mhurhangee/patent-ind-claim-en huggingface dataset:
An injection mechanism for injecting fluid into a targeted tissue layer comprising: a primary reservoir for storing fluid prior to injection having a first axis; and a secondary reservoir for holding the amount of fluid to be injected having a second axis, wherein the secondary reservoir is located co-axially and in series with the primary reservoir and has a smaller cross-sectional area than the cross-sectional area of the primary reservoir , whereby the secondary reservoir is fluidly connected to the primary reservoir , wherein a needle connecting portion comprising a sliding seal , a needle assembly and a needle stop , wherein the sliding seal comprises a needle septum disposed at least partially within the secondary reservoir through which the fluid to be injected passes during the injection; and a patient needle intersecting the needle septum of the sliding seal for penetrating the skin of the patient to inject the fluid in the targeted tissue layer wherein said secondary reservoir is configured to be filled with fluid and move said sliding seal axially in said secondary reservoir . a primary reservoir for storing fluid prior to injection having a first axis; and a secondary reservoir for holding the amount of fluid to be injected having a second axis, wherein the secondary reservoir is located co-axially and in series with the primary reservoir and has a smaller cross-sectional area than the cross-sectional area of the primary reservoir , whereby the secondary reservoir is fluidly connected to the primary reservoir , wherein a needle connecting portion comprising a sliding seal , a needle assembly and a needle stop , wherein the sliding seal comprises a needle septum disposed at least partially within the secondary reservoir through which the fluid to be injected passes during the injection; and a patient needle intersecting the needle septum of the sliding seal for penetrating the skin of the patient to inject the fluid in the targeted tissue layer wherein said secondary reservoir is configured to be filled with fluid and move said sliding seal axially in said secondary reservoir .
A piezoelectric element comprising: a first electrode layer ; a piezoelectric layer ; and a second electrode layer , wherein the first electrode layer, the piezoelectric layer, and the second electrode layer are stacked in sequence on one another, the first electrode layer has a first part overlapping the piezoelectric layer in a planar view viewed from a stacking direction of the first electrode layer, the piezoelectric layer, and the second electrode layer, and a second part at least partially separated from the first part and not overlapping the piezoelectric layer in the planar view, the second electrode layer has a third part overlapping the piezoelectric layer in the planar view, and a fourth part separated from the third part, and the fourth part has contact with the first part and the second part. a first electrode layer ; a piezoelectric layer ; and a second electrode layer , wherein the first electrode layer, the piezoelectric layer, and the second electrode layer are stacked in sequence on one another, the first electrode layer has a first part overlapping the piezoelectric layer in a planar view viewed from a stacking direction of the first electrode layer, the piezoelectric layer, and the second electrode layer, and a second part at least partially separated from the first part and not overlapping the piezoelectric layer in the planar view, the second electrode layer has a third part overlapping the piezoelectric layer in the planar view, and a fourth part separated from the third part, and the fourth part has contact with the first part and the second part.
