mhurhangee/ep-ind-claims huggingface dataset:
A machine for the finishing, in particular for the grinding, of gears (I; I1; 12) comprising a finishing tool (5; 105; 205), in particular a grinding wheel, which is suited to mesh, in use, with a gear (I; I1; 12) to be finished; wherein the finishing tool is mounted so as to rotate around a longitudinal axis; the machine comprising a plurality of workpiece carrier slides (210, 211), a plurality of workpiece carrier spindles (14, 15; 114, 115; 214, 215), each of which is singularly mounted on a respective workpiece carrier slide (10, 11; 110, 111; 210, 211), and a plurality of loading-unloading stations (S1, S2); each workpiece carrier spindle (14, 15; 114, 115; 214, 215) is suited to support a gear (I; I1; 12) and is mounted so as to rotate around a respective axis (B1; B2); each workpiece carrier slide (10, 11; 110, 111; 210, 211) being mounted so as to slide on a respective linear guide means (12, 13; 120; 212, 213) from a respective loading-unloading station (S1; S2) to a working station (L; L1, L2) and vice versa only on an horizontal plane; the machine (1; 101; 201) being characterized in comprising a control unit (23; 123; 223), which synchronizes the rotation of each gear (I; I1; 12) with the rotation of the finishing tool (5; 105; 205) outside of the working station (L; L1, L2) so that by entering the working station (L; L1, L2) the gear (I; I1; 12) meshes with the finishing tool (5; 105) without collisions; wherein the control unit (23; 123; 223) comprises an angular position transducer (6; 106; 206) to determine the angular position of the finishing tool (5; 105; 205), a plurality of rotation sensors (16, 17; 116, 117; 216, 217), each of which is installed at a respective workpiece carrier spindle (14, 15; 114, 115; 214, 215), and a plurality of centering sensors (18, 19; 118, 119; 218, 219), each of which is associated with a respective workpiece carrier slide (10, 11; 110, 111; 210, 211) and is suited, in use, to detect the flanks of each gear (I; I1; 12) fitted on a respective workpiece carrier spindle (14, 15; 114, 115; 214, 215); each gear (I; I1; 12) being fixed, in use, in a determined angular position on the workpiece carrier spindle (14, 15; 114, 115; 214, 215); wherein each centering sensor (18; 19; 218; 219) is mounted on a respective workpiece carrier slide (10; 11) and is movable with it; wherein the workpiece carrier slides (210, 211) slide along paths (T4, T5) which are parallel to each other; wherein the finishing tool is movable between two or more working stations (L1, L2).
A biosensor system for measuring the temperature of a biological sample, the biosensor system comprising a sensor chip and a measuring device including a control circuit, the sensor chip comprising: temperature electrodes (11,12) having at least a working electrode and a counter electrode, the electrodes (11,12) for measuring the temperature of the biological sample; and a capillary configured to introduce the biological sample to the temperature electrodes (11,12); wherein the working electrode and/or the counter electrode in the temperature electrodes (11,12) are disposed to make contact with the biological sample introduced into the capillary; and the control circuit is configured to apply a direct current voltage in a range of 1.0V to 3.0V to the temperature electrodes (11,12), the direct current voltage being set to a value selected such that a current between the temperature electrodes (11,12) resulting from the application of the direct current voltage is essentially independent upon the hematocrit value of the biological sample. temperature electrodes (11,12) having at least a working electrode and a counter electrode, the electrodes (11,12) for measuring the temperature of the biological sample; and a capillary configured to introduce the biological sample to the temperature electrodes (11,12); wherein the working electrode and/or the counter electrode in the temperature electrodes (11,12) are disposed to make contact with the biological sample introduced into the capillary; and the control circuit is configured to apply a direct current voltage in a range of 1.0V to 3.0V to the temperature electrodes (11,12), the direct current voltage being set to a value selected such that a current between the temperature electrodes (11,12) resulting from the application of the direct current voltage is essentially independent upon the hematocrit value of the biological sample.
A filtering aerodynamic hubcap of a wheel of a vehicle, in particular a motor vehicle, the wheel having a cylindrical rim and a wheel disk comprising ventilation openings, the hubcap including an inner part formed by a turbine attached coaxially in the rim opposite the wheel disk for diverting the flow of lateral air towards the outside of the wheel through radial apertures defined by the blades of the turbine during the entrainment in rotation of the wheel, an outer part attached coaxially in the rim and including radial apertures (15, 15a) defined at least by branches (14, 14a) disposed radially between a central portion and a peripheral edge of this outer part so as to permit the flow of air, having passed through the radial apertures of the turbine, to exit the wheel through radial apertures of the outer part during its entrainment in rotation, the hubcap further including at least one filter disposed coaxially between the inner and outer parts so as to filter the particles in suspension in the flow of air passing through the wheel during its entrainment in rotation.
