mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a multi-axis system comprising a plurality of basic axes (X1, X2) and at least one drive axis which is mechanically coupled to the basic axes (X1, X2) at coupling points (K1, K2), the positions (p1, p2) of the coupling points (K1, K2) on the basic axes (X1, X2) being changeable by means of an associated motor (M1, M2) in order to move the drive axis in relation to the basic axes (X1, X2), closed-loop control units (R1, R2) being provided which are associated with the motors (M1, M2) and determine control input variables (u1, u2) from specified setpoint variables (w1, w2), preferably setpoint positions (p1 soll, p2 soll), and from associated corresponding actual variables (x1, x2), preferably the positions (p1, p2), occurring at the motor (M1, M2) and provide said control input variables to the motors (M1, M2) in order to control the corresponding actual variables (x1, x2) in accordance with the specified setpoint variables (w1, w2), characterized in that a feedforward control unit (V1, V2) associated with the motors (M1, M2) is provided in each case, which feedforward control unit in each case determines a feedforward control value (v1, v2) based on the associated specified setpoint variable (w1, w2) and superimposes said feedforward control value on the associated control input variable (u1, u2), in that a feedforward control identification process is provided, during which actual identification variables (x1', x2') occurring on each motor (M1, M2) are each provided to identification units (I1, I2) associated with the feedforward control units (V1, V2), feedforward control parameters (P1, P2) being identified using the actual identification variables (x1', x2'), and in that the closed-loop control units (R1, R2) are parameterized using the feedforward control parameters (P1, P2).
A rotary washing brush construction for a vehicle washing system, wherein said washing brush construction comprises a platform, of an elastic and/or flexible material, adapted to be wound about a support tube, said platform comprising a plurality of recesses each formed by a elliptical projection having an inner base therethrough at least two holes are formed, a thread inlet hole and a thread outlet hole, for allowing a thread to pass therethrough, in each said recess said thread encompassing and binding a folded flap portion of a strap element, thereby encompassing said folded flap portion or passing therethrough as a stitching arrangement; characterised in that said platform comprises a plurality of recesses arranged both with a longitudinal and a cross arrangement.
An image processing apparatus comprising: a communication interface configured to acquire a video image capturing a rear area behind a vehicle; and a controller configured to synthesize a guide wall image that indicates a predicted path of the vehicle in a display region of the video image; and cause a display apparatus to display the guide wall image together with an obstacle image and a marker representing a detection object, superimposed on the video image; wherein the obstacle image includes an image representing the vehicle viewed from above and an image (74b, 74c) indicating that an obstacle is detected on the left rear side of the vehicle and/or the right rear side of the vehicle, based on a detection result, characterised by wherein the marker includes a band image, the controller is configured to repeatedly move the band image in a first direction when it is determined that the vehicle contributes more to a reduction of the distance between the vehicle and the detection object, and the controller is configured to repeatedly move the band image in a second direction, different from the first direction, when it is determined that the detection object contributes more to a reduction of the distance between the vehicle and the detection object, and wherein the moving speed of the band image is faster as a rate at which the distance between the vehicle and the detection object is decreasing is faster. a communication interface configured to acquire a video image capturing a rear area behind a vehicle; and a controller configured to synthesize a guide wall image that indicates a predicted path of the vehicle in a display region of the video image; and cause a display apparatus to display the guide wall image together with an obstacle image and a marker representing a detection object, superimposed on the video image; synthesize a guide wall image that indicates a predicted path of the vehicle in a display region of the video image; and cause a display apparatus to display the guide wall image together with an obstacle image and a marker representing a detection object, superimposed on the video image; wherein the obstacle image includes an image representing the vehicle viewed from above and an image (74b, 74c) indicating that an obstacle is detected on the left rear side of the vehicle and/or the right rear side of the vehicle, based on a detection result, characterised by wherein the marker includes a band image, the controller is configured to repeatedly move the band image in a first direction when it is determined that the vehicle contributes more to a reduction of the distance between the vehicle and the detection object, and the controller is configured to repeatedly move the band image in a second direction, different from the first direction, when it is determined that the detection object contributes more to a reduction of the distance between the vehicle and the detection object, and wherein the moving speed of the band image is faster as a rate at which the distance between the vehicle and the detection object is decreasing is faster.
