mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: accessing, responsive to executing a boot sequence, at a controller a first error code for data stored in memory cells, the memory cells being comprised in an array of memory cells, wherein the data is sensitive data associated with a host operating system, OS; calculating within a sensing circuitry , coupled to a plurality of sense lines of the array, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, performing at least one particular action selected from a group of actions that includes: halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data. accessing, responsive to executing a boot sequence, at a controller a first error code for data stored in memory cells, the memory cells being comprised in an array of memory cells, wherein the data is sensitive data associated with a host operating system, OS; calculating within a sensing circuitry , coupled to a plurality of sense lines of the array, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, performing at least one particular action selected from a group of actions that includes: halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data. halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data.
Method for operating a network node of a wireless communication network, the method comprising: determining and/or adjusting a HARQ signaling format for transmission of HARQ feedback on a Physical Uplink Shared Channel, PUSCH, for a terminal configured for carrier aggregation based on a number of DL carriers and/or a number of HARQ bits configured for the terminal , wherein determining and/or adjusting a HARQ signaling format comprises determining and/or adjusting a number of symbols Q' used for modulation of the HARQ feedback transmission and adjusting and/or determining a HARQ-ACK offset, β offset PUSCH , wherein the offset is used to adapt the number of symbols used for modulation, and wherein the HARQ signaling format pertains to HARQ feedback to be transmitted by the terminal , wherein determining and/or adjusting a HARQ signaling format comprises determining whether the number of HARQ bits is above a bit threshold of 22 bits, and/or whether the number of DL carriers is above 5.
A base station comprising: a signal assignment section that is configured to assign a downlink control information to one or more Physical Resource Block, PRB, sets of a downlink resource, the downlink control information including resource allocation information on Physical Downlink Shared Channel, PDSCH; an identifying section that is configured to identify a Physical Uplink Control Channel, PUCCH, resource, the PUCCH resource being a resource to which an ACK/NACK signal for the PDSCH is assigned; and a signal separating section that is configured to separate the ACK/NACK signal included in the identified PUCCH resource from a received signal from a terminal to which the downlink control information is transmitted, wherein the downlink resource is composed of a plurality of PRB pairs including a first PRB set and a second PRB set, and characterized in that the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and without using an offset value relating to the one or more PRB sets in a case where the downlink control information is mapped over the first PRB set, and the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and with using the offset value in a case where the downlink control information is mapped over the second PRB set. a signal assignment section that is configured to assign a downlink control information to one or more Physical Resource Block, PRB, sets of a downlink resource, the downlink control information including resource allocation information on Physical Downlink Shared Channel, PDSCH; an identifying section that is configured to identify a Physical Uplink Control Channel, PUCCH, resource, the PUCCH resource being a resource to which an ACK/NACK signal for the PDSCH is assigned; and a signal separating section that is configured to separate the ACK/NACK signal included in the identified PUCCH resource from a received signal from a terminal to which the downlink control information is transmitted, wherein the downlink resource is composed of a plurality of PRB pairs including a first PRB set and a second PRB set, and characterized in that the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and without using an offset value relating to the one or more PRB sets in a case where the downlink control information is mapped over the first PRB set, and the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and with using the offset value in a case where the downlink control information is mapped over the second PRB set.
