mhurhangee/ep-ind-claims huggingface dataset:
A cutting insert for a shoulder milling tool, the cutting insert having a trigonal shape and a median plane extending through the cutting insert, the cutting insert comprising a first surface, an opposite second surface, and a circumferential surface extending between the first surface and the second surface, the first and second surfaces (14, 16) extending on opposite sides of the median plane, wherein the cutting insert comprises at least one cutting edge extending along an intersection between the first surface and the circumferential surface, the at least one cutting edge, as seen in a view towards the first surface, extending along a corner of the cutting insert, wherein the at least one cutting edge comprises a main cutting edge, a corner cutting edge, and a surface-wiping secondary cutting edge, wherein the main cutting edge adjoins to the corner cutting edge, and the corner cutting edge adjoins to the surface-wiping secondary cutting edge, characterised in that the surface-wiping secondary cutting edge is inclined in relation to the median plane such that the distance to the median plane decreases in a direction toward the corner cutting edge, wherein the corner cutting edge, as seen in a side view along the median plane and towards the main cutting edge, comprises a concave curve, and wherein the first surface comprises a flat centre surface transforming into an inclined main rake face adjacent to the main cutting edge, wherein the entire main cutting edge and the inclined main rake face extends at a greater distance from the median plane than the flat centre surface. the cutting insert comprises at least one cutting edge extending along an intersection between the first surface and the circumferential surface, the at least one cutting edge, as seen in a view towards the first surface, extending along a corner of the cutting insert, wherein the at least one cutting edge comprises a main cutting edge, a corner cutting edge, and a surface-wiping secondary cutting edge, wherein the main cutting edge adjoins to the corner cutting edge, and the corner cutting edge adjoins to the surface-wiping secondary cutting edge, characterised in that the surface-wiping secondary cutting edge is inclined in relation to the median plane such that the distance to the median plane decreases in a direction toward the corner cutting edge, wherein the corner cutting edge, as seen in a side view along the median plane and towards the main cutting edge, comprises a concave curve, and wherein the first surface comprises a flat centre surface transforming into an inclined main rake face adjacent to the main cutting edge, wherein the entire main cutting edge and the inclined main rake face extends at a greater distance from the median plane than the flat centre surface.
Device for ironing items of laundry, said device having at least one ironer body and at least one ironer band which is associated with the at least one ironer body and is circumferentially drivable, wherein the items of laundry are conveyable through an ironer gap between the or the respective ironer body and the ironer band associated with the same, wherein at least one inlet region of the laundry item into the respective ironer gap has associated therewith a feeding aid, the start of which in front of the inlet region is held at a spacing from the ironer band, characterized in that the feeding aid projects into the ironer gap by way of a free end located opposite the start, the laundry item can be moved along between the driven ironer band entraining it and the stationary feeding aid located in the inlet region, and the feeding aid is formed as a soft, flexible material strip or a flexible material web.
A specimen treatment chip provided in a specimen treatment apparatus to apply specimen treatment including a plurality of treatment steps to an object component in a specimen supplied by the specimen treatment apparatus, the specimen treatment chip comprising: a first fluid module that is provided with a first flow channel (201, 251) for applying a first treatment step to an object component in a specimen supplied by the specimen treatment apparatus; a second fluid module that is provided separately from the first fluid module, and that is provided with a second flow channel (201, 261) for applying a second treatment step to the object component subjected to the first treatment step; a substrate that is provided on its front surface with the first fluid module and the second fluid module; and a connection flow channel for connecting the first fluid module provided on the substrate and the second fluid module provided on the substrate to each other to move the object component from the first flow channel (201, 251) to the second flow channel (201, 261), wherein the substrate includes a connection port configured to be connected to the specimen treatment apparatus, the connection port being configured to inject an inspection liquid to the flow channels (201, 251, 201, 261) of the respective fluid modules (250, 260) provided on the substrate, the fluid modules (250, 260) being configured to use the inspection liquid in at least one of the plurality of treatment steps, and to supply pressure from the specimen treatment apparatus. a first fluid module that is provided with a first flow channel (201, 251) for applying a first treatment step to an object component in a specimen supplied by the specimen treatment apparatus; a second fluid module that is provided separately from the first fluid module, and that is provided with a second flow channel (201, 261) for applying a second treatment step to the object component subjected to the first treatment step; a substrate that is provided on its front surface with the first fluid module and the second fluid module; and a connection flow channel for connecting the first fluid module provided on the substrate and the second fluid module provided on the substrate to each other to move the object component from the first flow channel (201, 251) to the second flow channel (201, 261), wherein the substrate includes a connection port configured to be connected to the specimen treatment apparatus, the connection port being configured to inject an inspection liquid to the flow channels (201, 251, 201, 261) of the respective fluid modules (250, 260) provided on the substrate, the fluid modules (250, 260) being configured to use the inspection liquid in at least one of the plurality of treatment steps, and to supply pressure from the specimen treatment apparatus.
