mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling access to a wireless Access Network, AN, executed by a wireless communication device , the method comprising the steps of: storing in a memory in the wireless communication device, a Device Access Priority, DAP, class depending on characteristics of the wireless communication device; when the wireless communication device has data to send, receiving by a radio receiver in the wireless communication device, a message from the AN containing one or more prohibited Network Access Priority, NAP, classes; determining by a processor in the wireless communication device, whether the stored DAP class is equal to any of the prohibited NAP classes received from the AN; when the stored DAP class is equal to one of the prohibited NAP classes received from the AN, periodically repeating the receiving and determining steps until it is determined that the stored DAP class does not equal any of the prohibited NAP classes received from the AN; and when the stored DAP class does not equal any of the prohibited NAP classes received from the AN, performing a persistence test in which the wireless device generates a random persistence value and determines that the wireless communication device has passed the persistence test when the generated random value is equal to or larger than a persistence value assigned by the wireless access network ; and when the wireless communication device passes the persistence test, transmitting on an access channel by the radio transmitter in the wireless communication device , the data the device has to send. storing in a memory in the wireless communication device, a Device Access Priority, DAP, class depending on characteristics of the wireless communication device; when the wireless communication device has data to send, receiving by a radio receiver in the wireless communication device, a message from the AN containing one or more prohibited Network Access Priority, NAP, classes; determining by a processor in the wireless communication device, whether the stored DAP class is equal to any of the prohibited NAP classes received from the AN; when the stored DAP class is equal to one of the prohibited NAP classes received from the AN, periodically repeating the receiving and determining steps until it is determined that the stored DAP class does not equal any of the prohibited NAP classes received from the AN; and when the stored DAP class does not equal any of the prohibited NAP classes received from the AN, performing a persistence test in which the wireless device generates a random persistence value and determines that the wireless communication device has passed the persistence test when the generated random value is equal to or larger than a persistence value assigned by the wireless access network ; and when the wireless communication device passes the persistence test, transmitting on an access channel by the radio transmitter in the wireless communication device , the data the device has to send.
Method for preparing cyclopropyl-substituted acetophenones (I), in which a) in a first step a benzylmagnesium halide or benzylzinc halide (II) is reacted with a cyclopropyl alkyl ketone (III) to give an alcohol (IV), b) in a second step the alcohol (IV) is converted to a halohydrin (V) by free-radical halogenation, c) in a third step the halohydrin (V) is converted to an epoxide (VI) by addition of base, d) in a fourth step the epoxide (VI) is converted to the cyclopropyl-substituted acetophenone (I) under thermal Lewis acidic or Brønsted acidic conditions, where R 1 is chlorine, bromine, iodine, alkoxy, amino, cyano, nitro, C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, R 2 is C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, s is 1, 2 or 3, X 1 ,X 2 are each independently chlorine, bromine or iodine. a) in a first step a benzylmagnesium halide or benzylzinc halide (II) is reacted with a cyclopropyl alkyl ketone (III) to give an alcohol (IV), b) in a second step the alcohol (IV) is converted to a halohydrin (V) by free-radical halogenation, c) in a third step the halohydrin (V) is converted to an epoxide (VI) by addition of base, d) in a fourth step the epoxide (VI) is converted to the cyclopropyl-substituted acetophenone (I) under thermal Lewis acidic or Brønsted acidic conditions, where R 1 is chlorine, bromine, iodine, alkoxy, amino, cyano, nitro, C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, R 2 is C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, s is 1, 2 or 3, X 1 ,X 2 are each independently chlorine, bromine or iodine. R 1 is chlorine, bromine, iodine, alkoxy, amino, cyano, nitro, C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, R 2 is C 1 -C 4 -alkyl or is unsubstituted phenyl or phenyl substituted by s radicals selected from the group consisting of chlorine, fluorine, methoxy and ethoxy, s is 1, 2 or 3, X 1 ,X 2 are each independently chlorine, bromine or iodine.
