mhurhangee/patent-ind-claim-en huggingface dataset:
A laser scanning sensor comprising: a light-emitting element configured to emit a pulse laser beam; a light-receiving element configured to receive a reflected beam of the pulse laser beam reflected by at least one or more objects; a rotary polygon mirror having a plurality of reflecting surfaces configured to change a travelling direction of the pulse laser beam; a driving part configured to rotate the rotary polygon mirror ; a rotation detecting part configured to detect a rotation status of the rotary polygon mirror and to generate, per rotation, at least one reference signal, and at least one trigger signal for each of the reflecting surfaces; and a control/calculation part configured to control the driving part , to produce a projection pulse train for driving the light-emitting element in a predetermined specific pulse cycle after passage of a delay time counted from the generation of the trigger signal for each of the reflecting surfaces that follows the generation of the reference signal, and to acquire information on a distance to the object, per each pulse of the pulse laser beam, based on a time from when the pulse laser beam is emitted from the light-emitting element to when the reflected beam reaches the light-receiving element , characterized in that the delay time is set independently for each of the reflecting surfaces. a light-emitting element configured to emit a pulse laser beam; a light-receiving element configured to receive a reflected beam of the pulse laser beam reflected by at least one or more objects; a rotary polygon mirror having a plurality of reflecting surfaces configured to change a travelling direction of the pulse laser beam; a driving part configured to rotate the rotary polygon mirror ; a rotation detecting part configured to detect a rotation status of the rotary polygon mirror and to generate, per rotation, at least one reference signal, and at least one trigger signal for each of the reflecting surfaces; and a control/calculation part configured to control the driving part , to produce a projection pulse train for driving the light-emitting element in a predetermined specific pulse cycle after passage of a delay time counted from the generation of the trigger signal for each of the reflecting surfaces that follows the generation of the reference signal, and to acquire information on a distance to the object, per each pulse of the pulse laser beam, based on a time from when the pulse laser beam is emitted from the light-emitting element to when the reflected beam reaches the light-receiving element , characterized in that the delay time is set independently for each of the reflecting surfaces.
An evaporation closed chamber for detecting hazardous substance, comprising a closed chamber and an intake device , wherein the intake device is communicated with the interior of the closed chamber , the closed chamber is connected with an exhaust pipe , and sampling openings are opened in the closed chamber ; wherein the closed chamber is provided with a gas compensation device for performing gas volume compensation on the interior of the closed chamber in a gas sampling process, the gas compensation device is arranged on one or more surfaces of the closed chamber , the gas compensation device comprises an orifice plate , a pressure plate , a drive device and an elastic film , the orifice plate is mounted on any surface or multiple surfaces of the closed chamber , the elastic film is arranged on the outer side face of the corresponding orifice plate , the pressure plate is arranged on the outer side face of the corresponding elastic film , and the drive device is in transmission connection with the corresponding pressure plate so as to drive the pressure plate to move forwards and backwards to tightly press the elastic film to be in contact with the orifice plate , the intake device comprises a first fan or pump , a filter and a valve , and the first fan or pump , the filter and the valve are communicated with the interior of the closed chamber .
Adhesive applicator for storing and applying adhesive, comprising an adhesive reservoir having a cavity, a piston , and a nozzle , which are configured, and arranged, in such a way that an adhesive located in the adhesive reservoir can be discharged via an opening in a cannula of the nozzle by means of manual actuation of the piston , wherein the nozzle is closed for storage of the adhesive and can be opened for discharging of the adhesive, wherein the nozzle has a predetermined breaking point which is suitably configured and/or arranged for opening of the nozzle , wherein the predetermined breaking point is configured and/or arranged at a tip of the nozzle in such a way that the tip of the nozzle can be broken off and/or twisted off by means of manual actuation in such a way that the open and/or broken-open nozzle has at least one opening via which the adhesive can exit out of the adhesive reservoir , wherein the predetermined breaking point is formed by means of an peripheral groove , configured at the tip of the nozzle , in such a way that the wall thickness of the nozzle at the peripheral groove is tapered to a predetermined extent, and wherein the peripheral groove is configured and/or arranged in such a way that a nozzle , opened by breaking open and/or twisting off the nozzle at the peripheral groove , has an opening for discharging the adhesive from the adhesive reservoir , the edge of said opening being formed by the peripheral groove , characterized in that the peripheral groove is configured and/or arranged in such a way that the adhesive applicator , placed with the edge of its nozzle onto a substrate as intended, has, at the edge , at least one lateral cutout suitable for allowing the adhesive to exit out of the adhesive reservoir . the predetermined breaking point is configured and/or arranged at a tip of the nozzle in such a way that the tip of the nozzle can be broken off and/or twisted off by means of manual actuation in such a way that the open and/or broken-open nozzle has at least one opening via which the adhesive can exit out of the adhesive reservoir , wherein the predetermined breaking point is formed by means of an peripheral groove , configured at the tip of the nozzle , in such a way that the wall thickness of the nozzle at the peripheral groove is tapered to a predetermined extent, and wherein the peripheral groove is configured and/or arranged in such a way that a nozzle , opened by breaking open and/or twisting off the nozzle at the peripheral groove , has an opening for discharging the adhesive from the adhesive reservoir , the edge of said opening being formed by the peripheral groove , characterized in that the peripheral groove is configured and/or arranged in such a way that the adhesive applicator , placed with the edge of its nozzle onto a substrate as intended, has, at the edge , at least one lateral cutout suitable for allowing the adhesive to exit out of the adhesive reservoir .
