mhurhangee/ep-ind-claims huggingface dataset:
A method for synthesizing single crystal type Ib diamond comprising: (a) selecting a single crystal diamond seed having a growth surface with two orthogonal dimensions a* and b*, where a* is the longest dimension of the growth surface substantially aligned along a <100> or <110> direction in the plane of the growth surface, and b* is the longest dimension of the growth surface in a direction orthogonal to a* lying in the plane of the growth surface, where the aspect ratio of the growth surface which is defined as a*/b* is at least 1.5 and less than 30; (b) mounting the seed on or into a surface of a substrate such that the growth surface of the seed is exposed and the growth surface of the seed is substantially parallel to the surface of the substrate; and (c) effecting crystal growth in a high pressure high temperature environment under conditions such that a single crystal diamond is produced on at least the growth surface of the seed; wherein the high pressure high temperature process is carried out at a pressure in a range 5 GPa to 6 GPa and at a temperature in a range 1260°C to 1600°C, growth time being in a range 50 hours to 200 hours wherein the synthesized single crystal diamond has a longest dimension a # aligned along a <100> or <110> direction, which exceeds at least 6 mm. (a) selecting a single crystal diamond seed having a growth surface with two orthogonal dimensions a* and b*, where a* is the longest dimension of the growth surface substantially aligned along a <100> or <110> direction in the plane of the growth surface, and b* is the longest dimension of the growth surface in a direction orthogonal to a* lying in the plane of the growth surface, where the aspect ratio of the growth surface which is defined as a*/b* is at least 1.5 and less than 30; (b) mounting the seed on or into a surface of a substrate such that the growth surface of the seed is exposed and the growth surface of the seed is substantially parallel to the surface of the substrate; and (c) effecting crystal growth in a high pressure high temperature environment under conditions such that a single crystal diamond is produced on at least the growth surface of the seed;
An oral care implement, comprising: a body comprising a handle, a head at an end of the handle, at least one fluid outlet, and a base, the base comprising a first hole extending through the base to connect a chamber with a first passageway and a second hole extending through the base to connect the chamber with a second passageway, and the head having at least one oral care element extending therefrom; a reservoir in the body and for storing an oral care fluid; and a diaphragm pump in the body for pumping the oral care fluid from the reservoir towards the fluid outlet, wherein the pump comprises a first check valve downstream of the reservoir, and a second check valve downstream of the first check valve and upstream of the fluid outlet; wherein the reservoir is connected to the first check valve by the first passageway, and the second check valve is connected to the fluid outlet by the second passageway, characterized in that: one of the first and second check valves (301, 302) circumferentially surrounds the other of the first and second check valves (301, 302), and the first hole comprises a first portion and an annular portion, the annular portion of the first hole circumferentially surrounding the second hole. a body comprising a handle, a head at an end of the handle, at least one fluid outlet, and a base, the base comprising a first hole extending through the base to connect a chamber with a first passageway and a second hole extending through the base to connect the chamber with a second passageway, and the head having at least one oral care element extending therefrom; a reservoir in the body and for storing an oral care fluid; and a diaphragm pump in the body for pumping the oral care fluid from the reservoir towards the fluid outlet, wherein the pump comprises a first check valve downstream of the reservoir, and a second check valve downstream of the first check valve and upstream of the fluid outlet; wherein the reservoir is connected to the first check valve by the first passageway, and the second check valve is connected to the fluid outlet by the second passageway, one of the first and second check valves (301, 302) circumferentially surrounds the other of the first and second check valves (301, 302), and the first hole comprises a first portion and an annular portion, the annular portion of the first hole circumferentially surrounding the second hole.
A processing system, comprising: a receiving device; a bus having an address (106a, 406a), a write (106b, 406b) and a read channel (106c, 406c); a sending device configured to address the receiving device on the address channel (106a, 406a), and read a payload from the receiving device on the read channel; the sending device being further configured to either concurrently address the receiving device on the address channel (106a, 406a) during a first clock cycle (202, 206, 502) and write a first portion of the payload to the receiving device on the write channel (106b, 406b) during the first clock cycle (202, 206, 502); or to concurrently write a first portion of the payload to the receiving device on the address channel (106a, 406a) during a second clock cycle (204, 208, 210, 504, 506, 508) and a second portion of the payload to the receiving device on the write channel (106b, 406b) during the second clock cycle (204, 208, 210, 504, 506, 508), wherein the first portion is sequentially consecutive to the second portion. a receiving device; a bus having an address (106a, 406a), a write (106b, 406b) and a read channel (106c, 406c); a sending device configured to address the receiving device on the address channel (106a, 406a), and read a payload from the receiving device on the read channel; the sending device being further configured to either concurrently address the receiving device on the address channel (106a, 406a) during a first clock cycle (202, 206, 502) and write a first portion of the payload to the receiving device on the write channel (106b, 406b) during the first clock cycle (202, 206, 502); or to concurrently write a first portion of the payload to the receiving device on the address channel (106a, 406a) during a second clock cycle (204, 208, 210, 504, 506, 508) and a second portion of the payload to the receiving device on the write channel (106b, 406b) during the second clock cycle (204, 208, 210, 504, 506, 508), wherein the first portion is sequentially consecutive to the second portion.
