mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a base transceiver station in a wireless communication network, the method comprising: establishing a first communication channel between the base transceiver station and a first device (106A-H) via first timeslots; establishing a second communication channel between the base transceiver station and a second device (106I-N) via second timeslots; transmitting dummy data to the second device (106I-N) via at least one of the first timeslots while transmitting user data to the first device (106A-H) via the at least one of the first timeslots that is allocated to the first device (106A-H), wherein the dummy data is decoded by the second device (106I-N) if the second device (106I-N) is ordered, from the base transceiver station, via the second communication channel to process the dummy data; receiving a report including information associated with a set of predefined parameters for the at least one of the first timeslots from the second device (106I-N); and establishing a third communication channel between the base transceiver station and the second device (106I-N) via the at least one of the first timeslots based on the received set of predefined parameters. establishing a first communication channel between the base transceiver station and a first device (106A-H) via first timeslots; establishing a second communication channel between the base transceiver station and a second device (106I-N) via second timeslots; transmitting dummy data to the second device (106I-N) via at least one of the first timeslots while transmitting user data to the first device (106A-H) via the at least one of the first timeslots that is allocated to the first device (106A-H), wherein the dummy data is decoded by the second device (106I-N) if the second device (106I-N) is ordered, from the base transceiver station, via the second communication channel to process the dummy data; receiving a report including information associated with a set of predefined parameters for the at least one of the first timeslots from the second device (106I-N); and establishing a third communication channel between the base transceiver station and the second device (106I-N) via the at least one of the first timeslots based on the received set of predefined parameters.
A parking support device comprising an image acquisition portion for acquiring an image peripheral to a vehicle captured by a vehicle-mounted image pickup device; an image display portion, provided within a vehicle chamber, for displaying the peripheral image; and an indicator output portion for superimposedly displaying an indicator, comprising a pair of left and right vehicle width extension lines (e) extending rearwards of the vehicle, on the peripheral image in order to guide a driver during a parking operation by the driver, wherein the parking support device is adapted to support parallel parking, comprising a first turning step, in which the vehicle is reversed while being turned and driven into a parking area, and a second turning step, in which the vehicle is aligned in a parallel direction while being turned in a direction opposite to that in the first turning step, characterized in that the indicator output portion is adapted to superimposedly display, during the second turning step, only the vehicle width extension line that is on an outside of the turn out of the left and right vehicle width extension lines, wherein the left and right vehicle width extension lines are an indicator line representing the steering device being in a neutral state irrespective of an actual steering angle of the vehicle.
A method for aligning a camera or scanning apparatus, especially via an app on a smartphone, to capture a dental ancillary element such as a mini-shade guide, characterized In that a mark having at least one asymmetry Is attached to the dental ancillary element, and/or in that at least part of the dental ancillary element having an asymmetry is used as the mark, in that a template which is congruent with or mathematically similar to the mark Is displayed on a display device of the camera or scanning apparatus, and In that a change in the degree of coverage of the template and the mark or the one part of the dental ancillary element Is detected to align the camera or scanning apparatus.
