mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for routing requests with different protocols to the same destination, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: receiving a first request that uses a first protocol , the first request including a first request source identifier and a first request destination identifier ; identifying, based on both the first request source identifier and the first request destination identifier , a destination to send the first request to; identifying a first identifier of an equivalence class of which the first protocol is part; hashing the first request source identifier , the first request destination identifier and the first equivalence class identifier, the resulting first hash value indicating the destination to send the first request to; storing the first hash value for the first request , the first hash value indicating the destination the first request was sent to; routing the first request to the destination; receiving a second request that uses a second, different protocol , the second request including a second request source identifier and a second request destination identifier ; identifying a second identifier of an equivalence class of which the second protocol is part; hashing the second request source identifier , the second request destination identifier and the second equivalence class identifier to create a second hash value; determining that the second hash value matches the first hash value; and routing the second request to the destination indicated by the first hash value. receiving a first request that uses a first protocol , the first request including a first request source identifier and a first request destination identifier ; identifying, based on both the first request source identifier and the first request destination identifier , a destination to send the first request to; identifying a first identifier of an equivalence class of which the first protocol is part; hashing the first request source identifier , the first request destination identifier and the first equivalence class identifier, the resulting first hash value indicating the destination to send the first request to; storing the first hash value for the first request , the first hash value indicating the destination the first request was sent to; routing the first request to the destination; receiving a second request that uses a second, different protocol , the second request including a second request source identifier and a second request destination identifier ; identifying a second identifier of an equivalence class of which the second protocol is part; hashing the second request source identifier , the second request destination identifier and the second equivalence class identifier to create a second hash value; determining that the second hash value matches the first hash value; and routing the second request to the destination indicated by the first hash value.
A DNA production method, the method comprising: preparing a reaction solution containing two or more types of DNA fragments, a protein having RecA family recombinase activity and a linear double-stranded DNA-specific 3'→5' exonuclease, and producing linear or circular DNA in the reaction solution by joining the two or more types of DNA fragments to each other at regions having homologous base sequences or regions having complementary base sequences. preparing a reaction solution containing two or more types of DNA fragments, a protein having RecA family recombinase activity and a linear double-stranded DNA-specific 3'→5' exonuclease, and producing linear or circular DNA in the reaction solution by joining the two or more types of DNA fragments to each other at regions having homologous base sequences or regions having complementary base sequences.
A mechanochemically carboxylated fly ash which has a BET surface area of less than 50m 2 /g and a CO 2 content of more than 1 wt.%, wherein the CO 2 content is determined as the mass loss above 120°C measured by TGA-MS employing a temperature trajectory wherein the temperature was increased from room temperature to 800°C at a rate of 10 °C/min and then decreased to room temperature at a rate of 15 °C/min, and a D50 within the range of 0.5-50 μm.
A portable handheld x-ray device having a main body with a side wall defining a characteristic width of the body, a rear portion comprising a rear wall defining a characteristic height of the body, and a front portion with a collimator adjustment mechanism that adjustably defines an area of radiographic exposure, said main body having an inner space encasing an x-ray generator and x-ray tube and an exposure control processor, the portable handheld x-ray device further comprising: a side handle located adjacent to a front portion of said side wall and having a handle length extending across an extent of the side wall, said side handle having a first end and a second end with an intermediate gripping portion between said ends, said gripping portion being configured for a user to hold the handle to support the device at a location adjacent the side wall; a rear handle positioned at the rear portion of the main body, said rear handle having a first end and a second end and an intermediate gripping portion between said ends, said gripping portion configured for a user to hold the rear handle to support the device at a location adjacent the rear wall; a first actuator trigger positioned on a first handle of either the side or rear handle, said actuator trigger being electrically connected to said exposure control processor to provide control for activation of a first function while the user holds the side and rear handles; and a second actuator trigger positioned on said first handle, said first and second actuator triggers being positioned adjacent to opposing ends of the gripping portion of said first handle. a side handle located adjacent to a front portion of said side wall and having a handle length extending across an extent of the side wall, said side handle having a first end and a second end with an intermediate gripping portion between said ends, said gripping portion being configured for a user to hold the handle to support the device at a location adjacent the side wall; a rear handle positioned at the rear portion of the main body, said rear handle having a first end and a second end and an intermediate gripping portion between said ends, said gripping portion configured for a user to hold the rear handle to support the device at a location adjacent the rear wall; a first actuator trigger positioned on a first handle of either the side or rear handle, said actuator trigger being electrically connected to said exposure control processor to provide control for activation of a first function while the user holds the side and rear handles; and a second actuator trigger positioned on said first handle, said first and second actuator triggers being positioned adjacent to opposing ends of the gripping portion of said first handle.
