mhurhangee/ep-ind-claims huggingface dataset:
A surgical system for selective connection to a robotic arm, the surgical system comprising: an instrument drive unit including a plurality of actuators; an instrument support platform configured to releasably couple to the instrument drive unit and including a plurality of rotatable members operably associated with the plurality of actuators of the instrument drive unit, each of the plurality of rotatable members being rotatable in response to actuation of at least one of the plurality of actuators; an instrument carriage including a plurality of drive members coupled to the plurality of rotatable members of the instrument support platform, at least one of the plurality of drive members being translatable relative to the instrument carriage in response to rotation of at least one of the plurality of rotatable members; and a surgical instrument configured to releasably couple to the instrument carriage and supporting an end effector that extends distally from the instrument support platform, the end effector being movable in response to translation of the at least one of the plurality of drive members of the instrument carriage, wherein the instrument drive unit includes a gear actuatable by a further actuator of the instrument drive unit, the instrument support platform and the surgical instrument being simultaneously rotatable about a longitudinal axis defined through the instrument support platform in response to actuation of the gear. an instrument drive unit including a plurality of actuators; an instrument support platform configured to releasably couple to the instrument drive unit and including a plurality of rotatable members operably associated with the plurality of actuators of the instrument drive unit, each of the plurality of rotatable members being rotatable in response to actuation of at least one of the plurality of actuators; an instrument carriage including a plurality of drive members coupled to the plurality of rotatable members of the instrument support platform, at least one of the plurality of drive members being translatable relative to the instrument carriage in response to rotation of at least one of the plurality of rotatable members; and a surgical instrument configured to releasably couple to the instrument carriage and supporting an end effector that extends distally from the instrument support platform, the end effector being movable in response to translation of the at least one of the plurality of drive members of the instrument carriage, wherein the instrument drive unit includes a gear actuatable by a further actuator of the instrument drive unit, the instrument support platform and the surgical instrument being simultaneously rotatable about a longitudinal axis defined through the instrument support platform in response to actuation of the gear.
Self-service system for paying in and paying out coins, having a device for the input of coins (108, 116), and a device for the output of coins (108, 116), means being provided which provides the coins (108, 116) to be output from the stock (18a to 18d) of the paid-in coins (108, 116) in the form of a packed coin package consisting of a multiplicity of coins (108, 116), characterized in that, in the self-service system, a stock of plastic bags comprising a multiplicity of plastic bags arranged on a roll and connected to one another in the form of a plastic bag roll is provided, wherein the plastic bags can be unrolled from the plastic bag roll in a collecting and packing unit in order to put in the coins (108, 116), and wherein the collecting and packing unit comprises a closing unit for closing the plastic bags after they have been filled with the coins (108, 116), and a severing unit for severing the filled plastic bags from the plastic bag roll.
A thermal runaway detecting device for a battery system including a plurality of cells, comprising: a first measuring module for measuring temperature values of the plurality of cells via at least one temperature sensor; a second measuring module for measuring an output voltage value of the battery system; and a controller for determining validity of a thermal runaway detection, wherein the thermal runaway detection is based on the temperature value, wherein the controller is configured to: perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result. a first measuring module for measuring temperature values of the plurality of cells via at least one temperature sensor; a second measuring module for measuring an output voltage value of the battery system; and a controller for determining validity of a thermal runaway detection, wherein the thermal runaway detection is based on the temperature value, wherein the controller is configured to: perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result. perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result.
