mhurhangee/ep-ind-claims huggingface dataset:
Arrangement having a floor, a furnishing component and a fastening device, which connects the floor and the furnishing component, wherein - the fastening device comprises an extruded-profile part and an angled element (50, 51), - the extruded-profile part has an outer plate, which rests on the floor and is connected thereto, - the extruded-profile part has a second plate, which is arranged parallel to the outer plate and is connected to a first portion (50a, 51a) of the angled element (50, 51), and - a second portion (50b, 51b) of the angled element (50, 51), said second portion being arranged at an angle to the first portion (50a, 51a), is connected to the furnishing component, - the outer plate and the second plate are connected by two parallel side walls (430, 440), which together with the outer plate and the second plate form a cross-sectionally closed extruded-profile portion, which extends in tube form along the direction of extrusion, - the angled element (50, 51) is arranged in the closed extruded-profile portion, - in the region of the angled element (50, 51), at least one of the side walls (430, 440) has a lateral aperture, which allows lateral access to the angled element (50, 51), - the angled element (50, 51) is arranged in an end-side end portion of the closed extruded-profile portion, and - the second portion (50b, 51b) of the angled element (50, 51) forms an end-side connection interface in relation to the furnishing component. - the fastening device comprises an extruded-profile part and an angled element (50, 51), - the extruded-profile part has an outer plate, which rests on the floor and is connected thereto, - the extruded-profile part has a second plate, which is arranged parallel to the outer plate and is connected to a first portion (50a, 51a) of the angled element (50, 51), and - a second portion (50b, 51b) of the angled element (50, 51), said second portion being arranged at an angle to the first portion (50a, 51a), is connected to the furnishing component, - the outer plate and the second plate are connected by two parallel side walls (430, 440), which together with the outer plate and the second plate form a cross-sectionally closed extruded-profile portion, which extends in tube form along the direction of extrusion, - the angled element (50, 51) is arranged in the closed extruded-profile portion, - in the region of the angled element (50, 51), at least one of the side walls (430, 440) has a lateral aperture, which allows lateral access to the angled element (50, 51), - the angled element (50, 51) is arranged in an end-side end portion of the closed extruded-profile portion, and - the second portion (50b, 51b) of the angled element (50, 51) forms an end-side connection interface in relation to the furnishing component.
A system for calibrating a medical device, the system comprising: a memory storing: processor executable code for a calibration engine; and first calibration data; one or more components of a catheter, wherein the one or more components comprise at least one axial sensor; one or more processors communicatively coupled to the memory, the one or more processors being configured to execute the processor executable code to cause the system to perform: predicting, by the calibration engine using a mathematical model, voltage values produced by the at least one axial sensor, wherein the inputs to the mathematical model include a magnetic field model comprising magnetic field values at each point in a mapping volume; receiving, by the calibration engine, one or more voltage measurements from the at least one axial sensor within the mapping volume; estimating, by the calibration engine, second calibration data based on the one or more voltage measurements by finding second calibration data values and position and orientation values so that the model predicted voltages best match the actual measured voltages; and outputting, by the calibration engine, the second calibration data to the memory. a memory storing: processor executable code for a calibration engine; and first calibration data; processor executable code for a calibration engine; and first calibration data; one or more components of a catheter, wherein the one or more components comprise at least one axial sensor; one or more processors communicatively coupled to the memory, the one or more processors being configured to execute the processor executable code to cause the system to perform: predicting, by the calibration engine using a mathematical model, voltage values produced by the at least one axial sensor, wherein the inputs to the mathematical model include a magnetic field model comprising magnetic field values at each point in a mapping volume; receiving, by the calibration engine, one or more voltage measurements from the at least one axial sensor within the mapping volume; estimating, by the calibration engine, second calibration data based on the one or more voltage measurements by finding second calibration data values and position and orientation values so that the model predicted voltages best match the actual measured voltages; and outputting, by the calibration engine, the second calibration data to the memory. predicting, by the calibration engine using a mathematical model, voltage values produced by the at least one axial sensor, wherein the inputs to the mathematical model include a magnetic field model comprising magnetic field values at each point in a mapping volume; receiving, by the calibration engine, one or more voltage measurements from the at least one axial sensor within the mapping volume; estimating, by the calibration engine, second calibration data based on the one or more voltage measurements by finding second calibration data values and position and orientation values so that the model predicted voltages best match the actual measured voltages; and outputting, by the calibration engine, the second calibration data to the memory.
