mhurhangee/ep-ind-claims huggingface dataset:
A drive system for rotating a wheel of an aircraft landing gear, the drive system including a motor operable to rotate a drive pinion via a drive path, and a driven gear adapted to be mounted to the wheel, wherein the drive system has a first configuration in which the drive pinion is capable of meshing with the driven gear to permit the motor to drive the driven gear via the drive path, the drive path having an input shaft and an output shaft, characterised in that the drive path further comprises an intermediate shaft arranged in the drive path intermediate the input shaft and the output shaft and having an axis of rotation spaced from an axis of rotation of the output shaft, and wherein the output shaft is operable to pivot about the axis of rotation of the intermediate shaft.
Kit of components which can be operated with electricity and which can be installed in a furniture item with drawers (8, 9), wherein a part of the components is designed as a current conductor, in particular as a conductor rail, a plurality of current consumers designed as lamps, and as a transformer which can be connected to a power supply system, wherein control units which directly or indirectly electrically contact the conductor rail and are electrically connected to at least one of the current consumers are provided as further components for wireless correspondence by means of control signals with at least one further control unit; wherein the control units are designed as transmitters which are suitable for corresponding wirelessly with one another, wherein the position of a drawer (8, 9) is recognized in accordance with the power supply; wherein the control unit, which can be assigned to an extended drawer (8, 9), sends the control unit of the drawer (8, 9) located above it the message via a signal that the voltage is interrupted, whereupon the corresponding light is switched on via the control unit of this drawer (8, 9) located above it, wherein the closing of the previously pulled-out drawer (8, 9) and the contacting of the control unit with the power line is transmitted to the control unit located above and the light is switched off; wherein the control units are equipped with a processor via which the corresponding control signals are processed. wherein control units which directly or indirectly electrically contact the conductor rail and are electrically connected to at least one of the current consumers are provided as further components for wireless correspondence by means of control signals with at least one further control unit; wherein the control units are designed as transmitters which are suitable for corresponding wirelessly with one another, wherein the position of a drawer (8, 9) is recognized in accordance with the power supply; wherein the control unit, which can be assigned to an extended drawer (8, 9), sends the control unit of the drawer (8, 9) located above it the message via a signal that the voltage is interrupted, whereupon the corresponding light is switched on via the control unit of this drawer (8, 9) located above it, wherein the closing of the previously pulled-out drawer (8, 9) and the contacting of the control unit with the power line is transmitted to the control unit located above and the light is switched off; wherein the control units are equipped with a processor via which the corresponding control signals are processed.
A cock for filling cisterns comprising: a hollow head inside which a valve device is housed linked to a float by means of an intermediate device, further comprising a vertical tube connected to the hollow head; coupling means (4, 7); a closure means; and a free edge of the hollow head and a free lower edge of the vertical tube, wherein said free edges (1a, 11a) are configured to receive alternatively, the respective coupling means (4,7) in order to connect the cock selectively to a lower external water inlet or to a lateral external water inlet; such that when the closure means is inserted into one of the free edges (1a, 11a) the respective coupling means (4,7) is inserted in the opposite free edge (1a, 11a); and the cock further comprising: blocking means (15,16) configured to fix the position of the coupling means (4,7) and the closure means, blocking their axial movement in the free edge of the hollow head and in the lower free edge of the vertical tube respectively; and wherein the cock for filing cisterns is characterised in that the blocking means (15,16) comprise, at least, one blocking clamp configured to block the linear axial movement and a blocking lug configured to block the circular axial movement. a hollow head inside which a valve device is housed linked to a float by means of an intermediate device, further comprising a vertical tube connected to the hollow head; coupling means (4, 7); a closure means; and a free edge of the hollow head and a free lower edge of the vertical tube, wherein said free edges (1a, 11a) are configured to receive alternatively, the respective coupling means (4,7) in order to connect the cock selectively to a lower external water inlet or to a lateral external water inlet; such that when the closure means is inserted into one of the free edges (1a, 11a) the respective coupling means (4,7) is inserted in the opposite free edge (1a, 11a); and the cock further comprising: blocking means (15,16) configured to fix the position of the coupling means (4,7) and the closure means, blocking their axial movement in the free edge of the hollow head and in the lower free edge of the vertical tube respectively; and wherein the cock for filing cisterns is characterised in that the blocking means (15,16) comprise, at least, one blocking clamp configured to block the linear axial movement and a blocking lug configured to block the circular axial movement.
