mhurhangee/ep-ind-claims huggingface dataset:
A plate segment (200, 300, 400, 400A, 400B, 400C, 500, 710, 712) configured to be mounted on a disc of a disperser or refiner for processing comminuted cellulosic material, the segment (200,..., 712) comprising: a front face including disperser teeth or refining bars; a back face on an opposing major surface to the front face, including a raised post (260, 720) surrounding a fastener attachment structure and a raised plate positioning section (210, 726); side edges located along edges of the front face and the back face; and a radially outer edge and a radially inner edge extending between the side edges; wherein the back face lacks raised structures along the side edges. a front face including disperser teeth or refining bars; a back face on an opposing major surface to the front face, including a raised post (260, 720) surrounding a fastener attachment structure and a raised plate positioning section (210, 726); side edges located along edges of the front face and the back face; and a radially outer edge and a radially inner edge extending between the side edges; wherein the back face lacks raised structures along the side edges.
An inductive power transfer unit for inductive power transfer to a vehicle, wherein the inductive power transfer unit comprises at least one winding structure configured for generating or receiving an alternating electromagnetic field for inductive power transfer, and at least one flux guiding means for guiding a magnetic flux of the electromagnetic field which is generated or received by the winding structure, wherein the inductive power transfer unit further comprises at least one antenna element, wherein at least one portion of the at least one flux guiding means is a part of the antenna element, characterized in that the inductive power transfer unit comprises an arrangement of multiple flux guiding means, wherein the arrangement of flux guiding means comprises multiple rows of flux guiding elements, wherein the rows of flux guiding elements are arranged adjacent to each other, wherein a flux guiding element is designed as a bar, wherein the antenna element is wound around at least one section of at least one flux guiding element.
Method for dosing one or more treatment substances (S1, S2) in a system for washing and recycling plastics, comprising the steps of: a. providing a container supported in a freely oscillating manner and operationally connected to a programmable weighing and control unit, said container being overturnable by gravity between a loading position and an unloading position of said one or more treatment substances; b. storing in said weighing and control unit a reference value (V R) of a weight which is suitable to cause overturning of said container to said unloading position; c. supplying a treatment substance to said container, detecting the weight thereof, and stopping the supply of said treatment substance upon reaching a preset weight value; and d. supplying to said container a washing substance until said reference value (V R) is reached causing said container to overturn through the force of gravity in said unloading position for unloading and sending said treatment substance to plastics washing modules included in said system. a. providing a container supported in a freely oscillating manner and operationally connected to a programmable weighing and control unit, said container being overturnable by gravity between a loading position and an unloading position of said one or more treatment substances; b. storing in said weighing and control unit a reference value (V R) of a weight which is suitable to cause overturning of said container to said unloading position; c. supplying a treatment substance to said container, detecting the weight thereof, and stopping the supply of said treatment substance upon reaching a preset weight value; and d. supplying to said container a washing substance until said reference value (V R) is reached causing said container to overturn through the force of gravity in said unloading position for unloading and sending said treatment substance to plastics washing modules included in said system.
A camming element for a device for forming a joint between two members, the camming element comprising: a first engagement element having a first cylindrical outer surface, a first curved camming surface, and a first wall portion between the first outer surface and the first camming surface; a second engagement element having a second cylindrical outer surface, a second curved camming surface and a second wall portion formed between the second outer surface and the second camming surface, the second engagement element being axially spaced and coaxial with the first engagement element; and a slot between the first and second engagement elements; wherein a width (w) of the first cylindrical outer surface in an axial direction is greater than a thickness (t) of the first wall portion in the axial direction; the camming element being rotatable mountable, in use, in a hole in one of the members, the first and second camping surfaces being engageable, in use, with a head portion of a fastening element which is connectable, in use, to the other member, rotation of the camping element in a first direction serving, in use, to draw the members together by action of the first and second camming surfaces pulling on the head portion of the fastening element, characterised in that the width (w) of the first cylindrical outer surface is greater than the thickness (t) of the first wall portion over the circumferential extent of the first curved comming surface. a first engagement element having a first cylindrical outer surface, a first curved camming surface, and a first wall portion between the first outer surface and the first camming surface; a second engagement element having a second cylindrical outer surface, a second curved camming surface and a second wall portion formed between the second outer surface and the second camming surface, the second engagement element being axially spaced and coaxial with the first engagement element; and a slot between the first and second engagement elements; wherein a width (w) of the first cylindrical outer surface in an axial direction is greater than a thickness (t) of the first wall portion in the axial direction; the camming element being rotatable mountable, in use, in a hole in one of the members, the first and second camping surfaces being engageable, in use, with a head portion of a fastening element which is connectable, in use, to the other member, rotation of the camping element in a first direction serving, in use, to draw the members together by action of the first and second camming surfaces pulling on the head portion of the fastening element, characterised in that the width (w) of the first cylindrical outer surface is greater than the thickness (t) of the first wall portion over the circumferential extent of the first curved comming surface.
