mhurhangee/ep-ind-claims huggingface dataset:
An endoscope having a distal section and a secondary section, the distal section comprising: a deployable housing (203, 204) with a distal section rotational hinge relative to the secondary section, forming a first aperture and a second aperture on the side of the distal section of the endoscope, a light source positioned inside the first aperture that is coupled to the housing (203, 204), the light source for illuminating the body cavity; a digital camera sensor positioned inside the second aperture that is coupled to the housing (203, 204), the camera for capturing images; the secondary section comprising a control unit, a proximal section and a midsection; and a first thin flat cable and a second thin flat cable electrically coupled with the digital camera sensor and the light source, the first thin flat cable and the second thin flat cable are used to provide power to the digital camera sensor and light source, and transmit control and video signals back and forth from the control unit to and from the digital camera sensor, wherein the first thin flat cable or the second thin flat cable is physically fixed at the distal section, and adjustably connected to a tension spring at the proximal section, holding the distal section rotational hinge in a specific angle from the midsection of the endoscope. a deployable housing (203, 204) with a distal section rotational hinge relative to the secondary section, forming a first aperture and a second aperture on the side of the distal section of the endoscope, a light source positioned inside the first aperture that is coupled to the housing (203, 204), the light source for illuminating the body cavity; a digital camera sensor positioned inside the second aperture that is coupled to the housing (203, 204), the camera for capturing images; the secondary section comprising a control unit, a proximal section and a midsection; and a first thin flat cable and a second thin flat cable electrically coupled with the digital camera sensor and the light source, the first thin flat cable and the second thin flat cable are used to provide power to the digital camera sensor and light source, and transmit control and video signals back and forth from the control unit to and from the digital camera sensor, wherein the first thin flat cable or the second thin flat cable is physically fixed at the distal section, and adjustably connected to a tension spring at the proximal section, holding the distal section rotational hinge in a specific angle from the midsection of the endoscope.
A composition comprising a population of 10 6 -10 10 cells, wherein at least 10% of the population is a population of isolated Vy4+ T cells, for use in a method of treating inflammation in the gut of a subject, wherein the inflammation in the gut is optionally associated with inflammatory bowel disease, such as Crohn's disease, and/or ulcerative colitis, and wherein the Vy4+ cells express a heterologous protein, wherein the heterologous protein is Vγ4, and wherein the Vy4+ cells are Vδ2- γδ T cells and are derived from Vγ4- cells. wherein the Vy4+ cells express a heterologous protein, wherein the heterologous protein is Vγ4, and wherein the Vy4+ cells are Vδ2- γδ T cells and are derived from Vγ4- cells.
Building comprising a roof made from flat tiles placed in conjunction with cladding that is also constituted of flat tiles, in which the flat tiles of the roof and the flat tiles of the cladding are placed onto battens (2, 102) that in turn are laid horizontally on plates, characterised in that these plates are corrugated (3, 103) and preferably made from steel, so that rainwater that penetrates between the roof tiles is collected and flows into the troughs in the corrugation of the corrugated plate of the roof, an area (d) being inserted between the cladding and the roof edge, in which area a gutter equipped with perforations is arranged, and in which the perforations of the gutter connect with the corrugations of the corrugated sheet metal of the cladding, so that the rainwater collected by the roof flows behind the cladding.
A switching method, comprising: establishing, by a terminal device, a first packet data network PDN connection in a long term evolution LTE access network; switching, by the terminal device, the first PDN connection from the LTE access network to a wireless local area network WLAN access network; pre-establishing, by the terminal device, a second PDN connection in the LTE access network, so that the terminal device is in a registered state in the LTE network, wherein the pre-establishing comprises directly initiating, by the terminal device, establishment of the second PDN connection in the LTE access network after the terminal device switches the first PDN connection from the LTE access network to the WLAN access network, and after the terminal device switches the first PDN connection from the LTE access network to the WLAN access network, initiating, by the terminal device, a registration process in the LTE access network, and initiating establishment of the second PDN connection in the LTE access network after successful registration; and switching, by the terminal device, the first PDN connection or a third PDN connection established in the WLAN access network, to the LTE access network. establishing, by a terminal device, a first packet data network PDN connection in a long term evolution LTE access network; switching, by the terminal device, the first PDN connection from the LTE access network to a wireless local area network WLAN access network; pre-establishing, by the terminal device, a second PDN connection in the LTE access network, so that the terminal device is in a registered state in the LTE network, wherein the pre-establishing comprises directly initiating, by the terminal device, establishment of the second PDN connection in the LTE access network after the terminal device switches the first PDN connection from the LTE access network to the WLAN access network, and after the terminal device switches the first PDN connection from the LTE access network to the WLAN access network, initiating, by the terminal device, a registration process in the LTE access network, and initiating establishment of the second PDN connection in the LTE access network after successful registration; and switching, by the terminal device, the first PDN connection or a third PDN connection established in the WLAN access network, to the LTE access network.