A drive circuitry for a MEMS resonator, comprising; closed drive loop means configured to detect and amplify a signal of the MEMS resonator, the closed drive loop means including capacitive drive detection means; means configured to feed the detected and amplified signal as a feedback signal back to the MEMS resonator; capacitive drive means (1, 3) configured to drive the MEMS resonator, the capacitive drive means including a rotor electrode common to the capacitive drive means (1, 3) and the capacitive drive detection means; DC bias voltage means configured to generate a first DC bias voltage (ROTOR BIAS VOLTAGE) and a second DC bias voltage (CTRL_OUT), the first DC bias voltage being connected to the rotor electrode; start-up control means configured to detect a start-up state of the MEMS resonator; wherein the DC bias voltage means include amplitude control means for provision of the second DC bias voltage (CTRL_OUT) controlled according to measured amplitudes of the MEMS resonator; the closed drive loop means are configured to sum the second DC bias voltage (CTRL_OUT) into the feedback signal; characterized in that in response to a detected start-up state, the start-up control means are configured to change the first DC bias voltage (ROTOR BIAS VOLTAGE) to a predetermined value which causes a higher overall gain and a higher excitation force during the start-up state than in normal operation. closed drive loop means configured to detect and amplify a signal of the MEMS resonator, the closed drive loop means including capacitive drive detection means; means configured to feed the detected and amplified signal as a feedback signal back to the MEMS resonator; capacitive drive means (1, 3) configured to drive the MEMS resonator, the capacitive drive means including a rotor electrode common to the capacitive drive means (1, 3) and the capacitive drive detection means; DC bias voltage means configured to generate a first DC bias voltage (ROTOR BIAS VOLTAGE) and a second DC bias voltage (CTRL_OUT), the first DC bias voltage being connected to the rotor electrode; start-up control means configured to detect a start-up state of the MEMS resonator; wherein the DC bias voltage means include amplitude control means for provision of the second DC bias voltage (CTRL_OUT) controlled according to measured amplitudes of the MEMS resonator; the closed drive loop means are configured to sum the second DC bias voltage (CTRL_OUT) into the feedback signal; characterized in that in response to a detected start-up state, the start-up control means are configured to change the first DC bias voltage (ROTOR BIAS VOLTAGE) to a predetermined value which causes a higher overall gain and a higher excitation force during the start-up state than in normal operation.
A system, comprising: a seed disposed in, and surrounded by, soil; a sensing component in contact with the seed; and a mobile interrogating device that is configured to send a first electromagnetic signal to the sensing component while the device is in motion, the device further configured to receive a second electromagnetic signal from the sensing component with information corresponding to a condition corresponding to the seed, the second electromagnetic signal responsive to the first electromagnetic signal, characterized in that the sensing component coats all or a portion of the seed. a seed disposed in, and surrounded by, soil; a sensing component in contact with the seed; and a mobile interrogating device that is configured to send a first electromagnetic signal to the sensing component while the device is in motion, the device further configured to receive a second electromagnetic signal from the sensing component with information corresponding to a condition corresponding to the seed, the second electromagnetic signal responsive to the first electromagnetic signal, characterized in that the sensing component coats all or a portion of the seed.
Device for transporting a plurality of cans, in particular beverage cans, such as aluminium beverage cans, and/or a plurality of handling units which are assembled to form trading units of a plurality of cans, for example in a multipack, which are tightly held together by means of a cohesive element, in particular by means of a film and/or a cardboard packaging, having a square or rectangular basic shape, wherein the cans for which the device is conceived display an upper encircling rim and a lower encircling rim, and wherein the upper rim displays a larger or smaller diameter than the lower encircling rim, consisting of a tray, wherein the tray displays an upper side and a lower side, wherein the upper side of the tray on a base face displays for each can a support contour for the lower rim of the can, which support contour on the inner side thereof displays a radius which substantially corresponds to or is insubstantially larger than the outer radius (d/2) of the lower rim of the can and encompasses the lower rim at least in portions, and wherein the lower side of the tray for each can supports the upper rim in an encircling manner by way of the lower side of the base face, and wherein an encircling depression contour is disposed on this lower side of the base face, which depression contour displays a radius (m/2) which substantially corresponds to or is only insubstantially larger than the outer radius (D/2) of the upper rim and encompasses the upper rim in an encircling manner, characterized in that the base face displays at least one through-opening, and in that the through-opening displays at least one ventilation extension, and displays an outer contour which is configured in such a manner that in the case of a can, which by way of its lower rim is positioned by the support contour in any possible position in this region above the tray, the through-opening can be made congruent with the lower rim only in the region of the ventilation extension.
