mhurhangee/ep-ind-claims huggingface dataset:
A stator assembly characterized by comprising: a high damping core; a low damping core coaxially aligned with the high damping core; a plurality of slots (312, 322) defined in at least one of the high damping core and the low damping core and extending between a first axial end face and a second axial end face of the at least one of the high damping core and the low damping core; and a control winding being integrally continuous and successively wound through the plurality of slots (312, 322) such that the control winding enters the plurality of slots from at least one of the first axial end face or the second axial end face, the control winding being configured to receive a current. a high damping core; a low damping core coaxially aligned with the high damping core; a plurality of slots (312, 322) defined in at least one of the high damping core and the low damping core and extending between a first axial end face and a second axial end face of the at least one of the high damping core and the low damping core; and a control winding being integrally continuous and successively wound through the plurality of slots (312, 322) such that the control winding enters the plurality of slots from at least one of the first axial end face or the second axial end face, the control winding being configured to receive a current.
A cooking device, comprising: a cooking chamber; a food support for supporting the food to be cooked, for mounting in the cooking chamber; a heating device for heating the cooking chamber; a sensing arrangement (30a, 30b, 30c, 30d, 30e) for sensing cooking parameters over time; a controller adapted to determine a required cooking time for the food to be cooked and hence the cooking process to be complete based on the time-evolution of the sensed cooking parameters; the cooking device being characterized by a sensor for sensing an intervention made by a user to the food during cooking and hence before the required cooking time has elapsed, wherein the sensed intervention is opening of a lid or removal of a drawer of the cooking device; wherein the controller is adapted to re-calculate a remaining cooking time, based on the time-evolution of the sensed cooking parameters, in response to, and following, the sensed intervention. a cooking chamber; a food support for supporting the food to be cooked, for mounting in the cooking chamber; a heating device for heating the cooking chamber; a sensing arrangement (30a, 30b, 30c, 30d, 30e) for sensing cooking parameters over time; a controller adapted to determine a required cooking time for the food to be cooked and hence the cooking process to be complete based on the time-evolution of the sensed cooking parameters; the cooking device being characterized by a sensor for sensing an intervention made by a user to the food during cooking and hence before the required cooking time has elapsed, wherein the sensed intervention is opening of a lid or removal of a drawer of the cooking device; wherein the controller is adapted to re-calculate a remaining cooking time, based on the time-evolution of the sensed cooking parameters, in response to, and following, the sensed intervention.
A nanoparticle comprising: an inorganic metal oxide nanoparticle material core absent an organofunctional corona; and an organic polymer material canopy surrounding the inorganic metal oxide nanoparticle material core, wherein the nanoparticle is obtainable by a direct acid/base reaction between the core inorganic metal oxide nanoparticle and the organic polymer material of the canopy, and/or wherein the organic polymer material canopy is ionically tethered. an inorganic metal oxide nanoparticle material core absent an organofunctional corona; and an organic polymer material canopy surrounding the inorganic metal oxide nanoparticle material core, wherein the nanoparticle is obtainable by a direct acid/base reaction between the core inorganic metal oxide nanoparticle and the organic polymer material of the canopy, and/or wherein the organic polymer material canopy is ionically tethered.
