mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmic surgical system comprising: a vitreous cannula (18, 130) attached to a surgical instrument for vibrating the vitreous cannula (18, 130); the vitreous cannula having a distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) with at least one port (22, 32, 42, 52, 62, 82, 92, 112, 11, 132) in communication with a lumen extending through the vitreous cannula (18, 130) to a proximal end of the vitreous cannula (18, 130), the lumen communicating with an aspiration path in the surgical instrument; an infusion fluid source connected to an infusion cannula (148, 188) through infusion tubing; an aspiration source attached to the surgical instrument and an aspiration path, via a connector, for aspirating the vitreous and other tissue from the eye; characterized in that it further comprises a plurality of entry site alignment devices (164, 166) for insertion into the eye and for receiving at least the infusion cannula (148, 188) and the vitreous cannula (18, 130), wherein the vitreous cannula (18, 130) is configured to vibrate at a tip velocity, where a vacuum created inside the tip reaches a maximum level and the tip velocity is below a level at which cavitation is created externally of the distal tip, for removing vitreous and other tissue from an eye. a vitreous cannula (18, 130) attached to a surgical instrument for vibrating the vitreous cannula (18, 130); the vitreous cannula having a distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) with at least one port (22, 32, 42, 52, 62, 82, 92, 112, 11, 132) in communication with a lumen extending through the vitreous cannula (18, 130) to a proximal end of the vitreous cannula (18, 130), the lumen communicating with an aspiration path in the surgical instrument; an infusion fluid source connected to an infusion cannula (148, 188) through infusion tubing; an aspiration source attached to the surgical instrument and an aspiration path, via a connector, for aspirating the vitreous and other tissue from the eye; a plurality of entry site alignment devices (164, 166) for insertion into the eye and for receiving at least the infusion cannula (148, 188) and the vitreous cannula (18, 130), wherein the vitreous cannula (18, 130) is configured to vibrate at a tip velocity, where a vacuum created inside the tip reaches a maximum level and the tip velocity is below a level at which cavitation is created externally of the distal tip, for removing vitreous and other tissue from an eye.
A power supply unit, PSU,, comprising: a forward converter comprising a transformer, a first primary-side transistor connected to a primary winding of the transformer, a second secondary-side transistor connected to a secondary winding of the transformer, a forward controller, and a plurality of shared components including a first secondary-side transistor, an inductor, and an output capacitor; a buck converter comprising a power transistor, a buck controller, and the plurality of shared components including the first secondary-side transistor, the inductor, and the output capacitor; a switch box comprising a controller switch connected to the forward controller, wherein the controller switch comprises a power switch; and an option box comprising a switch, or a low power boost converter, and a secondary energy-tank capacitor connected to the switch box; wherein a primary winding of the transformer is coupled to an input of the PSU, while a secondary winding of the transformer is coupled to an output of the PSU, the power transistor is a metal-oxide-semiconductor field-effect transistor, MOSFET. a forward converter comprising a transformer, a first primary-side transistor connected to a primary winding of the transformer, a second secondary-side transistor connected to a secondary winding of the transformer, a forward controller, and a plurality of shared components including a first secondary-side transistor, an inductor, and an output capacitor; a buck converter comprising a power transistor, a buck controller, and the plurality of shared components including the first secondary-side transistor, the inductor, and the output capacitor; a switch box comprising a controller switch connected to the forward controller, wherein the controller switch comprises a power switch; and an option box comprising a switch, or a low power boost converter, and a secondary energy-tank capacitor connected to the switch box; wherein a primary winding of the transformer is coupled to an input of the PSU, while a secondary winding of the transformer is coupled to an output of the PSU, the power transistor is a metal-oxide-semiconductor field-effect transistor, MOSFET.
Method of controlling a hand-operated printer, characterized by detecting a transverse movement of the hand-operated printer after finishing a first swath, comparing a transverse distance covered by the transverse movement with a predetermined transverse distance between said first swath and a second swath, and emitting a transverse-stop signal when the transverse distance covered by the transverse movement reaches the predetermined transverse distance. detecting a transverse movement of the hand-operated printer after finishing a first swath, comparing a transverse distance covered by the transverse movement with a predetermined transverse distance between said first swath and a second swath, and emitting a transverse-stop signal when the transverse distance covered by the transverse movement reaches the predetermined transverse distance.
Method for the explosive forming of a workpiece by means of gas explosion, in which the workpiece is arranged in an intake area of a moulding tool, whereas the explosion is triggered by means of ignition of an explosive gas mixture in an ignition tube to form a detonation front, characterised in that a workpiece cavity, whose wall has a closed shape in the cross-section, is at least partially filled with liquid and the explosive gas mixture is provided in direct fluidic contact to the surface of the liquid before the ignition, whereas the ignition tube and the workpiece cavity together form a sealed passage, which has a substantially constant cross section.