A method for heating a wind turbine facility, the method comprising: charging a DC link of an electrical converter connected with a wind turbine of the wind turbine facility; heating air inside the wind turbine facility with heat generated by a voltage limiting unit interconnected with the DC link, which comprises a resistor adapted for dissipating electrical energy into heat for reducing a voltage in the DC link, when the voltage is above a threshold voltage; wherein the voltage limiting unit is controlled, such that the voltage limiting unit generates heat according to heating settings defined in a controller of the voltage limiting unit; characterized in that heating settings are changed based upon commands from a user interface; and that the DC link is charged by a grid side converter of the wind turbine facility with power from an electrical grid. charging a DC link of an electrical converter connected with a wind turbine of the wind turbine facility; heating air inside the wind turbine facility with heat generated by a voltage limiting unit interconnected with the DC link, which comprises a resistor adapted for dissipating electrical energy into heat for reducing a voltage in the DC link, when the voltage is above a threshold voltage; wherein the voltage limiting unit is controlled, such that the voltage limiting unit generates heat according to heating settings defined in a controller of the voltage limiting unit; characterized in that heating settings are changed based upon commands from a user interface; and that the DC link is charged by a grid side converter of the wind turbine facility with power from an electrical grid.
An orthodontic system, comprising a plurality of orthodontic appliances each comprising a shell (302, 402, 432) including one or more cavities shaped to receive a patient's teeth and comprising an interior surface and an exterior surface; and an elastic coating (304, 404, 434) covering at least a portion of one or more of the interior surface or exterior surface of the shell, the elastic coating having a plurality of striations formed therein, wherein a stiffness of a portion of the orthodontic appliance corresponding to the portion of the shell covered with the elastic coating is determined by a stiffness of the elastic coating, and wherein the appliances are successively wearable by the patient to move one or more teeth from a first arrangement to a second arrangement.
Continuous casting mould, comprising two side walls (2, 3), which are arranged adjacent to one another and which are each formed by at least one copper plate (4, 5), wherein incorporated in the copper plates (4, 5) for monitoring formation of longitudinal tears in the cast strip is a number of temperature measuring elements spaced from one another in horizontal direction (Ho), wherein the temperature measuring elements are arranged at a first horizontal spacing (d h1) in a centre region, which extends in horizontal direction (Ho), of the copper plates (4, 5) and wherein the temperature measuring elements are arranged at a second horizontal spacing (d h2) in side regions, which adjoin the centre region and extend in horizontal direction (Ho), of the copper plates (4, 5), characterised in that the first horizontal spacing (d n1) is smaller than the second horizontal spacing (d h2) and the temperature measuring elements are arranged more closely in horizontal direction (Ho) in a central section of the centre region than in the end sections of the centre region.
A personal care skin treatment article comprising: a first layer having an inner and outer surface and further having plurality of apertures each defining an area of not less than 8 mm 2; a second layer superposed with and adjacent the inner surface of the first layer whereby said second layer is physically contactable via the apertures in said first layer; and wherein the surface of the second layer adjacent the first layer has a rougher hand feel than the outer surface of the first layer. a first layer having an inner and outer surface and further having plurality of apertures each defining an area of not less than 8 mm 2; a second layer superposed with and adjacent the inner surface of the first layer whereby said second layer is physically contactable via the apertures in said first layer; and wherein the surface of the second layer adjacent the first layer has a rougher hand feel than the outer surface of the first layer.
