mhurhangee/patent-ind-claim-en huggingface dataset:
Wind turbine rotor blade , which is formed by at least two rotor blade segments , said segments screwed together at respective connection ends by means of a plurality of connecting bolts , wherein sleeve-shaped pressure pieces are arranged between the rotor blade segments , each of which is mounted on a connecting bolt , each pressure piece comprises one or more cylindrical sections and a tool engaging section for an assembly tool , each pressure piece is connected to a corresponding connecting bolt in a form fit manner, so that a screwing force can be applied to the corresponding connecting bolt by means of the assembly tool via the pressure piece , a diameter of the cylindrical section(s) is less than a diameter of the tool engaging section , characterised in that each two adjacent pressure pieces are arranged rotated by 180° relative to one another, so that in the case of adjacent pressure pieces - in a direction of one rotor blade segment towards the other rotor blade segment - a first axial region is formed, in which cylindrical sections of the two pressure pieces are opposite one another, a second axial region is formed, in which the tool engaging portion of one pressure piece is opposed to a cylindrical portion of the other pressure piece , and a third axial region is formed, in which the tool engaging portion of the other pressure piece is opposed to a cylindrical portion of the one pressure piece . sleeve-shaped pressure pieces are arranged between the rotor blade segments , each of which is mounted on a connecting bolt , each pressure piece comprises one or more cylindrical sections and a tool engaging section for an assembly tool , each pressure piece is connected to a corresponding connecting bolt in a form fit manner, so that a screwing force can be applied to the corresponding connecting bolt by means of the assembly tool via the pressure piece , a diameter of the cylindrical section(s) is less than a diameter of the tool engaging section , characterised in that each two adjacent pressure pieces are arranged rotated by 180° relative to one another, so that in the case of adjacent pressure pieces - in a direction of one rotor blade segment towards the other rotor blade segment - a first axial region is formed, in which cylindrical sections of the two pressure pieces are opposite one another, a second axial region is formed, in which the tool engaging portion of one pressure piece is opposed to a cylindrical portion of the other pressure piece , and a third axial region is formed, in which the tool engaging portion of the other pressure piece is opposed to a cylindrical portion of the one pressure piece .
A hearing device comprising: an enclosure comprising a shell and a faceplate (107a, 107b; 407), the enclosure being configured for at least partial insertion within an ear of a user with an external surface of the faceplate facing away from the user (107a, 107b; 407); a battery ; an antenna structure oriented such that a direction of an electric field, E-field, of a propagating electromagnetic signal generated by the antenna structure is directed non-tangentially to the user's head at the location of the user's ear; and electronic circuitry disposed within the shell , the electronic circuitry powered by the battery and electrically coupled to send and/or receive signals via the antenna structure; the antenna structure forming a planar inverted F antenna, PIFA, structure disposed in or on the faceplate comprising: a ground plane at least partially supported by the faceplate (107a, 107b; 407), a conductive patch , wherein the ground plane overlaps and is spaced apart from the conductive patch , a dielectric which separates the ground plane from the conductive patch , at least one shorting pin shorting the conductive patch to the ground plane , and a feed point coupling the electronic circuitry (130a,b) to the conductive patch . an enclosure comprising a shell and a faceplate (107a, 107b; 407), the enclosure being configured for at least partial insertion within an ear of a user with an external surface of the faceplate facing away from the user (107a, 107b; 407); a battery ; an antenna structure oriented such that a direction of an electric field, E-field, of a propagating electromagnetic signal generated by the antenna structure is directed non-tangentially to the user's head at the location of the user's ear; and electronic circuitry disposed within the shell , the electronic circuitry powered by the battery and electrically coupled to send and/or receive signals via the antenna structure; the antenna structure forming a planar inverted F antenna, PIFA, structure disposed in or on the faceplate comprising: a ground plane at least partially supported by the faceplate (107a, 107b; 407), a conductive patch , wherein the ground plane overlaps and is spaced apart from the conductive patch , a dielectric which separates the ground plane from the conductive patch , at least one shorting pin shorting the conductive patch to the ground plane , and a feed point coupling the electronic circuitry (130a,b) to the conductive patch . a ground plane at least partially supported by the faceplate (107a, 107b; 407), a conductive patch , wherein the ground plane overlaps and is spaced apart from the conductive patch , a dielectric which separates the ground plane from the conductive patch , at least one shorting pin shorting the conductive patch to the ground plane , and a feed point coupling the electronic circuitry (130a,b) to the conductive patch .
