mhurhangee/ep-ind-claims huggingface dataset:
An aircraft cabin comprising a line (8; 8'), a cabin floor (10; 10') and a unit (1; 1'; 1"), wherein a floor grid (12; 12') comprising a connector is located below the cabin floor (10; 10'), wherein the unit (1; 1'; 1") has at least one line connector as well as at least one receiving area (2; 2', 2") for at least one trolley (3; 3', 3"), which can be moved over the cabin floor (10; 10') on laterally attached castor pairs (4, 6, 5; 4'; 5'; 4"; 5"), and which can be inserted from the front of the receiving area (2; 2', 2") into said receiving area and locked therein, so that its rear panel faces the back of the receiving area, with the at least one line connector being connected to the connector in the area of the floor grid of the passenger cabin, wherein the line (8; 8') extending between the connector and the line connector emerges at least partially out of the cabin floor in the receiving area (2; 2', 2") of the trolley (3; 3', 3") and, in the case of a locked trolley, laterally offset to the castor pairs (4, 6 and 5; 4'; 5'; 4", 5") thereof and runs upwards between the rear panel of the trolley and the back of the receiving area, characterized in that the line (8; 8') extends towards the back of the receiving area while projecting at least partially above the cabin floor and that this line section running in the area of the cabin floor (10; 10') is covered by a cover (11; 11') arranged to interact with the castors of the castor pairs of a trolley to guide said trolley.
A computer implemented method for generating a visualization of a stained wood substrate, including: - receiving an image of the wood substrate to be stained; - dividing the range of colors that is present in the image into a plurality of color bands; - subdividing the image into a plurality of sub-images, each sub-image corresponding to the portion of the image having a color falling in a respective one of the color bands; - for each sub-image, retrieving a reflectance curve representative for the wood substrate for the color corresponding to the sub-image; - retrieving absorption and scattering values for the stain; - for each sub-image, determining the reflectance curve representative for the stained wood based on the absorption and scattering values for the stain and the reflectance curve for the wood substrate for that sub-image; and - for each pixel of each sub-image determining a color based on the reflectance curve representative for the stained wood, resulting in a generated image representative of the wood substrate after applying the stain. - receiving an image of the wood substrate to be stained; - dividing the range of colors that is present in the image into a plurality of color bands; - subdividing the image into a plurality of sub-images, each sub-image corresponding to the portion of the image having a color falling in a respective one of the color bands; - for each sub-image, retrieving a reflectance curve representative for the wood substrate for the color corresponding to the sub-image; - retrieving absorption and scattering values for the stain; - for each sub-image, determining the reflectance curve representative for the stained wood based on the absorption and scattering values for the stain and the reflectance curve for the wood substrate for that sub-image; and - for each pixel of each sub-image determining a color based on the reflectance curve representative for the stained wood, resulting in a generated image representative of the wood substrate after applying the stain.
A Compton camera comprising: a scattering detection unit including a scatterer to cause incident radiation to undergo Compton scattering and detecting Compton scattering of the radiation at the scatterer; an absorption detection unit including an absorber to absorb radiation incident after undergoing Compton scattering at the scatterer and detecting absorption of the radiation at the absorber; a signal processing unit obtaining an image of a radiation source based on coincident detection events of Compton scattering of radiation at the scattering detection unit and absorption of radiation at the absorption detection unit; and characterized in that it further comprises: a first shield unit being a plate-shaped member, provided between the scattering detection unit and the absorption detection unit and configured, among forward-scattered radiation being radiation that has undergone Compton scattering in a forward direction at the scatterer, and back-scattered radiation being radiation that has passed through the scatterer without being scattered or absorbed and has thereafter undergone Compton scattering in a backward direction at the absorber, to selectively allow the forward-scattered radiation to pass and to selectively block the back-scattered radiation. a scattering detection unit including a scatterer to cause incident radiation to undergo Compton scattering and detecting Compton scattering of the radiation at the scatterer; an absorption detection unit including an absorber to absorb radiation incident after undergoing Compton scattering at the scatterer and detecting absorption of the radiation at the absorber; a signal processing unit obtaining an image of a radiation source based on coincident detection events of Compton scattering of radiation at the scattering detection unit and absorption of radiation at the absorption detection unit; and characterized in that it further comprises: a first shield unit being a plate-shaped member, provided between the scattering detection unit and the absorption detection unit and configured, among forward-scattered radiation being radiation that has undergone Compton scattering in a forward direction at the scatterer, and back-scattered radiation being radiation that has passed through the scatterer without being scattered or absorbed and has thereafter undergone Compton scattering in a backward direction at the absorber, to selectively allow the forward-scattered radiation to pass and to selectively block the back-scattered radiation.
