mhurhangee/patent-ind-claim-en huggingface dataset:
A method for arranging a vertical lifting intensive parking garage, comprising: providing a main body tower garage , wherein a storage rack composed of a plurality of storage garage spaces is arranged in the center of the main body tower garage ; wherein the storage rack is provided with separation layers, wherein storage garage spaces of two adjacent separation layers are perpendicular to each other; each of said separation layers of the storage rack is an independent movable garage and is provided with a left and right turnover parking stall and is joined to two corresponding vehicle-supporting elevators ; wherein the parking garage comprises another two vehicle-supporting elevators and different layers of the storage rack are rotated by a suitable angle as needed so as to be joined said another two vehicle-supporting elevators ; wherein one of said two corresponding vehicle-supporting elevators is disposed respectively on both sides; wherein the layers of the storage rack are rotated by 90°, and said another two vehicle-supporting elevators are offset by 90° from the corresponding vehicle-supporting elevators ; wherein, in this way, two of the elevators form one group, and the two groups operate as backups for each other, so as to serve corresponding storage garage spaces together; wherein the total of four elevators operate synchronously; wherein the two groups of elevators are designed into stalls having two different sizes to store different types of vehicles.
An apparatus comprising: a plurality of power supply monitors (PSMs) each configured to measure voltages at a respective location of a plurality of locations in a processing system concurrently with the processing system executing a plurality of code loops at each of the plurality of locations during a first execution while the processing system is connected to a first power supply, wherein a reference voltage is determined based on a statistical combination of voltages measured during the first execution, and further wherein a comparison voltage is determined based on the statistical combination of voltages measured by the plurality of PSMs concurrently with executing the plurality of code loops at each of the plurality of locations during a second execution while the processing system is connected to a second power supply; and calibration logic configured to modify a voltage provided by the second power supply to the processing system based on a comparison of the reference voltage and the comparison voltage. a plurality of power supply monitors (PSMs) each configured to measure voltages at a respective location of a plurality of locations in a processing system concurrently with the processing system executing a plurality of code loops at each of the plurality of locations during a first execution while the processing system is connected to a first power supply, wherein a reference voltage is determined based on a statistical combination of voltages measured during the first execution, and further wherein a comparison voltage is determined based on the statistical combination of voltages measured by the plurality of PSMs concurrently with executing the plurality of code loops at each of the plurality of locations during a second execution while the processing system is connected to a second power supply; and calibration logic configured to modify a voltage provided by the second power supply to the processing system based on a comparison of the reference voltage and the comparison voltage.
A method for finishing a supplied building panel made of a wood-based material, especially MDF or HDF, with a lower side and an upper side featuring a decorative pattern, a relief being embossed into at least the upper side , comprising the steps: (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer , (b) providing the lower side with a backing layer , (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth (T), said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), characterised in that before applying the decorative paper (e) a post-forming resin or standard impregnating resin is applied to the upper side as a tempering agent that becomes more elastic by adding a flexibilisation agent, and (f) the upper side is treated with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 to 50 °C. (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer , (b) providing the lower side with a backing layer , (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth (T), said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), (e) a post-forming resin or standard impregnating resin is applied to the upper side as a tempering agent that becomes more elastic by adding a flexibilisation agent, and (f) the upper side is treated with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 to 50 °C.
A resuscitation system for use in the resuscitation of a subject, comprising: a computing device configured to input subject information and use the subject information to create a subject resuscitation strategy, a sensor configured to detect subject biosignals and use the subject biosignals to monitor for a subject cardiac arrest event, and a defibrillator configured to determine and deliver a subject resuscitation treatment, wherein on determination of a subject cardiac arrest event, the sensor is configured to output sensor subject biosignals to the computing device , the computing device is configured to use the sensor subject biosignals to adapt the subject resuscitation strategy and output the subject resuscitation strategy to the defibrillator , the defibrillator is configured to measure subject biodata, use the subject biodata and the subject resuscitation strategy to determine and deliver a subject resuscitation treatment, and during subject resuscitation treatment, the defibrillator is configured to repeatedly measure subject biodata and output defibrillator subject biodata to the computing device , the computing device is configured to repeatedly use the defibrillator subject biodata to adapt the subject resuscitation strategy and output the subject resuscitation strategy to the defibrillator , the defibrillator is configured to repeatedly use the measured subject biodata and the subject resuscitation strategy to adapt the subject resuscitation treatment. a computing device configured to input subject information and use the subject information to create a subject resuscitation strategy, a sensor configured to detect subject biosignals and use the subject biosignals to monitor for a subject cardiac arrest event, and a defibrillator configured to determine and deliver a subject resuscitation treatment, wherein on determination of a subject cardiac arrest event, the sensor is configured to output sensor subject biosignals to the computing device , the computing device is configured to use the sensor subject biosignals to adapt the subject resuscitation strategy and output the subject resuscitation strategy to the defibrillator , the defibrillator is configured to measure subject biodata, use the subject biodata and the subject resuscitation strategy to determine and deliver a subject resuscitation treatment, and during subject resuscitation treatment, the defibrillator is configured to repeatedly measure subject biodata and output defibrillator subject biodata to the computing device , the computing device is configured to repeatedly use the defibrillator subject biodata to adapt the subject resuscitation strategy and output the subject resuscitation strategy to the defibrillator , the defibrillator is configured to repeatedly use the measured subject biodata and the subject resuscitation strategy to adapt the subject resuscitation treatment.
