mhurhangee/ep-ind-claims huggingface dataset:
A sensor assembly comprising: a single focal plane array of detectors; an array of telescopes coupled to the focal plane array; Hadamard masks (48, 52, 56) located at an intermediate image plane of each telescope (22, 24, 26) of the array of telescopes, the Hadamard masks (48, 52, 56) for enhancing the resolution of said detectors and an actuator for actuating said masks (48, 52,56); a grating prism located between an entrance pupil of the array of telescopes and the array of telescopes, and an actuator for actuating said grating prism to select the desired field-of-view of said detectors; a user interface; and a controller for controlling the actuator for said masks (48, 53, 56) and the actuator for said grating prism in response to input from a user to said user interface; the controller being arranged to turn the mask in each telescope (22, 24, 26) of the array of telescopes on or off according to a Hadamard binary matrix format to provide a wide field of view; and the controller being arranged to deploy a Hadamard mask at the intermediate image plane of a central telescope of the array of telescopes and a mask being a blocking filter in all other telescopes (22, 26) of the array of telescopes to provide resolution beyond Nyquist limit. a single focal plane array of detectors; an array of telescopes coupled to the focal plane array; Hadamard masks (48, 52, 56) located at an intermediate image plane of each telescope (22, 24, 26) of the array of telescopes, the Hadamard masks (48, 52, 56) for enhancing the resolution of said detectors and an actuator for actuating said masks (48, 52,56); a grating prism located between an entrance pupil of the array of telescopes and the array of telescopes, and an actuator for actuating said grating prism to select the desired field-of-view of said detectors; a user interface; and a controller for controlling the actuator for said masks (48, 53, 56) and the actuator for said grating prism in response to input from a user to said user interface; the controller being arranged to turn the mask in each telescope (22, 24, 26) of the array of telescopes on or off according to a Hadamard binary matrix format to provide a wide field of view; and the controller being arranged to deploy a Hadamard mask at the intermediate image plane of a central telescope of the array of telescopes and a mask being a blocking filter in all other telescopes (22, 26) of the array of telescopes to provide resolution beyond Nyquist limit.
Use of a compound represented by the following general formula as a light-emitting material: wherein in the general formula, from 0 to 1 of R 1 to R 5 represents a cyano group, from 2 to 5 of R 1 to R 5 each represent a group represented by the following general formula or the following general formula, and the balance of R 1 to R 5 each represent a hydrogen atom or a substituent other than above: wherein in the general formula, R 11 to R 20 each independently represent a hydrogen atom or a substituent, provided that R 11 and R 12, R 12 and R 13, R 13 and R 14, R 14 and R 15, R 15 and R 16, R 16 and R 17, R 17 and R 18, R 18 and R 19, and R 19 and R 20 each may be bonded to each other to form a cyclic structure; and L 12 represents a substituted or unsubstituted arylene group or a substituted or unsubstituted heteroarylene group, wherein in the general formula, R 71 to R 79 each independently represent a hydrogen atom or a substituent, provided that R 71 and R 72, R 72 and R 73, R 73 and R 74, R 74 and R 75, R 76 and R 77, R 77 and R 78, R 78 and R 79 each may be bonded to each other to form a cyclic structure; and L 17 represents a substituted or unsubstituted arylene group or a substituted or unsubstituted heteroarylene group.
A DNA molecule comprising a DNA sequence selected from: (a) a sequence with at least 95 percent sequence identity to the full length of SEQ ID NO:8, wherein the sequence has promoter activity; and (b) a sequence comprising any of SEQ ID NO:8 or 9; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. (a) a sequence with at least 95 percent sequence identity to the full length of SEQ ID NO:8, wherein the sequence has promoter activity; and (b) a sequence comprising any of SEQ ID NO:8 or 9;
An apparatus, comprising: a first microphone array in a first horizontal plane that is part of a base of the apparatus, wherein the first microphone array comprises microphones equally spaced on the perimeter of the base; a second microphone array in a second horizontal plane that is part of the head of the apparatus, wherein the first horizontal plane is different than the second horizontal plane, and wherein the base and the head are connected by a neck. a first microphone array in a first horizontal plane that is part of a base of the apparatus, wherein the first microphone array comprises microphones equally spaced on the perimeter of the base; a second microphone array in a second horizontal plane that is part of the head of the apparatus, wherein the first horizontal plane is different than the second horizontal plane, and wherein the base and the head are connected by a neck.
