mhurhangee/ep-ind-claims huggingface dataset:
A method, executed by a core network, comprising: receiving in an uplink message a first list of closed subscriber groups located within one gateway domain to which mobility is possible for a user equipment, wherein the uplink message is received from a respective serving gateway or serving access node; checking the first list received in the uplink message against a second list which is the user equipment's allowed closed subscriber group list; wherein checking comprises qualifying or disqualifying any of the first list of closed subscriber groups as handover target candidate for the user equipment based on the second list; creating a third list based on the result of the qualifying or disqualifying; and sending the third list downlink to at least one of the serving gateway of the user equipment or the serving access node of the user equipment. receiving in an uplink message a first list of closed subscriber groups located within one gateway domain to which mobility is possible for a user equipment, wherein the uplink message is received from a respective serving gateway or serving access node; checking the first list received in the uplink message against a second list which is the user equipment's allowed closed subscriber group list; wherein checking comprises qualifying or disqualifying any of the first list of closed subscriber groups as handover target candidate for the user equipment based on the second list; creating a third list based on the result of the qualifying or disqualifying; and sending the third list downlink to at least one of the serving gateway of the user equipment or the serving access node of the user equipment.
A septum comprising a disk shaped member that is configured to form a fluid tight seal around its perimeter surface when the septum is placed in a catheter adapter, wherein a shaft portion of an actuator is attached to a center portion of a proximal side of the disk shaped member, characterized in that the septum has a resilient nature biasing the septum actuator in a proximal direction such that the fluid tight seal is established around the perimeter of the septum, wherein the fluid tight seal is disrupted when the septum is biased in a distal direction by the septum actuator.
Device for overlapping, crossing and transferring textile fibres, comprising: - a first conveyor belt for transporting an input layer of textile fibres; - a setting-out device for receiving the textile fibres from said first conveyor belt and depositing them on a second conveyor belt, said setting-out device being configured for moving in a reciprocating motion along a first direction (x); said second conveyor belt being adapted to move the textile fibres along a second direction (y), belonging to a plane perpendicular to said first direction (x), in a forward motion, for the purpose of producing a flow of overlapped and crossed textile fibres; - a final transportation system for carrying away the flow of textile fibres previously overlapped and crossed; characterized in that said second conveyor belt is configured to perform a forward-backward reciprocating motion, wherein, in the total motion of said forward-backward reciprocating motion, the forward component is much greater than the backward component. - a first conveyor belt for transporting an input layer of textile fibres; - a setting-out device for receiving the textile fibres from said first conveyor belt and depositing them on a second conveyor belt, said setting-out device being configured for moving in a reciprocating motion along a first direction (x); said second conveyor belt being adapted to move the textile fibres along a second direction (y), belonging to a plane perpendicular to said first direction (x), in a forward motion, for the purpose of producing a flow of overlapped and crossed textile fibres; - a final transportation system for carrying away the flow of textile fibres previously overlapped and crossed; characterized in that said second conveyor belt is configured to perform a forward-backward reciprocating motion, wherein, in the total motion of said forward-backward reciprocating motion, the forward component is much greater than the backward component.
Insulated rail joint having ends of two rail sections (7, 8) adjoining each other, which are electrically insulated from each other by means of an electrically insulating intermediate layer, wherein the insulated rail joint is designed as an inclined joint in the region of the rail head as far as the region of the centre of the rail height, and is designed as a butt joint in the rest of the rail web, as far as and including the rail foot, characterised in that the transition between inclined joint and butt joint is continuous.
Electronic neural circuit, comprising at least one excitatory synapse having at least one switching input, at least one pre-neuron having an output voltage VA out and comprising a logic inverter generating a complementary voltage VA out_bar on the basis of the output voltage VA out, and at least one post-neuron having a membrane potential (V memB), the at least one pre-neuron being connected to the at least one post-neuron by the at least one excitatory synapse, and wherein the at least one excitatory synapse is supplied with the output voltage VA out and receives, at its switching input, the complementary voltage VA out_bar, the at least one excitatory synapse comprising at least two field-effect transistors (10, 11), the drain-source channels of which are in series, so as to form a chain of transistors in series between a potential point connected to VA out and a potential point connected to the membrane potential (V- memB) of the at least one post-neuron, the transistors located at the ends of the chain being described as "end transistors", one of the end transistors having a gate defining the switching input and the other end transistor having a gate defining an synaptic weight potential input (V w).
