mhurhangee/patent-ind-claim-en huggingface dataset:
A 3-dimensional printed load cell part, comprising: a part body formed of fused thermoplastic polymer particles; and a plurality of strain sensors separately formed of a matrix of conductive particles interlocked with a matrix of fused thermoplastic polymer particles , the plurality of strain sensors each having a first electrical contact at a first end and a second electrical contact at a second end, wherein the particles of the plurality of strain sensors are continuously fused to the particles of the part body. a part body formed of fused thermoplastic polymer particles; and a plurality of strain sensors separately formed of a matrix of conductive particles interlocked with a matrix of fused thermoplastic polymer particles , the plurality of strain sensors each having a first electrical contact at a first end and a second electrical contact at a second end, wherein the particles of the plurality of strain sensors are continuously fused to the particles of the part body.
Transmucosal therapeutic system for the transmucosal administration of agomelatine comprising a mucoadhesive layer structure, said mucoadhesive layer structure comprising A) a backing layer; and B) an agomelatine-containing layer comprising i) agomelatine; and ii) a first dissolvable film-forming agent wherein the transmucosal therapeutic system is in the form of a film, the first dissolvable film-forming agent is a hydroxypropyl cellulose, or a mixture of polymers selected from hydroxypropyl celluloses and ethyl cellulose, and the backing layer comprises a second dissolvable film-forming agent which is a mixture of hydroxyethyl cellulose and hydroxypropyl cellulose. A) a backing layer; and B) an agomelatine-containing layer comprising i) agomelatine; and ii) a first dissolvable film-forming agent i) agomelatine; and ii) a first dissolvable film-forming agent the transmucosal therapeutic system is in the form of a film, the first dissolvable film-forming agent is a hydroxypropyl cellulose, or a mixture of polymers selected from hydroxypropyl celluloses and ethyl cellulose, and the backing layer comprises a second dissolvable film-forming agent which is a mixture of hydroxyethyl cellulose and hydroxypropyl cellulose.
A mount for a panel , said mount comprising: a body including two adjustable actuators , each of said adjustable actuators having a substantially horizontal axis, said two adjustable actuators being spaced apart vertically on a first side of the body so that the two adjustable actuators are adjustable from the same side of the panel , the two adjustable actuators being located opposite a curved inner wall portion of a second side of the body spaced apart from the first side, the curved inner wall portion being located on the second side of the body vertically between the horizontal axes of the two adjustable actuators ; and at least one clamping member configured to clamp an edge region of the panel , the at least one clamping member including an outer wall portion configured to cooperate with said curved inner wall portion of the second side of the body by contacting the curved inner wall portion vertically between the horizontal axes of the two adjustable actuators to provide for pivoting of the panel with respect to the body on differential actuation of the two adjustable actuators . a body including two adjustable actuators , each of said adjustable actuators having a substantially horizontal axis, said two adjustable actuators being spaced apart vertically on a first side of the body so that the two adjustable actuators are adjustable from the same side of the panel , the two adjustable actuators being located opposite a curved inner wall portion of a second side of the body spaced apart from the first side, the curved inner wall portion being located on the second side of the body vertically between the horizontal axes of the two adjustable actuators ; and at least one clamping member configured to clamp an edge region of the panel , the at least one clamping member including an outer wall portion configured to cooperate with said curved inner wall portion of the second side of the body by contacting the curved inner wall portion vertically between the horizontal axes of the two adjustable actuators to provide for pivoting of the panel with respect to the body on differential actuation of the two adjustable actuators .
A manufacturing method for a seawater-resistant stainless clad steel comprising: a cladding material made of stainless steel having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, and the remainder being Fe and incidental impurities, and having a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, the method comprising the steps of: performing a mechanical treatment from at least one of grindstone polishing and belt polishing and performing an electrolytic treatment in acid solutions or in neutral salt solutions, and/or pickling treatment in addition to the mechanical treatment to manufacture the stainless clad steel having dynamic friction coefficients in the rolling direction and in a direction at a right angle to the rolling direction determined in accordance with JIS K 7125 both 0.05 or less. a cladding material made of stainless steel having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, and the remainder being Fe and incidental impurities, and having a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, the method comprising the steps of: performing a mechanical treatment from at least one of grindstone polishing and belt polishing and performing an electrolytic treatment in acid solutions or in neutral salt solutions, and/or pickling treatment in addition to the mechanical treatment to manufacture the stainless clad steel having dynamic friction coefficients in the rolling direction and in a direction at a right angle to the rolling direction determined in accordance with JIS K 7125 both 0.05 or less.
