mhurhangee/patent-ind-claim-en huggingface dataset:
A generator for a wind turbine having a central axis, the generator comprising: a housing of substantially cuboidal form; a stator mounted within the housing ; characterized in that the stator has a plurality of multi-phase windings; and a bus ring for conveying electrical power from the plurality of multi-phase windings to power take-off modules ; wherein each power take-off module comprises a proximal end portion in electrical communication with the bus ring , and a distal end portion comprising a plurality of power take-off interfaces , wherein the distal end portion of each power take-off module is located substantially within a corner of the housing , and wherein each multi-phase winding is in exclusive electrical communication with a dedicated power take-off module . a housing of substantially cuboidal form; a stator mounted within the housing ; characterized in that the stator has a plurality of multi-phase windings; and a bus ring for conveying electrical power from the plurality of multi-phase windings to power take-off modules ; wherein each power take-off module comprises a proximal end portion in electrical communication with the bus ring , and a distal end portion comprising a plurality of power take-off interfaces , wherein the distal end portion of each power take-off module is located substantially within a corner of the housing , and wherein each multi-phase winding is in exclusive electrical communication with a dedicated power take-off module .
An ablation device , comprising an elongate body having proximal and distal ends, and an inner lumen extending therethrough, the inner lumen being configured to receive fluid therein and to deliver fluid to the distal end of the elongate body; an ablation electrode that forms a blunt distal end of the elongate body, the ablation electrode being configured to contact tissue without penetrating through the tissue and to heat surrounding tissue; and a heater element disposed within the inner lumen adjacent to the distal end of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen to a temperature greater than 37° C and less than 100° C, wherein the elongate body is configured such that fluid can circulate through the elongate body and is received back at the proximal end thereof without being released into surrounding tissue. an elongate body having proximal and distal ends, and an inner lumen extending therethrough, the inner lumen being configured to receive fluid therein and to deliver fluid to the distal end of the elongate body; an ablation electrode that forms a blunt distal end of the elongate body, the ablation electrode being configured to contact tissue without penetrating through the tissue and to heat surrounding tissue; and a heater element disposed within the inner lumen adjacent to the distal end of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen to a temperature greater than 37° C and less than 100° C, wherein the elongate body is configured such that fluid can circulate through the elongate body and is received back at the proximal end thereof without being released into surrounding tissue.
A cryocooler , comprising: a regenerator piston having a longitudinal axis ; a drive coupler coupled to a motor shaft having a longitudinal axis which is orthogonal to the longitudinal axis of the regenerator piston ; and a link flexure having a proximal end coupled by a first pin to the drive coupler and having a distal end coupled by a second pin to the regenerator piston , characterising in that the link flexure forms a vane having flattened opposing faces that are aligned orthogonally to a longitudinal axis for the first pin and to a longitudinal axis for the second pin . a regenerator piston having a longitudinal axis ; a drive coupler coupled to a motor shaft having a longitudinal axis which is orthogonal to the longitudinal axis of the regenerator piston ; and a link flexure having a proximal end coupled by a first pin to the drive coupler and having a distal end coupled by a second pin to the regenerator piston , characterising in that the link flexure forms a vane having flattened opposing faces that are aligned orthogonally to a longitudinal axis for the first pin and to a longitudinal axis for the second pin .
Building protection device for a flushing pipe to be connected to a sanitary ceramic and for a drain pipe to be connected to the sanitary ceramic, with a first sealing element (14.1) associated with the flushing pipe, a second sealing element (14.2) associated with the drain pipe, a rear wall (14.3) connecting the first sealing element (14.1) and the second sealing element (14.1), and a wall connected to the rear wall (14.3), preferably a circumferential wall (14.4), wherein the wall (14.4) connected to the rear wall (14.3) is formed in one piece or is connected to the rear wall (14.3) in a material-locking manner, wherein the first sealing element (14.1), the second sealing element (14.2), the rear wall (14.3) and the wall (14.4) are made of plastic, wherein the first sealing element (14.1) and the second sealing element (14.2) are designed in the form of axially open pipe sockets, and wherein the building protection device also has at least one removable or detachable protective cover (14.5), which covers the first sealing element (14.1) and/or the second sealing element (14.2) and is arranged at least partially in front of the front side of the rear wall (14.3). a first sealing element (14.1) associated with the flushing pipe, a second sealing element (14.2) associated with the drain pipe, a rear wall (14.3) connecting the first sealing element (14.1) and the second sealing element (14.1), and a wall connected to the rear wall (14.3), preferably a circumferential wall (14.4), wherein the wall (14.4) connected to the rear wall (14.3) is formed in one piece or is connected to the rear wall (14.3) in a material-locking manner, wherein the first sealing element (14.1), the second sealing element (14.2), the rear wall (14.3) and the wall (14.4) are made of plastic, wherein the first sealing element (14.1) and the second sealing element (14.2) are designed in the form of axially open pipe sockets, and wherein the building protection device also has at least one removable or detachable protective cover (14.5), which covers the first sealing element (14.1) and/or the second sealing element (14.2) and is arranged at least partially in front of the front side of the rear wall (14.3).