A video decoding method performed by a video decoding apparatus, the video decoding method comprising: obtaining motion vector prediction mode information of a current block, from a bitstream; when the motion vector prediction mode information of the current block indicates a pre-set prediction mode, obtaining, from the bitstream, a bit representation indicating a signed direction of a motion vector difference, a bit representation indicating a pixel distance of the motion vector difference, and an index indicating a motion vector candidate from a prediction candidate list, determining the prediction candidate list including motion vectors of blocks adjacent to the current block, and determining a motion vector candidate indicated by the index from the prediction candidate list; determining the motion vector difference based on the signed direction of the motion vector difference and the pixel distance of the motion vector difference; determining a motion vector of the current block based on the motion vector candidate and the motion vector difference; and determining a reconstructed block of the current block by using a prediction block indicated by the motion vector, wherein the signed direction is one of a horizontal component of a positive sign, a horizontal component of a negative sign, a vertical component of a positive sign, and a vertical component of a negative sign, and the pixel distance is one of a sub-pel distance and an integer-pel distance, the sub-pel distance including a 1/4 pixel distance and a 1/2 pixel distance and the integer-pel distance including a 1 pixel distance. obtaining motion vector prediction mode information of a current block, from a bitstream; when the motion vector prediction mode information of the current block indicates a pre-set prediction mode, obtaining, from the bitstream, a bit representation indicating a signed direction of a motion vector difference, a bit representation indicating a pixel distance of the motion vector difference, and an index indicating a motion vector candidate from a prediction candidate list, determining the prediction candidate list including motion vectors of blocks adjacent to the current block, and determining a motion vector candidate indicated by the index from the prediction candidate list; determining the motion vector difference based on the signed direction of the motion vector difference and the pixel distance of the motion vector difference; determining a motion vector of the current block based on the motion vector candidate and the motion vector difference; and determining a reconstructed block of the current block by using a prediction block indicated by the motion vector, wherein the signed direction is one of a horizontal component of a positive sign, a horizontal component of a negative sign, a vertical component of a positive sign, and a vertical component of a negative sign, and the pixel distance is one of a sub-pel distance and an integer-pel distance, the sub-pel distance including a 1/4 pixel distance and a 1/2 pixel distance and the integer-pel distance including a 1 pixel distance.
An ink jet printer, comprising: a transfer unit configured to transfer a postal matter along a transfer path surface; a printer head configured to eject ink towards the postal matter; and an air blowing unit configured to blow air towards the ink ejected from the printer head towards the postal matter, wherein the air from the air blowing unit is blown in a direction intersecting a direction in which the ink is ejected by the printer head, characterized in that the ink jet printer further comprises: an opening in the transfer path surface that is proximate to a printing position at which the printer head ejects inks towards the postal matter; and an ink receiver below the opening, the ink receiver being configured to store ink blown by the blowing unit through the opening. a transfer unit configured to transfer a postal matter along a transfer path surface; a printer head configured to eject ink towards the postal matter; and an air blowing unit configured to blow air towards the ink ejected from the printer head towards the postal matter, wherein the air from the air blowing unit is blown in a direction intersecting a direction in which the ink is ejected by the printer head, characterized in that the ink jet printer further comprises: an opening in the transfer path surface that is proximate to a printing position at which the printer head ejects inks towards the postal matter; and an ink receiver below the opening, the ink receiver being configured to store ink blown by the blowing unit through the opening. an opening in the transfer path surface that is proximate to a printing position at which the printer head ejects inks towards the postal matter; and an ink receiver below the opening, the ink receiver being configured to store ink blown by the blowing unit through the opening.
