mhurhangee/patent-ind-claim-en huggingface dataset:
A display substrate for a liquid crystal display device, comprising: a base substrate having a plurality of pixel areas; and a pixel electrode (PEn) in a pixel area of the plurality of pixel areas, wherein the pixel electrode (PEn) includes: a first stem portion (HS) extending in a first direction (D1); a second stem portion (VS) connected to and extending from the first stem portion (HS) in a second direction (D2) that intersects the first direction (D1); a plurality of branch portions (MB), each one being connected to and being diagonally extending from at least one of the first stem portion (HS) and the second stem portion (VS), the branch portions (MB) extending to edges of the pixel electrode (PEn); and a plurality of bent portions (SB) extending along an edge of the pixel electrode (PEn) wherein each of the bent portions (SB) being connected to only one of the branch portions (MB) such that further branch portions (MB) extend toward said bent portion (SB) such that these are adjacent to and spaced to said bent portion (SB) by a spacing distance (W2, W5). a base substrate having a plurality of pixel areas; and a pixel electrode (PEn) in a pixel area of the plurality of pixel areas, wherein the pixel electrode (PEn) includes: a first stem portion (HS) extending in a first direction (D1); a second stem portion (VS) connected to and extending from the first stem portion (HS) in a second direction (D2) that intersects the first direction (D1); a plurality of branch portions (MB), each one being connected to and being diagonally extending from at least one of the first stem portion (HS) and the second stem portion (VS), the branch portions (MB) extending to edges of the pixel electrode (PEn); and a plurality of bent portions (SB) extending along an edge of the pixel electrode (PEn) wherein each of the bent portions (SB) being connected to only one of the branch portions (MB) such that further branch portions (MB) extend toward said bent portion (SB) such that these are adjacent to and spaced to said bent portion (SB) by a spacing distance (W2, W5). a first stem portion (HS) extending in a first direction (D1); a second stem portion (VS) connected to and extending from the first stem portion (HS) in a second direction (D2) that intersects the first direction (D1); a plurality of branch portions (MB), each one being connected to and being diagonally extending from at least one of the first stem portion (HS) and the second stem portion (VS), the branch portions (MB) extending to edges of the pixel electrode (PEn); and a plurality of bent portions (SB) extending along an edge of the pixel electrode (PEn) wherein each of the bent portions (SB) being connected to only one of the branch portions (MB) such that further branch portions (MB) extend toward said bent portion (SB) such that these are adjacent to and spaced to said bent portion (SB) by a spacing distance (W2, W5).
A system comprising: a neurostimulator that is connectable to a plurality of electrodes that are implantable in a patient; and an external device that is configured to: determine a trajectory of each of one or more dorsal roots of the patient by causing the neurostimulator to provide stimulation at a plurality of sample locations, determining a neural response to the stimulation at each of the sample locations, and determining the trajectory of the dorsal roots based on the neural responses; receive one or more inputs that are associated with a desired location of a stimulation field that is to be generated by the neurostimulator; determine an electrode configuration that causes the stimulation field to be substantially parallel with the trajectory of the dorsal root that is nearest to the desired location of the stimulation field; and communicate the electrode configuration to the neurostimulator. a neurostimulator that is connectable to a plurality of electrodes that are implantable in a patient; and an external device that is configured to: determine a trajectory of each of one or more dorsal roots of the patient by causing the neurostimulator to provide stimulation at a plurality of sample locations, determining a neural response to the stimulation at each of the sample locations, and determining the trajectory of the dorsal roots based on the neural responses; receive one or more inputs that are associated with a desired location of a stimulation field that is to be generated by the neurostimulator; determine an electrode configuration that causes the stimulation field to be substantially parallel with the trajectory of the dorsal root that is nearest to the desired location of the stimulation field; and communicate the electrode configuration to the neurostimulator. determine a trajectory of each of one or more dorsal roots of the patient by causing the neurostimulator to provide stimulation at a plurality of sample locations, determining a neural response to the stimulation at each of the sample locations, and determining the trajectory of the dorsal roots based on the neural responses; receive one or more inputs that are associated with a desired location of a stimulation field that is to be generated by the neurostimulator; determine an electrode configuration that causes the stimulation field to be substantially parallel with the trajectory of the dorsal root that is nearest to the desired location of the stimulation field; and communicate the electrode configuration to the neurostimulator.
