mhurhangee/ep-ind-claims huggingface dataset:
Method for sizing an endoscopic image to fit a display comprising: providing an endoscope, the endoscope associated with an imager; capturing an image with the imager; providing a display, the display being in communication with the imager; conveying (502, 702) the image from the imager to the display; sizing (503, 703) the image, characterized by the sizing being done via software executing on the display and by the step of sizing (503, 703) including the steps of: determining pixels of the display that do not have the image, determining a demarcation point between the image and the pixels that do not have the image, and adjusting an optical and/or digital zoom to optimize the image, either vertically, horizontally or corner-to-corner, in the display to fit the dimensions of the display based upon adjustment of the demarcation point either at the vertical, horizontal, or corner-to-corner edge of the display to fit the dimensions of the display. providing an endoscope, the endoscope associated with an imager; capturing an image with the imager; providing a display, the display being in communication with the imager; conveying (502, 702) the image from the imager to the display; sizing (503, 703) the image, characterized by the sizing being done via software executing on the display and by the step of sizing (503, 703) including the steps of: determining pixels of the display that do not have the image, determining a demarcation point between the image and the pixels that do not have the image, and adjusting an optical and/or digital zoom to optimize the image, either vertically, horizontally or corner-to-corner, in the display to fit the dimensions of the display based upon adjustment of the demarcation point either at the vertical, horizontal, or corner-to-corner edge of the display to fit the dimensions of the display. determining pixels of the display that do not have the image, determining a demarcation point between the image and the pixels that do not have the image, and adjusting an optical and/or digital zoom to optimize the image, either vertically, horizontally or corner-to-corner, in the display to fit the dimensions of the display based upon adjustment of the demarcation point either at the vertical, horizontal, or corner-to-corner edge of the display to fit the dimensions of the display.
Method for determining an earth-faulted line section in a three-phase electrical energy supply network with an insulated or a resonant-earthed star point, in which - a zero phase-sequence system voltage and a zero phase-sequence system current are recorded at both ends of the line section at a respective measuring point (12a, 12b) using electrical protective devices (13a, 13b); and - an item of direction information is obtained from the zero phase-sequence system voltage and the zero phase-sequence system current, which item of direction information indicates whether there is an earth fault in the forward direction or reverse direction with respect to the respective measuring point (12a, 12b); characterized in that - a complex zero phase-sequence system apparent power is determined from the zero phase-sequence system voltage and the zero phase-sequence system current using the protective devices (13a, 13b) at both ends of the line section; - the item of direction information is derived from the sign of a portion of the complex zero phase-sequence system apparent power; - the items of direction information from both ends are compared with one another; and - an earth fault on the line section is detected if both items of direction information indicate a forward direction, and an earth fault outside the line section is detected if at least one item of direction information indicates a reverse direction. - a zero phase-sequence system voltage and a zero phase-sequence system current are recorded at both ends of the line section at a respective measuring point (12a, 12b) using electrical protective devices (13a, 13b); and - an item of direction information is obtained from the zero phase-sequence system voltage and the zero phase-sequence system current, which item of direction information indicates whether there is an earth fault in the forward direction or reverse direction with respect to the respective measuring point (12a, 12b); characterized in that - a complex zero phase-sequence system apparent power is determined from the zero phase-sequence system voltage and the zero phase-sequence system current using the protective devices (13a, 13b) at both ends of the line section; - the item of direction information is derived from the sign of a portion of the complex zero phase-sequence system apparent power; - the items of direction information from both ends are compared with one another; and - an earth fault on the line section is detected if both items of direction information indicate a forward direction, and an earth fault outside the line section is detected if at least one item of direction information indicates a reverse direction.
Door or window frame assembly comprising a frame which has a corner region between a base part and a lateral frame part, in which corner region a rabbet sealing part is arranged, the frame part having surfaces extending, at least in portions, in parallel with a longitudinal extension of the frame part, specifically a first inner surface which faces a frame opening of the frame, and a second inner surface which is oriented at an angle to the first inner surface, characterized in that the second inner surface adjoins a boundary surface which is spaced apart from a base surface of the base part, the boundary surface and the base surface delimiting a free space, a portion of the rabbet sealing part being arranged in the free space or at least in a portion of the free space.
