mhurhangee/ep-ind-claims huggingface dataset:
A landing gear for an aircraft, comprising: a wheel/truck assembly; an oleo strut/support frame for supporting the wheel/truck assembly; and a retraction assembly attached to the oleo strut/support frame, the retraction assembly for moving the landing gear between a deployed position and a retracted position, the retraction assembly including a pivoting trunnion brace attached to the oleo strut/support frame and to a fuselage of the aircraft for positioning the wheel/truck assembly, the oleo strut/support frame and the retraction assembly at least substantially fully within the fuselage of the aircraft in the retracted position, wherein the pivoting trunnion brace comprises an upper end and a lower end, the lower end attached to the oleo strut/support frame and the upper end attached to the fuselage by a forward and aft trunnion separated from one another enough to handle the torsional loads about vertical axis of the landing gear, wherein the pivoting trunnion brace pivots about the forward and aft trunnion during movement between the deployed position and the retracted positon; wherein the retraction assembly comprises a retract actuator connected to the pivoting trunnion brace for moving the landing gear from the deployed position to the retracted position and wherein the retract actuator connects pivot points on the pivoting trunnion brace and on the oleo strut/support frame. a wheel/truck assembly; an oleo strut/support frame for supporting the wheel/truck assembly; and a retraction assembly attached to the oleo strut/support frame, the retraction assembly for moving the landing gear between a deployed position and a retracted position, the retraction assembly including a pivoting trunnion brace attached to the oleo strut/support frame and to a fuselage of the aircraft for positioning the wheel/truck assembly, the oleo strut/support frame and the retraction assembly at least substantially fully within the fuselage of the aircraft in the retracted position, wherein the pivoting trunnion brace comprises an upper end and a lower end, the lower end attached to the oleo strut/support frame and the upper end attached to the fuselage by a forward and aft trunnion separated from one another enough to handle the torsional loads about vertical axis of the landing gear, wherein the pivoting trunnion brace pivots about the forward and aft trunnion during movement between the deployed position and the retracted positon; wherein the retraction assembly comprises a retract actuator connected to the pivoting trunnion brace for moving the landing gear from the deployed position to the retracted position and wherein the retract actuator connects pivot points on the pivoting trunnion brace and on the oleo strut/support frame.
A roof assembly for a vehicle, having a roof opening in its fixed roof, comprising a frame, at least one movable panel closing said roof opening in its closed position and being movable from said closed position rearwardly and upwardly above the fixed roof, and a driven operating mechanism which is supported by the frame and supports the panel, the operating mechanism comprising a telescope including a first telescopic part attached to the panel and a second telescope part attached to a remainder of the operating mechanism, a height adjusting mechanism (8, 9) being provided between the panel and the operating mechanism, characterized in that the height adjusting mechanism (8, 9) is arranged and adjusts the height between the first and second telescope parts (6, 7).
A contact device having at least - a connection contact (4.1, 4.2, 4,3, 4.4, 4.5, 4.6; 104.1, 104.2, 104.3, 104.4, 104.5, 104.6), - a contact clamping apparatus (7.1,..., 7.n; 107.1,..., 107.n), and - a contact reception apparatus (2, 3; 102, 103), characterized in that - the contact reception apparatus is designed as a substantially rectangular contact plate (2; 102) into which a contact recess (3; 103) is introduced, - there are arranged, on a narrow side of the contact plate (2; 102), a side plate (5; 105) having connection contacts (4.1, 4.2, 4,3; 104.1, 104.2, 104.3) and, on the opposing narrow side of the contact plate (2; 102), a further side plate (6; 106) having further connection contacts (4.1, 4.2, 4.3; 104.1, 104.2, 104.3), and - the contact clamping apparatus is designed as clamping contacts (7.1,..., 7.n; 107.1,..., 107.n), wherein the clamping contacts (7.1,..., 7.n; 107.1,..., 107.n) are arranged on the opposing longitudinal sides of the contact plate (2; 102). - a connection contact (4.1, 4.2, 4,3, 4.4, 4.5, 4.6; 104.1, 104.2, 104.3, 104.4, 104.5, 104.6), - a contact clamping apparatus (7.1,..., 7.n; 107.1,..., 107.n), and - a contact reception apparatus (2, 3; 102, 103), - the contact reception apparatus is designed as a substantially rectangular contact plate (2; 102) into which a contact recess (3; 103) is introduced, - there are arranged, on a narrow side of the contact plate (2; 102), a side plate (5; 105) having connection contacts (4.1, 4.2, 4,3; 104.1, 104.2, 104.3) and, on the opposing narrow side of the contact plate (2; 102), a further side plate (6; 106) having further connection contacts (4.1, 4.2, 4.3; 104.1, 104.2, 104.3), and - the contact clamping apparatus is designed as clamping contacts (7.1,..., 7.n; 107.1,..., 107.n), wherein the clamping contacts (7.1,..., 7.n; 107.1,..., 107.n) are arranged on the opposing longitudinal sides of the contact plate (2; 102).
