mhurhangee/ep-ind-claims huggingface dataset:
A wireless IC device comprising: a wireless IC chip that includes input/output terminal electrodes and processes a transmission/reception signal; a printed wiring circuit board on which the wireless IC chip is mounted; an electrode formed on the printed wiring circuit board; and a loop electrode (22, 31, 33, 35, 36) including first and second ends and formed on the printed wiring circuit board so as to be coupled to the wireless IC chip and the electrode, wherein the loop electrode (22, 31, 33, 35, 36) is coupled to the input/output terminal electrodes of the wireless IC chip at the first and second ends and is coupled to the electrode, the electrode is formed with a slit (23a-23i) and/or a cutout (27a, 27b) for adjusting a resonant frequency thereof, the electrode is a ground electrode, the slit (23a, 23b, 23g, 23h) or the cutout (27a, 27b) is formed at the side at which the wireless IC chip is disposed, thereby adjusting the resonant mode of the ground electrode to be short when compared to the ground electrode without the slit or the cutout formed, which resonates in a resonant mode in which both ends of the ground electrode become resonance ends, the wireless IC chip is activated via the loop electrode (22, 31, 33, 35 36) by a signal received by the ground electrode, and a response signal from the wireless IC chip is radiated from the ground electrode to the outside via the loop electrode (22, 31, 33, 35,36). a wireless IC chip that includes input/output terminal electrodes and processes a transmission/reception signal; a printed wiring circuit board on which the wireless IC chip is mounted; an electrode formed on the printed wiring circuit board; and a loop electrode (22, 31, 33, 35, 36) including first and second ends and formed on the printed wiring circuit board so as to be coupled to the wireless IC chip and the electrode, wherein the loop electrode (22, 31, 33, 35, 36) is coupled to the input/output terminal electrodes of the wireless IC chip at the first and second ends and is coupled to the electrode, the electrode is formed with a slit (23a-23i) and/or a cutout (27a, 27b) for adjusting a resonant frequency thereof, the electrode is a ground electrode, the slit (23a, 23b, 23g, 23h) or the cutout (27a, 27b) is formed at the side at which the wireless IC chip is disposed, thereby adjusting the resonant mode of the ground electrode to be short when compared to the ground electrode without the slit or the cutout formed, which resonates in a resonant mode in which both ends of the ground electrode become resonance ends, the wireless IC chip is activated via the loop electrode (22, 31, 33, 35 36) by a signal received by the ground electrode, and a response signal from the wireless IC chip is radiated from the ground electrode to the outside via the loop electrode (22, 31, 33, 35,36).
Clutch having a clutch controller configured to control an engagement state of the clutch by actuating an actuator, comprising: an actual torque obtaining means configured to obtain torque transmitted from a drive-side member of the clutch to a downstream mechanism in a torque transmission path as actual transmission torque (Tac), the downstream mechanism including a driven-side member of the clutch; a target torque obtaining means configured to obtain torque that is supposed to be transmitted from the drive-side member to the downstream mechanism in the torque transmission path as target transmission torque (Ttg), wherein the target torque obtaining means is configured to estimate torque to be transmitted from the drive-side member to the downstream mechanism in the torque transmission path after the drive-side member and the driven-side member are completely engaged, and to define the estimated torque as the target transmission torque (Ttg); and a control means configured to actuate the actuator by an actuation amount according to a difference between the actual transmission torque (Tac) and the target transmission torque (Ttg). an actual torque obtaining means configured to obtain torque transmitted from a drive-side member of the clutch to a downstream mechanism in a torque transmission path as actual transmission torque (Tac), the downstream mechanism including a driven-side member of the clutch; a target torque obtaining means configured to obtain torque that is supposed to be transmitted from the drive-side member to the downstream mechanism in the torque transmission path as target transmission torque (Ttg), wherein the target torque obtaining means is configured to estimate torque to be transmitted from the drive-side member to the downstream mechanism in the torque transmission path after the drive-side member and the driven-side member are completely engaged, and to define the estimated torque as the target transmission torque (Ttg); and a control means configured to actuate the actuator by an actuation amount according to a difference between the actual transmission torque (Tac) and the target transmission torque (Ttg).
