mhurhangee/ep-ind-claims huggingface dataset:
A liquid ejecting apparatus, comprising: a support stand configured to support a medium; the medium supported by the support stand; a liquid ejecting unit having a liquid ejecting surface that includes an opening region, the opening region having a nozzle opening configured to eject a first liquid onto the medium on the support stand; and a fluid ejecting device having an ejection port configured to eject a fluid including a second liquid to the liquid ejecting unit, the fluid ejecting device performing a first fluid ejection step of ejecting the fluid from the ejection port toward the liquid ejecting unit as a first maintenance operation of the liquid ejecting unit, wherein a direction in which the first liquid is ejected from the liquid ejecting unit is defined as an ejection direction, a distance between the ejection port of the fluid ejecting device and the liquid ejecting unit in the ejection direction during the first fluid ejection step is longer than a distance between the liquid ejecting surface of the liquid ejecting unit and the medium on the support stand in the ejection direction during the ejection of the first liquid onto the medium, and characterized in that the fluid ejecting device has a cover member disposed so as to face the ejection port, and the fluid ejecting device is configured to perform a second fluid ejection step of ejecting a fluid from the ejection port toward the cover member as a second maintenance operation of the fluid ejecting device. a support stand configured to support a medium; the medium supported by the support stand; a liquid ejecting unit having a liquid ejecting surface that includes an opening region, the opening region having a nozzle opening configured to eject a first liquid onto the medium on the support stand; and a fluid ejecting device having an ejection port configured to eject a fluid including a second liquid to the liquid ejecting unit, the fluid ejecting device performing a first fluid ejection step of ejecting the fluid from the ejection port toward the liquid ejecting unit as a first maintenance operation of the liquid ejecting unit, wherein a direction in which the first liquid is ejected from the liquid ejecting unit is defined as an ejection direction, a distance between the ejection port of the fluid ejecting device and the liquid ejecting unit in the ejection direction during the first fluid ejection step is longer than a distance between the liquid ejecting surface of the liquid ejecting unit and the medium on the support stand in the ejection direction during the ejection of the first liquid onto the medium, and characterized in that the fluid ejecting device has a cover member disposed so as to face the ejection port, and the fluid ejecting device is configured to perform a second fluid ejection step of ejecting a fluid from the ejection port toward the cover member as a second maintenance operation of the fluid ejecting device.
A telescoping push-pull prop for the construction industry, with an outer pipe and with at least one threaded rod or inner pipe arranged therein so as to be axially displaceable that engages with an external thread in an internal thread of the outer pipe, wherein the internal thread of the outer pipe is arranged so as to be spaced apart axially from a free end of the outer pipe that is associated with the inner pipe, and wherein the internal thread of the outer pipe is produced by an at least partial circumferential reduction of the outer pipe via a mandrel that is positioned in the outer pipe, with the mandrel having an external thread, characterized in that the outer pipe has at its free end an edge portion with a passage cross section that is reduced in relation to a nominal diameter of the outer pipe over the entire circumference and at a distance from the outside diameter of the threaded rod or inner pipe, that the reduced passage cross section of the edge portion is reduced concentrically in relation to the nominal diameter of the outer pipe, and that the edge portion has a bent-in edge.
A method of making an alloy strip comprising: forming a powder charge comprising nickel and chromium; roll compacting the powder charge to form a green strip; sintering the green strip to form a sintered strip; and cold rolling and annealing the sintered strip to form the alloy strip, wherein the alloy strip consists of 33 to 50 wt. % of chromium, optionally up to 3 wt. % of either Mn or Si, with the balance being nickel and incidental trace alloying elements, and wherein the alloy strip has a tensile elongation of at least 30%. forming a powder charge comprising nickel and chromium; roll compacting the powder charge to form a green strip; sintering the green strip to form a sintered strip; and cold rolling and annealing the sintered strip to form the alloy strip, wherein the alloy strip consists of 33 to 50 wt. % of chromium, optionally up to 3 wt. % of either Mn or Si, with the balance being nickel and incidental trace alloying elements, and wherein the alloy strip has a tensile elongation of at least 30%.
