mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing the effect of electromagnetic noise on images displayed by a television, the television having a display, an input (107, 108) for receiving television signals of broadcast TV channels, and a configurable filter for filtering electromagnetic noise from received television signals, the method comprising: (i) receiving, from a camera directed towards the display, image data representing at least a portion of an image being displayed by the television in accordance with a received television signal; (ii) analysing the received image data to identify a presence, in the at least a portion of an image being displayed, of one or more of a predetermined set of image artefacts known to result from the presence of electromagnetic noise related to one or more broadcast TV channels in the received television signal; (iii) determining filter characteristics for the configurable filter to filter from a received television signal electromagnetic noise corresponding to an image artefact identified at (ii); and (iv) sending signals to the configurable filter to implement the filter characteristics determined at (iii), thereby to reduce the presence of the identified image artefact related to the one or more broadcast TV channels. (i) receiving, from a camera directed towards the display, image data representing at least a portion of an image being displayed by the television in accordance with a received television signal; (ii) analysing the received image data to identify a presence, in the at least a portion of an image being displayed, of one or more of a predetermined set of image artefacts known to result from the presence of electromagnetic noise related to one or more broadcast TV channels in the received television signal; (iii) determining filter characteristics for the configurable filter to filter from a received television signal electromagnetic noise corresponding to an image artefact identified at (ii); and (iv) sending signals to the configurable filter to implement the filter characteristics determined at (iii), thereby to reduce the presence of the identified image artefact related to the one or more broadcast TV channels.
A wireless sensor reader comprising: a circuit configured to define a set of all possible values of a wireless sensor's frequency output; a transmit circuit configured to generate an excitation pulse to cause said wireless sensor to emit a signal having a frequency that is proportionate to at least one sensed parameter; at least one antenna configured to transmit said excitation pulse and receive said emitted signal; a first circuit configured to generate a count signal; and a second circuit configured to adjust the frequency of said count signal to match the frequency of said emitted signal; wherein said reader is configured to hold said count signal temporarily constant to ascertain said frequency of said count signal; wherein said circuit for identifying said set of possible frequency values comprises a second sensor that measures a parameter related to the parameter being measured by said wireless sensor; and wherein said second sensor is an ambient pressure sensor. a circuit configured to define a set of all possible values of a wireless sensor's frequency output; a transmit circuit configured to generate an excitation pulse to cause said wireless sensor to emit a signal having a frequency that is proportionate to at least one sensed parameter; at least one antenna configured to transmit said excitation pulse and receive said emitted signal; a first circuit configured to generate a count signal; and a second circuit configured to adjust the frequency of said count signal to match the frequency of said emitted signal;
Method for unpacking a stack of substantially flat objects packaged in an envelope of foldable packaging material, which envelope is closed at a first outer end by an edge of the packaging material which is folded back over the envelope and attached thereto at an end zone, comprising of opening the envelope at the first outer end and displacing the stack of objects in the direction of the first, opened outer end in a relative movement in relation to the envelope, wherein opening of the envelope comprises of cutting through the folded-back edge along a cutting line extending between the end zone of the edge and the first outer end of the envelope while preserving intact the flexible material extending between the end zone and the stack.
An instrument [100; 400] for driving a bone anchor assembly into bone, comprising: an elongate shaft [102; 402] having a distal tip configured to couple to a bone anchor assembly; a handle assembly [120, 122; 420, 422] coupled to the elongate shaft [102; 402], the handle assembly [120, 122; 420, 422] including a first handle and a second handle rotatably coupled to one another; a stylet [104; 404] extending through an inner lumen of the first handle and the elongate shaft [102; 402]; and a carrier [130; 430] moveably coupled to the handle assembly, wherein rotation of the first handle while the second handle is held stationary causes the carrier [130; 430] to non-rotatably translate axially relative to the elongate shaft [102; 402] to cause the stylet [104; 404] to axially translate relative to the elongate shaft[102; 402], and wherein rotation of the second handle causes the carrier [130; 430] to rotatably translate and causes rotation of the elongate shaft [102; 402] to advance the bone anchor along the stylet [104; 404]. an elongate shaft [102; 402] having a distal tip configured to couple to a bone anchor assembly; a handle assembly [120, 122; 420, 422] coupled to the elongate shaft [102; 402], the handle assembly [120, 122; 420, 422] including a first handle and a second handle rotatably coupled to one another; a stylet [104; 404] extending through an inner lumen of the first handle and the elongate shaft [102; 402]; and a carrier [130; 430] moveably coupled to the handle assembly, wherein rotation of the first handle while the second handle is held stationary causes the carrier [130; 430] to non-rotatably translate axially relative to the elongate shaft [102; 402] to cause the stylet [104; 404] to axially translate relative to the elongate shaft[102; 402], and wherein rotation of the second handle causes the carrier [130; 430] to rotatably translate and causes rotation of the elongate shaft [102; 402] to advance the bone anchor along the stylet [104; 404].