An insert intended for assembling a first part and a second part by electric resistance welding of the insert and of the second part , comprising: a head portion , the head portion comprising a contact face configured to receive a welding electrode and, on the underside, a bearing surface configured to bear against the first part in order to hold the first part assembled to the second part , a body portion intended to be inserted into the first part , the body portion comprising a welding surface configured to be welded to the second part , the body portion having a section smaller than that of the head portion , characterized in that the insert comprises thermal decoupling means extending around the body portion to prevent a transmission of the heat generated by the body portion to the first part during the welding operation, the thermal decoupling means comprising a peripheral area or housing intended to contain a heat-insulating material, the peripheral area or housing being delimited by one or several element(s) projecting from the underside of the head portion , and the insert comprises holding means configured to hold the insert in position through the first part , the holding means comprising an outer side face of the projecting element(s) intended to keep the body portion at a distance from the first part when the insert is integrated with this first part . a head portion , the head portion comprising a contact face configured to receive a welding electrode and, on the underside, a bearing surface configured to bear against the first part in order to hold the first part assembled to the second part , a body portion intended to be inserted into the first part , the body portion comprising a welding surface configured to be welded to the second part , the body portion having a section smaller than that of the head portion , characterized in that the insert comprises thermal decoupling means extending around the body portion to prevent a transmission of the heat generated by the body portion to the first part during the welding operation, the thermal decoupling means comprising a peripheral area or housing intended to contain a heat-insulating material, the peripheral area or housing being delimited by one or several element(s) projecting from the underside of the head portion , and the insert comprises holding means configured to hold the insert in position through the first part , the holding means comprising an outer side face of the projecting element(s) intended to keep the body portion at a distance from the first part when the insert is integrated with this first part .
An open loop current transducer comprising a housing, a magnetic core comprising a pair of core parts forming a pair of magnetic field gaps therebetween, the magnetic core mounted in the housing , a pair of magnetic field detectors , one magnetic field detector being mounted in each magnetic field gap, a leadframe comprising core mounting parts and magnetic field detector contacts , and a mounting plate , the mounting plate mounted on a top side of the magnetic core and the leadframe mounted on a bottom mounting side of the magnetic core , the mounting plate fixed to the pair of core parts and defining the position of the magnetic core parts, wherein the magnetic field detector contacts comprise circuit board contact portions for connection to an external circuit board, and magnetic field detector contact portions for connection to contacts of the magnetic field detectors , the magnetic field detector contact portions positioned in a magnetic field detector mounting cavity on opposed lateral sides of the housing .
A humidity sensor comprising: a substrate having a source and a drain , wherein the drain is laterally spaced from the source ; a gate stack comprising: a gate insulator situated in the space between the source and the drain ; a barrier positioned over the gate insulator ; a sensing polymer positioned over the barrier ; a source electrode electrically coupled to the source ; a drain electrode electrically coupled to the drain ; a porous gate electrode positioned over the sensing polymer ; characterised by a protective porous polymer layer that extends over the porous gate electrode ; and a silicon dioxide layer that defines lateral edges of the gate insulator , the barrier , and the sensing polymer , wherein the porous gate electrode at least partially overlaps the silicon dioxide layer , wherein the sensing polymer is completely enclosed on all sides by the barrier , the silicon dioxide layer , and the porous gate electrode . a substrate having a source and a drain , wherein the drain is laterally spaced from the source ; a gate stack comprising: a gate insulator situated in the space between the source and the drain ; a barrier positioned over the gate insulator ; a sensing polymer positioned over the barrier ; a gate insulator situated in the space between the source and the drain ; a barrier positioned over the gate insulator ; a sensing polymer positioned over the barrier ; a source electrode electrically coupled to the source ; a drain electrode electrically coupled to the drain ; a porous gate electrode positioned over the sensing polymer ; a protective porous polymer layer that extends over the porous gate electrode ; and a silicon dioxide layer that defines lateral edges of the gate insulator , the barrier , and the sensing polymer , wherein the porous gate electrode at least partially overlaps the silicon dioxide layer , wherein the sensing polymer is completely enclosed on all sides by the barrier , the silicon dioxide layer , and the porous gate electrode .
A light amplification device comprising: a seed light source configured to generate a pulsing seed light; an excitation light source ( , ) configured to generate excitation light; a light amplifying fiber configured to amplify the seed light by the excitation light and output the pulsing amplified light; and a control unit configured to control the seed light source and the excitation light source, the control unit configured to have a control mode to set a pulse width of the amplified light and control the excitation light's power, wherein in the control mode, the control unit controls the amplified light's peak power such that the peak power increases as the pulse width increases, and the peak power is below a predetermined threshold value, and wherein the threshold value is set so as to correspond to an upper limit value which does not damage the light amplifying fiber at a predetermined minimum value of the pulse width. a seed light source configured to generate a pulsing seed light; an excitation light source ( , ) configured to generate excitation light; a light amplifying fiber configured to amplify the seed light by the excitation light and output the pulsing amplified light; and a control unit configured to control the seed light source and the excitation light source, the control unit configured to have a control mode to set a pulse width of the amplified light and control the excitation light's power, wherein in the control mode, the control unit controls the amplified light's peak power such that the peak power increases as the pulse width increases, and the peak power is below a predetermined threshold value, and wherein the threshold value is set so as to correspond to an upper limit value which does not damage the light amplifying fiber at a predetermined minimum value of the pulse width.