An optical burst synchronization method, comprising: selecting one line card chassis from multiple line card chassis connected to a same all-optical switching element, as a reference chassis, and transmitting, by an output port corresponding to a wavelength Fast tunable optical laser FTL in the reference chassis, an optical burst test signal by using the FTL respectively to receive ports corresponding to optical receivers ORs in the multiple line card chassis connected to the same all-optical switching element, wherein the optical burst test signal carries a transmission timeslot number; and acquiring, by a receive port corresponding to an OR in each line card chassis connected to the same all-optical switching element, according to an optical path difference between the receive port corresponding to the OR in each line card chassis and the output port corresponding to the FTL in the reference chassis, time of receiving the optical burst test signal, and the transmission timeslot number carried in the optical burst test signal, a time-phase difference between the receive port corresponding to the OR in each line card chassis and the output port corresponding to the FTL in the reference chassis, and adjusting, according to the time-phase difference, a clock phase referenced for receiving electrical burst data on the receive port corresponding to the OR and a clock phase referenced for transmitting electrical burst data on an output port corresponding to an FTL located in the same line card chassis and corresponding to the OR. selecting one line card chassis from multiple line card chassis connected to a same all-optical switching element, as a reference chassis, and transmitting, by an output port corresponding to a wavelength Fast tunable optical laser FTL in the reference chassis, an optical burst test signal by using the FTL respectively to receive ports corresponding to optical receivers ORs in the multiple line card chassis connected to the same all-optical switching element, wherein the optical burst test signal carries a transmission timeslot number; and acquiring, by a receive port corresponding to an OR in each line card chassis connected to the same all-optical switching element, according to an optical path difference between the receive port corresponding to the OR in each line card chassis and the output port corresponding to the FTL in the reference chassis, time of receiving the optical burst test signal, and the transmission timeslot number carried in the optical burst test signal, a time-phase difference between the receive port corresponding to the OR in each line card chassis and the output port corresponding to the FTL in the reference chassis, and adjusting, according to the time-phase difference, a clock phase referenced for receiving electrical burst data on the receive port corresponding to the OR and a clock phase referenced for transmitting electrical burst data on an output port corresponding to an FTL located in the same line card chassis and corresponding to the OR.
A method for increasing the critical micelle concentration of a surfactant composition comprising a linear hydrophobically modified (meth)acrylic polymer, said method comprises neutralizing said polymer to a degree of neutralization ranging from 1 to 75% based on the acid number of said polymer.
A method for triggering a predetermined operation, comprising: receiving, by a control device, a message sent via a wireless signal field by a predetermined signal source and carrying device identification of the predetermined signal source, identifying, by the control device, the predetermined signal source according to the device identification, obtaining (202, 301) a first signal quality of a first wireless signal forming the wireless signal field and received by the control device and sent by the predetermined signal source; determining whether the first signal quality of the first wireless signal is within a predetermined signal quality range during a certain period; obtaining (204, 302) a signal quality characteristic of the first signal quality if it is determined that the first signal quality of the first wireless signal is within the predetermined signal quality range during the certain period; detecting (206, 303) whether the signal quality characteristic matches with a predetermined characteristic sample; and triggering an intelligent device to perform the predetermined operation if the signal quality characteristic matches with the predetermined characteristic sample, the signal quality being represented by RSSI value. receiving, by a control device, a message sent via a wireless signal field by a predetermined signal source and carrying device identification of the predetermined signal source, identifying, by the control device, the predetermined signal source according to the device identification, obtaining (202, 301) a first signal quality of a first wireless signal forming the wireless signal field and received by the control device and sent by the predetermined signal source; determining whether the first signal quality of the first wireless signal is within a predetermined signal quality range during a certain period; obtaining (204, 302) a signal quality characteristic of the first signal quality if it is determined that the first signal quality of the first wireless signal is within the predetermined signal quality range during the certain period; detecting (206, 303) whether the signal quality characteristic matches with a predetermined characteristic sample; and triggering an intelligent device to perform the predetermined operation if the signal quality characteristic matches with the predetermined characteristic sample, the signal quality being represented by RSSI value.
Process valve for a media flow path, particularly for use in the beverage industry or pharmaceutical, chemical and food industry, comprising at least one valve disk (309, 413, 414), at least one primary seal (303, 402, 406) lying on the valve disk, at least one secondary seal (101, 201, 301, 401, 407), at least one hollow space (112, 212, 308, 403, 408) bounded by at the least one primary seal (303, 402, 406) and by the at least one secondary seal (101, 201, 301, 401, 407) and having at least one conically tapered groove (102, 202, 302, 423) for holding the at least one secondary seal, characterised in that the secondary seal is incorporated in the least one conically tapered groove in such a manner that the secondary seal seals on only one side and is permeable to media that flow out of the hollow space.
