mhurhangee/patent-ind-claim-en huggingface dataset:
A parking brake module of a parking brake device, with which an application of pressure medium of at least one brake actuator can be controlled, wherein the parking brake module has an electronic control device , at least one solenoid valve that can be actuated by the control device , a pressure medium boosting valve for application of pressure medium of the at least one brake actuator and at least one pressure medium input , via which the parking brake module can be supplied with pressure medium, wherein the parking brake module has an emergency release pressure medium connection and a double check valve with two inputs and one output, characterized in that the parking brake module has a first pressure medium line , with which the emergency release pressure medium connection is fluidically connected via a check valve to the supply input of the pressure medium boosting valve such that pressure medium pressure means flows through this first pressure medium line from the emergency release pressure medium connection to the pressure medium boosting valve , in case the applied pressure on the emergency release pressure medium connection is greater than the applied pressure on the supply input of the pressure medium boosting valve , and the parking brake module has a second pressure medium line , via which the emergency release pressure medium connection or a further pressure medium connection of the parking brake module is fluidically connected to a first input of the double check valve such that pressure medium pressure means flows through this second pressure medium line from the emergency release pressure medium connection to the double check valve , in case the applied pressure on the emergency release pressure medium connection is greater than the applied pressure on the second input of the double check valve or the pressure medium pressure means flows through this second pressure medium line from the further pressure medium connection to the double check valve , in case the applied pressure on the further pressure medium connection is greater than the applied pressure on the second input of the double check valve and is greater than the applied pressure on the emergency release pressure medium connection .
Failsafe automation system, having a motion controller (BS) and multiple failsafe processors (F-CPU), wherein the motion controller is provided for the purpose of controlling and/or regulating a plurality of drives (A1, A2, A3), wherein the drives (A1, A2, A3) are respectively associated with an area (S1, S2, S3), wherein the respective area (S1, S2, S3) has a respective assigned safety level (F1, F2, F3), wherein the areas (S1, S2, S3) are respectively arranged adjacently, particularly physically adjacently, to one another, and a respective area (S1, S2, S3) has an associated failsafe processor (F-CPU), characterized in that the respective safety level (F1, F2, F3) has an assigned action time (t1, t2, t3), wherein the action time (t1, t2, t3) is a period of time from a trigger signal to the action of the respective drive (A1, A2, A3).
A magnetic levitation bearing stator winding, characterized in that , the magnetic levitation bearing stator winding comprises multiple phase windings; each phase winding comprises at least two coil units connected in parallel with each other, the coil unit comprises one or a plurality of coils; wherein the magnetic levitation bearing stator winding further comprises an insulating framework and a radial core , wherein the insulating framework is mounted on the radial core; wherein, for each phase winding, all the coils are wound on the corresponding radial core respectively in the same winding direction; wherein the coils to be connected in series are connected in series in each phase winding, and then each coil units connected in parallel; wherein, for each phase winding, enameled wires of each coil are reserved as lead wires at each end after each coil has been wound; wherein, for each phase winding, the lead wires comprise a first lead wire (I) of the outermost coil and a second lead wire of the outermost coil on the other side of the phase winding; and wherein, for each phase winding, each of the lead wires other than the first lead wire and the second lead wire is covered in insulating sleeves. wherein the magnetic levitation bearing stator winding further comprises an insulating framework and a radial core , wherein the insulating framework is mounted on the radial core; wherein, for each phase winding, all the coils are wound on the corresponding radial core respectively in the same winding direction; wherein the coils to be connected in series are connected in series in each phase winding, and then each coil units connected in parallel; wherein, for each phase winding, enameled wires of each coil are reserved as lead wires at each end after each coil has been wound; wherein, for each phase winding, the lead wires comprise a first lead wire (I) of the outermost coil and a second lead wire of the outermost coil on the other side of the phase winding; and wherein, for each phase winding, each of the lead wires other than the first lead wire and the second lead wire is covered in insulating sleeves.