A turbomachinery inlet screen , comprising: a first screen including a first edge and a second edge; and a second screen including a third edge and a fourth edge; wherein a first portion of the first screen is offset from the second screen ; wherein at least a second portion of the first screen is disposed adjacent the second screen ; and wherein the first screen comprises an arched cross-sectional shape and the second screen comprises a substantially flat cross-sectional shape; and a first flange couples the first edge to the third edge; and a second flange couples the second edge to the fourth edge. a first screen including a first edge and a second edge; and a second screen including a third edge and a fourth edge; wherein a first portion of the first screen is offset from the second screen ; wherein at least a second portion of the first screen is disposed adjacent the second screen ; and wherein the first screen comprises an arched cross-sectional shape and the second screen comprises a substantially flat cross-sectional shape; and a first flange couples the first edge to the third edge; and a second flange couples the second edge to the fourth edge.
1. Method for automatically triggering a delayed direct mode by a decoder box , the delayed direct mode being a mode for viewing a programme broadcast live, allowing the broadcast to be paused and time navigation within the broadcast, characterised in that the method comprises the following steps: - Automatic reading by a reading means of the decoder box, in a favourites memory (120.2) of the decoder box, of a list of favourite programme recordings, a favourite programme recording comprising at least a start time (1202.2) and an identifier (1202.1) of broadcast channel identifier, - Automatic filtering of the list of favourite programme recordings according to a time criterion to select recordings that correspond to favourite programmes that start less than a first predetermined time (120.3) after a current date, - For each selected recording, allocation of deferred direct mode resources, these resources comprising at least one receiver and a temporary memory, of the circular memory type, for triggering a deferred direct mode, characterised in that the list of favourite programme recordings is automatically updated according to the use made of the decoder box, at least one user action causing an evaluation of a condition for updating the list of favourite programme recordings, and in that the at least one action is a channel change action, such a channel change causing the initialisation of a time zero, the update condition being the elapse of a second predetermined time relative to the time zero. - Automatic reading by a reading means of the decoder box, in a favourites memory (120.2) of the decoder box, of a list of favourite programme recordings, a favourite programme recording comprising at least a start time (1202.2) and an identifier (1202.1) of broadcast channel identifier, - Automatic filtering of the list of favourite programme recordings according to a time criterion to select recordings that correspond to favourite programmes that start less than a first predetermined time (120.3) after a current date, - For each selected recording, allocation of deferred direct mode resources, these resources comprising at least one receiver and a temporary memory, of the circular memory type, for triggering a deferred direct mode, characterised in that the list of favourite programme recordings is automatically updated according to the use made of the decoder box, at least one user action causing an evaluation of a condition for updating the list of favourite programme recordings, and in that the at least one action is a channel change action, such a channel change causing the initialisation of a time zero, the update condition being the elapse of a second predetermined time relative to the time zero.
A process of hydrogenating an alkynol selectively to an alkenol by hydrogen using a hydrogenation catalyst which is palladium supported on a carrier; in the presence of an additive which is an organic phosphorus compound bearing either a phosphino or a phosphine oxide group; characterized in that in case the additive bears a phosphino group that the additive bears two or more phosphino groups.