An electric heating catalyst comprising: a catalyst carrier which has a cylindrical shape and generates heat by supply of electric current, thereby heating a catalyst; a pair of electrodes by which electric power is supplied to said catalyst carrier and which include surface electrodes extending in axial and circumferential directions of said catalyst carrier along an outer circumferential surface of said catalyst carrier, said surface electrodes being arranged to be opposed to each other on said catalyst carrier located therebetween, wherein the width along the circumferential direction of said catalyst carrier of at least one of said surface electrodes varies along the axial direction of said catalyst carrier, in a region of said surface electrode in which the width of one surface electrode is large, current flowing between said surface electrodes flows mainly on the surface of the catalyst carrier, and in a region of said surface electrode in which the width of said surface electrode is small, current flowing between said surface electrodes flows mainly in an inner portion of the catalyst carrier. a catalyst carrier which has a cylindrical shape and generates heat by supply of electric current, thereby heating a catalyst; a pair of electrodes by which electric power is supplied to said catalyst carrier and which include surface electrodes extending in axial and circumferential directions of said catalyst carrier along an outer circumferential surface of said catalyst carrier, said surface electrodes being arranged to be opposed to each other on said catalyst carrier located therebetween, wherein the width along the circumferential direction of said catalyst carrier of at least one of said surface electrodes varies along the axial direction of said catalyst carrier, in a region of said surface electrode in which the width of one surface electrode is large, current flowing between said surface electrodes flows mainly on the surface of the catalyst carrier, and in a region of said surface electrode in which the width of said surface electrode is small, current flowing between said surface electrodes flows mainly in an inner portion of the catalyst carrier.
A method comprising: receiving, by a client device, an application display of an application executing at a remote computing device; receiving, by the client device, an instruction from the remote computing device requesting activation of a native graphical user input element native to the client device; determining, by the client device, that the native graphical user input element will obscure one or more portions of the application display when the native graphical user input element is activated; based on determining that the native graphical user input element will obscure the one or more portions of the application display, determining, by the client device, to perform a zoom out; activating, by the client device, the native graphical user input element; receiving, by the client device, from the remote computing device, one or more control values for a control element on the remote computing device; modifying, by the client device, the native graphical user input element to include the one or more control values received from the remote computing device; and modifying, by the client device, the application display by performing the zoom out such that the native graphical user input element is not obscuring the one or more portions of the application display. receiving, by a client device, an application display of an application executing at a remote computing device; receiving, by the client device, an instruction from the remote computing device requesting activation of a native graphical user input element native to the client device; determining, by the client device, that the native graphical user input element will obscure one or more portions of the application display when the native graphical user input element is activated; based on determining that the native graphical user input element will obscure the one or more portions of the application display, determining, by the client device, to perform a zoom out; activating, by the client device, the native graphical user input element; receiving, by the client device, from the remote computing device, one or more control values for a control element on the remote computing device; modifying, by the client device, the native graphical user input element to include the one or more control values received from the remote computing device; and modifying, by the client device, the application display by performing the zoom out such that the native graphical user input element is not obscuring the one or more portions of the application display.
A hydrogenated diene polymer composition comprising: a first hydrogenated diene polymer having a weight average molecular weight (Mw) of 100,000 to 1,700,000, a molecular weight distribution (Mw/Mn) of 1.0 to 3.0, and a hydrogenation degree of 72 to 96%, the first hydrogenated diene polymer being obtained by hydrogenating a first diene polymer which has a vinyl bond content of 20 to 70% and being a modified polymer having an amino group and an alkoxysilyl group, and a first filler, wherein the hydrogenated diene polymer composition contains the first filler in an amount of 5 to 100 parts by mass per 100 parts by mass of the first hydrogenated diene polymer. a first hydrogenated diene polymer having a weight average molecular weight (Mw) of 100,000 to 1,700,000, a molecular weight distribution (Mw/Mn) of 1.0 to 3.0, and a hydrogenation degree of 72 to 96%, the first hydrogenated diene polymer being obtained by hydrogenating a first diene polymer which has a vinyl bond content of 20 to 70% and being a modified polymer having an amino group and an alkoxysilyl group, and a first filler,
A method, comprising: receiving, via a processor, a unit configuration for a fluid mixing and dispensing system, wherein the fluid mixing and dispensing system comprises one or more fluid hardware components, wherein the one or more fluid hardware components are configured to provide a sprayed paint; determining one or more software modules corresponding to the one or more fluid hardware components, wherein the one or more software modules comprise a proportional-integral-derivative controller (80, 82) and a motor controller (88, 90); and configuring a modular plural component platform by loading the one or more software modules corresponding to the one or more fluid hardware components, wherein the modular plural component platform comprises channels that detect and identify the one or more coupled fluid hardware component and that reconfigure automatically to connect to and provide communication to the one or more fluid hardware components based on connection to the one or more fluid hardware components, wherein the one or more software modules further comprise a flow meter module (84, 86), a user interface module (92, 94), or a combination thereof. receiving, via a processor, a unit configuration for a fluid mixing and dispensing system, wherein the fluid mixing and dispensing system comprises one or more fluid hardware components, wherein the one or more fluid hardware components are configured to provide a sprayed paint; determining one or more software modules corresponding to the one or more fluid hardware components, wherein the one or more software modules comprise a proportional-integral-derivative controller (80, 82) and a motor controller (88, 90); and configuring a modular plural component platform by loading the one or more software modules corresponding to the one or more fluid hardware components, wherein the modular plural component platform comprises channels that detect and identify the one or more coupled fluid hardware component and that reconfigure automatically to connect to and provide communication to the one or more fluid hardware components based on connection to the one or more fluid hardware components, wherein the one or more software modules further comprise a flow meter module (84, 86), a user interface module (92, 94), or a combination thereof.
