mhurhangee/patent-ind-claim-en huggingface dataset:
A hydraulic system for a machine that utilizes a hydraulic system to control movement of the machine and/or one or more components of the machine, said hydraulic system comprising: a first actuator to control a first linkage member; a second actuator to control a second linkage member connected to the first linkage member and to a work implement of a machine ; a first primary hydraulic circuit and a first secondary hydraulic circuit that include the first actuator ; a second primary hydraulic circuit and a second secondary hydraulic circuit that include the second actuator ; a first pump to cause fluid to flow through the first primary hydraulic circuit and the second secondary hydraulic circuit ; a second pump to cause fluid to flow through the second primary hydraulic circuit and the first secondary hydraulic circuit ; and a controller configured to: determine that an operator assistance mode is enabled for the machine ; and cause, based on determining that the operator assistance mode is enabled, closing of a first valve that controls fluid flow through the first secondary hydraulic circuit and a second valve that controls fluid flow through the second secondary hydraulic circuit . a first actuator to control a first linkage member; a second actuator to control a second linkage member connected to the first linkage member and to a work implement of a machine ; a first primary hydraulic circuit and a first secondary hydraulic circuit that include the first actuator ; a second primary hydraulic circuit and a second secondary hydraulic circuit that include the second actuator ; a first pump to cause fluid to flow through the first primary hydraulic circuit and the second secondary hydraulic circuit ; a second pump to cause fluid to flow through the second primary hydraulic circuit and the first secondary hydraulic circuit ; and a controller configured to: determine that an operator assistance mode is enabled for the machine ; and cause, based on determining that the operator assistance mode is enabled, closing of a first valve that controls fluid flow through the first secondary hydraulic circuit and a second valve that controls fluid flow through the second secondary hydraulic circuit . determine that an operator assistance mode is enabled for the machine ; and cause, based on determining that the operator assistance mode is enabled, closing of a first valve that controls fluid flow through the first secondary hydraulic circuit and a second valve that controls fluid flow through the second secondary hydraulic circuit .
A fluid injector comprising: an injector body comprising an interior cavity ; and a plunger positioned within the interior cavity of the injector body , the plunger having a plunger body and a fluid delivery passage extending from an upstream end of the plunger to a downstream end of the plunger , and a plunger tip comprising an upstream end and a downstream end , wherein the fluid delivery passage includes an internal longitudinal passage , a plurality of swirl passages , and a horizontal passage extending radially outward from a downstream end of the internal longitudinal passage to the exterior of the plunger body thereby forming an opening; the plurality of swirl passages each extending about an exterior surface of the plunger tip from the upstream end of the plunger tip to the downstream end of the plunger tip ; the opening being positioned upstream of the plunger tip; and the plunger tip , the opening, and the downstream end of the internal longitudinal passage are positioned at a downstream end of the plunger body . an injector body comprising an interior cavity ; and a plunger positioned within the interior cavity of the injector body , the plunger having a plunger body and a fluid delivery passage extending from an upstream end of the plunger to a downstream end of the plunger , and a plunger tip comprising an upstream end and a downstream end , wherein the fluid delivery passage includes an internal longitudinal passage , a plurality of swirl passages , and a horizontal passage extending radially outward from a downstream end of the internal longitudinal passage to the exterior of the plunger body thereby forming an opening; the plurality of swirl passages each extending about an exterior surface of the plunger tip from the upstream end of the plunger tip to the downstream end of the plunger tip ; the opening being positioned upstream of the plunger tip; and the plunger tip , the opening, and the downstream end of the internal longitudinal passage are positioned at a downstream end of the plunger body .
A method for processing substrates , in particular wafers, masks or flat panel displays, using a semiconductor industry machine , wherein an artificial neural network is used for determining the presence and/or the location and/or the orientation and/or the type of a substrate ; for determining the presence and/or the position and/or the orientation and/or the type of the substrate on the basis of at least one image that shows a location in or on the semiconductor industry machine or in the vicinity of the machine, where a substrate can be located during operation of the semiconductor industry machine ; wherein the at least one image is captured by at least one capturing unit ; and wherein the artificial neural network is used to generate an information dataset comprising a piece of information about the determined presence and/or position and/or orientation and/or type of the substrate and/or to generate and/or enable a control command which is used for directly controlling the semiconductor industry machine , or is used by the machine controller; or is forwarded to a higher-level control system; or is forwarded to an operator who draws conclusions from this piece of information for his actions to operate the machine, or forwards this piece of information to controllers or other operators, or is stored for later or further evaluation. for determining the presence and/or the position and/or the orientation and/or the type of the substrate on the basis of at least one image that shows a location in or on the semiconductor industry machine or in the vicinity of the machine, where a substrate can be located during operation of the semiconductor industry machine ; wherein the at least one image is captured by at least one capturing unit ; and wherein the artificial neural network is used to generate an information dataset comprising a piece of information about the determined presence and/or position and/or orientation and/or type of the substrate and/or to generate and/or enable a control command which is used for directly controlling the semiconductor industry machine , or is used by the machine controller; or is forwarded to a higher-level control system; or is forwarded to an operator who draws conclusions from this piece of information for his actions to operate the machine, or forwards this piece of information to controllers or other operators, or is stored for later or further evaluation.
