mhurhangee/ep-ind-claims huggingface dataset:
A filter device for implantation into a body vessel, the device comprising: a hub; and a plurality of struts extending radially from the hub, each strut having a first end connected to the hub and extending radially therefrom to a second end, the second ends of two adjacent struts being connected at a tip to form a petal having a gap between the adjacent struts, each petal comprising an inner rib extending from the hub through the gap to the tip of the petal, wherein in use the inner rib comprises curves with peaks which give the inner rib a greater overall length than the struts. a hub; and a plurality of struts extending radially from the hub, each strut having a first end connected to the hub and extending radially therefrom to a second end, the second ends of two adjacent struts being connected at a tip to form a petal having a gap between the adjacent struts, each petal comprising an inner rib extending from the hub through the gap to the tip of the petal, wherein in use the inner rib comprises curves with peaks which give the inner rib a greater overall length than the struts.
A method of treating fiber based materials, textiles, woven and nonwoven materials with a bio-based polyelectrolyte complex composition suitable as a binder, said PEC composition comprises cationic biopolymer, anionic biopolymer, acid and preservative, wherein - the net charge of the PEC is cationic, - the charge ratio of the anionic biopolymer and the cationic biopolymer is ≤1, - the cationic biopolymer is chitosan, wherein chitosan has a degree of deacetylation being 66-100 %, - the anionic biopolymer is a polyanion derived from nature, - the acid is a Brønsted acid and/or a Lewis acid, wherein the Brønsted acid is selected from any organic and/or inorganic acids, wherein the Lewis acid is selected from any cationic mono- or multivalent atom, - the weight ratio between cationic biopolymer and anionic biopolymer is 1:0.1 to 1:20, - the weight ratio between the cationic biopolymer and acid is 1:0.01 to 1:30, - the pH is less than 7, and wherein said composition further comprises one or more fatty compounds. - the net charge of the PEC is cationic, - the charge ratio of the anionic biopolymer and the cationic biopolymer is ≤1, - the cationic biopolymer is chitosan, wherein chitosan has a degree of deacetylation being 66-100 %, - the anionic biopolymer is a polyanion derived from nature, - the acid is a Brønsted acid and/or a Lewis acid, wherein the Brønsted acid is selected from any organic and/or inorganic acids, wherein the Lewis acid is selected from any cationic mono- or multivalent atom, - the weight ratio between cationic biopolymer and anionic biopolymer is 1:0.1 to 1:20, - the weight ratio between the cationic biopolymer and acid is 1:0.01 to 1:30, - the pH is less than 7, and
A method for configuring a monitoring device for monitoring a spatial area, wherein the monitoring device comprises at least one image pickup unit (16, 18) which generates a three-dimensional image of the spatial area, comprising the steps of: - recording and displaying the three-dimensional image of the spatial area, characterized by - determining a plurality of spatial points (46, 48, 50) in the three-dimensional image, wherein the three-dimensional image is an image of the spatial area which, in addition to a two-dimensional image, also comprises range information to individual or all objects in the spatial area. - defining a configuration plane using the spatial points (46, 48, 50), - generating at least one variable geometry element (86, 88) relative to the configuration plane, the geometry element (86, 88) being superimposed into the image, - generating a data record which represents a transformation of the geometry element (86, 88) into the spatial area, and - transferring the data record to the monitoring device, with the monitoring device being designed for monitoring the spatial area using the data record. - recording and displaying the three-dimensional image of the spatial area, - determining a plurality of spatial points (46, 48, 50) in the three-dimensional image, wherein the three-dimensional image is an image of the spatial area which, in addition to a two-dimensional image, also comprises range information to individual or all objects in the spatial area. - defining a configuration plane using the spatial points (46, 48, 50), - generating at least one variable geometry element (86, 88) relative to the configuration plane, the geometry element (86, 88) being superimposed into the image, - generating a data record which represents a transformation of the geometry element (86, 88) into the spatial area, and - transferring the data record to the monitoring device, with the monitoring device being designed for monitoring the spatial area using the data record.