An aqueous dispersion capable of forming a tacky layer on drying, the dispersion comprising a silicone composition dispersed in an aqueous phase, the silicone composition comprising a product of a reaction of (a) an alkenyl-containing organopolysiloxane having an average per molecule of at least 2 alkenyl groups wherein the alkenyl-containing organopolysiloxane is a branched siloxane comprising i) one or more units of the formula (SiO 4/2), ii) from 15 units to 995 units of the formula R b 2 SiO 2/2 which units (i) and (ii) may be inter-linked in any appropriate combination, and iii) units of the formula R a R b 2 SiO 1/2, wherein each R a substituent is selected from the group consisting of an alkyl group having from 1 to 6 carbon atoms and an alkenyl group having up to 6 carbon atoms, and each R b substituent is selected from the group consisting of an alkyl group having from 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, an alkoxy group, an acrylate group and a methacrylate group, at least two substituents in the branched siloxane being alkenyl groups; and (b) an SiH containing siloxane having an average per molecule of at least 2 SiH moieties, the dispersion composition also comprising a hydrosilylation catalyst and a polymeric film former and a surfactant of molecular weight below 1600, the composition being stabilised in dispersion form by the surfactant dissolved in the aqueous phase and the polymeric film former, wherein the weight ratio of polymeric film former to the surfactant of molecular weight below 1600 is below 2.5:1. (a) an alkenyl-containing organopolysiloxane having an average per molecule of at least 2 alkenyl groups wherein the alkenyl-containing organopolysiloxane is a branched siloxane comprising i) one or more units of the formula (SiO 4/2), ii) from 15 units to 995 units of the formula R b 2 SiO 2/2 which units (i) and (ii) may be inter-linked in any appropriate combination, and iii) units of the formula R a R b 2 SiO 1/2, wherein each R a substituent is selected from the group consisting of an alkyl group having from 1 to 6 carbon atoms and an alkenyl group having up to 6 carbon atoms, and each R b substituent is selected from the group consisting of an alkyl group having from 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, an alkoxy group, an acrylate group and a methacrylate group, at least two substituents in the branched siloxane being alkenyl groups; and (b) an SiH containing siloxane having an average per molecule of at least 2 SiH moieties,
An apparatus (10; 210) for applying an engagement collar to a group of articles, comprising: a) an application area defining a horizontal support surface for receiving a group of articles; b) a horizontal press plate positioned above the support surface and mounted for vertical movement relative to the support surface; and c) an actuation assembly operatively connected to the press plate for moving the press plate relative to the support surface to apply an engagement collar to a group of articles positioned on the support surface within the application area, characterised in that the actuation assembly includes an actuation lever that is located below the press plate in front of the application area. a) an application area defining a horizontal support surface for receiving a group of articles; b) a horizontal press plate positioned above the support surface and mounted for vertical movement relative to the support surface; and c) an actuation assembly operatively connected to the press plate for moving the press plate relative to the support surface to apply an engagement collar to a group of articles positioned on the support surface within the application area, characterised in that the actuation assembly includes an actuation lever that is located below the press plate in front of the application area.
A docking station (10, 300) for a patient monitoring device comprising a housing (20, 302) that is arranged to selectively support a patient monitoring device thereon; a first port positioned on the housing for receiving the patient monitoring device therein; and characterized by: a sensor (50a, 336) that is arranged to sense one of a presence and absence of the patient monitoring device; an electronic locking mechanism (34, 500) that is arranged to mechanically lock the patient monitoring device to the first port; and a connector positioned within the first port that is arranged to mate with a corresponding patient monitoring device connector when the locking mechanism (34, 500) locks the patient monitoring device within the first port; wherein the electronic locking mechanism (34, 500) comprises an electronically-controlled actuator and is moveable between a first locking stage and a second locking stage by the actuator; wherein, in the first locking stage, the locking mechanism (34, 500) secures the docking station and patient monitoring device in a mechanically locked state, and wherein in the second locking stage, in response to sensing the presence of the patient monitoring device within the first port, the locking mechanism (34, 500) is moved by the actuator to: maintain the mechanically locked state, establish a bidirectional transfer of data between the patient monitoring device and the docking station via the connector, and transfer power from the docking station to the patient monitoring device via the connector. a sensor (50a, 336) that is arranged to sense one of a presence and absence of the patient monitoring device; an electronic locking mechanism (34, 500) that is arranged to mechanically lock the patient monitoring device to the first port; and a connector positioned within the first port that is arranged to mate with a corresponding patient monitoring device connector when the locking mechanism (34, 500) locks the patient monitoring device within the first port; wherein the electronic locking mechanism (34, 500) comprises an electronically-controlled actuator and is moveable between a first locking stage and a second locking stage by the actuator; wherein, in the first locking stage, the locking mechanism (34, 500) secures the docking station and patient monitoring device in a mechanically locked state, and wherein in the second locking stage, in response to sensing the presence of the patient monitoring device within the first port, the locking mechanism (34, 500) is moved by the actuator to: maintain the mechanically locked state, establish a bidirectional transfer of data between the patient monitoring device and the docking station via the connector, and transfer power from the docking station to the patient monitoring device via the connector. maintain the mechanically locked state, establish a bidirectional transfer of data between the patient monitoring device and the docking station via the connector, and transfer power from the docking station to the patient monitoring device via the connector.
A composition for use in treating cancer in an individual, wherein the cancer is melanoma, the composition comprising: an isolated molecule that selectively binds to a polypeptide encoded by a CSC-associated gene on an ABCB5+ stem cell of the individual, wherein the CSC-associated gene is PD-1, wherein the isolated molecule is conjugated to a therapeutic agent, and, wherein the isolated molecule is an antibody or antigen binding fragment, wherein the therapeutic agent is a mAb that binds to ABCB5.