mhurhangee/patent-ind-claim-en huggingface dataset:
Valve comprising: - a valve housing having a plurality of fluid ports (A, P, T) which comprise at least one supply port (P) and at least one work port (A), - a control piston movable in the valve housing for controlling the fluid ports (A, P, T) and - an actuating device assuming various control states for the control piston , wherein, at least in one control state of the actuating device , the outlet pressure (p_actuator) in the work port (A) follows the changing inlet pressure (p_inlet) in the supply port (P) to a predefinable pressure level (p, p') by means of a pressure limiting device , wherein the control piston , in at least one control state of the actuating device , releases a fluid path from the supply port (P) to the work port (A), wherein the pressure limiting device additionally releases a further fluid path from the supply port (P) to a further fluid port, in particular a tank port (T), at an inlet pressure (p_inlet) exceeding an opening pressure, wherein inlet pressure components exceeding the opening pressure can be discharged via the further fluid path , wherein the pressure limiting device comprises a pretensioned, movable limiter piston which closes the further fluid path and releases it against the pretensioning force at the inlet pressure (p_inlet) corresponding to the opening pressure, characterised in that the valve has a valve insert , in that the limiter piston in addition to the control piston is arranged in a piston chamber of the valve insert , and in that , in the non-actuated control state of the actuating device , the limiter piston can be moved in the direction of a limit stop at the end of the piston chamber opposite the actuating device in order to release the further fluid path . - a valve housing having a plurality of fluid ports (A, P, T) which comprise at least one supply port (P) and at least one work port (A), - a control piston movable in the valve housing for controlling the fluid ports (A, P, T) and - an actuating device assuming various control states for the control piston ,
A method of modifying a target computer program installed on a computer system and stored on a storage device associated with the computer system , the computer system having system memory , the method comprising: establishing that a modifying application which is loaded into the system memory of the computer system has performed an update operation on the target computer program to generate and store a modified version of the target computer program on the storage device associated with the computer system ; determining if the modifying application , which is loaded into the system memory of the computer system and has performed an update operation on the target computer program which is stored on the storage device , is in a trusted state; and, if the determination is positive, generating a hash code of the modified version of the target computer program stored on the storage device , and storing this generated hash code as a new trusted hash code for the target program, in order to permit subsequent verification of the modified version as being in a trusted state. establishing that a modifying application which is loaded into the system memory of the computer system has performed an update operation on the target computer program to generate and store a modified version of the target computer program on the storage device associated with the computer system ; determining if the modifying application , which is loaded into the system memory of the computer system and has performed an update operation on the target computer program which is stored on the storage device , is in a trusted state; and, if the determination is positive, generating a hash code of the modified version of the target computer program stored on the storage device , and storing this generated hash code as a new trusted hash code for the target program, in order to permit subsequent verification of the modified version as being in a trusted state.
A snow thrower , comprising: a first drive shaft capable of rotating about a first axis ; an auger comprising auger blades mounted to the first drive shaft; a second drive shaft capable of rotating about a second axis ; an impeller comprising an impeller base mounted to the second drive shaft and impeller blades mounted to the impeller base, the second axis and the first axis being perpendicular to each other; a wheel assembly configured to support the snow thrower to enable the snow thrower to move on a ground; a first motor configured to drive the wheel assembly to rotate, the first motor comprising a first motor shaft that outputs power; a second motor configured to drive the auger to rotate about the first axis and drive the impeller to rotate about the second axis, the second motor comprising a second motor shaft (132 a) that outputs power; a first reduction assembly comprising a plurality of first-type gears for realizing power transmission between the second motor and the second drive shaft; and a second reduction assembly comprising a plurality of second-type gears for realizing power transmission between the second drive shaft and the first drive shaft; characterized in that said second motor shaft is located on a lower side of the second drive shaft . a first drive shaft capable of rotating about a first axis ; an auger comprising auger blades mounted to the first drive shaft; a second drive shaft capable of rotating about a second axis ; an impeller comprising an impeller base mounted to the second drive shaft and impeller blades mounted to the impeller base, the second axis and the first axis being perpendicular to each other; a wheel assembly configured to support the snow thrower to enable the snow thrower to move on a ground; a first motor configured to drive the wheel assembly to rotate, the first motor comprising a first motor shaft that outputs power; a second motor configured to drive the auger to rotate about the first axis and drive the impeller to rotate about the second axis, the second motor comprising a second motor shaft (132 a) that outputs power; a first reduction assembly comprising a plurality of first-type gears for realizing power transmission between the second motor and the second drive shaft; and a second reduction assembly comprising a plurality of second-type gears for realizing power transmission between the second drive shaft and the first drive shaft; characterized in that said second motor shaft is located on a lower side of the second drive shaft .
