mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for monitoring the status of a production order in a factory such as product and production order number a current device processes, comprising: generating (S102) at least one production IoT model on the basis of a production scheduling system document, wherein the production IoT model is used to represent the production order and comprises at least process attributes of product processing including processes comprised in the production order and wherein each attribute of product processing comprises a value, generating (S104) at least one product IoT model on the basis of a product design specification document, wherein the product IoT model is used to represent production process information of a product and also comprise at least process attributes of product processing, associating (S106) a production IoT model with a product IoT model having the same process attributes to determine specific information about the production order such as the product and the order number the current device processes according to the attribute values in the two IoT models, learning (S108) data of a production device acquired by a data acquisition automation control system in the factory to obtain a data model representing processing steps of a product, wherein each product processing comprises one or more processing steps, and matching (S110) the processing steps against the process attributes of the product IoT model and determining (S110) the status of the production order in the factory on the basis of the matching result. generating (S102) at least one production IoT model on the basis of a production scheduling system document, wherein the production IoT model is used to represent the production order and comprises at least process attributes of product processing including processes comprised in the production order and wherein each attribute of product processing comprises a value, generating (S104) at least one product IoT model on the basis of a product design specification document, wherein the product IoT model is used to represent production process information of a product and also comprise at least process attributes of product processing, associating (S106) a production IoT model with a product IoT model having the same process attributes to determine specific information about the production order such as the product and the order number the current device processes according to the attribute values in the two IoT models, learning (S108) data of a production device acquired by a data acquisition automation control system in the factory to obtain a data model representing processing steps of a product, wherein each product processing comprises one or more processing steps, and matching (S110) the processing steps against the process attributes of the product IoT model and determining (S110) the status of the production order in the factory on the basis of the matching result.
A print head (30/130) for use in an electrostatic imaging process, the print head comprising: a first electrode layer including a plurality of generator electrodes ; a second electrode layer including a plurality of discharge electrodes ; and an insulating layer disposed between the generator electrodes of the first electrode layer and the discharge electrodes of the second electrode layer; wherein each of the plurality of discharge electrodes includes at least one discharge aperture (42/142) extending therethrough, the at least one discharge aperture having an undercut region defining a discharge surface spaced from and substantially parallel to an opposed surface of the insulating layer, characterized in that the at least one discharge aperture of each of the plurality of discharge electrodes is substantially circular and has a diameter of less than a thickness of the insulating layer wherein the discharge surface of the discharge electrode is spaced from the opposed surface of the insulating layer by a distance of approximately 4 microns, when the print head is configured to operate at atmospheric pressure; and wherein the discharge surface of the discharge electrode is spaced from the opposed surface of the insulating layer by a distance smaller than 4 microns, and not less than the Paschen minimun for the ambient pressure, when the print head is configured to operate at an ambient pressure higher than atmospheric pressure. a first electrode layer including a plurality of generator electrodes ; a second electrode layer including a plurality of discharge electrodes ; and an insulating layer disposed between the generator electrodes of the first electrode layer and the discharge electrodes of the second electrode layer; wherein each of the plurality of discharge electrodes includes at least one discharge aperture (42/142) extending therethrough, the at least one discharge aperture having an undercut region defining a discharge surface spaced from and substantially parallel to an opposed surface of the insulating layer, characterized in that the at least one discharge aperture of each of the plurality of discharge electrodes is substantially circular and has a diameter of less than a thickness of the insulating layer wherein the discharge surface of the discharge electrode is spaced from the opposed surface of the insulating layer by a distance of approximately 4 microns, when the print head is configured to operate at atmospheric pressure; and wherein the discharge surface of the discharge electrode is spaced from the opposed surface of the insulating layer by a distance smaller than 4 microns, and not less than the Paschen minimun for the ambient pressure, when the print head is configured to operate at an ambient pressure higher than atmospheric pressure.