A method, comprising: establishing, by an apparatus operating as a mobile hotspot device, a control channel over a wireless out-of-band communications medium with a wireless device, wherein said establishing of the control channel with the wireless device comprises exchanging, via the wireless out-of-band communications medium, at least out-of-band pairing information, or shared secret information; and exchanging, by the apparatus operating as the mobile hotspot device, over the established control channel, by at least one of transmitting or receiving in-band communications connectivity configuration information to enable power saving features and optimize activity times in an in-band communications tethering connection with the wireless device in an in-band communications medium, for relaying by the apparatus operating as the mobile hotspot device, communications between the wireless device and one or more entities in at least one of a wide area communications network (39,46) and/or a wireless local area network provided by the apparatus operating as the mobile hotspot device. establishing, by an apparatus operating as a mobile hotspot device, a control channel over a wireless out-of-band communications medium with a wireless device, wherein said establishing of the control channel with the wireless device comprises exchanging, via the wireless out-of-band communications medium, at least out-of-band pairing information, or shared secret information; and exchanging, by the apparatus operating as the mobile hotspot device, over the established control channel, by at least one of transmitting or receiving in-band communications connectivity configuration information to enable power saving features and optimize activity times in an in-band communications tethering connection with the wireless device in an in-band communications medium, for relaying by the apparatus operating as the mobile hotspot device, communications between the wireless device and one or more entities in at least one of a wide area communications network (39,46) and/or a wireless local area network provided by the apparatus operating as the mobile hotspot device.
Continuous pressing line comprising - a cylindrical chamber with perforated wall, having a closed bottom and an opposite open bottom with adjustable discharge opening; - a piston moved by an actuator adapted to sealingly slide along the axis of said chamber to be positioned in proximity of the closed bottom or immediately outside the open bottom of the cylindrical chamber to adjust the discharge opening; characterized in that of further comprising: - a variable displacement pump adapted to supply the product to be pressed to said container, through the closed bottomm thereof, opposite to the open bottom; - a centralised control system adapted to control said actuator of said piston and said variable displacement pump, in order to maintain the pressure inside the cylindrical chamber at a desired value. - a cylindrical chamber with perforated wall, having a closed bottom and an opposite open bottom with adjustable discharge opening; - a piston moved by an actuator adapted to sealingly slide along the axis of said chamber to be positioned in proximity of the closed bottom or immediately outside the open bottom of the cylindrical chamber to adjust the discharge opening; - a variable displacement pump adapted to supply the product to be pressed to said container, through the closed bottomm thereof, opposite to the open bottom; - a centralised control system adapted to control said actuator of said piston and said variable displacement pump, in order to maintain the pressure inside the cylindrical chamber at a desired value.
A method for producing a connecting element for connecting two components (4, 6) of an orthopedic device for a body part, wherein the method comprises the following steps: • Capturing three-dimensional scan data of at least one part of the body part and/or at least one part of each of the two components (4, 6) using a scanner, • Determining a target position and/or target orientation of the connecting element relative to the components (4, 6) from the scan data, • Modelling the connecting element using the scan data, the target position and/or the target orientation and further information on the components (4, 6) to be connected, and • Producing the modelled connecting element. • Capturing three-dimensional scan data of at least one part of the body part and/or at least one part of each of the two components (4, 6) using a scanner, • Determining a target position and/or target orientation of the connecting element relative to the components (4, 6) from the scan data, • Modelling the connecting element using the scan data, the target position and/or the target orientation and further information on the components (4, 6) to be connected, and • Producing the modelled connecting element.
Operating bar fitting with locking plate for windows, doors, or the like, comprising locking pins which project from the operating bars and which, in a locking position, engage behind retaining shoulders (13,39) of counter locking parts on the frame side, and comprising a device for achieving a slightly open ventilation position of the leaf with respect to the frame in one position of the operating bar actuation handle, said device being formed by an operating bar retaining pin which is moved into a receiving recess of a locking plate on the frame side via run-on sloping surfaces, with the retaining pin being formed by at least one of the locking pins, and the locking plate, on the frame side, having a locking slot behind which the retaining pin engages in the locking position, and a run-on sloping surface which is offset inwards and which, in the slightly open position, pushes the retaining pin away over a plane running ahead of the retaining shoulder away from the rebate, and with the run-on sloping surface being adjustable, characterised in that the run-on sloping surface is attached to an adjusting piece mounted beneath a cover plate forming the locking slot and in that in the slightly open ventilation position the retaining pin is associated with a locking slot section which is movable relative to the locking slot (11, 15).
