mhurhangee/ep-ind-claims huggingface dataset:
Folding machine for folding sheet-shaped elements (201, 202) with a first buckle folding unit and a second buckle folding unit and a transport table disposed between the two buckle folding units (2, 4), wherein the transporting direction of the sheet-shaped elements on the transport table is at a right angle to the transporting direction in the first buckle folding unit, wherein in the first buckle folding unit, a succession of folds having one fold or a plurality of folds can be created, and wherein the transport table includes a device for pressing at least one fold or a plurality of folds lying on top of each other of the last succession of folds that has been formed in a sheet-shaped element, and wherein the device for pressing includes at least one pair of pressing rollers, characterized in that the pair of pressing rollers is displaceable (a) in a direction transverse to the transporting direction of the transport table.
A heating apparatus for bottle-shaped or tubular containers for gel-like media for medical diagnostics, wherein a sleeve-like housing which is open on both sides is provided with two openings (8, 10) and an electrically heated inner surface in the form of a cylindrical casing, into the first opening of which the bottle-shaped or tubular container can be inserted, characterized in that the housing is provided with a receiver releasably fastened to the housing for the bottle-shaped or tubular container, wherein the receiver is arranged within the region bounded by the inner surface and comprises a base region which is sealed relative to the second opening of the housing.
Safety device for a drug delivery device, comprising: - a support body adapted to receive and hold the drug delivery device, - a needle shield slidably arranged relative to the support body, - an inner locking mechanism arranged inside the needle shield between a front end of the needle shield and a front end of the support body and adapted to lock and unlock the needle shield, characterized in that the inner locking mechanism comprises at least three independent locking parts (12.1-12.3) wherein two outer ones of the three locking parts (12.1, 12.3) are telescopically movable relative to a middle locking part (12.2) of the at least three locking parts (12.1-12.3). - a support body adapted to receive and hold the drug delivery device, - a needle shield slidably arranged relative to the support body, - an inner locking mechanism arranged inside the needle shield between a front end of the needle shield and a front end of the support body and adapted to lock and unlock the needle shield, characterized in that the inner locking mechanism comprises at least three independent locking parts (12.1-12.3) wherein two outer ones of the three locking parts (12.1, 12.3) are telescopically movable relative to a middle locking part (12.2) of the at least three locking parts (12.1-12.3).
An articulated arm robot including a support part capable of extending and contracting upward and downward, a first arm part with one end joined to the support part through a first joint to be rotatable about a yaw axis and having a second joint rotatable about a roll axis between both ends, a second arm part with one end joined to the other end of the first arm part through a third joint to be rotatable about the yaw axis or a pitch axis, an end effector part joined to the other end of the second arm part through a fourth joint to be rotatable about the yaw axis or the pitch axis, and drivers that respectively cause the first to fourth joints (1, 2, 3, 4) to rotate and the support part to extend and contract, characterized in that the articulated arm robot comprising: a controller that performs drive control of the drivers of the first to fourth joints (1, 2, 3, 4) by switching the arm to a SCARA mode where the first, second and third arm parts (11, 12, 13) rotate only in a horizontal plane when driving the first, second and third arm parts (11, 12, 13) with a low driving force, and to a perpendicular mode where the second and third arm parts (12, 13) rotate only in a vertical plane when moving the second and third arm parts (12, 13) over a wide range in a vertical direction. a controller that performs drive control of the drivers of the first to fourth joints (1, 2, 3, 4) by switching the arm to a SCARA mode where the first, second and third arm parts (11, 12, 13) rotate only in a horizontal plane when driving the first, second and third arm parts (11, 12, 13) with a low driving force, and to a perpendicular mode where the second and third arm parts (12, 13) rotate only in a vertical plane when moving the second and third arm parts (12, 13) over a wide range in a vertical direction.
A method of manufacturing, comprising: providing a semiconductor chip having a side, an interconnect layer, and a passivation layer; and forming a polymer layer on the passivation layer with a central portion and a first frame, spatially separated from the central portion to define a first channel around the entire perimeter of the central portion with a serpentine footprint that extends to but not into the passivation layer. providing a semiconductor chip having a side, an interconnect layer, and a passivation layer; and forming a polymer layer on the passivation layer with a central portion and a first frame, spatially separated from the central portion to define a first channel around the entire perimeter of the central portion with a serpentine footprint that extends to but not into the passivation layer.
