mhurhangee/ep-ind-claims huggingface dataset:
A polypropylene composition comprising a terpolymer composition comprising a first terpolymer fraction containing propylene, ethylene and 1-hexene, wherein the first terpolymer fraction has a melt flow rate of 0.030 to 1.0 dg/min determined by ISO 1133-1:2011 (230°C, 5 kg) and a second terpolymer fraction containing propylene, ethylene and 1-hexene, wherein the second terpolymer fraction has a melt flow rate of 0.30 to 70 dg/min determined by ISO 1133-1:2011 (230°C, 2.16 kg), wherein the first terpolymer fraction is prepared using a first set of reaction conditions, the second terpolymer fraction is prepared using a second set of reaction conditions and the first and second set of reaction conditions are different, wherein the polypropylene composition (i) has a melt flow rate of 0.10 to 0.70 dg/min determined by ISO 1133-1:2011 (230°C, 2.16 kg); (ii) has a content of ethylene derived units in the range from1.6 to 3.0 wt%; (iii) has a content of 1-hexene derived units in the range from 1.7 to 4.0 wt%; and (iv) has a ratio of the content of ethylene derived units to the content of 1-hexene derived units of at least 0.70. (i) has a melt flow rate of 0.10 to 0.70 dg/min determined by ISO 1133-1:2011 (230°C, 2.16 kg); (ii) has a content of ethylene derived units in the range from1.6 to 3.0 wt%; (iii) has a content of 1-hexene derived units in the range from 1.7 to 4.0 wt%; and (iv) has a ratio of the content of ethylene derived units to the content of 1-hexene derived units of at least 0.70.
An electrosurgical device, the electrosurgical device comprising: a body having a longitudinal axis, the body comprising a hollow passageway extending through the longitudinal axis from an inlet at a distal end to a port at a proximal end; an electrode extending from the distal end of the body adjacent to the inlet; and a swivel portion (42, 64; 70, 80; 100, 105) moveably coupled to the port, the swivel portion (42, 64; 70, 80; 100, 105) having a second hollow passageway fluidly coupled to the hollow passageway, the second hollow passageway extending from the port to an outlet; wherein the swivel portion (42, 64; 70, 80; 100, 105) comprises a first swivel element (42; 70; 100) and a second swivel element (64; 80; 105); wherein the first swivel element (42; 70; 100) is operable to rotate around the longitudinal axis relative to the body; and wherein the second swivel element (64; 80; 105) is operable to rotate relative to the first swivel element (42; 70; 100) and the body; and wherein the first swivel element (42; 70; 100) is connected to the second swivel element (64; 80; 105) at an angle between 0 degrees and 45 degrees relative to the longitudinal axis; characterised in that the second swivel element (64; 80; 105) is operable to rotate around an axis which is oriented at an angle between 45 degrees and 90 degrees relative to the longitudinal axis. a body having a longitudinal axis, the body comprising a hollow passageway extending through the longitudinal axis from an inlet at a distal end to a port at a proximal end; an electrode extending from the distal end of the body adjacent to the inlet; and a swivel portion (42, 64; 70, 80; 100, 105) moveably coupled to the port, the swivel portion (42, 64; 70, 80; 100, 105) having a second hollow passageway fluidly coupled to the hollow passageway, the second hollow passageway extending from the port to an outlet; wherein the swivel portion (42, 64; 70, 80; 100, 105) comprises a first swivel element (42; 70; 100) and a second swivel element (64; 80; 105); wherein the first swivel element (42; 70; 100) is operable to rotate around the longitudinal axis relative to the body; and wherein the second swivel element (64; 80; 105) is operable to rotate relative to the first swivel element (42; 70; 100) and the body; and wherein the first swivel element (42; 70; 100) is connected to the second swivel element (64; 80; 105) at an angle between 0 degrees and 45 degrees relative to the longitudinal axis; characterised in that the second swivel element (64; 80; 105) is operable to rotate around an axis which is oriented at an angle between 45 degrees and 90 degrees relative to the longitudinal axis.
A wireless communication system comprising a plurality of wireless stations including a first wireless station, a second wireless station, and a third wireless station, the system comprising: a first controller that obtains a transmission timing at which the third wireless station transmits first notification information to the second wireless station, the first notification information indicating that the third wireless station is to communicate with the second wireless station; and a first communicator that transmits second notification information to the second wireless station at the obtained transmission timing, the second notification information indicating that the first wireless station is to directly communicate with the second wireless station. a first controller that obtains a transmission timing at which the third wireless station transmits first notification information to the second wireless station, the first notification information indicating that the third wireless station is to communicate with the second wireless station; and a first communicator that transmits second notification information to the second wireless station at the obtained transmission timing, the second notification information indicating that the first wireless station is to directly communicate with the second wireless station.
