mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a series of damage formations in a transparent workpiece along a line, comprising the steps of: a) providing a laser processing device including an ultra-short pulsed laser and focusing optics, with the wavelength of the laser radiation being within the transmission range of the workpiece; characterised by the steps of: using a gas-tight chamber for supporting the substrate; supporting the workpiece in the gas-tight chamber; b) providing a workpiece table and a displacement means for positioning the focusing optics above the workpiece during the generation of a damage formation in the workpiece and thereafter for incrementally displacing the focusing optics and the workpiece table relative to each other according to the line of the series of damage formations; c) emitting, while the focusing optics is positioned at each respective location of damage formation, laser pulses in two or more successive periods, wherein the energy of the laser pulses during each period is dimensioned so that a corresponding filament formation (4, 5, 6) is produced in the transparent workpiece, and wherein the successive laser pulse periods produce consecutively aligned filament formations (4, 5, 6) extending transversely through the workpiece; wherein the emitting of the laser pulses is performed in the gas-tight chamber under protective gas atmosphere. a) providing a laser processing device including an ultra-short pulsed laser and focusing optics, with the wavelength of the laser radiation being within the transmission range of the workpiece; characterised by the steps of: using a gas-tight chamber for supporting the substrate; supporting the workpiece in the gas-tight chamber; using a gas-tight chamber for supporting the substrate; supporting the workpiece in the gas-tight chamber; b) providing a workpiece table and a displacement means for positioning the focusing optics above the workpiece during the generation of a damage formation in the workpiece and thereafter for incrementally displacing the focusing optics and the workpiece table relative to each other according to the line of the series of damage formations; c) emitting, while the focusing optics is positioned at each respective location of damage formation, laser pulses in two or more successive periods, wherein the energy of the laser pulses during each period is dimensioned so that a corresponding filament formation (4, 5, 6) is produced in the transparent workpiece, and wherein the successive laser pulse periods produce consecutively aligned filament formations (4, 5, 6) extending transversely through the workpiece; wherein the emitting of the laser pulses is performed in the gas-tight chamber under protective gas atmosphere.
Thermostat for adjusting a radiator valve, comprising a housing with a longitudinal axis which extends from a bottom side of the housing towards a front side of the housing, a motor arranged in the housing with an actuator for acting on the radiator valve and a screen on the front side of the housing; wherein the motor is arranged transversely to the longitudinal axis so that a movement axis of the actuator is transverse to the longitudinal axis; characterized in that the thermostat comprises control electronics arranged in the housing, which are designed to display content on the screen in a selectable manner in different orientations. a motor arranged in the housing with an actuator for acting on the radiator valve and a screen on the front side of the housing; wherein the motor is arranged transversely to the longitudinal axis so that a movement axis of the actuator is transverse to the longitudinal axis; characterized in that the thermostat comprises control electronics arranged in the housing, which are designed to display content on the screen in a selectable manner in different orientations.
A controller for a switched mode power converter, the switched mode power converter comprising a transformer defining a primary side circuit and a secondary side circuit, the primary side circuit comprising a primary switch, the secondary side circuit comprising a synchronous rectification switch, the controller comprising: a baseline off-set circuit configured to provide a baseline timing off-set between opening the synchronous rectification switch and closing the primary switch; and a feedback circuit (75,73) configured to add an off-set adaptation to the baseline timing off-set to provide an adapted timing off-set; characterised in that the controller further comprises a peak current detector configured to detect a peak negative current in the secondary side circuit; and in that the feedback circuit is configured to adjust the off-set adaptation to tend to minimise the peak negative current. a baseline off-set circuit configured to provide a baseline timing off-set between opening the synchronous rectification switch and closing the primary switch; and a feedback circuit (75,73) configured to add an off-set adaptation to the baseline timing off-set to provide an adapted timing off-set; characterised in that the controller further comprises a peak current detector configured to detect a peak negative current in the secondary side circuit; and in that the feedback circuit is configured to adjust the off-set adaptation to tend to minimise the peak negative current.