A multi-connectivity communication method, comprising receiving, by an access network device of a second network, splitting configuration information from an access network device of a first network, wherein the splitting configuration information is used to instruct the access network device of the second network to split to-be-split data of user equipment, UE; and splitting, by the access network device of the second network at a packet data convergence protocol, PDCP, layer, the to-be-split data of the UE based on the splitting configuration information; wherein the splitting configuration information comprises an identifier of a to-be-split bearer, an identifier of the UE, and information about a first tunnel endpoint allocated by the access network device of the first network, wherein the information about the first tunnel endpoint is used to indicate a destination of downlink data transmission; wherein the first network is a long term evolution, LTE, network and the second network is a new radio, NR, network; and wherein the splitting configuration information further comprises information that is allocated by the access network device of the first network and traffic control information, wherein the traffic control information is used to indicate maximum traffic that the access network device of the first network can bear when the access network device of the second network is performing data splitting. receiving, by an access network device of a second network, splitting configuration information from an access network device of a first network, wherein the splitting configuration information is used to instruct the access network device of the second network to split to-be-split data of user equipment, UE; and splitting, by the access network device of the second network at a packet data convergence protocol, PDCP, layer, the to-be-split data of the UE based on the splitting configuration information; wherein the splitting configuration information comprises an identifier of a to-be-split bearer, an identifier of the UE, and information about a first tunnel endpoint allocated by the access network device of the first network, wherein the information about the first tunnel endpoint is used to indicate a destination of downlink data transmission; wherein the first network is a long term evolution, LTE, network and the second network is a new radio, NR, network; and wherein the splitting configuration information further comprises information that is allocated by the access network device of the first network and traffic control information, wherein the traffic control information is used to indicate maximum traffic that the access network device of the first network can bear when the access network device of the second network is performing data splitting.
Knife for a sealing jaw arrangement of a filling machine, said knife in use being provided in a first member, and designed to cooperate with a groove of a second member, the knife having a body being provided with a cutting edge on one side thereof configured to cut through a packaging material, characterised in that said body further comprises a guide, said guide being configured to enter the groove before the cutting edge enters the groove for controlling a movement of the cutting edge into the groove.
A cutting blade having a blade body comprising or consisting of a first material and a second material joined with the first material, the cutting blade having a first face, a second face opposed to the first face, and a cutting edge, wherein • the first face comprises a first surface • the second face comprises a primary bevel having a convex or straight cross-sectional shape and a secondary bevel having a concave cross-sectional shape with • a first line connecting the primary bevel and the secondary bevel, • the primary bevel extending from the cutting edge to the first line, • the cutting edge and the primary bevel are shaped in the second material, • a first wedge angle θ 1 between the first surface and the primary bevel or the tangent of the primary bevel through the cutting edge, • a second wedge angle θ 2 between the first surface and the tangent of the secondary bevel, wherein θ 1 > θ 2. • the first face comprises a first surface • the second face comprises a primary bevel having a convex or straight cross-sectional shape and a secondary bevel having a concave cross-sectional shape with • a first line connecting the primary bevel and the secondary bevel, • the primary bevel extending from the cutting edge to the first line, • the cutting edge and the primary bevel are shaped in the second material, • a first wedge angle θ 1 between the first surface and the primary bevel or the tangent of the primary bevel through the cutting edge, • a second wedge angle θ 2 between the first surface and the tangent of the secondary bevel, wherein θ 1 > θ 2. • a first line connecting the primary bevel and the secondary bevel, • the primary bevel extending from the cutting edge to the first line, • the cutting edge and the primary bevel are shaped in the second material, • a first wedge angle θ 1 between the first surface and the primary bevel or the tangent of the primary bevel through the cutting edge, • a second wedge angle θ 2 between the first surface and the tangent of the secondary bevel, wherein θ 1 > θ 2.
A device for bending tubes, comprising a spiral bending spring placeable in a tube in the region of a bend to be formed, whereby a core is inserted into the spiral bending spring, characterized in that the core consists of fibres oriented in the longitudinal direction of the core and is configured in such a way that it prevents the spiral bending spring from moving radially during bending and thus from buckling.