A coupling load measurement method for measuring load between a first driving shaft, and a second driven shaft connected by means of a hub coupled both with the first shaft and with the second shaft by means of at least one flexible coupling element (5,6) coupled to said hub and to said first shaft and/or to said second shaft wherein the method comprises: during operation of the shafts (1,2) a measurement step of measuring a distance variation respect to a reference distance between a first flange of the hub and a second flange of the flexible coupling element (5,6) and the step of using said measured distance variation for calculating said load, wherein said measurement step is effected by at least one measuring station (7',7"), characterized by the step of cooling the at least one measuring station (7',7") and providing at least one temperature sensor (15, 16, 17, 18) for each of at least one sensor (71, 72) of the measuring station (7',7"). during operation of the shafts (1,2) a measurement step of measuring a distance variation respect to a reference distance between a first flange of the hub and a second flange of the flexible coupling element (5,6) and the step of using said measured distance variation for calculating said load, wherein said measurement step is effected by at least one measuring station (7',7"), characterized by the step of cooling the at least one measuring station (7',7") and providing at least one temperature sensor (15, 16, 17, 18) for each of at least one sensor (71, 72) of the measuring station (7',7").
A method for determining at least two patient parameters in a patient having a drain tube having a first end and a second end, said first end fitted into the patient chest cavity and a second end in fluid communication with a collection vessel, at least one of said collection vessel and said drain tube having a first pressure sensor sensing the pressure within at least one of (i) said drain tube in a location proximal to the collection vessel, and (ii) the collection vessel, and a second pressure sensor sensing the pressure within the drain tube at a location distal to the collection vessel, wherein the determined patient parameters include an estimation of the volume of liquid fluid collected in the collection vessel and drain tube clogging, said method performed by computer means and comprising the steps of: a. obtaining at least a first pressure value from said first pressure sensor and at least one second pressure value from said second pressure sensor and successive pressure values from said first pressure sensor and said second pressure sensor; b. storing the pressure values as time series pressure data in computer memory; c. reading the time series pressure data from the computer memory; d. extracting pressure features from the time series pressure data; e. calculating the estimation of the volume of liquid fluid collected in the collection vessel by processing the extracted pressure features through a non-linear solver using a non-linear equation; f. determining whether the drain tube is clogged; and d. if the drain tube is clogged, activating a tube line clearance device in order to clear the drain tube. a. obtaining at least a first pressure value from said first pressure sensor and at least one second pressure value from said second pressure sensor and successive pressure values from said first pressure sensor and said second pressure sensor; b. storing the pressure values as time series pressure data in computer memory; c. reading the time series pressure data from the computer memory; d. extracting pressure features from the time series pressure data; e. calculating the estimation of the volume of liquid fluid collected in the collection vessel by processing the extracted pressure features through a non-linear solver using a non-linear equation; f. determining whether the drain tube is clogged; and d. if the drain tube is clogged, activating a tube line clearance device in order to clear the drain tube.
A method for flash testing a photovoltaic panel integrated with an electronic module (12, 12a) in a photovoltaic system, the electronic module having an input attached to the photovoltaic panel, the method comprising: connecting test equipment to at a power output of the electronic module, wherein the electronic module comprises a voltage conversion circuit; activating a bypass providing a low impedance path between the input of the electronic module and the power output of the electronic module and receiving, by the test equipment and via the bypass, current generated by the photovoltaic panel during the flash test, wherein activating comprises a fuse of the bypass being in an un-blown state; receiving, by the electronic module a power line communication signal superimposed on the output of the electronic module via a power supply unit PSU connected to the electronic module or a wireless signal applied in the vicinity of the electronic module; and in response to the signal, turning on two MOSFETS of the electronic module to cause a short circuit current to flow from the PSU through the fuse, thereby making the fuse open circuit and de-activating the bypass. connecting test equipment to at a power output of the electronic module, wherein the electronic module comprises a voltage conversion circuit; activating a bypass providing a low impedance path between the input of the electronic module and the power output of the electronic module and receiving, by the test equipment and via the bypass, current generated by the photovoltaic panel during the flash test, wherein activating comprises a fuse of the bypass being in an un-blown state; receiving, by the electronic module a power line communication signal superimposed on the output of the electronic module via a power supply unit PSU connected to the electronic module or a wireless signal applied in the vicinity of the electronic module; and in response to the signal, turning on two MOSFETS of the electronic module to cause a short circuit current to flow from the PSU through the fuse, thereby making the fuse open circuit and de-activating the bypass.
