mhurhangee/patent-ind-claim-en huggingface dataset:
A printing system comprising: a plurality of printheads , each printhead in the plurality of printheads being configured to eject marking material; a conveyor configured to move a stack of nested objects toward the plurality of printheads, the conveyor including a member having a plurality of protuberances that extend from the member to engage a portion of each object in the stack of nested objects except the object closest to the plurality of printheads; a spindle configured for reciprocal movement; an actuator operatively connected to the spindle to enable the actuator to move the spindle within an orifice of the object in the stack of nested objects that is closest to the plurality of printheads to engage the object and to move the object to a position opposite the plurality of printheads; and a controller operatively connected to the plurality of printheads, the conveyor, and the actuator, the controller being configured to operate the conveyor to move at least a portion of the stack of nested objects within the printing system, to operate the actuator to move the spindle within the orifice of the object in the stack of nested objects that is closest to the plurality of printheads to engage the object, remove the object from the stack, and move the object to a position opposite the plurality of printheads, and to operate the plurality of printheads to eject marking material onto the object on the spindle. a plurality of printheads , each printhead in the plurality of printheads being configured to eject marking material; a conveyor configured to move a stack of nested objects toward the plurality of printheads, the conveyor including a member having a plurality of protuberances that extend from the member to engage a portion of each object in the stack of nested objects except the object closest to the plurality of printheads; a spindle configured for reciprocal movement; an actuator operatively connected to the spindle to enable the actuator to move the spindle within an orifice of the object in the stack of nested objects that is closest to the plurality of printheads to engage the object and to move the object to a position opposite the plurality of printheads; and a controller operatively connected to the plurality of printheads, the conveyor, and the actuator, the controller being configured to operate the conveyor to move at least a portion of the stack of nested objects within the printing system, to operate the actuator to move the spindle within the orifice of the object in the stack of nested objects that is closest to the plurality of printheads to engage the object, remove the object from the stack, and move the object to a position opposite the plurality of printheads, and to operate the plurality of printheads to eject marking material onto the object on the spindle.
An integrated circuit comprising: a FPGA fabric ; and a communication interface ; wherein the integrated circuit is adapted to: during a first initialization stage, receive interface configuration data via a first communication link ; and configure the communication interface using the interface configuration data to establish a second communication link with a host device external to the integrated circuit device ; and during a second initialization stage, initially configure at least a portion of the FPGA fabric using data received via the second communication link . a FPGA fabric ; and a communication interface ; wherein the integrated circuit is adapted to: during a first initialization stage, receive interface configuration data via a first communication link ; and configure the communication interface using the interface configuration data to establish a second communication link with a host device external to the integrated circuit device ; and during a second initialization stage, initially configure at least a portion of the FPGA fabric using data received via the second communication link . during a first initialization stage, receive interface configuration data via a first communication link ; and configure the communication interface using the interface configuration data to establish a second communication link with a host device external to the integrated circuit device ; and during a second initialization stage, initially configure at least a portion of the FPGA fabric using data received via the second communication link .
A composition comprising pimobendan in particulate form embedded within a lipid carrier matrix, wherein the carrier matrix consists of pharmaceutically acceptable carriers selected from polyethylene glycols (PEGs).
A method for treating a target surface, the method comprising steps of: a. using machine learning in evaluating at least one digital image including the target surface; b. determining the nature of the target surface according to the evaluation of the at least one image; c. determining at least one available treatment implement according to the evaluation of the at least one image, whereby the availability determination is made by matching content in the at least one image with images of suitable implements presented in a training data set; d. providing information regarding implements associated with a treatment of the determined target surface, such implements not determined to be present in the evaluation of the at least one image; e. determining the nature of the surface treatment according to the evaluation of the at least one image; f. using machine learning to determine a use of the determined implement in the determined treatment of the determined surface; g. altering performance characteristics of the determined implement or providing information analogous to the determined use. a. using machine learning in evaluating at least one digital image including the target surface; b. determining the nature of the target surface according to the evaluation of the at least one image; c. determining at least one available treatment implement according to the evaluation of the at least one image, whereby the availability determination is made by matching content in the at least one image with images of suitable implements presented in a training data set; d. providing information regarding implements associated with a treatment of the determined target surface, such implements not determined to be present in the evaluation of the at least one image; e. determining the nature of the surface treatment according to the evaluation of the at least one image; f. using machine learning to determine a use of the determined implement in the determined treatment of the determined surface; g. altering performance characteristics of the determined implement or providing information analogous to the determined use.
