mhurhangee/ep-ind-claims huggingface dataset:
A recombinant nucleic acid molecule comprising a nucleotide sequence that encodes at least one substrate protein of a plant pathogen-specific protease expressed by the plant pathogen having a heterologous pathogen-specific protease recognition sequence, wherein the substrate protein is selected from the group consisting of Arabidopsis thaliana AvrPphB susceptible 1 and Resistance To Pseudomonas syringae pv. maculicola 1 Interacting Protein 4, and wherein (i) when the substrate protein is PBS1, the endogenous AvrPphB cleavage site of SEQ ID NO: 1 is replaced with a heterologous pathogen-specific protease recognition sequence selected from the group consisting of VPKFGDW (SEQ ID NO:2), QEHGCQL (SEQ ID NO:3), ENLYFQG (SEQ ID NO:4), EPVSTQG (SEQ ID NO:27) and PVVQAQS (SEQ ID NO:28), and (ii) when the substrate protein is RIN4, the endogenous AvrRpt2 cleavage site of SEQ ID NO: 2 is replaced with a heterologous pathogen-specific protease recognition sequence selected from the group consisting of GDKSHVS (SEQ ID NO: 1), QEHGCQL (SEQ ID NO:3), ENLYFQG (SEQ ID NO:4), EPVSTQG (SEQ ID NO:27) and PVVQAQS (SEQ ID NO:28). (i) when the substrate protein is PBS1, the endogenous AvrPphB cleavage site of SEQ ID NO: 1 is replaced with a heterologous pathogen-specific protease recognition sequence selected from the group consisting of VPKFGDW (SEQ ID NO:2), QEHGCQL (SEQ ID NO:3), ENLYFQG (SEQ ID NO:4), EPVSTQG (SEQ ID NO:27) and PVVQAQS (SEQ ID NO:28), and (ii) when the substrate protein is RIN4, the endogenous AvrRpt2 cleavage site of SEQ ID NO: 2 is replaced with a heterologous pathogen-specific protease recognition sequence selected from the group consisting of GDKSHVS (SEQ ID NO: 1), QEHGCQL (SEQ ID NO:3), ENLYFQG (SEQ ID NO:4), EPVSTQG (SEQ ID NO:27) and PVVQAQS (SEQ ID NO:28).
A peptide having the sequence X-Glu-Cys-Lys-Ile-Lys-Gln-Ile-Ile-Asn-Met-Trp-Gln, wherein X is one or two alkyl groups, such as methyl, ethyl, propyl or butyl groups, or an acyl group, such as an acetyl or propionyl group.
Packaging machine comprising a control unit, at least one measurement device as well as a plurality of work units for different processes, wherein the control unit is functionally connected to the work units as well as to the measurement device, wherein the measurement device is configured to detect actual process values at one of the respective work units and forward same to the control unit in order to monitor a process status at the work unit, wherein the control unit is designed to produce a program sequence in a self-controlled manner for each work unit and/or in a coordinated manner with respect to the work units by comparing the actual process values forwarded to the control unit from each measurement device with corresponding target process values from a storage unit connected to the control unit, and each work unit functions themselves on the basis of the program sequence and/or in a coordinated manner according to the program sequence, wherein one of the work units is designed as a sealing station characterizd in that the sealing station comprises at least one moisture sensor designed as the measurement device which is functionally connected to the control unit and is designed to detect moisture within the sealing station as a time-dependent measured variable during the program sequence of the sealing station, wherein the program sequence comprises an evacuation process, wherein the control unit is designed to calculate a rate of change in the moisture during the evacuation process of the sealing station, and wherein the control unit is designed to abort the evacuation process performed on the sealing station, based on the rate of change, before reaching a target vacuum pressure within the sealing station, immediately or after a specified delay time elapses, if the rate of change of the moisture is equal to or greater than a predetermined threshold value or if the difference of the rate of change minus the threshold value has changed from a negative value to a positive value and back again from a positive value to a negative value.
A method of manufacturing a coated substrate, comprising: combining a plurality of polymers to achieve a viscosity within a predetermined range to form a resin formulation; applying the resin formulation to a release film to form a resin film; combining a first component comprising metal-core insulated carrier particles and second component comprising coating particles wherein the coating particles are electrically attracted to the surface of the carrier particles; and applying a charge to the resin film wherein coating particles in close proximity thereto are attracted to a surface of the resin film thereby resulting in a coated resin film. combining a plurality of polymers to achieve a viscosity within a predetermined range to form a resin formulation; applying the resin formulation to a release film to form a resin film; combining a first component comprising metal-core insulated carrier particles and second component comprising coating particles wherein the coating particles are electrically attracted to the surface of the carrier particles; and applying a charge to the resin film wherein coating particles in close proximity thereto are attracted to a surface of the resin film thereby resulting in a coated resin film.
