mhurhangee/ep-ind-claims huggingface dataset:
A method of protecting a layered coating on a length of pipe for subsea use, the method comprising: applying an edge finisher (54, 70, 84) to the cut edge of the coating by moulding the edge finisher (54, 70, 84) at an edge of the coating to encase the edge of the coating; and said moulding step comprising applying a mould tool (34, 56, 72) to the length of pipe while leaving an inner wall of the mould tool (34, 56, 72) spaced from the edge of the coating to define a mould chamber (44, 68, 82) between that wall and the edge of the coating, wherein the mould tool (34, 56, 72) comprises an annular wall to define a mould cavity between the wall and the edge of the coating, an outer seal on an outer side of the annular wall sealing against the coating and an inner seal on an inner side of the annular wall sealing against the length of pipe. applying an edge finisher (54, 70, 84) to the cut edge of the coating by moulding the edge finisher (54, 70, 84) at an edge of the coating to encase the edge of the coating; and said moulding step comprising applying a mould tool (34, 56, 72) to the length of pipe while leaving an inner wall of the mould tool (34, 56, 72) spaced from the edge of the coating to define a mould chamber (44, 68, 82) between that wall and the edge of the coating, wherein the mould tool (34, 56, 72) comprises an annular wall to define a mould cavity between the wall and the edge of the coating, an outer seal on an outer side of the annular wall sealing against the coating and an inner seal on an inner side of the annular wall sealing against the length of pipe.
A method comprising: receiving sector information sent by a base station on a downlink channel, wherein the sector information includes information on multiple uplink and downlink channels available for use and frequencies of the available channels, wherein the multiple uplink channels and the multiple downlink channels are comprised in a frequency band, and wherein the sector information indicates at least one of: frequency distances between the uplink channels and frequency distances between the downlink and uplink channels; ascertaining an uplink channel based on at least one of the frequency distances indicated by the received sector information; and using the uplink channel for communication with the base station. receiving sector information sent by a base station on a downlink channel, wherein the sector information includes information on multiple uplink and downlink channels available for use and frequencies of the available channels, wherein the multiple uplink channels and the multiple downlink channels are comprised in a frequency band, and wherein the sector information indicates at least one of: frequency distances between the uplink channels and frequency distances between the downlink and uplink channels; ascertaining an uplink channel based on at least one of the frequency distances indicated by the received sector information; and using the uplink channel for communication with the base station.
Compound of the formula: characterized in that n = 1 - 8, R 5, R 6, R 7 are each independently selected from the group of C1-C3-alkoxy radicals, R 8 is selected from the group comprising alkyl, aralkyl and heteroaralkyl radicals.
A transmission method for use in a multi-hop wireless communication system comprising a base station, relay stations and a mobile station, in which wireless communication system transmission to and from the base station, to and from the relay stations and to and from the mobile station uses the same frequency band, the method comprising: performing transmission of wireless signals from a corresponding relay station to a mobile station or other relay stations during a first period of a transmission frame; performing transmission of wireless signals from a base station to the corresponding relay station during a second period of the transmission frame, after the first period; performing transmission of wireless signals from the mobile station or other relay stations to the corresponding relay station during a third period of the transmission frame, after the second period; and performing transmission of wireless signals from the corresponding relay station to the base station during a fourth period of the transmission frame, after the third period; wherein the first period is an initial period of the transmission frame and the fourth period is a final period of the transmission frame. performing transmission of wireless signals from a corresponding relay station to a mobile station or other relay stations during a first period of a transmission frame; performing transmission of wireless signals from a base station to the corresponding relay station during a second period of the transmission frame, after the first period; performing transmission of wireless signals from the mobile station or other relay stations to the corresponding relay station during a third period of the transmission frame, after the second period; and performing transmission of wireless signals from the corresponding relay station to the base station during a fourth period of the transmission frame, after the third period; wherein the first period is an initial period of the transmission frame and the fourth period is a final period of the transmission frame.