An automotive solid-state lamp for a vehicle, comprising a lamp body extending along a longitudinal reference axis (X10) between a proximal base portion and a distal front portion , wherein the lamp body comprises a support member having first and second opposed sides, wherein each one of the opposed sides of the support member has arranged thereon: a first array of solid-state light sources having a shield optically coupled therewith and configured to provide, when energized, an automotive low-beam, a second array of solid-state light sources located between the base portion and the first array of solid-state light sources , the second array of solid-state light sources spaced from the first array of solid-state light sources and configured to provide, when energized, an automotive high-beam, characterised in that the second array of solid-state light sources consists of: a first single row (144; 1420, 1421) of solid-state light sources extending longitudinally of the lamp body between a proximal side of the second array adjacent the proximal base portion and a distal side of the second array adjacent the first array of solid-state light sources , and a second single row (146; 1420, 1422) of solid-state light sources extending transversely of the lamp body at said distal side of the second array adjacent the first array of solid-state light sources . a first array of solid-state light sources having a shield optically coupled therewith and configured to provide, when energized, an automotive low-beam, a second array of solid-state light sources located between the base portion and the first array of solid-state light sources , the second array of solid-state light sources spaced from the first array of solid-state light sources and configured to provide, when energized, an automotive high-beam, characterised in that the second array of solid-state light sources consists of: a first single row (144; 1420, 1421) of solid-state light sources extending longitudinally of the lamp body between a proximal side of the second array adjacent the proximal base portion and a distal side of the second array adjacent the first array of solid-state light sources , and a second single row (146; 1420, 1422) of solid-state light sources extending transversely of the lamp body at said distal side of the second array adjacent the first array of solid-state light sources . a first single row (144; 1420, 1421) of solid-state light sources extending longitudinally of the lamp body between a proximal side of the second array adjacent the proximal base portion and a distal side of the second array adjacent the first array of solid-state light sources , and a second single row (146; 1420, 1422) of solid-state light sources extending transversely of the lamp body at said distal side of the second array adjacent the first array of solid-state light sources .
A method, performed by an ultrasound imaging apparatus , of registering a first image that is an ultrasound image and a second image that is an image from another modality, the method comprising: loading the second image pre-acquired for a patient ; acquiring information about a position and an orientation of an ultrasound probe based on a three-dimensional positional relationship between at least one external electromagnetic sensor attached to a first feature point of a patient's body and an electromagnetic sensor of the ultrasound probe ; extracting, from the second image, a second feature point corresponding to the first feature point; registering the first and second images based on the three-dimensional positional relationship between the at least one external electromagnetic sensor and the electromagnetic sensor of the ultrasound probe and on a position of the second feature point extracted from the second image; and correcting a registration error generated due to a difference of the position and an angle between the second feature point extracted from the second image and the at least one external electromagnetic sensor attached to a surface of the patient's body, wherein the correcting of the registration error comprises: calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance. loading the second image pre-acquired for a patient ; acquiring information about a position and an orientation of an ultrasound probe based on a three-dimensional positional relationship between at least one external electromagnetic sensor attached to a first feature point of a patient's body and an electromagnetic sensor of the ultrasound probe ; extracting, from the second image, a second feature point corresponding to the first feature point; registering the first and second images based on the three-dimensional positional relationship between the at least one external electromagnetic sensor and the electromagnetic sensor of the ultrasound probe and on a position of the second feature point extracted from the second image; and correcting a registration error generated due to a difference of the position and an angle between the second feature point extracted from the second image and the at least one external electromagnetic sensor attached to a surface of the patient's body, wherein the correcting of the registration error comprises: calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance. calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance.
