mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a slot format in an NR-Based Access to Unlicensed Spectrum, NR-U, system, comprising: determining, by a terminal device, a target time window on a first carrier, wherein the target time window comprises a Channel Occupancy Time, COT, window ; and determining, by the terminal device, a slot format on the first carrier according to the target time window , characterized in that the target time window comprises the COT window, the COT window is a COT window initiated by a network device, and the COT window comprises a first symbol group in a first slot, and determining, by the terminal device, the slot format on the first carrier according to the target time window , comprises: if the terminal device is configured to receive a Channel State Information Reference Signal, CSI-RS, or a Physical Downlink Shared Channel, PDSCH, on the first symbol group in the first slot and the terminal device determines that a symbol in the first symbol group is a downlink symbol, receiving, by the terminal device, the CSI-RS, or the PDSCH on the first symbol group in the first slot,; wherein the method further comprises: determining, by the terminal device, a symbol type of the first symbol group according to slot structure indication information sent by the network device, wherein the symbol type of the first symbol group comprises a downlink symbol. determining, by a terminal device, a target time window on a first carrier, wherein the target time window comprises a Channel Occupancy Time, COT, window ; and determining, by the terminal device, a slot format on the first carrier according to the target time window , characterized in that the target time window comprises the COT window, the COT window is a COT window initiated by a network device, and the COT window comprises a first symbol group in a first slot, and determining, by the terminal device, the slot format on the first carrier according to the target time window , comprises: if the terminal device is configured to receive a Channel State Information Reference Signal, CSI-RS, or a Physical Downlink Shared Channel, PDSCH, on the first symbol group in the first slot and the terminal device determines that a symbol in the first symbol group is a downlink symbol, receiving, by the terminal device, the CSI-RS, or the PDSCH on the first symbol group in the first slot,; wherein the method further comprises: determining, by the terminal device, a symbol type of the first symbol group according to slot structure indication information sent by the network device, wherein the symbol type of the first symbol group comprises a downlink symbol.
A medium transport apparatus comprising: a transport unit configured to transport a medium (P) toward a processing unit for processing the medium ; a driving unit configured to drive the transport unit ; a control unit configured to control the driving unit of the medium transport apparatus ; a sound detection unit configured to detect a magnitude of sound; and an auxiliary detection unit configured to detect a value different from the magnitude of a sound, wherein, in a case where the sound detection unit has detected a sound having a magnitude equal to or greater than a first threshold value (T1), the control unit is configured to stop driving of the transport unit when the value detected by the auxiliary detection unit is equal to or greater than a second threshold value (L), and continues the driving of the transport unit when the value detected by the auxiliary detection unit is smaller than the second threshold value (L); and wherein the auxiliary detection unit is configured to detect a load (D) on the driving unit . a transport unit configured to transport a medium (P) toward a processing unit for processing the medium ; a driving unit configured to drive the transport unit ; a control unit configured to control the driving unit of the medium transport apparatus ; a sound detection unit configured to detect a magnitude of sound; and an auxiliary detection unit configured to detect a value different from the magnitude of a sound, wherein, in a case where the sound detection unit has detected a sound having a magnitude equal to or greater than a first threshold value (T1), the control unit is configured to stop driving of the transport unit when the value detected by the auxiliary detection unit is equal to or greater than a second threshold value (L), and continues the driving of the transport unit when the value detected by the auxiliary detection unit is smaller than the second threshold value (L); and wherein the auxiliary detection unit is configured to detect a load (D) on the driving unit .
A meter adapted to determine and store an analyte concentration from a fluid sample located on a test sensor, the meter comprising: a display adapted to display information to a user of the meter; at least one segment on the display displaying a pre-event iconic marker and a post-event iconic marker, the pre-event iconic marker and the post-event iconic marker being paired non-language based graphical images; at least one marking means for allowing the user to interact with the meter, wherein after the analyte concentration is taken, no pre-event iconic marker is displayed, wherein a pre-event iconic marker appears on the display upon pressing a button, wherein the pre-event iconic marker disappears and the post-event iconic marker appears on the display upon pressing the button again, wherein when the proper iconic marker is displayed, it is selectable by the user; and a memory device adapted to store the analyte concentration with the corresponding pre-event or post-event iconic marker. a display adapted to display information to a user of the meter; at least one segment on the display displaying a pre-event iconic marker and a post-event iconic marker, the pre-event iconic marker and the post-event iconic marker being paired non-language based graphical images; at least one marking means for allowing the user to interact with the meter, wherein after the analyte concentration is taken, no pre-event iconic marker is displayed, wherein a pre-event iconic marker appears on the display upon pressing a button, wherein the pre-event iconic marker disappears and the post-event iconic marker appears on the display upon pressing the button again, wherein when the proper iconic marker is displayed, it is selectable by the user; and a memory device adapted to store the analyte concentration with the corresponding pre-event or post-event iconic marker.