An image capture device for capturing an image of an object, comprising: a plurality of photoelectric conversion elements configured to output a signal corresponding to the image based on an amount of exposure between a first shutter operation for starting exposure and a second shutter operation for ending exposure; a controller configured to control the first shutter operation and the second shutter operation; and an image generation section configured to correct the signal, and to generate an output image corresponding to the signal after being corrected, characterized in that the image generation section is configured to correct the signal based on differences in exposure duration among the plurality of photoelectric conversion elements between the first shutter operation and the second shutter operation, and the image generation section is configured to correct the signal based on the differences in the exposure duration such that a correction amount derived from subtracting the amount of exposure before correction from the amount of exposure after correction is always zero or greater. a plurality of photoelectric conversion elements configured to output a signal corresponding to the image based on an amount of exposure between a first shutter operation for starting exposure and a second shutter operation for ending exposure; a controller configured to control the first shutter operation and the second shutter operation; and an image generation section configured to correct the signal, and to generate an output image corresponding to the signal after being corrected, characterized in that the image generation section is configured to correct the signal based on differences in exposure duration among the plurality of photoelectric conversion elements between the first shutter operation and the second shutter operation, and the image generation section is configured to correct the signal based on the differences in the exposure duration such that a correction amount derived from subtracting the amount of exposure before correction from the amount of exposure after correction is always zero or greater.
Method of automatically generating a model of an arrangement of at least one device (1, 2, 3, 14) arranged in a setting of a data centre, characterised by comprising the steps of - (a) sending a command to the at least one device upon which command the device emits an identification signal, wherein the identification signal is receivable by a mobile device controller, - (b) receiving the identification signal, - (c) recording a visual representation of the arrangement of the at least one device, - (d) identifying the at least one device according to the identification signal, - (e) providing the model comprising at least the following information: the identification of the device (1, 2, 3, 14) and the arrangement of the device in the setting. - (a) sending a command to the at least one device upon which command the device emits an identification signal, wherein the identification signal is receivable by a mobile device controller, - (b) receiving the identification signal, - (c) recording a visual representation of the arrangement of the at least one device, - (d) identifying the at least one device according to the identification signal, - (e) providing the model comprising at least the following information: the identification of the device (1, 2, 3, 14) and the arrangement of the device in the setting.
Method with which an additive displacement of a longitudinal acceleration signal of a travelling motor vehicle measured by an inertial sensor is determined, wherein at least the longitudinal acceleration signal, a brake signal and a drive signal are detected, and wherein a balance of forces of the longitudinal dynamics of the motor vehicle is analysed, wherein the signals are detected both for at least one acceleration process and also for at least one braking process, wherein the signals for acceleration processes are detected and/or analysed separately from the signals for braking processes, characterized in that the additive displacement is determined from a comparison of the signals detected during acceleration processes or values calculated therefrom with the signals detected during braking processes or values calculated therefrom.
An elevator machinery brake comprising a frame part having a first surface, an armature part having a first surface facing towards the first surface of the frame part, the armature part being movably supported through at least two supporting points (P1, P2, P3, P4) on the frame part, the at least two supporting points (P1, P2, P3, P4) limiting a width of a gap between the first surface of the frame part and the first surface of the armature part, spring means fitted at least partly into the frame part and acting between the frame part and the armature part for pushing the armature part in a first direction away from the frame part in order to activate the machinery brake, electromagnet means fitted into the frame part for pulling the armature part in a second direction opposite to the first direction against the force of the spring means towards the frame part in order to deactivate the machinery brake, whereby each of the supporting points (P1, P2, P3, P4) comprises a longitudinal support pin extending between the armature part and the frame part for supporting the armature part movably on the frame part and for limiting the width of the gap, characterized in that each of the supporting points (P1, P2, P3, P4) further comprises a sliding bearing surrounding the support pin in the armature part, a flange of the sliding bearing seating against the first surface of the armature part, a damper plate surrounding the support pin in the gap and seating against the flange of the sliding bearing, a recess surrounding the support pin in the frame part, said recess extending from the first surface of the frame part inwards into the frame part, whereby the armature part is movable in the first and in the second direction (S1, S2) via the sliding bearing on the support pins, the flange of the sliding bearing and the damper plate act as damping elements when the electromagnet means pulls the armature part towards the frame part, the damper plate is bendable into the recess when the electromagnet means pulls the armature part towards the frame part.