A robot arm link for a robot, comprising: a body made of non-metallic material; a transmission cable made of conductive material and embedded within the body; and at least one connector arranged on the body and coupled to the transmission cable, each connector adapted to be electrically connected to a connector (103 1) of a further robot arm link (100 1) of a same specification, a sensor, or a power source of the robot characterised in that the transmission cable is integrally formed in the body by injection molding the body. a body made of non-metallic material; a transmission cable made of conductive material and embedded within the body; and at least one connector arranged on the body and coupled to the transmission cable, each connector adapted to be electrically connected to a connector (103 1) of a further robot arm link (100 1) of a same specification, a sensor, or a power source of the robot characterised in that the transmission cable is integrally formed in the body by injection molding the body.
A pull-out guide for household appliances or furniture, comprising at least three rails (2, 3, 4) mounted for displacement relative to each other, wherein a first rail can be fixed in a stationary manner to a body, at least one second rail is provided between the first and third rail, and the third rail can be connected to a push element and can be displaced between a closed position and a pull-out position, wherein a latching mechanism is provided in order to fix the at least one second rail and the third rail in a detachable manner to each other via latching, and a locking mechanism is provided in order to lock the first rail and the at least one second rail to each other in the pull-out position, wherein the locking mechanism can be released via an unlocking means provided on the further rail, characterized in that the locking mechanism has at least two adjacently arranged locking positions in order to lock the two rails (2, 3) in different locking positions.
An iontophoretic drug delivery system, comprising: a drug delivery electrode and a return electrode, both housed within a portion of the iontophoretic delivery system; a dose controller operably coupled to the drug delivery electrode and to the return electrode; and a monitor included by the dose controller for observing an electrical characteristic associated with delivery of a drug selected from the group consisting of voltage, current and resistance; a current controller, and a sensor being in signal communication with the monitor and the current controller, wherein the monitor, the sensor and the current controller cooperate to monitor the amount of electrical current flowing through a conductor proximate to the area being treated, and adjust the electrical characteristic associated with the drug delivery in response to the monitored characteristic associated with the delivery of the drug. a drug delivery electrode and a return electrode, both housed within a portion of the iontophoretic delivery system; a dose controller operably coupled to the drug delivery electrode and to the return electrode; and a monitor included by the dose controller for observing an electrical characteristic associated with delivery of a drug selected from the group consisting of voltage, current and resistance; a current controller, and a sensor being in signal communication with the monitor and the current controller, wherein the monitor, the sensor and the current controller cooperate to monitor the amount of electrical current flowing through a conductor proximate to the area being treated, and adjust the electrical characteristic associated with the drug delivery in response to the monitored characteristic associated with the delivery of the drug.
A method performed by a device in a wireless communication system, the method comprising: receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI. receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI. the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI.
Isolated autologous CD133 + bone marrow derived stem cells (BMDSC) for use in inducing endometrial regeneration in a subject in need thereof, wherein the isolated CD133 + BMDSC are administered into the uterine arteries of the subject in need thereof.