A system for sending an electronic message including digital ink, the system comprising: at least one electronic processor configured to receive the digital ink for inclusion in the electronic message; determine positional information for the digital ink, the positional information representing a position of the digital ink within the electronic message relative to a position of at least one additional object within the electronic message; and send the digital ink and the positional information as part of the electronic message, wherein the at least one electronic processor is further configured to select the at least one additional object by comparing a position of each of a plurality of objects included in the electronic message to a position of the digital ink and selecting the at least one additional object from the plurality of objects in response to the position of the at least one additional object being within a predetermined distance from the position of the digital ink. receive the digital ink for inclusion in the electronic message; determine positional information for the digital ink, the positional information representing a position of the digital ink within the electronic message relative to a position of at least one additional object within the electronic message; and send the digital ink and the positional information as part of the electronic message, wherein the at least one electronic processor is further configured to select the at least one additional object by comparing a position of each of a plurality of objects included in the electronic message to a position of the digital ink and selecting the at least one additional object from the plurality of objects in response to the position of the at least one additional object being within a predetermined distance from the position of the digital ink.
A container inlet for a container cleaning machine , comprising at least one supplying conveyor belt for containers , a transfer belt parallel thereto and in particular movable in an opposite direction, a row of infeed belts orthogonally adjoining the transfer belt and including container guiding means are arranged above the infeed belts and separate infeed tracks for the containers from each other, wherein at least some of the container guiding means extend on the entrance side up to/into a changeover region between the transfer belt and infeed belts and the container guiding means extend obliquely over the infeed belts on the inlet side.
An image processing apparatus comprising: a document tray ; lifting means configured to lift up the document tray upon placement of a document on the document tray ; conveyance means configured to convey the document placed on the document tray lifted up by the lifting means ; reading means configured to read the document conveyed by the conveyance means ; the image processing apparatus being characterised in that it further comprises: registration means configured to register, for an application, whether to lift up the document tray upon the placement of the document on the document tray ; and control means configured to cause the lifting means to lift up, during execution of a first application for which the registration means has registered to lift up the document tray upon the placement of the document on the document tray , the document tray upon the placement of the document on the document tray , and to cause the lifting means not to lift up, during execution of a second application for which the registration means has registered not to lift up the document tray upon the placement of the document on the document tray , the document tray upon the placement of the document on the document tray . a document tray ; lifting means configured to lift up the document tray upon placement of a document on the document tray ; conveyance means configured to convey the document placed on the document tray lifted up by the lifting means ; reading means configured to read the document conveyed by the conveyance means ; registration means configured to register, for an application, whether to lift up the document tray upon the placement of the document on the document tray ; and control means configured to cause the lifting means to lift up, during execution of a first application for which the registration means has registered to lift up the document tray upon the placement of the document on the document tray , the document tray upon the placement of the document on the document tray , and to cause the lifting means not to lift up, during execution of a second application for which the registration means has registered not to lift up the document tray upon the placement of the document on the document tray , the document tray upon the placement of the document on the document tray .
A device for distributing oil from a rolling bearing for an aircraft turbine engine, comprising: - a rolling bearing comprising two rings , respectively inner and outer, - an oil distribution ring configured to be mounted on a turbine engine shaft , this distribution ring comprising: i) a first outer cylindrical surface for mounting the inner ring of the bearing, and ii) an oil recovery scoop supplying a circuit configured for lubricating said bearing, - an annular track of a dynamic seal , characterised in that said distribution ring and said track are formed by a single-part body, and in that said lubricating circuit is formed in this body and extends into the distribution ring and the track. - a rolling bearing comprising two rings , respectively inner and outer, - an oil distribution ring configured to be mounted on a turbine engine shaft , this distribution ring comprising: i) a first outer cylindrical surface for mounting the inner ring of the bearing, and ii) an oil recovery scoop supplying a circuit configured for lubricating said bearing, i) a first outer cylindrical surface for mounting the inner ring of the bearing, and ii) an oil recovery scoop supplying a circuit configured for lubricating said bearing, - an annular track of a dynamic seal ,
A sheet stacker comprising: - a sheet conveyor arrangement , configured for feeding a plurality of sheets (C) in succession towards a sheet discharge end of said sheet conveyor arrangement ; - a stacker platform , whereon sheets (C) delivered by the sheet conveyor arrangement are formed into stacks (S); wherein the sheet discharge end and the stacker platform are provided with a mutual approaching and distancing movement; - a stack conveyor supported by the stacker platform , controlled to move according to a conveyor direction (f25); characterized in that: the conveyor direction (f25) is approximately parallel to a sheet feeding direction (F) according to which sheets (C) are fed onto the stacker platform ; the stack conveyor is configured and controlled to move a partially formed stack in said conveyor direction (f25), such that sequentially formed jobs (J1, J2) of sheets (C) are positioned one onto the other such that a job of shorter sheets is arranged in an intermediate position with respect to a job of longer sheets. - a sheet conveyor arrangement , configured for feeding a plurality of sheets (C) in succession towards a sheet discharge end of said sheet conveyor arrangement ; - a stacker platform , whereon sheets (C) delivered by the sheet conveyor arrangement are formed into stacks (S); wherein the sheet discharge end and the stacker platform are provided with a mutual approaching and distancing movement; - a stack conveyor supported by the stacker platform , controlled to move according to a conveyor direction (f25);
A process to make a storage stable aqueous co-dispersion of at least an epoxy resin and at least a silane or silane oligomer characterized in that the silane is emulsified in presence of an emulsifier at a temperature between 20 and 65°C, this silane emulsion is further blended at room temperature with an epoxy water-based resin.
