mhurhangee/patent-ind-claim-en huggingface dataset:
A retainer assembly, comprising: a cam shaft ; a driven member fixed to the cam shaft ; and a retainer , comprising: a lift arm fixed to the cam shaft ; a transition arm engaged with the lift arm ; and a pinch arm pivotably engaged with the transition arm and movable between an engaged position and a stowed position; wherein the driven member is to rotate the cam shaft in a stowing direction to move the lift arm from a first position to a second position, and the cam shaft is to rotate in a pinching direction to move the lift arm from the second position to the first position, and wherein the transition arm is to move the pinch arm from the engaged position to the stowed position upon the driven member rotating the cam shaft in the stowing direction, and the transition arm is to move the pinch arm from the stowed position to the engaged position upon the cam shaft rotating in the pinching direction. a cam shaft ; a driven member fixed to the cam shaft ; and a retainer , comprising: a lift arm fixed to the cam shaft ; a transition arm engaged with the lift arm ; and a pinch arm pivotably engaged with the transition arm and movable between an engaged position and a stowed position; a lift arm fixed to the cam shaft ; a transition arm engaged with the lift arm ; and a pinch arm pivotably engaged with the transition arm and movable between an engaged position and a stowed position; wherein the driven member is to rotate the cam shaft in a stowing direction to move the lift arm from a first position to a second position, and the cam shaft is to rotate in a pinching direction to move the lift arm from the second position to the first position, and wherein the transition arm is to move the pinch arm from the engaged position to the stowed position upon the driven member rotating the cam shaft in the stowing direction, and the transition arm is to move the pinch arm from the stowed position to the engaged position upon the cam shaft rotating in the pinching direction.
Polyisocyanate mixture comprising a polyisocyanate component A) having aliphatically and/or cycloaliphatically bonded isocyanate groups and a polyisocyanate component B) having araliphatically and/or aromatically bonded isocyanate groups, characterized in that the polyisocyanate component A) comprises at least 0.85% by weight of sulfonate groups (calculated as SO 3 ; molar weight = 80 g/mol) in chemically bonded form and the proportion of the polyisocyanate component B) is 7 to 43% by weight of the total amount of the components A) and B).
A method for providing enhanced turn-by-turn directions by a personal navigation device, comprising: accessing a database of difficult turns to obtain an indication of difficulty for an upcoming turn along a planned route of travel , wherein the indication of difficulty is calculated based on missed turn statistics derived from a plurality of missed turn reports received from a plurality of personal navigation devices over a time period; determining whether the indication of difficulty for the upcoming turn exceeds a threshold ; and issuing enhanced directions for the upcoming turn in response the indication of difficulty the upcoming turn exceeding the threshold , wherein the missed turn reports identify a turn that was missed during turn-by-turn directions and information regarding situation parameters at the time the turn was missed. accessing a database of difficult turns to obtain an indication of difficulty for an upcoming turn along a planned route of travel , wherein the indication of difficulty is calculated based on missed turn statistics derived from a plurality of missed turn reports received from a plurality of personal navigation devices over a time period; determining whether the indication of difficulty for the upcoming turn exceeds a threshold ; and issuing enhanced directions for the upcoming turn in response the indication of difficulty the upcoming turn exceeding the threshold , wherein the missed turn reports identify a turn that was missed during turn-by-turn directions and information regarding situation parameters at the time the turn was missed.