A lubricating composition comprising: (a) an oil of lubricating viscosity; (b) 0.1 wt % to 1 wt %, optionally 0.1 wt % to 0.5 wt%, of an ethylene-α-olefin copolymer, wherein the ethylene-α-olefin copolymer is grafted with a polar moiety; and (c) 0.25 wt % to 15 wt %, optionally 0.5 wt % to 5 wt %, of a poly(meth)acrylate polymer wherein the poly(meth)acrylate polymer comprises a block or tapered block copolymer comprising: a first block (B 1) which is substantially insoluble in the base oil, wherein B 1 has a Hildebrand solubility parameter greater than 18 (J/m 3) 1⁄2; and a second block (B 2) which is substantially soluble in the base oil, wherein B 2 has a Hildebrand solubility parameter of 14-18 (J/m 3) 1⁄2. (a) an oil of lubricating viscosity; (b) 0.1 wt % to 1 wt %, optionally 0.1 wt % to 0.5 wt%, of an ethylene-α-olefin copolymer, wherein the ethylene-α-olefin copolymer is grafted with a polar moiety; and (c) 0.25 wt % to 15 wt %, optionally 0.5 wt % to 5 wt %, of a poly(meth)acrylate polymer wherein the poly(meth)acrylate polymer comprises a block or tapered block copolymer comprising: a first block (B 1) which is substantially insoluble in the base oil, wherein B 1 has a Hildebrand solubility parameter greater than 18 (J/m 3) 1⁄2; and a second block (B 2) which is substantially soluble in the base oil, wherein B 2 has a Hildebrand solubility parameter of 14-18 (J/m 3) 1⁄2.
A method performed by an apparatus, wherein the apparatus comprises a packet-based interface, the method comprising: receiving a notification from a controller of the packet based-interface or from a switch of the packet-based interface, wherein the notification indicates that a packet for transmission by a radio unit to a first user equipment, UE, in at least a portion of a time interval allocated to transmissions to the first UE has been dropped or will be dropped; and sending at least one further packet to the radio unit, wherein the at least one further packet indicates the radio unit to send transmissions to a second UE in at least part (308, 310) of the time interval. receiving a notification from a controller of the packet based-interface or from a switch of the packet-based interface, wherein the notification indicates that a packet for transmission by a radio unit to a first user equipment, UE, in at least a portion of a time interval allocated to transmissions to the first UE has been dropped or will be dropped; and sending at least one further packet to the radio unit, wherein the at least one further packet indicates the radio unit to send transmissions to a second UE in at least part (308, 310) of the time interval.
Method for evaluating acoustic properties of a fluid, wherein an opposing body is moved in relation to a main body while the fluid is between the opposing body and the main body; and during the movement a friction force and/or a friction coefficient between the opposing body and the main body is recorded in dependence on a positioning of the opposing body in relation to the main body; characterized in that a friction force fluctuation is determined from the friction force and/or a friction coefficient fluctuation is determined from the friction coefficient; and a mean fluctuation value is calculated from the friction force fluctuation and/or from the friction coefficient fluctuation.
A crystalline form of the mono-sulfate salt of 2-Chloro-4-[1-(4-fluoro-phenyl)-2,5-dimethyl-1H-imidazol-4-ylethynyl]-pyridine, characterized by at least three peaks selected from the following X-ray diffraction peaks obtained with a Cu Kα radiation at 2θ (2Theta (deg)) = 9.8, 13.4, 14.2, 18.1, 18.9, 19.6, 22.6, 22.9, 25.7, 27.1 and 29.9 (± 0.2° 2Theta).
A bifunctional compound represented by the following formula: wherein R 1 is a hydrogen atom, CH 3, or C 2 H 5; R 2 and R 3 are each independently a hydrogen atom or CH 3; and X is a hydrogen atom or a hydrocarbon group having no more than 4 carbon atoms and optionally containing a hydroxyl group.