An apparatus for preventing stroke by occluding blood flow through a right carotid artery and a left carotid artery of a patient, comprising: a first occluding catheter that carries a first occluding balloon that has an inflated configuration that is configured to occlude either the right carotid artery or the left carotid artery; and a second occluding catheter that carries a second occluding balloon that has an inflated configuration that is configured to occlude the other one of the right carotid artery or the left carotid artery that is not occluded by the first occluding balloon; characterized by: an alarm system that activates a pressure supply to the first occluding balloon and the second occluding balloon to inflate the first occluding balloon and the second occluding balloon to the inflated configurations when microemboli are detected by means of Doppler or echocardiography, wherein the alarm system deflates the first and second occluding balloons (18, 22) from the inflated configurations when the first and second occluding balloons (18, 22) have remained in the inflated configurations for a cut-off period of time, and wherein the alarm system has a manual override to prevent inflation and deflation by the alarm system. a first occluding catheter that carries a first occluding balloon that has an inflated configuration that is configured to occlude either the right carotid artery or the left carotid artery; and a second occluding catheter that carries a second occluding balloon that has an inflated configuration that is configured to occlude the other one of the right carotid artery or the left carotid artery that is not occluded by the first occluding balloon; characterized by: an alarm system that activates a pressure supply to the first occluding balloon and the second occluding balloon to inflate the first occluding balloon and the second occluding balloon to the inflated configurations when microemboli are detected by means of Doppler or echocardiography, wherein the alarm system deflates the first and second occluding balloons (18, 22) from the inflated configurations when the first and second occluding balloons (18, 22) have remained in the inflated configurations for a cut-off period of time, and wherein the alarm system has a manual override to prevent inflation and deflation by the alarm system. an alarm system that activates a pressure supply to the first occluding balloon and the second occluding balloon to inflate the first occluding balloon and the second occluding balloon to the inflated configurations when microemboli are detected by means of Doppler or echocardiography, wherein the alarm system deflates the first and second occluding balloons (18, 22) from the inflated configurations when the first and second occluding balloons (18, 22) have remained in the inflated configurations for a cut-off period of time, and wherein the alarm system has a manual override to prevent inflation and deflation by the alarm system.
An adjustment mechanism for a headband arrangement having a headband member with at least one headband notched track positioned on an end thereof, the adjustment mechanism comprising: a rotatable knob having at least one first contact member; a rotatable hub member having a gear portion with teeth configured to engage the at least one headband notched track of the headband member, such that rotation of the hub member in a first direction causes the headband member to tighten and rotation of the hub member in a second direction causes the headband member to loosen; and characterized by a rotatable notched track member comprising a plurality of teeth, wherein, upon rotation of the knob in the first direction, contact between the at least one first contact member and at least a portion of the hub member causes the hub member to rotate in the first direction with at least a portion of the hub member interacting with the rotatable notched track member, such that the rotatable notched track member does not rotate, and upon rotation of the knob in the second direction, contact between at least one second contact member and at least a portion of the hub member causes the hub member to rotate in the second direction with at least a portion of the at least one second contact member interacting with the rotatable notched track member, such that the rotatable notched track member rotates in the second direction. a rotatable knob having at least one first contact member; a rotatable hub member having a gear portion with teeth configured to engage the at least one headband notched track of the headband member, such that rotation of the hub member in a first direction causes the headband member to tighten and rotation of the hub member in a second direction causes the headband member to loosen; and characterized by a rotatable notched track member comprising a plurality of teeth, wherein, upon rotation of the knob in the first direction, contact between the at least one first contact member and at least a portion of the hub member causes the hub member to rotate in the first direction with at least a portion of the hub member interacting with the rotatable notched track member, such that the rotatable notched track member does not rotate, and upon rotation of the knob in the second direction, contact between at least one second contact member and at least a portion of the hub member causes the hub member to rotate in the second direction with at least a portion of the at least one second contact member interacting with the rotatable notched track member, such that the rotatable notched track member rotates in the second direction.
Windscreen wiper; applicable to motor vehicles and comprising: a body mounted on a support structure, two scraper blades (11, 12) and a scraper brush disposed between the two scraper blades and comprising bristles and a base mounted in a chamber of the body characterized in that the base is mounted in the chamber with possibility of displacement in the chamber between an inoperative position in which the bristles are arranged delayed with respect to the contact plane of the scraper blades (11, 12) with the windscreen of the vehicle and an operative position, in which the bristles are arranged in an advanced contact position with the windscreen; and in that it comprises a pipe for supplying cleaning water, under pressure, connected by means of tubes to the chamber of the body, to which chamber accesses some holes of cleaning water outlets defined in the base of the brush, whereby the cleaning water pressure itself hydraulically drives the scraper brush, causing it to move towards the operative position.
