mhurhangee/ep-ind-claims huggingface dataset:
A communication control method used in a mobile communication system providing a multicast and broadcast service, MBS, from a base station to a user equipment, the communication control method comprising: receiving, by the user equipment and from the base station, information indicating an initial Bandwidth part, BWP, used by the base station; receiving, by the user equipment and from the base station, an MBS configuration used for MBS reception; and when the MBS configuration does not comprise a BWP configuration, performing, by the user equipment, the MBS reception by using the initial BWP, and when the MBS configuration comprises the BWP configuration, performing, by the user equipment, the MBS reception by using the BWP configuration. receiving, by the user equipment and from the base station, information indicating an initial Bandwidth part, BWP, used by the base station; receiving, by the user equipment and from the base station, an MBS configuration used for MBS reception; and when the MBS configuration does not comprise a BWP configuration, performing, by the user equipment, the MBS reception by using the initial BWP, and when the MBS configuration comprises the BWP configuration, performing, by the user equipment, the MBS reception by using the BWP configuration.
V-type filter comprising a plurality of filter media arranged in a V-type manner, wherein each filter media has an up-stream surface and a down-stream surface, wherein a backing net is mounted on the down-stream surface of each filter media, wherein the filter media has a longitudinal direction extending along the in depth length of the filter media, i.e. from the filter intake side towards the filter outlet side, and a lateral direction extending along the width of the filter media, said backing net comprising a plurality of longitudinal beams and at least one cross beam, wherein each of said longitudinal beams has a first and a second end and is arranged to extend in said longitudinal direction and wherein the cross beam is attached to the longitudinal beams and arranged to extend in said lateral direction, wherein a height of at least one of the longitudinal beams varies along the length of the longitudinal beam such that said height is reduced towards the first end thereof.
A handle assembly for use with a surgical instrument having an operative distal end portion, the handle assembly comprising: a housing; a drive element disposed at least partially within the housing and being longitudinally translatable with respect to the housing; an actuator disposed in mechanical cooperation with the housing; a spring arm disposed at least partially within the housing; and characterised by a biasing element for biasing the actuator, a first portion of the biasing element disposed in mechanical cooperation with the actuator and a second portion of the biasing element disposed in mechanical cooperation with the spring arm, wherein at least a partial actuation of the actuator distally translates the drive element from a proximal position where a portion of the drive element is in contact with the spring arm to a distal position where the drive element is not in contact with the spring arm. a housing; a drive element disposed at least partially within the housing and being longitudinally translatable with respect to the housing; an actuator disposed in mechanical cooperation with the housing; a spring arm disposed at least partially within the housing; and characterised by a biasing element for biasing the actuator, a first portion of the biasing element disposed in mechanical cooperation with the actuator and a second portion of the biasing element disposed in mechanical cooperation with the spring arm, wherein at least a partial actuation of the actuator distally translates the drive element from a proximal position where a portion of the drive element is in contact with the spring arm to a distal position where the drive element is not in contact with the spring arm.
A method for remote managing a control apparatus controlling an elevator, an escalator, or automatic doors, the method comprising determining a status of a component of said control apparatus, detecting whether a change with respect to said component has occurred based on said status, defining configuration parameters for said component, if it is detected that said change has occurred, and initiating transmission of said configuration parameters to said control apparatus, wherein in relation to said defining, said method further comprises retrieving said configuration parameters for said component from a configuration information storage storing said configuration parameters, wherein said change is a replacement of a hitherto component by a replacement component as said component, and the method further comprises receiving, from said control apparatus, local configuration parameters for said replacement component, wherein said local configuration parameters for said replacement component are indicative of said replacement, and wherein occurrence of said change is detected based on said local configuration parameters for said replacement component, and characterized in that said local configuration parameters for said replacement component indicative of said replacement are default configuration parameters. determining a status of a component of said control apparatus, detecting whether a change with respect to said component has occurred based on said status, defining configuration parameters for said component, if it is detected that said change has occurred, and initiating transmission of said configuration parameters to said control apparatus, wherein in relation to said defining, said method further comprises retrieving said configuration parameters for said component from a configuration information storage storing said configuration parameters, wherein said change is a replacement of a hitherto component by a replacement component as said component, and the method further comprises receiving, from said control apparatus, local configuration parameters for said replacement component, wherein said local configuration parameters for said replacement component are indicative of said replacement, and wherein occurrence of said change is detected based on said local configuration parameters for said replacement component, and characterized in that said local configuration parameters for said replacement component indicative of said replacement are default configuration parameters.
