mhurhangee/ep-ind-claims huggingface dataset:
A mold for extrusion forming of ceramic articles comprising: a die having a plurality of back holes which are provided in a supply end and through which a kneaded clay is supplied, and slits which are provided in an extrusion end so as to communicate with the plurality of back holes and through which the kneaded clay is extruded to form the ceramic articles; a back pressing plate and a back spacer which are arranged on the outer peripheral side of the supply end of the die to adjust the amount of the kneaded clay to be supplied; and a pressing plate and a spacer which are provided on the outer peripheral side of the extrusion end of the die to regulate the shape and size of the formed ceramic article, characterized in that at least a portion of the supply end of the die which overlaps with the back pressing plate is flattened so that over any distance between adjacent back holes, a height difference between protrusions and recesses does not exceed 65 μm, and a surface roughness (Ra) thereof is in a range of 0.05 μm to 10 μm. a die having a plurality of back holes which are provided in a supply end and through which a kneaded clay is supplied, and slits which are provided in an extrusion end so as to communicate with the plurality of back holes and through which the kneaded clay is extruded to form the ceramic articles; a back pressing plate and a back spacer which are arranged on the outer peripheral side of the supply end of the die to adjust the amount of the kneaded clay to be supplied; and a pressing plate and a spacer which are provided on the outer peripheral side of the extrusion end of the die to regulate the shape and size of the formed ceramic article, characterized in that at least a portion of the supply end of the die which overlaps with the back pressing plate is flattened so that over any distance between adjacent back holes, a height difference between protrusions and recesses does not exceed 65 μm, and a surface roughness (Ra) thereof is in a range of 0.05 μm to 10 μm.
A communication apparatus comprising: communication means capable of executing, while the communication apparatus is connected to a network, communication for allowing another apparatus connected to the network to recognize the communication apparatus; and control means for controlling the communication means to limit the communication with respect to discovery packet transmission/reception, characterized in that the control means is configured to determine whether the connection to a communication partner apparatus via the network is disconnected by control of the communication partner apparatus, wherein, when reconnection to the network is performed after connection to a communication partner apparatus via the network is disconnected and when it is determined that the disconnection is not caused by control by the communication partner apparatus while the limitation is imposed, the control means is configured to control the communication means to maintain the limitation with respect to discovery packet transmission/reception, and to transmit a reconnection notification to the communication partner apparatus by unicast, and wherein the control means is configured to control the communication means to remove the limitation when reconnection to the network is performed after connection to the communication partner apparatus via the network is disconnected due to control by the communication partner apparatus while the limitation is imposed. communication means capable of executing, while the communication apparatus is connected to a network, communication for allowing another apparatus connected to the network to recognize the communication apparatus; and control means for controlling the communication means to limit the communication with respect to discovery packet transmission/reception, characterized in that the control means is configured to determine whether the connection to a communication partner apparatus via the network is disconnected by control of the communication partner apparatus, wherein, when reconnection to the network is performed after connection to a communication partner apparatus via the network is disconnected and when it is determined that the disconnection is not caused by control by the communication partner apparatus while the limitation is imposed, the control means is configured to control the communication means to maintain the limitation with respect to discovery packet transmission/reception, and to transmit a reconnection notification to the communication partner apparatus by unicast, and wherein the control means is configured to control the communication means to remove the limitation when reconnection to the network is performed after connection to the communication partner apparatus via the network is disconnected due to control by the communication partner apparatus while the limitation is imposed.
A method for manufacturing lightweight blocks or profiles comprises the steps of: mixing and agglomerating scraps of corrugated cardboard of a predetermined maximum size with a bonding agent until an isotropic agglomerate is formed, and controlling the degree of humidity of said isotropic agglomerate in order not to destroy the mechanical resistance of the paper that the corrugated cardboard is made of; compacting said agglomerate until compacted blocks or profiles are formed by applying a controlled compacting pressure so as not to crush flutes in the internal structure of the corrugated cardboard; and drying said compacted blocks or profiles by applying heat until lightweight blocks or profiles are obtained. mixing and agglomerating scraps of corrugated cardboard of a predetermined maximum size with a bonding agent until an isotropic agglomerate is formed, and controlling the degree of humidity of said isotropic agglomerate in order not to destroy the mechanical resistance of the paper that the corrugated cardboard is made of; compacting said agglomerate until compacted blocks or profiles are formed by applying a controlled compacting pressure so as not to crush flutes in the internal structure of the corrugated cardboard; and drying said compacted blocks or profiles by applying heat until lightweight blocks or profiles are obtained.