Drive protection device for protecting a traction drive in a vehicle, in particular a rail vehicle , comprising at least - one switching unit having an activation position and a deactivation position that protects the traction drive , and - a control unit that is provided to trigger a transition into the deactivation position in a first operating situation and when an operating variable (T, S) of the traction drive is in a critical range, wherein - the switching unit is provided to interrupt at least one electrical connection between at least one traction motor and a power converter unit of the traction drive in the deactivation position, characterised in that - the switching unit has a contactor which is configured to interrupt currents with a frequency of at least 5 Hz, in particular at least 10 Hz, - the control unit is provided to cause the activation position to be maintained in a second operating situation and when the operating variable (T, S) is in the critical range, - the operating situations are defined in each case by a speed of the vehicle or by a speed characteristic (GK, GK') which represents the speed of the vehicle, wherein the first operating situation corresponds to a journey with a speed which equates to or exceeds a threshold value and wherein the second operating situation corresponds to a journey with a speed below the threshold value, and - the control unit is provided to cause the activation position to be maintained as a function of a speed characteristic (GK, GK'). - one switching unit having an activation position and a deactivation position that protects the traction drive , and - a control unit that is provided to trigger a transition into the deactivation position in a first operating situation and when an operating variable (T, S) of the traction drive is in a critical range, wherein - the switching unit is provided to interrupt at least one electrical connection between at least one traction motor and a power converter unit of the traction drive in the deactivation position, characterised in that - the switching unit has a contactor which is configured to interrupt currents with a frequency of at least 5 Hz, in particular at least 10 Hz, - the control unit is provided to cause the activation position to be maintained in a second operating situation and when the operating variable (T, S) is in the critical range, - the operating situations are defined in each case by a speed of the vehicle or by a speed characteristic (GK, GK') which represents the speed of the vehicle, wherein the first operating situation corresponds to a journey with a speed which equates to or exceeds a threshold value and wherein the second operating situation corresponds to a journey with a speed below the threshold value, and - the control unit is provided to cause the activation position to be maintained as a function of a speed characteristic (GK, GK').
A cathode material, comprising: an active component; and a sodium salt dispersed in the active component, wherein the sodium salt has a chemical structure of Na a M c O b , wherein 0<a≤3, 0<b≤7, 0<c≤3, and M comprises at least one element selected from the group of Mo, Cr, Ti and V, characterized in that the active component comprises at least one selected from the group of lithium cobaltate, lithium nickel cobalt manganite composite oxide and lithium nickel cobalt aluminate composite oxide. an active component; and a sodium salt dispersed in the active component, wherein the sodium salt has a chemical structure of Na a M c O b , wherein 0<a≤3, 0<b≤7, 0<c≤3, and M comprises at least one element selected from the group of Mo, Cr, Ti and V, characterized in that the active component comprises at least one selected from the group of lithium cobaltate, lithium nickel cobalt manganite composite oxide and lithium nickel cobalt aluminate composite oxide.
A rotor for a rotating electric machine, the rotor comprising: a rotor core having magnet holes; and magnets inserted in the magnet holes of the rotor core , each of the magnets including two first surfaces respectively facing outward and inward of a rotor radial direction, and two second surfaces respectively facing one side and the other side of a rotor circumferential direction, both ends in a rotor axial direction of at least one first surface of the two first surfaces are covered with electric insulating films , and the lateral surface region between both ends of the one first surface that are covered with the electric insulating films, and the two second surfaces of each of the magnets are not covered with the electric insulating films . a rotor core having magnet holes; and magnets inserted in the magnet holes of the rotor core , each of the magnets including two first surfaces respectively facing outward and inward of a rotor radial direction, and two second surfaces respectively facing one side and the other side of a rotor circumferential direction, both ends in a rotor axial direction of at least one first surface of the two first surfaces are covered with electric insulating films , and the lateral surface region between both ends of the one first surface that are covered with the electric insulating films, and the two second surfaces of each of the magnets are not covered with the electric insulating films .