A pharmaceutical composition comprising an inhibitor against CD112 (Nectin-2, PVRL2), CD155 (PVR), and/or TIGIT for use in the treatment of acute myeloid leukemia (AML), wherein the inhibitor is an antibody which specifically binds to CD112, CD155 and/or TIGIT, and wherein the pharmaceutical composition further comprises a bispecific single chain Fv (scFv) antibody construct that engages T cells and comprises a CD3epsilon binding domain and a further binding domain targeting a surface molecule selected from the group consisting of CD33, CD19 and Flt3.
A laser processing machine comprising: a laser processing head for processing a workpiece by means of at least one laser beam (9, 9a-f), the laser processing head comprising: at least one birefringent beam splitter element (10, 10a-f) for splitting the at least one laser beam (9, 9a-f), which strikes a beam entrance surface of the birefringent beam splitter element in a randomly polarized or unpolarized state, into two partial beams with mutually perpendicular linear polarization, wherein the birefringent beam splitter element has a beam exit surface which is not aligned parallel to the beam entrance surface , for the exit of the two partial beams , and a focusing optics for focusing the partial beams on at least two focal surfaces (F1, F2) in a focal plane which is located on an upper side of the workpiece or in the vicinity of the upper side of the workpiece , wherein both the beam entrance surface and the beam exit surface of the beam splitter element are arranged at an angle not equal to 90° or 180° to an optical axis of the subsequent focusing optics , wherein the laser processing machine further comprises: a non-polarization-maintaining fiber optic light guide for supplying the laser beam to the laser processing head , characterized in that the laser processing head is designed to irradiate the laser beam perpendicular to the beam entrance surface onto the birefringent beam splitter element . at least one birefringent beam splitter element (10, 10a-f) for splitting the at least one laser beam (9, 9a-f), which strikes a beam entrance surface of the birefringent beam splitter element in a randomly polarized or unpolarized state, into two partial beams with mutually perpendicular linear polarization, wherein the birefringent beam splitter element has a beam exit surface which is not aligned parallel to the beam entrance surface , for the exit of the two partial beams , and a focusing optics for focusing the partial beams on at least two focal surfaces (F1, F2) in a focal plane which is located on an upper side of the workpiece or in the vicinity of the upper side of the workpiece , wherein both the beam entrance surface and the beam exit surface of the beam splitter element are arranged at an angle not equal to 90° or 180° to an optical axis of the subsequent focusing optics , wherein the laser processing machine further comprises: a non-polarization-maintaining fiber optic light guide for supplying the laser beam to the laser processing head , characterized in that the laser processing head is designed to irradiate the laser beam perpendicular to the beam entrance surface onto the birefringent beam splitter element . a non-polarization-maintaining fiber optic light guide for supplying the laser beam to the laser processing head , characterized in that the laser processing head is designed to irradiate the laser beam perpendicular to the beam entrance surface onto the birefringent beam splitter element .