Method for filling a tank with pressurized liquefied gas from a source of liquefied gas, using a filling apparatus comprising a transfer circuit provided with a first pipe for liquid transfer comprising a first end connected to the source of liquefied gas and a second end connected to the liquefied gas tank, a second pipe for gas transfer comprising a first end connected to a gas recovery member and a second end connected to said tank to be filled, the circuit comprising a third transfer pipe and a fourth transfer pipe, the third transfer pipe and the fourth transfer pipe each connecting the first and second transfer pipes, the circuit comprising a set of valves (36, 46, 13, 33, 15, 17) for controlling the flows of fluid in the pipes of the circuit, the method comprising, prior to the transfer of liquefied gas from the source of liquefied gas to the liquefied gas tank, a depressurization of the liquefied gas tank and a cooling of at least part of the transfer circuit, the depressurization of the liquefied gas tank and the cooling of the transfer circuit comprising a transfer of pressurized vaporization gas contained in the liquefied gas tank via the second end of the second pipe for gas transfer, the third transfer pipe, the first transfer pipe, the fourth transfer pipe and the first end of the second transfer pipe.
Secondary part (1; 18; 19; 23) for a dental implant, the secondary part comprising a head part and a connecting part, the connecting part having at least two spring elements for fixing the secondary part in a dental implant, which spring elements extend along a longitudinal axis of the secondary part and each have a coronal and an apical end (6, 7) and are connected to the head part at the coronal end, wherein the at least two spring elements are radially supported with each other at the respective apical ends by an end piece, wherein the spring elements comprise a central part and the central part of at least one of the supported spring elements is elastically deflectable in a radial direction, and wherein the spring elements are connected to the head part at the coronal end. wherein at least one spring element has a projection and/or a recess in radial direction to the longitudinal axis, wherein a ratio of cross-sectional area of the head portion and cross-sectional area of a spring element is greater than 9, preferably greater than 15, and particularly preferably greater than 20, and the head portion is configured such that the secondary part forms an insertion post, healing cap, healing abutment, scan body, impression post, abutment, selection abutment, alignment aid, or unscrewing instrument. wherein the at least two spring elements are radially supported with each other at the respective apical ends by an end piece, wherein the spring elements comprise a central part and the central part of at least one of the supported spring elements is elastically deflectable in a radial direction, and wherein the spring elements are connected to the head part at the coronal end. wherein at least one spring element has a projection and/or a recess in radial direction to the longitudinal axis, wherein a ratio of cross-sectional area of the head portion and cross-sectional area of a spring element is greater than 9, preferably greater than 15, and particularly preferably greater than 20, and the head portion is configured such that the secondary part forms an insertion post, healing cap, healing abutment, scan body, impression post, abutment, selection abutment, alignment aid, or unscrewing instrument.
A connector comprising a signal array (16, 76, 136, 150, 170) having a plurality of shielded conductors (18, 78, 146, 154, 174) having opposite ends, each shielded conductor (18, 78, 146, 154, 174) including an axial conductive element (38, 94, 156, 176) and an outer conductive element (40, 96, 158, 178) surrounding the axial conductive element (38, 94, 156, 176), the plurality of shielded conductors (18, 78, 146, 154, 174) of the array (16, 76, 136, 150, 170) arranged so that the ends of the conductors are presented at first and second contact surfaces (48, 112, 160, 180) of the signal array (16, 76, 136, 150, 170), a first compressible interface element (20, 22, 80, 82, 138, 140) positioned at the first contact surface of the signal array (16, 76, 136, 150, 170), the first interface element (20, 22, 80, 82, 138, 140) including a layer of insulating material having a plurality of conductive elements extending through the insulating material layer, the first compressible interface element (20, 22, 80, 82, 138, 140), when compressed between the signal array (16, 76, 136, 150, 170) and a first signal bearing component (12, 14, 72, 74, 132, 134), maintaining the geometric arrangement of the axial conductive elements (38, 94, 156, 176) and the outer conductive elements (40, 96, 158, 178) of the conductors (18, 78, 146, 154, 174) to the first signal bearing component (12, 14, 72, 74, 132, 134) for simultaneously passing signals from the axial conductive elements (38, 94, 156, 176) and the outer conductive elements (40, 96, 158, 178) to the first signal bearing component (12, 14, 72, 74, 132, 134).
A terminally modified polycarbonate resin comprising a structure represented by General formula and a structural unit derived from a dihydric phenol: (in General formula above, R 1 represents a hydrogen atom or a C1-C6 alkyl group, R 2 represents a C1-C6 alkylene group, R 3 represents a hydrogen atom or a methyl group, R 4 represents a hydrogen atom or a halogen atom, and * represents the position of the bond to the main chain of the polycarbonate resin.)
