mhurhangee/ep-ind-claims huggingface dataset:
A weighing device (1, 101, 201) comprising a weighing unit (2, 102, 202), a control unit and at least one secondary unit (4, 104, 204), said weighing unit (2, 102, 202) comprising a load receiver (6, 106, 206) and a power transmitting unit, said secondary unit (4, 104, 204) comprising an application unit (10, 110, 210) and a receiving unit, the receiving unit comprising a data receiving unit and a power receiving unit (32, 132, 232), said control unit (42, 142, 242) comprising a data transmitting unit (26, 126, 226) wherein said secondary unit (4, 104, 204) is placed on the load receiver (6, 106, 206) of said weighing unit (2, 102, 202), wherein a power signal to power said application unit (10, 110, 210) is transmitted from the power transmitting unit to the power receiving unit (32, 132, 232) of the secondary unit (4, 104, 204) contactless and a control signal to control said application unit (10, 110, 210) of said secondary unit (4, 104, 204) is transmitted from the data transmitting unit (26, 126, 226) of the control unit (42, 142, 242) to the data receiving unit of the secondary unit (4, 104, 204) contactless and said power transmitting unit comprises of at least one sending coil (16, 116, 126), said sending coil (16, 116, 126) is placed towards a top side (20, 120, 220) of the weighing unit (2, 102, 202) facing a bottom side (22, 122, 222) of said secondary unit (4, 104, 204) and said receiving unit further comprises a power receiving unit, said power receiving unit (32, 132, 232) comprises at least one receiving coil that is placed towards the bottom side (22, 122, 222) of said secondary unit (4, 104, 204) and the top side (20, 120, 220) of weighing unit (2, 102, 202) and the bottom side (22, 122, 222) of the secondary unit (4, 104, 204) carrying the sending coil (16, 116, 126) and the receiving coil (18, 118, 128) facing each other when the secondary unit (4, 104, 204) is placed on the load receiver (6, 106, 206), and in turn the sending coil (16, 116, 126) and the receiving coil (18, 118, 128) facing each other are configured so that the sending coil (16, 116, 126) when connected to a standard power source is able to transmit power by electromagnetic fields to the receiving coil (18, 118, 128), where the power can be converted back into electric power.
An apparatus for heating parisons, in particular in thermoplastic material, said apparatus comprising: - at least a first path and a second path for advancing the parisons which are distinct and having a partially curvilinear shape, said first path being internal and substantially parallel to said second path; - gripping members (4a, 4b) of the parisons configured to grasp and support the parisons during their advancement along the first path and second path; - transfer devices of the parisons from the first path to the second path; - heating means of the parisons, extending at least along a section interposed between the first path and the second path for advancing the parisons. - at least a first path and a second path for advancing the parisons which are distinct and having a partially curvilinear shape, said first path being internal and substantially parallel to said second path; - gripping members (4a, 4b) of the parisons configured to grasp and support the parisons during their advancement along the first path and second path; - transfer devices of the parisons from the first path to the second path; - heating means of the parisons, extending at least along a section interposed between the first path and the second path for advancing the parisons.
A method for producing connected heat exchanger elements (1, 2, 4, 5), with a first heat exchanger element (1, 4) and with a second heat exchanger element (2, 5), wherein the two heat exchanger elements can be connected to one another at respective contact surfaces, wherein a flat adhesive layer (3, 6) which is about 10 μm to 500 μm thick is applied to the contact surface of one of the heat exchanger elements (1, 2, 4, 5) and the two heat exchanger elements (1, 2, 4, 5) which are to be connected are joined together at the contact surfaces with the adhesive layer in between, characterised in that the adhesive is applied as a film material between the heat exchanger elements (1, 2, 4, 5) which are to be connected.