A process for preparing an aminoalkyl phenylcarbamate of formula: wherein R 1, R 2, R 3, R 4 and R 5 are the same or different, each being hydrogen or an alkyl, alkenyl, alkynyl, aryl, arylalkyl, arylalkenyl, arylalkynyl, alkylaryl, alkenylaryl or alkynylaryl group, each of which may optionally be substituted, and each of which may optionally include one or more heteroatoms N, O or S in its carbon skeleton, or wherein -NR 1 R 2 together and/or -NR 3 R 4 together form a cycloheteroalkyl, cycloheteroalkenyl, heteroaryl, arylcycloheteroalkyl, arylcycloheteroalkenyl, alkylheteroaryl, alkenylheteroaryl or alkynylheteroaryl group, each of which may optionally be substituted, and each of which may optionally include one or more further heteroatoms N, O or S in its carbon skeleton, the process comprising the steps of: (a) converting a hydroxy phenyl ketone of formula to a phenylcarbamate ketone of formula: and (b) converting the phenylcarbamate ketone of formula to the aminoalkyl phenylcarbamate of formula: (a) converting a hydroxy phenyl ketone of formula to a phenylcarbamate ketone of formula: and (b) converting the phenylcarbamate ketone of formula to the aminoalkyl phenylcarbamate of formula:
A turbine for a turbocharger, comprising: a turbine impeller coupled to a compressor impeller via a rotational shaft; a turbine casing disposed so as to cover the turbine impeller, the turbine casing including a scroll flow passage and a scroll outlet portion disposed on an inner side, in a radial direction, of the scroll flow passage, for guiding exhaust gas from the scroll flow passage to the turbine impeller; and a back-surface side member disposed so as to face a back surface of the turbine impeller, wherein the back-surface side member includes a protruding portion disposed on an impeller facing surface which faces the back surface of the turbine impeller, the protruding portion protruding toward said back surface and extending in a circumferential direction, and wherein the protruding portion is configured to contract a flow of the exhaust gas flowing into a gap between the back surface of the turbine impeller and the impeller facing surface from the scroll outlet portion such as to increase the static pressure applied to said back surface of the turbine impeller and thus increasing the thrust force that acts on said back surface of the turbine impeller. a turbine impeller coupled to a compressor impeller via a rotational shaft; a turbine casing disposed so as to cover the turbine impeller, the turbine casing including a scroll flow passage and a scroll outlet portion disposed on an inner side, in a radial direction, of the scroll flow passage, for guiding exhaust gas from the scroll flow passage to the turbine impeller; and a back-surface side member disposed so as to face a back surface of the turbine impeller, wherein the back-surface side member includes a protruding portion disposed on an impeller facing surface which faces the back surface of the turbine impeller, the protruding portion protruding toward said back surface and extending in a circumferential direction, and wherein the protruding portion is configured to contract a flow of the exhaust gas flowing into a gap between the back surface of the turbine impeller and the impeller facing surface from the scroll outlet portion such as to increase the static pressure applied to said back surface of the turbine impeller and thus increasing the thrust force that acts on said back surface of the turbine impeller.
A jacquard type loom for making a fabric by weaving a plurality of warp yarns with a plurality of weft yarns, the fabric comprising a determined number of columns of warp yarns per unit length and a determined number of layers of weft yarns, said loom including a comber board having a plurality of holes for passing a corresponding number of control cords, each control cord being provided with an heddle eye through which there passes a warp yarn, the holes in the comber board being distributed in a determined number of columns extending parallel to the warp yarn direction and a determined number of rows per column extending in a direction perpendicular to the warp yarn direction, the loom being characterized in that the comber board has a number of columns of holes per unit length that is smaller than the number of warp columns in the same unit length in the fabric, and a number of rows of holes that is greater than the number of warp layers in the fabric.
A paving stone with lateral flanks perpendicularly directed to the plane of placement, the paving stone having vertical narrow bonding elements and a wide bonding element on at least one lateral flank wherein the bonding elements (3, 4) are able to correspond with the bonding elements of an adjacent paving stone in the used condition of the paving stone, characterized in that the narrow bonding elements on the at least one lateral flank are arranged in uniform distances and that the wide bonding element has a width substantially corresponding to the inner width between adjacent narrow bonding elements.
A circuit for driving a LED assembly comprising at least one LED illumination device, the circuit comprising - a switch, - an inductor, in a series connection with the switch, the switch to in a conductive state thereof charge the inductor, - a current measurement element (Rsens) to measure a current flowing through at least one of the inductor and the LED illumination device, the switch, inductor and current measurement element being arranged to establish in operation a series connection with the LED illumination device, the circuit further comprising: - a reference signal generator for generating a reference signal (Vref); - a comparator (COMP) to compare a signal representing the current measured by the current measurement element with the reference signal, an output of the comparator being provided to a driving input of the switch for driving the switch; and - a controller to control an operation of the reference signal generator wherein the controller is further arranged to control an operation of the comparator, and to disable the comparator during at least a part of a cycle time of operation by providing an enable signal to the comparator to enable respectively disable the comparator, wherein the circuit is configured to divide the cycle time in cycle time parts, the circuit being configured to dim the LEDs by: enabling the comparator at a beginning of each cycle time part, and disabling the comparator after increasing a reference signal value of the reference signal during the cycle time parts, the increasing the reference signal value of the reference signal to force the comparator to switch on the switch. - a switch, - an inductor, in a series connection with the switch, the switch to in a conductive state thereof charge the inductor, - a current measurement element (Rsens) to measure a current flowing through at least one of the inductor and the LED illumination device, - a reference signal generator for generating a reference signal (Vref); - a comparator (COMP) to compare a signal representing the current measured by the current measurement element with the reference signal, an output of the comparator being provided to a driving input of the switch for driving the switch; and - a controller to control an operation of the reference signal generator enabling the comparator at a beginning of each cycle time part, and disabling the comparator after increasing a reference signal value of the reference signal during the cycle time parts, the increasing the reference signal value of the reference signal to force the comparator to switch on the switch.
