mhurhangee/ep-ind-claims huggingface dataset:
An air filter cartridge comprising: (a) z-filter media having an inlet end and an outlet end; (b) an impermeable sheath construction positioned around the z-filter media and providing end openings for air flow into and out of the sheath construction; (c) a first seal member positioned at an end of the sheath construction; (d) a mounting projection arrangement on the impermeable sheath construction at a location spaced from the first seal member and toward an opposite end of the sheath construction; (e) the mounting projection arrangement including: (i) at least a first projection on a first side of the sheath construction; and, (ii) at least a second projection on an opposite side of the sheath construction from the first projection; and (f) the projections (68, 69) being molded or cast integrally with the sheath construction. (a) z-filter media having an inlet end and an outlet end; (b) an impermeable sheath construction positioned around the z-filter media and providing end openings for air flow into and out of the sheath construction; (c) a first seal member positioned at an end of the sheath construction; (d) a mounting projection arrangement on the impermeable sheath construction at a location spaced from the first seal member and toward an opposite end of the sheath construction; (e) the mounting projection arrangement including: (i) at least a first projection on a first side of the sheath construction; and, (ii) at least a second projection on an opposite side of the sheath construction from the first projection; and (i) at least a first projection on a first side of the sheath construction; and, (ii) at least a second projection on an opposite side of the sheath construction from the first projection; and (f) the projections (68, 69) being molded or cast integrally with the sheath construction.
A method for guaranteeing an upper bound on output jitter while maintaining maximum loop bandwidth in a MPEG transport stream transmitter, said method comprising the steps of: receiving a plurality of transport packets wherein each of at least a portion of said plurality of transport packets includes a first PCR timestamp value (PCR 240) therein; and generating a stream of said first PCR timestamp values, characterized by further comprising the steps of: generating an adjusted rate timing signal stream by means of a first locked loop, based on an average timestamp value of a difference between a corrected first PCR timestamp value (PCR 250) and an initial output (PCR_recovered 252) of a clock of said first locked loop, said corrected first PCR timestamp value being a difference between the first PCR time stamp value (PCR 240) and a clumping error estimate for the transport packets; and generating, via a second locked loop connected in cascade with the first locked loop, a stable rate timing signal stream corresponding to an average rate of the adjusted rate timing signal stream from the first locked loop by using the average timestamp value from the first locked loop as a feed forward signal which is further slew-rate limited by a slew rate limiter outside of said second locked loop. receiving a plurality of transport packets wherein each of at least a portion of said plurality of transport packets includes a first PCR timestamp value (PCR 240) therein; and generating a stream of said first PCR timestamp values, generating an adjusted rate timing signal stream by means of a first locked loop, based on an average timestamp value of a difference between a corrected first PCR timestamp value (PCR 250) and an initial output (PCR_recovered 252) of a clock of said first locked loop, said corrected first PCR timestamp value being a difference between the first PCR time stamp value (PCR 240) and a clumping error estimate for the transport packets; and generating, via a second locked loop connected in cascade with the first locked loop, a stable rate timing signal stream corresponding to an average rate of the adjusted rate timing signal stream from the first locked loop by using the average timestamp value from the first locked loop as a feed forward signal which is further slew-rate limited by a slew rate limiter outside of said second locked loop.
A surgical stapling instrument, comprising: a handle assembly; a body portion extending from the handle assembly; surgical stapling jaws including a staple cartridge assembly (22, 122) and an anvil assembly (30,130) disposed at a distal end of the body portion; a staple line reinforcement material (50,150); a fastener for said staple line reinforcement material (50, 150); and characterised by said fastener (32, 132) having two parts, the two parts including a sheet (45a,145a) having a plurality of hooks (35, 135) on a first side and an adhesive (43, 143) on a second side, the adhesive being attached to at least one of the surgical stapler jaws, and the staple line reinforcement material having a plurality of loops (37, 137) arranged to engage the plurality of hooks. a handle assembly; a body portion extending from the handle assembly; surgical stapling jaws including a staple cartridge assembly (22, 122) and an anvil assembly (30,130) disposed at a distal end of the body portion; a staple line reinforcement material (50,150); a fastener for said staple line reinforcement material (50, 150); and characterised by said fastener (32, 132) having two parts, the two parts including a sheet (45a,145a) having a plurality of hooks (35, 135) on a first side and an adhesive (43, 143) on a second side, the adhesive being attached to at least one of the surgical stapler jaws, and the staple line reinforcement material having a plurality of loops (37, 137) arranged to engage the plurality of hooks.
