mhurhangee/ep-ind-claims huggingface dataset:
An integrated hermetically sealed turboexpander-generator, comprising: a hermetically sealed casing arrangement (23; 23.1, 23.2); a turboexpander (25; 25.1, 25.2) arranged in the hermetically sealed casing arrangement; a fluid pressurizing turbomachine (27; 27.1, 27.2), arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); and an electric generator, arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); wherein: the turboexpander (25; 25.1, 25.2), the fluid pressurizing turbomachine (27; 27.1, 27.2) and the electric generator are arranged on a common shaft line (31; 31.1, 31.2), comprising at least one shaft rotatingly supported by active magnetic bearings (41, 41.1-41.5) in the hermetically sealed casing arrangement (23; 23.1, 23.2); and at least one of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between bearings of the active magnetic bearings; characterized in that the electric generator is arranged between bearings of the active magnetic bearings (41.1, 41.2) at one end of the common shaft line (31; 31.1, 31.2); wherein the turboexpander (25; 25.1, 25.2) is arranged in a central position between the electric generator and the fluid pressurizing turbomachine (27; 27.1, 27.2); and wherein each of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between respective bearings of the active magnetic bearings (41, 41.1-41.5). a hermetically sealed casing arrangement (23; 23.1, 23.2); a turboexpander (25; 25.1, 25.2) arranged in the hermetically sealed casing arrangement; a fluid pressurizing turbomachine (27; 27.1, 27.2), arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); and an electric generator, arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); the turboexpander (25; 25.1, 25.2), the fluid pressurizing turbomachine (27; 27.1, 27.2) and the electric generator are arranged on a common shaft line (31; 31.1, 31.2), comprising at least one shaft rotatingly supported by active magnetic bearings (41, 41.1-41.5) in the hermetically sealed casing arrangement (23; 23.1, 23.2); and at least one of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between bearings of the active magnetic bearings; characterized in that the electric generator is arranged between bearings of the active magnetic bearings (41.1, 41.2) at one end of the common shaft line (31; 31.1, 31.2); wherein the turboexpander (25; 25.1, 25.2) is arranged in a central position between the electric generator and the fluid pressurizing turbomachine (27; 27.1, 27.2); and wherein each of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between respective bearings of the active magnetic bearings (41, 41.1-41.5).
A low-pressure exhaust gas recirculation valve for introducing and controlling an exhaust gas recirculation flow and a fresh air flow, said valve having, in a housing, a fresh air feed channel, an exhaust gas feed channel and a discharge channel connected to both, wherein the connection of the fresh air feed channel to the discharge channel is controlled via a first valve in the housing and the connection of the exhaust gas feed channel to the discharge channel is controlled via a second valve in the housing, wherein the first valve and the second valve are combined to form a single valve unit with a single valve member, which has a first valve body, which cooperates with at least one associated first valve seat of the fresh air feed channel, and a second valve body, which cooperates with at least one associated second valve seat (31, 34) of the exhaust gas feed channel, wherein the first valve body and the second valve body are combined to form a single valve body, which on an axial side has at least one first valve face, which is associated with the at least one first valve seat, and on the opposite axial side has at least one second valve face, which is associated with the at least one second valve seat, wherein the single valve body is formed as an approximately cylindrical sleeve, at the two ends of which the valve faces (27, 28) are formed, characterised in that the valve unit has, acting thereon, a single drive unit in the housing for actuation of the single valve member, and in that the first valve seat of the fresh air feed channel is formed from an axial stop face, which is associated with and faces towards an end face of the sleeve and is formed on the outer circumferential surface of an inner housing body, said inner housing body containing the drive unit and extending with its circumferential surface at a radial distance from a jacket of the housing and delimiting, together with the jacket, a mixing chamber and/or the discharge channel.
Boot for a sports shoe, comprising a top section, a bottom section and a connecting area between the top section and the bottom section, with the bottom section being equipped with a joint located close to the connecting area, said joint being equipped with a series of substantially vertical strips separated by slots passing through the thickness of the boot, characterised in that said series of strips delimits a bending area that is raised, forming on the bottom section a tongue extending upwards and centred on the median axis of the heel.