A multilayer coating film comprising: a colored base layer containing a colorant and formed directly or indirectly on a surface of a coating target, and a bright material-containing layer containing bright material flakes and a colorant and layered on the colored base layer, characterized in that a following equation is employed: Y(20°) = k × Y(10°), where k is a coefficient, Y represents a Y value according to an XYZ color system, which is calibrated by a standard white plate, of the bright material-containing layer in a state without the colorant, Y(10°) represents a Y value of reflected light measured at a receiving angle (an angle toward a light source from a specular reflection angle) of 10°, and Y(20°) represents a Y value of reflected light measured at the receiving angle of 20°, and a colorant concentration C of the bright material-containing layer is expressed in percent by mass, and the Y(10°), the coefficient k, and the colorant concentration C are three variables, and satisfy, when x-, y-, and z-coordinate axes of a three-dimensional orthogonal coordinate space represent the three variables, that coordinates (Y(10°), k, C) are in a range defined by a octahedron consisting of eight planes expressed by equations A to H, shown below, in which the planes expressed by the equations C and F form an inwardly protruding ridge and the planes expressed by the equations D and G form an outwardly protruding ridge. 3000 y − 120 z + 3000 = 0 3000 y − 120 z = 0 5 x − 3750 y − 2000 = 0 5 x − 3750 y + 1000 = 0 15000 y − 9000 = 0 5 x − 1250 y − 3000 = 0 5 x − 1250 y = 0 15000 y − 3000 = 0 a colored base layer containing a colorant and formed directly or indirectly on a surface of a coating target, and a bright material-containing layer containing bright material flakes and a colorant and layered on the colored base layer, characterized in that a following equation is employed: Y(20°) = k × Y(10°), where k is a coefficient, Y represents a Y value according to an XYZ color system, which is calibrated by a standard white plate, of the bright material-containing layer in a state without the colorant, Y(10°) represents a Y value of reflected light measured at a receiving angle (an angle toward a light source from a specular reflection angle) of 10°, and Y(20°) represents a Y value of reflected light measured at the receiving angle of 20°, and a colorant concentration C of the bright material-containing layer is expressed in percent by mass, and the Y(10°), the coefficient k, and the colorant concentration C are three variables, and satisfy, when x-, y-, and z-coordinate axes of a three-dimensional orthogonal coordinate space represent the three variables, that coordinates (Y(10°), k, C) are in a range defined by a octahedron consisting of eight planes expressed by equations A to H, shown below, in which the planes expressed by the equations C and F form an inwardly protruding ridge and the planes expressed by the equations D and G form an outwardly protruding ridge. 3000 y − 120 z + 3000 = 0 3000 y − 120 z = 0 5 x − 3750 y − 2000 = 0 5 x − 3750 y + 1000 = 0 15000 y − 9000 = 0 5 x − 1250 y − 3000 = 0 5 x − 1250 y = 0 15000 y − 3000 = 0
A fan, particularly for a turbine engine such as a turbojet, comprising at the inlet fan blades, an annular casing, a hub rotating about an axis of the turbine engine and carrying the blades, which extend radially relative to said axis in an annular section delimited internally by the hub and externally by the annular casing, with said hub comprising a fan disc having, at its outer periphery, substantially axial ribs alternating with grooves wherein the roots of the blades are engaged, with said fan comprising an annular cover mounted on the disc upstream of the blades, and means for axially retaining the blades on the disc comprising a flange mounted in an annular groove of the disc and forming an axial support for the roots of the blades, with the flange comprising a curled radial annular rim cooperating with a curled radial annular rim of the annular groove of the disc, so as to ensure the axial locking of the flange in the annular groove of the disc, and means for rotationally locking the flange, comprising a ring having lugs extending radially inwards and formed with fixing means (68, 94, 70, 72) on an upstream radial face of the disc, with said cover being fixed on the disc by fixing means (100, 68, 94, 70) partly common to the means for fixing at least some lugs of the ring on the disc, said fan being characterized in that said ring further comprises at least one radial projection cooperating with a stop matching the flange, so as to rotationally lock the flange relative to the ring, and in that said fan has an inlet diameter matching the diameter of the circle comprising the radially external ends of the blades having a value between 900mm and 1,550mm, and having a hub ratio, which matches the ratio of the diameter of the inner limit of the section at the radially internal ends of the leading edges of the fan blades divided by the inlet diameter, having a value between 0.20 and 0.265,
Fastening element for fixing an electrical connection terminal in a wall opening in a housing wall, having two fixing elements (6, 7), wherein the fastening element has a substantially U-shaped main body with a U-back and two U-limbs (21, 22), and wherein the ends of the two U-limbs (21, 22) are each in the form of a fixing element (6, 7), characterized in that a resilient clamping element is provided, which is arranged substantially perpendicular to the fixing elements (6, 7), that the fastening element has a latching tongue which runs parallel to the U-shaped main body, and that the resilient clamping element is formed by the free end of the latching tongue.
