mhurhangee/patent-ind-claim-en huggingface dataset:
A brachytherapy seed localization system for localizing radioactive seeds within a diseased tissue, the brachytherapy seed localization system comprising: a tool tracking machine operable to generate a tracked seed distribution map of delivered locations of the radioactive seeds within the diseased tissue as the radioactive seeds are being delivered to the diseased tissue in accordance with a planned seed distribution map; a tissue imaging machine operable to generate a seed distribution image of projected locations of the radioactive seeds within the diseased tissue; and a brachytherapy seed localizer in communication with the tool tracking machine and the tissue imaging machine , wherein responsive to the generation of the tracked seed distribution map and the seed distribution image , the brachytherapy seed localizer is operable to generate a composite seed distribution map of estimated locations of the radioactive seeds within the diseased tissue derived from a combination of the tracked seed distribution map and the seed distribution image excluding any at least one false projected location within the seed distribution image characterized in that the tool tracking machine is an electromagnetic tracking machine. a tool tracking machine operable to generate a tracked seed distribution map of delivered locations of the radioactive seeds within the diseased tissue as the radioactive seeds are being delivered to the diseased tissue in accordance with a planned seed distribution map; a tissue imaging machine operable to generate a seed distribution image of projected locations of the radioactive seeds within the diseased tissue; and a brachytherapy seed localizer in communication with the tool tracking machine and the tissue imaging machine , wherein responsive to the generation of the tracked seed distribution map and the seed distribution image , the brachytherapy seed localizer is operable to generate a composite seed distribution map of estimated locations of the radioactive seeds within the diseased tissue derived from a combination of the tracked seed distribution map and the seed distribution image excluding any at least one false projected location within the seed distribution image characterized in that the tool tracking machine is an electromagnetic tracking machine.
A masterbatch for increasing the melt strength of polyethylene terephthalate, wherein the masterbatch comprises a polyanhydride, a secondary antioxidant, and at least one thermoplastic carrier, the weight ratio of the polyanhydride and the secondary antioxidant being 5:1 to 1:5, wherein the secondary antioxidant is a phosphorous based stabilizer, wherein the polyanhydride is a tetracarboxylic dianhydride, and wherein the masterbatch comprises 0.05 to 20 wt.% of the polyanhydride and 0.05 to 15 wt.% of the secondary antioxidant.
An adhesive for motor vehicles comprising a curable composition comprising: an elastomer (A), an epoxy resin (B), a latent curing agent (C), a filler (D), a thermoplastic resin (E), a crosslinking agent (F) for elastomers, and a plasticizer (G), wherein the latent curing agent (C) comprises a combination of two or more latent curing agents, at least one comprised in the latent curing agent (C) comprises an imidazole compound according to the formula : wherein, in the formula , n = 10 to 23, at least one comprised in the latent curing agent (C) comprises an aliphatic dicarboxylic acid dihydrazide having a C10-C23 aliphatic alkylene structure, and the curable composition includes the epoxy resin (B) in an amount of 0.1 part by mass or more and 10 parts by mass or less based on 100 parts by mass of the curable composition. an elastomer (A), an epoxy resin (B), a latent curing agent (C), a filler (D), a thermoplastic resin (E), a crosslinking agent (F) for elastomers, and a plasticizer (G), wherein the latent curing agent (C) comprises a combination of two or more latent curing agents, at least one comprised in the latent curing agent (C) comprises an imidazole compound according to the formula : wherein, in the formula , n = 10 to 23, at least one comprised in the latent curing agent (C) comprises an aliphatic dicarboxylic acid dihydrazide having a C10-C23 aliphatic alkylene structure, and the curable composition includes the epoxy resin (B) in an amount of 0.1 part by mass or more and 10 parts by mass or less based on 100 parts by mass of the curable composition.
