mhurhangee/ep-ind-claims huggingface dataset:
Distribution plate for a header box of a motor-vehicle heat exchanger, the plate having a transverse dimension and a longitudinal dimension and including: - a peripheral seat (16, 22, 24) for receiving sealing means arranged around the periphery of the distribution plate, - a plurality of through-holes for heat exchange pipes, at least one of the holes extending only partially along the transverse dimension of the plate, the distribution plate it also including at least: - a local protuberance for positioning the sealing means, delimiting a portion of the seat for receiving the sealing means, said local protuberance being located in line, in the transverse direction, with a through-hole for a pipe extending only partially along the transverse dimension of the plate, - a protuberant portion containing most of the through-holes for heat exchange pipes, and - a portion (12, 13) set back in relation to the protuberant portion, the set-back portion (12, 13) extending from the protuberant portion to a transverse edge of the plate, the peripheral seat (16, 22, 24) for receiving the sealing means being delimited by the local protuberance and by a groove delimited by the protuberant portion containing most of the through-holes for heat exchange pipes and the local protuberance being formed on the set-back portion (12, 13), the set-back portion potentially having an inclined plane. - a peripheral seat (16, 22, 24) for receiving sealing means arranged around the periphery of the distribution plate, - a plurality of through-holes for heat exchange pipes, at least one of the holes extending only partially along the transverse dimension of the plate, - a local protuberance for positioning the sealing means, delimiting a portion of the seat for receiving the sealing means, said local protuberance being located in line, in the transverse direction, with a through-hole for a pipe extending only partially along the transverse dimension of the plate, - a protuberant portion containing most of the through-holes for heat exchange pipes, and - a portion (12, 13) set back in relation to the protuberant portion, the set-back portion (12, 13) extending from the protuberant portion to a transverse edge of the plate, the peripheral seat (16, 22, 24) for receiving the sealing means being delimited by the local protuberance and by a groove delimited by the protuberant portion containing most of the through-holes for heat exchange pipes and the local protuberance being formed on the set-back portion (12, 13), the set-back portion potentially having an inclined plane.
A method for obtaining information on the presence or absence of a cancer cell derived from hepatocellular carcinoma in the biological sample collected from the subject comprising the steps of: preparing a DNA sample from a biological sample collected from a subject; analyzing the methylation status of a CpG site in a promoter region of at least one marker gene specific to hepatocellular carcinoma, the marker gene being selected from CELF6 and RNF135 in the DNA sample obtained from the preparation step, wherein the analyzing step is the step of analyzing the presence or absence of methylation of at least one CpG site in the promoter region corresponding to a region consisting of SEQ ID NO: 9 or 10 wherein U is replaced with C; or analyzing methylation frequency; and obtaining information on hepatocellular carcinoma in the subject based on an analysis result obtained from the analyzing step, wherein the biological sample contains a cancer cell derived from hepatocellular carcinoma when the analysis result shows that there is a methylated CpG site, or when the methylation frequency obtained from the analyzing step is higher than a predetermined threshold. preparing a DNA sample from a biological sample collected from a subject; analyzing the methylation status of a CpG site in a promoter region of at least one marker gene specific to hepatocellular carcinoma, the marker gene being selected from CELF6 and RNF135 in the DNA sample obtained from the preparation step, wherein the analyzing step is the step of analyzing the presence or absence of methylation of at least one CpG site in the promoter region corresponding to a region consisting of SEQ ID NO: 9 or 10 wherein U is replaced with C; or analyzing methylation frequency; and obtaining information on hepatocellular carcinoma in the subject based on an analysis result obtained from the analyzing step, wherein the biological sample contains a cancer cell derived from hepatocellular carcinoma when the analysis result shows that there is a methylated CpG site, or when the methylation frequency obtained from the analyzing step is higher than a predetermined threshold.
