mhurhangee/ep-ind-claims huggingface dataset:
Electric brake system for a vehicle comprising a) at least one electric brake device wherein a brake force is generated by an electric brake actuator and b) a capacitor-based power source which ba) is formed by or comprises a capacitor and bb) supplies electric power to the electric brake actuator, c) a recharging power source, d) at least one control device comprising control logic for controlling the flow of electric energy from the recharging power source to the capacitor-based power source, e) a brake actuation mode wherein the electric brake device is controlled such that a desired brake force is generated, an increasing brake force is generated and/or a previously generated brake force is upheld, characterised in that f) the brake actuation mode comprises fa) a holding sub-mode wherein a locking, fixing or holding device is actuated so that a previously generated brake force of the electric brake device is kept constant and fb) a brake force control sub-mode wherein the brake force is controlled on the basis of the actual brake force demand. a) at least one electric brake device wherein a brake force is generated by an electric brake actuator and b) a capacitor-based power source which ba) is formed by or comprises a capacitor and bb) supplies electric power to the electric brake actuator, ba) is formed by or comprises a capacitor and bb) supplies electric power to the electric brake actuator, c) a recharging power source, d) at least one control device comprising control logic for controlling the flow of electric energy from the recharging power source to the capacitor-based power source, e) a brake actuation mode wherein the electric brake device is controlled such that a desired brake force is generated, an increasing brake force is generated and/or a previously generated brake force is upheld, characterised in that f) the brake actuation mode comprises fa) a holding sub-mode wherein a locking, fixing or holding device is actuated so that a previously generated brake force of the electric brake device is kept constant and fb) a brake force control sub-mode wherein the brake force is controlled on the basis of the actual brake force demand. fa) a holding sub-mode wherein a locking, fixing or holding device is actuated so that a previously generated brake force of the electric brake device is kept constant and fb) a brake force control sub-mode wherein the brake force is controlled on the basis of the actual brake force demand.
A method comprising: determining, by a console, an expected transmission end time of a first session for wireless transmission of image data indicating an image of artificial reality to a head wearable display; determining, by the console, an expected process end time of generating additional data associated with the image of the artificial reality; comparing, by the console, the expected transmission end time and the expected process end time; and transmitting, by the console to the head wearable display in the first session, the additional data together with the image data, in response to the expected process end time being less than the expected transmission end time; transmitting, by the console to the head wearable display in the first session, timing information indicating the expected process end time, in response to the expected process end time being larger than the expected transmission end time; configuring, by the console, a wireless communication interface in a steep mode after the first session until the expected process end time to disable wireless communication between the console and the head wearable display, in response to the expected process end time being larger than the expected transmission end time; and transmitting, by the console to the head wearable display through a second session after the expected process end time, the additional data, in response to the expected process end time being larger than the expected transmission end time. determining, by a console, an expected transmission end time of a first session for wireless transmission of image data indicating an image of artificial reality to a head wearable display; determining, by the console, an expected process end time of generating additional data associated with the image of the artificial reality; comparing, by the console, the expected transmission end time and the expected process end time; and transmitting, by the console to the head wearable display in the first session, the additional data together with the image data, in response to the expected process end time being less than the expected transmission end time; transmitting, by the console to the head wearable display in the first session, timing information indicating the expected process end time, in response to the expected process end time being larger than the expected transmission end time; configuring, by the console, a wireless communication interface in a steep mode after the first session until the expected process end time to disable wireless communication between the console and the head wearable display, in response to the expected process end time being larger than the expected transmission end time; and transmitting, by the console to the head wearable display through a second session after the expected process end time, the additional data, in response to the expected process end time being larger than the expected transmission end time.
A fuel cell system comprising: a fuel cell for generating a power by causing an electrochemical reaction between an oxidant gas supplied to an oxidant electrode and a fuel gas supplied to a fuel electrode; a fuel gas supplier (HS: 10, 11, L1) for supplying the fuel gas to the fuel electrode; and a controller for controlling the fuel gas supplier (HS: 10, 11, L1) to thereby supply the fuel gas to the fuel electrode, the controller being configured to determine target generation power of the fuel cell as a required load (Ct) of the fuel cell system and to implement a periodical pressure change, characterized in that the controller is configured to implement the periodical pressure change between an upper limit pressure and a lower limit pressure, wherein the controller is configured to set the upper limit pressure and the lower limit pressure such that the higher the required load (Ct) is, the larger a pressure difference (P1 - P2) between the upper limit pressure and the lower limit pressure is. a fuel cell for generating a power by causing an electrochemical reaction between an oxidant gas supplied to an oxidant electrode and a fuel gas supplied to a fuel electrode; a fuel gas supplier (HS: 10, 11, L1) for supplying the fuel gas to the fuel electrode; and a controller for controlling the fuel gas supplier (HS: 10, 11, L1) to thereby supply the fuel gas to the fuel electrode, the controller being configured to determine target generation power of the fuel cell as a required load (Ct) of the fuel cell system and to implement a periodical pressure change, characterized in that the controller is configured to implement the periodical pressure change between an upper limit pressure and a lower limit pressure, wherein the controller is configured to set the upper limit pressure and the lower limit pressure such that the higher the required load (Ct) is, the larger a pressure difference (P1 - P2) between the upper limit pressure and the lower limit pressure is.
