mhurhangee/ep-ind-claims huggingface dataset:
A lock device for a support arm of an ultrasound imaging system, comprising: a holder which is provided with a through hole running through the holder, wherein the holder is further provided with a slide, and the slide intersects with the through hole; a guide bar which is provided with an outer threaded area, wherein the guide bar passes through the through hole and the outer threaded area is located at where the through hole intersects with the slide; a lock assembly comprising a lock component, wherein the lock component is received in the slide and is able to move in the slide, one end of the lock component facing towards the guide bar is provided with a lock threaded area, and the lock threaded area is able to engage with the outer threaded area; and a drive assembly which drives the lock component to move towards or away from the guide bar in the slide to lock or unlock the lock device. a holder which is provided with a through hole running through the holder, wherein the holder is further provided with a slide, and the slide intersects with the through hole; a guide bar which is provided with an outer threaded area, wherein the guide bar passes through the through hole and the outer threaded area is located at where the through hole intersects with the slide; a lock assembly comprising a lock component, wherein the lock component is received in the slide and is able to move in the slide, one end of the lock component facing towards the guide bar is provided with a lock threaded area, and the lock threaded area is able to engage with the outer threaded area; and a drive assembly which drives the lock component to move towards or away from the guide bar in the slide to lock or unlock the lock device.
An aviation turbine blade extending in the radial direction from a blade root as far as an upper partition wall, said blade comprising a plurality of inner cavities (C1-C10) defining at least one cooling circuit, each of said inner cavities (C1-C10) being defined by walls among inner walls (40, 42), a lower surface wall, an upper surface wall, the blade root and the upper partition wall, said blade comprising at least one reinforcing beam (50, 60) disposed inside one of said inner cavities (C3, C8), and connecting the blade root to the upper partition wall, said reinforcing beam (50, 60) not being connected to the inner walls (40, 42), the lower surface wall and the upper surface wall, characterized in that said reinforcing beam (50, 60) is hollow and has slots and/or holes (52, 62) soas to allow air circulation within the reinforcing beam. said blade comprising at least one reinforcing beam (50, 60) disposed inside one of said inner cavities (C3, C8), and connecting the blade root to the upper partition wall, said reinforcing beam (50, 60) not being connected to the inner walls (40, 42), the lower surface wall and the upper surface wall, characterized in that said reinforcing beam (50, 60) is hollow and has slots and/or holes (52, 62) soas to allow air circulation within the reinforcing beam.
A pick holder having a plug attachment and a retaining attachment, wherein the retaining attachment comprises a pick receptacle, and wherein the retaining attachment protrudes at least in some regions from or beyond the plug attachment in the tool feed direction (v), wherein the retaining attachment comprises a rigid, integrally formed support section having at least one support surface, which is arranged at least in some regions in front of the plug attachment in the feed direction, and wherein the support section comprises two support surfaces, which are at an angle with respect to one another, characterised in that the plug attachment in the region of the plug attachment rear side thereof, facing away from the tool feed direction (v), comprises a further support section having a bearing surface (21.5).
An orthodontic bracket (100, 100', 100", 150, 200), comprising: a mounting portion (120, 220) comprising a mounting surface (122, 222), which is customized to individual tooth anatomy for attachment to a tooth, and a plurality of recesses (126,226) configured to receive a bonding material; and a treatment portion (110, 210) comprising at least one wire-mounting element, wherein the mounting portion (120, 220) and the treatment portion (110, 210) are formed integrally in one part; wherein the plurality of recesses (126, 226) are formed beneath the mounting surface (122, 222) and disposed at an undercut angle with respect to the mounting surface, such that each of the plurality of recesses (126, 226) joins the mounting surface (122, 222) at an angle less than perpendicular; wherein the plurality of recesses (126, 226) have a square shape; wherein the plurality of recesses (126, 226) have side lengths in a range of 200-400 μm and a depth in a range of 100-350 μm; wherein the plurality of recesses (126, 226) each has an inner surface and an outer surface, the inner surface having a greater area than the outer surface, the outer surface corresponding to the surface area of the opening of the recess, the inner surface corresponding to the surface of the recess opposite to the opening of the recess. a mounting portion (120, 220) comprising a mounting surface (122, 222), which is customized to individual tooth anatomy for attachment to a tooth, and a plurality of recesses (126,226) configured to receive a bonding material; and a treatment portion (110, 210) comprising at least one wire-mounting element, wherein the mounting portion (120, 220) and the treatment portion (110, 210) are formed integrally in one part; wherein the plurality of recesses (126, 226) are formed beneath the mounting surface (122, 222) and disposed at an undercut angle with respect to the mounting surface, such that each of the plurality of recesses (126, 226) joins the mounting surface (122, 222) at an angle less than perpendicular; wherein the plurality of recesses (126, 226) have a square shape; wherein the plurality of recesses (126, 226) have side lengths in a range of 200-400 μm and a depth in a range of 100-350 μm; wherein the plurality of recesses (126, 226) each has an inner surface and an outer surface, the inner surface having a greater area than the outer surface, the outer surface corresponding to the surface area of the opening of the recess, the inner surface corresponding to the surface of the recess opposite to the opening of the recess.
