mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus, comprising: an application executing a process related to image formation; a plurality of communication protocol daemons (2, 91, 92, 95-97) transmitting and receiving data in accordance with respective different communication protocols; and connection request mediation means for, in response to a connection notice from each of the communication protocol daemons, mediating connection instead of the communication protocol daemon by informing the application that a connection request is provided to the communication protocol daemon; characterised in that: the connection request mediation means is further arranged to: register service contents available in the application in response to a registration request from the application; to inform a predefined application of the registered service contents in response to the connection notice; and to transmit a reply to the connection notice received from the application to a predefined destination. an application executing a process related to image formation; a plurality of communication protocol daemons (2, 91, 92, 95-97) transmitting and receiving data in accordance with respective different communication protocols; and connection request mediation means for, in response to a connection notice from each of the communication protocol daemons, mediating connection instead of the communication protocol daemon by informing the application that a connection request is provided to the communication protocol daemon; characterised in that: the connection request mediation means is further arranged to: register service contents available in the application in response to a registration request from the application; to inform a predefined application of the registered service contents in response to the connection notice; and to transmit a reply to the connection notice received from the application to a predefined destination. the connection request mediation means is further arranged to: register service contents available in the application in response to a registration request from the application; to inform a predefined application of the registered service contents in response to the connection notice; and to transmit a reply to the connection notice received from the application to a predefined destination. register service contents available in the application in response to a registration request from the application; to inform a predefined application of the registered service contents in response to the connection notice; and to transmit a reply to the connection notice received from the application to a predefined destination.
Actuator device for a vehicle, in particular for a brake system of a motor vehicle, comprising at least one electronically commutated electric motor which has a rotor arranged in a rotationally fixed manner on a rotatably mounted shaft, and comprising at least one angle of rotation sensor for detecting a rotational position of the rotor, wherein the shaft is connected to at least one consumer which is to be driven by the electric motor, wherein the angle of rotation sensor is associated with an end of the shaft that is associated with the consumer, wherein the angle of rotation sensor is arranged in a manner situated opposite an end side of the shaft at the end of the shaft and wherein the actuator device is characterized by a drive electronics system, in particular power electronics system, which has at least one printed circuit board, wherein the printed circuit board is arranged in a manner situated opposite the end of the shaft, and wherein the printed circuit board is arranged in a housing in which a plurality of operable valves, in particular solenoid valves, are arranged, wherein the angle of rotation sensor is arranged on the printed circuit board, wherein the electric motor is arranged in a first housing part, the consumer is arranged in a second housing part and the drive electronics system is arranged in a third housing part of the housing, characterized in that the angle of rotation sensor is arranged between the valves in the second housing part (2").
A knitting method of a fabric by a flatbed knitting machine which is provided with at least a pair of needle beds (3,4) and a take down device, the needle beds (3,4) are opposed to each other with respect to a needle bed gap, and the take down device is arranged under the needle bed gap and takes down a fabric (10, 20) which droops after knitted, on the way to knit a base fabric (11, 21) which is to be knitted first, starting to knit an additional fabric (12, 22), which is shorter in a length of a wale direction than the base fabric (11, 21), by using a different section of the needle beds (3, 4) from a section of the needle beds (3, 4) which is being used to knit the base fabric (11, 21), before a lower end of the additional fabric (12 22) reaches the take down device, joining the additional fabric (12, 22) to the base fabric (11, 21), and decreasing the knitting width of the fabric (10, 20) after the joining by repeating, to move stitch from the additional fabric (12, 22) side to the inner side of the knitting width of the base fabric (11, 21), so as to overlap a stitch; and to form a new stitch subsequent to the overlapped stitch, characterized in that providing a separation knitting part (13, 14, 15, 16, 17) on the lower end of the additional fabric (12, 22) so as to have such shape that, in end portions of the section on which the additional fabric (12, 22) is knitted, the outer end portion of the knitting width, which is opposite to the direction to move stitch, is longer, and when starting to move stitch, the lower end of the outer end portion of the separation knitting part (13, 14, 15, 16, 17) is taken down by the take down device.
