mhurhangee/patent-ind-claim-en huggingface dataset:
Reciprocating saw having an output spindle that moves back and forth and a drive motor , which are coupled to each other via a gear mechanism , a long side of the output spindle and a long side of the drive motor extending beside each other, so that the drive motor is arranged beside the output spindle , the output spindle having a fixing section for fixing a tool , that the drive motor has a drive section connected to the gear mechanism and a first end remote from the gear mechanism , and that the first end of the drive motor that is remote from the gear mechanism is arranged closer to the fixing section than the drive section connected to the gear mechanism , characterized in that the gear mechanism comprises a swash-plate assembly , which is arranged on a gear mechanism shaft which extends parallel to the longitudinal axis of the drive motor .
Process for the production of dicarboxylic acids from monocarboxylic acids, through a wild type microorganism Candida maltosa having the ω-oxidation metabolic pathway and having the peroxisome and mitochondrial carnitine acetyl-transferase coded by a single gene, characterized by inactivation of the function of the CAT (Carnitine Acetyl-Transferase) gene, in which that inactivation is done by making non-functional both the alleles of the CAT gene, and/or the product of its transcription.
A method comprising: allocating resources to a browser independent web page technology code; submitting , by a sandboxer , the binary of the code to an access control module , filtering, by the access control module , the code based on user security configurations to limit resources accessible by said code, and then sending, by the access control module , the filtered code to graphics processing unit, GPU, hardware ; executing , by the GPU hardware , the filtered code; and preventing , during the executing , the browser independent web page technology code from accessing a resource not specifically allocated to that code. allocating resources to a browser independent web page technology code; submitting , by a sandboxer , the binary of the code to an access control module , filtering, by the access control module , the code based on user security configurations to limit resources accessible by said code, and then sending, by the access control module , the filtered code to graphics processing unit, GPU, hardware ; executing , by the GPU hardware , the filtered code; and preventing , during the executing , the browser independent web page technology code from accessing a resource not specifically allocated to that code.
An arrangement comprising a DMS filter, comprising an input and an output, - wherein the DMS filter comprises first and second transducers that are arranged in an alternating manner on a piezoelectric substrate between two reflectors and wherein the first transducers are each connected to one of an input or output of the arrangement, and wherein the second transducers are each connected to the corresponding other of output and input of the arrangement; - wherein at least either the first or the second transducers are configured so that they comprise a divided transducer having two symmetrically arranged sub-transducers that are electrically connected in parallel, - wherein the sub-transducers are shifted apart from each other by an amount of approximately half wavelength with respect to their original position in such a way that their signals cancel each other out at a frequency in a stopband, and wherein the open clearance between the two sub-transducers that is measured from the outer edges of terminal electrode fingers of the sub-transducers that face each other is more than one wavelength. - wherein the DMS filter comprises first and second transducers that are arranged in an alternating manner on a piezoelectric substrate between two reflectors and wherein the first transducers are each connected to one of an input or output of the arrangement, and wherein the second transducers are each connected to the corresponding other of output and input of the arrangement; - wherein at least either the first or the second transducers are configured so that they comprise a divided transducer having two symmetrically arranged sub-transducers that are electrically connected in parallel, - wherein the sub-transducers are shifted apart from each other by an amount of approximately half wavelength with respect to their original position in such a way that their signals cancel each other out at a frequency in a stopband, and wherein the open clearance between the two sub-transducers that is measured from the outer edges of terminal electrode fingers of the sub-transducers that face each other is more than one wavelength.
A cleaning agent composition for cleaning a flow channel (F) for resin in a hot runner type mold, comprising: 100 parts by weight of a polyolefin-based resin; 1 part by weight to 20 parts by weight of at least one type of fatty acid ester that is selected from glycerin fatty acid ester, polyglycerin fatty acid ester, or sorbitan fatty acid ester; and 1 part by weight to 15 parts by weight of a metal salt of a hydroxyfatty acid. 100 parts by weight of a polyolefin-based resin; 1 part by weight to 20 parts by weight of at least one type of fatty acid ester that is selected from glycerin fatty acid ester, polyglycerin fatty acid ester, or sorbitan fatty acid ester; and 1 part by weight to 15 parts by weight of a metal salt of a hydroxyfatty acid.