A stator assembly of an electric motor comprising: a plurality of ring structures (50A,50B) centered to an axis, each of the plurality of ring structures (50A,50B) including a ring and a plurality of cooling fins and wherein each cooling fin projects radially from the ring to a distal end of said fin and the plurality of fins are spaced apart from each other circumferentially about the ring, wherein each of the plurality of ring structures is disposed axially adjacent to another one of the plurality of ring structures (50A,50B), and wherein the plurality of fins each have an axially forward edge and a rearward edge and characterized in that the forward and rearward edges of the fins of a first ring structure of said plurality of ring structures are positioned relative to the forward and rearward edges of a second ring structure so as to form a herringbone pattern. a plurality of ring structures (50A,50B) centered to an axis, each of the plurality of ring structures (50A,50B) including a ring and a plurality of cooling fins and wherein each cooling fin projects radially from the ring to a distal end of said fin and the plurality of fins are spaced apart from each other circumferentially about the ring, wherein each of the plurality of ring structures is disposed axially adjacent to another one of the plurality of ring structures (50A,50B), and wherein the plurality of fins each have an axially forward edge and a rearward edge and characterized in that the forward and rearward edges of the fins of a first ring structure of said plurality of ring structures are positioned relative to the forward and rearward edges of a second ring structure so as to form a herringbone pattern.
A granular ceramic mixture comprising: (a) from above 0wt% to 30wt% fluid bed combustion fly ash; (b) from 15wt% to 70wt% clay; (c) from 0wt% to 35wt% feldspar; and (d) optionally, other ingredients to 100wt%. (a) from above 0wt% to 30wt% fluid bed combustion fly ash; (b) from 15wt% to 70wt% clay; (c) from 0wt% to 35wt% feldspar; and (d) optionally, other ingredients to 100wt%.
A polycrystalline silicon rod carrying tool for taking a silicon rod out of a reactor, the silicon rod being polycrystalline silicon grown on a U-shaped silicon core wire, the polycrystalline silicon rod carrying tool comprising: a tubular member for completely accommodating the polycrystalline silicon rod inside; and an air bag provided in the tubular member, wherein the air bag inflated by gas injection having an injection pressure between 0.01 MPa and 0.05 MPa to the interior presses a side of the polycrystalline silicon rod from a direction perpendicular to a plane including both pillars of the U-shaped silicon core wire so as to hold the polycrystalline silicon rod in place inside the tubular member, wherein the inner circumference surface of the tubular member has at least one pair of two planes facing each other and the air bag is provided at one of the two planes, and wherein the other of the two planes, where the air bag is not provided, includes an elastic member that comes in contact with one side of the polycrystalline silicon rod held in place in the tubular member. a tubular member for completely accommodating the polycrystalline silicon rod inside; and an air bag provided in the tubular member, wherein the air bag inflated by gas injection having an injection pressure between 0.01 MPa and 0.05 MPa to the interior presses a side of the polycrystalline silicon rod from a direction perpendicular to a plane including both pillars of the U-shaped silicon core wire so as to hold the polycrystalline silicon rod in place inside the tubular member, wherein the inner circumference surface of the tubular member has at least one pair of two planes facing each other and the air bag is provided at one of the two planes, and wherein the other of the two planes, where the air bag is not provided, includes an elastic member that comes in contact with one side of the polycrystalline silicon rod held in place in the tubular member.
A device for separating cells in fluid, comprising a first driving pump communicating with an sample injection port, a separation column, a detection column, a second driving pump for driving cells separated from the separation column to enter the detection column, and several three-way valves as well as secondary driving pumps, wherein one end of the separation column is connected with the first driving pump through a first three-way valve, the other end of the separation column is connected with the second driving pump through a second three-way valve, the detection column is connected with a third channel port of the first three-way valve, and a third channel port of the second three-way valve is connected with a sample discharge port, when a cell liquid container is detachably connected between the sample injection port and the sample discharge port, the cell liquid container together with the device forms a circulation passage, the device further comprises a main circulation conduit sequentially communicating with the sample injection port, the first driving pump, the first three-way valve, the separation column, the sample discharge port, the cell liquid container, and the sample injection port, a third three-way valve for adding anticoagulant physiological saline into the main circulation conduit is connected on the main circulation conduit, and is positioned between the sample injection port and the separation column, a fourth three-way valve for adding anticoagulant antagonist into the main circulation conduit is connected on the main circulation conduit, and is positioned between the sample discharge port and the separation column, the separation column includes at least five sub filtration columns connected in parallel, the sub filtration column comprises a fixing bracket and a track-etched membrane of polycarbonate or polyester material attached to a bottom of and a side surface all around the fixing bracket, and a pore diameter of the track-etched membrane is 5-25 μm, and the detection column comprises two portions which are detachably connected, outer sides of free ends of said two portions are both provided with liquid channel ports adapted to the conduit, a sealed hollow cavity is formed between said two portions, one or more layers of track-etched membranes of polycarbonate or polyester material are provided in the hollow cavity, and a pore diameter of the track-etched membrane is 5-25 μm.