Sensor arrangement for measuring the temperature of the surface of a screen, comprising a temperature sensor mounted to a circuit carrier, a sensor housing as well as the screen with the surface to be measured, wherein the temperature sensor is positioned in the area of an end face of the circuit carrier in the direct vicinity of the surface to be measured, wherein a flexible heat conducting element is mounted between the surface to be measured and the circuit carrier, wherein the heat conducting element and the circuit carrier are flatly pressed against each other in the area of the temperature sensor and wherein the pressure between the circuit carrier and the heat conducting element is generated by a resilient element which is located in the sensor housing or is formed by the sensor housing.
A photoelectric encoder comprising: a light source adapted to radiate an illumination light beam; a scale which has a pattern arranged in a predetermined direction; a reference member adapted to make displacement relative to the scale and which serves as a reference for the displacement; a light-receiver adapted to receive the illumination light beam via the scale and the reference member; and a displacement detector (22, 23) adapted to detect the relative displacement of the scale and the reference member based on the illumination light beam received by the light-receiver; characterized by a modulator adapted to periodically modulate the illumination light beam during a period in which the scale and the reference member are relatively displaced; wherein the modulator is adapted to periodically modulate a phase difference between a pair of diffracted light beams which are generated by diffraction of the illumination light beam at the reference member and which interfere with each other on the scale and which have optical path lengths different from each other, by periodically modulating a wavelength of the illumination light beam, and the pair of diffracted light beams are a +1st-order diffracted light beam and a -1st-order diffracted light beam. a light source adapted to radiate an illumination light beam; a scale which has a pattern arranged in a predetermined direction; a reference member adapted to make displacement relative to the scale and which serves as a reference for the displacement; a light-receiver adapted to receive the illumination light beam via the scale and the reference member; and a displacement detector (22, 23) adapted to detect the relative displacement of the scale and the reference member based on the illumination light beam received by the light-receiver; characterized by a modulator adapted to periodically modulate the illumination light beam during a period in which the scale and the reference member are relatively displaced; wherein the modulator is adapted to periodically modulate a phase difference between a pair of diffracted light beams which are generated by diffraction of the illumination light beam at the reference member and which interfere with each other on the scale and which have optical path lengths different from each other, by periodically modulating a wavelength of the illumination light beam, and the pair of diffracted light beams are a +1st-order diffracted light beam and a -1st-order diffracted light beam.
A method (600, 1000) for indicating parameters of a precoder from a wireless device to a network node in a wireless communication system, the method comprising: determining (610, 1010) at least one rotation factors associated with a plurality of orthogonal beams; selecting (620, 1020) a subset of beams from the plurality of orthogonal beams, wherein the selected subset of beams creates a reduced beam space transformation matrix; and sending, to the network node, the selected subset of beams and the at least one rotation factors, wherein the selected subset of beams and the at least one rotation factors are part of the parameters of the precoder. determining (610, 1010) at least one rotation factors associated with a plurality of orthogonal beams; selecting (620, 1020) a subset of beams from the plurality of orthogonal beams, wherein the selected subset of beams creates a reduced beam space transformation matrix; and sending, to the network node, the selected subset of beams and the at least one rotation factors, wherein the selected subset of beams and the at least one rotation factors are part of the parameters of the precoder.
Container (2, 102) for storing and transporting flowable or pourable material, with a container underside (4, 104), a container top (6, 106), a container side wall (8, 108) connecting the container underside and top; and a spout (10, 110) which is integrally formed on the upper side (6, 106) of the container, can be closed with a cap (11, 111) and has a pouring opening, characterised in that a counter-bearing portion (24, 124) cooperating with the spout (10, 110) is so formed on the top side (6, 106) of the container adjacent to the spout (10, 110), and in that the surface of the counter-bearing portion (24, 124) facing the spout (10, 110) is curved in order to follow the course of a curved bucket outer wall, so that the upside-down container (2, 102) between the spout (10, 110) and the counter-bearing portion (24, 124) is positively or self-clampingly attachable to the edge of the bucket or loosely attachable or suspendable to remain automatically in a predetermined overhead position inclined towards the centre of the bucket.