A method of forming a balloon for a balloon catheter , comprising: extruding a parison having a uniform shape along an entire length thereof, said parison comprising a central opening and a longitudinal tubular extension extending from an exterior surface of said parison, said tubular extension defining a longitudinal cavity bounded longitudinally by a wall of said tubular extension; disposing a dilation element into said longitudinal cavity of said tubular extension through an end opening thereof; stretching said parison while said parison is heated after said dilation element is disposed into said tubular extension and before said parison is pressurized, said tubular extension thereby shrinking diametrically against said dilation element; characterised by heating said parison inside a mold and pressurizing said central opening, said parison thereby expanding against said mold, wherein an outer portion of said wall is compressed against said mold, and said dilation element extends along a length of a working diameter of said balloon; wherein the longitudinal cavity of the tubular extension is bounded circumferentially by a wall of said tubular extension, there being no lateral openings through said wall of said tubular extension. extruding a parison having a uniform shape along an entire length thereof, said parison comprising a central opening and a longitudinal tubular extension extending from an exterior surface of said parison, said tubular extension defining a longitudinal cavity bounded longitudinally by a wall of said tubular extension; disposing a dilation element into said longitudinal cavity of said tubular extension through an end opening thereof; stretching said parison while said parison is heated after said dilation element is disposed into said tubular extension and before said parison is pressurized, said tubular extension thereby shrinking diametrically against said dilation element; characterised by heating said parison inside a mold and pressurizing said central opening, said parison thereby expanding against said mold, wherein an outer portion of said wall is compressed against said mold, and said dilation element extends along a length of a working diameter of said balloon; wherein the longitudinal cavity of the tubular extension is bounded circumferentially by a wall of said tubular extension, there being no lateral openings through said wall of said tubular extension.
A data transmission method, comprising: receiving to-be-transmitted data currently transmitted from a data source node; determining an average receiving interval and an average transmitting interval based on a historical data receiving interval and a historical data transmitting interval; determining a splitting transmission number based on the average receiving interval and the average transmitting interval; obtaining a plurality of data fragments based on a data size of the to-be-transmitted data and the splitting transmission number; and sequentially and uniformly transmitting the data fragments to a next-level node within a subsequent period with a duration being the average receiving interval. receiving to-be-transmitted data currently transmitted from a data source node; determining an average receiving interval and an average transmitting interval based on a historical data receiving interval and a historical data transmitting interval; determining a splitting transmission number based on the average receiving interval and the average transmitting interval; obtaining a plurality of data fragments based on a data size of the to-be-transmitted data and the splitting transmission number; and sequentially and uniformly transmitting the data fragments to a next-level node within a subsequent period with a duration being the average receiving interval.
An extracellular matrix (ECM) hydrogel, wherein the ECM hydrogel has the following characteristics: a) a time to 50% gelation of less than 30 minutes at a temperature of about 37 °C; b) a flow viscosity suitable for infusion into an esophagus; and c) a stiffness of about 10 to about 300 Pascal (Pa), for use in inhibiting esophageal inflammation or reducing esophageal stricture in a subject, wherein the ECM hydrogel is for administration to the esophagus of the subject. a) a time to 50% gelation of less than 30 minutes at a temperature of about 37 °C; b) a flow viscosity suitable for infusion into an esophagus; and c) a stiffness of about 10 to about 300 Pascal (Pa),
A wound dressing assembly, in particular for dressing wounds in the area of enteroatmospheric fistulae, comprising a covering device which inhibits the passage of fluids and is in particular gas-tight, and covers the wound and/or a skin area surrounding the wound, and is in particular gas-tight, with an opening in the covering device and a reinforcing device associated with the opening and connected to the covering device in a fluid-tight manner, wherein the reinforcing device counteracts deformation of the covering device in the area of the opening, and wherein a negative pressure can be generated in a space delimited by the covering device , the skin or wound covered thereby and the reinforcing device, characterised in that the covering device comprises a unilaterally open-celled film , the open-celled side of which faces the skin and is surrounded by an edge that is configured to be joined, and is connected, to the wound in a fluid-tight manner.
A prosthetic liner , comprising: a textile cover having at least first and second regions each with a different elongation relative to one another; characterized in that the first region is in a prestretched configuration in at least one orientation relative to an axis (X-X) of the prosthetic liner and locked in the prestretched configuration according to a layer of elastomeric material located along a surface of the textile cover . characterized in that the first region is in a prestretched configuration in at least one orientation relative to an axis (X-X) of the prosthetic liner and locked in the prestretched configuration according to a layer of elastomeric material located along a surface of the textile cover .
A power generation system , comprising: a double-fed induction generator comprising a rotor and a stator coupled to a grid ; a power converter comprising a rotor side converter coupled to the rotor of the generator, a grid side converter coupled to the grid, and a DC bus coupled between the rotor side converter and the grid side converter; and a controller comprising a rotor side controller for controlling the rotor side converter and a grid side controller for controlling the grid side converter, the rotor side controller comprising a compensator having a transfer function and configured to counter a negative resistance effect of the generator to suppress sub-synchronous oscillations, characterised in that the transfer function is expressed in a synchronous coordinate system as follows: K s + jω 0 = s + j ω 0 − ω r + σ 1 s + jω 0 + σ 2 wherein K represents the transfer function, s represents a Laplace operator, j represents an imaginary unit, ω 0 represents a synchronous frequency of the stator side of the generator, ω r represents a rotational speed of the rotor, and σ 1 and σ 2 represent damping parameters used to enhance an internal stability of the power generation system, and σ 1 and σ 2 are determined based on one or more of an original control capability of the controller , a control object parameter of the power generation system, an external disturbance, and a dynamic response requirement of the power generation system. a double-fed induction generator comprising a rotor and a stator coupled to a grid ; a power converter comprising a rotor side converter coupled to the rotor of the generator, a grid side converter coupled to the grid, and a DC bus coupled between the rotor side converter and the grid side converter; and a controller comprising a rotor side controller for controlling the rotor side converter and a grid side controller for controlling the grid side converter, the rotor side controller comprising a compensator having a transfer function and configured to counter a negative resistance effect of the generator to suppress sub-synchronous oscillations, characterised in that the transfer function is expressed in a synchronous coordinate system as follows: K s + jω 0 = s + j ω 0 − ω r + σ 1 s + jω 0 + σ 2 wherein K represents the transfer function, s represents a Laplace operator, j represents an imaginary unit, ω 0 represents a synchronous frequency of the stator side of the generator, ω r represents a rotational speed of the rotor, and σ 1 and σ 2 represent damping parameters used to enhance an internal stability of the power generation system, and σ 1 and σ 2 are determined based on one or more of an original control capability of the controller , a control object parameter of the power generation system, an external disturbance, and a dynamic response requirement of the power generation system.
A sport ball comprising: a casing formed from a plurality of panels joined together at a plurality of seams; wherein each of the plurality of panels has: (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball ; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; wherein the first layer (51; 71) of at least one of the plurality of panels defines a first indentation therein; wherein the first layer (51; 71) is bonded directly to the third layer (53; 73) at the first indentation ; wherein the first indentation extends through an entirety of the thickness; wherein the first indentation has a first shoulder and a second shoulder each having a substantially squared cross-sectional configuration, wherein the third layer (53; 73) has an interior surface facing toward an interior of the sport ball and the interior surface has a substantially planar configuration opposite the first indentation in exterior surface of panel ; and a bladder (40; 73) located within the casing . a casing formed from a plurality of panels joined together at a plurality of seams; wherein each of the plurality of panels has: (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball ; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball ; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; wherein the first layer (51; 71) of at least one of the plurality of panels defines a first indentation therein; wherein the first layer (51; 71) is bonded directly to the third layer (53; 73) at the first indentation ; wherein the first indentation extends through an entirety of the thickness; wherein the first indentation has a first shoulder and a second shoulder each having a substantially squared cross-sectional configuration, wherein the third layer (53; 73) has an interior surface facing toward an interior of the sport ball and the interior surface has a substantially planar configuration opposite the first indentation in exterior surface of panel ; and a bladder (40; 73) located within the casing .
