mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a part using a three-dimensional modeler, wherein the modeler produces the part by selectively curing layers of solidifiable liquid material with actinic radiation projected from an imager , the method comprising: determining an intensity profile of the actinic radiation projected from the imager ; positioning a center of the part to be produced proximate a portion of the intensity profile defining the highest intensity of the actinic radiation; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; projecting the actinic radiation to selectively cure the single layer of the solidifiable liquid material ; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; and repeating the projecting of actinic radiation and the providing of a single layer of the solidifiable liquid material to produce the part, wherein the center of the part to be produced is determined based on an average center of different centers defined by different layers of the part. determining an intensity profile of the actinic radiation projected from the imager ; positioning a center of the part to be produced proximate a portion of the intensity profile defining the highest intensity of the actinic radiation; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; projecting the actinic radiation to selectively cure the single layer of the solidifiable liquid material ; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; and repeating the projecting of actinic radiation and the providing of a single layer of the solidifiable liquid material to produce the part, wherein the center of the part to be produced is determined based on an average center of different centers defined by different layers of the part.
Cutlery apparatus, which comprises a metallic blade or a metallic rifle , the blade being of stainless steel, extending through a tang (2 or 4), in which a passive identifier is arranged, which comprises two antennas , arranged parallel to each other, wherein one antenna is being directly and electrically connected to a flat surface of the tang (2 or 4), and wherein the cutlery apparatus further comprises a handle (3 or 3'), which surrounds a small portion of the metallic blade or of the metallic rifle and surrounds completely the tang (2 or 4) and the passive identifier , characterized in that the passive identifier is an ultra-high frequency radio-frequency identification transponder in the range of 860 to 960 MHz, and that the two antennas are separated by a central core including a microchip.
Transferring apparatus for transferring of a stream of rod-like articles from an apparatus feeding rod-like articles to an apparatus receiving the rod-like articles in the machines of the tobacco industry, whereas in the feeding apparatus the rod-like articles are conveyed in a first stream (S1) of rod-like articles in which the rod-like articles are arranged in a first configuration, and in the receiving apparatus the rod-like articles are conveyed in a second stream (S2) of rod-like articles in which the rod-like articles are arranged in a second configuration, comprising: a transferring wheel ; non-slidable lugs situated on the circumference of the transferring wheel ; a guiding surface to guide the rod-like article, the rod-like articles being conveyed axially, tangentially to the guiding surface ; characterised in that the apparatus has a slidable lug being slidable relative to the circumference of the transferring wheel by means of a drive mechanism so that the said slidable lug varies its position relative to an adjacent non-slidable lug . a transferring wheel ; non-slidable lugs situated on the circumference of the transferring wheel ; a guiding surface to guide the rod-like article, the rod-like articles being conveyed axially, tangentially to the guiding surface ;
Process for isolation of at least one odoriferous agent from a plant substrate comprising a) contacting a plant substrate with an aqueous soap extraction solution comprising an aqueous medium and at least one soap compound R-C(=O)O - M + or + M - O(O=)C-R-C(=O)O - M + , wherein R is saturated or unsaturated linear, branched or cyclic C 3 to C 17 alkyl or C 6 to C 18 aryl, wherein the alkyl or aryl group can be substituted with up to 5 functional groups, and wherein M + is a monovalent cation, to obtain a soap extract and b) isolating a flavour mixture comprising at least one odoriferous agent from the soap extract obtained in step a). a) contacting a plant substrate with an aqueous soap extraction solution comprising an aqueous medium and at least one soap compound R-C(=O)O - M + or + M - O(O=)C-R-C(=O)O - M + , wherein R is saturated or unsaturated linear, branched or cyclic C 3 to C 17 alkyl or C 6 to C 18 aryl, wherein the alkyl or aryl group can be substituted with up to 5 functional groups, and wherein M + is a monovalent cation, to obtain a soap extract and b) isolating a flavour mixture comprising at least one odoriferous agent from the soap extract obtained in step a).
A delivery device for delivering a supportive sling to periurethral tissue of a patient via an obturator foramen of the patient, the delivery device including, a handle having a longitudinal first axis located in a first plane, and a shaft mechanically coupled to the handle and extending distally relative to a distal end of the handle, the shaft having a single curved section for insertion into a patient, the single curved section being oriented in a second plane angled from the first plane, wherein the shaft further includes a first straight section along a longitudinal axis , a second straight section extending under an angle from the first straight section , the single curved section extending from a distal end of the second straight section, the shaft also having a distal end for associating with an end of the supportive sling.
