mhurhangee/patent-ind-claim-en huggingface dataset:
An injection molding system comprising: a recipe storage microcontroller MCU mounted to an exchangeable mold of an injection molding machine and storing current recipe data comprising a target pressure profile to be met in an injection molding process on the injection molding machine in which an actuator drives one or more valve pins to control the rate of flow of injection material through a gate of a mold cavity during one injection molding cycle by controlling the position of the valve pin relative to the gate , wherein the current recipe data is stored on the recipe storage MCU prior to being mounted on the injection molding machine; a flow controller, including a flow control microcontroller MCU , remote from the mold configured to transmit signals to the actuator to dynamically control the movement of the actuator and associated valve pin , the flow controller being configured to receive and automatically read the current recipe data from the recipe storage MCU without requiring human operator input or programming of the flow control MCU and to implement the current recipe data by executing flow control computer instructions stored on the flow controller MCU to generate the signals for dynamically controlling movement of the actuator and associated valve pin according to the recipe data during the one injection cycle in order to meet the target pressure profile based upon feedback received by the flow controller from a pressure sensor . a recipe storage microcontroller MCU mounted to an exchangeable mold of an injection molding machine and storing current recipe data comprising a target pressure profile to be met in an injection molding process on the injection molding machine in which an actuator drives one or more valve pins to control the rate of flow of injection material through a gate of a mold cavity during one injection molding cycle by controlling the position of the valve pin relative to the gate , wherein the current recipe data is stored on the recipe storage MCU prior to being mounted on the injection molding machine; a flow controller, including a flow control microcontroller MCU , remote from the mold configured to transmit signals to the actuator to dynamically control the movement of the actuator and associated valve pin , the flow controller being configured to receive and automatically read the current recipe data from the recipe storage MCU without requiring human operator input or programming of the flow control MCU and to implement the current recipe data by executing flow control computer instructions stored on the flow controller MCU to generate the signals for dynamically controlling movement of the actuator and associated valve pin according to the recipe data during the one injection cycle in order to meet the target pressure profile based upon feedback received by the flow controller from a pressure sensor .
A method for processing a speech signal, comprising: processing a mixed speech signal through a student model and a teacher model separately, wherein the mixed speech signal is generated by mixing a clean speech signal and an interfering signal and labelled with the clean speech signal, and a first model parameter of the teacher model is configured based on a second model parameter of the student model; determining correctness information based on a signal outputted by the student model and the clean speech signal, wherein the correctness information is configured to represent a degree of separation correctness of the student model; determining consistency information based on the signal outputted by the student model and a signal outputted by the teacher model, wherein the consistency information is configured to represent a degree of consistency between a first separation capability of the teacher model and a second separation capability of the student model; and adjusting the first model parameter and the second model parameter based on a plurality of pieces of the correctness information and a plurality of pieces of the consistency information to obtain a speech separation model. processing a mixed speech signal through a student model and a teacher model separately, wherein the mixed speech signal is generated by mixing a clean speech signal and an interfering signal and labelled with the clean speech signal, and a first model parameter of the teacher model is configured based on a second model parameter of the student model; determining correctness information based on a signal outputted by the student model and the clean speech signal, wherein the correctness information is configured to represent a degree of separation correctness of the student model; determining consistency information based on the signal outputted by the student model and a signal outputted by the teacher model, wherein the consistency information is configured to represent a degree of consistency between a first separation capability of the teacher model and a second separation capability of the student model; and adjusting the first model parameter and the second model parameter based on a plurality of pieces of the correctness information and a plurality of pieces of the consistency information to obtain a speech separation model.
A glass comprising: at least 50 mol% SiO 2 ; 10-20 mol% Na 2 O; 0-5 mol% K 2 O; 9-22 mol% Al 2 O 3 ; 3-4.5 mol% B 2 O 3 ; at least 0.1 mol% of MgO and/or ZnO, and optionally, at least one of CaO, BaO and SrO, wherein 0 mol% ≤ CaO(mol%) + SrO(mol%) + BaO(mol%) ≤ 2 mol%, wherein 0 mol% ≤ MgO(mol%) + ZnO(mol%) ≤ 6 mol%, and wherein R 2 O(mol%) + CaO(mol%) + SrO(mol%) + BaO(mol%) - Al 2 O 3 (mol%) - B 2 O 3 (mol%) < 0 mol%. at least 50 mol% SiO 2 ; 10-20 mol% Na 2 O; 0-5 mol% K 2 O; 9-22 mol% Al 2 O 3 ; 3-4.5 mol% B 2 O 3 ; at least 0.1 mol% of MgO and/or ZnO, and optionally, at least one of CaO, BaO and SrO, wherein 0 mol% ≤ CaO(mol%) + SrO(mol%) + BaO(mol%) ≤ 2 mol%, wherein 0 mol% ≤ MgO(mol%) + ZnO(mol%) ≤ 6 mol%, and wherein R 2 O(mol%) + CaO(mol%) + SrO(mol%) + BaO(mol%) - Al 2 O 3 (mol%) - B 2 O 3 (mol%) < 0 mol%.