Damper system of a direct driven wind turbine, - whereby the wind turbine comprises a nacelle, a rotor hub and a electric generator, - whereby the electric generator comprises a rotor and a non-rotating part, - whereby the rotor hub is connected to the rotor of the electric generator, - whereby the non-rotating part of the generator is connected to the nacelle, - whereby the wind turbine comprises a damper system to, at least partially, eliminate an unwanted movement of the wind turbine resulting from wind loads, - the damper system is arranged at the non-rotating part of the electric generator, - the rotor of the electric generator is arranged rotatable around the non-rotating part of the generator, - the shaft of the non-rotation part of the electrical generator is hollow characterized in that the damper system is arranged within the hollow shaft, - whereby the damper system comprises a liquid damper. - whereby the wind turbine comprises a nacelle, a rotor hub and a electric generator, - whereby the electric generator comprises a rotor and a non-rotating part, - whereby the rotor hub is connected to the rotor of the electric generator, - whereby the non-rotating part of the generator is connected to the nacelle, - whereby the wind turbine comprises a damper system to, at least partially, eliminate an unwanted movement of the wind turbine resulting from wind loads, - the damper system is arranged at the non-rotating part of the electric generator, - the rotor of the electric generator is arranged rotatable around the non-rotating part of the generator, - the shaft of the non-rotation part of the electrical generator is hollow characterized in that the damper system is arranged within the hollow shaft, - whereby the damper system comprises a liquid damper.
A Discovery Signal, DS processing method comprising: performing configuration, by a base station, on DS resources by taking a part of available resources of specified reference signals as the DS resources; and sending, by the base station, DSs according to the configuration, and measuring, by User Equipment, UE, the DSs according to the configuration; the method further comprising: initializing, by the base station, a Pseudo-Noise, PN sequence for the DSs by adopting a Physical Cell Identity, PCI or an Access Point Identity, API. performing configuration, by a base station, on DS resources by taking a part of available resources of specified reference signals as the DS resources; and sending, by the base station, DSs according to the configuration, and measuring, by User Equipment, UE, the DSs according to the configuration; the method further comprising: initializing, by the base station, a Pseudo-Noise, PN sequence for the DSs by adopting a Physical Cell Identity, PCI or an Access Point Identity, API.
A portable circular saw comprising a base for contacting with a workpiece, a tool main body supported on an upper side of the base, and a brushless electric motor as a drive source for rotating a rotary cutter, comprising a stator fixed to the tool main body, a rotor rotatably supported by the tool main body wherein a fan for cooling the motor is mounted to an output shaft of the motor and is integrated with the output shaft (21 1d), and wherein the circular saw is provided with a handle portion to be grasped by the user, the handle portion includes an uprise portion uprising upwardly from an upper portion of the electric motor, a main grip portion extending rearwards from an upper portion of the uprise portion, and a connection portion connecting a rear portion of the main grip portion to a rear portion of the electric motor, wherein the portable circular saw further comprises a circuit board configured to control an operation of the electric motor, characterised in that: the brushless electric motor is an outer rotor type brushless electric motor, whereby the rotor is positioned on an outer peripheral side of the stator, in that on the stator side air communication holes are provided and air communication holes are provided in a bottom portion of the rotor, in that the fan extends along a rear side of the bottom portion of the rotor, and in that either the circuit board is accommodated within the connection portion, and the connection portion is provided with an intake hole, and an air communication passage is formed to extend from the intake hole to the electric motor, so that the circuit board is cooled through rotation of the cooling fan, or the circuit board is accommodated within the uprise portion, and the uprise portion is provided with an intake hole, and an air communication passage is formed to extend from the intake hole to the electric motor, so that the circuit board is cooled through rotation of the cooling fan. the brushless electric motor is an outer rotor type brushless electric motor, whereby the rotor is positioned on an outer peripheral side of the stator, in that on the stator side air communication holes are provided and air communication holes are provided in a bottom portion of the rotor, in that the fan extends along a rear side of the bottom portion of the rotor, and in that either the circuit board is accommodated within the connection portion, and the connection portion is provided with an intake hole, and an air communication passage is formed to extend from the intake hole to the electric motor, so that the circuit board is cooled through rotation of the cooling fan, or the circuit board is accommodated within the uprise portion, and the uprise portion is provided with an intake hole, and an air communication passage is formed to extend from the intake hole to the electric motor, so that the circuit board is cooled through rotation of the cooling fan.