A decoding method comprising: - decoding a block of transform coefficients from a bitstream; - de-quantizing (S230, S240) the decoded block of transform coefficients responsive to a quantization step size and a scaling factor to obtain a dequantized block; and - transforming said dequantized block into an image block of bitdepth B, characterized in that, in the case where s 1 = 3 × 2 n 1 and s 2 = 2 n 2, said scaling factor S IQ is substantially equal to 4 3 × 1 s 1 ∗ s 2 × 2 − B − 9 where s1 is the width and s2 the height of the block or vice versa and where s 1 * is the smallest integer equal to a power of 2 that is greater than s1; and wherein, in the case where s 1 = 3 × 2 n 1 and s 2 = 3 × 2 n2, said scaling factor S IQ is substantially equal to 4 3 × 1 s 1 ∗ s 2 ∗ × 2 − B − 9 where s1 is the width and s2 the height of the block or vice versa and where s 1 * is the smallest integer equal to a power of 2 that is greater than s1 and where s 2 * is the smallest integer equal to a power of 2 that is greater than s2. - decoding a block of transform coefficients from a bitstream; - de-quantizing (S230, S240) the decoded block of transform coefficients responsive to a quantization step size and a scaling factor to obtain a dequantized block; and - transforming said dequantized block into an image block of bitdepth B,
A fluid transfer device comprising a rotor having at least a first centrifugal wheel and a second centrifugal wheel, and a stator incorporating a plurality of return channels; • in which device the return channels are axisymmetric, and each return channel includes in succession along the fluid flow path from the first wheel: • a diffusing portion suitable for guiding the fluid stream in a centrifugal flow direction; then • a bend portion suitable for redirecting the fluid stream in a centripetal flow direction; then • a return portion suitable for guiding the fluid along a centripetal path; and then • an outlet portion formed in a first non-tubular part (62, 162), and suitable for guiding the fluid towards the inlet of the second centrifugal wheel; the device being characterized in that each of said return channels is suitable for collecting a portion of a fluid stream leaving the first wheel and for directing this stream portion to an inlet of the second wheel without exchanging the fluid with any other one of said return channels; and in that for each of said channels: • the diffusing portion and the bend portion are formed in distinct parts; and • the diffusing portion is formed in a second non-tubular part (62, 163) secured to the first non-tubular part. • in which device the return channels are axisymmetric, and each return channel includes in succession along the fluid flow path from the first wheel: • a diffusing portion suitable for guiding the fluid stream in a centrifugal flow direction; then • a bend portion suitable for redirecting the fluid stream in a centripetal flow direction; then • a return portion suitable for guiding the fluid along a centripetal path; and then • an outlet portion formed in a first non-tubular part (62, 162), and suitable for guiding the fluid towards the inlet of the second centrifugal wheel; • the diffusing portion and the bend portion are formed in distinct parts; and • the diffusing portion is formed in a second non-tubular part (62, 163) secured to the first non-tubular part.
A method of producing a frozen product comprising a solid matrix throughout which particulates are distributed using an apparatus comprising at least one compartment which is rotatable about an axis and which has an opening which can be sealed by a lid, the method comprising the steps of: a) adding to the compartment liquid water to be frozen to form the matrix and particulates to be distributed therein and sealing the opening of the compartment using the lid; b) reducing the temperature around the compartment to a temperature below the freezing point of the liquid water; c) rotating the compartment about the axis while at least some of the water freezes within the compartment trapping at least some of the particulates within the frozen matrix of ice, the axis about which the compartment rotates being transverse to the axis along which gravity acts so that the particulates move through the liquid under the action of gravity before becoming trapped within the frozen matrix; and d) unsealing the opening of the compartment and removing the frozen product from the compartment through the opening. a) adding to the compartment liquid water to be frozen to form the matrix and particulates to be distributed therein and sealing the opening of the compartment using the lid; b) reducing the temperature around the compartment to a temperature below the freezing point of the liquid water; c) rotating the compartment about the axis while at least some of the water freezes within the compartment trapping at least some of the particulates within the frozen matrix of ice, the axis about which the compartment rotates being transverse to the axis along which gravity acts so that the particulates move through the liquid under the action of gravity before becoming trapped within the frozen matrix; and d) unsealing the opening of the compartment and removing the frozen product from the compartment through the opening.
Method for checking whether a laser cutting machine is provided with a correct workpiece from a set of workpieces, comprising the method steps of: - Detecting actual workpiece properties ( awp) of a workpiece which is provided or is prepared to be provided to the laser cutting machine for cutting; - Providing a set of cutting plans, wherein one cutting plan of the set of cutting plans is forwarded to a control unit of the laser cutting machine, wherein each cutting plan is associated to target workpiece properties ( twp); the method characterized in that it further comprises: - Comparing the detected actual workpiece properties ( awp) with the target workpiece properties ( twp), and providing a comparison result ( cr), indicating whether the correct workpiece is provided according to the one cutting plan of the set of cuttings plans - Depending on the comparison result ( cr): Issuing a stop signal to stop the cutting process or issuing an adaption signal to change a sequence in the set of cutting plans. - Detecting actual workpiece properties ( awp) of a workpiece which is provided or is prepared to be provided to the laser cutting machine for cutting; - Providing a set of cutting plans, wherein one cutting plan of the set of cutting plans is forwarded to a control unit of the laser cutting machine, wherein each cutting plan is associated to target workpiece properties ( twp); - Comparing the detected actual workpiece properties ( awp) with the target workpiece properties ( twp), and providing a comparison result ( cr), indicating whether the correct workpiece is provided according to the one cutting plan of the set of cuttings plans - Depending on the comparison result ( cr): Issuing a stop signal to stop the cutting process or issuing an adaption signal to change a sequence in the set of cutting plans.