Gas phase epitaxy method comprising the method steps: - providing a III-V substrate (S) of a first conductivity type, - introducing the III-V substrate (S) into a reaction chamber (K) of a gas phase epitaxy plant (A) at a loading temperature T B , - heating the III-V substrate (S) from the loading temperature T B to an epitaxy temperature T E with introduction of an initial gas flow (I) comprising a carrier gas and a first precursor for a first element from the V main group, - precipitating a III-V layer with a doping substance concentration (D max , D min ) of a doping substance of the first conductivity type on a surface of the III-V substrate (S) from the gas phase from an epitaxy gas flow which is conducted into the reaction chamber and comprises the carrier gas, the first precursor and at least one second precursor for an element of the III main group, - adding a third precursor for a doping substance of the first conductivity type to the initial gas flow (I) during heating from the loading temperature T B to the epitaxy temperature T E , characterised in that the III-V layer is epitaxially grown at a doping substance concentration (D max , D min ) decreasing from 10 17 cm -3 to 10 15 cm -3 , - providing a III-V substrate (S) of a first conductivity type, - introducing the III-V substrate (S) into a reaction chamber (K) of a gas phase epitaxy plant (A) at a loading temperature T B , - heating the III-V substrate (S) from the loading temperature T B to an epitaxy temperature T E with introduction of an initial gas flow (I) comprising a carrier gas and a first precursor for a first element from the V main group, - precipitating a III-V layer with a doping substance concentration (D max , D min ) of a doping substance of the first conductivity type on a surface of the III-V substrate (S) from the gas phase from an epitaxy gas flow which is conducted into the reaction chamber and comprises the carrier gas, the first precursor and at least one second precursor for an element of the III main group, - adding a third precursor for a doping substance of the first conductivity type to the initial gas flow (I) during heating from the loading temperature T B to the epitaxy temperature T E ,
A computer-executable method, comprising: displaying, by a first client device, a user interface, wherein the user interface includes a menu item associated with one or more messages sent by the first client device to other client devices, and wherein the one or more messages are sent via a first communication channel; and in response to a user selecting the menu item, displaying a forced-reminder user interface, wherein the forced-reminder user interface includes a content display area configured to display one or more forced-reminder messages, in response to the user entering a command in the forced-reminder user interface, displaying a forced-reminder-message-generation user interface, wherein the forced-reminder-message-generation user interface includes an input-control area, wherein the input-control area includes a communication-channel input control allowing the user to specify a second communication channel for delivering a user-generated forced-reminder message (1122-1126) associated with one of the one or more messages sent by the first client device to a second client device and a timing-input control allowing the user to specify a time to deliver the user-generated forced-reminder message, and wherein the second communication channel is different from the first communication channel.
A combing machine with a device for cleaning a comb segment of a circular comb , wherein the circular comb is rotatably mounted in a machine frame of the combing machine via a shaft , the comb segment , during a combing cycle, combs out a fiber tuft (FB) protruding from a nipping point (KS) of a nipper assembly , and at least one first cleaning element is arranged in the area of an enveloping circle (HK) of the comb segment of the circular comb , characterized in that the device has at least one monitoring means (S1, S2, S3) for detecting the mass of combed-out components (K) which deposit within the comb segment , wherein the monitoring means (S1, S2, S3) is arranged at a radial distance from the enveloping circle (HK) of the comb segment and viewed in the circumferential direction of the circular comb , and is connected to a control unit (ST) and wherein the control unit (ST) is connected to a control (SM/SZ) of the at least one first cleaning element so that the control unit (ST) in connection with the monitoring means (S1, S2, S3) controls the control system (SM, SZ) of the at least one first cleaning element in such a way that the cleaning intensity of the first cleaning element can be adjusted and/or wherein the control unit (ST) is connected to a display device .
A slice-based communications method, comprising: receiving , by an access and mobility management function, AMF, node in a visited public land mobile network, VPLMN, a registration request message from a terminal device which is roaming into the VPLMN via a radio access network, RAN, node in the VPLMN; said method being characterized by : sending , by the AMF node, a first request message to a network slice selection function, NSSF, node in the VPLMN, wherein the first request message comprises identification information of the terminal device; receiving, by the NSSF node, the first request message from the AMF node; sending , by the NSSF node, a response message to the AMF node; and receiving , by the AMF node, the response message from the NSSF node, wherein the response message comprises allowed VPLMN network slice selection assistance information, NSSAI, of the terminal device and further comprises home public land mobile network, HPLMN, NSSAI of the terminal device that corresponds to the allowed VPLMN NSSAI of the terminal device . receiving , by an access and mobility management function, AMF, node in a visited public land mobile network, VPLMN, a registration request message from a terminal device which is roaming into the VPLMN via a radio access network, RAN, node in the VPLMN; said method being characterized by : sending , by the AMF node, a first request message to a network slice selection function, NSSF, node in the VPLMN, wherein the first request message comprises identification information of the terminal device; receiving, by the NSSF node, the first request message from the AMF node; sending , by the NSSF node, a response message to the AMF node; and receiving , by the AMF node, sending , by the AMF node, a first request message to a network slice selection function, NSSF, node in the VPLMN, wherein the first request message comprises identification information of the terminal device; receiving, by the NSSF node, the first request message from the AMF node; sending , by the NSSF node, a response message to the AMF node; and receiving , by the AMF node, the response message from the NSSF node, wherein the response message comprises allowed VPLMN network slice selection assistance information, NSSAI, of the terminal device and further comprises home public land mobile network, HPLMN, NSSAI of the terminal device that corresponds to the allowed VPLMN NSSAI of the terminal device .