A method of wirelessly transmitting sound mixes in an audio monitoring system for stage use, the method comprising: wirelessly receiving a first set of transmission data, comprising a first frequency of a first base unit and a first mix identifier, at a terminal unit from the first base unit in response to a first user input; wirelessly receiving a second set of transmission data, comprising a second frequency of a second base unit and a second mix identifier, from the second base unit at the terminal unit in response to a second user input; storing both the first set of transmission data and the second set of transmission data in the memory of the terminal unit ; assigning the first set of transmission data and the second set of transmission data a channel label; receiving an audio signal on the terminal unit on the first or second frequency in response to a selection received from a user-input device on the terminal unit ; and outputting the audio signal to a sound transmission device in response to the selection from the user-input device. wirelessly receiving a first set of transmission data, comprising a first frequency of a first base unit and a first mix identifier, at a terminal unit from the first base unit in response to a first user input; wirelessly receiving a second set of transmission data, comprising a second frequency of a second base unit and a second mix identifier, from the second base unit at the terminal unit in response to a second user input; storing both the first set of transmission data and the second set of transmission data in the memory of the terminal unit ; assigning the first set of transmission data and the second set of transmission data a channel label; receiving an audio signal on the terminal unit on the first or second frequency in response to a selection received from a user-input device on the terminal unit ; and outputting the audio signal to a sound transmission device in response to the selection from the user-input device.
A method for applying a reinforcement of metal material to a component of metal material , particularly in the construction of a motor-vehicle body or a sub-assembly thereof, wherein said method comprises the step of applying a reinforcement of metal material above said component using additive manufacturing technology, said method being characterized in that said step of applying a reinforcement by additive manufacturing technology comprises a first step for applying a coarse base cladding and a second step for applying a fine cladding including a distribution of stiffening micro-ribs .
A gas generating composition, comprising fuel and an oxidizing agent, the oxidizing agent comprising basic copper carbonate, the composition having the content of the basic copper carbonate of more than 40% by mass and 60% by mass or lower, satisfying the following requirements (a) to (c) : (a) the burning rate is 7.0 mm/sec or above; (b) the gas output is 2.30 mol/100g or above; and (c) the calorific value per mol of the generated gas is 100 kJ/mol or lower. (a) the burning rate is 7.0 mm/sec or above; (b) the gas output is 2.30 mol/100g or above; and (c) the calorific value per mol of the generated gas is 100 kJ/mol or lower.
Belt feeder for separating a plurality of stacked, substantially flat products with - a drive , - a separating arrangement and - an outlet arrangement , wherein the separating arrangement has at least one separating belt and at least one separating roller , which are arranged relative to one another and articulated by the drive in such a way that individual products are transferred between the separating belt and the separating roller through into the outlet arrangement , wherein an adjusting arrangement is provided for adjusting a first spacing (d1) between the separating roller and the separating belt , and wherein the outlet arrangement has at least one outlet extension with an upper outlet belt and a lower outlet extension with a lower outlet belt , which are arranged relative to one another and articulated by the drive in such a way that the separated product is conveyed further between the belts , wherein a pivoting arrangement is provided, by way of which the separating roller is pivotably mounted on the adjusting arrangement and is fixable in a predetermined position by means of a fixing arrangement , characterised in that the fixing arrangement is designed as a latching arrangement, wherein the latching arrangement has conically formed index bolts , so that by releasing of the index bolts the separating rollers can be hinged away from the separating belts . - a drive , - a separating arrangement and - an outlet arrangement ,
A method of ultrasonically testing a wheel, the method comprising: receiving a data set including values of a plurality of vertical steering angles and values of a plurality of predetermined horizontal steering angles corresponding to the plurality of vertical steering angles, wherein the data set is predetermined based on the geometry of a wheel; receiving data characterizing a surface profile associated with a wheel , the surface profile indicative of a plurality of defects on a wheel surface of the wheel ; determining , based on the surface profile, a first correction angle associated with an ultrasonic probe configured to be positioned at a first location on the wheel surface, wherein the first correction angle is indicative of a first defect of the wheel surface at the first location; and transmitting , by the ultrasonic probe located at the first location, an ultrasonic beam along a first direction in the wheel , wherein the first direction is indicative of a first horizontal steering angle and a first vertical steering angle , wherein the first vertical steering angle is a vertical steering angle included in the plurality of vertical steering angles of the data set, and the first horizontal steering angle is based on: a first predetermined horizontal steering angle included in the plurality of predetermined horizontal steering angles of the data set that corresponds to the first vertical steering angle ; and the first correction angle. receiving a data set including values of a plurality of vertical steering angles and values of a plurality of predetermined horizontal steering angles corresponding to the plurality of vertical steering angles, wherein the data set is predetermined based on the geometry of a wheel; receiving data characterizing a surface profile associated with a wheel , the surface profile indicative of a plurality of defects on a wheel surface of the wheel ; determining , based on the surface profile, a first correction angle associated with an ultrasonic probe configured to be positioned at a first location on the wheel surface, wherein the first correction angle is indicative of a first defect of the wheel surface at the first location; and transmitting , by the ultrasonic probe located at the first location, an ultrasonic beam along a first direction in the wheel , wherein the first direction is indicative of a first horizontal steering angle and a first vertical steering angle , wherein the first vertical steering angle is a vertical steering angle included in the plurality of vertical steering angles of the data set, and the first horizontal steering angle is based on: a first predetermined horizontal steering angle included in the plurality of predetermined horizontal steering angles of the data set that corresponds to the first vertical steering angle ; and the first correction angle. a first predetermined horizontal steering angle included in the plurality of predetermined horizontal steering angles of the data set that corresponds to the first vertical steering angle ; and the first correction angle.
