mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling an electrified turbocharger comprising: assembling a rotor assembly onto a shaft; testing a rotating balance of the shaft and the rotor assembly, after assembling the rotor assembly on the shaft; adjusting the rotating balance of the rotor assembly, after testing the rotating balance of the rotor assembly, by at least one of radially cutting a portion of the rotor assembly or adding a material to the rotor assembly; attaching at least one bearing (88, 89) onto the shaft adjacent the rotor assembly, after adjusting the rotating balance of the rotor assembly; inserting a stator assembly into a first housing component; axially inserting the shaft, the rotor assembly, and the at least one bearing (88, 89) into the first housing component, after inserting the stator assembly into the first housing component; attaching a second housing component to the first housing component, after axially inserting the shaft, the rotor assembly, and the at least one bearing (88, 89) into the first housing component; attaching a compressor wheel to a first end of the shaft and attaching a turbine wheel to a second end of the shaft, after attaching the second housing component to the first housing component; testing a rotating balance of the electrified turbocharger; and adjusting the rotating balance of the electrified turbocharger, after testing the rotating balance of the electrified turbocharger by at least one of adding or removing a material to the shaft. assembling a rotor assembly onto a shaft; testing a rotating balance of the shaft and the rotor assembly, after assembling the rotor assembly on the shaft; adjusting the rotating balance of the rotor assembly, after testing the rotating balance of the rotor assembly, by at least one of radially cutting a portion of the rotor assembly or adding a material to the rotor assembly; attaching at least one bearing (88, 89) onto the shaft adjacent the rotor assembly, after adjusting the rotating balance of the rotor assembly; inserting a stator assembly into a first housing component; axially inserting the shaft, the rotor assembly, and the at least one bearing (88, 89) into the first housing component, after inserting the stator assembly into the first housing component; attaching a second housing component to the first housing component, after axially inserting the shaft, the rotor assembly, and the at least one bearing (88, 89) into the first housing component; attaching a compressor wheel to a first end of the shaft and attaching a turbine wheel to a second end of the shaft, after attaching the second housing component to the first housing component; testing a rotating balance of the electrified turbocharger; and adjusting the rotating balance of the electrified turbocharger, after testing the rotating balance of the electrified turbocharger by at least one of adding or removing a material to the shaft.
Battery pack for supplying an electrically driven treatment apparatus with an electric driving power, the battery pack comprising: - a first stack limiting structure and a second stack limiting structure, wherein the second stack limiting structure is disposed opposite and with a fixed distance to the first stack limiting structure, - a plurality of pouch cells, wherein the pouch cells are disposed in a stack, wherein the stack is disposed between the first stack limiting structure and the second stack limiting structure and a height of the stack in a stack direction (z) is limited by the first stack limiting structure and the second stack limiting structure, and - a sensor arrangement, wherein the sensor arrangement is disposed in the stack, wherein the sensor arrangement extends across a major part of a surface of the pouch cells, wherein a major part of the surface means at least 70 % of the surface, and is configured such that the height of the stack across the extension is approximately equal, and wherein the sensor arrangement has a pressure sensor, wherein the pressure sensor is configured for detecting a pressure force acting in the stack direction (z) on the pouch cells. - a first stack limiting structure and a second stack limiting structure, wherein the second stack limiting structure is disposed opposite and with a fixed distance to the first stack limiting structure, - a plurality of pouch cells, wherein the pouch cells are disposed in a stack, wherein the stack is disposed between the first stack limiting structure and the second stack limiting structure and a height of the stack in a stack direction (z) is limited by the first stack limiting structure and the second stack limiting structure, and - a sensor arrangement, wherein the sensor arrangement is disposed in the stack, wherein the sensor arrangement extends across a major part of a surface of the pouch cells, wherein a major part of the surface means at least 70 % of the surface, and is configured such that the height of the stack across the extension is approximately equal, and wherein the sensor arrangement has a pressure sensor, wherein the pressure sensor is configured for detecting a pressure force acting in the stack direction (z) on the pouch cells.