Method for assisting the daytime driving of a motor vehicle , including the steps of: - placing at least one variable-transmission screen (26, E, 28) between the driver of the vehicle and the road scene (SR) in front of the vehicle , - measuring, by means of at least one sensor , the brightness of the road scene (SR) in front of the vehicle, - processing the brightness measurement signal (S L ) to convert it into a signal (S C ) for controlling the coefficient of transmission of the variable-transmission screen (26, E, 28), characterized in that the method includes the further step of transmitting the control signal (S C ) by remote control waves (O T ) to a receiver fitted to the variable-transmission screen (26, E, 28) for modulating the coefficient of transmission (CT) of the variable-transmission screen (26, E, 28) as a function of the brightness measured by the sensor , and in that the method includes further steps in which: - the amount of light transmitted by the variable-transmission screen is measured by means of a sensor , - the signals of the sensors are received by a control unit , - the transmission coefficient (CT) of the variable-transmission screen (26, E, 28) is controlled by means of said control unit . - placing at least one variable-transmission screen (26, E, 28) between the driver of the vehicle and the road scene (SR) in front of the vehicle , - measuring, by means of at least one sensor , the brightness of the road scene (SR) in front of the vehicle, - processing the brightness measurement signal (S L ) to convert it into a signal (S C ) for controlling the coefficient of transmission of the variable-transmission screen (26, E, 28), - the amount of light transmitted by the variable-transmission screen is measured by means of a sensor , - the signals of the sensors are received by a control unit , - the transmission coefficient (CT) of the variable-transmission screen (26, E, 28) is controlled by means of said control unit .
Adjustable striker comprising: - a casing adapted to be mounted on a frame, said frame being suitable for mounting a leaf fitted with a mechanism provided with a retractable bolt ; - a stop member mounted to be adjustable inside said casing , said stop member having a front edge and two flanks opposite one another with respect to said front edge , one of said flanks being adapted to receive said retractable bolt in abutment to cause the retraction of said bolt and enable the engagement of said leaf inside said frame, while said bolt returns to bear against the other of said two flanks in order to be able to hold said leaf in a fixed position inside said frame; and said casing having on the inside a bearing face provided with retaining teeth , while the stop member has latching teeth extending into said one of said flanks, and said stop member being adapted to be retracted inside said casing when said bolt abuts against said one of said flanks and then extend from said casing to come into contact with said bolt , while said latching teeth engage in said retaining teeth to prevent the retraction of said stop member when said bolt bears against said other flank , and said striker comprising a return spring mounted inside said casing to cause the extension of said stop member . - a casing adapted to be mounted on a frame, said frame being suitable for mounting a leaf fitted with a mechanism provided with a retractable bolt ; - a stop member mounted to be adjustable inside said casing , said stop member having a front edge and two flanks opposite one another with respect to said front edge , one of said flanks being adapted to receive said retractable bolt in abutment to cause the retraction of said bolt and enable the engagement of said leaf inside said frame, while said bolt returns to bear against the other of said two flanks in order to be able to hold said leaf in a fixed position inside said frame; and said casing having on the inside a bearing face provided with retaining teeth , while the stop member has latching teeth extending into said one of said flanks, and said stop member being adapted to be retracted inside said casing when said bolt abuts against said one of said flanks and then extend from said casing to come into contact with said bolt , while said latching teeth engage in said retaining teeth to prevent the retraction of said stop member when said bolt bears against said other flank , and said striker comprising a return spring mounted inside said casing to cause the extension of said stop member .
Storage and transport container , comprising the container, the container being a metal container, and a flux-cored wire wound into a coil , the flux-cored wire comprising calcium carbide, the coil having a winding axis and an outer diameter, and the container comprising: a) a bottom plate having a first side and a second side that faces away from the first side, b) an outer wall connected to the bottom plate, c) at least one removal opening for the flux-cored wire, the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil. a) a bottom plate having a first side and a second side that faces away from the first side, b) an outer wall connected to the bottom plate, c) at least one removal opening for the flux-cored wire, the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil. the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil.
A walking path planning method for an autonomous robot, comprising: obtaining slope distribution information of a target working area; and determining , according to the slope distribution information, whether a slope area exists in the target working area; characterised by determining , if a slope area exists in the target working area, a width value between adjacent path segments according to the slope distribution information during planning of a walking path in the slope area, to keep a work overlap ratio between the adjacent path segments within a specified range. obtaining slope distribution information of a target working area; and determining , according to the slope distribution information, whether a slope area exists in the target working area; characterised by determining , if a slope area exists in the target working area, a width value between adjacent path segments according to the slope distribution information during planning of a walking path in the slope area, to keep a work overlap ratio between the adjacent path segments within a specified range.
A heat pump having an outdoor unit and an indoor unit , the outdoor unit including a compressor , and an oil separator provided in a discharge path of the compressor , characterised in that the outdoor unit further comprises: a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump , an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe , an on-off valve provided on the oil supply pipe , an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe , and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve . a compressor , and an oil separator provided in a discharge path of the compressor , characterised in that the outdoor unit further comprises: a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump , an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe , an on-off valve provided on the oil supply pipe , an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe , and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve . a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump , an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe , an on-off valve provided on the oil supply pipe , an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe , and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve .