mhurhangee/ep-ind-claims huggingface dataset:
A film comprising at least three layers, and wherein at least one layer is an inner layer with a thickness of 15 percent or less of the total thickness of the film, wherein said inner layer is formed from polymer component (a) as a single component or a blend comprising 50 to 100 weight percent of polymer component (a), and wherein said inner layer or polymer component (a) has one of the following properties: A) a MD tensile, 2 percent secant modulus at least two times higher than the MD tensile, 2 percent secant modulus of a skin layer, or B) a MD tensile, 2 percent secant modulus at least five times lower than the MD tensile, 2 percent secant modulus of a skin layer; and wherein the MD tensile, 2 percent secant modulus of the inner layer, or of the polymer component (a) used to form the inner layer, is measured on a monolayered film formed from the composition of said inner layer, or the polymer component (a) used to form said inner layer, and in accordance with ISO 527-3-95; and wherein the MD tensile, 2 percent secant modulus of the skin layer is measured on a monolayered film formed from the composition of said skin layer, and in accordance with ISO 527-3-95; wherein the inner layer, or at least one polymer component of the inner layer, has one of the following properties: C) a melt index, I2 (190°-C/2.16kg) of less than, or equal to 2 g/10 min (ASTM D-1238-04), or D) a melt flow rate, MFR (230°C/2.16kg) of less than, or equal to, 5 g/10 min (ASTM D-1238-04); and wherein the film does not contain an adhesive layer between two film layers. A) a MD tensile, 2 percent secant modulus at least two times higher than the MD tensile, 2 percent secant modulus of a skin layer, or B) a MD tensile, 2 percent secant modulus at least five times lower than the MD tensile, 2 percent secant modulus of a skin layer; and C) a melt index, I2 (190°-C/2.16kg) of less than, or equal to 2 g/10 min (ASTM D-1238-04), or D) a melt flow rate, MFR (230°C/2.16kg) of less than, or equal to, 5 g/10 min (ASTM D-1238-04); and
A vibration-damping controlling apparatus (2, 90, 100, 110, 120, 130) for suppressing sprung vibration generated to a vehicle by an input from a road surface to wheels (20, 21, 22) provided with the vehicle by controlling a driving force of the vehicle, wherein the vibration-damping apparatus is configured such that a sprung vibration damping as a suppression of the sprung vibration is executed by controlling a torque of a motor disposed as a power source when at least the vehicle travels, and the sprung vibration damping, which is executed by controlling the torque of the motor, is restricted in response to a state of a battery which supplies power to the motor or to a state of a control which makes an influence on a power of the battery, characterized in that the vibration-damping apparatus is configured such that the sprung vibration damping is restricted at the time at which an internal combustion engine as a power source in traveling starts or stops as well as when a voltage of the battery is equal to or more than an upper limit threshold value or equal to or less than a lower limit threshold value.
A gear steel alloy comprising, in combination by weight percent, about 3.5 Cr, 16.3 Co, 1.75 Mo, 7.5 Ni, 0.02 V, 0.20 W, 0.11 C, 0.03 Ti, and the balance Fe; said alloy case-hardened by a carburizing technique, with constituents as set forth comprising the nominal, initial melt constituency, wherein said alloy comprises a predominantly lath martensitic microstructure matrix essentially free of topologically close-packed phases and the alloy has a case hardness greater than about 62 HRC and a core toughness greater than about 50 ksi√in.
A base station apparatus provided in a mobile communication system including the base station apparatus and a mobile station apparatus, the base station apparatus is characterized in that: the base station apparatus is configured to perform communications with the mobile station apparatus by carrier aggregation using a plurality of different frequency bands configured by the base station apparatus, and to indicate to perform Inter-Frequency Measurement by information in a control message based on a mobile station apparatus capability indicating concurrent reception of a plurality of different frequency bands and the plurality of different frequency bands for carrier aggregation that is configured on the mobile station apparatus, the Inter-Frequency Measurement including one of a first Inter-Frequency Measurement without the need for providing a measurement gap and a second Inter-Frequency Measurement with the need for providing the measurement gap, wherein the mobile station apparatus capability further includes information for carrier aggregation concerning the measurement gap for performing the Inter-frequency Measurement in carrier aggregation using the plurality of different frequency bands. the base station apparatus is configured to perform communications with the mobile station apparatus by carrier aggregation using a plurality of different frequency bands configured by the base station apparatus, and to indicate to perform Inter-Frequency Measurement by information in a control message based on a mobile station apparatus capability indicating concurrent reception of a plurality of different frequency bands and the plurality of different frequency bands for carrier aggregation that is configured on the mobile station apparatus, the Inter-Frequency Measurement including one of a first Inter-Frequency Measurement without the need for providing a measurement gap and a second Inter-Frequency Measurement with the need for providing the measurement gap, wherein the mobile station apparatus capability further includes information for carrier aggregation concerning the measurement gap for performing the Inter-frequency Measurement in carrier aggregation using the plurality of different frequency bands.
