mhurhangee/patent-ind-claim-en huggingface dataset:
A lumber loading system for transferring lumber pieces conveyed in a conveying direction defined by a conveying axis, the lumber loading system comprising: a driving shaft rotating about a longitudinal axis; at least one lumber piece grasping assembly operatively connected to the driving shaft and rotating about the longitudinal axis along with the driving shaft, the at least one lumber piece grasping assembly being displaceable along the longitudinal axis and being operative to initially grasp a section of a corresponding one of the lumber pieces with the corresponding one of the lumber pieces extending longitudinally substantially parallel to the longitudinal axis, temporarily maintain the section of the lumber piece and subsequently release the lumber piece; characterized by a longitudinal positioning system connected to the at least one lumber piece grasping assembly, the longitudinal positioning system moving each one of the at least one lumber piece grasping assembly independently along the longitudinal axis, during rotation thereof about the longitudinal axis. a driving shaft rotating about a longitudinal axis; at least one lumber piece grasping assembly operatively connected to the driving shaft and rotating about the longitudinal axis along with the driving shaft, the at least one lumber piece grasping assembly being displaceable along the longitudinal axis and being operative to initially grasp a section of a corresponding one of the lumber pieces with the corresponding one of the lumber pieces extending longitudinally substantially parallel to the longitudinal axis, temporarily maintain the section of the lumber piece and subsequently release the lumber piece; characterized by a longitudinal positioning system connected to the at least one lumber piece grasping assembly, the longitudinal positioning system moving each one of the at least one lumber piece grasping assembly independently along the longitudinal axis, during rotation thereof about the longitudinal axis.
Turbine generator , designed for speeds greater than 4,000 rpm, which has a turbine part and a generator part and extends along an axis of rotation from the turbine part to the generator part , wherein - the generator part has a rotating part and a fixed part - the turbine part has a turbine wheel and an inlet and an outlet for a medium (M), - a sealing arrangement is arranged between the turbine wheel and a fixed stationary housing part, - the generator part has a generator shaft with at least one bearing ring , characterized in that - the generator shaft is mounted via an axial bearing configured as a magnetic bearing, and for this purpose the magnetic bearing has two coils , which are axially spaced apart from one another and between which the at least one bearing ring is arranged at a respective axial distance (a) from the coils , - a control device for controlling the axial bearing is provided, which is configured in such a way that the axial distance (a) between the at least one bearing ring and one of the coils is regulated to a setpoint, and for this purpose the control device is set up to apply a coil current to the coils during operation, the coils being designed for a maximum coil current, - wherein the control device is further configured in such a way that it initiates at least one of the following two measures as required, namely - varies the setpoint in such a way that the sealing effect of the sealing arrangement is changed and/or - upon exceeding a current threshold for the coil current, outputs a control signal (S) for controlling the flow of the medium (M) or the speed of the turbine generator . - the generator part has a rotating part and a fixed part - the turbine part has a turbine wheel and an inlet and an outlet for a medium (M), - a sealing arrangement is arranged between the turbine wheel and a fixed stationary housing part, - the generator part has a generator shaft with at least one bearing ring , characterized in that - the generator shaft is mounted via an axial bearing configured as a magnetic bearing, and for this purpose the magnetic bearing has two coils , which are axially spaced apart from one another and between which the at least one bearing ring is arranged at a respective axial distance (a) from the coils , - a control device for controlling the axial bearing is provided, which is configured in such a way that the axial distance (a) between the at least one bearing ring and one of the coils is regulated to a setpoint, and for this purpose the control device is set up to apply a coil current to the coils during operation, the coils being designed for a maximum coil current, - wherein the control device is further configured in such a way that it initiates at least one of the following two measures as required, namely - varies the setpoint in such a way that the sealing effect of the sealing arrangement is changed and/or - upon exceeding a current threshold for the coil current, outputs a control signal (S) for controlling the flow of the medium (M) or the speed of the turbine generator .
A light barrier device comprising a transmitter unit and a receiver unit , wherein the transmitter unit comprises a plurality of transmitters emitting transmitted light beams and the receiver unit comprises a plurality of receivers receiving transmitted light beams , and with an alignment unit for aligning the transmitter unit and receiver unit , wherein the alignment unit has an arrangement of display elements (19a-19f) which are controlled by means of a sliding chain , characterised in that the sliding chain is used to control the activation of the receivers , in that the display elements (19a - 19f) are addressed with the sliding chain , in that an alignment quality for one or more receivers is determined in the alignment unit on the basis of alignment criteria, the display elements (19a - 19f) being designed to display alignment qualities, and in that the display elements (19a - 19f) are designed as optical display elements.