A trocar system comprising: a cannula ; an obturator configured to be slid into and removed from the cannula, the obturator extending along an axis from a distal end to a proximal end, the obturator configured to be operably connected to an angled endoscope via a lumen defined by the obturator, the obturator comprising: a window at or near the distal end of the obturator; a prism which is removeably attached to the lumen defined by the obturator, the prism configured to bend light received through the window toward a light gathering element associated with the endoscope, wherein the prism is disposed at an angle such that the direction of travel of light is substantially perpendicular to the light gathering element, the light gathering element disposed at an angle relative to a plane extending transversely to the endoscope's axis ; and retaining functionality configured to allow the prism to be one or both of: placed into the obturator to bend the light toward the light gathering element or attached to the obturator to bend the light toward the light gathering element. a cannula ; an obturator configured to be slid into and removed from the cannula, the obturator extending along an axis from a distal end to a proximal end, the obturator configured to be operably connected to an angled endoscope via a lumen defined by the obturator, the obturator comprising: a window at or near the distal end of the obturator; a prism which is removeably attached to the lumen defined by the obturator, the prism configured to bend light received through the window toward a light gathering element associated with the endoscope, wherein the prism is disposed at an angle such that the direction of travel of light is substantially perpendicular to the light gathering element, the light gathering element disposed at an angle relative to a plane extending transversely to the endoscope's axis ; and retaining functionality configured to allow the prism to be one or both of: placed into the obturator to bend the light toward the light gathering element or attached to the obturator to bend the light toward the light gathering element. a window at or near the distal end of the obturator; a prism which is removeably attached to the lumen defined by the obturator, the prism configured to bend light received through the window toward a light gathering element associated with the endoscope, wherein the prism is disposed at an angle such that the direction of travel of light is substantially perpendicular to the light gathering element, the light gathering element disposed at an angle relative to a plane extending transversely to the endoscope's axis ; and retaining functionality configured to allow the prism to be one or both of: placed into the obturator to bend the light toward the light gathering element or attached to the obturator to bend the light toward the light gathering element.
Burner arrangement having a plurality of mixing channels , which extend parallel to the main axis of the burner arrangement and are arranged in at least two concentric circles , in which mixing channels fuel and discharge air from the compressor are mixed during the operation of the burner arrangement , wherein the mixing channels are grouped together into fuel stages , wherein a fuel stage comprises mixing channels with a common fuel supply, which are controlled jointly during operation, and irregular staging in the circumferential direction of the burner arrangement is obtained in respect of the geometric distribution of the mixing channels associated with the respective fuel stages , characterized in that a fuel stage comprises at least two subgroups , wherein a subgroup comprises at least two directly adjacent mixing channels in different circles .
A fishing soft lure , comprising: a body ; and a plurality of legs projected from a side of the body and arranged along a moving direction of the fishing soft lure, the legs wobbling in accordance with water flow when the soft lure moves along the moving direction, wherein the plurality of legs at least includes: a first leg (20-1); and a second leg (20-2) situated behind the first leg and on a rear side in the moving direction of the soft lure , at least a portion of a water-flow resisting surface of the second leg (20-2) that receives water-flow resistance is exposed as viewed from the front in the moving direction, wherein the plurality of legs each have a first portion connected with the body and a second portion situated outward from the first portion, characterized in that at least one leg among the plurality of legs is configured such that the first portion has a thickness (T2) in an upper-lower direction smaller than a thickness in the moving direction, and the second portion has a thickness (T3) in the upper-lower direction larger than a thickness in the moving direction. a body ; and a plurality of legs projected from a side of the body and arranged along a moving direction of the fishing soft lure, the legs wobbling in accordance with water flow when the soft lure moves along the moving direction, wherein the plurality of legs at least includes: a first leg (20-1); and a second leg (20-2) situated behind the first leg and on a rear side in the moving direction of the soft lure , at least a portion of a water-flow resisting surface of the second leg (20-2) that receives water-flow resistance is exposed as viewed from the front in the moving direction, a first leg (20-1); and a second leg (20-2) situated behind the first leg and on a rear side in the moving direction of the soft lure , at least a portion of a water-flow resisting surface of the second leg (20-2) that receives water-flow resistance is exposed as viewed from the front in the moving direction, wherein the plurality of legs each have a first portion connected with the body and a second portion situated outward from the first portion, characterized in that at least one leg among the plurality of legs is configured such that the first portion has a thickness (T2) in an upper-lower direction smaller than a thickness in the moving direction, and the second portion has a thickness (T3) in the upper-lower direction larger than a thickness in the moving direction.
A medical system , comprising a data processing unit and optical waveguide components , namely a light source , an optic fiber cable , a camera head and an endoscope , through each of which a bundle of optical fibers is guided, wherein the data processing unit is configured to determine a maintenance requirement of the optical waveguide components by capturing the following data during a medical procedure and storing said data as historical data: - a light intensity parameter value of the light source , which correlates with a light intensity emitted by the light source during the medical procedure, - an optical waveguide component parameter set which describes a configuration of the optical waveguide components utilized during the medical procedure, - an external procedure parameter which describes the type of medical procedure, wherein the data processing unit is further configured to determine a trend of the light intensity parameter from the historical data of at least two medical procedures having the same optical waveguide component parameter set and the same external procedure parameters and to generate a maintenance requirement message and, if a deviation which exceeds a predefinable limit value can be ascertained in the trend , to output the maintenance requirement message . - a light intensity parameter value of the light source , which correlates with a light intensity emitted by the light source during the medical procedure, - an optical waveguide component parameter set which describes a configuration of the optical waveguide components utilized during the medical procedure, - an external procedure parameter which describes the type of medical procedure,
A pharmaceutical composition comprising at least one isolated and/or recombinant lysin polypeptide that is effective to kill bacteria, wherein the lysin polypeptide comprises an amino acid sequence that is 100% identical to an amino acid sequence of a lysin polypeptide of PlyPa91 (SEQ ID NO: 13).