A hybrid vehicle comprising: an internal combustion engine (E); an electric motor (M); a controller that controls the electric motor (E); a transmission comprising an input shaft that receives power inputted from the internal combustion engine (E) and the electric motor (M) and an output shaft that outputs power to a drive wheel ; a clutch disposed in a first power transmission route (R1) between the internal combustion engine (E) and the input shaft , a clutch operation member operated by a driver and movable between an operative position and an inoperative position; and a biasing member that biases the clutch operation member from the operative position toward the inoperative position; wherein the electric motor (M) is connected to the input shaft so as to transmit power to the input shaft through a second power transmission route (R2) different from the first power transmission route (P1), and the controller changes the manner of controlling the electric motor (M) upon switching of the state of power transmission from the internal combustion engine (E) and the electric motor (M), characterized in that the hybrid vehicle further comprises a holding mechanism configured to hold the clutch operation member in the operative position. an internal combustion engine (E); an electric motor (M); a controller that controls the electric motor (E); a transmission comprising an input shaft that receives power inputted from the internal combustion engine (E) and the electric motor (M) and an output shaft that outputs power to a drive wheel ; a clutch disposed in a first power transmission route (R1) between the internal combustion engine (E) and the input shaft , a clutch operation member operated by a driver and movable between an operative position and an inoperative position; and a biasing member that biases the clutch operation member from the operative position toward the inoperative position; wherein the electric motor (M) is connected to the input shaft so as to transmit power to the input shaft through a second power transmission route (R2) different from the first power transmission route (P1), and the controller changes the manner of controlling the electric motor (M) upon switching of the state of power transmission from the internal combustion engine (E) and the electric motor (M), characterized in that the hybrid vehicle further comprises a holding mechanism configured to hold the clutch operation member in the operative position.
A method comprising: - receiving, by a controller , a first data associated with a parameter monitored by a first sensing device , the first sensing device associated with the controller ; - determining validity of the first data by a validation unit; - if the first data is invalid: receiving a second data associated with the parameter from a second sensing device by the controller through a short-range communication; characterized by : if connectivity with the second sensing device is not available: connecting the controller with a server to receive a third data associated with the parameter from the server through a long-range communication, wherein the server receives the second data from the second sensing device and stores the second data as the third data; and by validating respectively the second data or the third data associated with the parameter. - receiving, by a controller , a first data associated with a parameter monitored by a first sensing device , the first sensing device associated with the controller ; - determining validity of the first data by a validation unit; - if the first data is invalid: receiving a second data associated with the parameter from a second sensing device by the controller through a short-range communication; characterized by : if connectivity with the second sensing device is not available: connecting the controller with a server to receive a third data associated with the parameter from the server through a long-range communication, wherein the server receives the second data from the second sensing device and stores the second data as the third data; and by validating respectively the second data or the third data associated with the parameter. receiving a second data associated with the parameter from a second sensing device by the controller through a short-range communication; characterized by : if connectivity with the second sensing device is not available: connecting the controller with a server to receive a third data associated with the parameter from the server through a long-range communication, wherein the server receives the second data from the second sensing device and stores the second data as the third data; and by validating respectively the second data or the third data associated with the parameter. if connectivity with the second sensing device is not available: connecting the controller with a server to receive a third data associated with the parameter from the server through a long-range communication, wherein the server receives the second data from the second sensing device and stores the second data as the third data; and by validating respectively the second data or the third data associated with the parameter.