A waste disposal system, comprising: a container assembly having: a base; an outer barrel casing; a rotating support structure having an inner volume, and the rotating support structure is rotatably coupled to the base; a top chamber having at least one door disposed at a top of the top chamber; characterized in that it further comprises a guiding structure disposed within the top chamber, wherein the guiding structure has a downward sloping surface, and wherein the downward sloping surface has a lower rim defining a through hole; and bag detachably coupled to the container assembly at a location below the guiding structure; wherein there is at least one bag attachment mechanism in the rotating support structure and the bag has at least one receiver to make detachable coupling to the at least one bag attachment mechanism; wherein a top rim of the bag can be coupled to parts of the outer barrel casing, wherein the guiding structure includes a base, and a cover attachable to the base. a container assembly having: a base; an outer barrel casing; a rotating support structure having an inner volume, and the rotating support structure is rotatably coupled to the base; a top chamber having at least one door disposed at a top of the top chamber; characterized in that it further comprises a guiding structure disposed within the top chamber, wherein the guiding structure has a downward sloping surface, and wherein the downward sloping surface has a lower rim defining a through hole; and bag detachably coupled to the container assembly at a location below the guiding structure; a base; an outer barrel casing; a rotating support structure having an inner volume, and the rotating support structure is rotatably coupled to the base; a top chamber having at least one door disposed at a top of the top chamber; characterized in that it further comprises a guiding structure disposed within the top chamber, wherein the guiding structure has a downward sloping surface, and wherein the downward sloping surface has a lower rim defining a through hole; and bag detachably coupled to the container assembly at a location below the guiding structure; wherein there is at least one bag attachment mechanism in the rotating support structure and the bag has at least one receiver to make detachable coupling to the at least one bag attachment mechanism; wherein a top rim of the bag can be coupled to parts of the outer barrel casing, wherein the guiding structure includes a base, and a cover attachable to the base.
A method for managing a switch chip port, applied in a distributed communications system, wherein the distributed communications system comprises a switch board (2; 50; b; 80), a main control board (40; 1; a; 70), and multiple service boards (30; c0; c1; c2; c3; 60), the main control board (40; 1; a; 70) comprises a first switch chip (10; 401; a1; 71), adapted to connect to one or more service boards (30; c0; c1; c2; c3; 60) among the multiple service boards (30; c0; c1; c2; c3; 60) through one or more ports of the first switch chip (10; 401; a1; 71) respectively to implement data exchange on a management plane of the communications system; and the switch board (2; 50; b; 80) comprises a second switch chip (20; 501; 83; b1; b2), adapted to connect to one or more service boards (30; c0; c1; c2; c3; 60) among the multiple service boards (30; c0; c1; c2; c3; 60) through one or more ports of the second switch chip (20; 501; 83; b1; b2) respectively to implement data exchange on a data plane of the communications system; characterized in that, the method comprises: detecting whether each of the multiple service boards (30; c0; c1; c2; c3; 60) is in position; and when it is detected that a service board (30; c0; c1; c2; c3; 60) is not in position, controlling disabling of a port corresponding to the detected not-in-position service board (30; c0; c1; c2; c3; 60) on the first switch chip (10; 401; a1; 71) of the main control board (40; 1; a; 70); and sending an in-position message comprising information about the not-in-position service board (30; c0; c1; c2; c3; 60) to the switch board (2; 50; b; 80), so that after receiving the in-position message comprising the information about the not-in-position service board (30; c0; c1; c2; c3; 60), the switch board (2; 50; b; 80) controls, according to the information about the not-in-position service board (30; c0; c1; c2; c3; 60) in the received in-position message, disabling of a port corresponding to the not-in-position service board (30; c0; c1; c2; c3; 60) on the second switch chip (20; 501; 83; b1; b2) of the switch board (2; 50; b; 80). detecting whether each of the multiple service boards (30; c0; c1; c2; c3; 60) is in position; and when it is detected that a service board (30; c0; c1; c2; c3; 60) is not in position, controlling disabling of a port corresponding to the detected not-in-position service board (30; c0; c1; c2; c3; 60) on the first switch chip (10; 401; a1; 71) of the main control board (40; 1; a; 70); and sending an in-position message comprising information about the not-in-position service board (30; c0; c1; c2; c3; 60) to the switch board (2; 50; b; 80), so that after receiving the in-position message comprising the information about the not-in-position service board (30; c0; c1; c2; c3; 60), the switch board (2; 50; b; 80) controls, according to the information about the not-in-position service board (30; c0; c1; c2; c3; 60) in the received in-position message, disabling of a port corresponding to the not-in-position service board (30; c0; c1; c2; c3; 60) on the second switch chip (20; 501; 83; b1; b2) of the switch board (2; 50; b; 80).
Angle sensor for determining the absolute angle of rotation of a shaft over a plurality of rotations, having an outer sensor system (1a, 1b, 2a, 2b) with at least one sensor wheel (1a, 1b) and a sensor (2a, 2b) allocated to the sensor wheel (1a, 1b) for determining the number of rotations of the shaft, and having an inner sensor system (3, 4) with a further sensor wheel which is directly connected to the shaft and has a coding disposed in the peripheral direction from which a further sensor senses a relative angular position within a rotation of the shaft, with the further sensor wheel having measuring sectors positioned adjacent to each other in the peripheral direction, and with the further sensor determining the relative angular position of the shaft in relation to a measuring sector, with the absolute angle of rotation of the shaft being determinable from the measured values of the inner sensor system (3, 4) and the outer sensor system (1a, 1b, 2a, 2b), characterised in that the outer sensor system (1 a, 1 b, 2a, 2b) has a plurality of sensor wheels (1 a, 1 b) and sensors (2a, 2b) driven by the further sensor wheel, and determines the measuring sector that is currently being sensed by the further sensor according to the Nonius principle.
A fermentation process for producing a desired recombinant polypeptide and purifying the desired recombinant polypeptide from the fermentation medium, wherein the process includes: (i) culturing host cells or microbes under conditions that result in the expression and secretion of the recombinant polypeptide and one or more impurities into the fermentation medium; (ii) periodically obtaining one or more samples of the fermentation medium as the fermentation process proceeds or after different fermentation runs are conducted; (iii) detecting the amount and/or type of glycosylated impurities in the sample(s) using a lectin that binds to said glycosylated impurities, and (iv) based on the amount of detected glycosylated impurities in the sample(s) modifying one or more of the operating parameters or conditions of the fermentation process, wherein the host cells or microbes are yeast or filamentous fungi, wherein the recombinant polypeptide is an antibody or antibody fragment, wherein based on the amount of glycosylated impurities detected one or more of the following parameters or conditions of the fermentation process are altered: temperature, pH, gas constituent, feed constituent, agitation, aeration, antifoam and duration, wherein the process further includes recovering or purifying the recombinant polypeptide from the fermentation medium, and wherein the purification process further comprises pooling different samples or eluates or fractions thereof containing the desired recombinant polypeptide based on the amount and/or type of detected glycosylated impurities relative to the amount of the desired recombinant polypeptide. (i) culturing host cells or microbes under conditions that result in the expression and secretion of the recombinant polypeptide and one or more impurities into the fermentation medium; (ii) periodically obtaining one or more samples of the fermentation medium as the fermentation process proceeds or after different fermentation runs are conducted; (iii) detecting the amount and/or type of glycosylated impurities in the sample(s) using a lectin that binds to said glycosylated impurities, and (iv) based on the amount of detected glycosylated impurities in the sample(s) modifying one or more of the operating parameters or conditions of the fermentation process,
Modular reverse shoulder prosthesis, comprising: - a stem comprising a tapered body and a first annular housing; - a tray comprising a dome element for insertion into said first annular housing, and further comprising a second annular housing; - a liner comprising an engaging element for at least partial insertion into said dome element, and further comprising a joint concave element configured for coupling with said second annular housing; wherein said second annular housing of said tray comprises a raised edge configured to support said joint concave element, characterised in that said raised edge defines an overall outline having a development in height that is different at least in diametrically opposite portions (123a; 123b) of said tray. - a stem comprising a tapered body and a first annular housing; - a tray comprising a dome element for insertion into said first annular housing, and further comprising a second annular housing; - a liner comprising an engaging element for at least partial insertion into said dome element, and further comprising a joint concave element configured for coupling with said second annular housing; wherein said second annular housing of said tray comprises a raised edge configured to support said joint concave element, characterised in that said raised edge defines an overall outline having a development in height that is different at least in diametrically opposite portions (123a; 123b) of said tray. wherein said second annular housing of said tray comprises a raised edge configured to support said joint concave element, characterised in that said raised edge defines an overall outline having a development in height that is different at least in diametrically opposite portions (123a; 123b) of said tray.