An aft frame assembly for a gas turbine transition piece , the aft frame assembly comprising: a main body comprising an upstream facing surface , a downstream facing surface and a seal slot ; a plurality of feed hole inlets located on the upstream facing surface, each of the feed hole inlets coupled to one of a plurality of cooling channels passing through the main body towards the downstream facing surface; characterised by a plurality of plenums located in or near the downstream facing surface, each of the plurality of cooling channels connected to and terminating in at least one of the plenums, the cooling channels are configured as inputs to the plenums; a plurality ofmicrochannels formed in or near the downstream facing surface, each of the plurality of microchannels connected to one of the plenums, two or more of the cooling channels and two or more of the microchannels are connected to one of the plenums, and the microchannels are configured as outputs of the plenums; and a plurality of exit channels connected to the microchannels, the exit channels are configured to exhaust flow out of an upstream facing surface of the seal slot or exhaust flow out of one or more exhaust slots formed in a side rail of the aft frame assembly. a main body comprising an upstream facing surface , a downstream facing surface and a seal slot ; a plurality of feed hole inlets located on the upstream facing surface, each of the feed hole inlets coupled to one of a plurality of cooling channels passing through the main body towards the downstream facing surface; characterised by a plurality of plenums located in or near the downstream facing surface, each of the plurality of cooling channels connected to and terminating in at least one of the plenums, the cooling channels are configured as inputs to the plenums; a plurality ofmicrochannels formed in or near the downstream facing surface, each of the plurality of microchannels connected to one of the plenums, two or more of the cooling channels and two or more of the microchannels are connected to one of the plenums, and the microchannels are configured as outputs of the plenums; and a plurality of exit channels connected to the microchannels, the exit channels are configured to exhaust flow out of an upstream facing surface of the seal slot or exhaust flow out of one or more exhaust slots formed in a side rail of the aft frame assembly.
Method for manufacturing an artificial climbing structure, comprising the steps of: a) providing a framework , suitable for supporting the artificial climbing structure; b) mounting at least one structural panel on the framework ; c) providing at least one coating panel , comprising patterns , the coating panel or panels having a total surface defining the set and the theme of the artificial climbing structure; d) mounting the coating panel on the structural panel removably, the coating panel being conformed geometrically to cover at least 50% of the surface of the structural panel ; e) mounting at least one climbing grip on the coating panel ; f) fixing the climbing grip to the structural panel , through the coating panel , and removably. a) providing a framework , suitable for supporting the artificial climbing structure; b) mounting at least one structural panel on the framework ; c) providing at least one coating panel , comprising patterns , the coating panel or panels having a total surface defining the set and the theme of the artificial climbing structure; d) mounting the coating panel on the structural panel removably, the coating panel being conformed geometrically to cover at least 50% of the surface of the structural panel ; e) mounting at least one climbing grip on the coating panel ; f) fixing the climbing grip to the structural panel , through the coating panel , and removably.
A hot press-formed article manufactured by hot press forming a galvanized steel sheet including a base steel sheet and a zinc-based plated layer formed on a surface of the base steel sheet, wherein the zinc-based plated layer includes at least one element selected from the group consisting of Sb, Sn, and Bi in a total amount of 0.05 to 2.0 wt%, and further includes 0.1 to 5.0 wt% of Al and 0.1 to 5.0 wt% of Mg, a balance of Zn, and inevitable impurities, and at least 70 wt% of the at least one element selected from the group consisting of Sb, Sn, Bi is concentrated in a region 3 μm or less away from a surface of an alloyed zinc-based plated layer, formed by alloying the zinc-based plated layer, of the hot press-formed article, and wherein a degree of alloying of Fe of the alloyed zinc-based plated layer is 30 to 85%.
