mhurhangee/ep-ind-claims huggingface dataset:
A polyethylene composition having the following features: 1) density from 0.948 to 0.952 g/cm 3, preferably 0.948 to 0.951 g/cm 3, determined according to ISO 1183-1 at 23°C; 2) ratio MIF/MIP from 12 to 25 in particular from 15 to 22, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 18 to 40 g/10 min., preferably from 20 to 40 g/10 min.; 4) Mz equal to or greater than 1,200,000 g/mol, in particular from 1,200,000 to 2,000,000 g/mol, where Mz is the z-average molecular weight, measured by GPC; 5) η 0.02 from 35,000 to 55,000 Pa.s, preferably from 38,000 to 55,000 Pa.s., more preferably from 40,000 to 50,000 Pa.s.;wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 6) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 7) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, from 55 to 75, preferably from 55 to 72. 1) density from 0.948 to 0.952 g/cm 3, preferably 0.948 to 0.951 g/cm 3, determined according to ISO 1183-1 at 23°C; 2) ratio MIF/MIP from 12 to 25 in particular from 15 to 22, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 18 to 40 g/10 min., preferably from 20 to 40 g/10 min.; 4) Mz equal to or greater than 1,200,000 g/mol, in particular from 1,200,000 to 2,000,000 g/mol, where Mz is the z-average molecular weight, measured by GPC; 5) η 0.02 from 35,000 to 55,000 Pa.s, preferably from 38,000 to 55,000 Pa.s., more preferably from 40,000 to 50,000 Pa.s.;wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 6) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 7) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, from 55 to 75, preferably from 55 to 72.
A light barrier comprising at least one light transmitter for transmitting light into a monitored zone; at least one light receiver for receiving light from the monitored zone; and at least one beam-shaping element which is associated with the light receiver and which is configured to bundle light from the monitored zone onto the light receiver, characterized in that the beam-shaping element has at least one first beam-shaping structure (30, 32) which is configured to at least partly reflect light entering into the first beam-shaping structure (30, 32) once or a plurality of times at a respective inner boundary surface of the first beam-shaping structure (30, 32) in dependence on the entry angle of said light such that the exit angle of the light exiting the first beam-shaping structure (30, 32) differs from the entry angle; in that at least one further beam-shaping element associated with the light transmitter is provided and is configured, at least with regard to the beam-shaping structures (30 - 36), identically to the beam-shaping element associated with the light receiver; in that at least one of the beam-shaping elements has a central region which surrounds an optical axis or an optical plane of the beam-shaping element, which does not have any of the named beam-shaping structures (30 - 36) and is planar at at least one side; and in that the central region of the beam-shaping element associated with the light receiver is impermeable to light.
A method of manufacturing a printed circuit board for an electronic chip card module comprising - the production of a complex comprising a first and a second layer of electrically conductive material, integral with an insulating substrate and insulating them from each other, and further comprising at least one connection hole extending into the insulating substrate between a bottom at least partially closed by the first layer of conductive material and an opening opening onto one face of the insulating substrate, and - photolithographing and etching patterns on the second layer of electrically conductive material, characterized in that it further comprises an operation of protecting the connection hole with a soluble material (32ii, 34ii), carried out prior to a step of simultaneous etching of patterns on the first and second layers of electrically conductive material and by the fact that the etching of the patterns on the second layer of electrically conductive material is carried out after an etching step which has left an area of at least ten micrometres around the connection hole free of the electrically conductive material of the second layer of electrically conductive material. - the production of a complex comprising a first and a second layer of electrically conductive material, integral with an insulating substrate and insulating them from each other, and further comprising at least one connection hole extending into the insulating substrate between a bottom at least partially closed by the first layer of conductive material and an opening opening onto one face of the insulating substrate, and - photolithographing and etching patterns on the second layer of electrically conductive material,
A measuring assembly comprising: a sensor for fastening to a face of a subject to acquire a signal indicative of one or more patient physiological parameter, a sensor holder for placing said sensor and having at least one fixing point, and at least one ribbon being stretching for fastening said at least one fixing point of said sensor holder to an ear of the subject, wherein the measuring assembly also comprises a sticker to glue said sensor holder on a skin of the subject below a nose but above the subject's upper lip or mouth and said sensor comprises at least one detector (4; 102,104) for acquiring a signal indicative of a breathing function, characterized in that said sensor holder also comprises: a first cavity (18;118) with a first port (17; 117) allowing a respiration gas flow, and a second cavity (22; 122) with a second port (21;121) also allowing a respiration gas flow; at least one additional port for removing the respiration gas flow coming from said first cavity and said second cavity, said additional port being separate from said first port and said second port, said additional port being equipped with said detector; and a flow guide configured to direct the gas flow from either of the cavities (18, 22) towards an opening of the additional port, and to prevent the respiration gas to flow between the cavities (18, 22). a sensor for fastening to a face of a subject to acquire a signal indicative of one or more patient physiological parameter, a sensor holder for placing said sensor and having at least one fixing point, and at least one ribbon being stretching for fastening said at least one fixing point of said sensor holder to an ear of the subject, a first cavity (18;118) with a first port (17; 117) allowing a respiration gas flow, and a second cavity (22; 122) with a second port (21;121) also allowing a respiration gas flow; at least one additional port for removing the respiration gas flow coming from said first cavity and said second cavity, said additional port being separate from said first port and said second port, said additional port being equipped with said detector; and a flow guide configured to direct the gas flow from either of the cavities (18, 22) towards an opening of the additional port, and to prevent the respiration gas to flow between the cavities (18, 22).
