mhurhangee/patent-ind-claim-en huggingface dataset:
A storage controller, comprising: host data segmentation logic to divide, in response to a write command from a host domain to write a data payload to a storage device, the data payload into a plurality of data segments; cyclic redundancy check (CRC) encode logic to generate a CRC code for each data segment; CRC reordering encode logic to assign and append each CRC code to another data segment among the plurality of data segments; segment sectorization logic to divide each data segment with the appended assigned CRC code into a plurality of sector-length portions, each sector-length portion having a bit length based on a sector size of the storage device; and storage controller circuitry to attempt to write all of the plurality of sector-length portions to the storage device. host data segmentation logic to divide, in response to a write command from a host domain to write a data payload to a storage device, the data payload into a plurality of data segments; cyclic redundancy check (CRC) encode logic to generate a CRC code for each data segment; CRC reordering encode logic to assign and append each CRC code to another data segment among the plurality of data segments; segment sectorization logic to divide each data segment with the appended assigned CRC code into a plurality of sector-length portions, each sector-length portion having a bit length based on a sector size of the storage device; and storage controller circuitry to attempt to write all of the plurality of sector-length portions to the storage device.
A sparkling beverage dispensing system for use with a container having an opening with a closure positioned in the opening and a cap and wire retainer securing the closure to the container , the system comprising: at least one needle arranged to penetrate through the closure such that a distal end of the needle is positioned inside of the container , the needle being arranged to receive beverage from the container for dispensing; a needle guide arranged to engage the container and guide the at least one needle in penetrating through the closure , the needle guide arranged to guide the at least one needle to enter the closure at an angle of 5 degrees to 70 degrees relative to a longitudinal axis of the container ; and at least one valve fluidly coupled to the at least one needle to control beverage flow out of the container via the at least one needle to a dispensing outlet. at least one needle arranged to penetrate through the closure such that a distal end of the needle is positioned inside of the container , the needle being arranged to receive beverage from the container for dispensing; a needle guide arranged to engage the container and guide the at least one needle in penetrating through the closure , the needle guide arranged to guide the at least one needle to enter the closure at an angle of 5 degrees to 70 degrees relative to a longitudinal axis of the container ; and at least one valve fluidly coupled to the at least one needle to control beverage flow out of the container via the at least one needle to a dispensing outlet.
An optoelectronic sensor , in particular a laser scanner, for detecting objects in a monitoring region , the sensor having a scanning unit movable about an axis of rotation , a plurality of scanning modules for periodically scanning the monitoring region and for generating corresponding received signals, and an evaluation unit for obtaining information about the objects from the received signals, the scanning modules each comprising at least one light transmitter for transmitting several light beams separated from one another as scanning beams and at least one light receiver for generating the received signals from the light beams remitted by the objects, wherein a plurality of scanning modules are rotated, with their main viewing direction defined by the average direction of their scanning beams, by a rotation angle (γ) from their upright orientation with respect to an axis corresponding to the main viewing direction, thus having an orientation that is not upright up to lying on their side, wherein the scanning beams move closer together in a height direction along the axis of rotation with increasing rotation angle (γ), characterized in that a plurality of scanning modules of different rotation angle are combined.
Mobile lightweight lifting device which comprises two lifting forks fastened to a plate with a double-acting hydraulic cylinder and a chassis with a support frame , wherein the plate with the lifting forks is moved in the vertical direction by means of an electrically operated hydraulic pump, in which guide devices for running rails are attached to the support frame , either rigidly or in a laterally movable manner by manual or electrical or hydraulic means, in the direction perpendicular to the support frame , and which has a steering device , characterized in that the electrical energy supply unit is integrated into the front part of the lifting forks, in that the drive and control units for the movement of the lifting forks and of the chassis , as well as the lifting forks and the double-acting hydraulic cylinder , are fastened to the plate which can be moved in the vertical direction by means of the double-acting hydraulic cylinder .
A method for link verification by a network controller , the method comprising: selecting a link between a first network node (S1 to S24) and a second network node (S1 to S24) for verification; generating a verification packet and a packet handling rule associated with the selected link, the packet handling rule indicating to forward the verification packet towards the second network node (S1 to S24); installing the generated packet handling rule on the first network node (S1 to S24); injecting the generated verification packet into a data path of the network; and responsive to receiving a request for packet handling instructions associated with the verification packet from a node other than the second network node (S1 to S24), determining that the link is not verified. selecting a link between a first network node (S1 to S24) and a second network node (S1 to S24) for verification; generating a verification packet and a packet handling rule associated with the selected link, the packet handling rule indicating to forward the verification packet towards the second network node (S1 to S24); installing the generated packet handling rule on the first network node (S1 to S24); injecting the generated verification packet into a data path of the network; and responsive to receiving a request for packet handling instructions associated with the verification packet from a node other than the second network node (S1 to S24), determining that the link is not verified.