A rocking cylinder assembly comprising: a cylinder having a cylinder bore terminating at a cylinder bearing surface and a cylinder aperture defined by a line of intersection between the cylinder bore and the cylinder bearing surface, the cylinder being rotatable about a rocking axis between first and second end positions; and a bearing component (8, 50) having a component bore (20, 52) terminating at a component bearing surface (6, 56) and a component aperture (22, 58) defined by a line of intersection between the component bore (20, 52) and the component bearing surface (6, 56), the cylinder bearing surface bearing against the component bearing surface (6, 56) and the cylinder and component apertures (16, 22, 58) being in fluid communication as the cylinder rotates between the first and second end positions, a first one of the cylinder and component apertures (16, 22, 58) having a greater area than the second one of the cylinder and component apertures (16, 22, 58), the first one of the cylinder and component apertures (16, 22, 58) defining a first fluid flow path having a first principal fluid flow axis along which fluid flows through the said first one of the apertures (16, 22, 58) and a second one of the cylinder and component apertures (16, 22, 58) defining a second fluid flow path having a second principal fluid flow axis along which fluid flows through the second one of the apertures (16, 22, 58), characterised in that the ratio of the area of the said second one of the apertures (16, 22, 58) to the square of the maximum extent of the said second one of the apertures (16, 22, 58) in a direction perpendicular to the rocking axis and perpendicular to the second principal fluid flow axis is greater than the ratio of the area of the said first one of the apertures (16, 22, 58) to the square of the maximum extent of the said first one of the apertures (16, 22, 58) in a direction perpendicular to the rocking axis and perpendicular to the first principal fluid flow axis, wherein the component bore (20, 52) comprises an axisymmetric portion (24, 60) which is axisymmetrical about the principal fluid flow axis along which fluid flows through the component aperture (22, 58) and a non-axisymmetric portion (23, 62) which is non-axisymmetric about the said principal fluid flow axis, the non-axisymmetric portion (23, 62) comprising the component aperture (22, 58), and wherein a maximum length of the non-axisymmetrical portion of the component bore in a direction parallel to the said principal fluid flow axis is less than a maximum length of the axisymmetrical portion of the component bore (20, 52) in that direction.
Window frame for a roof window comprising an upper stile, a lower stile and two side stiles, constructed out of thermoplastic profiles welded together at corners of the frame, said stile profiles (1, 2, comprise an outer wall, an inner wall as well as a top wall and a bottom wall with at least one chamber in between them, wherein stile inner wall is facing the interior frame opening, and outer wall, once installed, is partially flush with the roof structure said window frame being characterized in that it includes an infill profile attached to the lower stile inner wall, said infill profile being designed to fill the gap between the frame lower stile and lower stile of the sash seated in the window frame,such that unhindered sash insertion and extraction into and out of the window frame is provided, and the window frame being further characterized in that it comprises a latching cube seated at least partially on the infill profile.
A Radio Frequency Identification "RFID" integrated circuit "IC" comprising: a first circuit block electrically coupled to a first antenna contact and to a second antenna contact; wherein: the first antenna contact is disposed on a first surface of the IC; the second antenna contact is disposed on a second surface of the IC different from the first surface; and the first and second antenna contacts are electrically disconnected from each other, characterized in that: the Radio Frequency Identification "RFID" integrated circuit "IC" further includes a nonconductive stabilization layer forming at least a portion of the first surface of the IC, wherein the first antenna contact is disposed on the nonconductive stabilization layer and an electrical connection is formed between the first circuit block and the first antenna contact. a first circuit block electrically coupled to a first antenna contact and to a second antenna contact; wherein: the first antenna contact is disposed on a first surface of the IC; the second antenna contact is disposed on a second surface of the IC different from the first surface; and the first antenna contact is disposed on a first surface of the IC; the second antenna contact is disposed on a second surface of the IC different from the first surface; and the first and second antenna contacts are electrically disconnected from each other, characterized in that: the Radio Frequency Identification "RFID" integrated circuit "IC" further includes a nonconductive stabilization layer forming at least a portion of the first surface of the IC, wherein the first antenna contact is disposed on the nonconductive stabilization layer and an electrical connection is formed between the first circuit block and the first antenna contact.