Closed continuous conveyor for pallets , - with an upper run and a lower run , which form an upper and a lower conveyor track , - with reversal sections connecting such two runs , in which reversal sections deflecting elements are arranged, of which at least one is connected to an engine and can be driven by it, - with tension elements rotating endlessly in the upper and lower runs and in the reversal sections , which are in engagement with the deflecting elements in the reversal sections and are driven by them, - with at least one rotating pallet , which is carried by the tension elements and rotates with these, wherein at least one first form closure element or frictional closure element (30; 130; 230; 330) is fixed to the underside of the pallet , which, in the at least one reversal section , comes into a form-locking or frictional-locking engagement with a second form closure element or frictional closure element (50; 250; 350) that is arranged there and rotates around a fixed axis of rotation , wherein the first and/or the second form closure element or frictional closure element (30; 130; 230; 330; 50; 250; 350) features at least one elastic buffer component (36; 36, 37; 58), which yields if the first and second form closure elements or frictional closure elements (30; 130; 230; 330; 50; 350) hit each other, characterized in that the second form closure element or frictional closure element comprises a gear wheel , wherein a said elastic buffer component is arranged fixedly and toothed at the outer periphery thereof, wherein the gear wheel comprises a discshaped rigid body on the peripheral edge of which said elastic buffer component is applied in the form of a gear rim. - with an upper run and a lower run , which form an upper and a lower conveyor track , - with reversal sections connecting such two runs , in which reversal sections deflecting elements are arranged, of which at least one is connected to an engine and can be driven by it, - with tension elements rotating endlessly in the upper and lower runs and in the reversal sections , which are in engagement with the deflecting elements in the reversal sections and are driven by them, - with at least one rotating pallet , which is carried by the tension elements and rotates with these,
A method for operating a depth sensor, the method comprising: performing a configuration operation for a depth sensor, the configuration operation comprising: storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; receiving a first request for depth measurements according to the first depth sensing mode of operation; in response to the first request, operating the depth sensor in the first mode of operation by causing it to execute the first sequence of operation steps; receiving a second request for depth measurements according to the second depth sensing mode of operation; and in response to the second request, and without performing an additional configuration operation, operating the depth sensor in the second mode of operation by causing it to execute the second sequence of operation steps and the one or more common operation steps. performing a configuration operation for a depth sensor, the configuration operation comprising: storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; receiving a first request for depth measurements according to the first depth sensing mode of operation; in response to the first request, operating the depth sensor in the first mode of operation by causing it to execute the first sequence of operation steps; receiving a second request for depth measurements according to the second depth sensing mode of operation; and in response to the second request, and without performing an additional configuration operation, operating the depth sensor in the second mode of operation by causing it to execute the second sequence of operation steps and the one or more common operation steps.
A latch assembly for an access door of a storage compartment in a vehicle , the latch assembly comprising: a locking bar configured to be movable into (i) an engaged configuration which enables the access door to be placed and held into a closed position and (ii) a disengaged configuration which permits the access door to be placed into an opened position; characterized by an automatic locking mechanism including a shape memory alloy (SMA) actuator configured to be coupled to the access door , the automatic locking mechanism further including a locking feature operably coupled to at least a portion of the locking bar , the locking feature configured to engage and disengage the SMA actuator as the locking bar respectively moves between the engaged and disengaged configurations, and when the access door is placed into the closed position and the locking feature is engaged with the SMA actuator and the SMA actuator is electrically energized to move into a locked position to prohibit the locking feature from moving, the locking bar is prohibited from moving and locks the access door in the closed position. a locking bar configured to be movable into (i) an engaged configuration which enables the access door to be placed and held into a closed position and (ii) a disengaged configuration which permits the access door to be placed into an opened position; (i) an engaged configuration which enables the access door to be placed and held into a closed position and (ii) a disengaged configuration which permits the access door to be placed into an opened position; characterized by an automatic locking mechanism including a shape memory alloy (SMA) actuator configured to be coupled to the access door , the automatic locking mechanism further including a locking feature operably coupled to at least a portion of the locking bar , the locking feature configured to engage and disengage the SMA actuator as the locking bar respectively moves between the engaged and disengaged configurations, and when the access door is placed into the closed position and the locking feature is engaged with the SMA actuator and the SMA actuator is electrically energized to move into a locked position to prohibit the locking feature from moving, the locking bar is prohibited from moving and locks the access door in the closed position.