An exercise machine comprising a gripping handle assembly, the gripping handle assembly comprising: an axial shaft; a gripping handle extending from the axial shaft, the gripping handle extending at an angle to the axial shaft; a circular bearing housing, wherein the an axial shaft is receivable into the circular bearing housing; at least one bearing between the axial shaft and the circular bearing housing permitting rotational movement of the axial shaft within the circular bearing housing; a first engaging mechanism on the axial shaft; a second engaging mechanism on the circular bearing housing, wherein the first and second engaging mechanisms interlock to prevent rotation of the axial shaft in the circular bearing housing and wherein the first and second engaging mechanisms detach to permit rotation of the axial shaft in the circular bearing housing; a spring biasing element in the circular bearing housing, the spring biasing element biasing the axial shaft into a locked position, the spring biasing element being displaceable to move the axial shaft into an unlocked position; characterized in that the exercise machine is a shoulder press exercise machine, wherein the gripping handle assembly is configured such that a user pushing upwards on the gripping handle urges the axial shaft into the locked position, and wherein the first and second engaging mechanisms are configured to detach from one another when a user pushes a knob connected to the gripping handle. an axial shaft; a gripping handle extending from the axial shaft, the gripping handle extending at an angle to the axial shaft; a circular bearing housing, wherein the an axial shaft is receivable into the circular bearing housing; at least one bearing between the axial shaft and the circular bearing housing permitting rotational movement of the axial shaft within the circular bearing housing; a first engaging mechanism on the axial shaft; a second engaging mechanism on the circular bearing housing, wherein the first and second engaging mechanisms interlock to prevent rotation of the axial shaft in the circular bearing housing and wherein the first and second engaging mechanisms detach to permit rotation of the axial shaft in the circular bearing housing; a spring biasing element in the circular bearing housing, the spring biasing element biasing the axial shaft into a locked position, the spring biasing element being displaceable to move the axial shaft into an unlocked position; the exercise machine is a shoulder press exercise machine, wherein the gripping handle assembly is configured such that a user pushing upwards on the gripping handle urges the axial shaft into the locked position, and wherein the first and second engaging mechanisms are configured to detach from one another when a user pushes a knob connected to the gripping handle.
Machine tool for machining workpieces (W1, W2), comprising: a first workpiece holder for holding a first workpiece and a second workpiece holder for holding a second workpiece, a separating element, wherein a first machining region can be separated at least in part from a second machining region by means of the separating element, wherein one of the workpiece holders (101, 201) is arranged or can be arranged in each machining region (1, 2), characterised in that the separating element is movable in order to change the dimensions of the first and second machining region (1, 2), wherein a first suction device is provided vertically below the first and/or second workpiece holder (101, 201). a first workpiece holder for holding a first workpiece and a second workpiece holder for holding a second workpiece, a separating element, wherein a first machining region can be separated at least in part from a second machining region by means of the separating element, wherein one of the workpiece holders (101, 201) is arranged or can be arranged in each machining region (1, 2), characterised in that the separating element is movable in order to change the dimensions of the first and second machining region (1, 2), wherein a first suction device is provided vertically below the first and/or second workpiece holder (101, 201).
A method for capturing an image during original photography when a conventional image capture aspect ratio differs from a display aspect ratio, comprising the steps of: choosing an anamorphic ratio of a taking lens during original photography to be approximately the display aspect ratio divided by the image capture aspect ratio of a digital imager; capturing the image with the digital imager through said taking lens in a frame sized to approximate a total available frame area of a three-perforation film frame so as to maximize an image capture area of the image within the total available frame area; wherein the conventional image capture aspect ratio is selected to be equivalent to a 16:9 aspect ratio. choosing an anamorphic ratio of a taking lens during original photography to be approximately the display aspect ratio divided by the image capture aspect ratio of a digital imager; capturing the image with the digital imager through said taking lens in a frame sized to approximate a total available frame area of a three-perforation film frame so as to maximize an image capture area of the image within the total available frame area; wherein the conventional image capture aspect ratio is selected to be equivalent to a 16:9 aspect ratio.
