mhurhangee/ep-ind-claims huggingface dataset:
An encoding device of a system of plug connectors of the same type for avoiding incorrect matings in plug connectors, the plug connectors (1, 5) each including a plug body (10, 10') in which electrical contacts (28, 29) and encoding elements (20, 20') are arranged, and the electrical contacts (20, 20') being arranged in openings (26, 27) on both sides of the encoding elements (20, 20'), characterized in that each plug body (10, 10') has a slot opening into which a planar encoding element (20, 20') can be inserted, in that the two encoding elements (20, 20') include mutually engaging encoding structures (22, 22') on the mating side, which ensure a non-interchangeable mating, and in that at their outer edges which abut upon each other with a precise fit, the encoding structures (22, 22'), oriented in the plug-in direction, of the encoding elements (20, 20') have portions which, as related to the plug-in direction, have vertical, horizontal, oblique and curved portions in different variations.
An information processing apparatus serving as a content providing server performing a content transmission process in response to a request from a client (121 to 125), comprising: a storage unit (503, 504) for storing content and associated metadata corresponding to content attribute information; a data transmission and reception unit (209; 501) for performing a data transmission and reception process; and a control unit for extracting the metadata from the storage unit upon reception of a content information acquisition request from the client and generating content information to be transmitted to the client based on property information that is an element of the metadata, wherein the storage unit stores as said property information data-scheme information on original content held by the server, the original content being content in the form that it is originally acquired by the server from the outside, the storage unit further storing data-scheme information for at least one converted data scheme on content available from the server and formed by converting the original content, and the control unit being arranged to include in the content information generated in response to the content information acquisition request from the client at least the data-scheme information on the original content held by the server, and to transmit the content information via the data transmission and reception unit. a storage unit (503, 504) for storing content and associated metadata corresponding to content attribute information; a data transmission and reception unit (209; 501) for performing a data transmission and reception process; and a control unit for extracting the metadata from the storage unit upon reception of a content information acquisition request from the client and generating content information to be transmitted to the client based on property information that is an element of the metadata, wherein the storage unit stores as said property information data-scheme information on original content held by the server, the original content being content in the form that it is originally acquired by the server from the outside, the storage unit further storing data-scheme information for at least one converted data scheme on content available from the server and formed by converting the original content, and the control unit being arranged to include in the content information generated in response to the content information acquisition request from the client at least the data-scheme information on the original content held by the server, and to transmit the content information via the data transmission and reception unit.
A device for attaching a wristlet strand to a watch case, the device comprising a wristlet strand and being arranged to be attached to a bar, the wristlet strand being attached to the bar through attaching means, the attaching means being formed by a support integral with the wristlet strand, and a pull-out piece arranged to cooperate with said support so as to close the support, the support comprising a channel arranged to receive the bar and in that they comprise a pair of magnets (300, 310) disposed on the support and the pull-out piece so as to hold the pull-out piece against the support and allow the pull-out piece to switch from a closed position wherein the bar is held in the channel to an open position wherein the bar is free.
A compound of formula: wherein A is B is each of C and D, independently, is arylene; each of R 1, R 2, R 3, R 4, R 5, and R 6, independently, is alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, halo, heterocycloalkenyl, cyano, or nitro; each of R 7 and R 8, independently, is H, alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, or heterocycloalkenyl; each of R 9 and R 10, independently, is H or alkyl; each of R 11 and R 12, independently, is H, alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, or heterocycloalkenyl; each of X 1 and X 2, independently, is C or C; each of Y 1 and Y 2, independently, is deleted, SO, SO 2, C, C O, C NR a, C NR a, or SO 2 NR a, in which R a is H, alkyl, cycloalkyl, heterocycloalkyl, aryl, or heteroaryl; each of m and n, independently, is 0, 1, 2, 3, or 4; each of p and q, independently, is 0 or 1; each of r and t, independently, is 1, 2, or 3; and each of u and v, independently, is 0, 1, 2, 3, 4, 5, 6, 7, or 8. A is B is each of C and D, independently, is arylene; each of R 1, R 2, R 3, R 4, R 5, and R 6, independently, is alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, halo, heterocycloalkenyl, cyano, or nitro; each of R 7 and R 8, independently, is H, alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, or heterocycloalkenyl; each of R 9 and R 10, independently, is H or alkyl; each of R 11 and R 12, independently, is H, alkyl, alkenyl, alkynyl, aryl, heteroaryl, cycloalkyl, cycloalkenyl, heterocycloalkyl, or heterocycloalkenyl; each of X 1 and X 2, independently, is C or C; each of Y 1 and Y 2, independently, is deleted, SO, SO 2, C, C O, C NR a, C NR a, or SO 2 NR a, in which R a is H, alkyl, cycloalkyl, heterocycloalkyl, aryl, or heteroaryl; each of m and n, independently, is 0, 1, 2, 3, or 4; each of p and q, independently, is 0 or 1; each of r and t, independently, is 1, 2, or 3; and each of u and v, independently, is 0, 1, 2, 3, 4, 5, 6, 7, or 8.
