mhurhangee/ep-ind-claims huggingface dataset:
An implement for soil preparation, comprising - a frame; - a first arrangement of one or more soil cultivating tools received on the frame and configured for soil cultivation; - a second arrangement of one or more soil cultivating tools, the second arrangement of one or more soil cultivating tools - movable in relation to the first arrangement of one or more soil cultivating tool, - articulated to the frame through a first parallelogram joint, and - with respect to the first arrangement of one or more soil cultivating tools, located in a rearward direction with regard to a direction of travelling or moving of the implement in operation; - a third arrangement of one or more soil cultivating tools, the third arrangement of one or more soil cultivating tools - movable in relation to the first arrangement of one or more soil cultivating tool and to the second arrangement of one or more soil cultivating tools, respectively, and - articulated to the second arrangement of one or more soil cultivating tools through a second parallelogram joint; and - an adjustment mechanism functionally connecting to the second parallelogram joint and configured to adjust a working parameter for the second parallelogram joint. - a frame; - a first arrangement of one or more soil cultivating tools received on the frame and configured for soil cultivation; - a second arrangement of one or more soil cultivating tools, the second arrangement of one or more soil cultivating tools - movable in relation to the first arrangement of one or more soil cultivating tool, - articulated to the frame through a first parallelogram joint, and - with respect to the first arrangement of one or more soil cultivating tools, located in a rearward direction with regard to a direction of travelling or moving of the implement in operation; - movable in relation to the first arrangement of one or more soil cultivating tool, - articulated to the frame through a first parallelogram joint, and - with respect to the first arrangement of one or more soil cultivating tools, located in a rearward direction with regard to a direction of travelling or moving of the implement in operation; - a third arrangement of one or more soil cultivating tools, the third arrangement of one or more soil cultivating tools - movable in relation to the first arrangement of one or more soil cultivating tool and to the second arrangement of one or more soil cultivating tools, respectively, and - articulated to the second arrangement of one or more soil cultivating tools through a second parallelogram joint; and - movable in relation to the first arrangement of one or more soil cultivating tool and to the second arrangement of one or more soil cultivating tools, respectively, and - articulated to the second arrangement of one or more soil cultivating tools through a second parallelogram joint; and - an adjustment mechanism functionally connecting to the second parallelogram joint and configured to adjust a working parameter for the second parallelogram joint.
Vibrating plate for ground compaction, having - an upper mass with a drive motor; - a lower mass which is mounted in a resiliently moveable manner with respect to the upper mass and has a ground contact plate and a vibration excitation device (2, 3, 4) coupled to the ground contact plate; - a belt drive device (8, 9, 10) with a drive disc which can be driven by the drive motor, a driven disc coupled to the vibration excitation device (2, 3, 4) and a belt transmitting driving energy from the drive disc to the driven disc, characterised by - at least one limitation device (B1, B2, B3, B4, B5, B6) which is disposed laterally next to an outer surface and/or an inner surface of the belt in a region in which the belt is not in contact with the drive disc or driven disc, and which has a contact region on a side facing the outer surface and/or inner surface of the belt - in an inoperative state of the belt drive device (8, 9, 10), in which the drive disc and the driven disc are stationary, the contact surface of the limitation device (B1, B2, B3, B4, B5, B6) is disposed at a predetermined distance with respect to the outer surface and/or to the inner surface of the belt, and wherein - the contact region is of a width which corresponds at least to a width of the outer surface of the belt. - an upper mass with a drive motor; - a lower mass which is mounted in a resiliently moveable manner with respect to the upper mass and has a ground contact plate and a vibration excitation device (2, 3, 4) coupled to the ground contact plate; - a belt drive device (8, 9, 10) with a drive disc which can be driven by the drive motor, a driven disc coupled to the vibration excitation device (2, 3, 4) and a belt transmitting driving energy from the drive disc to the driven disc, characterised by - at least one limitation device (B1, B2, B3, B4, B5, B6) which is disposed laterally next to an outer surface and/or an inner surface of the belt in a region in which the belt is not in contact with the drive disc or driven disc, and which has a contact region on a side facing the outer surface and/or inner surface of the belt - in an inoperative state of the belt drive device (8, 9, 10), in which the drive disc and the driven disc are stationary, the contact surface of the limitation device (B1, B2, B3, B4, B5, B6) is disposed at a predetermined distance with respect to the outer surface and/or to the inner surface of the belt, and wherein - the contact region is of a width which corresponds at least to a width of the outer surface of the belt.
