mhurhangee/ep-ind-claims huggingface dataset:
Tilting motorcycle with at least three wheels comprising: - a forecarriage frame, - a pair of front wheels (12,14) kinematically connected to each other and to the forecarriage frame by means of a rolling kinematic mechanism, - at least one front headlight fixed with respect to the frame in its steering and rolling movements and suitable to emit a beam of light, - measuring means suitable for measuring an angle of rotation of said rolling kinematic mechanism said angle of rotation corresponding to the rolling angle of said pair of front wheels (12,14); - means of adjusting the orientation and/or shape of the light beam produced by the at least one headlight, operatively connected to the measuring means in order to change said orientation and/or shape of the light beam depending on the value or values of rotation measured by the measuring means; wherein the front headlight is fixedly connected to the forecarriage frame, maintaining a fixed position with respect to the forecarriage frame and following its steering and rolling movements; characterized in that said rolling kinematic mechanism is an articulated quadrilateral structure comprising two upper and lower crosspieces and two lateral uprights (32,36) hinged to said crosspieces (24,28). - a forecarriage frame, - a pair of front wheels (12,14) kinematically connected to each other and to the forecarriage frame by means of a rolling kinematic mechanism, - at least one front headlight fixed with respect to the frame in its steering and rolling movements and suitable to emit a beam of light, - measuring means suitable for measuring an angle of rotation of said rolling kinematic mechanism said angle of rotation corresponding to the rolling angle of said pair of front wheels (12,14); - means of adjusting the orientation and/or shape of the light beam produced by the at least one headlight, operatively connected to the measuring means in order to change said orientation and/or shape of the light beam depending on the value or values of rotation measured by the measuring means; wherein the front headlight is fixedly connected to the forecarriage frame, maintaining a fixed position with respect to the forecarriage frame and following its steering and rolling movements; characterized in that said rolling kinematic mechanism is an articulated quadrilateral structure comprising two upper and lower crosspieces and two lateral uprights (32,36) hinged to said crosspieces (24,28).
A radiation detector device comprising: - a detector substrate for direct conversion of X-ray and/or gamma quanta to electrical charge, comprising a semiconductor material comprising Cadmium; - a readout substrate having a readout contact; - a charge collector contact for collecting an electrical charge from said detector substrate; - a connection (7, 7') wherein the connection electrically interconnects the charge collector contact and the readout contact; - wherein the connection comprises a solder connection characterised in that the solder comprises Bismuth, Tin and Silver. - a detector substrate for direct conversion of X-ray and/or gamma quanta to electrical charge, comprising a semiconductor material comprising Cadmium; - a readout substrate having a readout contact; - a charge collector contact for collecting an electrical charge from said detector substrate; - a connection (7, 7') wherein the connection electrically interconnects the charge collector contact and the readout contact; - wherein the connection comprises a solder connection characterised in that the solder comprises Bismuth, Tin and Silver.
A method for regulating the temperature at an outlet channel of a vacuum element, the method comprising the step of: - providing a pressure regulating valve on an inlet channel, said inlet channel being in direct fluid communication with the vacuum element, said valve regulating the pressure within the vacuum element by adjusting the volume of fluid flowing between a process channel and the vacuum element relative to the difference between the pressure value within said vacuum element and a set pressure value; characterized in that the method further comprises the steps of: - starting the vacuum element and starting a pre-purge cycle by connecting the inlet channel of the vacuum element to a supply of a purge gas for a preselected time interval; - subsequently connecting the inlet channel to the process channel; - disconnecting the inlet channel from the process channel and starting a post-purge cycle in which a flow of a gas is regulated at the inlet channel, for maintaining a set temperature within the vacuum element for a selected time interval; and - adjusting the speed of the vacuum element such that the temperature measured at the outlet channel is maintained between a pre-determined maximum and minimum value. - providing a pressure regulating valve on an inlet channel, said inlet channel being in direct fluid communication with the vacuum element, said valve regulating the pressure within the vacuum element by adjusting the volume of fluid flowing between a process channel and the vacuum element relative to the difference between the pressure value within said vacuum element and a set pressure value; - starting the vacuum element and starting a pre-purge cycle by connecting the inlet channel of the vacuum element to a supply of a purge gas for a preselected time interval; - subsequently connecting the inlet channel to the process channel; - disconnecting the inlet channel from the process channel and starting a post-purge cycle in which a flow of a gas is regulated at the inlet channel, for maintaining a set temperature within the vacuum element for a selected time interval; and - adjusting the speed of the vacuum element such that the temperature measured at the outlet channel is maintained between a pre-determined maximum and minimum value.