A machine-implemented method, comprising: monitoring a constraint parameter of a system operating at a first frequency and a first voltage; based on the monitored constraint parameter, forcing the system into a forced idle state in which the system continues to operate at a second frequency and a second voltage which is lower than the first voltage, characterised in that forcing the system into the forced idle state includes: determining a target idle time; and running a process in the system in response to a determination that an accumulated idle time is less than the target idle time and that the process corresponds to a high priority process; and in response to the high priority process completing, preventing the system from executing instructions. monitoring a constraint parameter of a system operating at a first frequency and a first voltage; based on the monitored constraint parameter, forcing the system into a forced idle state in which the system continues to operate at a second frequency and a second voltage which is lower than the first voltage, characterised in that forcing the system into the forced idle state includes: determining a target idle time; and running a process in the system in response to a determination that an accumulated idle time is less than the target idle time and that the process corresponds to a high priority process; and in response to the high priority process completing, preventing the system from executing instructions. determining a target idle time; and running a process in the system in response to a determination that an accumulated idle time is less than the target idle time and that the process corresponds to a high priority process; and in response to the high priority process completing, preventing the system from executing instructions.
A privacy glazing structure comprising: a first pane of transparent material; a second pane of transparent material; a spacer positioned between the first pane of transparent material and the second pane of transparent material to define a between-pane space, the spacer sealing the between-pane space from gas exchange with a surrounding environment and holding the first pane of transparent material a separation distance from the second pane of transparent material; a third pane of transparent material; and an electrically controllable optically active material positioned between the second pane of transparent material and the third pane of transparent material, the electrically controllable optically active material being positioned between a first electrode layer and a second electrode layer, wherein the spacer comprises a tubular body having opposed ends joined together by a key having first and second ends that are inserted into the opposed ends of the tubular body, and key includes a driver electrically connected to the first electrode layer and the second electrode layer, wherein the driver is configured to be electrically connected to a power source and condition power received from the power source to provide a drive signal to the first electrode layer and the second electrode layer for controlling the electrically controllable optically active material, and wherein the key has a closed surface facing the between-pane space and defines an opening facing the surrounding environment, the opening providing access to a hollow interior space of the key for inserting and removing the driver from the key. a first pane of transparent material; a second pane of transparent material; a spacer positioned between the first pane of transparent material and the second pane of transparent material to define a between-pane space, the spacer sealing the between-pane space from gas exchange with a surrounding environment and holding the first pane of transparent material a separation distance from the second pane of transparent material; a third pane of transparent material; and an electrically controllable optically active material positioned between the second pane of transparent material and the third pane of transparent material, the electrically controllable optically active material being positioned between a first electrode layer and a second electrode layer, wherein the spacer comprises a tubular body having opposed ends joined together by a key having first and second ends that are inserted into the opposed ends of the tubular body, and key includes a driver electrically connected to the first electrode layer and the second electrode layer, wherein the driver is configured to be electrically connected to a power source and condition power received from the power source to provide a drive signal to the first electrode layer and the second electrode layer for controlling the electrically controllable optically active material, and
A base station, comprising: a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a controller configured to: manage radio resources for a cellular wide area radio communication connection based on radio resources that are provided or will be provided for a direct communication terminal device to communication terminal device D2D, communication bypassing a radio access network; detect direct communication terminal to communication terminal device, D2D, communication in an uplink or downlink frequency band bypassing the radio access network; and upon detection of the direct communication terminal device to communication terminal device, D2D, communication, release different radio resources for said D2D communication. a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a controller configured to: manage radio resources for a cellular wide area radio communication connection based on radio resources that are provided or will be provided for a direct communication terminal device to communication terminal device D2D, communication bypassing a radio access network; detect direct communication terminal to communication terminal device, D2D, communication in an uplink or downlink frequency band bypassing the radio access network; and upon detection of the direct communication terminal device to communication terminal device, D2D, communication, release different radio resources for said D2D communication.