A method of printing a three-dimensional structural component onto a base, the base being a fabric used to make articles of apparel or uppers for articles of footwear, the method comprising: receiving a set of predetermined thicknesses for the three-dimensional structural component; providing print instructions in terms of percentages of a predetermined spot color, for which a printing system already has known data, wherein the percentage of the spot color relates to a known color density of the spot color, and wherein the percentages of the spot color are correlated with a desired layer height of a layer to be printed, a maximum layer height corresponding to a percentage of 100% of the spot color; wherein the print instructions include a grayscale image with a given percentage of the spot color at each pixel that will achieve the desired layer height in the three-dimensional structural component that corresponds with that pixel; and wherein the known data includes the amount of ink or print material required to achieve a desired percentage for the predetermined spot color; printing onto the base an amount of the ink or the print material based on the set of predetermined thicknesses, comprising: printing the layer onto the base including printing a first portion to a shorter height than a second portion by dispensing a smaller volume of the ink or the print material for the first portion than for the second portion, and a volume of the ink or the print material printed for each portion of the layer is selected to achieve a height of the set of predetermined thicknesses. receiving a set of predetermined thicknesses for the three-dimensional structural component; providing print instructions in terms of percentages of a predetermined spot color, for which a printing system already has known data, wherein the percentage of the spot color relates to a known color density of the spot color, and wherein the percentages of the spot color are correlated with a desired layer height of a layer to be printed, a maximum layer height corresponding to a percentage of 100% of the spot color; wherein the print instructions include a grayscale image with a given percentage of the spot color at each pixel that will achieve the desired layer height in the three-dimensional structural component that corresponds with that pixel; and wherein the known data includes the amount of ink or print material required to achieve a desired percentage for the predetermined spot color; printing onto the base an amount of the ink or the print material based on the set of predetermined thicknesses, comprising: printing the layer onto the base including printing a first portion to a shorter height than a second portion by dispensing a smaller volume of the ink or the print material for the first portion than for the second portion, and a volume of the ink or the print material printed for each portion of the layer is selected to achieve a height of the set of predetermined thicknesses.
A base station controlling apparatus for a wireless communication system containing at least one small cell, the base station controlling apparatus comprising: an upper limit determination unit configured to determine an estimated upper limit for the number of small cells using an unlicensed frequency band in a target area according to available unlicensed frequency band resources and an estimated traffic in the target area; and a frequency band controlling unit configured to control one or more small cells to operate or stop operating in the unlicensed frequency band based on the estimated upper limit for the number, such that the number of the small cells operating in the unlicensed frequency band is not greater than the estimated upper limit for the number. an upper limit determination unit configured to determine an estimated upper limit for the number of small cells using an unlicensed frequency band in a target area according to available unlicensed frequency band resources and an estimated traffic in the target area; and a frequency band controlling unit configured to control one or more small cells to operate or stop operating in the unlicensed frequency band based on the estimated upper limit for the number, such that the number of the small cells operating in the unlicensed frequency band is not greater than the estimated upper limit for the number.
A door hinge in household appliances including: - a receiving part fixed to an appliance housing; - a hinge body fixed to a household appliance door; - a connecting arm, wherein the connecting arm is provided on the side cooperating with the receiving part with a connecting element for detachably attaching the connecting arm to the receiving part and for ensuring clearance between the connecting arm and the receiving part, and the connecting arm is, on the side cooperating with the hinge body, pivotally connected to the hinge body via an axle, and - a locking element pivotally attached to the connecting arm via a connecting axle for rotating the locking element about the connecting axle from the unlocked position to the locked position and vice versa, and the locking element is provided in the part distant from the connecting axle with a head with a second contact surface of the convex C- shape with a certain curvature, characterized in that the locking element is formed of one metal part and consists of two mutually parallel legs (6a, 6b) and the legs (6a, 6b) are connected to each other in their upper part, i.e. in the part adapted to cooperate with the receiving part and with the hinge body, by a cross-piece 6c and each of the legs (6a, 6b) is provided in the part distant from the connecting axle with said head with said second contact surface of the convex C-shape with a certain curvature and in the area intended for receiving the head of the locking element, the receiving part is provided with matching elements with first contact surfaces of a C-shaped concave shape with a certain curvature, wherein, when placing the locking element in the locked position, free movement of the second contact surfaces past the first contact surfaces is made possible due to the clearance between the connecting arm and the receiving part until the locking element is moved to the stable position in a point of stability. - a receiving part fixed to an appliance housing; - a hinge body fixed to a household appliance door; - a connecting arm, wherein the connecting arm is provided on the side cooperating with the receiving part with a connecting element for detachably attaching the connecting arm to the receiving part and for ensuring clearance between the connecting arm and the receiving part, and the connecting arm is, on the side cooperating with the hinge body, pivotally connected to the hinge body via an axle, and - a locking element pivotally attached to the connecting arm via a connecting axle for rotating the locking element about the connecting axle from the unlocked position to the locked position and vice versa, and the locking element is provided in the part distant from the connecting axle with a head with a second contact surface of the convex C- shape with a certain curvature,
A pipette, comprising - a body with an upper end and a lower end, - in the body, a cylinder with an upper end and an open lower end, - in the cylinder, a piston comprising a piston rod on the upper end side of the cylinder, whereby the piston has an upper position from which it can be pushed downwards by the rod, - a mechanism with which the stroke length of the piston can be changed by rotating the piston rod, characterized in that - the pipette comprises a locking mechanism (12, 19), which prevents the rotation of the piston rod when the piston has been pushed a certain distance downwards from its upper position, but does not prevent the rotation when the piston is in its upper position. - a body with an upper end and a lower end, - in the body, a cylinder with an upper end and an open lower end, - in the cylinder, a piston comprising a piston rod on the upper end side of the cylinder, whereby the piston has an upper position from which it can be pushed downwards by the rod, - a mechanism with which the stroke length of the piston can be changed by rotating the piston rod, characterized in that - the pipette comprises a locking mechanism (12, 19), which prevents the rotation of the piston rod when the piston has been pushed a certain distance downwards from its upper position, but does not prevent the rotation when the piston is in its upper position.