A blowing-suction device, selectively operable in a blowing mode or a suction mode, the blowing-suction device comprising: a main body; a motor located in the main body, having a motor shaft providing rotational motion; a fan assembly driven by the motor to make rotational motion; and an air pipe connected to the main body, wherein the fan assembly comprises an axial fan and a centrifugal fan, in the blowing mode, the axial fan rotates to generate airflow blown out from the air pipe, and in the suction mode, the centrifugal fan rotates to generate airflow suctioned from the air pipe, further comprising a pivot device connecting the air pipe and the main body, wherein the pivot device operably drives the air pipe to move to different connecting positions relative to the main body. a main body; a motor located in the main body, having a motor shaft providing rotational motion; a fan assembly driven by the motor to make rotational motion; and an air pipe connected to the main body, wherein the fan assembly comprises an axial fan and a centrifugal fan, in the blowing mode, the axial fan rotates to generate airflow blown out from the air pipe, and in the suction mode, the centrifugal fan rotates to generate airflow suctioned from the air pipe, further comprising a pivot device connecting the air pipe and the main body, wherein the pivot device operably drives the air pipe to move to different connecting positions relative to the main body.
An assembly for a turbine engine, comprising: a slider seal including a washer and a tubular puck; the washer including an inner washer surface and an outer washer surface, the inner washer surface extending around an axis of the slider seal and having a non-circular cross-sectional geometry when viewed in a plane perpendicular to the axis, the inner washer surface forming a washer bore axially through the washer, and the outer washer surface extending around the axis and having a cross-sectional geometry with a shape that is different than a shape of the non-circular cross-sectional geometry; and the tubular puck projecting axially through the washer bore and including an outer puck surface, the outer puck surface extending around the axis, and the outer puck surface sealingly engaged with and configured to slide axially along the inner washer surface, wherein the tubular puck further includes an inner puck surface, and the inner puck surface extends around the axis and forms a puck bore axially through the tubular puck, and wherein the inner puck surface has a cross-sectional geometry, when viewed in a plane perpendicular to the axis, with a shape that is different than the shape of the non-circular cross-sectional geometry. a slider seal including a washer and a tubular puck; the washer including an inner washer surface and an outer washer surface, the inner washer surface extending around an axis of the slider seal and having a non-circular cross-sectional geometry when viewed in a plane perpendicular to the axis, the inner washer surface forming a washer bore axially through the washer, and the outer washer surface extending around the axis and having a cross-sectional geometry with a shape that is different than a shape of the non-circular cross-sectional geometry; and the tubular puck projecting axially through the washer bore and including an outer puck surface, the outer puck surface extending around the axis, and the outer puck surface sealingly engaged with and configured to slide axially along the inner washer surface, wherein the tubular puck further includes an inner puck surface, and the inner puck surface extends around the axis and forms a puck bore axially through the tubular puck, and wherein the inner puck surface has a cross-sectional geometry, when viewed in a plane perpendicular to the axis, with a shape that is different than the shape of the non-circular cross-sectional geometry.
An injection device comprising: a housing assembly defining a pair of ramps and adapted to hold a medicament cartridge, wherein the cartridge defines a container for a medication, has a first end adapted to receive a needle assembly and a piston disposed opposite the needle assembly wherein, during use, advancement of the piston within the cartridge ejects medication from the needle assembly; a driver operably coupled with the piston and adapted to advance the piston within the cartridge; a plunger having a pair of arms (60, 61), the plunger being moveable between a retracted position and an advanced position by a force exerted on the plunger, each of the arms being engageable with a respective one of the ramps whereby when the plunger is moved from the advanced position to the retracted position the arms are biased toward each other and when the plunger is moved from the retracted position to the advanced position the movement of the arms is guided by the ramps and the plunger pushes the driver to thereby advance the piston; and a braking mechanism including a braking member (80, 80A) disposed on one of the arms and a braking track (82, 82A) disposed on the housing assembly proximate the ramp engaged by the one arm, characterised in that, when the force exerted on the plunger exceeds a threshold value and causes the arms to flex, flexure of the arm engages the braking member with the braking track, wherein the engagement of the braking member with the braking track increases the resistance of the plunger to the force being exerted thereon. a housing assembly defining a pair of ramps and adapted to hold a medicament cartridge, wherein the cartridge defines a container for a medication, has a first end adapted to receive a needle assembly and a piston disposed opposite the needle assembly wherein, during use, advancement of the piston within the cartridge ejects medication from the needle assembly; a driver operably coupled with the piston and adapted to advance the piston within the cartridge; a plunger having a pair of arms (60, 61), the plunger being moveable between a retracted position and an advanced position by a force exerted on the plunger, each of the arms being engageable with a respective one of the ramps whereby when the plunger is moved from the advanced position to the retracted position the arms are biased toward each other and when the plunger is moved from the retracted position to the advanced position the movement of the arms is guided by the ramps and the plunger pushes the driver to thereby advance the piston; and a braking mechanism including a braking member (80, 80A) disposed on one of the arms and a braking track (82, 82A) disposed on the housing assembly proximate the ramp engaged by the one arm, characterised in that, when the force exerted on the plunger exceeds a threshold value and causes the arms to flex, flexure of the arm engages the braking member with the braking track, wherein the engagement of the braking member with the braking track increases the resistance of the plunger to the force being exerted thereon.
