mhurhangee/ep-ind-claims huggingface dataset:
Bearing structure for a supporting surface, comprising: - bearing means (6a, 6b, 6c, 6d) suited to be arranged on the ground on two or more contact areas (4a, 4b, 4c, 4d) and comprising two or more legs; - connection means suited to connect said bearing means (6a, 6b, 6c, 6d) to said supporting surface in two or more connection areas; - means for moving said connection means, suited to allow them to be positioned in a first position corresponding to a condition of usage of said supporting surface and in a second position corresponding to a condition in which said supporting surface is not used, - locking means associated with said moving means in order to allow them to be locked in said first position, - two coupling seats (26, 27) obtained in projecting bearing elements (20, 21) for engaging a corresponding coupling element, wherein said locking means comprise two handles (28, 29) arranged on different areas of said bearing structure, and wherein said locking means comprise two coupling elements suited to be positioned in a coupling configuration, in which the supporting plane is maintained securely and stably in horizontal position, and wherein the coupling elements can be rotated through the handles (28, 29), wherein it comprises adaptation means suited to allow said bearing structure to adapt to different dimensions of said supporting surface, wherein said adaptation means comprise one or more interconnection elements (11a, 11b) of the telescopic type, characterized in that it comprises an interconnection element joining the handles (28, 29), wherein the interconnection element comprises two tubular portions (30a, 30b) that can be coupled to and inserted in each other in a telescopic way. - bearing means (6a, 6b, 6c, 6d) suited to be arranged on the ground on two or more contact areas (4a, 4b, 4c, 4d) and comprising two or more legs; - connection means suited to connect said bearing means (6a, 6b, 6c, 6d) to said supporting surface in two or more connection areas; - means for moving said connection means, suited to allow them to be positioned in a first position corresponding to a condition of usage of said supporting surface and in a second position corresponding to a condition in which said supporting surface is not used, - locking means associated with said moving means in order to allow them to be locked in said first position, - two coupling seats (26, 27) obtained in projecting bearing elements (20, 21) for engaging a corresponding coupling element, wherein said locking means comprise two handles (28, 29) arranged on different areas of said bearing structure, and
A method for generating electrocardiogram signals for a human body using contactless ECG sensors, the method comprising: - by a digital processing module, receiving contactless ECG signals from an array of contactless ECG sensors; - by the digital processing module, detecting one or more body parts located in close proximity of the sensor array using an impedance of the contactless ECG sensors; - by the digital processing module, selecting for the detected body parts contactless ECG sensors providing the highest signal quality; - producing a standard ECG signal based on the contactless ECG signals received from the selected contactless ECG sensors associated with the detected body parts; - by the digital processing module, associating continuously and dynamically, to each detected body part, a group of contactless ECG sensors that are detecting that body part; and by the digital processing module, selecting from that group, which is continuously and dynamically associated, the contactless ECG sensor providing the highest signal quality for that body part in real time. - by a digital processing module, receiving contactless ECG signals from an array of contactless ECG sensors; - by the digital processing module, detecting one or more body parts located in close proximity of the sensor array using an impedance of the contactless ECG sensors; - by the digital processing module, selecting for the detected body parts contactless ECG sensors providing the highest signal quality; - producing a standard ECG signal based on the contactless ECG signals received from the selected contactless ECG sensors associated with the detected body parts; - by the digital processing module, associating continuously and dynamically, to each detected body part, a group of contactless ECG sensors that are detecting that body part; and
A method for vibration-damping rotating or rotation-symmetrical components, wherein at least three sensors and at least three active dampers are arranged on a rotating or rotation-symmetrical component on the circumference side, comprising the following steps: - providing measurement signals by way of the at least three sensors, - converting the measurement signals into a tangential signal and two Cartesian signals, - generating damper control signals for controlling the at least three active dampers utilising the tangential signal and the two Cartesian signals. - providing measurement signals by way of the at least three sensors, - converting the measurement signals into a tangential signal and two Cartesian signals, - generating damper control signals for controlling the at least three active dampers utilising the tangential signal and the two Cartesian signals.
Electrical flat strip conductor for motor vehicles comprising at least one aluminium conductor of aluminium and of profiled rectangular cross-section characterised in that - the aluminium conductor is made from a soft-annealed aluminium strip and at least one connection bolt is applied on the surface at the flat strip conductor as electrical tapping. - the aluminium conductor is made from a soft-annealed aluminium strip and at least one connection bolt is applied on the surface at the flat strip conductor as electrical tapping.
