mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable article comprising: a first limb section ; a first resilient member spanning a length of the first limb section and configured to generate a first resistance force; a first cord lock slideably engaging the first resilient member, wherein the slideable engagement of the first cord lock with the first resilient member is configured to adjust the first resistance force provided by the first resilient member; a first electronic strain gauge configured to measure the first resistance force provided by the first resilient member, wherein the first electronic strain gauge is coupled to a first end of the first resilient member and the first cord lock is proximate a second end of the first resilient member; and a communication interface communicatively coupled to the first electronic strain gauge, the communication interface configured to: receive first information representative of the first resistance force from the first electronic strain gauge; and transmit the first information to a remote device via a wireless communication link; wherein the first resilient member comprises a plurality of visual indicators , each visual indicator of the plurality of visual indicators corresponding to a particular amount of resistance force, and wherein the plurality of visual indicators identify locations for slideably engaging the first cord lock with the first resilient member to provide a particular amount of resistance force. a first limb section ; a first resilient member spanning a length of the first limb section and configured to generate a first resistance force; a first cord lock slideably engaging the first resilient member, wherein the slideable engagement of the first cord lock with the first resilient member is configured to adjust the first resistance force provided by the first resilient member; a first electronic strain gauge configured to measure the first resistance force provided by the first resilient member, wherein the first electronic strain gauge is coupled to a first end of the first resilient member and the first cord lock is proximate a second end of the first resilient member; and a communication interface communicatively coupled to the first electronic strain gauge, the communication interface configured to: receive first information representative of the first resistance force from the first electronic strain gauge; and transmit the first information to a remote device via a wireless communication link; wherein the first resilient member comprises a plurality of visual indicators , each visual indicator of the plurality of visual indicators corresponding to a particular amount of resistance force, and wherein the plurality of visual indicators identify locations for slideably engaging the first cord lock with the first resilient member to provide a particular amount of resistance force.
A printed circuit board , comprising: dielectric laminate material in which has been drilled a hole , the dielectric laminate material being coated with a catalytic adhesive so as to form a top adhesive layer and a bottom adhesive layer and wherein the layer of catalytic adhesive extends all the way through the hole and on all interior walls of the hole , catalytic adhesive also coating a portion of the dielectric laminate material around the hole , wherein the catalytic adhesive is a dielectric adhesive that includes catalytic filler particles composed of metal coated over silicon dioxide or kaolin; and, a patterned metal layer over the catalytic adhesive on both faces of the dielectric laminate material , including a portion of the patterned metal layer over the layer of catalytic adhesive that coats the portion of the dielectric laminate material around the hole ; and, wherein the patterned metal layer is a patterned copper layer and extends through the hole surrounded by the catalytic adhesive on the interior walls of the hole . dielectric laminate material in which has been drilled a hole , the dielectric laminate material being coated with a catalytic adhesive so as to form a top adhesive layer and a bottom adhesive layer and wherein the layer of catalytic adhesive extends all the way through the hole and on all interior walls of the hole , catalytic adhesive also coating a portion of the dielectric laminate material around the hole , wherein the catalytic adhesive is a dielectric adhesive that includes catalytic filler particles composed of metal coated over silicon dioxide or kaolin; and, a patterned metal layer over the catalytic adhesive on both faces of the dielectric laminate material , including a portion of the patterned metal layer over the layer of catalytic adhesive that coats the portion of the dielectric laminate material around the hole ; and, wherein the patterned metal layer is a patterned copper layer and extends through the hole surrounded by the catalytic adhesive on the interior walls of the hole .