A user equipment supporting multiple component carriers, CCs, through carrier aggregation, for a wireless communication system, the user equipment comprising: a radio frequency, RF, unit; and a processor, coupled to the RF unit, configured to: - control the RF unit to receive control information associated with a maximum allowed power per CC of the multiple CCs; - determine a maximum transmission power P MAX,PUCCH of Physical Uplink Control Channel, PUCCH, and a maximum transmission power P MAX,PUSCH of Physical Uplink Shared Channel, PUSCH, for a CC x among the multiple CCs based on the control information; - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x, wherein the maximum transmission power P MAX,PUCCH is equal to P MAX,x, where P MAX,x is a maximum allowed power for the CC x, and wherein the maximum transmission power P MAX,PUSCH is equal to be 'P MAX,x - P PUCCH ' in case of simultaneous transmission of PUCCH and PUSCH on the CC x. a radio frequency, RF, unit; and a processor, coupled to the RF unit, configured to: - control the RF unit to receive control information associated with a maximum allowed power per CC of the multiple CCs; - determine a maximum transmission power P MAX,PUCCH of Physical Uplink Control Channel, PUCCH, and a maximum transmission power P MAX,PUSCH of Physical Uplink Shared Channel, PUSCH, for a CC x among the multiple CCs based on the control information; - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x, - control the RF unit to receive control information associated with a maximum allowed power per CC of the multiple CCs; - determine a maximum transmission power P MAX,PUCCH of Physical Uplink Control Channel, PUCCH, and a maximum transmission power P MAX,PUSCH of Physical Uplink Shared Channel, PUSCH, for a CC x among the multiple CCs based on the control information; - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x, wherein the maximum transmission power P MAX,PUCCH is equal to P MAX,x, where P MAX,x is a maximum allowed power for the CC x, and wherein the maximum transmission power P MAX,PUSCH is equal to be 'P MAX,x - P PUCCH ' in case of simultaneous transmission of PUCCH and PUSCH on the CC x.
An epoxy curative comprising at least one cycloaliphatic polyamine curative and at least one second curative comprising an adduct of an excess of 4,7,10-trioxatridecane-1,13-diamine or 4,7-dioxadecane-1,10-diamine with an epoxy resin, wherein the excess is more than 200% and less than 800%.
A medium processing device comprising: a first processing means and a second processing means for individually executing each specific process for a medium being transferred in a predetermined direction, while the first processing means and the second processing means being reciprocated in a direction intersecting the transfer direction of the medium; and a supporting means for supporting the medium to be processed by the first processing means and the second processing means, while the supporting means being provided at a position facing the first processing means and the second processing means through the intermediary of the medium; wherein the first processing means and the second processing means are positioned on different lines individually in the direction intersecting the transfer direction of the medium wherein one of the first processing means and the second processing means is a means for drawing on the medium, and the other is a means for cutting the medium, the medium processing device characterized by further comprising: a holding means for holding the first processing means and the second processing means; and the holding means holds the first processing means and the second processing means in such a way that a distance of one processing means to the medium can interchangeably be made shorter and longer in comparison with a distance of the other processing means to the medium. a first processing means and a second processing means for individually executing each specific process for a medium being transferred in a predetermined direction, while the first processing means and the second processing means being reciprocated in a direction intersecting the transfer direction of the medium; and a supporting means for supporting the medium to be processed by the first processing means and the second processing means, while the supporting means being provided at a position facing the first processing means and the second processing means through the intermediary of the medium; wherein the first processing means and the second processing means are positioned on different lines individually in the direction intersecting the transfer direction of the medium wherein one of the first processing means and the second processing means is a means for drawing on the medium, and the other is a means for cutting the medium, the medium processing device characterized by further comprising: a holding means for holding the first processing means and the second processing means; and the holding means holds the first processing means and the second processing means in such a way that a distance of one processing means to the medium can interchangeably be made shorter and longer in comparison with a distance of the other processing means to the medium. a holding means for holding the first processing means and the second processing means; and the holding means holds the first processing means and the second processing means in such a way that a distance of one processing means to the medium can interchangeably be made shorter and longer in comparison with a distance of the other processing means to the medium.