Portable mobile heat generator, particularly suitable for the testing of floor heating systems and relative footing, comprising a casing mounted on wheels, which can be connected by means of inlet and outlet unions to at least one hydraulic circuit of a heating system, at least one heat pump with refrigerant circuit provided with a compressor, an evaporator and a condenser, at least one hydronic circuit comprising a pump for the recirculation of the hot water in output from said condenser, characterised in that said heat generator comprises: - a storage tank for the surplus water and an expansion vessel provided in the hydronic circuit, upstream whereof is positioned a safety valve suitable for intervening in case of high pressure, - at least one mixing circuit, comprising a mixing valve, which can perform a mixing of the hot water coming from the hydronic circuit with the water of said at least one hydraulic circuit of the heating system coming from an inlet to feed water at the required temperature into said at least on hydraulic circuit of the heating system via a corresponding outlet; - at least one local control unit, configured for commanding and controlling the cycles and the parameters of functioning of said heat pump and the relative refrigerant, hydronic and mixing circuits and performing a progressive start-up cycle of the heating system to check on its function and dry the footing. - a storage tank for the surplus water and an expansion vessel provided in the hydronic circuit, upstream whereof is positioned a safety valve suitable for intervening in case of high pressure, - at least one mixing circuit, comprising a mixing valve, which can perform a mixing of the hot water coming from the hydronic circuit with the water of said at least one hydraulic circuit of the heating system coming from an inlet to feed water at the required temperature into said at least on hydraulic circuit of the heating system via a corresponding outlet; - at least one local control unit, configured for commanding and controlling the cycles and the parameters of functioning of said heat pump and the relative refrigerant, hydronic and mixing circuits and performing a progressive start-up cycle of the heating system to check on its function and dry the footing.
A diagnostic procedure of a selective catalytic reduction system having a catalytic reduction bed for a vehicle including an engine connected to an exhaust line, the procedure including - the measurement of the emissions of NOx in the exhaust line, - the comparison of the emissions of NOx consisting in the comparison of a conversion rate of NOx between upstream and downstream of the catalytic reduction bed to a calibrated threshold value, characterized in that the procedure further includes the determining of favourable conditions for the establishing of a diagnostic consisting in: - the detection of an engine torque in a predetermined variation range, - the detection of a temperature in the exhaust line of the catalytic reduction bed comprised in a predetermined temperature range, the predetermined temperature range being from 200°C to 400°C, - the detection of a quantity of reducer present in the catalytic reduction bed comprised in a predetermined quantity range, the predetermined quantity range of reducer in the bed being from 0.1 g.l -1 to 1 g.l -1, and, if applicable, the establishing of a diagnostic of the functioning of the selective catalytic reduction system as a function of the comparison. - the measurement of the emissions of NOx in the exhaust line, - the comparison of the emissions of NOx consisting in the comparison of a conversion rate of NOx between upstream and downstream of the catalytic reduction bed to a calibrated threshold value, - the detection of an engine torque in a predetermined variation range, - the detection of a temperature in the exhaust line of the catalytic reduction bed comprised in a predetermined temperature range, the predetermined temperature range being from 200°C to 400°C, - the detection of a quantity of reducer present in the catalytic reduction bed comprised in a predetermined quantity range, the predetermined quantity range of reducer in the bed being from 0.1 g.l -1 to 1 g.l -1,