Cleaning device with a cleaning chamber for cleaning instruments with at least one lumen to be cleaned, wherein at least one supply connection is provided, via which a liquid medium can be made available, and which is designed for connection of a connecting device , wherein the connecting device has an interior space with an inlet connection and at least one outlet connection , wherein the input connection is connectable to the supply connection of the cleaning device and the output connection is connectable to the lumen of the instrument to be cleaned, wherein at least one monitoring sensor is provided, wherein, in order to monitor at least one fluid parameter of a liquid medium in the interior of the connecting device , interaction of the liquid medium with the monitoring sensor of the cleaning device can be established via a device of the connecting device when the connecting device is connected in the ready-for-operation state to the at least one supply connection of the cleaning device , characterized in that the monitoring sensor is fixedly arranged in the cleaning chamber , and in that the interaction of the liquid medium with the monitoring sensor can be established via a non-permanent connection, the device comprising a plunger mounted in the interior so as to be displaceable against a restoring force, which can assume different displacement positions on the basis of the at least one fluid parameter, in which it projects with an actuating pin to different extents from the connecting device in order to enable interaction with the external monitoring sensor , or the device comprises a nozzle opening through which the liquid medium present in the interior can emerge from the interior as a directed jet in order to enable interaction with the external monitoring sensor .
Method of generating fs laser pulses , comprising the steps of - creating a circulating light field in a resonator cavity having multiple resonator mirrors (11 - 18) and including at least one gain medium , a first Kerr medium and at least one supplementary Kerr medium (32 - 36), by pumping the at least one gain medium included in the resonator cavity , and - passing the circulating light field through the first Kerr medium included in the resonator cavity , so that the fs laser pulses are formed by self-amplitude modulation of the circulating light field, characterized in that - the self-amplitude modulation of the circulating light field is enhanced by the at least one supplementary Kerr medium (32 - 36), wherein - each of the first Kerr medium and the at least one supplementary Kerr medium (32 - 36) provide different non-linear Kerr lens contributions to the self-amplitude modulation of the circulating light field, and - the first Kerr medium and the at least one supplementary Kerr media (32 - 36) are arranged such that the fs laser pulses are formed with a spectral bandwidth exceeding the overall gain bandwidth of the at least one gain medium . - creating a circulating light field in a resonator cavity having multiple resonator mirrors (11 - 18) and including at least one gain medium , a first Kerr medium and at least one supplementary Kerr medium (32 - 36), by pumping the at least one gain medium included in the resonator cavity , and - passing the circulating light field through the first Kerr medium included in the resonator cavity , so that the fs laser pulses are formed by self-amplitude modulation of the circulating light field, - the self-amplitude modulation of the circulating light field is enhanced by the at least one supplementary Kerr medium (32 - 36), wherein - each of the first Kerr medium and the at least one supplementary Kerr medium (32 - 36) provide different non-linear Kerr lens contributions to the self-amplitude modulation of the circulating light field, and - the first Kerr medium and the at least one supplementary Kerr media (32 - 36) are arranged such that the fs laser pulses are formed with a spectral bandwidth exceeding the overall gain bandwidth of the at least one gain medium .
A meta lens assembly comprising: a first meta lens comprising a positive lens for focusing; a second meta lens arranged on an image side of the first meta lens, the second meta lens comprising a negative lens for dispersing light; and a third meta lens arranged on an image side of the second meta lens, the third meta lens comprising a positive lens for focusing an impinging light onto an image plane of an image sensor of the camera; wherein the first meta lens, the second meta lens, and the third meta lens are arranged from an object side (O) of the meta lens assembly to an image side (I) of the meta lens assembly facing the image sensor, and characterized in that an interval (d1) between the first meta lens and the second meta lens is less than or equal to 1/5 of an interval (d2) between the second meta lens and the third meta lens, and wherein a phase profile of the second meta lens has an inflection point at which the phase profile changes from concave to convex. a first meta lens comprising a positive lens for focusing; a second meta lens arranged on an image side of the first meta lens, the second meta lens comprising a negative lens for dispersing light; and a third meta lens arranged on an image side of the second meta lens, the third meta lens comprising a positive lens for focusing an impinging light onto an image plane of an image sensor of the camera; wherein the first meta lens, the second meta lens, and the third meta lens are arranged from an object side (O) of the meta lens assembly to an image side (I) of the meta lens assembly facing the image sensor, and characterized in that an interval (d1) between the first meta lens and the second meta lens is less than or equal to 1/5 of an interval (d2) between the second meta lens and the third meta lens, and wherein a phase profile of the second meta lens has an inflection point at which the phase profile changes from concave to convex.