A method for securing an induction charging system of a motor vehicle with a rechargeable battery, including a detection step of the presence or absence of a body in a security observation field associated with the induction coils (30, 11), a step of interruption of the induction for recharging as a rection to such a detection of presence, an emission step (E7, F2) of ultrasound waves, close to the induction coils (30, 11), to disturb and drive away one or more living beings as a reaction to such a detection of presence, and a step of relaunch of the induction for recharge as a reaction to a detection of absence, characterized in that, from one emission step to another, separated by a relaunch step (E7, F2), ultrasound waves of different frequencies are emitted for disturbing and driving away living beings with different auditory spectra.
A laser treatment apparatus comprising; a primary handset and an auxiliary attachment (16a, 16b), the primary handset being connectable to the auxiliary attachment (16a, 16b), the primary handset having a laser source having a primary heat exchanger, and a main cooling circuit to provide cooling fluid to the primary heat exchanger to cool the laser source, the cooling circuit having an auxiliary circuit connection for engagement with the auxiliary attachment; wherein the auxiliary circuit connection comprises a fluid connection for connection to an auxiliary cooling circuit within the auxiliary attachment (16a, 16b); wherein the cooling circuit within the auxiliary attachment (16a, 16b) includes a secondary heat exchanger; characterized by a main loop valve operable to permit cooling fluid to flow in the main cooling circuit within the primary handset when no auxiliary attachment (16a, 16b) is connected and to divert flow of cooling fluid to the heat exchanger in the auxiliary attachment (16a, 16b) when the auxiliary attachment (16a, 16b) is connected to the primary handset.
A device for detecting a gas, comprising a tube having an open end and a closed end, wherein the tube and the closed end are closed with respect to a fluid, and the open end is open to allow the fluid to move into and out of the tube, wherein the tube is configured to allow a condensed portion of the fluid to be removed from the tube by gravitation; a heat sink configured to extract heat from the tube at the closed end of the tube to keep the closed end of the tube at a constant target temperature; and at least one thermometer (7, 8, 10) configured to measure a temperature at a specific portion of the device or the fluid inside the tube; and a control unit configured to determine information about a composition of the fluid inside the tube, in particular about a presence of any non-condensable gas in the fluid, based on a temperature obtained from the thermometer (7, 8, 10) while the closed end of the tube is kept at the constant target temperature or based on a cooling power of the heat sink determined while the closed end of the tube is kept at the constant target temperature.
A signal distribution device comprising: a distributing unit operable to output a video signal to a part of or all of a plurality of output destination devices which are output destinations of a plurality of video signals; a memory for storing information; a plurality of reading channels for reading the information out of the plurality of output destination devices; a reading unit operable to read, out of one of the plurality of output destination devices, the information indicating a physical address of said signal distribution device and a status of the output destination device through said reading channel, wherein the status of the output destination device is information held in an EDID memory of the output destination device; a storing unit operable to store the information read by said reading unit into said memory; a read-out unit operable to read out the information stored in said memory; a read-out channel for outputting, to an input source device which is an input source of video signal, a physical address of the input source device and the status of the output destination device; an address setup unit operable to set up the physical address of the input source device based on the physical address of said signal distribution device; and an outputting unit operable to output, for the input source device, the status of the output destination device and the physical address which is set up by said address setup device, through said read-out channel. a distributing unit operable to output a video signal to a part of or all of a plurality of output destination devices which are output destinations of a plurality of video signals; a memory for storing information; a plurality of reading channels for reading the information out of the plurality of output destination devices; a reading unit operable to read, out of one of the plurality of output destination devices, the information indicating a physical address of said signal distribution device and a status of the output destination device through said reading channel, wherein the status of the output destination device is information held in an EDID memory of the output destination device; a storing unit operable to store the information read by said reading unit into said memory; a read-out unit operable to read out the information stored in said memory; a read-out channel for outputting, to an input source device which is an input source of video signal, a physical address of the input source device and the status of the output destination device; an address setup unit operable to set up the physical address of the input source device based on the physical address of said signal distribution device; and an outputting unit operable to output, for the input source device, the status of the output destination device and the physical address which is set up by said address setup device, through said read-out channel.