Apparatus for supplying a continuous web of crimped sheet material to a rod forming device, the apparatus comprising - a winding unit for unwinding the sheet material from a bobbin on which the sheet material is provided; - a crimping unit for crimping the sheet material, - a cutting unit, characterised in that the cutting unit is for cutting the continuous web of sheet material to a predetermined width to reduce the amount of sheet material, the cutting unit being arranged upstream of the crimping unit when viewed in the direction of transport of the sheet material, in that the apparatus further comprises a control unit for controlling the various units of the apparatus in response to sensor signals received from the respective units, and in that the cutting unit comprises cutting elements displaceable in a direction perpendicular to a direction of transport of the sheet material for adjusting the width of the sheet material. - a winding unit for unwinding the sheet material from a bobbin on which the sheet material is provided; - a crimping unit for crimping the sheet material, - a cutting unit, characterised in that the cutting unit is for cutting the continuous web of sheet material to a predetermined width to reduce the amount of sheet material, the cutting unit being arranged upstream of the crimping unit when viewed in the direction of transport of the sheet material, in that the apparatus further comprises a control unit for controlling the various units of the apparatus in response to sensor signals received from the respective units, and in that the cutting unit comprises cutting elements displaceable in a direction perpendicular to a direction of transport of the sheet material for adjusting the width of the sheet material.
An impactor for positioning and holding a surgical or veterinary prosthetic implant whilst it is being driven into position, said impactor including:- (a) an impaction means; (b) an impaction shoe which is configured to receive and support a prosthetic implant in a predetermined position; (c) connection means (13,16,21) which connect the impaction means to the impaction shoe and are configured to transmit an impact from the impaction means to the impaction shoe; and (d) arms (26,27) configured to engage an implant supported upon the impaction shoe; characterized in that (e) said arms (26,27) are biased into engagement with said implant, but movable against the bias out of engagement with the implant; and (f) said connection means (13,16,21) are adjustable between a first setting at which the impaction shoe is spring-loaded so as to bias an implant supported upon the impaction shoe into engagement with said arms (26,27) but at which the impaction shoe can slide relative to said arms (26,27), against said spring bias; and a second setting at which both the impaction shoe and the arms (26,27) are rigidly engaged with an implant supported upon the impaction shoe, to hold the implant in a predetermined position and orientation relative to the impaction means. (a) an impaction means; (b) an impaction shoe which is configured to receive and support a prosthetic implant in a predetermined position; (c) connection means (13,16,21) which connect the impaction means to the impaction shoe and are configured to transmit an impact from the impaction means to the impaction shoe; and (d) arms (26,27) configured to engage an implant supported upon the impaction shoe; characterized in that (e) said arms (26,27) are biased into engagement with said implant, but movable against the bias out of engagement with the implant; and (f) said connection means (13,16,21) are adjustable between a first setting at which the impaction shoe is spring-loaded so as to bias an implant supported upon the impaction shoe into engagement with said arms (26,27) but at which the impaction shoe can slide relative to said arms (26,27), against said spring bias; and a second setting at which both the impaction shoe and the arms (26,27) are rigidly engaged with an implant supported upon the impaction shoe, to hold the implant in a predetermined position and orientation relative to the impaction means.
Substrate for ink jet printing comprising: a ground substrate, a plurality of active areas (1, 6), on which ink shall be applied, and at least one non-active area (3, 7), on which no ink shall be applied, both arranged on the substrate, a first layer on the ground substrate having a first surface energy and surrounding the border of each active area (1, 6), and a second layer on the ground substrate having a second surface energy, whereby the first surface energy of said first layer is higher than the second surface energy of said second layer, characterized in that said first layer and said second layer are disposed neighbouring each other side by side but not on top of each other in respect to the surface of the ground substrate a ground substrate, a plurality of active areas (1, 6), on which ink shall be applied, and at least one non-active area (3, 7), on which no ink shall be applied, both arranged on the substrate, a first layer on the ground substrate having a first surface energy and surrounding the border of each active area (1, 6), and a second layer on the ground substrate having a second surface energy, whereby the first surface energy of said first layer is higher than the second surface energy of said second layer, said first layer and said second layer are disposed neighbouring each other side by side but not on top of each other in respect to the surface of the ground substrate