mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a 3,5-disubstituted 1,2,4-oxadiazole of Formula ( Ia) or ( Ib), or a salt thereof, the process comprising reacting an N-hydroxyamidine of Formula ( IIa) or ( IIb), respectively, or a tautomeric form thereof, with an acyl chloride of Formula ( IIIa) or ( IIIb), respectively, in a reaction mixture comprising an organic phase and an aqueous phase, wherein the reaction mixture comprises a water-immiscible organic solvent and an aqueous base selected from the group consisting of sodium hydroxide, potassium hydroxide, lithium hydroxide, calcium hydroxide, and mixtures thereof, wherein the temperature of the reaction mixture is no greater than 85°C; and wherein Ar 1 is selected from the group consisting of phenyl, pyridyl, pyrazyl, oxazolyl and isoxazolyl, each of which can be optionally independently substituted with one or more substituents selected from the group consisting of halogen, CF 3, CH 3, OCF 3, OCH 3, CN and C O; and Ar 2 is selected from the group consisting of thienyl, furanyl, oxazolyl and isoxazolyl, each of which can be optionally independently substituted with one or more substituents selected from the group consisting of fluorine, chlorine, CH 3, and OCF 3. wherein the reaction mixture comprises a water-immiscible organic solvent and an aqueous base selected from the group consisting of sodium hydroxide, potassium hydroxide, lithium hydroxide, calcium hydroxide, and mixtures thereof, wherein the temperature of the reaction mixture is no greater than 85°C; and wherein Ar 1 is selected from the group consisting of phenyl, pyridyl, pyrazyl, oxazolyl and isoxazolyl, each of which can be optionally independently substituted with one or more substituents selected from the group consisting of halogen, CF 3, CH 3, OCF 3, OCH 3, CN and C O; and Ar 2 is selected from the group consisting of thienyl, furanyl, oxazolyl and isoxazolyl, each of which can be optionally independently substituted with one or more substituents selected from the group consisting of fluorine, chlorine, CH 3, and OCF 3.
An end effector for a surgical clip applier, comprising: a body having a proximal end and a distal end; a clip cartridge coupled to the body and containing one or more surgical clips, wherein each surgical clip comprises a crown and a pair of legs extending from the crown; a head rotatably coupled to the distal end; and first and second jaw members (1104, 1106) mounted to the head such that rotation of the head correspondingly moves the first and second jaw members, wherein the head is rotatable between a loading position, where the first and second jaw members are aligned to receive a distal-most surgical clip of the one or more surgical clips, and a clamping position, where the first and second jaw members are positioned to crimp a surgical clip interposing the first and second jaw members; characterized in that the distal-most surgical clip is fed crown first into the first and second jaw members from the clip cartridge. a body having a proximal end and a distal end; a clip cartridge coupled to the body and containing one or more surgical clips, wherein each surgical clip comprises a crown and a pair of legs extending from the crown; a head rotatably coupled to the distal end; and first and second jaw members (1104, 1106) mounted to the head such that rotation of the head correspondingly moves the first and second jaw members, wherein the head is rotatable between a loading position, where the first and second jaw members are aligned to receive a distal-most surgical clip of the one or more surgical clips, and a clamping position, where the first and second jaw members are positioned to crimp a surgical clip interposing the first and second jaw members; characterized in that the distal-most surgical clip is fed crown first into the first and second jaw members from the clip cartridge.
A medical device, comprising: - an instrument; - a water jet applicator for transporting and delivering a fluid, comprising: - an applicator line; - a fluid terminal for connecting the applicator line to a fluid source; - an applicator outlet for delivering the fluid; - at least two fastening devices for releasably fastening the water jet applicator to an instrument, wherein the applicator line comprises: - a first section having a first modulus of elasticity and a first diameter; - a second section having a second modulus of elasticity and a second diameter, wherein the first modulus of elasticity differs from the second modulus of elasticity, wherein at least a first fastening device, i.e., a medial fastening device, establishes a fluidic connection between the first section and the second section; wherein the instrument comprises a first branch and a second branch, wherein the branches (12a, 12b) are interconnected via at least one articulation and are operable by means of a first handle and a second handle, respectively, wherein at least a second fastening device comprises a distal guide at one of the branches (12a, 12b) for receiving the applicator delivery and a section of the applicator line. - an instrument; - a water jet applicator for transporting and delivering a fluid, comprising: - an applicator line; - a fluid terminal for connecting the applicator line to a fluid source; - an applicator outlet for delivering the fluid; - at least two fastening devices for releasably fastening the water jet applicator to an instrument, - a first section having a first modulus of elasticity and a first diameter; - a second section having a second modulus of elasticity and a second diameter, wherein at least a first fastening device, i.e., a medial fastening device, establishes a fluidic connection between the first section and the second section; wherein the instrument comprises a first branch and a second branch, wherein the branches (12a, 12b) are interconnected via at least one articulation and are operable by means of a first handle and a second handle, respectively, wherein at least a second fastening device comprises a distal guide at one of the branches (12a, 12b) for receiving the applicator delivery and a section of the applicator line.