A semiconductor assembly (200; 222; 240; 508; 542, 562; 582; 602) comprising: a first power terminal (206; 212); a second power terminal (208; 214); a state change trigger terminal (216; 246); and a semiconductor device (202; 244) comprising a first terminal and a second terminal; wherein: the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244). a first power terminal (206; 212); a second power terminal (208; 214); a state change trigger terminal (216; 246); and a semiconductor device (202; 244) comprising a first terminal and a second terminal; wherein: the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244). the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244).
Feather washing machine characterised in that it comprises a washing cylinder mounted rotatably on a horizontal axis and divided into a plurality of successive treatment chambers (C 1 -C 6) by means of transferring feathers from one chamber to another, each treatment chamber (C 1 -C 6) comprising a space for receiving a predetermined volume of feathers to be treated and four zones for treating the said feathers to be treated, i.e.: - a first zone intended for agitating the said feathers to be treated with a first washing liquid, - a second zone intended for draining the said agitated feathers, - a third zone intended for wetting the said drained feathers with a second washing liquid, - a fourth zone intended for transferring the said wet feathers to the next chamber. - a first zone intended for agitating the said feathers to be treated with a first washing liquid, - a second zone intended for draining the said agitated feathers, - a third zone intended for wetting the said drained feathers with a second washing liquid, - a fourth zone intended for transferring the said wet feathers to the next chamber.
A substantially halo-free heat transfer label, comprising: a graphic layer printed on a carrier layer forming a graphic area; and an adhesive layer printed over the graphic layer forming an adhesive area; wherein the adhesive area substantially matches and overlaps the graphic area, and peripheral edges of the adhesive area extend beyond peripheral edges of the graphic area forming an adhesive border, characterized in that the adhesive layer is 3D printed by fused deposition modeling or stereolithography printing techniques using 100% solids adhesives without the need of a solvent printing an adhesive layer having a thickness of 16-100 μm in a single pass providing an adhesive border having an average width of 0,05 - 0,1 mm to provide a substantially halo-free heat transfer label. a graphic layer printed on a carrier layer forming a graphic area; and an adhesive layer printed over the graphic layer forming an adhesive area; wherein the adhesive area substantially matches and overlaps the graphic area, and peripheral edges of the adhesive area extend beyond peripheral edges of the graphic area forming an adhesive border, characterized in that the adhesive layer is 3D printed by fused deposition modeling or stereolithography printing techniques using 100% solids adhesives without the need of a solvent printing an adhesive layer having a thickness of 16-100 μm in a single pass providing an adhesive border having an average width of 0,05 - 0,1 mm to provide a substantially halo-free heat transfer label.
A fitting arrangement of a window, of a door or the like which comprises a frame and a leaf movable with respect to the frame, wherein the fitting arrangement comprises a first fitting part configured for fastening to the frame and a second fitting part configured for fastening to the leaf, wherein one of the fitting parts comprises a latch element and the other fitting part comprises a holding element for the latch element that is adjustable between a release position releasing the latch element and a blocking position blocking the latch element; wherein, when the fitting arrangement is assembled, on a closing movement of the leaf, the holding element is automatically adjusted from the release position into the blocked position and the latch element is blocked; wherein a latching toothed arrangement and a pawl are provided at the fitting part comprising the holding element and cooperate to prevent an adjustment of the holding element in the direction of the release position and to enable an adjustment of the holding element in the direction of the blocking position; wherein the holding element and the pawl are supported at a common base part of the associated fitting part; and wherein the base part has a guide receiver for the latch element, with the opening of said guide receiver coinciding with the opening of a receiver of the holding element when the holding element is in the release position, characterized in that the holding element is claw-shaped and has exactly one receiver for the latching element, with the locking element being a mushroom-shaped pin projecting from the associated fitting part.