Process for the production of propylene homo- or copolymers with an MFR 2 (230°C, 2.16kg, ISO 1133) in the range of 1200 to 3000 g/10min, said process comprises the steps of a) polymerising propylene and optionally ethylene and/or a C 4 -C 12 alpha-olefin comonomer in a slurry reactor in the presence of a polymerisation catalyst system, obtaining as slurry reactor product a first propylene homo- or copolymer component with an MFR 2 (230°C, 2.16kg, ISO 1133) in the range of 1000 to 4000 g/10min, b) transferring the slurry reactor product into a gas phase reactor c) further polymerising propylene and optionally ethylene and/or a C 4 -C 12 alpha-olefin comonomer in the presence of said slurry reactor product and the polymerisation catalyst system d) optionally recovering the so produced propylene homo- or copolymer for further processing, said polymerisation catalyst system comprises (i) a Ziegler-Natta procatalyst, (ii) an organometallic cocatalyst and (iii) an external donor represented by formula Si(OCH 2 CH 3) 3 (NR 1 R 2) wherein R 1 and R 2 can be the same or different and represent a hydrocarbon group having 1 to 12 carbon atoms. a) polymerising propylene and optionally ethylene and/or a C 4 -C 12 alpha-olefin comonomer in a slurry reactor in the presence of a polymerisation catalyst system, obtaining as slurry reactor product a first propylene homo- or copolymer component with an MFR 2 (230°C, 2.16kg, ISO 1133) in the range of 1000 to 4000 g/10min, b) transferring the slurry reactor product into a gas phase reactor c) further polymerising propylene and optionally ethylene and/or a C 4 -C 12 alpha-olefin comonomer in the presence of said slurry reactor product and the polymerisation catalyst system d) optionally recovering the so produced propylene homo- or copolymer for further processing, (i) a Ziegler-Natta procatalyst, (ii) an organometallic cocatalyst and (iii) an external donor represented by formula Si(OCH 2 CH 3) 3 (NR 1 R 2) wherein R 1 and R 2 can be the same or different and represent a hydrocarbon group having 1 to 12 carbon atoms.
An immunochromatographic analysis method, which is a method for detecting a detection target contained in an analyte using an immunochromatographic analysis device which includes a sample addition part, a labeling substance retaining part, a chromatography medium part having a detection part supported thereon, and an absorption part composed of glass fiber, comprising the following steps to: a step of adding an analyte-containing solution obtained by diluting the analyte with an analyte dilution solution to the sample addition part; a step of recognizing the detection target by a labeling substance retained in the labeling substance retaining part; a step of developing the analyte and the labeling substance in the chromatography medium part as a mobile phase in the presence of a nonionic surfactant; and a step of detecting the detection target in the developed mobile phase in the detection part, wherein the density of the absorption part is from 200 to 350 mg/cm 3, and the filtering time of the absorption part is from 20 seconds to 110 seconds. a step of adding an analyte-containing solution obtained by diluting the analyte with an analyte dilution solution to the sample addition part; a step of recognizing the detection target by a labeling substance retained in the labeling substance retaining part; a step of developing the analyte and the labeling substance in the chromatography medium part as a mobile phase in the presence of a nonionic surfactant; and a step of detecting the detection target in the developed mobile phase in the detection part,
A luggage comprising: - a case forming a frame; - a cover forming an opening frame movable relative to the frame between a closed position in which it is folded back onto the frame, and at least one open position; - at least one electric motor powering the opening and the closing of the opening frame; characterized in that it comprises: - means for determining a force exerted on the opening frame and/or a speed of displacement of the opening frame during the application of a force by a user causing a displacement of the opening frame from one of its open positions to its closed position; - an electronic unit parameterized with a threshold force and/or a threshold speed; and in that the electronic unit is further parameterized to control the electric motor so that it drives the opening frame in the closed position if the exerted force is greater than or equal to the threshold force, or if the displacement speed is greater than or equal to the threshold speed. - a case forming a frame; - a cover forming an opening frame movable relative to the frame between a closed position in which it is folded back onto the frame, and at least one open position; - at least one electric motor powering the opening and the closing of the opening frame; - means for determining a force exerted on the opening frame and/or a speed of displacement of the opening frame during the application of a force by a user causing a displacement of the opening frame from one of its open positions to its closed position; - an electronic unit parameterized with a threshold force and/or a threshold speed;
Method for near-contour surface temperature control of shell-shaped moulds with mould rim zones, wherein the temperature control of the mould on a near-contour temperature control surface with adjacent, web-like or wall-like separated subareas (4.i) is effected from the respective rear space of the mould rim zones of the mould and/or the respective mould rim zone of the mould and the shell-shaped moulds are designed in two or more parts with the respective mould rim zones, characterised in that the temperature control as cooling in the form of temperature control on the temperature control surface is locally different in subareas (4.i) the temperature control surface is effected in accordance with the temperature ranges of convection, bubble evaporation, partial and/or stable film evaporation of the liquid cooling fluid water, wherein the temperature control of the temperature control surface and/or the temperature distribution in the individual subareas (4.i) of the temperature control surface is controlled by means of different temperature control regimes of the subareas (4.i) of the temperature control surface and wherein the temperature control takes place in a rear space open towards the surrounding atmosphere.