A method for measuring transmission error information, comprising: transmitting transmission control information to a terminal through a physical downlink control channel, PDCCH; determining that the transmission control information is not correctly received by the terminal; and acquiring transmission error information of the PDCCH, wherein the transmitting the transmission control information to the terminal through the PDCCH comprises: transmitting uplink scheduling grant information to the terminal through the PDCCH; the method being characterized in that the determining that the transmission control information is not correctly received by the terminal comprises: determining that transmission of the PDCCH is erroneous, when an erroneous cyclic redundancy check, CRC, of a physical uplink shared channel, PUSCH, is detected and a media access control, MAC, logic channel identifier, LCID, does not meet an expected MAC LCID. transmitting transmission control information to a terminal through a physical downlink control channel, PDCCH; determining that the transmission control information is not correctly received by the terminal; and acquiring transmission error information of the PDCCH, wherein the transmitting the transmission control information to the terminal through the PDCCH comprises: transmitting uplink scheduling grant information to the terminal through the PDCCH; the method being characterized in that the determining that the transmission control information is not correctly received by the terminal comprises: determining that transmission of the PDCCH is erroneous, when an erroneous cyclic redundancy check, CRC, of a physical uplink shared channel, PUSCH, is detected and a media access control, MAC, logic channel identifier, LCID, does not meet an expected MAC LCID.
An apparatus for feeding pieces of cloth to a device for treating clothes, such as a rotary ironer, comprising a conveyor with a direction of conveyance configured for conveying the pieces of cloth to said device, said apparatus comprising: one or more spreader devices, each of which has a set of spreader clamps for releasably receiving a piece of cloth from a charger station along a fore edge and in proximity of a pair of adjacent corners of the piece of cloth, where each spreader device is configured for moving the spreader clamps away from each other transversally of the direction of conveyance for straightening said fore edge and for delivering said piece of cloth to the conveyor, whereby the apparatus comprises in combination: - at least one set of spreader clamps that is configured for performing a tilting movement between a receiving position where the spreader clamps have a first predetermined orientation relative to the conveyor and a delivery position, and wherein the spreader clamps are configured such that the straightened fore edge of the piece of cloth is, in the delivery position, essentially in parallel with the conveyor; - one or more charger stations, each of which is configured for receiving a piece of cloth and moving it along a path from a feeding position to said receiving position in which the piece of cloth is received by said set of spreader clamps, said path forming a selectable angle to the direction of conveyance of the conveyor. - at least one set of spreader clamps that is configured for performing a tilting movement between a receiving position where the spreader clamps have a first predetermined orientation relative to the conveyor and a delivery position, and wherein the spreader clamps are configured such that the straightened fore edge of the piece of cloth is, in the delivery position, essentially in parallel with the conveyor; - one or more charger stations, each of which is configured for receiving a piece of cloth and moving it along a path from a feeding position to said receiving position in which the piece of cloth is received by said set of spreader clamps, said path forming a selectable angle to the direction of conveyance of the conveyor.
