mhurhangee/patent-ind-claim-en huggingface dataset:
A calibrating bar having a neutral plane (N), for calibrating a multi-roll leveller for metal strips, said calibrating bar - having a thickness from 1.0 mm to 2.0 mm and a yield strength from 1000 MPa to 2000 MPa, - comprising - a first groove on a first face wherein a first optical fibre is embedded by means of an adhesive , - a second groove on a second face , being opposite to said first face , wherein a second optical fibre is embedded by means of an adhesive , - said first optical fibre and said second optical fibre comprising a fibre Bragg grating, being essentially parallel, - said first optical fibre and said second optical fibre being located at the same distance from said neutral plane (N), - said first embedded optical fibre and said second embedded optical fibre being configured such that they can be connected to an optical coupler and such that it has a sufficient length to extend over all the rolls of said multi-roll leveller. - having a thickness from 1.0 mm to 2.0 mm and a yield strength from 1000 MPa to 2000 MPa, - comprising - a first groove on a first face wherein a first optical fibre is embedded by means of an adhesive , - a second groove on a second face , being opposite to said first face , wherein a second optical fibre is embedded by means of an adhesive , - a first groove on a first face wherein a first optical fibre is embedded by means of an adhesive , - a second groove on a second face , being opposite to said first face , - said first optical fibre and said second optical fibre comprising a fibre Bragg grating, being essentially parallel, - said first optical fibre and said second optical fibre being located at the same distance from said neutral plane (N), - said first embedded optical fibre and said second embedded optical fibre being configured such that they can be connected to an optical coupler and such that it has a sufficient length to extend over all the rolls of said multi-roll leveller.
A method performed by a terminal in a wireless communication system, the method comprising: determining a portion of second part of channel state information, CSI, to be omitted based on a priority of each of a plurality of CSIs in the second part of the CSI and a threshold code rate c T of the second part of the CSI, the CSI including first part of the CSI, CSI part 1, and the second part of the CSI, CSI part 2; mapping the CSI part 1 and a non-omitted portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to the base station (101-103), the mapped UCI via physical uplink shared channel, PUSCH, wherein the plurality of CSIs comprises wideband CSI and a plurality of subband CSIs, each of the plurality of subband CSIs having each priority, wherein the plurality of subband CSIs comprise a plurality of subband CSI pairs, each of the plurality of subband CSI pairs having each priorities according to an index of a CSI report, wherein each of the subband CSI pairs comprises a subband CSI of even-numbered subbands and a subband CSI of odd-numbered subbands, wherein the subband CSI of even-numbered subbands has a higher priority than the subband CSI of odd-numbered subbands, wherein a code rate of the CSI part 2 to be transmitted is below the threshold code rate c T , and wherein the threshold code rate c T is determined based on a target code rate for the PUSCH and a CSI offset value. determining a portion of second part of channel state information, CSI, to be omitted based on a priority of each of a plurality of CSIs in the second part of the CSI and a threshold code rate c T of the second part of the CSI, the CSI including first part of the CSI, CSI part 1, and the second part of the CSI, CSI part 2; mapping the CSI part 1 and a non-omitted portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to the base station (101-103), the mapped UCI via physical uplink shared channel, PUSCH, wherein the plurality of CSIs comprises wideband CSI and a plurality of subband CSIs, each of the plurality of subband CSIs having each priority, wherein the plurality of subband CSIs comprise a plurality of subband CSI pairs, each of the plurality of subband CSI pairs having each priorities according to an index of a CSI report, wherein each of the subband CSI pairs comprises a subband CSI of even-numbered subbands and a subband CSI of odd-numbered subbands, wherein the subband CSI of even-numbered subbands has a higher priority than the subband CSI of odd-numbered subbands, wherein a code rate of the CSI part 2 to be transmitted is below the threshold code rate c T , and wherein the threshold code rate c T is determined based on a target code rate for the PUSCH and a CSI offset value.
Lubricating powder comprising a) more than 60 wt.-% of at least one alkali metal salt of a fatty acid, b) at least one fatty acid mono-, di- or triglyceride, wherein the weight ratio of compounds according to component a) to compounds of component b) is not higher than 30; and wherein component b) is comprised of triglycerides based on alkoxylated fatty acids with a degree of alkoxylation of least 20 but not more than 50. a) more than 60 wt.-% of at least one alkali metal salt of a fatty acid, b) at least one fatty acid mono-, di- or triglyceride, wherein the weight ratio of compounds according to component a) to compounds of component b) is not higher than 30; and wherein component b) is comprised of triglycerides based on alkoxylated fatty acids with a degree of alkoxylation of least 20 but not more than 50.