A gripping device having at least two gripping elements (1, 2), which can be moved towards or away from one another and are arranged on carriages (31, 32) or gripping-element supports (41, 42), in the drivetrain or mounting of which gripping elements at least one shaft or spindle (45, 46) is located, the rotational or pivot movement of which is permanently coupled with the movement of the gripping elements (1, 2), wherein a shaft or spindle (45, 46) ends in the housing of the gripping device with a component end (47, 97), which carries either a magnetic field generator (131, 132) or a magnetic field sensor for detection of the angle of rotation, whilst in the housing opposite the component end (47, 97) either a magnetic field sensor is arranged opposite a component-end-side magnetic field generator (131, 132) or a magnetic field generator (131, 132) is arranged opposite a component-end-side magnetic field sensor.
A lime kiln comprising: a first and a second upper shaft; a first and a second lower shaft; said upper shafts (10, 12) being connected respectively to said lower shafts (11, 13); said upper shafts (10, 12) each having a lower ring and said lower shafts (11, 13) each having an upper ring; said lower shafts (11, 13) have a dimension greater than that of said upper shaft (10, 12); characterised in that said lower ring and said upper ring are connected together by a horizontal structure, and in that said upper shafts (10, 12) do not extend into the interior of said lower shafts (11, 13); the gases generated by combustion passing from said first shafts (10, 11) to said second shafts (12, 13) through a circular crown formed within the area in which said lower ring joins said upper ring and defined by the rest angle of the material introduced; said kiln comprises a plurality of horizontally aligned refractory bricks (21, 22) alternately comprising square or rectangular based elements of truncated pyramid shape and elements of parallelepiped shape; and a plurality of vertically aligned refractory elements, each of said plurality of refractory elements comprising a coupling element in proximity to an end thereof, said kiln comprising a metal corner structure including a guide positioned in a vertical plane to cooperate with said coupling element; said metal corner structure comprises a plurality of communicating chambers connected to inlet and outlet conduits to enable an aeriform to transfer between said plurality of communicating chambers.
A computer tomography scanner, comprising: a radiation source configured to emit x-ray radiation; a detector array configured to detect x-ray radiation and generate a signal indicative thereof; a reconstructor configured to reconstruct the signal and generate sequential sparse time line perfusion volumetric image data; and a processor configured to process the sequential sparse time line perfusion volumetric image data using a trained neural network of a perfusion data enhancing module to produce sequential dense time line perfusion volumetric image data and one or more perfusion parameters, where the neural network was being trained with training sets of sequential sparse time line perfusion volumetric image data, corresponding training sets of sequential dense time line perfusion volumetric image data, and training sets of one or more perfusion parameters generated from the training sets of sequential dense time line perfusion volumetric image data. a radiation source configured to emit x-ray radiation; a detector array configured to detect x-ray radiation and generate a signal indicative thereof; a reconstructor configured to reconstruct the signal and generate sequential sparse time line perfusion volumetric image data; and a processor configured to process the sequential sparse time line perfusion volumetric image data using a trained neural network of a perfusion data enhancing module to produce sequential dense time line perfusion volumetric image data and one or more perfusion parameters, where the neural network was being trained with training sets of sequential sparse time line perfusion volumetric image data, corresponding training sets of sequential dense time line perfusion volumetric image data, and training sets of one or more perfusion parameters generated from the training sets of sequential dense time line perfusion volumetric image data.
