mhurhangee/ep-ind-claims huggingface dataset:
A compressor, including a compressor housing, a scroll compressor unit that is arranged in the compressor housing and has a first, stationary compressor body and a second compressor body that is movable in relation to the stationary compressor body, whereof first and second scroll vanes (34, 38), in the shape of a circle involute, engage in one another to form compressor chambers when the second compressor body is moved in relation to the first compressor body on an orbital path, an axial guide that supports the movable compressor body to prevent movements in the direction parallel to a centre axis of the stationary compressor body and, in the event of movements, guides it in the direction transverse to the centre axis, a drive motor that drives an eccentric drive for the scroll compressor unit, wherein the eccentric drive has an entrainer that is driven by the drive motor, that revolves on a path about a centre axis of a drive shaft and that cooperates with an entrainer receptacle in the second compressor body, and a coupling that prevents the second compressor body from rotating freely, characterised in that the axial guide supports a compressor body base, which carries the scroll vane, of the second compressor body against an axial support face, in that the axial support face abuts a sliding body such that it is slidable transversely to the centre axis, the sliding body for its part being supported, such that it is slidable transversely to the centre axis, on a carrier element that is arranged in the compressor housing, and in that the axial support face is supported on an annular face of the sliding body that surrounds the centre axis.
A standing detonation engine, comprising a first inlet having a first end configured to be fluidly connected to a first tank containing an oxidizer and a second end fluidly connected to a standing detonation engine; a second inlet having a first end configured to be fluidly connected to a second tank containing a fuel and a second end fluidly connected to the standing detonation engine opposite the first inlet, wherein the first and second inlets are aligned with a common axis; a first nozzle connected to the first inlet; a second nozzle connected to the second inlet; and a separator positioned between the second end of the first inlet and the second end of the second inlet and positioned along the common axis, configured so that in use, a first side of the separator diffuses a first flow of oxidizer radially outward from the common axis and a second side of the separator diffuses a second flow of fuel radially outward from the common axis; and a cylindrical detonation region is located at a distance from the common axis and configured to detonate a mixture of the fuel and the oxidizer to produce combustion products, characterized in that it further comprises a turbine configured so that hot combustion products pass through and rotate the turbine, wherein the turbine is configured to freely rotate, via first and second bearings attached to respective ones of the first and second inlets, independent of the standing detonation engine. a first inlet having a first end configured to be fluidly connected to a first tank containing an oxidizer and a second end fluidly connected to a standing detonation engine; a second inlet having a first end configured to be fluidly connected to a second tank containing a fuel and a second end fluidly connected to the standing detonation engine opposite the first inlet, wherein the first and second inlets are aligned with a common axis; a first nozzle connected to the first inlet; a second nozzle connected to the second inlet; and a separator positioned between the second end of the first inlet and the second end of the second inlet and positioned along the common axis, configured so that in use, a first side of the separator diffuses a first flow of oxidizer radially outward from the common axis and a second side of the separator diffuses a second flow of fuel radially outward from the common axis; and a cylindrical detonation region is located at a distance from the common axis and configured to detonate a mixture of the fuel and the oxidizer to produce combustion products, characterized in that it further comprises a turbine configured so that hot combustion products pass through and rotate the turbine, wherein the turbine is configured to freely rotate, via first and second bearings attached to respective ones of the first and second inlets, independent of the standing detonation engine.
A catheter articulation system for use by a user having a hand so as to treat or diagnose a patient, the catheter articulation system comprising: an elongate catheter body having a proximal portion and a distal portion with an axis therebetween, the distal portion of the catheter body being configured for insertion into a patient through an aperture; a plurality of actuators operatively coupled with the distal portion of the catheter body; an input comprising a housing configured to facilitate reorientation by the hand of the user toward alignment with the inserted distal portion of the catheter body and/or with the patient; a sensor contained within the housing to receive a movement command having a command orientation; and a processor configured for coupling the sensor to the actuators so that, during use, the distal portion of the catheter body moves, in response to the movement command, with a catheter movement having a movement orientation corresponding to the command orientation based on the reoriented input, the movement command comprising a movement of the housing containing the sensor, characterized in that the sensor comprises an image capture device. an elongate catheter body having a proximal portion and a distal portion with an axis therebetween, the distal portion of the catheter body being configured for insertion into a patient through an aperture; a plurality of actuators operatively coupled with the distal portion of the catheter body; an input comprising a housing configured to facilitate reorientation by the hand of the user toward alignment with the inserted distal portion of the catheter body and/or with the patient; a sensor contained within the housing to receive a movement command having a command orientation; and a processor configured for coupling the sensor to the actuators so that, during use, the distal portion of the catheter body moves, in response to the movement command, with a catheter movement having a movement orientation corresponding to the command orientation based on the reoriented input, the movement command comprising a movement of the housing containing the sensor, characterized in that the sensor comprises an image capture device.
