mhurhangee/ep-ind-claims huggingface dataset:
A temperature distribution determining apparatus configured for determining a temperature distribution within an object caused by applying thermal therapy energy to the object during thermal therapy, wherein the object is body tissue, the temperature distribution determining apparatus comprising: - a temperature distribution measuring unit (6, 7), comprising an ultrasound unit for acquiring ultrasound data from the object and a temperature distribution calculation unit for calculating the first temperature distribution depending on the acquired ultrasound data, configured for measuring a spatially and temporally dependent first temperature distribution in the object, while the energy is applied to the object such that the object is heated to a temperature within a first temperature range, - a temperature distribution estimating unit configured for estimating, while the energy is applied to the object such that the object is heated to a temperature within a second temperature range, a spatially and temporally dependent second temperature distribution in the object within the second temperature range, which is different to the first temperature range, wherein the second temperature range ranges between 45 °C to 70 °C and is a therapeutic temperature range in which a desired therapeutic effect is obtained, and wherein the first temperature range is a temperature range below 55°C. - a temperature distribution measuring unit (6, 7), comprising an ultrasound unit for acquiring ultrasound data from the object and a temperature distribution calculation unit for calculating the first temperature distribution depending on the acquired ultrasound data, configured for measuring a spatially and temporally dependent first temperature distribution in the object, while the energy is applied to the object such that the object is heated to a temperature within a first temperature range, - a temperature distribution estimating unit configured for estimating, while the energy is applied to the object such that the object is heated to a temperature within a second temperature range, a spatially and temporally dependent second temperature distribution in the object within the second temperature range, which is different to the first temperature range,
Hand-guided working implement with a housing, to which a housing cover (11, 51) is fixed, wherein a tool unit is held between the housing and the housing cover (11, 51), wherein at least one stud extending through an opening of the housing cover (11, 51) and having a longitudinal central axis is fixed to the housing, wherein a fastening element securing the housing cover (11, 51) to the housing is screwed onto the free end of the stud, wherein the housing cover (11, 51) has a housing cover outside averted from the housing, and wherein the fastening element has at least two flats, which are assigned to each other and located on the housing cover outside, wherein the housing cover (11, 51) has a dome (16, 56), which extends outwards at the housing cover outside, which forms a locating surface for the fastening element and through which the opening extends, and wherein that section of the fastening element which is located on the housing cover outside is bounded by a circumferential contour in a top view in the direction of the longitudinal central axis, characterised in that the circumferential contour has the flats, and in that the maximum radial distance (d) of the outer circumference of the dome (16, 56) from the longitudinal central axis is at the locating surface and in a first region (27, 57) adjoining the locating surface no more than half the width across flats of the flats of the fastening element, so that a tool acting on the flats can be pushed over the first region of the dome (16, 56).
A cutting insert for grooving operations comprising a clamping portion and at least one cutting portion, top and bottom opposing surfaces (16, 18) and a peripheral side surface extending therebetween, the top and peripheral side surfaces (16, 20) meeting at an upper edge at least a portion of which comprises a cutting edge, the at least one cutting portion comprising a forward main cutting edge and two opposing side cutting edges extending rearwardly from the main cutting edge to the clamping portion on opposing sides of a center line of the cutting insert, characterized in that: each side cutting edge has a generally serrated form in a top view of the cutting insert. each side cutting edge has a generally serrated form in a top view of the cutting insert.
Compound of general formula: in which: - R 1 and R 2 represent simultaneously or independently H, OH, OCH 3 or a C 1 -C 5 alkyl radical, - R 3 and R 4 represent simultaneously CH 3, - or R 3 represents H and R 4 represents CH 3, CH 2 CH 3 or an isopropyl radical or a phenyl radical, - R 5 represents a C 4 -C 24 alkyl radical or a 3-phenylpropanyl or 2,2-diphenylethanyl radical. - R 1 and R 2 represent simultaneously or independently H, OH, OCH 3 or a C 1 -C 5 alkyl radical, - R 3 and R 4 represent simultaneously CH 3, - or R 3 represents H and R 4 represents CH 3, CH 2 CH 3 or an isopropyl radical or a phenyl radical, - R 5 represents a C 4 -C 24 alkyl radical or a 3-phenylpropanyl or 2,2-diphenylethanyl radical.