An electronic throttle, comprising: a throttle housing and, located inside the throttle housing : an electric machine ; a torque transfer means meshed with a gear on an output shaft of the electric machine ; a throttle shaft connected in a fixed manner to the torque transfer means , the throttle shaft passing through a throttle throat, and being supported by being inserted into a first mounting hole and a second mounting hole in the throttle housing , wherein the first mounting hole and the second mounting hole are located in the throttle housing on two sides of the throttle throat respectively, the second mounting hole being located on that side which is closer to the torque transfer means ; a butterfly valve which is mounted on the throttle shaft and located inside the throttle throat; wherein the first mounting hole and second mounting hole have hole inner diameters of the same size, characterized in that a first locating pin mounting groove is formed on the throttle housing ; a second locating pin mounting groove is formed on the throttle shaft ; a space between the first locating pin mounting groove and the second locating pin mounting groove forms a locating pin mounting hole , wherein the electronic throttle also comprises a locating pin mounted inside the locating pin mounting hole . an electric machine ; a torque transfer means meshed with a gear on an output shaft of the electric machine ; a throttle shaft connected in a fixed manner to the torque transfer means , the throttle shaft passing through a throttle throat, and being supported by being inserted into a first mounting hole and a second mounting hole in the throttle housing , wherein the first mounting hole and the second mounting hole are located in the throttle housing on two sides of the throttle throat respectively, the second mounting hole being located on that side which is closer to the torque transfer means ; a butterfly valve which is mounted on the throttle shaft and located inside the throttle throat; wherein the first mounting hole and second mounting hole have hole inner diameters of the same size, characterized in that a first locating pin mounting groove is formed on the throttle housing ; a second locating pin mounting groove is formed on the throttle shaft ; a space between the first locating pin mounting groove and the second locating pin mounting groove forms a locating pin mounting hole , wherein the electronic throttle also comprises a locating pin mounted inside the locating pin mounting hole .
A grinding or polishing machine comprising: a working assembly including a grinding head rotatable to engage a surface for grinding or polishing; and a foldable cart releasably coupled to the working assembly , the foldable cart comprising: a mobility assembly including at least one wheel and a frame ; and a handle assembly operably coupled to the frame , the handle assembly including a first frame portion and a second frame portion , and the first frame portion and the second frame portion being operably coupled to each other via a folding joint , where the folding joint is operable to enable the first frame portion and the second frame portion to be repositioned relative to one another about a pivot axis defined at the folding joint wherein the first frame portion is rotatably coupled to the frame , wherein the folding joint is operable to be locked in at least an operating position in which the first frame portion and the second frame portion lie substantially in a same plane and characterized in that the folding joint is operable to be locked in a folded position in which the first frame portion and the second frame portion lie in different planes wherein the folding joint comprises an arcuate shaped slot coaxial with the pivot axis , the arcuate shaped slot having at least one notch extending in a mainly radial direction relative to the pivot axis , and corresponding to the operating position. a working assembly including a grinding head rotatable to engage a surface for grinding or polishing; and a foldable cart releasably coupled to the working assembly , the foldable cart comprising: a mobility assembly including at least one wheel and a frame ; and a handle assembly operably coupled to the frame , a mobility assembly including at least one wheel and a frame ; and a handle assembly operably coupled to the frame , the handle assembly including a first frame portion and a second frame portion , and the first frame portion and the second frame portion being operably coupled to each other via a folding joint , where the folding joint is operable to enable the first frame portion and the second frame portion to be repositioned relative to one another about a pivot axis defined at the folding joint wherein the first frame portion is rotatably coupled to the frame , wherein the folding joint is operable to be locked in at least an operating position in which the first frame portion and the second frame portion lie substantially in a same plane and characterized in that the folding joint is operable to be locked in a folded position in which the first frame portion and the second frame portion lie in different planes wherein the folding joint comprises an arcuate shaped slot coaxial with the pivot axis , the arcuate shaped slot having at least one notch extending in a mainly radial direction relative to the pivot axis , and corresponding to the operating position.