A Liquid crystal display, containing a liquid crystal panel, wherein the liquid crystal panel comprises a plurality of pixel units (200, 300) arranged as a matrix, wherein a liquid crystal capacitor is arranged within each pixel unit (200, 300), and wherein the liquid crystal capacitor includes a pixel electrode and a common electrode (222, 322) arranged in opposite positions relative to each other, and wherein each pixel unit (200, 300) also comprises a capacitor accumulator, where the said capacitor accumulator includes a pixel electrode as aforesaid and an accumulator electrode that are arranged in opposite directions relative to each other, wherein the accumulator electrode and the aforementioned common electrode (222, 322) of each pixel unit are electrically connected to each other and are fed with the same common voltage, characterized in that the liquid crystal display also comprises a pixel voltage regulator, and wherein the pixel voltage regulator is adapted to receive a common feedback voltage from the common electrode (222, 322) and to adjust the voltage of the respective pixel electrode according to the common feedback voltage, where the pixel voltage regulator includes a plurality of compensation capacitors and an amplifier with an amplification factor, and where each one of said compensation capacitors is arranged within each pixel unit, and where the compensation capacitor comprises one of the aforementioned pixel electrodes and one common feedback electrode arranged in opposite positions relative to each other, and where the input of the amplifier with an amplification factor is connected to the common electrode, and where the output is connected to the respective common feedback electrode.
A method for performing measurements, the method performed by a user equipment, UE, and comprising: receiving, by the UE, configuration information on a measurement gap, wherein the UE is configured with a dual connectivity, DC, to an evolved universal terrestrial radio access, E-UTRA, cell and a new radio access technology, NR, cell, wherein the configuration information on the measurement gap includes a measurement gap length, MGL, and wherein the MGL is set to an integer N that includes one of 3ms, 4ms and 6ms; and performing the measurement during the MGL, wherein slots are interrupted during the MGL, based on that the UE is configured with the DC to the E-UTRA cell and the NR cell, wherein a total number of the slots to be interrupted is determined as an unit of slots based on a combination of a subcarrier spacing, SCS, of the NR cell and the MGL, wherein the SCS of the NR cell includes one of 15 kHz, 30 kHz, 60 kHz and 120kHz, wherein the DC to the E-UTRA cell and the NR cell, EN-DC, is configured as asynchronous, and wherein the total number of slots to be interrupted is determined as one of: N+1 for a SCS of 15kHz, 2N+1 for a SCS of 30kHz, 4N+1 for a SCS of 60kHz, and 8N+1 for a SCS of 120kHz. receiving, by the UE, configuration information on a measurement gap, wherein the UE is configured with a dual connectivity, DC, to an evolved universal terrestrial radio access, E-UTRA, cell and a new radio access technology, NR, cell, wherein the configuration information on the measurement gap includes a measurement gap length, MGL, and wherein the MGL is set to an integer N that includes one of 3ms, 4ms and 6ms; and performing the measurement during the MGL, wherein slots are interrupted during the MGL, based on that the UE is configured with the DC to the E-UTRA cell and the NR cell, wherein a total number of the slots to be interrupted is determined as an unit of slots based on a combination of a subcarrier spacing, SCS, of the NR cell and the MGL, wherein the SCS of the NR cell includes one of 15 kHz, 30 kHz, 60 kHz and 120kHz, wherein the DC to the E-UTRA cell and the NR cell, EN-DC, is configured as asynchronous, and wherein the total number of slots to be interrupted is determined as one of: N+1 for a SCS of 15kHz, 2N+1 for a SCS of 30kHz, 4N+1 for a SCS of 60kHz, and 8N+1 for a SCS of 120kHz. N+1 for a SCS of 15kHz, 2N+1 for a SCS of 30kHz, 4N+1 for a SCS of 60kHz, and 8N+1 for a SCS of 120kHz.