Leak detector for checking the sealing tightness of an object to be tested, the leak detector comprising: - a detection inlet for connecting to an object to be tested, - a pumping device including: - a first rough vacuum pump (5; 19) including a first drive motor , at least one first pumping stage (T1, T2) and one second pumping stage (T3) mounted in series between an inlet and an outlet , - at least one second rough vacuum pump (6; 20) including a second drive motor , at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet , the inlets of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve , - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve , - a gas detector connected to the turbomolecular vacuum pump , characterized in that the outlet of the at least one second rough vacuum pump (6; 20) is connected to the first rough vacuum pump (5; 19), between two in-series pumping stages (T3, T4; T4, T5) of the first rough vacuum pump (5; 19). - a detection inlet for connecting to an object to be tested, - a pumping device including: - a first rough vacuum pump (5; 19) including a first drive motor , at least one first pumping stage (T1, T2) and one second pumping stage (T3) mounted in series between an inlet and an outlet , - at least one second rough vacuum pump (6; 20) including a second drive motor , at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet , the inlets of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve , - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve , - a first rough vacuum pump (5; 19) including a first drive motor , at least one first pumping stage (T1, T2) and one second pumping stage (T3) mounted in series between an inlet and an outlet , - at least one second rough vacuum pump (6; 20) including a second drive motor , at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet , the inlets of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve , - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve , - a gas detector connected to the turbomolecular vacuum pump ,
A method of dynamically verifying existing user accounts, the method comprising: monitoring an initial sequence of characters input by a user in a first text region in a user interface, wherein the initial sequence of characters corresponds to a user identifier ; detecting a specified character received in the first text region ; transmitting , in response to the detected specified character , the initial sequence of characters to a server computing device ; receiving hashed data and a complexity value from the server computing device , wherein the hashed data has been generated by a hashing function; monitoring an additional sequence of characters received in the first text region , wherein the additional sequence of characters is entered after the detected specified character ; hashing , using the hashing function, the initial sequence of characters , the specified character , and the additional sequence of characters to generate a result value, wherein the hashing is performed the specified number of times corresponding to the received complexity value; and in an event the result value is in the received hashed data, displaying a second text region for collecting from the user a password corresponding to the user identifier . monitoring an initial sequence of characters input by a user in a first text region in a user interface, wherein the initial sequence of characters corresponds to a user identifier ; detecting a specified character received in the first text region ; transmitting , in response to the detected specified character , the initial sequence of characters to a server computing device ; receiving hashed data and a complexity value from the server computing device , wherein the hashed data has been generated by a hashing function; monitoring an additional sequence of characters received in the first text region , wherein the additional sequence of characters is entered after the detected specified character ; hashing , using the hashing function, the initial sequence of characters , the specified character , and the additional sequence of characters to generate a result value, wherein the hashing is performed the specified number of times corresponding to the received complexity value; and in an event the result value is in the received hashed data, displaying a second text region for collecting from the user a password corresponding to the user identifier .
A computer-implemented method comprising: generating , using an image sensor, an image sequence, the image sequence comprising a plurality of frames including keyframes and non-keyframes, where keyframes are alternating images of the image sequence separated by one or more non-keyframe images; generating modified keyframe images by processing keyframe images from the image sequence using a machine learning scheme; generating modified non-keyframe images using flow maps generated between the non-keyframe images and preceding keyframe images, the modified non-keyframe images being generated by applying the flow maps to the modified keyframe images; and displaying , on a display device of the machine, a modified image sequence generated using refined modified keyframe images and refined modified non-keyframe images, characterized by : refining each of the modified keyframe images and non-keyframe images by using a guided filter using the corresponding image as a guide. generating , using an image sensor, an image sequence, the image sequence comprising a plurality of frames including keyframes and non-keyframes, where keyframes are alternating images of the image sequence separated by one or more non-keyframe images; generating modified keyframe images by processing keyframe images from the image sequence using a machine learning scheme; generating modified non-keyframe images using flow maps generated between the non-keyframe images and preceding keyframe images, the modified non-keyframe images being generated by applying the flow maps to the modified keyframe images; and displaying , on a display device of the machine, a modified image sequence generated using refined modified keyframe images and refined modified non-keyframe images, characterized by : refining each of the modified keyframe images and non-keyframe images by using a guided filter using the corresponding image as a guide.