An electric vehicle comprising a ladder frame and a driving unit, the driving unit comprising a motor that generates driving force to be transmitted to an axle of the electric vehicle and a transmission mechanism that shifts the driving force passed from the motor, characterized in that the electric vehicle further comprising: a motor housing that accommodates the motor of the driving unit; a leaf spring that suspends the axle from the electric vehicle; a first coupling part that couples the ladder frame to the motor housing; and a second coupling part that is integrated with the first coupling part and that couples the ladder frame to an end part of the leaf spring, wherein the second coupling part has a rib-shaped portion that protrudes outward in the vehicle width direction and that is connected to the end part the leaf spring. a motor housing that accommodates the motor of the driving unit; a leaf spring that suspends the axle from the electric vehicle; a first coupling part that couples the ladder frame to the motor housing; and a second coupling part that is integrated with the first coupling part and that couples the ladder frame to an end part of the leaf spring, wherein the second coupling part has a rib-shaped portion that protrudes outward in the vehicle width direction and that is connected to the end part the leaf spring.
Apparatus for use with a native valve of a heart of a subject, the apparatus comprising: a body: comprising a first frame shaped to define a lumen therethrough, having a compressed state in which the first frame has a first diameter, and having an expanded state in which the first frame has a second diameter that is greater than the first diameter; an upstream support: configured to be placed against an upstream surface of the native valve, comprising a second frame, having a compressed state, and having an expanded state in which the second frame is annular, has an inner perimeter that defines an opening through the second frame, and has an outer perimeter that has a third diameter that is greater than the second diameter; and a flexible sheet that couples the upstream support to the body, characterized in that the body is a valve body further comprising a valve member disposed within the lumen of the first frame. a body: comprising a first frame shaped to define a lumen therethrough, having a compressed state in which the first frame has a first diameter, and having an expanded state in which the first frame has a second diameter that is greater than the first diameter; comprising a first frame shaped to define a lumen therethrough, having a compressed state in which the first frame has a first diameter, and having an expanded state in which the first frame has a second diameter that is greater than the first diameter; an upstream support: configured to be placed against an upstream surface of the native valve, comprising a second frame, having a compressed state, and having an expanded state in which the second frame is annular, has an inner perimeter that defines an opening through the second frame, and has an outer perimeter that has a third diameter that is greater than the second diameter; and configured to be placed against an upstream surface of the native valve, comprising a second frame, having a compressed state, and having an expanded state in which the second frame is annular, has an inner perimeter that defines an opening through the second frame, and has an outer perimeter that has a third diameter that is greater than the second diameter; and having a compressed state, and having an expanded state in which the second frame is annular, has an inner perimeter that defines an opening through the second frame, and has an outer perimeter that has a third diameter that is greater than the second diameter; and a flexible sheet that couples the upstream support to the body, characterized in that the body is a valve body further comprising a valve member disposed within the lumen of the first frame.
A method for allocating a channel and power by a first base station, BS, in a communication system, the method characterized by comprising: selecting a user equipment, UE, to be allocated each subchannel in each first subframe period by using a first scheduling scheme; and allocating power to all UEs including the selected UE and non-selected UE in each second subframe period different from the first subframe period based on scheduling results using a second scheduling scheme, wherein the first scheduling scheme is based on inter-cell cooperation information received from at least one second BS and a data rate for each subchannel received from each UE, and the second scheduling scheme is based on an average data rate for each subchannel computed by accumulating the data rate for a preset time period and the inter-cell cooperation information. selecting a user equipment, UE, to be allocated each subchannel in each first subframe period by using a first scheduling scheme; and allocating power to all UEs including the selected UE and non-selected UE in each second subframe period different from the first subframe period based on scheduling results using a second scheduling scheme, wherein the first scheduling scheme is based on inter-cell cooperation information received from at least one second BS and a data rate for each subchannel received from each UE, and the second scheduling scheme is based on an average data rate for each subchannel computed by accumulating the data rate for a preset time period and the inter-cell cooperation information.
