mhurhangee/ep-ind-claims huggingface dataset:
An electric power steering control device of a vehicle comprising: an idle stop device configured to execute idle-stop-during-stoppage control such that an engine of the vehicle is automatically stopped when predetermined stop conditions during stoppage including a condition that the vehicle is stopped hold, and execute idle-stop-during-traveling control such that the engine is automatically stopped when predetermined stop conditions during traveling including a condition that the vehicle is traveling at traveling speed equal to or lower than predetermined speed hold; and an electric power steering section configured to assist steering torque of the vehicle with an electric motor, the electric power steering control device including an upper limit value setting section configured to set an upper limit value of an assist amount for the steering torque in the electric power steering section, characterised in that the upper limit value setting section sets the upper limit value to a first upper limit value when the traveling speed of the vehicle is higher than the predetermined speed, sets the upper limit value to a second upper limit value smaller than the first upper limit value when the idle-stop-during-stoppage control is being executed by the idle stop device, and sets the upper limit value to a third upper limit value smaller than the first upper limit value and larger than the second upper limit value when the idle-stop-during-traveling control is being executed by the idle stop device. an idle stop device configured to execute idle-stop-during-stoppage control such that an engine of the vehicle is automatically stopped when predetermined stop conditions during stoppage including a condition that the vehicle is stopped hold, and execute idle-stop-during-traveling control such that the engine is automatically stopped when predetermined stop conditions during traveling including a condition that the vehicle is traveling at traveling speed equal to or lower than predetermined speed hold; and an electric power steering section configured to assist steering torque of the vehicle with an electric motor, the electric power steering control device including an upper limit value setting section configured to set an upper limit value of an assist amount for the steering torque in the electric power steering section, characterised in that the upper limit value setting section sets the upper limit value to a first upper limit value when the traveling speed of the vehicle is higher than the predetermined speed, sets the upper limit value to a second upper limit value smaller than the first upper limit value when the idle-stop-during-stoppage control is being executed by the idle stop device, and sets the upper limit value to a third upper limit value smaller than the first upper limit value and larger than the second upper limit value when the idle-stop-during-traveling control is being executed by the idle stop device.
A security device comprising - an array of image icon elements; and - an array of image icon focusing elements; - wherein the array of image icon elements and the array of image icon focusing elements are disposed relative to each other such that the security device projects at least one synthetic image when the array of image icon elements is viewed directly or through the array of image icon focusing elements; characterized in that the security device has a selected anti-harvesting temperature such that when the security device is coupled to a product substrate by a coupling means having a harvesting temperature, the anti-harvesting temperature is lower than the harvesting temperature of said coupling means, wherein the anti-harvesting temperature is determined by an anti-harvesting component (20, 22) of the security device, wherein the anti-harvesting component is a layer of the device where the layer comprises a material that will thermally decay at or above the anti-harvesting temperature. - an array of image icon elements; and - an array of image icon focusing elements; - wherein the array of image icon elements and the array of image icon focusing elements are disposed relative to each other such that the security device projects at least one synthetic image when the array of image icon elements is viewed directly or through the array of image icon focusing elements; characterized in that
A tool-holder turret comprising a stationary base body with a cavity extending along a longitudinal axis (X-X), a tool-holding disk capable of rotating in both directions of rotation relative to the stationary base body about an axis of rotation which is coaxial to and coincident with said longitudinal axis (X-X), said tool-holding disk being mounted to the end of a shaft which extends along said longitudinal axis (X-X), a first cylindrical annular body which is keyed to said shaft and is only free to axially slide thereon between a first axial position and a second axial position against elastic means acting between said first cylindrical body and said tool-holding disk, a second cylindrical annular body, which is also keyed to said shaft and capable of rotating relative thereto, said second cylindrical body having a plurality of symmetrical cam profiles (17, 17a, 17b,17c, 17d) arranged over a circumference of the front surface of its proximal end, with respect to said tool-holding disk, lock members (14, 10, 12) for locking said tool-holding disk relative to said stationary base body when said first cylindrical annular body is in its first axial position and for unlocking it when it is in its second axial position, said first cylindrical annular body having a plurality of cam followers engaged at their front with respective symmetrical cam profiles (17,17a,17b,17c,17d) of said second annular body, said cam followers and said cam profiles causing said first cylindrical annular body to axially move on said shaft in either direction as a result of angular displacements of said second cylindrical annular body, an electric servo-motor, which is kinematically linked to said second cylindrical annular body to impart angular displacements thereto in both directions of rotation coaxial to said shaft, characterized in that said first cylindrical annular body is kinetically linked (34,35) to an auxiliary tubular shaft coaxial with said shaft, and having a braking device that locks its rotation upon actuation.