A process for producing R-T-B-based rare earth magnet particles by HDDR treatment, comprising: a first stage HD step of heating particles of a raw material alloy to temperature range of not lower than 770°C and not higher than 820°C in an inert atmosphere or in a vacuum atmosphere and then replacing the atmosphere with a hydrogen-containing gas atmosphere in which the raw material alloy particles are held in the same temperature range for not shorter than 30 min and not longer than 150 min, said raw material alloy comprising R, wherein R represents at least one rare earth element including Y, T, wherein T represents Fe, or Fe and Co, and B, wherein B represents boron, and having a composition comprising R in an amount of not less than 12.5 atom% and not more than 14.3 atom%, B in an amount of not less than 4.5 atom% and not more than 7.5 atom% and Co in an amount of not more than 10 atom%; and a second stage HD step of heating a material obtained in the first stage HD step again to a temperature range or not lower than 830°C and not higher than 870°C in which the material is held in the hydrogen-containing gas atmosphere for not shorter than 60 min and not longer than 240 min. a first stage HD step of heating particles of a raw material alloy to temperature range of not lower than 770°C and not higher than 820°C in an inert atmosphere or in a vacuum atmosphere and then replacing the atmosphere with a hydrogen-containing gas atmosphere in which the raw material alloy particles are held in the same temperature range for not shorter than 30 min and not longer than 150 min, said raw material alloy comprising R, wherein R represents at least one rare earth element including Y, T, wherein T represents Fe, or Fe and Co, and B, wherein B represents boron, and having a composition comprising R in an amount of not less than 12.5 atom% and not more than 14.3 atom%, B in an amount of not less than 4.5 atom% and not more than 7.5 atom% and Co in an amount of not more than 10 atom%; and a second stage HD step of heating a material obtained in the first stage HD step again to a temperature range or not lower than 830°C and not higher than 870°C in which the material is held in the hydrogen-containing gas atmosphere for not shorter than 60 min and not longer than 240 min.
Method to operate a vacuum system comprising at least a first vacuum pump and a second vacuum pump , wherein the first vacuum pump and the second vacuum pump are connectable to a vacuum chamber to maintain a set pressure (Pset), wherein the first vacuum pump and second vacuum pump are variable speed drive pumps (VSD), wherein the first vacuum pump and the second vacuum pump are connected in series such that the outlet of the first vacuum pump is connected to the inlet of the second vacuum pump, and wherein the maximum pump rate of the first vacuum pump is 1.25 times to 4 times larger than the maximum pump rate of the second vacuum pump, the method comprises the steps of: controlling the performance of the first vacuum pump, wherein the performance of the first vacuum pump is controlled to be equal to or higher than the performance of the second vacuum pump while maintaining the set pressure in the vacuum chamber, and operating the first vacuum pump at maximum performance and operating the second vacuum pump in dependence on the pressure, if the pressure (P1) in the vacuum chamber is above the set pressure, wherein the performance of a vacuum pump is defined as one of: the ratio between the actual mass flow through the respective vacuum pump to the maximum mass flow through the respective vacuum pump; the ratio between the actual volumetric flow and the maximum volumetric flow of the respective vacuum pump; or the ratio between the actual rotational speed of the respective vacuum pump to the maximum rotational speed of the respective vacuum pump. controlling the performance of the first vacuum pump, wherein the performance of the first vacuum pump is controlled to be equal to or higher than the performance of the second vacuum pump while maintaining the set pressure in the vacuum chamber, and operating the first vacuum pump at maximum performance and operating the second vacuum pump in dependence on the pressure, if the pressure (P1) in the vacuum chamber is above the set pressure, wherein the performance of a vacuum pump is defined as one of: the ratio between the actual mass flow through the respective vacuum pump to the maximum mass flow through the respective vacuum pump; the ratio between the actual volumetric flow and the maximum volumetric flow of the respective vacuum pump; or the ratio between the actual rotational speed of the respective vacuum pump to the maximum rotational speed of the respective vacuum pump. the ratio between the actual mass flow through the respective vacuum pump to the maximum mass flow through the respective vacuum pump; the ratio between the actual volumetric flow and the maximum volumetric flow of the respective vacuum pump; or the ratio between the actual rotational speed of the respective vacuum pump to the maximum rotational speed of the respective vacuum pump.