mhurhangee/patent-ind-claim-en huggingface dataset:
A vertical shaft impact crusher for crushing material, said crusher comprising a rotor for accelerating a first flow of material (M1) to be crushed, a first feed means for feeding the first flow of material (M1) to the rotor , a housing comprising a circumferential impact wall section against which the accelerated first flow of material (M1) may be crushed, and a second feed means for feeding a second flow of material (M2) to be crushed into the path of the accelerated first flow of material (M1), the second feed means comprising an inner hopper and an outer hopper , at least one outlet being formed in said inner hopper for allowing said second flow of material (M2) to enter a space formed between said inner and outer hoppers , a slide plate being located in said space adjacent to said at least one outlet , the slide plate being inclined in a direction being substantially tangential in relation to the rotor , such that material leaving said at least one outlet will slide on the slide plate and obtain a movement in a direction having a substantially tangential component in relation to the rotor , characterized in that an adjustment device is connected to the slide plate , such that the angle (A) between the slide plate and a horizontal plane may be adjusted.
A polymerization catalyst, the polymerization catalyst comprising a metallocene catalyst of Formula I: wherein each of R 1 to R 12 is independently a C 1 to C 20 alkyl, aryl or aralkyl group, a hydrogen, wherein at least one of R 4 to R 7 is not a hydrogen, wherein M is a Group 4 metal, and wherein, each X is independently a halide, C 1 to C 20 alkyl, aralkyl or hydrogen; and wherein A) R 5 and R 6 of Formula I together form a cycloalkyl group; or B) each of R 7 and R 4 of Formula I is independently a C 1 to C 20 alkyl; and (i) each R 1 , R 2 , R 3 of Formula I is a hydrogen; and/or (ii) each of R 5 and R 6 of Formula I is a hydrogen. A) R 5 and R 6 of Formula I together form a cycloalkyl group; or B) each of R 7 and R 4 of Formula I is independently a C 1 to C 20 alkyl; and (i) each R 1 , R 2 , R 3 of Formula I is a hydrogen; and/or (ii) each of R 5 and R 6 of Formula I is a hydrogen. (i) each R 1 , R 2 , R 3 of Formula I is a hydrogen; and/or (ii) each of R 5 and R 6 of Formula I is a hydrogen.
Sample taking kit (1; 101; 201), the sample kit (1; 101; 201) comprising: - a sample tube (5; 205; 315), the sample tube (5; 205; 315) comprising a container part for holding a sample and a cap for sealing the container part ; - a plastic foil instruction sheet (7; 107; 107; 207; 307), which instruction sheet (7; 107; 207; 307) provides information related to a sample taking process that involves use of the sample tube (5; 205; 315), which information is provided in the form of one or more documents held in one or more pockets of the instruction sheet (7; 107; 207; 307) and/or is printed on the instruction sheet (7; 107; 207; 307); characterized in that, the instruction sheet is provided with an injection molded support body (8; 108; 308) adapted to engage a bottom end of the sample tube (5; 205; 315) for supporting the sample tube (5; 205; 315) in an upright position on a support surface, e.g. a table top, wherein the support body and the bottom end of the sample tube are shaped such that they cooperate, i.e. have corresponding shapes that enable the bottom end of the sample tube to be received in, or at least to be coupled with, the support body, to enable the support body to support the sample tube in an upright position. - a sample tube (5; 205; 315), the sample tube (5; 205; 315) comprising a container part for holding a sample and a cap for sealing the container part ; - a plastic foil instruction sheet (7; 107; 107; 207; 307), which instruction sheet (7; 107; 207; 307) provides information related to a sample taking process that involves use of the sample tube (5; 205; 315), which information is provided in the form of one or more documents held in one or more pockets of the instruction sheet (7; 107; 207; 307) and/or is printed on the instruction sheet (7; 107; 207; 307); characterized in that, the instruction sheet is provided with an injection molded support body (8; 108; 308) adapted to engage a bottom end of the sample tube (5; 205; 315) for supporting the sample tube (5; 205; 315) in an upright position on a support surface, e.g. a table top, wherein the support body and the bottom end of the sample tube are shaped such that they cooperate, i.e. have corresponding shapes that enable the bottom end of the sample tube to be received in, or at least to be coupled with, the support body, to enable the support body to support the sample tube in an upright position.
A physiologically acceptable composition that comprises zinc gluconate and taurine, in a form suitable for topical use, for use in treating inflammation associated with a mucosal disorder or a dermal disorder in a human, wherein the composition lacks a standard amino acid and lacks a non-standard amino acid, wherein the mucosal disorder comprises a) mucositis that comprises inflammation of mucosa of the gastrointestinal tract, vagina, rectum, a nasal cavity, an ear, an ocular mucosa; b) oral stomatitis, oral mucositis, an oral ulceration, periodontitis, or a wound; or c) vaginal dryness, vaginal burning, dyspareunia, vulvar pruritus, vulvar burning, or atrophic vaginitis, and wherein the dermal disorder comprises diaper rash, skin dryness, dermatitis, eczema, erythema, acne, xerosis, or radical oxygen species-induced skin damage. a) mucositis that comprises inflammation of mucosa of the gastrointestinal tract, vagina, rectum, a nasal cavity, an ear, an ocular mucosa; b) oral stomatitis, oral mucositis, an oral ulceration, periodontitis, or a wound; or c) vaginal dryness, vaginal burning, dyspareunia, vulvar pruritus, vulvar burning, or atrophic vaginitis, and wherein the dermal disorder comprises diaper rash, skin dryness, dermatitis, eczema, erythema, acne, xerosis, or radical oxygen species-induced skin damage.
A power production method comprising operating first and second nested cycles utilising CO 2 as working fluid without mixing of working fluid between the nested cycles, the first cycle comprising a semi-open loop operating under low pressure conditions in which CO 2 is sub-critical, and the second cycle comprising a closed loop operating under higher pressure conditions in which CO 2 is supercritical; the first cycle operating in a Brayton cycle including oxycombustion of hydrocarbons, preferably LNG, in a combustion chamber under low pressure conditions, expansion for power production to provide a first power source, cooling in a recuperator , compression, reheating by counter-current passage via the said recuperator, and return of working fluid heated by the recuperator back to the combustion chamber; water and excess CO 2 resulting from said oxycombustion being separated from the first cycle; the first cycle serving as a source of heat for the second cycle by gas/gas heat exchange in a gas/gas heat exchanger which results in cooling of the products of combustion and circulating working fluid in the first cycle and heating of working fluid in said second cycle; the second cycle operating in a Brayton cycle including heating of working fluid in the second cycle by the said gas/gas heat exchanger, expansion for power generation to provide a second power source, cooling in two-stages by first and second recuperator steps, compression, reheating by counter-current passage via the first recuperator step, and return of working fluid heated by the first recuperator step back to the gas/gas heat exchanger; and working fluid in the first cycle following said compression step being heated by working fluid in the second cycle by counter-current passage via the second recuperator step.
Manufacturing process of concrete towers for wind turbines comprising: an execution stage of a first section of a concrete tower by means of a formwork system ; an execution stage of a second section of the concrete tower by means of the formwork system , where the execution stage of the second section is carried out at a height greater than the execution stage of the first section ; a construction stage of an intermediate transition section before the execution stage of the second section of the concrete tower; wherein the execution stage of the first section is an execution stage of a first cylindrical section with constant outer diameter and the execution stage of the second section is an execution stage of a second cylindrical section with constant outer diameter, wherein the outer diameter of the second cylindrical section is smaller than an outer diameter of the first cylindrical section ; the first and the second cylindrical sections are both executed in situ by means of a first climbing formwork system , so that it is not necessary to use a second climbing formwork system; the process further comprises, after the construction stage of the intermediate transition section and before the execution stage of the second cylindrical section , an adaption stage of an out formwork of the first climbing formwork system to the outer diameter of the second cylindrical section . an execution stage of a first section of a concrete tower by means of a formwork system ; an execution stage of a second section of the concrete tower by means of the formwork system , where the execution stage of the second section is carried out at a height greater than the execution stage of the first section ; a construction stage of an intermediate transition section before the execution stage of the second section of the concrete tower; wherein the execution stage of the first section is an execution stage of a first cylindrical section with constant outer diameter and the execution stage of the second section is an execution stage of a second cylindrical section with constant outer diameter, wherein the outer diameter of the second cylindrical section is smaller than an outer diameter of the first cylindrical section ; the first and the second cylindrical sections are both executed in situ by means of a first climbing formwork system , so that it is not necessary to use a second climbing formwork system; the process further comprises, after the construction stage of the intermediate transition section and before the execution stage of the second cylindrical section , an adaption stage of an out formwork of the first climbing formwork system to the outer diameter of the second cylindrical section .
