mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication method comprising: transmitting, by a base station, a signal subjected to reduction of transmission power that is reduced compared with specific transmission power of the base station; transmitting, by another base station (10B-C) neighboring the base station, information indicating a parameter relevant to the reduction of the transmission power of the base station; receiving, by a wireless terminal (20A-E), the information transmitted from the other base station (10B-C); determining, by the wireless terminal (20A-E), when the wireless terminal (20A-E) detects the signal of the base station, whether or not to transmit a reduction cancellation request to the base station based on the information and a reception level of the signal of the base station, the reduction cancellation request being used for cancelling the reduction of the transmission power in the base station; and transmitting, by the wireless terminal (20A-E), the reduction cancellation request to the base station when the wireless terminal (20A-E) determines to transmit the reduction cancellation request. transmitting, by a base station, a signal subjected to reduction of transmission power that is reduced compared with specific transmission power of the base station; transmitting, by another base station (10B-C) neighboring the base station, information indicating a parameter relevant to the reduction of the transmission power of the base station; receiving, by a wireless terminal (20A-E), the information transmitted from the other base station (10B-C); determining, by the wireless terminal (20A-E), when the wireless terminal (20A-E) detects the signal of the base station, whether or not to transmit a reduction cancellation request to the base station based on the information and a reception level of the signal of the base station, the reduction cancellation request being used for cancelling the reduction of the transmission power in the base station; and transmitting, by the wireless terminal (20A-E), the reduction cancellation request to the base station when the wireless terminal (20A-E) determines to transmit the reduction cancellation request.
A partition wall for the separation of bulk goods, with a base plate and side walls (3, 4, 5, 6), which are joined to one another with the formation of a cavity that can be at least partially filled with a filler material, at least one retaining member, which is arranged in the region of the upper edge of the partition wall and by means of which the forces impinging on a roof structure that can be arranged on the upper edge of the partition wall can be absorbed and/or dissipated, wherein a substructure is associated with each retaining member arranged in the region of the upper edge of the partition wall, wherein by means of the substructure forces transferred from a roof structure arranged on the upper edge of the partition wall to the retaining member can be forwarded onwards, characterised in that, the substructure of the at least one retaining member is formed from beams (15, 16; 15, 17), which form a supporting structure, such that the supporting structure is in the form of a ladder with horizontally and vertically arranged beams (15, 16), or is in the form of a framework with vertically and obliquely arranged beams (15, 17), and in that the at least one retaining member has a T-section.
A flow cell for a plurality of sensor assemblies to communicate with a flow meter for measuring characteristics of a fluid, the flow cell comprising: a sensor body; a sensor body bore extending through the sensor body, and through which the fluid to be measured flows; four sensor body quadrants (140, 150, 160, 170) extending outwardly from the sensor body bore; characterized by first and second ones of the sensor body quadrants (140, 150) being aligned with each other and extending on opposite sides of the sensor body bore in a plane that intersects the sensor body bore; a first plurality of sensor ports extending through the first sensor body quadrant; a second plurality of sensor ports extending through the second sensor body quadrant, wherein the first and the second plurality of sensor ports provide openings from the exterior of the flow cell to the sensor body bore in which sensor assemblies can be inserted; a first drilled cable channel extending internally within the first sensor body quadrant at least from the first plurality of sensor ports to a first access port on the exterior of the flow cell; and a second drilled cable channel extending internally within the second sensor body quadrant at least from the second plurality of sensor ports to a second access port on the exterior of the flow cell, wherein the first cable channel and the second cable channel provide openings from the sensor ports in which the cables are routed internally within the flow cell to communicate with the flow meter. a sensor body; a sensor body bore extending through the sensor body, and through which the fluid to be measured flows; four sensor body quadrants (140, 150, 160, 170) extending outwardly from the sensor body bore; characterized by first and second ones of the sensor body quadrants (140, 150) being aligned with each other and extending on opposite sides of the sensor body bore in a plane that intersects the sensor body bore; a first plurality of sensor ports extending through the first sensor body quadrant; a second plurality of sensor ports extending through the second sensor body quadrant, wherein the first and the second plurality of sensor ports provide openings from the exterior of the flow cell to the sensor body bore in which sensor assemblies can be inserted; a first drilled cable channel extending internally within the first sensor body quadrant at least from the first plurality of sensor ports to a first access port on the exterior of the flow cell; and a second drilled cable channel extending internally within the second sensor body quadrant at least from the second plurality of sensor ports to a second access port on the exterior of the flow cell, wherein the first cable channel and the second cable channel provide openings from the sensor ports in which the cables are routed internally within the flow cell to communicate with the flow meter.