Sulfur-crosslinkable rubber mixture containing at least the following constituents: - at least one styrene-butadiene rubber or at least one butadiene rubber and - at least one silica and - a mixture of the silanes B according to formula XIa) and according to formula XIb) - at least one styrene-butadiene rubber or at least one butadiene rubber and - at least one silica and - a mixture of the silanes B according to formula XIa) and according to formula XIb)
An adaptive control circuit of SRAM (Static Random Access Memory), comprising: a switch circuit (110, 210, M1), operable to be supplied by a variable supply voltage (VCC), operable to be controlled by a clock voltage (VA), and coupled to a first node (N1); a forward diode-connected transistor (120, 220, M2); a backward diode-connected transistor (130, 230, M3), coupled in parallel with the forward diode-connected transistor (120, 220, M2) between the first node (N1) and a second node (N2); and a first delay circuit (140, 240, M4), coupled between the second node and a ground voltage. a switch circuit (110, 210, M1), operable to be supplied by a variable supply voltage (VCC), operable to be controlled by a clock voltage (VA), and coupled to a first node (N1); a forward diode-connected transistor (120, 220, M2); a backward diode-connected transistor (130, 230, M3), coupled in parallel with the forward diode-connected transistor (120, 220, M2) between the first node (N1) and a second node (N2); and a first delay circuit (140, 240, M4), coupled between the second node and a ground voltage.
A liquid ejecting apparatus (11; 111) comprising: a liquid ejecting head (23; 123) configured to eject a liquid from a nozzle provided on a nozzle surface; a first storage portion (33; 133) that has an introduction portion into which the liquid accommodated in a liquid accommodating portion is introduced, the introduction portion being provided at an upper portion of the first storage portion, the first storage portion being configured so that a liquid level fluctuates in a range lower than the nozzle surface; a second storage portion (35; 135) that communicates with the first storage portion via a communication passage (34; 134) and to which the liquid is supplied from the first storage portion due to a water head difference; a supply flow path (37; 137) for supplying the liquid from the second storage portion to the liquid ejecting head; a pressurizing portion (47; 147) that pressurizes an inside of the second storage portion; and a first valve (36; 136) configured to close the communication passage at the time of pressurization by the pressurizing portion. a liquid ejecting head (23; 123) configured to eject a liquid from a nozzle provided on a nozzle surface; a first storage portion (33; 133) that has an introduction portion into which the liquid accommodated in a liquid accommodating portion is introduced, the introduction portion being provided at an upper portion of the first storage portion, the first storage portion being configured so that a liquid level fluctuates in a range lower than the nozzle surface; a second storage portion (35; 135) that communicates with the first storage portion via a communication passage (34; 134) and to which the liquid is supplied from the first storage portion due to a water head difference; a supply flow path (37; 137) for supplying the liquid from the second storage portion to the liquid ejecting head; a pressurizing portion (47; 147) that pressurizes an inside of the second storage portion; and a first valve (36; 136) configured to close the communication passage at the time of pressurization by the pressurizing portion.