Shower enclosure comprising an adjusting holder (1, 401, 401'), a shower partition, a rail (200, 678), a partition wall portion, a door portion and a shower door (207, 407'), wherein the adjusting holder (1, 401, 401') is for holding and adjusting the shower partition and the shower door (207, 407') of the shower enclosure, wherein the shower partition comprises a glass pane (202, 302, 502, 602), wherein the adjusting holder (1, 401, 401') comprises an arm to span a space between the shower partition and a room wall (462, 462', 562') and to connect the shower partition with the room wall (462, 462') over this space, and a wall bracket to secure the arm to the room wall (462, 462', 562'), and wherein the adjusting holder (1, 401, 401') comprises a holding portion (8, 408') which is connected with the rail (200, 678) holding the glass pane (202, 302, 502, 602) via the partition wall portion and is connected with the shower door (207, 407') via the door portion, characterised in that the wall bracket for adjusting the shower partition comprises an adjusting mechanism (22, 36) to shift the arm along the room wall (462, 462', 562'), and that the holding portion comprises a partition wall opening to receive an edge of the glass pane (202, 302, 502, 602).
A servovalve comprising: a fluid transfer valve assembly comprising a supply port and a control port; a moveable valve spool arranged to regulate flow of fluid from the supply port to the control port in response to a control signal; and a drive assembly configured to axially move the valve spool relative to the fluid transfer assembly in response to the control signal to regulate the fluid flow; wherein the drive assembly comprises a steerable jet pipe moveable by an amount determined by the control signal to cause corresponding movement of the valve spool; the jet pipe terminating at one end in a nozzle and at the other end being in fluid flow engagement with and fixedly connected to a fluid supply torsion tube arranged to receive fluid from a fluid source, whereby movement of the valve spool is caused by fluid flowing from the nozzle to engage with the valve spool, and characterised in that the end of the torsion tube furthest from the jet pipe is fixedly attached to a slider component having a port configured to be in fluid flow engagement with the fluid source; the slider component mounted for sliding movement responsive to movement of the jet pipe responsive to the control signal, and the slider component providing a fluid flow channel between the port and the torsion tube and hence to the jet pipe.
A method of producing aromatic hydrocarbons, the method comprising: a step of supplying a raw material stream to a C6 separation column, supplying an upper discharge stream from the C6 separation column to a first gasoline hydrogenation unit, and supplying a lower discharge stream from the C6 separation column to a C7 separation column; a step of supplying an upper discharge stream from the C7 separation column to a hydrodealkylation reaction unit and supplying a lower discharge stream from the C7 separation column to a C8 separation column; a step of separating benzene from a discharge stream of the first gasoline hydrogenation unit and a discharge stream from the hydrodealkylation reaction unit; a step of removing a lower discharge stream from the C8 separation column and supplying an upper discharge stream from the C8 separation column to a second extractive distillation column; and a step of separating styrene from a lower discharge stream of the second extractive distillation column and separating xylene from an upper discharge stream of the second extractive distillation column. a step of supplying an upper discharge stream from the C7 separation column to a hydrodealkylation reaction unit and supplying a lower discharge stream from the C7 separation column to a C8 separation column; a step of separating benzene from a discharge stream of the first gasoline hydrogenation unit and a discharge stream from the hydrodealkylation reaction unit; a step of removing a lower discharge stream from the C8 separation column and supplying an upper discharge stream from the C8 separation column to a second extractive distillation column; and a step of separating styrene from a lower discharge stream of the second extractive distillation column and separating xylene from an upper discharge stream of the second extractive distillation column.
Transmitter (110-m) for transmitting payload data (112-m) via a unidirectional communication to a receiver within a time interval, comprising a means for generating a plurality of channel-coded data packets (210-n) from the payload data (112-m), each of the channel-coded data packets comprising packet core data (212-n) corresponding to a packet identification which is different for each of the plurality of channel coded data packets (210-n), and the packet core data (212-n) being coded with a channel code of a higher redundancy than the payload data (112-m), wherein the plurality of data packets comprise different coded payload data; and a means for transmitting the plurality of channel-coded data packets (210-n) to the receiver within the time interval, the means for transmitting being configured to transmit the plurality of channel-coded data packets (210-n) from the transmitter (110-m) to the receiver within the time interval without using a return channel; wherein the channel-coded data packets (210-n) are decodable by themselves at a decoder end given a sufficiently correct transmission, so as to obtain the associated payload data; wherein the means for transmitting is configured to transmit a first one of the plurality of channel-coded data packets at a random time and to subsequently transmit any remaining data packets of the plurality of channel-coded data packets within the time interval.