A method for additive manufacture of at least one component area of a component, in particular a component of a turbomachine, comprising following steps: a) applying at least one powder layer of a powdery component material onto a component platform in the area of a construction and attachment zone in a layer-by-layer manner; b) locally solidifying the powder layer by selective illumination by means of at least one high-energy beam in the area of the construction and attachment zone while forming a component layer; c) lowering the component platform by a predefined layer thickness; and d) repeating steps a) to c) until the component area or the component is completed, wherein at least one contour portion of at least one component layer is illuminated at least once, in step b1), by means of at least one high-energy beam, in such a way that the solidified powder layer is locally heated without fusing, and in a temporally successive step b2) illumination is performed by at least one high-energy beam in such a way that the solidified powder layer is locally fused in the area of the contour portion, characterized in that step b1) is performed at least twice, prior to performing step b2), wherein a direction of motion of the at least one high-energy beam along the contour portion is inverted at least after one performance of step b1). a) applying at least one powder layer of a powdery component material onto a component platform in the area of a construction and attachment zone in a layer-by-layer manner; b) locally solidifying the powder layer by selective illumination by means of at least one high-energy beam in the area of the construction and attachment zone while forming a component layer; c) lowering the component platform by a predefined layer thickness; and d) repeating steps a) to c) until the component area or the component is completed,
A treatment apparatus for surgical correction of eyesight defects in an eye of a patient, said apparatus comprising a control device and a laser device which is controlled by the control device, and comprises a laser, generating laser radiation and feeding a three-dimensional focus adjustment device (9,11) for focussing the laser radiation into a focus located in the cornea of an eye, wherein the laser device is adapted to separate corneal tissue by irradiation of laser radiation to isolate a volume located in the cornea wherein a contact glass is provided which is adapted for fixation of the eye and deformation of a front surface of the cornea and which follows the focus adjustment device (9,11) wherein the control device (P, 12) defines target points located in the cornea, which are then specified to the laser device in order to control said laser device in terms of focus positions of the laser radiation in the cornea, and considers a deformation of the cornea of the eye that appears during irradiation of the pulsed laser radiation through the contact glass when defining the target points, characterized in that the control device (P, 12), when specifying the target points, compensates for errors in the focus position caused by the focus adjustment device (9, 11), which errors would lead to a deviation between the defined position and the specified position of the focus when focusing the laser radiation, by a difference that depends on the position of the respective target point.
An interface circuit, comprising: an interface, a detection control module, a switch module, a first data line, and a second data line, wherein the width of the first data line is between 0.3 mm and 0.5 mm, the width of the second data line is between 0.05 mm and 0.1 mm, the interface is electrically connected to the detection control module and a movable end of the switch module, a first fixed end of the switch module is electrically connected to the first data line, and a second fixed end of the switch module is electrically connected to the second data line, wherein the interface comprises a first pin and a second pin; when the detection control module detects that an input voltage of the first pin is higher than a threshold, a signal received by the interface is a data signal, and the detection control module controls the movable end of the switch module to connect to the second fixed end, so that the first pin is electrically connected to the second data line; and when the detection control module detects that an input voltage of the second pin is lower than a threshold, a signal received by the interface is a power supply signal, and the detection control module controls the movable end of the switch module to connect to the first fixed end, so that the second pin is electrically connected to the first data line. wherein the interface comprises a first pin and a second pin; when the detection control module detects that an input voltage of the first pin is higher than a threshold, a signal received by the interface is a data signal, and the detection control module controls the movable end of the switch module to connect to the second fixed end, so that the first pin is electrically connected to the second data line; and when the detection control module detects that an input voltage of the second pin is lower than a threshold, a signal received by the interface is a power supply signal, and the detection control module controls the movable end of the switch module to connect to the first fixed end, so that the second pin is electrically connected to the first data line.
