mhurhangee/ep-ind-claims huggingface dataset:
Driverless transport device for transporting objects, comprising - a support structure, having an outer contour, - a travel mechanism attached to the support structure and having at least one first wheel and a second wheel wherein, in the travel mechanism, the first wheel is rotatably mounted around a first axis of rotation and the second wheel is rotatably mounted around a second axis of rotation, - a drive unit, by means of which the first wheel and the second wheel can be driven independently of each other, - at least one support section which, in order to transport the objects, interacts with the latter, and - a force measurement device, by means of which the force acting on the support section can be determined, characterized in that - the force measurement device comprises at least two force sensors, wherein - at least one force sensor is assigned to a first group and at least one force sensor is assigned to a second group, and - the force sensors of the first group are arranged vertically to the force sensors of the second group. - a support structure, having an outer contour, - a travel mechanism attached to the support structure and having at least one first wheel and a second wheel wherein, in the travel mechanism, the first wheel is rotatably mounted around a first axis of rotation and the second wheel is rotatably mounted around a second axis of rotation, - a drive unit, by means of which the first wheel and the second wheel can be driven independently of each other, - at least one support section which, in order to transport the objects, interacts with the latter, and - a force measurement device, by means of which the force acting on the support section can be determined, characterized in that - the force measurement device comprises at least two force sensors, wherein - at least one force sensor is assigned to a first group and at least one force sensor is assigned to a second group, and - the force sensors of the first group are arranged vertically to the force sensors of the second group.
An extension ladder comprising: a base section having a first base rail and a second base rail in parallel and spaced relationship with the first base rail and rungs attached to and between the first and second base rails; a fly section having a first fly rail and a second fly rail in parallel and spaced relationship with the first fly rail and rungs attached to and between the first and second fly rails, the fly section in sliding engagement with the base section; and a force applicator attached to the base section and the fly section which offsets some or all weight of the fly section, characterized in that the force applicator includes a tension gas spring, a fixed pulley block and a moving pulley block, the tension gas spring is attached to a lower end of the first base rail, a base pulley is attached to an upper end of the first base rail, an axle of the fixed pulley block is attached to the first base rail, the moving pulley block is attached to an end of a tension gas spring piston rod, a cable has one end attached to the fixed pulley block, the cable passes back and forth between the fixed and moving pulley blocks, the cable extends to the base pulley, passes around the base pulley, and is attached to the fly section at a fly cable attachment. a base section having a first base rail and a second base rail in parallel and spaced relationship with the first base rail and rungs attached to and between the first and second base rails; a fly section having a first fly rail and a second fly rail in parallel and spaced relationship with the first fly rail and rungs attached to and between the first and second fly rails, the fly section in sliding engagement with the base section; and a force applicator attached to the base section and the fly section which offsets some or all weight of the fly section, characterized in that the force applicator includes a tension gas spring, a fixed pulley block and a moving pulley block, the tension gas spring is attached to a lower end of the first base rail, a base pulley is attached to an upper end of the first base rail, an axle of the fixed pulley block is attached to the first base rail, the moving pulley block is attached to an end of a tension gas spring piston rod, a cable has one end attached to the fixed pulley block, the cable passes back and forth between the fixed and moving pulley blocks, the cable extends to the base pulley, passes around the base pulley, and is attached to the fly section at a fly cable attachment.
A method for secure wireless lock-actuation exchange, the method comprising: receiving a request to actuate a lock from a device; calculating a challenge count that is a random number and variable between requests to actuate the lock; performing verification iterations until an end condition is met, a verification iteration comprising: creating a vehicle signature from a freshness value and a portion of the request, the freshness value changing between verification iterations; transmitting the vehicle signature to the device; computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device; and comparing the local-remote vehicle signature to the verification signature transmitted from the device, the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count. receiving a request to actuate a lock from a device; calculating a challenge count that is a random number and variable between requests to actuate the lock; performing verification iterations until an end condition is met, a verification iteration comprising: creating a vehicle signature from a freshness value and a portion of the request, the freshness value changing between verification iterations; transmitting the vehicle signature to the device; computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device; and comparing the local-remote vehicle signature to the verification signature transmitted from the device, the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count. computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device; and comparing the local-remote vehicle signature to the verification signature transmitted from the device, the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count.
