mhurhangee/ep-ind-claims huggingface dataset:
A small-scale base station comprising: an acquiring unit that acquires a first physical cell identity unique to an adjacent small-scale base station, a generating unit (131, 113) that sets a second physical cell identity unique to the small-scale base station to be different from the first physical cell identity, and based on the set second physical cell identity, generates subframes by providing a portion of the subframes as blank frames into which no information is inserted, such that positions where the blank frames are provided at the subframes form a pattern unique to the small-scale base station; and a control unit that uses the generated subframes and controls data communication with a terminal. an acquiring unit that acquires a first physical cell identity unique to an adjacent small-scale base station, a generating unit (131, 113) that sets a second physical cell identity unique to the small-scale base station to be different from the first physical cell identity, and based on the set second physical cell identity, generates subframes by providing a portion of the subframes as blank frames into which no information is inserted, such that positions where the blank frames are provided at the subframes form a pattern unique to the small-scale base station; and a control unit that uses the generated subframes and controls data communication with a terminal.
A dishwasher comprising: a tub for receiving objects to be washed; a spray arm (3, 5) for spraying water to the objects; a sump for storing water; a pump body comprising a first chamber and a second chamber partitioned by a partition; a communication hole provided in the partition for allowing the first chamber and the second chamber to communicate with each other therethrough; a pump channel for interconnecting the sump and the first chamber to guide the water stored in the sump to the first chamber; an arm channel for interconnecting an interior of the second chamber and the spray arm (3, 5); an impeller rotatably provided in the second chamber for supplying water to the arm channel; a heating unit for heating water stored in the first chamber; a steam channel for interconnecting the first chamber and the tub; and characterised in that the dishwasher further comprises a channel controller which includes a connection channel, the connection channel being configured to guide some of the water passing through at least the arm channel to the steam channel when the impeller is rotated such that the steam channel is closed by the water to prevent air from entering the first chamber through the steam channel, wherein the connection channel interconnects directly the arm channel and the steam channel. a tub for receiving objects to be washed; a spray arm (3, 5) for spraying water to the objects; a sump for storing water; a pump body comprising a first chamber and a second chamber partitioned by a partition; a communication hole provided in the partition for allowing the first chamber and the second chamber to communicate with each other therethrough; a pump channel for interconnecting the sump and the first chamber to guide the water stored in the sump to the first chamber; an arm channel for interconnecting an interior of the second chamber and the spray arm (3, 5); an impeller rotatably provided in the second chamber for supplying water to the arm channel; a heating unit for heating water stored in the first chamber; a steam channel for interconnecting the first chamber and the tub; and characterised in that the dishwasher further comprises a channel controller which includes a connection channel, the connection channel being configured to guide some of the water passing through at least the arm channel to the steam channel when the impeller is rotated such that the steam channel is closed by the water to prevent air from entering the first chamber through the steam channel, wherein the connection channel interconnects directly the arm channel and the steam channel.
A method for producing an optical electrical field enhancing device comprising: forming a thin film from aluminium or alumina on a substrate; forming a structure layer of fine protrusions and recesses having an average pitch and an average depth which are less than the wavelength of excitation light from bayerite and/or boehmite by causing the thin aluminium or alumina film to undergo a hydrothermal reaction, the pitch being the distance among the peaks of adjacent protrusions having recesses therebetween, and the depth being the distance from the peaks of the protrusions to the bottoms of the recesses adjacent thereto; forming a metal structure layer of fine protrusions and recesses constituted by a second metal on the surface of the structure layer of fine protrusions and recesses by vapour deposition, the second metal being capable of generating localized plasmon when irradiated with excitation light, the metal structure layer being such that at least one of the height of the protrusions in the direction perpendicular to the substrate and the length of the protrusions in the direction parallel to the substrate is less than the wavelength of excitation light; and laminating either a dielectric or a third metal different from the second metal on the metal structure layer. forming a thin film from aluminium or alumina on a substrate; forming a structure layer of fine protrusions and recesses having an average pitch and an average depth which are less than the wavelength of excitation light from bayerite and/or boehmite by causing the thin aluminium or alumina film to undergo a hydrothermal reaction, the pitch being the distance among the peaks of adjacent protrusions having recesses therebetween, and the depth being the distance from the peaks of the protrusions to the bottoms of the recesses adjacent thereto; forming a metal structure layer of fine protrusions and recesses constituted by a second metal on the surface of the structure layer of fine protrusions and recesses by vapour deposition, the second metal being capable of generating localized plasmon when irradiated with excitation light, the metal structure layer being such that at least one of the height of the protrusions in the direction perpendicular to the substrate and the length of the protrusions in the direction parallel to the substrate is less than the wavelength of excitation light; and laminating either a dielectric or a third metal different from the second metal on the metal structure layer.
