mhurhangee/patent-ind-claim-en huggingface dataset:
A machine for planting bulbs , each bulb having a head , the machine comprising: - a hopper for receiving bulbs in bulk, the hopper having an outlet orifice for the bulbs , and - means for depositing the bulbs in a furrow of soil, the machine also comprising means for orienting the bulbs , the means for orienting the bulbs comprising: - a corridor , extending between the outlet orifice and the depositing means , and - means for driving the bulbs along the corridor , the corridor being bordered by two walls which are inclined relative to each other and each having a lower end , the lower ends of the walls defining therebetween a space (E) for receiving the head of the bulbs , characterised in that it also comprises gripping means interposed between the hopper and the orientation means , the gripping means comprising: - a plurality of buckets - a belt to which the buckets are fastened - a chute in which the belt circulates, the chute extending along a partition of the hopper , the buckets circulating, in the hopper in a first direction (S1) by each grasping a bulb from the outlet orifice , then out of the hopper in a second direction (S2) opposite to the first direction (S1). - a hopper for receiving bulbs in bulk, the hopper having an outlet orifice for the bulbs , and - means for depositing the bulbs in a furrow of soil, the machine also comprising means for orienting the bulbs , the means for orienting the bulbs comprising: - a corridor , extending between the outlet orifice and the depositing means , and - means for driving the bulbs along the corridor , the corridor being bordered by two walls which are inclined relative to each other and each having a lower end , the lower ends of the walls defining therebetween a space (E) for receiving the head of the bulbs , - a corridor , extending between the outlet orifice and the depositing means , and - means for driving the bulbs along the corridor , the corridor being bordered by two walls which are inclined relative to each other and each having a lower end , the lower ends of the walls defining therebetween a space (E) for receiving the head of the bulbs , characterised in that it also comprises gripping means interposed between the hopper and the orientation means , the gripping means comprising: - a plurality of buckets - a belt to which the buckets are fastened - a chute in which the belt circulates, the chute extending along a partition of the hopper , - a plurality of buckets - a belt to which the buckets are fastened - a chute in which the belt circulates, the chute extending along a partition of the hopper , the buckets circulating, in the hopper in a first direction (S1) by each grasping a bulb from the outlet orifice , then out of the hopper in a second direction (S2) opposite to the first direction (S1).
A method for manufacturing a dental prosthesis where a dental reinforcement is to be arranged inside resin, the method comprising: turning information on an intraoral shape into data; designing, in a form of data, a shape of a body that is a part to be formed of resin based on the data; determining, in the form of data, a position of the dental reinforcement that is to be arranged inside the body ; forming, in the form of data, a space and an opening that communicates with an outside in the position in the body where the dental reinforcement is to be arranged, based on the position, to design a body with an opening ; making the body with an opening , wherein the body is formed of resin; inserting the dental reinforcement into the body , wherein the dental reinforcement is formed of glass fibers; and covering the opening of the body . turning information on an intraoral shape into data; designing, in a form of data, a shape of a body that is a part to be formed of resin based on the data; determining, in the form of data, a position of the dental reinforcement that is to be arranged inside the body ; forming, in the form of data, a space and an opening that communicates with an outside in the position in the body where the dental reinforcement is to be arranged, based on the position, to design a body with an opening ; making the body with an opening , wherein the body is formed of resin; inserting the dental reinforcement into the body , wherein the dental reinforcement is formed of glass fibers; and covering the opening of the body .
A fluid dispensing valve comprising: a module having: a fluid inlet ; a fluid outlet ; and a fluid passage connecting the fluid inlet and the fluid outlet; a discharge orifice in fluid communication with the fluid outlet; a valve stem extending into the fluid passage to close-off the discharge orifice; and a filter disposed within the fluid passage and surrounding the valve stem, wherein the filter includes an annular body which extends across the fluid inlet, characterized in that the filter further includes a bushing comprising: a ring engaged with the fluid passage and having a guide bore for receiving the valve stem, wherein the guide bore is sized to produce a slip fit that provides filtration; an annular body extending from the ring and over which the annular body of the filter fits; a plurality of windows in the annular body; and an open end of the cylindrical body opposite the ring and through which the valve stem extends to engage the discharge orifice . a module having: a fluid inlet ; a fluid outlet ; and a fluid passage connecting the fluid inlet and the fluid outlet; a fluid inlet ; a fluid outlet ; and a fluid passage connecting the fluid inlet and the fluid outlet; a discharge orifice in fluid communication with the fluid outlet; a valve stem extending into the fluid passage to close-off the discharge orifice; and a filter disposed within the fluid passage and surrounding the valve stem, wherein the filter includes an annular body which extends across the fluid inlet, characterized in that the filter further includes a bushing comprising: a ring engaged with the fluid passage and having a guide bore for receiving the valve stem, wherein the guide bore is sized to produce a slip fit that provides filtration; an annular body extending from the ring and over which the annular body of the filter fits; a plurality of windows in the annular body; and an open end of the cylindrical body opposite the ring and through which the valve stem extends to engage the discharge orifice . a ring engaged with the fluid passage and having a guide bore for receiving the valve stem, wherein the guide bore is sized to produce a slip fit that provides filtration; an annular body extending from the ring and over which the annular body of the filter fits; a plurality of windows in the annular body; and an open end of the cylindrical body opposite the ring and through which the valve stem extends to engage the discharge orifice .
