mhurhangee/ep-ind-claims huggingface dataset:
A closure for attachment to an opening of a container, the closure comprising an engine having a first track and a shroud having a second track, wherein the shroud and engine are adapted to engage, wherein the shroud can go from a first position to a second position in a motion in which the first track moves with respect to the second track in a rotational or linear fashion; wherein the engine comprises a first protrusion protruding from the first track with a first protrusion contour profile along the first track; wherein the shroud comprises a second protrusion protruding from the second track with a second protrusion contour profile along the second track; wherein movement of the shroud between the first position and the second position causes an interaction between the first protrusion and the second protrusion; wherein the first protrusion contour profile is asymmetrical or the second protrusion contour profile is asymmetrical, or both are asymmetrical; and wherein in the first position the closure is closed and neither gas nor liquid can pass through the closure; characterized in that in the second position a path in the closure is provided for gas, or gas and liquid, to pass between an interior and an outside via the closure. wherein the shroud and engine are adapted to engage, wherein the shroud can go from a first position to a second position in a motion in which the first track moves with respect to the second track in a rotational or linear fashion; wherein the engine comprises a first protrusion protruding from the first track with a first protrusion contour profile along the first track; wherein the shroud comprises a second protrusion protruding from the second track with a second protrusion contour profile along the second track; wherein movement of the shroud between the first position and the second position causes an interaction between the first protrusion and the second protrusion; wherein the first protrusion contour profile is asymmetrical or the second protrusion contour profile is asymmetrical, or both are asymmetrical; and wherein in the first position the closure is closed and neither gas nor liquid can pass through the closure; characterized in that in the second position a path in the closure is provided for gas, or gas and liquid, to pass between an interior and an outside via the closure.
A foldable bicycle ( 100, 200) having a riding configuration and a folded configuration, which bicycle ( 100, 200) comprises a first wheel ( 102, 202) and a second wheel ( 104, 204) interconnected by a frame, wherein at least the first wheel ( 102, 202) is spokeless with an open centre of internal diameter D and comprises an annular rotor engageable with the ground in the riding configuration of the bicycle ( 100, 200) and an annular stator carrying the annular rotor, and wherein the frame has a pivotal connection with the stator of the first wheel ( 102, 202), whereby the frame is pivotable relative to the first wheel ( 102, 202) for folding the bicycle ( 100, 200), characterised in that the frame and the second wheel ( 104, 204) connected thereto have a combined length L that is smaller than the internal diameter D, whereby in the folded configuration of the bicycle ( 100, 200) the frame and the second wheel ( 104, 204) together fit within the open centre of the first wheel ( 102, 202).
A device for the mounting and single-axis sun position tracking of multiple tracking units arranged in succession for solar panels having drive units for this sun position tracking, wherein each tracking unit has a supporting framework for two solar panel assemblies arranged adjacent to one another, each having multiple solar panels, which are installed on panel carriers, an associated carrier shaft and a drive unit in each case, wherein each main carrier shaft is connected at the ends to a main carrier receptacle having a rotating shaft, wherein the main carrier shafts and main carrier receptacles arranged in series form an axis of rotation of the device, wherein at least one drive unit is provided, which is coupled to the two main carrier receptacles located directly adjacent to one another, and therefore a drive unit communicates with two main carrier shafts in each case and causes the tracking of both solar panel assemblies from east to west and back by extending or retracting a telescopic arm, and wherein adjacent main carrier receptacles are each supported via a holding part on a common ram profile and the drive unit is connected to the ram profile and the two holding parts, characterised in that the main carrier receptacle is provided with bolts, which are mounted with play in recesses of opposing side walls of a bearing shaft support connected to the ram profile, such that the adjacent main carrier receptacles can be moved into inclination in relation to the axis of rotation.
