mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: at least one receiver configured to receive a route indication specifying an initial point and an end point of a route, and at least one processing core configured to determine a plurality of candidate routes (112, 114, , , ) based at least in part on the route indication, characterized in that the at least one processing core is further configured to determine the plurality of routes based at least in part on a privacy preference indication, and to determine for each of the plurality of candidate routes a privacy overhead route (112P, 114P, ) connecting the end point of the route with an end of the candidate route. at least one receiver configured to receive a route indication specifying an initial point and an end point of a route, and at least one processing core configured to determine a plurality of candidate routes (112, 114, , , ) based at least in part on the route indication, characterized in that the at least one processing core is further configured to determine the plurality of routes based at least in part on a privacy preference indication, and to determine for each of the plurality of candidate routes a privacy overhead route (112P, 114P, ) connecting the end point of the route with an end of the candidate route.
A communication device comprising: a communication unit configured to perform wireless communication; and a control unit configured to selectively switch between a first physical channel and a second physical channel in which both conditions of a number of symbols and a number of resource blocks are different from each other and which are allocated during a predetermined period in a time series to transmit control information to a base station, wherein the control unit is configured to switch between the first physical channel and the second physical channel in accordance with a type of wireless access technology set by dual connectivity. a communication unit configured to perform wireless communication; and a control unit configured to selectively switch between a first physical channel and a second physical channel in which both conditions of a number of symbols and a number of resource blocks are different from each other and which are allocated during a predetermined period in a time series to transmit control information to a base station, wherein the control unit is configured to switch between the first physical channel and the second physical channel in accordance with a type of wireless access technology set by dual connectivity.
A wireless communication method, comprising: determining, by a network device, N frequency domain units for sending reference signals and a reference signal pattern of each frequency domain unit in the N frequency domain units (S210), wherein N is an integer greater than or equal to 1, and wherein a size of each frequency domain unit is equal to a size of frequency domain occupied by a number of Physical Resource Blocks, PRBs; and sending, by the network device, the reference signals on the each frequency domain unit according to the reference signal pattern (S220), characterized by determining, by the network device, that a quantity of the frequency domain units for sending the reference signals needs to be changed from N to M, wherein M is a positive integer that is not equal to N; determining, by the network device, M frequency domain units for sending the reference signals; and sending, by the network device, a message to a terminal device, wherein the message is used for indicating that frequency domain units for sending the reference signals are M frequency domain units, or used for indicating M-N frequency domain units newly added for sending the reference signals in the M frequency domain units in addition to the N frequency domain units, wherein M is an integer greater than N, sending, by the network device, the reference signals on the M target frequency domain units. determining, by a network device, N frequency domain units for sending reference signals and a reference signal pattern of each frequency domain unit in the N frequency domain units (S210), wherein N is an integer greater than or equal to 1, and wherein a size of each frequency domain unit is equal to a size of frequency domain occupied by a number of Physical Resource Blocks, PRBs; and sending, by the network device, the reference signals on the each frequency domain unit according to the reference signal pattern (S220), characterized by determining, by the network device, that a quantity of the frequency domain units for sending the reference signals needs to be changed from N to M, wherein M is a positive integer that is not equal to N; determining, by the network device, M frequency domain units for sending the reference signals; and sending, by the network device, a message to a terminal device, wherein the message is used for indicating that frequency domain units for sending the reference signals are M frequency domain units, or used for indicating M-N frequency domain units newly added for sending the reference signals in the M frequency domain units in addition to the N frequency domain units, wherein M is an integer greater than N, sending, by the network device, the reference signals on the M target frequency domain units.
A fuel injection valve comprising: a valve element configured to come into contact with a valve seat for closing an injection hole and to separate from the valve seat for unclosing the injection hole, an elastic member urging the valve element toward the valve seat , a movable iron core configured to be in and out of contact with the valve element , a fixed iron core opposed to the movable iron core , and a coil configured to generate electromagnetic force for moving the movable iron core ; characterized in that the valve element has at least one lower rigidity part having reduced rigidity per axial unit length which is provided between a surface where urging force of the elastic member is transmitted to the valve element and a seat part whereat the valve element comes into contact with and separates from the valve seat , wherein in a comparison between a value of axial rigidity of the valve element's side upstream of a center point axially of the valve element and a value of rigidity of the valve element's side downstream of the center point , the value of rigidity of the valve element's side having a center of gravity of the valve element is smaller. a valve element configured to come into contact with a valve seat for closing an injection hole and to separate from the valve seat for unclosing the injection hole, an elastic member urging the valve element toward the valve seat , a movable iron core configured to be in and out of contact with the valve element , a fixed iron core opposed to the movable iron core , and a coil configured to generate electromagnetic force for moving the movable iron core ; characterized in that the valve element has at least one lower rigidity part having reduced rigidity per axial unit length which is provided between a surface where urging force of the elastic member is transmitted to the valve element and a seat part whereat the valve element comes into contact with and separates from the valve seat , wherein in a comparison between a value of axial rigidity of the valve element's side upstream of a center point axially of the valve element and a value of rigidity of the valve element's side downstream of the center point , the value of rigidity of the valve element's side having a center of gravity of the valve element is smaller.