A method for predicting the risk of developing antibodies against Factor VIII (FVIII) in an individual diagnosed with Hemophilia, the method comprising the steps of: (a) detecting the presence of at least one single nucleotide polymorphism (SNP) in a biological sample from the individual, wherein the at least one SNP is rs4147385; and (b) predicting the risk of the individual of developing antibodies to FVIII. (a) detecting the presence of at least one single nucleotide polymorphism (SNP) in a biological sample from the individual, wherein the at least one SNP is rs4147385; and (b) predicting the risk of the individual of developing antibodies to FVIII.
A vibratory meter (100-300, 500-800) with a variable mass balance bar (120-320, 520-820), the vibratory meter (100-300, 500-800) comprising: a measuring conduit (110-310, 510-810); the variable mass balance bar (120-320, 520-820) mechanically coupled to the measuring conduit (110-310, 510-810), characterised in that a mass of a balance fluid of the variable mass balance bar (120-320, 520-820) is selected based on a fluid property value of a process material contained by the measuring conduit (110-310) to balance the measuring conduit (110-310, 510-810) containing the process material during measurement; a meter electronics communicatively coupled to the measuring conduit , the meter electronics being configured to at least one of determine if the variable mass balance bar (120-320, 520, 720, 820) balances the measuring conduit (110-310, 510, 710, 810) containing the process material and select the mass of the balance fluid of the variable mass balance bar (120-320, 520, 720, 820). a measuring conduit (110-310, 510-810); the variable mass balance bar (120-320, 520-820) mechanically coupled to the measuring conduit (110-310, 510-810), characterised in that a mass of a balance fluid of the variable mass balance bar (120-320, 520-820) is selected based on a fluid property value of a process material contained by the measuring conduit (110-310) to balance the measuring conduit (110-310, 510-810) containing the process material during measurement; a meter electronics communicatively coupled to the measuring conduit , the meter electronics being configured to at least one of determine if the variable mass balance bar (120-320, 520, 720, 820) balances the measuring conduit (110-310, 510, 710, 810) containing the process material and select the mass of the balance fluid of the variable mass balance bar (120-320, 520, 720, 820).
Compressor for compressing fluid media, comprising a sensor device for detecting at least one rotational property, in particular for rotational speed detection of the compressor , wherein the sensor device comprises at least one first element and at least one second element , wherein the first element and the second element are rotatable relative to one another about an axis of rotation , wherein the sensor device has at least one field generator which is connected to the first element , wherein the field generator is designed to generate at least one eddy current at at least one location of the second element , wherein the first element furthermore comprises at least one field sensor for detecting at least one field generated by the eddy current, wherein the first element and the second element are arranged offset with respect to one another along the axis of rotation , wherein the second element is designed to vary, in a manner dependent on an angular position of the second element relative to the first element , the field generated by the eddy current, wherein the compressor has a compressor housing , which comprises the first element , and a compressor wheel , which comprises the second element and has a plurality of compressor blades, wherein the compressor wheel has a rotational surface facing a base of the compressor housing , and the plurality of compressor blades is arranged on that side of the compressor wheel which is opposite the rotational surface , characterized in that the at least one field generator and the at least one field sensor are arranged in the base of the compressor housing on a side of the compressor wheel which faces away from the compressor blades, and bores or milled-out portions are arranged in the rotational surface of the compressor wheel.