An end effector system for attachment to an articulated arm of a robotic system, said end effector system comprising: a primary gripper system that includes a gripper; and a secondary retention system including a suspended cup proximate to the primary gripper system such that the gripper is configured to acquire an object from a plurality of objects and drop the object into the suspended cup for transport to an output destination. a primary gripper system that includes a gripper; and a secondary retention system including a suspended cup proximate to the primary gripper system such that the gripper is configured to acquire an object from a plurality of objects and drop the object into the suspended cup for transport to an output destination.
Control arrangement for controlling actuators of a water fitting, in particular water outlet valves, wherein the operating parameters for the outlet operation of the water fitting can be manipulated by controlling the actuators, wherein the control arrangement has at least one electrical control unit and at least two electrical operator control elements for inputting operator control parameters, wherein the control unit is coupled, in terms of control, to the actuators, on the one hand, and to the operator control elements, on the other hand, and controls the actuators on the basis of the operator control parameters, and wherein the control unit has a memory for at least one standard set of operator control parameters, wherein the control unit can be changed to a standby mode in which the actuators are not controlled in a manner aimed at the outlet operation of the water fitting, and the control unit, from the standby mode, starts the outlet operation of the water fitting in a wake-up process on the basis of a stored standard set of operator control parameters in response to an operator control parameter input by means of an operator control element, characterized in that an operator control element (14, 15) is in the form of an operator control regulator, and in that the control unit triggers the wake-up process if an adjustment of the operator control regulator is captured.
A method, implemented in an application function entity, for edge caching, comprising: intercepting application signaling for a service from a wireless transmit/receive unit, WTRU; querying a file name server to determine if data is cached at a content server; and receiving a response with respect to storing of the data at the content server; characterized by: transmitting, to a policy and charging rules function, PCRF, entity: data caching status at the content server, an address of the content server, and an address of a network node that is closest to the content server, wherein the closest network node includes Internet Protocol, IP, flow based routing policies; and wherein an IP flow bypasses certain network nodes on a condition that requested data is on the content server. intercepting application signaling for a service from a wireless transmit/receive unit, WTRU; querying a file name server to determine if data is cached at a content server; and receiving a response with respect to storing of the data at the content server; characterized by: transmitting, to a policy and charging rules function, PCRF, entity: data caching status at the content server, an address of the content server, and an address of a network node that is closest to the content server, wherein the closest network node includes Internet Protocol, IP, flow based routing policies; and wherein an IP flow bypasses certain network nodes on a condition that requested data is on the content server. transmitting, to a policy and charging rules function, PCRF, entity: data caching status at the content server, an address of the content server, and an address of a network node that is closest to the content server, wherein the closest network node includes Internet Protocol, IP, flow based routing policies; and wherein an IP flow bypasses certain network nodes on a condition that requested data is on the content server.
A damping assembly comprising a duct of a gas turbine engine defining axial, radial and circumferential directions, the duct having a liner wall comprising a first layer and a second layer, either side of a core, the damping assembly comprises: a flutter control damper and an environmental noise control damper, wherein: the flutter control damper comprises at least one resistive element in conjunction with at least one resonant chamber, the combination of the resistive element and the resonant chamber having a resistance between 0.02ρc and 2.0ρc and a reactance between -3.0ρc and -0.6ρc and configured to attenuate a desired flutter acoustic frequency by matching outward waves and reflected waves; the resistive element comprises perforation arrangements (5, 7) in the first layer and the second layer and the at least one resonant chamber of the flutter control damper is turned to align laterally with the liner wall radially outside the core, such that perforations in the perforation arrangement in the second layer are inlets to the resonant chamber, and a radially inner wall of the resonant chamber is defined by a non-perforated portion of the second layer, the non-perforated portion of the second layer being axially offset from the perforation arrangement, wherein the at least one resonant chamber further comprises a turning portion and an axially extending attenuating structure. the flutter control damper comprises at least one resistive element in conjunction with at least one resonant chamber, the combination of the resistive element and the resonant chamber having a resistance between 0.02ρc and 2.0ρc and a reactance between -3.0ρc and -0.6ρc and configured to attenuate a desired flutter acoustic frequency by matching outward waves and reflected waves; the resistive element comprises perforation arrangements (5, 7) in the first layer and the second layer and the at least one resonant chamber of the flutter control damper is turned to align laterally with the liner wall radially outside the core, such that perforations in the perforation arrangement in the second layer are inlets to the resonant chamber, and a radially inner wall of the resonant chamber is defined by a non-perforated portion of the second layer, the non-perforated portion of the second layer being axially offset from the perforation arrangement, wherein the at least one resonant chamber further comprises a turning portion and an axially extending attenuating structure.