mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: providing a lead frame strip , having a thickness, including a plurality of lead frames , wherein the lead frame strip includes at least one depression , going only partially through the thickness of the lead frame strip , which becomes, after singulation of the lead frame strip into individual lead frames , at least one recess at a corner of an end of a lead of a lead frame ; at least partially filling the at least one depression with a material, wherein the material is a removable material other than a solder wettable material ; and encapsulating the strip with a mold compound before or after the step of filling the at least one depression with the material, characterized in that the method further comprises: singulating the lead frame strip into individual lead frames while the at least one depression is at least partially filled with the material ; and removing the material from the individual lead frames after the step of singulating. providing a lead frame strip , having a thickness, including a plurality of lead frames , wherein the lead frame strip includes at least one depression , going only partially through the thickness of the lead frame strip , which becomes, after singulation of the lead frame strip into individual lead frames , at least one recess at a corner of an end of a lead of a lead frame ; at least partially filling the at least one depression with a material, wherein the material is a removable material other than a solder wettable material ; and encapsulating the strip with a mold compound before or after the step of filling the at least one depression with the material, characterized in that the method further comprises: singulating the lead frame strip into individual lead frames while the at least one depression is at least partially filled with the material ; and removing the material from the individual lead frames after the step of singulating. singulating the lead frame strip into individual lead frames while the at least one depression is at least partially filled with the material ; and removing the material from the individual lead frames after the step of singulating.
A method of facilitating optimization of a multimodal radiation therapy plan employing a combined photon beam and electron beam radiation treatment, the method being performed by a radiation treatment system and comprising: obtaining information related to a set of candidate beam types for the combined photon beam and electron beam radiation treatment, each candidate beam type of the set of candidate beam types including one or more beam type parameters; comparing the set of candidate beam types against a selection criterion to establish a subset of beam types from the candidate beam types, wherein the selection criterion imposes a requirement such that only a limited number of beam types qualify as the subset of beam types for subsequent utilization in the combined photon beam and electron beam radiation treatment plan; generating the combined photon beam and electron beam radiation treatment plan utilizing only the established subset of beam types; and concurrently optimizing a dose delivery from a photon therapy device and an electron therapy device applying the generated combined photon beam and electron beam radiation treatment plan. obtaining information related to a set of candidate beam types for the combined photon beam and electron beam radiation treatment, each candidate beam type of the set of candidate beam types including one or more beam type parameters; comparing the set of candidate beam types against a selection criterion to establish a subset of beam types from the candidate beam types, wherein the selection criterion imposes a requirement such that only a limited number of beam types qualify as the subset of beam types for subsequent utilization in the combined photon beam and electron beam radiation treatment plan; generating the combined photon beam and electron beam radiation treatment plan utilizing only the established subset of beam types; and concurrently optimizing a dose delivery from a photon therapy device and an electron therapy device applying the generated combined photon beam and electron beam radiation treatment plan.
A multi-directional optical sensor module for testing an object, comprising: a substrate ; a light source disposed on the substrate, configured for emitting a light to an object surface; a first encapsulant formed over the light source, the first encapsulant having a predetermined shape for splitting light from the light source into two beams of light in different directions and guiding them to a surface of the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; wherein each of the photodetectors are covered with one of the second encapsulants, and the first encapsulant is formed over the at least two second encapsulants. a substrate ; a light source disposed on the substrate, configured for emitting a light to an object surface; a first encapsulant formed over the light source, the first encapsulant having a predetermined shape for splitting light from the light source into two beams of light in different directions and guiding them to a surface of the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; wherein each of the photodetectors are covered with one of the second encapsulants, and the first encapsulant is formed over the at least two second encapsulants.
A method for producing modules for the manufacture of two-dimensional or three-dimensional wooden parts, said modules comprising elements made of natural fibers, characterized in that it includes the following steps: For each module, a) arranging said natural fiber elements (1.1, 1.2, 1.3) in a parallel manner and orienting them in the same direction which is the direction of the growth of the natural fibers, b) assembling said natural fiber elements together in order to form a module (2.1, 2.2). a) arranging said natural fiber elements (1.1, 1.2, 1.3) in a parallel manner and orienting them in the same direction which is the direction of the growth of the natural fibers, b) assembling said natural fiber elements together in order to form a module (2.1, 2.2).