A method comprising: adhering a first lens to a second lens such as to form a combined lens having a given optical design, the adhering comprising: placing the first lens and the second lens in respective first and second pressure chambers , with an adhesive layer disposed between the first lens and the second lens , pressure within each of the first and second pressure chambers being independently controllable; bringing a convex surface of the first lens into contact with the adhesive layer , such that a central region of the convex surface of the first lens initially contacts the adhesive layer , and contact between the convex surface of the first lens and the adhesive layer subsequently radiates outwardly from the central region of the convex surface of the first lens , until the convex surface of the first lens becomes covered by the adhesive layer ; and bringing a concave surface of the second lens into contact with the adhesive layer , such that a central region of the concave surface of the second lens initially contacts the adhesive layer , and contact between the concave surface of the second lens and the adhesive layer subsequently radiates outwardly from the central region of the concave surface of the second lens , until the concave surface of the second lens becomes covered by the adhesive layer . placing the first lens and the second lens in respective first and second pressure chambers , with an adhesive layer disposed between the first lens and the second lens , pressure within each of the first and second pressure chambers being independently controllable; bringing a convex surface of the first lens into contact with the adhesive layer , such that a central region of the convex surface of the first lens initially contacts the adhesive layer , and contact between the convex surface of the first lens and the adhesive layer subsequently radiates outwardly from the central region of the convex surface of the first lens , until the convex surface of the first lens becomes covered by the adhesive layer ; and bringing a concave surface of the second lens into contact with the adhesive layer , such that a central region of the concave surface of the second lens initially contacts the adhesive layer , and contact between the concave surface of the second lens and the adhesive layer subsequently radiates outwardly from the central region of the concave surface of the second lens , until the concave surface of the second lens becomes covered by the adhesive layer .
An upper torso reflective garment comprising: a webbed structure having a plurality of apertures , wherein the webbed structure is formed from a plurality of intersecting reflective elastomeric strands , each of the plurality of apertures being defined by the intersecting reflective elastomeric strands , the webbed structure comprising: a front panel ; a back panel ; and a pair of shoulder straps that connect the front panel and the back panel ; wherein: the front panel , the back panel , and the pair of shoulder straps define a neck opening , and a pair of armhole openings , each aperture in the plurality of apertures comprises a shape having at least a first axis and at least a second axis, the first axis of at least one aperture located on the back panel is oriented orthogonal to a hypothetical vertical axis , the second axis of the at least one aperture located on the back panel is oriented parallel to the hypothetical vertical axis ; and the at least one aperture is deformable to a first degree in a direction that is parallel to the first axis and is deformable to a second degree in a direction that is orthogonal to the first axis.
A special effects visualization system , comprising: a capture system configured to acquire likeness data of a user at a first location and generate a dataset based on the likeness data; an environmental system configured to display a three-dimensional presentation based on the dataset at a second location different from the first location , wherein the 3D presentation comprises a likeness of the user ; and a special effects system configured to trigger a special effect at the second location during the display of the 3D presentation. a capture system configured to acquire likeness data of a user at a first location and generate a dataset based on the likeness data; an environmental system configured to display a three-dimensional presentation based on the dataset at a second location different from the first location , wherein the 3D presentation comprises a likeness of the user ; and a special effects system configured to trigger a special effect at the second location during the display of the 3D presentation.