A wiping device comprising: a wiping member configured to wipe a nozzle surface of a discharging head configured to discharge a liquid composition from nozzles formed on the nozzle surface, the wiping member comprising fiber with projections present in a cross section perpendicular to an axis of the fiber and continuous in a direction of the axis of the fiber, characterized in that the fiber with projections has a single fiber diameter of from 10 to 50 μm, and wherein the wiping device is configured such that a line pressure is 1.7 N/cm or less at a contact portion between the wiping member and the nozzle surface during wiping of the nozzle surface by the wiping member. a wiping member configured to wipe a nozzle surface of a discharging head configured to discharge a liquid composition from nozzles formed on the nozzle surface, the wiping member comprising fiber with projections present in a cross section perpendicular to an axis of the fiber and continuous in a direction of the axis of the fiber, characterized in that the fiber with projections has a single fiber diameter of from 10 to 50 μm, and wherein the wiping device is configured such that a line pressure is 1.7 N/cm or less at a contact portion between the wiping member and the nozzle surface during wiping of the nozzle surface by the wiping member.
Turbine blade (120, 130) with a first cooling air duct and a second cooling air duct, which is separated from the first cooling air duct by a wall, is neighboring the first cooling air duct and has a main direction, wherein the first and second cooling air ducts are connected to one another at their respective end by a first opening in the wall, wherein the wall has a second opening, which separates the wall in a middle region into a first part and a second part, characterized in that the second opening is adjoined by a diverting duct, the main direction of which in the region in which it enters the second cooling air duct is aligned substantially parallel to the main direction of the second cooling air duct.
An assembly comprising a motor and a gas turbine engine which is connected to said motor and which comprises a rotor shaft having a longitudinal axis and being disposed inside a casing (104, 106, 108), wherein the casing (104, 106, 108) comprises trapped air creating a temperature gradient perpendicular to the longitudinal axis, said motor comprising: cooperatively connected torque tubes, each comprising a shape memory alloy, wherein the cooperatively connected torque tubes, generate a continuous torque output when the torque tubes, sequentially change shape in response to heat, wherein the torque tubes, are each trained to output torque, capable of turning said rotor shaft so as to reduce or prevent thermal bowing of the rotor shaft in a temperature gradient, wherein the cooperatively connected torque tubes, comprise a pair of the torque tubes (202a, 202b) connected to a gearing, the gearing transferring torque, from each torque tube (202a, 202b) sequentially so as to generate the continuous torque output, and the torque, from each of the torque tubes (202a, 202b) is in the same direction, wherein the motor is attached to an aircraft engine gearbox, and wherein when the motor is activated, the gearing outputs the torque to a transmission via the gearbox, and the torque is transmitted to the rotor shaft via the transmission, said transmission comprising a transmission shaft and gearing connecting the transmission shaft to the rotor shaft. cooperatively connected torque tubes, each comprising a shape memory alloy, wherein the cooperatively connected torque tubes, generate a continuous torque output when the torque tubes, sequentially change shape in response to heat, wherein the torque tubes, are each trained to output torque, capable of turning said rotor shaft so as to reduce or prevent thermal bowing of the rotor shaft in a temperature gradient, wherein the cooperatively connected torque tubes, comprise a pair of the torque tubes (202a, 202b) connected to a gearing, the gearing transferring torque, from each torque tube (202a, 202b) sequentially so as to generate the continuous torque output, and the torque, from each of the torque tubes (202a, 202b) is in the same direction, wherein the motor is attached to an aircraft engine gearbox, and wherein when the motor is activated, the gearing outputs the torque to a transmission via the gearbox, and the torque is transmitted to the rotor shaft via the transmission, said transmission comprising a transmission shaft and gearing connecting the transmission shaft to the rotor shaft.
