mhurhangee/ep-ind-claims huggingface dataset:
An illumination optical system (22, 32) comprising: a light source (22-1, 32-1) emitting light; and a light separation/integration device (22-2, 32-2), wherein the light separation/integration device (22-2, 32-2) is an X-cube, characterized in that the light separation/integration device (22-2, 32-2) includes a diffraction device (21, 31) not separately manufactured and then attached to the X-cube but directly formed on at least one incident side, and the diffraction device (21, 31) is configured to diffract the light such that the light is incident on a coating layer of the X-cube at a diverging angle of a minimum of 0° and a maximum of 8°, a light source (22-1, 32-1) emitting light; and a light separation/integration device (22-2, 32-2), wherein the light separation/integration device (22-2, 32-2) is an X-cube, characterized in that the light separation/integration device (22-2, 32-2) includes a diffraction device (21, 31) not separately manufactured and then attached to the X-cube but directly formed on at least one incident side, and the diffraction device (21, 31) is configured to diffract the light such that the light is incident on a coating layer of the X-cube at a diverging angle of a minimum of 0° and a maximum of 8°,
A polarization-maintaining optical fiber comprising: a core; a pair of stress-applying parts provided radially outwardly with respect to the core; and a cladding which surrounds the core and the stress-applying parts, wherein a diameter of the cladding is between 70 μm and 90 μm, a diameter of the stress-applying parts is between 22 μm and 28 μm, the modal birefringence is 3 x 10 -4 or higher, and a relative refractive index difference between the core and the cladding is between 0.3% and 0.5%, wherein one of the following options (a)-(c) applies: (a) the polarization-maintaining optical fiber is used for a 0.98 μm band, the distance between the stress-applying parts is between 8.5 μm and 11 μm, and a mode field diameter at a wavelength of 0.98 μm is between 5.3 μm and 6.5 μm; or (b) the polarization-maintaining optical fiber is used for a 1.3 μm band, the distance between the stress-applying parts is between 9 μm and 13 μm, a mode field diameter at a wavelength of 1.30 μm is between 7.1 μm and 9.0 μm; or (c) the polarization-maintaining optical fiber is used for a 1.40-1.63 μm band, the distance between the stress-applying parts is between 13 μm and 16 μm, and the mode field diameter at a wavelength 1.55 μm is between 8.5 μm and 10.5 μm. a core; a pair of stress-applying parts provided radially outwardly with respect to the core; and a cladding which surrounds the core and the stress-applying parts, wherein a diameter of the cladding is between 70 μm and 90 μm, a diameter of the stress-applying parts is between 22 μm and 28 μm, the modal birefringence is 3 x 10 -4 or higher, and a relative refractive index difference between the core and the cladding is between 0.3% and 0.5%, wherein one of the following options (a)-(c) applies: (a) the polarization-maintaining optical fiber is used for a 0.98 μm band, the distance between the stress-applying parts is between 8.5 μm and 11 μm, and a mode field diameter at a wavelength of 0.98 μm is between 5.3 μm and 6.5 μm; or (b) the polarization-maintaining optical fiber is used for a 1.3 μm band, the distance between the stress-applying parts is between 9 μm and 13 μm, a mode field diameter at a wavelength of 1.30 μm is between 7.1 μm and 9.0 μm; or (c) the polarization-maintaining optical fiber is used for a 1.40-1.63 μm band, the distance between the stress-applying parts is between 13 μm and 16 μm, and the mode field diameter at a wavelength 1.55 μm is between 8.5 μm and 10.5 μm. (a) the polarization-maintaining optical fiber is used for a 0.98 μm band, the distance between the stress-applying parts is between 8.5 μm and 11 μm, and a mode field diameter at a wavelength of 0.98 μm is between 5.3 μm and 6.5 μm; or (b) the polarization-maintaining optical fiber is used for a 1.3 μm band, the distance between the stress-applying parts is between 9 μm and 13 μm, a mode field diameter at a wavelength of 1.30 μm is between 7.1 μm and 9.0 μm; or (c) the polarization-maintaining optical fiber is used for a 1.40-1.63 μm band, the distance between the stress-applying parts is between 13 μm and 16 μm, and the mode field diameter at a wavelength 1.55 μm is between 8.5 μm and 10.5 μm.
A method for controlling access in an access control system for persons or vehicles, wherein the access control system has a multi-lane access, wherein each access lane is assigned an access control device (11, 12), wherein the checking of an access authorization is carried out by means of the evaluation of an ID transmitted at regular intervals by a mobile electronic device (4, 4') located closest to an access control device (11, 12) of the access control system in an access direction, by a first standard in the context of broadcasting, to which ID at least one access authorization, which is received by transceiver units connected to a computer (8, 20) comprising a CPU and storage means, within range of the mobile electronic device (4, 4'), is assigned in an unambiguous manner, wherein a mobile electronic device (4, 4') is identified as the mobile electronic device (4, 4') located closest to an access control device (11, 12) in the access direction, if a connection is established between the mobile electronic device (4, 4') and the access control device (11, 12) by means of a second standard, which has a smaller range than the first standard which only covers an area around the access control device (11, 12), in which only one person can be located, in the case of an access control system for people, or in which only one vehicle can be located, in the case of an access control system for vehicles, wherein in the context of broadcasting by means of the first standard, the information that a connection is established between the mobile electronic device (4, 4') and the access control device (11, 12) by means of the second standard is transmitted, wherein when a connection is established via the second standard between the mobile electronic device (4, 4') and an access control device (11, 12), an ID of the access control device (11, 12) is transmitted via the second standard to the mobile electronic device, which is also transmitted via the first standard in the context of broadcasting, in order to identify the access control device (11, 12) to which the mobile electronic device (4, 4') is most closely located.