An optical system comprising: - a multispectral excitation source , designed to emit monochromatic excitation radiation with at least two different excitation wavelengths (λ 1 , λ 2 ) one after the other along a common beam axis (O); - an elongated flow range having a longitudinal axis (L), designed to guide a particle flow along the longitudinal axis (L); - an excitation beam path, designed to irradiate the monochromatic excitation radiation at a first position (A) and a second position (B) along the longitudinal axis (L) of the flow range into the flow range , wherein the first position (A) and the second position (B) are located in the flow range and the first position (A) is at a distance (Δz) from the second position (B); and - a detection device , designed to filter wavelength selectively and to detect at least one part of the radiation with a first filter wavelength (f 1 ) scattered by the first position (A) and to filter wavelength selectively and to detect at least one part of the radiation with a second filter wavelength (f 2 ) scattered by the second position (B); characterized in that the optical system furthermore comprises a means for switching over, designed to switch between at least two excitation wavelengths (λ 1 , λ 2 ) of the excitation source as a function of the position of a sample element along the longitudinal axis (L) of the flow range . - a multispectral excitation source , designed to emit monochromatic excitation radiation with at least two different excitation wavelengths (λ 1 , λ 2 ) one after the other along a common beam axis (O); - an elongated flow range having a longitudinal axis (L), designed to guide a particle flow along the longitudinal axis (L); - an excitation beam path, designed to irradiate the monochromatic excitation radiation at a first position (A) and a second position (B) along the longitudinal axis (L) of the flow range into the flow range , wherein the first position (A) and the second position (B) are located in the flow range and the first position (A) is at a distance (Δz) from the second position (B); and - a detection device , designed to filter wavelength selectively and to detect at least one part of the radiation with a first filter wavelength (f 1 ) scattered by the first position (A) and to filter wavelength selectively and to detect at least one part of the radiation with a second filter wavelength (f 2 ) scattered by the second position (B);
Method for producing wheel disc forms, which have an attachment flange, a disc transition surface and a disc margin, for vehicle wheels from preferably metallic preforms on a flow-forming machine which has a spinning mandrel being rotatable about an axis of rotation, and at least one spinning roller , which is adjustable radially relative to the axis of rotation, for the flow forming of the preform against the spinning mandrel and production of a flow-formed transition surface on the wheel disc form, wherein in a subsequent method step, ventilation holes are formed in the wheel disc form by way of a punching or cutting process, characterized in that the preform is flow-formed against a spinning mandrel which has multiple local elevations being distributed over the circumference in order to generate zones which are distributed over the circumference of the wheel disc form and which have material reductions in the flow-formed transition surface, with the transition surface receiving transition zones having varying thickness comprising continuous change in thickness, and wherein in the subsequent method step, zones with material reductions created during the flow form step are removed for the production of the ventilation holes.
A method for the detection of cellular reservoirs of cells infected with a mammalian immunodeficiency virus, said method comprising a step of bringing, in vitro or ex vivo, cells of a mammal infected with said mammalian immunodeficiency virus and in particular treated with a specific anti-retroviral therapy for said mammalian immunodeficiency virus into contact with an agent allowing the detection of lymphocyte cells expressing the CD32 differentiation marker on their surface.
A system comprising: a hand held robot comprising a base and an actuated arm; an ultrasound imaging probe attached to the base of said hand held robot , such that when said robot is moved, said ultrasound imaging probe moves with it, and such that the co-ordinate system of the field of view of said ultrasound imaging probe is co-registered to the co-ordinate system of said robot; a tool guide attached to the actuated arm of said hand held robot ; and a control system , characterized in that said control system is adapted to utilize said co-registration of said co-ordinate systems of said ultrasound imaging probe and said robot to adjust the pose of said robot actuated arm , such that as the ultrasound imaging probe is moved, the position and orientation of said tool guide is adjusted by said control system in order to maintain its direction relative to a feature imaged by said ultrasound imaging probe . a hand held robot comprising a base and an actuated arm; an ultrasound imaging probe attached to the base of said hand held robot , such that when said robot is moved, said ultrasound imaging probe moves with it, and such that the co-ordinate system of the field of view of said ultrasound imaging probe is co-registered to the co-ordinate system of said robot; a tool guide attached to the actuated arm of said hand held robot ; and a control system ,
Watch movement for mechanical watch piece, the movement comprising a motor, a gearing, an escapement and a regulating organ , wherein the gearing transmits the driving power coming from the motor to said escapement and said escapement is cooperating with said regulating organ so as to maintain the oscillations of the regulating organ which comprises a first balance (2.1) and a first spiral (3.1), said first balance (2.1) being mounted on an axle , the regulating organ comprising at least a second balance (2.2) mounted on the axle of said first balance (2.1) and at least a second spiral (3.2) arranged on said at least second balance (2.2), wherein the escapement is arranged at least partially between said first balance (2.1) and said second balance (2.2) of the regulating organ.