A lithographic printing plate precursor comprising, in order, a support, an image-recording layer containing a radical polymerization initiator and a radical polymerizable compound, and an overcoat layer containing a polymer resin which has a cloud point in an aqueous solution and includes a monomer unit represented by any of the following formulae to: wherein, in formula, R 1 represents a hydrogen atom or a methyl group, and R 2 and R 3 each independently represents a hydrogen atom, a methyl group, an ethyl group, a n-propyl group, an isopropyl group, a n-butyl group, a sec-butyl group, an isobutyl group or a tert-butyl group, provided that at least one of R 2 and R 3 represents a methyl group, an ethyl group, a n-propyl group, an isopropyl group, a n-butyl group, a sec-butyl group, an isobutyl group or a tert-butyl group; in formula, R 4 represents a hydrogen atom or a methyl group, R 5 and R 6 each independently represents a hydrogen atom or an alkoxyalkyl group represented by formula, m represents an integer from 1 to 3, n represents an integer from 1 to 3, and m + n is 2,3 or 4, provided that at least one of R 5 and R 6 represents an alkoxyalkyl group represented by formula; and in formula, R 7 represents a hydrogen atom or a methyl group, and R 8 and R 9 each independently represents a hydrogen atom or an ethyl group, provided that at least one of R 8 and R 9 represents an ethyl group.
A sliding sleeve actuation method (0500, 0700) with reverse flow in a wellbore casing, wherein said method comprises the steps of: installing (0501, 0701) said wellbore casing along with sliding sleeve valves (0311, 0312, 0313, 0314) at predefined positions; creating (0502, 0702) and treating a first injection point to a hydrocarbon formation; pumping (0503, 0703) a first restriction plug element in a downstream direction such that said first restriction plug element passes through unactuated said sliding sleeve valves (0311, 0312, 0313, 0314); reversing (0504, 0705) direction of flow such that said first restriction plug element flows back in an upstream direction towards a first sliding sleeve valve; said first sliding sleeve valve positioned upstream of said first injection point; continuing (0505, 0707) flow back so that said first restriction plug element engages onto said first sliding sleeve valve; actuating (0506, 0709) said first sliding sleeve valve with said first restriction plug element with fluid motion from downstream to upstream and creating a second injection point; and pumping down (0507, 0710) treatment fluid in said downstream direction and treating said second injection point, while said first restriction plug element disables fluid communication downstream of said first sliding sleeve valve. installing (0501, 0701) said wellbore casing along with sliding sleeve valves (0311, 0312, 0313, 0314) at predefined positions; creating (0502, 0702) and treating a first injection point to a hydrocarbon formation; pumping (0503, 0703) a first restriction plug element in a downstream direction such that said first restriction plug element passes through unactuated said sliding sleeve valves (0311, 0312, 0313, 0314); reversing (0504, 0705) direction of flow such that said first restriction plug element flows back in an upstream direction towards a first sliding sleeve valve; said first sliding sleeve valve positioned upstream of said first injection point; continuing (0505, 0707) flow back so that said first restriction plug element engages onto said first sliding sleeve valve; actuating (0506, 0709) said first sliding sleeve valve with said first restriction plug element with fluid motion from downstream to upstream and creating a second injection point; and pumping down (0507, 0710) treatment fluid in said downstream direction and treating said second injection point, while said first restriction plug element disables fluid communication downstream of said first sliding sleeve valve.
An orthopedic walking brace, comprising: a housing configured to encompass and immobilize a patient's ankle against flexion, and a sole (520; 600) having a proximal surface and a distal surface (522, 620), the proximal surface configured to receive the patient's foot, and the distal surface having a posterior region, a mid region, and an anterior region, wherein the posterior region is configured to lie under a heel portion of the patient's foot, and has a first anterior-posterior curvature, the mid region is configured to lie under a center portion of the patient's foot, and has a second AP curvature, and the anterior region is configured to lie under an anterior metatarsal and toe portion of the patient's foot, characterised in that the anterior region has a third AP curvature that increases from a posterior side of the anterior region toward a middle portion of the anterior region and decreases from the middle portion toward an anterior side of the anterior region. a housing configured to encompass and immobilize a patient's ankle against flexion, and a sole (520; 600) having a proximal surface and a distal surface (522, 620), the proximal surface configured to receive the patient's foot, and the distal surface having a posterior region, a mid region, and an anterior region, wherein the posterior region is configured to lie under a heel portion of the patient's foot, and has a first anterior-posterior curvature, the mid region is configured to lie under a center portion of the patient's foot, and has a second AP curvature, and the anterior region is configured to lie under an anterior metatarsal and toe portion of the patient's foot, characterised in that the anterior region has a third AP curvature that increases from a posterior side of the anterior region toward a middle portion of the anterior region and decreases from the middle portion toward an anterior side of the anterior region.