An contact lens assembly comprising: a non-planar substrate; a lens section formed in the non-planar substrate; and one or more electronic components cooperatively associated with the lens section and mounted on the non-planar substrate, wherein one of the non-planar substrate and the one or more electronic components comprise mechanical mounting structures and electrical interconnect structures for mounting the one or more electronic components to the non-planar substrate, characterized in that the mounting structures are formed on the non-planar substrate and are variably sized to create a planar mounting substrate for the one or more electronic components. a non-planar substrate; a lens section formed in the non-planar substrate; and
A method for selecting a multiple sclerosis patient for lymphocyte-depleting therapy, comprising the steps of: a) measuring the IL-21 level in a blood sample from the patient, wherein the blood sample is obtained prior to any lymphocyte-depleting therapy, b) comparing the IL-21 level to the IL-21 level in a control blood sample from a subject without an autoimmune disease, and c) selecting the patient for lymphocyte-depleting therapy if the IL-21 level in the blood sample from the patient is not elevated compared to the IL-21 level in the control blood sample. a) measuring the IL-21 level in a blood sample from the patient, wherein the blood sample is obtained prior to any lymphocyte-depleting therapy, b) comparing the IL-21 level to the IL-21 level in a control blood sample from a subject without an autoimmune disease, and c) selecting the patient for lymphocyte-depleting therapy if the IL-21 level in the blood sample from the patient is not elevated compared to the IL-21 level in the control blood sample.
Piston rod guide for a piston rod in a cylinder, in particular in a shock absorber, wherein the piston rod guide has a guide element, a seal element and an oil duct, wherein the oil duct has one or more sections, said sections leading from the central inner region at the piston rod to the outer side of the piston rod guide and, there, opening out at one or more outlets, wherein the oil duct has multiple interconnected duct portions (12, 12', 13, 14), which are formed between the guide element and the seal element and are delimited by both elements, wherein the ring-like guide element has an outer ring and at least one intermediate ring (9, 10) and the seal element has an axial sealing ring which bears against the piston rod, characterized in that the sealing ring has a ring-like sealing lip which bears against the piston rod and against the first intermediate ring, wherein the intermediate ring has, distributed around the inner circumference, multiple axial grooves, which are covered on the inner side by the sealing lip.
A method for performing a computation using fully homomorphic encryption cryptography, the computation comprising a set of FHE operations implementing the computation and operating on encrypted data items, an encrypted data item having an associated noise level, the method comprising - receiving one or more encrypted data items for the computation from a data-provider system, the one or more encrypted data items being encrypted with an encryption key of the data-provider system, - performing the set of FHE operations on encrypted data items including the received encrypted data items, - clipping an encrypted data item, thereby reducing a bit-size of one or more numbers representing the encrypted data item and increasing an associated noise level of the encrypted data item, wherein an FHE operation or a decrypt operation operates on the clipped encrypted data item as input, a noise level associated with the input being below a noise tolerance of the FHE operation or decrypt operation, and - storing the clipped encrypted data item for later FHE processing, and/or transmitting the clipped encrypted data item for further FHE processing on a further device. - receiving one or more encrypted data items for the computation from a data-provider system, the one or more encrypted data items being encrypted with an encryption key of the data-provider system, - performing the set of FHE operations on encrypted data items including the received encrypted data items, - clipping an encrypted data item, thereby reducing a bit-size of one or more numbers representing the encrypted data item and increasing an associated noise level of the encrypted data item, wherein an FHE operation or a decrypt operation operates on the clipped encrypted data item as input, a noise level associated with the input being below a noise tolerance of the FHE operation or decrypt operation, and - storing the clipped encrypted data item for later FHE processing, and/or transmitting the clipped encrypted data item for further FHE processing on a further device.
