mhurhangee/ep-ind-claims huggingface dataset:
KIT for indirect ELISA test based on crude Native Hapten for confirmatory diagnosis of bovine brucellosis in blood serum and individual milk (per animal) and bulk milk (tank), characterized by ten microplates coated with crude Native Hapten, each plate containing 96 wells (distributed in 12 strips of 8 wells each strip) of flat and clear bottom, with a surface treated specially for a high capacity of adhesion of the antigen, with a maximum capacity of 360 microliters per well, it includes five microplates of 96 wells, without treatment, to perform the predilution of samples; four bottles of sixty milliliters each with PBS-Tween 20 Washing Solution, 0.05%, at (10 X) concentration; one bottle of fourty milliliters of Sample Diluent Solution, based on CABI (carbonate bicarbonate) Buffer at (10 X) concentration; one bottle of fifty milliliters of Conjugate Diluent, based on CABI (carbonate bicarbonate) buffer at concentration (1 X); one 50 milliliter bottle of Substrate, which is ABTS (commercial product); one vial of one milliliter consisting of 25 microliters of Concentrated Conjugate, which is an Immunoglobulin G - anti Bovine, conjugated with horseradish peroxidase produced in goat (commercial product) which is prediluted in a preservative HRP Protector, which is a peroxidases stabilizer; one bottle of fifty milliliters of Stop Solution, which is sodium Duodecyl Sulfate at 4% concentration, one freeze dried positive blood serum vial, one freeze dried negative blood serum vial, and one freeze dried positive milk serum vial and one freeze dried milk serum vial, all control vials contain one milliliter of freezed dried serum for reconstitution in one milliliter of distilled water.
Method for producing at least one region having reduced electrical conductivity within an electrically conductive III-V semiconductor layer, wherein a ZnO layer is applied to the region of the semiconductor layer and is subsequently subjected to heat treatment at a temperature of 300°C to 500°C, as a result of which the electrical conductivity of the region having reduced conductivity is reduced by at least a factor of 2 relative to the region or regions of the III-V semiconductor layer which adjoin the region having reduced conductivity.
A method for mitigating the effects of substantially concurrent audio bursts from two or more of the participants, for use in an conferencing system in which a plurality of communication devices electronically connect respective participants to one another, the method being characterized by: identifying a priority attribute associated with each of multiple substantially concurrent audio bursts; comparing the identified priority attributes; and electronically suppressing at least one audio burst as a function of the comparison, wherein said suppressing comprises performing one or more of attenuating, altering pitch, sound replacement, selective frequency manipulation, and selective spatial positioning. identifying a priority attribute associated with each of multiple substantially concurrent audio bursts; comparing the identified priority attributes; and electronically suppressing at least one audio burst as a function of the comparison, wherein said suppressing comprises performing one or more of attenuating, altering pitch, sound replacement, selective frequency manipulation, and selective spatial positioning.
A phased array antenna system, comprising: at least a first array of antenna elements, where the at least the first array comprises a substantially linear array arranged in a vertical plane for beamforming in an elevation plane; and at least a first radio frequency beamforming network (202, 203, 204, 205, 206) configured to split the power of a radio frequency signal for transmission into a first plurality of component signals, the first plurality of component signals comprising drive signals for the at least the first array of antenna elements, the at least the first radio frequency beamforming network further configured to combine a radio frequency signal for reception by the phased array antenna system from a second plurality of component signals from the at least the first array of antenna elements, where amplitude weights of a radio frequency power distribution of the at least the first radio frequency beamforming network are arranged to provide an allocation of at least 73% of a total radio frequency power to less than 50% of the antenna elements of the at least the first array towards an upper end of the at least the first array for the first plurality of component signals transmitted via the antenna elements of the at least the first array and for the second plurality of component signals received via the antenna elements of the at least the first array, where the at least the first array is for deployment on a building rooftop, and wherein the amplitude weights are to minimize diffractive propagation losses introduced by an edge of the building rooftop. at least a first array of antenna elements, where the at least the first array comprises a substantially linear array arranged in a vertical plane for beamforming in an elevation plane; and at least a first radio frequency beamforming network (202, 203, 204, 205, 206) configured to split the power of a radio frequency signal for transmission into a first plurality of component signals, the first plurality of component signals comprising drive signals for the at least the first array of antenna elements, the at least the first radio frequency beamforming network further configured to combine a radio frequency signal for reception by the phased array antenna system from a second plurality of component signals from the at least the first array of antenna elements, where amplitude weights of a radio frequency power distribution of the at least the first radio frequency beamforming network are arranged to provide an allocation of at least 73% of a total radio frequency power to less than 50% of the antenna elements of the at least the first array towards an upper end of the at least the first array for the first plurality of component signals transmitted via the antenna elements of the at least the first array and for the second plurality of component signals received via the antenna elements of the at least the first array, where the at least the first array is for deployment on a building rooftop, and wherein the amplitude weights are to minimize diffractive propagation losses introduced by an edge of the building rooftop.