Method for calculating a calibration parameter for a robot tool comprising the following method steps: - first reception (REC-1) of an image dataset from a medical imaging of an image volume by means of a first interface (201.1), wherein the medical imaging is a recording of the image volume with a magnetic resonance tomography scanner, a computed tomography scanner, an ultrasound device and/or an X-ray device, wherein the image volume comprises a part of the robot tool , and wherein the robot tool is attached to a robot , - second reception (REC-2) of a robot dataset by means of a second interface (201.2), wherein the robot dataset comprises a position of at least one movable axis (351.1, 351.2, 351.3) of the robot during the recording of the image dataset, - determination (DET) of the position and/or orientation of a marking in the image dataset by means of a computing unit , wherein the robot tool comprises the marking, - first calculation (CALC-1) of an image-guided position and/or orientation of the tool centre point of the robot tool by transforming the position and/or orientation of the marking by means of the computing unit , - second calculation (CALC-2) of the calibration parameter based on the robot dataset and on the image-guided position and/or orientation of the tool centre point by means of the computing unit , wherein a predicted position and/or orientation of the tool centre point is calculated from the robot dataset, and wherein the calibration parameter comprises the deviations of the predicted position and/or orientation from the image-guided position and/or orientation . - first reception (REC-1) of an image dataset from a medical imaging of an image volume by means of a first interface (201.1), wherein the medical imaging is a recording of the image volume with a magnetic resonance tomography scanner, a computed tomography scanner, an ultrasound device and/or an X-ray device, wherein the image volume comprises a part of the robot tool , and wherein the robot tool is attached to a robot , - second reception (REC-2) of a robot dataset by means of a second interface (201.2), wherein the robot dataset comprises a position of at least one movable axis (351.1, 351.2, 351.3) of the robot during the recording of the image dataset, - determination (DET) of the position and/or orientation of a marking in the image dataset by means of a computing unit , wherein the robot tool comprises the marking, - first calculation (CALC-1) of an image-guided position and/or orientation of the tool centre point of the robot tool by transforming the position and/or orientation of the marking by means of the computing unit , - second calculation (CALC-2) of the calibration parameter based on the robot dataset and on the image-guided position and/or orientation of the tool centre point by means of the computing unit , wherein a predicted position and/or orientation of the tool centre point is calculated from the robot dataset, and wherein the calibration parameter comprises the deviations of the predicted position and/or orientation from the image-guided position and/or orientation .
A nuclear reactor comprising: a core shroud surrounding a core of the nuclear reactor; and a reactor pressure vessel , wherein an outer surface of the core shroud and an inner surface of the reactor pressure vessel form a downcomer annulus ; characterized in that an acoustic flowmeter is provided in the downcomer annulus , the acoustic flowmeter comprising: an extension shaped to block fluid flow in the nuclear reactor downcomer annulus ; and a vibration detector configured to detect vortex shedding oscillation from the extension and report a frequency of the vortex shedding oscillation. a core shroud surrounding a core of the nuclear reactor; and a reactor pressure vessel , wherein an outer surface of the core shroud and an inner surface of the reactor pressure vessel form a downcomer annulus ; characterized in that an acoustic flowmeter is provided in the downcomer annulus , the acoustic flowmeter comprising: an extension shaped to block fluid flow in the nuclear reactor downcomer annulus ; and a vibration detector configured to detect vortex shedding oscillation from the extension and report a frequency of the vortex shedding oscillation. an extension shaped to block fluid flow in the nuclear reactor downcomer annulus ; and a vibration detector configured to detect vortex shedding oscillation from the extension and report a frequency of the vortex shedding oscillation.
A rotary tool (1; 101; 201) for cutting large inside diameters at the outer circumference of which at least one cutting edge is arranged, comprising a support structure (10; 110; 210) which indirectly or directly supports the at least one cutting edge , and comprising a chucking portion for coupling to a tool holder, characterized in that the support structure (10; 110; 210) widens in an umbrella-type manner or jaw-type manner starting from a coupling portion adjacent to the chucking portion and is radially stiffened by a stiffening structure (12; 112; 212), and that the support structure (10; 110; 210) includes at least two support portions (14; 114; 214) diametrically opposed with respect to an axis of rotation (A) of the rotary tool (1; 101; 201), wherein the support portions indirectly or directly support at least one respective cutting edge and which are connected to each other by the stiffening structure (12; 112; 212).