A process for producing a fiber-reinforced thermoplastic resin tape , the process comprising: a resin impregnation step of opening a fiber bundle and impregnating the opened fiber bundle with molten thermoplastic resin; and a through-nozzle passing step of passing the fiber bundle having undergone the resin impregnation step through a slit (s) formed in a nozzle to form the resin bundle into a tape shape, characterized in that the through-nozzle passing step includes passing the fiber bundle , at the start of production, through the slit (s) in a state where the slit (s) has a gap dimension (L0) larger than a normal dimension (L1) corresponding to a target thickness dimension of the fiber-reinforced thermoplastic resin tape and changing the gap dimension (L0) of the slit (s), at a point in time when a predetermined condition is satisfied after the start of production, into the normal dimension (L1) and then passing the fiber bundle through the slit (s). a resin impregnation step of opening a fiber bundle and impregnating the opened fiber bundle with molten thermoplastic resin; and a through-nozzle passing step of passing the fiber bundle having undergone the resin impregnation step through a slit (s) formed in a nozzle to form the resin bundle into a tape shape, characterized in that the through-nozzle passing step includes passing the fiber bundle , at the start of production, through the slit (s) in a state where the slit (s) has a gap dimension (L0) larger than a normal dimension (L1) corresponding to a target thickness dimension of the fiber-reinforced thermoplastic resin tape and changing the gap dimension (L0) of the slit (s), at a point in time when a predetermined condition is satisfied after the start of production, into the normal dimension (L1) and then passing the fiber bundle through the slit (s).
A manual ceramic cutter including a toolholder and a toolholder guide system, the toolholder comprising a handle for the actuation thereof and carrying a cutting tool for scoring a ceramic part, the toolholder guide system comprising parallel guides for the longitudinal movement of the toolholder ; wherein: each one of the guides is formed by a profile; and the toolholder comprises, at each side thereof, two end bearings and at least one intermediate bearing which come in contact with the guide corresponding to the same side; characterized in that : the end bearings and the intermediate bearings are mounted on bearing carriages disposed on the sides of the toolholder ; each guide comprises upper and lower steel rods , disposed longitudinally, forming races for the bearing carriages ; in each bearing carriage , the two end bearings are disposed at the same height and come in contact with the upper steel rod of the guide corresponding to the same side, and the at least one intermediate bearing is disposed at a lower height than the two end bearings and comes in contact with the lower steel rod of the corresponding guide ; and the profile forming each guide is made of aluminium and has at least one longitudinal cavity in which a steel bar is housed that is configured to reinforce and prevent the bending of the guides. each one of the guides is formed by a profile; and the toolholder comprises, at each side thereof, two end bearings and at least one intermediate bearing which come in contact with the guide corresponding to the same side; characterized in that : the end bearings and the intermediate bearings are mounted on bearing carriages disposed on the sides of the toolholder ; each guide comprises upper and lower steel rods , disposed longitudinally, forming races for the bearing carriages ; in each bearing carriage , the two end bearings are disposed at the same height and come in contact with the upper steel rod of the guide corresponding to the same side, and the at least one intermediate bearing is disposed at a lower height than the two end bearings and comes in contact with the lower steel rod of the corresponding guide ; and the profile forming each guide is made of aluminium and has at least one longitudinal cavity in which a steel bar is housed that is configured to reinforce and prevent the bending of the guides. the end bearings and the intermediate bearings are mounted on bearing carriages disposed on the sides of the toolholder ; each guide comprises upper and lower steel rods , disposed longitudinally, forming races for the bearing carriages ; in each bearing carriage , the two end bearings are disposed at the same height and come in contact with the upper steel rod of the guide corresponding to the same side, and the at least one intermediate bearing is disposed at a lower height than the two end bearings and comes in contact with the lower steel rod of the corresponding guide ; and the profile forming each guide is made of aluminium and has at least one longitudinal cavity in which a steel bar is housed that is configured to reinforce and prevent the bending of the guides.