Operating method of a vehicle cabin air supply device comprising: - taking fresh air from outside the cabin, - injecting said fresh air into the cabin, characterized in that it comprises a step of, when starting the air supply device, entirely diverting the fresh air to an air exhaust, said fresh air being exhausted outside the cabin, during a determined exhaust duration before injecting said fresh air into the cabin. - taking fresh air from outside the cabin, - injecting said fresh air into the cabin,
A wired-rope measuring device, comprising: two cameras (1,2,10) that shoot one or more wired ropes from different directions; and an analyzing device that analyzes image data that is an image shot by the two cameras; wherein the analyzing device is arranged to apply the principle of triangulation by a stereo method to the image data to seek coordinates of the wired rope relative to the cameras, and to correct volumetric anamorphosis based on the coordinates of the wired rope when calculating a diameter of the wired rope. an analyzing device that analyzes image data that is an image shot by the two cameras; wherein the analyzing device is arranged to apply the principle of triangulation by a stereo method to the image data to seek coordinates of the wired rope relative to the cameras, and to correct volumetric anamorphosis based on the coordinates of the wired rope when calculating a diameter of the wired rope.
An air-sand heat exchanger comprising a gas-permeable delimiting wall for a particle mass flow being traversed by an air mass flow, wherein said air mass flow passes through the delimiting wall which has a particle side and an air side, characterized in that the delimiting wall consists of a one-pieced grid body comprising straight-lined channels delimited on their peripheries by channel walls, and that said channels extend parallel to the particle side and transversely to the flow direction of the air mass flow.
A planting unit for a seeding machine comprising: a seed meter having a metering member and a mechanical seed delivery system adapted to take seed from the metering member at a release position and move seed from the seed meter to a discharge location adjacent a seed furrow formed in soil beneath the seeding machine, characterized in that the metering member comprising a concave bowl shaped body, said bowl shaped body having a base portion from which extends a sidewall, the sidewall having inner and outer surfaces (108, 110) and apertures extending through the sidewall, the metering member adapted to adhere seed to the apertures to sequentially move seed to a release position at which the inner surface of the sidewall is facing downward such the seed is hanging beneath the sidewall;
A cyclic capillary electrophoresis device comprising a capillary channel forming a closed loop, the capillary channel comprising: - a turn inner half facing toward a space enclosed by the loop, the turn inner half having an inner wall surface of first charge density, and - a turn outer half facing away from the space enclosed by the loop, the turn outer half having an inner wall surface of second charge density; characterised in that either: - a difference between the first and the second charge densities exists, or - the device comprise: o a first charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the inner half, and/or o a second charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the outer half, and the difference between the first and the second charge densities can be turned on by turning on the first charge-inducing structure and/or the second charge-inducing structure, wherein the difference is adapted for creating a smaller average electroosmotic flow velocity in the turn inner half than in the turn outer half. - a turn inner half facing toward a space enclosed by the loop, the turn inner half having an inner wall surface of first charge density, and - a turn outer half facing away from the space enclosed by the loop, the turn outer half having an inner wall surface of second charge density; - a difference between the first and the second charge densities exists, or - the device comprise: o a first charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the inner half, and/or o a second charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the outer half, and the difference between the first and the second charge densities can be turned on by turning on the first charge-inducing structure and/or the second charge-inducing structure, o a first charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the inner half, and/or o a second charge-inducing structure capable of being turned on to induce charges on at least part of the inner wall surface of the outer half,