A transport hook for lifting and moving a load , the transport hook comprising a lever section with a coupling element , with which the transport hook can be connected to a lifting device, and a hook leg which can engage through a hole of the load , the hook leg being connected to the lever section by an angle section , a securing device being provided which comprises a securing part which is movably arranged on the transport hook in such a way that it can form a projection so that a hook leg inserted through the hole can no longer escape from the hole , characterized in that the projection can be formed on the hook leg, the securing part has a securing rod which is mounted on the transport hook so as to be displaceable in the longitudinal direction, and the angle section has a through-hole which forms a guide for the securing part . the transport hook comprising a lever section with a coupling element , with which the transport hook can be connected to a lifting device, and a hook leg which can engage through a hole of the load , the hook leg being connected to the lever section by an angle section , a securing device being provided which comprises a securing part which is movably arranged on the transport hook in such a way that it can form a projection so that a hook leg inserted through the hole can no longer escape from the hole , characterized in that the projection can be formed on the hook leg, the securing part has a securing rod which is mounted on the transport hook so as to be displaceable in the longitudinal direction, and the angle section has a through-hole which forms a guide for the securing part .
A method for inspection of additive manufactured parts and monitoring operational performance of an additive manufacturing apparatus , the method comprising: calibrating a backscatter x-ray system by scanning one or more calibration blocks , the backscatter x-ray system having an emitter that emits x-rays and a detector that receives backscattered x-rays, the one or more calibration blocks having at least one known defect ; obtaining with the backscatter x-ray system, in real-time during an additively manufactured build process, a backscatter x-ray scan of an area of a build platform , the build platform configured for supporting at least one part during the build process; evaluating , by a processor , the backscatter x-ray scan; and determining , based on the evaluating , whether an operational flaw with the additive manufacturing apparatus has occurred or a defect in the at least one part has occurred. calibrating a backscatter x-ray system by scanning one or more calibration blocks , the backscatter x-ray system having an emitter that emits x-rays and a detector that receives backscattered x-rays, the one or more calibration blocks having at least one known defect ; obtaining with the backscatter x-ray system, in real-time during an additively manufactured build process, a backscatter x-ray scan of an area of a build platform , the build platform configured for supporting at least one part during the build process; evaluating , by a processor , the backscatter x-ray scan; and determining , based on the evaluating , whether an operational flaw with the additive manufacturing apparatus has occurred or a defect in the at least one part has occurred.
A driver laser assembly for an EUV radiation generating device , comprising: a radiation source , which is designed to generate a first laser pulse having a first wavelength (λ 1 ) and a second, temporally subsequent laser pulse having a second wavelength (λ 2 ), and an amplifier assembly having at least one optical amplifier (4a-c) for amplifying the first laser pulse and the second laser pulse , a superposition unit for superimposing the beam paths of the two laser pulses upstream of the amplifier assembly , so that the two laser pulses pass the amplifier assembly along a common beam path, characterized in that the amplifier assembly has at least one wavelength-selective optical element arranged in the common beam path of the laser pulses downstream of the superposition unit, which is designed to attenuate the first laser pulse at the first wavelength (λ 1 ) more strongly than the second laser pulse at the second wavelength (λ 2 ). a radiation source , which is designed to generate a first laser pulse having a first wavelength (λ 1 ) and a second, temporally subsequent laser pulse having a second wavelength (λ 2 ), and an amplifier assembly having at least one optical amplifier (4a-c) for amplifying the first laser pulse and the second laser pulse , a superposition unit for superimposing the beam paths of the two laser pulses upstream of the amplifier assembly , so that the two laser pulses pass the amplifier assembly along a common beam path, characterized in that the amplifier assembly has at least one wavelength-selective optical element arranged in the common beam path of the laser pulses downstream of the superposition unit, which is designed to attenuate the first laser pulse at the first wavelength (λ 1 ) more strongly than the second laser pulse at the second wavelength (λ 2 ).