A discharge lamp drive device comprising: a discharge lamp drive section adapted to supply a drive current (Id) to a discharge lamp having a first electrode and a second electrode ; a control section adapted to control the discharge lamp drive section; and a storage section adapted to store a plurality of drive patterns (DW) of the drive current, wherein the drive patterns each have a plurality of drive parameters, and the plurality of drive patterns includes a first drive pattern and a second drive pattern different in a value of at least one of the drive parameters from each other, characterized in that : the control section is configured to select any one of the plurality of drive patterns based on machine learning, and the control section is configured to execute the first drive pattern or the second drive pattern in accordance with at least one of an accumulated lighting time of the discharge lamp and a specific discharge lamp in a case in which an inter-electrode voltage (VIa) between the first and the second electrodes of the discharge lamp is at a predetermined voltage value. a discharge lamp drive section adapted to supply a drive current (Id) to a discharge lamp having a first electrode and a second electrode ; a control section adapted to control the discharge lamp drive section; and a storage section adapted to store a plurality of drive patterns (DW) of the drive current, wherein the drive patterns each have a plurality of drive parameters, and the plurality of drive patterns includes a first drive pattern and a second drive pattern different in a value of at least one of the drive parameters from each other, characterized in that : the control section is configured to select any one of the plurality of drive patterns based on machine learning, and the control section is configured to execute the first drive pattern or the second drive pattern in accordance with at least one of an accumulated lighting time of the discharge lamp and a specific discharge lamp in a case in which an inter-electrode voltage (VIa) between the first and the second electrodes of the discharge lamp is at a predetermined voltage value. the control section is configured to select any one of the plurality of drive patterns based on machine learning, and the control section is configured to execute the first drive pattern or the second drive pattern in accordance with at least one of an accumulated lighting time of the discharge lamp and a specific discharge lamp in a case in which an inter-electrode voltage (VIa) between the first and the second electrodes of the discharge lamp is at a predetermined voltage value.
System for thermally oxidising a waste gas with hydrocarbon compounds into an oxidised gas, which system comprises: - an outer chamber with a front wall, a rear wall, a left wall, a right wall, an upper wall and a lower wall which are provided on their inside with electrical heating means , the outer chamber being provided with a first opening and a second opening , wherein a depth of the outer chamber is defined as a shortest distance between its front wall and its rear wall, wherein a width of the outer chamber is defined as a shortest distance between its left wall and its right wall and wherein a height of its outer chamber is defined as a shortest distance between its lower wall and its upper wall; and - an inner chamber that is completely surrounded by the outer chamber and has a depth, a width and a height, each of which is at most 15%, particularly at most 10%, smaller than a respective one of the depth, the width and the height of the outer chamber, wherein the inner chamber is provided with: - an inlet configured to connect, via the first opening in the outer chamber, to a supply device provided to supply a mixture of superheated oxygen gas and said waste gas to the inner chamber; - an outlet configured to connect, via the second opening in the outer chamber, to a discharge device provided to discharge said oxidised gas from the inner chamber; and - one or more partitions such that said mixture flows through one or more substantially U-shaped loops within the inner chamber. - an outer chamber with a front wall, a rear wall, a left wall, a right wall, an upper wall and a lower wall which are provided on their inside with electrical heating means , the outer chamber being provided with a first opening and a second opening , wherein a depth of the outer chamber is defined as a shortest distance between its front wall and its rear wall, wherein a width of the outer chamber is defined as a shortest distance between its left wall and its right wall and wherein a height of its outer chamber is defined as a shortest distance between its lower wall and its upper wall; and - an inner chamber that is completely surrounded by the outer chamber and has a depth, a width and a height, each of which is at most 15%, particularly at most 10%, smaller than a respective one of the depth, the width and the height of the outer chamber, wherein the inner chamber is provided with: - an inlet configured to connect, via the first opening in the outer chamber, to a supply device provided to supply a mixture of superheated oxygen gas and said waste gas to the inner chamber; - an outlet configured to connect, via the second opening in the outer chamber, to a discharge device provided to discharge said oxidised gas from the inner chamber; and - one or more partitions such that said mixture flows through one or more substantially U-shaped loops within the inner chamber.