A method for sampling from a non-atmospheric reaction vessel of a parallel reactor system, the reactor system including a reactor array comprising at least two reaction vessels, antechambers disposed above each reaction vessel, antechamber sealing members, a port valve disposed between each antechamber and each reaction vessel and a sampling system for sampling material from the reaction vessels, the sampling system comprising a sampling pump, a sampling needle having a tip, and a sampling valve disposed between the sampling pump and tip, the method comprising: lowering the sampling needle into an antechamber to form a substantially fluid-tight seal between the antechamber sealing member and the sampling needle; lowering the sampling needle into the reaction vessel, the vessel having reactor material therein; introducing material from the reaction vessel into the sampling needle to form a sampling slug; raising the sampling needle to position the tip of the sampling needle in the antechamber; closing the port valve after the tip of the sampling needle is positioned in the antechamber; retracting the slug so that a first portion is disposed between the sampling valve and the sampling pump and a second portion is disposed between the sampling valve and the tip of the sampling needle; and discharging the slug into a target substrate. lowering the sampling needle into an antechamber to form a substantially fluid-tight seal between the antechamber sealing member and the sampling needle; lowering the sampling needle into the reaction vessel, the vessel having reactor material therein; introducing material from the reaction vessel into the sampling needle to form a sampling slug; raising the sampling needle to position the tip of the sampling needle in the antechamber; closing the port valve after the tip of the sampling needle is positioned in the antechamber; retracting the slug so that a first portion is disposed between the sampling valve and the sampling pump and a second portion is disposed between the sampling valve and the tip of the sampling needle; and discharging the slug into a target substrate.
A self-adhesive sheet for a wire harness, which is bonded to itself when adhesive surfaces (15, 17) thereof are merely joined together, the self-adhesive sheet comprising: a sheet base material; a first self-adhesive layer formed on one surface in a first region of the sheet base material, wherein a top surface and a back surface opposed to the top surface of the sheet base material in the first region exactly overlap each other when the sheet base material is viewed through from top, and the other surface in the first region is a first non-adhesive formation portion; and a second self-adhesive layer formed on at least part of one surface in a second region of the sheet base material, wherein the length of the first self-adhesive layer is shorter than the length of the second self-adhesive layer, and wherein the top and the back surface of the sheet base material in the second region exactly overlap each other when the sheet base material is viewed through from top, and the first self-adhesive layer is not formed in the second region. a sheet base material; a first self-adhesive layer formed on one surface in a first region of the sheet base material, wherein a top surface and a back surface opposed to the top surface of the sheet base material in the first region exactly overlap each other when the sheet base material is viewed through from top, and the other surface in the first region is a first non-adhesive formation portion; and a second self-adhesive layer formed on at least part of one surface in a second region of the sheet base material, wherein the length of the first self-adhesive layer is shorter than the length of the second self-adhesive layer, and wherein the top and the back surface of the sheet base material in the second region exactly overlap each other when the sheet base material is viewed through from top, and the first self-adhesive layer is not formed in the second region.
Damping device for damping the movement of movable furniture parts of pieces of furniture, with a piston which is mounted in a housing so as to be longitudinally displaceable and which as a function of its displaced position forms on opposing sides two working chambers (24; 26) which are variable in size and are filled with a fluid damping medium, enabling by means of at least one overflow connection a throttled overflow of the damping medium between the two working chambers (24; 26), wherein a piston rod which extends in a sealed manner out of the associated front end of the housing is connected on one side of the piston and the movement of the furniture part to be damped is transferred to the piston by way of the outer end of the piston rod remote from the piston, characterised in that on the side of the piston lying opposite the working chamber on the piston rod side there is connected an elongated adjusting shaft with a diameter substantially corresponding to the diameter of the piston rod, the free end of the adjusting shaft also extending out of the housing out of the end face lying opposite the end face closed on the piston rod side, in that the end of the adjusting shaft connected to the piston engages in a through channel of the piston connecting the two working chambers (24; 26) and is constructed in such a way that it forms a throttle cross-section which is variable in size in the through channel due to adjusting movements of the shaft relative to the piston, in that the adjusting shaft and the through channel aligned therewith in the piston are offset laterally and are disposed parallel to the longitudinal central axis of the housing.