Patient interface for affixment on onto a patient eye, said patient interface including - a negative pressure cavity with a top wall and a circumferential outer wall , - an optical passage , wherein the top wall circumferentially surrounds the optical passage and wherein the circumferential outer wall projects from the top wall and circumferentially surrounds the optical passage ; - a number of rib members , the rib members projecting separately from each other from the top wall into the negative pressure cavity between the circumferential outer wall and the optical passage , characterized in that the rib members are arranged along tangents to a common circumferential curve, the circumferential curve being equidistant to the circumferential outer wall . - a negative pressure cavity with a top wall and a circumferential outer wall , - an optical passage , wherein the top wall circumferentially surrounds the optical passage and wherein the circumferential outer wall projects from the top wall and circumferentially surrounds the optical passage ; - a number of rib members , the rib members projecting separately from each other from the top wall into the negative pressure cavity between the circumferential outer wall and the optical passage , characterized in that the rib members are arranged along tangents to a common circumferential curve, the circumferential curve being equidistant to the circumferential outer wall .
A sandwich structure comprising a skin layer and a core layer, the skin layer including at least one layer of: a metal layer; a fiber reinforced resin layer (X) comprising a continuous fiber and a matrix resin (A) and; a fiber reinforced resin layer (Y) comprising a discontinuous fiber and a thermosetting matrix resin (B), the core layer including a fluid core layer which easily fluidizes by heating or pressuring comprising a discontinuous fiber and a matrix resin (C), wherein the skin layer is made of a material having a bending elastic modulus higher than that of the core layer and is provided at least partially with a penetration part. a metal layer; a fiber reinforced resin layer (X) comprising a continuous fiber and a matrix resin (A) and; a fiber reinforced resin layer (Y) comprising a discontinuous fiber and a thermosetting matrix resin (B), the core layer including a fluid core layer which easily fluidizes by heating or pressuring comprising a discontinuous fiber and a matrix resin (C), wherein the skin layer is made of a material having a bending elastic modulus higher than that of the core layer and is provided at least partially with a penetration part.
A method reducing motion-to-photon latency and memory bandwidth in a virtual reality display system , the method comprising: receiving , by a dedicated sensor processing component , sensor data directly from one or more sensors tracking translational and rotational motion of a user for a virtual reality application ; computing , by the dedicated sensor processing component , an updated position of the user based on the sensor data; computing , by the dedicated sensor processing component , a speed and an acceleration of the user based on the sensor data; and providing, by the dedicated sensor processing component, the updated position, the speed, and the acceleration by directly feeding to a hardware warp engine implemented by a graphics processing unit, GPU , the GPU configured to update a rendered image before sending to a virtual reality display based on one or more of the received updated position, the speed, and the acceleration, wherein the providing the updated position, the speed, and the acceleration to the warp engine comprises bypassing a command buffer associated with the GPU . receiving , by a dedicated sensor processing component , sensor data directly from one or more sensors tracking translational and rotational motion of a user for a virtual reality application ; computing , by the dedicated sensor processing component , an updated position of the user based on the sensor data; computing , by the dedicated sensor processing component , a speed and an acceleration of the user based on the sensor data; and providing, by the dedicated sensor processing component, the updated position, the speed, and the acceleration by directly feeding to a hardware warp engine implemented by a graphics processing unit, GPU , the GPU configured to update a rendered image before sending to a virtual reality display based on one or more of the received updated position, the speed, and the acceleration, wherein the providing the updated position, the speed, and the acceleration to the warp engine comprises bypassing a command buffer associated with the GPU .
A method of managing physical layer security in a wireless device, comprising: receiving , by a processor of the wireless device, downlink control signaling that includes a first signature from a base station in a physical downlink control channel, PDCCH, wherein the PDCCH is a downlink control channel that carries downlink control signaling; determining , by the processor, a second signature based on the first signature received from the base station; receiving , by the processor, a communication from the base station in a physical downlink shared channel, PDSCH, wherein the PDSCH is a downlink data channel that carries the communication, and wherein the communication was modified using the second signature from the base station; performing , by the processor, a matching operation to determine whether the second signature determined by the processor matches the second signature used to modify the communication; and enabling , by the processor, communication with the base station in response to determining that the second signature determined by the processor matches the second signature used to modify the communication. receiving , by a processor of the wireless device, downlink control signaling that includes a first signature from a base station in a physical downlink control channel, PDCCH, wherein the PDCCH is a downlink control channel that carries downlink control signaling; determining , by the processor, a second signature based on the first signature received from the base station; receiving , by the processor, a communication from the base station in a physical downlink shared channel, PDSCH, wherein the PDSCH is a downlink data channel that carries the communication, and wherein the communication was modified using the second signature from the base station; performing , by the processor, a matching operation to determine whether the second signature determined by the processor matches the second signature used to modify the communication; and enabling , by the processor, communication with the base station in response to determining that the second signature determined by the processor matches the second signature used to modify the communication.