A power cylinder system for a reciprocating engine, comprising: a piston 20 configured to move within a cylinder of the reciprocating engine; a groove extending circumferentially about the piston beneath a top land of the piston, characterised in further comprising a protective ring insert disposed within the groove and configured to support a ring having an inner circumferential face; and one or more channels formed in the protective ring insert and configured to facilitate transfer of combustion gases to a space between a portion of the groove and the inner circumferential face of the ring. a piston 20 configured to move within a cylinder of the reciprocating engine; a groove extending circumferentially about the piston beneath a top land of the piston, characterised in further comprising a protective ring insert disposed within the groove and configured to support a ring having an inner circumferential face; and one or more channels formed in the protective ring insert and configured to facilitate transfer of combustion gases to a space between a portion of the groove and the inner circumferential face of the ring.
Use of an elastic polymer for production of a porous body in an additive manufacturing method, characterized in that the porous body is a mattress, the porous body comprises a three-dimensional network of node points joined to one another by struts , and a void volume present between the struts , where the struts have an average length of ≥ 200 μm to ≤ 50 mm and the struts have an average thickness of ≥ 100 μm to ≤ 5 mm and in that the polymer is an elastomer selected from the following group: thermoset polyurethane elastomers (PUR), thermoplastic copolyamides (TPA), thermoplastic copolyesters (TPC), thermoplastic olefin-based elastomers (TPO), styrene block copolymers (TPS), thermoplastic urethane-based elastomers (TPU), crosslinked thermoplastic olefin-based elastomers (TPV), thermoplastic polyvinyl chloride-based elastomers (PVC), thermoplastic silicone-based elastomers and a combination of at least two of these elastomers.
A connection structure , comprising: a chamber comprising a hollow housing , a diaphragm dividing the inside of the housing into a first space and a second space , and an output port outputting a gas in the second space with deformation of the diaphragm caused by pressure of a fluid flowing into the first space ; a connection part comprising a coupling connected to the output port and being attached to a pressure detection device comprising a pressure sensor for detecting pressure of the gas output from the coupling ; and a seal member being sandwiched between a side surface of the output port and a side surface of the coupling and moving while changing a sealing position when connecting or extracting the chamber to/from the connection part , characterized in that the connection structure further comprising: a first stopper being arranged on the side surface of the coupling and defining a position of the seal member to prevent the seal member from coming off; and a second stopper being arranged on the side surface of the coupling at a position facing the first stopper and separated from the first stopper by more than a diameter of the seal member . a chamber comprising a hollow housing , a diaphragm dividing the inside of the housing into a first space and a second space , and an output port outputting a gas in the second space with deformation of the diaphragm caused by pressure of a fluid flowing into the first space ; a connection part comprising a coupling connected to the output port and being attached to a pressure detection device comprising a pressure sensor for detecting pressure of the gas output from the coupling ; and a seal member being sandwiched between a side surface of the output port and a side surface of the coupling and moving while changing a sealing position when connecting or extracting the chamber to/from the connection part , characterized in that the connection structure further comprising: a first stopper being arranged on the side surface of the coupling and defining a position of the seal member to prevent the seal member from coming off; and a second stopper being arranged on the side surface of the coupling at a position facing the first stopper and separated from the first stopper by more than a diameter of the seal member . a first stopper being arranged on the side surface of the coupling and defining a position of the seal member to prevent the seal member from coming off; and a second stopper being arranged on the side surface of the coupling at a position facing the first stopper and separated from the first stopper by more than a diameter of the seal member .
A linear surgical stapler comprising: first and second jaws, the first jaw comprising a staple cartridge located at a distal end thereof; a firing piece movable relative to the staple cartridge , and a cutter advancer comprising a cutter located at a distal end thereof; and a lower safety block comprising a raised stopper , when the linear surgical stapler is under an initial status with the staple cartridge unloaded in the first jaw , at least part of the raised stopper is blockaded in a movement path of the firing piece by extending through an opening in the first jaw, an upper safety block positioned above the first jaw to connect with the lower safety block , characterized in that the lower safety block comprises a body stationary positioned inside the first jaw and a flexible beam connecting the raised stopper to the body and biasing the raised stopper towards the second jaw, the body comprising a hook extending into the lower jaw, the upper safety block is lockable with the hook to keep stationary with respect to the body and to closely press the flexible beam against the bottom surface of the lower jaw . first and second jaws, the first jaw comprising a staple cartridge located at a distal end thereof; a firing piece movable relative to the staple cartridge , and a cutter advancer comprising a cutter located at a distal end thereof; and a lower safety block comprising a raised stopper , when the linear surgical stapler is under an initial status with the staple cartridge unloaded in the first jaw , at least part of the raised stopper is blockaded in a movement path of the firing piece by extending through an opening in the first jaw, an upper safety block positioned above the first jaw to connect with the lower safety block , characterized in that the lower safety block comprises a body stationary positioned inside the first jaw and a flexible beam connecting the raised stopper to the body and biasing the raised stopper towards the second jaw, the body comprising a hook extending into the lower jaw, the upper safety block is lockable with the hook to keep stationary with respect to the body and to closely press the flexible beam against the bottom surface of the lower jaw .