A sensor comprising: a flexible substrate , wherein the flexible substrate is mountable to a skin surface, wherein the flexible substrate includes an elongate portion , wherein a distal end of the elongate portion is configured to extend beneath the skin surface to contact interstitial fluid; and a first electrode and a second electrode , wherein the first electrode and second electrode are disposed at the distal end of the elongate portion of the flexible substrate , wherein the first electrode is selectively sensitive to an analyte in the interstitial fluid, and wherein the first electrode and second electrode are configured to detect the analyte electrochemically; characterized in that : the elongate portion comprises a permeable material configured with an initial rigidity for piercing a skin surface, and arranged to soften when the elongate portion is subsequently extended beneath the skin surface. a flexible substrate , wherein the flexible substrate is mountable to a skin surface, wherein the flexible substrate includes an elongate portion , wherein a distal end of the elongate portion is configured to extend beneath the skin surface to contact interstitial fluid; and a first electrode and a second electrode , wherein the first electrode and second electrode are disposed at the distal end of the elongate portion of the flexible substrate , wherein the first electrode is selectively sensitive to an analyte in the interstitial fluid, and wherein the first electrode and second electrode are configured to detect the analyte electrochemically; characterized in that : the elongate portion comprises a permeable material configured with an initial rigidity for piercing a skin surface, and arranged to soften when the elongate portion is subsequently extended beneath the skin surface.
A DC-to-DC converter comprising a first port (P1) comprising a first side (S1 P1 ) configured to be coupled to a DC bus and a second side (S2 P1 ) coupled to a first full bridge (M1, M2, M3, M4), wherein the first full bridge (M1, M2, M3, M4) comprises a first switch (M1), a second switch (M2), a third switch (M3) and a fourth switch (M4); a transformer (Tr) comprising a primary winding (PW) coupled to the first full bridge (M1, M2, M3, M4) and a secondary winding (SW) coupled to a second full bridge (M5, M6, M7, M8), wherein the second full bridge (M5, M6, M7, M8) comprises a fifth switch (M5), a sixth switch (M6), a seventh switch (M7) and an eight switch (M8); a second port (P2) comprising a first side (S1 P2 ) coupled to the second full bridge (M5, M6, M7, M8) and a second side (S2 P2 ) configured to be coupled to a first battery ; a first inductor (L1) coupled between the second full bridge (M5, M6, M7, M8) and the first side (S1 P2 ) of the second port (P2); and a first freewheeling circuit comprising a first diode (D1) coupled in series with a ninth switch (M9), wherein the first freewheeling circuit is coupled in parallel with the first inductor (L1) between the second full bridge (M5, M6, M7, M8) and the first side (S1 P2 ) of the second port (P2). a first port (P1) comprising a first side (S1 P1 ) configured to be coupled to a DC bus and a second side (S2 P1 ) coupled to a first full bridge (M1, M2, M3, M4), wherein the first full bridge (M1, M2, M3, M4) comprises a first switch (M1), a second switch (M2), a third switch (M3) and a fourth switch (M4); a transformer (Tr) comprising a primary winding (PW) coupled to the first full bridge (M1, M2, M3, M4) and a secondary winding (SW) coupled to a second full bridge (M5, M6, M7, M8), wherein the second full bridge (M5, M6, M7, M8) comprises a fifth switch (M5), a sixth switch (M6), a seventh switch (M7) and an eight switch (M8); a second port (P2) comprising a first side (S1 P2 ) coupled to the second full bridge (M5, M6, M7, M8) and a second side (S2 P2 ) configured to be coupled to a first battery ; a first inductor (L1) coupled between the second full bridge (M5, M6, M7, M8) and the first side (S1 P2 ) of the second port (P2); and a first freewheeling circuit comprising a first diode (D1) coupled in series with a ninth switch (M9), wherein the first freewheeling circuit is coupled in parallel with the first inductor (L1) between the second full bridge (M5, M6, M7, M8) and the first side (S1 P2 ) of the second port (P2).
Refuse collection container for a refuse collection system, comprising a supporting base , a top , a circumferential wall extending between the base and the top , which base, top and circumferential wall define a refuse collection chamber , and a closeable opening for deposing refuse in the chamber , said refuse collection container comprising coupling means to attach the refuse collection container to a lifting device for emptying the refuse collection container , the coupling means comprising elongate slots for use in a bayonet type coupling means, wherein coupling supports of the refuse collection container are positioned on opposite sides of the refuse collection chamber , characterized by a skirt being provided over each of these sides and the coupling supports each extending between a side and a respective skirt , wherein either the coupling supports comprise a support plate each, connected to a respective side of the refuse collection chamber at approximately right angles with respect to said side and parallel to the base , the slots being provided in said support plates , or the coupling supports comprise an end strip each, connected to a respective side of the refuse collection chamber at approximately right angles with respect to said side and the base of the refuse collection chamber, the slots being provided in said end strips .