An organic light-emitting display apparatus comprising: a substrate ; first electrodes arranged separate from one another on the substrate ; a second electrode disposed above the first electrodes to face the first electrodes; an intermediate layer disposed between the first electrodes and the second electrode and comprising an emission layer; a first encapsulating layer disposed on the second electrode , wherein only a portion of the first encapsulating layer is patterned to have a plurality of islands, the first encapsulating layer comprising an organic material; and a second encapsulating layer covering the islands of the first encapsulating layer and comprising an inorganic material, characterized in that the portion of the first encapsulating layer corresponds to a first region (A1) of the substrate and a disjoint further portion of the first encapsulating layer corresponding to a second region (A2) of the substrate is formed as one body, and that the substrate is a bendable substrate comprising a bending region, and the first region (A1) corresponds to the bending region. a substrate ; first electrodes arranged separate from one another on the substrate ; a second electrode disposed above the first electrodes to face the first electrodes; an intermediate layer disposed between the first electrodes and the second electrode and comprising an emission layer; a first encapsulating layer disposed on the second electrode , wherein only a portion of the first encapsulating layer is patterned to have a plurality of islands, the first encapsulating layer comprising an organic material; and a second encapsulating layer covering the islands of the first encapsulating layer and comprising an inorganic material, characterized in that the portion of the first encapsulating layer corresponds to a first region (A1) of the substrate and a disjoint further portion of the first encapsulating layer corresponding to a second region (A2) of the substrate is formed as one body, and that the substrate is a bendable substrate comprising a bending region, and the first region (A1) corresponds to the bending region.
A brake device , in particular a utility vehicle disk brake, having: - a brake disk , - at least one brake pad , - a transmission member coupled to the brake pad and used to press the at least one brake pad against the brake disk , - a drive for producing a drive variable (α), - a non-linear gear which is operatively connected to the drive and the transmission member and used for the non-linear transmission of the drive variable (α) to the transmission member , - an adjusting unit for adjusting an air gap between the transmission member and the brake disk , wherein the brake device comprises a brake pad wear sensor for detecting the degree of wear of the at least one brake pad , and a control unit which is connected to the brake pad wear sensor in a signal-conducting manner and is designed to modify the air gap according to the wear of the brake pad determined by the brake pad wear sensor , characterized in that the control unit is designed to enlarge the air gap with increasing wear of the brake pad . - a brake disk , - at least one brake pad , - a transmission member coupled to the brake pad and used to press the at least one brake pad against the brake disk , - a drive for producing a drive variable (α), - a non-linear gear which is operatively connected to the drive and the transmission member and used for the non-linear transmission of the drive variable (α) to the transmission member , - an adjusting unit for adjusting an air gap between the transmission member and the brake disk ,
An electrode catalyst comprising: a support containing carbon as a structural component, and catalyst particles supported on the support, wherein the catalyst particle comprises a core part formed on the support, and a shell part formed so as to cover at least a part of a surface of the core part, the catalyst particle having an average crystallite size of 3 to 16.0 nm, and the shell part having an average thickness of from 0.2 to 1.0 nm, the core part contains simple Pd, the shell part contains simple Pt, and a percentage Rc (atom%) of the carbon of the support and a percentage R Pd (atom%) of the simple Pd in an analytical region near a surface measured by X-ray photoelectron spectroscopy (XPS) under the following (A1) to (A6) conditions satisfy the conditions of the following equation , the measurement depth of the analytical region being greater than the thickness of the shell part, and the sum of a percentage R Pt (atom%) of the simple Pt, Rc and R Pd obtained in the analytical region is 100%. (A1) X-ray source: Monochromatic AlKα (A2) Photoelectron taking out angle: θ=75 °C (A3) Charge correction: Correcting on the basis that C1s peak energy is 284.8 eV (A4) Analytical region: 200 μm (A5) Chamber pressure at analyzing: about 1 x 10 -6 Pa (A6) Measuring depth (Escaping depth): about 5 nm 2.15 ≤ 100 × R Pd / R Pd + R C ≤ 4.50 the catalyst particle comprises a core part formed on the support, and a shell part formed so as to cover at least a part of a surface of the core part, the catalyst particle having an average crystallite size of 3 to 16.0 nm, and the shell part having an average thickness of from 0.2 to 1.0 nm, the core part contains simple Pd, the shell part contains simple Pt, and a percentage Rc (atom%) of the carbon of the support and a percentage R Pd (atom%) of the simple Pd in an analytical region near a surface