An irrigated ablation electrode assembly (10, 110) comprising: a distal member having a longitudinal axis associated therewith and comprising: a proximal end portion, a distal end portion, a distal member outer surface, a distal member inner surface, and at least one radially extending passageway that extends from the distal member inner surface to the distal member outer surface; a first manifold comprising: a first manifold outer surface, an inner cavity, and at least one radially extending passageway that extends from the inner cavity to the first manifold outer surface; a second manifold (24, 124) comprising: a second manifold outer surface, a second manifold inner surface disposed radially inwardly from the second manifold outer surface, and at least one radially extending passageway that extends from the second manifold inner surface to the second manifold outer surface, wherein the first manifold outer surface is disposed radially inwardly from the second manifold and distal member outer surfaces (74, 34). a distal member having a longitudinal axis associated therewith and comprising: a proximal end portion, a distal end portion, a distal member outer surface, a distal member inner surface, and at least one radially extending passageway that extends from the distal member inner surface to the distal member outer surface; a proximal end portion, a distal end portion, a distal member outer surface, a distal member inner surface, and at least one radially extending passageway that extends from the distal member inner surface to the distal member outer surface; a first manifold comprising: a first manifold outer surface, an inner cavity, and at least one radially extending passageway that extends from the inner cavity to the first manifold outer surface; a first manifold outer surface, an inner cavity, and at least one radially extending passageway that extends from the inner cavity to the first manifold outer surface; a second manifold (24, 124) comprising: a second manifold outer surface, a second manifold inner surface disposed radially inwardly from the second manifold outer surface, and at least one radially extending passageway that extends from the second manifold inner surface to the second manifold outer surface, a second manifold outer surface, a second manifold inner surface disposed radially inwardly from the second manifold outer surface, and at least one radially extending passageway that extends from the second manifold inner surface to the second manifold outer surface, wherein the first manifold outer surface is disposed radially inwardly from the second manifold and distal member outer surfaces (74, 34).
A panel structure for a drawer (4, 5), which comprises a panel base and a panel attachment placed thereon, which comprises at least the following features: two support assemblies (200, 300) and at least one surface element, wherein the two support assemblies (200, 300) each comprise a receptacle channel (201, 301) having an again U-shaped cross section on the sides thereof facing toward the surface element, wherein a corresponding first or second edge (402, 403), respectively, of the surface element engages in each of the receptacle channels (201, 301), wherein a frame base bracket is provided between the two support assemblies (200, 300), which is arranged on the panel base and below the surface element and also has a receptacle channel having a U-shaped cross section on its side facing toward the surface element, in which a corresponding further edge of the surface element engages, characterized in that the frame base bracket and the two support assemblies (200, 300) together form a U-shaped, non-peripherally-closed frame in the installed position on the panel structure, wherein one or both support assemblies (200, 300) is/are formed as an angle arrangement, wherein the one support assembly is fastenable on the panel base and on the front panel.
A system for sharing a nonvolatile memory, comprising: a volatile memory configured to store data during operation of the system; a first processing component coupled with the volatile memory; a second processing component coupled with the volatile memory; a nonvolatile memory configured to store initialization logic for the first processing component and initialization logic for the second processing component, a boot reset vector that identifies a location of shadow logic, and a respective signature for validating each of the initialization logic for the first processing component and the second processing component, wherein the first processing component can communicate with the non-volatile memory and the second processing component cannot read or write directly from or to the non-volatile memory, the first processing component uses the boot reset vector to locate the shadow logic and the shadow logic causes the first processing component to copy initialization logic and the signature for the second processing component from the nonvolatile memory to the volatile memory, and the second processing component is configured to access its initialization logic from the volatile memory, validate the initialization logic using the signature of its initialization logic, and to initialize using the initialization logic if the initialization logic is validated. a volatile memory configured to store data during operation of the system; a first processing component coupled with the volatile memory; a second processing component coupled with the volatile memory; a nonvolatile memory configured to store initialization logic for the first processing component and initialization logic for the second processing component, a boot reset vector that identifies a location of shadow logic, and a respective signature for validating each of the initialization logic for the first processing component and the second processing component, wherein the first processing component can communicate with the non-volatile memory and the second processing component cannot read or write directly from or to the non-volatile memory, the first processing component uses the boot reset vector to locate the shadow logic and the shadow logic causes the first processing component to copy initialization logic and the signature for the second processing component from the nonvolatile memory to the volatile memory, and the second processing component is configured to access its initialization logic from the volatile memory, validate the initialization logic using the signature of its initialization logic, and to initialize using the initialization logic if the initialization logic is validated.