A method for controlling the chemical balance at a sulfate pulp mill, producing at least pulp bleached with chlorine dioxide and which has a chlorine dioxide plant using at least chlorate, methanol and sulfuric acid to produce chlorine dioxide, the method comprising at least the following steps: a). gases from the mill's concentrated non-condensable gas system are incinerated in order to form a gas containing sulfur dioxide, which is treated to produce concentrated sulfuric acid, and b). raw methanol from mill processes is purified to produce methanol, and c). side streams containing sodium compounds and/or sulfur compounds produced by mill processes are used as make-up chemicals, wherein the production of chlorine dioxide uses the sulfuric acid produced in step a) and methanol purified in step b), so that the sulfuric acid concentration is 94-99%, preferably 95-98%, and in step c) sesquisulfate or sodium sulfate produced during the production of chlorine dioxide is used. a). gases from the mill's concentrated non-condensable gas system are incinerated in order to form a gas containing sulfur dioxide, which is treated to produce concentrated sulfuric acid, and b). raw methanol from mill processes is purified to produce methanol, and c). side streams containing sodium compounds and/or sulfur compounds produced by mill processes are used as make-up chemicals, wherein the production of chlorine dioxide uses the sulfuric acid produced in step a) and methanol purified in step b), so that the sulfuric acid concentration is 94-99%, preferably 95-98%, and in step c) sesquisulfate or sodium sulfate produced during the production of chlorine dioxide is used.
A stable, lyophilized formulation comprising antibacterial agent daptomycin as active and tocopheryl phosphate hydrolysate mixture, wherein, said lyophilized formulation is directly reconstitutable within 5 minutes for parenteral administration.
An intravaginal culture apparatus, comprising: an outer container configured for insertion into a vaginal canal, wherein the outer container includes an upper portion that removably couples with a lower portion; a receiving cavity located in the upper portion; an inner vessel received in the receiving cavity, wherein the inner vessel includes an interior chamber configured to house an embryo; a second receiving cavity located in the lower portion; a second inner vessel received in the second receiving cavity, 4 wherein the second inner vessel is configured to house an embryo; and wherein the outer container, the inner vessel, and the second inner vessel include a CO 2 permeable construction 6. an outer container configured for insertion into a vaginal canal, wherein the outer container includes an upper portion that removably couples with a lower portion; a receiving cavity located in the upper portion; an inner vessel received in the receiving cavity, wherein the inner vessel includes an interior chamber configured to house an embryo; a second receiving cavity located in the lower portion; a second inner vessel received in the second receiving cavity, 4 wherein the second inner vessel is configured to house an embryo; and wherein the outer container, the inner vessel, and the second inner vessel include a CO 2 permeable construction 6.
A ventricular assist device comprising: a centrifugal pump having a motor; and a controller, wherein the controller is configured to at least: measure a current of the motor; characterized in that the controller is configured to: determine an estimated flow rate through the centrifugal pump based on the measured current; cause the centrifugal pump to operate at a first speed when the estimated flow rate is greater than a predetermined flow rate; and cause the centrifugal pump to operate at a second speed when the estimated flow rate is less than the predetermined flow rate, wherein the predetermined flowrate is indicative of an actual flow rate through the centrifugal pump at a crossover point between systole and diastole phases of a person's cardiac cycle. a centrifugal pump having a motor; and a controller, wherein the controller is configured to at least: measure a current of the motor; characterized in that the controller is configured to: determine an estimated flow rate through the centrifugal pump based on the measured current; cause the centrifugal pump to operate at a first speed when the estimated flow rate is greater than a predetermined flow rate; and cause the centrifugal pump to operate at a second speed when the estimated flow rate is less than the predetermined flow rate, wherein the predetermined flowrate is indicative of an actual flow rate through the centrifugal pump at a crossover point between systole and diastole phases of a person's cardiac cycle. measure a current of the motor; characterized in that the controller is configured to: determine an estimated flow rate through the centrifugal pump based on the measured current; cause the centrifugal pump to operate at a first speed when the estimated flow rate is greater than a predetermined flow rate; and cause the centrifugal pump to operate at a second speed when the estimated flow rate is less than the predetermined flow rate, wherein the predetermined flowrate is indicative of an actual flow rate through the centrifugal pump at a crossover point between systole and diastole phases of a person's cardiac cycle.