An environmental control unit comprising a shell, a cooling device , a water pipe , a heating device , a controlling device, a sensor device, a safety protection device, an air purification device and a humidifying device ; Said shell comprises an inner shell and an outer shell, an air duct is formed between said outer shell and said inner shell ; Said cooling device is fixed on the inside wall of the inner shell, said heating device is fixed on the bottom wall of the inner shell, and said heating device is connected with the cooling device by the water pipe ; Said controlling device comprises a controller and a display device , said controller is set on the top of the heating device and fixed on the inside wall of the inner shell opposite to the cooling device , said display device is set on the top wall of the outer shell; Said sensor device comprises a temperature sensor, a humidity sensor and a PM sensor which are all set on the outside wall of the outer shell and connected to the controlling device, and further comprises a monitoring sensor set on inside wall of the inner shell; Said safety protection device comprises a lightning protection device set on the bottom of the inner shell, an anti-tipping device set on inside wall of the inner shell at the same side with the controller , a water level switch unit set in the heating device and an anti-creeping device set on the bottom of the inner shell; Said air purification device is set on the top of the controller ; Said humidifying device is set in the air purification device and fixed on the top wall of the inner shell; Said heating device , said air purification device and said humidifying device are electrically connected with the controlling device.
An apparatus for coupling to a probe and providing information regarding at least one structure, comprising: a rotatable imaging cap that includes an electronics arrangement which is configured to obtain the information and transmit the information wirelessly; the rotatable imaging cap comprising a motor to rotate the rotatable imaging cap ; and a structural connection configuration which is structured and configured to be attached to the probe and the rotatable imaging cap , so that the rotatable imaging cap is rotatable (i) on an external surface of the probe , and (ii) independently from the probe . a rotatable imaging cap that includes an electronics arrangement which is configured to obtain the information and transmit the information wirelessly; the rotatable imaging cap comprising a motor to rotate the rotatable imaging cap ; and a structural connection configuration which is structured and configured to be attached to the probe and the rotatable imaging cap , so that the rotatable imaging cap is rotatable (i) on an external surface of the probe , and (ii) independently from the probe .
A spectrum management system (10-4), comprising: circuitry configured to identify reference point information for a secondary communication system the secondary communication system being a system not authorized to use the spectrum resources (200-1, 200-2) when the spectrum resources are used by a primary system, determine spectrum resources for the secondary communication system based on whether the reference point information is positive or negative, wherein the reference point information includes at least one characteristic of another secondary communication system using the spectrum resources; wherein the reference point information is positive when the other secondary communication system has available spectrum resources for the secondary communication system. identify reference point information for a secondary communication system the secondary communication system being a system not authorized to use the spectrum resources (200-1, 200-2) when the spectrum resources are used by a primary system, determine spectrum resources for the secondary communication system based on whether the reference point information is positive or negative, wherein the reference point information includes at least one characteristic of another secondary communication system using the spectrum resources; wherein the reference point information is positive when the other secondary communication system has available spectrum resources for the secondary communication system.
An air gun for tuning the rise time of the primary pressure pulse from firing the air gun , comprising: a housing having an operating chamber and discharge ports ; a firing piston movable within the housing ; a firing chamber attached to the housing , wherein the average rising slope of the primary pressure pulse from firing the air gun is less than 40 Pa-m/s (0.4 bar-m/ms), characterized in that the firing chamber is made to a specific length of 0.343 meters for every one millisecond (1.126 feet per millisecond) adjustment of the rise time of the primary pressure pulse, and the firing chamber having a firing chamber seal adjacent an inner edge of the discharge ports providing zero acceleration distance. a housing having an operating chamber and discharge ports ; a firing piston movable within the housing ; a firing chamber attached to the housing , wherein the average rising slope of the primary pressure pulse from firing the air gun is less than 40 Pa-m/s (0.4 bar-m/ms), characterized in that the firing chamber is made to a specific length of 0.343 meters for every one millisecond (1.126 feet per millisecond) adjustment of the rise time of the primary pressure pulse, and the firing chamber having a firing chamber seal adjacent an inner edge of the discharge ports providing zero acceleration distance.