A cell culture device comprising: a) a well defined by at least one well sidewall and a well bottom wall; b) a plurality of microwells within the well, each microwell defined by at least one microwell sidewall extending upwardly from the well bottom wall and separating a microwell fluid volume from a microwell fluid volume of an adjacent microwell and a first common fluid volume within the well above the microwells, each microwell comprising a microwell top portion and a microwell bottom portion, and wherein microwell sidewalls between adjacent microwells converge to form an apex; and c) a set of sub-microwells within each microwell for containing one or more cells within each sub-microwell, and a second common fluid volume within each microwell above the set of sub-microwells, each sub-microwell comprising a sub-microwell top portion, a sub-microwell bottom portion and at least one sub-microwell sidewall extending upwardly from the well bottom wall separating a sub-microwell fluid volume from a sub-microwell fluid volume of an adjacent sub-microwell, wherein sub-microwell sidewalls between adjacent sub-microwells converge to form an apex and sub-microwell sidewalls of each sub-microwell that is adjacent to the microwell sidewall are formed by a portion of the microwell sidewall. a) a well defined by at least one well sidewall and a well bottom wall; b) a plurality of microwells within the well, each microwell defined by at least one microwell sidewall extending upwardly from the well bottom wall and separating a microwell fluid volume from a microwell fluid volume of an adjacent microwell and a first common fluid volume within the well above the microwells, each microwell comprising a microwell top portion and a microwell bottom portion, and wherein microwell sidewalls between adjacent microwells converge to form an apex; and c) a set of sub-microwells within each microwell for containing one or more cells within each sub-microwell, and a second common fluid volume within each microwell above the set of sub-microwells, each sub-microwell comprising a sub-microwell top portion, a sub-microwell bottom portion and at least one sub-microwell sidewall extending upwardly from the well bottom wall separating a sub-microwell fluid volume from a sub-microwell fluid volume of an adjacent sub-microwell, wherein sub-microwell sidewalls between adjacent sub-microwells converge to form an apex and sub-microwell sidewalls of each sub-microwell that is adjacent to the microwell sidewall are formed by a portion of the microwell sidewall.
A ballast sweeping installation for picking up and distributing ballast located on a track, consisting of a sweeping brush rotatable about an axis of rotation, a ballast conveyor belt arranged preceding the same with regard to a brush rotation direction and having a transport direction extending parallel to the axis of rotation, and with a ballast guiding plate positioned between the sweeping brush and ballast conveyor belt for passing the ballast on to the ballast conveyor belt, characterized in that a length of the ballast conveyor belt delimited by two deflection ends is designed to be shorter than a length of the sweeping brush extending in the axis of rotation, and that the ballast conveyor belt is designed to be displaceable in the transport direction relative to the sweeping brush by means of a drive and that the length of the ballast conveyor belt is designed to correspond approximately to a gauge of the track.
A gas turbine bypass duct having a bleed duct assembly comprising a circumferentially extending surface defining an inner wall of an annulus onto which a bleed duct opens at a bleed duct opening and an aerofoil projecting from the surface (17, 18, 19, 20) and extending across the annulus between the inner wall and an outer wall of the annulus, the aerofoil having a leading edge, a trailing edge and first and second flanks (20C, 20D) connecting the leading edge and the trailing edge, characterised in that the aerofoil is leant at an acute angle to the surface with the first flank facing toward the inner wall and adjoining the bleed duct opening.
A motorised articulated module (10; 71 to 74; 91 to 93) comprising two movable elements (11, 12; 77 to 81; 97 to 100), able to move in relation to each other, comprising: • a first linear actuator (15; 71a to 74a; 91a to 93a) allowing the module to be motorised and comprising a body and a rod capable of translationally moving relative to the body along an axis, the body of the first actuator being connected to each of the two elements by means of a link (21, 22; 102) having at least one degree of rotational freedom; • two link rods (24, 25; 91b, 91c, 92b, 92c, 93b, 93c) associated with the first actuator, each link rod being connected at a first (27, 29) one of their ends to the rod of the first actuator by means of a link having one degree of rotational freedom, a second end of a first one of the two link rods being connected to the first one (11; 98) of the two elements by means of a link (31; 103) having at least one degree of rotational freedom, a second end of a second one of the two link rods being connected to the second one of the two elements by means of a link having at least one degree of rotational freedom. • a first linear actuator (15; 71a to 74a; 91a to 93a) allowing the module to be motorised and comprising a body and a rod capable of translationally moving relative to the body along an axis, the body of the first actuator being connected to each of the two elements by means of a link (21, 22; 102) having at least one degree of rotational freedom; • two link rods (24, 25; 91b, 91c, 92b, 92c, 93b, 93c) associated with the first actuator, each link rod being connected at a first (27, 29) one of their ends to the rod of the first actuator by means of a link having one degree of rotational freedom, a second end of a first one of the two link rods being connected to the first one (11; 98) of the two elements by means of a link (31; 103) having at least one degree of rotational freedom, a second end of a second one of the two link rods being connected to the second one of the two elements by means of a link having at least one degree of rotational freedom.
