mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic surgical system comprising: a linkage moveably supporting a surgical tool relative to a base ; an input handle moveable in a plurality of directions; and a processing unit in communication with the input handle and operatively associated with the linkage to move the surgical tool based on a scaled movement of the input handle, the scaling varying depending on whether the input handle is moved towards a center (C) of a workspace (W) or away from the center of the workspace, the workspace representing a movement range of the input handle, wherein said processing unit is configured to scale a first movement of the input handle towards the center of the workspace by a first scaling factor (SF 1 ) and scale a second movement of the input handle away from the center of the workspace by a second scaling factor (SF 2 ) different from the first scaling factor, the workspace including a first section (S 1 ) located a predetermined distance from the center of the workspace, and wherein the first and second scaling factors are constant when the input handle is in the first section and at least one of the first or second scaling factors varies when the input handle is outside the first section based on a distance of the input handle from the center of the workspace. a linkage moveably supporting a surgical tool relative to a base ; an input handle moveable in a plurality of directions; and a processing unit in communication with the input handle and operatively associated with the linkage to move the surgical tool based on a scaled movement of the input handle, the scaling varying depending on whether the input handle is moved towards a center (C) of a workspace (W) or away from the center of the workspace, the workspace representing a movement range of the input handle, wherein said processing unit is configured to scale a first movement of the input handle towards the center of the workspace by a first scaling factor (SF 1 ) and scale a second movement of the input handle away from the center of the workspace by a second scaling factor (SF 2 ) different from the first scaling factor, the workspace including a first section (S 1 ) located a predetermined distance from the center of the workspace, and wherein the first and second scaling factors are constant when the input handle is in the first section and at least one of the first or second scaling factors varies when the input handle is outside the first section based on a distance of the input handle from the center of the workspace.
An anti-fracture expansion device , comprising: a cap having external threads configured to mate with threads formed within a bore in a sealed fluid-filled housing with a fluid-filled chamber ; a cuff disposed within the cap and freely rotatable relative to the cap ; a piston having a proximal end slidably disposed within the cuff and the piston extending until distally from the cuff , the piston being configured such that, when the cap is threadably mated to a bore in the sealed fluid-filled housing, the piston slides relative to the cuff and cap when a pressure within the fluid-filled housing increases to thereby expand a volume of the fluid-filled chamber. a cap having external threads configured to mate with threads formed within a bore in a sealed fluid-filled housing with a fluid-filled chamber ; a cuff disposed within the cap and freely rotatable relative to the cap ; a piston having a proximal end slidably disposed within the cuff and the piston extending until distally from the cuff , the piston being configured such that, when the cap is threadably mated to a bore in the sealed fluid-filled housing, the piston slides relative to the cuff and cap when a pressure within the fluid-filled housing increases to thereby expand a volume of the fluid-filled chamber.
Device for detecting a break and/or an anomaly in a connection between a charging terminal and an electric vehicle, the connection comprising at least a control link (CP), an earthing link and power supply pins, the control link making it possible to signal a post-insertion, the detection device comprising: - a microcontroller (CPU) configured to measure the voltage on the control link and to control the closing or opening of a first switch (SW1) in order to authorize or not authorize the supply of electrical energy by the power supply pins, characterized in that the detection device comprises: - an electronic circuit (CMP1, CMP2, INT, NOR) which is distinct from the microcontroller, for measuring the voltage on the control link and to control the closing or opening of a second switch (SW2) in order to authorize or not authorize the supply of electrical energy by the power supply pins, said first switch and second switch being connected in series. - a microcontroller (CPU) configured to measure the voltage on the control link and to control the closing or opening of a first switch (SW1) in order to authorize or not authorize the supply of electrical energy by the power supply pins, characterized in that the detection device comprises: - an electronic circuit (CMP1, CMP2, INT, NOR) which is distinct from the microcontroller, for measuring the voltage on the control link and to control the closing or opening of a second switch (SW2) in order to authorize or not authorize the supply of electrical energy by the power supply pins, said first switch and second switch being connected in series.