A wind outlet structure for a glass sheet cooling device, comprising: a case, wherein interior of the case forms a wind inlet channel; at least one wind outlet part, wherein the wind outlet part is connected to one surface of the case, interior of the wind outlet part forms a wind outlet channel communicated with the wind inlet channel, and another one surface of the wind outlet part opposite to the surface of wind outlet part which is connected to the case has a plurality of wind outlet holes; and at least one windshield, wherein the windshield is disposed in the wind outlet channel of the wind outlet part, and the windshield has a plurality of perforations; characterized in that the other surface of the wind outlet part opposite to the surface of wind outlet part, which is connected to the case, is a curved surface or an irregular surface, and the wind outlet holes are set on different angled surfaces; and the wind outlet structure is further provided with at least one controller disposed in the wind outlet channel of the wind outlet part and connected to the windshield, the controller controlling the windshield to move laterally, such that the perforations are communicated with or offset to the wind outlet holes. a case, wherein interior of the case forms a wind inlet channel; at least one wind outlet part, wherein the wind outlet part is connected to one surface of the case, interior of the wind outlet part forms a wind outlet channel communicated with the wind inlet channel, and another one surface of the wind outlet part opposite to the surface of wind outlet part which is connected to the case has a plurality of wind outlet holes; and at least one windshield, wherein the windshield is disposed in the wind outlet channel of the wind outlet part, and the windshield has a plurality of perforations; characterized in that the other surface of the wind outlet part opposite to the surface of wind outlet part, which is connected to the case, is a curved surface or an irregular surface, and the wind outlet holes are set on different angled surfaces; and the wind outlet structure is further provided with at least one controller disposed in the wind outlet channel of the wind outlet part and connected to the windshield, the controller controlling the windshield to move laterally, such that the perforations are communicated with or offset to the wind outlet holes.
Method of estimating additional power output (69, Pavail) for inertial response that will be available for output throughout a preset inertial response time interval (65, Δt), the method comprising: obtaining current values (77, 79; 43, 45) of at least a rotational speed (ω) of a wind turbine rotor and a power output of the wind turbine; deriving the additional power output (69, Pavail) based on the obtained current values (77, 79; 43, 45) and a remaining time interval of the preset inertial response time interval (65, Δt) such that the additional power is available for output during the entire predetermined time interval (65, Δt), characterized in that deriving the additional power output (69, Pavail) includes solving an optimization problem in which a post-value of the rotational speed is an optimization variable, wherein the post-value of the rotational speed is the rotational speed which is reached after the preset inertial response time interval has elapsed after a start point in time of the inertial response, wherein the post-value of the rotational speed is determined such that the additional power output is maximized. obtaining current values (77, 79; 43, 45) of at least a rotational speed (ω) of a wind turbine rotor and a power output of the wind turbine; deriving the additional power output (69, Pavail) based on the obtained current values (77, 79; 43, 45) and a remaining time interval of the preset inertial response time interval (65, Δt) such that the additional power is available for output during the entire predetermined time interval (65, Δt), characterized in that deriving the additional power output (69, Pavail) includes solving an optimization problem in which a post-value of the rotational speed is an optimization variable, wherein the post-value of the rotational speed is the rotational speed which is reached after the preset inertial response time interval has elapsed after a start point in time of the inertial response, wherein the post-value of the rotational speed is determined such that the additional power output is maximized.