Support structure for a laminated core of a stator segment of a dynamoelectric machine having an external rotor, having - two joint plates which, in the installed state of the stator segments 13, establish a mechanical contact with further stator segments directly adjacent in the peripheral direction, and two curved pressure plates , the respective longitudinal faces of which are in each case mutually opposed, encompass a predefinable space and can be connected at their abutting edges, - substantially radial bars or ribs which lie between the pressure plates and parallel to the joint plates , - at least one element with polygonal cut-outs, which is connected to a longitudinal face of the ribs and forms a base plate of the support structure , characterised in that - the element has a mesh-type structure and is formed as a mesh sheet , - wherein the space encompassed by joint plates and pressure plates is received on the concave side by the element and on the convex side by the laminated core , - wherein in particular, the supporting properties of the laminated core , which is fitted and welded from the convex side onto the support structure , are then integrated into the support structure, - wherein the laminated core of the stator segment consequently assumes not only an electromagnetic function of forming and directing the electromagnetic field, but also simultaneously a mechanical supporting function. - two joint plates which, in the installed state of the stator segments 13, establish a mechanical contact with further stator segments directly adjacent in the peripheral direction, and two curved pressure plates , the respective longitudinal faces of which are in each case mutually opposed, encompass a predefinable space and can be connected at their abutting edges, - substantially radial bars or ribs which lie between the pressure plates and parallel to the joint plates , - at least one element with polygonal cut-outs, which is connected to a longitudinal face of the ribs and forms a base plate of the support structure , characterised in that - the element has a mesh-type structure and is formed as a mesh sheet , - wherein the space encompassed by joint plates and pressure plates is received on the concave side by the element and on the convex side by the laminated core , - wherein in particular, the supporting properties of the laminated core , which is fitted and welded from the convex side onto the support structure , are then integrated into the support structure, - wherein the laminated core of the stator segment consequently assumes not only an electromagnetic function of forming and directing the electromagnetic field, but also simultaneously a mechanical supporting function.
A borehole analysis method, comprising: measuring, at three or more depths along a drillstring, one property that is subject to perturbation substantially simultaneously, where at least one of the depths corresponds to the location of a drillpipe ; recording a time when each property is measured at each depth; and obtaining two or more property versus depth profiles based on the property measurements; generating a property versus depth versus time profile based on the property measurements, the generating comprising compiling the two or more property versus depth profiles obtained at different times; and generating a model of the borehole based, at least in part, on the property versus depth versus time profile. measuring, at three or more depths along a drillstring, one property that is subject to perturbation substantially simultaneously, where at least one of the depths corresponds to the location of a drillpipe ; recording a time when each property is measured at each depth; and obtaining two or more property versus depth profiles based on the property measurements; generating a property versus depth versus time profile based on the property measurements, the generating comprising compiling the two or more property versus depth profiles obtained at different times; and generating a model of the borehole based, at least in part, on the property versus depth versus time profile.
Inductor for electromagnetic induction heating of a plasticizing cylinder , comprising an even number of two or more identical coils , made of an electric conductor, arranged on an internal support element of thermal insulation towards the cylinder , and made of non-magnetic and non-conductive material, said coils , each having an internal terminal (A) and an external terminal (B), wherein - the winding direction is the same for all coils, - the winding axis of the coils is perpendicular to the axis of the cylinder to be heated, - the coils are mounted symmetrically to the cylinder axis to be heated and angularly equidistant, - the adjacent external (B) or internal (A) terminals of the coils are connected to each other and the internal (A) or external (B) terminals are electrically powered, so as to generate an electromagnetic field transverse to the cylinder , - all the elements constituting the inductor are open on a generatrix line of the plasticizing cylinder, characterized in that: said coils have a spiral structure conformed to the surface of the cylinder , such as to leave a free area inside the coil; said supporting element consists of an internal support element (4.2), made of non-magnetic and electrically non-conductive material, disposed towards the cylinder to be heated, of an intermediate thermal insulation element (4.3) made of non-magnetic and electrically non-conductive material, and of an external element (4.1) for supporting the coils in non-magnetic and electrically non-conductive material; all the elements constituting the inductor are flexible. - the winding direction is the same for all coils, - the winding axis of the coils is perpendicular to the axis of the cylinder to be heated, - the coils are mounted symmetrically to the cylinder axis to be heated and angularly equidistant, - the adjacent external (B) or internal (A) terminals of the coils are connected to each other and the internal (A) or external (B) terminals are electrically powered, so as to generate an electromagnetic field transverse to the cylinder , - all the elements constituting the inductor are open on a generatrix line of the plasticizing cylinder, said coils have a spiral structure conformed to the surface of the cylinder , such as to leave a free area inside the coil; said supporting element consists of an internal support element (4.2), made of non-magnetic and electrically non-conductive material, disposed towards the cylinder to be heated, of an intermediate thermal insulation element (4.3) made of non-magnetic and electrically non-conductive material, and of an external element (4.1) for supporting the coils in non-magnetic and electrically non-conductive material; all the elements constituting the inductor are flexible.