Method for producing a secondary miniature battery with a capacity < 1000 mAh, having the following features: a. the battery comprises a metal casing composed of two metallic casing parts (101; 102), b. the metal casing has a prismatic construction, and c. disposed between the two metallic casing parts (101; 102) in a sealing region is an all-round seal which isolates the casing parts (101; 102) electrically from one another, where d. to form the seal, a hot-melt adhesive is melted, and the hot-melt adhesive is subjected to a cooling operation in which it cools to form a cohesive bond to the casing parts (101; 102), and e. to melt the hot-melt adhesive, the metal casing is heated inductively, characterized in that f. to form the seal, the hot-melt adhesive in a first step is contacted with an area of one of the two casing parts that borders the sealing region after the end of the method, is melted and is subjected to a cooling operation in which it cools to form a cohesive bond to the casing part; g. in a second step, the casing is assembled from the casing part with the cooled hot-melt adhesive and the other of the two casing parts; h. in a third step, the hot-melt adhesive is melted a second time and subjected to a cooling operation, this time to form a cohesive bond to the other of the two casing parts. a. the battery comprises a metal casing composed of two metallic casing parts (101; 102), b. the metal casing has a prismatic construction, and c. disposed between the two metallic casing parts (101; 102) in a sealing region is an all-round seal which isolates the casing parts (101; 102) electrically from one another, where d. to form the seal, a hot-melt adhesive is melted, and the hot-melt adhesive is subjected to a cooling operation in which it cools to form a cohesive bond to the casing parts (101; 102), and e. to melt the hot-melt adhesive, the metal casing is heated inductively, characterized in that f. to form the seal, the hot-melt adhesive in a first step is contacted with an area of one of the two casing parts that borders the sealing region after the end of the method, is melted and is subjected to a cooling operation in which it cools to form a cohesive bond to the casing part; g. in a second step, the casing is assembled from the casing part with the cooled hot-melt adhesive and the other of the two casing parts; h. in a third step, the hot-melt adhesive is melted a second time and subjected to a cooling operation, this time to form a cohesive bond to the other of the two casing parts.
High-frequency-weldable, at least three-layer resilient, thermoplastic film, characterized in that it has at least one layer made of thermoplastic polyurethane and at least one further layer made of thermoplastic styrene-(random styrene-butadiene)-styrene copolymer and, arranged between the layers and, at least one intermediate layer made of a mixture of thermoplastic polyurethane and styrene-(random styrene-butadiene)-styrene copolymer.
A heat exchanger, comprising a plurality of fins for expanding an area for heat exchange and a heat transfer tube, in which high ridges formed with a predetermined height in ten to twenty rows are disposed on an inner face of said tube so that intervals of said high ridges are same and low ridges formed side by side with a height lower than said high ridges in two to six rows between said high ridge and said high ridge are provided on said inner face of the tube, spirally with respect to a tube axial direction, wherein the plurality of fins are joined by pressurizing and performing tube expansion from an inner face side of said heat transfer tube, and wherein an outer surface of said heat transfer tube after expansion is a polygon and heights of said high ridges are 0.10 to 0.26 mm.
A method of detecting a prostate cancer in a subject, the method comprising detecting a marker selected from an endosomal associated marker and/or a lysosomal associated marker from the subject, thereby detecting a prostate cancer in the subject, wherein: the method comprises detecting two or more selected markers, and determining the ratio of the level of one selected marker to another selected marker; wherein an increased ratio of an early endosomal marker to a late endosomal marker as compared to non-malignant tissue is indicative of a prostate cancer in the subject; and wherein the early endosomal marker is APPL1.
Console for a motor vehicle intended to be mounted slidingly on the floor of the said vehicle along its longitudinal median axis, comprising: - a first box comprising an internal structure; - a second box pivotally mounted on said internal structure about a first transverse articulation axis and defining at least one vertical lateral housing (217, 218); and a second box pivotally mounted on said internal structure about a second transverse articulation axis and defining at least one vertical lateral housing (217, 218). - at least one tray (221, 222) movably mounted on said second box; said console being able to pass: - a retracted configuration in which said second box occupies a folded position in which it extends in the rear extension of said first box, while said at least one tray (221, 222) occupies a stowed position in which it is received in a corresponding said vertical lateral housing (217, 218); - to a service configuration in which said second carcase has been pivoted upwardly into a raised position extending above and behind said first carcase, while said at least one top (221, 222) extends horizontally so as to form a table; characterised in that said first box comprises, for each said tray, a retaining finger taking root on the upper part of said internal structure pointing downwards and being arranged to be introduced, when said second box is pivoted down while said tray is in said stowed position, into a respective orifice provided on said tray. - a first box comprising an internal structure; - a second box pivotally mounted on said internal structure about a first transverse articulation axis and defining at least one vertical lateral housing (217, 218); and a second box pivotally mounted on said internal structure about a second transverse articulation axis and defining at least one vertical lateral housing (217, 218). - at least one tray (221, 222) movably mounted on said second box; - a retracted configuration in which said second box occupies a folded position in which it extends in the rear extension of said first box, while said at least one tray (221, 222) occupies a stowed position in which it is received in a corresponding said vertical lateral housing (217, 218); - to a service configuration in which said second carcase has been pivoted upwardly into a raised position extending above and behind said first carcase, while said at least one top (221, 222) extends horizontally so as to form a table;
Dance shoe comprising a sole having an inner side and an outer side and extending in a longitudinal direction from a rear end to a front end, and an upper shoe having a foot section, wherein the outer side of the sole comprises a plurality of incisions (17a-g), the foot section has at least one recess on its underside, through which elongated connecting elements (26a-f) extend which, when the dance shoe is worn, are received at least in sections in incisions (17a-f) in the outer side of the sole, characterised in that the dance shoe further comprises a cap connected to the sole, the cap being permanently connected to the sole so that the cap and sole form a sole-cap-unit. the outer side of the sole comprises a plurality of incisions (17a-g), the foot section has at least one recess on its underside, through which elongated connecting elements (26a-f) extend which, when the dance shoe is worn, are received at least in sections in incisions (17a-f) in the outer side of the sole, characterised in that the dance shoe further comprises a cap connected to the sole, the cap being permanently connected to the sole so that the cap and sole form a sole-cap-unit.