A rotary actuator with movable frame consisting of an electric coil moving over an angular travel around an axis of rotation A, the coil being of elliptical cylindrical shape and the winding axis B being orthogonal to the axis of rotation A, the coil being placed in the magnetic field of a fixed magnet, characterized in that the fixed magnet surrounds said coil and consists of two semi-cylindrical parts (3, 4) whose generators are orthogonal to the axis of rotation A, the first of the semi-cylindrical parts having a North pole directed towards the coil, orthogonally to the direction of the generators and being positioned outside the coil, the second having a South pole directed towards the coil, orthogonally to the direction of the generators and also being positioned outside the coil opposite the first part, the actuator comprising a ferromagnetic core inside the coil and an outer ferromagnetic yoke surrounding the fixed magnet, the coil moving in the air gap generated between the semi-cylindrical magnetized parts (3, 4) and the inner core.
Long life pastry for specific nutritional purposes characterized in that a dough for preparation thereof is made from a mixture consisting of composite flour in the amount of 56 to 60 % (w/w), edible fat and/or emulsified fat in the amount of 20 to 27 % (w/w), sweetener excluding sucrose, glucose, fructose, and isoglucose in the amount of 0.8 to 12 % (w/w), milk substitute produced from plant raw materials in the amount of 3 to 7 % (w/w), flavouring and seasoning ingredients in the amount of 0.001 to 3 % (w/w), oilseeds in the amount of 1 to 3 % (w/w), lecithin in the amount of 0.5 to 0.7% (w/w), and water in amounts dependent on binding capacities of the composite flour and other components of the mixture, wherein the composite flour comprises at least three types of flours, one type of which is corn flour in the amount of 40 to 60 % (w/w) relative to the amount of the composite flour and at least two types of flours are selected from the group represented by buckwheat flour, millet flour, chickpea flour, and rice flour, wherein buckwheat flour is in the amount of 10 to 30% (w/w) relative to the amount of the composite flour, the millet flour is in the amount of 10 to 30 % (w/w) relative to the amount of the composite flour, the chickpea flour is in the amount of 10 to 30 % (w/w) relative to the amount of the composite flour, the rice flour is in the amount of 5 to 15 % (w/w) relative to the amount of the composite flour.
A radiolabeled binding protein comprising: (i) an antibody or a fragment thereof, (ii) a hydrophilic polymer of a molecular weight of 5-40 kDa, (iii) a radionuclide; and (iv) a chelating moiety; wherein the radionuclide is bound by the chelating moiety; wherein the hydrophilic polymer and the chelating moiety are each conjugated to the antibody or fragment thereof; wherein the antibody or fragment thereof is an intact antibody, a single domain antibody, a VHH single domain antibody, a single chain Fv fragment (scFv), Fab, or a diabody; and wherein the antibody or fragment thereof binds to a tumor cell, a tumor- associated cell, or a tumor antigen; or the antibody or fragment thereof binds to an immune cell. (i) an antibody or a fragment thereof, (ii) a hydrophilic polymer of a molecular weight of 5-40 kDa, (iii) a radionuclide; and (iv) a chelating moiety; wherein the radionuclide is bound by the chelating moiety; wherein the hydrophilic polymer and the chelating moiety are each conjugated to the antibody or fragment thereof; wherein the antibody or fragment thereof is an intact antibody, a single domain antibody, a VHH single domain antibody, a single chain Fv fragment (scFv), Fab, or a diabody; and wherein the antibody or fragment thereof binds to a tumor cell, a tumor- associated cell, or a tumor antigen; or the antibody or fragment thereof binds to an immune cell. wherein the radionuclide is bound by the chelating moiety; wherein the hydrophilic polymer and the chelating moiety are each conjugated to the antibody or fragment thereof; wherein the antibody or fragment thereof is an intact antibody, a single domain antibody, a VHH single domain antibody, a single chain Fv fragment (scFv), Fab, or a diabody; and wherein the antibody or fragment thereof binds to a tumor cell, a tumor- associated cell, or a tumor antigen; or the antibody or fragment thereof binds to an immune cell.