An elevator system comprising: a door panel configured for moving along a first axis for opening and closing of the door panel at an entryway, the door panel comprising a door magnet, the entryway including a sill, the sill having a sill magnet, wherein the door magnet and the sill magnet are configured for forming a first magnetic pairing, and wherein the first magnetic pairing guides the door panel to move along the first axis and prevents the door panel from moving in a lateral direction with respect to the first axis; characterized in that the sill includes a sill enclosure that is sealed, and the sill magnet is within the sill enclosure, wherein the sill enclosure includes a track that extends along the first axis and the sill magnet is movable along the track for traveling in the first axis with the door magnet when the door is opening and closing. a door panel configured for moving along a first axis for opening and closing of the door panel at an entryway, the door panel comprising a door magnet, the entryway including a sill, the sill having a sill magnet, wherein the door magnet and the sill magnet are configured for forming a first magnetic pairing, and wherein the first magnetic pairing guides the door panel to move along the first axis and prevents the door panel from moving in a lateral direction with respect to the first axis; characterized in that the sill includes a sill enclosure that is sealed, and the sill magnet is within the sill enclosure, wherein the sill enclosure includes a track that extends along the first axis and the sill magnet is movable along the track for traveling in the first axis with the door magnet when the door is opening and closing.
A handover method performed by a first base station in a heterogeneous network wireless communication system including the first base station and a second base station both supporting a cell range expansion, CRE, function, the method comprising: monitoring Z whether the cell range expansion function is deactivated if deactivation of the cell range expansion function is detected, generating handover request message; and transmitting the handover request message to the second base station for performing a handover of a terminal to the first base station, wherein the first base station is a macro base station and the second base station is a pico base station. monitoring Z whether the cell range expansion function is deactivated if deactivation of the cell range expansion function is detected, generating handover request message; and transmitting the handover request message to the second base station for performing a handover of a terminal to the first base station, wherein the first base station is a macro base station and the second base station is a pico base station.
A method of operating each regulated switching power converter of a set of regulated switching power converters arranged in parallel between an input power bus and an output power bus, each regulated switching power converter generating a respective converter output voltage coupled to the output power bus and having distinct first and second regulated output values under corresponding distinct operating conditions, each regulated switching power converter implementing a droop output characteristic enabling the parallel-arranged regulated switching power converters to collectively implement droop current sharing, operation of each regulated switching power converter employing a regulation reference value for a regulation feedback loop, the converter output voltage transitioning between the first and second regulated output values in response to corresponding transition of a trigger signal in a transition window between first and second trigger values, the trigger signal being a signal proportional to an input voltage of the regulated switching power converter, the input voltage appearing on the input power bus, the method comprising the step of: defining a transition step function based on respective values for transition amplitude, transition interval and number of steps greater than one, the transition amplitude being a difference between the first and second regulated output values, and the transition interval being a difference between the first and second trigger values, the transition step function generating a step-like transition signal based on ranges of values of the trigger signal between the first and second trigger values; and the method further comprising the step, performed at each of the regulated switching power converters, of: during operation with the trigger signal having a value in the transition window, including the step-like transition signal in the regulation reference value to generate a step-like transition of the converter output voltage between the first and second regulated output values. defining a transition step function based on respective values for transition amplitude, transition interval and number of steps greater than one, the transition amplitude being a difference between the first and second regulated output values, and the transition interval being a difference between the first and second trigger values, the transition step function generating a step-like transition signal based on ranges of values of the trigger signal between the first and second trigger values; and the method further comprising the step, performed at each of the regulated switching power converters, of: during operation with the trigger signal having a value in the transition window, including the step-like transition signal in the regulation reference value to generate a step-like transition of the converter output voltage between the first and second regulated output values.