A process for the preparation of an aqueous suspension for the treatment of respiratory diseases by pulmonary or nasal inhalation comprising beclometasone diproprionate as active ingredient in the form of particles of a size suitable for inhalation, said process comprising the steps of: a) dispersing an aqueous solution in a turboemulsifier apparatus; b) adding the micronized active ingredient to the aqueous phase; c) dispersing the micronized particles of the active ingredient in said aqueous phase by applying a speed comprised between 2000 and 3000 rpm for a time of 15-20 minutes; and d) further subjecting the obtained aqueous suspension to an homogenisation treatment under high-pressure with an homogenizer apparatus including a high pressure pump supplying a pressure up to 1500 bar. a) dispersing an aqueous solution in a turboemulsifier apparatus; b) adding the micronized active ingredient to the aqueous phase; c) dispersing the micronized particles of the active ingredient in said aqueous phase by applying a speed comprised between 2000 and 3000 rpm for a time of 15-20 minutes; and d) further subjecting the obtained aqueous suspension to an homogenisation treatment under high-pressure with an homogenizer apparatus including a high pressure pump supplying a pressure up to 1500 bar.
An orthosis device comprising: a substantially rigid thermo-formable substrate having a substrate profile defined by a substrate top edge, an opposite substrate bottom edge, and opposite substrate side edges interconnecting the substrate top edge and bottom edge, the substrate profile being symmetrical about a centerline thereof, wherein the substrate comprises a main body portion and opposite lower wing portions partially defining the substrate bottom edge and the respective side edges, each wing portion being joined to the body portion along a respective angled hinge, angled relative to the centerline; whereby the device becomes moldable when activated by a forming temperature above ambient, and the symmetry of the substrate enables the device to be used in both left hand and right hand applications. a substantially rigid thermo-formable substrate having a substrate profile defined by a substrate top edge, an opposite substrate bottom edge, and opposite substrate side edges interconnecting the substrate top edge and bottom edge, the substrate profile being symmetrical about a centerline thereof, wherein the substrate comprises a main body portion and opposite lower wing portions partially defining the substrate bottom edge and the respective side edges, each wing portion being joined to the body portion along a respective angled hinge, angled relative to the centerline; whereby the device becomes moldable when activated by a forming temperature above ambient, and the symmetry of the substrate enables the device to be used in both left hand and right hand applications.
An electrostatic linear ion trap (ELIT) with a selectable ion path length, comprising: one or more voltage sources; a first set of electrode plates (310, 410) with holes in the center aligned along a central axis; a second set of electrode plates (320, 420) with holes in the center that is aligned along the central axis with the first set, wherein a first group of plates (310, 320) of the first set and the second set is positioned along the central axis to trap ions within a first path length of the central axis and a second group of plates (410, 420) of the first set and the second set is positioned along the central axis to trap ions within a second path length of the central axis that is shorter than the first path length; and one or more switches configured to select the first path length by applying voltages from the one or more voltage sources to the first set and the second set that cause the first group of plates (310, 320) to trap ions within the first path length and configured to select the second path length by applying voltages from the one or more voltage sources to the first set and the second set that cause the second group of plates (410, 420) to trap ions within the second path length. one or more voltage sources; a first set of electrode plates (310, 410) with holes in the center aligned along a central axis; a second set of electrode plates (320, 420) with holes in the center that is aligned along the central axis with the first set, wherein a first group of plates (310, 320) of the first set and the second set is positioned along the central axis to trap ions within a first path length of the central axis and a second group of plates (410, 420) of the first set and the second set is positioned along the central axis to trap ions within a second path length of the central axis that is shorter than the first path length; and one or more switches configured to select the first path length by applying voltages from the one or more voltage sources to the first set and the second set that cause the first group of plates (310, 320) to trap ions within the first path length and configured to select the second path length by applying voltages from the one or more voltage sources to the first set and the second set that cause the second group of plates (410, 420) to trap ions within the second path length.