A product comprising a set of discrete units assembled, or adapted to be assembled, into a sparse two dimensional surface or three dimensional volume structure, wherein: each unit comprises a fiber-reinforced composite material, a majority of the units in the set are each reversibly connected, or adapted to be reversibly connected, to at least two other units in the set: by flexural locking mechanisms, wherein the units comprise elastically compliant elongated flexures (208, 228) with locking notches at their terminal ends (203, 204, 205, 206, 223, 224, 225), and keyholes, the locking notches having chamfered outside edges configured to allow the end of one unit to snap into the keyhole of another unit; or by pinned locking mechanisms, wherein the units comprise crossbars (1601, 1602, 1603, 1604) having slotted tabs (1300, 1301, 1302, 1303, 1400, 1401, 1402, 1403) that fit into larger slots (1304, 1404) on adjacent units and are secured with a compression clip. each unit comprises a fiber-reinforced composite material, a majority of the units in the set are each reversibly connected, or adapted to be reversibly connected, to at least two other units in the set: by flexural locking mechanisms, wherein the units comprise elastically compliant elongated flexures (208, 228) with locking notches at their terminal ends (203, 204, 205, 206, 223, 224, 225), and keyholes, the locking notches having chamfered outside edges configured to allow the end of one unit to snap into the keyhole of another unit; or by pinned locking mechanisms, wherein the units comprise crossbars (1601, 1602, 1603, 1604) having slotted tabs (1300, 1301, 1302, 1303, 1400, 1401, 1402, 1403) that fit into larger slots (1304, 1404) on adjacent units and are secured with a compression clip. by flexural locking mechanisms, wherein the units comprise elastically compliant elongated flexures (208, 228) with locking notches at their terminal ends (203, 204, 205, 206, 223, 224, 225), and keyholes, the locking notches having chamfered outside edges configured to allow the end of one unit to snap into the keyhole of another unit; or by pinned locking mechanisms, wherein the units comprise crossbars (1601, 1602, 1603, 1604) having slotted tabs (1300, 1301, 1302, 1303, 1400, 1401, 1402, 1403) that fit into larger slots (1304, 1404) on adjacent units and are secured with a compression clip.
Method for detecting a blocked accelerator pedal of a vehicle, the brake pedal of which comprises at least two brake sensors, comprising the following phases: - determination of the presence of a fault at the accelerator pedal by means of the activation of the brake pedal, - recording of the fault, - correction of the fault, wherein the phase of determination of the presence of a fault comprises the following steps: - verification of the fault detection conditions, - confirmation or clearance of a fault. and in which the fault detection condition is implemented by comparing the values RM of the engine speed, VV of the vehicle speed and PPA1 of the acquired pedal position 1 with respectively threshold values S1, S2 and S3, the detection conditions being met when the values RM, VV and PPA1 are respectively greater than or equal to S1, S2 and S3. - determination of the presence of a fault at the accelerator pedal by means of the activation of the brake pedal, - recording of the fault, - correction of the fault, - verification of the fault detection conditions, - confirmation or clearance of a fault.
Electrical connection device for linking a conductor wire to a connector of an electrochemical cell of a battery, the connector comprising a tapped orifice of a nut, the device comprising: - a lug capable of being linked to the wire, the lug comprising a main body capable of being folded along an axis (AA') so as to delimit two secondary bodies (270a, 270b), each of the two secondary bodies comprising a claw, the lug being capable of switching from a free configuration to a configuration of attachment in the tapping of the orifice; - an element bearing on the lug, capable of being fixed to the connector via at least one screw (24a, 24b), such that said screw establishes a connection for tapping a current from the battery and exerts the bearing force on the lug, said bearing force holding the lug in its configuration of attachment, unfolded flat on electrical contact with the connector, the claws attached in the tapping of the orifice. - a lug capable of being linked to the wire, the lug comprising a main body capable of being folded along an axis (AA') so as to delimit two secondary bodies (270a, 270b), each of the two secondary bodies comprising a claw, the lug being capable of switching from a free configuration to a configuration of attachment in the tapping of the orifice; - an element bearing on the lug, capable of being fixed to the connector via at least one screw (24a, 24b), such that said screw establishes a connection for tapping a current from the battery and exerts the bearing force on the lug, said bearing force holding the lug in its configuration of attachment, unfolded flat on electrical contact with the connector, the claws attached in the tapping of the orifice.