A method of automatically determining garment sizing and positions for one or more biosensors on the garment from a video of a subject, the method comprising: determining the subject's interocular distance from a frontal image of the subject in the video; determining a scaling factor from the subject's interocular distance; using the scaling factor and a plurality of images of the subject's torso from the video taken at different angles to determine measurements for the subject's torso; and providing measurements for a compression garment to be worn by the subject using the measurements of the subject's torso, and indicating the locations for one or more biosensor to be integrated into the compression garment. determining the subject's interocular distance from a frontal image of the subject in the video; determining a scaling factor from the subject's interocular distance; using the scaling factor and a plurality of images of the subject's torso from the video taken at different angles to determine measurements for the subject's torso; and providing measurements for a compression garment to be worn by the subject using the measurements of the subject's torso, and indicating the locations for one or more biosensor to be integrated into the compression garment.
A transdermal preparation having a backing and an adhesive layer, in which the adhesive layer consists of multiple layers, wherein the adhesive layer comprises a drug reservoir layer and a skin adhesion layer, and said drug reservoir layer comprises bisoprolol as a basic drug at 30-60 mass% and a water-soluble polymer, wherein the weight ratio of the drug to the water-soluble polymer in the drug reservoir layer is from 15:85 to 70:30.
A control device for vehicle, the vehicle having: a motor (MG1, MG2) with a rotary shaft (41, 42) connected to a drive shaft of the vehicle, a rotational position detector (97, 98) to detect a rotational position of the rotary shaft (41, 42) of the motor (MG1, MG2), and a battery, wherein the control device comprises a configuration to perform a procedure for obtaining an offset amount in response to a request for obtaining the offset amount, the offset amount being a difference between a detected rotational position of the rotary shaft (41, 42) with the rotational position detector (97, 98) and an actual rotational position of the rotary shaft (41, 42), store the obtained offset amount, and keep the stored offset amount without relying on electric power supplied from the battery, characterized in that the control device is configured to find an occurrence of the request for obtaining the offset amount upon the battery being dismounted from the vehicle. a motor (MG1, MG2) with a rotary shaft (41, 42) connected to a drive shaft of the vehicle, a rotational position detector (97, 98) to detect a rotational position of the rotary shaft (41, 42) of the motor (MG1, MG2), and a battery, wherein the control device comprises a configuration to perform a procedure for obtaining an offset amount in response to a request for obtaining the offset amount, the offset amount being a difference between a detected rotational position of the rotary shaft (41, 42) with the rotational position detector (97, 98) and an actual rotational position of the rotary shaft (41, 42), store the obtained offset amount, and keep the stored offset amount without relying on electric power supplied from the battery, characterized in that the control device is configured to find an occurrence of the request for obtaining the offset amount upon the battery being dismounted from the vehicle.
A polypropylene composition comprising: a first polypropylene homopolymer or random copolymer having a comonomer content from 0 to lower than the comonomer content of the second polypropylene, a second polypropylene which is a random copolymer of propylene and of the comonomer; wherein: - said polypropylene composition has a total comonomer content ranging from 0.25 and 4.5 wt% based on the total weight of said polypropylene composition, - said comonomer is an alpha-olefin different from propylene, - the melting temperature, measured by DSC based on ISO 3146, of the polypropylene composition (T m) is defined as T m PPR > 165 − 6.9 * total comonomer content − 8.4 * comonomer content of the first polypropylene, - the difference between the melting temperature and the crystallization temperature, both measured by DSC, of the polypropylene composition ranges from 27 and 33, - a xylene soluble fraction of not more than 1.5 wt. %, and, - said polypropylene composition has a melt flow index ranging from 20 to 200 g/10 min, preferably from 20 to 100 g/10 min, more preferably from 20 to 50 g/10 min; more preferably from 20 to 40 g/10 min; the values of melt flow index being measured according to ISO 1133 at 230°C, under a 2.16 kg load. a first polypropylene homopolymer or random copolymer having a comonomer content from 0 to lower than the comonomer content of the second polypropylene, a second polypropylene which is a random copolymer of propylene and of the comonomer; - said polypropylene composition has a total comonomer content ranging from 0.25 and 4.5 wt% based on the total weight of said polypropylene composition, - said comonomer is an alpha-olefin different from propylene, - the melting temperature, measured by DSC based on ISO 3146, of the polypropylene composition (T m) is defined as T m PPR > 165 − 6.9 * total comonomer content − 8.4 * comonomer content of the first polypropylene, - the difference between the melting temperature and the crystallization temperature, both measured by DSC, of the polypropylene composition ranges from 27 and 33, - a xylene soluble fraction of not more than 1.5 wt. %, and, - said polypropylene composition has a melt flow index ranging from 20 to 200 g/10 min, preferably from 20 to 100 g/10 min, more preferably from 20 to 50 g/10 min; more preferably from 20 to 40 g/10 min; the values of melt flow index being measured according to ISO 1133 at 230°C, under a 2.16 kg load.
