mhurhangee/patent-ind-claim-en huggingface dataset:
An in-line occluder assembly comprising: a flexible tubing having a bore; a body ; an occluder , the occluder having a round cross-section and engaging the bore of the tubing to seal against the tubing and prevent flow past the tubing; characterised in that the assembly further comprises a stem connecting the body to the occluder, the stem having a 'T' shaped cross section in a plane perpendicular to the longitudinal axis of the tubing, wherein the stem comprises a side wall disposed along a side of the stem and a center web attached to the middle of the side wall and extending perpendicular thereto towards an opposite side of the stem, wherein the side wall is arranged on the side of the stem to which an actuator pad is applicable, thereby to enable a single flow passage to be created around the center web . a flexible tubing having a bore; a body ; an occluder , the occluder having a round cross-section and engaging the bore of the tubing to seal against the tubing and prevent flow past the tubing; characterised in that the assembly further comprises a stem connecting the body to the occluder, the stem having a 'T' shaped cross section in a plane perpendicular to the longitudinal axis of the tubing, wherein the stem comprises a side wall disposed along a side of the stem and a center web attached to the middle of the side wall and extending perpendicular thereto towards an opposite side of the stem, wherein the side wall is arranged on the side of the stem to which an actuator pad is applicable, thereby to enable a single flow passage to be created around the center web .
A container having a wall with a thickness defined by inner and outer surfaces , said inner surface defining an internal cavity for receiving fluid, the container having an opening through which fluid can enter/exit the container , said opening being connected to a fluid conduit at least a length of which extends through the wall in between the inner and outer surfaces thereof to form an integral inertance tube, which fluid conduit exits through the inner surface to communicate with the internal cavity .
A system for use in a rolling mill comprising: (a) a roll holder housing a plurality of rollers ; (b) a smart module coupled to the roll holder , the smart module comprising: a power source powering the smart module ; a microcontroller ; a motor , the motor , based on instructions from the microcontroller , controlling a position of the plurality rollers by moving the roll holder ; one or more position sensors , the one or more position sensors detecting the position of the roll holder ; and a communication module , the communication module communicating with a central controlling computer to: (i) communicate the position of the roll holder to the central controlling computer , and (ii) receive instructions from the central controlling computer to control the position of the roll holder ; and. (a) a roll holder housing a plurality of rollers ; (b) a smart module coupled to the roll holder , the smart module comprising: a power source powering the smart module ; a microcontroller ; a motor , the motor , based on instructions from the microcontroller , controlling a position of the plurality rollers by moving the roll holder ; one or more position sensors , the one or more position sensors detecting the position of the roll holder ; and a communication module , the communication module communicating with a central controlling computer to: (i) communicate the position of the roll holder to the central controlling computer , and (ii) receive instructions from the central controlling computer to control the position of the roll holder ; and. a power source powering the smart module ; a microcontroller ; a motor , the motor , based on instructions from the microcontroller , controlling a position of the plurality rollers by moving the roll holder ; one or more position sensors , the one or more position sensors detecting the position of the roll holder ; and a communication module , the communication module communicating with a central controlling computer to: (i) communicate the position of the roll holder to the central controlling computer , and (ii) receive instructions from the central controlling computer to control the position of the roll holder ; and.
A screening device for screening bulk material comprising: - a housing having at least two side parts , - the cross struts connecting at least two side parts which are designed to accommodate longitudinal struts supporting a screen lining and - the longitudinal struts supporting the screen lining , which are connected to the transverse struts by means of at least one clamping device , characterized in that the at least one clamping device has exactly one component which encloses a cross strut to at least 60% - preferably to 75% - with a clamping cross section, wherein the clamping cross section of the enclosing component can be changed in its size, preferably in a diameter, by clamping the longitudinal struts by at least one clamping element . - a housing having at least two side parts , - the cross struts connecting at least two side parts which are designed to accommodate longitudinal struts supporting a screen lining and - the longitudinal struts supporting the screen lining , which are connected to the transverse struts by means of at least one clamping device ,
A method, comprising: determining that a first media device is within a threshold distance of a second media device, while the first media device is playing first audio content, and the second audio device is playing second audio content, wherein the first audio content is different than the second audio content; and in response to the determining: causing at least a segment of the first audio content to be played on the second media device, and causing at least a segment of the second audio content to be played on the first media device; characterized in that the playing of the at least a segment of the first audio content on the second media device continues until a time limit is reached and the playing of the at least a segment of the second audio content on the first media device continues until the time limit is reachec , and upon determining that the time limit is reached, resuming playback of the first audio content on the first media device, and resuming playback of the second audio content on the second media device. determining that a first media device is within a threshold distance of a second media device, while the first media device is playing first audio content, and the second audio device is playing second audio content, wherein the first audio content is different than the second audio content; and in response to the determining: causing at least a segment of the first audio content to be played on the second media device, and causing at least a segment of the second audio content to be played on the first media device; causing at least a segment of the first audio content to be played on the second media device, and causing at least a segment of the second audio content to be played on the first media device; characterized in that the playing of the at least a segment of the first audio content on the second media device continues until a time limit is reached and the playing of the at least a segment of the second audio content on the first media device continues until the time limit is reachec , and upon determining that the time limit is reached, resuming playback of the first audio content on the first media device, and resuming playback of the second audio content on the second media device. the playing of the at least a segment of the first audio content on the second media device continues until a time limit is reached and the playing of the at least a segment of the second audio content on the first media device continues until the time limit is reachec , and upon determining that the time limit is reached, resuming playback of the first audio content on the first media device, and resuming playback of the second audio content on the second media device.
A process for the dehydrogenation of alkanes, alkenes or alkyl benzenes to the corresponding unsaturated chemical products and hydrogen (H 2 ), comprising contacting the alkane, alkene or alkyl benzene with a metallic sulfide (MeS) catalyst, wherein - the dehydrogenation is conducted in one or more dehydrogenation reactors in the presence of hydrogen sulfide (H 2 S) without formation of H 2 S as a reaction product, - steam (H 2 O) represents below 10% (vol. flow) of the gas used as carrier gas for the alkanes, alkenes or alkyl benzenes, - the molar ratio of hydrogen sulfide to alkanes, alkenes or alkyl benzene is between 0.01 and 0.2, - the molar ratio of hydrogen sulfide (H 2 S) to hydrogen (H 2 ) is between 0.01 and 0.2, and - either benzene, toluene or combinations thereof or methane, ethane or combinations thereof are used as carrier gas. - the dehydrogenation is conducted in one or more dehydrogenation reactors in the presence of hydrogen sulfide (H 2 S) without formation of H 2 S as a reaction product, - steam (H 2 O) represents below 10% (vol. flow) of the gas used as carrier gas for the alkanes, alkenes or alkyl benzenes, - the molar ratio of hydrogen sulfide to alkanes, alkenes or alkyl benzene is between 0.01 and 0.2, - the molar ratio of hydrogen sulfide (H 2 S) to hydrogen (H 2 ) is between 0.01 and 0.2, and - either benzene, toluene or combinations thereof or methane, ethane or combinations thereof are used as carrier gas.
A snowboard binding, comprising a base , a spoiler which rotates around a first axis of rotation (A1) carried by the base , a pedal and a strap which controls the spoiler during entry and exit respectively, between an open position and a closed position, in which the spoiler comprises a shell base and two shell sides , the pedal rotates with respect to the two shell sides , the strap is bound to the pedal or the spoiler , characterised in that the shell base or the base comprises a hinged bearing mounted around the axis of rotation (A1), the hinged bearing comprising an axis carried by the base or the shell base respectively and inserted in the hinged bearing , said hinged bearing acting as a guiding boot stop in any position of the spoiler between the open position and the closed position, during entry and exit.
An industrial salt manufacturing apparatus comprising: an extracting device for extracting a part of combustion gas from a kiln exhaust gas passage running from an inlet end of a cement kiln to a bottom cyclone; a dust collector for recovering dust in a gas extracted by the extracting device; a washing device for washing dust recovered by the dust collector; and a spray drier for drying a filtrate generated by washing in the washing device in a gas stream to obtain an industrial salt, wherein no electrodeposition device and no crystallizer are comprised. an extracting device for extracting a part of combustion gas from a kiln exhaust gas passage running from an inlet end of a cement kiln to a bottom cyclone; a dust collector for recovering dust in a gas extracted by the extracting device; a washing device for washing dust recovered by the dust collector; and a spray drier for drying a filtrate generated by washing in the washing device in a gas stream to obtain an industrial salt, wherein no electrodeposition device and no crystallizer are comprised.
A method, performed by a core network node of a wireless communications network , the wireless communications network further comprising a first gNB and a second gNB , wherein a wireless device, WD , is connected to the first gNB , and wherein there is a first Packet Data Unit, PDU, session established between the WD and a Data Network, DN , over a first User Plane Function, UPF , the DN comprising an application server, AS , the method comprising: obtaining information regarding a predicted positional change of the WD indicating a new future position of the WD ; selecting a second UPF which is more suitable than the first UPF for transmission of data between the application server and the WD for the new future position, wherein the second UPF is selected based on a geographic position of the new future position of the WD , and one or more of latency, data rate and cheaper transport; sending to the WD an instruction to establish a second PDU session over the second UPF ; in response to the triggering establishment of the second PDU session over the second UPF , triggering a first move of packet flows from the first PDU session to the second PDU session, wherein low-latency packet flows are moved during the first move; receiving a handover indication; and based on the receiving a handover indication, triggering a second move of packet flows from the first PDU session to the second PDU session, wherein the remaining packet flows are moved during the second move. obtaining information regarding a predicted positional change of the WD indicating a new future position of the WD ; selecting a second UPF which is more suitable than the first UPF for transmission of data between the application server and the WD for the new future position, wherein the second UPF is selected based on a geographic position of the new future position of the WD , and one or more of latency, data rate and cheaper transport; sending to the WD an instruction to establish a second PDU session over the second UPF ; in response to the triggering establishment of the second PDU session over the second UPF , triggering a first move of packet flows from the first PDU session to the second PDU session, wherein low-latency packet flows are moved during the first move; receiving a handover indication; and based on the receiving a handover indication, triggering a second move of packet flows from the first PDU session to the second PDU session, wherein the remaining packet flows are moved during the second move.
A correcting device comprising: a timing signal reception unit which is configure to receive a timing signal that defines an operation timing of a drive unit of an injection molding machine controlled by a molding machine controller from the molding machine controller of the injection molding machine via a predetermined network; a timing setting unit which is configured to set a detection timing at which a detection value is detected by a detector in the injection molding machine based on the timing signal received by the timing signal reception unit; a detection value acquisition unit which is configured to acquire the detection value detected by the detector at the detection timing set by the timing setting unit; and a correction value calculation unit which is configured to calculate a correction value of a set value of molding conditions of the injection molding machine based on a comparison between the detection value of the detector acquired by the detection value acquisition unit and a target value such that a deviation between the detection value and the target value becomes small. a timing signal reception unit which is configure to receive a timing signal that defines an operation timing of a drive unit of an injection molding machine controlled by a molding machine controller from the molding machine controller of the injection molding machine via a predetermined network; a timing setting unit which is configured to set a detection timing at which a detection value is detected by a detector in the injection molding machine based on the timing signal received by the timing signal reception unit; a detection value acquisition unit which is configured to acquire the detection value detected by the detector at the detection timing set by the timing setting unit; and a correction value calculation unit which is configured to calculate a correction value of a set value of molding conditions of the injection molding machine based on a comparison between the detection value of the detector acquired by the detection value acquisition unit and a target value such that a deviation between the detection value and the target value becomes small.
Laser assembly comprising a converter designed as a fiber laser for generating a converted laser output radiation, and comprising a pump source supplying a pump radiation for the converter , said pump source comprising multiple laser diodes generating the pump radiation which are each formed by emitters on laser bars , wherein the pump source has a beam shaping optics for shaping the laser beams supplied by the emitters into the pump radiation, at least two laser bars are arranged in the pump source above one another in at least one diode laser stack in a third axis (Z axis) corresponding to a fast axis, which is oriented perpendicular to a first and second axes, the emitters of said laser bars being provided one following the other in the first axis direction (Y axis) corresponding to a slow axis and which are arranged with their active layers in a respective plane (XY plane) which includes the first axis (Y axis) and the second axis (X axis) perpendicular thereto, and, in the beam path following the diode laser stack , the beam shaping optics has a first optical device for fanning out the laser beams in the third axis which are supplied by the emitters of each laser bar , and a second optical device , adjacent to the first optical device and with which the fanned out laser beams (7.1) from all laser bars are combined through superimposition in the direction of the first axis (Y axis) into a laser beam bundle (7.2), wherein the converter comprises a multi-layer converter fiber with an inner active fiber made from a light conducting material and doped with a laser active medium or material, which is accommodated in the interior (21.3) of a tubular or hose-like sheath which extends across the entire length of the fiber and can be flowed through by a liquid cooling medium, wherein the converter fiber is provided on each of its two ends with a connection, consisting of a light-conducting material, in the shape of an end cap for coupling in and/or coupling out the pump radiation and the converted radiation, said end caps each extend with a partial length into the interior (21.3) of the sheath for their cooling, and are annealed with an antireflection coating for the pump radiation and the converted radiation, and are connected to the active fiber by means of a splice connection.