A manufacturing method for manufacturing a pipe joint including a circular tube-shaped housing and an elastically deformable circular tube-shaped seal member provided at an inner peripheral side of the housing, the pipe joint manufacturing method comprising: a process of placing the seal member inside a mold in a state in which the seal member is fitted to an outer periphery of a retaining pin; and a process of causing a molten resin to flow into the mold so as to mold the housing in a state in which the seal member is cooled through the retaining pin; wherein the molten resin is caused to flow in toward a mold face of the mold opposing an outer peripheral face of the seal member placed inside the mold. a process of placing the seal member inside a mold in a state in which the seal member is fitted to an outer periphery of a retaining pin; and a process of causing a molten resin to flow into the mold so as to mold the housing in a state in which the seal member is cooled through the retaining pin;
A method comprising: discovering a connection of a first device with a second device via an interface (120, 720, 950) between the first device and the second device; asserting a connection status signal responsive to discovering the connection; performing, by the first device, an electrical measurement of the interface (120, 720, 950) between the first device and the second device, wherein performing the electrical measurement includes sensing by the first device a presence or absence of a termination resistance of the second device coupled to the first device via the interface (120, 720, 950); and if the sensing by the first device fails to detect the termination resistance of the second device when connection status signal is asserted, determining by the first device that the connection with the second device has been lost; responsive to determining by the first device that the connection with the second device has been lost, disabling a connection of a termination resistance of the first device from the interface (120, 720, 950); and re-enabling the connection of the termination resistance of the first device to the interface (120, 720, 950) after a time period. discovering a connection of a first device with a second device via an interface (120, 720, 950) between the first device and the second device; asserting a connection status signal responsive to discovering the connection; performing, by the first device, an electrical measurement of the interface (120, 720, 950) between the first device and the second device, wherein performing the electrical measurement includes sensing by the first device a presence or absence of a termination resistance of the second device coupled to the first device via the interface (120, 720, 950); and if the sensing by the first device fails to detect the termination resistance of the second device when connection status signal is asserted, determining by the first device that the connection with the second device has been lost; responsive to determining by the first device that the connection with the second device has been lost, disabling a connection of a termination resistance of the first device from the interface (120, 720, 950); and re-enabling the connection of the termination resistance of the first device to the interface (120, 720, 950) after a time period.
A nonaqueous electrolyte secondary battery having a power-generating element comprising a positive electrode made by a positive electrode active material layer containing a positive electrode active material being formed on a surface of a positive electrode current collector, a negative electrode made by a negative electrode active material layer containing a negative electrode active material being formed on a surface of a negative electrode current collector, wherein the negative electrode active material contains graphite, and a separator containing an electrolyte, wherein the electrolyte contains an electrolyte salt, a nonaqueous solvent into which the electrolyte salt can be dissolved, a first additive, and a second additive that has a reduction potential less than the reduction potential of the first additive, the first additive is methylene methane disulfonate, the second additive is vinylene carbonate or vinylene carbonate in combination with fluoroethylene carbonate, and characterized by a relationship 0.21 ≦ A x L/SSA ≦ 0.69 and 0.51 ≦ B x L/SSA ≦ 1.5 is satisfied, wherein: SSA represents a BET specific area of the negative electrode active material in m 2 /g, L represents a ratio of a total volume of the electrolyte to a total void volume of the positive electrode, the negative electrode and the separator at a temperature of 25 °C, A represents a mass ratio of a total amount of the first additive to a total amount of the nonaqueous solvent and the electrolyte salt in the electrolyte, and B represents a mass ratio of a total amount of the second additive to the total amount of the nonaqueous solvent and the electrolyte salt in the electrolyte. SSA represents a BET specific area of the negative electrode active material in m 2 /g, L represents a ratio of a total volume of the electrolyte to a total void volume of the positive electrode, the negative electrode and the separator at a temperature of 25 °C, A represents a mass ratio of a total amount of the first additive to a total amount of the nonaqueous solvent and the electrolyte salt in the electrolyte, and B represents a mass ratio of a total amount of the second additive to the total amount of the nonaqueous solvent and the electrolyte salt in the electrolyte.