A drill dust receptacle for collecting drill dust formed at drilling of a hole in a surface wherein the drill dust receptacle is formed of a blank of foldable sheet material and is configured to be detachable attached to a surface, wherein the drill dust receptacle comprises a receptacle portion (1.1) for holding drill dust having an upper edge and a pointed bottom and further comprises a front panel, a back panel and a first and a second side section (22, 23), wherein the first and the second side section (22, 23), respectively, are coupled to the front and back panel (20, 21) by a joint, wherein - the first and a second side section (22, 23), respectively, comprises at least a first and a second, and a third and a fourth side panel (24, 25, 26, 27), wherein the first and the second side panel (24, 25) are coupled by a joint and the second and the third side panel are coupled by a joint and the third and the fourth side panel (26, 27) are coupled by a joint such that the front panel may be folded out from the back panel and; - the joints are formed by folds (31, 32, 33, 34, 35) in the foldable sheet material extending between first and second positions on the upper edge of the receptacle portion (1.1) and intersecting in the pointed bottom of the receptacle portion (1.1), and wherein; - the receptacle portion (1.1) is formed of a rectangular receptacle section of the blank of foldable sheet material. - the first and a second side section (22, 23), respectively, comprises at least a first and a second, and a third and a fourth side panel (24, 25, 26, 27), wherein the first and the second side panel (24, 25) are coupled by a joint and the second and the third side panel are coupled by a joint and the third and the fourth side panel (26, 27) are coupled by a joint such that the front panel may be folded out from the back panel and; - the joints are formed by folds (31, 32, 33, 34, 35) in the foldable sheet material extending between first and second positions on the upper edge of the receptacle portion (1.1) and intersecting in the pointed bottom of the receptacle portion (1.1), and wherein; - the receptacle portion (1.1) is formed of a rectangular receptacle section of the blank of foldable sheet material.
A structural reinforcement system, comprising: a rigid carrier; an insert fixedly secured to said rigid carrier; and a bonding material disposed over at least a portion of said rigid carrier or said insert, such that said rigid carrier and said insert will be secured in place after said bonding material expands, wherein said insert is a substantially rectangular plate, a substantially 'L' shaped configuration, a substantially 'U' shaped configuration, a substantially 'S' shaped configuration, or a substantially 'W' shaped configuration, wherein at least a portion of said insert is configured to span a distance between two cavity walls, characterised in that said insert includes a local elongated wavy deformation. a rigid carrier; an insert fixedly secured to said rigid carrier; and a bonding material disposed over at least a portion of said rigid carrier or said insert, such that said rigid carrier and said insert will be secured in place after said bonding material expands, wherein said insert is a substantially rectangular plate, a substantially 'L' shaped configuration, a substantially 'U' shaped configuration, a substantially 'S' shaped configuration, or a substantially 'W' shaped configuration, wherein at least a portion of said insert is configured to span a distance between two cavity walls, characterised in that said insert includes a local elongated wavy deformation.
A method in a User Equipment,UE, comprising at least one radio access communication interface supporting cellular and local ad-hoc communication, the method comprising the steps of: - establishing a local communication to the ad-hoc network, and - sending via a cellular connection, to a node of the cellular network, information about radio resource utilization resulting in resource restrictions for cellular communication due to the local ad-hoc communication. - establishing a local communication to the ad-hoc network, and - sending via a cellular connection, to a node of the cellular network, information about radio resource utilization resulting in resource restrictions for cellular communication due to the local ad-hoc communication.
Tool storage arrangement for extending the tool storage capacity of a vertical or horizontal milling, drilling and/or turning center, consisting of a plurality of separate storage units (8, 9, 26) functionally linked to each other, the interior space of which contains an individual force-driven tool handling device (5, 6, 28), respectively, and in which a tool magazine store (3, 4, 29) including a variety of non-movable tool storage compartments for storing of machining tools is at least arranged, characterized in that the separate storage units (8, 9, 26) are spatially connected to each other via a delivery station (10, 27) that is located in an interspace of the storage units (8, 9, 26), so that a passage way occurs from the interior space of one storage unit (8, 9, 26) to the interior space of the other storage unit (8, 9, 26) connected therewith, and that the machining tools of one device (18, 19, 31) mounted to the tool handling device (5, 6, 28) of one storage unit (8, 9, 26) can be delivered directly via a delivery station (10, 27) therethrough to a device (18, 19, 31) mounted to a tool handling device (5, 6, 28) of the other storage unit (8, 9, 26).
Use of a crosslinkable bonding rubber mixture for cold retreading of vehicle tyres, wherein the bonding rubber mixture contains at least one vulcanization accelerator having a melt temperature >130°C and wherein the bonding rubber mixture is produced by a process comprising at least the following steps of: - preparing a base mixture of the bonding rubber mixture without vulcanization chemicals and - preparing a ready-to-use mixture of the bonding rubber mixture by addition of the vulcanization chemicals at temperatures of less than 110°C in an internal mixer at a mixing duration of less than 5 min. - preparing a base mixture of the bonding rubber mixture without vulcanization chemicals and - preparing a ready-to-use mixture of the bonding rubber mixture by addition of the vulcanization chemicals at temperatures of less than 110°C in an internal mixer at a mixing duration of less than 5 min.