A method of producing a liquid dairy concentrate, the method comprising: providing a liquid dairy ingredient having a fat content of at least 35wt%; concentrating the liquid dairy ingredient by ultrafiltration and/or diafiltration to obtain a concentrated liquid dairy ingredient as the retentate; adding sucrose and/or trisodium citrate to form a modified retentate; storing the modified retentate for at least 2 min at a temperature of at most 8 °C, then blending the modified retentate with one or more further ingredients; and homogenising the blend to form a liquid dairy concentrate, wherein, during the step of blending the modified retentate with said one or more further ingredients, the modified retentate is at a temperature of at least 60°C. providing a liquid dairy ingredient having a fat content of at least 35wt%; concentrating the liquid dairy ingredient by ultrafiltration and/or diafiltration to obtain a concentrated liquid dairy ingredient as the retentate; adding sucrose and/or trisodium citrate to form a modified retentate; storing the modified retentate for at least 2 min at a temperature of at most 8 °C, then blending the modified retentate with one or more further ingredients; and homogenising the blend to form a liquid dairy concentrate, wherein, during the step of blending the modified retentate with said one or more further ingredients, the modified retentate is at a temperature of at least 60°C.
An information transmission method, applied on a terminal side, the method is characterized by comprising: acquiring a non-overlapped candidate Physical Downlink Shared Channel, PDSCH, occasion in a time domain transmission unit, wherein the time domain transmission unit comprises at least one slot, at least two non-overlapped candidate PDSCH occasions are comprised within one slot; determining , according to the non-overlapped candidate PDSCH occasion, a Hybrid Automatic Repeat Request Acknowledge, HARQ-ACK, codebook corresponding to the time domain transmission unit; wherein, at least one candidate PDSCH occasion in the time domain transmission unit corresponds to at least two pieces of HARQ-ACK information; transmitting the HARQ-ACK codebook. acquiring a non-overlapped candidate Physical Downlink Shared Channel, PDSCH, occasion in a time domain transmission unit, wherein the time domain transmission unit comprises at least one slot, at least two non-overlapped candidate PDSCH occasions are comprised within one slot; determining , according to the non-overlapped candidate PDSCH occasion, a Hybrid Automatic Repeat Request Acknowledge, HARQ-ACK, codebook corresponding to the time domain transmission unit; wherein, at least one candidate PDSCH occasion in the time domain transmission unit corresponds to at least two pieces of HARQ-ACK information; transmitting the HARQ-ACK codebook.
A device for the detection or measurement of a carbohydrate analyte in fluid comprising: - an optical sensor comprising components of an assay for carbohydrate analyte, the readout of which is a detectable or measurable optical signal, and a light guide having a distal portion , the distal portion being optically coupled to the assay components, and a proximal portion ; - a reader for interrogating the optical sensor , the reader comprising an assay interrogating system including a lens ; - a light guide interface portion forming part of the reader , the light guide interface portion comprising a flared opening terminating in a channel adapted to accommodate the proximal portion of the light guide , and the light guide interface portion being capable of removably constraining the proximal portion of the light guide and the lens of the assay interrogating system in an optically coupled arrangement; and - further comprising a detachable connection between the optical sensor and the reader , the detachable connection being capable of further constraining the proximal portion of the light guide and the lens of the assay interrogating system within the optically coupled arrangement, wherein when the proximal portion of the light guide and the lens are constrained in the optically coupled arrangement, the detachable connection constrains the relative position of the light guide and lens in directions parallel to an optical axis of the lens . - an optical sensor comprising components of an assay for carbohydrate analyte, the readout of which is a detectable or measurable optical signal, and a light guide having a distal portion , the distal portion being optically coupled to the assay components, and a proximal portion ; - a reader for interrogating the optical sensor , the reader comprising an assay interrogating system including a lens ; - a light guide interface portion forming part of the reader , the light guide interface portion comprising a flared opening terminating in a channel adapted to accommodate the proximal portion of the light guide , and the light guide interface portion being capable of removably constraining the proximal portion of the light guide and the lens of the assay interrogating system in an optically coupled arrangement; and - further comprising a detachable connection between the optical sensor and the reader , the detachable connection being capable of further constraining the proximal portion of the light guide and the lens of the assay interrogating system within the optically coupled arrangement, wherein when the proximal portion of the light guide and the lens are constrained in the optically coupled arrangement, the detachable connection constrains the relative position of the light guide and lens in directions parallel to an optical axis of the lens .