A method, comprising: Establishing, in a network element of a radio access network, a wireless communication connection with a terminal device, wherein the wireless communications connection comprises two logically separate connections with the terminal device, the logically separate connections being related to different communications applications operated in the terminal device, the method comprising: communicating with the terminal device over a first logical connection comprising an uplink physical connection and a downlink physical connection both routed through a relay node; and communicating with the terminal device over a second logical connection comprising an uplink physical connection and a downlink physical connection, wherein only the uplink physical connection is routed through the relay node. Establishing, in a network element of a radio access network, a wireless communication connection with a terminal device, wherein the wireless communications connection comprises two logically separate connections with the terminal device, the logically separate connections being related to different communications applications operated in the terminal device, the method comprising: communicating with the terminal device over a first logical connection comprising an uplink physical connection and a downlink physical connection both routed through a relay node; and communicating with the terminal device over a second logical connection comprising an uplink physical connection and a downlink physical connection, wherein only the uplink physical connection is routed through the relay node.
Expanded CD4+ T cells for use in enhancing adoptive T cell transfer for the treatment of autoimmune diseases and cancer, wherein the cells are obtainable by the following method isolating CD4+ T cells from a peripheral blood sample obtained from a subject; transducing the isolated CD4+ T cells by contacting the CD4+ T cells with retroviral vectors expressing intracellular osteopontin (OPN-i); expanding the transduced CD4+ T cells by growing them in a culture medium until the number of transduced CD4+ T cells increases by at least 5%. isolating CD4+ T cells from a peripheral blood sample obtained from a subject; transducing the isolated CD4+ T cells by contacting the CD4+ T cells with retroviral vectors expressing intracellular osteopontin (OPN-i); expanding the transduced CD4+ T cells by growing them in a culture medium until the number of transduced CD4+ T cells increases by at least 5%.
A termination connection box for a direct-current cable having a conductor, an inner semiconducting layer, an insulating layer, and an outer semiconducting layer, and wherein the conductor is exposed at an end portion of the DC cable, the termination connection box further comprising: a connecting semiconducting layer configured to cover the exposed conductor and the insulating layer; a conductor withdrawal rod electrically connected to the exposed conductor; and a heat shrinkable tube formed of functionally gradient material having non-linear electrical characteristics and configured such that one portion thereof covers an outer circumferential surface of the cable insulating layer and, wherein one end of the heat shrinkable tube is electrically connected to the outer semiconducting layer and the other end is electrically connected to the exposed conductor via the connecting semiconducting layer and covers a portion of the conductor withdrawal rod for the outer semiconducting layer and the conductor to be electrically connected to each other via the heat shrinkable tube. a connecting semiconducting layer configured to cover the exposed conductor and the insulating layer; a conductor withdrawal rod electrically connected to the exposed conductor; and a heat shrinkable tube formed of functionally gradient material having non-linear electrical characteristics and configured such that one portion thereof covers an outer circumferential surface of the cable insulating layer and, wherein one end of the heat shrinkable tube is electrically connected to the outer semiconducting layer and the other end is electrically connected to the exposed conductor via the connecting semiconducting layer and covers a portion of the conductor withdrawal rod for the outer semiconducting layer and the conductor to be electrically connected to each other via the heat shrinkable tube.
A magnetizing system comprising a magnetizer configured to magnetize a needle associated with a medical device, and a tray configured to removably join with the magnetizer, the magnetizer comprising: a body; a magnetic component included with the body; and an orientation key system including: a first key feature included with the body of the magnetizer, the first key feature configured to cooperatively and removably mate with a second key feature so as to position the needle of the medical device in a desired orientation with respect to the magnetizing component, the second key feature included with the tray. a body; a magnetic component included with the body; and an orientation key system including: a first key feature included with the body of the magnetizer, the first key feature configured to cooperatively and removably mate with a second key feature so as to position the needle of the medical device in a desired orientation with respect to the magnetizing component, the second key feature included with the tray.
A method for controlling a torque-limiting driver to inhibit a breach of the spinal column, the torque-limiting driver comprising a body with a handle, a motor positioned in the body, a drive head that is configured to receive (i) a bit that engages a screw or (ii) a drill bit and to be rotated by the motor so as to enable the screw or drill bit to be drilled into a bone of the spinal column, and a processor, wherein under the control of the processor the method comprises: drilling the screw or drill bit into the bone of the spinal column, wherein the bone comprises a first cortical layer, a cancellous layer, and a second cortical layer; detecting a first torque value when the screw or drill bit is drilling into the first cortical layer; detecting a second torque value when the screw or drill bit is drilling into the cancellous layer; identifying a change from the first torque value to the second torque value as a tip of the screw or drill bit is entering the cancellous layer of the bone; detecting a third torque value when the screw or drill bit is drilling into the second cortical layer; identifying a change from the second torque value to the third torque value as the tip of the screw or drill bit is entering the second cortical layer of the bone; and in response to identifying the tip of the screw or drill bit entering the second cortical layer of the bone, stopping the drilling of the screw or drill bit into the bone, thereby inhibiting a breach of the spinal column. drilling the screw or drill bit into the bone of the spinal column, wherein the bone comprises a first cortical layer, a cancellous layer, and a second cortical layer; detecting a first torque value when the screw or drill bit is drilling into the first cortical layer; detecting a second torque value when the screw or drill bit is drilling into the cancellous layer; identifying a change from the first torque value to the second torque value as a tip of the screw or drill bit is entering the cancellous layer of the bone; detecting a third torque value when the screw or drill bit is drilling into the second cortical layer; identifying a change from the second torque value to the third torque value as the tip of the screw or drill bit is entering the second cortical layer of the bone; and in response to identifying the tip of the screw or drill bit entering the second cortical layer of the bone, stopping the drilling of the screw or drill bit into the bone, thereby inhibiting a breach of the spinal column.