A method for executing or initiating the installation of an application in a security element (20; 20′′′) of a portable end device, comprising the steps of: - receiving (S3; T1) an installation job by an installation device (100; 100') for installing the application on a security element (20; 20′′′); - processing (S4; T2, T3, T4, T5) the installation job by the installation device (100; 100'); characterized in that the installation device (100; 100') receives the installation job from the security element (20; 20′′′) and interacts in dependence on required compiler and linker functionalities with a further installation device (100") in the step of processing (T2, T3, T4, T5) the installation job, by the installation device (100, 100') relaying the installation job in dependence on required compiler and linker functionalities to the further installation device (100") in the processing step (T2, T3, T3, T5), said further installation device producing a corresponding machine code relating to the application that is adapted to the security element (20; 20′′′) and installs it in the security element. - receiving (S3; T1) an installation job by an installation device (100; 100') for installing the application on a security element (20; 20′′′); - processing (S4; T2, T3, T4, T5) the installation job by the installation device (100; 100'); the installation device (100; 100') receives the installation job from the security element (20; 20′′′) and interacts in dependence on required compiler and linker functionalities with a further installation device (100") in the step of processing (T2, T3, T4, T5) the installation job, by the installation device (100, 100') relaying the installation job in dependence on required compiler and linker functionalities to the further installation device (100") in the processing step (T2, T3, T3, T5), said further installation device producing a corresponding machine code relating to the application that is adapted to the security element (20; 20′′′) and installs it in the security element.
An imager comprising: a lens defining a viewing angle; a lens holder operably coupled with the lens; a printed circuit board including an imager board that is fastened to the lens holder and a connector board; a wire harness, a flex connector operably coupled with the wire harness that extends in a direction generally orthogonal to a principal axis of the viewing angle of the lens, wherein the imager board and the connector board are coupled by the flex connector; a housing (24, 102) including a rear opening; and a wire harness cover operably coupled with the rear opening and directing the wire harness in a direction generally orthogonal to the viewing angle characterized in that the connector board is unfastened within the lens holder. a lens defining a viewing angle; a lens holder operably coupled with the lens; a printed circuit board including an imager board that is fastened to the lens holder and a connector board; a wire harness, a flex connector operably coupled with the wire harness that extends in a direction generally orthogonal to a principal axis of the viewing angle of the lens, wherein the imager board and the connector board are coupled by the flex connector; a housing (24, 102) including a rear opening; and a wire harness cover operably coupled with the rear opening and directing the wire harness in a direction generally orthogonal to the viewing angle characterized in that the connector board is unfastened within the lens holder.
A method of manufacturing a semiconductor device having a membrane layer comprising corrugations, the method comprising: forming a plurality of features in a substrate by oxidizing the substrate to form local oxide regions protruding above a top surface of the substrate; forming a membrane layer over the substrate and the local oxide regions; and removing a portion of the substrate including the local oxide regions under the membrane layer so that the corrugations in the membrane layer remain at positions where the local oxide regions were removed. forming a plurality of features in a substrate by oxidizing the substrate to form local oxide regions protruding above a top surface of the substrate; forming a membrane layer over the substrate and the local oxide regions; and removing a portion of the substrate including the local oxide regions under the membrane layer so that the corrugations in the membrane layer remain at positions where the local oxide regions were removed.
Method for mounting and dismounting a telematics unit (1; 201) on a vehicle body, - wherein the telematics unit (1; 201) comprises a telematics box (2; 202) and a holding frame (3; 203), - wherein the telematics box (2; 202) is inserted into an opening of the holding frame (3; 203) in a pre-mounting step, and is locked to the holding frame (3; 203), - wherein, for mounting from outside, the telematics unit (1; 201) formed from the holding frame (3; 203) and the telematics box (2; 202) is inserted into a cut-out of the vehicle body that is matched to the holding frame (3; 203), and is locked to the vehicle body, - wherein, for dismounting from an interior (106; 306) of the vehicle body, the telematics box (2; 202) is unlocked from the holding frame (3; 203) and is removed from the holding frame (3; 203) into the interior (106; 306). - wherein the telematics unit (1; 201) comprises a telematics box (2; 202) and a holding frame (3; 203), - wherein the telematics box (2; 202) is inserted into an opening of the holding frame (3; 203) in a pre-mounting step, and is locked to the holding frame (3; 203), - wherein, for mounting from outside, the telematics unit (1; 201) formed from the holding frame (3; 203) and the telematics box (2; 202) is inserted into a cut-out of the vehicle body that is matched to the holding frame (3; 203), and is locked to the vehicle body, - wherein, for dismounting from an interior (106; 306) of the vehicle body, the telematics box (2; 202) is unlocked from the holding frame (3; 203) and is removed from the holding frame (3; 203) into the interior (106; 306).