A medical device comprising: a shaft comprising a first segment and a second segment , wherein the first segment is configured to buckle upon application of a first critical force thereto; and wherein the second segment is configured to buckle upon application of a second critical force thereto, wherein the second critical force is lower than the first critical force; and means for maintaining an amount of force transmitted by the second segment to tissue contacting the second segment after an application of the second critical force to the second segment, wherein the second segment includes an outer surface and an inner surface and wherein the means for maintaining an amount of force is a coil disposed radially inwardly of the inner surface of the second segment , wherein the coil has a proximal end and a distal end characterised in that the spacing between adjacent turns of the coil is greater at the distal end of the coil than at the proximal end of the coil . a shaft comprising a first segment and a second segment , wherein the first segment is configured to buckle upon application of a first critical force thereto; and wherein the second segment is configured to buckle upon application of a second critical force thereto, wherein the second critical force is lower than the first critical force; and means for maintaining an amount of force transmitted by the second segment to tissue contacting the second segment after an application of the second critical force to the second segment, wherein the second segment includes an outer surface and an inner surface and wherein the means for maintaining an amount of force is a coil disposed radially inwardly of the inner surface of the second segment , wherein the coil has a proximal end and a distal end characterised in that the spacing between adjacent turns of the coil is greater at the distal end of the coil than at the proximal end of the coil .
A vibration device comprising: a light transmissive body that transmits light having a predetermined wavelength; a first cylindrical body that holds the light transmissive body at one end; a plate-shaped spring portion that supports another end of the first cylindrical body ; a second cylindrical body that supports, at one end, a position of the spring portion in an outer side portion of a position that supports the first cylindrical body ; a vibrating body provided at another end of the second cylindrical body and vibrating in a penetrating direction of the second cylindrical body ; characterized in that a structure of the light transmissive body, the first cylindrical body , the spring portion, or the second cylindrical body is configured so that a resonant frequency of the light transmissive body is larger than a resonant frequency of the spring portion, an excitation circuit that drives the vibrating body is further included, and the excitation circuit selectively excites resonance of the light transmissive body and resonance of the spring portion. a light transmissive body that transmits light having a predetermined wavelength; a first cylindrical body that holds the light transmissive body at one end; a plate-shaped spring portion that supports another end of the first cylindrical body ; a second cylindrical body that supports, at one end, a position of the spring portion in an outer side portion of a position that supports the first cylindrical body ; a vibrating body provided at another end of the second cylindrical body and vibrating in a penetrating direction of the second cylindrical body ; characterized in that a structure of the light transmissive body, the first cylindrical body , the spring portion, or the second cylindrical body is configured so that a resonant frequency of the light transmissive body is larger than a resonant frequency of the spring portion, an excitation circuit that drives the vibrating body is further included, and the excitation circuit selectively excites resonance of the light transmissive body and resonance of the spring portion.
A manipulation device permitting to manipulate and/or process workpieces, in particular for an assembly machine, including: - a main body , - a first guide having two guide rails provided on said main body which are aligned in parallel with each other and along which a first and a second carriage may be displaced, - a first motor which drives the first carriage and a second motor which drives the second carriage , each of said first and second motors being separately activatable, - a third carriage which is guided by a second guide on the first and second carriages , said second guide having two guide rails held on said first and second carriages by means of at least one guide element , respectively, and the two guide rails of said second guide being oriented in a V-shaped manner with respect to each other, with the first guide being vertically oriented when the manipulation device is in a position of use and the second guide being movable in a vertical plane of the first guide , said third carriage having a support element arranged thereon which, on its free end, has an interface for accommodating a processing tool or a handling apparatus, characterised in that - the motors are fixedly arranged on the main body between the two guide rails of the first guide , - at a bottom of the main body , a mounting plate is provided which may be fastened to a base frame of the assembly machine. - a main body , - a first guide having two guide rails provided on said main body which are aligned in parallel with each other and along which a first and a second carriage may be displaced, - a first motor which drives the first carriage and a second motor which drives the second carriage , each of said first and second motors being separately activatable, - a third carriage which is guided by a second guide on the first and second carriages , said second guide having two guide rails held on said first and second carriages by means of at least one guide element , respectively, and the two guide rails of said second guide being oriented in a V-shaped manner with respect to each other, with the first guide being vertically oriented when the manipulation device is in a position of use and the second guide being movable in a vertical plane of the first guide , said third carriage having a support element arranged thereon which, on its free end, has an interface for accommodating a processing tool or a handling apparatus, - the motors are fixedly arranged on the main body between the two guide rails of the first guide , - at a bottom of the main body , a mounting plate is provided which may be fastened to a base frame of the assembly machine.