A gas excimer laser discharge cavity having a bilateral symmetrical configuration about a plane of symmetry perpendicular to a bottom plane surface of the discharge cavity and including two pairs of electrodes , wherein; the gas excimer discharge cavity comprises two rotors each of which corresponding to one pair of the two pairs of electrodes , respectively; wherein; the positions of the rotors are symmetrical about virtual vertical plane at the middle of the discharge cavity and are beneath the pairs of the electrodes along the vertical direction; a rotational axis of each of the rotors is parallel to an axial direction of the pairs of the electrodes which is parallel to the bottom plane surface of the discharge cavity, and the two rotors have opposite rotation directions and identical rotation speeds, wherein a lower spoiler plate is installed beneath each of the rotors and is configured to prevent the gas flow from passing beneath the rotors, and an upper spoiler plate extends from the position beneath each pair of the electrodes to its corresponding rotor , and; a flow guide plate is installed near each rotor on a respective sidewall of the cavity or machined directly in the respective sidewall, so as to guide a gas flow at an exit of the rotors to a discharge region of the electrodes and; an upper flow guide plate is installed between an end of the flow guide plate and an upside of the pairs of the electrodes , and wherein the upper flow guide plate and its corresponding upper spoiler plate constitute a gradually tapered flow channel.
A method for managing connections with a distributed control plane, characterised by comprising: generating , by a router, a controller group identifier, ID, list comprising a plurality of controller group IDs of a plurality of controller groups, wherein one controller group ID uniquely identifies one controller group; identifying a first controller group, by the router from the list, with which a connection is to be established; and establishing , by the router, the connection with a controller of the first controller group if at least one of following conditions is met: the router has not exhausted a maximum number of connections; the router has previously had a connection with the controller of the first controller group; and the router has an existing connection with a controller of a second controller group not present in the list. generating , by a router, a controller group identifier, ID, list comprising a plurality of controller group IDs of a plurality of controller groups, wherein one controller group ID uniquely identifies one controller group; identifying a first controller group, by the router from the list, with which a connection is to be established; and establishing , by the router, the connection with a controller of the first controller group if at least one of following conditions is met: the router has not exhausted a maximum number of connections; the router has previously had a connection with the controller of the first controller group; and the router has an existing connection with a controller of a second controller group not present in the list. the router has not exhausted a maximum number of connections; the router has previously had a connection with the controller of the first controller group; and the router has an existing connection with a controller of a second controller group not present in the list.
Self-binding pigment particle suspension, obtainable by a process comprising the following steps: a) providing a suspension comprising at least one calcium carbonate containing material, b) providing an anionic polymeric binder, wherein said binder comprises at least one modified polysaccharide, c) providing at least one cationic polymer, wherein the at least one cationic polymer of step c) is selected from the group comprising polyamines, polyethyleneimines, polyacrylamides, cationic epichlorohydrin resins, polydiallyldimethylammonium chloride, cationic starch, cationic guar, and mixtures thereof, d) mixing the suspension of step a) and the binder of step b), and e) grinding the mixed suspension of step d), wherein the at least one cationic polymer of step c) i) is mixed in step d) with the suspension of step a) and the binder of step b), and/or ii) is mixed with the suspension obtained after grinding step e), and the obtained mixture is deagglomerated, wherein the binder of step b) is added in an amount from 0.001 to 20 wt.-%, based on the total weight of the dry calcium carbonate containing material, the at least one cationic polymer of step c) is added in an amount from 0.001 to 20 wt.-%, based on the total weight of the dry calcium carbonate containing material, the grinding step e) is carried out until the fraction of self-binding pigment particles having a particle size of less than 2 μm is greater than 20 wt.-%, based on the total weight of the pigment particles, as measured with a Mastersizer 2000, and wherein the binder of step b) is a carboxymethylcellulose. a) providing a suspension comprising at least one calcium carbonate containing material, b) providing an anionic polymeric binder, wherein said binder comprises at least one modified polysaccharide, c) providing at least one cationic polymer, wherein the at least one cationic polymer of step c) is selected from the group comprising polyamines, polyethyleneimines, polyacrylamides, cationic epichlorohydrin resins, polydiallyldimethylammonium chloride, cationic starch, cationic guar, and mixtures thereof, d) mixing the suspension of step a) and the binder of step b), and e) grinding the mixed suspension of step d), i) is mixed in step d) with the suspension of step a) and the binder of step b), and/or ii) is mixed with the suspension obtained after grinding step e), and the obtained mixture is deagglomerated, wherein the binder of step b) is added in an amount from 0.001 to 20 wt.-%, based on the total weight of the dry calcium carbonate containing material, the at least one cationic polymer of step c) is added in an amount from 0.001 to 20 wt.-%, based on the total weight of the dry calcium carbonate containing material, the grinding step e) is carried out until the fraction of self-binding pigment particles having a particle size of less than 2 μm is greater than 20 wt.-%, based on the total weight of the pigment particles, as measured with a Mastersizer 2000, and wherein the binder of step b) is a carboxymethylcellulose.