Beam shaper comprising: a light collector , a homogenizing rod , a cone section , and a lens , wherein said light collector is configured to collect light from a light source inserted in said light collector and direct it into said homogenizing rod through a first end thereof; wherein said light is homogenized by total internal reflection from the side surfaces of said homogenizing rod , wherein said beam shaper is manufactured as one piece from a material that is transparent for the wavelengths of light that the beam shaper is intended to be used with, wherein said light exits said homogenizing rod through a second end thereof and enters said cone section , from where it reaches said lens , which directs said light onto a spot , whose intensity distribution is an image of the second end ; and wherein said cone section establishes a fixed distance between the second end and the lens . a light collector , a homogenizing rod , a cone section , and a lens , wherein said light collector is configured to collect light from a light source inserted in said light collector and direct it into said homogenizing rod through a first end thereof; wherein said light is homogenized by total internal reflection from the side surfaces of said homogenizing rod , wherein said beam shaper is manufactured as one piece from a material that is transparent for the wavelengths of light that the beam shaper is intended to be used with, wherein said light exits said homogenizing rod through a second end thereof and enters said cone section , from where it reaches said lens , which directs said light onto a spot , whose intensity distribution is an image of the second end ; and wherein said cone section establishes a fixed distance between the second end and the lens .
A recombinant nucleic acid molecule comprising a nucleotide sequence encoding a polypeptide having pesticidal activity, wherein said nucleotide sequence is selected from the group consisting of: (a) the nucleotide sequence set forth in SEQ ID NO: 7; (b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 21; and (c) a nucleotide sequence that encodes a polypeptide comprising from one to five amino acids substitutions, deletions or insertions relative to SEQ ID NO: 21, wherein the pesticidal activity of the fusion polypeptide is improved relative to the pesticidal activity of SEQ ID N0:43 in relation to mortality for at least one of European Com Borer, H. Zea, fall armyworm, and velvetbean caterpillar. (a) the nucleotide sequence set forth in SEQ ID NO: 7; (b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 21; and (c) a nucleotide sequence that encodes a polypeptide comprising from one to five amino acids substitutions, deletions or insertions relative to SEQ ID NO: 21, wherein the pesticidal activity of the fusion polypeptide is improved relative to the pesticidal activity of SEQ ID N0:43 in relation to mortality for at least one of European Com Borer, H. Zea, fall armyworm, and velvetbean caterpillar.
A method for processing a heart sensor output, wherein the heart sensor output comprises a sensed aortic blood pressure in the aorta over a cardiac cycle of a heart, the method comprising the steps of: - obtaining (S11, S21) a modified sensed blood pressure by suppressing the sensed blood pressure during a time interval of a diastolic stage of the cardiac cycle; - deriving (S12, S21) a blood flow from the modified sensed blood pressure by using an arterial flow model and setting one or more values for arterial flow parameters for the arterial flow model; - deriving (S13, S22) a simulated aortic blood pressure from the derived blood flow using the arterial flow model and the set values for the arterial flow parameters; and - matching (S14, S23) the simulated aortic blood pressure to the modified sensed blood pressure in the cardiac cycle by manipulating at least one of the values for the arterial flow parameters of the arterial flow model. - obtaining (S11, S21) a modified sensed blood pressure by suppressing the sensed blood pressure during a time interval of a diastolic stage of the cardiac cycle; - deriving (S12, S21) a blood flow from the modified sensed blood pressure by using an arterial flow model and setting one or more values for arterial flow parameters for the arterial flow model; - deriving (S13, S22) a simulated aortic blood pressure from the derived blood flow using the arterial flow model and the set values for the arterial flow parameters; and - matching (S14, S23) the simulated aortic blood pressure to the modified sensed blood pressure in the cardiac cycle by manipulating at least one of the values for the arterial flow parameters of the arterial flow model.
A reusable urinary catheter assembly , comprising: a catheter shaft ; and a plurality of removable members associated with the catheter shaft , wherein a different one of said removable members is configured to be removed from the catheter shaft between each consecutive use of the reusable urinary catheter assembly , and the number of times that the reusable urinary catheter assembly may be reused is limited by the number of removable members . a catheter shaft ; and a plurality of removable members associated with the catheter shaft , wherein a different one of said removable members is configured to be removed from the catheter shaft between each consecutive use of the reusable urinary catheter assembly , and the number of times that the reusable urinary catheter assembly may be reused is limited by the number of removable members . a different one of said removable members is configured to be removed from the catheter shaft between each consecutive use of the reusable urinary catheter assembly , and the number of times that the reusable urinary catheter assembly may be reused is limited by the number of removable members .