A process for making microparticles, comprising: (a) providing a process stream comprising (i) a dispersed phase comprising a first solvent having a polymer and an agent dissolved or dispersed therein; and (ii) a continuous phase comprising a second solvent that is partially or totally immiscible in the first solvent; (b) passing the process stream through a screen and into a mixing environment; such that during step (a) and (b) or step (b), an emulsion forms that comprises microdroplets of the dispersed phase in the continuous phase; and (c) removing the first solvent from the microdroplets to form the microparticles. (a) providing a process stream comprising (i) a dispersed phase comprising a first solvent having a polymer and an agent dissolved or dispersed therein; and (ii) a continuous phase comprising a second solvent that is partially or totally immiscible in the first solvent; (b) passing the process stream through a screen and into a mixing environment; such that during step (a) and (b) or step (b), an emulsion forms that comprises microdroplets of the dispersed phase in the continuous phase; and (c) removing the first solvent from the microdroplets to form the microparticles.
Applicator for inserting an implant, in particular a rod-like implant containing an active substance, under the skin of a human or animal, comprising: a housing, a cannula, fixed to a cannula holder, which is slidably received inside the housing, an implant accommodated inside the cannula and/or the cannula holder, a protective cover for the cannula, and a mechanism (22, 23, 7) which, at least after the cover has been removed from the cannula, secures the implant inside the cannula and/or the cannula holder, characterised in that the mechanism (22, 23, 7) disengages the implant during insertion of the cannula or after the cannula has been inserted and wherein the mechanism (22, 23, 7) comprises a lever extending along at least part of the cannula, which lever is rotatable and/or slidable and/or flexible between a first position wherein the implant is secured inside the cannula and/or the cannula holder and a second position wherein the implant is disengaged and wherein the cannula and/or the cannula holder comprise an opening which allows access to the implant, and the lever comprises a protrusion in register with this opening and wherein the lever is biased towards the cannula and/or the cannula holder such that the protrusion urges the implant against the inner wall of the cannula or the cannula holder and comprising a rod mounted on or in the housing and at least partially inside the cannula, and an actuator for sliding the cannula and the rod relative to each other. a housing, a cannula, fixed to a cannula holder, which is slidably received inside the housing, an implant accommodated inside the cannula and/or the cannula holder, a protective cover for the cannula, and a mechanism (22, 23, 7) which, at least after the cover has been removed from the cannula, secures the implant inside the cannula and/or the cannula holder, characterised in that the mechanism (22, 23, 7) disengages the implant during insertion of the cannula or after the cannula has been inserted and wherein the mechanism (22, 23, 7) comprises a lever extending along at least part of the cannula, which lever is rotatable and/or slidable and/or flexible between a first position wherein the implant is secured inside the cannula and/or the cannula holder and a second position wherein the implant is disengaged and wherein the cannula and/or the cannula holder comprise an opening which allows access to the implant, and the lever comprises a protrusion in register with this opening and wherein the lever is biased towards the cannula and/or the cannula holder such that the protrusion urges the implant against the inner wall of the cannula or the cannula holder and comprising a rod mounted on or in the housing and at least partially inside the cannula, and an actuator for sliding the cannula and the rod relative to each other.
A method for identifying a file, comprising: acquiring an installation file and an end tag position of a file directory of the installation file when booting a mobile terminal or installing an application in the mobile terminal; determining a start tag position of the file directory according to the end tag position of the file directory; and querying for a file header identifier in the file directory according to the start tag position of the file directory; acquiring a Lib library directory from the file directory; and identifying a file indicated by the file header identifier via analyzing the file header identifier by: acquiring the file header identifier containing a second identifier from the Lib library directory, wherein the second identifier is configured to indicate a dynamic link library file; and identifying the file indicated by the file header identifier containing the second identifier as the dynamic link library file; and determining that a subdirectory of the Lib library directory to which the file indicated by the file header identifier containing the second identifier belongs supports an application binary interface. acquiring an installation file and an end tag position of a file directory of the installation file when booting a mobile terminal or installing an application in the mobile terminal; determining a start tag position of the file directory according to the end tag position of the file directory; and querying for a file header identifier in the file directory according to the start tag position of the file directory; acquiring a Lib library directory from the file directory; and identifying a file indicated by the file header identifier via analyzing the file header identifier by: acquiring the file header identifier containing a second identifier from the Lib library directory, wherein the second identifier is configured to indicate a dynamic link library file; and identifying the file indicated by the file header identifier containing the second identifier as the dynamic link library file; and acquiring the file header identifier containing a second identifier from the Lib library directory, wherein the second identifier is configured to indicate a dynamic link library file; and identifying the file indicated by the file header identifier containing the second identifier as the dynamic link library file; and determining that a subdirectory of the Lib library directory to which the file indicated by the file header identifier containing the second identifier belongs supports an application binary interface.