Flexible antenna arrangement, consisting of a multicore antenna conductor on a flexible, electrically non-conductive carrier, wherein the carrier consists of a film, a foil or a sheet-like textile structure, and the antenna conductor consists of a plurality of conductor tracks (14, 16, 18, 20, 30, 34, 36, 38, 40, 42, 44, 46, 48, 50) which run parallel to one another and are electrically insulated from one another, wherein the conductor tracks (14, 16, 18, 20, 30, 34, 36, 38, 40, 42, 44, 46, 48, 50) which run parallel to one another are arranged next to one another and one above the other and an electrically non-conductive insulating layer is respectively arranged between the conductor tracks which are arranged next to one another and one above the other, wherein the conductor tracks (14, 16, 18, 20, 30, 34, 36, 38, 40, 42, 44, 46, 48, 50) have at least one interruption and, when there are a plurality of interruptions in a plurality of conductor tracks, at least one interruption is at a point at which a parallel conductor track is continuous, and the flexible antenna arrangement has a neutral fibre which is not subject to compression or expansion when the carrier is bent with the antenna conductor, characterized in that the neutral fibre runs through the centre of the conductor tracks and insulating layers.
A sports shoe comprising: - a rigid shell comprising an notch in its anterior part extending substantially from the instep to the lower leg, defined by two substantially vertical rims, medial lateral respectively, extending substantially from a lower part at the instep and an upper part at the lower leg, and - a comfort innerboot whereof the shell comprises a notch closed by a tongue rotatable around an axis positioned toward the front of the innerboot, and extending from the axis to at least the lower leg zone, and comprising at least one protection element, connected on the one hand on the medial edge of the tongue and on the other hand on the medial edge of the innerboot, extending primarily vertically in a zone at the lower leg, leaving free spaces between the tongue and the rest of the innerboot toward the front of the innerboot, the comfort innerboot being positioned inside the rigid shell, such that the tongue is positioned opposite the notch of the rigid shell, this tongue being able to be separated from the notch of the innerboot so as to enlarge the notch of the rigid shell, the protection element occupying, in a position for putting on and removing the shoe, a position across from the medial rim of the rigid shell so as to prevent the medial rim of the rigid shell from creating pain on the foot, in particular during a phase for putting on and removing the sports shoe. - a rigid shell comprising an notch in its anterior part extending substantially from the instep to the lower leg, defined by two substantially vertical rims, medial lateral respectively, extending substantially from a lower part at the instep and an upper part at the lower leg, and - a comfort innerboot whereof the shell comprises a notch closed by a tongue rotatable around an axis positioned toward the front of the innerboot, and extending from the axis to at least the lower leg zone, and comprising at least one protection element, connected on the one hand on the medial edge of the tongue and on the other hand on the medial edge of the innerboot, extending primarily vertically in a zone at the lower leg, leaving free spaces between the tongue and the rest of the innerboot toward the front of the innerboot,
An actuator for a control valve, the actuator comprising: an actuator body including an actuator casing defining a cavity; an actuator rod adapted to be coupled to a control element of a control valve; a biasing device disposed in the cavity of the actuator casing and operably coupled to the actuator rod for biasing the actuator rod into a predetermined position; a controller carried by the actuator body and including a memory, a processor, and logic stored on the memory; at least one sensor operably coupled to the controller for measuring parameters of the actuator and transmitting the measured parameters to the controller, the at least one sensor comprising (a) a vibration sensor carried by the actuator rod for detecting vibrations in the actuator rod, and/or (b) a vibration sensor carried by the actuator body for sensing vibrations in the actuator body. an actuator body including an actuator casing defining a cavity; an actuator rod adapted to be coupled to a control element of a control valve; a biasing device disposed in the cavity of the actuator casing and operably coupled to the actuator rod for biasing the actuator rod into a predetermined position; a controller carried by the actuator body and including a memory, a processor, and logic stored on the memory; at least one sensor operably coupled to the controller for measuring parameters of the actuator and transmitting the measured parameters to the controller, the at least one sensor comprising (a) a vibration sensor carried by the actuator rod for detecting vibrations in the actuator rod, and/or (b) a vibration sensor carried by the actuator body for sensing vibrations in the actuator body.