A structure configurable to form a display packaging, the structure comprising: a middle region adjoining a first region at a first fold line and adjoining a second region at a second fold line, the middle region including a series of interconnected triangular panels (12A, 12B), each triangular panel from a first set of the interconnected triangular panels (12A, 12B) having a first orientation with a base edge adjoining the first region and a vertex adjoining the second region, each triangular panel from a second set of the interconnected triangular panels (12A, 12B) having a second orientation with a base edge adjoining the second region and a vertex adjoining the first region; the first region including a first series of alternating base triangular panels and vertex triangular panels; and the second region including a second series of alternating base triangular panels and vertex triangular panels, wherein each of the base triangular panels is a trapezoid, wherein each base triangular panel from the first region and the second region includes a base edge that adjoins the base edge of a triangular panel (12A, 12B) at the first and second fold lines (28A, 28B, 30A, 30B).
Command and signaling device comprising an actuating tappet which is operatively connected to a spring element, wherein the spring element is mounted on a printed circuit board, wherein a plurality of contact pads designed as concentric rings are arranged between the printed circuit board and the spring element, said contact pads converting different compression positions of the spring element into different signals, characterized in that the spring element has three functions, the function of a monitoring contact in the first compression position, the function of a command and message signal in the second compression position, and the function of a return element for the actuating tappet, and wherein the first compression position of the spring element is reached when the spring element makes contact with the outer and central pad geometry, and wherein the second compression position is reached when the spring element makes contact with the inner pad geometry, wherein the spring element has a conical part and a cylindrical part.
Method for detecting three-dimensional elevated structures on a surface of a document, comprising the steps: Illuminating the surface with light; capturing an image of the surface during the illumination of the surface, and evaluating the captured image to ascertain the elevated structures, wherein the surface is illuminated areally in at least two different ways and at least one areal image (71, 81) of the surface is captured for each of the different illumination ways, and the plurality of areal images (71, 81) of the surface thus captured are evaluated together, and during the evaluation drop shadows and/or reflection profiles are isolated, characterised in that one of the different illumination ways is at least an illumination with which the surface is uniformly illuminated full-surface with diffuse light, such that neither drop shadows nor reflection profiles appear in an image which is captured during the illumination with this one of the different types of illumination. Illuminating the surface with light; capturing an image of the surface during the illumination of the surface, and evaluating the captured image to ascertain the elevated structures, wherein the surface is illuminated areally in at least two different ways and at least one areal image (71, 81) of the surface is captured for each of the different illumination ways, and the plurality of areal images (71, 81) of the surface thus captured are evaluated together, and during the evaluation drop shadows and/or reflection profiles are isolated, characterised in that one of the different illumination ways is at least an illumination with which the surface is uniformly illuminated full-surface with diffuse light, such that neither drop shadows nor reflection profiles appear in an image which is captured during the illumination with this one of the different types of illumination.