Use of a thermosetting polymeric powder composition in a 3D printing process to produce a 3D duroplast, wherein the composition comprises at least one curable polymeric binder material in an amount of up to 95 wt-%, preferably up to 98 wt-%, of the total composition and at least one thermoplast having a T g (determined by DSC measurements as indicated in the description) and/or melting point M p (determined by DSC measurements as indicated in the description) below the temperature provided in a pass of the printing process in an amount of between 1 and 30 wt% of the total composition and wherein during each pass of the printing process said polymeric binder material is at least partially cured within the layer thus formed and also at least partially crosslinked with the previous layer.
A double button cream bottle comprising a bottle body and a bottle cap for closing the bottle body, wherein: an inner ring of the bottle cap is provided with an abutment ring, an upper limit of the abutment ring is provided with a button ring, and the button ring comprises two buttons disposed opposite each other and an elastic ring connecting the two buttons; an upper portion of the bottle body is convexly and radially provided with a flange, a recess is formed at a lower end of the flange, and when the bottle body is inserted into the bottle cap, the elastic ring is snapped in the recess and limits the flange between an inner end of the bottle cap and the elastic ring; an upper end of the bottle body is covered with a cover plate, the cover plate is provided with an elastic piece upwardly tilted, and when it is closed, the elastic piece is limited between the inner end of the bottle cap and the cover plate; a side wall of the bottle cap is provided with button grooves corresponding to the buttons, and when the two buttons are simultaneously pressed, the elastic ring is pressed and deformed and disengages from the recess, so that the flange disengages from the limiting of the elastic ring; and the bottle body is separated from the bottle cap by the elastic force of the elastic piece.
Motor vehicle with a device for detecting the area in front of the vehicle, wherein the device has at least two identical and separately operating sensor devices for detecting the far range in front of the motor vehicle, which are arranged offset on both sides of the longitudinal axis of the vehicle and whose detection ranges overlap at least partially, characterised in that, the sensor devices for detecting the far range in front of the motor vehicle are rotatable about the vertical axis, wherein the position of the at least two sensor devices of the driver assistance system is adjustable both parallel and in any other angle in such a way that the overlapping area for detecting the far range in front of the motor vehicle can be varied and its position in front of the motor vehicle can be adjusted.
An energy absorbing system operable to minimize the results of an impact between a vehicle and a hazard comprising: the energy absorbing system having a first and a second end; the second end of the energy absorbing system disposed adjacent to the hazard with the first end extending longitudinally therefrom; a sled assembly slidably disposed adjacent to the first end of the energy absorbing system; a first row of energy absorbing assemblies (86, 286) and a second row of energy absorbing assemblies (86, 286) extending from the hazard; the first row and the second row of energy absorbing assemblies (86, 286) spaced laterally from each other; and each energy absorbing assembly (86, 286) having at least one energy absorbing element; characterised by: the sled assembly having a first shredder (116, 216) and a second shredder (116, 216) mounted thereon and oriented generally normal to respective energy absorbing elements of the energy absorbing assemblies (86, 286); and the sled assembly having a first end facing oncoming traffic whereby an impact of a vehicle with the first end of the sled assembly results in each shredder (116, 216) dissipating kinetic energy of the vehicle by shredding portions of the associated energy absorbing elements. the energy absorbing system having a first and a second end; the second end of the energy absorbing system disposed adjacent to the hazard with the first end extending longitudinally therefrom; a sled assembly slidably disposed adjacent to the first end of the energy absorbing system; a first row of energy absorbing assemblies (86, 286) and a second row of energy absorbing assemblies (86, 286) extending from the hazard; the first row and the second row of energy absorbing assemblies (86, 286) spaced laterally from each other; and each energy absorbing assembly (86, 286) having at least one energy absorbing element; characterised by: the sled assembly having a first shredder (116, 216) and a second shredder (116, 216) mounted thereon and oriented generally normal to respective energy absorbing elements of the energy absorbing assemblies (86, 286); and the sled assembly having a first end facing oncoming traffic whereby an impact of a vehicle with the first end of the sled assembly results in each shredder (116, 216) dissipating kinetic energy of the vehicle by shredding portions of the associated energy absorbing elements. the sled assembly having a first shredder (116, 216) and a second shredder (116, 216) mounted thereon and oriented generally normal to respective energy absorbing elements of the energy absorbing assemblies (86, 286); and the sled assembly having a first end facing oncoming traffic whereby an impact of a vehicle with the first end of the sled assembly results in each shredder (116, 216) dissipating kinetic energy of the vehicle by shredding portions of the associated energy absorbing elements.