A strip of roof hooks for a nail driving tool formed from a number of magazined roof hooks connected detachably to one another so as to touch, which hooks each have a base (2, 6) on one end region of which a receiver is formed for holding roof or cladding panels, in particular slates, on a roof surface, and on the other end region of which there is formed a drive-in tip arranged at an angle to the base, with a drive-in section and a shaft section, the roof hooks being adhered to one another by a polymeric bonding agent, an adhesive and/or an adhesive strip, and adjacent drive-in sections each being arranged slightly offset to one another, characterised in that in order to adhere the roof hooks a contact region formed between adjacent drive-in sections is provided at least partially with a polymeric bonding agent or an adhesive or an adhesive strip and in particular only one of the drive-in sections forming the contact region respectively has the polymeric bonding agent or the adhesive or the adhesive strip.
A heat exchange unit for heat pumps or air conditioners, comprising: • a box-like casing, • a lower surface, an upper surface which is opposite the lower surface and which is spaced apart therefrom with respect to an axis of the casing, and a front surface which extends between the lower surface and the upper surface, the surfaces (2, 3, 4) being defined on the casing, • a first opening and a second opening which are made on the casing, • a channel which extends inside the casing between the first and second openings (6, 7), • a fan housed inside the casing, along the channel, and which is arranged to move an air flow away from and towards the external environment with respect to the casing through the openings (6, 7),, • a heat exchanger placed in the channel, in which the heat exchanger has a V-like profile and at least a portion of the fan and the heat exchanger are one below the other with respect to the axis, wherein the first opening is made on the front surface of the casing and the second opening is made on the upper surface and/or on the front surface in a position above the first opening with respect to the axis, characterized in that the fan is placed in the channel between the first opening and the heat exchanger, the fan being a centrifugal fan. • a box-like casing, • a lower surface, an upper surface which is opposite the lower surface and which is spaced apart therefrom with respect to an axis of the casing, and a front surface which extends between the lower surface and the upper surface, the surfaces (2, 3, 4) being defined on the casing, • a first opening and a second opening which are made on the casing, • a channel which extends inside the casing between the first and second openings (6, 7), • a fan housed inside the casing, along the channel, and which is arranged to move an air flow away from and towards the external environment with respect to the casing through the openings (6, 7),, • a heat exchanger placed in the channel, in which the heat exchanger has a V-like profile and at least a portion of the fan and the heat exchanger are one below the other with respect to the axis,
An electric power tool configured to perform tightening operations where torque is delivered in a series of pulses and comprising an electrical motor adapted to drive a rotating shaft of the electric power tool, the electric motor being adapted to be fed with a train of controlled current pulses, the electric power tool further comprising an angle sensor for sensing a parameter related to an angular displacement of the electric power tool, characterized in that the electric power tool is adapted to control the current supplied in the current pulses based at least in part on an output signal from the angle sensor to not exceed a limit threshold value for said parameter related to an angular displacement of the electric power tool.
A roller screen, in particular in the form of an insect net or the like, for shielding a building aperture, in particular a roof window area, in an inclined wall, which roller screen comprises: a top casing defining a first longitudinal direction and in which a spring-biased roller bar is arranged rotatably, a bottom bar configured to extend substantially in parallel with the top casing and being manually operable, a first side rail and a second side rail, each extending in a second longitudinal direction, substantially perpendicular from a respective end of the top casing, a screening body having two side edges and a predefined length between a first end portion connected to the roller bar and a second end portion connected to the bottom bar, said screening body being movable in the second longitudinal direction between a non-screening position and a screening position in which the screening body is unwound from the roller bar and covers the building aperture, the two side edges of the screening body being preferably provided with discrete or continuously positioned thickenings guided in a first track wherein the bottom bar comprises a longitudinal groove and at least one insert element (20; 201, 202; 203) accommodated within the longitudinal groove, characterised in that said preferably provided discrete or continuously positioned thickenings have a transverse dimension larger than an opening of said first track, and the at least one or more insert element (20; 201, 202; 203) delimits a handle portion within the longitudinal groove to allow a user to introduce finger/s into the longitudinal groove for gripping the bottom bar at a central section of the bottom bar. a top casing defining a first longitudinal direction and in which a spring-biased roller bar is arranged rotatably, a bottom bar configured to extend substantially in parallel with the top casing and being manually operable, a first side rail and a second side rail, each extending in a second longitudinal direction, substantially perpendicular from a respective end of the top casing, a screening body having two side edges and a predefined length between a first end portion connected to the roller bar and a second end portion connected to the bottom bar, said screening body being movable in the second longitudinal direction between a non-screening position and a screening position in which the screening body is unwound from the roller bar and covers the building aperture, the two side edges of the screening body being preferably provided with discrete or continuously positioned thickenings guided in a first track wherein the bottom bar comprises a longitudinal groove and at least one insert element (20; 201, 202; 203) accommodated within the longitudinal groove, characterised in that said preferably provided discrete or continuously positioned thickenings have a transverse dimension larger than an opening of said first track, and the at least one or more insert element (20; 201, 202; 203) delimits a handle portion within the longitudinal groove to allow a user to introduce finger/s into the longitudinal groove for gripping the bottom bar at a central section of the bottom bar.