A polyolefin resin foam sheet having a plurality of cells which is formed by foaming a polyolefin resin, wherein the polyolefin resin foam sheet has a Machine Direction (MD) and a Transverse Direction (TD), and wherein, in the polyolefin resin foam sheet, the average cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 150 μm or less, and the maximum cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 500 μm or less; and a ratio of strength at break, as measured according to the definition in the description, in the TD direction to the average cell size in the MD direction, [TD strength at break/MD average cell size], and a ratio of strength at break, as measured according to the definition in the description, in the MD direction to the average cell size in the TD direction, [MD strength at break/TD average cell size], are both 90 kPa/μm or more. wherein the polyolefin resin foam sheet has a Machine Direction (MD) and a Transverse Direction (TD), and wherein, in the polyolefin resin foam sheet, the average cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 150 μm or less, and the maximum cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 500 μm or less; and a ratio of strength at break, as measured according to the definition in the description, in the TD direction to the average cell size in the MD direction, [TD strength at break/MD average cell size], and a ratio of strength at break, as measured according to the definition in the description, in the MD direction to the average cell size in the TD direction, [MD strength at break/TD average cell size], are both 90 kPa/μm or more.
A water treatment device for sanitizing pool water comprising: a first coupling ; an inlet ; a main body ; an outlet ; a second coupling ; the first coupling being terminally and concentrically connected to the inlet , opposite the main body ; the inlet being terminally and concentrically connected to the main body ; the outlet being terminally and concentrically connected to the main body , opposite the inlet ; the second coupling being terminally and concentrically connected to the outlet , opposite the first coupling ; the main body comprising a hydraulic harmonic nozzle , a reaction chamber , a metal catalyst , and a catalyst retainer plate ; the hydraulic harmonic nozzle being positioned within the reaction chamber adjacent to the inlet ; the catalyst retainer plate being concentrically positioned within the reaction chamber adjacent to the outlet , opposite the hydraulic harmonic nozzle ; and the metal catalyst being positioned between the hydraulic harmonic nozzle and the catalyst retainer plate ; the hydraulic harmonic nozzle comprising a circular disk and a plurality of chamfered holes ; the circular disk being concentrically positioned within the reaction chamber ; the plurality of chamfered holes being distributed across the circular disk ; each of the plurality of chamfered holes comprising a chamfer; the chamfer of each of the plurality of chamfered holes being positioned adjacent to the inlet ; and the chamfer of each of the plurality of chamfered holes being a 45 degree chamfer. a first coupling ; an inlet ; a main body ; an outlet ; a second coupling ; the first coupling being terminally and concentrically connected to the inlet , opposite the main body ; the inlet being terminally and concentrically connected to the main body ; the outlet being terminally and concentrically connected to the main body , opposite the inlet ; the second coupling being terminally and concentrically connected to the outlet , opposite the first coupling ; the main body comprising a hydraulic harmonic nozzle , a reaction chamber , a metal catalyst , and a catalyst retainer plate ; the hydraulic harmonic nozzle being positioned within the reaction chamber adjacent to the inlet ; the catalyst retainer plate being concentrically positioned within the reaction chamber adjacent to the outlet , opposite the hydraulic harmonic nozzle ; and the metal catalyst being positioned between the hydraulic harmonic nozzle and the catalyst retainer plate ; the hydraulic harmonic nozzle comprising a circular disk and a plurality of chamfered holes ; the circular disk being concentrically positioned within the reaction chamber ; the plurality of chamfered holes being distributed across the circular disk ; each of the plurality of chamfered holes comprising a chamfer; the chamfer of each of the plurality of chamfered holes being positioned adjacent to the inlet ; and
An expandable poly methyl methacrylate particle comprising a polymer obtained from 100 parts by weight of an acrylic monomer, and not less than 0.05 parts by weight and not more than 0.15 parts by weight of a polyfunctional monomer, characterized in that the acrylic monomer comprises not less than 92% by weight and not more than 97% by weight of methyl methacrylate, and not less than 3% by weight and not more than 8% by weight of an C 2-8 alkyl acrylate, given that the total amount of methyl methacrylate and the C 2-8 alkyl acrylate is 100% by weight, and the alkyl acrylate is butyl acrylate.