A display device comprising: an intermediate-image formation unit configured to form an intermediate image on a screen ; a projection unit configured to project the intermediate image toward a transmission/reflection member to display a virtual image ; a reception unit configured to receive virtual image information that includes information about a defect of the virtual image ; and a correction unit configured to correct the defect of the virtual image in accordance with the virtual image information, characterized in that the correction unit transforms the intermediate image within the screen by rotating two sides around a predetermined rotation axis , the two sides arranged in a longitudinal direction among four sides forming the intermediate image that is rectangular and moving in a parallel direction the other two sides , the other two sides arranged in a lateral direction among four sides forming the intermediate image . an intermediate-image formation unit configured to form an intermediate image on a screen ; a projection unit configured to project the intermediate image toward a transmission/reflection member to display a virtual image ; a reception unit configured to receive virtual image information that includes information about a defect of the virtual image ; and a correction unit configured to correct the defect of the virtual image in accordance with the virtual image information, characterized in that the correction unit transforms the intermediate image within the screen by rotating two sides around a predetermined rotation axis , the two sides arranged in a longitudinal direction among four sides forming the intermediate image that is rectangular and moving in a parallel direction the other two sides , the other two sides arranged in a lateral direction among four sides forming the intermediate image .
A printer , comprising: at least one media tray to support a stack of media sheets ; a first bend sensor having a base attached to the printer, the first bend sensor having a tip opposite the base to extend into the at least one media tray , characterized by the first bend sensor being a sensor whose electrical resistance increases as it is bent; and by different deflection amounts of the tip to indicate a media parameter that includes the amount of media sheets in the media tray , and/or by a deflection amount of the tip to indicate a media parameter, wherein the media parameter includes at least one of a media width and a media length. at least one media tray to support a stack of media sheets ; a first bend sensor having a base attached to the printer, the first bend sensor having a tip opposite the base to extend into the at least one media tray , characterized by the first bend sensor being a sensor whose electrical resistance increases as it is bent; and by different deflection amounts of the tip to indicate a media parameter that includes the amount of media sheets in the media tray , and/or by a deflection amount of the tip to indicate a media parameter, wherein the media parameter includes at least one of a media width and a media length.
A control method for an automated gearbox of an automotive vehicle (T), said gearbox being adapted to work in: - a first automatic mode - at least one second driver initiated mode which is different from the first mode wherein said method includes at least the following steps: a) the vehicle driving behaviour is monitored , b) the vehicle driving behaviour is analyzed and determined to be below a first limit value L1, or a second limit value L2,satisfactory or non-satisfactory wherein a first alarm message is sent to the driver below the first limit value L1 and wherein the vehicle driving behavior is determined to be satisfactory above the second limit value L2 and non-satisfactory below the second limit value L2, c) when the driver requests switch of the automated gearbox from the first mode to the second mode, the switch order is followed only if, in step b), the vehicle driving behaviour is determined to be satisfactory (B = OK). - a first automatic mode - at least one second driver initiated mode which is different from the first mode wherein said method includes at least the following steps: a) the vehicle driving behaviour is monitored , b) the vehicle driving behaviour is analyzed and determined to be below a first limit value L1, or a second limit value L2,satisfactory or non-satisfactory wherein a first alarm message is sent to the driver below the first limit value L1 and wherein the vehicle driving behavior is determined to be satisfactory above the second limit value L2 and non-satisfactory below the second limit value L2, c) when the driver requests switch of the automated gearbox from the first mode to the second mode, the switch order is followed only if, in step b), the vehicle driving behaviour is determined to be satisfactory (B = OK). a) the vehicle driving behaviour is monitored , b) the vehicle driving behaviour is analyzed and determined to be below a first limit value L1, or a second limit value L2,satisfactory or non-satisfactory wherein a first alarm message is sent to the driver below the first limit value L1 and wherein the vehicle driving behavior is determined to be satisfactory above the second limit value L2 and non-satisfactory below the second limit value L2, c) when the driver requests switch of the automated gearbox from the first mode to the second mode, the switch order is followed only if, in step b), the vehicle driving behaviour is determined to be satisfactory (B = OK).