Arrangement with a monorail vehicle, a two-rail track and a rail changing system arranged on the two-rail track for transferring the monorail vehicle from one rail of the two-rail track to the other rail of the two-rail track, wherein the rail changing system is arranged between the two rails (4, 5) of the two-rail track and comprises a lifting device and a positioning unit, the lifting device is arranged such that it can be used to lift the monorail vehicle on the rail on which it is located, move it to the other rail and lower it onto the other rail, and the positioning unit is arranged to position the lifting device on the monorail vehicle in a predetermined manner. the rail changing system is arranged between the two rails (4, 5) of the two-rail track and comprises a lifting device and a positioning unit, the lifting device is arranged such that it can be used to lift the monorail vehicle on the rail on which it is located, move it to the other rail and lower it onto the other rail, and the positioning unit is arranged to position the lifting device on the monorail vehicle in a predetermined manner.
A component mounting device comprising: a component supply device which is configured to supply a component to be mounted onto a target object to a supply position; a movable section which includes a mounting nozzle which is configured to acquire and hold the component from the supply position, and which is configured to mount the component which is held by the mounting nozzle onto a mounting position (P4 to P6) of the target object; a driving mechanism (41, 43, 49) which is configured to move the movable section and cause the mounting nozzle to rotate around a Q-axis which is a rotating shaft; an imaging device which is configured to image the component which is held by the mounting nozzle at an imaging position; and a control section which is configured to control the driving mechanism (41, 43, 49) to move the movable section from the supply position to the mounting position (P4 to P6) via the imaging position, the component mounting device being characterized in that when the movable section moves from the supply position to the mounting position (P4 to P6), the control section is configured to compare a first required time which is required for movement from the supply position to the imaging position with a second required time which is required for movement from the imaging position to the mounting position (P4 to P6), and is configured to start Q-axis rotation of the mounting nozzle in a movement operation of whichever of the two required times (T1, T2) is the longer required time. a component supply device which is configured to supply a component to be mounted onto a target object to a supply position; a movable section which includes a mounting nozzle which is configured to acquire and hold the component from the supply position, and which is configured to mount the component which is held by the mounting nozzle onto a mounting position (P4 to P6) of the target object; a driving mechanism (41, 43, 49) which is configured to move the movable section and cause the mounting nozzle to rotate around a Q-axis which is a rotating shaft; an imaging device which is configured to image the component which is held by the mounting nozzle at an imaging position; and a control section which is configured to control the driving mechanism (41, 43, 49) to move the movable section from the supply position to the mounting position (P4 to P6) via the imaging position, the component mounting device being characterized in that when the movable section moves from the supply position to the mounting position (P4 to P6), the control section is configured to compare a first required time which is required for movement from the supply position to the imaging position with a second required time which is required for movement from the imaging position to the mounting position (P4 to P6), and is configured to start Q-axis rotation of the mounting nozzle in a movement operation of whichever of the two required times (T1, T2) is the longer required time.
An interface circuit comprising a Power Management Integrated Circuit, PMIC,, a Universal Serial Bus, USB, controller, an Integrated Circuit, IC, and a USB interface, wherein a first identity pin of the PMIC is connected with a second identity pin of the IC, and a first configuration channel pin of the IC is connected with a second configuration channel pin in the USB interface; a data pin in the USB controller is connected with a data pin in the USB interface through the IC; characterized in that, under a master-slave switching state, the IC disconnects the second identity pin with the first configuration channel pin, and sets the second identity pin to high level and the first configuration channel pin to low level; under a slave-master switching state, the IC disconnects the second identity pin with the first configuration channel pin, and sets the second identity pin to low level and the first configuration channel pin to high level; under a non-switching state, the IC is in a state that the second identity pin is connected with the first configuration channel pin.