A method for joining an aluminium component (70, 10) and a hard metal component (80, 50), said hard metal being capable of forming a CF-type flange, said method being characterised in that it comprises welding an aluminium bronze alloy transition piece (60, 30) to the aluminium component (70, 10) and securing the transition piece (60, 30) to the hard metal component (80, 50), wherein the welding method produces a liquid zone.
A method for managing information of timing differences between micro cells and a macro cell, comprising: receiving, by a convergent node, information of a timing difference between the micro cell and a neighboring macro cell of the micro cell, wherein the information of the timing difference is sent by a micro cell base station and comprises a frame timing of the micro cell and a frame timing of the neighboring macro cell of the micro cell; and if the timing difference is greater than a preset first threshold value of the timing difference, sending, by the convergent node to the micro cell base station, instruction information for adjusting a frame clock value of the micro cell, wherein the instruction information includes an offset of a system frame number of the micro cell and/or a chip offset of a system frame of the micro cell, so that information of timing differences between micro cells that have a same primary scrambling code and are adjacent to a same macro cell and the macro cell is unique. receiving, by a convergent node, information of a timing difference between the micro cell and a neighboring macro cell of the micro cell, wherein the information of the timing difference is sent by a micro cell base station and comprises a frame timing of the micro cell and a frame timing of the neighboring macro cell of the micro cell; and if the timing difference is greater than a preset first threshold value of the timing difference, sending, by the convergent node to the micro cell base station, instruction information for adjusting a frame clock value of the micro cell, wherein the instruction information includes an offset of a system frame number of the micro cell and/or a chip offset of a system frame of the micro cell, so that information of timing differences between micro cells that have a same primary scrambling code and are adjacent to a same macro cell and the macro cell is unique.
A method for producing a gasket laminated with an inactive film for a pre-filled syringe, wherein the gasket is produced by molding at 155°C to 200°C using a mold, which is preheated before the gasket is molded, before then an inactive film on which a mixture sheet prepared from a material for a gasket body is stacked is placed on the upper surface of the female mold member and formed by vacuum press molding into a molded sheet for a laminated gasket, characterized in that at least a surface of the mold which forms a seal sliding surface of an annular protrusion of the gasket is mirror finished to have an arithmetic mean roughness Ra of less than 0.02 μm.
Hollow aerofoil for a turbine blade, comprising a leading edge against which a hot gas is able to flow and from which a suction-side wall and a pressure-side wall extend to a trailing edge of the aerofoil, wherein, in a transverse direction with respect thereto, the aerofoil extends from a root-side end at an aerofoil height of 0% to a tip-side end at an aerofoil height of 100%, having at least two series (R 1, R 2) of cooling holes that are arranged along the leading edge, which, with respect to one another, have a first spacing which is to be measured perpendicularly to the leading edge, wherein the at least two series (R 1, R 2) of cooling holes are arranged at least partially on a wavy line along the leading edge, characterized in that the wavy line, without a change in sign of its curvature, is slightly curved in such a way that, both at the root-side end and at the tip-side end of the aerofoil, the cooling holes of each of the at least two series (R 1, R 2) are arranged further to the suction side than the cooling holes of the corresponding series (R 1, R 2) at the aerofoil mid-height. comprising a leading edge against which a hot gas is able to flow and from which a suction-side wall and a pressure-side wall extend to a trailing edge of the aerofoil, wherein, in a transverse direction with respect thereto, the aerofoil extends from a root-side end at an aerofoil height of 0% to a tip-side end at an aerofoil height of 100%, having at least two series (R 1, R 2) of cooling holes that are arranged along the leading edge, which, with respect to one another, have a first spacing which is to be measured perpendicularly to the leading edge, wherein the at least two series (R 1, R 2) of cooling holes are arranged at least partially on a wavy line along the leading edge, characterized in that the wavy line, without a change in sign of its curvature, is slightly curved in such a way that, both at the root-side end and at the tip-side end of the aerofoil, the cooling holes of each of the at least two series (R 1, R 2) are arranged further to the suction side than the cooling holes of the corresponding series (R 1, R 2) at the aerofoil mid-height.