A method of communication, comprising the steps of: receiving a first IP packet including a first source IP address and a first destination IP address from a network which is in compliance with IP version 4; converting the first source IP address and the first destination IP address of the first IP packet under IP version 4 into a second source IP address and a second destination IP address of a second IP packet under IP version 6 by combining an identifier identifying the network which is in compliance with IP version 4 with the first source IP address and with the first destination IP address; and transmitting the second IP packet to the Internet in compliance with IP version 6, wherein the second source IP address under IP version 6 includes the first source IP address under IP version 4, and the second destination IP address under IP version 6 includes the first destination IP address under IP version 4. receiving a first IP packet including a first source IP address and a first destination IP address from a network which is in compliance with IP version 4; converting the first source IP address and the first destination IP address of the first IP packet under IP version 4 into a second source IP address and a second destination IP address of a second IP packet under IP version 6 by combining an identifier identifying the network which is in compliance with IP version 4 with the first source IP address and with the first destination IP address; and transmitting the second IP packet to the Internet in compliance with IP version 6, wherein the second source IP address under IP version 6 includes the first source IP address under IP version 4, and the second destination IP address under IP version 6 includes the first destination IP address under IP version 4.
A method for drying bulk materials, particularly for drying pourable wood in the form of wood shavings or wood chips or for drying fermentation and clarification residues, wherein the bulk material is successively conveyed through at least one pre-drying chamber and at least one post-drying chamber and at least one ventilation device is assigned to the chambers (1, 2), wherein an air stream for drying bulk material in the at least one post-drying chamber comprises circulating air, which is circulated through a heating register, and a partial air stream is branched off said circulating air and conveyed through a heat exchanger, and wherein an air stream for drying bulk material in the at least one pre-drying chamber consists of fresh air, which is drawn in through this heat exchanger and optionally heated further by means of a heating register, characterized in that the branched-off partial air stream is once again entirely returned into the circulating air stream of the at least one post-drying chamber after it has passed through the heat exchanger and the water content of this partial air stream has been reduced due to condensation in the heat exchanger.
A bone plate comprising: - a bottom configured to contact a bone; - a top configured to face away from the bone; - a side configured to join the bottom and the top; - a ridge (103, 103A, 103B, 103C) connected to the bottom and configured to be inserted into the bone, wherein the ridge (103, 103A, 103B, 103C) includes one or more walls that are tapered to form a substantially sharp edge along a perimeter of the ridge; and - a hole configured to receive a bone screw for attaching the bone plate to the bone, characterised in that said ridge is formed along a perimeter of said bone plate and in that said ridge runs along the entire perimeter of said bone plate. - a bottom configured to contact a bone; - a top configured to face away from the bone; - a side configured to join the bottom and the top; - a ridge (103, 103A, 103B, 103C) connected to the bottom and configured to be inserted into the bone, wherein the ridge (103, 103A, 103B, 103C) includes one or more walls that are tapered to form a substantially sharp edge along a perimeter of the ridge; and - a hole configured to receive a bone screw for attaching the bone plate to the bone, characterised in that said ridge is formed along a perimeter of said bone plate and in that said ridge runs along the entire perimeter of said bone plate.