An anti-drip device (12, 50, 62, 70, 90) for use in association with a liquid dispenser having a nozzle (10, 92), the anti-drip device (12, 50, 62, 70, 90) having an outer surface, an inner surface (32, 52), an upstream end; and a downstream end; the anti-drip device (12, 50, 62, 70, 90) being adapted to be positioned in the nozzle (10, 92), characterized in that the anti-drip device (12, 50, 62, 70, 90) has substantially identical transverse cross sections from the upstream end to the downstream end, and each of the transverse cross sections includes: an outer cross sectional dimension defining a length of the outer surface; and an inner cross sectional dimension defining a length of the inner surface (32, 52), wherein the inner surface (32, 52) is shaped such that the length of the inner surface (32, 52) is longer than the length of the outer surface, wherein the anti-drip device (12, 50, 62, 70, 90) comprises a porous member attached thereto. an outer cross sectional dimension defining a length of the outer surface; and an inner cross sectional dimension defining a length of the inner surface (32, 52), wherein the inner surface (32, 52) is shaped such that the length of the inner surface (32, 52) is longer than the length of the outer surface, wherein the anti-drip device (12, 50, 62, 70, 90) comprises a porous member attached thereto.
A method for determining whether to enable data integrity protection on a communication network, the method comprising: receiving, at a first network node of the communication network, a maximum data rate corresponding to a wireless communication device, the maximum data rate indicating a data rate up to which the wireless communication device supports integrity protection; obtaining, by the first network node, a required data rate required for a service to be established; making a determination, by the first network node, based on the received maximum data rate and the required data rate, whether to enable data integrity protection for user plane data for communication involving the wireless communication device, wherein making the determination as to whether to enable data integrity protection includes: comparing the required data rate for the service to be established to the maximum data rate corresponding to the wireless communication device; and enabling the data integrity protection in a case that the maximum data rate is higher than the required data rate; and transmitting, by the first network node, the determination to a second network node. receiving, at a first network node of the communication network, a maximum data rate corresponding to a wireless communication device, the maximum data rate indicating a data rate up to which the wireless communication device supports integrity protection; obtaining, by the first network node, a required data rate required for a service to be established; making a determination, by the first network node, based on the received maximum data rate and the required data rate, whether to enable data integrity protection for user plane data for communication involving the wireless communication device, wherein making the determination as to whether to enable data integrity protection includes: comparing the required data rate for the service to be established to the maximum data rate corresponding to the wireless communication device; and enabling the data integrity protection in a case that the maximum data rate is higher than the required data rate; and transmitting, by the first network node, the determination to a second network node.
A light emitting diode apparatus, comprising: a substrate; one or more light emitting diode disposed over the substrate; a light-transmissive encapsulation material disposed over the one or more LED; and a reflective material disposed against one or more lateral surface of the encapsulation material at an angle to a surface of the substrate such that the reflective material defines an opening where the encapsulation material is not covered by the reflective material to allow light to pass through the opening from the one or more LED; wherein the encapsulation material and the reflective material extend to edges of the substrate and form a continuous planar surface with the substrate, the opening comprises an area smaller than an area of the encapsulation material adjacent to the substrate. a substrate; one or more light emitting diode disposed over the substrate; a light-transmissive encapsulation material disposed over the one or more LED; and a reflective material disposed against one or more lateral surface of the encapsulation material at an angle to a surface of the substrate such that the reflective material defines an opening where the encapsulation material is not covered by the reflective material to allow light to pass through the opening from the one or more LED; wherein the encapsulation material and the reflective material extend to edges of the substrate and form a continuous planar surface with the substrate, the opening comprises an area smaller than an area of the encapsulation material adjacent to the substrate.