A bicycle having an auxiliary motor, wherein the auxiliary motor comprises: energy storing means for storing energy, drive means for converting energy stored in the energy storing means into kinetic energy, and a gear device, wherein the auxiliary motor is mounted to a lower tube of the bicycle and at least substantially parallel to said lower tube, wherein the lower tube comprises a recessed region and is configured for receiving the auxiliary motor, wherein the auxiliary motor further comprises a housing, characterized in that the housing embraces partially at least the energy storing means and the drive means in a circumferential direction and extends at least substantially entirely over the energy storing means and the drive means in a longitudinal direction. energy storing means for storing energy, drive means for converting energy stored in the energy storing means into kinetic energy, and a gear device, embraces partially at least the energy storing means and the drive means in a circumferential direction and extends at least substantially entirely over the energy storing means and the drive means in a longitudinal direction.
A system for degassing a fluid sample, the system comprising a container with a plurality of nucleation sites for exposing to the fluid sample, wherein a total area of the nucleation sites is at least 5% of a total surface area of contact of the fluid sample with the container, and a lid positioned on the container and having open holes or holes covered with a membrane filter material to allow gas to escape during degassing.
An apparatus of a wireless device, the apparatus comprising: baseband processing circuitry (306, 308) configured to generate a digitized downconverted signal based on a received radio frequency signal; estimation circuitry configured to: estimate a plurality of signal power levels for a corresponding plurality of harmonic frequencies of the downconverted signal, the harmonic frequencies associated with two or more carrier frequencies; detect a blocker signal in the downconverted signal based on the estimated plurality of signal power levels, the blocker signal having a signal power level of the plurality of estimated signal power levels that exceeds a pre-determined threshold; and map the detected blocker signal to the plurality of harmonic frequencies associated with the two or more carrier frequencies; reference signal generation circuitry configured to generate a reference signal based on the plurality of harmonic frequencies mapped to the detected blocker signal and the received RF signal; and cancellation circuitry configured to apply a pre-processed reference signal to the digitized downconverted signal to remove distortion associated with the blocker signal, the pre-processed reference signal based on the reference signal. baseband processing circuitry (306, 308) configured to generate a digitized downconverted signal based on a received radio frequency signal; estimation circuitry configured to: estimate a plurality of signal power levels for a corresponding plurality of harmonic frequencies of the downconverted signal, the harmonic frequencies associated with two or more carrier frequencies; detect a blocker signal in the downconverted signal based on the estimated plurality of signal power levels, the blocker signal having a signal power level of the plurality of estimated signal power levels that exceeds a pre-determined threshold; and map the detected blocker signal to the plurality of harmonic frequencies associated with the two or more carrier frequencies; estimate a plurality of signal power levels for a corresponding plurality of harmonic frequencies of the downconverted signal, the harmonic frequencies associated with two or more carrier frequencies; detect a blocker signal in the downconverted signal based on the estimated plurality of signal power levels, the blocker signal having a signal power level of the plurality of estimated signal power levels that exceeds a pre-determined threshold; and map the detected blocker signal to the plurality of harmonic frequencies associated with the two or more carrier frequencies; reference signal generation circuitry configured to generate a reference signal based on the plurality of harmonic frequencies mapped to the detected blocker signal and the received RF signal; and cancellation circuitry configured to apply a pre-processed reference signal to the digitized downconverted signal to remove distortion associated with the blocker signal, the pre-processed reference signal based on the reference signal.