A computer-implemented method for processing volumetric scanning data, the method comprising: Obtaining Volumetric scanning data of a structural element, the structural element comprising a plurality of instances of two or more types of components, wherein the Volumetric scanning data is represented by a plurality of voxels; Assigning the plurality of voxels to one of the two or more different types of components; Identifying , for each type of component, the voxels that are part of a surface of an instance of the component; Extracting the surfaces of the instances of the components using the voxels that are part of the surface of the respective type of component; and Determining information on a structural integrity of the structural element based on the extracted surfaces, wherein the method further comprises determining an orientation of the surfaces of the instances of the components, and classifying the surfaces of the instances of the components based on the orientation of the respective surfaces, wherein the information on the structural integrity is determined based on the classification of the respective surfaces, characterized in that the orientation of the surfaces of the instances of the components is determined based on determining the normal for every voxel by fitting a local plane for each surface voxel, and determining the sign of the normal based on the mean position of a bulk of the respective instances of the components. Obtaining Volumetric scanning data of a structural element, the structural element comprising a plurality of instances of two or more types of components, wherein the Volumetric scanning data is represented by a plurality of voxels; Assigning the plurality of voxels to one of the two or more different types of components; Identifying , for each type of component, the voxels that are part of a surface of an instance of the component; Extracting the surfaces of the instances of the components using the voxels that are part of the surface of the respective type of component; and Determining information on a structural integrity of the structural element based on the extracted surfaces, wherein the method further comprises determining an orientation of the surfaces of the instances of the components, and classifying the surfaces of the instances of the components based on the orientation of the respective surfaces, wherein the information on the structural integrity is determined based on the classification of the respective surfaces, characterized in that the orientation of the surfaces of the instances of the components is determined based on determining the normal for every voxel by fitting a local plane for each surface voxel, and determining the sign of the normal based on the mean position of a bulk of the respective instances of the components.
Cabergoline for use in the treatment of eye diseases caused by an elevated level of vascular endothelial growth factor, wherein the eye disease is selected from diabetic macular edema, diabetic retinopathy, age-related macular degeneration, retinal artery occlusion, retinal vein occlusion, and choroidal neovascularization.
An apparatus comprising: an inductor comprising: a first bar of magnetic material; a frame configured to support the first bar of magnetic material; and at least one coil wrapped around the frame such that the frame separates an inner side of the at least one coil from the bar of magnetic material to provide a coolant passage between the at least one coil and the first bar of magnetic material, wherein the coolant passage is configured to allow coolant to enter the coolant passage proximate a first end of the coil and exit proximate a second end of the coil and wherein the coolant passage exposes an inner side of the coil and an outer side of the first bar to the coolant; and at least one retainer integral with or attached to the frame and defining at least one retaining volume on an outer side of the at least one coil ; and at least one second bar of magnetic material retained in the at least one retaining volume and positioned parallel to the first bar of magnetic material. an inductor comprising: a first bar of magnetic material; a frame configured to support the first bar of magnetic material; and a first bar of magnetic material; a frame configured to support the first bar of magnetic material; and at least one coil wrapped around the frame such that the frame separates an inner side of the at least one coil from the bar of magnetic material to provide a coolant passage between the at least one coil and the first bar of magnetic material, wherein the coolant passage is configured to allow coolant to enter the coolant passage proximate a first end of the coil and exit proximate a second end of the coil and wherein the coolant passage exposes an inner side of the coil and an outer side of the first bar to the coolant; and at least one retainer integral with or attached to the frame and defining at least one retaining volume on an outer side of the at least one coil ; and at least one second bar of magnetic material retained in the at least one retaining volume and positioned parallel to the first bar of magnetic material.
A mooring apparatus comprising two dock-finger units fixed to a dock and floating on the water, wherein each dock-finger unit is provided with an automatic locking mechanism for catching and securing a watercraft during mooring and parking, wherein each automatic locking mechanism comprises - an arm pivotably coupled to a respective dock-finger unit , - a spring for turning the arm towards a hull of the watercraft ; - a remotely controlled motor arranged on the dock-finger unit for rotating the arm away from the hull of the watercraft , and - a fixing unit pivotably mounted to one end of said arm with a horizontal axis (B) of rotation, wherein the fixing unit has a vertical standby position and comprises a fixing rod secured between a head element and a bottom element , said fixing rod being configured to be locked in a catching unit of a watercraft . - an arm pivotably coupled to a respective dock-finger unit , - a spring for turning the arm towards a hull of the watercraft ; - a remotely controlled motor arranged on the dock-finger unit for rotating the arm away from the hull of the watercraft , and - a fixing unit pivotably mounted to one end of said arm with a horizontal axis (B) of rotation,
A self-emptying separator , which comprises a rotatable drum having a vertical axis of rotation and having a feed , having at least one liquid drain having outlet openings for solid (F), and a controller , in which a free-flowing starting product (AP) is clarified of the solids (F) in continuous operation in a centrifugal field in the rotating drum , wherein at least one clarified liquid phase - a clear phase (KP) - is let out continuously and wherein a solid phase (F) is let out - called solid emptying - of a solid collection chamber of the drum into a ring-shaped solid collector discontinuously using the outlet openings , so that the separator is a separator which discontinuously empties the solid (F), characterized in that the solid collector comprises a device for producing a fluid curtain , on which the solids (F) exiting from the outlet openings for solid (F) impact, wherein the device for producing a fluid curtain comprises openings, wherein the openings are distributed on an upper wall of the solid collector or on an adjoining component such as a hood and their exit ends are axially oriented essentially downward, wherein the openings are nozzles and wherein the nozzles are distributed on the circumference of the solid collector .