Mudguard group for vehicles, comprising: - a fixing plate , operatively connected to a steering wheel, so as to steer with the latter, - a support plate mechanically connected to an associable mudguard , - rotational coupling means positioned between the fixing plate and the support plate , so as to allow a relative rotation around a rotation axis (X-X), - wherein said rotational coupling means comprise a pin integral with the fixing plate and parallel to said axis of rotation (X-X), at least one rolling bearing , coaxial with respect to the pin , a first elastic return means extending from a first end to a second end , wherein at the first end it is joined to a first support peg integral with the support plate , and at the second end it is associated with a first fixing peg integral with the fixing plate , - wherein said first support peg and first fixing peg are arranged aligned along a first straight line (R1) not passing through the pin and wherein one out of said first support peg and first fixing peg is housed inside a first circular slot of the support plate that delimits its angular stroke, characterised in that the rotational coupling means comprise a second elastic return means extending from a first end to a second end , wherein at the first end it is joined to a second support peg integral with the support plate , and at the second end it is joined to a second fixing peg integral with the fixing plate . - a fixing plate , operatively connected to a steering wheel, so as to steer with the latter, - a support plate mechanically connected to an associable mudguard , - rotational coupling means positioned between the fixing plate and the support plate , so as to allow a relative rotation around a rotation axis (X-X), - wherein said rotational coupling means comprise a pin integral with the fixing plate and parallel to said axis of rotation (X-X), at least one rolling bearing , coaxial with respect to the pin , a first elastic return means extending from a first end to a second end , wherein at the first end it is joined to a first support peg integral with the support plate , and at the second end it is associated with a first fixing peg integral with the fixing plate , - wherein said first support peg and first fixing peg are arranged aligned along a first straight line (R1) not passing through the pin and wherein one out of said first support peg and first fixing peg is housed inside a first circular slot of the support plate that delimits its angular stroke, characterised in that
A method executed at a first computing entity , comprising: receiving a share of a first data set, the first data set comprising sequenced genomes and phenotypes of study participants, wherein the share of the first data set is received at the first computing entity in association with distribution, according to a secret sharing protocol, of shares of the first data set to a set of computing entities that include the first computing entity and at least a second computing entity ; receiving a share associated with a second data set, the second data set comprising mutually independent and uniformly-distributed random numbers and results of calculations over the random numbers, wherein the share of the second data set is received at the first computing entity in association with distribution, according to the secret sharing protocol, of shares of the second data set to the set of computing entities; and using the share associated with the second data set to facilitate a secure and efficient computation over the share of the first data set to generate an output, the computation being carried out during an interaction between the first computing entity and the second computing entity, characterised in that part of the computation is executed over a dimensionality-reduced share of the first data set for increased computational efficiency. receiving a share of a first data set, the first data set comprising sequenced genomes and phenotypes of study participants, wherein the share of the first data set is received at the first computing entity in association with distribution, according to a secret sharing protocol, of shares of the first data set to a set of computing entities that include the first computing entity and at least a second computing entity ; receiving a share associated with a second data set, the second data set comprising mutually independent and uniformly-distributed random numbers and results of calculations over the random numbers, wherein the share of the second data set is received at the first computing entity in association with distribution, according to the secret sharing protocol, of shares of the second data set to the set of computing entities; and using the share associated with the second data set to facilitate a secure and efficient computation over the share of the first data set to generate an output, the computation being carried out during an interaction between the first computing entity and the second computing entity, characterised in that part of the computation is executed over a dimensionality-reduced share of the first data set for increased computational efficiency.
Method to convert insects or worms into nutrient streams, comprising the steps of: (a) squashing insects or worms thereby obtaining a pulp, (b) subjecting the pulp to enzymatic hydrolysis obtaining thereby a hydrolysed mixture, (c) heating the hydrolysed mixture to a temperature of 70-100°C, and (d) subjecting the mixture to a physical separation step thereby obtaining a fat fraction, an aqueous proteinaceous fraction and a solid-containing fraction. (a) squashing insects or worms thereby obtaining a pulp, (b) subjecting the pulp to enzymatic hydrolysis obtaining thereby a hydrolysed mixture, (c) heating the hydrolysed mixture to a temperature of 70-100°C, and (d) subjecting the mixture to a physical separation step thereby obtaining a fat fraction, an aqueous proteinaceous fraction and a solid-containing fraction.
An enema device (1;1') comprising a delivery container and an applicator nozzle , wherein said delivery container comprises two cavities (6,8;6',8'), an outer cavity (6;6') defined by an squeezable external body (7;7'), and an inner cavity (8;8') defined by an inner flexible bladder (9;9'), and wherein one of said cavities (6;8') is communicating with an outlet for dispersing the enema though the applicator nozzle and the other cavity (8;6') is communicating with the surroundings via an air inlet .