A process for preparing a non-crosslinked product comprising Xanthan mixed with aluminum chloride and/or polyaluminium chloride, the product useful for dosing into and removing impurities from a liquid, characterized in that the process comprises the steps of either: a. mixing 250ml of monoethylene glycol (MEG) and 100ml of water, followed by adding 25 grams of fine Xanthan powder, which is thereafter shearmixed until completely solved, adding thinned hydrochloric acid until pH 3 is reached, mixing 50g of aluminum chloride with 650mml of water under pH 3, which is then mixed with the Xanthan / MEG / Water mixture by shearmixing, or b. mixing 250ml of monoethylene glycol (MEG) and 100ml of water with 25g Xanthan, which is then pH adjusted to 3, dissolving 50g of aluminum chloride in 650 ml of polyaluminium chloride with pH 2.5 (PAX), and blending said mixtures into a homogeneous mixture. a. mixing 250ml of monoethylene glycol (MEG) and 100ml of water, followed by adding 25 grams of fine Xanthan powder, which is thereafter shearmixed until completely solved, adding thinned hydrochloric acid until pH 3 is reached, mixing 50g of aluminum chloride with 650mml of water under pH 3, which is then mixed with the Xanthan / MEG / Water mixture by shearmixing, or b. mixing 250ml of monoethylene glycol (MEG) and 100ml of water with 25g Xanthan, which is then pH adjusted to 3, dissolving 50g of aluminum chloride in 650 ml of polyaluminium chloride with pH 2.5 (PAX), and blending said mixtures into a homogeneous mixture.
A system, comprising: a combination electronic article surveillance, EAS, and radio frequency identification, RFID, tag , EAS/RFID tag, comprising a first portion , a second portion and a clutch release mechanism disposed in the first portion ; a security device configured to detach said combination EAS/RFID tag; said security device comprising: a detacher configured to selectively disengage the clutch release mechanism disposed in the first portion of said combination EAS/RFID tag ; and a near field antenna configured to electronically read information stored in the second portion of said combination EAS/RFID tag , characterized in that said near field antenna is a circular microstrip antenna mounted on a substrate and encircles said detacher and said near field antenna is configured to read information from said second portion of said combination EAS/RFID tag at a position relative to said detacher when said second portion of said combination EAS/RFID tag is disposed at any angle relative to said detacher when the clutch release mechanism is placed in proximity to the detacher. a combination electronic article surveillance, EAS, and radio frequency identification, RFID, tag , EAS/RFID tag, comprising a first portion , a second portion and a clutch release mechanism disposed in the first portion ; a security device configured to detach said combination EAS/RFID tag; said security device comprising: a detacher configured to selectively disengage the clutch release mechanism disposed in the first portion of said combination EAS/RFID tag ; and a near field antenna configured to electronically read information stored in the second portion of said combination EAS/RFID tag , characterized in that said near field antenna is a circular microstrip antenna mounted on a substrate and encircles said detacher and said near field antenna is configured to read information from said second portion of said combination EAS/RFID tag at a position relative to said detacher when said second portion of said combination EAS/RFID tag is disposed at any angle relative to said detacher when the clutch release mechanism is placed in proximity to the detacher. a detacher configured to selectively disengage the clutch release mechanism disposed in the first portion of said combination EAS/RFID tag ; and a near field antenna configured to electronically read information stored in the second portion of said combination EAS/RFID tag , characterized in that said near field antenna is a circular microstrip antenna mounted on a substrate and encircles said detacher and said near field antenna is configured to read information from said second portion of said combination EAS/RFID tag at a position relative to said detacher when said second portion of said combination EAS/RFID tag is disposed at any angle relative to said detacher when the clutch release mechanism is placed in proximity to the detacher.
A process for producing a food product with enhanced fried oil flavour and health benefit, the process comprising: (a) preparing a dough comprising an antioxidant, flour, oil in the range of 0.06% to 15% with respect to the weight of the flour; and a water-based liquid; (b) shaping the dough; (c) placing the shaped dough in a chamber; and (d) cooking the dough at a combined temperature-time measurement of about 300 2100 units, wherein the step of cooking comprises: at least one stage of gelatinising the flour in the dough in a humid environment at a temperature of 55°C to 165°C; and at least one stage of cooking the dough by circulating a stream of air at a temperature of 100°C to 220°C and at a speed of 1 to 10 metres per second; and wherein the oil is incorporated into the dough without any external application of oil to the shaped dough prior to the step of gelatinising the flour and cooking the dough. (a) preparing a dough comprising an antioxidant, flour, oil in the range of 0.06% to 15% with respect to the weight of the flour; and a water-based liquid; (b) shaping the dough; (c) placing the shaped dough in a chamber; and (d) cooking the dough at a combined temperature-time measurement of about 300 2100 units, wherein the step of cooking comprises: at least one stage of gelatinising the flour in the dough in a humid environment at a temperature of 55°C to 165°C; and at least one stage of cooking the dough by circulating a stream of air at a temperature of 100°C to 220°C and at a speed of 1 to 10 metres per second; and at least one stage of gelatinising the flour in the dough in a humid environment at a temperature of 55°C to 165°C; and at least one stage of cooking the dough by circulating a stream of air at a temperature of 100°C to 220°C and at a speed of 1 to 10 metres per second; and