mhurhangee/ep-ind-claims huggingface dataset:
A data receiving method performed by a terminal device, comprising: receiving first control information in a first time unit, wherein the first control information indicates a first time domain resource used to send a first information block; receiving the first information block on at least a part of the first time domain resource based on the first control information; receiving second control information in a second time unit, wherein the second control information indicates a second time domain resource used to send the first information block; and receiving the first information block on the second time domain resource based on the second control information, wherein the first time unit is different from the second time unit, and the first time domain resource and the second time domain resource have an overlapping time domain resource; wherein the first information block is transmitted a total of N times, characterized in that the first control information indicates the terminal device to receive the first information block in the first time unit at an S th time; and the second control information indicates the terminal device to receive the first information block in the second time unit at an L th time, 1≤S≤N, 1≤L≤N, and S, L, and N are integers; wherein a total of M Physical Downlink Control Channels, PDCCHs, is sent to the terminal device, 1<M≤N and an i th PDCCH of the M PDCCHs schedules a transmission of the first information block in an i th time unit and in subsequent (i+1) st to N th time units. receiving first control information in a first time unit, wherein the first control information indicates a first time domain resource used to send a first information block; receiving the first information block on at least a part of the first time domain resource based on the first control information; receiving second control information in a second time unit, wherein the second control information indicates a second time domain resource used to send the first information block; and receiving the first information block on the second time domain resource based on the second control information, wherein the first time unit is different from the second time unit, and the first time domain resource and the second time domain resource have an overlapping time domain resource; wherein the first information block is transmitted a total of N times, characterized in that the first control information indicates the terminal device to receive the first information block in the first time unit at an S th time; and the second control information indicates the terminal device to receive the first information block in the second time unit at an L th time, 1≤S≤N, 1≤L≤N, and S, L, and N are integers; wherein a total of M Physical Downlink Control Channels, PDCCHs, is sent to the terminal device, 1<M≤N and an i th PDCCH of the M PDCCHs schedules a transmission of the first information block in an i th time unit and in subsequent (i+1) st to N th time units.
A bottle intended to the delivery of a liquid, pasty or solid product in which the bottle comprises: - a reservoir portion intended to contain the product, - a housing portion communicating with the reservoir portion, - an application roller for applying the product, the application roller being housed at least partly in the housing portion, by being movable in rotation, the housing portion being configured to cooperate with the application roller to regulate the delivery of the product, - a cap connected via a breakable area to the housing portion, the cap being configured to prohibit the delivery of the product before rupture of the breakable area, the inner periphery of the housing portion being provided with at least one lower protuberance and one upper protuberance shifted relative to the lower protuberance along the longitudinal axis of the bottle and in a direction towards the cap, the lower protuberance and the upper protuberance delimiting a cavity in which the application roller is at least partially housed, characterized in that the lower protuberance has an inner diameter greater than the inner diameter of the upper protuberance. - a reservoir portion intended to contain the product, - a housing portion communicating with the reservoir portion, - an application roller for applying the product, the application roller being housed at least partly in the housing portion, by being movable in rotation, the housing portion being configured to cooperate with the application roller to regulate the delivery of the product, - a cap connected via a breakable area to the housing portion, the cap being configured to prohibit the delivery of the product before rupture of the breakable area,
A charging system for an energy storage in a vehicle comprising: a plurality of parallelly arranged charging switch units (104a-d), each charging switch unit having an input terminal (106a-d) configured to be connected to a common charging port, and an output terminal (110a-d) configured to be connected to the energy storage, wherein each charging switch unit comprises a contactor configured to control a flow of current from the charging port to the energy storage, the contactor being configured to have a controllable contact force and wherein the resistance of the contactor depends on the contact force; for each charging switch unit, a measurement device configured to determine a parameter indicative of a resistance in a current path through the charging switch unit; and a charging control unit connected to each of the charging switch units and configured to, if a difference in resistance between any two of the plurality of current paths is higher than a predetermined difference threshold value, control the contact force of a contactor in a charging switch unit in a current path having a deviating resistance to balance the resistances of the current paths. a plurality of parallelly arranged charging switch units (104a-d), each charging switch unit having an input terminal (106a-d) configured to be connected to a common charging port, and an output terminal (110a-d) configured to be connected to the energy storage, wherein each charging switch unit comprises a contactor configured to control a flow of current from the charging port to the energy storage, the contactor being configured to have a controllable contact force and wherein the resistance of the contactor depends on the contact force; for each charging switch unit, a measurement device configured to determine a parameter indicative of a resistance in a current path through the charging switch unit; and a charging control unit connected to each of the charging switch units and configured to, if a difference in resistance between any two of the plurality of current paths is higher than a predetermined difference threshold value, control the contact force of a contactor in a charging switch unit in a current path having a deviating resistance to balance the resistances of the current paths.