A flexible catheter , comprising a drive shaft , a sheath surrounding the drive shaft , and a sleeve surrounding the drive shaft and the sheath , the drive shaft, the sheath and the sleeve being bendable, the drive shaft comprising, at a proximal end of the drive shaft , a coupling element for connecting the drive shaft to a drive motor , wherein the drive shaft comprises, at least in regions, an alloy that contains in each case at least 10% by weight chromium, nickel and cobalt, characterized in that the sheath consists, at least in regions, of the same alloy as the drive shaft .
A method for wireless communication performed by a user equipment, UE, comprising: receiving radio resource control, RRC, signaling including a configuration that indicates a transmission configuration indicator, TCI, state switching pattern and a TCI state switching period, the TCI state switching period indicating a number of a plurality of transmission time intervals, TTIs, and the TCI state switching pattern indicating a TCI state for each of the plurality of TTIs; performing TCI state switching according to the TCI state switching pattern and the TCI state switching period; and receiving a downlink transmission during at least one of the plurality of TTIs of the TCI state switching pattern. receiving radio resource control, RRC, signaling including a configuration that indicates a transmission configuration indicator, TCI, state switching pattern and a TCI state switching period, the TCI state switching period indicating a number of a plurality of transmission time intervals, TTIs, and the TCI state switching pattern indicating a TCI state for each of the plurality of TTIs; performing TCI state switching according to the TCI state switching pattern and the TCI state switching period; and receiving a downlink transmission during at least one of the plurality of TTIs of the TCI state switching pattern.
A battery packaging material constituted of a laminate including a base material layer , a barrier layer , a cured resin layer , and a heat-sealable resin layer in this order, wherein at least one layer of the base material layer is formed of a polybutylene terephthalate film, the polybutylene terephthalate film has both a heat shrinkage ratio at 150°C in one direction of the polybutylene terephthalate film and a heat shrinkage ratio at 150°C in the other direction orthogonal to the one direction being 3.0% or more in the atmosphere, the cured resin layer is made of a cured product of a curable resin, and a value determined by dividing a piercing strength X (N) in the case of piercing the laminate from the base material layer side measured by a method in accordance with a provision of JIS Z1707:1997 by a thickness Y (μm) of the polybutylene terephthalate film is 1.02 N/μm or more. at least one layer of the base material layer is formed of a polybutylene terephthalate film, the polybutylene terephthalate film has both a heat shrinkage ratio at 150°C in one direction of the polybutylene terephthalate film and a heat shrinkage ratio at 150°C in the other direction orthogonal to the one direction being 3.0% or more in the atmosphere, the cured resin layer is made of a cured product of a curable resin, and a value determined by dividing a piercing strength X (N) in the case of piercing the laminate from the base material layer side measured by a method in accordance with a provision of JIS Z1707:1997 by a thickness Y (μm) of the polybutylene terephthalate film is 1.02 N/μm or more.
A detection device for detecting the position of a moving object , wherein the detection device comprises: - a base ; - an arm that is mounted rotatable to the base , wherein the arm is rotatable around a first rotational axis and has a free end for contact with the moving object ; and - a sensor that is configured to detect rotation of the arm relative to the base , wherein the sensor has a first part and a second part, wherein the first part moves with the arm , and the second part is attached to the base ; Wherein the first part is a first component of a magnet switch pair, wherein the switch is an electrical switch that is configured to be actuated by the magnetic field of the magnet , and that the second part is the other component of the magnet switch pair, wherein the electrical switch is in an initial state when the arm is in a first rotational position (P1), and wherein the electrical switch is in a second state when the arm is in a second rotational position (P2) that is different from the first rotational position (P1), and that the detection device comprises a reset device that is a spring, which is configured to move the arm from the second rotational position (P2) into the first rotational position (P1), characterized in that the arm comprises a first section that is mounted rotatable to the base , and a second section that extends from the first section in the direction of the free end , wherein the second section is mounted rotatable to the first section, wherein the second section is rotatable around a second rotational axis that is orthogonal to the first rotational axis . - a base ; - an arm that is mounted rotatable to the base , wherein the arm is rotatable around a first rotational axis and has a free end for contact with the moving object ; and - a sensor that is configured to detect rotation of the arm relative to the base , wherein the sensor has a first part and a second part, wherein the first part moves with the arm , and the second part is attached to the base ; Wherein the first part is a first component of a magnet switch pair, wherein the switch is an electrical switch that is configured to be actuated by the magnetic field of the magnet , and that the second part is the other component of the magnet switch pair, wherein the electrical switch is in an initial state when the arm is in a first rotational position (P1), and wherein the electrical switch is in a second state when the arm is in a second rotational position (P2) that is different from the first rotational position (P1), and that the detection device comprises a reset device that is a spring, which is configured to move the arm from the second rotational position (P2) into the first rotational position (P1), characterized in that the arm comprises a first section that is mounted rotatable to the base , and a second section that extends from the first section in the direction of the free end , wherein the second section is mounted rotatable to the first section, wherein the second section is rotatable around a second rotational axis that is orthogonal to the first rotational axis .