A method for printing colour images using a colour workflow that results in equal colours from an existing print system and an additional print system, the existing print system applying an existing colour output profile for converting colours of an input image, the additional print system applying the colour workflow for converting colours of an input image, the method comprising the steps of: a) obtaining an additional output colour profile for the additional print system from colour measurement data that relate device colorant coordinates of the additional print system to device independent colour data; b) obtaining an actual output colour profile for the existing print system from colour measurement data that relate device colorant coordinates of the existing print system to device independent colour data; c) obtaining the existing output colour profile; d) combining the existing output colour profile, the actual output colour profile and the additional colour output profile in the colour workflow, and e) converting the colours of an input image according to the colour workflow and printing the converted image using the additional print system, wherein the existing output colour profile, in contrast to the actual output colour profile, does not accurately describe the colour behaviour of the existing print system as is apparent from the colour measurement data in step b) and the actual output colour profile is applied in an inverse direction (A2B) in the step of combining output colour profiles. a) obtaining an additional output colour profile for the additional print system from colour measurement data that relate device colorant coordinates of the additional print system to device independent colour data; b) obtaining an actual output colour profile for the existing print system from colour measurement data that relate device colorant coordinates of the existing print system to device independent colour data; c) obtaining the existing output colour profile; d) combining the existing output colour profile, the actual output colour profile and the additional colour output profile in the colour workflow, and e) converting the colours of an input image according to the colour workflow and printing the converted image using the additional print system,
Composition containing aromatic polycarbonate and a) 1.60 wt.%-4.00 wt.% of at least one acrylate-based scattering additive, where the average particle diameter is from 2 to 15 μm b) 2.00 wt.%-5.00 wt.% of at least one brominated flame retardant, where the brominated flame retardant is a tetrabromobisphenol A oligomer, and c) 2.50 wt.%-5.50 wt.% of at least one phosphorus-based flame retardant, wherein the aromatic polycarbonate is a mixture of branched and linear polycarbonate and wherein at least 70 wt.% of linear polycarbonate and at least 10.00 wt.% of branched polycarbonate are present. a) 1.60 wt.%-4.00 wt.% of at least one acrylate-based scattering additive, where the average particle diameter is from 2 to 15 μm b) 2.00 wt.%-5.00 wt.% of at least one brominated flame retardant, where the brominated flame retardant is a tetrabromobisphenol A oligomer, and c) 2.50 wt.%-5.50 wt.% of at least one phosphorus-based flame retardant, wherein the aromatic polycarbonate is a mixture of branched and linear polycarbonate and wherein at least 70 wt.% of linear polycarbonate and at least 10.00 wt.% of branched polycarbonate are present.
A method of operating a picker line for feeding products into a packaging machine, comprising at least two pickers (6, 7), a first feed belt and a first vision system, the first picker being arranged downstream of the first vision system and being associated with the first feed belt, wherein a second vision system and a second feed belt are provided downstream of the first feed belt and the last picker is associated with the second feed belt and arranged downstream of the second vision system, the speed of the second feed belt being reduced in comparison with the speed of the first feed belt so as to reduce the distances between the products that have not been gripped by the first picker and so as to transmit the positions of the products by means of the second vision system to the last picker, characterized in that the pickers (6,7) are delta robots.
A diaphragm valve having a diaphragm which can be moved along an axis of advance to open and close a passage for fluid, a first portion of the diaphragm, which is remote from the axis of advance, being clamped between a first clamping portion and a second clamping portion, the second clamping portion being supported, by means of a preloading means, against an abutment portion which is rigidly connected to the first clamping portion, characterised in that a second portion of the diaphragm, which is adjacent the axis of advance, is clamped between a third clamping portion and a fourth clamping portion, which latter is rigidly connected to the third clamping portion, and in that the second and fourth clamping portions (32, 26) take the form of separate components.
A method for operating a primary transmission point, the method comprising: informing, by the primary transmission point, a user equipment of a modified configuration of a radio bearer used in a multiple point transmission to the user equipment; and confirming, by the primary transmission point, an acknowledgement of the modified configuration with a controller, wherein the acknowledgement is received from the user equipment; wherein informing the user equipment comprises transmitting a first message comprising information regarding the modified configuration to the user equipment, wherein the information regarding the modified configuration comprises parameters for the radio bearer, characterised in that wherein the parameters for the radio bearer comprises information regarding performing in-order delivery of packet data convergence protocol packets to combine information transmitted by the transmission points involved in the multiple point transmission. informing, by the primary transmission point, a user equipment of a modified configuration of a radio bearer used in a multiple point transmission to the user equipment; and confirming, by the primary transmission point, an acknowledgement of the modified configuration with a controller, wherein the acknowledgement is received from the user equipment; wherein informing the user equipment comprises transmitting a first message comprising information regarding the modified configuration to the user equipment, wherein the information regarding the modified configuration comprises parameters for the radio bearer, characterised in that wherein the parameters for the radio bearer comprises information regarding performing in-order delivery of packet data convergence protocol packets to combine information transmitted by the transmission points involved in the multiple point transmission.