A signaling method related to resource allocation in a wireless communication system, the method performed by a base station, BS, and comprising: transmitting first information informing a first resource unit used for interleaving to a user equipment, UE, through a higher layer signal, wherein the first resource unit comprises a first number of resource blocks; performing interleaving based on the first resource unit on specific resources comprising a plurality of resource blocks for the UE, wherein the first information is informed to the UE separately from second information informing a second resource unit, comprising a second number of resource blocks, that the base station uses in resource allocation on the specific resources. transmitting first information informing a first resource unit used for interleaving to a user equipment, UE, through a higher layer signal, wherein the first resource unit comprises a first number of resource blocks; performing interleaving based on the first resource unit on specific resources comprising a plurality of resource blocks for the UE, wherein the first information is informed to the UE separately from second information informing a second resource unit, comprising a second number of resource blocks, that the base station uses in resource allocation on the specific resources.
A method comprising: preparing a chemically amplified photoresist composition comprising an organic solvent developable photoresist polymer, wherein the photoresist polymer comprises: (i) a poly(hydroxystyrene)-based polymer, which is represented by poly(4-hydroxystyrene-co-2-ethyl-2-adamantyl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (PHS-EAdMA-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the poly(hydroxystyrene)-based photoresist polymer in a range of 5-10 wt%; (ii) a lactone-based polymer, which is represented by poly(5-acryloyloxy-2,6-norbornanecarbolactone-co-2-ethyl-2-cyclopentayl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (NM-ECpMA-PStS) or poly(2-[1',1',1'-trifluoro-2'-(trifluoromethyl)-2'-hydroxy)propyl-3-norbornyl methacrylate-co-2-ethyl-2-cyclopentayl methacrylate-co-5-acryloyloxy-2,6-norbornanecarbolactone- co -2-hydroxypinanyl-3-(4-styrenesulfonate) (NBHFAMA-ECpMA-NM-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the lactone-based photoresist polymer in a range of 5-31 wt%; or (iii) a lactone-free polymer, which is represented by poly(2-[1',1',1'-trifluor-2'-(trifluoromethyl)-2'-hydroxy)propyl-3-norbornyl methacrylate-co-2-ethyl-2-cyclopentayl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (NBHFAMA-ECpMA-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the lactone-free photoresist polymer in a range of 5-31 wt%. (i) a poly(hydroxystyrene)-based polymer, which is represented by poly(4-hydroxystyrene-co-2-ethyl-2-adamantyl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (PHS-EAdMA-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the poly(hydroxystyrene)-based photoresist polymer in a range of 5-10 wt%; (ii) a lactone-based polymer, which is represented by poly(5-acryloyloxy-2,6-norbornanecarbolactone-co-2-ethyl-2-cyclopentayl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (NM-ECpMA-PStS) or poly(2-[1',1',1'-trifluoro-2'-(trifluoromethyl)-2'-hydroxy)propyl-3-norbornyl methacrylate-co-2-ethyl-2-cyclopentayl methacrylate-co-5-acryloyloxy-2,6-norbornanecarbolactone- co -2-hydroxypinanyl-3-(4-styrenesulfonate) (NBHFAMA-ECpMA-NM-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the lactone-based photoresist polymer in a range of 5-31 wt%; or (iii) a lactone-free polymer, which is represented by poly(2-[1',1',1'-trifluor-2'-(trifluoromethyl)-2'-hydroxy)propyl-3-norbornyl methacrylate-co-2-ethyl-2-cyclopentayl methacrylate-co-2-hydroxypinanyl-3-(4-styrenesulfonate) (NBHFAMA-ECpMA-PStS), and the acid-labile sulfonate-ester moiety (PStS) is present in the lactone-free photoresist polymer in a range of 5-31 wt%.
An optical coupling apparatus for coupling an optical fiber to a photonic chip , the optical coupling apparatus comprising: • a collimating microlens for collimating light from the optical fiber , • a polarization splitting beam displacer for separating light collimated by the collimating microlens into orthogonally polarized X and Y component beams, • a single focusing microlens for directing the X component beam onto a first surface grating coupler, first SGC , and for directing the Y component beam onto a second SGC , wherein a central ray of the X component beam and a central ray of the Y component beam do not propagate on an optical axis of the focusing microlens , • wherein the first and second SGCs are orthogonally disposed on the photonic chip and configured to operate in a same polarization state to couple the X and Y component beams respectively to the photonic chip . • a collimating microlens for collimating light from the optical fiber , • a polarization splitting beam displacer for separating light collimated by the collimating microlens into orthogonally polarized X and Y component beams, • a single focusing microlens for directing the X component beam onto a first surface grating coupler, first SGC , and for directing the Y component beam onto a second SGC , wherein a central ray of the X component beam and a central ray of the Y component beam do not propagate on an optical axis of the focusing microlens , • wherein the first and second SGCs are orthogonally disposed on the photonic chip and configured to operate in a same polarization state to couple the X and Y component beams respectively to the photonic chip .