A robotic lawnmower system comprising a charging station and a robotic work tool, the charging station comprising a signal generator to which a navigation signal cable (260; 250) is to be connected, the signal generator being configured to transmit a signal (265; 245) through the navigation signal cable (260; 250), and the robotic working tool comprising: a propulsion system (130, 150); a sensor configured to sense field values of magnetic fields generated by the signal (265; 245) in the navigation signal cable (260; 250); and a controller configured to determine that the robotic lawnmower is in a docking position, and in response thereto record the magnetic field value(s) in the docking position by sensing the magnetic field value(s) of the signal (265, 245) in the docking position and storing the magnetic field value(s) of the sensed signal; and to control the propulsion system (130, 150) to move out of said docking position; and to control the propulsion system (130, 150) to enter into said docking position by sensing a current magnetic field value; comparing the current magnetic field value to the stored field value(s); and determining how to navigate the robotic lawnmower based on the comparison and navigating accordingly. a propulsion system (130, 150); a sensor configured to sense field values of magnetic fields generated by the signal (265; 245) in the navigation signal cable (260; 250); and a controller configured to determine that the robotic lawnmower is in a docking position, and in response thereto record the magnetic field value(s) in the docking position by sensing the magnetic field value(s) of the signal (265, 245) in the docking position and storing the magnetic field value(s) of the sensed signal; and to control the propulsion system (130, 150) to move out of said docking position; and to control the propulsion system (130, 150) to enter into said docking position by determine that the robotic lawnmower is in a docking position, and in response thereto record the magnetic field value(s) in the docking position by sensing the magnetic field value(s) of the signal (265, 245) in the docking position and storing the magnetic field value(s) of the sensed signal; and to control the propulsion system (130, 150) to move out of said docking position; and to control the propulsion system (130, 150) to enter into said docking position by sensing a current magnetic field value; comparing the current magnetic field value to the stored field value(s); and determining how to navigate the robotic lawnmower based on the comparison and navigating accordingly.
A method of solidifying a waste or soil composition containing at least one contaminant species comprising one or more metal ions which comprises adding hydraulic cement and optionally water to said composition, mixing the cement and any optional water into the waste or soil material to form a mixture and during or after formation of the mixture, treating the mixture in a carbon dioxide atmosphere with carbon dioxide as the prime reagent to react with calcium in the mixture to form calcium carbonate which achieves setting and subsequent hardening of said mixture.
An apparatus for the shaping of plastics material preforms into plastics material containers with at least one blow moulding station which is arranged on a movable conveying device, wherein the blow moulding station has a blow mould and this blow mould forms a cavity in the interior of which the plastics material preforms are capable of being expanded by being acted upon with a gaseous medium to form the plastics material containers, with a stressing device (12, 62, 124) which acts upon the plastics material preforms with the gaseous medium in order to expand them, and with a clean room which surrounds the blow moulding station at least in part, and with a stretching unit which stretches the plastics material preforms along their longitudinal direction (Lr), wherein the stretching unit has a stretch bar which is movable with respect to the plastics material preforms and which is capable of being inserted into the plastics material preforms, and the stretching unit additionally has a drive device for moving the stretch bar along the longitudinal direction (Lr) thereof, wherein the blow moulding station has a receiving space with at least one wall for receiving the stretch bar and/ or the stressing device, and the stretch bar is movable with respect to this receiving space, and the drive device is arranged outside this receiving space at least for a time, and wherein a gaseous medium at a pressure - which is above an ambient pressure (Pu) in a non-sterile environment of this receiving space - is capable of being received in this receiving space, wherein the apparatus has a transition space which is separated from the environment by means of at least one wall, wherein this transition space is connected in terms of flow to the receiving space.
A razor handle comprising a molded product comprising: - a first molded part (1;61), - a second molded part (2;62), and - a thin plastic foil label (3;63) having a substantially constant thickness, a rear side (31;71) provided on the first molded part, a front side (32;72) opposite to the rear side, said front side having a peripheral border (33;73), wherein the second molded part (2;62) has an overlapping portion (25;65) which prevents delamination of the label, and wherein the overlapping portion (25;65) has a thickness which is less than 1 mm, so that the overlapping portion and the front side (32;72) of the label not covered by the second molded part (2;62) exhibit a generally even surface, characterized in that the overlapping portion (25,65) overlaps the front side (32,72) of the label only on said peripheral border (33,73), 20 wherein the first molded part (1;61) comprises openings (6;60) forming anchoring areas for the second molded part. - a first molded part (1;61), - a second molded part (2;62), and - a thin plastic foil label (3;63) having a substantially constant thickness, a rear side (31;71) provided on the first molded part, a front side (32;72) opposite to the rear side, said front side having a peripheral border (33;73),
Bumper crossbeam (10, 10', 10", 10'"), which is substantially symmetrical with respect to a plane of symmetry and globally oriented in a direction perpendicular to the plane of symmetry, designed to absorb the energy dissipated by a shock generated by a concentrated or substantially horizontal distributed force and oriented in a direction perpendicular to said direction, said crossbeam comprising two attachment areas (12a, 12b) designed to be connected to two supporting parts (20a, 20b) of the automotive structure, which are symmetrically arranged with respect to the plane of symmetry and distant from each other by a distance D, characterised in that said crossbeam being made from a globally tubular body and having a cross section (S n) which varies according to a monotonic function of the distance (d) to the plane of symmetry, over most of its length between said attachment areas (12a, 12b), said crossbeam comprises two weakened areas (15a, 15b), which are symmetrical with respect to the plane of symmetry, which are remote from said plane of symmetry by a distance (d w) of between 0.10*D and 0.40*D, preferably between 0.15*D and 0.35*D, more preferably between 0.20 *D and 0.30*D, and in which the cross section (S w) is different from the nominal cross section (S n) such that the second moment of area about the axis perpendicular to the plane (L, T) is lower in said weakened areas than the second moment of area of the corresponding nominal cross section.