A method for calculating session initiation protocol, SIP, key performance indicators, KPIs, for multimedia communication in a network comprising: accessing network packets or packet summaries monitored over time; detecting a SIP response message (214; 224; 234; 244) of the monitored network packets or packet summaries, the SIP response message (212; 222; 232; 242) having an associated observed time at which an associated packet was observed during monitoring; accounting for the detected SIP response message (212; 222; 232; 242) in a time window ([t0, t1]; [t1, t2]; [t2, t3]) of a series of consecutive time windows that includes the SIP response message's associated observed time, each time window beginning at a first time (t0; t1; t2) and ending at a second time (t1; t2; t3), the SIP response message having an expected SIP request message (212; 222; 232; 242) based on a SIP protocol; pairing the expected SIP request message (212; 222; 232; 242) with the detected SIP response message (214; 224; 234; 244); accounting for the paired SIP request message (212; 222; 232; 242) in the time window with which the detected SIP response message is accounted; and calculating a KPI for the time window using the detected SIP response message (214; 224; 234; 244) and its paired SIP request message (212; 222; 232; 242) that are accounted for in the time window. accessing network packets or packet summaries monitored over time; detecting a SIP response message (214; 224; 234; 244) of the monitored network packets or packet summaries, the SIP response message (212; 222; 232; 242) having an associated observed time at which an associated packet was observed during monitoring; accounting for the detected SIP response message (212; 222; 232; 242) in a time window ([t0, t1]; [t1, t2]; [t2, t3]) of a series of consecutive time windows that includes the SIP response message's associated observed time, each time window beginning at a first time (t0; t1; t2) and ending at a second time (t1; t2; t3), the SIP response message having an expected SIP request message (212; 222; 232; 242) based on a SIP protocol; pairing the expected SIP request message (212; 222; 232; 242) with the detected SIP response message (214; 224; 234; 244); accounting for the paired SIP request message (212; 222; 232; 242) in the time window with which the detected SIP response message is accounted; and calculating a KPI for the time window using the detected SIP response message (214; 224; 234; 244) and its paired SIP request message (212; 222; 232; 242) that are accounted for in the time window.
Gas burner for a gas cooktop , comprising a burner lower part , which is configured to be arranged below a cooktop plate of the gas cooktop , a burner upper part , which is configured to be arranged above the cooktop plate and is connected to the burner lower part , and a thermocouple and/or an igniting element, which is simultaneously received in a receiving section of the burner lower part and a receiving section of the burner upper part , wherein the gas burner has a sealing device which can be arranged between the cooktop plate and the burner lower part , wherein the receiving section of the burner upper part has a deformation section , which is configured to deform the sealing device in a resilient manner when the burner lower part is connected to the burner upper part , wherein a fastening section of the thermocouple and/or of the igniting element is arranged between the burner lower part and the burner upper part , and wherein the deformation section is configured to fix the thermocouple and/or the igniting element between the receiving section of the burner lower part and the receiving section of the burner upper part .
An in vitro blood testing method using a staining patch, which includes a gel type mesh structural body forming micro- or nano-sized cavities and contains a staining reagent for staining staining targets present in blood in the cavities, to perform a blood test through staining of the staining target, the blood testing method comprising: placing blood in a reaction region; and providing the staining reagent to the reaction region using the staining patch containing the staining reagent, wherein the providing the staining reagent to the reaction region using the staining patch includes: contacting the staining patch with the reaction region in which the blood is placed to deliver a portion of the contained staining reagent to the reaction region; and separating the staining patch from the reaction region to absorb a portion of the delivered staining reagent that has not reacted with the staining target into the patch by moving the water film formed on the contact surface between the patch and the reaction region along with the patch. placing blood in a reaction region; and providing the staining reagent to the reaction region using the staining patch containing the staining reagent, wherein the providing the staining reagent to the reaction region using the staining patch includes: contacting the staining patch with the reaction region in which the blood is placed to deliver a portion of the contained staining reagent to the reaction region; and separating the staining patch from the reaction region to absorb a portion of the delivered staining reagent that has not reacted with the staining target into the patch by moving the water film formed on the contact surface between the patch and the reaction region along with the patch. contacting the staining patch with the reaction region in which the blood is placed to deliver a portion of the contained staining reagent to the reaction region; and separating the staining patch from the reaction region to absorb a portion of the delivered staining reagent that has not reacted with the staining target into the patch by moving the water film formed on the contact surface between the patch and the reaction region along with the patch.