A prosthetic valve for percutaneous implantation in a body channel, comprising: a substantially cylindrical stent structure configured for radial expansion; a valvular structure having an inlet and an outlet, the valvular structure being formed of a pliant material attached to the stent structure and forming three valve leaflets; characterised by a layer of compressible material , which forms a sleeve disposed along an outer surface of the stent structure and extending entirely around the stent structure, the compressible material being adapted after deployment to fill gaps between the prosthetic valve and the body channel, wherein the compressible material includes a plurality of fibers extending outward from the outer surface. a substantially cylindrical stent structure configured for radial expansion; a valvular structure having an inlet and an outlet, the valvular structure being formed of a pliant material attached to the stent structure and forming three valve leaflets; characterised by a layer of compressible material , which forms a sleeve disposed along an outer surface of the stent structure and extending entirely around the stent structure, the compressible material being adapted after deployment to fill gaps between the prosthetic valve and the body channel, wherein the compressible material includes a plurality of fibers extending outward from the outer surface.
A polymer mixture comprising an aqueous binder composition and vulcanized or crosslinked rubber, wherein the aqueous binder composition comprises: (a) an acrylic emulsion (co)polymer; (b) a crosslinking agent comprising a water-dispersible isocyanate composition; and (c) a foaming agent selected from the group consisting of sodium oleate, sodium alkylsulfonate and sodium alkylbenzenesulfonate, or mixtures thereof.; and wherein the vulcanized or crosslinked rubber comprises rubber powder having a sieve particle size less than 0.5 mm; and the weight ratio of the total solids weight of the acrylic emulsion (co)polymer to the total weight of the vulcanized or crosslinked rubber is from 1:4 to 1:0.2. (a) an acrylic emulsion (co)polymer; (b) a crosslinking agent comprising a water-dispersible isocyanate composition; and (c) a foaming agent selected from the group consisting of sodium oleate, sodium alkylsulfonate and sodium alkylbenzenesulfonate, or mixtures thereof.; and
An oral thin film comprising a polymer matrix in the form of a solidified foam having voids, wherein the polymer matrix contains at least one active pharmaceutical ingredient, at least one first polymer which comprises a water-soluble polymer and at least one second polymer which comprises a mucoadhesive polymer having a number-average molecular weight of equal to or greater than 100,000 g/mol.
A lock cylinder for an electronic key , having a core , which can be moved in a housing , having a locking channel arranged in the core for the introduction of the key and an antenna arranged in the housing for the detection of electronic signals of the key and having an electronic blocking device for the selective blocking or release of the movement of the core in dependence on the signals of the key , characterized in that the antenna in the housing is directly opposite a transmission antenna in the core for the contactless transmission of the signals of the key and that a receiving antenna is arranged in the core directly on the locking channel and is connected to the transmission antenna via electrical conductors .
A commission device configured to commission load devices (2-6), which commission device comprises - a first transmitter configured to transmit an activation signal to a load device for activating this load device , - a second transmitter configured to transmit a number of challenge signals to the activated load device , which activated load device is configured to respond to the number of challenge signals by sending back a response signal per challenge signal to the commission device , - a first receiver configured to receive the response signals from the activated load device , and - a controller configured to determine time-intervals present between transmissions of the challenge signals and receptions of the response signals, which controller is further configured to derive a position of the load device from an analysis of the time-intervals. - a first transmitter configured to transmit an activation signal to a load device for activating this load device , - a second transmitter configured to transmit a number of challenge signals to the activated load device , which activated load device is configured to respond to the number of challenge signals by sending back a response signal per challenge signal to the commission device , - a first receiver configured to receive the response signals from the activated load device , and - a controller configured to determine time-intervals present between transmissions of the challenge signals and receptions of the response signals, which controller is further configured to derive a position of the load device from an analysis of the time-intervals.