A method for noise level estimation, comprising: responsive to an increase of a signal level of a noise signal, calculating an impulsive noise probability of the noise signal, the impulsive noise probability indicating a likelihood that the noise signal is an impulsive noise; determining a variable smoothing factor for noise level estimation based on the impulsive noise probability, the variable smoothing factor being associated with a previous estimated level of the noise signal; and smoothing the noise signal with the variable smoothing factor so as to determine a current estimated level of the noise signal. responsive to an increase of a signal level of a noise signal, calculating an impulsive noise probability of the noise signal, the impulsive noise probability indicating a likelihood that the noise signal is an impulsive noise; determining a variable smoothing factor for noise level estimation based on the impulsive noise probability, the variable smoothing factor being associated with a previous estimated level of the noise signal; and smoothing the noise signal with the variable smoothing factor so as to determine a current estimated level of the noise signal.
A support assembly for deployment and retraction of an aero surface from an aircraft, the assembly comprising a guide track (37, 73) mountable to a fixed support, a primary support arm having one end coupled to a carriage (36, 71) mounted on the track such that the primary support arm is rotatable relative to the guide track about at least a first axis (H-H) parallel to the guide track and about a second axis (I-I) extending at right-angles to the guide track, and a control arm having one end rotatably coupled to the primary support arm and a second end pivotably attachable to the fixed support (15, 74) for rotation about a third axis (K-K), the arrangement being such that when the carriage is driven along the guide track, the control arm rotates about said third axis (K-K) to cause the primary support arm to pivot about the second axis (I-I), characterised in that the third axis (K-K) of the control arm is also configured to cause the primary support arm to pivot about the first axis (H-H) when the carriage (36, 71) is driven along the guide track (37, 73) so that an aero surface pivotally attached to an opposite end of the primary support arm is deployed and/or retracted along an arcuate path.
A method for producing a continuous film of at least one solar cell module comprising the following steps carried out in the order mentioned: a) depositing a material forming a release layer onto a surrogate substrate in the form of a belt being moved in a continuous loop, b) depositing layers (13, 15, 16, 19) forming a solar cell film onto said release layer, c) applying a first protective plastic layer onto said solar cell film, d) separating a film including at least said solar cell film and said plastic layer attached thereto from said belt, and e) applying a second protective plastic layer on the side of said film separated opposite to said first protective plastic layer, in which step d) is carried out after step c) or in connection therewith, wherein in step a) a release layer material suited to facilitate said separating of a film in step d) is deposited onto the belt, and wherein in step a) SiO2 is deposited onto said belt and heated to a temperature, such as 500°C - 700°C, sufficient to convert the structure of the release layer to be glass-like. a) depositing a material forming a release layer onto a surrogate substrate in the form of a belt being moved in a continuous loop, b) depositing layers (13, 15, 16, 19) forming a solar cell film onto said release layer, c) applying a first protective plastic layer onto said solar cell film, d) separating a film including at least said solar cell film and said plastic layer attached thereto from said belt, and e) applying a second protective plastic layer on the side of said film separated opposite to said first protective plastic layer,
A wind power generating device, comprising a tower column and a first wind generating set, wherein the first wind generating set is installed at a position on the tower column near the top, and the first wind generating set generates a first torque on the tower column during rotation for power generating, wherein the wind power generation device further comprises at least one second wind generating set which is installed at a position on the tower column below the top, wherein the second wind generating set generates a second torque on the tower column during rotation for power generating, and the second torque at least partially counteracts with the first torque; wherein the wind power generation device is provided with a yawing system for controlling the directions of the first wind generating set and the second wind generating set, and if the first and the second wind generating sets (31, 32) are shut down, the yawing system is arranged to control the gravity center of the wind power generation device to deviate towards the direction of the coming wind; and wherein the hubs (310, 320) of the first and the second wind generating sets (31, 32) are both located on the leeward face of the tower column or the windward face of the tower column, and the interference between blades of the first and the second wind generating sets (31, 32) is reduced by synchronously controlling the rotation of the blades of the first and the second wind generating sets (31, 32).