A Haemophilus influenzae fusion protein Hin47-linker-HiD, wherein the amino acid sequence of Hin47 is the sequence shown in SEQ ID NO.1, and the amino acid sequence of HiD is the sequence shown in SEQ ID NO.3, and the linker is G4S with the sequence shown in SEQ ID NO.2. wherein the fusion protein has 790 aa and a molecular weight of 87 kD.
An external non-invasive fixator for fixing a long bone fracture of a limb comprising: proximal and distal portions (16, 18) for mounting on the limb either side of the long bone fracture, each of the proximal and distal portions (16, 18) comprising a rigid rod (32, 34) extending substantially parallel with a long axis of the limb; and an articulation member connecting the rigid rods (32, 34) that allows relative movement between the proximal and distal portions (16, 18), the articulation member comprising a first universal joint that is arranged at a level of a joint line associated with a movable joint of the limb, and a second universal joint arranged at a level of the long bone fracture, wherein the first and second universal joints (40, 42) are selectively lockable and unlockable to restrict and permit three-dimensional movement at each of the joint line and the long bone fracture, wherein one or both of the proximal and distal portions (16, 18) are in the form of a cuff which may be secured around the patient's limb. proximal and distal portions (16, 18) for mounting on the limb either side of the long bone fracture, each of the proximal and distal portions (16, 18) comprising a rigid rod (32, 34) extending substantially parallel with a long axis of the limb; and an articulation member connecting the rigid rods (32, 34) that allows relative movement between the proximal and distal portions (16, 18), the articulation member comprising a first universal joint that is arranged at a level of a joint line associated with a movable joint of the limb, and a second universal joint arranged at a level of the long bone fracture, wherein the first and second universal joints (40, 42) are selectively lockable and unlockable to restrict and permit three-dimensional movement at each of the joint line and the long bone fracture, wherein one or both of the proximal and distal portions (16, 18) are in the form of a cuff which may be secured around the patient's limb.
An in-vehicle camera, comprising: a plurality of image capturing devices (1, 2) that captures an image outside a vehicle; a disparity calculating unit that calculates disparity information from a plurality of images captured by the plurality of image capturing devices (1, 2); a distance calculating unit that calculates distance information to an object that is present outside the vehicle based on the disparity information calculated in the disparity calculating unit; and a collision determining unit that determines a probability of collision based on the distance information calculated in the distance calculating unit, the in-vehicle camera characterized by an irradiating timing determining unit that determines whether the disparity information is calculated in the disparity calculating unit within a predetermined set time and determines whether to irradiate invisible pattern light or visible pattern light to the outside of the vehicle based on the result of determination, wherein even when the disparity information is not calculated in the disparity calculating unit within the predetermined set time, if the plurality of image capturing devices (1, 2) captures an image of the irradiating region after the irradiating timing determining unit outputs a signal to irradiate the pattern light and the disparity calculating unit calculates the disparity information from the captured image data, the distance calculating unit calculates distance information from the disparity information. a plurality of image capturing devices (1, 2) that captures an image outside a vehicle; a disparity calculating unit that calculates disparity information from a plurality of images captured by the plurality of image capturing devices (1, 2); a distance calculating unit that calculates distance information to an object that is present outside the vehicle based on the disparity information calculated in the disparity calculating unit; and a collision determining unit that determines a probability of collision based on the distance information calculated in the distance calculating unit, the in-vehicle camera characterized by an irradiating timing determining unit that determines whether the disparity information is calculated in the disparity calculating unit within a predetermined set time and determines whether to irradiate invisible pattern light or visible pattern light to the outside of the vehicle based on the result of determination, wherein even when the disparity information is not calculated in the disparity calculating unit within the predetermined set time, if the plurality of image capturing devices (1, 2) captures an image of the irradiating region after the irradiating timing determining unit outputs a signal to irradiate the pattern light and the disparity calculating unit calculates the disparity information from the captured image data, the distance calculating unit calculates distance information from the disparity information.