A method for fabricating a MOS transistor, comprising: providing a semiconductor substrate; forming a gate stack comprising a polysilicon gate on said semiconductor substrate; forming a first silicon oxide layer on said gate stack; forming extension regions in said semiconductor substrate adjacent to said gate stack; forming a carbon containing silicon oxide layer on said gate stack and said extension regions; forming a carbon containing silicon nitride layer on said carbon containing silicon oxide layer; etching said carbon containing silicon nitride layer to form sidewall structures adjacent to said carbon containing silicon oxide layer and on opposite sides of said gate stack; forming source and drain regions in said semiconductor substrate adjacent to said sidewall structures; and performing a rapid thermal anneal at a temperature in the range 1000°C to 1100°C to anneal said extension regions and said source and drain regions whereby carbon diffuses into the polysilicon gate and the extension regions. providing a semiconductor substrate; forming a gate stack comprising a polysilicon gate on said semiconductor substrate; forming a first silicon oxide layer on said gate stack; forming extension regions in said semiconductor substrate adjacent to said gate stack; forming a carbon containing silicon oxide layer on said gate stack and said extension regions; forming a carbon containing silicon nitride layer on said carbon containing silicon oxide layer; etching said carbon containing silicon nitride layer to form sidewall structures adjacent to said carbon containing silicon oxide layer and on opposite sides of said gate stack; forming source and drain regions in said semiconductor substrate adjacent to said sidewall structures; and performing a rapid thermal anneal at a temperature in the range 1000°C to 1100°C to anneal said extension regions and said source and drain regions whereby carbon diffuses into the polysilicon gate and the extension regions.
A nonwoven web comprising fibers in a thermally bonded web, the web comprising: (a) 1 to 30 wt. %, based on the weight of the web, of a bi-component fiber having a core polymer and a shell polymer, wherein the core polymer has a melting point of at least 240°C and the shell polymer has a melting point of up to 115°C; and the bi-component fiber has a diameter of 5 to 25 μm and a length of 2 to 15 mm; (b) 5 to 50 wt. %, based on the weight of the web, of a bi-component fiber having a core polymer and a shell polymer, wherein the core polymer has a melting point of at least 240°C and the shell polymer has a melting point of 120° to 170°C; and the bi-component fiber has a diameter of 5 to 25 microns and a length of 2 to 15 mm; and (c) 10 to 80 wt. %, based on the weight of the web of a staple fiber; wherein the web has a thickness of 0.25 to 2 mm, a solidity of 5 to 10%, a basis weight of 45 to 150 g/m 2, a pore size of 12 to 50 μm, and a permeability of 1.5 to 3 m/sec, wherein the web is substantially glass free. (a) 1 to 30 wt. %, based on the weight of the web, of a bi-component fiber having a core polymer and a shell polymer, wherein the core polymer has a melting point of at least 240°C and the shell polymer has a melting point of up to 115°C; and the bi-component fiber has a diameter of 5 to 25 μm and a length of 2 to 15 mm; (b) 5 to 50 wt. %, based on the weight of the web, of a bi-component fiber having a core polymer and a shell polymer, wherein the core polymer has a melting point of at least 240°C and the shell polymer has a melting point of 120° to 170°C; and the bi-component fiber has a diameter of 5 to 25 microns and a length of 2 to 15 mm; and (c) 10 to 80 wt. %, based on the weight of the web of a staple fiber;
A composition consisting essentially of: a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.01 ≤ V ≤ 500 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising more than 50% by weight of the total weight of fragrance modulator of Neopentyl Glycol Diethylhexanoate; and d) optionally water; and wherein the sum of the weights of ingredients a) to d) in the composition adds up to at least 98% of the composition's weight. a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.01 ≤ V ≤ 500 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising more than 50% by weight of the total weight of fragrance modulator of Neopentyl Glycol Diethylhexanoate; and d) optionally water;