A membrane for selective separation of target stem cells from a single-cell suspension containing stem cells, whereby said single-cell suspension is obtained from a biological sample containing stem cells, wherein the membrane consists of a 3D carrier structure made of at least one layer of a biocompatible polymer with pores, wherein said biocompatible polymer is inert towards the target stem cells, meaning that it should not influence essential characteristics of the target stem cells, characterized in that the pores have a diameter in the range from 200 to 500 μm for enabling a free flow of the input single-cell suspension through the carrier structure and wherein the carrier structure has on its surface and/or in the pores covalently bound selected target molecules for recognizing characteristic antigens on the surface of the target stem cells to be isolated, and for specific binding to the characteristic antigens on the surface of the target stem cells to be isolated, for selective retrieval of target stem cell subpopulation only, by binding the target stem cells to be isolated to the selected target molecules.
Device for machining, in particular etching and/or developing, substrates , in particular wafers having a turntable , wherein the turntable has a Venturi gap and the turntable has a dish shape, wherein the turntable has a chamfer , wherein the chamfer is mounted in a bottom part characterized in that the chamfer is mounted at an upper circumferential edge of the turntable .
A ferritic stainless steel foil having a thickness of 5 μm to 60 μm, wherein a recrystallization rate of said stainless steel foil is 90% to 100%, and in an orientation distribution function obtained by analysis of a crystalline texture of said stainless steel foil, when a Euler angle φ2 is 45°±10°, at the plane expressed by a Euler angle Φ of 53.4°±10°, the maximum peak strength ratio in the peak strength ratios shown by orientations corresponding to the Euler angle φ1 is 25 or less, where the Euler angle φ1 is 0 to 90°. in an orientation distribution function obtained by analysis of a crystalline texture of said stainless steel foil, when a Euler angle φ2 is 45°±10°, at the plane expressed by a Euler angle Φ of 53.4°±10°, the maximum peak strength ratio in the peak strength ratios shown by orientations corresponding to the Euler angle φ1 is 25 or less, where the Euler angle φ1 is 0 to 90°.
Seal, in particular automatically lowerable floor seal for doors, having the following features: - the seal comprises a seal housing which is substantially U-shaped and has two legs which are connected to one another by a web , - the seal comprises at least one sealing means which is fitted preferably in the seal housing , - the seal comprises a fastening means for fastening the seal housing in a groove of a door, - the fastening means , prior to the seal being installed in the groove, is arranged on the seal housing in at least partially captive fashion, - wherein the fastening means comprises a first section and a second section , wherein the first section is connected in captive fashion with the seal housing and the second section is suitable, and configured, for a connection with a door, and - wherein the second section is angled with respect to the first section , - wherein the fastening means is connected to the seal housing by a pressing connection, - wherein the second section has a hole for a fastening screw , characterised in that - the first section of the fastening means has lateral protrusions which are designed in such a way that the first section of the fastening means is inserted between the legs of the seal housing in a press fit against these legs and the fastening means is thus fixed in the seal housing in the longitudinal direction of the first section . - the seal comprises a seal housing which is substantially U-shaped and has two legs which are connected to one another by a web , - the seal comprises at least one sealing means which is fitted preferably in the seal housing , - the seal comprises a fastening means for fastening the seal housing in a groove of a door, - the fastening means , prior to the seal being installed in the groove, is arranged on the seal housing in at least partially captive fashion, - wherein the fastening means comprises a first section and a second section , wherein the first section is connected in captive fashion with the seal housing and the second section is suitable, and configured, for a connection with a door, and - wherein the second section is angled with respect to the first section , - wherein the fastening means is connected to the seal housing by a pressing connection, - wherein the second section has a hole for a fastening screw , characterised in that - the first section of the fastening means has lateral protrusions which are designed in such a way that the first section of the fastening means is inserted between the legs of the seal housing in a press fit against these legs and the fastening means is thus fixed in the seal housing in the longitudinal direction of the first section .