A method for identifying an undesired condition in the function of a floating roof of a tank, said method comprising: a) determining a filling level of a product in said tank using a first level gauge emitting electromagnetic transmit signals into said tank and receiving electromagnetic echo signals reflected by a surface of said product, b) detecting a reference distance between a reference position on said roof and said surface using a second level gauge mounted on said roof, c) forming a reference distance deviation as a difference between said reference distance and an expected value, d) comparing said reference distance deviation with a specified range, e) if said reference distance deviation is outside said specified range, storing a data set including said reference distance deviation and said filling level, f) repeating steps a) to e) for a plurality of points in time, g) based on stored data sets of reference distance deviations and filling levels, identifying said undesired condition. a) determining a filling level of a product in said tank using a first level gauge emitting electromagnetic transmit signals into said tank and receiving electromagnetic echo signals reflected by a surface of said product, b) detecting a reference distance between a reference position on said roof and said surface using a second level gauge mounted on said roof, c) forming a reference distance deviation as a difference between said reference distance and an expected value, d) comparing said reference distance deviation with a specified range, e) if said reference distance deviation is outside said specified range, storing a data set including said reference distance deviation and said filling level, f) repeating steps a) to e) for a plurality of points in time, g) based on stored data sets of reference distance deviations and filling levels, identifying said undesired condition.
A working platform for installation on an off-shore wind turbine, the working platform comprising: - an impermeable top plate forming a top side of the working platform when installed; and - an impermeable bottom plate forming a bottom side of the working platform when installed; and - one or more impermeable side plates (130, 131, 132); and wherein the impermeable top, bottom and side plates (130, 131, 132) are arranged together to form an enclosed space impervious to water. - an impermeable top plate forming a top side of the working platform when installed; and - an impermeable bottom plate forming a bottom side of the working platform when installed; and - one or more impermeable side plates (130, 131, 132);
A power module device (100; 200; 300; 400; 500; 600) having a first main side and a second main side opposite to the first main side, the power module device (100; 200; 300; 400; 500; 600) comprising in an order from the first main side to the second main side: a base plate; an electrically insulating ceramic layer on the base plate; an electrically insulating first insulating layer on the ceramic layer, wherein the first insulating layer comprises a prepreg material; an electrically conductive lead frame (140; 140'; 140") on the first insulating layer, wherein the lead frame (140; 140'; 140") is electrically insulated from the base plate; a power semiconductor device; and an electrically insulating second insulating layer (160; 160'; 160") on the power semiconductor device so that the power semiconductor device is embedded between the lead frame and the second insulating layer (160; 160'; 160"), wherein the power semiconductor device is disposed on the lead frame (140; 140'; 140"), and wherein a layer thickness of the first insulating layer is less than 100 μm. a base plate; an electrically insulating ceramic layer on the base plate; an electrically insulating first insulating layer on the ceramic layer, wherein the first insulating layer comprises a prepreg material; an electrically conductive lead frame (140; 140'; 140") on the first insulating layer, wherein the lead frame (140; 140'; 140") is electrically insulated from the base plate; a power semiconductor device; and an electrically insulating second insulating layer (160; 160'; 160") on the power semiconductor device so that the power semiconductor device is embedded between the lead frame and the second insulating layer (160; 160'; 160"), wherein the power semiconductor device is disposed on the lead frame (140; 140'; 140"), and wherein a layer thickness of the first insulating layer is less than 100 μm.
Position-detecting device for detecting a position of a drawer in an insertion compartment of a laundry care appliance, the position-detecting device comprising the following features: a magnet arranged on and/or in the drawer for generating a magnetic field; and a magnetic field sensor for detecting a change in the magnetic field when moving the drawer in an insertion direction between a first position and a second position in the insertion compartment, characterised by a coupling element for magnetically coupling the magnet to the magnetic field sensor, the coupling element being arranged on and/or in the insertion compartment. a magnet arranged on and/or in the drawer for generating a magnetic field; and a magnetic field sensor for detecting a change in the magnetic field when moving the drawer in an insertion direction between a first position and a second position in the insertion compartment, characterised by a coupling element for magnetically coupling the magnet to the magnetic field sensor, the coupling element being arranged on and/or in the insertion compartment.