mhurhangee/ep-ind-claims huggingface dataset:
A single-lumen catheter for insertion into a human and/or animal hollow organ, comprising a catheter shaft with a lumen, which opens into a front opening at a distal end of the catheter shaft, wherein the catheter shaft has at least a first lateral opening that is at a distance from the distal end and opens into the lumen, wherein there is at least a first insertion device, arranged on an external side of the catheter shaft in a region of the first lateral opening, for a wire-like element (300, 400, 500) that should be inserted into the first lateral opening from the outside, characterized in that there is a second lateral opening that opens into the lumen, wherein the second lateral opening is spaced apart from the first lateral opening in a proximal direction, such that a first wire-like element (300, 400, 500) can be exchanged for a second wire-like element (300, 400, 500), such that both wire-like elements are simultaneously present in the catheter.
A method for receiving an Enhanced Physical Downlink Control Channel, EPDCCH, from a base station by a user equipment, UE, in a wireless communication system, the method comprising: defining a plurality of Enhanced Resource Element Groups, EREGs, in resource blocks for the EPDCCH, wherein a first number of EREGs are included and indexed in each of the resource blocks; and receiving the EPDCCH by monitoring EPDCCH candidates comprising one or more Enhanced Control Channel Elements, ECCEs, in the resource blocks, wherein each of the one or more ECCEs comprises a second number of EREGs selected from the plurality of EREGs, said method being characterized in that: if the second number of EREGs are included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by n mod N RB ECCE + jN RB ECCE, and if the second number of EREGs are not included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by ⌊ n / N RB S m ⌋ + jN RB ECCE, and wherein N RB ECCE indicates the number of ECCEs per resource block, j = 0,1,..., N ECCE EREG − 1, N ECCE EREG indicates the second number and N RB S m indicates the number of the resource blocks and ECCE #n designates an ECCE having an index n. defining a plurality of Enhanced Resource Element Groups, EREGs, in resource blocks for the EPDCCH, wherein a first number of EREGs are included and indexed in each of the resource blocks; and receiving the EPDCCH by monitoring EPDCCH candidates comprising one or more Enhanced Control Channel Elements, ECCEs, in the resource blocks, wherein each of the one or more ECCEs comprises a second number of EREGs selected from the plurality of EREGs, said method being characterized in that: if the second number of EREGs are included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by n mod N RB ECCE + jN RB ECCE, and if the second number of EREGs are not included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by ⌊ n / N RB S m ⌋ + jN RB ECCE, and wherein N RB ECCE indicates the number of ECCEs per resource block, j = 0,1,..., N ECCE EREG − 1, N ECCE EREG indicates the second number and N RB S m indicates the number of the resource blocks and ECCE #n designates an ECCE having an index n. if the second number of EREGs are included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by n mod N RB ECCE + jN RB ECCE, and if the second number of EREGs are not included in the same resource block, the indexes of the second number of EREGs included in ECCE #n are determined by ⌊ n / N RB S m ⌋ + jN RB ECCE, and wherein N RB ECCE indicates the number of ECCEs per resource block, j = 0,1,..., N ECCE EREG − 1, N ECCE EREG indicates the second number and N RB S m indicates the number of the resource blocks and ECCE #n designates an ECCE having an index n.
An ostomy pouch (10, 110, 210, 310, 410, 510), comprising: an inner wall (18b, 118b, 218b, 318b, 418b, 518b) and an outer wall (20b, 120b, 220b, 320b, 420b, 520b) sealed about at least part of the periphery thereof to define a cavity for containing a stomal output, the cavity including an upper section (12, 112, 212, 312, 412, 512), a lower section (14, 114, 214, 314, 41, 514) and a waisted section (13, 113, 213, 313, 413, 513) located between the upper section (12, 112, 212, 312, 412, 512) and the lower section (14, 114, 214, 314, 41, 514); and a filter system, comprising: a vent (30, 130, 230, 330) in the outer wall (20b, 120b, 220b, 320b, 420b, 520b) of the pouch for the release of gas from within the cavity to outside of the pouch; and a pre-filter arrangement comprising a protective panel (54, 154, 354) which defines a filter chamber (56, 156) about the vent (30, 130, 230, 330), and into which stomal output may enter, in use, characterised in that the filter chamber (56, 156) comprises an outlet (62, 162, 262, 362) allowing liquid stomal output to migrate out from the filter chamber (56, 156). an inner wall (18b, 118b, 218b, 318b, 418b, 518b) and an outer wall (20b, 120b, 220b, 320b, 420b, 520b) sealed about at least part of the periphery thereof to define a cavity for containing a stomal output, the cavity including an upper section (12, 112, 212, 312, 412, 512), a lower section (14, 114, 214, 314, 41, 514) and a waisted section (13, 113, 213, 313, 413, 513) located between the upper section (12, 112, 212, 312, 412, 512) and the lower section (14, 114, 214, 314, 41, 514); and a filter system, comprising: a vent (30, 130, 230, 330) in the outer wall (20b, 120b, 220b, 320b, 420b, 520b) of the pouch for the release of gas from within the cavity to outside of the pouch; and a pre-filter arrangement comprising a protective panel (54, 154, 354) which defines a filter chamber (56, 156) about the vent (30, 130, 230, 330), and into which stomal output may enter, in use, a vent (30, 130, 230, 330) in the outer wall (20b, 120b, 220b, 320b, 420b, 520b) of the pouch for the release of gas from within the cavity to outside of the pouch; and a pre-filter arrangement comprising a protective panel (54, 154, 354) which defines a filter chamber (56, 156) about the vent (30, 130, 230, 330), and into which stomal output may enter, in use, characterised in that the filter chamber (56, 156) comprises an outlet (62, 162, 262, 362) allowing liquid stomal output to migrate out from the filter chamber (56, 156).
