage with the engagement grooves, and arranged at end portions of the conductive portions, bent at right angles, and configured to engage with the engagement grooves, and the pins are formed by folded portions that are obtained by folding end portions of the terminal at 180 degrees, in a manner that a thickness of the folded portions are twice a thickness of the conductive portions.
Apparatus for sphere decoding of signals for MIMO detection, to deduce a transmit symbol vector from a received symbol vector, the apparatus having: a first distance processor (10, 430), arranged to determine a distance between one or more received symbols of a received symbol vector and one or more of possible transmit symbols transmitted from one of a number of transmit antennas, and to repeat this for others of the possible transmit symbols and others of the transmit antennas, in a search sequence according to a search tree of the possible transmit symbols at each of the transmit antennas, a unit (30, 430, 440) arranged to determine a total distance for a possible transmit symbol vector based on a set of distances determined for different ones of the transmit antennas, and a comparator (40, 460) arranged to compare the total distance to a threshold, to determine if the search sequence can be stopped, the apparatus also having a unit (420, 450) arranged to determine a next symbol in the sequence for distance processing, based on a symbol currently being processed by the first distance processor, and a second distance processor (20, 440) arranged to determine the distance in respect of the next symbol, or any further symbol in the search sequence for the same possible transmit symbol vector, in parallel with the determining of the distance in respect of the current symbol by the first distance processor, before determining the total distance for that possible transmit symbol vector. a first distance processor (10, 430), arranged to determine a distance between one or more received symbols of a received symbol vector and one or more of possible transmit symbols transmitted from one of a number of transmit antennas, and to repeat this for others of the possible transmit symbols and others of the transmit antennas, in a search sequence according to a search tree of the possible transmit symbols at each of the transmit antennas, a unit (30, 430, 440) arranged to determine a total distance for a possible transmit symbol vector based on a set of distances determined for different ones of the transmit antennas, and a comparator (40, 460) arranged to compare the total distance to a threshold, to determine if the search sequence can be stopped, the apparatus also having a unit (420, 450) arranged to determine a next symbol in the sequence for distance processing, based on a symbol currently being processed by the first distance processor, and a second distance processor (20, 440) arranged to determine the distance in respect of the next symbol, or any further symbol in the search sequence for the same possible transmit symbol vector, in parallel with the determining of the distance in respect of the current symbol by the first distance processor, before determining the total distance for that possible transmit symbol vector.
A method for estimating a gaze direction at which a user is looking at, comprising before a test phase (b): a1) a step of retrieving a geometric model of at least one user's eye, defined by a set of parameters; a2) retrieving an image observation model (f) expressing how likely is a given image or a set of images of the eye given said geometric model for each configuration of values of the set of parameters; and then, during the test phase (b): b1) obtaining observation data (X, A) from at least one image, each image including at least one user's eye; b3-b4) using the image observation model, whose parameters include the visual and/or optical axis of the eye (o, v), determining the visual and/or optical axis of the eye (o, v) which is most likely to produce said observation data; using said visual and/or optical axis to retrieve said gaze direction. a1) a step of retrieving a geometric model of at least one user's eye, defined by a set of parameters; a2) retrieving an image observation model (f) expressing how likely is a given image or a set of images of the eye given said geometric model for each configuration of values of the set of parameters; b1) obtaining observation data (X, A) from at least one image, each image including at least one user's eye; b3-b4) using the image observation model, whose parameters include the visual and/or optical axis of the eye (o, v), determining the visual and/or optical axis of the eye (o, v) which is most likely to produce said observation data; using said visual and/or optical axis to retrieve said gaze direction.
Method for recognizing gestures in the context of user interface control, said method being implemented by a gesture-recognition device, the method comprising a step of receiving gyroscopic data representing a gesture executed with a dedicated instrument comprising a gyroscopic sensor, characterized in that the gesture recognition device includes a network of artificial neurons comprising output neurons associated respectively with the gestures that said device is adapted for recognizing, and in that the method further comprises the following steps: - determining, by the network of artificial neurons, a correlation between the received gyroscopic data and gyroscopic data relating to a supervised learning and pre-recorded in a database, the network of artificial neurons implementing an activation function of the sigmoid type and, for the received gyroscopic data and for each output neuron, supplying a probability that said received gyroscopic data correspond to the gesture associated with said output neuron; - recognizing or not the executed gesture according to said correlation, the only data representing the executed gesture taken into account being said gyroscopic data; - transposing each recognized gesture into a user interface command. - determining, by the network of artificial neurons, a correlation between the received gyroscopic data and gyroscopic data relating to a supervised learning and pre-recorded in a database, the network of artificial neurons implementing an activation function of the sigmoid type and, for the received gyroscopic data and for each output neuron, supplying a probability that said received gyroscopic data correspond to the gesture associated with said output neuron; - recognizing or not the executed gesture according to said correlation, the only data representing the executed gesture taken into account being said gyroscopic data; - transposing each recognized gesture into a user interface command.
A corona discharge assembly comprising at least one corona discharge unit and a pulse generator, wherein, the corona discharge unit comprises a pair of corona metal wires arranged in parallel, characterized by that the pulse generator is configured to respectively apply pulses having the same amplitude but opposite polarities to the corona metal wires arranged in parallel.