Torque tool with a display system, which is provided to measure and/or apply a torque, comprising a) a housing with a handle on one end, whereby a measurement gauge (40, 58) is arranged in the housing to detect the torque, b) a connecting member on the other end of the housing, which transfers the torque to a workpiece, c) a processor-controlled control unit (42, 50) to digitally process the data settings and/or measured data d) a display, which cooperates with the control unit (42, 50) and graphically displays content and/or data such as the current torque applied and/or the torque setting, whereby e) a transmission device (28, 34) and a separate display device are provided to transmit and display the graphic content and/or the data, characterized in that f) the display device is designed as a head-up display, which is formed by a projection screen on which the display is projected by means of a projector, wherein g) the projection screen is provided on a glasses-like holder, which projects the display by means of the projector directly in front of one eye of a user, and h) a camera is provided on the torque tool and/or the glasses-like holder, which detects the workpiece and for which the torque tool is designed so that via image recognition the correct torque is queried from a database to automatically set the torque tool. a) a housing with a handle on one end, whereby a measurement gauge (40, 58) is arranged in the housing to detect the torque, b) a connecting member on the other end of the housing, which transfers the torque to a workpiece, c) a processor-controlled control unit (42, 50) to digitally process the data settings and/or measured data d) a display, which cooperates with the control unit (42, 50) and graphically displays content and/or data such as the current torque applied and/or the torque setting, whereby e) a transmission device (28, 34) and a separate display device are provided to transmit and display the graphic content and/or the data, characterized in that f) the display device is designed as a head-up display, which is formed by a projection screen on which the display is projected by means of a projector, wherein g) the projection screen is provided on a glasses-like holder, which projects the display by means of the projector directly in front of one eye of a user, and h) a camera is provided on the torque tool and/or the glasses-like holder, which detects the workpiece and for which the torque tool is designed so that via image recognition the correct torque is queried from a database to automatically set the torque tool.
An organic electroluminescent device, comprising one or more light-emitting layers between an anode and a cathode opposite to each other, wherein at least one of the light-emitting layers contains a.thermally activated delayed fluorescent material represented by the following general formula: where D 1 and D 2 each independently represent a nitrogen-containing heterocycle represented by the formula, a ring Y in the formula is represented by any one of the formulae (1a-1), (1a-2), and (1a-3), and the ring Y in the formula of at least one of D 1 or D 2 is represented by the formula (1a-2) or (1a-3), and when the ring Y is represented by the formula (1a-2), the ring Y is fused at a position d, and when the ring Y is represented by the formula (1a-3), the ring Y is fused at a position g, h, or i, X 1 and X 2 each independently represent O, S, or N-R 6, R 1 to R 6 each independently represent an aliphatic hydrocarbon group having 1 to 8 carbon atoms, an aromatic hydrocarbon group having 6 to 10 carbon atoms, or an aromatic heterocyclic group having 3 to 12 carbon atoms, A represents a cyano group, a nitro group, a trifluoromethyl group, chlorine, or fluorine, a, b, c, and e each independently represent an integer of from 0 to 4, and f represents an integer of from 0 to 2.
A carrier device for being disposed in a land-, water- or air-bound vehicle, comprising a base carrier for being attached to a vehicle part, a multifunction receiver and a supporting device for a functional element, wherein at least two supporting arms (32A, 32B, 32C) are provided, each support arm (32A, 32B, 32C) being pivotably attached to a slider (30A, 30B, 30C), which is guided in a respective guide track (28A, 28B, 28C) of the base carrier, characterized in that the at least two supporting arms (32A, 32B, 32C) are each connected to the multifunction receiver via a ball joint at their respective ends facing away from the base support, and that the supporting device for the functional element is attachable to the multifunction receiver so as to be removable without tools and comprises a coupling element comprising a coupling disk which engages in a receiving pocket of the multifunction receiver.