A tag peptide comprising an amino acid sequence represented by the following formula: X 1 -Tyr-X 2 -Gly-Gln-X 3 wherein X 1, X 2 and X 3 are the same or different and each represent any amino acid residue, and wherein the tag peptide comprises an amino acid sequence having 3 to 5 repeats of Tyr-Pro-Gly-Gln (SEQ ID NO: 18). wherein X 1, X 2 and X 3 are the same or different and each represent any amino acid residue, and wherein the tag peptide comprises an amino acid sequence having 3 to 5 repeats of Tyr-Pro-Gly-Gln (SEQ ID NO: 18).
Method for predicting a range of a vehicle comprising an at least partially electric drive, in which it is detected when a first operating mode of the vehicle is ended at a time (t 1), wherein the vehicle switches into a second operating mode when the first operating mode ends, the range of the vehicle is determined when the first operating mode ends, characterized in that the vehicle is in a driving mode when in the first operating mode and is in a resting mode when in the second operating mode, starting at the time (t 1) at which the driving mode ends, the temporal development of a parameter from the surroundings of the vehicle is determined for a certain duration (t), wherein the vehicle is in the resting mode for at least a portion of the certain duration (t), the temporal development of the range is predicted for the certain duration (t) as a function of the range when the driving mode ends and as a function of the temporal development of the parameter, and the temporal development of the range is output.
A system for treating an ischemic event, comprising: a first reperfusion device for restoring perfusion to an occluded vessel having a clot; a second reperfusion device for restoring perfusion to the occluded vessel having the clot; a delivery system for delivering at least one of the first and second reperfusion devices to the clot in the occluded vessel, the delivery system including at least one of a catheter and a guidewire; and a clot analysis system analyzing the clot of the occluded vessel and determining an individualized treatment protocol using at least one of the first and the second reperfusion devices; wherein the first reperfusion device is a stent retriever and the second reperfusion device is a pinch retriever; and wherein the clot analysis system comprises one of: (a) the catheter of the delivery system, the catheter including a lumen having a proximal end and a distal end; and a spectroscopic mechanism for analyzing clot composition at a site of the clot in the vasculature; and (b) the guidewire of the delivery system, the guidewire including one or more sensors configured for sensing properties of the clot in vivo and treating the clot based on the sensed properties. a first reperfusion device for restoring perfusion to an occluded vessel having a clot; a second reperfusion device for restoring perfusion to the occluded vessel having the clot; a delivery system for delivering at least one of the first and second reperfusion devices to the clot in the occluded vessel, the delivery system including at least one of a catheter and a guidewire; and a clot analysis system analyzing the clot of the occluded vessel and determining an individualized treatment protocol using at least one of the first and the second reperfusion devices; wherein the first reperfusion device is a stent retriever and the second reperfusion device is a pinch retriever; and wherein the clot analysis system comprises one of: (a) the catheter of the delivery system, the catheter including a lumen having a proximal end and a distal end; and a spectroscopic mechanism for analyzing clot composition at a site of the clot in the vasculature; and (b) the guidewire of the delivery system, the guidewire including one or more sensors configured for sensing properties of the clot in vivo and treating the clot based on the sensed properties. (a) the catheter of the delivery system, the catheter including a lumen having a proximal end and a distal end; and a spectroscopic mechanism for analyzing clot composition at a site of the clot in the vasculature; and (b) the guidewire of the delivery system, the guidewire including one or more sensors configured for sensing properties of the clot in vivo and treating the clot based on the sensed properties.