Method of grinding or polishing a gear (1, 2) or a workpiece having a gear-like profile in a grinding or polishing machine, wherein the grinding or polishing machine comprising at least two workpiece spindles (4, 5) for receiving a workpiece (1, 2) and at least one grinding or polishing spindle having a grinding or polishing tool, wherein the method comprising the steps of: a) Grinding or polishing of a first workpiece received on a workpiece spindle; b) simultaneously to the grinding or polishing of the first workpiece: Picking up a second workpiece on the further workpiece spindle and measuring the toothing or the gear-like profile of the workpiece in order to determine the position of the tooth gaps or profile gaps, wherein measuring the toothing or the gear-like profile comprises scanning the tooth or profile flanks of at least one tooth or profile gap by means of a tactile measuring element or a non-contact measuring means in order to determine the effective allowance on the tooth or profile flanks; and c) after completion of the grinding or polishing of the first workpiece: grinding or polishing of the second workpiece received on the further workpiece spindle on the basis of the determined position of the tooth gaps or profile gaps and/or the measured effective allowance on the tooth or profile flank. a) Grinding or polishing of a first workpiece received on a workpiece spindle; b) simultaneously to the grinding or polishing of the first workpiece: Picking up a second workpiece on the further workpiece spindle and measuring the toothing or the gear-like profile of the workpiece in order to determine the position of the tooth gaps or profile gaps, wherein measuring the toothing or the gear-like profile comprises scanning the tooth or profile flanks of at least one tooth or profile gap by means of a tactile measuring element or a non-contact measuring means in order to determine the effective allowance on the tooth or profile flanks; and c) after completion of the grinding or polishing of the first workpiece: grinding or polishing of the second workpiece received on the further workpiece spindle on the basis of the determined position of the tooth gaps or profile gaps and/or the measured effective allowance on the tooth or profile flank.
A seat cushion device capable of adjusting hardness of a seat cushion including a seating surface, for seating a user, the seat cushion device comprising: a recessed part that is formed in a back surface of the seating surface in the seat cushion; characterized by a left plate that faces a back surface of a left thigh holding part of the seating surface, on which a left leg thigh of the user is locatable, and that is movable inside the recessed part vertically; a right plate that faces a back surface of a right thigh holding part of the seating surface, on which a right leg thigh of the user is locatable, and that is movable inside the recessed part vertically; and a gap adjustment mechanism that is configured to move the left plate and the right plate vertically in an independent manner, so as to adjust a clearance between the left plate and the back surface of the seating surface, and a clearance between the right plate and the back surface of the seating surface. a recessed part that is formed in a back surface of the seating surface in the seat cushion; characterized by a left plate that faces a back surface of a left thigh holding part of the seating surface, on which a left leg thigh of the user is locatable, and that is movable inside the recessed part vertically; a right plate that faces a back surface of a right thigh holding part of the seating surface, on which a right leg thigh of the user is locatable, and that is movable inside the recessed part vertically; and a gap adjustment mechanism that is configured to move the left plate and the right plate vertically in an independent manner, so as to adjust a clearance between the left plate and the back surface of the seating surface, and a clearance between the right plate and the back surface of the seating surface.
A material deposition machine for the production of parts, comprising a structural housing which forms an inner chamber in which an arc torch is configured to operate in order to melt a strand of material with which parts are formed on a supporting table, wherein the arc torch is mounted on a frame positioned horizontally in the upper part of the chamber, on which said arc torch is mounted with a movement system driven by several actuation means located on the outside of the structural housing, the supporting table being positioned below the frame in an assembly that can move towards or away from the frame, characterized in that a lateral sub-chamber is located facing the supporting table and equipped with a moveable cover that opens outwards, and the supporting table is pivotable towards the lateral sub-chamber, for the removal, through the lateral sub-chamber, of the parts formed on the supporting table.