A particle encapsulating a nucleic acid for targeted delivery of the nucleic acid to a leukocyte cell, the particle comprising: a lipid mixture comprising cationic lipid, membrane stabilizing lipid, and PEG-maleimide conjugated to a targeting moiety; wherein the targeting moiety comprises an anti-CD38 antibody or an antibody selected from the group consisting of anti-CD4 antibody, anti-CD8 antibody, and anti-CD3 antibody.
A method for broadcasting content, the method facilitating simultaneous recording of multiple programs on a digital video recorder, the method comprising: providing a plurality of content items; dividing each one of the plurality of content items into a multiplicity of chunks, each one of the chunks comprising at least one reference frame, wherein each chunk is chunk of fixed play-back duration; for each one of the chunks: determining a location of each reference frame comprised in the chunk; creating a chunk index of locations of each reference frame comprised in the chunk; creating a chunk file comprising the chunk and the chunk index; inserting the chunk file in a data stream, such that no chunk file comprising a chunk from a particular content item is adjacent to a second chunk file comprising a chunk from the same particular content item; and broadcasting using a transmission bitrate greater than the bitrate of the data stream in a single channel in a multiplexed broadcast service, wherein the chunks files in the data stream are transmitted sequentially. providing a plurality of content items; dividing each one of the plurality of content items into a multiplicity of chunks, each one of the chunks comprising at least one reference frame, wherein each chunk is chunk of fixed play-back duration; for each one of the chunks: determining a location of each reference frame comprised in the chunk; creating a chunk index of locations of each reference frame comprised in the chunk; creating a chunk file comprising the chunk and the chunk index; inserting the chunk file in a data stream, such that no chunk file comprising a chunk from a particular content item is adjacent to a second chunk file comprising a chunk from the same particular content item; and determining a location of each reference frame comprised in the chunk; creating a chunk index of locations of each reference frame comprised in the chunk; creating a chunk file comprising the chunk and the chunk index; inserting the chunk file in a data stream, such that no chunk file comprising a chunk from a particular content item is adjacent to a second chunk file comprising a chunk from the same particular content item; and broadcasting using a transmission bitrate greater than the bitrate of the data stream in a single channel in a multiplexed broadcast service, wherein the chunks files in the data stream are transmitted sequentially.
A conveying device for transporting in particular planar objects, having multiple magnetic holding elements which are arranged one behind the other in the conveying direction, further having at least one conveyor belt which runs past the magnetic holding elements, and having a guide element for the conveyor belt, said guide element being arranged between the magnetic holding elements and the conveyor belt, the guide element being in the form of a guide cap which fits over the magnetic holding elements at a distance, characterised in that the guide cap is produced from extruded aluminium and is provided with a friction-reducing coating, at least on its upper side facing the conveyor belt, wherein the friction-reducing coating is in the form of an oxide layer and/or a flame-sprayed layer.
A communication method on an unlicensed frequency band, comprising: receiving, by a terminal device, downlink control information from a network device, wherein the downlink control information is within a first time unit; determining, by the terminal device based on a time at which the downlink control information is sent, a time window for sending uplink information; and sending, by the terminal device, the uplink information within the time window, wherein a start moment T1 of the time window is within the first time unit or a second time unit, and the second time unit is a next time unit of the first time unit; and characterized in that: the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2. receiving, by a terminal device, downlink control information from a network device, wherein the downlink control information is within a first time unit; determining, by the terminal device based on a time at which the downlink control information is sent, a time window for sending uplink information; and sending, by the terminal device, the uplink information within the time window, wherein a start moment T1 of the time window is within the first time unit or a second time unit, and the second time unit is a next time unit of the first time unit; and characterized in that: the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2. the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2.