A resource management method of a base station for interference coordination in a wireless communication system, the method comprising: receiving (801, 1101) an almost blank subframe, ABS, set from another base station; transmitting a reference resource configuration set for channel measurement and a Radio Link Monitor/Radio Resource Measurement, RLM/RRM, for radio resource measurement to a terminal; scheduling the terminal in a subframe selected from the ABS set if the terminal is located in a boundary region of a cell of the base station, and scheduling the terminal in a subframe selected from a non-ABS set if the terminal is located in non-boundary region of the cell of the base station, wherein the transmitting of the reference resource configuration set comprises: transmitting, if the terminal is located in the boundary region of the cell of the base station, one of the ABS set and a subset of the ABS set; and transmitting, if the terminal is located in the non-boundary region of the cell, one of the non-ABS set and a subset of the non-ABS set. receiving (801, 1101) an almost blank subframe, ABS, set from another base station; transmitting a reference resource configuration set for channel measurement and a Radio Link Monitor/Radio Resource Measurement, RLM/RRM, for radio resource measurement to a terminal; scheduling the terminal in a subframe selected from the ABS set if the terminal is located in a boundary region of a cell of the base station, and scheduling the terminal in a subframe selected from a non-ABS set if the terminal is located in non-boundary region of the cell of the base station, wherein the transmitting of the reference resource configuration set comprises: transmitting, if the terminal is located in the boundary region of the cell of the base station, one of the ABS set and a subset of the ABS set; and transmitting, if the terminal is located in the non-boundary region of the cell, one of the non-ABS set and a subset of the non-ABS set. transmitting, if the terminal is located in the boundary region of the cell of the base station, one of the ABS set and a subset of the ABS set; and transmitting, if the terminal is located in the non-boundary region of the cell, one of the non-ABS set and a subset of the non-ABS set.
A method for making an organic electroluminescent display device having an array of pixels disposed on a display substrate, comprising the steps of: a) providing an array of first electrodes on a display substrate; b) providing a donor element comprising a donor support, a radiation-absorbing layer over the donor support, and at least one organic layer over the radiation-absorbing layer, wherein said organic layer comprises the material or materials to be transferred to the display substrate; c) positioning the donor element in transfer relationship to the display substrate patterned with an array of first electrodes; d) heating the display substrate or donor element or both within a specified temperature range prior to transfer of the organic layer; e) focusing and scanning a laser beam of sufficient power and desired spot size on the radiation-absorbing layer of the donor element to effect the transfer of selected portions of the organic layer from the donor element to designated areas corresponding to pixels on the display substrate in electrical connection with the first electrodes; and f) providing a second electrode over the transferred organic portions on the display substrate. a) providing an array of first electrodes on a display substrate; b) providing a donor element comprising a donor support, a radiation-absorbing layer over the donor support, and at least one organic layer over the radiation-absorbing layer, wherein said organic layer comprises the material or materials to be transferred to the display substrate; c) positioning the donor element in transfer relationship to the display substrate patterned with an array of first electrodes; d) heating the display substrate or donor element or both within a specified temperature range prior to transfer of the organic layer; e) focusing and scanning a laser beam of sufficient power and desired spot size on the radiation-absorbing layer of the donor element to effect the transfer of selected portions of the organic layer from the donor element to designated areas corresponding to pixels on the display substrate in electrical connection with the first electrodes; and f) providing a second electrode over the transferred organic portions on the display substrate.