Method for detecting the edge profile of bottles or similar containers that are moved past a measuring and/or receiving region of a measuring and/or receiving system, using at least one opto-electric receiver (11, 20) on one side of the measuring and/or receiving region and using at least one light-emitting device (7, 8) which is on the side located opposite the receiver in the measuring and/or receiving region and which comprises at least one light source (7.1, 8.1) for emitting a light (9,16) which is variable in spectrum, with the at least one light-emitting device (7, 8) generating a parallel or essentially parallel light (9.2, 16.2) directed at the container which is moved through the measuring and/or receiving region, and whereby, using the parallel light (9.2, 16.2) of the at least one light-emitting device (7, 8), a silhouette of the respective container is generated on a screen for recording with the opto-electric receiver (11, 20) or with an opto-electric camera, for example with a CCD camera, characterised by the use of a screen which comprises a permeability characteristic such that it is only permeable for a light impinging on it in a given direction, for example only for vertically impinging light, there being filters (12, 13, 14) arranged in the optical path of the light of the at least one light-emitting device (7, 8) during the detecting of the edge profile of each container, and with the spectral range of the light of the at least one light-emitting device (7, 8) as well as the filters arranged in the optical path, or their permeability characteristic, being synchronously changed at least once.
Method for controlling an escape route marking lighting and/or an emergency lighting in a tunnel traveled by vehicles, using a system consisting of: - at least two control units, namely a first control unit and a second control unit, - at least one actuator, - at least one sensor, wherein the control units (SEI, SE2) generate control data for the actuator on the basis of the information from the sensor, wherein the actuator receives the control data of both the first control unit and the control data of the second control unit, wherein the actuator is configured such that it decides whether it uses the control data of the first or second control unit (SE1, SE2) for the execution of its actuator function, characterized in that, a) the at least one actuator is configured a 1) for turning the escape route marking lighting and/or the emergency lighting on and off a 2) for turning on and off parts of the escape route marking lighting and/or parts of the emergency lighting, b) the at least one sensor is configured b 1) for detecting the position and/or movement of vehicles or b 2) for detecting smoke and/or fire, c) the first control unit is arranged in the region of the tunnel entrance and the second control unit in the region of the tunnel exit. - at least two control units, namely a first control unit and a second control unit, - at least one actuator, - at least one sensor, a) the at least one actuator is configured a 1) for turning the escape route marking lighting and/or the emergency lighting on and off a 2) for turning on and off parts of the escape route marking lighting and/or parts of the emergency lighting, b) the at least one sensor is configured b 1) for detecting the position and/or movement of vehicles or b 2) for detecting smoke and/or fire, c) the first control unit is arranged in the region of the tunnel entrance and the second control unit in the region of the tunnel exit.
A fluid pumping arrangement for use in pumping a wellbore fluid from a subterranean location in a wellbore, the fluid pumping arrangement comprising: a flow actuated pump; a dual-walled coiled tubing running string for disposing the flow actuated pump into the wellbore, the dual-walled coiled tubing running string having: an inner coiled tubing string defining an inner coiled tubing central axial pathway along its length; and an outer coiled tubing string radially surrounding the inner coiled tubing string; wherein a first fluid flow path is defined within the inner coiled tubing string; a second fluid flow path is defined radially between the inner coiled tubing string and the outer coiled tubing string; a third fluid flow path is defined radially between the outer coiled tubing string and a wall of the wellbore; wherein power fluid for actuating the flow actuated pump is flowed to the flow actuated pump through the first fluid flow path; and characterized in that exhausted power fluid is flowed through the third fluid flow path and wellbore fluid is flowed through the second fluid flow path. a flow actuated pump; a dual-walled coiled tubing running string for disposing the flow actuated pump into the wellbore, the dual-walled coiled tubing running string having: an inner coiled tubing string defining an inner coiled tubing central axial pathway along its length; and an outer coiled tubing string radially surrounding the inner coiled tubing string; wherein a first fluid flow path is defined within the inner coiled tubing string; a second fluid flow path is defined radially between the inner coiled tubing string and the outer coiled tubing string; a third fluid flow path is defined radially between the outer coiled tubing string and a wall of the wellbore; wherein power fluid for actuating the flow actuated pump is flowed to the flow actuated pump through the first fluid flow path; and characterized in that exhausted power fluid is flowed through the third fluid flow path and wellbore fluid is flowed through the second fluid flow path. an inner coiled tubing string defining an inner coiled tubing central axial pathway along its length; and an outer coiled tubing string radially surrounding the inner coiled tubing string; wherein a first fluid flow path is defined within the inner coiled tubing string; a second fluid flow path is defined radially between the inner coiled tubing string and the outer coiled tubing string; a third fluid flow path is defined radially between the outer coiled tubing string and a wall of the wellbore; wherein power fluid for actuating the flow actuated pump is flowed to the flow actuated pump through the first fluid flow path; and characterized in that exhausted power fluid is flowed through the third fluid flow path and wellbore fluid is flowed through the second fluid flow path.
Thermal sorption method employing an evaporator, a condenser and a plurality of sorption units (37, 38), a sorption unit comprising in each case at least two sorption reactors (Ads1 and Ads2) each capable of performing an operating cycle with the evaporator and the condenser associated with this sorption unit, a reactor comprising a sorbent body capable of carrying out sorption of a working fluid in vapour phase, in which the operating cycle performed by each sorption reactor comprises: a depressurisation and sorption step to increase a rate of filling of the sorbent body by the working fluid, the depressurisation and sorption step comprising a depressurisation phase and a sorption phase, and a pressurisation and desorption step to reduce a rate of filling of the sorbent body by the working fluid, the pressurisation and desorption step comprising a pressurisation phase and a desorption phase, several of said sorption reactors within each sorption unit performing the operating cycle with a time lag, said thermal sorption method being characterised in that each sorption reactor within each unit carries out during the pressurisation and desorption step a first heat exchange with another sorption reactor of said unit to receive a heat flow from said other sorption reactor of said group and during the depressurisation and sorption step a second heat exchange to transfer a heat flow to said other sorption reactor, and in that a sorption reactor of the first unit carries out during the operating cycle a steam exchange with a sorption reactor of the second unit to receive steam from said sorption reactor of the second unit during a phase of pressurisation of the first sorption reactor of the unit and/or to yield steam to said sorption reactor of the second unit during a phase of depressurisation of the sorption reactor of the first unit, said sorption reactor of the first unit being in the pressurisation phase when the adsorption reactor of the second unit is in the depressurisation phase and said sorption reactor of the second unit being in the pressurisation phase when the sorption reactor of the first unit is in the depressurisation phase. a depressurisation and sorption step to increase a rate of filling of the sorbent body by the working fluid, the depressurisation and sorption step comprising a depressurisation phase and a sorption phase, and a pressurisation and desorption step to reduce a rate of filling of the sorbent body by the working fluid, the pressurisation and desorption step comprising a pressurisation phase and a desorption phase, several of said sorption reactors within each sorption unit performing the operating cycle with a time lag, said thermal sorption method being characterised in that each sorption reactor within each unit carries out during the pressurisation and desorption step a first heat exchange with another sorption reactor of said unit to receive a heat flow from said other sorption reactor of said group and during the depressurisation and sorption step a second heat exchange to transfer a heat flow to said other sorption reactor,
Speedometer, comprising a front face supporting a dial, a first pointer indicating the effective speed, rotated in front of the dial, a second pointer indicating a reference speed, rotated behind the dial and including an end portion visible at the periphery of the dial, and means for illuminating the two pointers (4, 11) and the dial, said speedometer being characterised in that the illumination means comprise a single light source common for the two pointers (4, 11) and the dial, and in that the support member of the dial is mounted on a light duct mounted in a first light box, the first indicating pointer conducts light, the second indicating pointer conducts light, mounted in a second light box to the rear of the first light box, a printed circuit board, whereon is mounted the light source, being provided to the rear of the second pointer.
A method of communication for an apparatus, comprising: identifying a first structure for scheduling first traffic within a unified frame structure, identifying a second structure for scheduling second traffic within the unified frame structure, the second traffic having a lower latency than the first traffic, wherein the second structure for scheduling the second traffic punctures at least a portion of the first traffic, wherein the first structure and the second structure are different in at least one of: transmission time intervals, TTIs, frequency bands, or control structures, and sending the first traffic and the second traffic according to the first structure and the second structure within the unified frame structure. identifying a first structure for scheduling first traffic within a unified frame structure, identifying a second structure for scheduling second traffic within the unified frame structure, the second traffic having a lower latency than the first traffic, wherein the second structure for scheduling the second traffic punctures at least a portion of the first traffic, wherein the first structure and the second structure are different in at least one of: transmission time intervals, TTIs, frequency bands, or control structures, and sending the first traffic and the second traffic according to the first structure and the second structure within the unified frame structure.