A communication device for handling scheduling request, SR, transmissions, the communication device comprising: a storage unit for storing instructions; and a processing means, coupled to the storage unit, wherein the storage unit stores, and the processing means is configured to execute, the instructions of: communicating with a first cell and a second cell; configuring a first SR period for a first SR transmission on the first cell and a second SR period for a second SR transmission on the second cell, wherein the second SR period is smaller than the first SR period; starting a SR prohibit timer according to the second SR period; and receiving a radio resource control, RRC, message and releasing the second SR transmission in response to the RRC message; keeping the SR prohibit timer running in response to the release of the second SR transmission. a storage unit for storing instructions; and a processing means, coupled to the storage unit, wherein the storage unit stores, and the processing means is configured to execute, the instructions of: communicating with a first cell and a second cell; configuring a first SR period for a first SR transmission on the first cell and a second SR period for a second SR transmission on the second cell, wherein the second SR period is smaller than the first SR period; starting a SR prohibit timer according to the second SR period; and receiving a radio resource control, RRC, message and releasing the second SR transmission in response to the RRC message; keeping the SR prohibit timer running in response to the release of the second SR transmission. communicating with a first cell and a second cell; configuring a first SR period for a first SR transmission on the first cell and a second SR period for a second SR transmission on the second cell, wherein the second SR period is smaller than the first SR period; starting a SR prohibit timer according to the second SR period; and receiving a radio resource control, RRC, message and releasing the second SR transmission in response to the RRC message; keeping the SR prohibit timer running in response to the release of the second SR transmission.
Method for operating a modular battery storage system, which comprises a group of n rechargeable energy storage modules, wherein • a switch is assigned to each individual one of the n energy storage modules, the respective energy storage module being able to be activated and deactivated by means of said switch, and • the n energy storage modules can be interconnected with one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added to form a total voltage U total, and the method comprises the following steps a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value, and characterized in that a state of health value, SOH value for short, or a value correlating to the SOH value is determined as power value. • a switch is assigned to each individual one of the n energy storage modules, the respective energy storage module being able to be activated and deactivated by means of said switch, and • the n energy storage modules can be interconnected with one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added to form a total voltage U total, and the method comprises the following steps a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value, and characterized in that a state of health value, SOH value for short, or a value correlating to the SOH value is determined as power value. a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value,
An electric power demand control device for controlling a plurality of devices (3, 4; 8), comprising: a calculating section configured to calculate, for each of the plurality of devices (3, 4; 8), (i) a total time length (P1+P3) of a working state of a respective device (3, 4; 8) within a time period and (ii) a total time length (P2+P4) of a non-working state of the respective device (3, 4; 8) within the time period, said working state and said non-working state of the respective device within said time period being recorded in a memory of the respective device, wherein, unlike the working state, the non-working state includes a standby state and a stopped state of the respective device (3; 4; 8); a determining section configured to determine, for each of the plurality of devices (3, 4; 8), on a basis of a ratio of the total time length (P2+P4) of the non-working state of the respective device (3, 4; 8) to the total time length (P1+P3) of the working state of the respective device (3, 4; 8), whether to select the respective device (3, 4; 8) as a target of electric power demand control; and an instructing section configured to, in a case where the determining section has determined, for each of the plurality of devices (3, 4; 8), to select a respective device (3, 4; 8) as the target of the electric power demand control, instruct the respective selected device (3, 4; 8) of the plurality of devices to shift to the non-working state. a calculating section configured to calculate, for each of the plurality of devices (3, 4; 8), (i) a total time length (P1+P3) of a working state of a respective device (3, 4; 8) within a time period and (ii) a total time length (P2+P4) of a non-working state of the respective device (3, 4; 8) within the time period, said working state and said non-working state of the respective device within said time period being recorded in a memory of the respective device, wherein, unlike the working state, the non-working state includes a standby state and a stopped state of the respective device (3; 4; 8); a determining section configured to determine, for each of the plurality of devices (3, 4; 8), on a basis of a ratio of the total time length (P2+P4) of the non-working state of the respective device (3, 4; 8) to the total time length (P1+P3) of the working state of the respective device (3, 4; 8), whether to select the respective device (3, 4; 8) as a target of electric power demand control; and an instructing section configured to, in a case where the determining section has determined, for each of the plurality of devices (3, 4; 8), to select a respective device (3, 4; 8) as the target of the electric power demand control, instruct the respective selected device (3, 4; 8) of the plurality of devices to shift to the non-working state.
A method of transmitting, by a base station, scheduling information in a time-division-duplex, TDD, mobile communication system using a plurality of radio frames that each include at least one downlink subframe reserved for downlink transmission and at least one uplink subframe reserved for uplink transmission, the method comprising: transmitting, to a user equipment, scheduling information on a downlink control channel within a downlink subframe in a radio frame, the scheduling information comprising an uplink indicator and an uplink resource assignment, wherein the uplink indicator identifies a position of at least one uplink subframe for which uplink resource is assigned from a position of the downlink subframe, wherein the uplink resource assignment identifies a radio resource to be used for uplink data transmission in the at least one uplink subframe and wherein a number of downlink subframes in the radio frame is less than a number of uplink subframes in the radio frame. transmitting, to a user equipment, scheduling information on a downlink control channel within a downlink subframe in a radio frame, the scheduling information comprising an uplink indicator and an uplink resource assignment, wherein the uplink indicator identifies a position of at least one uplink subframe for which uplink resource is assigned from a position of the downlink subframe, wherein the uplink resource assignment identifies a radio resource to be used for uplink data transmission in the at least one uplink subframe and wherein a number of downlink subframes in the radio frame is less than a number of uplink subframes in the radio frame.