An arithmetic processing device comprising: an executing unit configured to execute a first operation and a second operation; and a management unit configured to: acquire a first operation result of the first operation executing by using a candidate decimal point position, determine a specific decimal point position determined based on statistical information of the first operation result, and acquire, as a final operation result, either the first operation result or the second operation result of a second operation executing by using the specific decimal point position, based on the candidate decimal point position and the specific decimal point position. an executing unit configured to execute a first operation and a second operation; and a management unit configured to: acquire a first operation result of the first operation executing by using a candidate decimal point position, determine a specific decimal point position determined based on statistical information of the first operation result, and acquire, as a final operation result, either the first operation result or the second operation result of a second operation executing by using the specific decimal point position, based on the candidate decimal point position and the specific decimal point position. acquire a first operation result of the first operation executing by using a candidate decimal point position, determine a specific decimal point position determined based on statistical information of the first operation result, and acquire, as a final operation result, either the first operation result or the second operation result of a second operation executing by using the specific decimal point position, based on the candidate decimal point position and the specific decimal point position.
Method for recording magnetic resonance data for determining at least one parameter map describing a material parameter in the scanning region with a magnetic resonance apparatus, wherein the scanning area has a plurality of slices and, for recording the magnetic resonance data, a slice-specific preparation pulse is used at least partially, wherein magnetic resonance data is scanned after different waiting times (3, 5) following the preparation pulse, characterised in that for recording magnetic resonance data of different waiting times (3, 5) from at least two slices, an overall pulse (2, 2′, 2′, 2′′′) determined by overlaying the slice-specific preparation pulses for the individual slices is output and the magnetic resonance data of the slices is read out with a readout sequence after the respective waiting times (3, 5), wherein slice-specific preparation pulses of different flip angles are overlaid to form the overall pulse (2, 2', 2', 2′′′).
A capacitor, comprising: an anode layer; an electrolyte impregnated separator; a cathode layer; wherein the capacitor is constructed as a layered structure with the separator interposed between the cathode and anode layers (1803, 1801), and further wherein edge portions of the cathode layer are inwardly offset from edge portions of the anode layer such that a perimeter of the cathode layer is circumscribed by a perimeter of the anode layer. an anode layer; an electrolyte impregnated separator; a cathode layer;
Suction device with a suction unit for generating a suction flow and with a vacuum cleaner housing, in which a dirt collecting chamber having a suction inlet and flow-connected to the suction unit via at least one filter and an extraction passage assembly is located, wherein at least one external air inlet closable by an external air valve is located at the extraction passage assembly between the filter and the suction device, wherein the external air valve has an external air valve body for blocking the external air inlet, which external air valve body is movable between a closed position blocking the external air inlet and a flow position opening the external air inlet, in which external air entering through the external air inlet flows through the at least one filter in the direction of the dirt collecting chamber for cleaning, wherein the suction device has a pressure control device for applying a vacuum to an actuating surface connected to the external air valve body for moving the external air valve body in the direction of the closed position or for holding the external air valve body in the closed position, characterised in that the pressure control device is provided or designed for applying a vacuum to the actuating surface connected to the external air valve body to move the external air valve body in the direction of the closed position or to hold the external air valve body in the closed position against a force acting on the external air valve body in the direction of the flow position, wherein the force comprises a vacuum generated by the suction unit in particular and acting on the external air valve body in the direction of the flow position or is a vacuum force.