A drive and dosing device for an injection device for discharge of a liquid product, the drive and dosing device comprising: a) a housing; b) a dose selection member, which can be rotated relative to the housing for the selection of a product dose to be discharged; c) a driven member accommodated in the housing; d) a driving member, which can be rotated relative to the housing, and during the product discharge is coupled to the driven member so that a rotation of the driving member causes the driven member to be moved in the distal direction relative to the housing; characterized in that the drive and dosing device further comprises e) a pretensioned drive spring, which is connected between the dose selection member and the driving member during the selection of the product dose, where the dose selection member is coupled non-rotatably to the driving member during the selection of the product dose, such that a rotation of the driving member relative to the dose selection member is prevented, f) wherein the dose selection member is non-rotatable relative to the housing during the product discharge. a) a housing; b) a dose selection member, which can be rotated relative to the housing for the selection of a product dose to be discharged; c) a driven member accommodated in the housing; d) a driving member, which can be rotated relative to the housing, and during the product discharge is coupled to the driven member so that a rotation of the driving member causes the driven member to be moved in the distal direction relative to the housing; characterized in that the drive and dosing device further comprises e) a pretensioned drive spring, which is connected between the dose selection member and the driving member during the selection of the product dose, where the dose selection member is coupled non-rotatably to the driving member during the selection of the product dose, such that a rotation of the driving member relative to the dose selection member is prevented, f) wherein the dose selection member is non-rotatable relative to the housing during the product discharge.
A portable device comprising: a wireless communicator configured to receive, from a wearable device via wireless communication, information regarding a notification setting; and a controller configured to identify an event and to determine, based on the received information, whether to transmit a notification to the wearable device in response to the identified event. a wireless communicator configured to receive, from a wearable device via wireless communication, information regarding a notification setting; and a controller configured to identify an event and to determine, based on the received information, whether to transmit a notification to the wearable device in response to the identified event.
A method for the recombinant production of debrilase comprising (a) culturing a host cell comprising one or more vectors, wherein the one or more vectors encode in expressible form debrilase and a proteinaceous inhibitor of debrilase under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase; or (a') culturing a host cell the genome of which encodes in expressible form debrilase and a proteinaceous inhibitor of debrilase, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase, and wherein the coding sequences of debrilase and/or the proteinaceous inhibitor have been introduced into the host cell genome by applying a CRISPR technology, under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed; and (b) isolating the debrilase expressed in step (a) or (a'), wherein the proteinaceous inhibitor of debrilase is selected from the group consisting of aprotinin, plasminostreptin (I16.001), proteinase inhibitor type-2 K (PIN2K, I20.001), ecotin (I11.001), trypsin inhibitor MCTI-1 (I07.001), ascidian trypsin inhibitor (I05.001), peptidase inhibitor 5 (KappaPI-actitoxin-Avd3a, I02.026), and tissue factor pathway inhibitor-2 inhibitor unit 1 (TFPI2, I02.013). (a) culturing a host cell comprising one or more vectors, wherein the one or more vectors encode in expressible form debrilase and a proteinaceous inhibitor of debrilase under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase; or (a') culturing a host cell the genome of which encodes in expressible form debrilase and a proteinaceous inhibitor of debrilase, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase, and wherein the coding sequences of debrilase and/or the proteinaceous inhibitor have been introduced into the host cell genome by applying a CRISPR technology, under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed; and (b) isolating the debrilase expressed in step (a) or (a'),
A method of controlling the accessibility of data recorded by a computer, comprising a processor configured to context switch between a user context and a secure context, the method comprising: receiving data in the user context; obtaining an identifier; determining dependent on the identifier, in the secure context, whether data is to be recorded to a data storage according to a first map of the data storage or a second map of the data storage; recording data to the determined map of data storage, wherein recording data to a data storage comprises controlling a map of data storage, and further wherein controlling a map of data storage comprises controlling an association between file names and storage addresses. receiving data in the user context; obtaining an identifier; determining dependent on the identifier, in the secure context, whether data is to be recorded to a data storage according to a first map of the data storage or a second map of the data storage; recording data to the determined map of data storage, wherein recording data to a data storage comprises controlling a map of data storage, and further wherein controlling a map of data storage comprises controlling an association between file names and storage addresses.