Device (201, 301) for regulating the concentration of glucose in the blood of a person, comprising: - pump means (202, 302) for selectively supplying at least one substance which affects the concentration of glucose in the blood of the person; - injecting means (207, 307) for injecting the substance into the body of the person, such as a cannula or catheter, and - transport means (204, 304), such as a conduit, tube, hose or the like, which connect the pump means (202, 302) for medium throughflow to the injecting means (207, 307) for the purpose of transporting the substance from the pump means (202, 302) to the injecting means (207, 307); characterized in that - the device (201, 301) is configured to flush out the transport means (204, 304) with the substance, and - the device (201, 301) comprises detection means for detecting whether or not the device (201, 301) is in medium throughflow contact with the internal part of the body of the person via the transport means (204, 304) and the injecting means (207, 307), wherein the device (201, 203) is configured to flush out the transport means (204, 304) only when the detection means detect that there is no medium throughflow contact with the internal part of the body of the person at least prior to use of a new set of transport means. - pump means (202, 302) for selectively supplying at least one substance which affects the concentration of glucose in the blood of the person; - injecting means (207, 307) for injecting the substance into the body of the person, such as a cannula or catheter, and - transport means (204, 304), such as a conduit, tube, hose or the like, which connect the pump means (202, 302) for medium throughflow to the injecting means (207, 307) for the purpose of transporting the substance from the pump means (202, 302) to the injecting means (207, 307); - the device (201, 301) is configured to flush out the transport means (204, 304) with the substance, and - the device (201, 301) comprises detection means for detecting whether or not the device (201, 301) is in medium throughflow contact with the internal part of the body of the person via the transport means (204, 304) and the injecting means (207, 307), wherein the device (201, 203) is configured to flush out the transport means (204, 304) only when the detection means detect that there is no medium throughflow contact with the internal part of the body of the person at least prior to use of a new set of transport means.
A device for applying a hemostatic clip assembly, comprising: a proximal delivery catheter including a proximal handle assembly, an elongated catheter body defining a longitudinal axis and extending distally from the proximal handle assembly, a drive wire movably positioned within the elongated catheter body, a release pin assembly coupled to a distal end of the drive wire, the release pin assembly including a release pin and a release pin housing positioned outward from the release pin, and a shaft spring positioned outward from the release pin housing, wherein the shaft spring includes an annular portion, wherein the release pin housing is configured and adapted to interfere with the annular portion of the shaft spring upon proximal translation of the release pin housing; and a distal clip assembly removably connected to the distal end of the elongated catheter body, wherein the proximal delivery catheter is configured and adapted to transmit linear motion along the longitudinal axis and torsion about the longitudinal axis to at least a portion of the distal clip assembly characterised in that: the annular portion of the shaft spring is positioned around the release pin housing. a proximal delivery catheter including a proximal handle assembly, an elongated catheter body defining a longitudinal axis and extending distally from the proximal handle assembly, a drive wire movably positioned within the elongated catheter body, a release pin assembly coupled to a distal end of the drive wire, the release pin assembly including a release pin and a release pin housing positioned outward from the release pin, and a shaft spring positioned outward from the release pin housing, wherein the shaft spring includes an annular portion, wherein the release pin housing is configured and adapted to interfere with the annular portion of the shaft spring upon proximal translation of the release pin housing; and a distal clip assembly removably connected to the distal end of the elongated catheter body, wherein the proximal delivery catheter is configured and adapted to transmit linear motion along the longitudinal axis and torsion about the longitudinal axis to at least a portion of the distal clip assembly characterised in that: the annular portion of the shaft spring is positioned around the release pin housing.
A method for monitoring the integrity of code, comprising: receiving one or more files in which dummy code occupies an on demand code decryption area and runtime code is provided elsewhere; initialising a compensation area to take an initial value, calculating a first checksum result that depends on contents of the on demand code decryption area and contents of the compensation area; populating the compensation area with the result of an operation carried out in dependence on the dummy code and the runtime code; populating the on demand code decryption area with at least part of the runtime code; calculating a second checksum result that depends on contents of on demand code decryption area and contents of the compensation area; and utilising the first and second checksum results to infer the integrity of one or both of the real code and the dummy code. receiving one or more files in which dummy code occupies an on demand code decryption area and runtime code is provided elsewhere; initialising a compensation area to take an initial value, calculating a first checksum result that depends on contents of the on demand code decryption area and contents of the compensation area; populating the compensation area with the result of an operation carried out in dependence on the dummy code and the runtime code; populating the on demand code decryption area with at least part of the runtime code; calculating a second checksum result that depends on contents of on demand code decryption area and contents of the compensation area; and utilising the first and second checksum results to infer the integrity of one or both of the real code and the dummy code.