A blending appliance comprising: a housing having a motor compartment and a jar receiving portion spaced laterally therefrom, the housing further including an upper retaining member; a motor disposed in the motor compartment; a support pad operably coupled to the housing and extending outwardly therefrom; and a jar having a lid with a feed chute with a removable cap, the jar and lid being configured for reception in the jar receiving portion, wherein the lid is vertically secured onto the jar by the upper retaining member upon reception of the jar into the jar receiving portion; characterised in that the upper retaining member includes an arcuate recess configured to receive at least a portion of the feed chute, such that the feed chute is accessible through the removable cap when the jar is received in the jar receiving portion. a housing having a motor compartment and a jar receiving portion spaced laterally therefrom, the housing further including an upper retaining member; a motor disposed in the motor compartment; a support pad operably coupled to the housing and extending outwardly therefrom; and a jar having a lid with a feed chute with a removable cap, the jar and lid being configured for reception in the jar receiving portion, wherein the lid is vertically secured onto the jar by the upper retaining member upon reception of the jar into the jar receiving portion; characterised in that the upper retaining member includes an arcuate recess configured to receive at least a portion of the feed chute, such that the feed chute is accessible through the removable cap when the jar is received in the jar receiving portion.
A pharmaceutical composition comprising (a) the SGLT2 inhibitor 1-chloro-4-(β-D-glucopyranos-1-yl)-2-[4-( -tetrahydrofuran-3-yloxy)-benzyl]-benzene, and (b) the DPPIV inhibitor linagliptin or a pharmaceutically acceptable salt thereof, and (c) a third antidiabetic agent being metformin or a pharmaceutically acceptable salt thereof. (a) the SGLT2 inhibitor 1-chloro-4-(β-D-glucopyranos-1-yl)-2-[4-( -tetrahydrofuran-3-yloxy)-benzyl]-benzene, and (b) the DPPIV inhibitor linagliptin or a pharmaceutically acceptable salt thereof, and (c) a third antidiabetic agent being metformin or a pharmaceutically acceptable salt thereof.
A method of determining the location of an object using an instrument having a wireless transceiver and a processor, the object including a sensor, the method comprising controlling the instrument to make a plurality of successive readings (500, 502, 504) at different reading locations (11, 12, 13), wherein, for each reading location, the instrument receives, via the wireless transceiver, a signal from the sensor, and makes a characterization of the received signal using a receive signal strength measurement of the received signal, wherein the method further comprises: determining, by the processor, for each reading location (11, 12, 13), a circle centered at the reading location and having a radius equal to a maximum effective distance within which the sensor can be detected by the instrument; determining, by the processor, a candidate area for the location of the object based on an intersection of the circles; and determining, by the processor, a point within the candidate area based on relative receive signal strength measurements for the signals received from the sensor at the different reading locations (I1, I2, I3), wherein said point indicates the location of the object. determining, by the processor, for each reading location (11, 12, 13), a circle centered at the reading location and having a radius equal to a maximum effective distance within which the sensor can be detected by the instrument; determining, by the processor, a candidate area for the location of the object based on an intersection of the circles; and determining, by the processor, a point within the candidate area based on relative receive signal strength measurements for the signals received from the sensor at the different reading locations (I1, I2, I3), wherein said point indicates the location of the object.
Method for controlling a display of an augmented reality display device for a motor vehicle, comprising the following steps: - determining a target maneuver of the motor vehicle; - determining an execution location of the target maneuver; - generating a target maneuver marking for display by the augmented reality display device; and - outputting the target maneuver marking for display by the augmented reality display device; characterized in that the target maneuver marking is displayed in a stationary manner in the region of the execution location of the target maneuver perpendicular to a traffic lane to be traveled by the motor vehicle and located in the transverse direction at the edge of the traffic lane to be traveled. - determining a target maneuver of the motor vehicle; - determining an execution location of the target maneuver; - generating a target maneuver marking for display by the augmented reality display device; and - outputting the target maneuver marking for display by the augmented reality display device;