A cycling helmet , comprising: an outer shell having an outer surface , an inner surface, the outer surface comprising a first surface and a second surface , the first and second surfaces joined by a drop-off running continuously across the outer surface from a bottom left edge of the outer shell of the helmet to a bottom right edge of the outer shell of the helmet opposite the bottom left edge; a coronal plane perpendicular with a central longitudinal axis of the helmet; an anterior section anterior to the coronal plane and a posterior section posterior to the coronal plane and comprising the entire drop-off and a rear end of the helmet distal to the anterior section; an inner liner having an inner surface, and having an outer surface coupled to the inner surface of the outer shell; wherein a majority of a length of the drop-off is closer to the coronal plane than to the rear end of the helmet; and wherein the first surface defines a top of the drop-off and the second surface defines a bottom of the drop-off, and wherein along the entire drop-off, the bottom of the drop-off is closer to the central longitudinal axis of the helmet than the top of the drop-off such that the drop-off has a height. an outer shell having an outer surface , an inner surface, the outer surface comprising a first surface and a second surface , the first and second surfaces joined by a drop-off running continuously across the outer surface from a bottom left edge of the outer shell of the helmet to a bottom right edge of the outer shell of the helmet opposite the bottom left edge; a coronal plane perpendicular with a central longitudinal axis of the helmet; an anterior section anterior to the coronal plane and a posterior section posterior to the coronal plane and comprising the entire drop-off and a rear end of the helmet distal to the anterior section; an inner liner having an inner surface, and having an outer surface coupled to the inner surface of the outer shell; wherein a majority of a length of the drop-off is closer to the coronal plane than to the rear end of the helmet; and wherein the first surface defines a top of the drop-off and the second surface defines a bottom of the drop-off, and wherein along the entire drop-off, the bottom of the drop-off is closer to the central longitudinal axis of the helmet than the top of the drop-off such that the drop-off has a height.
A method for wireless communication, comprising: receiving a grant comprising a carrier indicator, CI, field on a first carrier by a user equipment, UE; and determining, based on the CI field of the grant and a CI mapping for the first carrier, a second carrier on which resources are assigned to the UE, wherein said determining determines that said second carrier is indicated by a value of the CI field within said CI mapping, characterised in that the CI mapping for the first carrier is specific for the cell, and different cells have different CI mappings for the first carrier. receiving a grant comprising a carrier indicator, CI, field on a first carrier by a user equipment, UE; and determining, based on the CI field of the grant and a CI mapping for the first carrier, a second carrier on which resources are assigned to the UE, wherein said determining determines that said second carrier is indicated by a value of the CI field within said CI mapping, characterised in that the CI mapping for the first carrier is specific for the cell, and different cells have different CI mappings for the first carrier.
An industrial fabric formed by warps (1; 41) and wefts (2; 42) being woven with each other, characterized in that emboss patterns (7; 47) with irregularities are formed on an apex and near the apex of a knuckle portion emerging on a front surface side in said warps and/or said wefts, wherein the emboss patterns (7; 47) are lateral stripe patterns.
A microstructured optical fibre referred to as MOF comprising a doped core region embedded in a cladding layer , and comprising a plurality of longitudinal tubes, wherein a radial cross-section of the MOF comprises a central hexagonal portion comprising a plurality of holes arranged according to a hexagonal grid surrounding a core section of the core region , each hole corresponding to a respective tube, within a hexagonal boundary of said grid, the plurality of holes comprising holes of a first type and holes of a second type and arranged in a biaxial mirror-symmetric configuration with respect to two perpendicular central axes (Al, All) of the radial cross-section of the MOF , wherein said holes of said first type are arranged in two side holey structures (HS1, HS2) symmetrically arranged with respect to one of the central axis (AI) and comprising distinct sub-grids of said hexagonal grid, each of said side holey structures (HS1, HS2) being defined by respective outer boundaries corresponding to portions of said hexagonal boundary of said grid and respective inner boundaries (i1, i2), wherein the holes of the first type have a diameter which is larger than a diameter of the holes of the second type, characterized in that the inner boundaries (i1, i2) of the respective side holey structures (HS1, HS2) are defined by sub-grid positions of holes of the first type along a straight line extending across the centre of the MOF , wherein each side holey structure (HS1, HS2) comprises three grid positions (c3, c4, c5) directly adjacent to the core section, the two outer grid positions (c3, c5) comprising holes of diameter smaller than the diameter of the holes of the first type while the central grid position (c4) of the three grid positions comprises a hole of the first type.