Process for producing a ferritic hot-rolled strip in an integrated casting-rolling plant , comprising the steps: continuous casting of a liquid steel to give a strip having a slab or thin slab cross section in a continuous casting plant (2, CCM); prerolling of the strip to give an intermediate strip in a multipart roughing stand ; heating of the broad sides of the intermediate strip by one or preferably more inductive surface heating modules to a surface temperature of ≥ 1000°C, preferably ≥ 1050°C, where a surface heating module is operated using an alternating current having a first frequency f1 and the first frequency f1 obeys: f1 ≥ 20 kHz, preferably f1 ≥ 50 kHz, particularly preferably f1 ≥ 100 kHz; descaling of the broad sides of the heated intermediate strip in a descaling apparatus (D); final rolling of the descaled intermediate strip to give the hot-rolled strip in a multipart finishing stand , where the descaled intermediate strip after descaling and without further cooling enters a first set (F1) of the finishing stand with an average temperature of 775-900°C and at least the last rolling pass (F5) in the finishing stand takes place in the ferritic temperature range of the steel; setting of the hot-rolled strip to coiler temperature; and winding-up of the hot-rolled strip in a coiler (15, DC). continuous casting of a liquid steel to give a strip having a slab or thin slab cross section in a continuous casting plant (2, CCM); prerolling of the strip to give an intermediate strip in a multipart roughing stand ; heating of the broad sides of the intermediate strip by one or preferably more inductive surface heating modules to a surface temperature of ≥ 1000°C, preferably ≥ 1050°C, where a surface heating module is operated using an alternating current having a first frequency f1 and the first frequency f1 obeys: f1 ≥ 20 kHz, preferably f1 ≥ 50 kHz, particularly preferably f1 ≥ 100 kHz; descaling of the broad sides of the heated intermediate strip in a descaling apparatus (D); final rolling of the descaled intermediate strip to give the hot-rolled strip in a multipart finishing stand , where the descaled intermediate strip after descaling and without further cooling enters a first set (F1) of the finishing stand with an average temperature of 775-900°C and at least the last rolling pass (F5) in the finishing stand takes place in the ferritic temperature range of the steel; setting of the hot-rolled strip to coiler temperature; and winding-up of the hot-rolled strip in a coiler (15, DC).
A hot rolled steel sheet comprising a composition containing, on a mass percent basis: 0.03% to 0.10% C; 0.10% to 0.50% Si; 1.4% to 2.2% Mn; 0.025% or less P; 0.005% or less S; 0.005% to 0.10% Al; 0.02% to 0.10% Nb; 0.001% to 0.030% Ti; 0.05% to 0.50% Mo; 0.05% to 0.50% Cr; 0.01% to 0.50% Ni; and further optionally one or more selected from 0.50% or less Cu; 0.10% or less V; 0.0005% or less B; and 0.0005% to 0.0050% Ca, and the balance being Fe and incidental impurities; and a microstructure including a main phase that contains bainitic ferrite and a secondary phase that contains massive martensite having an aspect ratio of less than 5.0 in an area ratio of 1.4% to 15%, wherein the average grain size of the bainitic ferrite is 10 μm or less, wherein the composition is such that Moeq defined by expression described below satisfies the range of 1.5% to 2.2% by mass, Moeq % = Mo + 0.36 ⁢ Cr + 0.77 ⁢ Mn + 0.07 ⁢ Ni where Mn, Ni, Cr, and Mo represent the respective contents (% by mass). 0.03% to 0.10% C; 0.10% to 0.50% Si; 1.4% to 2.2% Mn; 0.025% or less P; 0.005% or less S; 0.005% to 0.10% Al; 0.02% to 0.10% Nb; 0.001% to 0.030% Ti; 0.05% to 0.50% Mo; 0.05% to 0.50% Cr; 0.01% to 0.50% Ni; and further optionally one or more selected from 0.50% or less Cu; 0.10% or less V; 0.0005% or less B; and 0.0005% to 0.0050% Ca, and the balance being Fe and incidental impurities; and a microstructure including a main phase that contains bainitic ferrite and a secondary phase that contains massive martensite having an aspect ratio of less than 5.0 in an area ratio of 1.4% to 15%, wherein the average grain size of the bainitic ferrite is 10 μm or less, wherein the composition is such that Moeq defined by expression described below satisfies the range of 1.5% to 2.2% by mass,