A high chair comprising a seat, a back rest, a foot rest, a crotch post, which is journalled in the chair for pivoting between a raised user position in front of the back rest and a lowered position, and a table arranged on the crotch post, characterized in that the table is pivotally attached to the crotch post through a locking mechanism, which is controllable with a control, with which the table can be locked in a horizontal user position, and with which the table can be released, so that it can be angled in relation to the crotch post, preferably to a position in which the table is substantially aligned with the crotch post.
A system for resecting a tissue mass, the system comprising: a surgical instrument; a first sensor for measuring a first signal, the first sensor dimensioned to be delivered minimally invasively and to fit at least one of inside and next to the tissue mass; a second sensor for measuring a second signal, the second sensor coupled to the surgical instrument; and a controller in communication with the first sensor and the second sensor wherein the first sensor is adapted to measure position and orientation of the first sensor within a first frame of reference based on the first signal, the second sensor is adapted to measure position and orientation of the second sensor within the first frame of reference based on the second signal, the system is configured to use a three dimensional model of the tissue mass derived from a plurality of scan images to define a resection margin and three dimensional envelope a predetermined distance away from the edge of the tissue mass; wherein the controller executes a stored program to calculate a distance between the first sensor and the second sensor based on the first signal and the second signal such that when the surgical instrument is below a threshold value of the distance between the first sensor and the second sensor, an auditory, visual, or haptic cue is generated for a user to identify the distance of the resection margin from the surgical instrument. a surgical instrument; a first sensor for measuring a first signal, the first sensor dimensioned to be delivered minimally invasively and to fit at least one of inside and next to the tissue mass; a second sensor for measuring a second signal, the second sensor coupled to the surgical instrument; and a controller in communication with the first sensor and the second sensor wherein the first sensor is adapted to measure position and orientation of the first sensor within a first frame of reference based on the first signal, the second sensor is adapted to measure position and orientation of the second sensor within the first frame of reference based on the second signal, the system is configured to use a three dimensional model of the tissue mass derived from a plurality of scan images to define a resection margin and three dimensional envelope a predetermined distance away from the edge of the tissue mass; wherein the controller executes a stored program to calculate a distance between the first sensor and the second sensor based on the first signal and the second signal such that when the surgical instrument is below a threshold value of the distance between the first sensor and the second sensor, an auditory, visual, or haptic cue is generated for a user to identify the distance of the resection margin from the surgical instrument.
A process for coating a substrate, in which: a substrate is provided having at least one free surface; a first layer of a first material is deposited on the free surface of the substrate; a second layer of a second material, different from the first material, is deposited on the first layer; a third layer of a third material, different from the first and second materials, is deposited on the second layer; characterised in that the process comprises in addition the deposition of a protective layer of a fourth material, different from the first, second and third materials, on the third layer; and the reflow of at least the second and third layers from the first, second and third layers, by transfer of heat by thermal contact on the protective layer, the protective layer avoiding oxidation at least of the third layer; and in that the material of the protective layer is so selected that it does not mix with the first, second and third layers during the reflow step. a substrate is provided having at least one free surface; a first layer of a first material is deposited on the free surface of the substrate; a second layer of a second material, different from the first material, is deposited on the first layer; a third layer of a third material, different from the first and second materials, is deposited on the second layer; characterised in that the process comprises in addition the deposition of a protective layer of a fourth material, different from the first, second and third materials, on the third layer; and the reflow of at least the second and third layers from the first, second and third layers, by transfer of heat by thermal contact on the protective layer, the protective layer avoiding oxidation at least of the third layer; and in that the material of the protective layer is so selected that it does not mix with the first, second and third layers during the reflow step.