A method by which a subsea compressor, the rotor of which is supported by active magnetic bearings (20, 21, 22) for contact-free rotation, is arranged to be switched from normal operation into an anti-surge operational mode, the method comprising: arranging an anti-surge valve normally closed in a recycle line setting a compressor outlet in flow connection with a compressor inlet in an open state of the anti-surge valve, arranging an active magnetic bearing controller to maintain the position of the compressor rotor relative to non-rotating parts of the compressor, characterized by the active magnetic bearing controller: determining, using bearing control data, a value representing a force acting on the compressor rotor from the process load, comparing the force representing value to a threshold value indicative of a surge condition, and in response to the force representing value exceeding the threshold value: switching the anti-surge valve into the open state. arranging an anti-surge valve normally closed in a recycle line setting a compressor outlet in flow connection with a compressor inlet in an open state of the anti-surge valve, arranging an active magnetic bearing controller to maintain the position of the compressor rotor relative to non-rotating parts of the compressor, characterized by the active magnetic bearing controller: determining, using bearing control data, a value representing a force acting on the compressor rotor from the process load, comparing the force representing value to a threshold value indicative of a surge condition, and in response to the force representing value exceeding the threshold value: switching the anti-surge valve into the open state. determining, using bearing control data, a value representing a force acting on the compressor rotor from the process load, comparing the force representing value to a threshold value indicative of a surge condition, and in response to the force representing value exceeding the threshold value: switching the anti-surge valve into the open state.
Support mechanism for placement on a neurophysiological stimulation device, in particular on a moving plate, to transmit movements generated by the system, at least comprising a support side for supporting the support mechanism on the stimulation device, and a transmission side for transmitting and/or relaying the movements received by the support side, wherein the transmission side having at least one at least partly protruding stimulation element that is well-suited to transmit the movements and is thus well-suited for neurophysiological stimulation, and wherein the support mechanism is designed as a passive support mechanism configured in the form of a blanket, mat and/or plate, characterized in that the support mechanism comprises at least one hollow space, an oscillating mass being provided in at least one hollow chamber.
A camera, comprising: an imaging device board including a first terminal; a main board including a second terminal; and a flexible board including a first connection portion to be connected to the first terminal, a second connection portion to be connected to the second terminal, and a first bending portion and a second bending portion that are located between the first connection portion and the second connection portion and are bent along a first bending axis (Pa) and a second bending axis (Pb)intersecting with each other in an unfolded state of the flexible board, characterized in that the camera is a vehicle mounted camera, the imaging device board includes a crystal oscillator, and the flexible board in a state attached to the main board is not disposed near the crystal oscillator, so that the flexible board connects the main board and the imaging device board via a connection path that does not pass near the crystal oscillator to reduce the occurrence of crosstalk between a crystal resonator of the crystal oscillator and the signal flowing through the flexible board to prevent the occurrence of an abnormality in the image generated by the imaging device board. an imaging device board including a first terminal; a main board including a second terminal; and a flexible board including a first connection portion to be connected to the first terminal, a second connection portion to be connected to the second terminal, and a first bending portion and a second bending portion that are located between the first connection portion and the second connection portion and are bent along a first bending axis (Pa) and a second bending axis (Pb)intersecting with each other in an unfolded state of the flexible board, a first connection portion to be connected to the first terminal, a second connection portion to be connected to the second terminal, and a first bending portion and a second bending portion that are located between the first connection portion and the second connection portion and are bent along a first bending axis (Pa) and a second bending axis (Pb)intersecting with each other in an unfolded state of the flexible board, the camera is a vehicle mounted camera, the imaging device board includes a crystal oscillator, and the flexible board in a state attached to the main board is not disposed near the crystal oscillator, so that the flexible board connects the main board and the imaging device board via a connection path that does not pass near the crystal oscillator to reduce the occurrence of crosstalk between a crystal resonator of the crystal oscillator and the signal flowing through the flexible board to prevent the occurrence of an abnormality in the image generated by the imaging device board.