An optically pumped amplifier and/or oscillator, which has a plate-shaped optical gain medium (6, 7), which is delimited by two mutually opposite main surfaces and two mutually opposite first and second side surfaces in each case, and a plurality of pump laser units for optically pumping the gain medium (6, 7) through at least one of the first side surfaces, via which a laser beam to be amplified propagates through the gain medium (6, 7), wherein the pump laser units direct pump laser radiation onto the at least one first side surface as beam bundles and are designed such that the pump laser radiation emitted by the pump laser units, upon passing through the gain medium (6, 7), has an elongated beam cross section having a short axis and a long axis running parallel to the main surfaces and propagates, not guided as in a waveguide, freely through the gain medium (6, 7) with respect to the short axis, without touching the main surfaces, and the pump laser units are arranged such that in each case, the main axes of the beam bundles of a plurality of pump laser units impinge on geometrically separate beam paths on one of the first side surfaces or on both first side surfaces in a plane perpendicular to the short axis at an angle to one another, and the beam cross sections of the beam bundles are in each case superimposed on one another on the first side surface(s) and in the gain medium.
A linear surgical stapler comprising: upper and lower jaws (1, 2) capable of mutually being closed or opened with each other; an anvil and a cartridge respectively mounted on opposite far ends of the upper and lower jaws (1, 2), a surface of the cartridge defining a plurality of slots arranged along an axis of the linear surgical stapler, each slot therein being provided with a staple pusher and a staple engaging with the staple pusher, the lower jaw therein comprising a staple drive bar and a cutter pusher having a cutter on a far end of the cutter pusher, the staple drive bar and the cutter pusher being simultaneously movable along the axis of the linear surgical stapler, the staple drive bar being movable to sequentially drive the staple pushers; and a handle portion for closing the upper and lower jaws (1, 2); wherein both one end of the staple drive bar and one end of the cutter pusher are associated to a slider; the slider is fixedly mounted within an button base, characterized in that each lateral side of the button base is pivotally associated with an operation button which is rotatable between a first status where an operating surface of the operation button is perpendicular to the axis of the linear surgical stapler, and a second status where the operating surface of the operation button is parallel to the axis of the linear surgical stapler, wherein each operation button in its respective first status is configured to slide the button base when force is applied to the operation button. upper and lower jaws (1, 2) capable of mutually being closed or opened with each other; an anvil and a cartridge respectively mounted on opposite far ends of the upper and lower jaws (1, 2), a surface of the cartridge defining a plurality of slots arranged along an axis of the linear surgical stapler, each slot therein being provided with a staple pusher and a staple engaging with the staple pusher, the lower jaw therein comprising a staple drive bar and a cutter pusher having a cutter on a far end of the cutter pusher, the staple drive bar and the cutter pusher being simultaneously movable along the axis of the linear surgical stapler, the staple drive bar being movable to sequentially drive the staple pushers; and a handle portion for closing the upper and lower jaws (1, 2); wherein both one end of the staple drive bar and one end of the cutter pusher are associated to a slider; the slider is fixedly mounted within an button base, characterized in that each lateral side of the button base is pivotally associated with an operation button which is rotatable between a first status where an operating surface of the operation button is perpendicular to the axis of the linear surgical stapler, and a second status where the operating surface of the operation button is parallel to the axis of the linear surgical stapler, wherein each operation button in its respective first status is configured to slide the button base when force is applied to the operation button.
A motor coil bobbin on the outside of which a coil part is wound and in which a tooth of an iron core is inserted, the tooth and the coil part being insulated from each other, the bobbin comprising: a tubular body part; a first outer flange part provided at one end of the body part; and a second outer flange part provided at the other end of the body part, wherein the coil part is wound on the outside of the tubular body part, the first outer flange part of which having a larger dimension of widthwise direction perpendicular to the axial direction of the body part than that of the second outer flange part when viewed in an axial direction of the body part, characterized in that the first outer flange part has leg portions at both ends respectively in the widthwise direction at a lower end, and the second outer flange part has a leg portion at a lower end so that the leg portion is located between the two leg portions (31a, 31a) of the first outer flange part when viewed in the axial direction of the body part, and a bottom surface of the two leg portions (31a, 31a) of the first outer flange part and a bottom surface of the leg portion of the second outer flange part are located generally in an identical plane. a tubular body part; a first outer flange part provided at one end of the body part; and a second outer flange part provided at the other end of the body part, wherein the coil part is wound on the outside of the tubular body part, the first outer flange part of which having a larger dimension of widthwise direction perpendicular to the axial direction of the body part than that of the second outer flange part when viewed in an axial direction of the body part, characterized in that the first outer flange part has leg portions at both ends respectively in the widthwise direction at a lower end, and the second outer flange part has a leg portion at a lower end so that the leg portion is located between the two leg portions (31a, 31a) of the first outer flange part when viewed in the axial direction of the body part, and a bottom surface of the two leg portions (31a, 31a) of the first outer flange part and a bottom surface of the leg portion of the second outer flange part are located generally in an identical plane.