High Young's modulus steel sheet having a longitudinal Young's modulus measured by the static tension method of 220 GPa or more, consisting of, mass%, C: 0.005 to 0.200%, Si: 2.50% or less, Mn: 0.10 to 3.00%, P: 0.150% or less, S: 0.0150% or less, Al: 0.010 to 0.150%, N: 0.0005 to 0.0100%, Nb: 0.005 to 0.100%, and Ti: 0.002 to 0.150%, optionally one or more of Mo: 0.01 to 1.00%, Cr: 0.01 to 3.00%, W: 0.01 to 3.00%, Cu: 0.01 to 3.00%, Ni: 0.01 to 3.00%, B: 0.0005 to 0.0100%, Ca: 0.0005 to 0.1000%, Rem: 0.0005 to 0.1000%, and V: 0.001 to 0.100% satisfying the formula 1, having a balance of Fe and unavoidable impurities, having a sum of the X-ray random intensity ratio of the <001> orientation and the X-ray random intensity ratio of the <001> orientation of 5 or less at a position of a direction from the surface of the steel sheet in the sheet thickness direction of 1/6 of the sheet thickness, and having a sum of the maximum value of the X-ray random intensity ratios of the <111> to <112> orientation group and the X-ray random intensity ratio of the <111> orientation of 5 or more: Ti − 48 / 14 × N ≥ 0.0005 where, Ti and N are the contents (mass%) of the elements. C: 0.005 to 0.200%, Si: 2.50% or less, Mn: 0.10 to 3.00%, P: 0.150% or less, S: 0.0150% or less, Al: 0.010 to 0.150%, N: 0.0005 to 0.0100%, Nb: 0.005 to 0.100%, and Ti: 0.002 to 0.150%, optionally one or more of Mo: 0.01 to 1.00%, Cr: 0.01 to 3.00%, W: 0.01 to 3.00%, Cu: 0.01 to 3.00%, Ni: 0.01 to 3.00%, B: 0.0005 to 0.0100%, Ca: 0.0005 to 0.1000%, Rem: 0.0005 to 0.1000%, and V: 0.001 to 0.100%
A powder coating material composed of a powder of a composition comprising a fluororesin and at least one anti-staining agent selected from the following salt: a sodium dialkyl sulfosuccinate or a sodium alkyl benzene sulfonate.
A smart entry system comprising: a portable unit configured to transmit and receive a signal; and a vehicular apparatus installed in a vehicle; characterized by a headset configured to perform a wireless communication with the portable unit, and to perform at least part of locking controls and unlocking controls on the vehicle by wirelessly communicating authentication signals between the portable unit and the vehicular apparatus bidirectionally, wherein the headset comprises: at least one hole through which a sound pressure is input; a sound conversion element which is disposed behind the hole and converts the sound pressure into an electrical signal; and a voice recognition device configured to process the electrical signal obtained by the conversion using a predetermined particular spoken voice as a voice key; wherein the headset transmits an input signal of the voice key to the portable unit by a wireless communication; and wherein the portable unit instructs the vehicular apparatus on at least part of operations of the vehicle by radio. a portable unit configured to transmit and receive a signal; and a vehicular apparatus installed in a vehicle; characterized by a headset configured to perform a wireless communication with the portable unit, and to perform at least part of locking controls and unlocking controls on the vehicle by wirelessly communicating authentication signals between the portable unit and the vehicular apparatus bidirectionally, wherein the headset comprises: at least one hole through which a sound pressure is input; a sound conversion element which is disposed behind the hole and converts the sound pressure into an electrical signal; and a voice recognition device configured to process the electrical signal obtained by the conversion using a predetermined particular spoken voice as a voice key; at least one hole through which a sound pressure is input; a sound conversion element which is disposed behind the hole and converts the sound pressure into an electrical signal; and a voice recognition device configured to process the electrical signal obtained by the conversion using a predetermined particular spoken voice as a voice key; wherein the headset transmits an input signal of the voice key to the portable unit by a wireless communication; and wherein the portable unit instructs the vehicular apparatus on at least part of operations of the vehicle by radio.