Wet cleaning device comprising a cleaning roller rotatably mounted about a roller axis , and a roller cover at least partially surrounding the cleaning roller in the circumferential direction, characterised in that the roller cover , at least in a portion of an inner wall of the roller cover , comprises a part of a flow guide structure winding helically in the axial direction.
Method for operating an electric bicycle which comprises a brake system and a controllably actuable drive unit , wherein the brake system has a controllably actuable actuator , for controlled generation of a braking torque, comprising the steps of: - controlled generation of a braking torque by means of the brake system , and - controlled generation of a drive torque by means of the drive unit , characterized in that the controlled generation of the braking torque and the controlled generation of the drive torque are performed at the same time and depending on each other in such a way as to decelerate the electric bicycle with a predetermined overall braking torque or to accelerate the electric bicycle with a predetermined overall drive torque. - controlled generation of a braking torque by means of the brake system , and - controlled generation of a drive torque by means of the drive unit ,
Use of a tool for zonal polishing of a surface of an optical workpiece , in particular a lens, wherein the tool has a curved head and an elastic cap arranged thereon to form a polishing surface , wherein the cap is stress-free on the head , wherein the tool with its curved polishing surface is swiveled and/or advanced relative to the workpiece , so that the polishing surface of the rotating tool is placed partially by indentation in the area of a contact surface (A) against the rotating workpiece that is to be polished, wherein the contact surface (A) traverses a polishing path (P) on the workpiece , wherein the rotational speed of the workpiece is varied during a rotation depending on the rotating position, the locally desired dwell time, and/or the profile of the workpiece . wherein the tool has a curved head and an elastic cap arranged thereon to form a polishing surface , wherein the cap is stress-free on the head , wherein the tool with its curved polishing surface is swiveled and/or advanced relative to the workpiece , so that the polishing surface of the rotating tool is placed partially by indentation in the area of a contact surface (A) against the rotating workpiece that is to be polished, wherein the contact surface (A) traverses a polishing path (P) on the workpiece , wherein the rotational speed of the workpiece is varied during a rotation depending on the rotating position, the locally desired dwell time, and/or the profile of the workpiece .
A device for braking lines of tying twine, for agricultural machines, of the type of balers, round balers and the like, which are provided with assemblies for tying bales of previously-cut agricultural products, of the type of grass, wheat, maize, hay, forage, and the like, the device comprising an electronic unit the device being characterized in that the electronic unit is suitable for controlling and managing at least one actuator for directly moving at least one braking element , which is actuated by said electronic unit by way of said actuator , for the at least partial retaining of at least one respective length of at least one line of twine (A), during its unreeling.
Pressurized fluid connector, in particular for a pressurized gas store, the connector being intended to cooperate with a pressurized fluid filling and/or withdrawal apparatus, the connector comprising a body delimiting an internal fluid withdrawal and possibly filling circuit , said circuit extending between an upstream end intended to be placed in communication with a pressurized fluid storage volume and a downstream end intended to be connected to a pressurized fluid withdrawal and/or filling apparatus, the connector comprising, at the downstream end of the circuit , a dust valve shutter that is able to move relative to the body between a position in which the downstream end of the circuit is closed and at least one open position, characterized in that the dust valve shutter is a residual pressure valve shutter that is configured, when it is in the closed position, to maintain a determined minimum pressure in the circuit and that allows gas to be discharged towards the outside in the event of an overpressure in the circuit above a determined pressure threshold with respect to the outside.