mhurhangee/patent-ind-claim-en huggingface dataset:
An assistance device configured to assist in transferring a care receiver (M), the assistance device comprising: an actuator configured to execute an assisting operation; a support section driven by the actuator and configured to support a part of the care receiver's (M) body and put the care receiver (M) from a sitting posture into an in-transit posture by raising and lowering the support section supporting a part of the upper body of the care receiver (M) and swinging the support section forward and rearward; an input device configured to receive an instruction to execute the assisting operation from an operator; and a control section configured to control the actuator based on the instruction to execute the assisting operation received by the input device ; wherein the control section enacts an operation-suspended state in which the actuator is stopped when an alarm trigger occurs; the control section is configured to cancel the operation-suspended state when the input device receives the instruction to execute the assisting operation in the operation-suspended state if the alarm trigger has been eliminated; and the control section is configured to maintain the operation-suspended state when the input device receives the instruction to execute the assisting operation in the operation-suspended state if the alarm trigger has not been eliminated, characterized in that: the control section controls the actuator based on a re-input instruction of the assisting operation when the input device receives the re-input instruction to execute the assisting operation after cancelling the operation-suspended state. an actuator configured to execute an assisting operation; a support section driven by the actuator and configured to support a part of the care receiver's (M) body and put the care receiver (M) from a sitting posture into an in-transit posture by raising and lowering the support section supporting a part of the upper body of the care receiver (M) and swinging the support section forward and rearward; an input device configured to receive an instruction to execute the assisting operation from an operator; and a control section configured to control the actuator based on the instruction to execute the assisting operation received by the input device ; wherein the control section enacts an operation-suspended state in which the actuator is stopped when an alarm trigger occurs; the control section is configured to cancel the operation-suspended state when the input device receives the instruction to execute the assisting operation in the operation-suspended state if the alarm trigger has been eliminated; and the control section is configured to maintain the operation-suspended state when the input device receives the instruction to execute the assisting operation in the operation-suspended state if the alarm trigger has not been eliminated, characterized in that: the control section controls the actuator based on a re-input instruction of the assisting operation when the input device receives the re-input instruction to execute the assisting operation after cancelling the operation-suspended state.
A safety switch with differentiated CPUs for controlling a security access of a machine or industrial system, comprising: - a switching device adapted to be associated with a fixed part of an access to be controlled and having switching means adapted to be operatively connected to one or more control and/or service circuits of the system for the opening/closing thereof; - a driving device associated to a movable part of the access to interact with said switching means at the opening/closing of the access for opening/closing of one or more of said circuits; - control means associated with said switching device and adapted to receive input signals from said control and/or service circuits through respective communication buses to verify the proper operation and to control said switching means for sending an error signal and/or for stopping the system in case of no signal or detection of non-compliance; wherein said control means comprise at least a main CPU operatively connected with the communication buses associated with the safety functions of the system; characterized in that said control means comprise at least one auxiliary CPU operatively connected solely to the communication buses associated with service circuits and/or service devices not related to safety conditions of the system. - a switching device adapted to be associated with a fixed part of an access to be controlled and having switching means adapted to be operatively connected to one or more control and/or service circuits of the system for the opening/closing thereof; - a driving device associated to a movable part of the access to interact with said switching means at the opening/closing of the access for opening/closing of one or more of said circuits; - control means associated with said switching device and adapted to receive input signals from said control and/or service circuits through respective communication buses to verify the proper operation and to control said switching means for sending an error signal and/or for stopping the system in case of no signal or detection of non-compliance; wherein said control means comprise at least a main CPU operatively connected with the communication buses associated with the safety functions of the system;
Method for controlling an automatic transmission of a vehicle, in particular a double-clutch transmission, wherein, during an acceleration operation of the vehicle, at least one or more downward gear changes are carried out and, starting from a source gear, a target gear is engaged, characterized in that for a downward gear change to a first intended target gear (Z) and for at least one downward gear change to at least one second higher intended target gear (Z+1), the respective vehicle acceleration is calculated over a specific acceleration time period (Δt B ) that is to be expected and while considering gear-change operations that are to be expected in the specific acceleration time period (Δt B ) that is to be expected, and that intended target gear (Z, 2+1) which permits the highest vehicle acceleration over the specific acceleration time period (Δt B ) that is to be expected and/or requires the fewest gear-change operations is selected as the target gear, wherein the specific acceleration time period (Δt B ) that is to be expected extends at least as far as the conclusion of an upward gear change following the downward gear change.