A mounting system for a field device , comprising: at least one field device comprising a first housing part ; at least one mounting adapter comprising a second housing part for captively receiving the first housing part ; wherein one of the first and the second housing parts comprises first mounting means and second mounting means and the other of the first and the second housing parts comprises third mounting means ; wherein the mounting means are arranged such that the field device is engageable with the second housing part in a first orientation and with the second housing part in a second orientation; wherein the third mounting means are engageable with the first mounting means in a first orientation of the field device and engageable with the second mounting means in a second orientation of the field device . at least one field device comprising a first housing part ; at least one mounting adapter comprising a second housing part for captively receiving the first housing part ; wherein one of the first and the second housing parts comprises first mounting means and second mounting means and the other of the first and the second housing parts comprises third mounting means ; wherein the mounting means are arranged such that the field device is engageable with the second housing part in a first orientation and with the second housing part in a second orientation; wherein the third mounting means are engageable with the first mounting means in a first orientation of the field device and engageable with the second mounting means in a second orientation of the field device .
A vehicle body structure of an automobile, the vehicle body structure comprising: a pair of roof side rails that constitutes at least one closed cross section and extends in a vehicle longitudinal direction /X); and a roof panel that is stretched between the pair of roof side rails and extends in a vehicle width direction (Y), wherein the roof panel has: a body section that extends in the vehicle width direction (Y); and a flange section that is provided to both end portions in the vehicle width direction (Y) of the body section and extends in the vehicle width direction (Y) along a lower surface of the closed cross section , and the flange section is fixed to the lower surface of the closed cross section . a pair of roof side rails that constitutes at least one closed cross section and extends in a vehicle longitudinal direction /X); and a roof panel that is stretched between the pair of roof side rails and extends in a vehicle width direction (Y), wherein the roof panel has: a body section that extends in the vehicle width direction (Y); and a flange section that is provided to both end portions in the vehicle width direction (Y) of the body section and extends in the vehicle width direction (Y) along a lower surface of the closed cross section , and the flange section is fixed to the lower surface of the closed cross section .
A method for producing a bio-PET polymer comprising the following steps: Step A) providing at least one diacid compound, comprising a terephthalate compound; Step B) providing at least one diol compound, comprising monoethylene glycol; wherein: - at least one of the terephthalate compound of step A) and/or the monoethylene glycol of step B) is obtained from at least one bio-based material, and - at least one of the diacid compound and/or the diol compound further comprises at least one diacid or diol crystallization retarding compound; and Step C) copolymerizing a mixture of the diacid compound and the diol compound comprising the at least one diacid or diol crystallization retarding compound, to obtain a bio-PET polymer comprising diacid units and diol units, comprising up to 7.5 mol% of unit(s) corresponding to the at least one diacid or diol crystallization retarding compound, based on the total number of moles of diacid units contained in the bio-PET, wherein step C) comprises the following steps: Step C1) melt polymerization, and Step C2) solid state polymerization. Step A) providing at least one diacid compound, comprising a terephthalate compound; Step B) providing at least one diol compound, comprising monoethylene glycol; wherein: - at least one of the terephthalate compound of step A) and/or the monoethylene glycol of step B) is obtained from at least one bio-based material, and - at least one of the diacid compound and/or the diol compound further comprises at least one diacid or diol crystallization retarding compound; and - at least one of the terephthalate compound of step A) and/or the monoethylene glycol of step B) is obtained from at least one bio-based material, and - at least one of the diacid compound and/or the diol compound further comprises at least one diacid or diol crystallization retarding compound; and Step C) copolymerizing a mixture of the diacid compound and the diol compound comprising the at least one diacid or diol crystallization retarding compound, to obtain a bio-PET polymer comprising diacid units and diol units, comprising up to 7.5 mol% of unit(s) corresponding to the at least one diacid or diol crystallization retarding compound, based on the total number of moles of diacid units contained in the bio-PET, wherein step C) comprises the following steps: Step C1) melt polymerization, and Step C2) solid state polymerization. Step C1) melt polymerization, and Step C2) solid state polymerization.