A one-pot process for preparing a compound of Formula (IV), the process comprising: (a) forming a reaction mixture comprising a solvent and a compound of Formula (I), the solvent being an alkyl tetrahydrofuran; (b) adding a compound of Formula (II) to the reaction mixture, thereby forming an intermediate compound of Formula (III); (c) phase extracting the reaction mixture after step (b) by sequential contact with (i) a water solution, (ii) an acid solution having a pH of less than about 3, (iii) an alkaline solution having a pH of greater than about 12, and (iv) one or more additional water solutions to remove the compounds of Formulas (I) and (II) and reaction by-products, thereby forming a purified mixture comprising the intermediate compound of Formula (III); and (d) contacting the purified mixture comprising the intermediate compound of Formula (III) with an acid to form the compound of Formula (IV); wherein: R is hydrocarbyl or substituted hydrocarbyl; LG is a leaving group chosen from N -hydroxysuccinimidyl or halo; PG is a protecting group; and A is an anion; wherein the term "about" encompasses deviations of plus or minus five percent. (a) forming a reaction mixture comprising a solvent and a compound of Formula (I), the solvent being an alkyl tetrahydrofuran; (b) adding a compound of Formula (II) to the reaction mixture, thereby forming an intermediate compound of Formula (III); (c) phase extracting the reaction mixture after step (b) by sequential contact with (i) a water solution, (ii) an acid solution having a pH of less than about 3, (iii) an alkaline solution having a pH of greater than about 12, and (iv) one or more additional water solutions to remove the compounds of Formulas (I) and (II) and reaction by-products, thereby forming a purified mixture comprising the intermediate compound of Formula (III); and (d) contacting the purified mixture comprising the intermediate compound of Formula (III) with an acid to form the compound of Formula (IV); wherein: R is hydrocarbyl or substituted hydrocarbyl; LG is a leaving group chosen from N -hydroxysuccinimidyl or halo; PG is a protecting group; and A is an anion; R is hydrocarbyl or substituted hydrocarbyl; LG is a leaving group chosen from N -hydroxysuccinimidyl or halo; PG is a protecting group; and A is an anion;
A vehicle exhaust system comprising: an exhaust component defining an engine exhaust gas passageway; characterized in that a doser sub-assembly includes a top plate with an opening and a doser mount structure abutting against the top plate and holding a doser , the doser defining a doser axis and extending to a doser tip that is configured to spray a reducing agent into the engine exhaust gas passageway through the opening ; the doser sub-assembly further includes a housing fixed to the top plate and surrounding at least a portion of a cone , the housing including at least one slot to direct exhaust gas against an outer surface of the cone , the cone having a base end positioned adjacent the opening such that an annular gap is formed within the exhaust component around the doser tip , and wherein exhaust gas is directed into the base end of the cone through the annular gap in a direction transverse to the doser axis. an exhaust component defining an engine exhaust gas passageway; characterized in that a doser sub-assembly includes a top plate with an opening and a doser mount structure abutting against the top plate and holding a doser , the doser defining a doser axis and extending to a doser tip that is configured to spray a reducing agent into the engine exhaust gas passageway through the opening ; the doser sub-assembly further includes a housing fixed to the top plate and surrounding at least a portion of a cone , the housing including at least one slot to direct exhaust gas against an outer surface of the cone , the cone having a base end positioned adjacent the opening such that an annular gap is formed within the exhaust component around the doser tip , and wherein exhaust gas is directed into the base end of the cone through the annular gap in a direction transverse to the doser axis.