A method for counting events that occurred in a duration T implemented by a MEMS mechanical event counter comprising at least two toothed wheels, the pitch of the teeth being the same, a first toothed wheel D i comprising Z i teeth and a second toothed wheel D j having Z j teeth with Z i being different from Z j and the greatest common divisor of Z i and Z j being different from Z i or Z j and preferably equal to 1, each of the toothed wheel having at least one mark that is detected by optical means and allows to assign to each tooth of the wheel an order number with respect to this mark and the occurrence of an event causing the rotation of each of these two wheels by an angle corresponding, at their periphery, to a chord equal to the pitch of their teeth and the initial position of the wheels with respect to an outer mark which has been marked, the method furthermore comprising the following steps: - counting, for each wheel D i ,D j , at the end of the duration T, the difference in the number of teeth z i , respectively z j between its initial position and its final position at the end of the duration T, this difference being between 0 and Z i , respectively between 0 and Z j , - calculating, if z i is different from z j , the number N of events that occurred as a function of the difference between the values z i and z j and as a function of Z i and/or Z j . - counting, for each wheel D i ,D j , at the end of the duration T, the difference in the number of teeth z i , respectively z j between its initial position and its final position at the end of the duration T, this difference being between 0 and Z i , respectively between 0 and Z j , - calculating, if z i is different from z j , the number N of events that occurred as a function of the difference between the values z i and z j and as a function of Z i and/or Z j .
A power-module substrate with heat-sink comprising: a power-module substrate provided with a ceramic substrate , a circuit layer provided on one surface of the ceramic substrate , and a metal layer made of aluminum of purity not lower than 99% provided on another surface of the ceramic substrate ; and a heat sink made of aluminum alloy having a larger yield stress than that of the metal layer is formed into a flat-plate shape and bonded on the metal layer of the power-module substrate, wherein a maximum length of the heat sink is set as "L" and a warp amount of the heat sink is set as "Z"; the warp amount "Z" is set as a positive value if a bonded surface of the heat sink on the metal layer is deformed to be concave; or is set as a negative value if the bonded surface is deformed to be convex; the power-module substrate having been deformed during manufacture so that a ratio Z/L of the maximum length "L" and the warp amount "Z" measured at 25°C is in a range not smaller than -0.005 and not larger than 0.005, and the ratio Z/L is in the range not smaller than -0.005 and not larger than 0.005 even when it is heated to 280°C and then cooled to 25°C. a power-module substrate provided with a ceramic substrate , a circuit layer provided on one surface of the ceramic substrate , and a metal layer made of aluminum of purity not lower than 99% provided on another surface of the ceramic substrate ; and a heat sink made of aluminum alloy having a larger yield stress than that of the metal layer is formed into a flat-plate shape and bonded on the metal layer of the power-module substrate, wherein a maximum length of the heat sink is set as "L" and a warp amount of the heat sink is set as "Z"; the warp amount "Z" is set as a positive value if a bonded surface of the heat sink on the metal layer is deformed to be concave; or is set as a negative value if the bonded surface is deformed to be convex; the power-module substrate having been deformed during manufacture so that a ratio Z/L of the maximum length "L" and the warp amount "Z" measured at 25°C is in a range not smaller than -0.005 and not larger than 0.005, and the ratio Z/L is in the range not smaller than -0.005 and not larger than 0.005 even when it is heated to 280°C and then cooled to 25°C.