A network overload control method, comprising: determining, by a core network device, to perform overload control for at least one network slice; characterized by further comprising: sending, by the core network device, a first message to a radio access network device, wherein the first message is used to instruct the radio access network device to perform an overload action on a radio resource control, RRC, request of the at least one network slice, and the first message includes a traffic load reduction indication, used to indicate a proportion of RRC requests that are initiated by a terminal device for the at least one network slice and that are rejected by the radio access network device. determining, by a core network device, to perform overload control for at least one network slice; characterized by further comprising: sending, by the core network device, a first message to a radio access network device, wherein the first message is used to instruct the radio access network device to perform an overload action on a radio resource control, RRC, request of the at least one network slice, and the first message includes a traffic load reduction indication, used to indicate a proportion of RRC requests that are initiated by a terminal device for the at least one network slice and that are rejected by the radio access network device.
A method for controlling an angular position of a MEMS mirror, the MEMS mirror being controlled in a linear way, operating at a lower frequency than the natural resonance frequency of the MEMS structure, the method comprising: applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed. the MEMS mirror being controlled in a linear way, operating at a lower frequency than the natural resonance frequency of the MEMS structure, the method comprising: applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed. applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed.
A method of processing a lignocellulosic biomass comprising: processing an embrittled material by means of an enzyme and/or a microorganism to make a product that is chemically different from the embrittled material, the embrittled material having been produced by treating a lignocellulosic biomass material to embrittle the biomass material, wherein treating comprises irradiating the biomass material with electron beam radiation, wherein treating further comprises cooling the biomass material to a temperature of 273 K or less, wherein cooling is performed prior to irradiating, and wherein processing the material comprises contacting the material with an enzyme and/or a microorganism, or the material comprises cellulose and the method comprises utilizing an enzyme to saccharify the cellulose. processing an embrittled material by means of an enzyme and/or a microorganism to make a product that is chemically different from the embrittled material, the embrittled material having been produced by treating a lignocellulosic biomass material to embrittle the biomass material, wherein treating comprises irradiating the biomass material with electron beam radiation, wherein treating further comprises cooling the biomass material to a temperature of 273 K or less, wherein cooling is performed prior to irradiating, and wherein processing the material comprises contacting the material with an enzyme and/or a microorganism, or the material comprises cellulose and the method comprises utilizing an enzyme to saccharify the cellulose.
A laundry drying appliance comprising a cabinet, a rotatable drum accommodated within the cabinet, and a laundry drying air circulation system for circulating drying air, the drying air circulation system comprising moisture condensing means operable for dehydrating moisture-laden drying air, wherein means (3625,3725,3635,4010,3640,3740) operable for cleaning the moisture condensing means are provided, said means for cleaning comprising valve means (3625;3725) operable to selectively enable a load of water from a water main to which the laundry drying appliance is connectable, and a water circuit for delivering the loaded water from the valve means to the moisture condensing means, said moisture condensing means comprising a first heat exchanger of a heat pump, said first heat exchanger being operable for cooling and dehydrating the moisture-laden drying air, wherein said drum is rotatably accommodated within a washing tub housed within the cabinet and said moisture condensing means are arranged between the tub and a top wall ( 590, 119) of the cabinet, characterized in that the cabinet has a top adapted to match and close from above the cabinet, the top being formed as a ready-to-mount part ready to be mounted to the cabinet and forming a moisture condensing module for dehydrating drying air used to dry laundry within the drying drum, the top having a drying air inlet ( 510;2810) for receiving moisture-laden drying air, a drying air outlet ( 515;2815) for delivering dehydrated drying air, fluid passageways defined thereinside from said drying air inlet to said drying air outlet for the passage of the drying air to be dehydrated and the moisture condensing means being arranged inside said fluid passageways, wherein the drying air circulation system comprises a drying air drum outlet connectable to the drying air inlet of the top, and a drying air drum inlet connectable to the drying air outlet of the top.