A method for constructing a Hi-C library, wherein the Hi-C library is suitable in a genome-wide chromatin conformation capture method, and the method for constructing the Hi-C library comprises the following steps: Step A: obtain a small amount of cells with fixed chromatin, wherein the small amount of cells with fixed chromatin is 1~10000 cells; Step B: lysing of the cells obtained in Step A to obtain a small amount of fixed chromatin, wherein the small amount of fixed chromatin is 10 -6 ∼10 2 ng chromatin in terms of naked DNA; Step C: digest the fixed chromatin in Step B using sticky end 4-base sequence recognition restriction enzymes to obtain fragments of the fixed chromatin; Step D: reconnect the fragments of the fixed chromatin without biotin labeling on the fixed chromatin fragments in Step C to obtain reconnected fragments of the fixed chromatin; Step E: de-fix the reconnected fragments of the fixed chromatin in Step D to release DNA fragments; Step F: amplify the released DNA fragments in Step E to obtain amplification products; and Step H: construct a sequencing DNA library by using fragments of the amplification products. Step A: obtain a small amount of cells with fixed chromatin, wherein the small amount of cells with fixed chromatin is 1~10000 cells; Step B: lysing of the cells obtained in Step A to obtain a small amount of fixed chromatin, wherein the small amount of fixed chromatin is 10 -6 ∼10 2 ng chromatin in terms of naked DNA; Step C: digest the fixed chromatin in Step B using sticky end 4-base sequence recognition restriction enzymes to obtain fragments of the fixed chromatin; Step D: reconnect the fragments of the fixed chromatin without biotin labeling on the fixed chromatin fragments in Step C to obtain reconnected fragments of the fixed chromatin; Step E: de-fix the reconnected fragments of the fixed chromatin in Step D to release DNA fragments; Step F: amplify the released DNA fragments in Step E to obtain amplification products; and Step H: construct a sequencing DNA library by using fragments of the amplification products.
A transistor, in particular for use as a component that is sensitive to mechanical stresses in a micro-electromechanical semiconductor component, such as e.g. a pressure or acceleration sensor, comprising - source and drain regions (79,80) and a gate, - a semiconductor substrate (1,5), in the upper face of which an active region (78a,200) made of a material of a first conductivity type is introduced by ion implantation, - a semiconducting channel region having a defined length and width being formed within the active region (78a,200), - in the active region (78a,200), each of the ends of the channel region arranged in the longitudinal extension being followed by a contacting region (79,80) made of a semiconductor material of a second conductivity type, and - the channel region being covered by an ion implantation masking material as a gate, and comprising transverse edges defining the length of the channel region and longitudinal edges defining the width of the channel region, characterized in - that said ion implantation masking material covering the channel region comprises an edge recess (201,202) at each of the opposing transverse edges aligned with the longitudinal extension ends of the channel region, wherein the contacting regions (79,80) adjoining the channel region extend all the way into said edge recess, and - that, along the longitudinal edges of the ion implantation masking material, ion implantation regions (82,83,206) are inserted, said ion implantation regions laterally delimiting the channel region, their boundaries toward the channel region being in alignment with the longitudinal edges of the ion implantation masking material. - source and drain regions (79,80) and a gate, - a semiconductor substrate (1,5), in the upper face of which an active region (78a,200) made of a material of a first conductivity type is introduced by ion implantation, - a semiconducting channel region having a defined length and width being formed within the active region (78a,200), - in the active region (78a,200), each of the ends of the channel region arranged in the longitudinal extension being followed by a contacting region (79,80) made of a semiconductor material of a second conductivity type, and - the channel region being covered by an ion implantation masking material as a gate, and comprising transverse edges defining the length of the channel region and longitudinal edges defining the width of the channel region, - that said ion implantation masking material covering the channel region comprises an edge recess (201,202) at each of the opposing transverse edges aligned with the longitudinal extension ends of the channel region, wherein the contacting regions (79,80) adjoining the channel region extend all the way into said edge recess, and - that, along the longitudinal edges of the ion implantation masking material, ion implantation regions (82,83,206) are inserted, said ion implantation regions laterally delimiting the channel region, their boundaries toward the channel region being in alignment with the longitudinal edges of the ion implantation masking material.