A method for determining an initial transmission power, comprising: a base station acquiring a measurement result of a second cell reported by a user equipment, wherein a first cell, in which said user equipment is located, belongs to the base station, and said first cell and said second cell belong to different base stations; and said base station to which said first cell belongs determining an initial transmission power of said user equipment when initiating a random access in said second cell according to a reference signal power of said second cell, said measurement result and a random access initial received target power of said second cell; characterized in that: after determining said initial transmission power, the method further comprises: comparing said initial transmission power with a first threshold value when said measurement result reported by said user equipment meets a handover condition, wherein if said transmission power is greater than said first threshold value, then said second cell is used as a candidate target cell of a handover and it is continued to select other cells which meet the handover condition to switch. a base station acquiring a measurement result of a second cell reported by a user equipment, wherein a first cell, in which said user equipment is located, belongs to the base station, and said first cell and said second cell belong to different base stations; and said base station to which said first cell belongs determining an initial transmission power of said user equipment when initiating a random access in said second cell according to a reference signal power of said second cell, said measurement result and a random access initial received target power of said second cell; characterized in that: after determining said initial transmission power, the method further comprises: comparing said initial transmission power with a first threshold value when said measurement result reported by said user equipment meets a handover condition, wherein if said transmission power is greater than said first threshold value, then said second cell is used as a candidate target cell of a handover and it is continued to select other cells which meet the handover condition to switch.
A spa user support system comprising: a swim spa comprising a shell, the shell comprising a front side, and a back side opposite the front side, with a first lateral side between the front side and the back side and a second lateral side opposite the first lateral side and between the front side and the back side; at least a first anchor and a second anchor, the first anchor permanently attached to the shell and the second anchor permanently attached to the shell a user support hammock, the user support hammock having a proximal end comprising a head support portion; the proximal end in connection with a first attachment means for attaching the proximal end to the first anchor; the user support hammock comprising a distal end in connection with a second attachment means for attaching the distal end to the second anchor, characterized in that the spa user support system further comprises: the first anchor and second anchor attached to a vertical wall of the back side, a third anchor attached to a horizontal lip of the first lateral side, a fourth anchor attached to a horizontal lip of the second lateral side, and fifth and sixth anchors attached to the vertical wall of the front side. a swim spa comprising a shell, the shell comprising a front side, and a back side opposite the front side, with a first lateral side between the front side and the back side and a second lateral side opposite the first lateral side and between the front side and the back side; at least a first anchor and a second anchor, the first anchor permanently attached to the shell and the second anchor permanently attached to the shell a user support hammock, the user support hammock having a proximal end comprising a head support portion; the proximal end in connection with a first attachment means for attaching the proximal end to the first anchor; the user support hammock comprising a distal end in connection with a second attachment means for attaching the distal end to the second anchor, characterized in that the spa user support system further comprises: the first anchor and second anchor attached to a vertical wall of the back side, a third anchor attached to a horizontal lip of the first lateral side, a fourth anchor attached to a horizontal lip of the second lateral side, and fifth and sixth anchors attached to the vertical wall of the front side.
An inlet bleed heat system in a gas turbine comprising: a compressor discharge extraction manifold that extracts compressor discharge air; an inlet bleed heat manifold receiving the compressor discharge air; an inlet filter housing disposed upstream of the inlet bleed heat manifold; an inlet silencer disposed downstream of the inlet bleed heat manifold; and a plurality of acoustic dispersion nozzles disposed at an output end of the inlet bleed heat manifold and between the inlet filter housing and the inlet silencer, the acoustic dispersion nozzles reducing a velocity of the compressor discharge air in the inlet bleed heat manifold by mixing the compressor discharge air with outside air from the inlet filter housing. a compressor discharge extraction manifold that extracts compressor discharge air; an inlet bleed heat manifold receiving the compressor discharge air; an inlet filter housing disposed upstream of the inlet bleed heat manifold; an inlet silencer disposed downstream of the inlet bleed heat manifold; and a plurality of acoustic dispersion nozzles disposed at an output end of the inlet bleed heat manifold and between the inlet filter housing and the inlet silencer, the acoustic dispersion nozzles reducing a velocity of the compressor discharge air in the inlet bleed heat manifold by mixing the compressor discharge air with outside air from the inlet filter housing.