A ventilator system comprising: a phrenic nerve stimulator comprising a signal generator , a first electrode , and a second electrode , wherein the phrenic nerve stimulator is configured to perform a set of operations comprising: determining a first contraction threshold at which a first portion of diaphragm muscles contract to draw a first desired tidal volume into lungs of a patient in response to stimulating a first phrenic nerve; determining a second contraction threshold at which a second portion of the diaphragm muscles contract to draw a second desired tidal volume into the lungs of the patient in response to stimulating a second phrenic nerve; generating, via the signal generator , a first pacing signal having a first amplitude less than the first contraction threshold; delivering, via the first electrode in proximity to the first phrenic nerve, the first pacing signal thereby stiffening the first portion of the diaphragm muscles; generating, via the signal generator , a second pacing signal having a second amplitude equal to or greater than the second contraction threshold; and delivering, via the second electrode in proximity to a second phrenic nerve, the second pacing signal thereby contracting the second portion of the diaphragm muscles, wherein the second pacing signal is delivered while the first pacing signal is delivered. determining a first contraction threshold at which a first portion of diaphragm muscles contract to draw a first desired tidal volume into lungs of a patient in response to stimulating a first phrenic nerve; determining a second contraction threshold at which a second portion of the diaphragm muscles contract to draw a second desired tidal volume into the lungs of the patient in response to stimulating a second phrenic nerve; generating, via the signal generator , a first pacing signal having a first amplitude less than the first contraction threshold; delivering, via the first electrode in proximity to the first phrenic nerve, the first pacing signal thereby stiffening the first portion of the diaphragm muscles; generating, via the signal generator , a second pacing signal having a second amplitude equal to or greater than the second contraction threshold; and delivering, via the second electrode in proximity to a second phrenic nerve, the second pacing signal thereby contracting the second portion of the diaphragm muscles, wherein the second pacing signal is delivered while the first pacing signal is delivered.
Brake installation for a motor vehicle, which has a hydraulic muscle- and auxiliary-force brake system , said hydraulic muscle- and auxiliary-force brake system having a master brake cylinder which is able to be actuated by muscle force and to which at least one hydraulic wheel brake is connected, wherein the brake installation has an external-force brake system , said external-force brake system having a hydraulic pressure source which is operated with external energy and to which at least one hydraulic wheel brake is connected, and has an electric drive motor which is able to be operated as a generator for the purpose of braking the motor vehicle, wherein the electric drive motor acts on vehicle wheels which are able to be braked by way of the external-force brake system , characterized in that the braking action of the auxiliary-force brake system is reduced if the braking action of the electric drive motor in the generator mode is greater than the braking action of the external-force brake system should be for a given position of a brake pedal without the braking action of the electric drive motor .
A computer-implemented method of generating a key for use in computing an error protection code for an input data value according to an error protection scheme, comprising: inputting a plurality of data value sizes; and applying a key generation algorithm to generate a key for use in computing the error protection code for a maximum data value size amongst said plurality of data value sizes, the key generation algorithm generating the key to comprise a plurality of sub-keys, each sub-key being associated with one of the input data value sizes and conforming to a key requirement for the error protection scheme; wherein the step of applying the key generation algorithm comprises: computing a sequence of sub-keys , such that each sub-key in the sequence other than a first sub-key contains an immediately preceding sub-key in the sequence, with the remaining portion computed to ensure that the key requirement is conformed to, and with the final sub-key forming the key to be used in computing the error protection code for said maximum data value size. inputting a plurality of data value sizes; and applying a key generation algorithm to generate a key for use in computing the error protection code for a maximum data value size amongst said plurality of data value sizes, the key generation algorithm generating the key to comprise a plurality of sub-keys, each sub-key being associated with one of the input data value sizes and conforming to a key requirement for the error protection scheme; wherein the step of applying the key generation algorithm comprises: computing a sequence of sub-keys , such that each sub-key in the sequence other than a first sub-key contains an immediately preceding sub-key in the sequence, with the remaining portion computed to ensure that the key requirement is conformed to, and with the final sub-key forming the key to be used in computing the error protection code for said maximum data value size.
A vehicle display device comprising: an image display unit configured to emit display light of an image; an optical system configured to project the display light emitted from the image display unit toward a reflection face in front of a driver ; and a controller configured to control the image display unit , characterized in that the image has a first region that is a region viewed by both eyes of the driver and a second region that is a region of the image on an end part side in an image lateral direction (GW) relative to the first region and that is viewed by only one eye of the driver , and in a case where a graphic image included in the image is across a boundary between the first region and the second region , the controller is further configured to execute blur processing on the graphic image . an image display unit configured to emit display light of an image; an optical system configured to project the display light emitted from the image display unit toward a reflection face in front of a driver ; and a controller configured to control the image display unit , characterized in that the image has a first region that is a region viewed by both eyes of the driver and a second region that is a region of the image on an end part side in an image lateral direction (GW) relative to the first region and that is viewed by only one eye of the driver , and in a case where a graphic image included in the image is across a boundary between the first region and the second region , the controller is further configured to execute blur processing on the graphic image .