Illumination device comprising an elongate strain relief element and an elongate light strip which carries a large number of electrically operable lamps arranged one behind the other in the extension direction thereof, the strain relief element and the light strip, in a parallel position relative to one another, being surrounded by a transparent, flexible sheath, the sheath having a first chamber in which the light strip is located, and a second chamber which is separated from the first chamber by at least one partition (13, 14) and in which the strain relief element is located, characterised in that a) the sheath is a tube having a plurality of lumens extending in the extension direction thereof, b) one of the lumens forming the first chamber and a second lumen forming the second chamber, c) the two chambers (2, 6) each having assembly slots which can be closed by means of laser welding or ultrasonic welding, d) the assembly slot associated with the first chamber having been closed after the light strip has been inserted into the first chamber. a) the sheath is a tube having a plurality of lumens extending in the extension direction thereof, b) one of the lumens forming the first chamber and a second lumen forming the second chamber, c) the two chambers (2, 6) each having assembly slots which can be closed by means of laser welding or ultrasonic welding, d) the assembly slot associated with the first chamber having been closed after the light strip has been inserted into the first chamber.
An antiperspirant solid stick with a wax matrix, the antiperspirant solid stick having a chemical system comprising amodimethicone, dimethicone gum and silica.
Trim part for a motor vehicle, with a carrier part comprising a thermoplastic part of impact-resistant material produced by an injection-moulding process and a covering layer, wherein the covering layer is formed at least from polyurea or polyurethane and has a thickness of 100 μm to 600 μm, in particular of 300 μm to 400 μm, wherein the carrier part was produced with the covering layer on an injection-moulding machine in processes following one after the other or taking place at the same time, in particular in a joint injection-moulding process, and wherein a border (3.1, 3.2) formed by the carrier part and the covering layer, at least in certain portions, wherein one of these portions is formed by the carrier part, and this portion of the border (3.1, 3.2) are formed in border portions (A1 to A12) obliquely at an angle (α) of 5° to 50° in relation to a normal to a surface area of the covering layer that is bounded by the border (3.1, 3.2) and is facing away from the carrier part, and wherein the carrier part and the covering layer in these border portions (A1 to A12) form a surface area on this border (3.1, 3.2), wherein the transition is continuous and at most includes one separating edge, or a step is formed between the carrier part and the covering layer.
A method performed by a radio node (705, 711) to transmit, within a guard band of a first radio access technology, RAT, a radio signal according to a second RAT, the method comprising: determining, based on a channel bandwidth of the first RAT, one or more transmit parameters for transmission of the radio signal according to the second RAT, for transmission of the radio signal to comply with emission limits for the first RAT, wherein the one or more transmit parameters include a frequency position of the radio signal within the guard band of the first RAT; and configuring the radio node (705, 711) with the one or more transmit parameters for transmitting the radio signal according to the second RAT within the guard band of the first RAT, wherein nominal emission limits are applicable for transmitting a radio signal according to the second RAT irrespective of whether the radio signal is transmitted in the guard band for the first RAT, wherein additional emission limits are applicable in addition to the nominal emission limits for transmitting the radio signal according to the second RAT within the guard band of the first RAT, depending on a frequency offset of the radio signal from an edge of a channel bandwidth of the first RAT, and wherein the additional emission limits are enforced when the frequency offset is smaller than a defined threshold and are not enforced when the frequency offset is greater than the defined threshold. determining, based on a channel bandwidth of the first RAT, one or more transmit parameters for transmission of the radio signal according to the second RAT, for transmission of the radio signal to comply with emission limits for the first RAT, wherein the one or more transmit parameters include a frequency position of the radio signal within the guard band of the first RAT; and configuring the radio node (705, 711) with the one or more transmit parameters for transmitting the radio signal according to the second RAT within the guard band of the first RAT, wherein nominal emission limits are applicable for transmitting a radio signal according to the second RAT irrespective of whether the radio signal is transmitted in the guard band for the first RAT, wherein additional emission limits are applicable in addition to the nominal emission limits for transmitting the radio signal according to the second RAT within the guard band of the first RAT, depending on a frequency offset of the radio signal from an edge of a channel bandwidth of the first RAT, and wherein the additional emission limits are enforced when the frequency offset is smaller than a defined threshold and are not enforced when the frequency offset is greater than the defined threshold.