A body, comprising i) at least one first polymer segment having a porosity p1 and an electrical conductivity c1, and ii) at least one further polymer segment being in seamless contact with the at least one first polymer segment and having a porosity p2 ≠ p1 and an electrical conductivity c2 # c1, characterized in that the first polymer segment has an electrical conductivity c1 of at least 0.001 S/cm and wherein the further polymer segment has an electrical conductivity c2 of less than 1 × 10 -9 S/cm. i) at least one first polymer segment having a porosity p1 and an electrical conductivity c1, and ii) at least one further polymer segment being in seamless contact with the at least one first polymer segment and having a porosity p2 ≠ p1 and an electrical conductivity c2 # c1,
A starry projection lamp, comprising a shell, a control panel arranged in the shell, a laser component, a water ripple component, and a film component, wherein the lower part of the water ripple component is provided with a driving component which drives the water ripple component to move; the shell comprises a lower shell and an upper shell fastened on the lower shell; an upper part, corresponding to the water ripple component, of the upper shell is provided with a lens outer cover; the starry projection lamp is characterized that, the lower shell is hemispheric; a lower part of the lower shell is also connected with a base; a power component is arranged inside the base; the power component is electrically connected to the control panel; an upper part of the base is provided with a ring-like groove; and the shell is rotatably arranged on the ring-like groove of the base, a long-strip hole is formed in the lower shell; at least one group of stepped limiting grooves parallel to the long-strip hole are formed inside the lower shell; a fixing sheet is also arranged in the lower shell; a limiting bulge acting with the limiting grooves is arranged on the fixing sheet; and connecting pieces arranged on the long-strip hole in a penetrating manner and connected to the fixing sheet are arranged on the base.
A dental camera system for generating a representation of an object, wherein the dental camera system comprises: a) a dental camera having a housing, an optics arranged therein and an image converter, and b) an evaluation unit that cooperates with the image converter to capture the object, wherein c) the optics is a plenoptic optics configured to determine a 4D light field upon capturing the object, d) the evaluation unit is configured to calculate at least one representation (48a, 48b) of the captured object from the 4D light field, e) the optics comprises an array of optical elements (38, 40) which divides the optical path of the optics into several imaging channels arranged next to each other whose fields of view overlap partially, f) the array of optical elements (38, 40) is a lens array which comprises several lenses (38, 40), wherein each lens (38, 40) being associated with one of the image channels, and g) the lenses (36, 40) of the lens array are the only lenses (36, 40) of the optics, characterized in that h) the dental camera is an intraoral camera, and i) single lenses (36, 40) or groups of lenses of the lens array have diffractive power different from the other lenses (36, 40). a) a dental camera having a housing, an optics arranged therein and an image converter, and b) an evaluation unit that cooperates with the image converter to capture the object, c) the optics is a plenoptic optics configured to determine a 4D light field upon capturing the object, d) the evaluation unit is configured to calculate at least one representation (48a, 48b) of the captured object from the 4D light field, e) the optics comprises an array of optical elements (38, 40) which divides the optical path of the optics into several imaging channels arranged next to each other whose fields of view overlap partially, f) the array of optical elements (38, 40) is a lens array which comprises several lenses (38, 40), wherein each lens (38, 40) being associated with one of the image channels, and g) the lenses (36, 40) of the lens array are the only lenses (36, 40) of the optics, h) the dental camera is an intraoral camera, and i) single lenses (36, 40) or groups of lenses of the lens array have diffractive power different from the other lenses (36, 40).
A device, comprising: a frame, including a plurality of radio frequency shielding blocks, each block including: an electrically conductive wall configured to radio frequency shielding; an electrically conductive canopy, wherein the canopy is connected to the wall and extending transversely from the wall; at least one support element extending transversely from the wall and configured to uphold the wall, wherein the support element is configured to rest against a portion of a printed circuit board and a length of the support element is shorter than a length of the block; wherein the support element and the canopy further extend from the wall in a parallel direction and in the same direction with respect to the wall; wherein the wall is configured next to an electrical component of the printed circuit board and wherein the electrical component is configured at least partly beneath the portion of the canopy; wherein a roof, made of conductive metal tape is attached on top of the frame. an electrically conductive wall configured to radio frequency shielding; an electrically conductive canopy, wherein the canopy is connected to the wall and extending transversely from the wall; at least one support element extending transversely from the wall and configured to uphold the wall, wherein the support element is configured to rest against a portion of a printed circuit board and a length of the support element is shorter than a length of the block; wherein the support element and the canopy further extend from the wall in a parallel direction and in the same direction with respect to the wall; wherein the wall is configured next to an electrical component of the printed circuit board and wherein the electrical component is configured at least partly beneath the portion of the canopy; wherein a roof, made of conductive metal tape is attached on top of the frame.