A lighting device comprising: - a bowl-shaped body having a base surface with a plurality of mounting studs projecting from the base surface, - at least one board for mounting light radiation sources, provided with holes for the passage of respective studs of said plurality; - a plurality of reflectors for projecting the light radiation from the device, the reflectors having an inlet opening for the light radiation, characterized in that - the at least one board having pairs of mounting locations (122, 122') for light radiation sources, each pair being arranged on opposite sides of a respective hole so as to be located on opposite sides of the stud which extends through said respective hole, and and - the plurality of reflectors being capable of being mounted on the aforesaid mounting studs selectively in one of at least two opposite mounting positions in which the inlet opening is placed at one of said mounting locations (122, 122'). - a bowl-shaped body having a base surface with a plurality of mounting studs projecting from the base surface, - at least one board for mounting light radiation sources, provided with holes for the passage of respective studs of said plurality; - a plurality of reflectors for projecting the light radiation from the device, the reflectors having an inlet opening for the light radiation, characterized in that - the at least one board having pairs of mounting locations (122, 122') for light radiation sources, each pair being arranged on opposite sides of a respective hole so as to be located on opposite sides of the stud which extends through said respective hole, and and - the plurality of reflectors being capable of being mounted on the aforesaid mounting studs selectively in one of at least two opposite mounting positions in which the inlet opening is placed at one of said mounting locations (122, 122').
A computer-implemented method of distributing location-based message contents over a messaging system and that are displayable on consumer devices present at associated locations, the method comprising: for each message of a set of messages, obtaining a message content and a message location search term; submitting the message location search term to a web mapping service so that a service application programming interface searches with the message location search term; receiving a result list including a plurality of message locations corresponding to the message; and; adding the message content and the plurality of message locations to a message distribution database or set of linked databases that is or are searchable by location; receiving from a consumer device a first consumer update request including a location of the consumer device or a consumer defined location; searching the message distribution database or the set of linked databases using the consumer device location or consumer defined location to identify, for each of one or more of said messages, a single message location that is within a first predefined range of the consumer device location or consumer defined location and / or that is closest to the consumer device location or consumer defined location; and sending the identified single message location(s) to the consumer device. for each message of a set of messages, obtaining a message content and a message location search term; submitting the message location search term to a web mapping service so that a service application programming interface searches with the message location search term; receiving a result list including a plurality of message locations corresponding to the message; and; adding the message content and the plurality of message locations to a message distribution database or set of linked databases that is or are searchable by location; receiving from a consumer device a first consumer update request including a location of the consumer device or a consumer defined location; searching the message distribution database or the set of linked databases using the consumer device location or consumer defined location to identify, for each of one or more of said messages, a single message location that is within a first predefined range of the consumer device location or consumer defined location and / or that is closest to the consumer device location or consumer defined location; and sending the identified single message location(s) to the consumer device.
A heterogeneous mass comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements and one or more discrete open-cell foam pieces wherein the heterogeneous mass comprises of three or more pore-size ranges (42, 44, 46), wherein at least two of the pore-size ranges (42, 44) are in one or more of the open-cell foam pieces, characterized in that the open-cell foam is a thermoset polymeric foam made from polymerization of a High Internal Phase Emulsion (HIPE) formed by combining an aqueous phase and an oil phase in a ratio between about 8:1 and 140:1, and the one or more discrete open-cell foam pieces are polymerized around the enrobeable elements.
Adjusting unit in order to adjust a relative position between a fixedly arranged first component and a relocatably mounted second component comprising the following features: a. an adjusting bolt with an eccentric head, a shaft and at least one drive means (14, 46), preferably two drive means (14, 46) arranged at the end, and b. a sleeve-like receiving member in which the cylindrical shaft of the adjusting bolt is receivable and is adjustable relatively to the sleeve-like receiving member in a rotation angle orientation, whereas c. the eccentric head provides a circumferential radial contact surface at which the second component is braceable so that a lateral position of the second component is adjustable relatively to the first component by rotating the adjusting bolt via the at least one drive means (14, 46), characterized in that d. the cylindrical shaft of the adjusting bolt is supportable via a friction connection between the shaft and the receiving member in the receiving member. a. an adjusting bolt with an eccentric head, a shaft and at least one drive means (14, 46), preferably two drive means (14, 46) arranged at the end, and b. a sleeve-like receiving member in which the cylindrical shaft of the adjusting bolt is receivable and is adjustable relatively to the sleeve-like receiving member in a rotation angle orientation, whereas c. the eccentric head provides a circumferential radial contact surface at which the second component is braceable so that a lateral position of the second component is adjustable relatively to the first component by rotating the adjusting bolt via the at least one drive means (14, 46), characterized in that d. the cylindrical shaft of the adjusting bolt is supportable via a friction connection between the shaft and the receiving member in the receiving member.