A bead core-apex subassembly, the subassembly comprising an annular bead core, a flipper and an apex, wherein the flipper is wrapped about the bead core such that it encloses the bead core, and wherein the apex is in contact with the flipper and comprises at least a first segment and a second segment, the first segment having a composition different from the composition of the second segment, characterized in that the flipper completely encloses the bead core.
A measuring device (3, 50, 55) for measuring a mass flow rate of a material flow, in particular a bulk material flow, in accordance with the Coriolis principle, comprising a rotatably mounted, bladed measurement wheel for deflecting the material flow, a drive shaft for driving the measurement wheel, an output shaft rigidly connected to the measurement wheel, a bearing sleeve, surrounding at least part of the output shaft, for the rotatable mounting of the output shaft, a force-measuring apparatus, and a gearbox which has a first gearbox element rigidly connected to the drive shaft, a second gearbox element rigidly connected to the output shaft, and an intermediate element for transmitting a torque from the first gearbox element to the second gearbox element, characterized by a rocker which is rigidly connected to the bearing sleeve and on which the intermediate element of the gearbox is mounted, wherein the force-measuring apparatus is connected to the rocker, so that a force transmitted to the rocker can be measured by means of the force-measuring apparatus.
A flywheel device for position stabilization of a spacecraft, comprising a carrier; a rotor; a magnetic drive for driving the rotor rotatingly relative to the carrier; characterized by a roller bearing arranged between the rotor and the carrier; wherein a magnetic force for pre-stressing the roller bearing can be generated between the rotor and the carrier by means of the magnetic drive; and wherein the outer diameter of the rotor is at maximum 2.5-times the roller bearing diameter.
A display panel (100A, 100B) having a tiling edge (102A, 102B), comprising: a non-transparent part (104A, 104B); and a transparent part (106A, 106B), wherein the transparent part (106A, 106B) has a peripheral edge (E106A, E106B), and at least a portion (EA1, EB1) of the peripheral edge (E106A, E106B) of the transparent part (106A, 106B) is overlapped with the tiling edge (102A, 104B), and wherein the display panel (100A, 100B) is a transparent display panel, the transparent part (106A, 106B) comprises a substrate and a transparent filling layer (150A, 164A), and an edge (E140A) of the substrate and an edge (E150A) of the transparent filling layer (150A, 164A) form the tiling edge. a non-transparent part (104A, 104B); and a transparent part (106A, 106B), wherein the transparent part (106A, 106B) has a peripheral edge (E106A, E106B), and at least a portion (EA1, EB1) of the peripheral edge (E106A, E106B) of the transparent part (106A, 106B) is overlapped with the tiling edge (102A, 104B), and wherein the display panel (100A, 100B) is a transparent display panel, the transparent part (106A, 106B) comprises a substrate and a transparent filling layer (150A, 164A), and an edge (E140A) of the substrate and an edge (E150A) of the transparent filling layer (150A, 164A) form the tiling edge.
An operation device which is communicably connectable to an information processing apparatus, portion, the operation device comprising a light emitting portion, the information processing apparatus is adapted to identify a position of the operation device by using the light emitted from said light emitting portion, characterised in that the information processing apparatus is further adapted to acquire a device state of the operation device, the device state indicating a charge state of a rechargeable battery built in the operation device; wherein the operation device is adapted to change a light emission mode of the light emitting portion in accordance with instructions provided by the information processing apparatus in accordance with a charge state of a rechargeable battery built into the operation device.