Fall protection for a lift, which lift comprises a vertical guide, a rack extending in the vertical direction, a lift cage movable along the guide, and lifting means for moving the lift cage along the guide, which fall protection comprises a catch (37a; 61a) which is attached to the lift cage during use and which is activated when a downward speed of movement of the lift cage exceeds a set maximum value, which catch comprises: - a housing attached to the lift cage, as well as - a gear that is in engagement with the gear rack during use and is mounted on a gear shaft, - a brake drum which is rotatably present in the housing and, during braking with a braking surface present on an outside, is frictionally in contact with an inner side of the housing, which brake drum is provided on the inside with a coupling cam, and - a coupling pawl which is pivotable with an end about a pivot axis, which is parallel to and remote from the gear shaft and is connected to the gear shaft, and at high rotational speed of the gear shaft rotates by the centrifugal force from a folded position, in which the coupling pawl lies against the gear shaft, to an unfolded position, wherein the coupling pawl is moved outwards with the other end and presses against the coupling cam and thereby couples the gear shaft to the brake drum, characterized in that the fall protection in addition to said catch (37a; 61a) comprises a further catch (37b; 61b) which is attached to the lift cage during use and which is identical to said catch, and in that the fall protection comprises coupling means connecting the two catches with each other such that when moving the coupling pawl of one of the catches to the folded-out position, move the coupling pawl of the other catch to the folded-out position, which coupling means are located in the axial direction next to the brake drum in the housing. - a housing attached to the lift cage, as well as - a gear that is in engagement with the gear rack during use and is mounted on a gear shaft, - a brake drum which is rotatably present in the housing and, during braking with a braking surface present on an outside, is frictionally in contact with an inner side of the housing, which brake drum is provided on the inside with a coupling cam, and - a coupling pawl which is pivotable with an end about a pivot axis, which is parallel to and remote from the gear shaft and is connected to the gear shaft, and at high rotational speed of the gear shaft rotates by the centrifugal force from a folded position, in which the coupling pawl lies against the gear shaft, to an unfolded position, wherein the coupling pawl is moved outwards with the other end and presses against the coupling cam and thereby couples the gear shaft to the brake drum,
A vibration tamper for compacting subsoil, comprising a superstructure and a substructure, with the superstructure comprising a motor, an eccentric disk and a bearing (17, 19) for the eccentric disk, with a connecting rod being arranged in an eccentric manner on the eccentric disk by way of a connecting rod bearing, and with the substructure comprising a tamper plate which is operatively connected with the free end of the connecting rod and which is thereby driven to a linear tamper movement along a tamper axis, characterized in that the connecting rod comprises a bent portion which circumvents the eccentric disk against an advancing direction of the vibration tamper, so that the tamper axis is offset backward in the direction of the motor.
A motor assembly comprising: a stator assembly; a rotor assembly operatively coupled with the stator assembly; one or more rotor-stator gaps defined between a rotor housing and a stator housing; characterized in that the motor assembly further comprises a plurality of axial stator blades extending from a leading edge (622, 624) of stator assembly, wherein the plurality of axial stator blades is configured to convert, during operation, tangential kinetic energy of an airflow from the rotor assembly to static pressure rise, and redirect the airflow in a direction aligned with an axis of the motor assembly and through the one or more rotor-stator gaps (626a, 626b), thereby cooling the motor assembly. a stator assembly; a rotor assembly operatively coupled with the stator assembly; one or more rotor-stator gaps defined between a rotor housing and a stator housing; characterized in that the motor assembly further comprises a plurality of axial stator blades extending from a leading edge (622, 624) of stator assembly, wherein the plurality of axial stator blades is configured to convert, during operation, tangential kinetic energy of an airflow from the rotor assembly to static pressure rise, and redirect the airflow in a direction aligned with an axis of the motor assembly and through the one or more rotor-stator gaps (626a, 626b), thereby cooling the motor assembly.