A process for producing a triglyceride oil having a fatty acid profile of less than 7% C18:2 from a microbe, the process comprising: (i) cultivating a recombinant oleaginous microalgal cell, of the genus Prototheca , comprising exogenous genes in a culture medium until at least 10% of the dry cell weight is triglyceride oil; and (ii) isolating the oil from the cell, wherein an endogenous delta 12 fatty acid desaturase of the oleaginous microalgal cell has been inactivated or mutated to have less enzymatic activity. (i) cultivating a recombinant oleaginous microalgal cell, of the genus Prototheca , comprising exogenous genes in a culture medium until at least 10% of the dry cell weight is triglyceride oil; and (ii) isolating the oil from the cell,
A method implemented in a wireless device (WW100), comprising: - transmitting (VV102) a transport message to a 3GPP Access and Mobility Function, AMF (WW200), wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF (WW200) to a 3GPP Session Management Function, SMF; and - receiving (VV104) a status message transmitted by the AMF (WW200), wherein the status message comprises at least a portion of the transport message and an indication of non-delivery of the session management, SM, message, wherein the portion of the transport message comprises the session management, SM, message, and wherein the indication of non-delivery is an indication of non-delivery of the session management, SM, message by the AMF (WW200) to the SMF. - transmitting (VV102) a transport message to a 3GPP Access and Mobility Function, AMF (WW200), wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF (WW200) to a 3GPP Session Management Function, SMF; and - receiving (VV104) a status message transmitted by the AMF (WW200), wherein the status message comprises at least a portion of the transport message and an indication of non-delivery of the session management, SM, message,
A grain oriented electrical steel sheet having a plurality of beam-irradiated regions formed by performing laser irradiation or electron beam irradiation onto a steel sheet surface in a widthwise direction of the steel sheet to introduce continued strain in a linear shape or in a dot sequence shape at an angle of not more than 30° with respect to the widthwise direction thereinto, characterized in that a nature of a juncture between adjacent beam-irradiated regions in the widthwise direction of the steel sheet satisfies the following equations and : 0 ≤ α ≤ 0.3 × a − 1.2 × a + 0.02 × w − 0.5 × α − 6.5 ≤ β ≤ − 0.13 × a − 200 × 1 / w + 5.4 wherein α: rolling direction (RD) spacing, mm, at a juncture between beam-irradiated regions, β: widthwise direction (TD) spacing, mm, at a juncture between beam-irradiated regions, a: beam spacing, mm, and w: average width of magnetic domain discontinuous part, μm. wherein α: rolling direction (RD) spacing, mm, at a juncture between beam-irradiated regions, β: widthwise direction (TD) spacing, mm, at a juncture between beam-irradiated regions, a: beam spacing, mm, and w: average width of magnetic domain discontinuous part, μm.
Process for producing tyres for vehicle wheels, comprising building a crown structure of the tyre , wherein building said crown structure comprises: - building a crossed belt structure on a substantially cylindrical first forming drum ; - transferring said crossed belt structure from said first forming drum to an annular holding member ; - arranging a radially contractable/expandable second forming drum in a radially inner position with respect to said annular holding member ; - transferring said crossed belt structure from said annular holding member to said second forming drum by radially expanding said second forming drum until it is brought into an expanded condition in which it is in contact with said crossed belt structure so as to toroidally shape said crossed belt structure ; - depositing at least one zero degrees belt layer on said second forming drum in a radially outer position with respect to said toroidally-shaped crossed belt structure . - building a crossed belt structure on a substantially cylindrical first forming drum ; - transferring said crossed belt structure from said first forming drum to an annular holding member ; - arranging a radially contractable/expandable second forming drum in a radially inner position with respect to said annular holding member ; - transferring said crossed belt structure from said annular holding member to said second forming drum by radially expanding said second forming drum until it is brought into an expanded condition in which it is in contact with said crossed belt structure so as to toroidally shape said crossed belt structure ; - depositing at least one zero degrees belt layer on said second forming drum in a radially outer position with respect to said toroidally-shaped crossed belt structure .
A suction muffler comprising: a housing assembly defining a cavity and comprising a suction port and a discharge port ; at least one partition plate provided in the cavity and configured to divide the cavity into at least two muffler cavities, the at least two muffler cavities comprising a first muffler cavity and a second muffler cavity , the at least one partition plate defining a penetrating hole to communicate the first muffler cavity with the second muffler cavity , the suction port corresponding to the first muffler cavity ; and a first tube having at least a portion provided in the first muffler cavity , one end of the first tube being in communication with the suction port , the other end of the first tube passing through the at least one partition plate and being in communication with the second muffler cavity ; wherein the discharge port is in communication with the first muffler cavity and the suction port is located below the discharge port , characterised in that in an up-down arrangement direction of the discharge port and the suction port , an end portion of the first tube coupled to the suction port is above an end portion of the first tube in communication with the second muffler cavity . a housing assembly defining a cavity and comprising a suction port and a discharge port ; at least one partition plate provided in the cavity and configured to divide the cavity into at least two muffler cavities, the at least two muffler cavities comprising a first muffler cavity and a second muffler cavity , the at least one partition plate defining a penetrating hole to communicate the first muffler cavity with the second muffler cavity , the suction port corresponding to the first muffler cavity ; and a first tube having at least a portion provided in the first muffler cavity , one end of the first tube being in communication with the suction port , the other end of the first tube passing through the at least one partition plate and being in communication with the second muffler cavity ; wherein the discharge port is in communication with the first muffler cavity and the suction port is located below the discharge port , characterised in that in an up-down arrangement direction of the discharge port and the suction port , an end portion of the first tube coupled to the suction port is above an end portion of the first tube in communication with the second muffler cavity .