A method for controlling a switched mode power supply, the switched mode power supply comprising an optocoupler configured to enable servo information to be transmitted to a Pulse Width Modulation control circuit and to provide galvanic isolation between primary and secondary parts of the switched mode power supply, the Pulse Width Modulation control circuit being configured to be controlled by a feedback loop comprising the optocoupler, for servo control of a voltage delivered by the switched mode power supply, the optocoupler comprising a light-emitting diode; characterized in that the method comprises: measuring a load current and comparing the measured load current with a predetermined load current threshold value; if the measured load current is less than the predetermined load current threshold value: saturating the light emitting diode of the optocoupler, thereby disabling the servo information to be transmitted to the Pulse Width Modulation control circuit and thereby disabling the switching operation of the switched mode power supply; and subsequently, when energy stored in a capacitor connected to an output of the switched mode power supply is insufficient to keep the light-emitting diode of the optocoupler saturated, re-enabling the switching operation of the switched mode power supply by re-enabling the servo information to be transmitted to the Pulse Width Modulation control circuit. measuring a load current and comparing the measured load current with a predetermined load current threshold value; if the measured load current is less than the predetermined load current threshold value: saturating the light emitting diode of the optocoupler, thereby disabling the servo information to be transmitted to the Pulse Width Modulation control circuit and thereby disabling the switching operation of the switched mode power supply; and subsequently, when energy stored in a capacitor connected to an output of the switched mode power supply is insufficient to keep the light-emitting diode of the optocoupler saturated, re-enabling the switching operation of the switched mode power supply by re-enabling the servo information to be transmitted to the Pulse Width Modulation control circuit. saturating the light emitting diode of the optocoupler, thereby disabling the servo information to be transmitted to the Pulse Width Modulation control circuit and thereby disabling the switching operation of the switched mode power supply; and subsequently, when energy stored in a capacitor connected to an output of the switched mode power supply is insufficient to keep the light-emitting diode of the optocoupler saturated, re-enabling the switching operation of the switched mode power supply by re-enabling the servo information to be transmitted to the Pulse Width Modulation control circuit.
A SPAD device, comprising: a single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8) having a breakdown voltage and a dark count rate, a further single-photon avalanche diode having a further breakdown voltage and a further dark count rate, the dark count rate being at least a factor 100 higher than the further dark count rate at least at one temperature below 25°C, the further single-photon avalanche diode being integrated with the single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8), the breakdown voltage being equal to the further breakdown voltage or differing from the further breakdown voltage by less than 10%, the single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8) being provided for adjusting or controlling an excess bias voltage, and the further single-photon avalanche diode being provided for a detection of radiation. a single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8) having a breakdown voltage and a dark count rate, a further single-photon avalanche diode having a further breakdown voltage and a further dark count rate, the dark count rate being at least a factor 100 higher than the further dark count rate at least at one temperature below 25°C, the further single-photon avalanche diode being integrated with the single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8), the breakdown voltage being equal to the further breakdown voltage or differing from the further breakdown voltage by less than 10%, the single-photon avalanche diode (AD1, AD2, AD3, AD4, AD5, AD6, AD7, AD8) being provided for adjusting or controlling an excess bias voltage, and the further single-photon avalanche diode being provided for a detection of radiation.
A medical system comprising: a probe adapted to be inserted into a body of a subject, the probe comprising a first probe-electrode (80, 82, 84) and a second probe-electrode (80, 82, 84); a plurality of body-surface electrodes (110, 112, 114), which are adapted to be fixed to a surface of the body at respective locations; first circuitry, coupled to at least the first probe-electrode and configured to measure currents passing between the first probe-electrode and the body-surface electrodes, the first circuitry having a first electrical ground; a positioning processor configured to determine position coordinates of the probe responsively to the measured currents; and second circuitry, coupled to at least the second probe-electrode and configured to perform one or more diagnostic or therapeutic functions, the second circuitry having a second electrical ground, which is isolated from the first electrical ground. a probe adapted to be inserted into a body of a subject, the probe comprising a first probe-electrode (80, 82, 84) and a second probe-electrode (80, 82, 84); a plurality of body-surface electrodes (110, 112, 114), which are adapted to be fixed to a surface of the body at respective locations; first circuitry, coupled to at least the first probe-electrode and configured to measure currents passing between the first probe-electrode and the body-surface electrodes, the first circuitry having a first electrical ground; a positioning processor configured to determine position coordinates of the probe responsively to the measured currents; and second circuitry, coupled to at least the second probe-electrode and configured to perform one or more diagnostic or therapeutic functions, the second circuitry having a second electrical ground, which is isolated from the first electrical ground.