A 1500MPa-grade automotive steel with a product of strength and A50(%) elongation being no less than 30GPa%, with chemical elements in percentage by mass being: C: 0.1-0.3%, Si: 0.1-2.0%, Mn: 7.5-12%, Al: 0.01-2.0%, optional at least one chemical element of Nb: 0.01-0.07%, Ti: 0.02-0.15%, V: 0.05-0.20%, Cr: 0.15-0.50% and Mo: 0.10-0.50%, and a balance of iron and unavoidable impurities, wherein, among the unavoidable impurities, P≤0.02%, S≤0.02% and N≤0.02%; wherein the 1500MPa-grade automotive steel with a high product of strength and elongation comprises a microstructure of austenite + martensite + ferrite or austenite + martensite; wherein when the microstructure is austenite + martensite + ferrite, a phase of the austenite has a proportion of 20%-40%, and a phase of the martensite has a proportion of 50%-70%; wherein when the microstructure is austenite + martensite, a phase of the austenite has a proportion of 20%-50%. C: 0.1-0.3%, Si: 0.1-2.0%, Mn: 7.5-12%, Al: 0.01-2.0%, optional at least one chemical element of Nb: 0.01-0.07%, Ti: 0.02-0.15%, V: 0.05-0.20%, Cr: 0.15-0.50% and Mo: 0.10-0.50%, and a balance of iron and unavoidable impurities, wherein, among the unavoidable impurities, P≤0.02%, S≤0.02% and N≤0.02%; wherein the 1500MPa-grade automotive steel with a high product of strength and elongation comprises a microstructure of austenite + martensite + ferrite or austenite + martensite; wherein when the microstructure is austenite + martensite + ferrite, a phase of the austenite has a proportion of 20%-40%, and a phase of the martensite has a proportion of 50%-70%; wherein when the microstructure is austenite + martensite, a phase of the austenite has a proportion of 20%-50%.
A ram-type blowout preventer for use in oil and gas drilling and workover operations, the blowout preventer comprising: a valve body having a vertical bore running therethrough; a pair of opposing actuator assemblies connected to the valve body, each actuator assembly comprising an actuator body, a piston, and a ram body, wherein the ram bodies of the pair of actuator assemblies are laterally movable within the actuator bodies, the ram bodies each having a shear blade (100, 150) connected thereto; a seal groove formed in one of the shear blades (100, 150); and a sealing system for sealing between the shear blades (100, 150), the sealing system comprising a seal assembly positioned substantially within the seal groove, the ram-type blowout preventer characterized in that the sealing system further comprises one or more rail guide grooves to receive and guide one or more rail seal actuators laterally until contact is made with the outer ends of an actuator plate, said one or more rail guide grooves formed in said one shear blades (150, 100), and the rail seal actuators formed in the other (100, 150) of said shear blades and the seal assembly comprising a seal member and said actuator plate, that when driven axially backward in the seal groove, compresses said seal member such that a seal between said shear blades (100, 150) is created, the seal assembly further comprising_an integral solid retainer for retaining the seal member in the seal groove when the seal member is compressed. a valve body having a vertical bore running therethrough; a pair of opposing actuator assemblies connected to the valve body, each actuator assembly comprising an actuator body, a piston, and a ram body, wherein the ram bodies of the pair of actuator assemblies are laterally movable within the actuator bodies, the ram bodies each having a shear blade (100, 150) connected thereto; a seal groove formed in one of the shear blades (100, 150); and a sealing system for sealing between the shear blades (100, 150), the sealing system comprising a seal assembly positioned substantially within the seal groove, the ram-type blowout preventer characterized in that the sealing system further comprises one or more rail guide grooves to receive and guide one or more rail seal actuators laterally until contact is made with the outer ends of an actuator plate, said one or more rail guide grooves formed in said one shear blades (150, 100), and the rail seal actuators formed in the other (100, 150) of said shear blades and the seal assembly comprising a seal member and said actuator plate, that when driven axially backward in the seal groove, compresses said seal member such that a seal between said shear blades (100, 150) is created, the seal assembly further comprising_an integral solid retainer for retaining the seal member in the seal groove when the seal member is compressed.