A device for a biological liquid treatment installation, having a circuit comprising a plurality of connectors and a network for conveying liquid between said connectors, which circuit comprises a bag comprising two flexible films (65, 66) and said conveying network connectors, which circuit further comprises a press, characterized in that the device further comprises: - a base having a front face; - said press comprises a first shell disposed upright on said front face of said base and a second shell mounted on said first shell, said first shell and second shell cooperating with said bag to form, between said flexible films (65, 66), by entirely clamping of said bag between said first shell and said second shell, conduits of said conveying network; the two said flexible films (65, 66) of said bag being joined to each other and delimiting a zone for treatment of said liquid according to a closed outline, said conveying network connectors emerging on the inside and on the outside of at least one side (68, 69, 70) of said outline; said bag further comprising first through apertures on one side of said bag for its positioning, and said first shell comprising studs for hooking said bag to an upper part of said first shell, said hooking studs passing through said first through apertures of said bag and the second shell comprises positioning holes receiving the distal end of the hooking studs in the closed door position; said device comprises a locking system configured such that it locks together said first shell and said second shell; said bag comprises at least one second through aperture in a treatment zone of said liquid, between conducts of said conveying network, allowing clamping means of said locking system to pass through for clamping said bag in said circuit; said circuit comprises instruments (125, 126) for the treatment of said biological liquid, said instruments include at least valves to allow or prevent the passage of said liquid in said conduits, and/or sensors of physico-chemical values of said liquid, and said instruments (125, 126) are integrated into said first shell and interacts with the bag; and characterized in that first shell comprises a first connector at the back, and said base of said device comprises a second connector configured such that it connects to said first connector to power said instruments (125, 126) integrated into said first shell. - a base having a front face; - said press comprises a first shell disposed upright on said front face of said base and a second shell mounted on said first shell, said first shell and second shell cooperating with said bag to form, between said flexible films (65, 66), by entirely clamping of said bag between said first shell and said second shell, conduits of said conveying network;
A confocal fluorescence microscope which has a light source (1, 2) for emitting light to a sample, and a light guide optics system for guiding light generated as a result of applying the emitted light to the sample, to a photodetector, wherein the light guide optics system is arranged in a lightproof unit which interrupts disturbance light, and includes optical elements (21, 24, 25, 26, 34) for guiding the generated light to the photodetector; a positioning section (23, 27, 29, 33) configured to adjust a position of at least one of the optical elements (21, 26, 34); and a position detecting section configured to detect a position of at least one of the optical elements by an optical method, and the confocal fluorescence microscope comprises a position adjusting section configured to adjust positions of the optical elements (21, 26, 34) by controlling the positioning section (23, 27, 29, 33) and the position detecting section, and a light emission control section configured to control operations of starting light emission of the position detecting section when adjusting a position of at least one of the optical elements, and stopping light emission of the position detecting section when measuring the sample.
A manufacture method of an organic thin film transistor array substrate, wherein the method comprises: sequentially forming a first transparent conductive film and a source-drain metal film on a base substrate and then performing a first patterning process using a half-tone or gray-tone mask to form a first pixel electrode, a source electrode, a drain electrode and a data line, the source electrode and the drain electrode being formed of the first transparent conductive film and the source-drain metal film and the first pixel electrode being formed of the first transparent conductive film; sequentially forming an organic semiconductor film and a gate insulating film and then performing a second patterning process using a normal mask to form an organic semiconductor island and a gate insulating island, wherein both the organic semiconductor island and the gate insulating island are provided above the source electrode and the drain electrode; forming a passivation layer and then performing a third patterning process on the passivation layer to form a data pad region, wherein, in the data pad region, the passivation layer is removed to expose the data line; and sequentially forming a second transparent conductive film and a gate metal film and then performing a fourth patterning process using another half-tone or gray-tone mask to form a second pixel electrode, a gate electrode and a gate line, the gate electrode being formed of the second transparent conductive film and the gate metal film and the second pixel electrode being formed of the second transparent conductive film. sequentially forming a first transparent conductive film and a source-drain metal film on a base substrate and then performing a first patterning process using a half-tone or gray-tone mask to form a first pixel electrode, a source electrode, a drain electrode and a data line, the source electrode and the drain electrode being formed of the first transparent conductive film and the source-drain metal film and the first pixel electrode being formed of the first transparent conductive film; sequentially forming an organic semiconductor film and a gate insulating film and then performing a second patterning process using a normal mask to form an organic semiconductor island and a gate insulating island, wherein both the organic semiconductor island and the gate insulating island are provided above the source electrode and the drain electrode; forming a passivation layer and then performing a third patterning process on the passivation layer to form a data pad region, wherein, in the data pad region, the passivation layer is removed to expose the data line; and sequentially forming a second transparent conductive film and a gate metal film and then performing a fourth patterning process using another half-tone or gray-tone mask to form a second pixel electrode, a gate electrode and a gate line, the gate electrode being formed of the second transparent conductive film and the gate metal film and the second pixel electrode being formed of the second transparent conductive film.