A method for processing magnetostrictively generated guided wave detection signals, the method comprising steps of: S1: obtaining an analysis signal u(n) from capturing an original magnetostrictively generated guided wave detection signal, where n ≤ N, and N is the length of the analysis signal u(n); S2: performing band-pass filtering on the analysis signal u(n) to obtain a signal x(n), and initializing i to 0; S3: obtaining a group of signals x(i), x(i+1), ..., x(i+M-1) using a rectangular window with a width of M, where M = [L/4], and L is the length of the excitation signal; S4: forming a matrix A of R ∗ (M-R+1), where R = [M/2]: A = x i x i + 1 ⋯ x i + M − R x i + 1 x i + 2 ⋯ x i + M − R + 1 ⋮ ⋮ ⋱ ⋮ x i + R − 1 x i + R ⋯ x i + M − 1 ; S5: performing singular value decomposition on the matrix A to obtain a singular matrix B: B = λ 1 0 ⋯ 0 ⋯ 0 0 λ 2 ⋯ 0 ⋯ 0 ⋮ ⋮ ⋱ ⋮ ⋮ ⋮ 0 0 ⋯ λ R ⋯ 0 , λ j represents an eigenvalue, and j = 1, 2, ...R; S6: setting eigenvalues in the matrix B smaller than the median to 0 to obtain a matrix C, and performing inverse singular value transformation on the matrix C to obtain a matrix D: D = y i y i + 1 ⋯ y i + M − R y i + 1 y i + 2 ⋯ y i + M − R + 1 ⋮ ⋮ ⋱ ⋮ y i + R − 1 y i + R ⋯ y i + M − 1 ; S7: recovering a group of processed signals y(i), y(i+1), ..., y(i+M-1) from the matrix D and calculating energy z of the group of processed signals; and S8: setting i to (i+1) and repeating steps S3-S7 until i= N+1-M to finish calculating the energy of processed signals of the selected analysis area. S1: obtaining an analysis signal u(n) from capturing an original magnetostrictively generated guided wave detection signal, where n ≤ N, and N is the length of the analysis signal u(n); S2: performing band-pass filtering on the analysis signal u(n) to obtain a signal x(n), and initializing i to 0; S3: obtaining a group of signals x(i), x(i+1), ..., x(i+M-1) using a rectangular window with a width of M, where M = [L/4], and L is the length of the excitation signal; S4: forming a matrix A of R ∗ (M-R+1), where R = [M/2]: A = x i x i + 1 ⋯ x i + M − R x i + 1 x i + 2 ⋯ x i + M − R + 1 ⋮ ⋮ ⋱ ⋮ x i + R − 1 x i + R ⋯ x i + M − 1 ; S5: performing singular value decomposition on the matrix A to obtain a singular matrix B: B = λ 1 0 ⋯ 0 ⋯ 0 0 λ 2 ⋯ 0 ⋯ 0 ⋮ ⋮ ⋱ ⋮ ⋮ ⋮ 0 0 ⋯ λ R ⋯ 0 , λ j represents an eigenvalue, and j = 1, 2, ...R; S6: setting eigenvalues in the matrix B smaller than the median to 0 to obtain a matrix C, and performing inverse singular value transformation on the matrix C to obtain a matrix D: D = y i y i + 1 ⋯ y i + M − R y i + 1 y i + 2 ⋯ y i + M − R + 1 ⋮ ⋮ ⋱ ⋮ y i + R − 1 y i + R ⋯ y i + M − 1 ; S7: recovering a group of processed signals y(i), y(i+1), ..., y(i+M-1) from the matrix D and calculating energy z of the group of processed signals; and S8: setting i to (i+1) and repeating steps S3-S7 until i= N+1-M to finish calculating the energy of processed signals of the selected analysis area.
A microprocessor , comprising: a plurality of processing cores (102A, 102B,...102N), wherein each of the plurality of processing cores (102A, 102B,...102N) executes microcode and comprises hardware to patch the microcode; wherein a first core of the plurality of processing cores (102A, 102B,...102N) is configured to: encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and wherein each core of the plurality of processing cores (102A, 102B,...102N) other than the first core is configured to apply the microcode patch to the hardware of the core, in response to being informed by the first core; wherein none of the plurality of processing cores (102A, 102B,...102N) executes a microcode instruction other than microcode instructions that apply the microcode patch while any of the plurality of processing cores (102A, 102B,...102N) is applying the microcode patch. a plurality of processing cores (102A, 102B,...102N), wherein each of the plurality of processing cores (102A, 102B,...102N) executes microcode and comprises hardware to patch the microcode; wherein a first core of the plurality of processing cores (102A, 102B,...102N) is configured to: encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and wherein each core of the plurality of processing cores (102A, 102B,...102N) other than the first core is configured to apply the microcode patch to the hardware of the core, in response to being informed by the first core; wherein none of the plurality of processing cores (102A, 102B,...102N) executes a microcode instruction other than microcode instructions that apply the microcode patch while any of the plurality of processing cores (102A, 102B,...102N) is applying the microcode patch.