mhurhangee/ep-ind-claims huggingface dataset:
A polyester composition comprising at least one polyester which comprises: (a) a dicarboxylic acid component comprising: i) 70 to 100 mole % of terephthalic acid residues; ii) 0 to 30 mole % of aromatic dicarboxylic acid residues having up to 20 carbon atoms; and iii) 0 to 10 mole % of aliphatic dicarboxylic acid residues having up to 16 carbon atoms; and (b) a glycol component comprising: i) 11 to 25 mole % of 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and ii) 75 to 89 mole % of 1,4-cyclohexanedimethanol residues, wherein the total mole % of the dicarboxylic acid component is 100 mole %, and the total mole % of the glycol component is 100 mole %; and wherein the inherent viscosity of said polyester is 0.75 dL/g or less as determined in 60/40 (wt/wt) phenol/tetrachloroethane at a concentration of 0.5 g/100 ml at 25°C. (a) a dicarboxylic acid component comprising: i) 70 to 100 mole % of terephthalic acid residues; ii) 0 to 30 mole % of aromatic dicarboxylic acid residues having up to 20 carbon atoms; and iii) 0 to 10 mole % of aliphatic dicarboxylic acid residues having up to 16 carbon atoms; and i) 70 to 100 mole % of terephthalic acid residues; ii) 0 to 30 mole % of aromatic dicarboxylic acid residues having up to 20 carbon atoms; and iii) 0 to 10 mole % of aliphatic dicarboxylic acid residues having up to 16 carbon atoms; and (b) a glycol component comprising: i) 11 to 25 mole % of 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and ii) 75 to 89 mole % of 1,4-cyclohexanedimethanol residues, i) 11 to 25 mole % of 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and ii) 75 to 89 mole % of 1,4-cyclohexanedimethanol residues,
Road finisher comprising: a material hopper for receiving paving material; a screed for compacting paving material; and a main control stand providing an operating location for an operator on the road finisher, wherein the main control stand comprises a floor area, wherein the road finisher comprises a lighting unit, wherein the lighting unit is arranged no more than 140 cm higher with respect to a vertical direction than the floor area of the main control stand, and wherein the lighting unit is arranged such that at least 60 percent of the light output emitted by the lighting unit during operation falls onto the floor area of the main control stand. a material hopper for receiving paving material; a screed for compacting paving material; and a main control stand providing an operating location for an operator on the road finisher, wherein the main control stand comprises a floor area, wherein the road finisher comprises a lighting unit, wherein the lighting unit is arranged no more than 140 cm higher with respect to a vertical direction than the floor area of the main control stand, and wherein the lighting unit is arranged such that at least 60 percent of the light output emitted by the lighting unit during operation falls onto the floor area of the main control stand.
A direct link data transmission method, carried out when a distributed transmission resource set overlaps a centralized scheduling resource set, the method comprising: receiving, by a first terminal device (200, 300), first configuration information sent by a network device, wherein the first configuration information comprises information about the transmission resource set, and wherein the first configuration information further comprises a first threshold and a second threshold, the first threshold is less than or equal to the second threshold, and the transmission resource set is a transmission resource set shared between a second terminal device that uses a centralized scheduling transmission mode and a third terminal device that uses a distributed transmission mode; detecting, by the first terminal device (200, 300), a load level of resource units in the transmission resource set based on the information about the transmission resource set, wherein the load level comprises a ratio of occupied resource units to all resource units; and sending, by the first terminal device (200, 300), report information to the network device based on the load level, wherein when the load level is greater than or equal to the first threshold and is less than or equal to the second threshold, the first terminal device determines to send the report information to the network device, wherein different quantities of resource units are reported for different load levels, and wherein the report information comprises information about occupied resource units and/or information about available resource units in the transmission resource set. receiving, by a first terminal device (200, 300), first configuration information sent by a network device, wherein the first configuration information comprises information about the transmission resource set, and wherein the first configuration information further comprises a first threshold and a second threshold, the first threshold is less than or equal to the second threshold, and the transmission resource set is a transmission resource set shared between a second terminal device that uses a centralized scheduling transmission mode and a third terminal device that uses a distributed transmission mode; detecting, by the first terminal device (200, 300), a load level of resource units in the transmission resource set based on the information about the transmission resource set, wherein the load level comprises a ratio of occupied resource units to all resource units; and sending, by the first terminal device (200, 300), report information to the network device based on the load level, wherein when the load level is greater than or equal to the first threshold and is less than or equal to the second threshold, the first terminal device determines to send the report information to the network device, wherein different quantities of resource units are reported for different load levels, and wherein the report information comprises information about occupied resource units and/or information about available resource units in the transmission resource set.
A rehabilitation training apparatus for an ankle joint, comprising: a working platform; a Z-axis rotating mechanism erected on the working platform and rotating around a Z axis of the working platform; a Y-axis rotating mechanism connected with the Z-axis rotating mechanism and rotating around a Y axis of the working platform; an X-axis rotating mechanism connected with the Y-axis rotating mechanism and rotating around an X axis of the working platform; and a pedal arranged on a lower end of the X-axis rotating mechanism and parallel to a desktop of the working platform, characterised in that the Y-axis rotating mechanism comprises an annular bracket vertically fastened to a driving arm of the Z-axis rotating mechanism, an annular sliding cover slidably disposed on one side wall of the annular bracket, a Y-axis driving mechanism for driving the annular sliding cover to rotate around the axis of the annular bracket, and a sliding block for securing a position of the annular sliding cover, wherein the Y-axis driving mechanism synchronously rotates with the annular sliding cover and the X-axis rotating mechanism is fastened to one side of the annular sliding cover; wherein a bracket wall of the annular bracket is radially provided with an arc-shaped long groove; a groove wall of the arc-shaped long groove is provided with a rack; and the rack engages with a driving wheel of the Y-axis driving mechanism. a working platform; a Z-axis rotating mechanism erected on the working platform and rotating around a Z axis of the working platform; a Y-axis rotating mechanism connected with the Z-axis rotating mechanism and rotating around a Y axis of the working platform; an X-axis rotating mechanism connected with the Y-axis rotating mechanism and rotating around an X axis of the working platform; and a pedal arranged on a lower end of the X-axis rotating mechanism and parallel to a desktop of the working platform, characterised in that the Y-axis rotating mechanism comprises an annular bracket vertically fastened to a driving arm of the Z-axis rotating mechanism, an annular sliding cover slidably disposed on one side wall of the annular bracket, a Y-axis driving mechanism for driving the annular sliding cover to rotate around the axis of the annular bracket, and a sliding block for securing a position of the annular sliding cover, wherein the Y-axis driving mechanism synchronously rotates with the annular sliding cover and the X-axis rotating mechanism is fastened to one side of the annular sliding cover; wherein a bracket wall of the annular bracket is radially provided with an arc-shaped long groove; a groove wall of the arc-shaped long groove is provided with a rack; and the rack engages with a driving wheel of the Y-axis driving mechanism.
An arrangement for mounting a nose cone on a gas turbine engine, the arrangement including: a plurality of bolts, a vee-block with a pair of opposed contact faces movably mounted on each bolt, with at least one of the contact faces inclined relative to the bolt; a nut engaged with each bolt below the vee-block; the arrangement characterized in that, a flange on the rear of the nose cone including a plurality of recesses circumferentially spaced therearound; a part on a mounting member connected to the gas turbine engine, the part including a plurality of recesses circumferentially spaced in a corresponding manner to the recesses of the nose cone; the recesses (52, 66) being configured to define a passage between the flange and the part when the nose cone is aligned relative to the mounting member in use; wherein in use each bolt extends through a corresponding passage and the vee-block engages with the flange and the part; at least one of the flange and the part having an inclined contact surface (54, 68) that engages with a corresponding inclined contact face of the vee-block; such that as the bolts are tightened, engagement between the contact faces of the vee-block and the contact surfaces (54, 68) respectively of the flange and part causes the flange and part to be urged towards each other, and thereby the nose cone to be urged axially towards the mounting member. a plurality of bolts, a vee-block with a pair of opposed contact faces movably mounted on each bolt, with at least one of the contact faces inclined relative to the bolt; a nut engaged with each bolt below the vee-block; the arrangement characterized in that, a flange on the rear of the nose cone including a plurality of recesses circumferentially spaced therearound; a part on a mounting member connected to the gas turbine engine, the part including a plurality of recesses circumferentially spaced in a corresponding manner to the recesses of the nose cone; the recesses (52, 66) being configured to define a passage between the flange and the part when the nose cone is aligned relative to the mounting member in use; wherein in use each bolt extends through a corresponding passage and the vee-block engages with the flange and the part; at least one of the flange and the part having an inclined contact surface (54, 68) that engages with a corresponding inclined contact face of the vee-block; such that as the bolts are tightened, engagement between the contact faces of the vee-block and the contact surfaces (54, 68) respectively of the flange and part causes the flange and part to be urged towards each other, and thereby the nose cone to be urged axially towards the mounting member.