Cartridge for injecting a pharmaceutical solution when accommodated into a syringe, including at least a flexible small bag : - With small bag sides, - Extending along a main axis (X), - Made of thin film walls, - Having a chamber containing a pharmaceutical substance (S, P, L), and - Having a dome-shaped and outwardly-convex head surface ; The cartridge being characterised in that : the head surface is asymmetrical with respect to the main axis (X), and it narrows starting from one of the small bag side. - With small bag sides, - Extending along a main axis (X), - Made of thin film walls, - Having a chamber containing a pharmaceutical substance (S, P, L), and - Having a dome-shaped and outwardly-convex head surface ;
A device comprising: a handle having an electrical port for receiving a voltage or a current and communicating the voltage or the current to a surgical tip ; a first grip mechanically coupled to the handle and having a first internal metal frame and a first insulating overmold over the first internal metal frame , the first internal metal frame comprising a first internal metal portion and a second internal metal portion electrically isolated from the first internal metal portion and mechanically coupled to the first internal metal portion by the first insulating overmold; and a second grip mechanically coupled to the handle and having a second internal metal frame and a second insulating overmold over the second internal metal frame , wherein the handle is coupleable to the surgical tip to transfer motion from at least one of the first grip and the second grip to actuate the surgical tip , and wherein one or more of the first internal metal portion or the second internal metal frame are electrically coupled to the electrical port . a handle having an electrical port for receiving a voltage or a current and communicating the voltage or the current to a surgical tip ; a first grip mechanically coupled to the handle and having a first internal metal frame and a first insulating overmold over the first internal metal frame , the first internal metal frame comprising a first internal metal portion and a second internal metal portion electrically isolated from the first internal metal portion and mechanically coupled to the first internal metal portion by the first insulating overmold; and a second grip mechanically coupled to the handle and having a second internal metal frame and a second insulating overmold over the second internal metal frame , wherein the handle is coupleable to the surgical tip to transfer motion from at least one of the first grip and the second grip to actuate the surgical tip , and wherein one or more of the first internal metal portion or the second internal metal frame are electrically coupled to the electrical port .
A flowmeter including a sensor assembly and a meter electronics , comprising: one or more rigid flow tubes ; a drive mechanism coupled to the one or more rigid flow tubes and oriented to induce a drive mode vibration in the one or more rigid flow tubes ; two or more strain gages (200A-H) configured as pickoff sensors, and coupled to the one or more rigid flow tubes and oriented to sense at least one of a tension and compression in the one or more rigid flow tubes ; one or more bridge circuits in electrical communication with the two or more strain gages (200A-H), wherein outputs of the one or more bridge circuits are proportional to a strain detected by at least one of the two or more strain gages (200A-H); a high-pass filter to eliminate a DC offset of the output of the one or more bridge circuits ; and wherein a strain gage of the two or more strain gages (200A-H) is placed proximate a brace bar so that the strain gage of the two or more strain gages (200A-H) is subjected to approximately a maximum strain amplitude of the rigid flow tubes induced by the drive mode vibration; and wherein a strain gage of the two or more strain gages (200A-H) is coupled to one of the one or more rigid flow tubes and is configured to detect a strain of the one or more rigid flow tubes approximately parallel with the longitudinal axis of the one of the one or more rigid flow tubes . one or more rigid flow tubes ; a drive mechanism coupled to the one or more rigid flow tubes and oriented to induce a drive mode vibration in the one or more rigid flow tubes ; two or more strain gages (200A-H) configured as pickoff sensors, and coupled to the one or more rigid flow tubes and oriented to sense at least one of a tension and compression in the one or more rigid flow tubes ; one or more bridge circuits in electrical communication with the two or more strain gages (200A-H), wherein outputs of the one or more bridge circuits are proportional to a strain detected by at least one of the two or more strain gages (200A-H); a high-pass filter to eliminate a DC offset of the output of the one or more bridge circuits ; and wherein a strain gage of the two or more strain gages (200A-H) is placed proximate a brace bar so that the strain gage of the two or more strain gages (200A-H) is subjected to approximately a maximum strain amplitude of the rigid flow tubes induced by the drive mode vibration; and wherein a strain gage of the two or more strain gages (200A-H) is coupled to one of the one or more rigid flow tubes and is configured to detect a strain of the one or more rigid flow tubes approximately parallel with the longitudinal axis of the one of the one or more rigid flow tubes .