A walk-behind self-propelled machine , comprising: a chassis ; a wheel , configured to support the chassis and rotatable relative to the chassis ; a drive motor , configured to drive the wheel to rotate; a handle , configured to be operated by a user to push the walk-behind self-propelled machine into motion and comprising two grips operative to be held by a left hand and a right hand of the user; a speed adjusting element , configured to be movable relative to the handle to adjust a rotational speed of the drive motor , and configured to be operated by the user when the user holds one of the two grips with a single hand, the speed adjusting element being disposed between the two grips ; and an electromechanical converting device , configured to convert a positional change of the speed adjusting element relative to the handle into an electrical signal for adjusting the rotational speed of the drive motor ; wherein the speed adjusting element is movable relative to the handle between a first position and a second position; and wherein the rotational speed of the drive motor when the speed adjusting element is in the first position is greater than the rotational speed of the drive motor when the speed adjusting element is in the second position; characterized in that , the speed adjusting element is rotatably connected to the handle about a central axis , and the speed adjusting element is formed as a ring-shaped component that surrounds the handle . a chassis ; a wheel , configured to support the chassis and rotatable relative to the chassis ; a drive motor , configured to drive the wheel to rotate; a handle , configured to be operated by a user to push the walk-behind self-propelled machine into motion and comprising two grips operative to be held by a left hand and a right hand of the user; a speed adjusting element , configured to be movable relative to the handle to adjust a rotational speed of the drive motor , and configured to be operated by the user when the user holds one of the two grips with a single hand, the speed adjusting element being disposed between the two grips ; and an electromechanical converting device , configured to convert a positional change of the speed adjusting element relative to the handle into an electrical signal for adjusting the rotational speed of the drive motor ; wherein the speed adjusting element is movable relative to the handle between a first position and a second position; and wherein the rotational speed of the drive motor when the speed adjusting element is in the first position is greater than the rotational speed of the drive motor when the speed adjusting element is in the second position; characterized in that , the speed adjusting element is rotatably connected to the handle about a central axis , and the speed adjusting element is formed as a ring-shaped component that surrounds the handle .
A testing system comprising: a smear preparing apparatus configured to prepare a smear slide by smearing a sample on a glass slide; a smear transporting apparatus configured to receive the smear slide prepared by the smear preparing apparatus and to transport the smear slide ; a controller provided in the smear preparing apparatus and configured to control operations of the smear preparing apparatus and the smear transporting apparatus ; and a display part provided in the smear preparing apparatus , wherein: the controller is configured to cause the display part to display a selection screen on which the smear preparing apparatus and the smear transporting apparatus can be selected, and based on a selection on the selection screen, the controller is configured to cause the smear preparing apparatus and/or the smear transporting apparatus selected on the selection screen to run respective start operations, the respective start operations of each apparatus comprising an action of that apparatus to establish a standby state of its mechanism in order to work on the smear slide . a smear preparing apparatus configured to prepare a smear slide by smearing a sample on a glass slide; a smear transporting apparatus configured to receive the smear slide prepared by the smear preparing apparatus and to transport the smear slide ; a controller provided in the smear preparing apparatus and configured to control operations of the smear preparing apparatus and the smear transporting apparatus ; and a display part provided in the smear preparing apparatus , wherein: the controller is configured to cause the display part to display a selection screen on which the smear preparing apparatus and the smear transporting apparatus can be selected, and based on a selection on the selection screen, the controller is configured to cause the smear preparing apparatus and/or the smear transporting apparatus selected on the selection screen to run respective start operations, the respective start operations of each apparatus comprising an action of that apparatus to establish a standby state of its mechanism in order to work on the smear slide . the controller is configured to cause the display part to display a selection screen on which the smear preparing apparatus and the smear transporting apparatus can be selected, and based on a selection on the selection screen, the controller is configured to cause the smear preparing apparatus and/or the smear transporting apparatus selected on the selection screen to run respective start operations, the respective start operations of each apparatus comprising an action of that apparatus to establish a standby state of its mechanism in order to work on the smear slide .