A computer-implemented method comprising: receiving a selection of a hydrocarbon well of a hydrocarbon production system at a safety logic solver for proof testing; activating test mode pressure sensors attached to a common header of the hydrocarbon production system to monitor a live process condition status of the common header from all wells of the hydrocarbon production system; inducing a simulated overpressure condition in operation pressure sensors attached to the common header; receiving an indication of overpressure at the safety logic solver from at least two operation pressure sensors; signaling final elements associated with the selected hydrocarbon well to close the selected hydrocarbon well while leaving other wells in the hydrocarbon production system in operation; restoring the operation pressure sensors to a normal pressure condition; and signaling the final elements associated with the selected hydrocarbon well to re-open the selected hydrocarbon well. receiving a selection of a hydrocarbon well of a hydrocarbon production system at a safety logic solver for proof testing; activating test mode pressure sensors attached to a common header of the hydrocarbon production system to monitor a live process condition status of the common header from all wells of the hydrocarbon production system; inducing a simulated overpressure condition in operation pressure sensors attached to the common header; receiving an indication of overpressure at the safety logic solver from at least two operation pressure sensors; signaling final elements associated with the selected hydrocarbon well to close the selected hydrocarbon well while leaving other wells in the hydrocarbon production system in operation; restoring the operation pressure sensors to a normal pressure condition; and signaling the final elements associated with the selected hydrocarbon well to re-open the selected hydrocarbon well.
A cartridge for use with a surgical instrument, the cartridge comprising: (a) a curved body ; (b) a deck defined by the curved body, wherein the deck is configured to clamp tissue against an anvil; (c) a plurality of staple openings formed in the deck, wherein the staple openings are configured to house a plurality of staples; (d) an arcuate slot formed in the deck, wherein the arcuate slot is configured to slidably receive a cutting member therethrough; (e) an opening formed in the deck adjacent to an end of the arcuate slot, wherein the opening is configured to slidably receive a pin therethrough; and (f) a raised surface offset from the deck and extending circumferentially about at least a portion of the opening, wherein the raised surface is configured to clamp tissue against the anvil to thereby fix the tissue relative to the opening. (a) a curved body ; (b) a deck defined by the curved body, wherein the deck is configured to clamp tissue against an anvil; (c) a plurality of staple openings formed in the deck, wherein the staple openings are configured to house a plurality of staples; (d) an arcuate slot formed in the deck, wherein the arcuate slot is configured to slidably receive a cutting member therethrough; (e) an opening formed in the deck adjacent to an end of the arcuate slot, wherein the opening is configured to slidably receive a pin therethrough; and (f) a raised surface offset from the deck and extending circumferentially about at least a portion of the opening, wherein the raised surface is configured to clamp tissue against the anvil to thereby fix the tissue relative to the opening.