An ultrasonically bonded laminate comprising: a monolayer film comprising a blend of (a) from 50 to 90 wt.% of a linear polyethylene having a density ranging from 0.925 g/cc to 0.970 g/cc, determined according to ASTM D-792, and a melt index, I 2 , from 0.1 to 15 g/10 min, determined according to ASTM D1238 at 190°C, 2.16 kg, (b) from 10 to 50 wt.% of polypropylene having a melt flow rate from 0.1 to 100 g/10 min, measured in accordance with ASTM D1238 at 230°C, 2.16 kg, and (c) optionally, a low density polyethylene; and a nonwoven substrate at least partially ultrasonically bonded to the monolayer film. a monolayer film comprising a blend of (a) from 50 to 90 wt.% of a linear polyethylene having a density ranging from 0.925 g/cc to 0.970 g/cc, determined according to ASTM D-792, and a melt index, I 2 , from 0.1 to 15 g/10 min, determined according to ASTM D1238 at 190°C, 2.16 kg, (b) from 10 to 50 wt.% of polypropylene having a melt flow rate from 0.1 to 100 g/10 min, measured in accordance with ASTM D1238 at 230°C, 2.16 kg, and (c) optionally, a low density polyethylene; and a nonwoven substrate at least partially ultrasonically bonded to the monolayer film.
Emergency vehicle with a vehicle electrical system for the electrical supply of electrical loads onboard the emergency vehicle, wherein the vehicle electrical system has at least one low voltage generator to generate a low voltage in the range of 30V to 60V, characterised in that the electrical loads onboard the emergency vehicle comprise at least one electrical pump drive , wherein the low voltage generator may be driven by a vehicle engine of the emergency vehicle , and wherein the low voltage generator is coupled to a power take-off of a vehicle transmission.
A device for producing a magnetic resonance image of a subject comprising: - a collecting unit adapted for collecting k space samples from the subject that are located on a non-Cartesian grid in a non-Cartesian coordinate space or non-uniformly located on a Cartesian grid in a Cartesian coordinate space, the collecting unit being adapted for decomposing the non-Cartesian/Cartesian coordinate space into a plurality of subspaces that are orthogonal to each other, each of which is spanned by one or more coordinate axes of the non-Cartesian/Cartesian coordinate space; - a weight calculation unit adapted for calculating a decomposed sample density weight function of the k space samples in each individual subspace and determining the density weight function in the non-Cartesian/Cartesian coordinate space via a multiplication of the decomposed sample density weight functions of the k space samples in the plurality of subspaces; - a gridding unit adapted for interpolating the k space samples in the non-Cartesian/Cartesian coordinate space onto a uniform Cartesian grid in a k space based on the determined density weight function of the k space samples in the non-Cartesian/Cartesian coordinate space; and - a reconstructing unit adapted for reconstructing the magnetic resonance image of the subject based on the interpolated k space samples. - a collecting unit adapted for collecting k space samples from the subject that are located on a non-Cartesian grid in a non-Cartesian coordinate space or non-uniformly located on a Cartesian grid in a Cartesian coordinate space, the collecting unit being adapted for decomposing the non-Cartesian/Cartesian coordinate space into a plurality of subspaces that are orthogonal to each other, each of which is spanned by one or more coordinate axes of the non-Cartesian/Cartesian coordinate space; - a weight calculation unit adapted for calculating a decomposed sample density weight function of the k space samples in each individual subspace and determining the density weight function in the non-Cartesian/Cartesian coordinate space via a multiplication of the decomposed sample density weight functions of the k space samples in the plurality of subspaces; - a gridding unit adapted for interpolating the k space samples in the non-Cartesian/Cartesian coordinate space onto a uniform Cartesian grid in a k space based on the determined density weight function of the k space samples in the non-Cartesian/Cartesian coordinate space; and - a reconstructing unit adapted for reconstructing the magnetic resonance image of the subject based on the interpolated k space samples.
A prepreg sheet obtained by impregnating a fiber with a radical polymerizable resin composition, wherein the radical polymerizable resin composition contains at least a urethane (meth) acrylate compound (a) represented by the following chemical formula [Chemical 1]: in the formula [Chemical 1], wherein n is within a range from 2 to 100, X is a compound residue having two or more isocyanate groups M, and M contains a formula [Chemical 2]: [Chemical 2] -N=C=O and a formula [Chemical 3]: in the formula [Chemical 3], Q represents a residue of a hydroxyl group containing (meth) acrylate ester and the radical polymerizable resin composition further optionally contains a polymerizable vinyl monomer in an amount of 0 to 50 percent by weight and wherein the urethane (meth) acrylate compound (a) contains 0.1 to 12 percent by weight of an isocyanate group.
A stretchable conductive yarn comprising a core with conductive and elastic properties, and a non-conductive sheath covering said core, wherein said core includes first conductive elastic fibers and second less elastic fibers, said first and second fibers being combined and/or connected together in the core of the yarn, wherein said first and second fibers are intermingled or twisted together or mechanically co-extruded in the core of the yarn, and wherein at least one of said first and second fibers includes conductive particles dispersed therein.