A catalyst layer comprising an electrocatalyst comprising platinum, wherein the platinum can be alloyed or mixed with: one or more other precious metals, or base metals, or an oxide of a precious metal or a base metal; and an oxygen evolution catalyst, characterised in that the oxygen evolution catalyst comprises a crystalline metal oxide of formula (AA') a (BB') b O c. wherein A and A' are the same or different and are selected from the group consisting of yttrium, lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, magnesium, calcium, strontium, barium, sodium, potassium, indium, thallium, tin, lead, antimony and bismuth; B is selected from the group consisting of Ru, Ir, Os, and Rh; B' is selected from the group consisting of Ru, Ir, Os, Rh, Ca, Mg or RE (wherein RE is a rare earth metal), indium, thallium, tin, lead, antimony and bismuth; wherein a is 1.33 to 3; b is 2; and c is 3 to 10. one or more other precious metals, or base metals, or an oxide of a precious metal or a base metal; and an oxygen evolution catalyst, characterised in that the oxygen evolution catalyst comprises a crystalline metal oxide of formula (AA') a (BB') b O c. wherein A and A' are the same or different and are selected from the group consisting of yttrium, lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, magnesium, calcium, strontium, barium, sodium, potassium, indium, thallium, tin, lead, antimony and bismuth; B is selected from the group consisting of Ru, Ir, Os, and Rh; B' is selected from the group consisting of Ru, Ir, Os, Rh, Ca, Mg or RE (wherein RE is a rare earth metal), indium, thallium, tin, lead, antimony and bismuth; wherein a is 1.33 to 3; b is 2; and c is 3 to 10.
A digital triggering system for processing data relating to a signal received, comprising: - an analog-to-digital converter for converting an analog input signal into a digital signal, - an In-phase and Quadrature-phase, IQ, data source providing IQ data, - a first digital signal processor located downstream of said IQ data source, and - at least a second digital signal processor located downstream of said IQ data source, said first digital signal processor being connected with said IQ data source via a first signal path so that said first digital signal processor obtains the IQ data provided by said IQ data source, said second digital signal processor being connected with said IQ data source via a second signal path so that said second digital signal processor obtains the IQ data provided by said IQ data source, said first digital signal processor having at least a first signal processing parameter and said second digital signal processor having at least a second signal processing parameter, said first signal processing parameter and said second signal processing parameter being independent from each other, said first digital signal processor generating a trigger signal based upon a characteristic of the IQ data obtained from said IQ data source, and said first digital signal processor triggering said second digital signal processor via said trigger signal to acquire IQ data obtained from said IQ data source. - an analog-to-digital converter for converting an analog input signal into a digital signal, - an In-phase and Quadrature-phase, IQ, data source providing IQ data, - a first digital signal processor located downstream of said IQ data source, and - at least a second digital signal processor located downstream of said IQ data source, said second digital signal processor being connected with said IQ data source via a second signal path so that said second digital signal processor obtains the IQ data provided by said IQ data source, said first digital signal processor having at least a first signal processing parameter and said second digital signal processor having at least a second signal processing parameter, said first signal processing parameter and said second signal processing parameter being independent from each other, said first digital signal processor generating a trigger signal based upon a characteristic of the IQ data obtained from said IQ data source, and said first digital signal processor triggering said second digital signal processor via said trigger signal to acquire IQ data obtained from said IQ data source.
A catalytic bed-based deoxygenation system comprising: a filtration system having a plurality of selectively permeable nanofiltration membranes (50, 60, 110), at least one selectively permeable membrane (50, 60) of the plurality arranged to receive a raw seawater feed and produce a first membrane permeate (70, 90), at least one other selectively permeable membrane of the plurality arranged downstream to receive a reject stream (80, 100) from the at least one selectively permeable membrane (50, 60) and produce a second membrane permeate; and a catalyst bed-based deoxygenation unit arranged to receive the first and the second membrane permeate (70, 90, 120); and a hydrogen supply arranged such that hydrogen is added to the first and the second membrane permeate (70, 90 120) before they are received in the catalyst bed-based deoxygenation unit. a filtration system having a plurality of selectively permeable nanofiltration membranes (50, 60, 110), at least one selectively permeable membrane (50, 60) of the plurality arranged to receive a raw seawater feed and produce a first membrane permeate (70, 90), at least one other selectively permeable membrane of the plurality arranged downstream to receive a reject stream (80, 100) from the at least one selectively permeable membrane (50, 60) and produce a second membrane permeate; and a catalyst bed-based deoxygenation unit arranged to receive the first and the second membrane permeate (70, 90, 120); and a hydrogen supply arranged such that hydrogen is added to the first and the second membrane permeate (70, 90 120) before they are received in the catalyst bed-based deoxygenation unit.