A method of manufacturing a metal laminated substrate for forming a semiconductor element comprising the steps of: activating at least one surface of a metal plate; activating at least one surface of a metal foil made of Cu or a Cu alloy, having a thickness of not less than 7μm and not more than 50μm, which is cold-rolled at a rolling reduction of 90% or more: laminating the metal plate and the metal foil such that an activated surface of the metal plate and an activated surface of the metal foil face each other in an opposed manner and applying cold rolling to the metal plate and the metal foil which arc laminated to each other; and biaxially orienting crystals of the metal foil by heat treatment after the lamination. activating at least one surface of a metal plate; activating at least one surface of a metal foil made of Cu or a Cu alloy, having a thickness of not less than 7μm and not more than 50μm, which is cold-rolled at a rolling reduction of 90% or more: laminating the metal plate and the metal foil such that an activated surface of the metal plate and an activated surface of the metal foil face each other in an opposed manner and applying cold rolling to the metal plate and the metal foil which arc laminated to each other; and biaxially orienting crystals of the metal foil by heat treatment after the lamination. laminating the metal plate and the metal foil such that an activated surface of the metal plate and an activated surface of the metal foil face each other in an opposed manner and applying cold rolling to the metal plate and the metal foil which arc laminated to each other; and biaxially orienting crystals of the metal foil by heat treatment after the lamination.
An apparatus, comprising: a well plate including a top portion, a bottom portion, and a membrane disposed between the top portion and the bottom portion, the top portion defining a sample well and an opening in fluid communication with an opening defined by the membrane and with a reservoir defined by the bottom portion, the well plate configured to be used in a centrifugation process of a test sample including a sample material and a wash liquid, the test sample configured to be received within the sample well and the reservoir; and a collection chamber in fluid communication with the reservoir via the membrane, the bottom portion of the well plate disposed between the collection chamber and the membrane, the membrane configured to filter the wash liquid from the test sample during the centrifugation process such that the wash liquid can pass from the reservoir, through the membrane and be captured within the collection chamber while the sample material remains within the reservoir. a well plate including a top portion, a bottom portion, and a membrane disposed between the top portion and the bottom portion, the top portion defining a sample well and an opening in fluid communication with an opening defined by the membrane and with a reservoir defined by the bottom portion, the well plate configured to be used in a centrifugation process of a test sample including a sample material and a wash liquid, the test sample configured to be received within the sample well and the reservoir; and a collection chamber in fluid communication with the reservoir via the membrane, the bottom portion of the well plate disposed between the collection chamber and the membrane, the membrane configured to filter the wash liquid from the test sample during the centrifugation process such that the wash liquid can pass from the reservoir, through the membrane and be captured within the collection chamber while the sample material remains within the reservoir.
An array substrate, comprising: a base substrate; a gate electrode and a gate line, disposed on the base substrate; a first insulating layer, an active layer and ohmic contact layers, sequentially formed on the gate electrode and the gate line; a second insulating layer, formed on the base substrate on which the active layer and the ohmic contact layers are formed, and patterned by etching, whereby at least contact holes (7a,7b) are formed in the second insulating layer at positions corresponding to the ohmic contact layers; a transparent conductive thin film, comprising parts which are disposed in the contact holes (7a,7b) of the second insulating layer and a pixel electrode; a drain electrode, a source electrode and a data line, formed on the second insulating layer and the pixel electrode film, wherein the drain electrode is directly contacting the pixel electrode, characterized in that a passivation layer is formed on the drain electrode, the source electrode and the data line; and in that the transparent conductive thin film is only disposed in regions where the second insulating layer has been etched away. a base substrate; a gate electrode and a gate line, disposed on the base substrate; a first insulating layer, an active layer and ohmic contact layers, sequentially formed on the gate electrode and the gate line; a second insulating layer, formed on the base substrate on which the active layer and the ohmic contact layers are formed, and patterned by etching, whereby at least contact holes (7a,7b) are formed in the second insulating layer at positions corresponding to the ohmic contact layers; a transparent conductive thin film, comprising parts which are disposed in the contact holes (7a,7b) of the second insulating layer and a pixel electrode; a drain electrode, a source electrode and a data line, formed on the second insulating layer and the pixel electrode film, wherein the drain electrode is directly contacting the pixel electrode, characterized in that a passivation layer is formed on the drain electrode, the source electrode and the data line; and in that the transparent conductive thin film is only disposed in regions where the second insulating layer has been etched away.