A method of manufacturing a plurality of devices with six-sided protected walls, the method comprising the following sequence of ordered steps: (a) Fabricating the plurality of devices on a wafer; (b) forming a plurality of contact pads on each of the plurality of devices; (c) cutting a first trench around each of the plurality of devices from a backside of the wafer with an active side having a plurality of contact pads facing down; (d) applying a protective coating on the backside of the wafer thus filling the first trench with a protective material, being an electrical insulator, of the protective coating on the backside; (e) cutting a second trench from the active side, wherein the second trench extends to end of the first trench; (f) applying a protective layer on the active side of the devices and including filling the second trench with the material of the protective coating on the active side thus making a wall through a combination of the first trench and the second trench, the wall fully filled with the material of the protective layer on the backside and the protective layer on the active side; (g) grinding the protective layer on the active side to expose the plurality of contact pads; and (h) singulating each of the plurality of devices by cutting through the wall substantially in middle across a thickness of the wafer. (a) Fabricating the plurality of devices on a wafer; (b) forming a plurality of contact pads on each of the plurality of devices; (c) cutting a first trench around each of the plurality of devices from a backside of the wafer with an active side having a plurality of contact pads facing down; (d) applying a protective coating on the backside of the wafer thus filling the first trench with a protective material, being an electrical insulator, of the protective coating on the backside; (e) cutting a second trench from the active side, wherein the second trench extends to end of the first trench; (f) applying a protective layer on the active side of the devices and including filling the second trench with the material of the protective coating on the active side thus making a wall through a combination of the first trench and the second trench, the wall fully filled with the material of the protective layer on the backside and the protective layer on the active side; (g) grinding the protective layer on the active side to expose the plurality of contact pads; and (h) singulating each of the plurality of devices by cutting through the wall substantially in middle across a thickness of the wafer.
A method for controlling a computer program that is executed at a computer, comprising: receiving input data from a first input device and a second input device at a base station that is interfaced with the computer, the first and second input devices being movable independently of one another to interactively interface with the computer program; tracking a position of the first and second input devices through the base station; identifying a near-identical change in position of the tracked position of the first and second input devices as a movement of the base station rather than a movement of the input devices; and setting a flag upon identifying the near-identical change in position, the flag being processed by the computer program to set an action to take during interactivity with the computer program, wherein the computer program is a computer game and wherein the action to take during interactivity with the computer program is preconfigured based on aspects of the computer program, and the action to take is one of subtracting out the near-identical change in position, applying a correction to both the first and second input devices, pausing the computer game, rewinding the computer game, restarting the computer game, or signaling movement of the base station. receiving input data from a first input device and a second input device at a base station that is interfaced with the computer, the first and second input devices being movable independently of one another to interactively interface with the computer program; tracking a position of the first and second input devices through the base station; identifying a near-identical change in position of the tracked position of the first and second input devices as a movement of the base station rather than a movement of the input devices; and setting a flag upon identifying the near-identical change in position, the flag being processed by the computer program to set an action to take during interactivity with the computer program, wherein the computer program is a computer game and wherein the action to take during interactivity with the computer program is preconfigured based on aspects of the computer program, and the action to take is one of subtracting out the near-identical change in position, applying a correction to both the first and second input devices, pausing the computer game, rewinding the computer game, restarting the computer game, or signaling movement of the base station.