Combination filter comprising a housing with an inlet as well as an outlet for a fluid to be cleaned, a coalescence filter element (6") and a preparation filter element, wherein the coalescence filter element and the preparation filter element are arranged in the housing in such a way that the fluid is passed through in the sequence stated after is has been supplied into the housing through the inlet before the fluid leaves the housing again through the outlet, wherein the coalescence filter element (6") and the preparation filter element are integrated in one insert that is replaceably arranged in the housing and the coalescence filter element (6") has a cylindrical filter sleeve (23") as a the lowest filter element, through which the fluid passes radially, characterised in that a lower lid (24") is envisaged, which has an opening, through which oil aerosols flowed together to form larger oil drops can drip off, and in that the coalescence filter element (6") is bound to the preparation filter element, through which the fluid flows longitudinally, above an upper lid (25"), wherein the upper lid has an integrated support disc (14") for the preparation filter element, and the insert forms an annular inlet channel (3") with the housing and the upper end of the insert forms an outlet channel (4").
Pump assembly comprising a pump unit and an electric motor which drives said assembly, comprising a stator and a rotor with a rotor shaft supported in at least one slide bearing, characterised by the slide bearing being mounted in the pump assembly by means of at least one circular wedges connection (21, 41; 29, 31) comprising at least one circular wedge (21, 31) and at least one complementary circular wedge (29, 41).
A three-dimensional measuring device, comprising an arm made up of articulated elements including a fastener base, a first segment connected to the base by a first hinge, a second segment connected to the first segment by a second hinge, an interface body connected to the second segment by a third hinge, and position sensors associated with the hinges and electrically connected to an electronic acquisition unit for supplying the electronic acquisition unit with position measurement signals measuring the positions of the elements relative to one another, the interface body carrying a measuring member and a grip member enabling an operator to point the measuring member at a zone of the object that is to be measured, the measuring device being characterized in that the measuring member includes a connector to be electrically connected to a corresponding connector of the interface body and is linked to the interface body by a fastener mechanism that is controllable by a lever and that is arranged in such a manner that the lever controls the fastener mechanism to occupy selectively a snap-fastening state in which the measuring member is held on the interface body while the connectors are disengaged from each other, a locking state in which the measuring member is fastened to the interface body and the connectors are engaged with each other, or a release state in which the measuring member can be separated from the interface body.
A projectile for a precision shooting air gun, the projectile being formed of a composition which consists of a load in powder whose particles are bound by a binder, the powder representing from 82% to 99% of the volume of material used to manufacture the projectile, the binder being manufactured from at least one polymer, and each of the powder particles being included within a sphere with a diameter smaller than or equal to 7 microns.