A system comprising a surgical instrument having a tulip and a pedicle screw, the pedicle screw being received within the tulip, wherein the pedicle screw has a screw head, wherein the system comprises a plurality of pressure rings (19, 22, 28) each having a guide element (20, 23, 24, 29) for receiving the screw head of the pedicle screw, the guide elements (20, 23, 24, 29) being different from each other characterized in that the screw head is spherical and has guide elements (33, 34) which cooperate with the guide elements (20, 23, 24, 29) of the pressure rings (19, 22, 28), so that the selection of a pressure ring (19, 22, 28) determines whether no movement, a monoaxial movement or a polyaxial movement is permitted between the tulip and the pedicle screw. the pedicle screw has a screw head, wherein the system comprises a plurality of pressure rings (19, 22, 28) each having a guide element (20, 23, 24, 29) for receiving the screw head of the pedicle screw, the guide elements (20, 23, 24, 29) being different from each other characterized in that the screw head is spherical and has guide elements (33, 34) which cooperate with the guide elements (20, 23, 24, 29) of the pressure rings (19, 22, 28), so that the selection of a pressure ring (19, 22, 28) determines whether no movement, a monoaxial movement or a polyaxial movement is permitted between the tulip and the pedicle screw.
Electrical machine, - wherein the electrical machine has a housing, a stator and a rotor, - wherein the rotor is mounted relative to the stator, such that the rotor can be rotated about an axis of rotation, - wherein the stator surrounds the rotor radially on the outside, - wherein the housing is shrunk onto the stator from radially outside, - wherein the stator has on its radially outer periphery spring elements (8, 12, 15) which are at least partially elastically deflected radially inward during shrinking of the housing onto the stator, such that they abut the housing with a spring force, characterised in that the stator has an end plate at each of its two axial ends, the spring elements are arranged on the end plates and the spring elements are embodied as projections which extend from a flat main element of the respective end plate viewed in the axial direction away from the stator. - wherein the electrical machine has a housing, a stator and a rotor, - wherein the rotor is mounted relative to the stator, such that the rotor can be rotated about an axis of rotation, - wherein the stator surrounds the rotor radially on the outside, - wherein the housing is shrunk onto the stator from radially outside, - wherein the stator has on its radially outer periphery spring elements (8, 12, 15) which are at least partially elastically deflected radially inward during shrinking of the housing onto the stator, such that they abut the housing with a spring force,
A process for manufacturing a polyfluoroalkanoyl phosphorodichloridate, said process comprising: reacting a polyfluorinated alkanol having the general formula R f -CH 2 -OH, wherein R f is a linear or branched C 1 -C 8 perfluoroalkyl group optionally interrupted by O, with at least 4 moles of POCl 3 per mole of R f -CH 2 -OH in the presence of 0.1 to 0.2 moles of LiCl catalyst per mole of R f -CH 2 -OH at a temperature between 95°C and 110°C to form a polyfluoroalkanoyl phosphorodichloridate of the general formula R f -CH 2 -O-P Cl 2. reacting a polyfluorinated alkanol having the general formula R f -CH 2 -OH, wherein R f is a linear or branched C 1 -C 8 perfluoroalkyl group optionally interrupted by O, with at least 4 moles of POCl 3 per mole of R f -CH 2 -OH in the presence of 0.1 to 0.2 moles of LiCl catalyst per mole of R f -CH 2 -OH at a temperature between 95°C and 110°C to form a polyfluoroalkanoyl phosphorodichloridate of the general formula R f -CH 2 -O-P Cl 2.