A method comprising: communicating, by a wireless access point that behaves as a bridge between a device and a cellular access network node , a link layer frame between the device and the cellular access network node , the link layer frame comprising a portion including a header and data of an upper layer protocol layer instance in the device or the cellular access network node , the header including identification information to identify which of a plurality of upper layer protocol layer instances the data is associated with, wherein the portion of the link layer frame comprising the header and the data is a payload of an Ethertype Protocol Discrimination, EPD, encoded frame; and advertising, by the bridge, a capability to support bridged access to a cellular network, the bridged access allowing communication between devices and cellular network access nodes of the cellular network through the bridge, the advertising comprising setting an EPD capability indicator to a specified value. communicating, by a wireless access point that behaves as a bridge between a device and a cellular access network node , a link layer frame between the device and the cellular access network node , the link layer frame comprising a portion including a header and data of an upper layer protocol layer instance in the device or the cellular access network node , the header including identification information to identify which of a plurality of upper layer protocol layer instances the data is associated with, wherein the portion of the link layer frame comprising the header and the data is a payload of an Ethertype Protocol Discrimination, EPD, encoded frame; and advertising, by the bridge, a capability to support bridged access to a cellular network, the bridged access allowing communication between devices and cellular network access nodes of the cellular network through the bridge, the advertising comprising setting an EPD capability indicator to a specified value.
A method for programming a remote control comprising the steps of: - Selecting the device to be remotely controlled with the remote control ; - Reading metadata identifying the device ; - Transmitting the metadata to an external database ; - Selecting code sets matching the device in the database ; - Transmitting at least one selected code set to the remote control ; and - Sending an acknowledgment signal to the database , when the selected code set properly matches the device to be remotely controlled; characterized by the following steps: - filtering the meta-data in the external database in order to generate "fingerprints", that describe a model of the identified device but not the identified device; - assigning the "fingerprints" to the multiple code sets stored in the database according to probability weighting, wherein the probability weighting considers a time difference between the current query and queries previously confirmed by the confirmation signal as well as a frequency of the previous queries that are acknowledged with the acknowledgment signal; and - transmitting the multiple code sets to the remote control in a sequence sorted by probability weighting. - Selecting the device to be remotely controlled with the remote control ; - Reading metadata identifying the device ; - Transmitting the metadata to an external database ; - Selecting code sets matching the device in the database ; - Transmitting at least one selected code set to the remote control ; and - Sending an acknowledgment signal to the database , when the selected code set properly matches the device to be remotely controlled; - filtering the meta-data in the external database in order to generate "fingerprints", that describe a model of the identified device but not the identified device; - assigning the "fingerprints" to the multiple code sets stored in the database according to probability weighting, wherein the probability weighting considers a time difference between the current query and queries previously confirmed by the confirmation signal as well as a frequency of the previous queries that are acknowledged with the acknowledgment signal; and - transmitting the multiple code sets to the remote control in a sequence sorted by probability weighting.
A method, comprising: selecting, by a second network element of a base station, a baseband processing combination, BPC, for a user equipment, when in a process of the user equipment accessing the second network element; and sending, by the second network element to a first network element of the base station, the BPC selected for the user equipment, wherein the second network element is connected to the first network element. selecting, by a second network element of a base station, a baseband processing combination, BPC, for a user equipment, when in a process of the user equipment accessing the second network element; and sending, by the second network element to a first network element of the base station, the BPC selected for the user equipment, wherein the second network element is connected to the first network element.
A method of operating a kitchen appliance , the method comprising the steps of: receiving at a processor a stored sequence of user settings and a stored sequence of a recorded parameter; segmenting at the processor the stored sequence of the recorded parameter into preparation segments, the stored sequence of recorded parameter being segmented by detecting changes in the stored sequence of the recorded parameter; applying at the processor the stored sequence of user settings to the kitchen appliance; with a sensor, sensing a sensed parameter while the stored sequence of user settings is applied to the kitchen appliance; determining at the processor a difference between the sensed parameter and a corresponding recorded parameter of the stored sequence of the recorded parameter; and if the determined difference between the sensed parameter and the corresponding recorded parameter exceeds a difference threshold, adjusting at the processor at least one user setting applied. receiving at a processor a stored sequence of user settings and a stored sequence of a recorded parameter; segmenting at the processor the stored sequence of the recorded parameter into preparation segments, the stored sequence of recorded parameter being segmented by detecting changes in the stored sequence of the recorded parameter; applying at the processor the stored sequence of user settings to the kitchen appliance; with a sensor, sensing a sensed parameter while the stored sequence of user settings is applied to the kitchen appliance; determining at the processor a difference between the sensed parameter and a corresponding recorded parameter of the stored sequence of the recorded parameter; and if the determined difference between the sensed parameter and the corresponding recorded parameter exceeds a difference threshold, adjusting at the processor at least one user setting applied.