A floating device comprising: an elongated left hand side hull section and an elongated right hand side hull section, the left hand side hull section and the right hand side hull section being placed at a predetermined distance to each other and oriented substantially parallel; and, a left hand side foil and a right hand side foil protruding from the left hand side hull section and the right hand side hull section, respectively, towards each other and being oriented at an acute angle to a horizontal plane, a leading edge (110A, 110B) of each foil (108A, 108B) intersecting the respective hull section (102A, 102B) in proximity to a bow portion (104A, 104B) thereof, each foil (108A, 108B) extending along the respective hull section (102A, 102B) and terminating in proximity to a stern portion (106A, 106B) thereof; characterized in that each foil (108A, 108B) has a top surface with a front portion (114A, 114B) thereof being angled downward towards the leading edge (110A, 110B), for assisting wave penetration and dampening instabilities due to buoyancy change.. an elongated left hand side hull section and an elongated right hand side hull section, the left hand side hull section and the right hand side hull section being placed at a predetermined distance to each other and oriented substantially parallel; and, a left hand side foil and a right hand side foil protruding from the left hand side hull section and the right hand side hull section, respectively, towards each other and being oriented at an acute angle to a horizontal plane, a leading edge (110A, 110B) of each foil (108A, 108B) intersecting the respective hull section (102A, 102B) in proximity to a bow portion (104A, 104B) thereof, each foil (108A, 108B) extending along the respective hull section (102A, 102B) and terminating in proximity to a stern portion (106A, 106B) thereof; characterized in that each foil (108A, 108B) has a top surface with a front portion (114A, 114B) thereof being angled downward towards the leading edge (110A, 110B), for assisting wave penetration and dampening instabilities due to buoyancy change..
An article of footwear comprising: an upper having an outer surface; a sole structure; the upper also including a toe portion and an opening configured to receive a foot; a first direction extending from the toe portion towards the opening; a second direction extending from a vamp portion of the upper towards the sole structure; one group of gripping members disposed on the outer surface comprising a first ball control portion; a further group of elongate gripping members disposed on the outer surface comprising a second ball control portion; the one group of gripping members being approximately aligned along a medial side of the upper with the further group of gripping members with respect to the second direction; wherein the height of the first ball control portion varies along the first direction, and wherein a first gripping member of the one group of gripping members has a first height and a second gripping member of the one group of gripping members has a second height, wherein the first gripping member is disposed closer to the toe portion than the second gripping member, wherein the first height is less than the second height, and wherein a height of each remaining gripping member of the one group of gripping members continues to progressively increase as the distance from the tip of the toe portion increases. an upper having an outer surface; a sole structure; the upper also including a toe portion and an opening configured to receive a foot; a first direction extending from the toe portion towards the opening; a second direction extending from a vamp portion of the upper towards the sole structure; one group of gripping members disposed on the outer surface comprising a first ball control portion; a further group of elongate gripping members disposed on the outer surface comprising a second ball control portion; the one group of gripping members being approximately aligned along a medial side of the upper with the further group of gripping members with respect to the second direction; wherein the height of the first ball control portion varies along the first direction, and wherein a first gripping member of the one group of gripping members has a first height and a second gripping member of the one group of gripping members has a second height, wherein the first gripping member is disposed closer to the toe portion than the second gripping member, wherein the first height is less than the second height, and wherein a height of each remaining gripping member of the one group of gripping members continues to progressively increase as the distance from the tip of the toe portion increases.
A method of preparing a graft copolymer, comprising: 1) preparing a seed by adding one or more selected from the group consisting of an alkyl (meth)acrylate-based monomer, an aromatic vinyl-based monomer, and a vinyl cyan-based monomer and performing polymerization; 2) in the presence of the seed, preparing a core by adding an alkyl (meth)acrylate-based monomer and performing polymerization; and 3) in the presence of the core, preparing a shell by adding an aromatic vinyl-based monomer and a vinyl cyan-based monomer and performing polymerization, wherein the method further includes adding an alkyl acrylate-based polymer, wherein the alkyl acrylate-based polymer is added in one or more steps of step 1), step 2), step 3) or after step 3) but before a coagulation process. 1) preparing a seed by adding one or more selected from the group consisting of an alkyl (meth)acrylate-based monomer, an aromatic vinyl-based monomer, and a vinyl cyan-based monomer and performing polymerization; 2) in the presence of the seed, preparing a core by adding an alkyl (meth)acrylate-based monomer and performing polymerization; and 3) in the presence of the core, preparing a shell by adding an aromatic vinyl-based monomer and a vinyl cyan-based monomer and performing polymerization, wherein the method further includes adding an alkyl acrylate-based polymer, wherein the alkyl acrylate-based polymer is added in one or more steps of step 1), step 2), step 3) or after step 3) but before a coagulation process.