Electrode comprising: - a storage film comprising: • a layer of a support material comprising at least one inclusion, the at least one inclusion: ▪ contains a compound of interest, ▪ constitutes at least one individual reservoir enveloped, at least partially, in the layer of the support material, ▪ has the form of a cavity extending in the layer of the support material, • a wall of sealing material sealing the at least one inclusion, said wall of sealing material being capable of allowing the compound of interest to pass or diffuse therethrough in a controlled manner, for example according to a desired speed of passage or diffusion, - a porous layer at least partially covering the wall of sealing material, at least a portion of a surface of the porous layer constituting an active surface area of the electrode. - a storage film comprising: • a layer of a support material comprising at least one inclusion, the at least one inclusion: ▪ contains a compound of interest, ▪ constitutes at least one individual reservoir enveloped, at least partially, in the layer of the support material, ▪ has the form of a cavity extending in the layer of the support material, • a wall of sealing material sealing the at least one inclusion, said wall of sealing material being capable of allowing the compound of interest to pass or diffuse therethrough in a controlled manner, for example according to a desired speed of passage or diffusion, • a layer of a support material comprising at least one inclusion, the at least one inclusion: ▪ contains a compound of interest, ▪ constitutes at least one individual reservoir enveloped, at least partially, in the layer of the support material, ▪ has the form of a cavity extending in the layer of the support material, ▪ contains a compound of interest, ▪ constitutes at least one individual reservoir enveloped, at least partially, in the layer of the support material, ▪ has the form of a cavity extending in the layer of the support material, • a wall of sealing material sealing the at least one inclusion, said wall of sealing material being capable of allowing the compound of interest to pass or diffuse therethrough in a controlled manner, for example according to a desired speed of passage or diffusion, - a porous layer at least partially covering the wall of sealing material, at least a portion of a surface of the porous layer constituting an active surface area of the electrode.
An electrically assisted bicycle comprising: an electric motor which is adapted to apply a walk-push assisting torque to a wheel of the bicycle (1, 1A, 1B) when a rider propels the bicycle (1, 1A, 1B) by pushing it while walking; a control unit configured to execute a first mode in which the electric motor applies no torque to the wheel, a second mode in which the electric motor applies to the wheel a stay assisting torque which allows the electrically assisted bicycle (1, 1A, 1B) to stay in a position where the rider wants to stay and a third mode in which the electric motor applies the walk-push assisting torque to the wheel, wherein the first mode, the second mode and the third mode are able to be selected by using an operating unit (56, 56A, 56B) which is operable by the rider, wherein the operating unit has a first operating module and a second operating module which differs from the first operating module, wherein the control unit is configured to execute the first mode when the first operating module and the second operating module are not operated, wherein the control unit is configured to execute the second mode in such a state that the first operating module or the second operating module is operated, and characterized in that the control unit is configured to execute the third mode in such a state that the first operating module and the second operating module are operated. an electric motor which is adapted to apply a walk-push assisting torque to a wheel of the bicycle (1, 1A, 1B) when a rider propels the bicycle (1, 1A, 1B) by pushing it while walking; a control unit configured to execute a first mode in which the electric motor applies no torque to the wheel, a second mode in which the electric motor applies to the wheel a stay assisting torque which allows the electrically assisted bicycle (1, 1A, 1B) to stay in a position where the rider wants to stay and a third mode in which the electric motor applies the walk-push assisting torque to the wheel, wherein the first mode, the second mode and the third mode are able to be selected by using an operating unit (56, 56A, 56B) which is operable by the rider, wherein the operating unit has a first operating module and a second operating module which differs from the first operating module, wherein the control unit is configured to execute the first mode when the first operating module and the second operating module are not operated, wherein the control unit is configured to execute the second mode in such a state that the first operating module or the second operating module is operated, and characterized in that the control unit is configured to execute the third mode in such a state that the first operating module and the second operating module are operated.
Beverage machine for producing beverages using a granulated material comprising a container for receiving the granulated material, a filling unit for filling the granulated material into the container and a beverage preparation unit, wherein the beverage machine comprises a device for visual distance measurement which measures the fill level in the container in the form of a distance value on the basis of the course of a light beam, characterised by a movement unit, which is designed to move the light beam of the device for optical distance measurement relative to the container in such a way that a number of distance values of different regions of the container can be measured within a measuring interval.
A door frame for supporting at least one door leaf in a door opening of a wall of a room of a building, with a ceiling and a floor of the room of the building, two profile elements running vertically between the floor and ceiling and spaced horizontally from each other, whereby the profile elements each provide a pivot point or a pivot axis for a door leaf, and at least one upper door connection element, which is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf, characterised in that the upper door connection between the vertical profile elements is free of profile elements, so that the door frame has only the two profile elements extending vertically between the floor and ceiling and spaced horizontally from one another and the at least one upper door connection element and is in this respect free of transverse frieze, i.e. has no upper transverse frieze. a wall of a room of a building, with a ceiling and a floor of the room of the building, two profile elements running vertically between the floor and ceiling and spaced horizontally from each other, whereby the profile elements each provide a pivot point or a pivot axis for a door leaf, and at least one upper door connection element, which is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf, is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf, characterised in that the upper door connection between the vertical profile elements is free of profile elements, so that the door frame has only the two profile elements extending vertically between the floor and ceiling and spaced horizontally from one another and the at least one upper door connection element and is in this respect free of transverse frieze, i.e. has no upper transverse frieze.