A hip protector for protecting a user in the event of a fall, the hip protector comprising: a pair of hip protection elements ; wherein each of said hip protection elements incorporates an electronic fall detection system comprising one or both of an accelerometer to generate movement data, a gyroscope to generate movement direction data, and a processing element , wherein the hip protection elements are arranged to reduce the impact of a fall by a user; wherein the fall detection systems are configured to detect the occurrence of said fall by said user, to output fall data defining one or more characteristics of said detected fall and to store said output fall data in a data store , for later retrieval; wherein a said hip protection element comprises a cushion or pad, and wherein a said fall detection system is located within a said cushion or pad; wherein the respective said fall detection systems are in communication with one another; and wherein a said fall detection system is configured to detect inaccurate or spurious data of said movement data and movement direction data being provided by the other said fall detection system, due to a fault or error condition in said other fall detection system. a pair of hip protection elements ; wherein each of said hip protection elements incorporates an electronic fall detection system comprising one or both of an accelerometer to generate movement data, a gyroscope to generate movement direction data, and a processing element , wherein the hip protection elements are arranged to reduce the impact of a fall by a user; wherein the fall detection systems are configured to detect the occurrence of said fall by said user, to output fall data defining one or more characteristics of said detected fall and to store said output fall data in a data store , for later retrieval; wherein a said hip protection element comprises a cushion or pad, and wherein a said fall detection system is located within a said cushion or pad; wherein the respective said fall detection systems are in communication with one another; and wherein a said fall detection system is configured to detect inaccurate or spurious data of said movement data and movement direction data being provided by the other said fall detection system, due to a fault or error condition in said other fall detection system.
A method for manufacturing a cellulosic paper material , wherein the method comprises: providing old textiles as starting material , wherein the old textiles comprise cellulose and non-cellulosic foreign matters, wherein the non-cellulosic foreign matters comprise synthetic plastic and optionally metal oxides; at least partially depleting the non-cellulosic foreign matters from the cellulose, to provide a depleted starting material , wherein depleting comprises: mechanically separating at least a part of the non-cellulosic foreign matters; and/or chemically separating at least a part of the non-cellulosic foreign matters; and forming the cellulosic paper material from the depleted starting material . providing old textiles as starting material , wherein the old textiles comprise cellulose and non-cellulosic foreign matters, wherein the non-cellulosic foreign matters comprise synthetic plastic and optionally metal oxides; at least partially depleting the non-cellulosic foreign matters from the cellulose, to provide a depleted starting material , wherein depleting comprises: mechanically separating at least a part of the non-cellulosic foreign matters; and/or chemically separating at least a part of the non-cellulosic foreign matters; and mechanically separating at least a part of the non-cellulosic foreign matters; and/or chemically separating at least a part of the non-cellulosic foreign matters; and forming the cellulosic paper material from the depleted starting material .
A catheter for delivering embolization particles to a target artery of a patient, the catheter having a distal end and a proximal end, the catheter comprising: a first lumen configured to provide a fluid-tight path for particles to flow between the proximal end of the catheter and the distal end of the catheter; a balloon located near the distal end of the catheter, wherein the balloon is configured so that, when the balloon is inflated, the balloon prevents blood from flowing through the target artery; an inflation lumen that is configured to inflate the balloon , the inflation lumen having a distal end that is in fluid communication with an interior of the balloon ; a strainer; characterized in that the catheter comprises a second lumen that has an input port that is located proximal to the balloon and an output port that is located distal to the balloon , wherein the second lumen is configured to provide a fluid-tight path for blood to flow from the input port to the output port ; and in that the strainer is configured to prevent the particles from flowing through the second lumen ; and in that the input port is disposed at a position such that, when the distal end of the catheter is positioned in the target artery, blood from an artery in the patient's body can enter the second lumen via the input port , flow through the second lumen , exit the second lumen via the output port , and flow from the output port into the target artery. a first lumen configured to provide a fluid-tight path for particles to flow between the proximal end of the catheter and the distal end of the catheter; a balloon located near the distal end of the catheter, wherein the balloon is configured so that, when the balloon is inflated, the balloon prevents blood from flowing through the target artery; an inflation lumen that is configured to inflate the balloon , the inflation lumen having a distal end that is in fluid communication with an interior of the balloon ; a strainer; characterized in that the catheter comprises a second lumen that has an input port that is located proximal to the balloon and an output port that is located distal to the balloon , wherein the second lumen is configured to provide a fluid-tight path for blood to flow from the input port to the output port ; and in that the strainer is configured to prevent the particles from flowing through the second lumen ; and in that the input port is disposed at a position such that, when the distal end of the catheter is positioned in the target artery, blood from an artery in the patient's body can enter the second lumen via the input port , flow through the second lumen , exit the second lumen via the output port , and flow from the output port into the target artery.