Procedure to establish a coaxial profile made from aluminium or an aluminium alloy using the following procedural steps: - Extrusion pressing a minimum of one strand of a coaxial profile in an extrusion press, whereby, each strand is constructed from an internal tube, which is surrounded by an external tube, whereby, in the space between the external tube and internal tube, multiple radially spreading webs are arranged that connect the outer shell surface of the internal tube and the inner shell surface of the external tube, - Cooling down the strand of coaxial profile coming from the extrusion press in the press outlet, - winding the cooled strand of coaxial profile on a winding roller, - Unwinding the strand of coaxial profile from the winding roller, as well as aligning the strand of coaxial profile and further transportation of the strand to a separating device, - Stopping the transported strand of coaxial profile after passage of a specified length of the strand in a separating device and grasping, as well as firmly holding the strand before and after the specified value of the length for the intended separation, - subsequent scoring of the peripheral side of the outer shell surface of the external tube of the coaxial profile to generate a score on the peripheral side for the specified value of the length for the intended separation, - pulling in the longitudinal direction of the strand, whereby, emanating from the notch on the peripheral side, a fissure is generated in the transverse direction of the strand, which results in separating the length of a coaxial tube required and to a convex separation surface. - Extrusion pressing a minimum of one strand of a coaxial profile in an extrusion press, whereby, each strand is constructed from an internal tube, which is surrounded by an external tube, whereby, in the space between the external tube and internal tube, multiple radially spreading webs are arranged that connect the outer shell surface of the internal tube and the inner shell surface of the external tube, - Cooling down the strand of coaxial profile coming from the extrusion press in the press outlet, - winding the cooled strand of coaxial profile on a winding roller, - Unwinding the strand of coaxial profile from the winding roller, as well as aligning the strand of coaxial profile and further transportation of the strand to a separating device, - Stopping the transported strand of coaxial profile after passage of a specified length of the strand in a separating device and grasping, as well as firmly holding the strand before and after the specified value of the length for the intended separation, - subsequent scoring of the peripheral side of the outer shell surface of the external tube of the coaxial profile to generate a score on the peripheral side for the specified value of the length for the intended separation, - pulling in the longitudinal direction of the strand, whereby, emanating from the notch on the peripheral side, a fissure is generated in the transverse direction of the strand, which results in separating the length of a coaxial tube required and to a convex separation surface.
An assisted collective pitch control system for a helicopter rotor, wherein the helicopter comprises a frame defining a longitudinal axis and a transverse axis, which system comprises: - at least one collective pitch stick rotatably mountable to the helicopter frame to rotate about an axis substantially parallel to said transverse axis; - elastic means acting on said at least one stick to exert thereon an auxiliary force (F, F') tending to reduce the pilot's effort, wherein said at least one stick has one end rigidly fixed to a shaft which is mounted to rotate about said transverse axis; wherein said shaft is rigidly joined to a connecting arm substantially perpendicular to said transverse axis and axially offset from said at least one stick; wherein said elastic means comprise a spring with one end to be articulated on a fixed point of the helicopter frame and the opposite end fixed to a pin associated with said connecting arm to define the point of application of the reaction force of said spring; characterized by comprising a slider slidingly mounted to said connecting arm, said pin being mounted to be rigidly joined to said slider, the system further comprising assisted adjustment means adapted to be controlled by the pilot during the flight and acting on said slider to move said elastic means in such a manner to instantaneously change the point of application of said auxiliary force (F, F') on said at least one stick. - at least one collective pitch stick rotatably mountable to the helicopter frame to rotate about an axis substantially parallel to said transverse axis; - elastic means acting on said at least one stick to exert thereon an auxiliary force (F, F') tending to reduce the pilot's effort, wherein said at least one stick has one end rigidly fixed to a shaft which is mounted to rotate about said transverse axis; wherein said shaft is rigidly joined to a connecting arm substantially perpendicular to said transverse axis and axially offset from said at least one stick; wherein said elastic means comprise a spring with one end to be articulated on a fixed point of the helicopter frame and the opposite end fixed to a pin associated with said connecting arm to define the point of application of the reaction force of said spring; characterized by comprising a slider slidingly mounted to said connecting arm, said pin being mounted to be rigidly joined to said slider, the system further comprising assisted adjustment means adapted to be controlled by the pilot during the flight and acting on said slider to move said elastic means in such a manner to instantaneously change the point of application of said auxiliary force (F, F') on said at least one stick.