A cylinder length sensor mounting and retaining assembly for a hydraulic cylinder , the assembly comprising: a casing attachable to a blind end of the cylinder ; a sensor retention cap affixable to the casing adjacent the blind end of the cylinder to close a sensor receiving channel; a first channel extending through the casing and oriented substantially in alignment with the sensor receiving channel; a second channel extending through the casing substantially perpendicular to the first channel and intersecting the first channel ; and a locking pin extendable through the second channel , wherein the second channel is positioned relative to the sensor retention cap such that with the locking pin extending through the second channel , the locking pin is disposed adjacent the sensor retention cap , characterised in that the sensor retention cap comprises a sensor retention cap cavity that is sized to receive a cylinder length sensor and that comprises a mounting face recessed in a counterbore so that exterior moisture has a tortured path to reach the mounting interface. a casing attachable to a blind end of the cylinder ; a sensor retention cap affixable to the casing adjacent the blind end of the cylinder to close a sensor receiving channel; a first channel extending through the casing and oriented substantially in alignment with the sensor receiving channel; a second channel extending through the casing substantially perpendicular to the first channel and intersecting the first channel ; and a locking pin extendable through the second channel , wherein the second channel is positioned relative to the sensor retention cap such that with the locking pin extending through the second channel , the locking pin is disposed adjacent the sensor retention cap , characterised in that the sensor retention cap comprises a sensor retention cap cavity that is sized to receive a cylinder length sensor and that comprises a mounting face recessed in a counterbore so that exterior moisture has a tortured path to reach the mounting interface.
Method for installing a geometric reference marker on a substantially flat horizontal ground for the calibration of electrical and/or electronic components of a motor vehicle , said installation method comprising: - positioning the vehicle on the ground, with the wheels parallel to a longitudinal axis (X) of the vehicle, - positioning geometric referencing equipment on the ground around the vehicle, said referencing equipment comprising a set of distinct elongate plates forming rulers (11-14), each ruler (11-14) having a planar bottom face resting at least partially on the ground and being sufficiently rigid not to be deformed in the plane of said bottom face, the positioning being performed by placing the rulers of the adjustment equipment on the ground according to a predetermined pattern, at a predetermined distance from the vehicle. - positioning the vehicle on the ground, with the wheels parallel to a longitudinal axis (X) of the vehicle, - positioning geometric referencing equipment on the ground around the vehicle, said referencing equipment comprising a set of distinct elongate plates forming rulers (11-14), each ruler (11-14) having a planar bottom face resting at least partially on the ground and being sufficiently rigid not to be deformed in the plane of said bottom face, the positioning being performed by placing the rulers of the adjustment equipment on the ground according to a predetermined pattern, at a predetermined distance from the vehicle.
A dried implant composition consisting essentially of a mixture of nanocrystalline hydroxyapatite particles derived from natural bone having a size of 50 to 200 μm and fragments of naturally crosslinked fibrous collagen material that pass through a 0.5 mm sieve, whereby the w/w ratio of hydroxyapatite to collagen is from 1.8 to 4.5.
A fan blade comprising a tip surface configured in use to face an internal wall of a nacelle , the tip surface having a suction side edge , a pressure side edge and a chamfer, having a chamfer angle, such that in use the suction side edge is further than the pressure side edge from the internal wall of the nacelle, wherein the chamfer angle (θ) of the chamfer varies along the tip surface between a leading edge of the fan blade and a trailing edge of the fan blade and characterised in that the rate of change of the chamfer angle (θ) with respect to chord position (X) is greater in regions where the curvature of the perimeter of the tip surface is greater and wherein the curvature of the perimeter is greater in regions closer to the leading edge and the trailing edge . the tip surface having a suction side edge , a pressure side edge and a chamfer, having a chamfer angle, such that in use the suction side edge is further than the pressure side edge from the internal wall of the nacelle, wherein the chamfer angle (θ) of the chamfer varies along the tip surface between a leading edge of the fan blade and a trailing edge of the fan blade and characterised in that the rate of change of the chamfer angle (θ) with respect to chord position (X) is greater in regions where the curvature of the perimeter of the tip surface is greater and wherein the curvature of the perimeter is greater in regions closer to the leading edge and the trailing edge .