A camera module, comprising: a flexible tape substrate including two end sections and a middle section ; the two end sections including surface mounted passive components on a top surface of the flexible tape substrate; the middle section including a window cavity for an imager die stack ; and the middle section further including the imager die stack on the top surface ; the imager die stack being encapsulated in a mold with an image receiving side left exposed facing the window cavity ; wherein the two end sections are overlaid with the middle section and folded toward the top surface of the flexible tape substrate ; such that the two end sections are in a parallel configuration with the middle section ; and a housing attached to contact pads located on a bottom surface of the flexible tape substrate ; wherein the housing is situated on the image receiving side ; the housing is in alignment with the middle section and the image receiving side of the imager die stack ; and at least the surface mounted passive components , the imager die stack and the housing are electrically connected through the flexible tape substrate . a flexible tape substrate including two end sections and a middle section ; the two end sections including surface mounted passive components on a top surface of the flexible tape substrate; the middle section including a window cavity for an imager die stack ; and the middle section further including the imager die stack on the top surface ; the imager die stack being encapsulated in a mold with an image receiving side left exposed facing the window cavity ; wherein the two end sections are overlaid with the middle section and folded toward the top surface of the flexible tape substrate ; such that the two end sections are in a parallel configuration with the middle section ; and a housing attached to contact pads located on a bottom surface of the flexible tape substrate ; wherein the housing is situated on the image receiving side ; the housing is in alignment with the middle section and the image receiving side of the imager die stack ; and at least the surface mounted passive components , the imager die stack and the housing are electrically connected through the flexible tape substrate .
A glass article comprising: a base (BS) which includes the composition of the glass article , the base (BS) has a flat portion ; and a Beilby layer (BL) is disposed on the top surface of the flat portion , the Beilby layer being a layer which is obtained by polishing the top surface of the glass article; characterized in that the glass article further comprising at least one side portion extending from the flat portion of the base (BS) and bent in a thickness direction of the glass article ; and at least a part of the side portion is free of the Beilby layer (BL); the glass composition contains SiO 2 which forms the skeleton of glass, wherein the content of SiO 2 in the glass composition equals to or is greater than 50 mol% and equals to or is less than 80 mol%. a base (BS) which includes the composition of the glass article , the base (BS) has a flat portion ; and a Beilby layer (BL) is disposed on the top surface of the flat portion , the Beilby layer being a layer which is obtained by polishing the top surface of the glass article; characterized in that the glass article further comprising at least one side portion extending from the flat portion of the base (BS) and bent in a thickness direction of the glass article ; and at least a part of the side portion is free of the Beilby layer (BL); the glass composition contains SiO 2 which forms the skeleton of glass, wherein the content of SiO 2 in the glass composition equals to or is greater than 50 mol% and equals to or is less than 80 mol%.
An apparatus for detecting smoke and having facial gesturing recognition capabilities, comprising: a logic device ; a smoke sensor coupled to the logic device ; an image sensor coupled to the logic device ; a communications interface coupled to the logic device ; an audible alarm generator coupled to the logic device ; and a power supply coupled to and powering the logic device , communications interface and the audible alarm generator ; wherein when the smoke sensor detects smoke the logic device generates at least one smoke alarm tone through the audible alarm generator , and a smoke alarm signal through the communications interface ; and wherein recognition of a predefined facial gesture initiates smoke alarm testing. a logic device ; a smoke sensor coupled to the logic device ; an image sensor coupled to the logic device ; a communications interface coupled to the logic device ; an audible alarm generator coupled to the logic device ; and a power supply coupled to and powering the logic device , communications interface and the audible alarm generator ; wherein when the smoke sensor detects smoke the logic device generates at least one smoke alarm tone through the audible alarm generator , and a smoke alarm signal through the communications interface ; and wherein recognition of a predefined facial gesture initiates smoke alarm testing.