A tool device for connecting a plastic pipe or a metal-plastic composite pipe to a fitting using a sliding sleeve or ferrule, comprising: - a housing; - a flaring device to flare the ends of the plastic pipe or the metal-plastic composite pipe; - a sliding device for sliding on the sliding sleeve or a pressing device for pressing on the ferrule; and - a mechanically operable drive element, which is actuatable in a switchable manner to drive the flaring device or to drive the sliding or pressing device; wherein the flaring device and the sliding or pressing device are connected to the housing and are at least partly accommodated in the housing, characterised in that a switching of the drive element between driving the flaring device and driving the sliding or pressing device can be effected by rotating the housing relative to the drive element. - a housing; - a flaring device to flare the ends of the plastic pipe or the metal-plastic composite pipe; - a sliding device for sliding on the sliding sleeve or a pressing device for pressing on the ferrule; and - a mechanically operable drive element, which is actuatable in a switchable manner to drive the flaring device or to drive the sliding or pressing device;
An effective amount of one or more compounds having the formula: wherein L is chosen from CH 2 or SO 2; R represents from 0 to 5 substitutions for hydrogen; the index n is an integer from 0 to 5; R 1 and R 2 are each independently chosen from: i) hydrogen; ii) substituted or unsubstituted C 1 -C 10 linear, branched, or cyclic alkyl; iii) substituted or unsubstituted C 2 -C 10 linear, branched, or cyclic alkenyl; iv) substituted or unsubstituted C 2 -C 10 linear or branched alkynyl; v) substituted or unsubstituted C 6 or C 10 aryl; vi) substituted or unsubstituted C 1 -C 9 heterocyclic; vii) substituted or unsubstituted C 1 -C 9 heteroaryl; or viii) R 1 and R 2 can be taken together to form a substituted or unsubstituted heterocyclic or substituted or unsubstituted heteroaryl ring having from form 2 to 20 carbon atoms and from 1 to 7 heteroatoms; or a pharmaceutically acceptable salt thereof, for use in treating an inflammatory epithelial disease in a subject. i) hydrogen; ii) substituted or unsubstituted C 1 -C 10 linear, branched, or cyclic alkyl; iii) substituted or unsubstituted C 2 -C 10 linear, branched, or cyclic alkenyl; iv) substituted or unsubstituted C 2 -C 10 linear or branched alkynyl; v) substituted or unsubstituted C 6 or C 10 aryl; vi) substituted or unsubstituted C 1 -C 9 heterocyclic; vii) substituted or unsubstituted C 1 -C 9 heteroaryl; or viii) R 1 and R 2 can be taken together to form a substituted or unsubstituted heterocyclic or substituted or unsubstituted heteroaryl ring having from form 2 to 20 carbon atoms and from 1 to 7 heteroatoms; or