A method for utilizing operational capacity of container handling vehicles when assigned tasks of delivering or retrieving identified storage containers at same port of an automated storage and retrieval system comprising a framework structure defining a storage grid for storing storage containers in storage columns , and where the storage containers are handled by the container handling vehicles running on top of the storage grid , and where the port is used for transferring storage containers to and from the storage and retrieval system , characterised in that the following steps are performed by a control system communicating with a vehicle controller in each container handling vehicle : - assigning tasks without deadlines and with deadlines for the container handling vehicles to arrive at the port ; - calculating end times and end positions of the container handling vehicles when the assigned tasks without a deadline complete; - checking if container handling vehicles can meet a deadline after first completing a task without a deadline; - ranking the tasks assigned to the container handling vehicles , where tasks that can meet the deadline, after first finishing a task without a deadline, are ranked first, and further according to arrival times of the container handling vehicles at the port ; - executing tasks by communicating instructions to the container handling vehicles according to the ranking of tasks. - assigning tasks without deadlines and with deadlines for the container handling vehicles to arrive at the port ; - calculating end times and end positions of the container handling vehicles when the assigned tasks without a deadline complete; - checking if container handling vehicles can meet a deadline after first completing a task without a deadline; - ranking the tasks assigned to the container handling vehicles , where tasks that can meet the deadline, after first finishing a task without a deadline, are ranked first, and further according to arrival times of the container handling vehicles at the port ; - executing tasks by communicating instructions to the container handling vehicles according to the ranking of tasks.
A method of a network node, the method comprising: transmitting a reference signal for beam management within one slot to a UE, wherein the one slot consists of N OFDM symbols and the one slot is smaller than a transmission period of the reference signal from said one slot to a next slot, wherein the N OFDM symbols are distributed to M contiguous symbol sets and at least one remaining symbol, and the M contiguous symbol sets are at the beginning of the one slot, wherein N is not a multiple of M ; performing beam sweeping for transmitting the reference signal in a first symbol set of the M symbol sets ; and repeating the beam sweeping for transmitting the reference signal in the rest of the M symbol sets , wherein the beam sweeping means the network node generates at least one beam for transmission in a first OFDM symbol of a symbol set and then switches beam(s) for transmission in a second OFDM symbol of the symbol set, and so on until the last OFDM symbol of the symbol set, M is a number required for the UE to sweep beams in all possible directions once for transmission and/or reception, and the method further comprises transmitting other downlink transmission in the at least one remaining symbol or receiving other uplink transmission in the at least one remaining symbol. transmitting a reference signal for beam management within one slot to a UE, wherein the one slot consists of N OFDM symbols and the one slot is smaller than a transmission period of the reference signal from said one slot to a next slot, wherein the N OFDM symbols are distributed to M contiguous symbol sets and at least one remaining symbol, and the M contiguous symbol sets are at the beginning of the one slot, wherein N is not a multiple of M ; performing beam sweeping for transmitting the reference signal in a first symbol set of the M symbol sets ; and repeating the beam sweeping for transmitting the reference signal in the rest of the M symbol sets , wherein the beam sweeping means the network node generates at least one beam for transmission in a first OFDM symbol of a symbol set and then switches beam(s) for transmission in a second OFDM symbol of the symbol set, and so on until the last OFDM symbol of the symbol set, M is a number required for the UE to sweep beams in all possible directions once for transmission and/or reception, and the method further comprises transmitting other downlink transmission in the at least one remaining symbol or receiving other uplink transmission in the at least one remaining symbol.