A brush belt for a planting unit having a seed meter and seed delivery system , comprising: a base member having first side with a traction surface and a second side that is opposite the first side, the first side having a mounting surface , wherein elongated bristles extend from the mounting surface of the base member , the bristles are configured to hold seeds to limit the movement of the seeds relative to the base member or to one another, wherein the seeds can be held in the bristles such that the seeds are limited in movement vertically, horizontally or otherwise relative to the bristles or relative to other seeds in delivery system ; the mounting surface having a longitudinal axis (A), a first edge, and a second edge, the first edge and second edge of the mounting surface being parallel to the longitudinal axis (A); characterized in that a plurality of projections extending from the mounting surface between the first edge and the second edge, and a plurality of bristle clusters are coupled to the base member , each bristle cluster of the plurality of bristle clusters having a plurality of bristles and being positioned between two projections . a base member having first side with a traction surface and a second side that is opposite the first side, the first side having a mounting surface , wherein elongated bristles extend from the mounting surface of the base member , the bristles are configured to hold seeds to limit the movement of the seeds relative to the base member or to one another, wherein the seeds can be held in the bristles such that the seeds are limited in movement vertically, horizontally or otherwise relative to the bristles or relative to other seeds in delivery system ; the mounting surface having a longitudinal axis (A), a first edge, and a second edge, the first edge and second edge of the mounting surface being parallel to the longitudinal axis (A); characterized in that a plurality of projections extending from the mounting surface between the first edge and the second edge, and a plurality of bristle clusters are coupled to the base member , each bristle cluster of the plurality of bristle clusters having a plurality of bristles and being positioned between two projections .
A method of operations in a wellbore comprising: deploying a downhole tool in the wellbore , the downhole tool comprising an additive casting (30 1 -30 n , 30A 1 -30A n , 30B) that comprises an energetic material and a crystalline anhydrous acid blended together with a resin; positioning the downhole tool at a designated depth in the wellbore ; and causing a reaction of the energetic material to generate energy that drives the crystalline anhydrous acid into an opening formed in a sidewall of the wellbore thereby increasing a flow of hydrocarbons through the opening. deploying a downhole tool in the wellbore , the downhole tool comprising an additive casting (30 1 -30 n , 30A 1 -30A n , 30B) that comprises an energetic material and a crystalline anhydrous acid blended together with a resin; positioning the downhole tool at a designated depth in the wellbore ; and causing a reaction of the energetic material to generate energy that drives the crystalline anhydrous acid into an opening formed in a sidewall of the wellbore thereby increasing a flow of hydrocarbons through the opening.
A method for manufacturing molded article, comprising: a step of kneading a molten resin in a heating cylinder which houses a screw for kneading; a step of measuring a predetermined volume of a liquid, the liquid having a vaporization temperature lower than a temperature of the molten resin in the heating cylinder and the liquid being a substance which presents a state of liquid with a pressure of 1 atm and at a temperature of 20 °C; a step of injecting the predetermined volume of the liquid into the molten resin in the heating cylinder during the step of kneading the molten resin; a vaporization step of vaporizing the liquid injected into the molten resin in the heating cylinder in the heating cylinder ; a step of dispersing the vaporized liquid into the molten resin in the heating cylinder ; and a step of injecting the molten resin containing the vaporized liquid into a mold cavity , or pouring the molten resin containing the vaporized liquid into a cast, or extruding the molten resin containing the vaporized liquid through a die . a step of kneading a molten resin in a heating cylinder which houses a screw for kneading; a step of measuring a predetermined volume of a liquid, the liquid having a vaporization temperature lower than a temperature of the molten resin in the heating cylinder and the liquid being a substance which presents a state of liquid with a pressure of 1 atm and at a temperature of 20 °C; a step of injecting the predetermined volume of the liquid into the molten resin in the heating cylinder during the step of kneading the molten resin; a vaporization step of vaporizing the liquid injected into the molten resin in the heating cylinder in the heating cylinder ; a step of dispersing the vaporized liquid into the molten resin in the heating cylinder ; and a step of injecting the molten resin containing the vaporized liquid into a mold cavity , or pouring the molten resin containing the vaporized liquid into a cast, or extruding the molten resin containing the vaporized liquid through a die .