An illumination system (1; 20; 40) for fastening on a surface and for defining and lighting around a mirror positioned on said surface , comprising - at least one elongated profile (2; 21; 41) that has a fastening section (4; 26; 45) and a limitation section (5; 27; 46) extending transversely, in particular perpendicularly to said fastening section, and - at least one illuminant (3; 22; 42) that is fastened to the profile (2; 21; 41) at a distance from the limitation section (5; 27; 46) and is formed and positioned such that, in the correctly arranged state, it emits light in the direction of the limitation section (5; 27; 46), wherein the profile (2; 21; 41) is essentially L-shaped and comprises the fastening section (4; 26; 45) and the limitation section (5; 27; 46), and wherein the at least one illuminant (3; 22; 42) is fastened to the top of the fastening section (4; 26; 45) of the profile (2; 21; 41), characterised in that the illumination system (1; 20; 40) has spacing means (15; 24; 44) that are formed such that, in the correctly arranged state, the mirror to be defined and lit is positioned using the spacing means (15; 24; 44) such that the mirror covers at least partially the fastening section (4; 26; 45) of the profile (2; 21; 41) and the illuminant (3; 22; 42) arranged on the top of the mirror. - at least one elongated profile (2; 21; 41) that has a fastening section (4; 26; 45) and a limitation section (5; 27; 46) extending transversely, in particular perpendicularly to said fastening section, and - at least one illuminant (3; 22; 42) that is fastened to the profile (2; 21; 41) at a distance from the limitation section (5; 27; 46) and is formed and positioned such that, in the correctly arranged state, it emits light in the direction of the limitation section (5; 27; 46),
A data recovery method performed by a management node in a cloud storage system, wherein the cloud storage system further comprises a storage node , the method comprising: constructing (S101) a blank metadata database, and setting the metadata database to an inaccessible state; reading (S102) backup data of configuration data, and adding the backup data to the metadata database, wherein the configuration data refers to basic configuration information of the cloud storage system; obtaining (S103) index data of data stored in the storage node , and adding the index data to the metadata database, wherein the index data refers to address information of a resource that is written by a user and stored in the cloud storage system; and setting (S104) the metadata database to an accessible state, so as to cause the metadata database to resume service, wherein obtaining index data of data stored in the storage node , and adding the index data to the metadata database, comprises: reading and analyzing an index export file stored in the storage node , wherein the index export file stores information of the index data of the data stored in the storage node ; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database. constructing (S101) a blank metadata database, and setting the metadata database to an inaccessible state; reading (S102) backup data of configuration data, and adding the backup data to the metadata database, wherein the configuration data refers to basic configuration information of the cloud storage system; obtaining (S103) index data of data stored in the storage node , and adding the index data to the metadata database, wherein the index data refers to address information of a resource that is written by a user and stored in the cloud storage system; and setting (S104) the metadata database to an accessible state, so as to cause the metadata database to resume service, wherein obtaining index data of data stored in the storage node , and adding the index data to the metadata database, comprises: reading and analyzing an index export file stored in the storage node , wherein the index export file stores information of the index data of the data stored in the storage node ; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database. reading and analyzing an index export file stored in the storage node , wherein the index export file stores information of the index data of the data stored in the storage node ; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database.
A method of secure printing characterized by the steps of: a) sending a print job to a print server together with a user identifier, b) An RFID reader reading a user print credential from an RFID device or mobile device, c) transmitting by the RFID reader the user print credential together with its own unique reader identifier to the print server or an assignment server, d) selecting by the print server at least one print job based on the user print credential with at least one matching user identifier, e) selecting by the print server a network printer based on a previously established assignment between the unique reader identifier and the network printer, f) sending the selected print job by the print server to the selected network printer. a) sending a print job to a print server together with a user identifier, b) An RFID reader reading a user print credential from an RFID device or mobile device, c) transmitting by the RFID reader the user print credential together with its own unique reader identifier to the print server or an assignment server, d) selecting by the print server at least one print job based on the user print credential with at least one matching user identifier, e) selecting by the print server a network printer based on a previously established assignment between the unique reader identifier and the network printer, f) sending the selected print job by the print server to the selected network printer.