A blood circulation system that can be connected to a human body, and is configured to transfer removed blood to the human body via a blood transfer pump, the system comprising: the blood transfer pump; a blood removal line configured to allow removed blood to flow to the blood transfer pump; a blood transfer line (104, 106) configured to transfer blood, which is sent from the blood transfer pump, to the human body; a blood removal rate measurement means that is provided in the blood removal line and is configured to measure a blood removal rate; and a control unit configured to control a blood transfer rate of the blood transfer pump, wherein the control unit is configured to be capable of detecting that the blood removal rate deviates from a blood removal condition set in advance; and characterized in that the control unit is capable of performing linked control of the blood transfer pump in correspondence with the blood removal rate such that the blood transfer rate of the blood transfer pump is in a specific range of the blood removal rate measured by the blood removal rate measurement means. the blood transfer pump; a blood removal line configured to allow removed blood to flow to the blood transfer pump; a blood transfer line (104, 106) configured to transfer blood, which is sent from the blood transfer pump, to the human body; a blood removal rate measurement means that is provided in the blood removal line and is configured to measure a blood removal rate; and a control unit configured to control a blood transfer rate of the blood transfer pump, wherein the control unit is configured to be capable of detecting that the blood removal rate deviates from a blood removal condition set in advance; and characterized in that the control unit is capable of performing linked control of the blood transfer pump in correspondence with the blood removal rate such that the blood transfer rate of the blood transfer pump is in a specific range of the blood removal rate measured by the blood removal rate measurement means.
Pipe, especially exhaust gas-guiding pipe for an exhaust system of an internal combustion engine, wherein a connection area is provided at at least one axial pipe end for connecting the pipe extending in the direction of a pipe longitudinal axis to another pipe to be pushed into the connection area, wherein the connection area comprises two slots (18a, 18b), wherein each of the two slots (18a, 18b) has a first slot area (20a, 20b) located closer to the pipe end and open in the direction of the pipe longitudinal axis and a second slot area (22a, 22b), which is located axially farther away from the pipe end and is offset in the circumferential direction in relation to the first slot area (20a, 20b), wherein the first slot areas (20a, 20b) and the second slot areas (22a, 22b) are limited in the circumferential direction by an inner slot edge (32a, 36a, 32b, 36b) facing the respective other slot (18a, 18b) and by an outer slot edge (30a, 34a, 30b, 34b) facing away from the respective other slot (18a, 18b), wherein the inner slot edges (32a, 36a, 32b, 36b) of the first and second slot areas (20a, 22a, 20b, 22b) of the two slots (18a, 18b) are connected to one another by inner transition edges (40a, 40b); and the outer slot edges (30a, 34a, 30b, 34b) of the first and second slot areas (20a, 22b, 20b, 22b) of the two slots (18a, 18b) are connected to one another by outer transition edges (38a, 38b), wherein the inner transition edge (40a, 40b) or/and the outer transition edge (38a, 38b) of both slots (18a, 18b) is bent at an angle in relation to a reference line extending in the circumferential direction, characterized in that the two slots (18a, 18b) have an essentially mirror-symmetric configuration in relation to a symmetry axis that is essentially parallel to the pipe longitudinal axis and that the second slot areas (22a, 22b) of the two slots (18a, 18b) are offset in the circumferential direction towards one another or away from each other in relation to the first slot areas (20a, 20b).
A protein comprising a polypeptide comprising the amino acid sequence of: wherein: Xaa 33 is D; Xaa 37 is A; Xaa 60 is E; Xaa 65 is Y or G; Xaa 86 is I or L; Xaa 87 is V; Xaa 89 is T or A; Xaa 91 is V; Xaa 93 is F or V; Xaa 94 is I; Xaa 110 is G; Xaa 114 is V or M; Xaa 120 is S; Xaa 128 is Y, For W; Xaa 132 is V; and Xaa 134 is R.
A secondary battery pack, comprising: a plurality of cylindrical battery cells arranged in one direction and having electrode terminals respectively formed at one end and the other end thereof; a connection plate configured to electrically connect the plurality of cylindrical battery cells with each other; a pack housing having an inner space in which the plurality of cylindrical battery cells are mounted so that the electrode terminals are located in a horizontal direction; a thermally conductive resin interposed between an inner surface of the pack housing forming the inner space and an outer surface of the plurality of cylindrical battery cells; and a cell frame configured to surround an upper portion of the plurality of cylindrical battery cells and at least a portion of outer surfaces of both ends of the plurality of cylindrical battery cells at which the electrode terminals are formed, the cell frame having an opening through which the electrode terminals are exposed out, characterized in that the cell frame has a coating prevention part formed to protrude outward from at least a portion of a rim of the opening. a plurality of cylindrical battery cells arranged in one direction and having electrode terminals respectively formed at one end and the other end thereof; a connection plate configured to electrically connect the plurality of cylindrical battery cells with each other; a pack housing having an inner space in which the plurality of cylindrical battery cells are mounted so that the electrode terminals are located in a horizontal direction; a thermally conductive resin interposed between an inner surface of the pack housing forming the inner space and an outer surface of the plurality of cylindrical battery cells; and a cell frame configured to surround an upper portion of the plurality of cylindrical battery cells and at least a portion of outer surfaces of both ends of the plurality of cylindrical battery cells at which the electrode terminals are formed, the cell frame having an opening through which the electrode terminals are exposed out,
A method of converting gas condensate into a product stream comprising propylene, the method comprising: feeding gas condensate at a top region of a downflow high severity fluidized catalytic cracking reactor (HSFCC), the gas condensate comprising at least 50% by weight paraffins; feeding catalyst to the top region of the downflow HSFCC reactor in an amount characterized by a catalyst to gas condensate weight ratio of 5:1 to 40:1, where the catalyst comprises nano ZSM-5 zeolite catalyst having an average particle diameter from 0.01 to 0.2 μm, a Si/Al molar ratio from 20 to 40, and a surface area of at least 20 cm 2 /g and preferably a surface area of at least 30 cm 2 /g; and cracking the gas condensate in the presence of the catalyst at a reaction temperature of 500° C to 700° C, preferably 550° C to 630° C, to produce the product stream comprising propylene; and optionally further comprising adding steam to the top region of the downflow HSFCC reactor. feeding gas condensate at a top region of a downflow high severity fluidized catalytic cracking reactor (HSFCC), the gas condensate comprising at least 50% by weight paraffins; feeding catalyst to the top region of the downflow HSFCC reactor in an amount characterized by a catalyst to gas condensate weight ratio of 5:1 to 40:1, where the catalyst comprises nano ZSM-5 zeolite catalyst having an average particle diameter from 0.01 to 0.2 μm, a Si/Al molar ratio from 20 to 40, and a surface area of at least 20 cm 2 /g and preferably a surface area of at least 30 cm 2 /g; and cracking the gas condensate in the presence of the catalyst at a reaction temperature of 500° C to 700° C, preferably 550° C to 630° C, to produce the product stream comprising propylene; and optionally further comprising adding steam to the top region of the downflow HSFCC reactor.