A method for filling containers with a composition that comprises or, alternatively, consists of mannitol in powder form; wherein said method comprises the following steps: a) breaking up a coherent mass of mannitol powder, so as to obtain a broken-up mass from said coherent mass; b) filling a plurality of containers with the broken-up mass of step a); wherein the step a) comprises a breaking up carried out with a centrifugal force exerted through a centrifugal drum sieve, and wherein a bulk density of the coherent mass is smaller than the bulk density of the broken-up mass. wherein said method comprises the following steps: a) breaking up a coherent mass of mannitol powder, so as to obtain a broken-up mass from said coherent mass; b) filling a plurality of containers with the broken-up mass of step a); a) breaking up a coherent mass of mannitol powder, so as to obtain a broken-up mass from said coherent mass; b) filling a plurality of containers with the broken-up mass of step a); wherein the step a) comprises a breaking up carried out with a centrifugal force exerted through a centrifugal drum sieve, and wherein a bulk density of the coherent mass is smaller than the bulk density of the broken-up mass.
A method of wireless communication at a Road Side Synchronization Device, RSSD, with a user equipment, UE,, wherein the RSSD and the UE are out of range of a synchronization source from GNSS or other network, the method comprising: receiving, by the RSSD, from a first neighbor device, a first Sidelink Synchronization Signal, SLSS,; synchronizing a timing and a frequency with the first neighbor device; and transmitting, to a second neighbor device and the UE, a second SLSS (608, 610), wherein the second SLSS is based on a synchronized timing and a synchronized frequency with the first neighbor device, characterized in that: preconfigured SLSS subframes are divided into at least a first set of SLSS subframes and a second set of SLSS subframes, and wherein the RSSD receives the first SLSS signal in the first set of SLSS subframes transmitted by the first neighbor device and transmits the second SLSS to the second neighbor device in the second set of SLSS subframes. receiving, by the RSSD, from a first neighbor device, a first Sidelink Synchronization Signal, SLSS,; synchronizing a timing and a frequency with the first neighbor device; and transmitting, to a second neighbor device and the UE, a second SLSS (608, 610), wherein the second SLSS is based on a synchronized timing and a synchronized frequency with the first neighbor device, characterized in that: preconfigured SLSS subframes are divided into at least a first set of SLSS subframes and a second set of SLSS subframes, and wherein the RSSD receives the first SLSS signal in the first set of SLSS subframes transmitted by the first neighbor device and transmits the second SLSS to the second neighbor device in the second set of SLSS subframes.
A method for identifying and connecting clients (1a-1d) connected to the same network comprising several client controllers (7a-7c) and a control server, wherein connecting a first client running a web browser application to one of the client controllers and registering client specific connection information associated with the first client, connecting a second client to the client controller and registering client specific connection information associated with the second client, assigning by the control server a unique URI to the second client which is a URL that can be resolved using the infrastructure of the domain name system, requesting the client controller to mediate a connection to the second client associated with the unique URI requested by the web browser application running on the first client, mediating, by the client controller the establishment of a direct connection between the first client and the second client by forwarding connection information associated with the second client to the first client and connection information associated with the first client to the second client, receiving, by the first client, data from the second client on the direct connection, which are forwarded to the web browser application and displayed in a graphical user interface, wherein the web browser application comprises a plug-in, which communicates with the client controller and the second client; the second client comprises a web server to which incoming requests from the first client are directed; and the IP address of the client controller of the second client wishing to provide content to other users is obtained by the second client requesting the domain name system infrastructure to resolve the IP address of the second client's own unique URL assigned and defined by the control server.
A fuel cell stack assembly comprising: a plurality of fuel cells; a plurality of interconnect plates, wherein each interconnect plate of the plurality of interconnect plates is disposed between a pair of fuel cells of the plurality of fuel cells; a plurality of reactant manifolds defined by aligned openings of the plurality of interconnect plates; and a heating element disposed in a reactant manifold of the plurality of reactant manifolds, wherein the heating element extends along a length of the reactant manifold and has a graded cross-section area across said length of the reactant manifold. plurality of fuel cells; a plurality of interconnect plates, wherein each interconnect plate of the plurality of interconnect plates is disposed between a pair of fuel cells of the plurality of fuel cells; a plurality of reactant manifolds defined by aligned openings of the plurality of interconnect plates; and a heating element disposed in a reactant manifold of the plurality of reactant manifolds, wherein the heating element extends along a length of the reactant manifold and has a graded cross-section area across said length of the reactant manifold.