A coated substrate comprising at least the following: i) a first layer formed from a first composition that has a melting point, Tm1, and comprising at least one ethylene-based interpolymer; ii) a second layer formed from a second composition comprising the following: a) at least one propylene-based polymer, and b) at least one ethylene-based polymer; and iii) a woven web formed from at least one olefin-based polymer with a melting point of Tm2a and/or a nonwoven web formed from at least one olefin-based polymer with a melting point of Tm2b; and wherein Tm1 is less than, or equal to, "Tm2a -20°C", and/or less than, or equal to, "Tm2b -20°C"; wherein the second layer is located between the first layer and the web. i) a first layer formed from a first composition that has a melting point, Tm1, and comprising at least one ethylene-based interpolymer; ii) a second layer formed from a second composition comprising the following: a) at least one propylene-based polymer, and b) at least one ethylene-based polymer; and iii) a woven web formed from at least one olefin-based polymer with a melting point of Tm2a and/or a nonwoven web formed from at least one olefin-based polymer with a melting point of Tm2b; and
A centrifugal battery liquid injection mechanism, comprising a liquid injection device and a driving device, wherein, the liquid injection device is provided with a piston mechanism and a liquid outlet head capable of being opened and closed; and the liquid injection device is connected with a to-be-wetted device through the liquid outlet head, so as to inject the wetting liquid into the to-be-wetted device; the driving device is connected with the to-be-wetted device for driving the to-be-wetted device to move; and characterized in that, one end of the liquid injection device close to the liquid outlet head is further provided with a liquid injection port capable of being opened and closed; the liquid injection port is used for injecting a wetting liquid into the liquid injection device; one end of the liquid injection device far away from the liquid outlet head is provided with a mechanical valve; and the mechanical valve is connected with an external air pump, so as to drive the piston mechanism to slide in the liquid injection device based on air blowing and suction of the air pump. the liquid injection device is provided with a piston mechanism and a liquid outlet head capable of being opened and closed; and the liquid injection device is connected with a to-be-wetted device through the liquid outlet head, so as to inject the wetting liquid into the to-be-wetted device; the driving device is connected with the to-be-wetted device for driving the to-be-wetted device to move; and characterized in that, one end of the liquid injection device close to the liquid outlet head is further provided with a liquid injection port capable of being opened and closed; the liquid injection port is used for injecting a wetting liquid into the liquid injection device; one end of the liquid injection device far away from the liquid outlet head is provided with a mechanical valve; and the mechanical valve is connected with an external air pump, so as to drive the piston mechanism to slide in the liquid injection device based on air blowing and suction of the air pump.
An image forming apparatus for forming an image by arranging powders on a surface of a resin image composed of a recording medium and a resin layer arranged on the recording medium, the apparatus comprising: a powder supply device configured to supply the powders to a surface of the resin layer of the resin image in which the resin layer is adjusted to be in a softened state; characterized by a rubbing device configured to rub, from a side of the resin layer, the resin image to which the powders have been supplied, by moving a rubbing portion of the rubbing device relative to the resin image along the surface of the resin image with a relative speed of 5 to 500 mm/s. a powder supply device configured to supply the powders to a surface of the resin layer of the resin image in which the resin layer is adjusted to be in a softened state; characterized by a rubbing device configured to rub, from a side of the resin layer, the resin image to which the powders have been supplied, by moving a rubbing portion of the rubbing device relative to the resin image along the surface of the resin image with a relative speed of 5 to 500 mm/s.
An anaesthetic device comprising a manual ventilation bladder, a mechanical ventilator and a user interface for setting a working-mode, comprising mechanical ventilation via the mechanical ventilator and manual ventilation via the manual ventilation bladder, and setting parametric values for the set working-mode, characterised in that the anaesthetic device further comprises a remote control for the wireless transmission of commands to the user interface and in that the user interface is adapted to carry out the commands from the remote control only when the anaesthetic device is set for manual ventilation.
A structure for a pool, including a wall having an above-ground outer edge upper portion having to surround the pool and surmounted with a coping, and means for attaching a cover for the pool, characterized in that the means for attaching the cover include a cover winder, positioned on a free outer flank of the outer edge upper portion above the ground and further: - at least one first element allowing insertion of the cover in a deployed position between the coping and the outer edge upper portion, - at least one second element for blocking the cover between the coping and the outer edge upper portion, - at least one third element for locking the coping on the outer edge upper portion. - at least one first element allowing insertion of the cover in a deployed position between the coping and the outer edge upper portion, - at least one second element for blocking the cover between the coping and the outer edge upper portion, - at least one third element for locking the coping on the outer edge upper portion.