A method of providing video content to a production studio by selecting an input video stream from a plurality of wireless video cameras over a wireless telecommunication network, wherein each of said wireless video cameras is arranged for providing at least a High Quality, HQ, and a Low Quality, LQ, video output, said method comprising the steps of: - selecting, by a stream controller, one among said plurality of wireless cameras as a live camera thereby instructing said selected live camera to provide HQ video output such that video content provided to said production studio is said HQ video output from said selected live camera; characterised by - estimating, by said stream controller, a likelihood of a further one of said plurality of wireless cameras to be a next live camera, following said selected live camera; - requesting, by said stream controller, said further one of said plurality of wireless cameras to provide HQ video output based on said estimated likelyhood such that HQ video output is already available in case said stream controller decides to switch to said further one of said plurality of wireless cameras. - selecting, by a stream controller, one among said plurality of wireless cameras as a live camera thereby instructing said selected live camera to provide HQ video output such that video content provided to said production studio is said HQ video output from said selected live camera; characterised by - estimating, by said stream controller, a likelihood of a further one of said plurality of wireless cameras to be a next live camera, following said selected live camera; - requesting, by said stream controller, said further one of said plurality of wireless cameras to provide HQ video output based on said estimated likelyhood such that HQ video output is already available in case said stream controller decides to switch to said further one of said plurality of wireless cameras.
A headrest frame for a seat, comprising: a main body portion including an interior portion and having a stowed length, the main body portion configured for slidable connection with a seatback portion of the seat via one or more headrest tubes extending from the main body portion; a top portion configured to assume a stowed position and a deployed position with respect to the main body portion, the deployed position defining a deployed length greater than the stowed length; and a deployment mechanism including a bias member configured to urge the top portion outward from the interior portion of the main body portion to bias the top portion into the deployed position from the stowed position, wherein the bias member is a coil spring having a first end connected to the main body portion and a second end connected to the top portion, and wherein the deployment mechanism includes a strut extending between and connected to a lower section of the main body portion and an upper section of the main body portion and the top portion is configured to slide along the strut; the headrest frame further comprising a lock mechanism configured to lock the top portion in the stowed position, wherein the lock mechanism is configured to lock the top portion inside the interior portion against a force of the bias member. a main body portion including an interior portion and having a stowed length, the main body portion configured for slidable connection with a seatback portion of the seat via one or more headrest tubes extending from the main body portion; a top portion configured to assume a stowed position and a deployed position with respect to the main body portion, the deployed position defining a deployed length greater than the stowed length; and a deployment mechanism including a bias member configured to urge the top portion outward from the interior portion of the main body portion to bias the top portion into the deployed position from the stowed position, wherein the bias member is a coil spring having a first end connected to the main body portion and a second end connected to the top portion, and wherein the deployment mechanism includes a strut extending between and connected to a lower section of the main body portion and an upper section of the main body portion and the top portion is configured to slide along the strut; the headrest frame further comprising a lock mechanism configured to lock the top portion in the stowed position, wherein the lock mechanism is configured to lock the top portion inside the interior portion against a force of the bias member.
A method for producing a concrete element comprising the steps: (a) introducing a fluid into uncured concrete and (b) allowing the concrete to set, resulting in the concrete element , (c) wherein the fluid is introduced by means of an end effector that is moved along a predetermined trajectory ( r ( t )), characterised in that (d) the fluid is a second concrete with a second composition that differs from a first composition of the first concrete . (a) introducing a fluid into uncured concrete and (b) allowing the concrete to set, resulting in the concrete element , (c) wherein the fluid is introduced by means of an end effector that is moved along a predetermined trajectory ( r ( t )), characterised in that (d) the fluid is a second concrete with a second composition that differs from a first composition of the first concrete .