A machine for preparing intravenous medicaments comprising an enclosing structure having a plurality of lateral walls which define the sides of a closed internal working environment, at least one access station being provided on at least one lateral wall of the enclosing structure for the selective access to the closed internal working environment, at least one wall of the lateral walls being an equipped wall which groups together the machinery which is provided for preparing the intravenous medicaments, each of the at least one equipped wall being provided with a plurality of stations for one or more objects (F, A, B, S) which can be used in the preparation of intravenous medicaments, the plurality of stations comprising: - at least one temporary receiving or parking station (26, 27, 28, 30) which is provided for temporarily receiving one or more of the objects (F, A, B, S), and - at least one operating station (31, 34, 42), distinct from the at least one temporary receiving or parking station (26, 27, 28, 30), which is provided for carrying out operations on one or more of the objects (F, A, B, S) for preparing intravenous medicaments, wherein said at least one temporary receiving or parking station (26, 27, 28, 30) and said at least one operating station (31, 34, 42) are provided on each of the at least one equipped wall of the lateral walls, the machine further comprising a handling robot which is arranged in the closed internal space of the machine, the handling robot being programmed to transfer the objects (F, A, B, S) from any station which is selected from at least one access station, at least one temporary receiving station (26, 27, 28, 30) and at least one operating station (31, 34, 42), to any other of those stations (12, 26, 27, 28, 30, 31, 34, 42), wherein there is provided in a substantially central zone of the at least one equipped wall (24,101) a preparation station, comprising a syringe support, which support is provided with an engaging member for a syringe, and wherein the syringe support comprises a syringe actuator which is capable of selectively moving forwards or backwards the plunger of a syringe gripped by the engaging member so as to operate the syringe in a drawing or injecting manner, the syringe support being mounted on a rotary platform which is actuated by a motor group which allows it to rotate in the vertical plane of the at least one equipped wall (24,101) so as to turn from time to time towards various groups which radially surround it and wherein all the operations on the objects stored on the at least one equipped wall (24,101) can be carried out without the intervention of the handling robot or an external operator. - at least one temporary receiving or parking station (26, 27, 28, 30) which is provided for temporarily receiving one or more of the objects (F, A, B, S), and - at least one operating station (31, 34, 42), distinct from the at least one temporary receiving or parking station (26, 27, 28, 30), which is provided for carrying out operations on one or more of the objects (F, A, B, S) for preparing intravenous medicaments,
Method for producing a magnet unit for a sensor device for detecting a measured value characteristic of a rotational state of a steering shaft of a motor vehicle, by: - providing an annular magnet element made of a plastic-bonded magnet material, - providing a carrier sleeve for connecting the magnet unit to a shaft part of the steering shaft, - providing a plastic element on the carrier sleeve and - integrally connecting the plastic element and the plastic-bonded magnet material of the magnet element by means of welding, characterized in that a plastic material of the plastic element is moulded onto an axial end face of the carrier sleeve, wherein the plastic element is connected to the carrier sleeve by a form fit and an axial stud, via which the integral connection is made, is formed on an axial end face of the plastic element and/or on an axial end face of the magnet element. - providing an annular magnet element made of a plastic-bonded magnet material, - providing a carrier sleeve for connecting the magnet unit to a shaft part of the steering shaft, - providing a plastic element on the carrier sleeve and - integrally connecting the plastic element and the plastic-bonded magnet material of the magnet element by means of welding,
A helicopter rotor seal assembly comprising: a rotor mast having a longitudinal axis (A-A') and an outer surface; a sleeve aligned longitudinally with the axis (A-A') and surrounding a portion of the rotor mast, the sleeve having an outer surface, and an inner surface; an annular mast cover affixed to the outer surface of the rotor mast; an annular horizontal seal attached to the inner surface of the sleeve and in contact with the annular mast cover; characterized in that the annular horizontal seal comprises a base and tines (212a, 212b), each of the tines (212a, 212b) having a spring disposed between the tine (212a, 212b) and the base that provides a substantially fluid-tight connection between the sleeve and the rotor mast; and in that the helicopter rotor seal assembly further comprises: an upper annular rotor mast seal affixed to the annular mast cover and extending outwardly sufficient to cover the annular horizontal seal. a rotor mast having a longitudinal axis (A-A') and an outer surface; a sleeve aligned longitudinally with the axis (A-A') and surrounding a portion of the rotor mast, the sleeve having an outer surface, and an inner surface; an annular mast cover affixed to the outer surface of the rotor mast; an annular horizontal seal attached to the inner surface of the sleeve and in contact with the annular mast cover; characterized in that the annular horizontal seal comprises a base and tines (212a, 212b), each of the tines (212a, 212b) having a spring disposed between the tine (212a, 212b) and the base that provides a substantially fluid-tight connection between the sleeve and the rotor mast; and in that the helicopter rotor seal assembly further comprises: an upper annular rotor mast seal affixed to the annular mast cover and extending outwardly sufficient to cover the annular horizontal seal.