A film-based article comprising: a release liner having first and second major sides; and, a plurality of filaments disposed on the first major side of the liner, wherein the filaments comprise hot melt adhesive material. a release liner having first and second major sides; and, a plurality of filaments disposed on the first major side of the liner, wherein the filaments comprise hot melt adhesive material.
An ophthalmic apparatus for performing an ocular surgery, comprising: an ophthalmic probe body (110, 114) graspable by a user; a cutter extending from the body and comprising an inner cutting member and a needle, the inner cutting member being at least partially disposed within and moveable relative to the needle, the inner cutting member having a lumen having a first diameter, the needle having a distal end with a port formed therein for receiving patient tissue; an aspiration tube within the probe body disposed to extend from an end of the inner cutting member to an aspiration line from the probe body, the aspiration tube having a second diameter greater than the first diameter to facilitate flow of aspiration fluid; a motor within the body configured to actuate the inner cutting member relative to the needle and configured to actuate the inner cutting member relative to the aspiration tube; and wherein the aspiration tube is fixed in place so as to be stationary relative to the probe body; a drive shaft is connected to the motor; a coupler couples the drive shaft to the inner cutting member so that when the motor actuates the drive shaft, the coupler actuates the inner cutting member; a diameter of the drive shaft is larger than the second diameter of the aspiration tube, the aspiration tube being disposed at least partially within the drive shaft. an ophthalmic probe body (110, 114) graspable by a user; a cutter extending from the body and comprising an inner cutting member and a needle, the inner cutting member being at least partially disposed within and moveable relative to the needle, the inner cutting member having a lumen having a first diameter, the needle having a distal end with a port formed therein for receiving patient tissue; an aspiration tube within the probe body disposed to extend from an end of the inner cutting member to an aspiration line from the probe body, the aspiration tube having a second diameter greater than the first diameter to facilitate flow of aspiration fluid; a motor within the body configured to actuate the inner cutting member relative to the needle and configured to actuate the inner cutting member relative to the aspiration tube; and wherein the aspiration tube is fixed in place so as to be stationary relative to the probe body; a drive shaft is connected to the motor; a coupler couples the drive shaft to the inner cutting member so that when the motor actuates the drive shaft, the coupler actuates the inner cutting member; a diameter of the drive shaft is larger than the second diameter of the aspiration tube, the aspiration tube being disposed at least partially within the drive shaft.
A method for recovering a valuable material from a lithium ion secondary battery, the method comprising: a heat treatment step of performing heat treatment on a lithium ion secondary battery; subsequent to the heat treatment step, a crushing step of crushing a heat-treated object obtained through the heat treatment step; subsequent to the crushing step, a first stage of classification step of classifying a crushed object obtained through the crushing step based on a classification point of 1.2 mm or more and 2.4 mm or less, and a second stage of classification step of classifying an intermediate product and a fine particle product obtained on a fine side in the first stage of classification step based on a classification point of 0.3 mm or less; subsequent to the second stage of classification step, a first stage of dry magnetic separation step of performing dry magnetic separation on an intermediate product obtained on a coarse side in the second stage of classification step, and a second stage of dry magnetic separation step of performing dry magnetic separation again on a magnetically attracted matter obtained in the first stage of dry magnetic separation step or a magnetically attracted matter obtained in the second stage of dry magnetic separation step itself, wherein valuable material includes cobalt and/or nickel, and wherein heat treatment on the lithium ion secondary battery in the heat treatment step is performed at 670 °C or more and 1100 °C or less. a heat treatment step of performing heat treatment on a lithium ion secondary battery; subsequent to the heat treatment step, a crushing step of crushing a heat-treated object obtained through the heat treatment step; subsequent to the crushing step, a first stage of classification step of classifying a crushed object obtained through the crushing step based on a classification point of 1.2 mm or more and 2.4 mm or less, and a second stage of classification step of classifying an intermediate product and a fine particle product obtained on a fine side in the first stage of classification step based on a classification point of 0.3 mm or less; subsequent to the second stage of classification step, a first stage of dry magnetic separation step of performing dry magnetic separation on an intermediate product obtained on a coarse side in the second stage of classification step, and a second stage of dry magnetic separation step of performing dry magnetic separation again on a magnetically attracted matter obtained in the first stage of dry magnetic separation step or a magnetically attracted matter obtained in the second stage of dry magnetic separation step itself, wherein valuable material includes cobalt and/or nickel, and wherein heat treatment on the lithium ion secondary battery in the heat treatment step is performed at 670 °C or more and 1100 °C or less.