A process for making an oligo(alkylene glycol) functionalized co-polyisocyanopeptide, wherein the process comprises the steps of: i) copolymerizing - a first comonomer of an oligo(alkylene glycol) functionalized isocyanopeptide grafted with a linking group and - a second comonomer of a non-grafted oligo(alkylene glycol) functionalized isocyanopeptide, wherein the molar ratio between the first comonomer and the second comonomer is 1:500 and 1:30 and ii) adding a reactant of a spacer unit and a cell adhesion factor to the copolymer obtained by step i), wherein the spacer unit is represented by general formula A-L-B, wherein the linking group and group A are chosen to react and form a first coupling and the cell adhesion factor and group B are chosen to react and form a second coupling, wherein the first coupling and the second coupling are independently selected from the group consisting of alkyne-azide coupling, dibenzocyclooctyne-azide coupling, oxanorbornadiene-based-azide couplings, vinylsulphone-thiol coupling, maleimide-thiol coupling, methyl methacrylate-thiol coupling, ether coupling, thioether coupling, biotin-strepavidin coupling, amine-carboxylic acid resulting in amides linkages, alcohol-carboxylic acid coupling resulting in esters linkages and NHS-Ester (N-Hydroxysuccinimide ester)-amine coupling and wherein group L is a linear chain segment having 10-60 bonds between atoms selected from C, N, O and S in the main chain. i) copolymerizing - a first comonomer of an oligo(alkylene glycol) functionalized isocyanopeptide grafted with a linking group and - a second comonomer of a non-grafted oligo(alkylene glycol) functionalized isocyanopeptide, wherein the molar ratio between the first comonomer and the second comonomer is 1:500 and 1:30 and - a first comonomer of an oligo(alkylene glycol) functionalized isocyanopeptide grafted with a linking group and - a second comonomer of a non-grafted oligo(alkylene glycol) functionalized isocyanopeptide, ii) adding a reactant of a spacer unit and a cell adhesion factor to the copolymer obtained by step i), wherein the spacer unit is represented by general formula A-L-B,
A process for the preparation of (R,S)- 7-fluoro-1,1,3-trimethyl-2,3-dihydro-1 H-inden-4-amine having the following Formula, starting with -7-fluoro-1,1,3-trimethyl-2,3-dihydro-1H-inden-4-amine having the following Formula, comprising the steps of: (a) acylating the -7-fluoro-1,1,3-trimethyl-2,3-dihydro-1H-inden-4-amine to obtain an indaneamide derivative; (b) oxidizing said indaneamide derivative to obtain 3-hydroxyl indaneamide derivative; (c) dehydrating said 3-hydroxyl indaneamide derivative to obtain indeneamide derivative; (d) deacylating said indeneamide derivative to obtain indene amine derivative; and (e) hydrogenating said indene amine derivative to obtain the desired (R,S)- 7-fluoro-1,1,3-trimethyl-2,3-dihydro-1H-inden-4-amine. (a) acylating the -7-fluoro-1,1,3-trimethyl-2,3-dihydro-1H-inden-4-amine to obtain an indaneamide derivative; (b) oxidizing said indaneamide derivative to obtain 3-hydroxyl indaneamide derivative; (c) dehydrating said 3-hydroxyl indaneamide derivative to obtain indeneamide derivative; (d) deacylating said indeneamide derivative to obtain indene amine derivative; and (e) hydrogenating said indene amine derivative to obtain the desired (R,S)- 7-fluoro-1,1,3-trimethyl-2,3-dihydro-1H-inden-4-amine.
A method of scheduling packets in a mobile communication system, the method comprising, in each time period for which resources are available, assigning to each bearer of a terminal, a positive credit; and accepting data packets from a bearer in accordance with predefined constraints of priority, buffer content and credit; wherein an accepted data packet size may exceed the available credit by an amount in a predefined range; the method being characterized in that, when accepting data from the bearer, the credit of the bearer is reduced by the size of the accepted data packet, and wherein, when the accepted data packet size exceeds the credit of the bearer, an amount by which the credit is exceeded is carried forward to a next time period as a negative credit, and a credit to be assigned to the bearer in the next time period is added to the negative credit carried forward.