A machine tool for a workpiece for producing dental prostheses or models thereof, having a workpiece holder for the workpiece and a first and a second processing tool (6, 7), wherein the workpiece holder and the first and the second processing tool (6, 7) are adjustable relative to one another along a first feed axis extending through the workpiece holder, wherein the first processing tool is arranged on a first side of the feed axis and the second processing tool is arranged on a side of the feed axis opposite to the first side, wherein the first and the second processing tools (6, 7) are adjustable relative to the workpiece along a second feed axis (8, 9) extending through the processing tool (6, 7), wherein the workpiece is rotatable by at least 180 degrees about the first feed axis, characterized in that the first feed axis, together with a perpendicular (8', 9') to the second feed axis (8, 9) of the two processing tools (6, 7), defines a fixed, predetermined angular offset (α) of between 2 degrees and 15 degrees.
A method in a communication network that supports dual connectivity, the method comprising: generating a measurement configuration information element, IE, for measurement of a wireless channel between a user equipment, UE, and a secondary node associated with a secondary cell group that together with a master node provides dual connectivity services to the UE; encapsulating the measurement configuration IE in a measurement configuration field, wherein the measurement configuration field is associated with a defined signaling radio bearer, SRB, that is to be used by the UE for measurement reporting; and transmitting the measurement configuration field to the UE in a radio resource control, RRC, message. generating a measurement configuration information element, IE, for measurement of a wireless channel between a user equipment, UE, and a secondary node associated with a secondary cell group that together with a master node provides dual connectivity services to the UE; encapsulating the measurement configuration IE in a measurement configuration field, wherein the measurement configuration field is associated with a defined signaling radio bearer, SRB, that is to be used by the UE for measurement reporting; and transmitting the measurement configuration field to the UE in a radio resource control, RRC, message.
A cell separation apparatus for isolating living cells, encompassing a cell culture container for reception of a cell suspension and a conduit connected to the cell culture container for the conveyance of cell suspension out of the cell culture container, the conduit extending along a notional conduit path passing centrally through the conduit, the conduit path defining in the conduit an axial direction proceeding along the conduit path, a radial direction orthogonal to the conduit path, and a circumferential direction proceeding around the conduit path, at least a segment of the conduit, constituting a turbulent flow segment, comprising a flow configuration that generates a turbulent cell suspension flow, characterized in that the flow configuration comprises at least two axial configuration segments (34, 36) located axially behind one another, one of which is embodied to accelerate a cell suspension, flowing through the conduit axially away from the cell culture container, in a circumferential direction in a first directional orientation, and the respective other of which is embodied to accelerate the cell suspension in a circumferential direction in a second directional orientation opposite to the first directional orientation.
A dispensing device, comprising: a housing; a substrate; a reservoir holding a composition comprising a volatile active and a liquid carrier; and an activator operatively connected to the reservoir, wherein when the activator is activated, a stream of the composition is released from the reservoir to impact a surface (22a, 22b) of the substrate at an angle A and wherein the angle A is measured between a central axis of the stream and the substrate surface (22a, 22b); wherein upon impact of the composition a first portion X of the composition is deflected out of the dispensing device and a second portion Y of the composition is deposited onto the surface (22a, 22b) of the substrate, and the ratio X/Y being dependent on the angle A, wherein the substrate pivots about a z-axis transverse to the stream such as to vary the angle A, thereby altering the ratio X/Y, and characterised in that, the reservoir is disposed within the housing, and in that, the second portion Y of the composition is partially absorbed into the substrate. a housing; a substrate; a reservoir holding a composition comprising a volatile active and a liquid carrier; and an activator operatively connected to the reservoir, wherein when the activator is activated, a stream of the composition is released from the reservoir to impact a surface (22a, 22b) of the substrate at an angle A and wherein the angle A is measured between a central axis of the stream and the substrate surface (22a, 22b); wherein upon impact of the composition a first portion X of the composition is deflected out of the dispensing device and a second portion Y of the composition is deposited onto the surface (22a, 22b) of the substrate, and the ratio X/Y being dependent on the angle A, wherein the substrate pivots about a z-axis transverse to the stream such as to vary the angle A, thereby altering the ratio X/Y, and characterised in that, the reservoir is disposed within the housing, and in that, the second portion Y of the composition is partially absorbed into the substrate.