A tank assembly of modular composite construction, including: a body comprising a side wall with end covers at each end of the side wall, the side wall being formed by at least one composite cylindrical side wall portion, each side wall portion comprising three or more complementary arcuate side wall segments (4, 5, 8) interconnected by fasteners to form a cylindrical side wall section of the tank, one of the side wall segments in said at least one side wall portion having an access hatch, a dished end cover being fastened to the side wall at each end of the side wall, each of the side wall segments (4, 5, 8) and the end covers having an outwardly extending peripheral connector flange (18, 24, 48) for engagement with and attachment by fasteners to an adjacent side wall segment (4, 5, 8) or end cover, characterised in that there is provided one or more internal divider walls mounted within the tank body to subdivide the tank into a number of separate compartments (11, 12, 13), and each side wall portion has a plurality of spaced-apart outwardly projecting reinforcing ribs of channel section, an inwardly facing interior of each channel defining a support for mounting one of the internal divider walls within the tank, a periphery of the divider wall locating in said channel. a body comprising a side wall with end covers at each end of the side wall, the side wall being formed by at least one composite cylindrical side wall portion, each side wall portion comprising three or more complementary arcuate side wall segments (4, 5, 8) interconnected by fasteners to form a cylindrical side wall section of the tank, one of the side wall segments in said at least one side wall portion having an access hatch, a dished end cover being fastened to the side wall at each end of the side wall, each of the side wall segments (4, 5, 8) and the end covers having an outwardly extending peripheral connector flange (18, 24, 48) for engagement with and attachment by fasteners to an adjacent side wall segment (4, 5, 8) or end cover, characterised in that there is provided one or more internal divider walls mounted within the tank body to subdivide the tank into a number of separate compartments (11, 12, 13), and each side wall portion has a plurality of spaced-apart outwardly projecting reinforcing ribs of channel section, an inwardly facing interior of each channel defining a support for mounting one of the internal divider walls within the tank, a periphery of the divider wall locating in said channel.
A method for predicting the risk of a female subject to develop at least one preeclampsia related adverse outcome after delivery of baby, said method comprising the steps of a) measuring in a first sample obtained from a female subject with an uneventful pregnancy before delivery of baby i) the level of the biomarker sFlt-1 (soluble fins-like tyrosine kinase-1) or the level of the biomarker Endoglin, and ii) the level of the biomarker PlGF (Placental Growth Factor), b) calculating a first ratio of the levels of the biomarkers as measured in step a), c) measuring in a second sample obtained from said female subject after delivery of baby the levels of the biomarkers as measured in step a), d) calculating a second ratio of the levels measured in step c), and e) comparing the second ratio to the first ratio. a) measuring in a first sample obtained from a female subject with an uneventful pregnancy before delivery of baby i) the level of the biomarker sFlt-1 (soluble fins-like tyrosine kinase-1) or the level of the biomarker Endoglin, and ii) the level of the biomarker PlGF (Placental Growth Factor), i) the level of the biomarker sFlt-1 (soluble fins-like tyrosine kinase-1) or the level of the biomarker Endoglin, and ii) the level of the biomarker PlGF (Placental Growth Factor), b) calculating a first ratio of the levels of the biomarkers as measured in step a), c) measuring in a second sample obtained from said female subject after delivery of baby the levels of the biomarkers as measured in step a), d) calculating a second ratio of the levels measured in step c), and e) comparing the second ratio to the first ratio.