A portable head-mounted display system for monitoring brain activity associated with the visual field of a user, comprising: a casing wearable on the head of the user; a sensor unit configured to acquire electroencephalogram signals including one or more dry electrodes attached to the casing wearable on the head of a user; a visual display unit including a display screen configured to present visual stimuli to the user in a plurality of sectors of a visual field, wherein the visual stimuli include a plurality of regions arranged in concentric rings, wherein each of the plurality of regions includes a multiple and repetitive optical flickering effect concurrently with the other regions and at a selected frequency different from the flickering frequency of the other regions, wherein the optical flickering effect at the selected frequency for the region is mapped to each sector of the visual field, and wherein the visual stimuli are configured to evoke multifocal steady-state visual-evoked potentials (mfSSVEP) in the EEG signals exhibited by the user acquired by the sensor unit; and a data processing unit configured to: generate the visual stimuli; communicate with the sensor unit and the visual display unit; analyze the acquired EEG signals; and produce an assessment of the visual field of the user, wherein the visual display unit provides whole-eye coverage and a controlled visual environment for the assessment. a casing wearable on the head of the user; a sensor unit configured to acquire electroencephalogram signals including one or more dry electrodes attached to the casing wearable on the head of a user; a visual display unit including a display screen configured to present visual stimuli to the user in a plurality of sectors of a visual field, wherein the visual stimuli include a plurality of regions arranged in concentric rings, wherein each of the plurality of regions includes a multiple and repetitive optical flickering effect concurrently with the other regions and at a selected frequency different from the flickering frequency of the other regions, wherein the optical flickering effect at the selected frequency for the region is mapped to each sector of the visual field, and wherein the visual stimuli are configured to evoke multifocal steady-state visual-evoked potentials (mfSSVEP) in the EEG signals exhibited by the user acquired by the sensor unit; and a data processing unit configured to: generate the visual stimuli; communicate with the sensor unit and the visual display unit; analyze the acquired EEG signals; and produce an assessment of the visual field of the user, generate the visual stimuli; communicate with the sensor unit and the visual display unit; analyze the acquired EEG signals; and produce an assessment of the visual field of the user, wherein the visual display unit provides whole-eye coverage and a controlled visual environment for the assessment.
A method for preparing a medical implant, comprising forming an oxidation ceramic layer on a surface of zirconium or a zirconium alloy, wherein the formation of the oxidation ceramic layer on a surface of zirconium or a zirconium alloy comprises steps of: 1) lowering a roughness of a targeted area of the zirconium or zirconium alloy on which a surface oxidization treatment is to be performed, the roughness being controlled to 0.01 μm or less; 2) performing the surface oxidation treatment by heating to a temperature in the range of 500°C to 700 °C and maintaining the temperature for 0.5-10 h in an atmosphere containing an oxidizing gas to form an oxidation ceramic surface layer; and 3) introducing an inactive gas to replace the oxidizing gas used in step 2) and initiating a cooling process to complete preparation of the oxidation ceramic surface layer without performing a subsequent treatment of lowering a roughness of the oxidation ceramic surface layer. 1) lowering a roughness of a targeted area of the zirconium or zirconium alloy on which a surface oxidization treatment is to be performed, the roughness being controlled to 0.01 μm or less; 2) performing the surface oxidation treatment by heating to a temperature in the range of 500°C to 700 °C and maintaining the temperature for 0.5-10 h in an atmosphere containing an oxidizing gas to form an oxidation ceramic surface layer; and 3) introducing an inactive gas to replace the oxidizing gas used in step 2) and initiating a cooling process to complete preparation of the oxidation ceramic surface layer without performing a subsequent treatment of lowering a roughness of the oxidation ceramic surface layer.