A passenger evacuation direction guidance system comprising: an evacuation direction generation unit connected to a data storage unit configured to store a plurality of space databases and a plurality of passageway databases in respect to spaces and passageways provided in a station building or on the travelling route of a train, the evacuation direction generation unit is configured to receive an emergency situation detection signal from a central control centre or an engine room or an emergency detection unit , the evacuation direction generation unit is configured to generate passenger evacuation direction information for passengers in a train when a disaster or an accident occurs on a traveling route of the train; and an evacuation direction display unit configured to receive the passenger evacuation direction information generated by the evacuation direction generation unit , and displays a passenger evacuation direction on an object positioned at the periphery of the train, characterized in that the evacuation direction display unit includes an evacuation direction indicating module which is installed on the train and indicates the passenger evacuation direction on the object by emitting light toward the object, wherein the evacuation direction display unit further includes an object detection module configured to detect a position of the object, and wherein the evacuation direction display unit further includes a focal point adjusting module configured to calculate a focal length between the object and the evacuation direction indicating module based on the position of the object detected by the object detection module , and thus adjusts clarity of the indication of the passenger evacuation direction. an evacuation direction generation unit connected to a data storage unit configured to store a plurality of space databases and a plurality of passageway databases in respect to spaces and passageways provided in a station building or on the travelling route of a train, the evacuation direction generation unit is configured to receive an emergency situation detection signal from a central control centre or an engine room or an emergency detection unit , the evacuation direction generation unit is configured to generate passenger evacuation direction information for passengers in a train when a disaster or an accident occurs on a traveling route of the train; and an evacuation direction display unit configured to receive the passenger evacuation direction information generated by the evacuation direction generation unit , and displays a passenger evacuation direction on an object positioned at the periphery of the train,
Method for performing a radiographic job list indicated in a radiographic information system, comprising the following steps : • communicating said job list from said radiographic information system to a mobile apparatus; • performing a radiographic exposure from said job list and storing a corresponding radiographic image on a direct radiographic panel; • inspecting said radiographic image on a display of the mobile apparatus before proceeding to a next radiographic recording indicated in the job list; • communicating a radiographic image stored on said direct radiographic panel to an image management and communication system, characterised in that said job list is communicated from said radiographic information system to said mobile apparatus by setting up, in a first step, a peer-to-peer communication between said radiographic information system and said mobile apparatus by using a Near Field Communication technique to exchange network data for communication between said direct radiographic panel and said mobile apparatus, whereupon in a next step, said radiographic image is transmitted from said direct radiographic panel to said mobile apparatus via a WIFI peer-to-peer communication. • communicating said job list from said radiographic information system to a mobile apparatus; • performing a radiographic exposure from said job list and storing a corresponding radiographic image on a direct radiographic panel; • inspecting said radiographic image on a display of the mobile apparatus before proceeding to a next radiographic recording indicated in the job list; • communicating a radiographic image stored on said direct radiographic panel to an image management and communication system,
A prefabricated wall panel comprising: a rear board ; a front board forming an internal face for a room, said front board spaced away from said rear board to form a cavity; and a first side stud and a second side stud , each side stud connected to the front and rear boards on opposing sides of the cavity; a wireway disposed within the cavity, wherein the wireway runs substantially from a base of the wall panel to a top of the wall panel to allow services to pass through the panel, and wherein the wireway constrains cabling of the services therein; and one or more steel support rails connected across said side studs and between the rear board and the wireway for supporting the wireway ; wherein the first side stud comprises a male mating means and the second side stud comprises a female mating means such that the prefabricated wall panel can mate with an adjacent prefabricated wall panel to form a continuous internal wall surface; the prefabricated wall panel being characterized in that the side studs comprise a plurality of tabs , said tabs extendable away from the side studs into the cavity and providing a fixing point for the support rails . a rear board ; a front board forming an internal face for a room, said front board spaced away from said rear board to form a cavity; and a first side stud and a second side stud , each side stud connected to the front and rear boards on opposing sides of the cavity; a wireway disposed within the cavity, wherein the wireway runs substantially from a base of the wall panel to a top of the wall panel to allow services to pass through the panel, and wherein the wireway constrains cabling of the services therein; and one or more steel support rails connected across said side studs and between the rear board and the wireway for supporting the wireway ; wherein the first side stud comprises a male mating means and the second side stud comprises a female mating means such that the prefabricated wall panel can mate with an adjacent prefabricated wall panel to form a continuous internal wall surface; the prefabricated wall panel being characterized in that the side studs comprise a plurality of tabs , said tabs extendable away from the side studs into the cavity and providing a fixing point for the support rails .