A printable media comprising: a. a composite supporting substrate, with an image side and a non-image side, having a first and a second constituent material layers wherein, at least, one of the constituent material layer is a fiber layer and wherein the first and the second materials layers are laminated together with a flame resistant adhesion layer; wherein the flame resistant adhesion layer contains an adhesive compound and a flame retardant agent in an amount of up to 50% by total weight of the flame resistant adhesion layer; b. and an image receiving layer coated on the second layer on the image side of the composite supporting substrate; wherein: at least, the image side of the composite supporting substrate and the image receiving layer are textured surfaces that have controlled peak to valley transition and a slope angle (α) created by a tangent line from controlled peak to valley transition that is less than 60°, the slope angle (α) being determined as defined in the present description; and wherein the surface roughness of the printable media is greater than 5 μm per PPS method. a. a composite supporting substrate, with an image side and a non-image side, having a first and a second constituent material layers wherein, at least, one of the constituent material layer is a fiber layer and wherein the first and the second materials layers are laminated together with a flame resistant adhesion layer; wherein the flame resistant adhesion layer contains an adhesive compound and a flame retardant agent in an amount of up to 50% by total weight of the flame resistant adhesion layer; b. and an image receiving layer coated on the second layer on the image side of the composite supporting substrate; at least, the image side of the composite supporting substrate and the image receiving layer are textured surfaces that have controlled peak to valley transition and a slope angle (α) created by a tangent line from controlled peak to valley transition that is less than 60°, the slope angle (α) being determined as defined in the present description; and wherein the surface roughness of the printable media is greater than 5 μm per PPS method.
Use of a glass sheet in a device using an infrared radiation that propagates essentially inside said sheet, the glass sheet having a composition that comprises the following in a content expressed in percentages of the total weight of glass: 55 ≤ SiO 2 ≤ 85 % 18 < Al 2 O 3 ≤ 30 % 0 ≤ B 2 O 3 ≤ 20 % 0 ≤ Na 2 O ≤ 25 % 0 ≤ CaO ≤ 20 % 0 ≤ MgO ≤ 15 % 0 ≤ K 2 O ≤ 20 % 0 ≤ BaO ≤ 20 % 0.002 ≤ total iron expressed in the form of Fe 2 O 3 ≤ 0.02 % , characterised in that said composition comprises a chromium content such as : 0.0001% ≤ Cr 2 O 3 ≤ 0.06%, expressed in a percentage of the total weight of glass.
A method for configuring a radio equipment, RE, of an access node , the method being performed by a radio equipment controller, REC, of the access node , the REC having an REC-RE interface to the RE , the method comprising: determining (S102) scheduling and allocation of radio resources, wherein the radio resources are to be used by the RE when communicating over a radio interface in a scheduled transmission time interval, TTI; configuring (S104), in advance of the scheduled TTI, the RE to, in the scheduled TTI, operate according to the determined allocation of radio resources and communicate with the REC according to the determined scheduling by transmitting information about in which scheduled TTI to operate according to the determined allocation of radio resources, allocation information in terms of Physical Resource Blocks, PRBs, and layers, modulation to be used, beam forming weights to be applied for the different allocated segments of PRBs; and communicating (S106) data with the RE in the scheduled TTI according to the determined scheduling, and wherein the allocated radio resources configured in advance of the scheduled TTI are to be used for communicating said data over the radio interface in the scheduled TTI. determining (S102) scheduling and allocation of radio resources, wherein the radio resources are to be used by the RE when communicating over a radio interface in a scheduled transmission time interval, TTI; configuring (S104), in advance of the scheduled TTI, the RE to, in the scheduled TTI, operate according to the determined allocation of radio resources and communicate with the REC according to the determined scheduling by transmitting information about in which scheduled TTI to operate according to the determined allocation of radio resources, allocation information in terms of Physical Resource Blocks, PRBs, and layers, modulation to be used, beam forming weights to be applied for the different allocated segments of PRBs; and communicating (S106) data with the RE in the scheduled TTI according to the determined scheduling, and wherein the allocated radio resources configured in advance of the scheduled TTI are to be used for communicating said data over the radio interface in the scheduled TTI.
A method for producing a gasket to be used for a medical syringe, the method comprising the steps of: molding a gasket laminated with a film , wherein the film is one of ultrahigh molecular weight polyethylene films and fluororesin films, and having a circumferential surface portion in a gasket molding mold; and after demolding the gasket from the mold, forming a groove circumferentially in a portion of the film present in the circumferential surface portion of the gasket ; characterized in that a laser processing process is performed by applying a laser beam to the circumferential surface portion of the gasket obliquely with respect to the perpendicular to the circumference on a specific point in the groove forming step. molding a gasket laminated with a film , wherein the film is one of ultrahigh molecular weight polyethylene films and fluororesin films, and having a circumferential surface portion in a gasket molding mold; and after demolding the gasket from the mold, forming a groove circumferentially in a portion of the film present in the circumferential surface portion of the gasket ; characterized in that a laser processing process is performed by applying a laser beam to the circumferential surface portion of the gasket obliquely with respect to the perpendicular to the circumference on a specific point in the groove forming step.