An upper vehicle-body structure, comprising: front pillar portions each having a closed cross-section structure, the front pillar portions configured to be located on both of left and right sides of a front windshield in a vehicle width direction; and hinge pillar portions each having a closed cross-section structure, the hinge pillar portions extending downward from front end portions of the front pillar portions and being configured to support door hinge members, wherein a reinforcement portion at least provided at a position where a curvature of an edge on a door opening portion side in a bent portion between the front pillar portion and the hinge pillar portion is maximum, the reinforcement portion is a plate-like member, an area of a cross section orthogonal to a longitudinal direction of each of the front pillar portions is smaller than an area of a cross section orthogonal to a longitudinal direction of each of the hinge pillar portions, and the plate-like member has a bead portion formed substantially orthogonal to a longitudinal direction of the closed cross-section portion in which the plate-like member is provided, characterized in that the bead portion is formed in a front-high rear-low shape in which a vehicle front side thereof is high and a vehicle rear side thereof is low. front pillar portions each having a closed cross-section structure, the front pillar portions configured to be located on both of left and right sides of a front windshield in a vehicle width direction; and hinge pillar portions each having a closed cross-section structure, the hinge pillar portions extending downward from front end portions of the front pillar portions and being configured to support door hinge members, wherein a reinforcement portion at least provided at a position where a curvature of an edge on a door opening portion side in a bent portion between the front pillar portion and the hinge pillar portion is maximum, the reinforcement portion is a plate-like member, an area of a cross section orthogonal to a longitudinal direction of each of the front pillar portions is smaller than an area of a cross section orthogonal to a longitudinal direction of each of the hinge pillar portions, and the plate-like member has a bead portion formed substantially orthogonal to a longitudinal direction of the closed cross-section portion in which the plate-like member is provided, characterized in that the bead portion is formed in a front-high rear-low shape in which a vehicle front side thereof is high and a vehicle rear side thereof is low.
A method performed by a connection manager, wherein the connection manager together with a radio node serving a UE forms a communication network, the method comprising: • receiving a power management policy from a third party entity for setting power management parameters according to status information of the UE, wherein the third party entity is separate from the UE and the communication network (step 405), wherein the power management policy contains a lookup table, wherein the lookup table has a plurality of entries, each entry having specific power management parameters corresponding to a specific value of the status information or range of status information, • receiving a notification containing the status information of the UE from the radio node (step 414), • determining, based on the received status information of the UE and based on the lookup table, the power management parameters corresponding to the received status information, • determining, among multiple UE groups, an UE group corresponding to the determined power management parameters, wherein each UE group of the multiple UE groups corresponds to different power management parameters, and • transmitting a power management instruction comprising the determined power management parameters and comprising an UE grouping message to be used by the radio node for assigning the UE to the determined UE group to the radio node, wherein the power management instruction is further used to instruct the UE to modify power management parameters stored in the UE according to the determined power management parameters (step 432). • receiving a power management policy from a third party entity for setting power management parameters according to status information of the UE, wherein the third party entity is separate from the UE and the communication network (step 405), wherein the power management policy contains a lookup table, wherein the lookup table has a plurality of entries, each entry having specific power management parameters corresponding to a specific value of the status information or range of status information, • receiving a notification containing the status information of the UE from the radio node (step 414), • determining, based on the received status information of the UE and based on the lookup table, the power management parameters corresponding to the received status information, • determining, among multiple UE groups, an UE group corresponding to the determined power management parameters, wherein each UE group of the multiple UE groups corresponds to different power management parameters, and • transmitting a power management instruction comprising the determined power management parameters and comprising an UE grouping message to be used by the radio node for assigning the UE to the determined UE group to the radio node, wherein the power management instruction is further used to instruct the UE to modify power management parameters stored in the UE according to the determined power management parameters (step 432).
Double-clip electrical interconnection clamp comprising: - a plurality of relatively rigid electroconductive plates aligned along two parallel stacks; - a supporting structure (53, 54, 55) of said parallel stacks of plates; - mechanical coupling elements (53, 57) with play adapted to pivot the plates to the supporting structure (53, 54, 55), so that such plates can rotate and translate with respect to the supporting structure, said mechanical coupling elements with play comprising a pair of pins provided in said supporting structure and a plurality of slotted holes each defined in a respective plate, each of said pins being associated with a respective stack of plates and crossing slotted holes of the associated stack of plates; characterized in that in each of said stacks said double-clip electrical interconnection clamp comprises a plurality of elastic elements constrained to said supporting structure (53, 54, 55) and each associated with a respective plate, wherein said elastic elements are rotatably hinged to said pins of the supporting structure (53, 54, 55). - a plurality of relatively rigid electroconductive plates aligned along two parallel stacks; - a supporting structure (53, 54, 55) of said parallel stacks of plates; - mechanical coupling elements (53, 57) with play adapted to pivot the plates to the supporting structure (53, 54, 55), so that such plates can rotate and translate with respect to the supporting structure, said mechanical coupling elements with play comprising a pair of pins provided in said supporting structure and a plurality of slotted holes each defined in a respective plate, each of said pins being associated with a respective stack of plates and crossing slotted holes of the associated stack of plates;
A press for the dry production of ceramic products starting from a mass of powder ceramic material to be compacted, comprising: - at least one first pressing plane surface and one second pressing plane surface, said first pressing plane surface and said second pressing plane surface being arranged parallel to each other and being mutually movable away from and towards the other; - feeding means provided to feed said mass of powder ceramic material to be compacted, said feeding means being positioned on said first pressing plane surface, so that said mass of powder ceramic material to be compacted is delimited between said first pressing plane surface and said second pressing plane surface; wherein at least one from between said first pressing plane surface and said second pressing plane surface comprises: - a first face facing towards said mass of powder ceramic material; - a second face, connectable with suitable suction means; and - a manifold circuit for gas, obtained between said first face and said second face, said first face being made of compact material impermeable to gas, said feeding means comprising at least one conveyor belt made of material permeable to gas, characterized in that said at least one conveyor belt is perforated or micro-perforated so as to be permeable to gas, but impermeable to the powders of materials to be pressed, and in that said at least one conveyor belt comprises a percentage or density of the perforations or micro-perforations, i.e. the number of holes or micro-holes per unit of surface area that varies in passing from the center or center line or longitudinal symmetry axis (x-x) of the belt to the sides (S 1,S2) thereof. - at least one first pressing plane surface and one second pressing plane surface, said first pressing plane surface and said second pressing plane surface being arranged parallel to each other and being mutually movable away from and towards the other; - feeding means provided to feed said mass of powder ceramic material to be compacted, said feeding means being positioned on said first pressing plane surface, so that said mass of powder ceramic material to be compacted is delimited between said first pressing plane surface and said second pressing plane surface; - a first face facing towards said mass of powder ceramic material; - a second face, connectable with suitable suction means; and - a manifold circuit for gas, obtained between said first face and said second face,
Binder mixture, containing: - 1.5 to 15.0 wt.% Portland cement, - 20 to 97.2 wt.% granulated slag, - 0.1 to 5 wt.% calcium formate, - 0.1 to 5 wt.% calcium hydroxide, and - 0.1 to 5 wt.% a starter mixture made of amorphous, anhydrous calcium aluminate, the oxidic composition of which consists of calcium oxide, aluminium oxide and sulphur trioxide, wherein the constituents calcium formate, starter mixture and calcium hydroxide are contained in a mass ratio relative to one another, in which ratio none of the three constituents is contained in an amount that is more than three times that of one of the other two constituents. - 1.5 to 15.0 wt.% Portland cement, - 20 to 97.2 wt.% granulated slag, - 0.1 to 5 wt.% calcium formate, - 0.1 to 5 wt.% calcium hydroxide, and - 0.1 to 5 wt.% a starter mixture made of amorphous, anhydrous calcium aluminate, the oxidic composition of which consists of calcium oxide, aluminium oxide and sulphur trioxide,
Process for producing a ceramic filter element in an exhaust gas filter for internal combustion engines, in which first a combustible, non-ceramic carrier web (1, 2) is impregnated with a ceramic slurry and then burnt out in the desired geometric form until the carrier web (1, 2) is burnt and a rigid filter body is formed, characterized in that the carrier web (1, 2) prior to impregnation is brought into the desired shape with the ceramic slurry, which shape is maintained during impregnation and subsequent burning.