Method of managing a system comprising a home automation box, a detection device and a set of device apparatuses (C1, D1, D2, D3, C4) respectively connected to the home automation box via a first communication link, said set of apparatuses comprising at least one apparatus to be controlled and at least one data gathering apparatus, said home automation box being able to determine at least one control command as a function of data received from at least one data gathering apparatus of said set of apparatuses via at least a said first communication link and to transmit said at least one determined control command to at least one apparatus to be controlled of said set of apparatuses via at least a said first communication link, said method comprising the following steps, implemented by said detection device: - monitoring an application signalling activity coming from said home automation box; - detection of an absence of application signalling activity during a predetermined time period; the method being characterized in that it comprises a step of initiating a minimum service by the transmission of an alert message (ALERT), by said detection device to at least one apparatus of said set of apparatuses, in the case of absence of detected application signalling activity, said minimum service corresponding to a service in which the apparatuses of said set of apparatuses communicate directly between each other via a second communication link and in which a control message received by an apparatus to be controlled of said set of apparatuses is a message generated by a data gathering apparatus of said set of apparatuses and transmitted via a said second communication link directly connecting said data gathering apparatus and said apparatus to be controlled. - monitoring an application signalling activity coming from said home automation box; - detection of an absence of application signalling activity during a predetermined time period; the method being characterized in that it comprises a step of initiating a minimum service by the transmission of an alert message (ALERT), by said detection device to at least one apparatus of said set of apparatuses, in the case of absence of detected application signalling activity,
A compressor having an electric motor connected to a power supply that includes first, second, and third phases, and having a sensor module,said sensor module comprising: a first input connected to a first voltage sensor that generates a first voltage signal corresponding to a voltage of said first phase of said power supply; a second input connected to a second voltage sensor that generates a second voltage signal corresponding to a voltage of said second phase of said power supply; a third input connected to a third voltage sensor that generates a third voltage signal corresponding to a voltage of said third phase of said power supply; a fourth input connected to a current sensor that generates a current signal corresponding to a current of said first phase of said power supply; a processor connected to said first, second, third, and fourth inputs that calculates a power factor of said compressor based on said voltage measurements from said first, second, third inputs and said current measurements from said fourth input; wherein said processor is disposed within an electrical enclosure of said compressor, said electrical enclosure being configured to house electrical terminals for connecting said power supply to said electric motor. a first input connected to a first voltage sensor that generates a first voltage signal corresponding to a voltage of said first phase of said power supply; a second input connected to a second voltage sensor that generates a second voltage signal corresponding to a voltage of said second phase of said power supply; a third input connected to a third voltage sensor that generates a third voltage signal corresponding to a voltage of said third phase of said power supply; a fourth input connected to a current sensor that generates a current signal corresponding to a current of said first phase of said power supply; a processor connected to said first, second, third, and fourth inputs that calculates a power factor of said compressor based on said voltage measurements from said first, second, third inputs and said current measurements from said fourth input;
A railway vehicle comprising at least two adjacent carriages, each comprising a carriage body, said bodies being supported by a common bogie and being articulated with each other by an articulation device attached to both bodies so as to form an articulation connection between both bodies, the articulation device being received in a space of the bogie, said space being delimited along a longitudinal direction by a first abutment surface and by a second abutment surface extending on either side of said space, characterized in that the articulation device extends facing said first and second abutment surfaces (32, 34) so that, when the railway vehicle moves in a first longitudinal direction, the first abutment surface comes into contact with the articulation device so that the displacement of the bogie causes displacement of the bodies in the first direction via the articulation device, and, when the railway vehicle moves in a second longitudinal direction opposite to the first direction, the second abutment surface comes into contact with the articulation device so that the displacement of the bogie causes displacement of the bodies in the second longitudinal direction via the articulation device, the bogie comprising four braking clamps, each braking clamp being positioned around a portion of one of the wheels of the bogie so as to allow braking of the bogie when said clamps are actuated, the clamps extending pair wise facing each other along the longitudinal direction so that each clamp extends between the wheels of one of the pairs of wheels, each clamp being positioned on the inner side of the wheel around which said clamp is positioned, each carriage comprises a lower flooring and an upper flooring, positioned above each other so as to define a low level and an upper level, the carriages being connected to each other through an interconnection passage, said passage substantially extending upright to the articulation device and comprising a low flooring connecting the lower floorings of both carriages and an upper flooring connecting the upper floorings of both carriages.
A method of increasing biomass accumulation in a plant relative to a wild-type plant, comprising the steps of: a) providing a nucleic acid construct operably linked to a promoter, wherein said nucleic acid construct encodes an antisense oligonucleotide of FVE, an siRNA of FVE, an shRNA of FVE, an miRNA of FVE, an artificial miRNA of FVE, or a dominant negative mutant of FVE; b) inserting said promoter-operably-linked nucleic acid construct into a vector; c) transforming a plant, a tissue culture, or a plant cell with said vector to obtain a transformed plant, a transformed tissue culture, or a transformed plant cell with decreased FVE expression or activity; and d) growing said transformed plant or regenerating a plant from said transformed tissue culture or transformed plant cell, wherein a plant having increased biomass accumulation relative to a wild-type plant is produced. a) providing a nucleic acid construct operably linked to a promoter, wherein said nucleic acid construct encodes an antisense oligonucleotide of FVE, an siRNA of FVE, an shRNA of FVE, an miRNA of FVE, an artificial miRNA of FVE, or a dominant negative mutant of FVE; b) inserting said promoter-operably-linked nucleic acid construct into a vector; c) transforming a plant, a tissue culture, or a plant cell with said vector to obtain a transformed plant, a transformed tissue culture, or a transformed plant cell with decreased FVE expression or activity; and d) growing said transformed plant or regenerating a plant from said transformed tissue culture or transformed plant cell, wherein a plant having increased biomass accumulation relative to a wild-type plant is produced.