A mobile terminal, comprising: a side frame, a heat emitting element, and a holder, wherein the side frame surrounds the holder, and the holder is located in the mobile terminal and is a display screen holder, and wherein the holder comprises a heat conduction area and a heat insulation area, the heat insulation area is provided between an edge of the holder and the heat conduction area, the heat insulation area is provided with a heat insulation cavity, wherein the heat insulation cavity comprises at least one groove, and the groove is provided at an edge of the heat insulation area, the heat insulation area is adjacent to the heat conduction area, and the heat emitting element in the mobile terminal is arranged so that heat emitted by the heat emitting element is transferred to the heat conduction area.
An anti-lifting coupling system (10, 110, 210) for the reversible joining of elements for providing a formwork for floor castings, comprising: - a first engagement body (11, 111, 211, 311), to be fixed to a first beam of a formwork structure, - a second engagement body (12, 112, 212), to be fixed to a second beam of a formwork structure, whereby said first engagement body (11, 111, 211, 311) and said second engagement body (12, 112, 212) comprise reversible means of mutual engagement which are contoured to prevent the movement upwardly, in the configuration for use, of the second engagement body (12, 112, 212) with respect to the first engagement body (11, 111, 211, 311), and said first engagement body (11, 111, 311) is constituted by two contoured plates (13, 14, 113, 114, 313, 314), arranged mirror-symmetrical with respect to each other, which are joined by a cylindrical crossmember (15, 115, 315), for coupling the second engagement body (12, 112), on each one of said contoured plates (13, 14, 113, 114, 313, 314) a recess (16, 17, 116, 117, 316, 317) being defined, which is substantially U-shaped in profile, for inserting and resting a corresponding portion of the second engagement body (12, 112, 312). - a first engagement body (11, 111, 211, 311), to be fixed to a first beam of a formwork structure, - a second engagement body (12, 112, 212), to be fixed to a second beam of a formwork structure, whereby said first engagement body (11, 111, 211, 311) and said second engagement body (12, 112, 212) comprise reversible means of mutual engagement which are contoured to prevent the movement upwardly, in the configuration for use, of the second engagement body (12, 112, 212) with respect to the first engagement body (11, 111, 211, 311), and said first engagement body (11, 111, 311) is constituted by two contoured plates (13, 14, 113, 114, 313, 314), arranged mirror-symmetrical with respect to each other, which are joined by a cylindrical crossmember (15, 115, 315), for coupling the second engagement body (12, 112), on each one of said contoured plates (13, 14, 113, 114, 313, 314) a recess (16, 17, 116, 117, 316, 317) being defined, which is substantially U-shaped in profile, for inserting and resting a corresponding portion of the second engagement body (12, 112, 312).
A channel access method for supporting channel access of a station in a wireless communication system, comprising the steps of: transmitting (S211; S215; S413) a beacon frame comprising a traffic indication map, TIM; and receiving (S221a; S241a; S417) a Power Save-Poll frame, PS-Poll frame, from a station assigned with downlink data by the TIM within a PS-Poll interval set for the station (220; 230), wherein the beacon frame further comprises information for determining the start time of the PS-Poll interval which is set differently for each station, within a total PS-Poll interval set for stations assigned with downlink data by the TIM. transmitting (S211; S215; S413) a beacon frame comprising a traffic indication map, TIM; and receiving (S221a; S241a; S417) a Power Save-Poll frame, PS-Poll frame, from a station assigned with downlink data by the TIM within a PS-Poll interval set for the station (220; 230), wherein the beacon frame further comprises information for determining the start time of the PS-Poll interval which is set differently for each station, within a total PS-Poll interval set for stations assigned with downlink data by the TIM.
Mixing device for contents of substrate container fitted with an agitator in which the substrate container consists of at least one peripheral wall and bottom, in which the peripheral wall is oriented alongside a main vertical axis, and the agitator device consists of a shaft projecting at a different angle to the one of the vertical and horizontal mounting (α) in the substrate container, in which the agitator consists of at least two agitating vanes (9,10), which in each case, extend radially along both sides of the shaft, longitudinally along the shaft, spaced out along the shaft, where the length of the agitator vanes (9,10), their axial position and the angle of mounting (α) of the shaft ensure that they rotate at the level of liquid in the substrate container, characterised by vanes (9,10) at the ends (13,14,15,16) which are fitted radially to the shaft by lengthening the rectangular profile, at the ends (13,14,15,16) along the length of the profile rather than at inclined parts (17,18,19,20).