A filter cassette comprising - an at least partly gas-permeable first face , - an at least partly gas-permeable second face disposed opposite to the first face , - a circumferential edge wall which, together with the first face and the second face , encloses an interior of the filter cassette , - wherein the interior of the filter cassette is filled with a particulate filter material, - a plurality of partition walls respectively extending from the first face to the second face within the interior of the filter cassette and dividing the interior into a plurality of compartments , characterised in that , - in addition to the partition walls , one or more dividing webs are formed in the interior of the filter cassette , - wherein, at each dividing web , at least one gap is formed between the dividing web and one or both faces , respectively, and - wherein the filter material extends through the respectively at least one gap . - an at least partly gas-permeable first face , - an at least partly gas-permeable second face disposed opposite to the first face , - a circumferential edge wall which, together with the first face and the second face , encloses an interior of the filter cassette , - wherein the interior of the filter cassette is filled with a particulate filter material, - a plurality of partition walls respectively extending from the first face to the second face within the interior of the filter cassette and dividing the interior into a plurality of compartments , - in addition to the partition walls , one or more dividing webs are formed in the interior of the filter cassette , - wherein, at each dividing web , at least one gap is formed between the dividing web and one or both faces , respectively, and - wherein the filter material extends through the respectively at least one gap .
A treatment device comprising: a unit comprising a single ultrasound imaging element and an ablation electrode; means for receiving signals from the single ultrasound imaging element, which exploits a standard level of electronics, the signals representing plural frames of ultrasound data at a frame rate in the range of 300 to 5000 frames per second; and means for processing the signal to provide, in use, at least one of ultrasound data and data indicating mechanical strains within tissue being monitored by the single ultrasound imaging element, said strains being generated by movement of the tissue or the body being treated, the movement being generated naturally by the tissue or by the device operator's motion or both. a unit comprising a single ultrasound imaging element and an ablation electrode; means for receiving signals from the single ultrasound imaging element, which exploits a standard level of electronics, the signals representing plural frames of ultrasound data at a frame rate in the range of 300 to 5000 frames per second; and means for processing the signal to provide, in use, at least one of ultrasound data and data indicating mechanical strains within tissue being monitored by the single ultrasound imaging element, said strains being generated by movement of the tissue or the body being treated, the movement being generated naturally by the tissue or by the device operator's motion or both.
A transmission system , comprising: a first bevel gear ; a second bevel gear meshed with the first bevel gear , and including a plurality of gear teeth arranged in a circumferential array; and a baffle including a baffle wall and a baffle outlet , the baffle wall arranged next to and covering a subset of the gear teeth , and the baffle outlet forming a lubricant outlet passage that extends through the baffle wall , characterized in that the interior portion of the baffle wall is configured to plug an inner bore formed by a peripheral portion of the baffle wall . a first bevel gear ; a second bevel gear meshed with the first bevel gear , and including a plurality of gear teeth arranged in a circumferential array; and a baffle including a baffle wall and a baffle outlet , the baffle wall arranged next to and covering a subset of the gear teeth , and the baffle outlet forming a lubricant outlet passage that extends through the baffle wall , characterized in that the interior portion of the baffle wall is configured to plug an inner bore formed by a peripheral portion of the baffle wall .