A catheter (10; 100) for expanding an expandable endoluminal prosthesis, said catheter (10; 100) comprising the following: - a dilation body whose dilation permits the expansion of an expandable prosthesis optionally loaded on the catheter (10; 100), - a catheter shaft having a proximal first end and a distal end, said catheter shaft having a fluid lumen via which a fluid can be delivered to the dilation body, - the dilation body being mounted on the catheter shaft, such, that it is dilatable by delivery of a fluid, wherein the dilation body is formed by at least three separate balloon segments (21, 22, 23; 121, 122, 123) which are arranged immediately adjacent to one another and one behind the other on the catheter shaft and are dilatable independently of one another, characterized in that the catheter (10; 100) comprises a single fluid lumen via which a fluid can be delivered in sequence to the balloon segments (21, 22, 23; 121, 122, 123). - a dilation body whose dilation permits the expansion of an expandable prosthesis optionally loaded on the catheter (10; 100), - a catheter shaft having a proximal first end and a distal end, said catheter shaft having a fluid lumen via which a fluid can be delivered to the dilation body, - the dilation body being mounted on the catheter shaft, such, that it is dilatable by delivery of a fluid,
A method comprising: identifying (410, 420, 430), by each of a plurality of sensors (S, R, i, j, D) in a wireless underground sensor network in an underground region, a plurality of environment-dependent parameters measured by the plurality of sensors; identifying, by each of the plurality of sensors, respective communication functions for a plurality of layers of a protocol stack for magnetic induction communications among the plurality of sensors in the wireless underground sensor network in the underground region; identifying, by each of the plurality of sensors, an optimization problem (610, 620) for jointly optimizing the respective communication functions of the plurality of layers of the protocol stack based on the plurality of environment-dependent parameters, the optimization problem including a plurality of transmission parameters defining the respective communication functions of the plurality of layers of the protocol stack; determining, by each of the plurality of sensors, the plurality of transmission parameters by solving the optimization problem; and transmitting, by each of the plurality of sensors based on magnetic induction, signals using the plurality of transmission parameters defining the respective communication functions of the plurality of layers of the protocol stack. identifying (410, 420, 430), by each of a plurality of sensors (S, R, i, j, D) in a wireless underground sensor network in an underground region, a plurality of environment-dependent parameters measured by the plurality of sensors; identifying, by each of the plurality of sensors, respective communication functions for a plurality of layers of a protocol stack for magnetic induction communications among the plurality of sensors in the wireless underground sensor network in the underground region; identifying, by each of the plurality of sensors, an optimization problem (610, 620) for jointly optimizing the respective communication functions of the plurality of layers of the protocol stack based on the plurality of environment-dependent parameters, the optimization problem including a plurality of transmission parameters defining the respective communication functions of the plurality of layers of the protocol stack; determining, by each of the plurality of sensors, the plurality of transmission parameters by solving the optimization problem; and transmitting, by each of the plurality of sensors based on magnetic induction, signals using the plurality of transmission parameters defining the respective communication functions of the plurality of layers of the protocol stack.
Welding auxiliary joining part in the shape of a stud for joining into at least one component (20; 22) and for producing a welding connection from a plurality of components, preferably with at least one component (20; 22) of a non- or poorly weldable material, comprising the following features: a. a head, a tip portion extending in the longitudinal direction of the welding auxiliary joining part and having a maximum thickness transversely to the longitudinal direction, and preferably a shank, characterized in that b. the stud consists of a weldable steel with a carbon equivalent of 0.2 to 0.8 which is plastically deformable during a setting method of the welding auxiliary joining part so that the tip portion of the welding auxiliary joining part is at least partly compressible to a welding head or weld spot. a. a head, a tip portion extending in the longitudinal direction of the welding auxiliary joining part and having a maximum thickness transversely to the longitudinal direction, and preferably a shank, characterized in that b. the stud consists of a weldable steel with a carbon equivalent of 0.2 to 0.8 which is plastically deformable during a setting method of the welding auxiliary joining part so that the tip portion of the welding auxiliary joining part is at least partly compressible to a welding head or weld spot.
