mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural row unit , comprising: a row unit frame with furrow opening discs configured to open a furrow having a furrow depth; two gauge wheels pivotally mounted to either side of the frame by two gauge wheel arms ; a depth adjustment assembly configured to modify said furrow depth, said depth adjustment assembly comprising: a first depth adjustment sub-assembly pivotally mounted to the frame 14 at a pivot and configured to contact the gauge wheel arms to limit the upward travel of the gauge wheel arms thereby limiting the furrow depth to one of a plurality of pre-selected furrow depths; wherein a second adjustment sub-assembly is configured to modify at least one of said plurality of pre-selected furrow depths, characterised in that said second adjustment sub-assembly is configured to adjust one of: an angle between the first depth adjustment sub-assembly and a rocker , and a distance between the rocker and a gauge wheel arm , and a shape of the rocker . a row unit frame with furrow opening discs configured to open a furrow having a furrow depth; two gauge wheels pivotally mounted to either side of the frame by two gauge wheel arms ; a depth adjustment assembly configured to modify said furrow depth, said depth adjustment assembly comprising: a first depth adjustment sub-assembly pivotally mounted to the frame 14 at a pivot and configured to contact the gauge wheel arms to limit the upward travel of the gauge wheel arms thereby limiting the furrow depth to one of a plurality of pre-selected furrow depths; wherein a second adjustment sub-assembly is configured to modify at least one of said plurality of pre-selected furrow depths, a first depth adjustment sub-assembly pivotally mounted to the frame 14 at a pivot and configured to contact the gauge wheel arms to limit the upward travel of the gauge wheel arms thereby limiting the furrow depth to one of a plurality of pre-selected furrow depths; wherein a second adjustment sub-assembly is configured to modify at least one of said plurality of pre-selected furrow depths, an angle between the first depth adjustment sub-assembly and a rocker , and a distance between the rocker and a gauge wheel arm , and a shape of the rocker .
A method for exfoliating particles, the method comprises flowing, at a first flow rate, a carrier fluid loaded with particles, in a first section , then in a second section of a conduit , the first section and the second section being contiguous, the first flow rate being adapted to generate shear stresses and cavitation bubbles in the carrier fluid loaded with particles during its passage through the first section of the conduit , the second section of the conduit having a hydraulic diameter adapted to cause an implosion of the cavitation bubbles as soon as the carrier fluid loaded with particles emerges from the first section and flows into the second section , so that an exfoliation of the particles is caused under the combined action of shear stresses and a shock wave generated by the implosion of the cavitation bubbles, the method being characterised in that the first section of the conduit has a hydraulic diameter less than 300 μm, preferably less than 150 μm, even more preferably less than 90 μm, and in that the first flow rate is adapted so that the flowing of the carrier fluid loaded with particles in the first section is laminar.
A computer-implemented method for training a machine learning model to detect installation errors in an elevator, in particular an elevator door, the machine learning model being a combination of a Set Function for Time Series model and a Fourier-Transform model, the method comprising the steps of: - arranging a plurality of sensors at the elevator , each sensor being configured to detect a physical parameter; - detecting values of the physical parameters by means of said sensors so as to obtain a dataset comprising at least one time series , wherein the step of detecting values of the physical parameters by means of said sensors occurs with a different periodicity depending on the type of sensor and of physical parameter involved; - obtaining a first input layer by extracting features from the dataset ; - obtaining a second input layer by extracting features from the dataset ; - feeding the Set Function for Time Series model with the first input layer ; - feeding the Fourier-Transform model with the second input layer . - arranging a plurality of sensors at the elevator , each sensor being configured to detect a physical parameter; - detecting values of the physical parameters by means of said sensors so as to obtain a dataset comprising at least one time series , wherein the step of detecting values of the physical parameters by means of said sensors occurs with a different periodicity depending on the type of sensor and of physical parameter involved; - obtaining a first input layer by extracting features from the dataset ; - obtaining a second input layer by extracting features from the dataset ; - feeding the Set Function for Time Series model with the first input layer ; - feeding the Fourier-Transform model with the second input layer .