An oral thin film comprising an outer hydrophilic phase, which contains at least one hydrophilic polymer, and an inner hydrophobic phase, which contains at least one hydrophobic substance, and at least one pharmaceutically active substance selected from the group of cannabinoids, wherein the oral thin film additionally comprises vitamin E in an amount from 5 to 20 % by weight, in relation to the total weight of the oral thin film, wherein vitamin E comprises at least one component selected from α-tocopherol, β-tocopherol, γ-tocopherol, δ-tocopherol, α-tocotrienol, β-tocotrienol, γ-tocotrienol, 5-tocotrienol and/or α-tocopherol acetate.
A sizing composition, comprising: 40 wt% to 85 wt% starch based on dry components; 10 wt% to 40 wt% cationic multivalent salt based on dry components; 5 wt % to 25 wt % optical brightener based on dry components; and 1 wt% to 15 wt% inorganic pigment based on dry components and selected from: a calcium carbonate, a swellable clay, or a combination of the calcium carbonate and the swellable clay wherein the cationic salt is made up of a polyvalent metallic ion and an anion. 40 wt% to 85 wt% starch based on dry components; 10 wt% to 40 wt% cationic multivalent salt based on dry components; 5 wt % to 25 wt % optical brightener based on dry components; and 1 wt% to 15 wt% inorganic pigment based on dry components and selected from: a calcium carbonate, a swellable clay, or a combination of the calcium carbonate and the swellable clay a calcium carbonate, a swellable clay, or a combination of the calcium carbonate and the swellable clay wherein the cationic salt is made up of a polyvalent metallic ion and an anion.
A display apparatus comprising: a substrate ; a plurality of light emitting device (LED) elements arranged in front of the substrate ; a transmission layer formed on a front surface of the substrate to entirely cover the plurality of LED elements ; a first polarization member arranged in front of the transmission layer ; and a second polarization member arranged on a front surface of the first polarization member and allowing external light to be incident thereon, wherein the transmission layer is provided such that polarization of external light polarized through the second polarization member and the first polarization member is maintained in a course of the polarized external light passing through the transmission layer , being reflected by the front surface of the substrate or the plurality of LED elements and being directed to the first polarization member , wherein the transmission layer is provided to surround spaces between the plurality of LED elements . a substrate ; a plurality of light emitting device (LED) elements arranged in front of the substrate ; a transmission layer formed on a front surface of the substrate to entirely cover the plurality of LED elements ; a first polarization member arranged in front of the transmission layer ; and a second polarization member arranged on a front surface of the first polarization member and allowing external light to be incident thereon, wherein the transmission layer is provided such that polarization of external light polarized through the second polarization member and the first polarization member is maintained in a course of the polarized external light passing through the transmission layer , being reflected by the front surface of the substrate or the plurality of LED elements and being directed to the first polarization member , wherein the transmission layer is provided to surround spaces between the plurality of LED elements .
A multilayer optical film that comprises a) at least one first optical layer comprising a birefringent thermoplastic polymer, having an in-plane birefringence of at least 0.15 at 632.8 nm, wherein the birefringent thermoplastic polymer comprises PEN or coPEN; and (b) at least one second optical layer having an in-plane birefringence of less than 0.040 at 632.8 nm; wherein the second optical layer comprises a copolymerized blend of 20 to 80 mol% of at least one birefringent thermoplastic polymer and at least one second thermoplastic polymer; wherein the copolymerized blend comprises A-B multi-block copolymer structures wherein the A blocks comprise the birefringent thermoplastic polymer and the B blocks comprise the second thermoplastic polymer wherein the A-B multi-block copolymer structures have an average block length of 6 to 25. a) at least one first optical layer comprising a birefringent thermoplastic polymer, having an in-plane birefringence of at least 0.15 at 632.8 nm, wherein the birefringent thermoplastic polymer comprises PEN or coPEN; and (b) at least one second optical layer having an in-plane birefringence of less than 0.040 at 632.8 nm; wherein the second optical layer comprises a copolymerized blend of 20 to 80 mol% of at least one birefringent thermoplastic polymer and at least one second thermoplastic polymer;
An electronic device, wherein the electronic device supports under-display fingerprint recognition, the electronic device comprises a touchscreen and an optical sensor module, the optical sensor module is disposed under the touchscreen, a protective film is attached on the touchscreen, the protective film comprises a first axis and a second axis, and the first axis is perpendicular to the second axis, wherein there is a 45-degree included angle between a polarization direction of a first polarizer and each of the first axis and the second axis of the protective film; wherein if there is a 45-degree included angle between the polarization direction of the first polarizer and each of the first axis and the second axis of the protective film, a thickness of the protective film satisfies the following formula: n fast − n slow * T = 1 / 2 * m * λ , wherein n fast is a refractive index of a fast axis direction of the protective film, n slow is a refractive index of a slow axis direction of the protective film, T is the thickness of the protective film, m is a positive integer, and λ is a refractive index.