A rotation angle detecting device comprising: a magnet member placed in a shaft member to face a magneto-electric conversion element and detecting a rotation angle of the shaft member in response to a relative rotation of the magnet member with respect to the magneto-electric conversion element, wherein the magnet member has a magnet having a rectangular parallelepiped body, the rectangular parallelepiped body having: a rectangular maximum surface, the maximum surface being orthogonal to an axis of the shaft member and having two long sides and two short sides, a rectangular long-side lateral surface orthogonal to the maximum surface and one side of which is a long side, and a rectangular short-side lateral surface orthogonal to the maximum surface and one side of which is a short side, characterized in that a groove is formed on the maximum surface so as to extend in parallel to the short-side lateral surface, and in that the magnet member is magnetized along the groove such that its north pole is located at one end of the groove and its south pole is located at the other end of the groove. a magnet member placed in a shaft member to face a magneto-electric conversion element and detecting a rotation angle of the shaft member in response to a relative rotation of the magnet member with respect to the magneto-electric conversion element, wherein the magnet member has a magnet having a rectangular parallelepiped body, the rectangular parallelepiped body having: a rectangular maximum surface, the maximum surface being orthogonal to an axis of the shaft member and having two long sides and two short sides, a rectangular long-side lateral surface orthogonal to the maximum surface and one side of which is a long side, and a rectangular short-side lateral surface orthogonal to the maximum surface and one side of which is a short side, a rectangular maximum surface, the maximum surface being orthogonal to an axis of the shaft member and having two long sides and two short sides, a rectangular long-side lateral surface orthogonal to the maximum surface and one side of which is a long side, and a rectangular short-side lateral surface orthogonal to the maximum surface and one side of which is a short side, characterized in that a groove is formed on the maximum surface so as to extend in parallel to the short-side lateral surface, and in that the magnet member is magnetized along the groove such that its north pole is located at one end of the groove and its south pole is located at the other end of the groove.
Power tool with a mains plug with a mains cable for supplying electrical energy to the power tool from an electrical supply system with a control device for the power tool, having a printed circuit board with an electronic power component arranged on it, wherein the printed circuit board is arranged in the mains plug and is intended to provide electronics functions for the power tool on the printed circuit board, wherein the electronics functions model restart prevention, soft starting, load-dependent motor control and/or motor protection, characterized in that the printed circuit board can be connected to components of the power tool via a data connection.
Control valve for a fuel injector in a fuel injection system, in particular in a common rail injection system, comprising a valve closing element which is capable of stroke movement for releasing and closing an outflow duct that is configured in a valve piece, wherein the valve closing element interacts with a valve seat that delimits the outflow duct, furthermore comprising a pin for guiding the valve closing element, wherein the pin while configuring a guiding gap is received in a bore that at least in portions penetrates the valve closing element, characterized in that the pin has a cone-shaped portion which has an external diameter which is reduced in relation to the guiding diameter of the pin and by way of which the pin plunges into the outflow duct, wherein the pin has an external contour which interacts with an internal contour of the valve piece that delimits the outflow duct, or with an internal contour of the valve closing element that delimits the bore, so as to configure a throttle point that lies outside the guiding gap.