Method of preparing an ester by reacting a carboxylic acid of formula (I): wherein R 0 is -H or -OR 3 ; R 1 is -H, -(C 1 -C 6 )alkyl, -(C 1 -C 6 )alkylCOOR 3 , -COOR 3 or -OR 3 ; R 2 is -H, -(C 1 -C 6 )alkyl, -(C 1 -C 6 )alkylCOOR 3 or (C 6 -C 10 )aryl, wherein R 2 is optionally substituted with -OR 3 and/or -COOR 3 ; R 3 is H; m is 0, 1, 2, 3, 4 or 5; with a (C 1 -C 36 )alcohol, optionally comprising a substituent from the group comprising -CN, - halogen, -(C 2 -C 6 )alkenyl and -(C 2 -C 6 )alkynyl; wherein the reaction is carried out in the presence of a catalyst, wherein the catalyst is selected from the group of 1-hydroxyethanesulfonic acid, 2-hydroxyethanesulfonic acid, aluminiummesylate, sulfosuccinic acid and amidosulphuric acid. R 0 is -H or -OR 3 ; R 1 is -H, -(C 1 -C 6 )alkyl, -(C 1 -C 6 )alkylCOOR 3 , -COOR 3 or -OR 3 ; R 2 is -H, -(C 1 -C 6 )alkyl, -(C 1 -C 6 )alkylCOOR 3 or (C 6 -C 10 )aryl, wherein R 2 is optionally substituted with -OR 3 and/or -COOR 3 ; R 3 is H; m is 0, 1, 2, 3, 4 or 5; with a (C 1 -C 36 )alcohol, optionally comprising a substituent from the group comprising -CN, - halogen, -(C 2 -C 6 )alkenyl and -(C 2 -C 6 )alkynyl; wherein the reaction is carried out in the presence of a catalyst, wherein the catalyst is selected from the group of 1-hydroxyethanesulfonic acid, 2-hydroxyethanesulfonic acid, aluminiummesylate, sulfosuccinic acid and amidosulphuric acid.
A sigma-delta modulator arrangement comprising: - a continuous-time sigma-delta modulator (CT_SDM) with a first modulator stage and at least one further modulator stage, - a digital integrator (Int_d) and - a given number of switches (Sw1,...,Sw8), which are arranged and configured, during a tuning mode, to convert the continuous-time sigma-delta modulator (CT_SDM) into a first order incremental sigma-delta analog-to-digital converter (INC_ADC) comprising the digital integrator (Int_d), wherein the first modulator stage (M_1) of the continuous-time sigma-delta modulator (CT_SDM), which is coupled with an input of the continuous-time sigma-delta modulator (CT_SDM) comprises at least one tuning element for adjusting an input signal and/or a feedback signal which are supplied to the first modulator stage (M_1), a control apparatus (Ctrl) to control calibration of the continuous-time sigma-delta modulator and coupled to the switches of the sigma-delta modulator arrangement to control the switch setting of the switches, and the control apparatus being coupled with at least one tuning element to control the adjustment of the at least one tuning element during said tuning mode. - a continuous-time sigma-delta modulator (CT_SDM) with a first modulator stage and at least one further modulator stage, - a digital integrator (Int_d) and - a given number of switches (Sw1,...,Sw8), which are arranged and configured, during a tuning mode, to convert the continuous-time sigma-delta modulator (CT_SDM) into a first order incremental sigma-delta analog-to-digital converter (INC_ADC) comprising the digital integrator (Int_d), wherein the first modulator stage (M_1) of the continuous-time sigma-delta modulator (CT_SDM), which is coupled with an input of the continuous-time sigma-delta modulator (CT_SDM) comprises at least one tuning element for adjusting an input signal and/or a feedback signal which are supplied to the first modulator stage (M_1), a control apparatus (Ctrl) to control calibration of the continuous-time sigma-delta modulator and coupled to the switches of the sigma-delta modulator arrangement to control the switch setting of the switches, and the control apparatus being coupled with at least one tuning element to control the adjustment of the at least one tuning element during said tuning mode.
A toy building block (x00), formed of at least one blank (x11, x21), the toy building block (x00) comprising side walls (x10), at least one pair of flaps (x12, x13) and at least one partition (x20) located inside the toy building block (x00), wherein the partition (x20) extends between at least two side walls (x10), wherein each of the flaps in the pair of flaps (x12, x13) is formed by an edge part of the at least one blank (x11) bent inwards the toy building block (x00), wherein the flaps (x12, x13) in the pair are adjacent to each other and the partition (x20) is coupled with the flaps (x12, x13) by means of notches (x25, x26) to maintain the flaps adjacent to each other, characterized in that the partition (x20) is located in a plane which is not parallel to the planes of the side walls (x10).