An instrument panel beam that extends in a width direction of an automobile, the instrument panel beam comprising: a large-diameter hollow tube having a hollow cylindrical shape; and a small-diameter hollow tube having a diameter that is smaller than that of the large-diameter hollow tube and having a hollow cylindrical shape, wherein the large-diameter hollow tube and the small-diameter hollow tube are joined to each other in an axial direction, the small-diameter hollow tube comprises at least two flat plates (310a-310d) that extend in a longitudinal direction and at least two bends (320a-320d) that are curved in a circumferential direction, the flat plates (310a-310d) and the bends (320a-320d) being alternately arranged in the circumferential direction, the large-diameter hollow tube comprises at least two flat plates (210a-210d) that extend in a longitudinal direction and at least two bends (220a-220d) that are curved in a circumferential direction, the flat plates (210a-210d) and the bends (220a-220d) being alternately arranged in the circumferential direction, and each flat plate (310a-310d) of the small-diameter hollow tube has a width (W2) that is greater than that (W1) of each flat plate (210a-210d) of the large-diameter hollow tube . a large-diameter hollow tube having a hollow cylindrical shape; and a small-diameter hollow tube having a diameter that is smaller than that of the large-diameter hollow tube and having a hollow cylindrical shape, wherein the large-diameter hollow tube and the small-diameter hollow tube are joined to each other in an axial direction, the small-diameter hollow tube comprises at least two flat plates (310a-310d) that extend in a longitudinal direction and at least two bends (320a-320d) that are curved in a circumferential direction, the flat plates (310a-310d) and the bends (320a-320d) being alternately arranged in the circumferential direction, the large-diameter hollow tube comprises at least two flat plates (210a-210d) that extend in a longitudinal direction and at least two bends (220a-220d) that are curved in a circumferential direction, the flat plates (210a-210d) and the bends (220a-220d) being alternately arranged in the circumferential direction, and each flat plate (310a-310d) of the small-diameter hollow tube has a width (W2) that is greater than that (W1) of each flat plate (210a-210d) of the large-diameter hollow tube .
A method performed by a terminal in a wireless communication system, the method comprising: receiving configuration information on a set of resources for at least one signal for channel measurement; receiving the at least one signal for channel measurement on the set of resources; measuring multiple signal-to-interference and noise ratio, SINR, values based on the received at least one signal; and transmitting the multiple SINR values and multiple resource indicators related to the at least one signal, wherein the multiple SINR values comprise a largest SINR value and differential SINR values relative to the largest SINR, wherein each of the multiple resource indicators corresponds to each of the multiple SINR values, and characterized by wherein a decibel, dB, step size for quantizing the largest SINR value and a dB step size for quantizing the differential SINR values are different. receiving configuration information on a set of resources for at least one signal for channel measurement; receiving the at least one signal for channel measurement on the set of resources; measuring multiple signal-to-interference and noise ratio, SINR, values based on the received at least one signal; and transmitting the multiple SINR values and multiple resource indicators related to the at least one signal, wherein the multiple SINR values comprise a largest SINR value and differential SINR values relative to the largest SINR, wherein each of the multiple resource indicators corresponds to each of the multiple SINR values, and characterized by wherein a decibel, dB, step size for quantizing the largest SINR value and a dB step size for quantizing the differential SINR values are different.
Two-cylinder thick matter pump, in particular for conveying concrete, in which two delivery cylinders alternately convey the thick matter through a suction line into a delivery line, wherein the delivery cylinders are driven via hydraulically driven drive cylinders , wherein the drive cylinders are connected via a control block to a first adjustable hydraulic pump conveying in one direction, wherein the first hydraulic pump is connected on its pressure side to the high-pressure side of the control block and by its suction side to the return connection of the control block and wherein a second adjustable hydraulic pump conveying in one direction with a smaller delivery volume than the first hydraulic pump is provided and is connected on its suction side to a hydraulic tank , characterised in that the second hydraulic pump is connected on its pressure side to the high-pressure side of the control block and that the excess hydraulic oil produced by the second hydraulic pump can be discharged from the hydraulic circuit to the hydraulic tank against a dynamic pressure of a predetermined magnitude, wherein the dynamic pressure is generated by a valve , which connects the return connection of the control block to the hydraulic tank .
A method for reducing the occurrence of phytopathogenic fungi selected from the group consisting of: Fusarium virguliforme, Fusarium brasiliense sp. nov., Fusarium cuneirostrum sp. nov. and Fusarium tucumaniae, in soybean plants, said method comprising applying an effective amount of a composition comprising the compound of formula (I) or an agrochemically acceptable salt, isomer, stereoisomer, diasterioisomer, enantiomer or tautomer thereof, to a soybean plant seed prior to planting, wherein said soybean plant seed is infected with a fungal strain selected from the group consisting of Fusarium virguliforme, Fusarium brasiliense sp. nov., Fusarium cuneirostrum sp. nov. and Fusarium tucumaniae. or an agrochemically acceptable salt, isomer, stereoisomer, diasterioisomer, enantiomer or tautomer thereof, to a soybean plant seed prior to planting, wherein said soybean plant seed is infected with a fungal strain selected from the group consisting of Fusarium virguliforme, Fusarium brasiliense sp. nov., Fusarium cuneirostrum sp. nov. and Fusarium tucumaniae.