Real-time method (M) for dynamic state variable determination, comprising: predicting (M1) an a priori probability density function, PDF, for a state variable vector as a function of a last a posteriori PDF and a non-linear stochastic process equation that characterises the state variable vector; generating (M2) a measured value vector that has observations about the state variable vector as measurement signals that are sampled by a sensor system; converting (M3) the measured value vector and the a priori PDF into a measured density function and discretizing the measured density function on a thin Cartesian grid; iterative step-by-step tracking (M4) of the a priori PDF of the measurement density function taking into account an affin linear transformation of the grid; and estimating (M5), after each step of the iterative tracking (M4), an updated a posteriori PDF as a product of the a priori PDF on the affine linearly transformed grid with a weighting coefficient that is formed from the ratio between the measurement density function on the non-transformed grid and the tracked measurement density function; wherein the state variable vector has spatial coordinates, velocity vectors and ballistic coefficients of a moving object to be observed in real time. predicting (M1) an a priori probability density function, PDF, for a state variable vector as a function of a last a posteriori PDF and a non-linear stochastic process equation that characterises the state variable vector; generating (M2) a measured value vector that has observations about the state variable vector as measurement signals that are sampled by a sensor system; converting (M3) the measured value vector and the a priori PDF into a measured density function and discretizing the measured density function on a thin Cartesian grid; iterative step-by-step tracking (M4) of the a priori PDF of the measurement density function taking into account an affin linear transformation of the grid; and estimating (M5), after each step of the iterative tracking (M4), an updated a posteriori PDF as a product of the a priori PDF on the affine linearly transformed grid with a weighting coefficient that is formed from the ratio between the measurement density function on the non-transformed grid and the tracked measurement density function; wherein the state variable vector has spatial coordinates, velocity vectors and ballistic coefficients of a moving object to be observed in real time.
A device for removing material from body lumens, the device comprising: a catheter body having a proximal end, a distal end and a catheter lumen extending therethrough; a cutter assembly located at the distal end of the catheter body, the cutter assembly comprising: a housing having at least one opening ; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism , wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly. a catheter body having a proximal end, a distal end and a catheter lumen extending therethrough; a cutter assembly located at the distal end of the catheter body, the cutter assembly comprising: a housing having at least one opening ; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism , wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly. a housing having at least one opening ; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism , wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly.
Display device for a motor vehicle , having at least one electronic display , having a first mirror (S1), and a second mirror (S2) arranged at a distance therefrom, wherein the two mirrors (S1, S2) are arranged so as to overlap at least in some regions in a projection view of the two mirrors (S1, S2), and an intermediate space is formed between the mirrors (S1, S2) in the overlap region , characterised in that the display device has at least one light source which is arranged such that its light can be emitted into the intermediate space , where said light can be reflected multiple times on the mirrors (S1, S2) in order to generate an infinity mirror effect such that an image with a light pattern that gives the appearance of an optical depth effect is formed in an image plane of the display device , wherein a visual image information item generated by the electronic display is mirrored into the image plane via the first mirror (S1) such that the visual image information item is represented in the image in addition to the light pattern .
A method of operating a wireless communication system to deliver a wireless data service to User Equipment, UE, responsive to a handover of the UE, the method comprising: a Radio Access Network Centralized Unit, RAN CU, transferring a handover registration to a Network Repository Function, NRF; a Session Management Function, SMF, transferring a handover subscription for the UE to the NRF; the NRF receiving the handover registration and the handover subscription; the RAN CU detecting a handover of the UE and responsively transferring a handover notice for the UE to the NRF; the NRF receiving the handover notice for the UE, and in response to the handover subscription for the UE from the SMF, transferring the handover notice for the UE to the SMF; and the SMF modifying the wireless data service for the UE responsive to the handover notice for the UE. a Radio Access Network Centralized Unit, RAN CU, transferring a handover registration to a Network Repository Function, NRF; a Session Management Function, SMF, transferring a handover subscription for the UE to the NRF; the NRF receiving the handover registration and the handover subscription; the RAN CU detecting a handover of the UE and responsively transferring a handover notice for the UE to the NRF; the NRF receiving the handover notice for the UE, and in response to the handover subscription for the UE from the SMF, transferring the handover notice for the UE to the SMF; and the SMF modifying the wireless data service for the UE responsive to the handover notice for the UE.