A security sensor device which comprises: a sensor body; an element unit (11, 21) including a sensor element for transmitting or a sensor element for receiving an infrared detection wave, wherein the element unit (11, 21) includes an upper and a lower optical element (16, 22) for transmitting or receiving infrared beams; a unit casing for retaining the element unit (11, 21), the unit casing being supported by the sensor body for adjustment of a horizontal deflecting angle and a vertical deflecting angle (θv); a cover mounted on the sensor body for covering the element unit (11, 21) and being arranged for allowing the infrared detection wave to pass therethrough; and a center of pivotal movement for vertical deflection of the unit casing being set to an eccentric position downwardly displaced from a portion of the unit casing intermediate in a vertical direction thereof; wherein the cover has a stepped portion formed at a portion thereof confronting the vertically intermediate portion of the element unit (11, 21), wherein a non-recessed portion and a recessed portion are formed above and below the stepped portion respectively, wherein the recessed portion is depressed from the non-recessed portion in a direction inwardly of the cover wherein the recessed potion of the cover is formed through the stepped portion at a portion of the cover corresponding to a downward side to which the center of pivotal movement of the unit casing is offset relative to the vertically intermediate portion of the element unit (11, 21) and corresponding to the lower optical element (16, 22), wherein the non-recessed portion of the cover is formed at a portion of the cover corresponding to the upper optical element (16, 22); and wherein the cover is provided with a hood which is fitted to an outer perimeter surface of the non-recessed portion at a location adjacent to the stepped portion in the non-recessed portion on one side above the stepped portion, the hood protruding outwardly from the cover and cooperating with the stepped portion for supressing the radiative cooling by shielding the recessed portion of the cover from an airy region. a sensor body; an element unit (11, 21) including a sensor element for transmitting or a sensor element for receiving an infrared detection wave, wherein the element unit (11, 21) includes an upper and a lower optical element (16, 22) for transmitting or receiving infrared beams; a unit casing for retaining the element unit (11, 21), the unit casing being supported by the sensor body for adjustment of a horizontal deflecting angle and a vertical deflecting angle (θv); a cover mounted on the sensor body for covering the element unit (11, 21) and being arranged for allowing the infrared detection wave to pass therethrough; and a center of pivotal movement for vertical deflection of the unit casing being set to an eccentric position downwardly displaced from a portion of the unit casing intermediate in a vertical direction thereof;
A cement powder useful as bone cement comprising an organic component consisting of one or more biocompatible and bioresorbable polymers, and an inorganic component consisting of one or more calcium phosphate compounds, wherein said calcium phosphate compounds comprise α-TCP, and wherein said biocompatible and bioresorbable polymers are selected from the group consisting of hydroxypropylmethylcellulose (HPMC) and carboxymethylcellulose and their salts and are present in an amount in the range from 1 to 5% of the powder total amount.
Tool attachment having an attachment housing at which a fastening interface for fastening to a portable power tool is arranged, wherein the fastening interface has an angular-position setting unit for setting a predetermined angular position of the tool attachment on the portable power tool and is provided with a locking unit that locks the tool attachment for operation to the portable power tool in the predetermined angular position in a locked state and allows the tool attachment to be taken off the portable power tool in the unlocked state, wherein the angular-position setting unit is actuable in the locked state of the locking unit in order to allow the predetermined angular position to be changed, characterized in that the angular-position setting unit is actuable by a combined longitudinal and rotary movement of the attachment housing in order to change the predetermined angular position.
A filling level measuring device antenna cover adapted to function as a lens, for covering an antenna of a filling level measuring device and adapted for focusing electromagnetic radiation emitted by the antenna, comprising: a base body; and a plurality of circular fins each having the shape of a hollow cylinder (103, 104, 105, 106, 107, 108) concentrically arranged on an inner surface of the base body, which faces towards an inside of the antenna when the cover covers the antenna; wherein the fins and the base body consist of a plastic material; wherein the cover is adapted as a lens having at least one of a convex surface and a concave surface; wherein the base body has a constant thickness; and wherein the base body and the plurality of circular fins (103, 104, 105, 106, 107, 108) are injection molded. a base body; and a plurality of circular fins each having the shape of a hollow cylinder (103, 104, 105, 106, 107, 108) concentrically arranged on an inner surface of the base body, which faces towards an inside of the antenna when the cover covers the antenna; wherein the fins and the base body consist of a plastic material; wherein the cover is adapted as a lens having at least one of a convex surface and a concave surface; wherein the base body has a constant thickness; and wherein the base body and the plurality of circular fins (103, 104, 105, 106, 107, 108) are injection molded.
A deflector sheave mounting bracket for mounting a plurality of individual deflector sheaves of an elevator system, characterised by comprising: a top plate; a bottom plate; and a plurality of support plates connected at a first end to the top plate and connected at a second, opposite end to the bottom plate; a plurality of openings for receiving the plurality of deflector sheaves defined between pairs of adjacent support plates of the plurality of support plates, at least one opening of the plurality of openings is vertically offset and horizontally offset from another of the plurality of openings. a top plate; a bottom plate; and a plurality of support plates connected at a first end to the top plate and connected at a second, opposite end to the bottom plate; a plurality of openings for receiving the plurality of deflector sheaves defined between pairs of adjacent support plates of the plurality of support plates, at least one opening of the plurality of openings is vertically offset and horizontally offset from another of the plurality of openings.