A method for detecting downlink control information, characterized by comprising: during cross carrier scheduling, user equipment, UE, determining a search space for monitoring a physical downlink control channel, PDCCH, according to a number of downlink component carriers in a PDCCH Monitoring Set and a number of downlink component carriers in a UE DL Component Carrier Set; wherein the step of determining the search space for monitoring the PDCCH comprises: if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are equal, the search space for the user equipment to monitor the PDCCH being consistent with search space for single carrier scheduling; and if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are unequal, enlarging the search space for the user equipment to monitor the PDCCH on carriers which can carry out cross carrier scheduling. during cross carrier scheduling, user equipment, UE, determining a search space for monitoring a physical downlink control channel, PDCCH, according to a number of downlink component carriers in a PDCCH Monitoring Set and a number of downlink component carriers in a UE DL Component Carrier Set; wherein the step of determining the search space for monitoring the PDCCH comprises: if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are equal, the search space for the user equipment to monitor the PDCCH being consistent with search space for single carrier scheduling; and if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are unequal, enlarging the search space for the user equipment to monitor the PDCCH on carriers which can carry out cross carrier scheduling. if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are equal, the search space for the user equipment to monitor the PDCCH being consistent with search space for single carrier scheduling; and if the number of downlink component carriers in the PDCCH Monitoring Set and the number of downlink component carriers in the UE DL Component Carrier Set are unequal, enlarging the search space for the user equipment to monitor the PDCCH on carriers which can carry out cross carrier scheduling.
A communication device comprising: a receiver configured to receive a control message from a first server (10, 10a), the first server (10, 10a) being connectable to the communication device through a first session using a first protocol, which has been used by a second server(5, 5a) to send the control message to the first server (10, 10a); a controller configured to perform processing specified by the control message and to establish a second session for a communication using a second protocol when communication processing is performed between the communication device and the second server (5, 5a) using the second protocol, the second session being established between the communication device and the second server (5, 5a), the communication processing occurring due to the processing specified by the control message, a header length of the second protocol being longer than a header length of the first protocol; and a transceiver configured to perform communication using the first session and the second session, wherein the controller is configured to terminate the second session when the communication between the communication device and the second server (5, 5a) using the second protocol is terminated, and the transceiver is configured to transmit a report to the first server (10, 10a) through the first session, the report including a result of the processing specified by the control message and information indicating that a final destination of the report is the second server (5, 5a). a receiver configured to receive a control message from a first server (10, 10a), the first server (10, 10a) being connectable to the communication device through a first session using a first protocol, which has been used by a second server(5, 5a) to send the control message to the first server (10, 10a); a controller configured to perform processing specified by the control message and to establish a second session for a communication using a second protocol when communication processing is performed between the communication device and the second server (5, 5a) using the second protocol, the second session being established between the communication device and the second server (5, 5a), the communication processing occurring due to the processing specified by the control message, a header length of the second protocol being longer than a header length of the first protocol; and a transceiver configured to perform communication using the first session and the second session, wherein the controller is configured to terminate the second session when the communication between the communication device and the second server (5, 5a) using the second protocol is terminated, and the transceiver is configured to transmit a report to the first server (10, 10a) through the first session, the report including a result of the processing specified by the control message and information indicating that a final destination of the report is the second server (5, 5a).
A crystalline form, which is Form A of berberine ursodeoxycholate, having an X-ray powder diffraction (XRPD) pattern comprising peaks at 20 values of the group consisting of: 7.06, 7.34, 8.79, 9.47, 11.94, 14.17, 15.50, 16.54 and 16.78, 17.53, 17.67, 18.23, 19.03, 19.98, 20.87, 21.13, 21.96, 23.49, 24.24, 24.97, 25.50, 26.63, 27.60, 28.06, 28.63, 29.40 and 30.49 ° ±0.2° obtained using Cu Kα radiation (λ 1 = 1.540598 Å, λ 2 = 1.544426 Å, intensity ratio λ 2 /λ 1 = 0.50), wherein the Form A of berberine ursodeoxycholate has the formula:
Shoe insole containing particulate amorphous silica as adsorbent, the shoe insole comprising at least two layers (1, 2), the first layer being water- and water vapour-pervious and the second layer being water- and water vapour-impervious, the second layer containing depressions on its surface, the two layers (1, 2) being fixed to one another in such a way that the surface of the first layer covers the depressions on the surface of the second layer, the depressions on the surface of the second layer being joined to one another by open channels within the second layer, and the depressions on the surface of the second layer containing particulate amorphous silica.