A method of folding a stented heart valve comprising the steps of placing a stented heart valve within a flexible, semi-cylindrical folding device; and pushing the exposed side walls of the stented valve towards the center of the folding device; while simultaneously compressing the sides of the folding device.
An aqueous polymer dispersion composition comprising a stable aqueous dispersion of single-phase thermoplastic polymer particles imbibed with a thermosettable compound having at least two oxirane groups, which the thermoplastic polymer particles are characterized by having a sufficient concentration of anti-agglomerating functional groups to stabilize the latex against agglomeration, wherein the thermoplastic polymer particles being a copolymerization product of a monomer mixture comprising, based on the total dry weight of the monomer mixture (a) 35 wt.% to 71 wt.% of ethyl acrylate, (b) 30 wt.% to 60 wt.% of methyl methacrylate, and (c) 5 wt.% to 10 wt.% methylol acrylamide.
Needle insertion arrangement of an injection device, the needle insertion arrangement arranged for moving an injection needle between a retracted position and an extended position and comprising a disposable unit, comprising a needle base, to which the injection needle is fixed, the needle insertion arrangement further comprising a drive mechanism, the drive mechanism comprising: - a needle retainer adapted to retain the needle base - an actuator, - a rotatable drive pulley directly or indirectly coupled to the actuator, characterized in that the drive mechanism further comprises:- a belt adapted to engage the drive pulley and adapted to be fixed to the needle retainer, which is arranged to be moved up and down in a linear guide. - a needle retainer adapted to retain the needle base - an actuator, - a rotatable drive pulley directly or indirectly coupled to the actuator, characterized in that the drive mechanism further comprises:- a belt adapted to engage the drive pulley and adapted to be fixed to the needle retainer, which is arranged to be moved up and down in a linear guide.
An ion mobility analyser, comprising: a mobility separation cell including a set of electrodes defining an ion separation region, the mobility separation cell having an ion inlet end and an ion outlet end and a gas flow within the ion separation region, the gas flow within the ion separation region being transverse with the major axis of ion travel, at least a portion of the set of electrodes having a set of direct current potentials applied thereto to generate a DC field in the ion separation region; a gas recirculator including an inlet end opening to a location downstream of the ion separation region and an outlet end orientated such that direction of gas flow from the outlet is transverse to the major axis of ion travel and opening to a location upstream of the ion separation region, the gas recirculator having a pump for causing gas to flow from the inlet end to the outlet end; and an ion transfer tube to introduce ions, wherein the ion transfer tube is orientated such that its longitudinal axis is co-axial with the major axis of ion travel; wherein the DC field acts to oppose ion motion, such that ions are trapped within the ion separation region in axial locations determined by ion mobility; wherein at least fifty percent of the gas flow within the ion separation region is supplied by the gas recirculator; the ion mobility analyzer being characterized in that it further comprises a second chamber, the second chamber containing an ion funnel; and wherein the inlet end of the gas recirculator has an inlet opening to the second chamber. a mobility separation cell including a set of electrodes defining an ion separation region, the mobility separation cell having an ion inlet end and an ion outlet end and a gas flow within the ion separation region, the gas flow within the ion separation region being transverse with the major axis of ion travel, at least a portion of the set of electrodes having a set of direct current potentials applied thereto to generate a DC field in the ion separation region; a gas recirculator including an inlet end opening to a location downstream of the ion separation region and an outlet end orientated such that direction of gas flow from the outlet is transverse to the major axis of ion travel and opening to a location upstream of the ion separation region, the gas recirculator having a pump for causing gas to flow from the inlet end to the outlet end; and an ion transfer tube to introduce ions, wherein the ion transfer tube is orientated such that its longitudinal axis is co-axial with the major axis of ion travel; wherein the DC field acts to oppose ion motion, such that ions are trapped within the ion separation region in axial locations determined by ion mobility; wherein at least fifty percent of the gas flow within the ion separation region is supplied by the gas recirculator; the ion mobility analyzer being characterized in that it further comprises a second chamber, the second chamber containing an ion funnel; and wherein the inlet end of the gas recirculator has an inlet opening to the second chamber.