measured by X-ray photoelectron spectroscopy (XPS) under the following (A1) to (A6) conditions satisfy the conditions of the following equation , the measurement depth of the analytical region being greater than the thickness of the shell part, and the sum of a percentage R Pt (atom%) of the simple Pt, Rc and R Pd obtained in the analytical region is 100%. (A1) X-ray source: Monochromatic AlKα (A2) Photoelectron taking out angle: θ=75 °C (A3) Charge correction: Correcting on the basis that C1s peak energy is 284.8 eV (A4) Analytical region: 200 μm (A5) Chamber pressure at analyzing: about 1 x 10 -6 Pa (A6) Measuring depth (Escaping depth): about 5 nm 2.15 ≤ 100 × R Pd / R Pd + R C ≤ 4.50 (A1) X-ray source: Monochromatic AlKα (A2) Photoelectron taking out angle: θ=75 °C (A3) Charge correction: Correcting on the basis that C1s peak energy is 284.8 eV (A4) Analytical region: 200 μm (A5) Chamber pressure at analyzing: about 1 x 10 -6 Pa (A6) Measuring depth (Escaping depth): about 5 nm 2.15 ≤ 100 × R Pd / R Pd + R C ≤ 4.50
A device for picking up at least one object comprising a gripper intended to come into contact with said object, the gripper comprising: a support comprising a plate having first and second opposite surfaces comprising first openings extending into the plate from the first surface across a portion only of the plate thickness and second openings extending into the plate from the second surface across a portion only of the plate thickness, each first opening communicating with at least one of the second openings ; at least one Bernoulli-effect air ejection nozzle attached to the support ; and at least one pipe connected to the nozzle and arranged in the first and second openings. a support comprising a plate having first and second opposite surfaces comprising first openings extending into the plate from the first surface across a portion only of the plate thickness and second openings extending into the plate from the second surface across a portion only of the plate thickness, each first opening communicating with at least one of the second openings ; at least one Bernoulli-effect air ejection nozzle attached to the support ; and at least one pipe connected to the nozzle and arranged in the first and second openings.
Method for controlling the temperature of a vehicle with at least a partially electric drive while the vehicle is connected to a charging station , wherein the plug of a charging cable of the charging station is plugged into the charging socket of the vehicle , comprising the following steps: (I) setting up a data link for bidirectional communication between the vehicle and the charging station via a radio link or a data cable, (II) acquiring vehicle-side data (D10) with vehicle-side means for acquiring data and acquiring charging-station-side data (D12) with charging-station-side means for acquiring data, wherein all types of sensors, a navigation device or the Internet serve for acquiring data, (III) determining optimum temperature control parameters (PT) of the battery and passenger cell by means of a logic means (L) by processing the acquired vehicle-side and charging-station-side data (D10, D12), and (IV) carrying out the temperature control of the battery and of the passenger compartment of the vehicle with temperature control means on the basis of the optimum temperature control parameters (PT), wherein the energy necessary for temperature control originates from the charging station , characterized in that the temperature control parameters (PT) are considered to be optimum when they can be used as a basis for controlling the temperature of the battery and the passenger compartment of the vehicle in such a way that the expected expenditure of energy for temperature control during travel is minimized, in that the temperature control of the passenger compartment includes the temperature control of the air in the passenger compartment and the temperature control of installation components which are in thermal contact with the air, and in that the vehicle-side data and the charging-station-side data (D12) comprise temperature and weather at the destination at the arrival time and during the course of the journey from a weather forecast from the Internet. (I) setting up a data link for bidirectional communication between the vehicle and the charging station via a radio link or a data cable, (II) acquiring vehicle-side data (D10) with vehicle-side means for acquiring data and acquiring charging-station-side data (D12) with charging-station-side means for acquiring data, wherein all types of sensors, a navigation device or the Internet serve for acquiring data, (III) determining optimum temperature control parameters (PT) of the battery and passenger cell by means of a logic means (L) by processing the acquired vehicle-side and charging-station-side data (D10, D12), and (IV) carrying out the temperature control of the battery and of the passenger compartment of the vehicle with temperature control means on the basis of the optimum temperature control parameters (PT), wherein the energy necessary for temperature control originates from the charging station ,