An outdoor termination for a high voltage cable, comprising: a) an insulator body for receiving the high voltage cable; b) a filling compound provided within the insulator body and filling at least a portion of the space between the insulator body interior walls (2.1) and the cable insulation; cl) wherein said filling compound consists of a mixture of particles (3.1) and an insulating compound (3.2); characterized in that c2) said insulating compound (3.2) is a crosslinked polymeric material with a hardness according to DIN ISO 2137 of 200 to 500 mm/10. a) an insulator body for receiving the high voltage cable; b) a filling compound provided within the insulator body and filling at least a portion of the space between the insulator body interior walls (2.1) and the cable insulation; cl) wherein said filling compound consists of a mixture of particles (3.1) and an insulating compound (3.2); c2) said insulating compound (3.2) is a crosslinked polymeric material with a hardness according to DIN ISO 2137 of 200 to 500 mm/10.
An output driver (200, 450) for use within an integrated circuit device, the output driver comprising a plurality of equalization signal drivers (206, 513) coupled in parallel to a signal output node to enable an equalization setting of the output driver to be adjusted in stepwise equalization increments in response to incrementing an equalization control value, characterized in that each equalization signal driver (206, 485) of the plurality of equalization signal drivers has a conductance that is different from the conductances of the other equalization signal drivers and that is at least approximately twice the conductance corresponding to the desired equalization step, and wherein a differential conductance between any two nearest-size equalization signal drivers is less than or equal to the conductance corresponding to the desired equalization step.
A time-triggered computer system comprising: a Main Processor comprising a time-triggered scheduler adapted to execute one or more tasks according to one or more predetermined task schedules that are determined, validated and verified when the system is designed, and only one of which, an active task schedule, will be active at any point in time; and a Monitor Processor adapted to determine in advance whether the Main Processor is about to execute a task that is not in accordance with the active task schedule using a Task Sequence Representation comprising a record of a sequence of task executions the Main Processor is expected to follow in the active task schedule; and a Communication Link for passing information about future task executions between the Main Processor and the Monitor Processor; and a Control Mechanism by means of which the Monitor Processor can halt or reset the Main Processor and shut down, disable, enable or configure connected devices that are under the control of the Main Processor, if the Monitor Processor determines that the Main Processor is about to execute a task that is not in accordance with the active task schedule. a Main Processor comprising a time-triggered scheduler adapted to execute one or more tasks according to one or more predetermined task schedules that are determined, validated and verified when the system is designed, and only one of which, an active task schedule, will be active at any point in time; and a Monitor Processor adapted to determine in advance whether the Main Processor is about to execute a task that is not in accordance with the active task schedule using a Task Sequence Representation comprising a record of a sequence of task executions the Main Processor is expected to follow in the active task schedule; and a Communication Link for passing information about future task executions between the Main Processor and the Monitor Processor; and a Control Mechanism by means of which the Monitor Processor can halt or reset the Main Processor and shut down, disable, enable or configure connected devices that are under the control of the Main Processor, if the Monitor Processor determines that the Main Processor is about to execute a task that is not in accordance with the active task schedule.