A compact broadband antenna, comprising: a folded inverted F radiator comprising: a first L-shaped radiator comprising a first radiator portion having a longitudinal axis, a first end and a first width adjacent the first end, and a second rectangular portion remote from the first end and having a longitudinal axis parallel to the longitudinal axis of the first radiator portion and a second width greater than the first width, a feed element (614, 614a) coupled to a feed source and further coupled to said L-shaped radiator intermediate the first end and the second rectangular element; a shorting element (618, 618a) coupled to ground proximate to said first end; and a capacitive coupling patch comprising a capacitive coupling radiator that is substantially coplanar with said second rectangular portion of said first L-shaped radiator, said capacitive coupling radiator having a longitudinal axis that is parallel to the longitudinal axis of said second rectangular portion of said first L-shaped radiator, wherein an axial edge of said capacitive coupling radiator is spaced apart from, and substantially parallel to, an axial edge of said second rectangular portion of said first L-shaped radiator. a first L-shaped radiator comprising a first radiator portion having a longitudinal axis, a first end and a first width adjacent the first end, and a second rectangular portion remote from the first end and having a longitudinal axis parallel to the longitudinal axis of the first radiator portion and a second width greater than the first width, a feed element (614, 614a) coupled to a feed source and further coupled to said L-shaped radiator intermediate the first end and the second rectangular element; a shorting element (618, 618a) coupled to ground proximate to said first end; and a capacitive coupling patch comprising a capacitive coupling radiator that is substantially coplanar with said second rectangular portion of said first L-shaped radiator, said capacitive coupling radiator having a longitudinal axis that is parallel to the longitudinal axis of said second rectangular portion of said first L-shaped radiator, wherein an axial edge of said capacitive coupling radiator is spaced apart from, and substantially parallel to, an axial edge of said second rectangular portion of said first L-shaped radiator.
A robot cleaner comprising: a main body defining an appearance; a moving unit for moving the main body; a cleaning module capable of being brought into contact with a floor surface at at least part of a lower surface thereof; and characterized in that the robot cleaner further comprising: a module drive unit for controlling an angle of inclination of the lower surface of the cleaning module with respect to the floor surface. a main body defining an appearance; a moving unit for moving the main body; a cleaning module capable of being brought into contact with a floor surface at at least part of a lower surface thereof; and
A method of investigating the permeability of the blood brain barrier, the method comprising: a) Exposing a blood brain barrier model to a test molecule, wherein the blood brain barrier model comprises a container comprising a structure, the structure comprising: (i) a cell population comprising endothelial cells, astrocytes and pericytes, wherein the cells are human primary derived non-immortalised cells; and (ii) a 3D (three dimensional) cell growth material within which the cell population is distributed, wherein the material is a porous polymer scaffold between about 100-300μm thick, comprising a porosity of over 90%, and wherein the pores of the scaffold are about 20-100μm in size; wherein the structure has a TEER value of at least 450 Ω/cm2; wherein the structure separates a first chamber located on a first side of the structure and a second chamber located on a second side of the structure; wherein the first chamber contains a first liquid in contact with the first side of the structure, and the second chamber contains a second liquid in contact with the second side of the structure; and b) Measuring the permeability of the blood brain barrier model. a) Exposing a blood brain barrier model to a test molecule, wherein the blood brain barrier model comprises a container comprising a structure, the structure comprising: (i) a cell population comprising endothelial cells, astrocytes and pericytes, wherein the cells are human primary derived non-immortalised cells; and (ii) a 3D (three dimensional) cell growth material within which the cell population is distributed, wherein the material is a porous polymer scaffold between about 100-300μm thick, comprising a porosity of over 90%, and wherein the pores of the scaffold are about 20-100μm in size; wherein the structure has a TEER value of at least 450 Ω/cm2; wherein the structure separates a first chamber located on a first side of the structure and a second chamber located on a second side of the structure; wherein the first chamber contains a first liquid in contact with the first side of the structure, and the second chamber contains a second liquid in contact with the second side of the structure; and wherein the structure separates a first chamber located on a first side of the structure and a second chamber located on a second side of the structure; wherein the first chamber contains a first liquid in contact with the first side of the structure, and the second chamber contains a second liquid in contact with the second side of the structure; and b) Measuring the permeability of the blood brain barrier model.