A windshield or a cover-glass with a heating device, the heating device comprising: a housing retaining a camera lens; a primary induction coil positioned proximate the housing and configured to generate a magnetic field in response to receiving electrical power from a power supply; a controller circuit in electrical contact with the primary induction coil configured to control the electrical power delivered to the primary induction coil; and a secondary induction coil overlaying the primary induction coil configured to receive the magnetic field from the primary induction coil and generate heat; characterized in that the secondary induction coil is in direct contact with the windshield or the cover-glass and defines a viewing window through which the camera lens views a surrounding area; whereby the secondary induction coil heats the viewing window when the primary induction coil receives the electrical power. a housing retaining a camera lens; a primary induction coil positioned proximate the housing and configured to generate a magnetic field in response to receiving electrical power from a power supply; a controller circuit in electrical contact with the primary induction coil configured to control the electrical power delivered to the primary induction coil; and a secondary induction coil overlaying the primary induction coil configured to receive the magnetic field from the primary induction coil and generate heat; characterized in that the secondary induction coil is in direct contact with the windshield or the cover-glass and defines a viewing window through which the camera lens views a surrounding area; whereby the secondary induction coil heats the viewing window when the primary induction coil receives the electrical power.
Polyglycerol partial ester having the structure of Formula with R 1, R 2 and R 3 independent from each other, equal or different selected from the group consisting of -OH, -OR 4, with R 4 a linear, unsubstituted acyl radical with a chain length of from 16 to 22 carbon atoms with the proviso that the monocarboxylic acids obtained from the acyl radical by saponification bears an iodine value of smaller than 50, -OR 5, with R 5 a radical having the structure of Formula wherein one of R 1, R 2 und R 3 being a direct bond to the oxygen of -OR 5 wherein each molecule of the polyglycerol partial ester comprises at least one of each -OR 4 and -OR 5, with the provisos that the polyglycerol obtained by hydrolysis or alcoholysis of the polyglycerol partial ester comprises an average degree of polymerization of from 2 to 8 and the polydispersity index of said polyglycerol is greater than 1.0, characterized in that at least 1 % of the polyglycerol obtained by hydrolysis or alcoholysis of the polyglycerol partial ester comprises cyclic structures, the polydispersity index and content of cyclic structures having been determined by GC-analysis as described on pages 6-9 of the present description. -OH, -OR 4, with R 4 a linear, unsubstituted acyl radical with a chain length of from 16 to 22 carbon atoms with the proviso that the monocarboxylic acids obtained from the acyl radical by saponification bears an iodine value of smaller than 50, -OR 5, with R 5 a radical having the structure of Formula wherein one of R 1, R 2 und R 3 being a direct bond to the oxygen of -OR 5
A method to store sample tubes (26a, 26b) in a laboratory storage and retrieval system, the laboratory storage and retrieval system comprising a storage section, a database comprising a sample tube inventory of the storage section, a control device, and at least one sample tube transport system (18, 20), wherein the storage section comprises at least two storage subsections (22a, 22b, 24a, 24d), wherein the control device controls the database comprising the sample tube inventory of the storage section and the at least one sample tube transport system (18, 20), characterized in that the method comprising the following steps (58, 60): a) the control device identifies at least two sample tubes (26a, 26b) with at least one substantially same sample tube attribute and distributed over the at least two storage subsections (22a, 22b, 24a, 24d) b) the at least one sample tube transport system (18, 20) consolidates the at least two sample tubes (26a, 26b) in at least one storage subsection (22a, 22b, 24a, 24d), wherein the control device further determines in which of the at least two storage subsections (22a, 22b, 24a, 24d) the identified sample tubes are consolidated. a) the control device identifies at least two sample tubes (26a, 26b) with at least one substantially same sample tube attribute and distributed over the at least two storage subsections (22a, 22b, 24a, 24d) b) the at least one sample tube transport system (18, 20) consolidates the at least two sample tubes (26a, 26b) in at least one storage subsection (22a, 22b, 24a, 24d), wherein the control device further determines in which of the at least two storage subsections (22a, 22b, 24a, 24d) the identified sample tubes are consolidated.