A compressive stress system for a gas turbine engine with a rotor, said system comprising: first and second turbine buckets (120, 130), each of the first and second buckets (120, 130) including a platform from which an airfoil extends, a dovetail and a shank extending from the dovetail to the platform, wherein the dovetails of the first and second buckets (120, 130) are configured to attach to a rotor with each of the dovetails mated with a respective first and second rotor slot such that the shanks of the first and second buckets (120, 130) define a shank pocket therebetween; and a compressive stress spring positioned within said shank pocket and having the form of a substantially U-shaped clip (220, 370, 570) and comprising: a first arm and a second arm; with the first arm in contact with the shank of the first bucket and the second arm in contact with the shank of the second bucket, characterized in that said compressive stress spring comprises a spring dovetail configured to be positioned in a spring slot on the rotor provided on a rotor post between the first and second rotor slots. first and second turbine buckets (120, 130), each of the first and second buckets (120, 130) including a platform from which an airfoil extends, a dovetail and a shank extending from the dovetail to the platform, wherein the dovetails of the first and second buckets (120, 130) are configured to attach to a rotor with each of the dovetails mated with a respective first and second rotor slot such that the shanks of the first and second buckets (120, 130) define a shank pocket therebetween; and a compressive stress spring positioned within said shank pocket and having the form of a substantially U-shaped clip (220, 370, 570) and comprising: a first arm and a second arm; with the first arm in contact with the shank of the first bucket and the second arm in contact with the shank of the second bucket, characterized in that said compressive stress spring comprises a spring dovetail configured to be positioned in a spring slot on the rotor provided on a rotor post between the first and second rotor slots. a first arm and a second arm; with the first arm in contact with the shank of the first bucket and the second arm in contact with the shank of the second bucket, characterized in that said compressive stress spring comprises a spring dovetail configured to be positioned in a spring slot on the rotor provided on a rotor post between the first and second rotor slots.
Composition for use in a subject in the amelioration of joint pain after exercise, wherein the composition comprises 10-40 wt.% chondroitin sulfate and 60-90 wt.% collagen hydrolysate, calculated on the total weight of the chondroitin sulfate and the collagen hydrolysate, wherein the collagen hydrolysate comprises hydroxyproline and hydroxylysine in a molar ratio (hydroxyproline:hydroxylysine) of more than 8 and less than 15. wherein the composition comprises 10-40 wt.% chondroitin sulfate and 60-90 wt.% collagen hydrolysate, calculated on the total weight of the chondroitin sulfate and the collagen hydrolysate, wherein the collagen hydrolysate comprises hydroxyproline and hydroxylysine in a molar ratio (hydroxyproline:hydroxylysine) of more than 8 and less than 15.
A method performed by a Path Computation Element, PCE, using a Path Computation Element Protocol, PCEP, comprising: advertising to a Path Computation Client PCC in an open PCEP message to indicate that the PCE supports a Central Controller Instruction, CCI, for creating a Segment Routing, SR, policy independent of a candidate path, sending a first PCEP initiate message to the PCC, wherein the first PCEP initiate message comprises: the CCI with a Central Controller Identifier, CC-ID, for creating the SR policy; receiving a first PCEP report message from the PCC upon creation of the SR policy, wherein the first PCEP report message is used to report by the PCC that the SR policy corresponding to the CC-ID has been created. advertising to a Path Computation Client PCC in an open PCEP message to indicate that the PCE supports a Central Controller Instruction, CCI, for creating a Segment Routing, SR, policy independent of a candidate path, sending a first PCEP initiate message to the PCC, wherein the first PCEP initiate message comprises: the CCI with a Central Controller Identifier, CC-ID, for creating the SR policy; receiving a first PCEP report message from the PCC upon creation of the SR policy, wherein the first PCEP report message is used to report by the PCC that the SR policy corresponding to the CC-ID has been created.
A three-dimensional shape measuring apparatus, comprising: an illumination unit configured to irradiate light toward a measurement target object; an image formation lens; a prism unit configured to receive reflective light reflected from the measurement target object and to direct the reflective light to the image formation lens; an imaging unit configured to receive the reflective light from the prism unit and capture an image; and a height measurement unit configured to measure a height of the measurement target object based on the image captured by the imaging unit, wherein the height measurement unit is configured to measure the height using a diameter of the image. an illumination unit configured to irradiate light toward a measurement target object; an image formation lens; a prism unit configured to receive reflective light reflected from the measurement target object and to direct the reflective light to the image formation lens; an imaging unit configured to receive the reflective light from the prism unit and capture an image; and a height measurement unit configured to measure a height of the measurement target object based on the image captured by the imaging unit, wherein the height measurement unit is configured to measure the height using a diameter of the image.