An individual self-contained breathing apparatus of closed cycle for underwater submergence comprising: - an air system, including a compensatory cylinder with compressed gas, a reducer and a manometer ; - a gas analyzing system, including sensors for determine the partial pressure of oxygen and carbon dioxide, the sensors are embedded between the reactors with cartridges with an oxygen regenerating agent and a breathing bag ; - a regenerative device including reactors with cartridges with an oxygen regenerating agent; - a breathing circuit including a face mask , a space under the face mask, a breathing bag , a valve for releasing pressure in the breathing circuit; - connecting air ducts for connecting the breathing circuit to the regenerative system and the air system; characterized in that, the apparatus comprises CO 2 cylinders for additional regeneration of carbon dioxide to oxygen, the cylinders connected to air ducts leading to the breathing bag . - an air system, including a compensatory cylinder with compressed gas, a reducer and a manometer ; - a gas analyzing system, including sensors for determine the partial pressure of oxygen and carbon dioxide, the sensors are embedded between the reactors with cartridges with an oxygen regenerating agent and a breathing bag ; - a regenerative device including reactors with cartridges with an oxygen regenerating agent; - a breathing circuit including a face mask , a space under the face mask, a breathing bag , a valve for releasing pressure in the breathing circuit; - connecting air ducts for connecting the breathing circuit to the regenerative system and the air system;
A compound, represented by Formula : Wherein, in Formula , R represents a linear, branched, or cyclic alkyl group having 1 to 4 carbon atoms.
An apparatus for opening and closing a discharge port for discharging air, the apparatus comprising: a plurality of covers configured to move in a radial direction of the discharge port, wherein a width of an opening of the discharge port is arranged to vary as the plurality of covers are moved, wherein the discharge port is open when the plurality of covers are arranged in a center region of the discharge port and the discharge port is closed when the plurality of covers are arranged at a predetermined position from the center of the discharge port, characterized in that at least two of the plurality of covers are arranged to move from a first position capable of covering a region corresponding to the discharge port to a second position capable of opening the region corresponding to the discharge port, and when a first cover of the at least two of the plurality of covers moves from the first position to the second position, a second cover of the at least two of the plurality of covers is controlled to not be moved from the first position to the second position. a plurality of covers configured to move in a radial direction of the discharge port, wherein a width of an opening of the discharge port is arranged to vary as the plurality of covers are moved, wherein the discharge port is open when the plurality of covers are arranged in a center region of the discharge port and the discharge port is closed when the plurality of covers are arranged at a predetermined position from the center of the discharge port, characterized in that at least two of the plurality of covers are arranged to move from a first position capable of covering a region corresponding to the discharge port to a second position capable of opening the region corresponding to the discharge port, and when a first cover of the at least two of the plurality of covers moves from the first position to the second position, a second cover of the at least two of the plurality of covers is controlled to not be moved from the first position to the second position.
A lithotripter for fragmenting urinary tract stones, the lithotripter comprising: a motor operable to produce a rotational motion, having an electromagnetic rotor disposed within a stator coil of the motor , the electromagnetic rotor rotating within the stator coil at times electrical energy is supplied to the stator coil ; a first cam coupled to the electromagnetic rotor, forming an integrated unit with the motor , the first cam including a first set of teeth , the rotational motion produced by the motor producing rotational motion of the first cam ; a second cam with a second set of teeth configured to selectively engage with the first set of teeth , selective engagement between the first set of teeth and the second set of teeth converting the rotational motion of the first cam generated by the motor to a linear waveform that is transmitted through the second cam ; a driver housing , wherein the motor , the first cam , and the second cam being disposed in the driver housing ; a biasing member positioned distally to the second cam between a distal end of the driver housing and the second cam , urging the second cam against the first cam ; and a wave guide shaft coupled to the second cam , the wave guide shaft transmitting the linear waveform to at least one urinary tract stone to break up the at least one urinary tract stone into fragments. a motor operable to produce a rotational motion, having an electromagnetic rotor disposed within a stator coil of the motor , the electromagnetic rotor rotating within the stator coil at times electrical energy is supplied to the stator coil ; a first cam coupled to the electromagnetic rotor, forming an integrated unit with the motor , the first cam including a first set of teeth , the rotational motion produced by the motor producing rotational motion of the first cam ; a second cam with a second set of teeth configured to selectively engage with the first set of teeth , selective engagement between the first set of teeth and the second set of teeth converting the rotational motion of the first cam generated by the motor to a linear waveform that is transmitted through the second cam ; a driver housing , wherein the motor , the first cam , and the second cam being disposed in the driver housing ; a biasing member positioned distally to the second cam between a distal end of the driver housing and the second cam , urging the second cam against the first cam ; and a wave guide shaft coupled to the second cam , the wave guide shaft transmitting the linear waveform to at least one urinary tract stone to break up the at least one urinary tract stone into fragments.