An ethylene/1-hexene copolymer having: a weight average molecular weight (g/mol) of 50,000 to 150,000, wherein the weight average molecular weight is measured by GPC, a molecular weight distribution (Mw/Mn) of 3 to 8, wherein the molecular weight distribution is measured by GPC, a density (g/cm 3 ) of 0.940 to 0.970, wherein the density is measured according to ASTM 1505, MFR 2.16 (melt flow index measured at 190°C under a load of 2.16 kg according to ASTM D 1238) of 4 to 8, a diameter of spherulite of 20 μm or less, wherein the diameter of the spherulite is measured after the ethylene-1-hexene copolymer is completely melted at 190°C and then reaches the crystallization temperature at a speed of 10°C/minute, wherein the diameter of the spherulite is the size when each spherulite overlaps according to the growth of the spherulite, and a half crystallization time of 6 minutes or less measured at 123°C, wherein the half crystallization time is measured using at differential scanning calorimetry and is the time when it is a half of the peak value in the heat quantity that appears after the ethylene/1-hexene copolymer is completely melted at 190°C, and quenched at 80°C/minute up to a crystallization temperature of 123°C. a weight average molecular weight (g/mol) of 50,000 to 150,000, wherein the weight average molecular weight is measured by GPC, a molecular weight distribution (Mw/Mn) of 3 to 8, wherein the molecular weight distribution is measured by GPC, a density (g/cm 3 ) of 0.940 to 0.970, wherein the density is measured according to ASTM 1505, MFR 2.16 (melt flow index measured at 190°C under a load of 2.16 kg according to ASTM D 1238) of 4 to 8, a diameter of spherulite of 20 μm or less, wherein the diameter of the spherulite is measured after the ethylene-1-hexene copolymer is completely melted at 190°C and then reaches the crystallization temperature at a speed of 10°C/minute, wherein the diameter of the spherulite is the size when each spherulite overlaps according to the growth of the spherulite, and a half crystallization time of 6 minutes or less measured at 123°C, wherein the half crystallization time is measured using at differential scanning calorimetry and is the time when it is a half of the peak value in the heat quantity that appears after the ethylene/1-hexene copolymer is completely melted at 190°C, and quenched at 80°C/minute up to a crystallization temperature of 123°C.
An additive manufacturing system, comprising: a print nozzle configured to deliver at least partially liquefied print material to form a print build responsive to motion control of the print nozzle in at least two axes by a kinematic controller ; at least one heater about the print nozzle configured to effectuate the at least partial liquefication of the at least partially liquefied print material ; characterised in that the additive manufacturing system further comprises a correlative interface between the kinematic controller and the at least one heater , wherein the correlative interface monitors upcoming ones of the motion control so as to anticipatorily actuate the at least one heater according to the upcoming ones of the motion control. a print nozzle configured to deliver at least partially liquefied print material to form a print build responsive to motion control of the print nozzle in at least two axes by a kinematic controller ; at least one heater about the print nozzle configured to effectuate the at least partial liquefication of the at least partially liquefied print material ; characterised in that the additive manufacturing system further comprises a correlative interface between the kinematic controller and the at least one heater , wherein the correlative interface monitors upcoming ones of the motion control so as to anticipatorily actuate the at least one heater according to the upcoming ones of the motion control.
A magnetodielectric hexagonal ferrite comprising: a y-phase strontium hexagonal ferrite material having sodium substituted for strontium and including a trivalent ion to form a magnetodielectric hexagonal ferrite, the composition of the magnetodielectric hexagonal ferrite being Sr 2-x Na x Co 2-x M x Fe 12 O 22 , where M is a trivalent ion selected from the group consisting of Al, Ga, Sc, Cr, In, Yb, Er, Y or other lanthanide and x is greater than 0.2 and less than 0.7.
A chemical sensing system for navigating an aircraft to a source of a chemical plume , the chemical sensing system comprising: a chemical sensor to provide chemical data reflecting one or more chemical agents in the air; a wind sensor to provide wind data reflecting one or more flow conditions of the air; and a processor to identify a navigational waypoint for the aircraft and to provide flight commands to the aircraft based at least in part on the chemical data and the wind data, wherein the processor is further configured to identify a source location of the chemical plume through an upwind tracking process. a chemical sensor to provide chemical data reflecting one or more chemical agents in the air; a wind sensor to provide wind data reflecting one or more flow conditions of the air; and a processor to identify a navigational waypoint for the aircraft and to provide flight commands to the aircraft based at least in part on the chemical data and the wind data, wherein the processor is further configured to identify a source location of the chemical plume through an upwind tracking process.