A compound of Formula I: or a pharmaceutically acceptable salt thereof wherein, R 1 is selected from the group consisting of of: R 11 is H, halogen, alkyl or alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 12 is halogen, alkyl, alkynyl, alkylthio, cycloalkyl, cyano or nitro, all alkyl and cycloalkyl groups optionally being substituted with one or more halogen; R 13 is H, halogen, alkyl, alkoxy, deuterium or C 2 H 3 (trideuteriomethyl) all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 14 is H, halogen, alkyl or alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 2 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, R 3 is selected from the group consisting of: a) aryl, b) heteroaryl, c) cycloalkyl, d) heterocycloalkyl, e) alkyl, wherein all groups optionally can be substituted, R 4 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, R 5 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, A is selected from CH(R a) or C, R a is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted with fluorine or hydroxyl. R 1 is selected from the group consisting of of: R 11 is H, halogen, alkyl or alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 12 is halogen, alkyl, alkynyl, alkylthio, cycloalkyl, cyano or nitro, all alkyl and cycloalkyl groups optionally being substituted with one or more halogen; R 13 is H, halogen, alkyl, alkoxy, deuterium or C 2 H 3 (trideuteriomethyl) all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 14 is H, halogen, alkyl or alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 2 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, a) hydrogen, b) alkyl, R 3 is selected from the group consisting of: a) aryl, b) heteroaryl, c) cycloalkyl, d) heterocycloalkyl, e) alkyl, wherein all groups optionally can be substituted, a) aryl, b) heteroaryl, c) cycloalkyl, d) heterocycloalkyl, e) alkyl, R 4 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, a) hydrogen, b) alkyl, R 5 is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted, a) hydrogen, b) alkyl, A is selected from CH(R a) or C, R a is selected from the group consisting of: a) hydrogen, b) alkyl, wherein alkyl optionally can be substituted with fluorine or hydroxyl. a) hydrogen, b) alkyl,
A gastric residual volume system comprising: a feeding container (146, 246, 346) connected to administration tubing (142, 242, 342); relief tubing (145, 245, 345); a delivery tube (144, 244, 344) in fluid communication with the administration tubing (142, 242, 342) and the relief tubing (145, 245, 345); a multi-way connector (120, 220, 320) having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); a collection reservoir (112, 212, 312) in fluid communication with the relief tubing (145, 245, 345), wherein the collection reservoir (112, 212, 312) includes a vent (114, 814) configured to allow gas to pass through in both directions, the collection reservoir (112, 212, 312) is configured to collect reflux fluids from a patient's stomach via the relief tubing (145, 245, 345), and the collection reservoir (112, 212, 312) comprises volumetric indicia (610, 620, 630) configured to represent a volume of reflux fluids received from the patient's stomach; characterized in that the system further comprises a gastric residual volume measurement apparatus (400, 500) interconnected to the relief tubing (145, 245, 345) between the collection reservoir (112, 212, 312) and the multi-way connector (120, 220, 320). a feeding container (146, 246, 346) connected to administration tubing (142, 242, 342); relief tubing (145, 245, 345); a delivery tube (144, 244, 344) in fluid communication with the administration tubing (142, 242, 342) and the relief tubing (145, 245, 345); a multi-way connector (120, 220, 320) having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); a collection reservoir (112, 212, 312) in fluid communication with the relief tubing (145, 245, 345), wherein the collection reservoir (112, 212, 312) includes a vent (114, 814) configured to allow gas to pass through in both directions, the collection reservoir (112, 212, 312) is configured to collect reflux fluids from a patient's stomach via the relief tubing (145, 245, 345), and the collection reservoir (112, 212, 312) comprises volumetric indicia (610, 620, 630) configured to represent a volume of reflux fluids received from the patient's stomach; characterized in that the system further comprises a gastric residual volume measurement apparatus (400, 500) interconnected to the relief tubing (145, 245, 345) between the collection reservoir (112, 212, 312) and the multi-way connector (120, 220, 320).