A method, comprising: converting , using computer hardware, a first partial reconfiguration module of a circuit design into a first partial reconfiguration container, wherein the circuit design is placed and routed; loading , using the computer hardware, a first netlist into the first partial reconfiguration container, wherein the first netlist includes a first plurality of partial reconfiguration modules that are initially empty; moving , using the computer hardware, a partition pin of a connection from a boundary of the first partial reconfiguration container to a boundary of a selected one of the first plurality of partial reconfiguration modules, wherein the partition pin has a PPLOC parameter and is not connected to any other cell within the first partial reconfiguration container that is external to the selected one of the first plurality of partial reconfiguration modules; including , using the computer hardware, a respective user specified netlist within each of the first plurality of partial reconfiguration modules; and implementing , using the computer hardware, the first partial reconfiguration container and the first plurality of partial reconfiguration modules within the first partial reconfiguration container by outputting a partial bitstream for the first partial reconfiguration container and respective partial bitstreams for the first plurality of partial reconfiguration modules. converting , using computer hardware, a first partial reconfiguration module of a circuit design into a first partial reconfiguration container, wherein the circuit design is placed and routed; loading , using the computer hardware, a first netlist into the first partial reconfiguration container, wherein the first netlist includes a first plurality of partial reconfiguration modules that are initially empty; moving , using the computer hardware, a partition pin of a connection from a boundary of the first partial reconfiguration container to a boundary of a selected one of the first plurality of partial reconfiguration modules, wherein the partition pin has a PPLOC parameter and is not connected to any other cell within the first partial reconfiguration container that is external to the selected one of the first plurality of partial reconfiguration modules; including , using the computer hardware, a respective user specified netlist within each of the first plurality of partial reconfiguration modules; and implementing , using the computer hardware, the first partial reconfiguration container and the first plurality of partial reconfiguration modules within the first partial reconfiguration container by outputting a partial bitstream for the first partial reconfiguration container and respective partial bitstreams for the first plurality of partial reconfiguration modules.
Method for knocking out a foundry core trapped inside an inner cavity of a part coming from a moulding operation, in particular a lost-wax moulding operation, comprising at least one primary step of chemical knock-out during which the part is exposed to a chemical solution for dissolving the core , in a closed enclosure or autoclave, characterised in that it comprises a secondary step of knock-out by ultrasound during which the part is immersed and subjected to ultrasounds in water or an aqueous solution contained in an ultrasound tank , to strip core residue from the walls of the cavity .
An air conditioner that comprises an indoor unit and an outdoor unit and in which the indoor unit is configured to activate the outdoor unit , wherein upon activating the outdoor unit , the indoor unit is configured to determine whether communication is capable of being established between the indoor unit and the outdoor unit , and, when the communication is not capable of being established, the indoor unit is configured to perform, without reactivating the outdoor unit , self-reception of receiving a first signal generated by the indoor unit and to determine whether to reactivate the outdoor unit on a basis of a result of the self-reception, the indoor unit and the outdoor unit are connected together via three lines including a power line , a power/signal common line , and a signal line , the indoor unit and the outdoor unit each include a transmitting unit and a receiving unit , the transmitting unit and the receiving unit of the indoor unit and the transmitting unit and the receiving unit of the outdoor unit are inserted in series between the power/signal common line and the signal line to form a current loop, and the indoor unit and the outdoor unit are configured to communicate with each other by detecting a communication current flowing in the current loop. upon activating the outdoor unit , the indoor unit is configured to determine whether communication is capable of being established between the indoor unit and the outdoor unit , and, when the communication is not capable of being established, the indoor unit is configured to perform, without reactivating the outdoor unit , self-reception of receiving a first signal generated by the indoor unit and to determine whether to reactivate the outdoor unit on a basis of a result of the self-reception, the indoor unit and the outdoor unit are connected together via three lines including a power line , a power/signal common line , and a signal line , the indoor unit and the outdoor unit each include a transmitting unit and a receiving unit , the transmitting unit and the receiving unit of the indoor unit and the transmitting unit and the receiving unit of the outdoor unit are inserted in series between the power/signal common line and the signal line to form a current loop, and the indoor unit and the outdoor unit are configured to communicate with each other by detecting a communication current flowing in the current loop.