Implant (1; 19) for insertion in a body lumen, the implant comprising a surface (10; 109), at least a portion of said surface (10; 109) being arranged to contact a wall of said body lumen and/or bodily fluid flowing therethrough when said implant (1; 19) is inserted in said body lumen, wherein said at least a portion of surface (10; 109) is provided with hydrophilicity, characterized in that said at least a portion of said surface (10; 109) is covered with a gas-tight surface sealing (2; 29) which is soluble when inserting the implant (1; 19) in said body lumen, such that said at least a portion of surface (10; 109) is exposed to said body lumen, wherein said surface sealing (2; 29) consists of a soluble carbohydrate being a monosaccharide or a sugar alcohol, preferably Threitol, Erythritol, Glucose, Fructose, Sorbitol, Galactose, Galactitol, Mannose, Mannitol, Xylitol or Myo-inositol, or being a disaccharide, preferably Trehalose, Lactose, Lactulose, Palatinose or Sucrose, or a combination thereof, and wherein a thickness of said surface sealing (2; 29) is thinner than the structure it coats. the implant comprising a surface (10; 109), at least a portion of said surface (10; 109) being arranged to contact a wall of said body lumen and/or bodily fluid flowing therethrough when said implant (1; 19) is inserted in said body lumen, wherein said at least a portion of surface (10; 109) is provided with hydrophilicity, characterized in that said at least a portion of said surface (10; 109) is covered with a gas-tight surface sealing (2; 29) which is soluble when inserting the implant (1; 19) in said body lumen, such that said at least a portion of surface (10; 109) is exposed to said body lumen, wherein said surface sealing (2; 29) consists of a soluble carbohydrate being a monosaccharide or a sugar alcohol, preferably Threitol, Erythritol, Glucose, Fructose, Sorbitol, Galactose, Galactitol, Mannose, Mannitol, Xylitol or Myo-inositol, or being a disaccharide, preferably Trehalose, Lactose, Lactulose, Palatinose or Sucrose, or a combination thereof, and wherein a thickness of said surface sealing (2; 29) is thinner than the structure it coats.
A computer implemented method to generate haptic effects on a haptic system, the haptic system comprising an orientation sensor, and a first and a second haptic output devices, the method comprising: obtaining a haptic signal comprising a first haptic effect channel, a second haptic effect channel, a third haptic effect channel and a fourth haptic effect channel; assigning the first haptic effect channel to the first haptic output device on the haptic system and assigning the second haptic effect channel to the second haptic output device on the haptic system when a first orientation is determined by the orientation sensor; assigning the third haptic effect channel to the first haptic output device on the haptic system and assigning the fourth haptic effect channel to the second haptic output device on the haptic system when a second orientation is determined by the orientation sensor; and characterized in that the method further comprises: mixing the third haptic effect channel and the fourth haptic effect channel when the first orientation is determined to generate a mixed channel, and assigning the mixed channel to at least one of the first haptic output device or the second haptic output device. obtaining a haptic signal comprising a first haptic effect channel, a second haptic effect channel, a third haptic effect channel and a fourth haptic effect channel; assigning the first haptic effect channel to the first haptic output device on the haptic system and assigning the second haptic effect channel to the second haptic output device on the haptic system when a first orientation is determined by the orientation sensor; assigning the third haptic effect channel to the first haptic output device on the haptic system and assigning the fourth haptic effect channel to the second haptic output device on the haptic system when a second orientation is determined by the orientation sensor; and characterized in that the method further comprises: mixing the third haptic effect channel and the fourth haptic effect channel when the first orientation is determined to generate a mixed channel, and assigning the mixed channel to at least one of the first haptic output device or the second haptic output device.
A method of outputting an event of a third party device in a home network, wherein the home network includes a remote user interface, RUI, server and an RUI client, which take part in a user interface, UI, session using a universal plug and play, UPnP, remote protocol, the method comprising: a) storing, by the RUI server, an event message of the third party device which does not take part in the UI session; b) determining, by the RUI server, whether the RUI client exists on the home network based on confirming that an event request is made by the RUI client; c) if the RUI client exists on the home network, transmitting, by the RUI server, the event message to the RUI client, and d) if the RUI client does not exist on the home network, transmitting, by the RUI server, the event message to a pre-registered web server and, in response, the web server transmitting the event message received from the RUI server to the RUI client existing outside the home network by using an external network; wherein if there is no event request from the RUI client for a predetermined time, the RUI server judges that the RUI client does not exist on the home network. a) storing, by the RUI server, an event message of the third party device which does not take part in the UI session; b) determining, by the RUI server, whether the RUI client exists on the home network based on confirming that an event request is made by the RUI client; c) if the RUI client exists on the home network, transmitting, by the RUI server, the event message to the RUI client, and d) if the RUI client does not exist on the home network, transmitting, by the RUI server, the event message to a pre-registered web server and, in response, the web server transmitting the event message received from the RUI server to the RUI client existing outside the home network by using an external network;