A control system network architecture for a fluidic control system, said control system network architecture comprising: a plurality of nodes adapted to control fluid flow to a plurality of controlled endpoint devices , wherein each node of said plurality of nodes is configurable to independently control fluid flow to multiple single-acting controlled endpoint devices or to a double-acting controlled endpoint device, and a controller being configured to communicate data messages to the nodes to cause desired operation of the controlled endpoint devices . a plurality of nodes adapted to control fluid flow to a plurality of controlled endpoint devices , wherein each node of said plurality of nodes is configurable to independently control fluid flow to multiple single-acting controlled endpoint devices or to a double-acting controlled endpoint device, and a controller being configured to communicate data messages to the nodes to cause desired operation of the controlled endpoint devices .
A surgical bur comprising: a plurality of flutes , wherein each of the plurality of flutes comprises a cutting edge , a plurality of rake surfaces and a clearance surface , wherein the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface , the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and a plurality of lands , each of the plurality of lands is disposed between a pair of the plurality of flutes; characterised in that a) the first rake surface and the second rake surface are decoupled from each other or b) a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface or c) the first rake surface and the second rake surface are decoupled from each other and a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface; and in that the one of the plurality of flutes comprises a decoupling area ; and the decoupling area is located between the first rake surface and the second rake surface of the one of the plurality of flutes. a plurality of flutes , wherein each of the plurality of flutes comprises a cutting edge , a plurality of rake surfaces and a clearance surface , wherein the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface , the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface , the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and a plurality of lands , each of the plurality of lands is disposed between a pair of the plurality of flutes; characterised in that a) the first rake surface and the second rake surface are decoupled from each other or b) a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface or c) the first rake surface and the second rake surface are decoupled from each other and a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface; and in that the one of the plurality of flutes comprises a decoupling area ; and the decoupling area is located between the first rake surface and the second rake surface of the one of the plurality of flutes.
Key for adjusting stop valves, gate valves and similar closures of pipes laid in the earth having a rod assembly with a key rod consisting of connected rod sections , characterised in that the rod assembly is manufactured wholly or partly from plastic and that at least the lower rod section is designed to be flexible around its longitudinal axis , so that when operated the lower rod section is initially deliberately flexible on rotation around the longitudinal axis and when the closure is suddenly opened returns in the opposite direction to its original shape and thus attenuates the opening impact.
An apparatus for controlling a resonance bandwidth in a wireless power transmission system, the apparatus comprising: a source resonator configured to transfer an electromagnetic energy to a target resonator; and a source resonance bandwidth setting unit configured to set a resonance bandwidth of the source resonator, CHARACTERIZED BY a source controller configured to: verify a demand power of a target device, control the source resonance bandwidth setting unit to set a Q-factor of the source resonator to be within a first range in response to the demand power of the target device being less than a setting value, and control the source resonance bandwidth setting unit to set the Q-factor of the source resonator to be within a second range in response to the demand power of the target device being equal to or greater than the setting value, wherein the first range comprises values less than 100, and the second range comprises values from 100 to 3000. a source resonator configured to transfer an electromagnetic energy to a target resonator; and a source resonance bandwidth setting unit configured to set a resonance bandwidth of the source resonator, CHARACTERIZED BY a source controller configured to: verify a demand power of a target device, control the source resonance bandwidth setting unit to set a Q-factor of the source resonator to be within a first range in response to the demand power of the target device being less than a setting value, and control the source resonance bandwidth setting unit to set the Q-factor of the source resonator to be within a second range in response to the demand power of the target device being equal to or greater than the setting value, verify a demand power of a target device, control the source resonance bandwidth setting unit to set a Q-factor of the source resonator to be within a first range in response to the demand power of the target device being less than a setting value, and control the source resonance bandwidth setting unit to set the Q-factor of the source resonator to be within a second range in response to the demand power of the target device being equal to or greater than the setting value, wherein the first range comprises values less than 100, and the second range comprises values from 100 to 3000.
A laundry detergent composition, comprising a lipase and an ethylene oxide-propylene oxide-ethylene oxide (EO/PO/EO) triblock copolymer, wherein the copolymer comprises a first EO block, a second EO block and a PO block wherein the first EO block and the second EO block are linked to the PO block wherein the laundry detergent composition comprises between 0.0001% and 0.75%, by weight of the laundry detergent composition of the lipase, based on active protein.