A core material of a seat cushion for a vehicle comprising: a thermoplastic resin expanded beads molded article having a substantially rectangular shape in a top view; and an annular frame member buried in the circumferential portion of the thermoplastic resin expanded beads molded article by insert molding, the expanded beads molded article comprising: thick portions on a front side and on both sides of the expanded beads molded article ; and an occupant seating portion on an upper surface in an inner region with respect to the circumferential portion; the frame member comprising: a front frame portion ; a rear frame portion (3b-1); and two side frame portions connecting the front frame portion and the rear frame portion to each other; wherein, in the expanded beads molded article , first slits are formed, the first slits each having a slit piece along the front frame member at a position in front of the occupant seating portion and inner side of the front frame portion and another slit piece along the side frame portion at a position between outside of the occupant seating portion and inside of the side frame portion; and at least one second slit intersecting the frame member is formed at a position in the thick portions where the frame member is buried. a thermoplastic resin expanded beads molded article having a substantially rectangular shape in a top view; and an annular frame member buried in the circumferential portion of the thermoplastic resin expanded beads molded article by insert molding, the expanded beads molded article comprising: thick portions on a front side and on both sides of the expanded beads molded article ; and an occupant seating portion on an upper surface in an inner region with respect to the circumferential portion; the frame member comprising: thick portions on a front side and on both sides of the expanded beads molded article ; and an occupant seating portion on an upper surface in an inner region with respect to the circumferential portion; the frame member comprising: a front frame portion ; a rear frame portion (3b-1); and two side frame portions connecting the front frame portion and the rear frame portion to each other; wherein, in the expanded beads molded article , first slits are formed, the first slits each having a slit piece along the front frame member at a position in front of the occupant seating portion and inner side of the front frame portion and another slit piece along the side frame portion at a position between outside of the occupant seating portion and inside of the side frame portion; and at least one second slit intersecting the frame member is formed at a position in the thick portions where the frame member is buried.
A method of managing data bearers between a cellular network subscriber device and a packet data gateway in a cellular network core , the cellular network subscriber device and the packet data gateway being connected by a default bearer , the method comprising: receiving at least one dedicated bearer request for a communication session between the cellular network subscriber device and an external network resource ; comparing (s31) at least one parameter of the received dedicated bearer request against a set of predetermined rules ; if the compared at least one parameter of the received dedicated bearer request matches the at least one of the set of predetermined rules: storing the at least one parameter of the received dedicated bearer request (s34); and sending a message to the subscriber device to cause the cellular network subscriber device and packet data gateway to use the default bearer for the communication session (s35); receiving a notification that a base station serving the cellular network subscriber device is experiencing congestion; retrieving the stored the at least one received dedicated bearer request (s53); and causing a respective dedicated bearer for the cellular network subscriber device to be established in accordance with the at least one parameter of the stored dedicated bearer request (s55). receiving at least one dedicated bearer request for a communication session between the cellular network subscriber device and an external network resource ; comparing (s31) at least one parameter of the received dedicated bearer request against a set of predetermined rules ; if the compared at least one parameter of the received dedicated bearer request matches the at least one of the set of predetermined rules: storing the at least one parameter of the received dedicated bearer request (s34); and sending a message to the subscriber device to cause the cellular network subscriber device and packet data gateway to use the default bearer for the communication session (s35); storing the at least one parameter of the received dedicated bearer request (s34); and sending a message to the subscriber device to cause the cellular network subscriber device and packet data gateway to use the default bearer for the communication session (s35); receiving a notification that a base station serving the cellular network subscriber device is experiencing congestion; retrieving the stored the at least one received dedicated bearer request (s53); and causing a respective dedicated bearer for the cellular network subscriber device to be established in accordance with the at least one parameter of the stored dedicated bearer request (s55).
A method of making a coating on a substrate, for ejecting droplets of a condensate from the substrate, which coating comprises a hydrophobic functional layer coated over a nanostructured coating material, the method comprising: depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material. which coating comprises a hydrophobic functional layer coated over a nanostructured coating material, the method comprising: depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material. depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material.
A microfluidic actuator for selecting objects in a fluid stream comprising a plurality of objects, the actuator comprising - an object detection means adapted for, upon arrival of an object, identifying whether an object is an object of interest - a heater adapted for inducing nucleation of microbubbles for generating a jet flow for deflecting an object of interest from the fluid stream, - a controller configured for activating the heater as function of the detection of an object of interest using a nucleation signal, wherein the controller is configured for obtaining temperature information of the heater and for adjusting a nucleation signal for the heater taking into account the obtained temperature information, characterized in that the controller is adapted for sending a probe pulse to the heater for measuring the temperature, before a jet flow inducing nucleation pulse is fired for generating the jet flow, the probe pulse having an amplitude and duration low enough such that the temperature of the heater falls back to the temperature of the unpowered heater after the probe pulse is turned off and before the nucleation pulse is turned on. - an object detection means adapted for, upon arrival of an object, identifying whether an object is an object of interest - a heater adapted for inducing nucleation of microbubbles for generating a jet flow for deflecting an object of interest from the fluid stream, - a controller configured for activating the heater as function of the detection of an object of interest using a nucleation signal, wherein the controller is configured for obtaining temperature information of the heater and for adjusting a nucleation signal for the heater taking into account the obtained temperature information, characterized in that the controller is adapted for sending a probe pulse to the heater for measuring the temperature, before a jet flow inducing nucleation pulse is fired for generating the jet flow, the probe pulse having an amplitude and duration low enough such that the temperature of the heater falls back to the temperature of the unpowered heater after the probe pulse is turned off and before the nucleation pulse is turned on.