A lighting system comprising: a light source configured to provide a light beam stripe in the visible spectral range with a low divergence in a longitudinal direction (X) and a high divergence in a transversal direction (Y) orthogonal to the longitudinal direction (X); a reflector unit comprising a support structure and a reflective surface with an essentially linear extension in the longitudinal direction (X) and a curved extension around a focal line extending in the transverse direction (Y), wherein the light source is positioned to emit light from the area of the focal line onto the reflective surface such that the emitted light is at least partly reflected to form a reflected light beam of directed non-diffused light with comparable divergences in the longitudinal direction (X) and the transverse direction (Y) due to a collimating effect of the reflective surface in the transverse direction (Y), and the light source is positioned at the side of the reflected light beam ; and a chromatic diffusing layer comprising a plurality of nanoparticles embedded in a matrix, wherein the chromatic diffusing layer is positioned such that at least a portion of the reflected light beam passes through the chromatic diffusing layer , thereby generating diffuse light by scattering more efficiently the short-wavelengths components of the light in the visible spectral range than the long-wavelength components of the light in the visible spectral range. a light source configured to provide a light beam stripe in the visible spectral range with a low divergence in a longitudinal direction (X) and a high divergence in a transversal direction (Y) orthogonal to the longitudinal direction (X); a reflector unit comprising a support structure and a reflective surface with an essentially linear extension in the longitudinal direction (X) and a curved extension around a focal line extending in the transverse direction (Y), wherein the light source is positioned to emit light from the area of the focal line onto the reflective surface such that the emitted light is at least partly reflected to form a reflected light beam of directed non-diffused light with comparable divergences in the longitudinal direction (X) and the transverse direction (Y) due to a collimating effect of the reflective surface in the transverse direction (Y), and the light source is positioned at the side of the reflected light beam ; and a chromatic diffusing layer comprising a plurality of nanoparticles embedded in a matrix, wherein the chromatic diffusing layer is positioned such that at least a portion of the reflected light beam passes through the chromatic diffusing layer , thereby generating diffuse light by scattering more efficiently the short-wavelengths components of the light in the visible spectral range than the long-wavelength components of the light in the visible spectral range.
Device for transferring products , comprising at least one mover that has at least one permanent magnet which is connected with the mover , wherein the permanent magnet interacts with at least one coil plane of a propulsion surface for a contactless propulsion of the mover , with a voltage supply with allocated connections, via which the coil plane is suppliable with power, wherein the mover serves to generate a relative movement with respect to a propulsion surface and is implemented to be actuatable in such a way that it is displaceable and/or rotatable in at least two degrees of freedom, further comprising at least one transport system that is configured for transporting products , characterised by a bus system , wherein the propulsion surface is implemented of a plurality of square, respectively rectangle-shaped tiles , which have a substantially planar surface, which are structured layer-wise and which comprise a sensor plane and a power electronics plane that are suppliable with energy via the voltage supply , wherein the bus system connects the tiles to a central computer and/or processor, and wherein the transport system , preferably a transport belt, is arranged between the propulsion surface and the mover . wherein the permanent magnet interacts with at least one coil plane of a propulsion surface for a contactless propulsion of the mover , with a voltage supply with allocated connections, via which the coil plane is suppliable with power, wherein the mover serves to generate a relative movement with respect to a propulsion surface and is implemented to be actuatable in such a way that it is displaceable and/or rotatable in at least two degrees of freedom, further comprising at least one transport system that is configured for transporting products , characterised by a bus system , wherein the propulsion surface is implemented of a plurality of square, respectively rectangle-shaped tiles , which have a substantially planar surface, which are structured layer-wise and which comprise a sensor plane and a power electronics plane that are suppliable with energy via the voltage supply , wherein the bus system connects the tiles to a central computer and/or processor, and wherein the transport system , preferably a transport belt, is arranged between the propulsion surface and the mover . wherein the propulsion surface is implemented of a plurality of square, respectively rectangle-shaped tiles , which have a substantially planar surface, which are structured layer-wise and which comprise a sensor plane and a power electronics plane that are suppliable with energy via the voltage supply , wherein the bus system connects the tiles to a central computer and/or processor, and wherein the transport system , preferably a transport belt, is arranged between the propulsion surface and the mover .
A two bidimensional part multiband antenna arranged to be printed on a glazing panel , the two parts to be connected, respectively, to a central pin and a shield of a data transmission coaxial cable, wherein - the two parts have a generally rectangular shape and are relatively to each other longitudinally shifted, the two respective sides of the two parts adjacent to each other comprise respectively a large transversal recess and a corresponding transversal projection facing each other and, - the part comprising the projection comprises, adjacent thereto, a thin longitudinal arm facing a short transversal finger of the part comprising the recess and adjacent thereto and characterized in that the part of the antenna provided with the recess and its adjacent transversal finger , comprises, on the other side of the large recess and along the longitudinal side of said part facing the other part with the projection , two transversal and narrow recesses on both sides of a narrow tooth . - the two parts have a generally rectangular shape and are relatively to each other longitudinally shifted, the two respective sides of the two parts adjacent to each other comprise respectively a large transversal recess and a corresponding transversal projection facing each other and, - the part comprising the projection comprises, adjacent thereto, a thin longitudinal arm facing a short transversal finger of the part comprising the recess and adjacent thereto