An injection molding machine comprising: a platen to which a mold is attached; and a mold space adjustment unit that performs mold space adjustment, wherein the mold space adjustment unit includes a main body which is connected to the platen by leaving a distance in a mold opening and closing direction, and a support which supports the main body, characterized in that the support has a support guide that movably supports the platen in the mold opening and closing direction, the support is fixed to the main body, and that the support is longer than the main body in the mold opening and closing direction. a platen to which a mold is attached; and a mold space adjustment unit that performs mold space adjustment, wherein the mold space adjustment unit includes a main body which is connected to the platen by leaving a distance in a mold opening and closing direction, and a support which supports the main body, characterized in that the support has a support guide that movably supports the platen in the mold opening and closing direction, the support is fixed to the main body, and that the support is longer than the main body in the mold opening and closing direction.
A method for wireless communication, comprising receiving first configuration information from a network device, wherein the first configuration information indicates a time-domain position of a first resource in each of at least one slot, and the first resource is used for transmitting a physical downlink control channel, PDCCH; receiving second configuration information from the network device, wherein the second configuration information indicates a time-domain position of each of the plurality of time-domain units, and each of the plurality of time-domain units comprises the at least one slot; receiving third configuration information from the network device, wherein the third configuration information indicates a time-domain length of the first resource; determining the time-domain position of the first resource based on the first configuration information, the second configuration information and the third configuration information; and monitoring the PDCCH transmitted by the network device on the first resource, wherein time-domain positions of first resources in different time-domain units in the plurality of time-domain units are the same. receiving first configuration information from a network device, wherein the first configuration information indicates a time-domain position of a first resource in each of at least one slot, and the first resource is used for transmitting a physical downlink control channel, PDCCH; receiving second configuration information from the network device, wherein the second configuration information indicates a time-domain position of each of the plurality of time-domain units, and each of the plurality of time-domain units comprises the at least one slot; receiving third configuration information from the network device, wherein the third configuration information indicates a time-domain length of the first resource; determining the time-domain position of the first resource based on the first configuration information, the second configuration information and the third configuration information; and monitoring the PDCCH transmitted by the network device on the first resource, wherein time-domain positions of first resources in different time-domain units in the plurality of time-domain units are the same.
An apparatus for transmitting a preamble in a Digital Video Broadcasting, DVB, system, the apparatus comprising: at least one processor configured to: generate a modulation signaling sequence, MSS, using a plurality of sequences, modulate the generated MSS using differential modulation to generate a first sequence, generate a scrambling sequence using a pseudo random binary sequence, PRBS, scramble the first sequence by bit-by-bit multiplying the first sequence by the scrambling sequence to generate a second sequence, allocate the second sequence to a plurality of subcarriers, and convert the second sequence into the preamble on a time domain; and a transmitter configured to transmit the preamble. at least one processor configured to: generate a modulation signaling sequence, MSS, using a plurality of sequences, modulate the generated MSS using differential modulation to generate a first sequence, generate a scrambling sequence using a pseudo random binary sequence, PRBS, scramble the first sequence by bit-by-bit multiplying the first sequence by the scrambling sequence to generate a second sequence, allocate the second sequence to a plurality of subcarriers, and convert the second sequence into the preamble on a time domain; and generate a modulation signaling sequence, MSS, using a plurality of sequences, modulate the generated MSS using differential modulation to generate a first sequence, generate a scrambling sequence using a pseudo random binary sequence, PRBS, scramble the first sequence by bit-by-bit multiplying the first sequence by the scrambling sequence to generate a second sequence, allocate the second sequence to a plurality of subcarriers, and convert the second sequence into the preamble on a time domain; and a transmitter configured to transmit the preamble.
Adapter designed to connect a wiper blade to a drive arm of a windscreen wiping system for vehicles, the adapter being outfitted with at least one locking means comprising a plate at the end of which is arranged a locking pin designed to fit into a slot of a terminal portion of the drive arm, the adapter comprising a pivoting means of the locking means, the adapter comprising a portion at least partially bounding off a volume of the adapter, the locking pin comprising a front wall, a rear wall and two side walls joining the front wall to the rear wall, the locking pin comprising an appendage which prolongs the rear wall and which extends into the inside of the volume of the adapter, characterized in that the locking pin comprises a transverse flange which emerges from the front wall, and in that the adapter comprises an intermediate portion interposed between a front portion and a rear portion along a longitudinal axis of the adapter, the rear portion comprising the locking pin and the portion.