A forceps, comprising: an end effector assembly including first and second jaw members, at least one of the first and second jaw members moveable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members including a longitudinally-extending blade channel defined therein; and an electrical cutting insert releasably engageable within the blade channel of the at least one jaw member; wherein, the at least one jaw member is transitionable between a mechanical cutting mode, wherein the electrical cutting insert is disengaged from the at least one jaw member to permit reciprocation of a knife blade through the blade channel for mechanically cutting tissue grasped between the jaw members, and an electrical cutting mode, wherein the electrical cutting insert is engaged within the blade channel of the at least one jaw member for electrically cutting tissue grasped between the jaw members; wherein the electrical cutting insert is configured to snap-fit into engagement within the blade channel; and the forceps comprising the knife and a trigger, wherein in the mechanical cutting mode, the knife is advanceable from a retracted position to an extended position via activation of the trigger and through the blade channel to cut tissue grasped between the jaw members. an end effector assembly including first and second jaw members, at least one of the first and second jaw members moveable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members including a longitudinally-extending blade channel defined therein; and an electrical cutting insert releasably engageable within the blade channel of the at least one jaw member; wherein, the at least one jaw member is transitionable between a mechanical cutting mode, wherein the electrical cutting insert is disengaged from the at least one jaw member to permit reciprocation of a knife blade through the blade channel for mechanically cutting tissue grasped between the jaw members, and an electrical cutting mode, wherein the electrical cutting insert is engaged within the blade channel of the at least one jaw member for electrically cutting tissue grasped between the jaw members;
A method for the manufacturing an endoscope having the following method steps: - Providing a window (20, 64) having one lateral peripheral surface and two flat surfaces, wherein the window (20, 64) is provided with a metal coating on the lateral peripheral surface and/or in the edge region of a flat surface of the window (20, 64), and wherein a or the flat surface of the window (20, 64), preferably provided with the metal coating, is or will be provided with a solder preform, - Inserting the window (20, 64) provided with the solder preform into a window seat of an endoscope shaft of the endoscope, wherein in particular the flat surface of the window (20, 64) provided with the solder preform faces the interior space of the endoscope shaft or faces away from the interior space of the endoscope shaft, - Heating, preferably simultaneously heating, the solder preform at several points, or, preferably simultaneously, heating the entire solder preform with a heating device (50, 70) so that the flowable solder material of the solder preform is distributed between the window (20, 64) and the window seat and, after the solder material cools, solder is arranged between the window (20, 64) and the window seat. - Providing a window (20, 64) having one lateral peripheral surface and two flat surfaces, wherein the window (20, 64) is provided with a metal coating on the lateral peripheral surface and/or in the edge region of a flat surface of the window (20, 64), and wherein a or the flat surface of the window (20, 64), preferably provided with the metal coating, is or will be provided with a solder preform, - Inserting the window (20, 64) provided with the solder preform into a window seat of an endoscope shaft of the endoscope, wherein in particular the flat surface of the window (20, 64) provided with the solder preform faces the interior space of the endoscope shaft or faces away from the interior space of the endoscope shaft, - Heating, preferably simultaneously heating, the solder preform at several points, or, preferably simultaneously, heating the entire solder preform with a heating device (50, 70) so that the flowable solder material of the solder preform is distributed between the window (20, 64) and the window seat and, after the solder material cools, solder is arranged between the window (20, 64) and the window seat.
A prefabricated bamboo composite utility tunnel comprising a plurality of prefabricated tunnel units which are connected to one another, each tunnel unit comprising a tunnel body and a support component; wherein: each tunnel unit comprises a circular cross section; the tunnel body comprises a liner layer, a structural layer and an outer protective layer from inside to outside in a radial direction; the liner layer comprises a first flame-retardant resin and a flame-retardant fabric; the structural layer comprises at least a plurality of bamboo strip layers comprising winding bamboo strips to which a water-soluble resin is adhered; the outer protective layer comprises at least a second flame-retardant resin; and the support component is secured to an inner surface of the tunnel body. each tunnel unit comprises a circular cross section; the tunnel body comprises a liner layer, a structural layer and an outer protective layer from inside to outside in a radial direction; the liner layer comprises a first flame-retardant resin and a flame-retardant fabric; the structural layer comprises at least a plurality of bamboo strip layers comprising winding bamboo strips to which a water-soluble resin is adhered; the outer protective layer comprises at least a second flame-retardant resin; and the support component is secured to an inner surface of the tunnel body.