An electronic equipment rack comprising: a top frame and a bottom frame connected by at least one post and a plurality of vertical posts , wherein the post comprises a threaded hole configured to receive a mounting bolt ; a plurality of rail assemblies connected to the vertical posts , wherein each of the rail assemblies comprises an opening aligned with the threaded hole to secure the post to the rail assembly by the mounting bolt , and the post is slidably configured within the rack ; and a plurality of brackets installed on the post , wherein each of the brackets within the plurality of brackets comprises an L-shaped first portion and a planar second portion , wherein the planar second portion comprises a threaded member configured to secure the bracket to the post , and each bracket within the plurality of brackets is configured to rotate around the threaded member . a top frame and a bottom frame connected by at least one post and a plurality of vertical posts , wherein the post comprises a threaded hole configured to receive a mounting bolt ; a plurality of rail assemblies connected to the vertical posts , wherein each of the rail assemblies comprises an opening aligned with the threaded hole to secure the post to the rail assembly by the mounting bolt , and the post is slidably configured within the rack ; and a plurality of brackets installed on the post , wherein each of the brackets within the plurality of brackets comprises an L-shaped first portion and a planar second portion , wherein the planar second portion comprises a threaded member configured to secure the bracket to the post , and each bracket within the plurality of brackets is configured to rotate around the threaded member .
A set-up arm to support a robotic arm , the set-up arm comprising: a first set-up joint to couple to a support structure, the first set-up joint having a first pulley rotatably coupled thereto; a second set-up joint spaced apart from the first set-up joint , the second set-up joint to couple to the robotic arm to provide support thereto; a counter balancing link pivotally coupled to the first set-up joint at a first pivot point and to the second set-up joint at a second pivot point , the counter balancing link to balance out the force of load at the second set-up joint , the counter balancing link including a hollow housing having a cylindrical cavity with a first opening at a first end, a second pulley rotatably coupled to the hollow housing , a first compression spring in the cylindrical cavity having a first end coupled to the housing , the first compression spring under compression to balance out the force of load at the second set-up joint ; and a third pulley having a center point at the first pivot point between the counter balancing link and the first set-up joint , wherein center point positions of the first, second, and third pulleys form corners of a triangle having one side which changes in length; and at least one cable under tension wrapped over the second pulley and into the cylindrical cavity and coupled to a second end of the first compression spring , the at least one cable under tension further wrapped over the first and third pulleys and coupled to the set-up arm . a first set-up joint to couple to a support structure, the first set-up joint having a first pulley rotatably coupled thereto; a second set-up joint spaced apart from the first set-up joint , the second set-up joint to couple to the robotic arm to provide support thereto; a counter balancing link pivotally coupled to the first set-up joint at a first pivot point and to the second set-up joint at a second pivot point , the counter balancing link to balance out the force of load at the second set-up joint , the counter balancing link including a hollow housing having a cylindrical cavity with a first opening at a first end, a second pulley rotatably coupled to the hollow housing , a first compression spring in the cylindrical cavity having a first end coupled to the housing , the first compression spring under compression to balance out the force of load at the second set-up joint ; and a third pulley having a center point at the first pivot point between the counter balancing link and the first set-up joint , wherein center point positions of the first, second, and third pulleys form corners of a triangle having one side which changes in length; and at least one cable under tension wrapped over the second pulley and into the cylindrical cavity and coupled to a second end of the first compression spring , the at least one cable under tension further wrapped over the first and third pulleys and coupled to the set-up arm .
An implantable medical device comprising: a signal generator configured to generate and deliver anti-tachyarrhythmia pacing (ATP) to a heart of a patient; and processing circuitry configured to: detect an enable event; responsive to detecting the enable event, enable the delivery of ATP by the signal generator; detect a disable event indicating that another implantable medical device cannot be relied upon to deliver an anti-tachyarrhythmia shock; and responsive to detecting the disable event, disable delivery of ATP. a signal generator configured to generate and deliver anti-tachyarrhythmia pacing (ATP) to a heart of a patient; and processing circuitry configured to: detect an enable event; responsive to detecting the enable event, enable the delivery of ATP by the signal generator; detect a disable event indicating that another implantable medical device cannot be relied upon to deliver an anti-tachyarrhythmia shock; and responsive to detecting the disable event, disable delivery of ATP. detect an enable event; responsive to detecting the enable event, enable the delivery of ATP by the signal generator; detect a disable event indicating that another implantable medical device cannot be relied upon to deliver an anti-tachyarrhythmia shock; and responsive to detecting the disable event, disable delivery of ATP.