Spray arm for a dishwasher, comprising a base body which has an upper shell and a lower shell arranged thereon, wherein the upper shell is made of plastics material and provides a plurality of nozzles which are formed as an integral component of the base body in one piece therewith, wherein the nozzle-side outer surface of the upper shell is flat, wherein the nozzles each have a nozzle chamber and a through-flow chamber downstream of the nozzle chamber in the nozzle through-flow direction , which through-flow chamber directly adjoins the nozzle chamber by the interposition of a through-flow opening .
Windscreen wiper of longitudinal main orientation, comprising: - a link element linking the wiper with a drive arm; - a longitudinal support mounting which is linked to the link element and which comprises a top body of longitudinal main axis and bottom means supporting a wiper blade ; and - at least one structural element in the form of a longitudinal blade, which is mounted in said body , the mounting being glued or welded to the structural element and/or to the link element , characterized in that the mounting or the body comprises holes facing zones in which the mounting is glued or welded to the structural element and/or to the link element , the holes being configured to allow the passage of a welding or gluing tool. - a link element linking the wiper with a drive arm; - a longitudinal support mounting which is linked to the link element and which comprises a top body of longitudinal main axis and bottom means supporting a wiper blade ; and - at least one structural element in the form of a longitudinal blade, which is mounted in said body , the mounting being glued or welded to the structural element and/or to the link element , characterized in that the mounting or the body comprises holes facing zones in which the mounting is glued or welded to the structural element and/or to the link element , the holes being configured to allow the passage of a welding or gluing tool.
An arrangement comprising an endoscope and an elevator attachment attachable to and detachable from the endoscope , wherein the endoscope includes an inclined surface inclined relative to a longitudinal direction of an insertion part , an elevator recess having a first inner wall and a second inner wall that faces the first inner wall and being opened toward the inclined surface , and a lever pivotally provided inside the elevator recess , the elevator attachment comprising: a holding body characterized in that the holding body includes an inclined surface plate covering a part of the inclined surface , a first plate raising from an edge of the inclined surface plate and located along the first inner wall and a second plate abutting against the second inner wall ; and an elevator pivotally supported between the first plate and the second plate and including a lever connection part to be connected to the lever . an inclined surface inclined relative to a longitudinal direction of an insertion part , an elevator recess having a first inner wall and a second inner wall that faces the first inner wall and being opened toward the inclined surface , and a lever pivotally provided inside the elevator recess , the elevator attachment comprising: a holding body characterized in that the holding body includes an inclined surface plate covering a part of the inclined surface , a first plate raising from an edge of the inclined surface plate and located along the first inner wall and a second plate abutting against the second inner wall ; and an elevator pivotally supported between the first plate and the second plate and including a lever connection part to be connected to the lever . a holding body characterized in that the holding body includes an inclined surface plate covering a part of the inclined surface , a first plate raising from an edge of the inclined surface plate and located along the first inner wall and a second plate abutting against the second inner wall ; and an elevator pivotally supported between the first plate and the second plate and including a lever connection part to be connected to the lever .
A system with adjustable levelling feet for furniture with a bottom and shoulders which terminate in correspondence with said bottom , of the type including, in combination: at least one pair of feet , front and rear, respectively, which are operatively interconnected by means of a return and regulation rod , and wherein each foot comprises a regulation mechanism , said rod and said mechanism being accessible from the outside of the foot and manoeuvrable by means of a tool (U), the foot being assembled on a plaque fixed outside the bottom of said piece of furniture , a series of passages (49, 49';43, 43'; 44, 44') for said rod and for said tool (U) being envisaged in said plaque characterized in that said plaque has a square configuration defining wings (A) substantially positioned at 90°, said foot being situated in the vertex defined by said wings (A), whose regulation mechanism is accessible through said passages (43, 43'; 44, 44') situated in said wings (A) radially with respect to said foot said first of said passages being substantially parallel to the second of said passages , and substantially perpendicular to the third of said passages , whereas the fourth of said passages is substantially parallel to the fifth of said passages , and substantially perpendicular to the sixth of said passages .