An implantable medical device for modulating ovarian function, comprising a cooling part provided with temperature regulating apparatus (6 - 10), and an energy supply for powering said temperature regulating apparatus (6 - 10), said part being implantable in such a way so as to encase an ovary while an interior side of said part is in close contact with the cortex of said ovary, wherein said temperature regulating apparatus (6 - 10) is operable to selectively decrease the temperature of said ovary or a part thereof below the physiological body temperature in order to modulate ovarian function without changing the temperature of the whole body, characterised in that said temperature regulating apparatus is a matrix-like device divided into a plurality of cells for differentially and controllably modulating the temperature of each cell to allow temperature differences between different areas of the ovarian cortex.
Method for measuring partial discharge pulses of a shielded cable having a core and a shield, the method comprising: - connecting a coupling capacitor to a first connection point of the core; - providing a first, a second and a third coupling unit (K1, K2, K3), wherein the coupling units (K1, K2, K3) each have an input and a signal output; - connecting the input of the first coupling unit to the coupling capacitor, the input of the second coupling unit to a first connection point of the shield and the input of the third coupling unit to a second connection point of the shield in such a way that the shield is earthed via the second and third coupling units (K2, K3) rather than directly; - providing a test voltage at the first connection point of the core; - tapping off at least two measurement signals of the coupling units (K1, K2, K3) at the signal outputs of the coupling units (K1, K2, K3); - determining at least one characteristic value for an apparent charge of a partial discharge pulse of the cable in a manner dependent on the measurement signals; wherein - at least two of the measurement signals are computed with one another. - connecting a coupling capacitor to a first connection point of the core; - providing a first, a second and a third coupling unit (K1, K2, K3), wherein the coupling units (K1, K2, K3) each have an input and a signal output; - connecting the input of the first coupling unit to the coupling capacitor, the input of the second coupling unit to a first connection point of the shield and the input of the third coupling unit to a second connection point of the shield in such a way that the shield is earthed via the second and third coupling units (K2, K3) rather than directly; - providing a test voltage at the first connection point of the core; - tapping off at least two measurement signals of the coupling units (K1, K2, K3) at the signal outputs of the coupling units (K1, K2, K3); - determining at least one characteristic value for an apparent charge of a partial discharge pulse of the cable in a manner dependent on the measurement signals; - at least two of the measurement signals are computed with one another.
An agricultural implement, comprising: a frame; a plurality of shank assemblies pivotally coupled to the frame, each shank assembly of the plurality of shank assemblies comprising a shank extending between a proximal end and a distal end, each shank assembly further comprising at least one mounting element configured to couple the proximal end of the shank to a portion of the frame; a plurality of shank attachment members, each shank attachment member of the plurality of shank attachment members being coupled to the distal end of the shank of a respective shank assembly of the plurality of shank assemblies; characterised by a signal transmission device provided in operative association with at least one shank attachment member of the plurality of shank attachment members, the signal transmission device configured to transmit wireless signals; an antenna positioned on the shank assembly and configured to receive the wireless signals transmitted from the signal transmission device; and a controller communicatively coupled to the antenna, the controller configured to determine an installation status of the at least one shank attachment member based at least in part on the wireless signals received by the antenna from the signal transmission device. a frame; a plurality of shank assemblies pivotally coupled to the frame, each shank assembly of the plurality of shank assemblies comprising a shank extending between a proximal end and a distal end, each shank assembly further comprising at least one mounting element configured to couple the proximal end of the shank to a portion of the frame; a plurality of shank attachment members, each shank attachment member of the plurality of shank attachment members being coupled to the distal end of the shank of a respective shank assembly of the plurality of shank assemblies; characterised by a signal transmission device provided in operative association with at least one shank attachment member of the plurality of shank attachment members, the signal transmission device configured to transmit wireless signals; an antenna positioned on the shank assembly and configured to receive the wireless signals transmitted from the signal transmission device; and a controller communicatively coupled to the antenna, the controller configured to determine an installation status of the at least one shank attachment member based at least in part on the wireless signals received by the antenna from the signal transmission device.