A method for producing a paper, the method comprises repeating 2-3 times the process of the following steps (a) and (b): (a) contacting (i) a paper base and (ii) a solution containing a compound which is at least one compound of any of the following formulae: CH 2 =C(-R 1)-C(=O)-O-R 2, CH 2 =C(-R 1)-C(=O)-O-(CH 2) m -NH-C(=O)-R3, wherein, each independently at each occurrence, R 1 is H, -CH 3 or Cl; R 2 is C 14-28 -alkyl; R 3 is C 13-27 -alkyl; and m is an integer of 1-28, with each other by coating or spraying the solution (ii) on the paper base(i), or immersing the paper base (i) into the solution (ii), and (b) drying the paper obtained from step (a); and applying at least one of ionizing radiation and plasma to the paper base (i) obtained from step, to introduce a layer containing graft chains formed from the compound on a surface of the paper base. repeating 2-3 times the process of the following steps (a) and (b): (a) contacting (i) a paper base and (ii) a solution containing a compound which is at least one compound of any of the following formulae: CH 2 =C(-R 1)-C(=O)-O-R 2, CH 2 =C(-R 1)-C(=O)-O-(CH 2) m -NH-C(=O)-R3, wherein, each independently at each occurrence, R 1 is H, -CH 3 or Cl; R 2 is C 14-28 -alkyl; R 3 is C 13-27 -alkyl; and m is an integer of 1-28, with each other by coating or spraying the solution (ii) on the paper base(i), or immersing the paper base (i) into the solution (ii), and (b) drying the paper obtained from step (a); and (a) contacting (i) a paper base and (ii) a solution containing a compound which is at least one compound of any of the following formulae: CH 2 =C(-R 1)-C(=O)-O-R 2, CH 2 =C(-R 1)-C(=O)-O-(CH 2) m -NH-C(=O)-R3, wherein, each independently at each occurrence, R 1 is H, -CH 3 or Cl; R 2 is C 14-28 -alkyl; R 3 is C 13-27 -alkyl; and m is an integer of 1-28, with each other by coating or spraying the solution (ii) on the paper base(i), or immersing the paper base (i) into the solution (ii), and wherein, each independently at each occurrence, R 1 is H, -CH 3 or Cl; R 2 is C 14-28 -alkyl; R 3 is C 13-27 -alkyl; and m is an integer of 1-28, with each other by coating or spraying the solution (ii) on the paper base(i), or immersing the paper base (i) into the solution (ii), and (b) drying the paper obtained from step (a); and applying at least one of ionizing radiation and plasma to the paper base (i) obtained from step, to introduce a layer containing graft chains formed from the compound on a surface of the paper base.
A method comprising: providing a handshake initiator with a shared group key, a group key identifier and a group identifier, the group identifier identifying the group members, wherein the group comprises at least three members; generating a group temporal key identifier; generating an initiator random number; creating an initiating message comprising the group identifier, the group key identifier, the group temporal key identifier, and the initiator random number; providing the other group members with configuration information for determining a predetermined set of group members; sending the initiating message to other group members; receiving a response message from at least one group member of the predetermined set of group members, the response message comprising a random number; and calculating (116, 120) the group temporal key with at least a key derivation function, the shared group key identified by the group key identifier, the initiator random number and the received random numbers, when a response message has been received from each member of the predetermined set of group members, and wherein the group temporal key is calculated independently at both the handshake initiator and at each of the group members. providing a handshake initiator with a shared group key, a group key identifier and a group identifier, the group identifier identifying the group members, wherein the group comprises at least three members; generating a group temporal key identifier; generating an initiator random number; creating an initiating message comprising the group identifier, the group key identifier, the group temporal key identifier, and the initiator random number; providing the other group members with configuration information for determining a predetermined set of group members; sending the initiating message to other group members; receiving a response message from at least one group member of the predetermined set of group members, the response message comprising a random number; and calculating (116, 120) the group temporal key with at least a key derivation function, the shared group key identified by the group key identifier, the initiator random number and the received random numbers, when a response message has been received from each member of the predetermined set of group members, and wherein the group temporal key is calculated independently at both the handshake initiator and at each of the group members.