A grain-oriented electrical steel sheet, comprising: a linear groove formed in a direction crossing a rolling direction on one surface or both surfaces of an electrical steel sheet; and a linear thermal shock portion formed in the direction crossing the rolling direction on one surface or both surfaces of the electrical steel sheet, wherein the groove and the thermal shock portion are formed in plural along the rolling direction, and a distance D2 between the groove and the thermal shock portion is 0.2 to 0.5 times a distance D1 between the grooves, and a distance D3 between the thermal shock portions is 0.2 to 3.0 times the distance D1 between the grooves, characterised in that the thermal shock portion has a difference in Vickers hardness (HV) of 10 to 120 from a surface of the steel sheet in which the thermal shock portion is not formed, and a solidified alloy layer formed at a lower portion of the groove is included, and the solidified alloy layer has a thickness of 0.1 μm to 3 μm. a linear groove formed in a direction crossing a rolling direction on one surface or both surfaces of an electrical steel sheet; and a linear thermal shock portion formed in the direction crossing the rolling direction on one surface or both surfaces of the electrical steel sheet, wherein the groove and the thermal shock portion are formed in plural along the rolling direction, and a distance D2 between the groove and the thermal shock portion is 0.2 to 0.5 times a distance D1 between the grooves, and a distance D3 between the thermal shock portions is 0.2 to 3.0 times the distance D1 between the grooves, characterised in that the thermal shock portion has a difference in Vickers hardness (HV) of 10 to 120 from a surface of the steel sheet in which the thermal shock portion is not formed, and a solidified alloy layer formed at a lower portion of the groove is included, and the solidified alloy layer has a thickness of 0.1 μm to 3 μm.
An interior material attachment structure adapted to be installed on an inner wall or ceiling and to have applied thereon a metal interior material, the interior material attachment structure comprising: wall attachment part bolt grooves for receiving a bolt to attach the structure to the wall or ceiling; binding protrusions formed at the outermost part of the interior material attachment structure in order to couple with and thereby attach the metal interior material to the interior material attachment structure; and connection part grooves formed adjacent to the binding protrusions in order to connect a plurality of such interior material attachment structures to each other; wherein the binding protrusions have a binding retreat space formed on the opposite side of the binding protrusions , in order to secure a retreat space when coupled to the metal interior material ; and the interior material attachment structure is formed in a rectangular shape, and the binding protrusions are formed on the outermost surface of the rectangular interior material attachment structure so as to be located on neighbouring sides at a corner of the rectangular interior material attachment structure. wall attachment part bolt grooves for receiving a bolt to attach the structure to the wall or ceiling; binding protrusions formed at the outermost part of the interior material attachment structure in order to couple with and thereby attach the metal interior material to the interior material attachment structure; and connection part grooves formed adjacent to the binding protrusions in order to connect a plurality of such interior material attachment structures to each other; wherein the binding protrusions have a binding retreat space formed on the opposite side of the binding protrusions , in order to secure a retreat space when coupled to the metal interior material ; and the interior material attachment structure is formed in a rectangular shape, and the binding protrusions are formed on the outermost surface of the rectangular interior material attachment structure so as to be located on neighbouring sides at a corner of the rectangular interior material attachment structure.
Shearable screw for a wire connection assembly , such as a spliced connector or a lug, comprising, along an axial direction (D) of the screw , a driving section , a threaded section with an outer screw thread for being engaged with a corresponding thread of a connector body of the wire connection assembly , and with a contact section for establishing electrical contact with a stranded wire, the screw having a predefined shear torque, wherein at least in the threaded section , the predefined shear torque of the screw varies in the axial direction (D) of the screw , and wherein the screw further comprises at least one breaking line which extends in the material of the screw at least in the threaded section , the course of the at least one breaking line differing from the course of at least one outer screw thread , characterized in that the at least one breaking line is formed as helical groove in the outer surface of the screw spiraling around a central axis (C) of the screw .