Ventilation unit having a housing which is made up of a modular frame system with a multiplicity of assembled frame elements and describes at least one three-dimensional rectangular main body, wherein at least the frame-formed outer surfaces are provided with walls, wherein the main body is formed by frame profiles which are connected to one another at the ends, surround profiles are arranged on the outer sides of the frame profiles of each main body, walls are fitted in between the surround profiles at least on the outer sides of the ventilation unit, and the frame profiles have sealing means, which butt against the walls and seal the ventilation unit in the outward direction, characterized in that the cover profile is arranged on the at least one frame profile such that an accessible installation channel, which is located within the main body, forms along the at least one frame profile, wherein cables and/or pressure-measuring lines and/or supply lines are laid in the installation channel, and at least one cable or a pressure-measuring line or a supply line is directed outwards by way of a corner element.
A diagnosis support device comprising a control unit configured to: correlate a plurality of pixels included in a two-dimensional image with two or more classes including a biological tissue class, the two-dimensional image being generated by using a signal of a reflected wave of ultrasound transmitted inside a biological tissue through which blood passes and the two-dimensional image including the biological tissue; generate a three-dimensional image of the biological tissue from a pixel group correlated with the biological tissue class; and perform control of displaying the generated three-dimensional image of the biological tissue, characterized in that the control unit is configured to process the signal of the reflected wave to generate the two-dimensional image at a speed of 15 times or more and 90 times or less per second, and, by performing a process of one two-dimensional image within 11 msec to 66 msec on a graphics processing unit, generate the three-dimensional image of the biological tissue corresponding to the new image at a speed of 15 times or more and 90 times or less per second before generating a subsequent two-dimensional image each time the new two-dimensional image is generated so as to update the three-dimensional image in real time. correlate a plurality of pixels included in a two-dimensional image with two or more classes including a biological tissue class, the two-dimensional image being generated by using a signal of a reflected wave of ultrasound transmitted inside a biological tissue through which blood passes and the two-dimensional image including the biological tissue; generate a three-dimensional image of the biological tissue from a pixel group correlated with the biological tissue class; and perform control of displaying the generated three-dimensional image of the biological tissue, characterized in that the control unit is configured to process the signal of the reflected wave to generate the two-dimensional image at a speed of 15 times or more and 90 times or less per second, and, by performing a process of one two-dimensional image within 11 msec to 66 msec on a graphics processing unit, generate the three-dimensional image of the biological tissue corresponding to the new image at a speed of 15 times or more and 90 times or less per second before generating a subsequent two-dimensional image each time the new two-dimensional image is generated so as to update the three-dimensional image in real time.
An electric shower which includes a shower head (2.6) to which water is supplied in a single pass via a heater (2.5) and a heat exchanger (2.3) in the form of a catch tray (1.1) at the base of the shower enclosure, characterised in that the cold water supply to the heat exchanger (2.3) is via a pressure relief valve (2.2) and a pump (2.4) is between the heat exchanger (2.3) and the shower head (2.6), the heat exchanger (2.3) including spaced upper and lower plates between which the cold water is arranged to flow while the water from the shower head (2.6) passes over the upper plate which serves as a single exposed heat exchange surface, the arrangement being such that all the cold water supplied passes through the heat exchanger (2.3) and is directed to follow the same route from the point of supply to the final drain exit.
A hemostatic composition comprising a hemostatically effective amount of a hemostatic agent comprising: a nanoparticle, wherein the nanoparticle comprises a material selected from the group consisting of silica, diatomaceous earth, titanium dioxide, and calcium hydroxyapatite; and a polyphosphate polymer covalently attached to the nanoparticle. a nanoparticle, wherein the nanoparticle comprises a material selected from the group consisting of silica, diatomaceous earth, titanium dioxide, and calcium hydroxyapatite; and a polyphosphate polymer covalently attached to the nanoparticle.