An arrangement for screening of cellulose pulp in several stages comprising at least two screening means (4,8) within the same apparatus, the screening means (4,8) having openings for allowing certain fractions of cellulose pulp to pass through the screening means, the screening means in turn being enclosed by a housing, the arrangement further comprising a main inlet for input of pulp to the screening arrangement, at least one outlet for output of an accept fraction of pulp from the screening arrangement, and at least one outlet for output of a reject fraction, the arrangement further comprising a first screening chamber being arranged to receive pulp from the main inlet for input of pulp, a first accept chamber being arranged to receive pulp passing through the first screening means and a second screening chamber being arranged to receive pulp at least from the first accept chamber before screening through a second screening means characterized in that the screening arrangement comprises a secondary pulp inlet for input of pulp from at least one subsequent screening arrangement (200, 300), wherein said received pulp is to be screened through the second screening means and the pulp entering the secondary pulp inlet being an accept fraction from the subsequent screening arrangement (200,300).
A silicon-oxygen compound, the silicon-oxygen compound having a formula SiO x, in which 0 < x < 2, characterized in that, the silicon-oxygen compound contains both manganese element and copper element, a content of the manganese element is from 20 ppm to 500 ppm by mass, and a mass ratio of the manganese element to the copper element is from 1 to 18.
A travelling-wave antenna (10d, 10e) for short-range applications, in particular RFID applications, comprising an elongated bipolar conductor structure (12d, 12e) with an inner conductor (14d, 14e) and an envelope conductor (16d, 16e) coaxially surrounding the same, wherein a first end of the conductor structure (12d, 12e) is provided as a connection end for connecting a transmitter and/or receiver for an antenna signal to be transmitted using the travelling-wave antenna (10d, 10e) or an antenna signal to be received by the travelling-wave antenna (10d, 10e), wherein an inner-conductor extension (24d, 24e) connected to the inner conductor (14d, 14e) is provided at a second end (22d, 22e) of the conductor structure (12d, 12e), and a free end of the inner-conductor extension (24d, 24e) is capacitively coupled to the envelope conductor (16d, 16e), and wherein the inner-conductor extension (24d, 24e) is formed separately from the inner conductor (14d, 14e) by conductor tracks on a circuit substrate board (80d, 80e), wherein a part of the inner conductor (14d, 14e) protruding out of the envelope conductor (16d, 16e) at the second end of the conductor structure (12d, 12e) is electrically connected via a soldered connection (82d, 82e) to a first of said conductor tracks, wherein the first conductor track is through-connected at the opposite end to a second conductor track arranged on the other side of the circuit substrate board (80d, 80e), which second conductor track constitutes a further section of the run of the inner-conductor extension (24d, 24e) and overlaps with its free end with the end of the envelope conductor (16d, 16e) in the longitudinal direction. wherein a first end of the conductor structure (12d, 12e) is provided as a connection end for connecting a transmitter and/or receiver for an antenna signal to be transmitted using the travelling-wave antenna (10d, 10e) or an antenna signal to be received by the travelling-wave antenna (10d, 10e), wherein an inner-conductor extension (24d, 24e) connected to the inner conductor (14d, 14e) is provided at a second end (22d, 22e) of the conductor structure (12d, 12e), and a free end of the inner-conductor extension (24d, 24e) is capacitively coupled to the envelope conductor (16d, 16e), and wherein the inner-conductor extension (24d, 24e) is formed separately from the inner conductor (14d, 14e) by conductor tracks on a circuit substrate board (80d, 80e), wherein a part of the inner conductor (14d, 14e) protruding out of the envelope conductor (16d, 16e) at the second end of the conductor structure (12d, 12e) is electrically connected via a soldered connection (82d, 82e) to a first of said conductor tracks, wherein the first conductor track is through-connected at the opposite end to a second conductor track arranged on the other side of the circuit substrate board (80d, 80e), which second conductor track constitutes a further section of the run of the inner-conductor extension (24d, 24e) and overlaps with its free end with the end of the envelope conductor (16d, 16e) in the longitudinal direction.
Underwater trampoline with a bed mounted in a frame construction, characterised in that through the structuring of the frame construction and/or through adhesion elements arranged at the frame construction the underwater trampoline can be mounted in stationary position on a support surface disposed underwater, that the bed is formed by a fabric which forms a closed surface, and that the bed consists of polypropylene.