An endoscope apparatus, comprising: illuminating means configured to perform illumination by an illuminating light of a first band, and perform illuminations by an illuminating light of a second band for a first number of times that is two times or more, within a predetermined time period; image pickup means configured to pick up an image of an object illuminated by the illuminating means, and output a first image pickup signal based on the illumination of the illuminating light of the first band, and image pickup signals based on the illuminations of the illuminating light of the second band; and brightness calculating means configured to calculate a first brightness by color conversion matrix processing using the first image pickup signal and a second image pickup signal based on illumination by first predetermined times out of the first number of times, and calculate a second brightness by color conversion matrix processing using the first image pickup signal and a third image pickup signal based on illumination by times other than the first predetermined times out of the first number of times, characterized by synthesizing means configured to synthesize and output a picked-up image by multiplying the first and the third image pickup signals by a coefficient based on a ratio of a difference value of a target brightness and the first brightness, and the second brightness and thereafter synthesizing the result with the first and the second image pickup signals. illuminating means configured to perform illumination by an illuminating light of a first band, and perform illuminations by an illuminating light of a second band for a first number of times that is two times or more, within a predetermined time period; image pickup means configured to pick up an image of an object illuminated by the illuminating means, and output a first image pickup signal based on the illumination of the illuminating light of the first band, and image pickup signals based on the illuminations of the illuminating light of the second band; and brightness calculating means configured to calculate a first brightness by color conversion matrix processing using the first image pickup signal and a second image pickup signal based on illumination by first predetermined times out of the first number of times, and calculate a second brightness by color conversion matrix processing using the first image pickup signal and a third image pickup signal based on illumination by times other than the first predetermined times out of the first number of times, characterized by synthesizing means configured to synthesize and output a picked-up image by multiplying the first and the third image pickup signals by a coefficient based on a ratio of a difference value of a target brightness and the first brightness, and the second brightness and thereafter synthesizing the result with the first and the second image pickup signals.
A method of controlling a wastewater treatment plant, the plant comprising at least one process tank, an aeration structure configured for aeration of the at least one process tank, at least one sensor for detecting a first tank parameter and a second tank parameter, and a control unit for controlling the aeration structure, the control unit comprises computer means and memory means to determine a first and a second event, wherein a first and a second predetermined time period and a first and a second threshold value are stored in the memory means, the method comprising alternating steps of: - increasing aeration to the at least one process tank when the first event occurs, wherein the first event is one of when the first threshold value of a first tank parameter is reached and when the first predetermined time period has expired, and - decreasing aeration to the at least one process tank when the second event occurs, wherein the second event is one of when the second threshold value of a second tank parameter is reached and when the second predetermined time period has expired, wherein the first and second tank parameters are selected from a group consisting of nitrate concentration, nitrite concentration, and ammonium concentration determined in the water in the at least one process tank, wherein at least one of the first and second event is when a threshold value is reached, at least one of the first and second tank parameter being ammonium concentration, wherein for said ammonium concentration at least one of the first and second threshold value is in the range of 0-10 mgN/l, and wherein the steps of increasing aeration and decreasing aeration are carried out to reduce N2O emissions from the plant. - increasing aeration to the at least one process tank when the first event occurs, wherein the first event is one of when the first threshold value of a first tank parameter is reached and when the first predetermined time period has expired, and - decreasing aeration to the at least one process tank when the second event occurs, wherein the second event is one of when the second threshold value of a second tank parameter is reached and when the second predetermined time period has expired, wherein the first and second tank parameters are selected from a group consisting of nitrate concentration, nitrite concentration, and ammonium concentration determined in the water in the at least one process tank, wherein at least one of the first and second event is when a threshold value is reached, at least one of the first and second tank parameter being ammonium concentration, wherein for said ammonium concentration at least one of the first and second threshold value is in the range of 0-10 mgN/l, and wherein the steps of increasing aeration and decreasing aeration are carried out to reduce N2O emissions from the plant.
A thrust reverser (130; 200) for a gas turbine engine, comprising: a frame (140; 210); a first reverser door (134; 202) pivotally mounted to the frame (140; 210) at a first fixed pivot point; a second reverser door (136; 204) pivotally mounted to the frame (140; 210) at a second fixed pivot point; a first nacelle (138; 206) defining a first trailing edge of the gas turbine engine pivotally coupled between the frame (140; 210) and the first reverser door (134; 202); and a second nacelle (139; 208) defining a second trailing edge of the gas turbine engine pivotally coupled between the frame (140; 210) and the second reverser door (136; 204); wherein, in response to the thrust reverser (130; 200) moving to a deployed position, the first nacelle (138; 206) and the second nacelle (139; 208) translate in an aft and radial outward direction relative to the gas turbine engine. a frame (140; 210); a first reverser door (134; 202) pivotally mounted to the frame (140; 210) at a first fixed pivot point; a second reverser door (136; 204) pivotally mounted to the frame (140; 210) at a second fixed pivot point; a first nacelle (138; 206) defining a first trailing edge of the gas turbine engine pivotally coupled between the frame (140; 210) and the first reverser door (134; 202); and a second nacelle (139; 208) defining a second trailing edge of the gas turbine engine pivotally coupled between the frame (140; 210) and the second reverser door (136; 204); wherein, in response to the thrust reverser (130; 200) moving to a deployed position, the first nacelle (138; 206) and the second nacelle (139; 208) translate in an aft and radial outward direction relative to the gas turbine engine.