Height-adjustable bearing unit for connecting a set-out arm (8, 28), fastened pivotably to a running carriage, of the bearing unit to a supporting profile, fastenable to a lower wing margin of a wing, of the bearing unit, (a) the bearing unit having a bearing bolt (4, 24) of the bearing unit, which bearing bolt is pressed with its lower end positively into the set-out arm and is accommodatably axially adjustable and rotatable in a first recess (1*) of the supporting profile; (b) the bearing bolt (4, 24) forming, together with a bearing part (5, 25) of the bearing unit, a two-part adjustment unit, for which the bearing bolt (4, 24) has at the top a cylindrical recess provided with an internal thread and the bearing part having a cylindrical extension provided with a corresponding external thread; (c) the bearing part (5, 25) being designed to be mounted axially firmly, but rotatably, in a second recess of the supporting profile, such that a load transferred from the supporting profile can be absorbed and can be transferred via the threaded connection (15a, 5d; 21) to the bearing bolt (4, 24), characterized in that (d) the bearing part (5, 25) and the bearing bolt (4, 24) have bores (5b, 4c; 24a, 25b), running along a common axis (7*, 13) and aligned with one another, for the reception of a rod-shaped element (7, 9; 17) of the bearing unit, in order to receive, in a position/setting not permitting height adjustment, the spring-loaded rod element (7, 9), forming a positive connection between the bearing bolt and bearing part (4, 5), or the rod element, forming a non-positive connection between the bearing bolt and bearing part (24, 25). (a) the bearing unit having a bearing bolt (4, 24) of the bearing unit, which bearing bolt is pressed with its lower end positively into the set-out arm and is accommodatably axially adjustable and rotatable in a first recess (1*) of the supporting profile; (b) the bearing bolt (4, 24) forming, together with a bearing part (5, 25) of the bearing unit, a two-part adjustment unit, for which the bearing bolt (4, 24) has at the top a cylindrical recess provided with an internal thread and the bearing part having a cylindrical extension provided with a corresponding external thread; (c) the bearing part (5, 25) being designed to be mounted axially firmly, but rotatably, in a second recess of the supporting profile, such that a load transferred from the supporting profile can be absorbed and can be transferred via the threaded connection (15a, 5d; 21) to the bearing bolt (4, 24), characterized in that (d) the bearing part (5, 25) and the bearing bolt (4, 24) have bores (5b, 4c; 24a, 25b), running along a common axis (7*, 13) and aligned with one another, for the reception of a rod-shaped element (7, 9; 17) of the bearing unit, in order to receive, in a position/setting not permitting height adjustment, the spring-loaded rod element (7, 9), forming a positive connection between the bearing bolt and bearing part (4, 5), or the rod element, forming a non-positive connection between the bearing bolt and bearing part (24, 25).
A compound having the general formula: wherein R 1 is -C CH 3; R 2 is acetoxy; R 3 is acetoxy; R 4 is ethyl; and X is =O; R 1 is -C CH 3; R 2 is -SAc; R 3 is acetoxy; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is methoxy; R 3 is methoxy; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is methoxy; R 3 is acetoxy; R 4 is methyl; X is =O; R 1 is -C CH 3; R 2 is H; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is Br; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is acetoxy; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is -SAc; R 3 is OH; R 4 is methyl; and X is =O; or R 1 is -C CH 3; R 2 is methoxy; R 3 is OH; R 4 is methyl; and X is =O. R 1 is -C CH 3; R 2 is acetoxy; R 3 is acetoxy; R 4 is ethyl; and X is =O; R 1 is -C CH 3; R 2 is -SAc; R 3 is acetoxy; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is methoxy; R 3 is methoxy; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is methoxy; R 3 is acetoxy; R 4 is methyl; X is =O; R 1 is -C CH 3; R 2 is H; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is Br; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is acetoxy; R 3 is OH; R 4 is methyl; and X is =O; R 1 is -C CH 3; R 2 is -SAc; R 3 is OH; R 4 is methyl; and X is =O; or R 1 is -C CH 3; R 2 is methoxy; R 3 is OH; R 4 is methyl; and X is =O.
A method for performance measurement, the method comprising: executing active probing on a physical layer by a communication device coupled to another communication device via a network forming a communication link, wherein executing active probing comprises transmitting test data configured to flood layer 1 or layer 2 of the network; reading operational data associated with the communication link in response to executing active probing, the operational data comprising data generated by both active probing and user traffic; and measuring performance, by the communication device, of the communication link with reference to the communication device, the performance measured according to the read operational data; wherein said executing active probing, said reading and said measuring are performed by performance measuring software at said communication device, and wherein the method does not involve using corresponding performance measuring software at the other communication device. executing active probing on a physical layer by a communication device coupled to another communication device via a network forming a communication link, wherein executing active probing comprises transmitting test data configured to flood layer 1 or layer 2 of the network; reading operational data associated with the communication link in response to executing active probing, the operational data comprising data generated by both active probing and user traffic; and measuring performance, by the communication device, of the communication link with reference to the communication device, the performance measured according to the read operational data; wherein said executing active probing, said reading and said measuring are performed by performance measuring software at said communication device, and wherein the method does not involve using corresponding performance measuring software at the other communication device.