Pallet made of corrugated paperboard, which is created with a loading surface , supporting legs comprising end supporting legs and middle supporting legs , and lifting holes , the pallet having a length (L) and being produced from a rectangular base plate and a rectangular middle base plate , wherein a supporting cover is formed by means of folding from said rectangular base plate created with scorings , the supporting cover having supporting legs at both long sides of the pallet each with two lifting holes and bracing spaces formed by means of folding from the base plate , and the supporting cover having two fixing surfaces , and wherein a middle supporting cover is formed by means of folding said rectangular middle base plate created with scorings , the middle supporting cover having supporting legs with two lifting holes and bracing spaces formed by means of folding from the base plate , and the middle supporting cover having two fixing surfaces , characterised in that the pallet comprises a bracing plate fixed to a lower surface of the loading surface , wherein the two fixing surfaces of the supporting cover and the two fixing surfaces of the middle supporting cover are adhered to the lower surface of the bracing plate , and completely filled beams having a height (M3) are fixed in a space filleting manner in the upper part of the bracing spaces of the supporting legs along the entire length (L) of the pallet , and cylinders having a height (M4) are fixed in a space filleting manner below the completely filled beams in the bracing spaces of the supporting legs , and the sum of the height (M3) of the completely filled beam and the height (M4) of the cylinder is equal to the height (M2) of the bracing space , such as M3 + M4 = M2.
A composite roofing structure comprising: a roof cover board ; a layer of insulation ; and a layer of roofing membrane ; wherein the roof cover board is over the layer of insulation , the roofing membrane is over the roof cover board , the roof cover board is attached to the layer of insulation , and the roofing membrane is attached to the roof cover board ; characterized in that the roof cover board comprises (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. a roof cover board ; a layer of insulation ; and a layer of roofing membrane ; wherein the roof cover board is over the layer of insulation , the roofing membrane is over the roof cover board , the roof cover board is attached to the layer of insulation , and the roofing membrane is attached to the roof cover board ; characterized in that the roof cover board comprises (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent.
Extractor hood comprising a fan , a viewing hood , and at least one air supply duct , wherein the at least one air supply duct routes air from the fan in the inside of the extractor hood into the vicinity of the lower side of the viewing hood , wherein the at least one air supply duct has a duct end which lies in the lower region of the viewing hood and at least one air outlet apparatus is arranged at the duct end and is arranged in a mobile manner on the extractor hood at least partially in at least one direction and the air outlet apparatus has a longitudinal extension (L) and at least one air outlet element of the air outlet apparatus can be pivoted about an axis which is at right angles to the direction of the longitudinal extension (L), characterised in that the air outlet apparatus has a longitudinal extension (L) which runs in the lower side or parallel to the lower side of the viewing hood and the air outlet apparatus can be pivoted with respect to the direction of the longitudinal extension (L).
An apparatus for estimating a parameter of an induction motor including a current controller outputting d and q-axis voltages in a synchronous reference frame from d and q-axis current references and d and q-axis currents in the synchronous reference frame applied to the induction motor and a magnetic flux angle calculating unit calculating a magnetic flux angle by using d and q-axis currents in the synchronous reference frame applied to the induction motor and a rotor speed of the induction motor, in a control system, the apparatus comprising: a state estimator configured to calculate an error of rotor resistance upon receiving an output from the current controller and the d and q-axis currents in the synchronous reference frame applied to the induction motor; and an integral controller configured to obtain a difference between the rotor resistance output from the state estimator and nominal rotor resistance, characterised in that the apparatus further comprising: a calculating unit configured to calculate stator resistance from an output from the integral controller, wherein the calculating unit calculates stator resistance by using the following equation. R s = M i ds e − R ^ r + Δ R r _ comp L m 2 L r 2 R s = M i qs e − R ^ r + Δ R r _ comp L m 2 L r 2 wherein, R s is stator resistance, R r is rotor resistance, M = K I s i ds e ∗ − i ds e , N = K I s i qs e ∗ − i qs e , and Δ R r_comp are outputs from the integral controller, L m is inductance of the induction motor, and L r is rotor inductance. a state estimator configured to calculate an error of rotor resistance upon receiving an output from the current controller and the d and q-axis currents in the synchronous reference frame applied to the induction motor; and an integral controller configured to obtain a difference between the rotor resistance output from the state estimator and nominal rotor resistance, characterised in that the apparatus further comprising: a calculating unit configured to calculate stator resistance from an output from the integral controller, wherein the calculating unit calculates stator resistance by using the following equation. R s = M i ds e − R ^ r + Δ R r _ comp L m 2 L r 2 R s = M i qs e − R ^ r + Δ R r _ comp L m 2 L r 2 wherein, R s is stator resistance, R r is rotor resistance, M = K I s i ds e ∗ − i ds e , N = K I s i qs e ∗ − i qs e , and Δ R r_comp are outputs from the integral controller, L m is inductance of the induction motor, and L r is rotor inductance.