A crystal of the hydrochloride salt of 7-{ -3-[(cyclopropylamino)methyl]-4-fluoropyrrolidine-1-yl}-6-fluoro-1-(2-fluoroethyl)-8-methoxy-4-oxo-1,4-dihydroquinoline-3-carboxylic acid.
A heating element composed of at least two molybdenum disilicide-based parts wherein at least one of the molybdenum disilicide-based parts is based on a molybdenum disilicide-based composition having more than or equal to 90 weight% of (Mo 1-x Cr x )Si 2 where x is of from 0.05 to 0.25; and wherein at least one of molybdenum disilicide-based parts is based on a molybdenum disilicide-based composition comprising more than or equal to 90 weight% Mo(Si,Al) 2 . wherein at least one of the molybdenum disilicide-based parts is based on a molybdenum disilicide-based composition having more than or equal to 90 weight% of (Mo 1-x Cr x )Si 2 where x is of from 0.05 to 0.25; and wherein at least one of molybdenum disilicide-based parts is based on a molybdenum disilicide-based composition comprising more than or equal to 90 weight% Mo(Si,Al) 2 .
A crash test dummy comprising: a lumbar mounting bracket defining a central axis (CA), a lumbar spine member attached to said lumbar mounting bracket with said lumbar spine member formed from an elastomeric material, and a pair of lumbar clamping plates coupled on opposing sides of said lumbar spine member relative to said central axis (CA), characterized by a belt system mounted to both of said pair of lower lumbar clamping plates for limiting a stretching movement of said lumbar spine member relative to said central axis (CA) and relative to said lumbar mounting bracket during a crash simulation. a lumbar mounting bracket defining a central axis (CA), a lumbar spine member attached to said lumbar mounting bracket with said lumbar spine member formed from an elastomeric material, and a pair of lumbar clamping plates coupled on opposing sides of said lumbar spine member relative to said central axis (CA), characterized by a belt system mounted to both of said pair of lower lumbar clamping plates for limiting a stretching movement of said lumbar spine member relative to said central axis (CA) and relative to said lumbar mounting bracket during a crash simulation.
An arrangement for a steam boiler system comprising a furnace , a following flue gas channel , a number of superheaters , a number of economizers and at least one air preheater located in the flue gas channel downstream of the economizers , a fabric filter baghouse located in the flue gas channel downstream of the air preheater , and located downstream of the fabric filter baghouse a selective catalytic reduction (SCR) system comprising an SCR reactor , a high pressure steam coil heater upstream of the SCR reactor and a gas-gas heat exchanger connected upstream and downstream of the SCR reactor to transfer heat from flue gas after the SCR reactor to the flue gas upstream of the high pressure steam coil heater , at least one heat exchanger located in the flue gas channel after the SCR system , the heat exchanger being configured to transfer heat, when in use, from the flue gas downstream of the SCR system to a fluid medium in a fluid circuit ; wherein the fluid circuit comprises at least one pump configured to lead the fluid medium to preliminary air heaters configured to heat inlet air before entering to the flue gas air preheater .
A method comprising: determining a resonant frequency of a vehicle system operably coupled with an external power source, the external power source configured to provide voltage and current to the vehicle system; forming a stabilizing voltage component from the voltage and a stabilizing current component from the current using plural filters, a first filter of the plural filters configured to extract one or more of a phase or a frequency component from the voltage provided by the external power source to generate the stabilizing voltage component, a second filter of the plural filters configured to extract one or more of a phase or a frequency component from the current provided by the external power source to generate the stabilizing current component, wherein the stabilizing voltage component is out of phase with the stabilizing current component; determining a control input of a converter device of the vehicle system based on the stabilizing voltage component, the stabilizing current component, and the resonant frequency; and communicating the stabilizing voltage component, the stabilizing current component, and the control input with the converter device, the stabilizing voltage component, the stabilizing current component, and the control input configured to change the resonant frequency of the vehicle system. determining a resonant frequency of a vehicle system operably coupled with an external power source, the external power source configured to provide voltage and current to the vehicle system; forming a stabilizing voltage component from the voltage and a stabilizing current component from the current using plural filters, a first filter of the plural filters configured to extract one or more of a phase or a frequency component from the voltage provided by the external power source to generate the stabilizing voltage component, a second filter of the plural filters configured to extract one or more of a phase or a frequency component from the current provided by the external power source to generate the stabilizing current component, wherein the stabilizing voltage component is out of phase with the stabilizing current component; determining a control input of a converter device of the vehicle system based on the stabilizing voltage component, the stabilizing current component, and the resonant frequency; and communicating the stabilizing voltage component, the stabilizing current component, and the control input with the converter device, the stabilizing voltage component, the stabilizing current component, and the control input configured to change the resonant frequency of the vehicle system.