A device (100, 200, 300) for use in facilitating alignment of an acetabular component relative to the pelvis of a subject, the device having a device body and at least a first locator (112, 212, 312) for placement on a first predetermined mounting location on the acetabular rim of a subject, a second locator (122, 222, 322) for placement on a second predetermined mounting location on the acetabular rim and a third locator (123, 223, 323) for placement on a third predetermined mounting location on the acetabular rim, the device defining an orientation and/or position with respect to said subject when installed for facilitating alignment of an acetabular component, characterised in that the device further comprises an alignment reference element (140, 240, 340) for aligning with a predetermined natural landmark of the subject in use, the natural landmark being identifiable by the user, the first, second and third locators being situated relative to the alignment reference element (140, 240, 340) such that upon alignment of the alignment reference element with the natural landmark, the locators locate to their respective mounting locations, wherein the natural landmark is a predetermined landmark which is other than on the acetabular rim.
A conductive film comprising a conductive region and a nonconductive region, wherein the conductive region includes first conductive nanowires, the first nanowires constituting a conductive network structure embedded in a matrix, the matrix comprising at least one of a polyurethane-based resin, a polyester-based resin, an acrylic resin, a polyether-based resin, a cellulose-based resin, a polyvinyl alcohol-based resin, an epoxy-based resin, polyvinyl pyrrolidone, a polystyrene-based resin, and polyethylene glycol, wherein the nonconductive region includes second nanowires that are sectioned and embedded in the matrix; the second nanowires comprising a plurality of conductive nanowire sections and wherein the nonconductive region further comprises insulating portions between the conductive nanowire sections of the second nanowires, wherein the first nanowires and second nanowires include at least one of a metal, and a metal alloy, wherein the conductive region and the non-conductive region are arranged on a base material, wherein the average diameter of the second nanowires is lower than the average diameter of the first nanowires, wherein the difference in the average diameters between the first nanowires and the second nanowires is 5% or less; and wherein the average length of the second nanowires is lower than the average length of the first nanowires, and the difference in the average lengths between the first nanowires and the second nanowires is 10% or less. wherein the conductive region includes first conductive nanowires, the first nanowires constituting a conductive network structure embedded in a matrix, the matrix comprising at least one of a polyurethane-based resin, a polyester-based resin, an acrylic resin, a polyether-based resin, a cellulose-based resin, a polyvinyl alcohol-based resin, an epoxy-based resin, polyvinyl pyrrolidone, a polystyrene-based resin, and polyethylene glycol, wherein the nonconductive region includes second nanowires that are sectioned and embedded in the matrix; the second nanowires comprising a plurality of conductive nanowire sections and wherein the nonconductive region further comprises insulating portions between the conductive nanowire sections of the second nanowires, wherein the first nanowires and second nanowires include at least one of a metal, and a metal alloy, wherein the conductive region and the non-conductive region are arranged on a base material, wherein the average diameter of the second nanowires is lower than the average diameter of the first nanowires, wherein the difference in the average diameters between the first nanowires and the second nanowires is 5% or less; and wherein the average length of the second nanowires is lower than the average length of the first nanowires, and the difference in the average lengths between the first nanowires and the second nanowires is 10% or less.
A device for the automatic rotational orientation of a tube head relative to a preferably stationary tube body, with sensor means for detecting a current rotated position of the tube head or tube body having a position indicator, and with positioning means (12, 20) cooperating with the sensor means, which positioning means are configured to bring about a rotary movement of the tube head or of the tube body as a reaction to a control signal of a control unit, characterized in that the sensor means are configured to generate a detection signal corresponding to a rotary movement of the tube head or tube body rotating over time as quantified individual measured values around the circumference of the tube and the control unit has means for correlating the detection signal along the course of time with a reference signal and for generating a control signal from a characteristic value corresponding to a degree of correlation, in particular a maximum correlation or minimum correlation, for the positioning means, and wherein the sensor means are configured for generating the reference signal by means of a reference body provided in a predetermined rotated position, in particular of a reference tube head, and the reference signal is present in electronically stored form as a predetermined signal sequence.