A control module comprising: a connector; and a housing defining a first opening that receives the connector, and a hermetically sealed interior housing at least one electronic component, the electronic component being electrically coupled to the connector, the control module further including a retaining clip in physical contact with the housing and mechanically coupling the at least one electronic component to the connector, wherein the at least one electronic component comprises a printed circuit board (PCB, 121), the clip includes a crossbar and two members extending substantially parallel to each other and substantially perpendicularly to the crossbar from opposite ends of the crossbar, the crossbar and two members substantially defining a squared U-shape, wherein the clip includes first and second pairs of through holes (106, 108), the first pair of through holes being adapted to receive fasteners to secure the clip to the electronic component, and the second pair of through holes being adapted to receive fasteners to secure the control module to a support structure wherein the two members define the second pair of through holes through their lengths, and wherein the first pair of through holes are defined by circuit board engagement tabs that project from the members and wherein the members snap-fit with shoulders of the connector to couple the connector to the at least one electronic component. a connector; and a housing defining a first opening that receives the connector, and a hermetically sealed interior housing at least one electronic component, the electronic component being electrically coupled to the connector, the control module further including a retaining clip in physical contact with the housing and mechanically coupling the at least one electronic component to the connector, wherein the at least one electronic component comprises a printed circuit board (PCB, 121),
A method performed by a station for enabling an Uplink, UL, transmission to an access point in a wireless communications network, the method comprising: determining a UL transmission rank for an UL transmission to the access point; and transmitting, to the access point, a message on a contention-based transmission resource in the wireless communications network comprising information indicating the determined UL transmission rank. determining a UL transmission rank for an UL transmission to the access point; and transmitting, to the access point, a message on a contention-based transmission resource in the wireless communications network comprising information indicating the determined UL transmission rank.
A machine-to-machine, M2M, device, comprising a processor configured to implement: an application layer configured to provide M2M applications; and a service capability layer configured to provide functions that are shared by the M2M applications and to expose functionalities to the M2M applications through a set of open interfaces, wherein the service capability layer is configured to cache resources in a resource structure of the service capability layer, wherein each resource cached in the resource structure has an original uniform resource identifier, URI, of the resource and a new URI of a copy of the resource on a location where the copy is cached, the service capability layer is configured to create a subscription resource in the resource structure in response to a subscription request from a subscriber to a cached resource at the M2M device, and to send a notification to the subscriber with an updated representation of the resource to notify the subscriber of a modification of the resource. an application layer configured to provide M2M applications; and a service capability layer configured to provide functions that are shared by the M2M applications and to expose functionalities to the M2M applications through a set of open interfaces, wherein the service capability layer is configured to cache resources in a resource structure of the service capability layer, wherein each resource cached in the resource structure has an original uniform resource identifier, URI, of the resource and a new URI of a copy of the resource on a location where the copy is cached, the service capability layer is configured to create a subscription resource in the resource structure in response to a subscription request from a subscriber to a cached resource at the M2M device, and to send a notification to the subscriber with an updated representation of the resource to notify the subscriber of a modification of the resource.
A sample feeding device for an ion mobility spectrometer, which is adapted to guide a sample to be detected into an inlet of a drift tube of the ion mobility spectrometer, comprising a solid sample feeding component and a gaseous sample feeding component characterized in that the sample feeding device further comprises: a sample inlet component; an attachment component, wherein the solid sample feeding component has an internal cavity defined therein, the internal cavity including a channel, one end of the solid sample feeding component is communicated with the sample inlet component through the internal cavity, while the other end of the solid sample feeding component is adapted to communicate with the inlet of the ion drift tube through the attachment component; and in that the gaseous sample feeding component comprises a body and an external attachment component, wherein the body has a gas channel therein, and the external attachment component includes an inlet hole which is communicated with the gas channel, wherein when the external attachment component is fitted with the sample inlet component, the body is inserted into the internal cavity, so that the channel of the solid sample feeding component is closed, and only the gas channel of the gaseous sample feeding component is adapted to communicate with the inlet of the drift tube of the ion mobility spectrometer. a sample inlet component; an attachment component, wherein the solid sample feeding component has an internal cavity defined therein, the internal cavity including a channel, one end of the solid sample feeding component is communicated with the sample inlet component through the internal cavity, while the other end of the solid sample feeding component is adapted to communicate with the inlet of the ion drift tube through the attachment component; and in that the gaseous sample feeding component comprises a body and an external attachment component, wherein the body has a gas channel therein, and the external attachment component includes an inlet hole which is communicated with the gas channel, wherein when the external attachment component is fitted with the sample inlet component, the body is inserted into the internal cavity, so that the channel of the solid sample feeding component is closed, and only the gas channel of the gaseous sample feeding component is adapted to communicate with the inlet of the drift tube of the ion mobility spectrometer.