A control system (60; 70) for operating a variable frequency drive, VFD, circuit (42; 72) that controls a motor (58; 74), the control system (60; 70) comprising: a feedback controller programmed to: receive a speed ( w) of the motor (58; 74) operating responsive to an initial torque command ( T cmd_initial); and process the speed (w) of the motor (58; 74) to generate a feedback controller output; an observer programmed to: receive the initial torque command ( T cmd_initial) and the feedback controller output; and calculate a filtered speed reference ( w ref_filtered) using the initial torque command ( T cmd_initial) and the feedback controller output; a feedforward controller programmed to process a speed reference ( w ref) and the filtered speed reference ( w ref_filtered) to generate a feedforward controller output; and a command module programmed to: determine a torque command ( T cmd_modified) based on the processed outputs of the feedback and feedforward controllers (72; 82); limit the torque command ( T cmd_modified) based on one or more limitations of the motor (58; 74); and operate the VFD circuit (42; 72) to control the motor (58; 74) according to the torque command ( T cmd_modified). a feedback controller programmed to: receive a speed ( w) of the motor (58; 74) operating responsive to an initial torque command ( T cmd_initial); and process the speed (w) of the motor (58; 74) to generate a feedback controller output; receive a speed ( w) of the motor (58; 74) operating responsive to an initial torque command ( T cmd_initial); and process the speed (w) of the motor (58; 74) to generate a feedback controller output; an observer programmed to: receive the initial torque command ( T cmd_initial) and the feedback controller output; and calculate a filtered speed reference ( w ref_filtered) using the initial torque command ( T cmd_initial) and the feedback controller output; receive the initial torque command ( T cmd_initial) and the feedback controller output; and calculate a filtered speed reference ( w ref_filtered) using the initial torque command ( T cmd_initial) and the feedback controller output; a feedforward controller programmed to process a speed reference ( w ref) and the filtered speed reference ( w ref_filtered) to generate a feedforward controller output; and a command module programmed to: determine a torque command ( T cmd_modified) based on the processed outputs of the feedback and feedforward controllers (72; 82); limit the torque command ( T cmd_modified) based on one or more limitations of the motor (58; 74); and operate the VFD circuit (42; 72) to control the motor (58; 74) according to the torque command ( T cmd_modified). determine a torque command ( T cmd_modified) based on the processed outputs of the feedback and feedforward controllers (72; 82); limit the torque command ( T cmd_modified) based on one or more limitations of the motor (58; 74); and operate the VFD circuit (42; 72) to control the motor (58; 74) according to the torque command ( T cmd_modified).
A non-oriented electrical steel sheet comprising, as a chemical composition, by mass%: C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.01% to 3.00%; Mn: 0.10% to 2.00%; P: 0.005% to 0.200%; S: 0.0030% or less; Cu: more than 1.0% and 3.0% or less; Ni: 0.10% to 3.0%; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: more than 0.0005% and 0.0100% or less in total; a parameter Q represented by Formula 1 where a Si content in mass% is set as [Si], an Al content in mass% is set as [Al], and a Mn content in mass% is set as [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cr: 0.0% to 10.0%, and a remainder: Fe and impurities, wherein a number of particles of elemental Cu having a diameter of less than 100 nm is 5 or more per 10 μm 2, a crystal orientation intensity is 2.4 or more, a thickness is 0.10 mm to 0.60 mm, and an average grain size is 70 μm to 200 μm Q = Si + 2 Al − Mn wherein the number of particles of elemental Cu, the crystal orientation intensity and the average grain size are measured as defined in the description. C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.01% to 3.00%; Mn: 0.10% to 2.00%; P: 0.005% to 0.200%; S: 0.0030% or less; Cu: more than 1.0% and 3.0% or less; Ni: 0.10% to 3.0%; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: more than 0.0005% and 0.0100% or less in total; a parameter Q represented by Formula 1 where a Si content in mass% is set as [Si], an Al content in mass% is set as [Al], and a Mn content in mass% is set as [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cr: 0.0% to 10.0%, and a remainder: Fe and impurities, wherein a number of particles of elemental Cu having a diameter of less than 100 nm is 5 or more per 10 μm 2, a crystal orientation intensity is 2.4 or more, a thickness is 0.10 mm to 0.60 mm, and an average grain size is 70 μm to 200 μm Q = Si + 2 Al − Mn wherein the number of particles of elemental Cu, the crystal orientation intensity and the average grain size are measured as defined in the description.