A computer-implemented method comprising: receiving , from a tenant and at a component of a multi-tenant computational environment , an application request to run a tenant application that accesses a resource of the multi-tenant computational environment ; requesting , from a trusted source of secrets, security context data related to the application request; receiving , by a trusted service, the security context data if the component is authorized to receive the security context data, wherein pieces of the security context data are sealed with a protection layer which only a trusted service can unseal; unsealing , by the trusted service, the security context data by interfacing with a protocol for wrapping/unwrapping application security context data; evaluating , by the trusted service, the security context data to authorize use of the security context data by the tenant application for executing processing; and running the tenant application on a trusted component of the multitenant computational environment in a context associated with the security context data if the tenant application is authorized based on evaluation of the security context data, wherein the running further comprises initiating the trusted component to run the tenant application under a provisioned service account for the tenant having only privileges to run the application in the context associated with the security context data. receiving , from a tenant and at a component of a multi-tenant computational environment , an application request to run a tenant application that accesses a resource of the multi-tenant computational environment ; requesting , from a trusted source of secrets, security context data related to the application request; receiving , by a trusted service, the security context data if the component is authorized to receive the security context data, wherein pieces of the security context data are sealed with a protection layer which only a trusted service can unseal; unsealing , by the trusted service, the security context data by interfacing with a protocol for wrapping/unwrapping application security context data; evaluating , by the trusted service, the security context data to authorize use of the security context data by the tenant application for executing processing; and running the tenant application on a trusted component of the multitenant computational environment in a context associated with the security context data if the tenant application is authorized based on evaluation of the security context data, wherein the running further comprises initiating the trusted component to run the tenant application under a provisioned service account for the tenant having only privileges to run the application in the context associated with the security context data.
Method for autonomous driving of a vehicle, called ego-vehicle (EV), in the presence of at least two target objects, a first object targets a second target object, the method comprising the steps of: - acquisition by at least one sensor of the ego-vehicle of movement data of the first target object; - determination of a speed of the first target object from said movement data of the first target object; - acquisition by at least one sensor of the ego-vehicle of movement data of the second target object; - determination of a weighted speed of the second target object from the movement data of the first target object and the movement data of the second target object, said weighting being a function of a speed of approximation between the first target object and the second target object; - determination of the minimum between the speed of the first target object and the weighted speed of the second target object; - generation of an autonomous driving instruction for the ego-vehicle from said minimum; and wherein the distance between the first target object and the ego-vehicle is less than the distance between the second target object and the ego-vehicle, or the first target object has a lower duration before collision with the ego-vehicle at a time before collision between the second target object and the ego-vehicle. - acquisition by at least one sensor of the ego-vehicle of movement data of the first target object; - determination of a speed of the first target object from said movement data of the first target object; - acquisition by at least one sensor of the ego-vehicle of movement data of the second target object; - determination of a weighted speed of the second target object from the movement data of the first target object and the movement data of the second target object, said weighting being a function of a speed of approximation between the first target object and the second target object; - determination of the minimum between the speed of the first target object and the weighted speed of the second target object; - generation of an autonomous driving instruction for the ego-vehicle from said minimum;
A capacitive voltage divider (CVD) method for measuring a voltage using a capacitor and an analog-to-digital converter (ADC) comprising a sample and hold capacitor, comprising the steps of: measuring a bandgap or reference voltage by the ADC and determining a first code value of the bandgap or reference voltage; charging the capacitor to a voltage to be measured and coupling the charged capacitor in parallel with the sample and hold capacitor of the ADC to share a sampled charge to perform a first CVD measurement thereby determining a second code value; and charging the capacitor to a known second voltage and coupling the charged capacitor in parallel with the sample and hold capacitor of the ADC to share a sampled charge to perform a second CVD measurement thereby determining a third code value; characterized in determining the voltage to be measured by calculating Vbg * 2 N * Cy / (Cz*Cx), wherein Vbg represents the bandgap or reference voltage, N represents the number of bits of the ADC , Cx represents the first code value, Cy represents the second code value, and Cz represents the third code value, and wherein the second voltage defines the full scale of the ADC . measuring a bandgap or reference voltage by the ADC and determining a first code value of the bandgap or reference voltage; charging the capacitor to a voltage to be measured and coupling the charged capacitor in parallel with the sample and hold capacitor of the ADC to share a sampled charge to perform a first CVD measurement thereby determining a second code value; and charging the capacitor to a known second voltage and coupling the charged capacitor in parallel with the sample and hold capacitor of the ADC to share a sampled charge to perform a second CVD measurement thereby determining a third code value; characterized in determining the voltage to be measured by calculating Vbg * 2 N * Cy / (Cz*Cx), wherein Vbg represents the bandgap or reference voltage, N represents the number of bits of the ADC , Cx represents the first code value, Cy represents the second code value, and Cz represents the third code value, and wherein the second voltage defines the full scale of the ADC .