A simulation model for simulating a tube line comprising at least one hollow cylindrical section that is configured to be arranged in a tube receiver of a blood leak detector , preferably of a blood leak detector of a blood treatment machine, wherein a respective receiver for a respective light source is provided at the axial ends of the hollow cylindrical section , by means of which light source light can be introduced into the hollow cylindrical section ; and at least one light guidance element that is arranged in the hollow cylindrical section and that is configured to deflect light introduced into the hollow cylindrical section such that the light moves outwardly out of the hollow cylindrical section through at least one opening in a radial outer side of the hollow cylindrical section , characterized in that a respective light source that preferably introduces red and/or green light into the hollow cylindrical section is arranged in the receivers at the axial ends of the hollow cylindrical section .
A method of performing a prostate biopsy comprising: imaging a prostate in an axial plane and a sagittal plane with a transducer providing a realtime image; locating a target area of the prostate ; positioning an access needle at an access site in subcutaneous tissue of a perineum , wherein the access site is between a lateral edge of the prostate and a urethra along a first axis and between an anterior capsule and a posterior capsule along a second axis; guiding a biopsy instrument through the access needle and along the sagittal plane to the target area using the real-time image; and obtaining one or more specimens of the prostate through the access needle with the biopsy instrument . imaging a prostate in an axial plane and a sagittal plane with a transducer providing a realtime image; locating a target area of the prostate ; positioning an access needle at an access site in subcutaneous tissue of a perineum , wherein the access site is between a lateral edge of the prostate and a urethra along a first axis and between an anterior capsule and a posterior capsule along a second axis; guiding a biopsy instrument through the access needle and along the sagittal plane to the target area using the real-time image; and obtaining one or more specimens of the prostate through the access needle with the biopsy instrument .
Method for adjusting the speed of at least one vehicle (V1, V2, V3, V4, V5) belonging to a first set of at least two autonomous vehicles moving in a coordinated manner on an itinerary, comprising the following steps implemented in an entity (Op1) for managing a telecommunications infrastructure which is able to transmit a message to the at least one vehicle: - acquiring event information (Mf) originating from a vehicle (V1) in the first set and relating to an event occurring on said itinerary, said information comprising an identifier of the vehicle (V1) associated with an identifier of the first set, - identifying at least one target vehicle (V1, V2, V3, V4, V5) and at least one second set of vehicles in accordance with the transmitting vehicle determined on the basis of the identifier of the vehicle transmitting the acquired event information, - determining an instruction to adjust the speed of the at least one target vehicle (V1, V2, V3, V4, V5) in accordance with the acquired event information, - transmitting, to the at least one identified vehicle (V1, V2, V3, V4, V5) and to a second entity (Op2) for managing a telecommunications infrastructure in charge of the at least one second set, said instruction to adjust the speed (Mr, Mr1, Mr2) of the at least one target vehicle (V1, V2, V3, V4, V5). - acquiring event information (Mf) originating from a vehicle (V1) in the first set and relating to an event occurring on said itinerary, said information comprising an identifier of the vehicle (V1) associated with an identifier of the first set, - identifying at least one target vehicle (V1, V2, V3, V4, V5) and at least one second set of vehicles in accordance with the transmitting vehicle determined on the basis of the identifier of the vehicle transmitting the acquired event information, - determining an instruction to adjust the speed of the at least one target vehicle (V1, V2, V3, V4, V5) in accordance with the acquired event information, - transmitting, to the at least one identified vehicle (V1, V2, V3, V4, V5) and to a second entity (Op2) for managing a telecommunications infrastructure in charge of the at least one second set, said instruction to adjust the speed (Mr, Mr1, Mr2) of the at least one target vehicle (V1, V2, V3, V4, V5).