A bladed rotor assembly (100:200:300:400) comprising: a bladed rotor (110:210:310:410) having a plurality of blades (120:220:320:420) arranged in a circumferential array around an axis of rotation; and a rotor housing (140:240:340:440) encircling the bladed rotor (110:210:310:410), the housing (140:240:340:440) having a radially inwardly facing surface (142:242:342:442); each of the blades (120:220:320:420) comprising: a first, radially extending, edge (122:222:322:422); a second opposite, radially extending, edge (124:224:324:424); and a radially distal edge (126:226:326:426); the radially distal edge (126:226:326:426) having a first end (128:228:328:428), a second end (130:230:330:430), and a centre portion (132:232:332:432), the first end (128:228:328:428) adjoining the first, radially extending, edge (122:222:322:422), and the second end (130:230:330:430) adjoining the second, radially extending, edge (124:224:324:424); wherein the radially inwardly facing surface (142:242:342:442) is substantially lineal in an axial direction, and the radially distal edge (126:226:326:426) is profiled in a direction from the first end (128:228:328:428) to the second end (130:230:330:430), and a clearance between the radially distal edge (126:226:326:426) and the radially inwardly facing surface (142:242:342:442) is a first clearance (134:234:334:434) at the first end (128:228:328:428), and decreases to a second clearance (136:236:336:436) across the centre portion (132:232:332:432), characterised in that the clearance between the radially distal edge (126:226:326:426) and the radially inwardly facing surface (142:242:342:442) is the first clearance (134:234:334:434) at the first end (128:228:328:428), decreases to the second clearance (136:236:336:436) across the centre portion (132:232:332:432), and increases to a third clearance (138:238:338:438) at the second end (130:230:330:430). a bladed rotor (110:210:310:410) having a plurality of blades (120:220:320:420) arranged in a circumferential array around an axis of rotation; and a rotor housing (140:240:340:440) encircling the bladed rotor (110:210:310:410), the housing (140:240:340:440) having a radially inwardly facing surface (142:242:342:442); a first, radially extending, edge (122:222:322:422); a second opposite, radially extending, edge (124:224:324:424); and a radially distal edge (126:226:326:426);
A wireless power unit arranged to wirelessly receive power using a near field magnetic resonance (NFMR) magnetic field provided by an NFMR transmitter unit having a resonance frequency ω T, the wireless power unit comprising: a first resonator structure, the first resonator structure having a first resonant frequency ω 1; a second resonator structure, the second resonator structure having a second resonant frequency ω 2, that is different than the first resonant frequency ω 1; and a power combining circuit coupled to the first and second resonator structures (802-1, 802-2), wherein the power combining circuit is configured to select one of the first and second resonator structures (802-1, 802-2) to provide power to a load coupled to the wireless power unit based on an amount of power provided by the first and second resonator structures (802-1, 802-2). a first resonator structure, the first resonator structure having a first resonant frequency ω 1; a second resonator structure, the second resonator structure having a second resonant frequency ω 2, that is different than the first resonant frequency ω 1; and a power combining circuit coupled to the first and second resonator structures (802-1, 802-2), wherein the power combining circuit is configured to select one of the first and second resonator structures (802-1, 802-2) to provide power to a load coupled to the wireless power unit based on an amount of power provided by the first and second resonator structures (802-1, 802-2).
Seating furniture, in particular an armchair, having a seat part, having a back part which is adjustable from an at least substantially upright sitting position into an inclined position of rest, having at least one arm part, and having a side part which extends between the seat part and the arm part and which comprises a guide rail for the arm part or is connected to a guide rail for the arm part, wherein the arm part is connected to the back part via a coupling apparatus, which comprises a connection arm and a joint connected to the back part, such that a movement of the arm part relative to the seat part takes place by an adjustment of the back part from the sitting position into the position of rest, characterized in that the movement describes a section of a circular path having a constant radius.
A mixer having a softening function, the mixer comprising: a housing including: a fan member (180, 395) for blowing intake air toward an output area (100,110) located on a lower portion of the mixer; a motor for driving the fan member (180, 395); characterized in that it comprises heated coils (90, 200) positioned downstream from the fan for heating airflow generated by the fan member (180, 395); and in that the output area (100,110) is located to direct the airflow to at least one of a bowl including ingredients to be mixed and one or more mixing devices releasably attached to the lower portion of the mixer. a fan member (180, 395) for blowing intake air toward an output area (100,110) located on a lower portion of the mixer; a motor for driving the fan member (180, 395);
A data transmission indication method, comprising: sending, by an access point, to a terminal, a physical layer signaling that indicates, to the terminal, a subchannel allocated to the terminal for receiving downlink orthogonal frequency division multiple access, OFDMA, data information; sending, by the access point, to the terminal, the downlink OFDMA data information on the subchannel allocated to the terminal, wherein the downlink OFDMA data information carries a request that is used to instruct the terminal to send a response to the access point in an OFDMA mode; and receiving, by the access point, in the OFDMA mode, the response from the terminal, wherein the response is either an acknowledge, ACK, response or a block acknowledge, BA, response. sending, by an access point, to a terminal, a physical layer signaling that indicates, to the terminal, a subchannel allocated to the terminal for receiving downlink orthogonal frequency division multiple access, OFDMA, data information; sending, by the access point, to the terminal, the downlink OFDMA data information on the subchannel allocated to the terminal, wherein the downlink OFDMA data information carries a request that is used to instruct the terminal to send a response to the access point in an OFDMA mode; and receiving, by the access point, in the OFDMA mode, the response from the terminal, wherein the response is either an acknowledge, ACK, response or a block acknowledge, BA, response.