Air filter element for an air filter device of a fresh air apparatus of an internal combustion engine, preferably in a motor vehicle, - with a U-shaped main filter body, which limits an inner chamber transversely in relation to an axial direction of the air filter element, - with two end plates (2, 3), which are distanced from one another in the axial direction and which close in an airtight manner two axial sides facing away from one another of the main filter body, - wherein air can flow through the main filter body transversely to the axial direction, - wherein in the region of an open side of the main filter body is provided a main through opening which is open to the inner chamber, which through opening serves as air inlet or air outlet and through which air can flow transversely to the axial direction, - wherein at least one of the end plates (2, 3) has an additional through opening (10, 12) which is open to the inner chamber, which additional through opening has an additional filter body (11, 13), such, that air can flow through the additional through opening (10, 12) through the additional filter body (11, 13), - wherein air can flow through the additional filter body (11, 13) in a manner parallel to the axial direction characterised in that a height of the respective additional filter body (11, 13) is greater than a thickness of the respective end plate (2, 3). - with a U-shaped main filter body, which limits an inner chamber transversely in relation to an axial direction of the air filter element, - with two end plates (2, 3), which are distanced from one another in the axial direction and which close in an airtight manner two axial sides facing away from one another of the main filter body, - wherein air can flow through the main filter body transversely to the axial direction, - wherein in the region of an open side of the main filter body is provided a main through opening which is open to the inner chamber, which through opening serves as air inlet or air outlet and through which air can flow transversely to the axial direction, - wherein at least one of the end plates (2, 3) has an additional through opening (10, 12) which is open to the inner chamber, which additional through opening has an additional filter body (11, 13), such, that air can flow through the additional through opening (10, 12) through the additional filter body (11, 13), - wherein air can flow through the additional filter body (11, 13) in a manner parallel to the axial direction
A cylinder head comprising a spark plug sleeve and a pre-chamber gas valve, wherein the spark plug sleeve is fitted into the cylinder head and the pre-chamber gas valve is received by a cavity of the spark plug sleeve and a recess extending substantially or completely around the pre-chamber gas valve forms an annular passage with a wall of the cavity, that surrounds the pre-chamber gas valve, wherein the annular passage is connected to at least one gas feed passage in the spark plug sleeve for supplying the pre-chamber gas valve with combustion gas, wherein the at least one gas feed passage is afforded by a horizontal and vertical portion, wherein the annular passage is connected with the lower cavity of the pre-chamber gas valve by at least one inclined gas passage.
A method of processing packets by a network element that transfers first and second packet flows of the same traffic handling class, the method comprising: receiving, from a network controller, information defining a relative forwarding order between first and second packet flow packets, wherein the relative forwarding order is defined by at least one delay for at least one of the first and second packet flows, and wherein the relative forwarding order is further defined such that the relative forwarding order controls forwarding of a first packet and a second packet in accordance with a timing scheme; receiving, at at least one ingress port of the network element, the first packet and the second packet; determining that the first packet belongs to the first packet flow and that the second packet belongs to the second packet flow; applying the at least one delay to at least one of the first packet and the second packet; and forwarding the first packet and the second packet towards at least one egress port of the network element in the relative forwarding order defined by the received information. receiving, from a network controller, information defining a relative forwarding order between first and second packet flow packets, wherein the relative forwarding order is defined by at least one delay for at least one of the first and second packet flows, and wherein the relative forwarding order is further defined such that the relative forwarding order controls forwarding of a first packet and a second packet in accordance with a timing scheme; receiving, at at least one ingress port of the network element, the first packet and the second packet; determining that the first packet belongs to the first packet flow and that the second packet belongs to the second packet flow; applying the at least one delay to at least one of the first packet and the second packet; and forwarding the first packet and the second packet towards at least one egress port of the network element in the relative forwarding order defined by the received information.
A method comprising: accepting a plurality of filter coefficient input values (h i); determining a plurality of digital configuration values (n i) for a plurality of configurable capacitors in a programmable discrete time analog filter, wherein the plurality of digital configuration values are determined according to a non-linear mapping of the filter coefficient input values to the digital configuration values; and providing the digital configuration values for configuration of the programmable filter. accepting a plurality of filter coefficient input values (h i); determining a plurality of digital configuration values (n i) for a plurality of configurable capacitors in a programmable discrete time analog filter, wherein the plurality of digital configuration values are determined according to a non-linear mapping of the filter coefficient input values to the digital configuration values; and providing the digital configuration values for configuration of the programmable filter.