A poly(meth)acrylimide film for use in a forgery prevention label, wherein the poly(meth)acrylimide film comprises: from 30.0 wt.-% to 98.0 wt.-% of a poly(meth)acrylimide; from 2.0 wt.-% to 50.0 wt.-% of one or several impact modifiers; from 0.0 wt.-% to 30.0 wt.-% of a polyalkyl(meth)acrylate; from 0.0 wt.-% to 40.0 wt.-% of one or several inorganic fillers; from 0.0 wt.-% to 5.0 wt.-% of one or several UV-absorbers; and from 0.0 wt.-% to 5.0 wt.-% of one or several UV-stabilizers, based on the weight of the poly(meth)acrylimide film; wherein the poly(meth)acrylimide comprises at least 50 wt.-%, preferably at least 60 wt.-%, most preferably at least 70 wt.-%, based on the weight of the poly(meth)acrylimide, of repeating units of Formula (I) in which R 1 and R 2 are independently selected from hydrogen and a methyl group, R 1 and R 2 being preferably represented by a methyl group, and R 3 is hydrogen or a C 1 -C 4 -alkyl group, preferably a methyl group; and the cumulative content of the poly(meth)acrylimide, polyalkyl(meth)acrylate and the impact modifier is from 60.0 wt.-% to 100.0 wt.-% based on the weight of the poly(meth)acrylimide film. from 30.0 wt.-% to 98.0 wt.-% of a poly(meth)acrylimide; from 2.0 wt.-% to 50.0 wt.-% of one or several impact modifiers; from 0.0 wt.-% to 30.0 wt.-% of a polyalkyl(meth)acrylate; from 0.0 wt.-% to 40.0 wt.-% of one or several inorganic fillers; from 0.0 wt.-% to 5.0 wt.-% of one or several UV-absorbers; and from 0.0 wt.-% to 5.0 wt.-% of one or several UV-stabilizers, based on the weight of the poly(meth)acrylimide film; wherein the poly(meth)acrylimide comprises at least 50 wt.-%, preferably at least 60 wt.-%, most preferably at least 70 wt.-%, based on the weight of the poly(meth)acrylimide, of repeating units of Formula (I) in which R 1 and R 2 are independently selected from hydrogen and a methyl group, R 1 and R 2 being preferably represented by a methyl group, and R 3 is hydrogen or a C 1 -C 4 -alkyl group, preferably a methyl group; and the cumulative content of the poly(meth)acrylimide, polyalkyl(meth)acrylate and the impact modifier is from 60.0 wt.-% to 100.0 wt.-% based on the weight of the poly(meth)acrylimide film.
An orthopaedic device comprising: an inductive electromagnetic sensor comprising a non-cylindrical mounting platform comprising a printed circuit board comprising a polyamide polymer and at least two sensor coils, the at least two sensor coils being connected to the printed circuit board in a co-planar fashion, the sensor coils being oriented at an angle with respect to each other, the sensor coils not overlying each other, wherein each of the at least two sensor coils extends through the surface of the printed circuit board, each of the at least two sensor coils having a portion embedded in the printed circuit board and a portion that extends out of the printed circuit board, wherein the platform has a height and a width, a ratio of the width to the height being greater than 1.5:1, the height ranging from 0.2 mm to 1 mm and further wherein the width of the platform is less than 3 mm. an inductive electromagnetic sensor comprising a non-cylindrical mounting platform comprising a printed circuit board comprising a polyamide polymer and at least two sensor coils, the at least two sensor coils being connected to the printed circuit board in a co-planar fashion, the sensor coils being oriented at an angle with respect to each other, the sensor coils not overlying each other, wherein each of the at least two sensor coils extends through the surface of the printed circuit board, each of the at least two sensor coils having a portion embedded in the printed circuit board and a portion that extends out of the printed circuit board, wherein the platform has a height and a width, a ratio of the width to the height being greater than 1.5:1, the height ranging from 0.2 mm to 1 mm and further wherein the width of the platform is less than 3 mm.
Computer-implemented method for automatically estimating and/or correcting an error due to artifacts in a multi-energy computed tomography result dataset relating to at least one target material, wherein at least two three-dimensional energy datasets of an imaging region of a patient are acquired (S1) using an computed tomography device using different x-ray energy spectra, and the result dataset is determined by evaluating the energy datasets using material-specific energy dependences of x-ray attenuation, wherein the following steps are performed for estimation of the error due to artifacts: - determining (S2) at least one first subregion of the imaging region, which is free from the target material and contains at least one, in particular exactly one, second material with known material-specific energy dependence of x-ray attenuation, characterized by - for each first subregion , comparing (S3) the image values of the energy datasets for each voxel, taking into account the known energy dependence, to determine deviation values indicative of artifacts, said deviation values being determined by comparison of energy values, that is, image values of the energy datasets, - for at least a part of the at least one remaining second subregion of the imaging region, calculating estimated deviation values by interpolating and/or extrapolating (S4) from the determined deviation values in the first subregion , wherein the estimated deviation values are used as estimated error due to artifacts, said second subregion covering all remaining parts of the imaging region. - determining (S2) at least one first subregion of the imaging region, which is free from the target material and contains at least one, in particular exactly one, second material with known material-specific energy dependence of x-ray attenuation, characterized by - for each first subregion , comparing (S3) the image values of the energy datasets for each voxel, taking into account the known energy dependence, to determine deviation values indicative of artifacts, said deviation values being determined by comparison of energy values, that is, image values of the energy datasets, - for at least a part of the at least one remaining second subregion of the imaging region, calculating estimated deviation values by interpolating and/or extrapolating (S4) from the determined deviation values in the first subregion , wherein the estimated deviation values are used as estimated error due to artifacts, said second subregion covering all remaining parts of the imaging region.