An intraocular lens configured to be implanted within a capsular bag of a patient's eye, comprising a deformable outer shell having a proximal end and a distal end comprising a base; an inner shell comprising a sidewall and an elastic membrane positioned so as to traverse an optical axis of a patient's eye; a lower rim of the sidewall being seated on an internal surface of the base in a fluid tight sealing engagement therewith; a chamber of a fluid optic, the chamber being defined by the sidewall, elastic membrane, the lower rim of the sidewall seated on the internal surface of the base; wherein: the inner shell element is nested within the outer shell; the proximal end of the deformable outer shell is joined to the proximal end of the inner shell so that a space between the deformable outer shell and the inner shell defines a variable volume reservoir, the variable volume reservoir being in fluid communication with the chamber via one or more outlets in the sidewall; and the deformable outer shell is configured to deform upon axial compression in a manner that increases a volume of the variable volume reservoir and draws fluid out of the chamber of the fluid optic and into the variable volume reservoir, thereby decreasing a curvature of the elastic membrane. the inner shell element is nested within the outer shell; the proximal end of the deformable outer shell is joined to the proximal end of the inner shell so that a space between the deformable outer shell and the inner shell defines a variable volume reservoir, the variable volume reservoir being in fluid communication with the chamber via one or more outlets in the sidewall; and the deformable outer shell is configured to deform upon axial compression in a manner that increases a volume of the variable volume reservoir and draws fluid out of the chamber of the fluid optic and into the variable volume reservoir, thereby decreasing a curvature of the elastic membrane.
A method at a communication apparatus of handling a hybrid automatic repeat request, HARQ, acknowledgement response for a network of a wireless communication system, the method comprising: selecting a plurality of communication devices of the wireless communication system when the plurality of communication devices conform to a specified rule; and always responding positive HARQ acknowledgement messages to the plurality of communication devices. wherein the specified rule is determined according to buffer status reports, data radio bearers and pre-defined probabilities for the plurality of communication devices; wherein the network transmits HARQ acknowledgement messages in response to the plurality of communication devices via a plurality of physical indicator channels, PHICHs; wherein an amount of resources for the plurality of physical indicator channels to always carry positive HARQ acknowledgement messages is dynamically decided by the network; wherein the amount of resources for the plurality of physical indicator channels to always carry positive HARQ acknowledgement messages is one. selecting a plurality of communication devices of the wireless communication system when the plurality of communication devices conform to a specified rule; and always responding positive HARQ acknowledgement messages to the plurality of communication devices. wherein the specified rule is determined according to buffer status reports, data radio bearers and pre-defined probabilities for the plurality of communication devices; wherein the network transmits HARQ acknowledgement messages in response to the plurality of communication devices via a plurality of physical indicator channels, PHICHs; wherein an amount of resources for the plurality of physical indicator channels to always carry positive HARQ acknowledgement messages is dynamically decided by the network; wherein the amount of resources for the plurality of physical indicator channels to always carry positive HARQ acknowledgement messages is one.
Flax extract originating from the hydrolysis of flax proteins intended for use as an antimicrobial agent in the treatment of irritations of the skin and of the appendages caused by microbial attack.
A method of operating a server, the method comprising: storing a plurality of geohashes corresponding to the location of mobile devices in a data structure indexed by the geohashes; receiving a request for data associated with a particular number of mobile devices in a vicinity of a geographic location; determining a plurality of geohashes at a first level around the geographic location specified in the request; performing, by a plurality of separate processors of the server, simultaneous parallel searches of the data structure for a corresponding plurality of geohashes at the first level to find a first set of a first number of mobile devices, wherein each search in relation to each of the plurality of geohashes is performed by a different processor using the index that includes the geohashes; performing, by the plurality of separate processors, simultaneous parallel searches of the data structure for a corresponding plurality of geohashes at a second level to find a second set of a second number of mobile devices, wherein the second level is determined based upon a comparison between the first number and the particular number; and providing a response including data associated with the first set of mobile devices and, if found, the second set of mobile devices. storing a plurality of geohashes corresponding to the location of mobile devices in a data structure indexed by the geohashes; receiving a request for data associated with a particular number of mobile devices in a vicinity of a geographic location; determining a plurality of geohashes at a first level around the geographic location specified in the request; performing, by a plurality of separate processors of the server, simultaneous parallel searches of the data structure for a corresponding plurality of geohashes at the first level to find a first set of a first number of mobile devices, wherein each search in relation to each of the plurality of geohashes is performed by a different processor using the index that includes the geohashes; performing, by the plurality of separate processors, simultaneous parallel searches of the data structure for a corresponding plurality of geohashes at a second level to find a second set of a second number of mobile devices, wherein the second level is determined based upon a comparison between the first number and the particular number; and providing a response including data associated with the first set of mobile devices and, if found, the second set of mobile devices.