A mobile body positioning station comprising: a first partition; a second partition disposed along a direction intersecting an extending direction of the first partition; and a guide configured to be disposed on a movement path of a mobile body, characterized in that the guide comprises a plurality of guide rollers horizontally disposed along an oblique direction with respect to a direction perpendicular to the extending direction of the first partition to extend from the first partition toward the second partition side, in that the guide rollers have rotary center axes extending along a direction that is perpendicular to the oblique direction, and in that the guide rollers are configured to be rotated by reward or forward movement of the mobile body so that the guide device causes the mobile body, which is in the reward or forward movement after the mobile body comes into contact with the first partition, to move along the first partition toward the second partition. a first partition; a second partition disposed along a direction intersecting an extending direction of the first partition; and a guide configured to be disposed on a movement path of a mobile body, characterized in that the guide comprises a plurality of guide rollers horizontally disposed along an oblique direction with respect to a direction perpendicular to the extending direction of the first partition to extend from the first partition toward the second partition side, in that the guide rollers have rotary center axes extending along a direction that is perpendicular to the oblique direction, and in that the guide rollers are configured to be rotated by reward or forward movement of the mobile body so that the guide device causes the mobile body, which is in the reward or forward movement after the mobile body comes into contact with the first partition, to move along the first partition toward the second partition.
A floor care tool set, comprising: a first floor care tool comprising an elongated handle with a first floor care tool head positioned at a first end of the handle; a second floor care tool comprising an elongated handle and a second floor care tool head positioned at a first end of the handle; a mounting member positioned at a second end of the first floor care tool handle; and a grip positioned at a second end of the second floor care tool, said grip comprising an extension that intersects the mounting member of the first floor care tool; and characterised in that it further comprises a clip attached to the handle of the first or second floor care tool (12, 24), said clip comprising a housing operatively connected to the handle with said housing including a concave portion for receiving a portion of the first or second handle (14, 26), and at least one holding element associated with the concave portion to hold one of the first or second handles (14, 26) within the concave portion. a first floor care tool comprising an elongated handle with a first floor care tool head positioned at a first end of the handle; a second floor care tool comprising an elongated handle and a second floor care tool head positioned at a first end of the handle; a mounting member positioned at a second end of the first floor care tool handle; and a grip positioned at a second end of the second floor care tool, said grip comprising an extension that intersects the mounting member of the first floor care tool; and characterised in that it further comprises a clip attached to the handle of the first or second floor care tool (12, 24), said clip comprising a housing operatively connected to the handle with said housing including a concave portion for receiving a portion of the first or second handle (14, 26), and at least one holding element associated with the concave portion to hold one of the first or second handles (14, 26) within the concave portion.
Device for automatic control of a stopper casting device in vacuum induction casting equipment in dependence on the height of the melt bath surface within a casting mould or a tundish or a pouring ladle with use of at least one optical and/or acoustic measuring method and through adjustment of a stopper rod of the stopper casting device in at least one axis with respect to a nozzle, wherein the vacuum induction casting device comprises a storage chamber and a forehearth communicating with the storage chamber, which define a volume for reception of the melt, wherein at least one stopper casting device for regulation of the melt bath surface within the casting mould or the tundish or the pouring ladle is provided in the forehearth, comprising at least one adjustable stopper rod which co-operates with a casting nozzle of the vacuum induction casting device, at least one drive (50, 51) for the stopper rod, means for detecting the melt bath surface within the casting mould or the tundish or the pouring ladle and means for controlling the setting of the stopper rod in dependence on the melt bath surface, wherein the stopper rod is configured to be axially and radially adjustable, wherein the stopper rod is guided in a stopper chamber which is arranged outside a storage volume of the vacuum induction casting device and is configured for the purpose of guiding and/or receiving the stopper rod under vacuum and/or under a protective gas atmosphere and wherein the stopper chamber is gas-tightly flange-mounted on a connection of the vacuum induction casting equipment.
An in-molded helmet with an anchoring system (50, 150) for securing a strap to the in-molded helmet, the anchoring system comprising: a strap anchor with an anchor housing wherein the strap anchor (10, 52) further comprises an in-molding flange (56, 156) comprising a net shaped geometry comprising a solid outer perimeter and at least one inner open area surrounded by the solid outer perimeter; a bar tack clip (60, 160) sized to fit partially within the anchor housing, the bar tack clip (60, 160) comprising:a cross beam, and at least one clip coupled to the cross beam which is sized to mateably couple with the strap anchor; and a strap looped around the cross beam and coupled to itself, wherein the strap anchor (10, 52) is disposed within an energy management material of the in-molded helmet so that the bar tack clip (60, 160), and strap anchor (10, 52) are not visible to a user from an outside of the completed in-molded helmet. a strap anchor with an anchor housing wherein the strap anchor (10, 52) further comprises an in-molding flange (56, 156) comprising a net shaped geometry comprising a solid outer perimeter and at least one inner open area surrounded by the solid outer perimeter; a bar tack clip (60, 160) sized to fit partially within the anchor housing, the bar tack clip (60, 160) comprising:a cross beam, and at least one clip coupled to the cross beam which is sized to mateably couple with the strap anchor; and