Method for grinding the toothing of a gear, wherein the gear has an axis of rotation (a), wherein the grinding being carried out by bringing a grinding tool into engagement with the toothing and grinding off an allowance on the tooth flanks of the toothing, wherein a nominal value for the width of teeth and/or for the spherical measure is predetermined for the toothing, wherein a tolerance band (OTBG, UTBG) is predetermined for the nominal value, the observance of which still leads to good parts, wherein the method comprises the steps of: a) Measuring the position of the surface of the tooth flanks of the not yet ground gear at at least two axial positions (P1, P2) of the gear offset in the direction of the axis of rotation (a); b) Determining the actual present allowance of the gear which is not yet ground on the basis of the measured values determined in step a); and c) Grinding of the toothing by radial infeed of the grinding tool relative to the toothing, characterized in that c1) the radial infeed of the grinding tool relative to the toothing corresponds to the nominal value of the width of teeth and/or of the spherical measure, if the determination according to step b) has shown that such an allowance is present on all tooth flanks that material removal occurs on all tooth flanks, or c2) the radial infeed of the grinding tool relative to the toothing is effected to a higher value than corresponds to the nominal value of the width of teeth and/or of the spherical measure, wherein the higher value still corresponding to the tolerance band (UTBG) for the width of teeth and/or for the spherical measure, if the determination according to step b) has shown that only with increased radial infeed on all tooth flanks is there such an allowance that material removal occurs on all tooth flanks. a) Measuring the position of the surface of the tooth flanks of the not yet ground gear at at least two axial positions (P1, P2) of the gear offset in the direction of the axis of rotation (a); b) Determining the actual present allowance of the gear which is not yet ground on the basis of the measured values determined in step a); and c) Grinding of the toothing by radial infeed of the grinding tool relative to the toothing, c1) the radial infeed of the grinding tool relative to the toothing corresponds to the nominal value of the width of teeth and/or of the spherical measure, if the determination according to step b) has shown that such an allowance is present on all tooth flanks that material removal occurs on all tooth flanks, or c2) the radial infeed of the grinding tool relative to the toothing is effected to a higher value than corresponds to the nominal value of the width of teeth and/or of the spherical measure, wherein the higher value still corresponding to the tolerance band (UTBG) for the width of teeth and/or for the spherical measure, if the determination according to step b) has shown that only with increased radial infeed on all tooth flanks is there such an allowance that material removal occurs on all tooth flanks.
A method of calibrating a volume of a structure comprising: securing a first end of a tether to a device at a fixed location on an external surface of the structure; attaching an unmanned aerial vehicle to the second end of the tether; moving the unmanned aerial vehicle in a trajectory around the structure while the tether is extended and in tension; scanning the external surface of the structure over a course of the trajectory using the unmanned aerial vehicle to obtain a mapping of the external surface of the structure; determining a position of the unmanned aerial vehicle with respect to the fixed device; and calibrating the volume of the structure based on i) the determined position of the unmanned aerial vehicle with respect to the fixed device, and ii) the mapping of external surface of the structure. securing a first end of a tether to a device at a fixed location on an external surface of the structure; attaching an unmanned aerial vehicle to the second end of the tether; moving the unmanned aerial vehicle in a trajectory around the structure while the tether is extended and in tension; scanning the external surface of the structure over a course of the trajectory using the unmanned aerial vehicle to obtain a mapping of the external surface of the structure; determining a position of the unmanned aerial vehicle with respect to the fixed device; and calibrating the volume of the structure based on i) the determined position of the unmanned aerial vehicle with respect to the fixed device, and ii) the mapping of external surface of the structure.