A lithium transition metal oxide powder having as the main component a lithium transition metal oxide particle having a layered structure represented by the general formula: Li 1+x M l1-x O 2 wherein M is the transition metal and x is from 0.01 to 0.20, and the lithium transition metal oxide contains the three elements Mn, Co and Ni as the transition metals, wherein the ratio of the crystallite diameter as determined by the measurement method 1 according to the Rietveld method carried out under the conditions shown in Table 2 with respect to the mean powder particle diameter as determined by a laser diffraction/scattering-type particle size distribution measurement method is 0.05 to 0.20, [Table 2] <Measurement Method 1 According to the Rietveld Method> Measurement Device X-ray Diffractometer using Cu-Kα beam Analysis Parameters Fundamental parameter Analysis Range Diffraction Angle 2θ=10-120° Analysis Software Topas Version3 Refinement Range Rwp<8.0, GOF<2.0 (Machine Specs, Conditions, etc.) Sample disp(mm) Refine Detector PSD Detector Type VANTEC-1 High Voltage 5616V Discr. Lower Level 0.35V Discr. Window Width 0.15V Grid Lower Level 0.075V Grid Window Width 0.524V Flood Field Correction Disabled Primary radius 250mm Secondary radius 250mm Receiving slit width 0.1436626mm Divergence angle 0.3° Filament Length 12mm Sample Length 25mm Receiving Slit Length 12mm Primary Sollers 2.623° Secondary Sollers 2.623° Lorentzian,1/Cos 0.01630098Th Det.1 voltage 760.00V Det.1 gain 80.000000 Det.1 discr.1 LL 0.690000 Det.1 discr.1 WW 1.078000 Scan Mode Continuous Scan Scan Type Locked Coupled Spinner Speed 15rpm Divergence Slit 0.300° Start 15.000000 Time per step 1s Increment 0.01460 #steps 7152 Generator voltage 35kV Generator current 40mA or, wherein the ratio of the crystallite diameter as determined by the Measurement Method 2 according to the Rietveld method carried out under the conditions shown in Table 3 with respect to the mean powder particle diameter as determined by a laser diffraction/scattering-type particle size distribution measurement method is 0.03 to 0.13, [Table 3] <Measurement Method 2 According to the Rietveld Method> Measurement Device X-ray Diffractomater using Cu-Kα beam Analysis Parameters Fundamental parameter Analysis Range Diffraction Angle 2θ=15-120° Analysis Software Topas Version3 Refinement Range Rwp<5.0, GOF<1.3 (Machine Specs, Conditions, etc.) Sample disp(mm) Refine Detector PSD Detector Type VANTEC-1 High Voltage 5616V Discr. Lower Level 0.45V Discr. Window Width 0.15V Grid Lower Level 0.075V Grid Window Width 0.524V Flood Field Correction Disabled Primary radius 250mm Secondary radius 250mm Receiving slit width 0.1436626mm Divergence angle 0.3° Filament Length 12mm Sample Length 25mm Receiving Slit Length 12mm Primary Sollers 2.623° Secondary Sollers 2.623° Lorentzian,1/Cos 0.01630098Th Det.1 voltage 760.00V Det.1 gain 80.000000 Det.1 discr.1 LL 0.690000 Det.1 discr.1 WW 1.078000 Scan Mode Continuous Scan Scan Type Locked Coupled Spinner Speed 15rpm Divergence Slit 0.300° Start 15.000000 Time per step 1s Increment 0.01460 #steps 7152 Generator voltage 35kV Generator current 40mA
A sunlight-based projector system for providing a direct light beam, comprising: a sunlight receiving unit with a collector system, a plurality of optical fibers, and a plurality of fiber output channels, wherein the collector system is configured for collecting natural outdoor light having a wavelength spectrum of sunlight, and for coupling the collected natural outdoor light into the plurality of optical fibers, wherein each of the plurality of optical fibers comprises a fiber output end, and each fiber output channel comprises at least one fiber output end from which divergent fiber output light having a wavelength spectrum of sunlight is emitted, a sunlight forming unit with a plurality of optical collimator units arranged in one- or two-dimensional array, wherein each optical collimator unit is associated with a respective fiber output channel to receive the respective fiber output light and comprises at least one optical collimator for reducing the angular distribution width of the received divergent fiber output light and output areas of the plurality of optical collimator units form essentially a continuously extending large light-emitting face of the sunlight forming unit for emitting an essentially collimated light beam. a sunlight receiving unit with a collector system, a plurality of optical fibers, and a plurality of fiber output channels, wherein the collector system is configured for collecting natural outdoor light having a wavelength spectrum of sunlight, and for coupling the collected natural outdoor light into the plurality of optical fibers, wherein each of the plurality of optical fibers comprises a fiber output end, and each fiber output channel comprises at least one fiber output end from which divergent fiber output light having a wavelength spectrum of sunlight is emitted, a sunlight forming unit with a plurality of optical collimator units arranged in one- or two-dimensional array, wherein each optical collimator unit is associated with a respective fiber output channel to receive the respective fiber output light and comprises at least one optical collimator for reducing the angular distribution width of the received divergent fiber output light and output areas of the plurality of optical collimator units form essentially a continuously extending large light-emitting face of the sunlight forming unit for emitting an essentially collimated light beam.