A method for removing intermodal distortion caused by intermodal coupling among a plurality of modes of an optical fiber (160, 250), the method comprising: receiving a plurality of distorted backscattered Rayleigh signals from the plurality of modes of the optical fiber, wherein the plurality of distorted backscattered Rayleigh signals are distorted by an intermodal coupling among the plurality of modes; characterised in that the method comprises receiving a collection of distortion parameters that are descriptive of distortion effects of the intermodal coupling; and determining an undistorted backscattered Rayleigh signal based on the plurality of distorted backscattered Rayleigh signals and the collection of distortion parameters. receiving a plurality of distorted backscattered Rayleigh signals from the plurality of modes of the optical fiber, wherein the plurality of distorted backscattered Rayleigh signals are distorted by an intermodal coupling among the plurality of modes; characterised in that the method comprises receiving a collection of distortion parameters that are descriptive of distortion effects of the intermodal coupling; and determining an undistorted backscattered Rayleigh signal based on the plurality of distorted backscattered Rayleigh signals and the collection of distortion parameters.
A method for dynamically selecting a link adaptation policy, LAP, the method comprising: generating a machine learning, ML, model, wherein generating the ML model comprises providing training data to an ML algorithm; a first transmission point, TRP, transmitting first data to a user equipment, UE, using a first LAP, wherein the first TRP serves at least a first cell; receiving a channel quality report transmitted by the UE, the channel quality report comprising channel quality information indicating a quality of a channel between the UE and the first TRP; obtaining additional information, wherein the additional information comprises: neighbor cell activity about a second cell served by a second TRP, distance information indicating a distance between the UE and the first TRP, and/or gain information indicating a radio propagation gain between the UE and the first TRP; using the channel quality information, the additional information, and the ML model to select a LAP from a set of predefined LAPs, the set of predefined LAPs comprising the first LAP and a second LAP, wherein the channel quality report and the additional information are provided as input to the ML model; and the first TRP transmitting second data to the UE using the selected LAP, wherein the selected LAP indicates a dynamically updated block error rate, BLER, target and wherein transmitting the second data to the UE using the selected LAP comprises transmitting the second data to the UE using the BLER target. generating a machine learning, ML, model, wherein generating the ML model comprises providing training data to an ML algorithm; a first transmission point, TRP, transmitting first data to a user equipment, UE, using a first LAP, wherein the first TRP serves at least a first cell; receiving a channel quality report transmitted by the UE, the channel quality report comprising channel quality information indicating a quality of a channel between the UE and the first TRP; obtaining additional information, wherein the additional information comprises: neighbor cell activity about a second cell served by a second TRP, distance information indicating a distance between the UE and the first TRP, and/or gain information indicating a radio propagation gain between the UE and the first TRP; using the channel quality information, the additional information, and the ML model to select a LAP from a set of predefined LAPs, the set of predefined LAPs comprising the first LAP and a second LAP, wherein the channel quality report and the additional information are provided as input to the ML model; and the first TRP transmitting second data to the UE using the selected LAP, wherein the selected LAP indicates a dynamically updated block error rate, BLER, target and wherein transmitting the second data to the UE using the selected LAP comprises transmitting the second data to the UE using the BLER target.
Polymeric particles comprising a polymeric matrix comprising one or more water-insoluble polymers and, encapsulated in the polymeric matrix, a laser-sensitive systemcomprising an ammonium salt, wherein at least one of the one or more water-insoluble polymers is cross-linked.
A multilayer piezoelectric element comprising a stacked body configured by alternately stacking a plurality of piezoelectric layers and a plurality of metal layers (12A, 12B), characterized in that the metal layers (12A, 12B) include a plurality of high resistance metal layers having a higher electrical resistance than adjacent metal layers on the both sides.
A blade guard assembly comprising a blade guard and a blade guard receiver; said blade guard comprising a cover for covering at least a portion of a saw blade and a first locking formation on an outer surface of the blade guard; characterized by said blade guard receiver comprising a housing which defines an opening and a second locking formation on an inner surface of said housing; wherein at least part of said blade guard, including said first locking formation, can be inserted into said opening, and wherein said first and second locking formations are arranged to cooperate with one another to lock the blade guard to the blade guard receiver when it is inserted therein, the blade guard assembly further comprising a splash guard or cover device (6, 64) hingedly attached to the blade guard receiver, or a guide attached to the blade guard receiver comprising a wheel accessory for guiding movement of the saw blade. said blade guard comprising a cover for covering at least a portion of a saw blade and a first locking formation on an outer surface of the blade guard; characterized by said blade guard receiver comprising a housing which defines an opening and a second locking formation on an inner surface of said housing; wherein at least part of said blade guard, including said first locking formation, can be inserted into said opening, and wherein said first and second locking formations are arranged to cooperate with one another to lock the blade guard to the blade guard receiver when it is inserted therein, the blade guard assembly further comprising a splash guard or cover device (6, 64) hingedly attached to the blade guard receiver, or a guide attached to the blade guard receiver comprising a wheel accessory for guiding movement of the saw blade.
A sample conveying system, comprising: a line for conveying test tubes each containing a sample; and a plurality of processing units each disposed along the conveying line, the units including of at least an analyzing unit (12 to 14); wherein the conveying line includes: a conveying belt line for conveying in intermingled form test tube racks each holding a plurality of sample-containing test tubes together as one set, and test tube holders each holding a single sample-containing test tube; a mechanism for discriminating between the test tube racks and the test tube holders conveyed on the conveying belt line; at least two stoppers for stopping the test tube racks and the test tube holders; and a control unit for independently or alternately controlling the stoppers to release the test tube racks and test tube holders stopped in concatenated form on the conveying belt line from the stopped condition, one by one with the belt moving, and for designating the analyzing unit to which each test tube rack and each test tube holder are to be supplied. a line for conveying test tubes each containing a sample; and a plurality of processing units each disposed along the conveying line, the units including of at least an analyzing unit (12 to 14); wherein the conveying line includes: a conveying belt line for conveying in intermingled form test tube racks each holding a plurality of sample-containing test tubes together as one set, and test tube holders each holding a single sample-containing test tube; a mechanism for discriminating between the test tube racks and the test tube holders conveyed on the conveying belt line; at least two stoppers for stopping the test tube racks and the test tube holders; and a control unit for independently or alternately controlling the stoppers to release the test tube racks and test tube holders stopped in concatenated form on the conveying belt line from the stopped condition, one by one with the belt moving, and for designating the analyzing unit to which each test tube rack and each test tube holder are to be supplied. a conveying belt line for conveying in intermingled form test tube racks each holding a plurality of sample-containing test tubes together as one set, and test tube holders each holding a single sample-containing test tube; a mechanism for discriminating between the test tube racks and the test tube holders conveyed on the conveying belt line; at least two stoppers for stopping the test tube racks and the test tube holders; and a control unit for independently or alternately controlling the stoppers to release the test tube racks and test tube holders stopped in concatenated form on the conveying belt line from the stopped condition, one by one with the belt moving, and for designating the analyzing unit to which each test tube rack and each test tube holder are to be supplied.
A recombinant antibody or a heavy/light chain component thereof comprising: a heavy chain comprising a C H1 constant region fragment located between a first and second variable domain, and a third variable domain linked directly or indirectly to the first or second variable domain, with the proviso that the heavy chain only contains one C H1 and only contains three variable domains, and a light chain comprising at least a C L domain located between a first and second variable domain, and a third variable domain linked directly or indirectly to the first or second variable domain, with the proviso that the light chain only contains one C L domain and only contains three variable domains, and wherein said heavy and light chains are aligned to provide a first binding site formed by the first variable domains in the light and heavy chain, a second binding site formed by the second variable domains in the light and heavy chain, and a third binding site formed by the third variable domains in the light and heavy chain. a heavy chain comprising a C H1 constant region fragment located between a first and second variable domain, and a third variable domain linked directly or indirectly to the first or second variable domain, with the proviso that the heavy chain only contains one C H1 and only contains three variable domains, and a light chain comprising at least a C L domain located between a first and second variable domain, and a third variable domain linked directly or indirectly to the first or second variable domain, with the proviso that the light chain only contains one C L domain and only contains three variable domains, and wherein said heavy and light chains are aligned to provide a first binding site formed by the first variable domains in the light and heavy chain, a second binding site formed by the second variable domains in the light and heavy chain, and a third binding site formed by the third variable domains in the light and heavy chain.