A terminal box comprising: a main body; and a terminal strip provided in the main body, to which an output terminal of a solar cell module and a core of a power cable are connected, characterized in that the main body has: a pair of longitudinal walls and a pair of transversal walls as lateral walls; a bottom wall whose outer circumference is surrounded by the lateral walls (301e, 301f); and a terminal block protruding from the bottom wall, the terminal strip is provided on the terminal block, the main body is provided with an insertion hole penetrating the transversal walls, into which insertion hole the power cable is inserted toward the terminal strip, and the terminal block is provided with an inclined face which is formed and arranged in a manner such that, when brought into contact with an end part of the power cable guides the end part in a direction away from the bottom wall when the power cable is inserted into the insertion hole. a main body; and a terminal strip provided in the main body, to which an output terminal of a solar cell module and a core of a power cable are connected, characterized in that the main body has: a pair of longitudinal walls and a pair of transversal walls as lateral walls; a bottom wall whose outer circumference is surrounded by the lateral walls (301e, 301f); and a terminal block protruding from the bottom wall, the terminal strip is provided on the terminal block, the main body is provided with an insertion hole penetrating the transversal walls, into which insertion hole the power cable is inserted toward the terminal strip, and the terminal block is provided with an inclined face which is formed and arranged in a manner such that, when brought into contact with an end part of the power cable guides the end part in a direction away from the bottom wall when the power cable is inserted into the insertion hole.
A stepping motor comprising a bobbin which integrally holds a yoke for constructing a magnetic circuit, and a winding wire wound around said bobbin and a connector housing which is disposed at one end portion in an axial direction of the bobbin and integrally holds a pin for connecting said winding wire to an external conductor, wherein said bobbin and said connector housing are integrally formed of a resin, said bobbin has a flange part projected outward in a radius direction to restrict a winding position of the winding wire in the axial direction; said connector housing has a terminal installation surface adjacent to the flange part disposed at one end portion in the axial direction in said bobbin and said pin is constructed so that its one end portion projects from the terminal installation surface to be a terminal part connecting an end portion of the winding wire characterised in that the terminal installation surface is formed at an inner position in the radius direction with respect to an outer peripheral edge of the flange part, wherein the terminal part is folded to be in close vicinity to the terminal installation surface, and thereby, the entire terminal part including the connecting part of the winding wire is located at an inner position in the radius direction with respect to the outer peripheral edge of the flange part, and an auxiliary bobbin part is formed at an inner position in the radius direction with respect to the terminal installation surface and around which a winding wire connected to the terminal part is wound, said auxiliary bobbin part being located between the terminal installation surface and the flange part adjacent to this terminal installation surface.
Method of synchronizing clocks of a computer network, wherein a first grandmaster sends a first synchronization information addressed to at least a second grandmaster, the first synchronization information comprising information about a first subset of grandmasters (104, 106, 108) configured to receive the first synchronization information, and wherein a second synchronization information, including information about a second subset of grandmasters (102, 106, 108) configured to receive the second synchronization information, is transmitted by the second grandmaster to at least one grandmaster of the second subset (102, 106, 108), wherein that the first synchronization information indicates a first time and a second time according to a first time base, trel, and according to a second time base, tabs, of respective clocks of the first grandmaster respectively, and the second synchronization information indicates a third time according to the first time base, trel, of a respective clock of the second grandmaster.
A method for controlling rotor speed of a wind turbine, the method comprising: defining a system model describing resonance dynamics of a wind turbine component, the system model having a nonlinear input term; applying a transform to the system model to obtain a transformed model for a response oscillation amplitude of the wind turbine component, the transformed model having a linear input term (38, 40); defining a wind turbine model describing dynamics of the wind turbine, the wind turbine model including the transformed model of the wind turbine component; and, applying a model-based control algorithm using the wind turbine model to determine at least one control output, and using the at least one control output to control rotor speed of the wind turbine. defining a system model describing resonance dynamics of a wind turbine component, the system model having a nonlinear input term; applying a transform to the system model to obtain a transformed model for a response oscillation amplitude of the wind turbine component, the transformed model having a linear input term (38, 40); defining a wind turbine model describing dynamics of the wind turbine, the wind turbine model including the transformed model of the wind turbine component; and, applying a model-based control algorithm using the wind turbine model to determine at least one control output, and using the at least one control output to control rotor speed of the wind turbine.