A computer-implemented method of determining the cycle threshold (Ct) value of a growth curve for a kinetic Polymerase Chain Reaction process, comprising the steps of: - receiving a dataset representing a PCR growth curve, said dataset including a plurality of data points each having a pair of coordinate values (x,y), where the x-axis represents cycle number and the y-axis fluorescence intensity; - calculating an approximation function that fits the dataset by applying a regression process to determine parameters of the function and a curve approximating the dataset; - normalizing the curve approximating the dataset using the determined parameters to produce a normalized curve; and - processing the normalized curve to determine a point of maximum curvature, wherein the point of maximum curvature represents the cycle threshold (Ct) value of the PCR growth curve; wherein - the approximation function is a double sigmoid function of the form: a + bx + c 1 + exp − d x − e 1 + exp − f x − g; - calculating includes iteratively determining the parameters a, b, c, d, e, f and g of the function by applying a Levenberg-Marquardt regression process; and - processing includes determining the curvature at some or all points along the normalized curve. - receiving a dataset representing a PCR growth curve, said dataset including a plurality of data points each having a pair of coordinate values (x,y), where the x-axis represents cycle number and the y-axis fluorescence intensity; - calculating an approximation function that fits the dataset by applying a regression process to determine parameters of the function and a curve approximating the dataset; - normalizing the curve approximating the dataset using the determined parameters to produce a normalized curve; and - processing the normalized curve to determine a point of maximum curvature, wherein the point of maximum curvature represents the cycle threshold (Ct) value of the PCR growth curve; wherein - the approximation function is a double sigmoid function of the form: a + bx + c 1 + exp − d x − e 1 + exp − f x − g; - calculating includes iteratively determining the parameters a, b, c, d, e, f and g of the function by applying a Levenberg-Marquardt regression process; and - processing includes determining the curvature at some or all points along the normalized curve.
Method for depositing a target material onto a sensitive material, which method comprises the steps of: - providing a substrate (1; 10) with an emissive electroluminescent layer (2; 11); - creating a vapor plume (3; 12) of target material by a physical vapor deposition method; - depositing a first layer (6; 15) of target material on the emissive electroluminescent layer (2; 11), while maintaining the maximum particle velocity of the deposited particles below a preset value, which preset value is chosen such to prevent particles from penetrating of and/or damaging the emissive electroluminescent (2; 11) layer during deposition; and - depositing a second layer of target material on the first layer (6; 15) of target material, while the maximum particle velocity of the deposited particles is above the preset value. - providing a substrate (1; 10) with an emissive electroluminescent layer (2; 11); - creating a vapor plume (3; 12) of target material by a physical vapor deposition method; - depositing a first layer (6; 15) of target material on the emissive electroluminescent layer (2; 11), while maintaining the maximum particle velocity of the deposited particles below a preset value, which preset value is chosen such to prevent particles from penetrating of and/or damaging the emissive electroluminescent (2; 11) layer during deposition; and - depositing a second layer of target material on the first layer (6; 15) of target material, while the maximum particle velocity of the deposited particles is above the preset value.
A sun tracking method adapted in a sun tracking system comprising a photovoltaic cell device, an attitude control device, a short-circuit current sensing device, a motor-driving device and a control unit, wherein the short-circuit current sensing device at least comprises a switch power unit, characterized in that the sun tracking method comprises: driving the motor-driving device to further drive a motor of the attitude control device to change the attitude of the photovoltaic cell device, sensing and recording a short-circuit current of the photovoltaic cell device by using the short-circuit current sensing device at a moment when the switch power unit forms a closed circuit to sense and record the short-circuit current of the photovoltaic cell device; calculating a maximum value of the recorded short-circuit current with the control unit; and driving the motor-driving device to modulate the attitude of the photovoltaic cell device such that the attitude of the photovoltaic cell device corresponds to the maximum value of the short-circuit current. driving the motor-driving device to further drive a motor of the attitude control device to change the attitude of the photovoltaic cell device, sensing and recording a short-circuit current of the photovoltaic cell device by using the short-circuit current sensing device at a moment when the switch power unit forms a closed circuit to sense and record the short-circuit current of the photovoltaic cell device; calculating a maximum value of the recorded short-circuit current with the control unit; and driving the motor-driving device to modulate the attitude of the photovoltaic cell device such that the attitude of the photovoltaic cell device corresponds to the maximum value of the short-circuit current.