A work implement for an implement compartment of a material collection equipment , the work implement comprising: a pair of wheels adapted to propel the work implement about an axis (Y-Y'); an axle located within the implement compartment and having a pair of ends coupled to the pair of wheels ; and at least one pair of blades coupled to the axle , wherein each blade from the at least one pair of blades is angularly offset from one another and includes: a first blade extending in a direction away from the axle ; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade ; the second blade is disposed in a side-by-side relation with respect to the first blade , wherein the second blade is disposed adjacent to the first blade ; characterized in that : each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge , wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle . a pair of wheels adapted to propel the work implement about an axis (Y-Y'); an axle located within the implement compartment and having a pair of ends coupled to the pair of wheels ; and at least one pair of blades coupled to the axle , wherein each blade from the at least one pair of blades is angularly offset from one another and includes: a first blade extending in a direction away from the axle ; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade ; a first blade extending in a direction away from the axle ; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade ; the second blade is disposed in a side-by-side relation with respect to the first blade , wherein the second blade is disposed adjacent to the first blade ; characterized in that : each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge , wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle . each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge , wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle .
Control valve for controlling a fluid flow, comprising a valve housing and a valve element which can be moved relative thereto, having an aperture which, by way of movement of the valve element , can be brought into congruence with a line cross section which is defined on the part of the valve housing , in order to enable the fluid flow, and further comprising a sealing element which is received on the valve housing so as to surround the line cross section radially and can be brought into contact on a sealing face with a surface of the valve element with bridging of a gap , the extent of the gap changing in a manner which is dependent on the position of the valve element with respect to the valve housing , and reaching its maximum in the region of the congruence of the aperture with the line cross section , and, in the case of the maximum extent of the gap , the sealing element with its sealing face being lifted up from the surface of the valve element , characterized in that the line cross section is defined by way of a stub of the valve housing , and in that the stub and a further part of the valve housing define a space which lies in between and in which a sealing element is received which prestresses the spring element in the direction of the valve element , a mechanical stop preventing the sealing element from bearing against the surface of the valve element in the case of the presence of the maximum extent of the gap .
Directable magnetic mount electrically connected to a light emitter requiring cooling, the directable magnetic mount comprising: interface means conducting thermal energy away from the light emitter to a heat sink , and a magnetic connector magnetically connecting the directable magnetic mount to a base comprising the heat sink , the magnetic connector being configured for thermally interconnecting the interface means and the heat sink , the interface means being thermally connected to the heat sink in a plurality of orientations of the interface means with respect to the heat sink , characterized in that the magnetic connector is arranged outside a thermal conductive path of the interface means . interface means conducting thermal energy away from the light emitter to a heat sink , and a magnetic connector magnetically connecting the directable magnetic mount to a base comprising the heat sink , the magnetic connector being configured for thermally interconnecting the interface means and the heat sink , the interface means being thermally connected to the heat sink in a plurality of orientations of the interface means with respect to the heat sink , characterized in that the magnetic connector is arranged outside a thermal conductive path of the interface means .
A device for determining at least one property of a track for a rail vehicle , wherein the device comprises at least one profile detection apparatus for detecting a profile of at least one rail of the track, characterised in that the device comprises at least one positioning apparatus , wherein the at least one profile detection apparatus is movable by the positioning apparatus in a straight line along a trajectory that is oriented parallel to a vehicle transverse axis of the rail vehicle .