A display device, comprising: a substrate including a display area and a non-display area; a plurality of signal lines disposed in the display area and extending in a first direction from the non-display area to the display area; and a connection line extending from the non-display area and being electrically connected to a respective signal line of the plurality of signal lines in the non-display area; wherein an initialization voltage line extends in a second direction intersecting the first direction characterized by the connection line extending from a portion of the non-display area to another portion of the non-display area via the display area and being disposed on a layer different from a layer on which the signal lines are disposed, wherein the initialization voltage line is disposed in the display area, and wherein in the display area the connection line includes a horizontal portion extending in the second direction which overlaps the initialization voltage line in a thickness direction of the display device. a substrate including a display area and a non-display area; a plurality of signal lines disposed in the display area and extending in a first direction from the non-display area to the display area; and a connection line extending from the non-display area and being electrically connected to a respective signal line of the plurality of signal lines in the non-display area; wherein an initialization voltage line extends in a second direction intersecting the first direction characterized by the connection line extending from a portion of the non-display area to another portion of the non-display area via the display area and being disposed on a layer different from a layer on which the signal lines are disposed, wherein the initialization voltage line is disposed in the display area, and wherein in the display area the connection line includes a horizontal portion extending in the second direction which overlaps the initialization voltage line in a thickness direction of the display device.
A method in a wireless communication apparatus of using first channel quality estimates, such as channel estimates, signal-to-interference ratios, and/or signal power estimates, determined for a first set of subcarriers in an OFDM signal to derive second channel quality estimates for a second set of subcarriers in the OFDM signal, said method comprising: receiving reference information on the first set of subcarriers; generating the first channel quality estimates in the frequency domain, based on the received reference information; computing a power delay profile for the first set of subcarriers; and characterized by determining (108; 124, 128) the second channel quality estimates either by extrapolating from the first channel quality estimates when the value of a delay spread of the power delay profile is in a defined range of delay spread values, or as an average of the first channel quality estimates when the value of the delay spread of the power delay profile is outside the defined range of delay spread values. receiving reference information on the first set of subcarriers; generating the first channel quality estimates in the frequency domain, based on the received reference information; computing a power delay profile for the first set of subcarriers; and characterized by determining (108; 124, 128) the second channel quality estimates either by extrapolating from the first channel quality estimates when the value of a delay spread of the power delay profile is in a defined range of delay spread values, or as an average of the first channel quality estimates when the value of the delay spread of the power delay profile is outside the defined range of delay spread values.
A method of determining a mass-to-charge ratio of an analyte in a sample, the method comprising: a) obtaining a mass spectrum, where the mass-to-charge ratio of the analyte was measured in a presence of a first adjacent ion, the first adjacent ion comprising an ion having a mass-to-charge ratio that is different than the mass-to-charge ratio of the analyte, the mass spectrum comprising: i) a measured analyte mass-to-charge ratio, ii) a measured first adjacent ion mass-to-charge ratio, iii) a measured first adjacent ion abundance, b) determining a first mass-to-charge ratio difference by subtracting the measured first adjacent ion mass-to-charge ratio from the measured analyte mass-to-charge ratio; characterized in that the method further comprises: c) determining an adjacent ion space charge correction based on the first mass-to-charge ratio difference and the measured first adjacent ion abundance; and d) calculating a corrected analyte mass-to-charge ratio based on i) the measured analyte mass-to-charge ratio, ii) the first mass-to-charge ratio difference, and iii) the measured first adjacent ion abundance by adding together the adjacent ion space charge correction and the measured analyte mass-to-charge ratio. a) obtaining a mass spectrum, where the mass-to-charge ratio of the analyte was measured in a presence of a first adjacent ion, the first adjacent ion comprising an ion having a mass-to-charge ratio that is different than the mass-to-charge ratio of the analyte, the mass spectrum comprising: i) a measured analyte mass-to-charge ratio, ii) a measured first adjacent ion mass-to-charge ratio, iii) a measured first adjacent ion abundance, b) determining a first mass-to-charge ratio difference by subtracting the measured first adjacent ion mass-to-charge ratio from the measured analyte mass-to-charge ratio; c) determining an adjacent ion space charge correction based on the first mass-to-charge ratio difference and the measured first adjacent ion abundance; and d) calculating a corrected analyte mass-to-charge ratio based on i) the measured analyte mass-to-charge ratio, ii) the first mass-to-charge ratio difference, and iii) the measured first adjacent ion abundance by adding together the adjacent ion space charge correction and the measured analyte mass-to-charge ratio.