Arrangement for fastening an overhead line to a mast, with - an insulator which is arranged between a grounding point on the mast and a holding device for the overhead line, and - a line arrester with a spark electrode which is secured to the grounding point by means of a fastening apparatus, which is arranged at a distance from the overhead line or from a high-voltage electrode which is bonded thereto, and the distance defines a spark gap, wherein - the line arrester and the spark gap are connected in series with each other and in parallel with the insulator, wherein the line arrester is hinged on the grounding point by means of the fastening apparatus, such that the line arrester can be pivoted between a secure mounting position and a working position, and can be locked in the mounting position, wherein - the spark gap is larger in the mounting position than in the working position and wherein - the fastening apparatus is provided with a fastening plate for attachment to the grounding point, and with a mounting plate for the attachment of the line arrester, which are interconnected by means of a hinge, and wherein the hinge is arranged to pivot between a first angular position and a second angular position wherein, in the first angular position, the line arrester assumes the mounting position and, in the second angular position, assumes the working position, characterized in that the hinge is provided with two parallel-mounted first flanges, bonded to the fastening plate, and two likewise parallel-mounted second flanges, bonded to the mounting plate, wherein the flanges (26, 27) are each provided with an axle hole and are arranged such their axle holes lie along an axis of rotation of the hinge, and wherein, through the axle holes, an axle bolt passes through all four flanges (26, 27), said axle bolt forming the axis of rotation, and wherein an angle (α) between a longitudinal axis of the insulator and a longitudinal axis of the line arrester in the mounting position is greater than 70° and, in the working position, is less than 60°. - an insulator which is arranged between a grounding point on the mast and a holding device for the overhead line, and - a line arrester with a spark electrode which is secured to the grounding point by means of a fastening apparatus, which is arranged at a distance from the overhead line or from a high-voltage electrode which is bonded thereto, and the distance defines a spark gap, wherein - the line arrester and the spark gap are connected in series with each other and in parallel with the insulator, wherein the line arrester is hinged on the grounding point by means of the fastening apparatus, such that the line arrester can be pivoted between a secure mounting position and a working position, and can be locked in the mounting position, wherein - the spark gap is larger in the mounting position than in the working position and wherein - the fastening apparatus is provided with a fastening plate for attachment to the grounding point, and with a mounting plate for the attachment of the line arrester, which are interconnected by means of a hinge, and wherein
A mineral wool panel intended to be used as an acoustic panel and having: - a surface density of greater than or equal to 3.2 kg/m 2, preferably greater than or equal to 4 kg/m 2, or else greater than or equal to 4.5 kg/m 2, or greater than or equal to 5 kg/m 2, - an air flow resistivity of between 30 and 120 kPa.s/m 2, preferably of between 50 and 110 kPa.s/m 2, or of between 50 and 100 kPa.s/m 2, or else of between 50 and 90 kPa.s/m 2, or of between 50 and 80 kPa.s/m 2, measured according to standard ISO 9053, - a Young's modulus of between 0.5 and 4 MPa, preferably of between 0.8 and 4 MPa, more preferably still of between 1.2 MPa and 4 MPa, or of between 1.5 MPa and 4 MPa, or else of between 2 MPa and 4 MPa, measured according to the method defined in the description, - a degree of crimping of between 1.5 and 5, - and the panel not being cut through the thickness along a plane substantially parallel to its main faces. - a surface density of greater than or equal to 3.2 kg/m 2, preferably greater than or equal to 4 kg/m 2, or else greater than or equal to 4.5 kg/m 2, or greater than or equal to 5 kg/m 2, - an air flow resistivity of between 30 and 120 kPa.s/m 2, preferably of between 50 and 110 kPa.s/m 2, or of between 50 and 100 kPa.s/m 2, or else of between 50 and 90 kPa.s/m 2, or of between 50 and 80 kPa.s/m 2, measured according to standard ISO 9053, - a Young's modulus of between 0.5 and 4 MPa, preferably of between 0.8 and 4 MPa, more preferably still of between 1.2 MPa and 4 MPa, or of between 1.5 MPa and 4 MPa, or else of between 2 MPa and 4 MPa, measured according to the method defined in the description, - a degree of crimping of between 1.5 and 5, - and the panel not being cut through the thickness along a plane substantially parallel to its main faces.