A commission device configured to commission load devices, which commission device comprises - a first transmitter configured to transmit an activation signal to a load device for activating this load device, - a second transmitter configured to transmit a number of challenge signals to the activated load device, which activated load device is configured to respond to the number of challenge signals by sending back a response signal per challenge signal to the commission device, - a first receiver configured to receive the response signals from the activated load device, and - a controller configured to determine time-intervals present between transmissions of the challenge signals and receptions of the response signals, which controller is further configured to derive a position of the load device from an analysis of the time-intervals. - a first transmitter configured to transmit an activation signal to a load device for activating this load device, - a second transmitter configured to transmit a number of challenge signals to the activated load device, which activated load device is configured to respond to the number of challenge signals by sending back a response signal per challenge signal to the commission device, - a first receiver configured to receive the response signals from the activated load device, and - a controller configured to determine time-intervals present between transmissions of the challenge signals and receptions of the response signals, which controller is further configured to derive a position of the load device from an analysis of the time-intervals.
Hydraulic connector intended to assemble onto a wiper blade of a vehicle provided with at least one fluid spray manifold along the wiper blade, the hydraulic connector comprising at least one inlet coupling capable of being connected to an inlet of said fluid and at least one tube capable of being connected to a duct delimited by the manifold, the hydraulic connector comprising at least one outlet coupling (5, 13) and a sealing device (10, 15, 15') with the manifold, the sealing device (10, 15, 15') being a constituent part of the outlet coupling attached onto the tube, characterized in that the outlet coupling attached onto the tube of the hydraulic connector comprises a first upstream cylindrical portion intended to be housed in the tube of the hydraulic connector, a stop and a second downstream cylindrical portion intended to be housed in the duct of the spray manifold and comprising the sealing device consisting of a collar with an outer diameter greater than the outer diameter of the outlet coupling.
An injectable trace element solution for livestock, which includes 35-50 mg/ml of zinc, 2.5-10 mg/ml selenium, 5-20 mg/ml of copper and 7.5-15 mg/ml of manganese, in which at least one of the metals selected from the group comprising copper, zinc, and manganese is provided in the form of an EDTA complex, and which comprises a concentration of the metals of at least 60 mg/ml.
A boiler (2, 56, 58, 62, 70, 112) for transferring heat from exhaust gas (EG1, EG2) to a medium, the boiler (2, 56, 58, 62, 70, 112) comprising an exhaust gas inlet (26, 94, 130) for receiving exhaust gas from an external first exhaust gas source, a first exhaust gas outlet (28, 96, 132) for discharging exhaust gas from the external first exhaust gas source, means (16, 18, 76, 114) for conveying exhaust gas from the external first exhaust gas source from said exhaust gas inlet (26, 94, 130) to said first exhaust gas outlet (28, 96, 132), a medium inlet (38, 90, 126) for receiving the medium, a medium outlet (40, 92, 128) for discharging the medium, means (12, 82, 122) for conveying the medium from said medium inlet (38, 90, 126) to said medium outlet (40, 92, 128), a bypass pipe (20, 88, 124) for conveying exhaust gas from the external first exhaust gas source from said exhaust gas inlet (26, 94, 130) to said first exhaust gas outlet (28, 96, 132), which bypass pipe (20, 88, 124) is enclosed by a circumferential wall (42, 98, 116) of the boiler (2, 56, 58, 62, 70, 112), and a bypass regulator (44, 100, 134) arranged to block or unblock the bypass pipe (20, 88, 124) to regulate an exhaust gas flow through the bypass pipe (20, 88, 124), characterized in further comprising a first pressure sensor (52, 108, 142) for measuring a first exhaust gas pressure upstream the bypass pipe (20, 88, 124), and a control unit (50, 106, 140) communicating with the first pressure sensor (52, 108, 142) and the bypass regulator (44, 100, 134) and arranged to control the bypass regulator (44, 100, 134) in dependence on said first pressure, and further comprising a second pressure sensor (54, 110, 144) for measuring a second exhaust gas pressure downstream the bypass pipe (20, 88, 124), the control unit (50, 106, 140) further communicating with the second pressure sensor (54, 110, 144) and being arranged to control the bypass regulator (44, 100, 134) also in dependence on said second pressure.
Industrial dishwasher comprising a washing tank containing sprayers for washing and rinsing, respectively fed with washing water from a washing pump and rinsing water from a rinsing pump, and a water heating system comprising a washing water heating device with one or more resistances and a rinsing water heating device with two or more resistances, as well as a control circuit controlling the operation of said water heating system, characterized in that at least one resistance of said washing water heating device is correlated with a resistance of said rinsing water heating device so that the activation of the latter automatically implies the deactivation of the former and vice versa, and in that said correlated resistances (RB, RV) are either electrically connected together or commonly controlled such that they are not activated simultaneously and their activation is mutually exclusive.