A method for generating a 3D model of structural components of a bearing structure of an escalator or a moving walkway, wherein the escalator or the moving walkway comprises a conveying means with a number of tread units moveable along a revolving travel path, wherein the method comprises the method steps of: fixing an image recording device on the conveying means; removing at least one of the tread units in order to enable visual access underneath the tread units to structural components which shall be measured; prior to recording image recordings, immovably affixing at least one reference mark on the escalator or on the moving walkway in at least one place within the travel path and which reference mark is clearly identifiable for the image recording device; moving the conveying means together with the image recording device fixed to it over at least partial areas of the travel path in a revolving manner; recording image recordings of the structural components to be measured using the image recording device at a number of positions along the travel path; and effecting the generation of the 3D model at least of partial areas of the structural components of the bearing structure based on the recorded image recordings and with the aid of at least one reference mark recorded together with the images. fixing an image recording device on the conveying means; removing at least one of the tread units in order to enable visual access underneath the tread units to structural components which shall be measured; prior to recording image recordings, immovably affixing at least one reference mark on the escalator or on the moving walkway in at least one place within the travel path and which reference mark is clearly identifiable for the image recording device; moving the conveying means together with the image recording device fixed to it over at least partial areas of the travel path in a revolving manner; recording image recordings of the structural components to be measured using the image recording device at a number of positions along the travel path; and effecting the generation of the 3D model at least of partial areas of the structural components of the bearing structure based on the recorded image recordings and with the aid of at least one reference mark recorded together with the images.
An image forming apparatus, comprising: an image forming section configured to form an image on an image receiving medium with a specific material which emits visible light through irradiation by specific light, wherein the specific material is visually not recognizable through irradiation with visible light; and a specific light source configured to emit the specific light to the image receiving medium at a downstream side of the image forming section in a conveyance direction of the image receiving medium. an image forming section configured to form an image on an image receiving medium with a specific material which emits visible light through irradiation by specific light, wherein the specific material is visually not recognizable through irradiation with visible light; and a specific light source configured to emit the specific light to the image receiving medium at a downstream side of the image forming section in a conveyance direction of the image receiving medium.
Apparatus for deionizing water, comprising a cell having two electrodes (111, 112) for capacitively deionizing the water, and having an activating apparatus, it being possible for excited ions to be introduced into the water by means of the activating apparatus, the activating apparatus including a plasma generator, the plasma generator being disposed in a side channel upstream of the cell.
A group of rail vehicles (SV1; SV2), which is composed as follows: EW K 1 − MW K 2 − MW K 1 n − EW K 2 EW being an end car, MW being a central car, K1 denoting a first configuration comprising electrical components (SA, ES, STR, M) for driving and/or supplying energy, and K2 denoting a second configuration comprising electrical components (SA, AUX/Batt, STR, M) for driving and/or supplying energy, n being an integer ≥ 1, so that the group of rail vehicles comprises n units [- (MW K2) - (MW K1)], each sign "-" denoting a transition (Ü) between the cars, so that it is possible to continuously walk the group of rail vehicles, the group of rail vehicles being divided into the following car pairs: EW K 1 − MW K 2, MW K 1 − EW K 2 and, when n > 1, MW K 1 − MW K 2, characterized in that on the car pairs, the cars of a car pair are in each case electrically coupled for transmitting high voltage, and an electrical coupling for transmitting high voltage is only present between the cars of a car pair, and and the group of rail vehicles comprises side-running current collectors.
Method for increasing the stability of a vehicle when accelerating on an underlying surface with a non-homogenous coefficient of friction, wherein a braking force is applied to a drive wheel on a low-coefficient-of-friction-value side by a traction controller, wherein a variable ( p TC), which corresponds to the braking force ( F B,TC) set by the traction controller, is determined, characterized in that the determined variable ( p TC) is used to determine an interference yaw moment ( M Z), and in that an open-loop control component (Δδ Z) of an additional steering angle (Δδ) is determined as a function of the interference yaw moment ( M Z), wherein the determined variable is a brake pressure ( p TC) which is set on the low-coefficient-of-friction-value side by the traction controller in the wheel brake of the drive wheel and wherein the open-loop control component of the additional steering angle (Δδ) is calculated on the basis of a control rule with the form Δ ⁢ δ Z = K M v ⋅ M ^ Z wherein Δδ Z denotes the open-loop control component for the additional steering angle (Δδ), K M denotes a boosting factor, ν denotes the reference speed of the vehicle and M̂ Z denotes an estimated value for the interference yaw moment ( M Z).