An axle system for a vehicle , having an axis and comprising: - a differential unit including a first housing and a second housing which is at least partially arranged around the first housing and which rotationally receives at least part of said first housing ; - at least one drive shaft having one end configured to be connected to a wheel of the vehicle and one end connected to the differential unit and rotationally received in the first housing , the drive shaft including at least one joint connecting two portions (114a-d) of the drive shaft to transmit rotary motion between said portions (114a-d), the joint having a radial dimension (D); - a first bearing placed between the drive shaft and the first housing , the first bearing having an inner ring secured around the drive shaft and an outer ring ; - a second bearing placed between the first housing and the second housing ; characterized in that : - the outer diameter (D30) of the first bearing is smaller than the radial dimension (D) of the joint ; - and the axle system comprises at least one tightening member configured to axially lock the first bearing outer ring relative to the first housing , said tightening member comprising at least one manoeuvring portion which is arranged in an offset relation relative to the joint , when looking axially towards the differential unit , so that the tightening member manoeuvring portion is visible and accessible, at least during a tightening phase of an axle system mounting process. - a differential unit including a first housing and a second housing which is at least partially arranged around the first housing and which rotationally receives at least part of said first housing ; - at least one drive shaft having one end configured to be connected to a wheel of the vehicle and one end connected to the differential unit and rotationally received in the first housing , the drive shaft including at least one joint connecting two portions (114a-d) of the drive shaft to transmit rotary motion between said portions (114a-d), the joint having a radial dimension (D); - a first bearing placed between the drive shaft and the first housing , the first bearing having an inner ring secured around the drive shaft and an outer ring ; - a second bearing placed between the first housing and the second housing ; - the outer diameter (D30) of the first bearing is smaller than the radial dimension (D) of the joint ; - and the axle system comprises at least one tightening member configured to axially lock the first bearing outer ring relative to the first housing , said tightening member comprising at least one manoeuvring portion which is arranged in an offset relation relative to the joint , when looking axially towards the differential unit , so that the tightening member manoeuvring portion is visible and accessible, at least during a tightening phase of an axle system mounting process.
A shelf-stable packaged liquid enteral nutritional composition comprising 10 to 20 g of heat-treated, non-hydrolysed globular protein per 100 ml of the composition, wherein the heat-treated, non-hydrolysed globular protein is a globular protein selected from the group consisting of whey protein, pea protein and soy protein, which heat-treated, non-hydrolysed globular protein is obtainable by a heat treatment comprising the consecutive steps of: a) adjusting the pH of an aqueous composition comprising a non-hydrolysed globular protein to a value of 2 to 8; b) converting the composition of said non-hydrolysed globular protein obtained in step a) into an aerosol; c) subjecting the aerosol obtained in step b) to a temperature of 100 to 190 °C during a time of 30 to 300 milliseconds; d) flash-cooling the heat-treated aerosol obtained in step c) to a temperature below 85 °C, to obtain the heat-treated non-hydrolysed globular protein, wherein said composition comprising 10 to 20 g of heat-treated, non-hydrolysed globular protein per 100 ml of the composition is a sterilized or pasteurized composition. wherein the heat-treated, non-hydrolysed globular protein is a globular protein selected from the group consisting of whey protein, pea protein and soy protein, which heat-treated, non-hydrolysed globular protein is obtainable by a heat treatment comprising the consecutive steps of: a) adjusting the pH of an aqueous composition comprising a non-hydrolysed globular protein to a value of 2 to 8; b) converting the composition of said non-hydrolysed globular protein obtained in step a) into an aerosol; c) subjecting the aerosol obtained in step b) to a temperature of 100 to 190 °C during a time of 30 to 300 milliseconds; d) flash-cooling the heat-treated aerosol obtained in step c) to a temperature below 85 °C, a) adjusting the pH of an aqueous composition comprising a non-hydrolysed globular protein to a value of 2 to 8; b) converting the composition of said non-hydrolysed globular protein obtained in step a) into an aerosol; c) subjecting the aerosol obtained in step b) to a temperature of 100 to 190 °C during a time of 30 to 300 milliseconds; d) flash-cooling the heat-treated aerosol obtained in step c) to a temperature below 85 °C, to obtain the heat-treated non-hydrolysed globular protein, wherein said composition comprising 10 to 20 g of heat-treated, non-hydrolysed globular protein per 100 ml of the composition is a sterilized or pasteurized composition.