A device-to-device authentication method to obtain authority over a plurality of service devices , performed by a first device (200_1), among the plurality of service devices based on a virtual authentication code, the method comprising: transmitting, to a verification device , a first code that is a source code for generating the virtual authentication code received from a client device , wherein the first code is generated based on identification information of the client device and used by a verification device that grants authority to the client device through verification of the first code; receiving a second code reflecting an authentication result for the first code from the verification device , wherein the second code includes a hash value and role information for the client device generated by the verification device based on the first code; generating a third code that is the virtual authentication code, based on the first code and the second code; and identifying at least one second device (200_2) among the plurality of service devices capable of authenticating the authority of the client device , based on the role information of the second code included in the third code, transmitting the third code to the at least one second device (200_2) related to the role information so that the client device is granted access authority for the second service device (200_2) without accessing the verification device , wherein the first device (200_1) is a device for which the client device initially requests the approval of access authority, among the plurality of service devices . transmitting, to a verification device , a first code that is a source code for generating the virtual authentication code received from a client device , wherein the first code is generated based on identification information of the client device and used by a verification device that grants authority to the client device through verification of the first code; receiving a second code reflecting an authentication result for the first code from the verification device , wherein the second code includes a hash value and role information for the client device generated by the verification device based on the first code; generating a third code that is the virtual authentication code, based on the first code and the second code; and identifying at least one second device (200_2) among the plurality of service devices capable of authenticating the authority of the client device , based on the role information of the second code included in the third code, transmitting the third code to the at least one second device (200_2) related to the role information so that the client device is granted access authority for the second service device (200_2) without accessing the verification device , wherein the first device (200_1) is a device for which the client device initially requests the approval of access authority, among the plurality of service devices .
A copolymer made from a thiol terminated hydrocarbon monomer and at least one additional monomer chosen from the compounds of i) a terminally unsaturated hydrocarbon monomer and ii) an isocyanate functionalized hydrocarbon monomer, wherein the copolymer is a linear polymer, branched polymer, or crosslinked polymer network, and is transparent to radiation in at least one of the visual spectrum or the infrared ("IR") wavelength range of about 4 μm to about 12 μm, wherein the thiol terminated hydrocarbon monomer is a compound of formula 1: where: R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently chosen from hydrogen and -R'SH, where R' is a C 2 to C 10 hydrocarbon bridge and at least two of R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are not hydrogen; with the following provisos: if the terminally unsaturated hydrocarbon monomer is polybutadiene, the polybutadiene contains from about 0 mol % to about 30 mol % of polymer units in a cis-1,4-butadiene form; and if the at least one additional monomer is an isocyanate functionalized hydrocarbon monomer, then a ratio of the molecular mass of the thiol terminated hydrocarbon monomer to the number of sulfur atoms in the thiol terminated hydrocarbon monomer ranges from 65 to about 500. wherein the thiol terminated hydrocarbon monomer is a compound of formula 1: where: R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently chosen from hydrogen and -R'SH, where R' is a C 2 to C 10 hydrocarbon bridge and at least two of R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are not hydrogen; with the following provisos: if the terminally unsaturated hydrocarbon monomer is polybutadiene, the polybutadiene contains from about 0 mol % to about 30 mol % of polymer units in a cis-1,4-butadiene form; and if the at least one additional monomer is an isocyanate functionalized hydrocarbon monomer, then a ratio of the molecular mass of the thiol terminated hydrocarbon monomer to the number of sulfur atoms in the thiol terminated hydrocarbon monomer ranges from 65 to about 500. if the terminally unsaturated hydrocarbon monomer is polybutadiene, the polybutadiene contains from about 0 mol % to about 30 mol % of polymer units in a cis-1,4-butadiene form; and if the at least one additional monomer is an isocyanate functionalized hydrocarbon monomer, then a ratio of the molecular mass of the thiol terminated hydrocarbon monomer to the number of sulfur atoms in the thiol terminated hydrocarbon monomer ranges from 65 to about 500.