A display device (100"), comprising: a substrate having a sub-pixel area; a light-emitting diode disposed on the substrate in a reflection area of the sub-pixel area; a transistor disposed on the substrate in an emission area of the sub-pixel area; an extended light path layer disposed in the emission area and the reflection area, and being extended in a horizontal direction of the sub-pixel area; and a first reflective layer disposed on the extended light path layer in the reflection area, wherein the emission area and the reflection area are non-overlapping with each other in the sub-pixel area, wherein the transistor is configured to control the light-emitting diode and is electrically coupled to the light emitting diode, wherein the extended light path layer includes a color conversion material and overlies the transistor and the light emitting diode, and wherein the extended light path layer is configured to receive light emitted by the light-emitting diode and to guide the light emitted by the light emitting diode to the emission area overlying the transistor; wherein the light-emitting diode and the transistor are non-overlapping with each other in the sub-pixel area; and wherein the extended light path layer has a groove overlapped with the light-emitting diode. a substrate having a sub-pixel area; a light-emitting diode disposed on the substrate in a reflection area of the sub-pixel area; a transistor disposed on the substrate in an emission area of the sub-pixel area; an extended light path layer disposed in the emission area and the reflection area, and being extended in a horizontal direction of the sub-pixel area; and a first reflective layer disposed on the extended light path layer in the reflection area, wherein the emission area and the reflection area are non-overlapping with each other in the sub-pixel area, wherein the transistor is configured to control the light-emitting diode and is electrically coupled to the light emitting diode, wherein the extended light path layer includes a color conversion material and overlies the transistor and the light emitting diode, and wherein the extended light path layer is configured to receive light emitted by the light-emitting diode and to guide the light emitted by the light emitting diode to the emission area overlying the transistor; wherein the light-emitting diode and the transistor are non-overlapping with each other in the sub-pixel area; and wherein the extended light path layer has a groove overlapped with the light-emitting diode.
Method for producing a profile system comprising a connection element for connecting profile parts (2, 3), wherein the connection element has at least one first connection region for connecting to a first profile part and at least one second connection region for connecting to a second profile part, wherein the connection element has a means for conducting away liquid coating, said means being an embossed portion which spaces the connection element from the respective profile part (2, 3), wherein at least one first profile part is connected in a first connection region of the connection element to the connection element and wherein at least one second profile part is connected in a second connection region of the connection element to the connection element, characterized in that the profile system is coated after installation by means of cathodic dip coating.
A user equipment (102, 702) that communicates with a base station apparatus (160, 860) on one or more downlink bandwidth parts, DL BWPs, in a serving cell, comprising: a receiving unit configured to receive an activation command for semi-persistent channel state information-reference signal, CSI-RS, and channel state information-interference measurement, CSI-IM, resource(s) configuration, the semi-persistent CSI-RS and CSI-IM resource(s) configuration being associated with a DL BWP; the receiving unit configured to receive a deactivation command for the semi-persistent CSI-RS and CSI-IM resource(s) configuration; and a processing unit configured to: in a case that the activation command or the deactivation command is received, apply corresponding actions and user equipment assumptions no later than a minimum requirement, in a case that the associated DL BWP is deactivated, consider that the semi-persistent CSI-RS and CSI-IM resource(s) configuration is suspended, and in a case that the associated DL BWP is activated, resume the suspended semi-persistent CSI-RS and CSI-IM resource(s) configuration. a receiving unit configured to receive an activation command for semi-persistent channel state information-reference signal, CSI-RS, and channel state information-interference measurement, CSI-IM, resource(s) configuration, the semi-persistent CSI-RS and CSI-IM resource(s) configuration being associated with a DL BWP; the receiving unit configured to receive a deactivation command for the semi-persistent CSI-RS and CSI-IM resource(s) configuration; and a processing unit configured to: in a case that the activation command or the deactivation command is received, apply corresponding actions and user equipment assumptions no later than a minimum requirement, in a case that the associated DL BWP is deactivated, consider that the semi-persistent CSI-RS and CSI-IM resource(s) configuration is suspended, and in a case that the associated DL BWP is activated, resume the suspended semi-persistent CSI-RS and CSI-IM resource(s) configuration. in a case that the activation command or the deactivation command is received, apply corresponding actions and user equipment assumptions no later than a minimum requirement, in a case that the associated DL BWP is deactivated, consider that the semi-persistent CSI-RS and CSI-IM resource(s) configuration is suspended, and in a case that the associated DL BWP is activated, resume the suspended semi-persistent CSI-RS and CSI-IM resource(s) configuration.