Method for operating an electronic consumption-data acquisition device , wherein the consumption data are transferred wirelessly to a receiver in the form of a mobile data collector or static data collector by way of a first radio system , and wherein for operating the consumption-data acquisition device there is provision for a first operating mode , in which the consumption data are transferred by way of the first radio system , and there is provision for a second operating mode , which has a lower rate of data transmission and/or readiness to receive compared with the first operating mode , and it is possible to switch between the first and second operating modes (11 and 12 respectively), wherein the switchover for the first and second operating modes (11 and 12 respectively) is performed by means of a second radio system , which comprises a communication unit that is in contact with a switching centre of an energy supplier and that transmits control signals comprising switchover signals to the consumption-data acquisition device for the switchover between the first and second operating modes (11 and 12 respectively), and wherein the second radio system has a greater range compared with the first radio system . wherein the consumption data are transferred wirelessly to a receiver in the form of a mobile data collector or static data collector by way of a first radio system , and wherein for operating the consumption-data acquisition device there is provision for a first operating mode , in which the consumption data are transferred by way of the first radio system , and there is provision for a second operating mode , which has a lower rate of data transmission and/or readiness to receive compared with the first operating mode , and it is possible to switch between the first and second operating modes (11 and 12 respectively), wherein the switchover for the first and second operating modes (11 and 12 respectively) is performed by means of a second radio system , which comprises a communication unit that is in contact with a switching centre of an energy supplier and that transmits control signals comprising switchover signals to the consumption-data acquisition device for the switchover between the first and second operating modes (11 and 12 respectively), and wherein the second radio system has a greater range compared with the first radio system .
An aerosol delivery device, comprising: an aerosol precursor composition; an atomizer; an electrical power source ; and a wireless power transmitter, the wireless power transmitter being configured to receive an electrical current from the electrical power source and wirelessly heat the atomizer, the atomizer being configured to heat the aerosol precursor composition to produce an aerosol; wherein a substrate includes the aerosol precursor composition, wherein the atomizer comprises an induction receiver positioned in proximity to but out of direct contact with the substrate , the induction receiver being configured to generate heat when exposed to an oscillating magnetic field and heat the aerosol precursor composition to produce an aerosol; wherein the wireless power transmitter comprises an induction transmitter configured to generate the oscillating magnetic field, the induction transmitter being configured to at least partially surround the induction receiver . an aerosol precursor composition; an atomizer; an electrical power source ; and a wireless power transmitter, the wireless power transmitter being configured to receive an electrical current from the electrical power source and wirelessly heat the atomizer, the atomizer being configured to heat the aerosol precursor composition to produce an aerosol; wherein a substrate includes the aerosol precursor composition, wherein the atomizer comprises an induction receiver positioned in proximity to but out of direct contact with the substrate , the induction receiver being configured to generate heat when exposed to an oscillating magnetic field and heat the aerosol precursor composition to produce an aerosol; wherein the wireless power transmitter comprises an induction transmitter configured to generate the oscillating magnetic field, the induction transmitter being configured to at least partially surround the induction receiver .
Cathode of a metal/air cell comprising at least one active layer made of an active material and having an air side (A) and a metal side (M), a current collector , and a hydrophobic membrane made of a hydrophobic material and deposited on the air side (A) of the active layer , said hydrophobic material having a porous structure and said hydrophobic material having penetrated the air side (A) of the active layer so as to form, between the hydrophobic membrane and the active layer , an interpenetration area (Z) of the hydrophobic material in the active material in which exists a hydrophobic material concentration gradient that decreases in the direction in which the air enters the cathode, characterised in that the hydrophobic material is an extruded then expanded fluorinated polymer, the porous structure whereof takes the form of an array of fibrils interconnecting solid nodes, the space between the nodes and the fibrils forming microscopic pores, and in that the concentration of hydrophobic material in the interpenetration area (Z) changes from 100% to 0% in the direction in which the air enters the cathode, the interpenetration area extending over a thickness that lies in the range 10 to 25% of the overall thickness of the active layer.
A pharmaceutical composition comprising a therapeutically effective amount of a clostridial derivative and at least one permeabilizing agent, wherein the clostridial derivative is a botulinum toxin, and wherein the at least one permeabilizing agent comprises a non-ionic surfactant and a mucoadhesive, which is a cationic polymer, and wherein the at least one permeabilizing agent is present in an amount effective to substantially and reversibly increase the permeability of the bladder wall to the clostridial derivative.