An ultrasonic diagnostic apparatus including an ultrasonic probe having an insert section which is to be inserted into a body cavity organ of a subject and a handle section which couples with the insert section, and an ultrasonic diagnostic apparatus main body having a predetermined number (n) of ultrasonic wave transmission and reception channels for transmitting and receiving ultrasonic wave signals to the ultrasonic probe and an ultrasonic wave image computing circuit for computing ultrasonic images based on the ultrasonic wave transmission and reception signals from the predetermined number (n) of ultrasonic wave transmission and reception channels, wherein a plurality (m) of vibrator elements are disposed at the tip of the insert section, in the handle section a connection changeover switch is disposed which successively changes over electrical connection of an array of a predetermined number (a) of continuing vibrator elements among the plurality (m) of vibrator elements to be connected with the predetermined number (n) of ultrasonic wave transmission and reception channels, and the ultrasonic wave image computing circuit includes an ultrasonic tomogram computing circuit and an ultrasonic blood flow image computing circuit, characterised in that the plurality (m) of vibrator elements are disposed around an entire 360 degree outer circumference of the ultrasonic probe, and the connection changeover switch is adapted to successively connect the predetermined number (n) of ultrasonic wave transmission and reception channels with the predetermined number (a) of vibrator elements so that each one of the predetermined number (n) of ultrasonic wave transmission and reception channels is connected at any time to two of the predetermined number (a) of vibrator elements.
A method, comprising: receiving, from a configuration application, by an industrial control device, and storing a baseline configuration signature for a first industrial modular device; after initialization of the first industrial modular device, receiving, over a first data communications network, by the industrial control device a current configuration signature from the first industrial modular device, wherein the baseline and current configuration signatures are generated from data values of configuration parameters in the baseline and current configurations, respectively, the configuration parameters including at least configuration parameters for a communication protocol for an implicit communication of data between the first industrial modular device and the computing device; comparing, by the industrial control device, the current configuration signature with the baseline configuration signature; and after determining the current configuration signature and the baseline configuration signature do not match, which results when the communication protocol for an implicit communication of data between the first industrial modular device and the computing device is no longer being followed, generating, by the industrial control device, a notification indicating that data subsequently received from the first industrial modular device is of uncertain integrity. receiving, from a configuration application, by an industrial control device, and storing a baseline configuration signature for a first industrial modular device; after initialization of the first industrial modular device, receiving, over a first data communications network, by the industrial control device a current configuration signature from the first industrial modular device, wherein the baseline and current configuration signatures are generated from data values of configuration parameters in the baseline and current configurations, respectively, the configuration parameters including at least configuration parameters for a communication protocol for an implicit communication of data between the first industrial modular device and the computing device; comparing, by the industrial control device, the current configuration signature with the baseline configuration signature; and after determining the current configuration signature and the baseline configuration signature do not match, which results when the communication protocol for an implicit communication of data between the first industrial modular device and the computing device is no longer being followed, generating, by the industrial control device, a notification indicating that data subsequently received from the first industrial modular device is of uncertain integrity.
A heat exchanger comprising: a first plurality of fluid passages having an inlet manifold communicating into a core portion, and then into an outlet manifold; and a second plurality of fluid passages having an inlet manifold communicating into a core portion, and then into an outlet manifold, characterized in that said first plurality of fluid passages and second plurality of fluid passages each have cross-sectional areas which are smaller in said core portion than adjacent said inlet and outlet manifolds (132, 136, 138, 134). a first plurality of fluid passages having an inlet manifold communicating into a core portion, and then into an outlet manifold; and a second plurality of fluid passages having an inlet manifold communicating into a core portion, and then into an outlet manifold, characterized in that said first plurality of fluid passages and second plurality of fluid passages each have cross-sectional areas which are smaller in said core portion than adjacent said inlet and outlet manifolds (132, 136, 138, 134).
A method for deoxidizing an Al-Nb-Ti alloy, comprising melting and holding an Al-Nb-Ti alloy containing from 50 to 75 mass% of Al, from 5 to 30 mass% of Nb, and 80 mass% or less in total of Al and Nb by a melting method using a water-cooled copper vessel in an atmosphere of 1.33 Pa to 2.67×10 5 Pa at a temperature of 1,900 K or more, thereby decreasing an oxygen content thereof to 0.1 mass% or less, the Al-Nb-Ti alloy being prepared using an alloy material composed of an aluminum material, a niobium material and a titanium material and containing oxygen in a total amount of 0.5 mass% or more.