Load carrier for a motor vehicle, in particular a car, with a loading rack (112a; 112d) provided for carrying a load and which in an operating position of the load carrier (110a-110e) extends rearwards beyond a rear section of the motor vehicle and provides a loading area for the placing of a load, with a swivel part assembly (117a; 117b) with at least one swivel part (118a-118d; 192d; 192e; 118a'-d') for enlarging the loading area, wherein the swivel part or parts (118a-118d; 192d; 192e; 118a'-d') is or are mounted pivotably by a swivel part bearing section on a loading rack bearing zone of the loading rack (112a; 112d) around a swivel axis between a position of use and an inoperative position, wherein there is provided on the loading rack bearing zone a swivel stop (142a; 142d) against which the swivel part or parts (118a-118d; 192d; 192e; 118a'-d') strikes or strike in the position of use, and wherein there is fixed to the loading rack (112a; 112d) in the area of the loading rack bearing zone at least one load fastening fixture (165a; 165b; 165d) for the fastening of a load mounted on the swivel part or parts (118a-118d; 192d; 192e; 118a'-d'), wherein the load fastening fixture or fixtures (165a; 165b; 165d) by holding the load fastened to it or them fixes or fix the swivel part or parts (118a-118d; 192d; 192e; 118a'-d') so that it or they will not swivel, characterised in that the load fastening fixture or fixtures (165a; 165b; 165d) has or have an encompassing fixture for encompassing the load, in particular the rim of a cycle, wherein the encompassing fixture encompasses the swivel part or parts (118a-118d; 192d; 192e; 118a'-d') when the swivel part or parts (118a-118d; 192d; 192e; 118a'-d') is or are in its or their position of use.
Connecting structure for connecting two installation parts (3, 5) of a gas-insulated switchgear installation, comprising: a metallic flange ring; a casting resin pouring opening in the flange ring; and a UHF sensor having a UHF antenna (22, 24), the UHF sensor being fitted at the casting resin pouring opening, characterized in that the UHF sensor has a fitting portion for being fitted to the flange ring and a closing portion for closing the casting resin pouring opening, wherein the UHF antenna (22, 24) is attached to the closing portion, the closing portion of the UHF sensor has an electrical connection on the outside, the UHF antenna (22, 24) has a sensor electrode, which is sensitive to electromagnetic waves, at a radially inner end, and the sensor electrode is connected to the electrical connection by a conductor, in particular by a conductive shaft. a metallic flange ring; a casting resin pouring opening in the flange ring; and a UHF sensor having a UHF antenna (22, 24), the UHF sensor being fitted at the casting resin pouring opening, characterized in that the UHF sensor has a fitting portion for being fitted to the flange ring and a closing portion for closing the casting resin pouring opening, wherein the UHF antenna (22, 24) is attached to the closing portion, the closing portion of the UHF sensor has an electrical connection on the outside, the UHF antenna (22, 24) has a sensor electrode, which is sensitive to electromagnetic waves, at a radially inner end, and the sensor electrode is connected to the electrical connection by a conductor, in particular by a conductive shaft.
An agent for temporarily shaping keratin-containing fibers, in particular human hair, containing, in a cosmetically acceptable carrier, (a) at least one amphiphilic, cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, where R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl, a propane-1,3-diyl or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group and (b) at least one cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, (a) at least one amphiphilic, cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, where R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl, a propane-1,3-diyl or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group and R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl, a propane-1,3-diyl or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group (b) at least one cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula,
A signal processor (74, 84) configured to output a first output signal and a second output signal in response to an input of a first input signal and a second input signal, characterized in that the signal processor is configured: to process the first input signal by a first transfer function, process the second input signal by a second transfer function, and add the two results to obtain the first output signal; to process the first input signal by a third transfer function, to process the second input signal by the first transfer function, and add the two results to obtain the second output signal; wherein the first transfer function, the second transfer function and the third transfer function are expressed respectively by: G 1 s = F s + jω 0 + F s − jω 0 2 G 2 s = ± F s + jω 0 − F s − jω 0 2 ⁢ j G 3 s = ∓ F s + jω 0 − F s − jω 0 2 ⁢ j where F(s) represents a transfer function expressing a predetermined process, ω 0 represents a predetermined angular frequency and j represents an imaginary unit. to process the first input signal by a first transfer function, process the second input signal by a second transfer function, and add the two results to obtain the first output signal; to process the first input signal by a third transfer function, to process the second input signal by the first transfer function, and add the two results to obtain the second output signal; wherein the first transfer function, the second transfer function and the third transfer function are expressed respectively by: G 1 s = F s + jω 0 + F s − jω 0 2 G 2 s = ± F s + jω 0 − F s − jω 0 2 ⁢ j G 3 s = ∓ F s + jω 0 − F s − jω 0 2 ⁢ j where F(s) represents a transfer function expressing a predetermined process, ω 0 represents a predetermined angular frequency and j represents an imaginary unit.