A container comprising a container body and a cover, said cover being pivotably mounted at the container body by means of a joint, comprising a circumferential sealing for the sealing between the container body and the cover, said sealing being pressed against a sealing face and being compressed by it when the cover is closed, characterized in that at a rear wall of the container the joint between the cover and the container body is moveably mounted vertically to a predetermined extent, for instance 2mm, in an elongated hole with a vertical direction of extension, and in that at the rear wall of the container at least one tension member is attached which can be used to draw the cover downwards into a lowered position in which the sealing is compressed.
Pull-out guide for drawers, in particular drawers of furniture with a drawer side wall with or without decoration, wherein the pull-out guide comprises at least one drawer rail to be fastened to a drawer, a carcass rail to be fastened to a furniture carcass and means cooperating with the drawer rail and the carcass rail to allow a pull-out function, wherein a function carrier is arranged in the area of the part of the drawer rail facing the drawer front, which function carrier has at least one function element for receiving, holding and/or connecting parts of the drawer and/or at least one function element for providing, assisting and/or producing drawer functions, wherein the function carrier has a cross-section matched to the drawer rail and is arranged in the extension of the drawer rail and connected detachably or undetachably with the drawer rail, and wherein a mounting is provided in or on the function carrier for a damping element and/or an automatic retractor.
A video decoding method, comprising: determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, wherein the intra prediction mode of the current block is determined based on a Most Probable Mode, wherein when the intra prediction mode of the current block is a DC mode, the determining whether to apply a second filter to the intra prediction value of the current block is such that a 3-tap filter is applied only to an upper-leftmost pixel of the current block among the prediction pixels of the current block and a 2-tap filter is applied only to remaining uppermost pixels and leftmost pixels except the upper-leftmost pixel among the prediction pixels of the current block. determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, wherein the intra prediction mode of the current block is determined based on a Most Probable Mode, wherein when the intra prediction mode of the current block is a DC mode, the determining whether to apply a second filter to the intra prediction value of the current block is such that a 3-tap filter is applied only to an upper-leftmost pixel of the current block among the prediction pixels of the current block and a 2-tap filter is applied only to remaining uppermost pixels and leftmost pixels except the upper-leftmost pixel among the prediction pixels of the current block.
An exhaust gas purification catalyst comprising a phosphorus collection layer and a catalyst layer containing at least one precious metal element M p selected from the group consisting of Pt, Pd, and Rh, wherein the phosphorus collection layer is arranged on the upper layer side and/or the upstream side with respect to the catalyst layer; the phosphorus collection layer comprises a composite oxide containing Al and an alkaline earth metal element M a that includes Mg and that may include at least one selected from the group consisting of Ca, Sr, and Ba, and having a cubic spinel structure belonging to the space group Fd-3m; the composite oxide has a molar ratio (M a /Al molar ratio) of the M a element to the Al element in a range of 0.02 or more and 0.60 or less; and the composite oxide has a peak derived from the cubic spinel structure belonging to the space group Fd-3m of the composite oxide between a diffraction angle 2θ× M a O that is a position of a peak derived from an alkaline earth metal oxide M a O and a diffraction angle 2θ× Al2O3 that is a position of a peak derived from an aluminum oxide Al 2 O 3 in an X-ray diffraction spectrum of the composite oxide. wherein the phosphorus collection layer is arranged on the upper layer side and/or the upstream side with respect to the catalyst layer; the phosphorus collection layer comprises a composite oxide containing Al and an alkaline earth metal element M a that includes Mg and that may include at least one selected from the group consisting of Ca, Sr, and Ba, and having a cubic spinel structure belonging to the space group Fd-3m; the composite oxide has a molar ratio (M a /Al molar ratio) of the M a element to the Al element in a range of 0.02 or more and 0.60 or less; and the composite oxide has a peak derived from the cubic spinel structure belonging to the space group Fd-3m of the composite oxide between a diffraction angle 2θ× M a O that is a position of a peak derived from an alkaline earth metal oxide M a O and a diffraction angle 2θ× Al2O3 that is a position of a peak derived from an aluminum oxide Al 2 O 3 in an X-ray diffraction spectrum of the composite oxide.